Brick/block laying machine incorporated in a vehicle

Description

TECHNICAL FIELD

This invention belongs to the field of building construction, and relates to a pick and place machine to build a building from bricks or blocks.

BACKGROUND ART

The following discussion of the background art is intended to facilitate an understanding of the present invention only. It should be appreciated that the discussion is not an acknowledgement or admission that any of the material referred to was part of the common general knowledge as at the priority date of the application.

The inventor previously described a brick laying machine in U.S. Pat. No. 8,166,727. In practice, as described, this required a large road-going machine to implement.

An early prototype brick laying machine, based on that described in U.S. Pat. No. 8,166,727, and built by the inventor, used a chain conveyor with brick holding clamps attached to the chain. This chain moved from the base of the machine, out along a boom, to the laying head system. There was a small chain take up mechanism to take up variations in chain length due to changes in boom geometry. The take up mechanism also allowed some independence between the brick preparation and the laying, however the relatively short length of the take up mechanism meant that the brick preparation and the laying head needed to be synchronised at least some of the time. This meant that the slowest process limited the progress of bricks through the chain. Depending on the process of the current bricks being laid, either the brick preparation or the laying head could be the slowest process.

The chain followed a relatively complex path around the boom and telescopic stick so that as the telescopic stick was extended, the total chain length remained the same. The chain had brick griping clamps attached to it, so as it wrapped back and forth, it took up considerable space. If the telescopic stick had many stages, the amount of space taken up by the chain and grippers would greatly increase, making the boom and stick assembly larger than is desirable for road transport.

A brick conveyor using flat belts was investigated by the inventor. This required a substantially level orientation of the boom and telescopic stick and would require other means of moving the bricks vertically to accommodate for the change in laying height as the structure is built course by course. It was also determined that some cut bricks could be quite short compared to their height and would be unstable if transported on a flat belt conveyor. In the case of a telescopic stick and boom, dealing with excess belt length would encounter the same problems as the chain conveyor.

It is therefore an object of this invention to provide a brick laying machine that could be incorporated into a road-going vehicle, and would overcome at least some of the aforementioned problems, while maintaining the utility of the inventor's previously described machines.

Throughout the specification unless the context requires otherwise, the word “comprise” or variations such as “comprises” or “comprising”, will be understood to imply the inclusion of a stated integer or group of integers but not the exclusion of any other integer or group of integers.

In this specification the word “brick” is intended to encompass any building element such as a brick or block, to be placed during the construction of a building or wall or the like.

SUMMARY OF INVENTION

In accordance with the invention, there is provided a brick laying machine incorporated in a vehicle, said machine having a foldable boom, foldable about at least one folding axis, said foldable boom being locatable in a folded stowed position longitudinally along said vehicle, and moveable to unfolded extended positions away from said vehicle; said boom having a near end arranged for pivotal movement about a first horizontal axis located on a turret, said turret being rotatable about a vertical axis; said foldable boom having first conveying apparatus to convey bricks therealong, to a brick laying and adhesive applying head located at a remote end of the foldable boom; and having fluid conveying apparatus to convey adhesive therealong, to an adhesive applicator located in said brick laying and adhesive applying head; said machine having a carousel extending at least partially around said turret near the base thereof, said turret having second conveying apparatus to convey bricks vertically from said carousel to said first conveying apparatus, said carousel being rotatable about a vertical axis to present a brick for access by said second conveying apparatus; said machine having at least one brick machining tool located beside said stowed position and having a loading bay to receive packs of bricks; said machine having programmable brick handling apparatus to convey bricks one by one from said loading bay to said carousel, optionally via said at least one brick machining tool, as pre-programmed.

Preferably said first conveying apparatus comprises at least one shuttle equipped with a clamp to releasably hold a brick, said shuttle running along a track extending along said boom.

Preferably said foldable boom comprises a first boom element and a second boom element pivotable about a said folding axis spaced from said first horizontal axis, and parallel therewith.

Preferably each boom element has a said track and at least one said shuttle.

Preferably at least one of said first boom element and said second boom element, has further elements arranged in telescoping interconnection.

Preferably both said first boom element and said second boom element have further elements arranged in telescoping interconnection.

Preferably said elements are tubular, preferably rectangular or square in cross-section.

Preferably each element has a said track and one said shuttle arranged to run along said track, between opposed ends of each said element.

Preferably said tracks are arranged located internally inside said elements, and said shuttles run inside their respective elements.

Preferably said track runs along one side of a said boom element, and runs along an opposite side of an immediately interconnecting said boom element, so that the shuttle located in the tracks of both boom elements can locate opposite each other in order to effect transfer of a brick from the clamp of one shuttle to the clamp of the other shuttle.

Preferably a said track runs along one side of a said boom element, and runs along the same side of an adjacent said boom element connected about a said folding axis, and a pivoting shuttle equipped with a clamp to hold a brick is provided, pivoting about said folding axis, to transfer a brick between shuttles in boom elements connected about said folding axis.

Preferably said tracks in the aforementioned arrangement run along the lengths of the boom elements on the side opposite to the side where the folding axis is located.

Preferably the distal telescoping element of said first boom element is smaller in cross sectional dimensions than the interconnected element of said second boom element connected about said folding axis, and said distal telescoping element is offset relative to said folding axis, to substantially centrally align the pathway through said elements at the folding axis, when the elements are interconnected about said folding axis substantially in a straight line.

Preferably, in the shuttle in the interconnected element of said second boom element connected about said folding axis, the clamp there of includes a deviation in its arms to provide clearance for the intruding part of the distal telescoping element of said first boom element, when the elements are interconnected about said folding axis substantially in a straight line.

Alternatively, the distal telescoping element of said first boom element is different in cross sectional dimensions from the interconnected element of said second boom element connected about said folding axis, and the smaller of the elements is offset relative to said folding axis, to substantially centrally align the pathway through said elements at the folding axis, when the elements are interconnected about said folding axis substantially in a straight line. Preferably, in the shuttles in the boom elements connected about said folding axis, the clamp of the shuttle contained in the boom element having a greater cross-sectional size includes a deviation in its arms to provide clearance for the intruding part of the boom element with the lesser cross-sectional size, when the boom elements are interconnected about said folding axis substantially in a straight line.

Preferably said track runs along one side of one element, and runs along an opposite side of an immediate interconnecting telescoping element, so that the shuttles located in the tracks of both elements can locate opposite each other in order to effect transfer of a brick from the clamp of one shuttle to the clamp of the other shuttle.

Preferably the internal interconnecting telescoping elements have a void at their near ends opposite said track therein to allow their shuttles to access shuttles of outer tubular elements to enable the clamps thereof to transfer a brick there-between.

It will be understood that where there are three or more telescoping elements, the track of the first third and fifth elements will be located on one side of these elements, while the tracks of the second and fourth elements will be located on the opposite side. The shuttles will run along the length of the elements, at least as far as they have been telescopingly extended, passing a brick from one said element to the next, and so on, to effect transfer of the brick along the extent of the telescoping part of the folding boom.

At the folding axis of the two boom elements, the folding axis extends horizontally on the underside of the boom elements, and a pivoting shuttle pivots about the same folding axis. The tracks run along the top of the boom elements that are connected about the folding axis, with the clamps of the shuttles extending down away from the tracks. The clamp on the pivoting shuttle extends upward away from the folding axis. The tracks of the boom elements that are connected about the folding axis overlap in the same manner, so that a shuttle arrives at the folding junction with a brick, the pivoting shuttle clamps the brick before the shuttle moves away, the pivoting shuttle pivots as necessary to align with the next boom element and presents the brick to the shuttle in the next boom element, to effect transfer of the brick between the shuttles of the elements at the folding intersection.

Preferably the second conveying apparatus comprises a turret track extending vertically along said turret, said turret track having a shuttle with a turret shuttle clamp to clamp a brick, the shuttle conveying the brick from the carousel to the shuttle in the near end of the foldable boom.

Preferably the turret supports a brick rotating mechanism having a clamp to clamp a brick presented by said turret shuttle clamp, said brick rotating mechanism being provided to rotate a brick so that its longitudinal extent aligns with the longitudinal extent of said first boom element, for presentation to a said at least one shuttle.

Preferably the brick rotating mechanism has a clamp to clamp a brick, and is mounted about said first horizontal axis.

Preferably the carousel has a carousel clamp to clamp a brick received from the programmable brick handling apparatus. In use, the carousel is rotated to align its clamp with the clamp of the shuttle on the turret track, so the brick can be transferred from the carousel clamp to the turret shuttle clamp, before the turret shuttle transfers the brick along the turret track to reach the first shuttle of the foldable boom. Preferably the carousel clamp can pivot from a first position in which it receives a brick from the programmable brick handling apparatus to a second position in which it presents the brick to the turret shuttle clamp.

Preferably said turret, said carousel and said stowed position are located along a central longitudinal axis of said vehicle.

Preferably said at least one brick machining tool comprises a first brick machining tool including a saw located to one side of the stowed position, and a second brick machining tool including a router located to the other side of the stowed position.

Preferably said first brick machining tool includes a clamp located to clamp a brick on a side of a saw cutting blade position.

Preferably said first brick machining tool includes a clamp configured to clamp a brick on each side of a saw cutting blade position. In this manner the brick and the waste portion thereof are secured to prevent damage during the cutting action, and the cut brick and saw blade can be separated before the clamp releases the cut brick portions.

Preferably said first brick machining tool is contained in an enclosure with a cover providing access for placement and removal of a brick by said programmable brick handling apparatus.

Preferably said second brick machining tool is contained in an enclosure with a cover providing access for placement and removal of a brick by said programmable brick handling apparatus.

Preferably the second brick machining tool includes a clamp to clamp a brick, and an orientation assembly to orient the clamped brick in space to present to the router, to route slots and notches in bricks in order to chase cabling, or to mill bricks to a predetermined required height.

Preferably the router in the second brick machining tool is mounted on a tri-axis motion assembly for moving the router in any combination of movement in three dimensions. This is preferably in the x and y axes across the brick, and in the z axis into the brick.

Preferably the second brick machining tool includes a tool storage magazine spaced away from the clamp and orientation assembly and accessible by said router at a predetermined position of said tri-axis motion assembly, to access or store a routing bit or milling bit. The tool storage magazine may store a number of different bits to allow different cuts to be made by the router.

Preferably said brick laying and adhesive applying head is pivotally mounted for controlled rotation to the remote end of the foldable boom about a second horizontal axis located on a clevis, said brick laying and adhesive applying head having associated therewith a pivotable clamp to receive and clamp a brick presented by said first conveying apparatus, said pivotable clamp being pivotally mounted about said second horizontal axis; said brick laying and adhesive applying head supporting said adhesive applicator on a distal end of a tongue member, said tongue member being housed in a sheath for linear movement to extend said adhesive applicator across a brick presented by said pivotable clamp, and retract said tongue within said sheath to withdraw said adhesive applicator away from said pivotable clamp; said brick laying and adhesive applying head having a brick laying head mounted thereto by a mount located in a position away from said clevis, said brick laying head having a brick laying clamp moveable between a position to receive and clamp a brick held by said pivotable clamp, to a position in which said brick is released and laid; said sheath extending away from said second horizontal axis, and substantially along said clevis toward said mount, to provide clearance between said sheath and said brick laying head in order to allow operation without interference.

Preferably, said tongue is rigid when extended obliquely or horizontally and freely deflectable in only one dimension upwardly about horizontal axes away from said second horizontal axis only (i.e. freely deflectable upwardly but not from side to side, much in the same way as a human finger is moveable, palm facing up). This restriction in movement allows controlled application of adhesive to a surface, which typically will be disposed horizontally. Particularly it allows the adhesive applicator head to be moved linearly relative to the surface, in a controlled manner.

Preferably said sheath has a tip which is, in use located horizontally, so that said tongue extends horizontally from the tip of said sheath.

Preferably said sheath curves upwardly to extend between said mount and said second horizontal axis, and the tongue being freely deflectable about horizontal axes allows the tongue to move within said sheath.

Preferably said tongue is configured as a chain-link-type actuator, said chain-link-type actuator being linearly moveable by a driven sprocket to selectively extend and retract said tongue from said tip of said sheath.

Preferably said chain link type actuator comprises a chain having body portions attached to one side, said body portions having ends that contact ends of adjacent body portions preventing said chain folding about said horizontal axes in one direction away from a horizontal alignment of said chain.

Preferably said tongue comprises a plurality of body portions, each body portion having on a top surface at least one pivot mount with a transverse aperture extending horizontally there-through to provide a connection point for a chain link to an adjacent said pivot mount of an adjacent said body portion, each said body portion having opposed ends that contact ends of adjacent body portions, said tongue being foldable in one direction only about said transverse apertures, the opposed ends of adjacent body portions coming into contact preventing said tongue folding about said connection points in the opposite direction.

Preferably each said body portion has a channel extending longitudinally there-through, for routing services such as wiring and tubing for the transport of adhesive to said adhesive applicator. The channel may be an inverted u-channel with the pivot mounts being located on top of the web.

Preferably the channel is closed, to fully enclose said services extending longitudinally through said tongue.

Preferably there are two said pivot mounts located on top of each said body portion, one said pivot mount located near each opposed end of said body portion.

Preferably on each body portion, said pivot mounts are spaced apart from each other by the same longitudinal distance as the sum of the longitudinal distances from each to the closest end of said body portion. In this manner, the pivot mounts can form teeth of a cog on top of the assembled tongue, to be engaged by a driven sprocket to selectively extend and retract said tongue from said tip of said sheath.

Preferably the angle of the faces forming the ends of each said body portion relative to the longitudinal extent of the body portion add up to 180 degrees. Most preferably the face forming each end of each said body portion is at right angles relative to the longitudinal extent of the body portion. With either arrangement, the tongue can extend outward and be self supporting, and bendable upward only, about the chain links that interconnect them.

Preferably the pivotable clamp is mounted for rotation on the distal end of said second boom element.

Preferably said pivotable clamp is mounted on a linear sliding mount that has travel extending in a direction linearly through said second horizontal axis and normal thereto.

Preferably the brick laying head includes a robotic arm assembly with said brick laying clamp to grip and lay a brick.

Preferably the brick laying head includes a spherical geometry robot with said brick laying clamp to grip and lay a brick.

Preferably said brick laying head includes a linearly extendable arm depending downward, attached about a mount roll-axis to said mount, said mount roll-axis allowing controlled roll motion in said arm relative to said mount, said brick laying clamp being mounted for controlled motion to the end of said linearly extendible arm about a universal joint allowing controlled pitch motion and controlled roll motion in said brick laying clamp relative to said arm, and said brick laying clamp is mounted to said universal joint on a rotatable mount for controlled rotation about a yaw axis.

The mount roll-axis will normally be longitudinal relative to the extent of the boom that the brick laying and adhesive applying head is attached to, and disposed horizontally in normal operation, as controlled by a ram or the like that controls the pose of the brick laying and adhesive applying head relative to the remote end of the foldable boom.

Preferably said mount includes a mount pitch-axis allowing controlled pitch motion of said arm relative to said mount. The mount pitch-axis runs transverse to the longitudinal extent of the linearly extendable arm.

Preferably said universal joint has a first wrist-axis pivotable transverse to the longitudinal extent of said arm and a second wrist-axis disposed normal to said first wrist-axis, both wrist-axes being normal to said yaw axis.

Preferably said linearly extending arm includes a linear guide which connects with said mount for controlled linear movement to extend and retract said arm in order to move said brick laying clamp toward or away from said mount.

Preferably the brick laying clamp includes jaws that are independently moveable to clamp and unclamp a brick, and also selectively moveable in unison to offset the position of the jaws relative to the brick laying clamp. This allows the brick laying clamp to access a position to lay a brick, that may be up against an existing wall lying alongside one of the jaws of the brick laying clamp.

Preferably said brick laying machine includes a tracker component mounted to said brick laying and adhesive applying head, wherein said brick laying and adhesive applying head has said robotic arm assembly with said brick laying clamp to grip and lay a brick, and said brick laying machine uses a tracker system to measure the position of the tracker component and applies compensating movement to the robotic arm assembly to correct for variance between programmed tracker component position and measured tracker component position.

Preferably said brick laying machine includes a further tracker component supported on said brick laying clamp, and said brick laying machine uses a further tracker system to measure the position of the further tracker component and applies further compensating movement to the robotic arm assembly to correct for variance between programmed further tracker component position and measured further tracker component position

In accordance with another aspect of the invention, there is provided a machining tool for use in machining an item in an automated assembly line, said machining tool having a chassis on which a machine tool is supported, a clamp with at least one set of jaws to support an item to be machined, said at least one set of jaws being arranged for movement to adjust the position at which machining of said item takes place, an enclosure with at least one cover moveable between a closed position in which said enclosure is sealed to minimise egress of machining waste and noise and an open position in which said clamp may be accessed by a transfer arm with grippers to insert said item before a machining operation and to remove said item after said machining operation, and a dust extractor for debris removal from said enclosure, said dust extractor having an intake located in proximity to said machine tool and a suction hose to cause airflow entraining debris for removal.

Preferably said machine tool comprises a saw with a cutting blade, and said clamp is mounted on a table for sliding movement from said open position in which said clamp may be accessed by said transfer arm, through said cutting blade to cut said item.

Preferably said clamp is configured with two sets of jaws to clamp said item on each side of a saw cutting blade position. In this manner the item and the waste portion thereof are secured to prevent damage during the cutting action, and the cut item and saw blade can be separated before the clamp releases the cut brick portions.

Preferably said machine tool comprises a router mounted for sliding movement along three orthogonal axes, said clamp being located to clamp said item in proximity to said cover, and arranged to rotate said item about an axis normal to a spindle axis of said router.

Preferably said clamp is mounted to an orientation assembly to orient the clamped brick in space to present to the router, to route slots and notches in bricks in order to chase cabling, or to mill bricks to a predetermined required height.

Preferably said router is mounted on a tri-axis motion assembly for moving the router in any combination of movement in three dimensions, with one of the three axes being said spindle axis, and the other two axes being normal to each other and the spindle axis. These axes are preferably in the x and y axes across the brick, and in the z axis into the brick.

Preferably the machine tool includes a tool storage magazine spaced away from the clamp and orientation assembly and accessible by said router at a predetermined position.

Preferably said tool storage magazine is accessible by said router at a predetermined position of said tri-axis motion assembly, to access or store a routing bit or milling bit. The tool storage magazine may store a number of different bits to allow different cuts to be made by the router.

Preferably said tool storage magazine comprises a rotary magazine mounted about a horizontal axis and spaced to one side of said clamp.

The invention provides a truck mounted automated brick laying machine. In its most preferred form, the machine is configured so that the boom can be folded so that the truck is within standard road transport dimension limits for rigid body trucks, and so is able to drive on public roads without requiring any special arrangements such as wide vehicle escorts, special permits or the like.

In its most preferred form, the elements of the folded boom are telescoping, with the first boom element mounted to the truck having sufficient extension to reach the necessary elevation for the expected height of the building to be constructed, and the first boom element and second boom element preferably having sufficient combined extension to reach over the entire construction site.

When at the building site, the automated brick laying machine extends stabilising legs and unfolds the boom. A tracking system is then set up to measure the position and orientation of the laying robot on the end of the boom.

Optionally a laser scanning device fitted to the end of the boom can be moved over the slab in all areas where bricks will be laid. The scanning device scans the height and level of the slab to obtain a 3D profile. The control system compares the profile of the slab to the ideal designed shape of the slab, fits the designed slab position to the lowest measured level of the actual slab (discounting any small low areas that could be bridged by a brick) and calculates an amount and shape of material, if any, to be machined off each brick in the first course so that after being laid, the top of the bricks in the first course are level and at the correct height.

The boom tip is moved to automatically or semi automatically scan a concrete slab. The location of the automatic brick laying machine and the concrete slab is used to set working coordinate systems for the construction of a structure. The scan of the slab is also used to calculate machining of the bricks laid in the first course of the structure to correct for variations in the height, level and flatness of the slab.

Packs of bricks are loaded at the rear of the truck. Robotic equipment de-hacks (unpack) the bricks and moves them optionally to or from an automated saw, an automated 5 axis CNC router with automatic tool-changer or to a carousel that then transports the bricks to a slewing, articulated and telescopic foldable boom. The bricks are passed from one shuttle to another along the boom to an automated adhesive application robot that applies adhesive to the bricks.

A robotic flipper then inverts the brick and then a spherical geometry robot grasps the brick and lays it on a structure being built. The structure is built course by course. The automated brick laying machine uses a tracking system to measure the position of the tip of the boom and applies compensating movement to the spherical geometry robot so that the brick is laid in the correct 3D position.

The boom is provided with lifting hooks to assist with the manual placement of items such as lintels, door frames and window frames. Optionally the spherical geometry robot can automatically place items other than bricks such as lintels, door frames and window frames.

The router is used to rout grooves in bricks so that when the bricks are placed in the structure the grooves line up ready for the following insertion of pipes and or cables. The router may be used to sculpt bricks. The router may be used to machine the top or bottom of bricks to allow for height correction of a course or in particular to machine the first course bricks to correct for the variation of height, flatness and level in a slab or the footings.

The automated saw is used to cut bricks to length or to cut bevels. This allows the bricks to be laid in standard or intricate patterns.

A software control system is used to control the automated brick laying machine. The software control system is cognisant of which brick is being placed in which location, and the bricks are machined or cut according to their predetermined locations. Bricks can be machined in order to provide chasing for plumbing, electrical wiring and other services.

The automated brick laying machine has computerised vision systems and/or physical measuring probes to measure the bricks and check for quality, size and geometric shape, thereby allowing the machine to automatically reject damaged or sub-standard bricks and automatically apply corrections to accurately lay bricks of sightly varying tolerance of shape or dimension.

BRIEF DESCRIPTION OF DRAWINGS

A preferred embodiment of the invention will now be explained in the following description made with reference to the drawings, in which:

FIG. 1 shows a view of the automated brick laying machine 2 with its truck base 1 with the boom and stick assembly 141 unfolded.

FIG. 2 shows a view of the automated brick laying machine 2 with the boom and stick assembly 141 folded and stowed for driving on a public road.

FIG. 3 shows a site plan of the automated brick laying machine 2 set up near a concrete slab 136 on which the automated brick laying machine 2 will build a structure not shown.

FIG. 4 shows a view of the truck 1 and the main frame 3 of the automated brick laying machine 2.

FIG. 5 shows a plan view of the automated brick laying machine 2.

FIG. 6 shows details of the enclosure 7 of the automated brick laying machine 2.

FIG. 7 shows the first de-hacker bay 49.

FIG. 8 shows the enclosure frame 63 and items attached to it.

FIG. 9 shows a side view of the saw 46.

FIG. 10 shows a side view of the router 47.

FIG. 11 shows a cross section through the first stick 15 and second stick 17.

FIG. 12 shows a side view of the brick laying and adhesive applying head 32.

FIG. 13 shows a plan view and schematic diagram of the glue application system 150.

FIG. 14 shows a side view of a slab 136 with a first course 163 of a plurality of bricks 159, 160, 161, 162, 163.

FIG. 15 shows a view of the carousel 48.

FIG. 16 shows a view of the transfer robot 64.

FIG. 17 shows a view of the tower 10.

FIG. 18 shows a side view cross section of first boom 12.

FIG. 19 shows an end view cross section of first boom 12.

FIG. 20 shows a view of first boom 12.

FIG. 21 shows a view of shuttle-B1224.

FIG. 22 shows a side view of shuttle-B1224.

FIG. 23 shows a view of the tip end of boom 12 and a drive assembly 254.

FIG. 24 shows a view of the tower—first boom (T-B1) rotator 271 and the tower 10 and first boom 12.

FIG. 25 shows a view of the tower—first boom (T-B1) rotator 271.

FIG. 26 shows a view of the saw 46 fitted with an enclosure 100.

FIG. 27 shows a view of the saw 46 with the enclosure 100 not shown for clarity.

FIG. 28 shows a view of the saw clamping mechanism 94.

FIG. 29 shows a view of the saw clamping mechanism 94.

FIG. 30 shows a view of the router module 47.

FIG. 31 shows a view of the router module 47 with its enclosure 364 removed for clarity.

FIG. 32 shows a view of the router module 47 with its enclosure 364 removed for clarity.

FIG. 33 shows a view of the router module enclosure 364.

FIG. 34 shows a view of trunnion 414. The trunnion 414 is part of the router module 47.

FIG. 35 shows a cross section of trunnion 414.

FIG. 36 shows the router moving column 463.

FIG. 37 shows a view of the router carriage 480 and ram 487.

FIG. 38 shows a view of the router carriage 480 and ram 487.

FIG. 39 shows a view of the second boom 14.

FIG. 40 shows a view of the second end 526 of second boom 14.

FIG. 41 shows a view of the second end 526 of second boom 14.

FIG. 42 shows a cross section side view of the second end 526 of second boom 14.

FIG. 43 shows a view of the first end 525 of second boom 14.

FIG. 44 shows a view of the rotator-B2-S1548.

FIG. 45 shows a view of the first stick 15.

FIG. 46 shows a view of the first end 561 of the first stick 15.

FIG. 47 shows a view of the second stick 17.

FIG. 48 shows a view of the first end 598 of the second stick 17.

FIG. 49 shows a view of the second end 599 of the second stick 17.

FIG. 50 shows a view of the third stick 18.

FIG. 51 shows a view of the first end 618 of the third stick 18.

FIG. 52 shows a view of the second end 619 of the third stick 18.

FIG. 53 shows a view of the fourth stick 19.

FIG. 54 shows a view of the first end 637 of the fourth stick 19.

FIG. 55 shows a view of the second end 638 of the fourth stick 19.

FIG. 56 shows a view of the fifth stick 20.

FIG. 57 shows a view of the first end 657 of the fifth stick 20.

FIG. 58 shows a view of the second end 658 of the fifth stick 20.

FIG. 59 shows a view of the second end 658 of the fifth stick 20.

FIG. 60 shows a view of the flipper assembly 687.

FIG. 61 shows a view of the flipper assembly 687.

FIG. 62 shows a view of the brick laying and adhesive applying head 32.

FIG. 63 shows a view of the first boom 12.

FIG. 64 shows a cut-away view of first boom 12 and second boom 14.

FIG. 65 shows a side view of the boom assembly 732 showing internal cable chains.

FIG. 66 shows a side view of the boom assembly 732 showing internal cable chains.

FIG. 67 shows a side view of the boom assembly 732 showing internal cable chains.

FIG. 68 shows a view of the stick assembly 744 showing extension cable.

FIG. 69 shows a view of the stick assembly 744 showing retraction cable.

FIG. 70 shows a view of the stick assembly 744 showing retraction cables.

FIG. 71 shows a view of the adhesive applicator 777.

FIG. 72 shows a view of the sliding chain 114.

FIG. 73 shows a view of a hollow chain link 778.

FIG. 74 shows a top view of straight guide 784.

FIGS. 75 and 75A each show a side view of the brick laying and adhesive applying head 32 and fifth stick 20.

FIGS. 76A-76E show side views of the foldable boom in various poses.

FIGS. 77A-77G show a sequence of a brick being transferred from the tower 10 to the T-B1 rotator 271 to first boom 12.

FIGS. 78A-78G show a sequence of a brick being transferred from the second boom 14 to the B2-S1 rotator 548 to the first stick 15. In the FIGS. 78A to 78G the foldable boom 732 is in a bent pose.

FIGS. 79A-79D show a sequence of a brick being transferred from the second boom 14 to the B2-S1 rotator 548 to the first stick 15. In the FIGS. 79A to 79D the foldable boom 732 is in a horizontal pose.

FIGS. 80A-80Q show a sequence of a brick being transferred from the fifth stick 20, to the S5-H flipper 687, having adhesive applied to the brick, then the brick being transferred to the laying gripper 44 and being laid.

FIG. 81 shows a close up of the tower shuttle 186 at the top of tower 10.

FIG. 82 shows a side view of first boom element 12 and in particular the transfer of a brick from shuttle-B1224 to shuttle-B2531.

FIG. 83 shows a cut away view of part of the brick laying and adhesive applying head and showing the mounting of the brick laying head.

FIG. 84 shows a further view of part of the brick laying and adhesive applying head and showing the mounting of the brick laying head.

FIG. 85 shows a cut away view of part of the brick laying head.

DESCRIPTION OF THE PREFERRED EMBODIMENT

Referring to FIG. 1, a truck 1 supports a brick laying machine 2 which is mounted on a frame 3 on the chassis (not shown) of the truck. The frame 3 provides additional support for the componentry of the brick laying machine 2 beyond the support that would be provided by a typical truck chassis. Referring also to FIG. 5, the frame 3 supports packs or pallets of bricks 52, 53. De-hacker robots can take rows of bricks off the pallets and place them on a platform 51. A transfer robot can then pick up an individual brick and move it to, or between either a saw 46 or a router 47 or a carousel 48. The carousel is located coaxially with a tower 10, at the base of the tower 10. The carousel 48 transfers the brick via the tower 10 to an articulated (folding about horizontal axis 16) telescoping boom comprising first boom element in the form of telescopic boom 12, 14 and second boom element in the form of telescopic stick 15, 17, 18, 19, 20. Each element 12, 14, 15, 17, 18, 19, 20 of the folding telescoping boom has a shuttle located inside on a longitudinally extending track in the element, to transport a brick along the longitudinal extent of the element. The bricks are moved through the inside of the folding telescoping boom by the linearly moving shuttles. The shuttles are equipped with grippers that pass the brick from shuttle to shuttle. Referring to FIG. 4, elements 15 and 17 are shown, showing tracks 25 supporting shuttle 26 running along the length of element 17, and showing tracks 29 supporting shuttle 30 running along the length of element 15. Shuttle 26 has jaws 27 and shuttle 30 has jaws 31, which alternately can grip a brick 298. When the shuttles 27 and 30 are coincident both sets of jaws 27 and 31 can grip the brick 298 as the brick is passed from one shuttle 26 to the other shuttle 30.

The end of the boom is fitted with a brick laying and adhesive applying head 32. The brick laying and adhesive applying head 32 mounts by pins (not shown) to element 20 of the stick, about an axis 33 which is disposed horizontally. The poise of the brick laying and adhesive applying head 32 about the axis 33 is adjusted by double acting hydraulic ram 35, and is set in use so that the base 811 of a clevis 813 of the robotic arm 36 mounts about a horizontal axis, and the tracker component 130 is disposed uppermost on the brick laying and adhesive applying head 32. The brick laying and adhesive applying head 32 applies adhesive to the brick and has a robot that lays the brick. Vision and laser scanning and tracking systems are provided to allow the measurement of as-built slabs, bricks, the monitoring and adjustment of the process and the monitoring of safety zones. The first, or any course of bricks can have the bricks pre machined by the router module 47 so that the top of the course is level once laid.

For ease of understanding, headings will be used in the following discussion.

Truck

Referring again to FIG. 1, a vehicle in the form of a rigid body truck 1 is used as a base for the automated brick laying machine 2. In the preferred embodiment the truck 1 is a 8×8, 8×6 or 8×4 rigid body truck manufactured for example by Volvo, Mercedes, Iveco, MAN, Isuzu or Hino. The truck has a typical driver's cabin 54. In an alternative arrangement, a semi-trailer intended for connection to a prime mover using a fifth wheel, may be used instead of a rigid body truck. The brick laying machine 2 could be mounted on a trailer, but this removes the convenience of having it truck mounted.

Frame

A frame 3 forming a rigid chassis is mounted to the truck. The frame 3 supports a pair of forward legs 4 and a pair of aft legs 5, one of each pair on each side of the truck. The legs 4 and 5 can telescopically extend outwardly, and hydraulic rams then push down feet 6 to provide stability to the automated brick laying machine 2. In practice, the hydraulic rams will adjust by positioning the feet 6 so that the frame 3 and hence the rigid body truck 1 is positioned horizontally. This results in correct vertical alignment of the vertical axis 9 and the tower 10 which are described hereafter. It follows then, that this correct alignment ensures that, subject to deflection tolerances, the axis 33 at the end of the element 20 is horizontal, and then with correct adjustment of the poise of the brick laying and adhesive applying head 32 by the ram 35, the base 811 of a clevis 813 of the robotic arm 36 mounts about a horizontal axis, and the tracker component 130 is disposed uppermost on the brick laying and adhesive applying head 32.

An enclosure 7 forming an outer body is mounted to the frame 3. The enclosure 7 provides some weather protection, noise isolation and guarding of moving parts. Referring to FIGS. 1, 2 and 6, the enclosure 7 is fitted with a pair of doors 85, 86 that are open when the boom 12 and stick 15 are folded. When the boom 12 and stick 15 are unfolded, the top doors 85, 86 are closed by moving door 85 to the right 87 and door 86 to the left 88 to provide a first level of rain protection and noise isolation.

Referring to FIGS. 2, 4, 5, the frame 3 supports a fold down platform 8 at its rear end. The fold down platform 8 is mounted at its lowermost extent to the frame 3 on hinges and is moved by electric or hydraulic rams (not shown) from the raised vertical position illustrated in FIG. 2 to the lowered horizontal position shown in FIG. 4. The fold down platform 8 is provided, when it is in the horizontal position, to receive packs of bricks 52, 53 that are placed on it by a telehandler or fork lift truck.

Layout

Referring to FIG. 5, the frame 3 has a brick saw module 46 mounted on the left hand side of the central longitudinal axis of the truck 1, and has a router module 47 mounted on the right hand side of the central longitudinal axis of the truck 1. Reference to left hand side and right hand side is in the same context as used with reference to a vehicle being left hand drive or right hand drive. The frame supports a carousel 48 in the center of the frame, located toward and behind the driver's cabin 54 of the truck 1. The frame has a chute 76 located to the right of the transfer platform 51, for disposal of reject bricks.

The invention could be arranged in a mirror image about the vertical centreline without deviating from the inventive concepts described.

Referring also to FIG. 8, the enclosure 7 has an enclosure frame 63. The enclosure frame 63 supports a programmable brick handling apparatus in the form of a transfer robot 64.

Services

A large capacity electric generator (not shown) is mounted to the truck 1 chassis or the frame 3 and is driven by the IC engine (not shown) of the truck 1. The generator provides power to the electrical system of the automated brick laying machine 2.

Referring to FIG. 5, the frame 3 supports a dust extraction system 79. The frame 3 also supports a refrigerated liquid coolant refrigerator 83 and pump 84. The liquid coolant system 85 is used to cool electronic components and electric motors (not shown). The frame 3 also supports an electrical and controls cabinet 82.

Scraper

Referring to FIG. 5, the frame 3 supports a first scraper 55 and a second scraper 56. The scrapers are provided to shift packs of bricks placed on the fold down platform 8 onto a first de-hacker bay 49 and a second de-hacker bay 50 located on the rear of the frame 3, immediately adjacent the fold down platform 8.

Each scraper 55, 56 has an extending arm 57 that moves out past the bricks on the fold down platform 8 and then is lowered and then the first scraper 55, drags the first pack of bricks from the fold down platform 8 into the first de-hacker bay 49.

Alternatively, a single scraper not shown could be provided with an arm that swings to a side or the opposite side to be able to drag bricks from either de-hacker bay.

Transfer Platform

The frame supports a transfer platform 51, immediately forward of the first de-hacker bay 49 and the second de-hacker bay 50. The transfer platform 51 is provided to temporarily place bricks for further processing.

De-Hacker

In typical operation, a first de-hacker bay 49 is loaded with external bricks 52 that may be used for the external walls of a structure being built. The second de-hacker bay 50 is loaded with internal bricks 53 that may be used for the internal walls of the structure being built, in a double brick style construction. Either de-hacker bay 49, 50 may be loaded with any type of bricks that are to be used for a structure being built, since the placement of the bricks is a matter for programming. In a single brick construction where internal framework is to be added manually afterwards, both de-hacker bays would accommodate the same type of brick. It should be noted that the present invention enables construction of brick walls significantly faster and usually at a cost below that of internal framed walls, so in most applications, the present invention would be used to build all of the walls of a structure.

Referring to FIG. 7, each de-hacker bay 49, 50 is provided with a five axis Cartesian de-hacker robot 58 fitted with a gripper 59 to pick up a brick or a row of bricks. Each de-hacker bay 49, 50 is provided with a camera 60 for a machine vision system 61 to measure the position and location of the top layer of bricks not shown in the de-hacker bay 49. The machine vision system 61 may also detect defects in the bricks. The bi-rotary wrist 62 of the de-hacker robot enables bricks to be gripped and then re oriented. It also allows brick packs to be oriented in either direction and to correct for mis-alignment. For example, bricks that are packed laying down can be stood up before they are placed on the transfer platform 51.

Each de-hacker robot 58 can pick up a row of bricks from a pack of bricks, or pick up a single brick, and move it to the transfer platform 51.

Transfer Robot

Referring to FIG. 5 and FIG. 8, the transfer robot 64 moves a brick between the transfer platform 51 and optionally to or from the saw 46 and/or router 47, to the carousel 48, or optionally to the chute 76.

Additionally, referring to FIG. 16, the transfer robot 64 picks up single bricks 65 from the transfer platform 51. The transfer robot 64 is a Cartesian robot with five axes and a gripper 66 fitted to it. The transfer robot 64 has longitudinal rails 67, 68 mounted above the saw and router and fastened to the enclosure frame 63. The transfer robot 64 has a transverse gantry 158 which slides in a longitudinal direction 69. The gantry 158 slideably supports a carriage 153 that moves transversely, the carriage 153 slideably supports a tee column 151 that slides vertically. The tee column 151 slideably supports a carriage 152 that slides longitudinally. The tee column 151 allows the carriage 152 and the bi rotary wrist 154 to be moved beyond the longitudinal position that could be reached by a wrist not shown mounted directly to a vertical column not shown in place of the tee column 151. The carriage 152 supports a bi rotary wrist 154 that can slew and tilt the gripper 66.

The transfer robot 64 may perform a number of operations. Most frequently the transfer robot 64 picks up a brick 65 from the transfer platform 51 and delivers it to a gripper mounted on a carousel 48 which can rotate around a slewing ring 11. Alternatively, the transfer robot 64 may pick up a brick 65 from the transfer platform 51 and deliver the brick 65 to the table 70 of the saw module 46. Alternatively, the transfer robot 64 may pick up a brick 65 from the transfer platform 51 and deliver it to the gripper 72 of the router module 47. Alternatively, the transfer robot 64 may pick up a cut brick 73 from the saw module 46 and transfer it to the gripper 74 of the carousel 48. Alternatively, the transfer robot 64 may pick up a brick 65 from the router 47 and move it to the gripper 74 of the carousel 48. Alternatively, the transfer robot 64 may pick up a brick off cut 75 or broken or damaged brick and deliver it to a brick rejection chute 76 (shown in FIG. 5). The brick rejection chute 76 may optionally be fitted with a brick crushing device to reduce the volume of brick waste.

Saw

Refer to FIGS. 26, 27, 28, 29 for details of the saw 46 module. The saw module 46 has a rotating blade 93 mounted from its base 300. A sliding table 70 supports a brick and moves the brick against the saw. The brick is held to the table 70 by a clamp assembly shown generally in FIGS. 28 and 29. For compactness, the clamp moves up and down 99 and also back and forth 96 so that it can be moved forward when a brick is being placed onto the table or picked up by the transfer robot. For smooth motion the table is supported on linear guide rails 301, 302, 303, 304 and moved by a servo motor and belt assembly. A detailed description follows.

Table

Referring to FIG. 27 in particular, the saw 46 has a base plate 300, which is supported on the frame 3. The base plate 300 is fitted with linear guides 301, 302, 303, 304. The linear guides 301, 302, 303, 304 respectively support bearing cars (not shown) which support the moving table 70. The moving table 70 is fitted with a drive bracket 310. The base plate 300 supports a gearbox 305 which supports a servo motor 306. Servo motor 306 drives the input of the gearbox 305. Gearbox 305 has an output shaft (not clearly visible) which is fitted with a pulley 307. The base plate 300 supports an idler pulley 308. A toothed belt 309 is wrapped around pulleys 307 and 308 with its ends fastened to the drive bracket 310. The servo motor 306 drives the gearbox 305 which drives the pulley 307 which drives the belt 309 which moves the table 70 to a predetermined position in which a brick is to be cut, and through the blade 93 to complete a cutting operation.

Saw Blade

The base plate 300 supports a bracket 311 which supports a motor 312 which drives a pulley 313. The base plate supports a bearing housing 314. The bearing housing rotatably supports a shaft 315. The shaft 315 has a saw blade 93 fastened to it and a pulley 316 fitted to the opposite end of the shaft 315. A belt 317 wraps around pulleys 313 and 316. The motor 312 drives pulley 313 which drives belt 317 which drives pulley 316 which turns shaft 315 which rotates the saw blade 93. The saw blade 93 rotates about a horizontal axis 95 transverse to the truck 1.

The saw mechanism could be replaced with a band saw, reciprocating saw, a vibrating saw or a chain saw.

Clamp

Referring to FIG. 27, the moving table 70 is fitted with a clamping mechanism 94 for the clamping of bricks. The moving table 70 supports a column 318, on which the clamping mechanism 94 is placed. Referring to FIG. 28, the column 318 supports a top plate 319 and a lower bearing housing 324 which supports a bearing 325. Top plate 319 supports a servo motor 320 to drive a vertical leadscrew 323. Servo motor 320 is fitted with a toothed pulley 321. The top plate 319 provides a housing for a bearing 322 which rotatably supports a vertical lead screw 323 at its top end and the bottom end of the leadscrew 323 is supported by the bearing 325 in the lower bearing housing 324. The leadscrew 323 is fitted with a pulley 326. An endless toothed belt 327 is wrapped around pulleys 321, 326. Referring to FIG. 29 and FIG. 28, column 318 supports a vertically disposed linear guide 328. Linear guide 328 supports a bearing car 329 for vertical movement therealong. The bearing car 329 supports a mount plate 330 which supports a bearing car 331 and lead screw nut 342. Lead screw nut 342 is engaged with lead screw 323. Bearing car 331 supports a clamp frame 332 for horizontal movement.

Servo motor 320 rotates pulley 321 which moves belt 327 to drive pulley 326 which rotates the leadscrew 323 to vertically move the clamp frame 332. Referring additionally to FIG. 9 and FIG. 27, the clamping mechanism 94 has a first linear axis 96 parallel to the truck 1 longitudinal axis and this allows the clamping jaws 97 to be moved horizontally so that the transfer robot 64 can access a brick on the table 70. The clamping mechanism 94 has a second vertical axis 99 that allows the clamping jaws 97 to be moved down toward the table 70 (down the column 318) to clamp the brick 98 to the table 70.

Refer to FIG. 29, clamp frame 332 is provided with a slot 333 to allow it to pass the saw blade 93 (shown in FIG. 27). Clamp frame 332 is fitted with rubber pads 334, 335, adjacent to the sides of the slot 333, so that the rubber pads 334, 335 may contact and securely clamp to the top face of a brick 98 (shown in FIG. 9). Referring to FIG. 28, clamp frame 332 supports a gearbox 336 which supports a servo motor 335′. Servo motor 335′ drives the input of the gearbox 336. The output of the gearbox 336 is fitted with a pulley 337. Clamp frame 332 supports idler pulleys 338, 339, 340. Mount plate 330 supports a belt clamp plate 341. A toothed belt 342′ wraps around pulleys 337, 338, 339, 340 and is clamped at both ends by belt clamp plate 341 to mount plate 330. Servo motor 335′ drives the gearbox 336 to rotate the pulley 337 which moves the toothed belt 342′ to move the clamp frame 332 horizontally relative to the column 318.

Cable Chains

Cable chains are used to route power and signals to the servo motors.

Column 318 supports a cable bracket 343. A cable chain 344 has its first end 348 fastened to the enclosure 100 (shown in FIG. 26). Cable bracket 343 at its top end supports the second end of cable chain 344. Cable bracket 343 also supports a first end of a cable chain 345. Mount plate 330 supports a cable bracket 346. Referring to FIG. 29, the second end of cable chain 345 is fastened to cable bracket 346. Cable bracket 346 supports a first end of a cable chain 347. The second end of cable chain 347 is fastened to the clamp frame 332. Electrical cables are routed through cable chain 344 to servo motor 320 and then through cable chain 345 and 347 to servo motor 335′ (shown in FIG. 28).

Enclosure

Referring to FIG. 26, an enclosure 100 is provided around the saw to contain dust. The enclosure 100 has an opening door 354 to allow the delivery or removal of a brick by the transfer robot 64. The opening door 354 slides back and forth along linear guides 348 and 349.

The base plate 300 is provided with an enclosure 100. Enclosure 100, on its top, supports linear guide 348 and on its inner side it supports linear guide 349. Linear guide 348 slideably supports bearing cars 350, 351, (shown as hidden lines in FIG. 26). Linear guide 349 slideably supports bearing cars 352, 353 (shown as hidden lines in FIG. 26). Bearing cars, 350, 351, 352, 353 support a door 354. Enclosure 100, supports a motor mount plate 356 to support a servo motor 355. Servo motor 355 is fitted with a pulley 357. Enclosure 100 also supports an idler pulley 358. A belt 359 is wrapped around pulleys 357, 358. The ends of belt 359 are fastened to the door 354 with a clamp plate 360. Servo motor 355 drives pulley 357 which moves the belt 359, which moves the door 354.

When the door 354 is in its closed position 361, the door 354 contains brick dust and noise within the enclosure 100. When the door is in an open position 362, it allows access for the transfer robot 64 to reach inside the saw 46 to place a brick 73 on the moving table 70. The saw blade 93 rotates partially within a guard and dust extraction hood 101 (also shown in FIG. 9) that is connected to a pipe 102 that is connected to the dust extractor 79 (see FIG. 5).

Router

Refer to FIGS. 30, 31, 32, 33, 34, 35, 36, 37, 38 for details of the router module 47.

5 axis CNC routers and 5 axis CNC machining centers are known in engineering and manufacturing. The router module 47 of the embodiment has a layout that is particularly compact in relation to the size of the brick being machined and compact in relation to the travel of the spindle. The layout of the router 47 has the advantage that the tool magazine 391 is easily accessed from the side of the truck 1. The router has the advantage that the brick gripping mechanism 72 (see FIG. 34) is integrated directly onto the rotary orientation mechanism. A hopper 80 (see FIG. 30) is provided to collect brick dust and direct it towards a dust extraction suction hose. Moving parts of the router tool 90 are screened to isolate them from brick dust which may be abrasive and cause wear of machine parts.

Referring to FIG. 30, to obtain a narrow width of the router module 47, the tool magazine 391 of the router module 47 is mounted concentrically with the trunnion axis 454 (see FIG. 34), between the rotary orientation assembly 366 (see FIG. 31) trunnion 414 and the trunnion support 392. In prior art machining centres or routers, the tool magazine 391 is mounted on the outside of the trunnion support, thus requiring further travel of the router to reach the magazine, or the addition of a tool change arm not shown to transfer tools from the magazine to the spindle of the router. The advantage of the present invention is that having the trunnion support outside of the tool magazine, means the tool magazine is close to the working area of the spindle and the trunnion support is located beyond the reach of the spindle axis, but within a width of the machine that is required for clearance to spindle components.

Referring to FIG. 33, the router enclosure 364 is provided with a rear door 388 and a top door 373 to provide a large single opening for the passage of bricks to and from the router module 47. The transfer robot 64 is located just above the router module 47. Due to height limitations of the layout configuration, there is not room above the router module 47, below the transfer robot 64 to place a brick in through a top opening door 373. The brick must be transferred in from the opening of the rear door 388. The brick is supported from above by the transfer robot 64. The top door 373 provides an opening above the brick so that the transfer robot 64 can support the brick from above, once the brick is manoeuvred to the orientation assembly 366 (see FIG. 31).

Referring to FIGS. 30, 31 and 32, the router module 47 has a base 363. The base 363 supports an enclosure 364 to contain dust, the tool magazine 391 for holding routing and milling tools, a 3 axis motion assembly 365 (see FIG. 31) for moving the router tool spindle 90 (see FIG. 32) to a desired cutting position, and the orientation assembly 366 (see FIG. 31) to rotate and tilt the brick.

A detailed description of the router follows, with reference to FIGS. 10, 30, 31, 32, 33, 34, 35, 36, 37 and 38.

The router module 47 has a router base 363 supporting the tool change carousel in the form of the tool magazine 391 that can hold up to 24 router bit tools. The router module 47 has a tilting rotary table 366, shown generally in FIGS. 34 and 35, which is fitted with an electric screw actuated gripper 434, 435. Referring to FIG. 10, the router module 47 is fitted with the enclosure 364 to contain dust and noise. The router module 47 is fitted with a dust hopper 80. The hopper 80 is provided with a dust extraction pipe 81 at its base. The dust extraction pipe 81 is connected to the dust extractor 79.

Refer to FIG. 31. The router tool 90 has three orthogonally moving axes, X 709, Y 710 and Z 711.

As can be seen in FIG. 5, the router 47 is arranged to provide clearance to the folded boom and laying head when they are in the folded transport pose.

Enclosure

A detailed description of the enclosure 364 follows. Refer to FIGS. 30 and 33. The enclosure 364 has a sliding door 373 on top thereof and a sliding rear door 388, both provided for placing and removing a brick from the router, the brick entering via the opening of the rear door, with the top door opening providing access for the transfer robot. Enclosure 364 supports linear guides 367, 368. Linear guide 367 supports bearing cars 369, 370, and linear guide 368 supports bearing cars 371, 372. Bearing cars 369, 370, 371, 372 support door 373. Enclosure 364 supports a drive mount plate 520. Drive mount plate 520 supports a gearbox 374 (see FIG. 30). Gearbox 374 supports a servo motor 375. Servo motor 375 is fixed to a large pulley 376. Large pulley 376 is fixed to a small pulley 377. Enclosure 364 supports an idler pulley 378. A belt 379 wraps around pulleys 376 and 378 with its ends fixed to the door 373 by a clamp plate 379.

Referring to FIG. 33, enclosure 364 supports an idler 380. Base 363 supports a back plate 381. Back plate 381 supports linear guides 382, 383. Linear guide 382 supports bearing cars 384, 385. Linear guide 383 supports bearing cars 386, 387. Bearing cars 384, 385, 386, 387 support rear door 388. Rear door supports bracket 389. Referring to FIG. 30, a belt 390 wraps around pulleys 377 and 380 with its ends fixed to bracket 389 by a belt clamp 390.

Referring to FIG. 30, servo motor 375 drives gearbox 374 which rotates pulleys 376, 377 that move belt 379 and belt 390. Belt 379 moves door 373 horizontally to open and close the top of enclosure 364. Belt 390 moves rear door 388 (see FIG. 33) vertically to open and close the rear end of enclosure 364. The top door 373 and rear door 388 move simultaneously.

Tool Magazine

Referring to FIGS. 30 and 31, the base 363 supports tool magazine 391, on an upstanding column 392 that also forms part of the trunnion for the orientation assembly 366 (shown in FIG. 31). The tool magazine 391 can rotate tool grippers 397 to present them in a position so that toolholders 398 can be exchanged with the spindle 510, thereby allowing different shaped cutting tools 399 to be used by the router, or a blunt cutting tool 399 to be replaced with sharp cutting tool 399. Cutting tools 399 may be routing or milling tool bits or abrasive coated cutters such as diamond router bits.

Referring to FIG. 30, the base 363 supports the column 392, which supports bearing 393. Bearing 393 rotatably supports stub shaft 394. Stub shaft 394 concentrically supports bearing 395. Bearing 395 supports wheel 396. Wheel 396 supports a plurality of tool grippers 397. Tool grippers 397 hold tool holders 398. In the preferred embodiment the tool holders 398 are BT30 or ISO30 tool holders. Each tool-holder 398 holds a cutting tool 399, which will typically be a tungsten carbide insert milling or routing cutter. The cutters could alternatively be abrasive grit coated cutters of tungsten carbide, diamond or CBN. Ceramic or CBN inserts could be used in place of tungsten carbide inserts.

Base 363 supports a servo motor/gearbox assembly with a small pulley (indicated generally at 400). Small pulley forms a reduction drive with a large toothed pulley 405 driven by a toothed belt 406. The large toothed pulley 405 is fixed to the wheel 396 of the tool magazine 391 so that the servo motor assembly 400 can move belt 406 which then rotates the wheel 396, thereby presenting different tool-holders 398 to a tool transfer position 407 (shown in FIG. 31).

Orientation Assembly

Refer to FIG. 31. The orientation assembly 366 can grip a brick and rotate and tilt it to present the brick in any orientation for machining by the router. Referring to FIG. 34, which shows a close up of the orientation assembly 366, the brick is held in clamp jaws 434 and 435 which can be rotated and also tilted by a trunnion 414.

Referring to FIG. 31, orientation assembly 366 is provided with a frame 408 supported by base 363. Referring to FIG. 32, the frame 408 supports servo motor 409 and bearing reducer 410. Bearing reducer 410 is driven by an endless toothed belt 411 driving toothed pulley 412. Bearing reducer has an output plate located along horizontal trunnion axis 454 (shown in FIG. 34). Servo motor 409 rotates the trunnion 414 of orientation assembly 366 about the horizontal trunnion axis 454.

Refer to FIG. 34 and FIG. 35. Trunnion 414 is built as a frame comprising a first end 425 with an end plate 415, welded to a top plate 416 and a bottom plate 417, a front plate 418 and a rear plate 419. Top plate 416 is welded to a vertical plate 420 at the second end 424 (away from the first end 425). At the second end 424, top plate 416 is welded to vertical plate 420 and front plate 418 and rear plate 419. End plate 423 is welded to bottom plate 417 and front plate 418 and rear plate 419. A curved cover plate 422 covers the void between plates 420 and 423, which contains a servo motor 451. Plate 423 closes the second end 424 of the trunnion 414.

Refer to FIG. 35. Top plate 416 supports a bearing reducer 426. Bearing reducer 426 is fitted with a toothed pulley 427 at one end and a spacer 428 at the other end. The spacer 428 supports a gripper base 429. Refer to FIG. 34. Gripper base 429 supports linear guides 430, 431 which support bearing cars 432 and 433 respectively. Bearing car 432 supports jaw 434 and bearing car 433 supports jaw 435. Jaws 434, 435 support a plurality of rubber pads 436 to aid in gripping a brick. Jaw 434 is fitted with a lead screw nut 437 and jaw 435 is fitted with a leadscrew nut 438 (shown in hidden lines). Base 429 supports a bearing housing 440. Base 429 supports a servo motor 441. Servo motor 441 is fitted with a pulley 442. Base 429 supports idler pulleys 443, 444, 445. Bearing housing 440 supports a bearing which supports a leadscrew 448. Leadscrew 448 supports pulley 450. Leadscrew 450 engages lead screw nuts 437, 438. A belt 446 is wrapped around pulleys 442, 443, 444, 450, 445, and passes between base 429 and linear guide 430. Servo motor 441 rotates pulley 442 which moves belt 446 which rotates pulley 450 which rotates leadscrew 448 which moves the jaws 434, 435, together to clamp a brick or apart to release the brick.

Refer to FIG. 35. Trunnion 414 supports a servo motor 451 internally, under the cover plate 422. Servo motor 451 is fitted with a pulley 452. Endless toothed belt 453 is wrapped around pulleys 427 and 452. Servo motor 451 rotates pulley 452 which moves belt 453 which rotates pulley 427 which drives the input of bearing reducer 426 which then via its output rotates the base 429 of the gripper 72.

Refer to FIG. 32. Servo motor 409 rotates pulley 411 which moves endless belt 414 which rotates pulley 413 which drives bearing reducer 410 which rotates trunnion 414.

Referring to FIG. 35 spacer 428 supports a cable tube 455. Cables 456 are routed through the trunnion 414, then through the cable tube 455, (refer to FIG. 34) through the groove 456, under linear guide 430 to servo motor 441.

It can be seen that the orientation assembly 366 rotates the trunnion 414 and therefore a brick 180 degrees through the trunnion axis 454 to present three adjacent faces of the brick oriented 90 degrees apart, while the base 429 can rotate the gripper through 180 degrees.

3 Axis Motion Assembly

Refer to FIGS. 31, 32, 36, 37 and 38. Referring to FIG. 31, the 3 axis motion assembly 365 moves the router tool 90 spindle motor 510 so that the spindle can machine a brick held in the gripper 72. Linear guides and bearing cars such as Hiwin HGW or THK SHS series are used to provide sliding connections along the three axes. The 3 axis motion assembly 365 is moved by servo motors driving ball-screws through toothed belts. Movement could alternatively be provided by servo motors driving toothed belts, pinions engaged with racks, or by direct drive linear motors or other suitable means.

The 3 axis motion assembly 365 has a moving column 463 which can move from side to side along the x-axis 709. The moving column 463 supports a carriage 480 which can move up and down along the y-axis 710. The moving carriage 480 supports a ram 487 which can move back and forth. The ram 487 supports the spindle motor 510, which holds and rotates the cutting tool 399. The described 3 axis motion assembly provides rigid support of the spindle motor 510 and a very compact arrangement relative to the travel.

A detailed description of the 3 axis motion assembly 365 follows, referring to FIGS. 31 and 32. Base 363 supports linear guides 457, 458. Linear guide 457 supports bearing cars 459, 460 (see FIG. 32) and linear guide 458 supports bearing cars 461, 462 (see FIG. 32). Bearing cars 459, 460, 431, 462 support moving column 463. Moving column 463 supports a ball nut 464 which engages with a ball screw 469. Base 363 supports a thrust bearing assembly 473 which secures an end of the ball screw 469. Base 393 supports a mount block 465 (see FIG. 32) having a bearing 468 to support the other end of the ball screw 469. The mount block 465 supports a servo motor 466 fitted with a toothed pulley 467 which drives a pulley 471 (see FIG. 32) fitted to the ball screw 469 via an endless toothed belt 470. As ball-screw 469 is engaged with ball nut 464, servo motor 466 translates moving column 463 along the x-axis 709.

Referring to FIG. 36, moving column 463 supports linear guides 474, 475. Linear guide 474 slideably supports bearing cars 476, 477, and linear guide 475 slideably supports bearing cars 478, 479. Bearing cars 476, 477, 478, 479 support carriage 480 shown in FIG. 37. Moving column 463 supports mount block 481 on which is mounted a servo motor 482 which drives a pulley 483. Mount block 481 supports a thrust bearing 484 which supports a ball screw 485 at the lower end thereof. The ball screw 485 is supported at its upper end on a thrust bearing assembly 487. The ball-screw 485 has a toothed pulley 490 which is driven by an endless toothed belt 491 connected with toothed pulley 483.

Referring to FIG. 37, carriage 480 supports a mount block 488 which has a ball nut 489 which engages with ball-screw 485 (shown in FIG. 36). Refer to FIG. 36. Servo motor 482 rotates pulley 483 which moves belt 491 which rotates pulley 490 which rotates ball-screw 485 which translates ball nut 489 which translates carriage 480 in a vertical direction along the y-axis 710 (see FIG. 31).

Refer to FIGS. 37 and 38. Referring to FIG. 37, carriage 480 supports bearing cars 490 (shown as hidden lines), 491, 492 and 493 (shown as hidden lines). Bearing cars 492 and 493 slideably support linear guide 494, and bearing cars 490, 491 slideably support linear guide 495. Linear guides 494, 495 support ram 487. Carriage 480 supports strut 496. Strut 496 supports bearing housing 499. Bearing housing 499 supports bearing 500. Carriage 480 supports mount block 502. Mount block 502 supports servo motor 503. Referring to FIG. 38, servo motor 503 supports pulley 506. Mount block 502 supports bearing 504. Bearing 504 and bearing 500 rotatably support ball-screw 505. Ball-screw 505 supports pulley 507. Endless belt 508 is wrapped around pulley 506 and pulley 507. Ram 487 supports mount block 497. Mount block 497 supports ball nut 498. Ball nut 498 engages with ball-screw 505. Servo motor 503 rotates pulley 506 which moves belt 508 which rotates pulley 507 which rotates ball-screw 505 which translates ball-nut 498 which translates ram 487 along the z-axis 711.

Referring to FIG. 37, ram 487 has a bore 509. Ram 487 supports spindle motor 510 shown in FIG. 38 in said bore 509. In the preferred embodiment the spindle motor 510 is an off the shelf cartridge spindle motor, for example HSD ES331. Spindle motor 510 has a conical taper 511 that accepts and clamps to the tool holders 398 (see FIG. 30) by known means.

Cable Chains

Various servo motors and the spindle require the connection of pressurised air hoses, electrical power cables and signal cables. To support the hoses and cables, various cable chains are used. A detailed description of the support and routing of the cable chains follows.

Refer to FIGS. 31, 32, 37 and 38. Referring to FIG. 38, strut 496 supports a bracket 512. Ram 487 supports a bracket 513. Bracket 512 supports a first end of a cable chain 514. Bracket 513 supports a second end of cable chain 514.

Refer to FIG. 31. Base 363 supports a first end of a cable chain 515. Moving column 463 supports a bracket 516 (Refer to FIG. 36 for a larger view of bracket 516). Bracket 516 supports a second end of cable chain 515. Refer to FIG. 32. Bracket 516 supports a first end of cable chain 517. Strut 496 supports a bracket 518. Bracket 518 supports a second end of cable chain 517 (FIG. 37 shows detail of bracket 518).

Refer to FIG. 31, 32, 37, 38. Referring to FIG. 32, cables and hoses (not shown for clarity) are routed from the base 363, through cable chain 515, then through cable chain 517 and then through cable chain 514. Referring to FIG. 5, cables not shown connect electrical power and signals from the control cabinet 82 to the servo motors 466 (see FIG. 31), 482 (see FIG. 32), 503 (see FIG. 32) and the spindle motor 510 (see FIG. 38). Referring to FIG. 38, ram 487 is provided with a hole 519 to provide access for electric cables and hoses to spindle motor 510.

Vision System

A vision system is used to check that each brick handled by the transfer robot is of the correct size, shape, colour and texture and that any cuts, grooves or machining has been done correctly. The vision system also checks for cracks or large missing chips.

Refer to FIG. 8. The enclosure frame 63 supports machine vision cameras 103, 104 on each side to view both sides of a brick 65 held by the transfer robot. The frame 3 supports a third camera 157 (shown in FIG. 4) to view the bottom of a brick 65 held by the transfer robot 64 and the enclosure frame 63 supports a camera 105 to view the top of a brick 65 held by the transfer robot. Note as drawn in the pose shown for clarity the brick 65 is not in the field of view of the machine vision cameras 103, 104, 105, 157. The enclosure frame supports laser line projectors 106, 107 that project structured light onto a brick 65 held by the transfer robot 64. The machine vision cameras 103, 104, 105 scan the 3D shape of the brick as it is moved by the transfer robot. Vision analysis, using for example Halcon 12 software is used to form a 3D model of the brick that is then compared to an expected 3D model of the brick to check that it is the correct size, of acceptable quality and that any saw cuts or routing cuts have been correctly made.

Volume scanners 108, 109 (shown in FIG. 6) are placed at the rear of the truck 1 and enclosure 7 to ensure that no personnel enter a danger area such as the working envelope of the scrapers 55, 56 (see FIG. 5) or the internal volume of the enclosure 7.

Carousel

Refer to FIGS. 1, 5, 8, 15 and 17. Referring to FIG. 1, the folding boom 732 can be rotated about a vertical axis 9 to point in any direction away from the truck. Referring to FIG. 8, the transfer robot 64 moves bricks to a location near the tower 10 (shown in FIG. 5) of the folding boom 732 (shown in FIG. 1). Referring to FIGS. 1 and 5, the carousel 48 receives bricks from the transfer robot, at a location approximately on the centreline of the truck, behind the tower 10, and rotates about a vertical axis 9 to line the bricks up with the rotated folding boom 732.

Referring to FIGS. 15 and 17, the carousel 48 receives bricks from the transfer robot 64 and passes them to a tower shuttle 186 sliding on the tower 10. Referring to FIG. 15, the carousel has a ring frame 166 which rotates around the tower 10 (shown in FIG. 17). The ring frame 166 supports a gripper 74 that can tilt to receive a brick from the transfer robot 64 and then be rotated to line up with the tower shuttle 186. A detailed description follows.

Referring to FIGS. 5 and 15, the frame 3 supports the carousel 48. Referring to FIG. 15, the frame 3 supports a ring guide 167 which supports a plurality of rollers 169 that in turn support the ring frame 166 which is thus able to rotate about the vertical slewing axis 9. The ring frame 166 supports a bracket 170 that in turn supports an arm 165 that rotates about a horizontal rotary axis 77. The arm 165 supports the gripper 74 which has jaws 171, 172 that move toward each other to hold a brick (not shown), or apart to release the brick. The ring frame 166 is rotated about the vertical axis 9 by a servo motor 173 and gearbox 174 that drives a pinion 175 engaged with a ring gear 176 fixed to the ring guide 167. The bracket 170 supports a servo motor 177 that drives a gearbox 178 which moves the arm 165. The arm 165 supports a servo motor 179 and a lead screw 180. The servo motor 179 rotates the lead screw 180. The jaws 171, 172 are respectively fitted with lead nuts not shown that engage with the lead screw 180. The ring frame 166 supports a cable duct 185.

The frame 3 supports a cable guide 181. The cable guide 181 supports a cable chain 182. The cable chain 182 is connected at a first end 183 to the cable guide 181 and is therefore fixed relative to the frame 3. The cable chain 182 has a second end 184 attached to the cable duct 185. Electric current carrying cables (not shown) that carry power and control signals and sensor signals from the electric control cabinet 82, are routed via the frame 3, through the cable chain 182 to the cable duct 185 and then to the servo motors 173, 177, 179.

The carousel 48 can move the gripper 74 from a pickup position where it receives a brick from the gripper 66 mounted on the transfer robot 64, and rotate to a drop off position where it deposits a brick to the gripper jaws 207, 208 on the tower shuttle 186 (shown on FIG. 17).

Tower

Refer to FIG. 5 and FIG. 17. The frame 3 supports a slewing ring 11 at its front end 78, located coaxially with the carousel 48. Refer to FIG. 17. The slewing ring 11 supports a turret in the form of a tower 10. The tower 10 can slew about the vertical axis 9 of the slewing ring 11. The tower 10 supports the foldable boom 732 (shown in FIG. 1). The tower supports a tower shuttle 186 that moves bricks from the carousel 48 at the bottom end of the tower to the foldable boom 732 at the top of the tower 10.

Refer to FIG. 17 and FIG. 81. The tower 10 supports two parallel spaced linear bearing rails 189, 190. The linear bearing rails 189, 190 respectively support four bearing cars 191 and 192 (and others occluded, not shown). The bearing cars 191, 192 support a tower shuttle car 193 which in turn supports a gripper 194. The gripper 194 may grasp a brick 195. The tower 10 supports a servo motor 196 which drives a toothed pulley 197 that engages with and drives a belt 198 that is connected to, and thereby drives the tower shuttle 186 in a vertical direction. The tower 10 supports a servo motor 199 that drives a toothed pulley 200 that engages and drives a toothed belt 201. Tower 10 supports an upper idler pulley 202. Toothed belt 201 wraps around upper idler pulley 202. The tower shuttle car 193 supports pulleys 203 and 204. The tower shuttle car 193 supports a lead screw 206. Leadscrew 206 is connected to a pulley 205. The toothed belt 201 passes around pulley 203, then drives pulley 205 and thus drives the lead screw 206. The belt 201 passes around pulley 204 and then returns to pulley 200. The tower shuttle car 193 slideably supports gripper jaws 207, 208. Gripper jaws 207, 208 support lead screw nuts (not shown) that engage leadscrew 206. Leadscrew 206 moves jaws 207, 208 toward each other to grip a brick 195, and in the opposite rotational direction, moves jaws 207, 208 apart to release the brick 195.

Refer to FIG. 17. The tower 10 supports a lug 209 with a bore 213 having a horizontal axis 214, the bore receiving a fastener to connect an end of hydraulic ram 22 (shown in FIG. 1) to control the pose of the first boom 12. Tower 10 supports clevis plates 210, 211 which have a bore 212 with a horizontal axis 13, about which the near end of the first boom is attached for pivoting movement (shown in FIG. 1).

Boom

Refer to FIG. 1. The foldable boom 732 is articulated and telescopic so that it can position the laying head throughout a large working volume, far from and close to the truck, both low and high so that the laying head can reach all courses of the structure to be built, both near and far, low and high. FIG. 76A shows the foldable boom 732 in a folded pose for transport. FIG. 76B shows the foldable boom 732 with the first boom 12 raised and the stick assembly 744 vertical. FIG. 76C shows the foldable 732 with the stick assembly 744 horizontal with the telescopic sections extended. FIG. 76C shows a pose that could be used to build a multi storey structure. FIG. 76D shows the foldable boom assembly 732 with the first boom 12 raised above horizontal and the stick assembly 744 lowered slightly below horizontal. FIG. 76E shows the foldable boom 732 at its maximum extension with both the first boom 12 horizontal and the stick assembly 744 horizontal.

The foldable boom 732 allows motion through a big envelope free of singularities and poles. A pole is a position within a robot's envelope that requires rapid rotation of one or more robot joints to maintain consistent orientation of the end effector, for the end effector to pass along a trajectory that passes through the pole. A singularity is a position or orientation, or a set of positions and orientations within the envelope that cannot be reached, or where the joints of the robot become poorly behaved, unstable, or the joint positions are difficult to calculate. Normal industrial robots typically complete the same task over and over so that it is possible to design, or alter the trajectory and robot pose to be free and clear of poles and singularities or to pass through a pole with specified rotation of the pole axis. The automated brick laying machine however must be able to complete a variety of tasks and any particular structure will require the boom to move through a large portion of its envelope, thus making a pole and singularity free working envelope desirable.

Shuttles within each section of the boom transport a brick along the inside of the boom. Shuttles pass a brick from a previous shuttle to the next. Rotators at each articulated joint of the boom move a brick from one boom element to the next, passing the brick from a previous adjacent shuttle to the next adjacent shuttle.

The bricks are passed by the shuttles, through the inside of the boom. The bricks are moved through the inside of the boom so that the boom structure contains the bricks and/or debris, in the unlikely event that a brick, or debris from a brick becomes loose from a shuttle. The boom structure provides convenient support to mount shuttles opposite each other. In the present invention within the telescoping elements of the boom and within the telescoping elements of the stick, the shuttles are alternately mounted above or below the brick, so that adjacent shuttles may move so that the grippers on the shuttles can both grasp a brick simultaneously and thereby transfer a brick from one shuttle to the next, without letting go of the brick. FIG. 82 shows a partial view of the inside of the first boom element comprising first boom 12 and second boom 14, with shuttle-B1224 gripping a brick 28 from below and shuttle-B2531 gripping a brick from above. The invention could alternately be arranged to support the shuttles from the sides of the boom. The invention could alternately be arranged to support the shuttles on the top of the boom, however it would then be desirable to fit an additional enclosure to boom to contain any dropped bricks or debris and the overall size of the boom would be larger or less structurally stiff.

First Boom Element

Referring to FIGS. 1 and 17, the tower 10 pivotally supports a foldable boom on clevis plates 210 and 211 for rotation about horizontal axis 13. The foldable boom comprises a first boom element comprising first boom 12 and telescoping second boom 14, and a second boom element comprising stick assembly 744. First boom 12 can pivot about the horizontal axis 13 at the top of the tower 10, and a sliding second boom 14 is telescopically able to slide within the first boom 12.

Second Boom Element

Referring to FIG. 1, the second boom element 744 is pivotally connected about a horizontal axis 16 by an element in the form of an articulating first stick 15 to the distal end of the second boom 14. The axis 16 is substantially parallel to the horizontal articulation axis 13 of the first boom.

A sliding second stick 17 is telescopically able to slide within the first stick 15. A sliding third stick 18 is telescopically able to slide within the second stick 17. A sliding fourth stick 19 is telescopically able to slide within the third stick 18. A sliding fifth stick 20 is telescopically able to slide within the fourth stick 19. Collectively first stick 15, second stick 17, third stick 18, fourth stick 19 and fifth stick 20 form a stick assembly 744 also referred to as the second boom element.

The number of telescopic booms 12, 14 or sticks 15, 17, 18, 19, 20 could be altered without deviating from the inventive concepts described. Collectively the tower 10, booms 12, 14 and sticks 15, 17, 18, 19, 20 form a foldable boom assembly 732.

First boom 12 has a first near end 269 and a second distal end 270 shown in FIG. 18. First boom 12 is connected to the tower 10 (shown in FIG. 17) by a pin or pins not shown, through the bore 212, in clevis plates 210 and 211, connecting through apertures in first boom located at its near end 269.

Lug 209 on the tower 10 is connected to the rod end of ram 22 by a pin (not shown). Ram 22 supports a trunnion mount 215 located a short distance along the first boom 12 from the near end 269. The trunnion mount 215 provides boom lift lugs 216, 217. The articulated joint 21 of the tower 10 to the boom 12 about axis 13 is moved by ram 22 powered by electricity or hydraulics.

Rotator

Refer to FIG. 24 and FIG. 25. The tower 10 supports a brick rotating mechanism in the form of T-B1-rotator 271. The T-B1-rotator 271 is used transfer a brick from the tower shuttle 186 to the first boom shuttle 224 (shown in FIGS. 19, 21 and 77D). FIG. 77A shows the tower shuttle 186 holding brick 298. FIG. 77B shows the brick held by the T-B1-rotator 271 after receiving it from the tower shuttle 186. FIG. 77C shows the T-B1-rotator 271 moving to align itself with the first boom segment 12. FIG. 77D shows the T-B1-rotator 271 aligned with the first boom segment and shuttle-B1224 moving into position under brick 298. It should be understood that the boom will not necessarily be horizontal while this process occurs. FIG. 77E shows the shuttle-B1224 in position under the brick 298. In this position the shuttle-B1224 will grip the brick and the T-B1-rotator 271 will release the brick. FIG. 77F shows the brick 298 held by the shuttle-B1224 moving up the first boom segment 12. FIG. 77G shows the T-B1-rotator 271 moving into position to accept another brick from the tower shuttle 186.

A detailed description of the T-B1-rotator follows.

Referring to FIG. 25, T-B1-rotator 271 has a bracket 272 which is fastened to the tower 10 (shown in FIG. 17). Bracket 272 supports a spacer 274 which supports a servo motor 273. Servo motor 273 drives a pulley 275. Bracket 272 supports idler pulleys 276, 277 and a bearing reducer 278. Bearing reducer 278 is fitted with an input shaft 279 which is fitted with a pulley 280 driven by servo motor 273 via an endless toothed belt 281 wrapped around pulleys 275, 276, 277 and 280. Arm 282 is rotated by bearing reducer 278 about a horizontal axis 290.

Bearing reducer 278 supports an arm 282 having a plate 283 depending therefrom at right angles. Plate 283 supports linear guides 284, 285. Linear guides 284, 285 respectively support bearing cars 286, 287 which respectively support jaws 288, 289 provided to clamp a brick. Jaws 288, 289 respectively are fitted with lead screw nuts 296, 297 shown as hidden lines. Leadscrew nuts 296, 297 engage with leadscrew 293.

Arm 282 supports a servo motor 291 (not shown clearly in FIG. 25, but shown in FIG. 24) which drives a pulley 292. Arm 282 supports a leadscrew 293 fitted with a pulley 294. An endless toothed belt 295 is wrapped around pulleys 292 and 294. Through this arrangement, servo motor 291 drives leadscrew 293 which is engaged with leadscrew nuts 296, 294 to move jaws 288, 289 together to grip a brick 298 or apart to release the brick 298.

As can be seen in the drawings, and particularly in the sequence of FIGS. 77A to 77G, the brick 298 is transported up the tower 10 with its longitudinal extent parallel with the vertical axis 9 of the tower 10. The tower shuttle 186 holds the brick 298 in its gripper jaws 207 and 208 vertically above the body of the tower shuttle car 193, so that the brick can be passed within reach of the jaws 288, 289 of T-B1-rotator 271. The T-B1-rotator 271 rotates the brick 298 so that its longitudinal extent is aligned with the longitudinal extent of boom 12 (and 14). The T-B1-rotator 271 rotates about the same horizontal axis 13 as first boom 12 is mounted to the tower 10. The location of this horizontal axis 13 is such that the shuttle-B1224 is able to travel under the T-B1-rotator 271 to allow the transfer of the brick 298 from T-B1-rotator 271 to the shuttle-B1224.

First Boom

Refer to FIGS. 18, 19, 20. Referring to FIG. 18 first boom 12 has boom lift lugs 216, 217 welded thereto. Referring to FIG. 19, boom 12 is of a substantially rectangular or box cross section, and is constructed by welding bottom plate 218 to side plates 219, 220 which are welded to top plate 221. Removable panels (not shown) may be provided in convenient positions along any of the plates 218, 219, 220, 221, to provide access for servicing of internal componentry within first boom 12. The bottom plate 218 supports a track in the form of channels 222, 223 (also shown in FIG. 18). Channels 222 and 223 support shuttle-B1224. Referring to FIG. 18, shuttle 224 is shown gripping a brick 225.

Shuttle

A shuttle grips a brick and is moved along the inside of the boom from the near end of the boom, nearly to the distal end of the boom, by toothed belts driven by servo motors fitted to the boom. The servo motors are fitted to the boom to minimise the size and weight of the moving shuttle and also to avoid having to use cable chains or slip tracks to transfer electrical power and signals to and from the shuttles. One servo motor 256 moves the shuttle and the other servo motor 255 moves the jaws of the shuttle. A detailed description follows.

Refer to FIGS. 18, 19 and 23. Referring to FIG. 23, bottom plate 218 supports a drive assembly 254 located at the distal end 270 of the first boom 12. Drive assembly 254 has a body that supports servo motors 255 and 256. Servo motor 255 drives a pulley 258 which drives an endless belt 251. Endless belt 251 passes around idlers 260, 261. Plate 218 supports idler pulley assembly 259 (shown in FIG. 18) to turn the belt.

Servo motor 256 drives a pulley 257. Drive assembly 254 has a shaft 262 that supports a large pulley 263 and a small pulley 264, forming part of a reduction drive. An endless toothed belt 258 wraps around pulley 257 and large pulley 263. A belt 266 wraps around pulley 264 and idler pulley assembly 265 at the near end 269 of first boom. Belt 266, running the length of first boom 12 is driven by pulley 264.

Refer to FIGS. 18, 21 and 22. Referring to FIG. 21, shuttle-B1224 has a body 246 which supports wheels 226, 227, 228, 229 that rotate about substantially horizontal axes, and supports wheels 230, 231, 232, 233 that rotate about axes in a vertical plane. Shuttle-B1224 supports linear guides 234, 235. Linear guides 234, 235 respectively support bearing cars 236, 237 which respectively support jaws 238, 239. Jaw 238 is provided with rubber gripping pads 240, 241 and jaw 239 is provided with rubber gripping pads 242, 243. Jaws 238, 239 respectively support lead screw nuts 244, 245 at the base thereof (shown in FIG. 22). Body 246 supports bearing housings 247, 248 (shown in FIG. 22) which support a leadscrew 249. Referring to FIGS. 21 and 22, leadscrew 249 is fitted with a pulley 250, located between the bearing housings 247 and 248. Leadscrew 249 engages with leadscrew nuts 244, 245. Body 246 supports idler pulleys 252, 253. Tooth belt 251, shown partially in FIG. 22 and also in FIG. 23, wraps partially around pulley 252, then pulley 250 then pulley 253. Tooth belt 251 drives pulley 250, which in turn rotates leadscrew 249 which moves the jaws 238, 239. Belt 265 is connected to body 246 at a first location 267 and a second location 268. The drive train described allows servo motor 255 to move the jaws 238, 239 together to clamp a brick 225, or apart to unclamp a brick 225. The drive chain described allows servo motor 256 to move the shuttle-B1 along the inside of first boom 12. Thus a brick 225 can be clamped by a shuttle-B1224 and moved from the first end 269 of first boom 12 to the second end 270 of first boom 12 and then brick 225 (shown in FIG. 18) can be unclamped. As servo motor 256 moves the shuttle-B1224 along the boom, servo motor 255 must be synchronised with servo motor 256 to avoid the jaws 238 and 239 from inadvertent movement which could result in the brick being released or over-tightening of the jaws, or the shuttle jaws being run past their intended travel limits.

It will be seen in the discussion that follows, that the tracks, shuttles and drive assemblies of sticks 15, 17, 18, and 19 follow the same fundamental configuration as that of boom 12.

Winch

Winches and cables are used to move the telescopic sections of the boom and stick via a system of pulleys. The winch and cable system provides a very light weight means of moving the telescopic sections of the foldable boom. It was found that electric ball screws or hydraulic rams or toothed racks and gears could be used to move the telescopic sections of the boom, but these systems have a higher weight than the cable drive system described. The winch and cable system is detailed below.

Referring to FIGS. 19 and 63, side plate 219 supports a winch assembly 713. Referring to FIG. 63, winch 713 winds cables 714, 715 that telescopically move the second boom 14 relative to the first boom 12 (shown in FIG. 1). Winch assembly 713 has bracket 716 and bracket 717 supported on side plate 219. Bracket 717 supports bearing reducer 718 which is driven by servo motor 719, providing a reduction drive for winch drum 720. Bracket 716 supports a roller bearing 721 that rotateably supports winch drum 720.

Side plate 219 supports idler pulleys blocks 722, 723, 724, 725. FIG. 64 shows a view of the boom 12 with side plate 219 and bottom plate 218 removed for clarity so that the second boom 14 can be seen more clearly. First boom 12 bottom plate 218 supports idler pulley blocks 728, 729, 730, 731. Second boom 14 bottom plate 524 supports idler pulley blocks 726, 727. Cable 714 passes in turn from the winch drum 720 to pulley block 722 then to pulley block 723, then pulley block 728 then through pulley block 726 then pulley block 731 and then is fastened to the bottom plate 524 of second boom 14. Cable 714 passes in turn from the winch drum 720 to pulley block 724, then to pulley block 725, then to pulley block 729, then through pulley block 727 then through pulley block 730 and then is fastened to the bottom plate 524 of second boom 14. The pulley blocks provide mechanical advantage so that a thin cable can be used. Servo motor 719 rotates the input of bearing reducer 718 which rotates the winch drum 720 which moves cables 714, 715 which slides second boom 14 relative to first boom 12.

Wear blocks 799 formed from ultra high molecular weight polyethylene (UHMPE) or other suitable material, are secured to the distal end of boom 12 and the near end of boom 14 to provide bearing surfaces for the elements to telescopingly slide. Wear blocks 799 of such material are described throughout this description to provide bearing surfaces for the telescoping parts of both the boom and the stick.

Second Boom

Referring to FIGS. 39, 40, 41, 42, 43, second boom 14 is of a substantially rectangular or box cross section. Referring to FIG. 39, second boom 14 is constructed by welding bottom plate 524 to side plates 521, 522, and welding side plates 521, 522 to top plate 523. As with the first boom 12, removable panels (not shown) may be provided in convenient positions along any of the plates 521, 522, 523, 524, to provide access for servicing of internal componentry within second boom 14. Second boom 14 has a first near end 525 and a second distal end 526. Second distal end 526 supports lugs 527, 528. Referring to FIG. 40, top plate 523 supports channels 529, 530, which form a track to support shuttle-B2531.

Shuttle-B2531 has jaws 532, 533 for the gripping of a brick. Top plate 523 supports bracket assembly 534, which supports idler pulleys 535, 536, 537. Bracket assembly 534 supports servo motors 538, 539. Servo motor 539 drives the jaws 532, 533. Servo motor 538 drives the shuttle-B2531. Shuttle-B2531 can move linearly from the first end 525 to the second end 526 of second boom 14. The arrangement is the same as described for the first boom 12 except that the servo motors 538 and 539 are mounted externally on boom 14 to allow the channels 529 and 530 that form the track within second boom 14 to extend from the near end 525, to the distal end 526, so that the shuttle-B2531 can traverse the entire length of second boom 14.

Referring to FIG. 40, side plate 521 supports a boss 562. Boss 562 has a bore 563. Bore 563 supports an end of dog bone link 156 seen in FIG. 1.

Refer to FIGS. 11, 42 and 43. An arrangement of energy chains 112 is provided within the boom and stick assembly 141 to carry cables and hoses. Bottom plate 524 supports cable chains 563, 564, 565.

Rotator-B2-S1

The rotator-B2-S1548 transfers a brick from the second boom shuttle to the first stick shuttle. It can rotate to align with either the second boom, or the first stick, to that the brick maintains orientation with its longitudinal extent extending with the first stick longitudinal extent, when the brick is transferred from the second boom 12 to the first stick 15. The rotator-B2-S1548 has movable gripper jaws to grasp the brick. A detailed description follows.

Referring to FIGS. 42 and 44, bottom plate 524 supports Rotator-B2-S1548 from supporting bracket 540. Bracket 540 supports bearing reducer 541, which supports servo motor 542. Bearing reducer 542 supports an assembly of arm 543 and base 544. Base 544 supports mount plate 547 which supports servo motor 549. Base 544 also supports linear guides 545, 546. Linear guide 545 supports bearing car 550 which supports jaw 551. Linear guide 546 supports bearing car 552 which supports jaw 553. Mount plate 547 supports bearing 554 (see FIG. 42), which supports leadscrew 555. Motor 549 has a toothed pulley 556, and leadscrew 555 has a pulley 557, with endless toothed belt 558 wrapped around pulley 556 and pulley 557. Jaw 551 supports nut 556′, and jaw 553 supports nut 559 (shown with hidden lines in FIG. 44). Leadscrew 555 engages with nuts 556′, 559. Servo motor 549 thus drives leadscrew 555 to move jaws 551 and 553 together to clamp a brick, or apart to release a brick. Servo motor 542 rotates the input of bearing reducer 541. The output of bearing reducer 541 rotates arm 543 about a horizontal axis 16, which is the same axis as the articulated joint 23 connection of second boom 14 to first stick 15. Thus arranged, rotator 548 can grasp a brick located in shuttle-B2 at the second end 526 of second boom 14 and transfer it to a shuttle-S1 located at the first end 561 of first stick 15.

Joint

Refer to FIG. 1. The articulated joint 23 of second boom 14 to first stick 15 about axis 16 is moved by a luffing ram 24 powered by electricity or hydraulics and a first dog bone link 155 and a second dog bone link 156.

Refer to FIG. 45 and FIG. 46. Side plate 568 supports lug 586. Side plate 569 supports lug 587. Side plate 568 supports boss 588. Lugs 586, 587 respectively have concentric bores 589, 590. Bores 589, 590 are on axis 16. Boss 588 has a bore 591. Bore 591 supports a pin not shown that supports an end of dog bone link 156.

First Stick

Refer to FIGS. 45, 46. First stick 15 has a first near end 561 and a second distal end 566. First stick 15 is of a substantially rectangular or box cross section and welded plate construction, comprising a bottom plate 567, welded to side plates 568, 569, and side plates 568, 569 welded to top plate 570. Side plate 568 supports lugs 574, 575 for connecting an end of luffing ram 24 (shown in FIG. 1).

Stick Assembly

The stick assembly has telescopic sticks that can extend and retract. The extension and retraction is servo controlled. Each stick supports channels that in turn support shuttles that move bricks from a first near end to the next stick. The shuttles move back and forth on tracks within their respective sticks. The shuttles are provided with clamps, and can pass a brick along the stick assembly.

Stick Winch and Cables

The telescopic stick assembly is extended and retracted by a winch that winds cables that wrap around a system of pulleys to move the sticks. The winch is driven by a servo motor and bearing reducer. A detailed description follows.

Refer to FIGS. 45 and 68. Referring to FIG. 45, the top plate 570 supports a winch 578. Winch 578 winds cables 579, 580 that telescopically move the second stick 17, third stick 18, fourth stick 19 and fifth stick 20 within and relative to first stick 15 (shown in FIG. 68).

Winch 578 is mounted to top plate 570 by bracket 581 and bracket 582. A bearing reducer 583 is provided between servo motor 584′ and a winch drum 584. Bracket 581 supports a roller bearing 585 (not visible) that rotateably supports the winch drum 584, at the end thereof away from the bearing reducer 583. Top plate 570 supports pulley blocks 746, 747, 748, 749, 750, 751.

FIG. 68 shows a view of the stick assembly 744. Second stick 17 supports pulley blocks 752, 753. Third stick 18 supports pulley blocks 754, 755. Fourth stick 19 supports pulley blocks 756, 757. Extension cable 580 is wrapped on winch drum 578 and then passes through pulleys 750, 751, then to second stick 17 pulley block 752, then to pulley block 753, then to third stick 18 pulley block 754, then to pulley block 755, then to fourth stick 19 pulley block 756, then to pulley block 757, then to a termination 758 on fifth stick 20. Tension on cable 580 forces the stick assembly 744 to extend.

Referring to FIG. 69, retraction cable 579 is wrapped on winch drum 578 and then passes through pulley blocks 746, 747, 748 and 749 and then runs internally inside stick assembly 744 to termination 759 on fifth stick 20. Tension of cable 579 forces the stick assembly 744 to retract.

FIG. 70 shows a view of stick assembly 744. Cables 759, 760 and 761 act to keep the extension of each stick, relative to its neighbours, similar. Second stick 17 supports pulley block 762. First stick 15 supports a termination 765 of first end 771 of cable 759. Cable 759 passes through pulley block 762 and third stick 18 supports a termination 766 of second end 772 of cable 759. Third stick 18 supports a pulley block 763. Second stick 17 supports a termination 767 of first end 773 of cable 760. Cable 760 passes through pulley block 763. Fourth stick 19 supports a termination 768 of second end 774 of cable 760. Fourth stick 19 supports pulley block 764. Third stick 18 supports a termination 769 of first end 775 of cable 761. Cable 761 passes through pulley block 764. Fifth stick 20 supports a termination 770 of second end 776 of cable 761.

First Stick

Referring to FIGS. 45 and 46, the top plate 570 supports a track in the form of longitudinally extending channels 571, 572, inside the stick 15. Channels 571, 572 run from the first near end 561 of first stick 15, nearly to the second distal end 566, save room for the drive assembly 592 at the end of the track, inside the first stick 15. Channels 571, 572 slideably support shuttle-S1573. Shuttle-S1573 has jaws 576, 577 provided to clamp a brick.

Top plate 570 supports drive assembly 592 inside first stick 15, in the same manner as that of the first boom 12. Top plate 570 supports bracket 593, which supports idler pulleys 594, 595, 596, 597. Servo motors not shown on drive assembly 592 move the shuttle-S1573 along the top of and inside first stick 15 and can open and close jaws 576, 577 to grip or release a brick. Thus shuttle 573 can grasp a brick at first near end 561 of first stick 15 and move it to or toward second distal end 566 of first stick 15, then unclamp the brick not shown. The mechanism for this functions in the same manner as that of the first boom 12 and its shuttle. The jaws 576 and 577 each include a deviation 576′ and 577′ which aligns with the bracket assembly 534 of second boom 14, to provide clearance to receive bracket assembly 534 at the distal end of second boom 14, when the shuttle-S1573 moves in to take a brick from rotator-B2-S1548 when second boom 14 and first stick 15 are aligned in line, as shown in FIG. 79C.

Second Stick

Refer to FIGS. 47, 48, 49. Referring to FIG. 47, second stick 17 has a first near end 598 and a second distal end 599. Second stick 17 is hollow and internally supports a shuttle that moves bricks from the first near end 598 to or toward the second distal end 599.

Second stick 17 is preferably constructed from carbon fibre sandwich panels for low weight. Alternatively, second stick 17 way be welded with metal plates. Second stick 17 is of a substantially rectangular or box cross section. Second stick 17 is constructed by welding or bonding bottom plate 600 to side plates 601, 602. Side plates 601, 602 are welded or bonded to top plate 603. Bottom plate 600 supports a track formed by longitudinally extending channels 604, 605. Channels 604, 605 support shuttle-S2606 for movement therealong. Shuttle-S2606 has jaws 607 and 608 to grasp a brick. Referring to FIG. 48, bottom plate 600 supports bracket 609 which supports idler pulleys 610, 611, 612, 613. Referring to FIG. 49, bottom plate 600 supports drive assembly 614 located at the distal end 599 of second stick 17, which moves belts 615 and 616, in order to move shuttle-S2606 (shown in FIG. 48) and open and close jaws 607, 608, in the same manner as that of the first boom 12 and its shuttle. Thus shuttle-S2 can grasp a brick located at the first near end 598 of second stick 17 and move the brick to or toward the second distal end 599 of second stick 17 and unclamp the brick. The second stick 17 has a void in the top plate 603 at the near end 598 (shown in FIG. 48), which is opposite the track formed by channels 604 and 605. This allows the shuttle-S1573 of the first stick 15 to line up above the shuttle-S2606 to enable the clamps thereof to transfer a brick from shuttle-S1573 to shuttle-S2606.

Third Stick

Refer to FIGS. 50, 51 and 52. Referring to FIG. 50, third stick 18 has a first near end 618 and a second distal end 619. Third stick 18 is preferably constructed from carbon fibre sandwich panels for low weight. Alternatively, third stick 18 may be constructed with welded metal plates. Third stick 18 is of a substantially rectangular or box cross section. Third stick 18 is constructed by welding or bonding bottom plate 620 to side plates 621, 622. Side plates 621, 622 are welded or bonded to top plate 623. Referring to FIG. 51, top plate 623 supports a track formed by longitudinally extending channels 624 and 625 which extend from the first near end 618 to the drive assembly 634 located at the second distal end 619, shown on FIG. 52. Channels 624, 625 support shuttle-S3626 for movement along third stick 18 from first near end 618 to or toward second distal end 619. Shuttle-S3626 has jaws 627 and 628, to clamp a brick. Top plate 623 supports bracket 629. Bracket 629 supports idler pulleys 630, 631, 632, 633. Referring to FIG. 52, top plate 623 supports drive assembly 634 at the second distal end 619, which moves belts 635 and 636. Drive assembly 634 can move shuttle-S3626 and open and close jaws 627, 628. Thus shuttle-S3 can grasp a brick located at the first end 618 of third stick 18 and move said brick to or toward the second end 619 of second stick 18 and unclamp the brick, in the same manner as that of the first boom 12 and its shuttle. The third stick 18 has a void in the bottom plate 620 at the near end 618, which is opposite the track formed by channels 624 and 625. This allows the shuttle-S2606 of the second stick 17 to line up above the shuttle-S3626 to enable the clamps thereof to transfer a brick from shuttle-S2606 to shuttle-S3626.

Fourth Stick

Refer to FIGS. 53, 54, 55. Referring to FIG. 53, fourth stick 19 has a first near end 637 and a second distal end 638. Fourth stick 19 is preferably constructed from carbon fibre sandwich panels for low weight. Alternatively, fourth stick 19 may be constructed from welded metal plates. Fourth stick 19 is of a substantially rectangular or box cross section. Fourth stick 19 is constructed by welding or bonding bottom plate 640 to side plates 641, 642. Side plates 641, 642 are welded or bonded to top plate 643. Bottom plate 640 supports a track formed by longitudinally extending channels 644, 645. Channels 644, 645 extend from the near end 637 to drive assembly 654 located at the distal end, and support shuttle-S4646 (shown on FIG. 54) for linear movement therealong. Referring to FIG. 54, shuttle-S4646 has jaws 647 and 648 to grasp a brick. Bottom plate 640 supports bracket 649 at the near end 637 which 649 supports idler pulleys 650, 651, 652, 653. Referring to FIG. 55, bottom plate 640 supports drive assembly 654 at the distal end 638, inside fourth the stick 19. Drive assembly 654 moves belts 655 and 656 in order to move shuttle-S4646 along fourth stick and open and close jaws 647, 648, in the same manner as that of the first boom 12 and its shuttle. Thus shuttle-S4646 can grasp a brick located at the first end 637 of fourth stick 19 and move it to or toward the second end 638 of fourth stick 19 and unclamp the brick.

Referring to FIG. 54, the fourth stick 19 has a void in the top plate 643 at the near end 637, which is opposite the track formed by channels 644 and 645. This allows the shuttle-S3626 of the third stick 18 to line up above the shuttle-S4646 to enable the clamps thereof to transfer a brick from shuttle-S3626 to shuttle-S4646.

Fifth Stick

Refer to FIGS. 56, 57, 58 and 59. Referring to FIG. 56, fifth stick 20 has a first near end 657 and a second distal end 658. Fifth stick 20 is preferably constructed from carbon fibre sandwich panels for low weight. Alternatively, fifth stick 20 may be constructed from welded metal plates. Fifth stick 20 is of a substantially rectangular or box cross section. Fifth stick 20 is constructed by welding or bonding bottom plate 660 to side plates 661, 662. Side plates 661, 662 are welded or bonded to top plate 663. Top plate 663 supports a track formed by longitudinally extending channels 664, 665, which extend from the near end 657 to the drive assembly 663, along the inside of the fifth stick 20. Referring to FIG. 57, channels 664, 665 support shuttle-S5666 for linear movement therealong. Shuttle-S5666 has jaws 667, 668 provided to grip a brick. Top plate 663 supports bracket 669 at the near end 657 which supports idler pulleys 670, 671, 672, 673. Referring to FIG. 58, top plate 663 supports drive assembly 674 at the distal end 658. Drive assembly 674 moves belts 675 and 676 in order to move shuttle-S5666 and open and close jaws 667, 668 (shown in FIG. 57). Drive assembly 674 moves belts 675 and 676 in order to move shuttle-S5666 along fifth stick and open and close jaws 647, 648, in the same manner as that of the first boom 12 and its shuttle. Shuttle-S5666 can grasp a brick presented by shuttle-S4646 located through a void located at the near end 657 of the bottom plate 660. Shuttle-S5666 then moves the brick along the inside of fifth stick 20 to the second distal end 658 of fifth stick 20, where it will be unclamped.

The panels or plates making up each of the first stick 15, second stick 17, third stick 18, fourth stick 19 and fifth stick 20 may be provided with removable panel portions (not shown) to provide access for servicing of internal componentry within each stick.

Boom Cable Chains

Cable chains are used to route power and signals to and from the servo motors. The arrangement of the cable chains provides a compact over all cross section of the folding boom.

Referring to FIG. 65, bottom plate 218 of first boom 12, supports a first end 735 of cable chain 112. Cable chain 112 is also visible in FIGS. 11, 18, 19. The top plate 22 of second boom 14, supports a second end 736 of cable chain 112.

First near end 637 of fourth stick 19 supports a first end 737 of cable duct 733. Second end 738 of cable duct 733 supports a first end 739 of cable chain 734. The bottom plate 660 of fifth stick 20, supports the second end 740 of cable chain 734. Cable chain 734 and cable duct 733 are also visible in FIG. 56.

Referring to FIG. 66, the bottom plate 524 of second boom 14, supports a first end 741 of cable chain 563. The top plate 623 of third stick 18 supports a second end 742 of cable chain 563. Cable chain 563 is also visible in FIGS. 39, 40, 41, 42.

Referring to FIG. 67, the bottom plate 524 of second boom 14 supports a first end 743 of cable chain 564. The top plate 643 of fourth stick 19 supports a second end 744′ of cable chain 564. Cable chain 564 is also visible in FIGS. 39, 40, 41, 42.

Referring to FIGS. 1 and 5, cables (not shown) are routed from the electrical cabinet 82 through the frame 3, through the centre of slew ring 11, up through the inside of tower 10 and into first boom 12, then into cable chain 112 (shown in FIG. 65), then into second boom 14. Referring to FIG. 65, cables (not shown) are routed from second boom 14, to first stick 15, and to cable chain 565 and then into second stick 17, and as shown in FIG. 66 also into cable chain 563 and then into third stick 18, and as shown in FIG. 67 also into cable chain 564 and then into fourth stick 19.

Referring to FIG. 65, (cables not shown) are routed from fourth stick 19, through cable duct 733 into cable chain 734 then into fifth stick 20. From fifth stick 20, cables not shown are routed to the brick laying and adhesive applying head 32.

Flipper

Refer to FIGS. 59, 60, 61. Referring to FIG. 59, a pivotable clamp in the form of a flipper assembly 687 has jaws 690 and 693 to grip a brick and can then translate and rotate the brick to move it past an adhesive application nozzle 121, 122, 123, 124 and 125 and then present the brick for transfer to the laying arm. The flipper assembly 687 is located at the distal end 658 of the fifth stick 20.

FIG. 80A to 80Q show a sequence for a brick as it passes from the fifth stick to its laid position.

During the laying of bricks, the brick laying and adhesive applying head 32 is held at a constant tilt relative to the ground. The pose of the foldable boom is varied to position the brick laying and adhesive applying head 32 appropriately for the brick laying and adhesive applying head 32 to lay bricks in the required position. The angle of the stick assembly, varies according to the required pose of the foldable boom. The flipper assembly 687 is used to receive a brick from the stick assembly (FIG. 80A) and move the brick to a position suitable for an adhesive applicator 777 in the brick laying and adhesive applying head 32 to apply glue to said brick (FIGS. 80D-80G), and then for the brick laying gripper 44 to lay the brick (FIG. 80Q). Referring to FIG. 60, the flipper assembly 687 rotates about axis 33. The flipper assembly 687 has a gripper with jaws 690 and 693 that can slide toward or away from the axis of rotation 33 (which is the same horizontal axis of the mount of the brick laying and adhesive applying head 32 to the end of fifth stick 20). The gripper can extend into the fifth stick 20 to grasp a brick (FIG. 80B). The gripper then retracts to a position near the axis of rotation 33 (FIG. 80C) so that the brick is clear of the fifth stick 20. The brick is then rotated for the application of adhesive (FIG. 80D). The adhesive application nozzles are extended out over the brick (FIGS. 80E, 80F). The adhesive nozzles direct adhesive downwards so that gravity assists in applying the adhesive to the brick. The adhesive application nozzles are retracted whilst directing adhesive onto the brick (FIG. 80G). The flipper 687 then rotates (FIG. 80H) to orient the brick vertically (FIG. 803), so that adhesive application nozzles can apply adhesive to the end of the brick. The flipper then rotates (FIG. 80K) to invert the brick (FIG. 80L) so that the adhesive is on the bottom of the brick. The flipper 687 then extends the gripper out (FIG. 80M), to present the brick in a position where the brick laying gripper 44 can then grasp the brick (FIG. 80N). The flipper gripper then releases the brick and the flipper gripper then translates in a reverse direction whilst the flipper rotates in a reverse rotation (FIG. 80P, 80Q) so that the gripper is returned to its starting position (FIG. 80A).

A detailed description of the flipper assembly follows.

Refer to FIG. 59. Fifth stick 20 supports the flipper assembly 687 about the same horizontal axis 33 as the brick laying and adhesive applying head 32 is attached to the distal end of the fifth stick 20 (see FIG. 80A).

Refer to FIGS. 58, 59, 60 and 61. Referring to FIG. 59 the fifth stick 20 supports a bearing reducer 677 and a servo motor 678. Bearing reducer 677 supports an arm 679 of the flipper assembly 687 on its output, and a servo motor 678 rotates the input of bearing reducer 677. This rotates arm 679 and hence the flipper assembly 687 about axis 33. Referring to FIG. 60, the arm 679 supports a linear guide 680 which slideably supports a bearing car 681 for movement between a first end 707 and a second end 708 of the arm 679. A base plate 682 mounts to the bearing car 681, perpendicularly to the travel extent thereof. Referring to FIG. 61, a servo motor 684 for movement of the base plate 682 is mounted via a spacer 683 to the arm 679. Referring to FIG. 60, a servo motor 686 for movement of jaws 690 and 693 is mounted on motor mount plate 685 which is supported on base plate 682. Base plate 682 supports linear guides 688, 689 which slideably support bearing cars 691 and 692 respectively. Bearing car 691 supports jaw 690, and bearing car 692 supports jaw 693. Servo motor 686 drives pulley 694 which drives pulley 696 connected to leadscrew 695 via endless toothed belt 697. Referring to FIG. 61, base plate 682 supports a bearing 700 which rotateably supports the leadscrew 695. Referring to FIG. 60, jaw 690 supports a nut 698, and jaw 693 supports a nut 699, which nuts 698 and 699 are engaged with the leadscrew 695. Thus servo motor 685 drives the jaws 690 and 693 to clamp and unclamp a brick.

Referring to FIG. 60, the arm 679 supports a bracket 701 with an idler pulley 702 near end 708. Servo motor 684 (shown in FIG. 61) drives a pulley 703, which drives pulley 702 via endless belt 704. The base plate 682 has a clamp plate 705 (shown in FIG. 61) which clamps belt 704. Thus the servo motor 684 linearly moves base plate 682 along linear guide 680.

Refer to FIG. 59. Servo motor 678 can rotate arm 679 so that linear guide 680 is aligned parallel with the channels 664, 665 in fifth stick 20.

Jaws 690 and 693 can be moved by servo motor 684 towards the second distal end 658 of fifth stick 20 to pick up a brick (see FIG. 80B) that is being held by jaws 667, 668 of shuttle-S5666. Servo motor 686 can then close jaws 690 and 693 to grasp the brick. Servo motor 684 can then move jaws 690, 693, holding the brick towards first end 707 of arm 679 (see FIG. 80C). Servo motor 678 can then rotate arm 679 so that the top surface of said brick is presented flat, ready for adhesive application by the adhesive application system 150 (see FIGS. 80 D to G).

Optionally, servo motor 684 can then rotate arm 679 through 90 degrees so that the end of said brick is presented flat, ready for adhesive application by the adhesive application system 150 (see FIGS. 80H and J). It should be noted that in some structures, such as for walls that will be rendered, it is not necessary to apply adhesive to the vertical (or “perp”) joints of the bricks. Optionally, servo motor 684 can then rotate arm 679 through 180 degrees so that the opposite end of said brick is presented flat, ready for adhesive application by the adhesive application system 150, thereby applying adhesive to the bottom and both ends of said brick.

Servo motor 684 can then rotate arm 679 through 180 degrees (or 90 or 270 degrees, depending on which faces of the brick had adhesive applied to them), so that said brick is inverted, ready to be picked up by the laying arm gripper 44 (see FIGS. 80K to Q). In this way the glue is applied to the bottom of said brick that will be laid by the laying arm 40.

FIG. 75 shows a side view of the brick laying and adhesive applying head 32 and fifth stick 20. FIG. 75 shows the sequence of the brick 797 from a first position 791, to a second position 792, to a third position 793 to a fourth position 794 to a fifth position 795 to a sixth position 796. In first position 791, brick 797 is gripped by shuttle-S5666 (not shown in FIG. 75). The flipper jaws 690 and 693 are moved to grasp the brick 797 and then shuttle-S5666 releases the brick 797. The brick 797 is then translated to second position 792, then rotated to third position 793. Adhesive is then applied to the brick 797. Brick 797 is then optionally rotated to vertical position 794. Brick 797 is then rotated to a fifth position 795 and then translated to a sixth position 796.

Adhesive

Referring to FIG. 5, the frame 3 supports an adhesive container 110 and an adhesive pump 111. The adhesive pump 111 supplies pressurised adhesive to fluid conveying apparatus in the form of a hose which runs out along the boom and through the flexible energy chains 112 (shown in FIG. 65), 564 (shown in FIGS. 67) and 740 (shown in FIG. 65) provided in the telescopic boom and telescopic sticks, to the brick laying and adhesive applying head 32. Adhesives can be one pack or two pack, and should have some flexibility when set in order to avoid fracturing due to uneven expansion and contraction in the built structure. Suitable adhesives are single pack moisture curing polyurethane such as Sika “Techgrip”, Hunstman “Suprasec 7373” or Fortis AD5105S, single pack foaming polyurethane such as Soudal “Souda Bond Foam” or Weinerberger “Dryfix”, two part polyurethane such as that made by Huntsman, MS Polymer (Modified Silane Polymer) such as HB Fuller “Toolbox”, two part epoxy such as Latipoxy310 and methacrylate adhesive such as “Plexus”. It would be possible but less desirable (due to strength, flexibility and “pot life” and clean up reasons) to utilise water based adhesives such as latex, acrylic or cement based adhesives similar to various commercially available tile glue or Austral Bricks “Thin Bed Mortar”.

Refer to FIGS. 12 and 13. The adhesive applicator 777 has an adhesive head fitted with nozzles 121, 122, 123, 124 and 125, shown schematically in FIG. 13. The adhesive flow is controlled by electrically operable valves 118 and 119, located in a manifold head 117, close to the nozzles 121, 122, 123, 124 and 125, which are also supported on the manifold head 117. Space within the laying head is very restricted. The nozzles provided in two groups comprising a central group of nozzles 121, 122 and 123 supplied by valve 118, and a peripheral group of two outer nozzles 124 and 125 supplied by valve 119. The manifold head 117 is supported on a mechanism that can project the nozzles out to reach the length of a brick, and retract the nozzles to provide clearance so that the brick can be rotated and also by retracting the nozzles clearance is provided so that the laying head can be folded against a retracted stick assembly for compact transport. To achieve the extension and retraction, the nozzles are supported on a chain that can only bend one way and the chain is extended or retracted by a sprocket driven by a servo motor. A detailed description follows.

Refer to FIGS. 12, 13, 62 and 71. Referring to FIG. 62, the brick laying and adhesive applying head 32 supports an adhesive applicator assembly 777. Referring to FIG. 71, the adhesive applicator assembly 777 has a curved guide 113 attached to the brick laying and adhesive applying head 32. The curved guide 113 supports a tongue member in the form of a sliding chain 114 that can only bend one way. The sliding chain 114 is moved by a servo powered sprocket 115. The brick laying and adhesive applying head 32 supports a straight guide 784 into which the sliding chain 114 may be retracted. The distal end 116 of the sliding chain 114 supports a manifold 117 that supports two valves 118, 119. Each valve 118, 119 is connected to the pressurised adhesive supply 120 provided by the adhesive pump 111 mounted to the frame 3 (shown in FIG. 5). The first valve 118 is connected to three central glue nozzles 121, 122, 123, and the second valve 119 is connected to two outer glue nozzles 124, 125 (shown schematically in FIG. 13). The inner nozzles 121, 122, 123 are provided to allow glue to be applied to the top face of a narrow or internal brick, while the outer nozzles 124, 125 allow glue to be applied to the outer edges of the top face of a wide or external brick 126. The valves 118, 119 may be operated individually or together to supply glue to the inner nozzles 121, 122, 123, the outer nozzles 124, 125 or all nozzles 121, 122, 123, 124 and 125. The adhesive is applied in a direction extending downwardly from the valves on the manifold, the manifold being disposed on the sliding chain 114 which is disposed horizontally.

Refer to FIGS. 72 and 73. Referring to FIG. 72, the sliding chain 114 has a plurality of body portions in the form of hollow links 778 and a plurality of chain links in the form of joiner links 779. Joiner links 779 are standard items used to join power transmission chain, such as BS roller chain 16-B1 or ANSI roller chain 80-1. Referring to FIG. 73, hollow link 778 is provided with lugs 780, 781 to engage the pins 782 of joiner links 779 shown in FIG. 72. Hollow link 778 is provided with a longitudinally extending hole 783 for the passage of cables (not shown) and the pressurised adhesive 120 (see FIG. 13). The hollow links have ends that contact each other to prevent over extension of the sliding chain, allowing the sliding chain to be extended outward from the tip of the curved guide and retain a straight configuration, being bendable upward only, about the axes provided by the connection of the hollow links with the joiner links.

Referring to FIG. 74, the straight guide 784 is fitted with a lid 788. In FIG. 71 curved guide 113 is shown with the lid 787 removed for clarity. Straight guide 784 is shown without the lid 788 for clarity.

Referring to FIG. 72, consider the example of first hollow link 778, joiner link 779 and second hollow link 784′. It can be seen that second hollow link 784′ can pivot upwards relative to first hollow link 778, but second hollow link 784′ cannot pivot downwards relative to first hollow link 778. By extension of the logic to the plurality of hollow links 778 and joiner links 779, the sliding chain 114 can only curve upwards and not curve downwards.

Preferably the hollow links 778 are manufactured from a material with a low coefficient of friction such as acetal copolymer or UHMWPE (Ultra High Molecular Weight Polyethylene) plastic. The curved guide 113 and straight guide 784 may be manufactured from a material with a low coefficient of friction such as acetal plastic.

FIG. 74 shows a top view of straight guide 784. The straight guide 784 is provided with grooves 785, 786 so that joiner links 779 do not touch straight guide 784. Straight guide 784 may then be constructed from a material such as aluminium alloy which is more robust than acetal plastic.

Referring to FIG. 71, the curved guide 113 is also provided with grooves 789, 790 so that joiner links 779 do not touch curved guide 113. Curved guide 113 may then also be constructed from a material such as aluminium alloy which is more robust than acetal plastic.

The tongue in sheath arrangement of the adhesive applicator allows a single axis of servo motion control to move a nozzle for application of adhesive whilst maintaining a vertical nozzle orientation and also to retract the nozzle to allow for movement of the brick to the next step of the process. The laying head space is quite limited, so to achieve the application and retraction with more conventional linear movement mechanisms or articulating arm robots would require the use of two or more servo axes of motion or the addition of linkages and cam mechanisms.

Brick Laying and Adhesive Applying Head

Refer to FIG. 62. The brick laying and adhesive applying head 32 supports a brick laying head in the form of a spherical geometry robot 36 and the adhesive applicator assembly 777 along with a vision system and tracking system. After application of adhesive as described above, the brick laying and adhesive applying head 32 takes a brick from the jaws 690 and 693 of the flipper assembly 687 and moves it to a position where it is laid. The laying head also compensates for movement and deflection of the boom, so that the brick is laid in the correct position.

Refer to FIGS. 1, 12 and 62. Referring to FIG. 62, the articulated brick laying and adhesive applying head 32 has a body 801 with arms 803 and 805 forming a clevis which extends obliquely downward from the body 801. The arms 803 and 805 have apertures 807 and 809 to receive pins to pivotally mount the head 32 and the flipper assembly 687 about second horizontal axis 33 at the distal end 658 of the fifth telescopic stick 20 (see FIG. 1). Referring to FIG. 1, the brick laying and adhesive applying head 32 articulates about horizontal axis 33 substantially parallel to the articulation axis 16 of the first stick 15 and the articulation axis 13 of the first boom 12. The pose of the brick laying and adhesive applying head 32 is controlled by movement of a ram 35.

Referring to FIG. 62, the articulated brick laying and adhesive applying head 32 supports a brick laying head comprising a spherical geometry robot 36. The spherical geometry robot 36 has a linearly extendable arm 40 with a brick laying clamp in the form of a gripper 44 fitted at the lower end thereof. Referring to FIG. 1, the spherical geometry robot 36 has the following arrangement of joints: arm mount-roll angle 37, arm mount-pitch angle 38, arm sliding (arm length or linear extension) 39, wrist pitch angle 41, wrist roll angle 42, gripper yaw angle 43 and with gripper 44 fitted to rotate about yaw axis 45. This configuration provides pole free motion within the working envelope.

Referring to FIGS. 62 and 83, to achieve the arm mount-roll angle 37 adjustment, the body 801 supports a servo motor 810 with a belt driving a bearing reducer 812 connected to the base 811 of a clevis 813, the base being rotatable relative to the body 801 about a horizontal axis which runs normal to the clevis 813 axis. To achieve the arm mount-pitch angle 38 adjustment, the clevis 813 supports about its axis 814 a servo motor 816 attached to the body 801 driving via a belt a bearing reducer 818 connected to a base 815 for the arm 40.

The arm 40 has linear guides 820 which co-operate with bearing cars 822 (see FIG. 84) on the base 815 to guide linear extension of the arm relative to the mount, to allow the arm 40 to move in a direction (typically straight up and down, but this depends on the pose) normal to the axis 814 of the clevis 813 to provide sliding movement of the arm 40. This linear extension of the arm is controlled by a servo motor 823 attached to the base 815 with reduction drive pulleys connected by a toothed belt 825 driving a pinion 827 engaging a rack 829 located extending along the arm 40.

The brick laying clamp/gripper 44 mounts for controlled rotation by a servo motor 830 driving a bearing reducer 831 about an axis normal and perpendicular to the plane of its jaws 833, 835 and bearing reducer on a clevis 817 to provide the gripper yaw angle 43 adjustment; a universal joint formed by mechanism 819 comprising servo motor 837 and bearing reducer 839 connected by toothed belt 841 and pulleys provides wrist pitch angle 41 adjustment; and mechanism 821 comprising servo motor 843 and bearing reducer 845 driven by toothed belt 847 and pulleys provides wrist roll angle 42 adjustment (shown in FIG. 1). Details of these servo motors and drives can be seen in FIG. 85.

The brick laying and adhesive applying head 32 supports a hook 151 that can be used to lift items such as windows, doors, lintels and other items not shown.

Refer to FIG. 12 and FIG. 13. The brick laying and adhesive applying head 32 supports machine vision cameras 127, 128 mounted to view both sides of the brick 126 shown schematically in FIG. 13.

The jaws 835, 833 of the laying head gripper 44 are independently movable by independent lead screws 849, 851, engaged with nuts 853, 855 connected with the jaws 835, 833, and moveable by servo motors 857, 859, via drive belts 861, 863 respectively. This allows the offset gripping of a brick. The arrangements for moving the jaws 835, 833 use lead screws 849, 851 and co-operating nuts 853, 855, driven by separate servo motors 857, 859, respectively, similar to that as described for other grippers utilised elsewhere in the embodiment, apart from the drives for the jaws being separate in order to allow independent movement of the jaws.

As can be seen in FIG. 62, when considered with FIG. 71, the straight guide 784 of the adhesive applicator assembly 777, into which the sliding chain 114 may be retracted, is mounted in the body 801 of the brick laying and adhesive applying head 32, behind the servo motor with bearing reducer that connects to clevis 813. The curved guide 113 of the adhesive applicator assembly 777 descends/depends downwardly obliquely, substantially following the extent of the arms 803 and 805 for a short distance, before curving toward horizontal so that the sliding chain is presented extending substantially level, subject to the alignment of the brick laying and adhesive applying head 32 as controlled by the ram 35, and presented above where the flipper assembly 687 holds the brick. With this arrangement, the adhesive applicator assembly 777 is kept clear of positions through which arm 40 and gripper 44 of the spherical geometry robot 36 could be required to move.

Tracker and Slab Scan

Referring to FIGS. 1, 12, 62, the top of the brick laying and adhesive applying head 32 supports a tracker component 130. The tracker component 130 may be a Leica T-Mac or an API STS (Smart Track Sensor). Alternately tracker component 130 may be a single SMR (Spherical Mount Reflector) or corner cube reflector, or two or three SMRs or corner cube reflectors or a Nikon iGPS or any other suitable tracking device. Preferably the tracker component 130 provides real time 6 degrees of freedom position and orientation data at a rate of preferably greater than 10 kHz, or preferably 1000 Hz to 10 kHz, or preferably at a rate of 500 Hz to 1000 Hz or preferably a rate of 300 Hz to 500 Hz or 100 Hz to 300 Hz or 50 Hz to 100 Hz or 10 Hz to 50 Hz. The laying arm 40 and or the gripper 44 of the laying arm 40 may support a second or third tracker component 131, 132 of the same or different type to the first tracker component 130.

Referring to FIG. 3, a tracker component 133 or components, 133, 134, 135 are set up on the ground adjacent to the concrete slab 136 or on a nearby structure. The tracker component 130 on the laying head references its position relative to the tracker component 133 or components 133, 134, 135 set up on the ground or structure.

Referring to FIG. 12, the brick laying and adhesive applying head 32 supports a camera 137 that views the ground, slab 136 or structure or objects below it. The brick laying and adhesive applying head 32 is provided with laser or light projectors 138 that project dots or lines 139 onto the ground, footings, slab 136 or objects below it. Machine vision is used to determine the 3D shape of the ground, footings, slab 136 or objects below the laying head. Alternatively, the brick laying and adhesive applying head 32 is fitted with a laser scanner 140. After positioning the truck and unfolding the boom, the brick laying and adhesive applying head 32 is moved around by moving the boom and stick assembly 141 so that the brick laying and adhesive applying head 32 is optionally moved around the edge of the slab 136 and optionally above all positions that will be built upon. The machine vision system 143 or scanner 140 scans the slab 136 and the areas to be built on to firstly align the slab 136, machine 2 and working coordinate systems to their correct locations and secondly to quality check the slab 136 and check its flatness and level. If the slab 136 is not flat or level within tolerance the first course of bricks or selected bricks not shown can be individually machined by the router module 47 (prior to being transported to the tower 10 and boom and stick assembly 141) to correct the out of level, flatness or height. Optionally a brick may have a groove or notch or pocket machined in it to avoid a bump or defect or object (such as a pipe projecting through the slab) on the slab 136.

As the brick laying and adhesive applying head 32 lays a brick 144, the machine vision 143 or laser scanner 140 is used to measure the laid brick 144 so that the height of the laid brick 144 is stored and later used to adjust the laying height of the dependant bricks that are laid on top of it on the next course. If the height is over tolerance, the dependant bricks above it can be machined to a reduced thickness by the router 47.

The concrete slab 136 may alternatively be a slab of earth, rock, wood, plastic or other material or a steel deck or footings. The slab 136 may be on the ground or suspended.

FIG. 14 shows a side view of a slab 136 with a first course 163 of a plurality of bricks 159, 160, 161, 162, 163. The slab 136 may not be flat and in the example of FIG. 14 has a hump 164. To obtain a flat top 165 of the first course 163, the bricks, 159, are machined by the router module 47 or cut to height with the saw 46, prior to being transported to the tower 10 and boom and stick assembly 141.

The bricks are normally fired clay but may be concrete, aerated concrete, plastic, foam, wood, compressed wood, recycled material or any block or brick shaped component or any interlocking component or a random shaped component such as rock or stone or a sculpted or moulded complex object. For applications where the supplied dimensions or shape of the bricks, blocks or objects to be laid vary significantly from the design dimensions, additional routers or saws may be added to the machine so that routing or sawing of the bricks, blocks or objects can occur simultaneously on a number of bricks, blocks or objects in parallel.

Block Moulding

In a further variation of the machine not shown but described here, the machine is provided with an on board brick or block moulding machine. A filler mixture of for example sand, clay, aggregate stone or wood chip or wood fibre is supplied to a hopper. The hopper may then optionally supply the filler mixture to a mixer which may add a binder material such as cement or polymer adhesive or water or a thermoplastic powder or fiber. The mixer then supplies the mixed filler and binder to a brick moulding press. Optionally the moulded bricks may pass through a curing station which may apply a chemical curing agent or heat or radiation. The curing station may apply steam to rapidly cure a concrete binder. Alternatively, the curing station may apply UV light to cure a UV sensitive binder resin. Alternatively, the curing station may apply moisture to cure a moisture curing polyurethane binder material. Alternatively, the curing station may apply heat to cure an epoxy binder. The moulded bricks may then be used by the automated brick laying machine. Alternatively, the filler mixture may contain a thermoplastic material such as recycled plastic. When pressed under heat the plastic binder melts, fusing the sand or aggregate or wood fiber material when it cools. Brick or block making presses are commercially available from suppliers such as Besser.

Harsh Environment

In an adaptation of the machine, with radiation protection, the machine could be used for erecting containment structures in nuclear disaster zones.

In a further adaptation of the machine, the machine may be adapted to work in a low pressure atmosphere or in a vacuum and in the presence of ionising radiation. In this format with an integral automated brick or block making unit, the machine could be used for building structures on the moon or Mars or in other extra-terrestrial locations.

Advantages of the Invention

The invention provides an improved automated brick laying machine that is compact and mobile and able to drive on public roads. The arrangement and configuration of components allows the machine to have a very large working envelope whilst also being compact for road travel. It is capable of receiving packs of bricks and processes them to in effect 3D print a full size structure of walls. The machine is electronically programmed and can build a wide variety of structures.

The invention uses thin bed mortars or liquid adhesives which need not support the weight of a brick so can be very fluid and may contain no particulates or may contain very fine non-abrasive particulates, rather than abrasive sand which is used in thick bed mortars used in traditional manual brick-laying. Given variations in slab height, the desire to completely remove the need for a thick bed of mortar or thick adhesive between the slab and the first course of bricks requires a very level slab, level within a few mm of height tolerance. To achieve the slab height tolerance required for use of thin be mortars would incur significant additional cost from concrete contractors. The provision of a router module in the invention allows bricks to be pre-machined based on measured slab elevation at the required brick location, which results in only a slight increase in build time, to machine in the router, each brick in the first course, so that the top of the first course is laid at the correct height and level, even on inaccurate slabs. Deviations of between 0 and 50 mm of flatness and level can be easily accommodated. Larger deviations could be accommodated if required.

To build common house size structures, the boom needs to reach out 30m. To manoeuvre on suburban roads a short truck is advantageous. To fit on small building sites a compact machine is advantageous. Bricks being conveyed along a boom, must be restrained, so that they can't fall and damage structures or injure personnel. By conveying the bricks along the inside of the boom, the cross section of the boom can be made smaller than the total cross section of a boom with external guarding to contain externally conveyed bricks. The smaller boom cross section enables a smaller and more compact machine to be built. The present invention has cable chains routed inside the boom. By conveying the bricks internally, and routing the services internally, the structural cross section of the boom is maximised for a given over all cross section, thereby increasing the stiffness of the boom which reduces the dynamic displacement of the boom. A light weight boom is also possible due to the large cross section.

The present invention utilises a series of shuttles that transfer a brick from one shuttle to the next. This system has the advantage that the movement of bricks along the boom is completely independent of the brick preparation or laying processes. In this way, the laying rate can be kept as high as possible. Both the brick preparation, the brick transport and the laying process can proceed at the individual maximum rates, limited only by the availability of the bricks into each process, and the availability of a consumer process for the output of the bricks.

The invention is intended to build all of the external and internal walls of a structure. Whilst it would be possible for the invention to build only some of the brick walls in a structure, with the remaining walls being manually constructed later with manually laid bricks or manually placed stud walls or precast panels, it should be understood that the invention allows the rapid and accurate placement of bricks and construction of brick walls faster and at a cost equal to or lower than the cost of manually built walls using bricks or stud framing or pre cast concrete.

It should be appreciated that the scope of the invention is not limited to the particular embodiment described herein, and the skilled addressee will understand that changes can be made without departing from the spirit and scope of the invention.

Claims

1. A vehicle mounted brick laying machine, including: a. a vehicle chassis;b. a frame mounted onto the chassis of the vehicle;c. a brick laying machine mounted onto the frame, the brick laying machine configured to transport bricks from one or more packs or pallets of bricks loaded into a base of the machine to a foldable and telescopically extendable boom through which the bricks are conveyed internally to a brick laying and adhesive applying head from which the bricks are laid, the brick laying and adhesive applying head located at a remote end of the boom;wherein, the brick laying and adhesive applying head includes a spherical geometry robot that compensates for movement and deflection of the boom, so that each brick is laid in the correct position.
2. The vehicle mounted brick laying machine as claimed in claim 1, wherein the foldable and telescopically extendable boom includes a first boom element and a second boom element pivotable about a folding axis.
3. The vehicle mounted brick laying machine as claimed in claim 2, wherein the first boom element includes a telescopic boom and the second boom element includes a telescopic stick.
4. The vehicle mounted brick laying machine as claimed in claim 3, wherein bricks are transported through each element of the telescopic boom and each element of the telescopic stick via shuttles which clamp each brick.
5. The vehicle mounted brick laying machine as claimed in claim 1, wherein the brick laying and adhesive applying head has a body with spaced apart arms forming a first clevis which extends obliquely downward from the body.
6. The vehicle mounted brick laying machine as claimed in claim 5, wherein the arms of the brick laying and adhesive applying head are pivotally connected to the remote end of the boom about a first horizontal axis.
7. The vehicle mounted brick laying machine as claimed in claim 1, wherein the spherical geometry robot includes a linearly extendable robot arm having an end effector that is moveable to a position in which a brick is laid.
8. The vehicle mounted brick laying machine as claimed in claim 7 wherein the spherical geometry robot has six degrees of freedom (6DOF) provided by the following arrangement of joints: a. an arm mount roll joint;b. an arm mount pitch joint;c. an arm mount sliding joint;d. a wrist pitch joint;e. a wrist roll joint; and,f. a wrist yaw joint.
9. The vehicle mounted brick laying machine as claimed in claim 8, wherein the joints are actuated by servo motors and drives.
10. The vehicle mounted brick laying machine as claimed in claim 8 or claim 9, wherein the robot arm is mounted to the brick laying and adhesive applying head via a second clevis having a base rotatably supported by the body of the bricklaying and adhesive applying head, the base being rotatable relative to the body about a second horizontal axis which runs normal to an axis through the second clevis in order to provide the arm mount roll joint adjustment.
11. The vehicle mounted brick laying machine as claimed in claim 10, wherein the second clevis includes a robot arm base rotatably mounted between second clevis arms which provides the arm mount pitch adjustment.
12. The vehicle mounted brick laying machine as claimed in claim 11, wherein the robot arm has linear guides which cooperate with bearing cars on the arm base to guide linear extension of the robot arm relative to the mount which allows the robot arm to be slidably adjusted.
13. The vehicle mounted brick laying machine as claimed in claim 1, wherein the brick laying and adhesive applying head includes a first tracker component mounted thereto which is tracked by a second tracker component set up on the ground proximate the vehicle, and wherein the second tracker component tracks the first tracker component to provide real time six degrees of freedom position and orientation data of the first tracker component.
14. The vehicle mounted brick laying machine as claimed in claim 13, wherein the position and orientation data of the first tracker component is used to apply compensating movement to the spherical geometry robot to correct for variance between programmed tracker component position and measured tracker component position.

Priority Claims (1)

Number	Date	Country	Kind
2016902787	Jul 2016	AU	national

CROSS-REFERENCE TO RELATED APPLICATIONS

This application is a continuation of U.S. patent application Ser. No. 16/823,596 filed on Mar. 19, 2020, which is a continuation of U.S. patent application Ser. No. 16/317,792 filed on Jan. 14, 2019 (now U.S. Pat. No. 10,635,758), which is a national stage entry under 35 C.F.R. 371 of International Application No. PCT/AU2017/050731 filed on Jul. 14, 2017, which claims priority to Australian Patent Application No. 2016902787 filed on Jul. 15, 2016, the disclosures of which are each incorporated by reference herein in their entireties.

US Referenced Citations (400)

Number	Name	Date	Kind
1633192	Reagan	Jun 1927	A
1829435	Barnhart	Oct 1931	A
3438171	Demarest	Apr 1969	A
3757484	Williamson et al.	Sep 1973	A
3790428	Lingl	Feb 1974	A
RE28305	Williamson et al.	Jan 1975	E
3930929	Lingl	Jan 1976	A
3950914	Lowen	Apr 1976	A
4033463	Cervin	Jul 1977	A
4106259	Taylor-smith	Aug 1978	A
4221258	Richard	Sep 1980	A
4245451	Taylor-smith	Jan 1981	A
4303363	Cervin	Dec 1981	A
4523100	Payne	Jun 1985	A
4708562	Melan et al.	Nov 1987	A
4714339	Lau	Dec 1987	A
4758036	Legille et al.	Jul 1988	A
4765789	Lonardi et al.	Aug 1988	A
4790651	Brown et al.	Dec 1988	A
4827689	Lonardi et al.	May 1989	A
4852237	Tradt et al.	Aug 1989	A
4911595	Kirchen et al.	Mar 1990	A
4945493	Huang et al.	Jul 1990	A
4952772	Zana	Aug 1990	A
4954762	Miyake et al.	Sep 1990	A
4969789	Searle	Nov 1990	A
5004844	Van et al.	Apr 1991	A
5013986	Gauggel	May 1991	A
5018923	Melan et al.	May 1991	A
5049797	Phillips	Sep 1991	A
5080415	Bjornson	Jan 1992	A
5196900	Pettersen	Mar 1993	A
5284000	Milne et al.	Feb 1994	A
5321353	Furness	Jun 1994	A
5403140	Carmichael et al.	Apr 1995	A
5413454	Movsesian	May 1995	A
5419669	Kremer et al.	May 1995	A
5420489	Hansen et al.	May 1995	A
5469531	Faure et al.	Nov 1995	A
5497061	Nonaka et al.	Mar 1996	A
5523663	Tsuge et al.	Jun 1996	A
5527145	Duncan	Jun 1996	A
5557397	Hyde et al.	Sep 1996	A
5581975	Trebbi	Dec 1996	A
5737500	Seraji et al.	Apr 1998	A
5838882	Gan et al.	Nov 1998	A
6018923	Wendt	Feb 2000	A
6049377	Lau et al.	Apr 2000	A
6101455	Davis	Aug 2000	A
6134507	Markey, Jr. et al.	Oct 2000	A
6166809	Pettersen et al.	Dec 2000	A
6166811	Long et al.	Dec 2000	A
6172754	Niebuhr	Jan 2001	B1
6213309	Dadisho	Apr 2001	B1
6285959	Greer	Sep 2001	B1
6310644	Keightley	Oct 2001	B1
6330503	Sharp et al.	Dec 2001	B1
6370837	Mcmahon et al.	Apr 2002	B1
6427122	Lin	Jul 2002	B1
6429016	Mcneil	Aug 2002	B1
6512993	Kacyra et al.	Jan 2003	B2
6516272	Lin	Feb 2003	B2
6584378	Anfindsen	Jun 2003	B1
6611141	Schulz	Aug 2003	B1
6618496	Tassakos et al.	Sep 2003	B1
6628322	Cerruti	Sep 2003	B1
6643002	Drake, Jr.	Nov 2003	B2
6664529	Pack et al.	Dec 2003	B2
6681145	Greenwood et al.	Jan 2004	B1
6683694	Cornil	Jan 2004	B2
6704619	Coleman et al.	Mar 2004	B1
6741364	Lange et al.	May 2004	B2
6825937	Gebauer et al.	Nov 2004	B1
6850946	Rappaport et al.	Feb 2005	B1
6859729	Breakfield et al.	Feb 2005	B2
6864966	Giger	Mar 2005	B2
6868847	Ainedter et al.	Mar 2005	B2
6873880	Hooke et al.	Mar 2005	B2
6917893	Dietsch et al.	Jul 2005	B2
6935036	Barber et al.	Aug 2005	B2
6957496	Raab et al.	Oct 2005	B2
6965843	Hobden et al.	Nov 2005	B2
6970802	Ban et al.	Nov 2005	B2
6996912	Raab et al.	Feb 2006	B2
7050930	Hobden et al.	May 2006	B2
7051450	Barber et al.	May 2006	B2
7069664	Barber et al.	Jul 2006	B2
7107144	Capozzi et al.	Sep 2006	B2
7111437	Ainedter	Sep 2006	B2
7130034	Barvosa-carter et al.	Oct 2006	B2
7142981	Hablani	Nov 2006	B2
7145647	Suphellen et al.	Dec 2006	B2
7153454	Khoshnevis	Dec 2006	B2
7174651	Barber et al.	Feb 2007	B2
7230689	Lau	Jun 2007	B2
7246030	Raab et al.	Jul 2007	B2
7269910	Raab et al.	Sep 2007	B2
7347311	Rudge	Mar 2008	B2
7519493	Atwell et al.	Apr 2009	B2
7551121	Oconnell et al.	Jun 2009	B1
7564538	Sakimura et al.	Jul 2009	B2
7570371	Storm	Aug 2009	B1
7576836	Bridges	Aug 2009	B2
7576847	Bridges	Aug 2009	B2
7591078	Crampton	Sep 2009	B2
7639347	Eaton	Dec 2009	B2
7693325	Pulla et al.	Apr 2010	B2
7701587	Shioda et al.	Apr 2010	B2
7774159	Cheng et al.	Aug 2010	B2
7800758	Bridges et al.	Sep 2010	B1
7804602	Raab	Sep 2010	B2
RE42055	Raab et al.	Jan 2011	E
RE42082	Raab et al.	Feb 2011	E
7881896	Atwell et al.	Feb 2011	B2
7967549	Geist et al.	Jun 2011	B2
7993289	Quistgaard et al.	Aug 2011	B2
8036452	Pettersson et al.	Oct 2011	B2
8054451	Karazi et al.	Nov 2011	B2
8060344	Stathis	Nov 2011	B2
8145446	Atwell et al.	Mar 2012	B2
8166727	Pivac et al.	May 2012	B2
8169604	Braghiroli et al.	May 2012	B2
8185240	Williams et al.	May 2012	B2
8229208	Pulla et al.	Jul 2012	B2
8233153	Knuettel	Jul 2012	B2
8244030	Pettersson et al.	Aug 2012	B2
8248620	Wicks et al.	Aug 2012	B2
8269984	Hinderling et al.	Sep 2012	B2
8327555	Champ	Dec 2012	B2
8337407	Quistgaard et al.	Dec 2012	B2
8345926	Clark et al.	Jan 2013	B2
8346392	Walser et al.	Jan 2013	B2
8405716	Yu et al.	Mar 2013	B2
8467072	Cramer et al.	Jun 2013	B2
8537372	Siercks et al.	Sep 2013	B2
8537376	Day et al.	Sep 2013	B2
8558992	Steffey	Oct 2013	B2
8593648	Cramer et al.	Nov 2013	B2
8595948	Raab et al.	Dec 2013	B2
8606399	Williams et al.	Dec 2013	B2
8634950	Simonetti et al.	Jan 2014	B2
8644964	Hendron et al.	Feb 2014	B2
8668074	Davidson	Mar 2014	B2
8670114	Bridges et al.	Mar 2014	B2
8677643	Bridges et al.	Mar 2014	B2
8792709	Pulla et al.	Jul 2014	B2
8803055	Lau et al.	Aug 2014	B2
8812155	Brethe	Aug 2014	B2
8825208	Benson	Sep 2014	B1
8832954	Atwell et al.	Sep 2014	B2
8848203	Bridges et al.	Sep 2014	B2
8875409	Kretschmer et al.	Nov 2014	B2
8898919	Bridges et al.	Dec 2014	B2
8902408	Bridges	Dec 2014	B2
8913814	Gandyra	Dec 2014	B2
8931182	Raab et al.	Jan 2015	B2
8942940	York	Jan 2015	B2
8965571	Peters et al.	Feb 2015	B2
8996244	Summer et al.	Mar 2015	B2
8997362	Briggs et al.	Apr 2015	B2
9020240	Pettersson et al.	Apr 2015	B2
9033998	Schaible et al.	May 2015	B1
RE45565	Bridges et al.	Jun 2015	E
9046360	Atwell et al.	Jun 2015	B2
9074381	Drew	Jul 2015	B1
9109877	Thierman	Aug 2015	B2
9146315	Bosse et al.	Sep 2015	B2
9151830	Bridges	Oct 2015	B2
9163922	Bridges et al.	Oct 2015	B2
9170096	Fowler et al.	Oct 2015	B2
9188430	Atwell et al.	Nov 2015	B2
9207309	Bridges	Dec 2015	B2
9223025	Debrunner et al.	Dec 2015	B2
9229108	Debrunner et al.	Jan 2016	B2
9266238	Huettenhofer	Feb 2016	B2
9267784	Atwell et al.	Feb 2016	B2
9278448	Freeman	Mar 2016	B2
9279661	Tateno et al.	Mar 2016	B2
9303988	Tani	Apr 2016	B2
9353519	Williams	May 2016	B2
9354051	Dunne et al.	May 2016	B2
9358688	Drew	Jun 2016	B2
9367741	Le Marec	Jun 2016	B2
9377301	Neier et al.	Jun 2016	B2
9383200	Hulm et al.	Jul 2016	B2
9395174	Bridges	Jul 2016	B2
9405293	Meuleau	Aug 2016	B2
9423282	Moy	Aug 2016	B2
9437005	Tateno et al.	Sep 2016	B2
9443308	Pettersson et al.	Sep 2016	B2
9452533	Calkins et al.	Sep 2016	B2
9454818	Cramer	Sep 2016	B2
9476695	Becker et al.	Oct 2016	B2
9482524	Metzler et al.	Nov 2016	B2
9482525	Bridges	Nov 2016	B2
9482746	Bridges	Nov 2016	B2
9494686	Maryfield et al.	Nov 2016	B2
9513100	Raab et al.	Dec 2016	B2
9536163	Veeser et al.	Jan 2017	B2
9541371	Pettersson et al.	Jan 2017	B2
9561019	Mihailescu et al.	Feb 2017	B2
9607239	Bridges et al.	Mar 2017	B2
9618620	Zweigle et al.	Apr 2017	B2
9658061	Wilson et al.	May 2017	B2
9671221	Ruhland et al.	Jun 2017	B2
9679385	Suzuki et al.	Jun 2017	B2
9686532	Tohme	Jun 2017	B2
9708079	Desjardien et al.	Jul 2017	B2
9715730	Suzuki	Jul 2017	B2
9720087	Christen et al.	Aug 2017	B2
9734609	Pulla et al.	Aug 2017	B2
9739595	Lau	Aug 2017	B2
9746308	Gong	Aug 2017	B2
9757859	Kolb et al.	Sep 2017	B1
9768837	Charvat et al.	Sep 2017	B2
9772173	Atwell et al.	Sep 2017	B2
9803969	Gong	Oct 2017	B2
9816813	Lettau et al.	Nov 2017	B2
9829305	Gong	Nov 2017	B2
9835717	Bosse et al.	Dec 2017	B2
9844792	Pettersson et al.	Dec 2017	B2
9879976	Bridges et al.	Jan 2018	B2
9897442	Pettersson et al.	Feb 2018	B2
9903939	Charvat et al.	Feb 2018	B2
9909855	Becker et al.	Mar 2018	B2
9915733	Fried et al.	Mar 2018	B2
9921046	Gong	Mar 2018	B2
9958268	Ohtomo et al.	May 2018	B2
9958545	Eichenholz et al.	May 2018	B2
9964398	Becker et al.	May 2018	B2
9964402	Tohme et al.	May 2018	B2
9967545	Tohme	May 2018	B2
9989353	Bartmann et al.	Jun 2018	B2
10012732	Eichenholz et al.	Jul 2018	B2
10030972	Iseli et al.	Jul 2018	B2
10041793	Metzler et al.	Aug 2018	B2
10054422	Böckem et al.	Aug 2018	B2
10058394	Johnson et al.	Aug 2018	B2
10073162	Charvat et al.	Sep 2018	B2
10074889	Charvat et al.	Sep 2018	B2
10082521	Atlas et al.	Sep 2018	B2
10090944	Charvat et al.	Oct 2018	B1
10094909	Charvat et al.	Oct 2018	B2
10126415	Becker et al.	Nov 2018	B2
10189176	Williams	Jan 2019	B2
10220511	Linnell et al.	Mar 2019	B2
10240949	Peters et al.	Mar 2019	B2
10315904	Landler	Jun 2019	B2
10635758	Pivac et al.	Apr 2020	B2
10865578	Pivac et al.	Dec 2020	B2
10876308	Pivac et al.	Dec 2020	B2
11106836	Pivac et al.	Aug 2021	B2
20020176603	Bauer et al.	Nov 2002	A1
20030048459	Gooch	Mar 2003	A1
20030090682	Gooch et al.	May 2003	A1
20030120377	Hooke et al.	Jun 2003	A1
20030206285	Lau	Nov 2003	A1
20040078137	Breakfield et al.	Apr 2004	A1
20040093119	Gunnarsson et al.	May 2004	A1
20040200947	Lau	Oct 2004	A1
20050007450	Hill et al.	Jan 2005	A1
20050057745	Bontje	Mar 2005	A1
20050060092	Hablani	Mar 2005	A1
20050086901	Chisholm	Apr 2005	A1
20050131619	Rappaport et al.	Jun 2005	A1
20050196484	Khoshnevis	Sep 2005	A1
20050252118	Matsufuji	Nov 2005	A1
20060167587	Read	Jul 2006	A1
20060215179	Mcmurtry et al.	Sep 2006	A1
20070024870	Girard et al.	Feb 2007	A1
20070229802	Lau	Oct 2007	A1
20070284215	Rudge	Dec 2007	A1
20080030855	Lau	Feb 2008	A1
20080189046	Eliasson et al.	Aug 2008	A1
20090038258	Pivac et al.	Feb 2009	A1
20090074979	Krogedal et al.	Mar 2009	A1
20100025349	Khoshnevis	Feb 2010	A1
20100138185	Kang	Jun 2010	A1
20100274390	Walser et al.	Oct 2010	A1
20100281822	Murray	Nov 2010	A1
20110066393	Groll et al.	Mar 2011	A1
20110153524	Schnackel	Jun 2011	A1
20110208347	Otake et al.	Aug 2011	A1
20120038074	Khoshnevis	Feb 2012	A1
20120099096	Bridges et al.	Apr 2012	A1
20120136524	Everett et al.	May 2012	A1
20120265391	Letsky	Oct 2012	A1
20120277898	Kawai et al.	Nov 2012	A1
20130028478	St-pierre et al.	Jan 2013	A1
20130068061	Yoon	Mar 2013	A1
20130103192	Huettenhofer	Apr 2013	A1
20130104407	Lee	May 2013	A1
20130222816	Briggs et al.	Aug 2013	A1
20130250285	Bridges et al.	Sep 2013	A1
20130286196	Atwell	Oct 2013	A1
20140002608	Atwell et al.	Jan 2014	A1
20140067121	Brooks et al.	Mar 2014	A1
20140176677	Valkenburg et al.	Jun 2014	A1
20140192187	Atwell et al.	Jul 2014	A1
20140309960	Vennegeerts et al.	Oct 2014	A1
20140343727	Calkins et al.	Nov 2014	A1
20140348388	Metzler et al.	Nov 2014	A1
20140366481	Benson	Dec 2014	A1
20150082740	Peters et al.	Mar 2015	A1
20150100066	Kostrzewski et al.	Apr 2015	A1
20150134303	Chang et al.	May 2015	A1
20150153720	Pettersson et al.	Jun 2015	A1
20150241203	Jordil et al.	Aug 2015	A1
20150258694	Hand et al.	Sep 2015	A1
20150276402	Grsser et al.	Oct 2015	A1
20150280829	Breuer	Oct 2015	A1
20150293596	Krausen et al.	Oct 2015	A1
20150309175	Hinderling et al.	Oct 2015	A1
20150314890	Desjardien et al.	Nov 2015	A1
20150352721	Wicks et al.	Dec 2015	A1
20150355310	Gong et al.	Dec 2015	A1
20150367509	Georgeson	Dec 2015	A1
20150371082	Csaszar et al.	Dec 2015	A1
20150377606	Thielemans	Dec 2015	A1
20160005185	Geissler	Jan 2016	A1
20160093099	Bridges	Mar 2016	A1
20160153786	Liu et al.	Jun 2016	A1
20160187130	Metzler et al.	Jun 2016	A1
20160187470	Becker et al.	Jun 2016	A1
20160223364	Peters et al.	Aug 2016	A1
20160242744	Mihailescu et al.	Aug 2016	A1
20160263767	Williams	Sep 2016	A1
20160274237	Stutz	Sep 2016	A1
20160282107	Roland et al.	Sep 2016	A1
20160282110	Vagman et al.	Sep 2016	A1
20160282179	Nazemi et al.	Sep 2016	A1
20160288331	Sivich et al.	Oct 2016	A1
20160313114	Tohme et al.	Oct 2016	A1
20160327383	Becker et al.	Nov 2016	A1
20160340873	Eidenberger et al.	Nov 2016	A1
20160341041	Puura et al.	Nov 2016	A1
20160349746	Grau	Dec 2016	A1
20160363436	Clark et al.	Dec 2016	A1
20160363659	Mindell et al.	Dec 2016	A1
20160363663	Mindell et al.	Dec 2016	A1
20160363664	Mindell et al.	Dec 2016	A1
20160364869	Siercks et al.	Dec 2016	A1
20160364874	Tohme et al.	Dec 2016	A1
20170066157	Peters et al.	Mar 2017	A1
20170067739	Siercks et al.	Mar 2017	A1
20170082436	Siercks et al.	Mar 2017	A1
20170091922	Siercks et al.	Mar 2017	A1
20170091923	Siercks et al.	Mar 2017	A1
20170108528	Atlas et al.	Apr 2017	A1
20170122733	Brown	May 2017	A1
20170122736	Dold et al.	May 2017	A1
20170166399	Stubbs	Jun 2017	A1
20170173796	Kim et al.	Jun 2017	A1
20170176572	Charvat et al.	Jun 2017	A1
20170179570	Charvat	Jun 2017	A1
20170179603	Charvat et al.	Jun 2017	A1
20170191822	Becker et al.	Jul 2017	A1
20170227355	Pettersson et al.	Aug 2017	A1
20170236299	Valkenburg et al.	Aug 2017	A1
20170254102	Peters et al.	Sep 2017	A1
20170269203	Trishaun	Sep 2017	A1
20170307757	Hinderling et al.	Oct 2017	A1
20170314909	Dang	Nov 2017	A1
20170314918	Shah	Nov 2017	A1
20170333137	Roessler	Nov 2017	A1
20170343336	Lettau	Nov 2017	A1
20180003493	Bernhard et al.	Jan 2018	A1
20180017384	Siercks et al.	Jan 2018	A1
20180023935	Atwell et al.	Jan 2018	A1
20180038684	Fröhlich et al.	Feb 2018	A1
20180046096	Shibazaki	Feb 2018	A1
20180052233	Frank et al.	Feb 2018	A1
20180108178	Murugappan et al.	Apr 2018	A1
20180121571	Tiwari et al.	May 2018	A1
20180149469	Becker et al.	May 2018	A1
20180156601	Pontai	Jun 2018	A1
20180170719	Tasch et al.	Jun 2018	A1
20180180416	Edelman et al.	Jun 2018	A1
20180202796	Ziegenbein	Jul 2018	A1
20180209156	Pettersson	Jul 2018	A1
20180239010	Mindell et al.	Aug 2018	A1
20180300433	Maxam et al.	Oct 2018	A1
20190026401	Benjamin et al.	Jan 2019	A1
20190032348	Parkes	Jan 2019	A1
20190184555	Linnell et al.	Jun 2019	A1
20190224846	Pivac et al.	Jul 2019	A1
20190251210	Pivac et al.	Aug 2019	A1
20200173777	Pivac et al.	Jun 2020	A1
20200206923	Pivac et al.	Jul 2020	A1
20200206924	Pivac et al.	Jul 2020	A1
20200215688	Pivac et al.	Jul 2020	A1
20200215692	Pivac et al.	Jul 2020	A1
20200215693	Pivac et al.	Jul 2020	A1
20200324981	Pivac et al.	Oct 2020	A1
20210016437	Pivac et al.	Jan 2021	A1
20210016438	Pivac et al.	Jan 2021	A1
20210080582	Pivac et al.	Mar 2021	A1
20210291362	Pivac et al.	Sep 2021	A1
20210370509	Pivac et al.	Dec 2021	A1
20210379775	Pivac et al.	Dec 2021	A1

Foreign Referenced Citations (151)

Number	Date	Country
645640	Jan 1994	AU
673498	Mar 1990	CH
2730976	Oct 2005	CN
2902981	May 2007	CN
2923903	Jul 2007	CN
101100903	Jan 2008	CN
201184054	Jan 2009	CN
101360873	Feb 2009	CN
101476883	Jul 2009	CN
100557169	Nov 2009	CN
101694130	Apr 2010	CN
201972413	Sep 2011	CN
102359282	Feb 2012	CN
202248944	May 2012	CN
202292752	Jul 2012	CN
102995911	Mar 2013	CN
202925913	May 2013	CN
103363902	Oct 2013	CN
103698769	Apr 2014	CN
203701626	Jul 2014	CN
104141391	Nov 2014	CN
104153591	Nov 2014	CN
104493810	Apr 2015	CN
204295678	Apr 2015	CN
104612411	May 2015	CN
204311767	May 2015	CN
103774859	Nov 2015	CN
103753586	Dec 2015	CN
105113373	Dec 2015	CN
105178616	Dec 2015	CN
105257008	Jan 2016	CN
105544998	May 2016	CN
104806028	Nov 2016	CN
205668271	Nov 2016	CN
205840368	Dec 2016	CN
205990775	Mar 2017	CN
206185879	May 2017	CN
206189878	May 2017	CN
105089274	Jun 2017	CN
105064699	Jul 2017	CN
107217859	Sep 2017	CN
107237483	Oct 2017	CN
107357294	Nov 2017	CN
107605167	Jan 2018	CN
206844687	Jan 2018	CN
107654077	Feb 2018	CN
107675891	Feb 2018	CN
107740591	Feb 2018	CN
106088632	Mar 2018	CN
107762165	Mar 2018	CN
207063553	Mar 2018	CN
106088631	May 2018	CN
107975245	May 2018	CN
108061551	May 2018	CN
108222527	Jun 2018	CN
108301628	Jul 2018	CN
108331362	Jul 2018	CN
106150109	Aug 2018	CN
108457479	Aug 2018	CN
108708560	Oct 2018	CN
208023979	Oct 2018	CN
106881711	Apr 2019	CN
107083845	Jun 2019	CN
108016585	Jul 2019	CN
3430915	Mar 1986	DE
4038260	Jun 1991	DE
4207384	Sep 1993	DE
19509809	Oct 1995	DE
4417928	Nov 1995	DE
29601535	May 1997	DE
19600006	Jul 1997	DE
19603234	Sep 1997	DE
19743717	Apr 1999	DE
19849720	May 2000	DE
10230021	Jul 2003	DE
102006030130	Sep 2007	DE
102009018070	Oct 2010	DE
102009042014	Mar 2011	DE
202012100646	Jun 2013	DE
102013019869	May 2015	DE
190076	Aug 1986	EP
370682	May 1990	EP
456020	Jan 1995	EP
493020	Apr 1995	EP
495525	Apr 1995	EP
836664	Jan 1999	EP
674069	Dec 1999	EP
1918478	May 2008	EP
2112291	Oct 2009	EP
2219528	Aug 2010	EP
2249997	Nov 2010	EP
2353801	Aug 2011	EP
2199719	Oct 2014	EP
3084719	Oct 2016	EP
2296556	Apr 2008	ES
2230825	Dec 1974	FR
2524522	Oct 1983	FR
119331	Oct 1918	GB
2198105	May 1923	GB
673472	Jun 1952	GB
682010	Nov 1952	GB
839253	Jun 1960	GB
1067604	May 1967	GB
1465068	Feb 1977	GB
125079	Dec 2001	GB
2422400	Jul 2006	GB
64006719	Jan 1989	JP
H07101509	Nov 1999	JP
2005283600	Oct 2005	JP
4294990	Apr 2009	JP
2009521630	Jun 2009	JP
5508895	Mar 2014	JP
87054	Jun 1989	LU
87381	Jun 1990	LU
88144	Apr 1994	LU
85392	Aug 2009	RU
9702397	Jan 1997	WO
2001076830	Oct 2001	WO
2004020760	Mar 2004	WO
2004083540	Sep 2004	WO
2005014240	Feb 2005	WO
2005017550	Feb 2005	WO
2005070657	Aug 2005	WO
2004011734	Nov 2005	WO
2006111827	Oct 2006	WO
2007076581	Jul 2007	WO
2008124713	Oct 2008	WO
2009026641	Mar 2009	WO
2009026642	Mar 2009	WO
2010020457	Feb 2010	WO
2011077006	Jun 2011	WO
2013088154	Jun 2013	WO
2013134559	Sep 2013	WO
2018009978	Jan 2018	WO
2018009980	Jan 2018	WO
2018009981	Jan 2018	WO
2018009985	Jan 2018	WO
2018009986	Jan 2018	WO
2018052469	Apr 2018	WO
2018099323	Jun 2018	WO
2019006511	Jan 2019	WO
2019014701	Jan 2019	WO
2019014702	Jan 2019	WO
2019014705	Jan 2019	WO
2019014706	Jan 2019	WO
2019014707	Jan 2019	WO
2019033165	Feb 2019	WO
2019033166	Feb 2019	WO
2019033170	Feb 2019	WO
2019068128	Apr 2019	WO
2019071313	Apr 2019	WO

Non-Patent Literature Citations (81)

Entry
Boston Dynamics: “Introducing Spot (previously SpotMini)”, Jun. 28, 2016, YouTube video, 1 page (screenshot of video); video retrieved at <https://www.youtube.com/watch?v=tf7IEVTDjng>.
Delgado, R. et al.: “Development and Control of an Omnidirectional Mobile Robot on an EtherCAT Network”, International Journal of Applied Engineering Research, vol. 11, No. 21, 2016, pp. 10586-10592, XP055574484 *.
Dorfler, K. et al.: “Mobile Robotic Brickwork ', Automation of a Discrete Robotic Fabrication Process Using an Autonomous Mobile Robot Robotic Fabrication in Architecture”, Art and Design 2016, Feb. 4, 2016 (Feb. 4, 2016), pp. 204-217, XP055567451 *.
Egerstedt, M. et al.: “Control of Mobile Platforms using a Virtual Vehicle Approach”, IEEE Transactions on Automatic Control, vol. 46, No. 11, Nov. 2001 (Nov. 1, 2001), XP055567515 *.
Examination Report dated Apr. 18, 2021 in GCC Patent Application No. 2018-35644, 5 pages.
Examination Report dated Apr. 30, 2021 in GCC Patent Application No. 2018-35643, 3 pages.
Examination Report dated Jun. 29, 2021 for India Patent Application No. 201927004006, 6 pages.
Examination Report dated Sep. 30, 2021 for Australian Patent Application No. 2017295316, 3 pages.
Extended European Search Report dated Jun. 4, 2021 for European Patent Application No. 18865644.1, 7 pages.
Extended European Search Report dated Mar. 16, 2021 for European Patent Application No. 18834565.6, 19 pages.
Extended European Search Report dated Mar. 17, 2021 for European Patent Application No. 18835861.8, 12 pages.
Extended European Search Report dated Mar. 18, 2021 for European Patent Application No. 18834673.8, 14 pages.
Extended European Search Report dated Mar. 18, 2021 for European Patent Application No. 18834893.2, 12 pages.
Extended European Search Report dated Mar. 18, 2021 for European Patent Application No. 18835737.0, 10 pages.
Extended European Search Report dated Mar. 30, 2021 for European Patent Application No. 18845794.9, 13 pages.
Extended European Search Report dated Mar. 5, 2021 for European Patent Application No. 18828425.1, 7 pages.
Fastbrick Robotics, Fastbrick Robotics: Hadrian 105 First Look Revealed, Nov. 16, 2015 (Nov. 16, 2015), XP054978174, Retrieved from the Internet <URL:https://www.youtube.com/watch?v=7Zw7qHxMtrY> [retrieved on Nov. 16, 2015] *.
Fastbrick Robotics: Hadrian 105 Demonstrative Model Animation, Jun. 29, 2015 (Jun. 29, 2015), XP054979424, Retrieved from the Internet <URL:https://www.youtube.com/watch?v=Rebqcsb61gY> [retrieved on Mar. 7, 2018] *.
Fastbrick Robotics: Hadrian 105 Time Lapse, Fastbrick Robotics Time Lapse, May 22, 2016 (May 22, 2016), XP054978173, Retrieved from the Internet <URL:https://www.youtube.com/watch?v=4YcrO8ONcfY> [retrieved on May 22, 2016] *.
Fastbrick Robotics: Hadrian X Digital Construction System, published on Sep. 21, 2016 <URL: https://www.youtube.com/watch?v=5bW1vuCgEaA >.
Feng, C. et al.: “Vision Guided Autonomous Robotic Assembly and as-built Scanning on Unstructured Construction Sites”, Automation in Construction, vol. 59, Nov. 2015 (Nov. 1, 2015), pp. 128-138, XP055567454 *.
Gander H et al: “Application of a floating point digital signal processor to a dynamic robot measurement system”, Instrumentation and Measurement Technology Conference, 1994. IMTC/94. Conference Proceedings. 10th Anniversary. Advanced Technologies in I & M., 1994 IEEE Hamamatsu, Japan May 10-12, 1994, New York, NY, USA, IEEE, May 10, 1994 (May 10, 1994), pp. 372-375, XP010121924, DOI: 10.1109/IMTC.1994.352046, ISBN: 978-0-7803-1880-9, whole document.
Gao, X. et al.: “Complete Solution Classification for the Perspective-Three-Point Problem”, IEEE Transactions on Pattern Analysis and Machine Intelligence, vol. 25, No. 8, Aug. 2003 (Aug. 1, 2003), pp. 930-943, XP011099374*.
Garrido, S. et al., “FM2: A real-time fast marching sensor based motion planner”, Advanced Intelligent Mechatronics, 2007 IEEE/ASME International Conference on, IEEE, PI, Sep. 1, 2007 (Sep. 1, 2007), pp. 1-6.
Giftthaler, M. et al., “Efficient Kinematic Planning for Mobile Manipulators with Non-holonomic Constraints Using Optimal Control”, 2017 IEEE International Conference on Robotics and Automation (ICRA), Singapore, May 29-Jun. 3, 2017.
Heintze, H., “Design and Control of a Hydraulically Actuated Industrial Brick Laying Robot,” 264 pages.
Heintze, J. et al., “Controlled hydraulics for a direct drive brick laying robot,” Automation in Construction 5 (1996), pp. 23-29.
Helm, V. et al.: “Mobile Robotic Fabrication on Construction Sites: dimRob”, IEEE /RSJ International Conference on Intelligent Robots and Systems, Oct. 7, 2012 (Oct. 7, 2012), Vilamoura, Portugal, pp. 4335-4341, XP032287463 *.
http://www.new-technologies.org/ECT/Other/brickrob.htm. “Emerging Construction Technologies.” Dec. 1, 2006.
Huang, S. et al., “Applying High-Speed Vision Sensing to an Industrial Robot for High-Performance Position Regulation under Uncertainties,” Sensors, 2016, 16, 1195, 15 pages.
International Preliminary Report on Patentability for International Application No. PCT/AU2017/050731; dated Jan. 15, 2019; 5 pages.
International Preliminary Report on Patentability for International Application No. PCT/AU2017/050738; dated Jan. 15, 2019; 13 pages.
International Preliminary Report on Patentability for International Application No. PCT/AU2017/050739; dated Jan. 15, 2019; 6 pages.
International Preliminary Report on Patentability for International Application No. PCT/AU2018/050733; dated Jan. 21, 2020; 6 pages.
International Preliminary Report on Patentability for International Application No. PCT/AU2018/050734; dated Jan. 21, 2020; 9 pages.
International Preliminary Report on Patentability for International Application No. PCT/AU2018/050737; dated Jan. 21, 2020; 6 pages.
International Preliminary Report on Patentability for International Application No. PCT/AU2018/050739; dated Jan. 21, 2020; 6 pages.
International Preliminary Report on Patentability for International Application No. PCT/AU2018/050740; dated Jan. 21, 2020; 6 pages.
International Search Report and Written Opinion for International Application No. PCT/AU2017/050730; dated Aug. 23, 2017; 17 pages.
International Search Report and Written Opinion for International Application No. PCT/AU2017/050731; dated Aug. 31, 2017; 8 pages.
International Search Report and Written Opinion for International Application No. PCT/AU2017/050738; dated Oct. 17, 2017; 19 pages.
International Search Report and Written Opinion for International Application No. PCT/AU2017/050739; dated Sep. 28, 2017; 9 pages.
International Search Report and Written Opinion for International Patent Application No. PCT/AU19/50742; dated Sep. 23, 2019; 5 pages.
International Search Report and Written Opinion for International Patent Application No. PCT/AU19/50743; dated Oct. 1, 2019; 10 pages.
International Search Report and Written Opinion for International Patent Application No. PCT/AU20/50367; dated Jun. 29, 2020; 15 pages.
International Search Report and Written Opinion for International Patent Application No. PCT/AU20/50368; dated Jun. 25, 2020; 11 pages.
Kazemi, M. et al.: “Path Planning for Image-based Control of Wheeled Mobile Manipulators”, 2012 IEEE /RSJ International Conference on Intelligent Robots and Systems, Oct. 7, 2012 (Oct. 7, 2012), Vilamoura, Portugal, XP055567470 *.
Kleinigger, M. et al.: “Application of 6-DOF sensing for robotic disturbance compensation”, Automation Science and Engineering (CASE), 2010 IEEE Conference on, IEEE, Piscataway, NJ, USA, Aug. 21, 2010 (Aug. 21, 2010, pp. 344-349, XP031762876, ISBN: 978-1-4244-5477-1, abstract, sections 1 to 3.
Kleinkes, M. et al.: “Laser Tracker and 6DoF measurement strategies in industrial robot applications”, CMSC 2011: Coordinate Metrology System Conference, Jul. 25, 2011 (Jul. 25, 2011), XP055456272 *.
Koren et al.: “End-effector guidance of robot arms”, CIRP Annals—Manufacturing Technology, vol. 36, No. 1, 1987, pp. 289-292, XP055456270 *.
Kwon, S. et al., “On the Coarse/Fine Dual-Stage Manipulators with Robust Perturbation Compensator,” IEEE, May 21-26, 2001, pp. 121-126.
Kyle in CMSC: Charlotte—Concord, Jul. 21-25, 2008.
Latteur, et al., “Drone-Based Additive Manufacturing of Architectural Structures,” IASS Symposium 2015, Amsterdam, The Netherlands; Aug. 17-20, 2015; 12 pages.
Lippiello, V. et al.: “Position-Based Visual Servoing in Industrial Multirobot Cells Using a Hybrid Camera Configuration”, IEEE Transactions on Robotics, vol. 23, No. 1, Feb. 2007 (Feb. 1, 2007), XP011163518 *.
Liu, Z. et al.: “EtherCAT Based Robot Modular Joint Controller”, Proceeding of the 2015 IEEE International Conference on Information and Automation, Aug. 2015 (Aug. 1, 2015), Lijiang, China, pp. 1708-1713, XP033222650 *.
Mercedes-Benz: “Mercedes-Benz “Chicken” Magic Body Control TV commercial”, YouTube, Sep. 23, 2013, 1 page. Retrieved from the internet: <https://www.youtube.com/watch?v+nLwML2PagbY>.
Notice of Acceptance of Patent Application received for priority Australian Patent Application No. 2017294796, dated May 15, 2019 (158 pages).
Office Action dated Apr. 21, 2021 in Japanese Patent Application No. 2019-523148, 4 pages.
Office Action dated Aug. 20, 2021 for Japanese Patent Application No. 2019-523147, 3 pages.
Office Action dated Jul. 5, 2021 for Japanese Patent Application No. 2019-523145, 4 pages.
Office Action dated May 24, 2021 for Chinese Patent Application No. 201880067520.0, 8 pages.
Office Action dated Sep. 3, 2021 for Chinese Patent Application No. 201780056460.8, 9 pages.
Partial Supplementary European Search Report dated Apr. 14, 2020 in European Patent Application No. 17826696.1, 10 pages.
Pless, R .: “Using Many Cameras as One”, IEEE Computer Society Conference on Computer Vision and Pattern Recognition, Jun. 18, 2003 (Jun. 18, 2003), Madison , WI, USA, pp. 1-7, XP055564465 *.
Posada et al.: “High accurate robotic drilling with external sensor and compliance model-based compensation”, Robotics and Automation (ICRA), 2016 IEEE International Conference, May 16, 2016 (May 16, 2016), pp. 3901-3907, XP032908649 *.
Pritschow, G. et al., “A Mobile Robot for On-Site Construction of Masonry,” Inst. of Control Tech. for Machine Tools and Manuf. Units, pp. 1701-1707.
Pritschow, G. et al., “Application Specific Realisation of a Mobile Robot for On-Site Construction of Masonry,” Automation and Robotics in Construction XI, 1994, pp. 95-102.
Pritschow, G. et al., “Configurable Control System of a Mobile Robot for On-Site Construction of Masonry,” Inst. of Control Technology for Machine Tools and Manuf. Units, pp. 85-92.
Pritschow, G. et al., “Technological aspects in the development of a mobile bricklaying robot,” Automation in Construction 5 (1996), pp. 3-13.
Riegl Laser Measurement Systems. “Long Range & High Accuracy 3D Terrestrial Laser Scanner System—LMS-Z420i.” pp. 1-4.
Salcudean, S. et al., “On the Control of Redundant Coarse-Fine Manipulators,” IEEE, pp. 1834-1840.
Sandy, T. et al.: “Autonomous Repositioning and Localization of an In Situ Fabricator”, 2016 IEEE International Conference on Robotics and Automation (ICRA), May 16, 2016 (May 16, 2016), pp. 2852-2858, XP055567467 *.
Siciliano, B. et al., “Robotics—chapters 2-4” Robotics, Dec. 31, 2009 (Dec. 31, 2009), Springer London, London, pp. 39-189.
Skibniewski, M.J., “Current Status of Construction Automation and Robotics in the United States of America,” The 9th International Symposium on Automation and Robotics in Construction, Jun. 3-5, 1992, 8 pages.
Trimble ATS. “Advanced Tracking Sensor (ATS) with target recognition capability for stakeless machine control survey applications.” pp. 1-4.
Vincze, M. et al., “A Laser Tracking System to Measure Position and Orientation of Robot End Effectors Under Motion,” The International Journal of Robotics Research, vol. 13, No. 4, Aug. 1994, pp. 305-314.
Warszawski, A. et al., “Implementation of Robotics in Building: Current Status and Future Prospects,” Journal of Construction Engineering and Management, Jan./Feb. 1998, 124(1), pp. 31-41.
Willmann, J. et al.: “Robotic Timber Construction—Expanding Additive Fabrication to New Dimensions”, Automation in Construction, vol. 61, 2016, pp. 16-23, XP029310896 *.
Xu, H. et al.: “Uncalibrated Visual Servoing of Mobile Manipulators with an Eye-to-hand Camera”, Proceedings of the 2016 IEEE International Conference on Robotics and Biomimetics, Dec. 3, 2016 (Dec. 3, 2016), Qingdao, China, pp. 2145-2150, XP033071767 *.
Yu, S.N. et al., “Feasibility verification of brick-laying robot using manipulation trajectory and the laying pattern optimization,” Dept. of Meeh. Eng., Automation in Construction (2009), pp. 644-655.
Zaki, T., “Parametric modeling of Blackwall assemblies for automated generation of shop drawings and detailed estimates using BIM”, Master's Thesis, May 23, 2016, pp. 1-151.

Related Publications (1)

	Number	Date	Country
	20220058300 A1	Feb 2022	US

Continuations (2)

	Number	Date	Country
Parent	16823596	Mar 2020	US
Child	17382136		US
Parent	16317792		US
Child	16823596		US

Brick/block laying machine incorporated in a vehicle

Information

Patent Number

Date Filed

Date Issued

Inventors

Original Assignees

Examiners

Agents

CPC

Field of Search

CPC

International Classifications

Abstract