VEHICLE MOUNTED GARBAGE BIN CLEANING SYSTEM INCLUDING DEODORIZER AND DRYER

Abstract

A vehicle mounted garbage bin cleaning system including power takeoff includes a pair of arms configured for lifting a garbage bin, the pair of arms rotatably coupled to a mount on the vehicle, a hopper configured for accepting the garbage bin when the pair of arms lifts the garbage bin into the hopper, at least one spray rod extending upwards from the hopper, said spray rod including a water nozzle, wherein when the pair of arms lifts the garbage bin into the hopper, the spray rod is situated within the garbage bin, a hydraulic pump mechanically coupled with a transmission of the vehicle, such that the transmission drives the hydraulic pump, a pressure washer pump mechanically coupled to the hydraulic pump, the spray rod is fluidically coupled with the pressure washer pump, a dryer system for drying the bin and a deodorizing system for deodorizing the bin.

Description

STATEMENT REGARDING FEDERALLY SPONSORED RESEARCH OR DEVELOPMENT

Not Applicable.

INCORPORATION BY REFERENCE OF MATERIAL SUBMITTED ON A COMPACT DISC

Not Applicable.

TECHNICAL FIELD

The technical field relates generally to garbage bin cleaning systems and, more specifically, to vehicle mounted garbage bin cleaning systems for thoroughly cleaning and deodorizing garbage bins in a highly automated manner.

BACKGROUND

Sanitation is a critical feature in any society, as it is a requirement for providing desirable living conditions. Sanitation being improperly performed can and does lead to sickness and even death on a massive scale. To this end, the disposal of garbage from commercial establishments, residential homes and apartment houses is generally handled by garbage trucks equipped to handle garbage bins. These trucks have the capability of lifting the bins and dumping the contents thereof into a compactor from where the compacted trash is pushed by a ram into the back of the truck for dumping. Particularly in the case of restaurants and apartment houses where the trash contains a considerable amount of organic material, the garbage bins may become unpleasantly odorous, even after having been emptied, and can present a health problem.

The current solutions for washing and disinfecting garbage bins are largely unacceptable. Manually washing and disinfecting garbage bins can be time consuming and tedious for a person to perform, as well a labor intensive. Automated processes may be employed, such as through the use of tank trucks equipped with a hoisting device and a separate pump unit adapted to provide water jets for sprinkling the interior walls of the garbage bin, with the bin being suspended from the hoisting device. The automated processes, however, are usually limited in scope as the tank truck and hoisting device are usually limited to one garbage bin, thereby requiring multiple passes to clean multiple garbage bins in one session. Conventional automated processes for washing and disinfecting garbage bins can also leave many interior areas of a garbage bin being untouched, with a large proportion of the dirt stubbornly adhering on the garbage bin walls. The known automated processes may also use exorbitant amounts of water per garbage bin, thereby resulting in large amounts of water waste. Conventional automated processes for washing and disinfecting garbage bins may further cause runoff of the wastewater into the environment, which can be damaging.

Additionally, conventional automated processes for washing and disinfecting garbage bins often do not address the issue of noxious odors. While cleaning a garbage bin removes buildup, sediment, and debris, in certain cases foul smells can remain in the cleaned garbage bin. This can be annoying and off-putting to consumers. Also, conventional automated processes for washing and disinfecting garbage bins often leave a garbage bin wet after use. Although it has been washed, a cleaned garbage bin can remain wet, which can attract mold, algae, bacteria, fungus, and other organisms that thrive in a dark, wet environment. This can be counterproductive to the purpose of the bin cleaning process in the first place.

Furthermore, some of the conventional automated processes for washing and disinfecting garbage bins are inefficient, as they require one or more separate gas engines to power the water pumps that provide pressurized water to the spraying system. The requirement of additional engines introduces inefficiencies into the system, including additional maintenance requirements for the additional engines, additional fuels costs, additional points of failure that increase downtime of the system, and additional repairs. These inefficiencies increases overall cost and time requirements for said conventional automated processes and are therefore disadvantageous.

Therefore, a need exists for improvements over the prior art, and more particularly for improved systems and apparatuses for quickly and efficiently performing a proper cleaning and disinfecting regimen for garbage bins.

SUMMARY

A vehicle mounted garbage bin cleaning system including power takeoff is provided. This Summary is provided to introduce a selection of disclosed concepts in a simplified form that are further described below in the Detailed Description including the drawings provided. This Summary is not intended to identify key features or essential features of the claimed subject matter. Nor is this Summary intended to be used to limit the claimed subject matter's scope.

In one embodiment, the vehicle mounted garbage bin cleaning system including power takeoff includes a first pair of arms configured for lifting a first garbage bin, the first pair of arms rotatably coupled to a mount on a vehicle, and a second pair of arms configured for lifting a second garbage bin simultaneously with the first pair of arms, the second pair of arms rotatably coupled to the mount on the vehicle, a hopper configured for accepting the first and second garbage bins when the first and second pair of arms simultaneously lift the first and second garbage bins into the hopper, at least two spray rods extending upwards from the hopper, each of the at least two spray rods including at least one high-pressure, rotating water nozzle that sprays a water jet, wherein when the first and second pair of arms simultaneously lift the first and second garbage bin into the hopper, a first of the at least two spray rods is situated within the first garbage bin and a second of the at least two spray rods is situated within the second garbage bin, at least two air blower nozzles within the hopper that blow air into the first and second garbage bins, and at least two deodorizer nozzles within the hopper that spray deodorizer into the first and second garbage bins, and a power takeoff driven pressure washing system comprising a first hydraulic pump mechanically coupled with a transmission of the vehicle, such that the transmission drives the first hydraulic pump, a first pressure washer pump hydraulically coupled to the first hydraulic pump such that the first hydraulic pump drives the first pressure washer pump, and wherein the at least two spray rods are fluidically coupled with the first pressure washer pump such that first pressure washer pump provides pressurized water to the at least two spray rods.

BRIEF DESCRIPTION OF THE DRAWINGS

The accompanying drawings, which are incorporated in and constitute a part of this disclosure, illustrate various example embodiments. In the drawings:

FIG. 1A is a drawing depicting a block diagram of the power takeoff driven pressure washing system of the vehicle-mounted garbage bin cleaning system, according to an example embodiment.

FIG. 1B is a drawing depicting a more detailed block diagram of the power takeoff driven pressure washing system of the vehicle-mounted garbage bin cleaning system, according to an example embodiment.

FIG. 2 is a drawing depicting a side view of another embodiment of the vehicle-mounted garbage bin cleaning system including power takeoff, showing two pairs of arms in the down position, according to an example embodiment.

FIG. 3 is a drawing depicting a rear view of another embodiment of the vehicle-mounted garbage bin cleaning system including power takeoff, showing two pairs of arms in the down position, according to an example embodiment.

FIG. 4 is a drawing depicting a to perspective view of another embodiment of the vehicle-mounted garbage bin cleaning system including power takeoff, showing two pairs of arms in the down position, according to an example embodiment.

FIG. 5 is a drawing depicting a side view of the vehicle-mounted garbage bin cleaning system including power takeoff of FIG. 2, showing two pairs of arms in the up position, according to an example embodiment.

FIG. 6 is a drawing depicting a rear view of the vehicle-mounted garbage bin cleaning system including power takeoff of FIG. 2, showing two pairs of arms in the up position, according to an example embodiment.

FIG. 7 is a drawing depicting a perspective view of the vehicle-mounted garbage bin cleaning system including power takeoff of FIG. 2, showing two pairs of arms in the up position, according to an example embodiment.

FIG. 8 is a drawing depicting a top perspective view of the vehicle-mounted garbage bin cleaning system of FIG. 2, showing the two pairs of arms in the down position, wherein each pair of arms is grabbing a bin, according to an example embodiment.

FIG. 9 is a drawing depicting a top perspective view of the vehicle-mounted garbage bin cleaning system of FIG. 2, showing two pairs of arms in the up position, and lifting bins into the hopper, according to an example embodiment.

FIG. 10 is a drawing depicting a side view of the vehicle-mounted garbage bin cleaning system of FIG. 2, including an attached vehicle, showing two pairs of arms in the down position, according to an example embodiment.

FIG. 11 is a block diagram depicting the drying system and the deodorizing system of the vehicle-mounted garbage bin cleaning system, according to an example embodiment.

FIG. 12 is a block diagram depicting the control structure of the washing system, the lifting system, the drying system, and the deodorizing system of the vehicle-mounted garbage bin cleaning system, according to an example embodiment.

DETAILED DESCRIPTION

The following detailed description refers to the accompanying drawings. Wherever possible, the same reference numbers are used in the drawings and the following description to refer to the same or similar elements. While embodiments may be described, modifications, adaptations, and other implementations are possible. For example, substitutions, additions, or modifications may be made to the elements illustrated in the drawings, and the methods described herein may be modified by substituting, reordering, or adding stages to the disclosed methods. Accordingly, the following detailed description does not limit the claimed subject matter. Instead, the proper scope of the claimed subject matter is defined by the appended claims.

The claimed subject matter improves over the prior art by providing a simple, cost-effective, and efficient vehicle-mounted garbage bin cleaning system configured for cleaning both large and small garbage bins, such as dumpsters and recycling bins. The claimed subject matter improves sanitation by allowing for larger number of large and small garbage bins to be cleaned at the curbside in smaller amounts of time, using a minimum of labor or manual user involvement. The claimed subject matter is particularly useful in the case of restaurants and apartment houses where the trash contains a considerable amount of organic material.

The claimed subject matter further improves over the prior art by providing an efficient system that does not require separate gas engines to power the water pumps that provide pressurized water to the spraying system. The elimination of additional engines removes inefficiencies such as additional maintenance requirements for the additional engines, additional fuels costs, additional points of failure that increase downtime of the system, and additional repairs. The removal of these inefficiencies decreases overall cost and time requirements for said claimed subject matter and are therefore advantageous.

The claimed subject matter also improves over the prior art by providing a system that allows for the pressure washing of more than one garbage bin at once. Conventional systems that use a separate or independent gas-powered pump only have enough power to operate one pressure washing pump at a time, and therefore only washing one garbage bin at a time. This limits the throughput of the system. By using a much more powerful power takeoff powered pressure washing system, the claimed subject matter allows for the pressure washing or more than one garbage bin at a time, thereby increasing the throughput of the system, in addition to increasing the volume of garbage bins that can be washed in a given period of time.

The claimed subject matter also improves over the prior art by using a simple automated process that allows for multiple garbage bins to be cleaned by the claimed system at the same time. The claimed subject matter also thoroughly washes and disinfects garbage bins without using exorbitant amounts of water per garbage bin, thereby resulting in aa reduction of water waste. The claimed subject matter also does no cause runoff of the wastewater into the environment, which is environmentally friendly. Furthermore, the claimed subject matter also efficiently cleans garbage bins at the curb and returns it to the curb, thereby increasing throughput and reducing physical labor.

The claimed subject matter also improves over the prior art by using an automated process that deodorizes and dries garbage bins after they have been cleaned, so as to reduce or eliminate the smells and the growth of unwanted organisms that thrive in wet environments. Additionally, the claimed subject matter utilizes a computerized system that automates the process of lifting the garbage bins into place within the hopper, activating the washing system, activating the drying system, activating the deodorizing system, and resting the garbage bins into place on the ground, without requiring intervention and input by a human driver or operator. This leads to a time saving and a reduction in operator error.

FIG. 1A is a drawing depicting a block diagram of the power takeoff driven pressure washing system 100 of the vehicle-mounted garbage bin cleaning system 150, according to an example embodiment. FIG. 1A shows that the power takeoff driven pressure washing system 100 of the vehicle-mounted garbage bin cleaning system comprises a power washing system 108 connected to a transmission 104 of the vehicle 110 via a power takeoff connection 106. A power take-off or power takeoff (PTO) is any of several methods for taking power from a power source, such as a running engine, and transmitting it to an attached implement or separate machine. In a preferred embodiment, a splined drive shaft extends from the transmission 104 of the vehicle 1100, such as an industrial truck, and mating fittings on an attached power takeoff driven pressure washing system 100 (i.e., the PTO connection 106) allow the power takeoff driven pressure washing system 100 to be powered directly by the transmission of the engine.

The transmission 104 may have one or more locations which allow for the power takeoff connection to be mounted. The power takeoff may be engaged/disengaged using the main transmission clutch and/or a remote-control mechanism which operates on the power takeoff connection itself. An air valve may be used to engage the power takeoff connection, but a mechanical linkage, electric or hydraulic mechanism are also options. The power takeoff may connect directly to a hydraulic pump (described more fully below). This allows for transmission of mechanical force through the hydraulic fluid system to any location around the vehicle where the hydraulic fluid system will convert it back into rotary or linear mechanical force.

FIG. 1B is a drawing depicting a more detailed block diagram of the power takeoff driven pressure washing system 100 of the vehicle-mounted garbage bin cleaning system 150, according to an example embodiment. FIG. 1B shows that the power takeoff driven pressure washing system 100 includes at least a hydraulic pump 135 mechanically coupled to the transmission 104 via a PTO connection 146.

A hydraulic pump is a mechanical source of power that converts mechanical power into hydraulic energy (hydrostatic energy i.e., flow, pressure). It generates flow with enough power to overcome pressure induced by the load at the pump outlet. When a hydraulic pump operates, it creates a vacuum at the pump inlet, which forces liquid from the reservoir into the inlet line to the pump and by mechanical action delivers this liquid to the pump outlet and forces it into the hydraulic system. Hydraulic pumps are used in hydraulic drive systems and can be hydrostatic or hydrodynamic. The hydraulic pump may be a gear, rotary vane, screw, bent axis, inline axial piston, radial piston, or peristaltic pump.

The power takeoff driven pressure washing system 100 may be a hydraulic drive system, which is a quasi-hydrostatic drive or transmission system that uses pressurized hydraulic fluid to power hydraulic machinery. The term hydrostatic refers to the transfer of energy from pressure differences, not from the kinetic energy of the flow.

The power takeoff driven pressure washing system 100 may be an open hydraulic system. In this case, the hydraulic pump 135 draws oil from a reservoir or hydraulic tank 122 at atmospheric pressure. In case of a closed system, both sides of the hydraulic pump 135 can be at high pressure. In this case, the reservoir is often pressurized at higher pressure to boost pressure.

FIG. 1B further shows that the power takeoff driven pressure washing system 100 includes at least a first pressure washer pump 128 hydraulically coupled (via hydraulic pressure lines 133, 135) to the hydraulic pump 135, and optionally a second pressure washer pump 138 hydraulically coupled (via hydraulic pressure lines 143, 145) to the hydraulic pump 135. Hydraulic pressure lines are conduits (usually flexible) that hold and transport hydraulic fluid so as to hydraulically couple different hydraulic elements in a hydraulic circuit. Note that hydraulic pump 135 is specially configured to have the capacity to power both pressure washer pumps 128, 138. Note also that both pressure washer pumps 128, 138 are configured to be able to be powered directly by a hydraulic pump. Therefore, both pressure washer pumps 128, 138 are provided power by the controlled circulation of pressurized fluid, a motor that converts it into a mechanical output capable of doing the work of providing water pressure. Both pressure washer pumps 128, 138 must therefore include a hydraulic fluid input/output mechanism that allows for the circulation of hydraulic fluid within the pressure washer pumps 128, 138, wherein said circulation provides the power that each pump needs to provide water pressure for the spray rods.

FIG. 1B further shows that the power takeoff driven pressure washing system 100 includes at least a first directional control valve 126 situated between the first pressure washer pump 128 and the hydraulic pump 135, and optionally a second directional control valve 136 situated between the second pressure washer pump 138 and the hydraulic pump 135. A directional control valve is a hydraulic valve that allows hydraulic fluid flow into different paths from one or more sources. The directional control valve may consist of a spool inside a cylinder which is mechanically or electrically actuated. The position of the spool restricts or permits flow; thus, it controls the fluid flow. The directional control valves 126, 136 allows for the changing of direction of flow of hydraulic fluid into and out of the pressure washer pumps 128,138, so as to change the direction of operation of said pumps.

FIG. 1B further shows one, two or more spray rods 129 are fluidically coupled to the pressure washer pump 128, and one, two or more spray rods 139 are fluidically coupled to the pressure washer pump 138. A pressure washer pump is a water pump configured to pump water at high pressures suitable for pressure washing. A water pump is a device that moves water by mechanical action. The water pump may be a direct lift, positive displacement, impulse, velocity, gravity, steam, or valveless water pump. The water pump transports water from the reservoir or water tank 130 at high pressure to the spray heads.

FIG. 1B shows that the power takeoff driven pressure washing system 100 can be used to power more than one pressure washing pumps 128, 138 to expel high pressure water jets from more than one set of spray rods 129, 139. As a result, the power takeoff driven pressure washing system 100 can be used to pressure clean more than one garbage bins at once, using the multiple sets of spray rods 129, 139 at the same time. This feature increases the throughput of the system 100, in addition to increasing the volume of garbage bins that can be washed in a given period of time.

FIG. 2 is a drawing depicting a side view of another embodiment of the vehicle-mounted garbage bin cleaning system 200 including power takeoff, showing two pairs of arms 231, 232 in the down position, according to an example embodiment. FIG. 3 depicts a rear view of the vehicle-mounted garbage bin cleaning system 200 of FIG. 2, and FIG. 4 depicts a top perspective view of the vehicle-mounted garbage bin cleaning system 200 of FIG. 2. The vehicle-mounted garbage bin cleaning system 200 including power takeoff includes a mount 206, to which each of the two pairs of arms 231, 232 are independently attached. The vehicle-mounted garbage bin cleaning system 200 including power takeoff also includes a hopper 204. The two pairs of arms comprise a first pair of arms 231 and a second pair of arms 232. Each pair of arms may move simultaneously in sync (i.e., move from one position to another position). Alternatively, the first pair of arms 231 and the second pair of arms 232 may move independently from one another, such that one pair of arms may be activated (i.e., move from one position to another position) without activating the other pair. FIGS. 2-4 further show the spray heads 312, 314 located within the hopper 204.

The vehicle-mounted garbage bin cleaning system 200 may be coupled to the trailer element 202 of a vehicle, such as an industrial truck. The vehicle-mounted garbage bin cleaning system 200 includes two pairs of arms 231, 232 configured for lifting garbage bins, such as a trash can, recycling container, dumpster, rubbish bin, etc. Said dumpster may measure approximately 2, 4, 6, 8 or 10 cubic yards in volume, 70-85 inches wide, 45-95 inches high and 39-75 inches deep. Said bin may be a 35-95-gallon recycling bin and may measure approximately 35-95 gallons in volume, 20-29 inches wide, 38-45 inches high and 23-34 inches deep.

The two pairs of arms 231, 232 may be coupled to piston-activated levers that are themselves rotatably coupled to an L-shaped member 210 which is itself rotatably coupled to a mount 206 on the vehicle via a pivot point 208. The mount 206 may comprise one or more triangular elements located on either side of the trailer bed 202. The topmost vertex of the triangular elements comprise the pivot point 208. The mount 206 may also comprise further structure between the two triangular elements, to which the L-shaped element is attached.

The L-shaped element is moved up and down into the up position and down position via a hydraulic element at the pivot point 208. The hydraulic element at the pivot point 208 moves the L-shaped element to pivot or rotate around the pivot point. This action rotates the L-shaped element substantially 90 to 180 degrees into the up position, so as to turn the garbage bins 802, 804 substantially upside down or nearly upside down. The opposite action rotates the L-shaped element substantially 90 to 180 degrees into the down position, so as to turn the garbage bins 802, 804 substantially right side up.

The vehicle-mounted garbage bin cleaning system 200 further comprises a hopper 204 configured for accepting garbage bins when the pairs of arms lift the garbage bins into the hopper. The vehicle-mounted garbage bin cleaning system 200 further comprises two pairs of arms 231, 232, each pair of arms is configured to allow for garbage bins to be raised and lifted into the hopper for pressure cleaning at the same time.

FIG. 4 also shows at least two spray rods 302, 304 extending upwards from the hopper 204, each spray rod including at least one high-pressure, rotating water nozzle 312, 314 that sprays a water jet. In another embodiment, each spray rod includes a plurality of high-pressure, rotating water nozzles that spray water jets.

The hopper is configured to catch substantially all water that is sprayed into the garbage bins by the at least two spray rods. FIG. 9 also shows that when the pairs of arms 231, 232 lift the garbage bins into the hopper, one or more of the at least two spray rods may be situated within the garbage bins (or near the opening of the garbage bins) so as to wash and clean the interior thereof with the corresponding rotating water nozzles 312, 314 that spray water jets.

FIG. 4 also depicts a drying system 1110 comprising an air supply hose 432 inside of the hopper 204 that supplies air from a blower to air blower nozzle 422, which emits high pressure air for the purpose of drying washed garbage bins. The drying system 1110 further comprises an air supply hose 443 inside of the hopper 204 that supplies air from the blower to air blower nozzle 424, which also emits high pressure air for the purpose of drying washed garbage bins. The two air blower nozzles may operate on two garbage bins simultaneously to conserve time. The purpose of the drying system 1110 is to dry the interior of the garbage bins after washing, in order to reduce or eliminate the growth of harmful items such as mold, algae, bacteria, fungus and other organisms that thrive in a dark, wet environment. This can be counterproductive to the purpose of the bin cleaning process.

FIG. 4 also depicts a deodorizing system 1120 comprising a deodorizer supply hose 442 inside of the hopper 204 that supplies deodorizer from a pump to deodorizer nozzle 452, which emits deodorizer for the purpose of deodorizing washed garbage bins. The deodorizing system 1120 further comprises a deodorizer supply hose 444 inside of the hopper 204 that supplies deodorizer from the pump to deodorizer nozzle 434, which also emits deodorizer for the purpose of deodorizing washed garbage bins. The two deodorizer nozzles may operate on two garbage bins simultaneously to conserve time. The purpose of the deodorizing system 1120 is to reduce or eliminate foul smells within the interior of the garbage bins after washing.

FIG. 5 is a drawing depicting a side view of the vehicle-mounted garbage bin cleaning system 200 including power takeoff of FIG. 2, showing two pairs of arms 231, 232 in the up position, according to an example embodiment. FIG. 6 depicts a rear view of the vehicle-mounted garbage bin cleaning system 200 of FIG. 5, and FIG. 7 depicts a top perspective view of the vehicle-mounted garbage bin cleaning system 200 of FIG. 5. FIGS. 5-7 show that the vehicle-mounted garbage bin cleaning system 200 including power takeoff is configured such that the two pairs of arms 231, 232 can be lifted into the up position such that bins may be moved into the hopper for cleaning. Though the first pair of arms 231 and the second pair of arms 232 are shown both moving to the up position simultaneously at the same time, they are also configured to move independently from one another, such that one pair of arms may be activated without activating the other pair. FIGS. 6-7 further show that when the first pair of arms 231 and the second pair of arms 232 are moved to the up position, the spray heads 312, 314 are located centrally within the space between each pair of arms. That is, each spray head is located in between a pair of arms, thereby being ideally located for optimal cleaning of the bins by the spray heads.

FIG. 8 is a drawing depicting a top perspective view of the vehicle-mounted garbage bin cleaning system 200 of FIG. 2, showing the two pairs of arms 231, 232 in the down position, wherein each pair of arms is grabbing a bin, according to an example embodiment. FIG. 8 shows that the first pair of arms 231 has grabbed the bin 802 and the second pair of arms 232 has grabbed the bin 804, while both pairs of arms are in the down position. The first pair of arms 231 may grab the bin 802 and the second pair of arms 232 may grab the bin 804 simultaneously, or each bin may be grabbed at a different time. Next, the first pair of arms 231 and the second pair of arms 232 will be moved to the up position to clean the bins 802, 804.

FIG. 9 is a drawing depicting a top perspective view of the vehicle-mounted garbage bin cleaning system 200 of FIG. 2, showing two pairs of arms 231, 232 in the up position and lifting bins 802, 804 into the hopper 204, according to an example embodiment. FIG. 9 shows that the first pair of arms 231 has grabbed the bin 802 and the second pair of arms 232 has grabbed the bin 804, and both pairs of arms have been moved to the up position, thereby moving the bins 802, 804 into the hopper for the purpose of cleaning the bins using the spray heads 312, 314 located within the hopper 204. Note that in the up position, each of the spray heads 312, 314 is located centrally within one of the bins 802, 804, thereby being ideally located for optimal cleaning of the bins. The bins 802, 804 may be moved to the up position by the two pairs of arms 231, 232 simultaneously, or each bin may be moved to the up position at different times, since the two pairs of arms 231, 232 may move independently of each other.

FIG. 10 is a drawing depicting a side view of the vehicle-mounted garbage bin cleaning system 200 of FIG. 2, including an attached vehicle 1000, showing two pairs of arms 231, 232 in the down position, according to an example embodiment. The vehicle-mounted garbage bin cleaning system 200 may be coupled to the trailer 202 of the vehicle 1000, such as an industrial truck.

In one embodiment, the vehicle-mounted garbage bin cleaning system 200 may further include an electrically activated system configured for spraying a liquid disinfectant into the garbage bins 802, 804 when the garbage bin are in the hopper 204. Disinfectants are antimicrobial agents that are applied to the interior of garbage bins to destroy microorganisms that are living in the garbage bins.

In another embodiment, the vehicle-mounted garbage bin cleaning system 200 may further include a control panel for controlling the two pairs of arms 231, 232, the water jets sprayed by the at least two spray rods 302, 304. The control panel may be a flat and/or vertical area where control (buttons, sliders, dials, etc.) or monitoring instruments (monitor, display, digital readout, etc.) are displayed and located in an area that users can access. The control panel may be equipped with push buttons and analog instruments, or, alternatively, touchscreens, used for monitoring and control purposes. A user can utilize the control panel to control the up and down positions of the two pairs of arms 231, 232, whether and when the water jets are sprayed by the at least two spray rods, when the bins are in the optimal location within the hopper, for optimal cleaning effect. In one embodiment, the control panel is connected to one or more of the PLCs 1220, 1210, 1250, 1270 and 1290 and the control panel is configured to interface with any such one or more PLCs to automatically activate the first and second pair of arms to simultaneously lift the first and second garbage bins into the hopper, automatically activate the pressure washing system to spray water jets, automatically activate an air blower to blow air through the at least two air blower nozzles and automatically activate a deodorizer pump to spray deodorizer through the at least two deodorizer nozzles.

FIG. 11 is a block diagram depicting the drying system and the deodorizing system of the vehicle-mounted garbage bin cleaning system, according to an example embodiment. FIG. 11 depicts drying system 1110 comprising electrical source 1111, electric blower 1112, supply hose 432, air blower nozzle 422, supply hose 443, air blower nozzle 424 collectively to rid the garbage bins of moisture and prevent the growth of harmful mold, algae, bacteria, fungus, and other organisms that thrive in a dark, wet environment.

The electrical source 1111 for the drying system 1110, provides power to blower 1112 in the form of low voltage electrical current, such as within the range of 9-12 volts or within the range 100-240 volts, and the amperage rating may reach up to 2 amps. The electrical source may derive its power from an inverter that is connected to the battery system of the truck 1000. Electric blower 1112 utilizes the low voltage electrical current provided by the electrical source to emit air that rids the garbage bins of moisture as described above. Supply hoses 432, 443 act as conduits that transfer the air blown by the electric blower to the nozzles 422, 424. The air blower nozzles direct the air compressed within the supply hoses in a focused enough direction to effectively dry the garbage bins.

FIG. 11 also depicts deodorizing system 1120. As described above, the deodorizing system acts through emitting a deodorizer via the deodorizer nozzles 452, 434 inside the hopper to eliminate foul stenches or odor that may reside within the garbage bins. Electrical source 1121, analogous to electrical source 1111, provides power to electrical pump 1122, which supplies deodorizer from the deodorizer tank 1123 though supply hoses 442, 444 to the deodorizer nozzles 452, 434. The nozzles then emit the deodorizer within the garbage bins to eliminate foul smells. Analogous to electrical source 1111, electrical source 1121 may provide low voltage electrical current, such as within the range of 9-12 volts or within the range 100-240 volts, and the amperage rating may reach up to 2 amps. The electrical source may derive its power from an inverter that is connected to the battery system of the truck 1000.

FIG. 12 is a block diagram depicting the control structure of the washing system 1240, the lifting system 1260, the drying system 1110 and the deodorizing system 1120 of the vehicle-mounted garbage bin cleaning system, according to an example embodiment. As described above, deodorizing system 1120 acts in concert with electrical source 1121, electrical pump 1122, deodorizer tank 1123, supply hoses 442, 444, and deodorizer nozzles 452, 434 to eliminate foul smells within garbage bins by spraying said garbage bins with a deodorizing agent. The lifting system 1260 may refer to the items 206, 208, 210, 212, 231, 232, 402, 404, 406, etc. and any other items that are required for the proper functioning of the two pairs of arms, such as the associated electrical system. The washing system 1240 may refer to the items shown in FIG. 1B and any other items that are required for the proper functioning of the washing system.

Also as described above, drying system 1110 acts in concert with electrical source 1111, electric blower 1112, supply hoses 432, 443, and air blowers 422, 424 to eliminate moisture from the garbage bins to prevent the growth of harmful mold, algae, bacteria, fungus, and other organisms that thrive in a dark, wet environment, by blowing air within the garbage bins, thereby evaporating most or all of the water and moisture within the garbage bins after cleaning.

Similarly, washing system 1240, which comprises the system 100 of FIG. 1B, acts to sanitize garbage bins by washing them, and the lifting system 1260 acts to lift the garbage bins into the hopper 1402 so that the washing system 1240, the deodorizing system 1120, and the drying system 1110 may perform their functions.

In one embodiment, the lifting system 1260 is controlled by a programmable logic controller 1270, the washing system 1240 is controlled by a programmable logic controller 1250, the deodorizing system 1120 is controlled by a programmable logic controller 1220, and the drying system 1110 is controlled by a programmable logic controller 1210. Programmable logic controllers (PLCs) are industrial computers that have been ruggedized and specifically designed or adapted for the control of machines and processes by providing instructions to the aforementioned machines. The programmable logic controllers may come in the form of single board computers, application-specific integrated circuits, or printed circuit board assemblies. In another embodiment, the programmable logic controllers 1270, 1250, 1220, 1210 are all controlled by a master programmable logic controller 1290. In yet another embodiment, the lifting system 1260, the washing system 1240, the deodorizing system 1120, and the drying system 1110 are all directly controlled by the master programmable logic controller 1290.

The claimed subject matter utilizes said computerized system of FIG. 12 to automate the process of activating the lifting system 1260 to lift the garbage bins into place within the hopper, activating and deactivating the washing system 1240, activating and deactivating the drying system 1110, activating and deactivating the deodorizing system 1120, and activating the lifting system 1260 to lower the garbage bins into place on the ground, without requiring intervention and input by a human driver or operator. This leads to a time saving and a reduction in operator error. One or more of the programmable logic controllers 1210, 1220, 1250, 1270, 1290 may be programmed with timing sequences embodied in a programming module stored on the PLC (see programming module below). For example, a PLC may be programmed to, in response to receiving an activation signal from a user interface, activate the lifting system 1260 for a set period of time to lift the garbage bins into place within the hopper, and then deactivate the lifting system 1260 while holding the garbage bins in place. The lifting system may be activated by providing power to the piston-activated levers that are rotatably coupled to the L-shaped member 210, which is itself rotatably coupled to a mount 206 on the vehicle via a pivot point 208, thereby lifting the two pairs of arms 231, 232. The lifting system may be deactivated by ceasing providing the power provided above.

Then, a PLC may be programmed to automatically activate the washing system 1240 for a set period of time to clean the garbage bins while in the hopper, and then deactivate the washing system 1240. The washing system may be activated by engaging the hydraulic pump 135 or the pressure washer pump(s) 128, 138 to the power provided by the PTO 146, thereby spraying water out of the spray rods 129, 139. Said activation may occur immediately after the deactivation of the lifting system above. The washing system may be automatically deactivated by disengaging the hydraulic pump 135 or the pressure washer pump(s) 128, 138 from the power provided by the PTO 146.

Further, a PLC may be programmed to automatically activate the drying system 1110 for a set period of time to dry the garbage bins while in the hopper, and then deactivate the drying system 1110. Said activation may occur immediately after the deactivation of the washing system above. The drying system may be activated by providing power to the electrical source 1111 or the electrical blower 1112, thereby blowing air out of the nozzles 422, 424. The drying system may be automatically deactivated by ceasing providing the power provided above.

Then, a PLC may be programmed to automatically activate the deodorizing system 1120 for a set period of time to deodorize the garbage bins while in the hopper, and then deactivate the deodorizing system 1120. Said activation may occur immediately after the deactivation of the drying system above. The deodorizing system may be activated by providing power to the electrical source 1121 or the electrical pump 1122, thereby spraying deodorizer out of the nozzles 452, 434. The deodorizing system may be deactivated by ceasing providing the power provided above.

Then, a PLC may be programmed to activate lifting system 1260 to lower the garbage bins into place on the ground. Said activation may occur immediately after the deactivation of the deodorizing system above. A PLC may be programmed to automatically activate the lifting system 1260 for a set period of time to lower the garbage bins onto the ground, and then deactivate the lifting system 1260. The lifting system may be activated by providing power to the piston-activated levers that are rotatably coupled to the L-shaped member 210, which is itself rotatably coupled to a mount 206 on the vehicle via a pivot point 208, thereby lowering the two pairs of arms 231, 232. The lifting system may be deactivated by ceasing providing the power provided above. In one embodiment, the control panel is connected to one or more of the PLCs 1220, 1210, 1250, 1270 and 1290 and the control panel is configured to interface with any such one or more PLCs to automatically activate the first and second pair of arms to simultaneously lift the first and second garbage bins into the hopper, automatically activate the pressure washing system to spray water jets, automatically activate an air blower to blow air through the at least two air blower nozzles and automatically activate a deodorizer pump to spray deodorizer through the at least two deodorizer nozzles

Consistent with the embodiments described herein, the aforementioned actions performed by any of the programmable logic controllers above may be implemented in a computing device. Any suitable combination of hardware, software, or firmware may be used to implement the programmable logic controllers above. The aforementioned system, device, and processors are examples and other systems, devices, and processors may comprise the aforementioned computing device.

In a basic configuration, a computing device may include at least one processing unit and a system memory. Depending on the configuration and type of computing device, system memory may comprise, but is not limited to, volatile (e.g., random-access memory (RAM)), non-volatile (e.g., read-only memory (ROM)), flash memory, or any combination or memory. System memory may include operating system, and one or more programming modules. Operating system, for example, may be suitable for controlling the computing device's operation. In one embodiment, programming modules may include, for example, a program module for executing the actions of the device for example. Furthermore, embodiments may be practiced in conjunction with a graphics library, other operating systems, or any other application program and is not limited to any particular application or system.

The computing device may have additional features or functionality. For example, the computing device may also include additional data storage devices (removable and/or non-removable) such as, for example, magnetic disks, optical disks, or tape. Such additional storage may be removable storage and a non-removable storage. Computer storage media may include volatile and nonvolatile, removable, and non-removable media implemented in any method or technology for storage of information, such as computer readable instructions, data structures, program modules, or other data. System memory, removable storage, and non-removable storage are all computer storage media examples (i.e., memory storage.) Computer storage media may include, but is not limited to, RAM, ROM, electrically erasable read-only memory (EEPROM), flash memory or other memory technology, CD-ROM, digital versatile disks (DVD) or other optical storage, magnetic cassettes, magnetic tape, magnetic disk storage or other magnetic storage devices, or any other medium which can be used to store information, and which can be accessed by the computing device. Any such computer storage media may be part of the system. The computing device may also have input device(s) such as a keyboard, a mouse, a pen, a sound input device, a camera, a touch input device, etc. Output device(s) such as a display, speakers, a printer, etc. may also be included. The aforementioned devices are only examples, and other devices may be added or substituted.

The computing device may also contain a communication connection that may allow the system to communicate with other computing devices, such as over a network in a distributed computing environment, for example, an intranet or the Internet. Communication connection is one example of communication media. Communication media may typically be embodied by computer readable instructions, data structures, program modules, or other data in a modulated data signal, such as a carrier wave or other transport mechanism, and includes any information delivery media. The term “modulated data signal” may describe a signal that has one or more characteristics set or changed in such a manner as to encode information in the signal. By way of example, and not limitation, communication media may include wired media such as a wired network or direct-wired connection, and wireless media such as acoustic, radio frequency (RF), infrared, and other wireless media. The term computer readable media as used herein may include both computer storage media and communication media.

As stated above, a number of program modules and data files may be stored in system memory, including an operating system. While executing on a processing unit, programming modules (e.g., program module) may perform processes including, for example, one or more of the stages of a process. The aforementioned processes are examples, and the processing unit may perform other processes. Other programming modules that may be used in accordance with embodiments herein may include electronic mail and contacts applications, word processing applications, spreadsheet applications, database applications, slide presentation applications, drawing or computer-aided application programs, etc.

Generally, consistent with the claimed embodiments, program modules may include routines, programs, components, data structures, and other types of structures that may perform particular tasks or that may implement particular abstract data types. Moreover, the claimed embodiments may be practiced with other computer system configurations, including hand-held devices, multiprocessor systems, microprocessor-based or programmable consumer electronics, minicomputers, mainframe computers, and the like. The claimed embodiments may also be practiced in distributed computing environments where tasks are performed by remote processing devices that are linked through a communications network. In a distributed computing environment, program modules may be located in both local and remote memory storage devices.

Furthermore, the claimed embodiments may be practiced in an electrical circuit comprising discrete electronic elements, packaged, or integrated electronic chips containing logic gates, a circuit utilizing a microprocessor, or on a single chip (such as a System on Chip) containing electronic elements or microprocessors. The claimed embodiments may also be practiced using other technologies capable of performing logical operations such as, for example, AND, OR, and NOT, including but not limited to mechanical, optical, fluidic, and quantum technologies. In addition, the claimed embodiments may be practiced within a general-purpose computer or in any other circuits or systems.

Although the subject matter has been described in language specific to structural features and/or methodological acts, it is to be understood that the subject matter defined in the appended claims is not necessarily limited to the specific features or acts described above. Rather, the specific features and acts described above are disclosed as example forms of implementing the claims.

Claims

1. A vehicle-mounted garbage bin cleaning system including power takeoff, the system comprising: a) a first pair of arms configured for lifting a first garbage bin, the first pair of arms rotatably coupled to a mount on a vehicle, and a second pair of arms configured for lifting a second garbage bin simultaneously with the first pair of arms, the second pair of arms rotatably coupled to the mount on the vehicle;b) a hopper configured for accepting the first and second garbage bins when the first and second pair of arms simultaneously lift the first and second garbage bins into the hopper;c) at least two spray rods extending upwards from the hopper, each of the at least two spray rods including at least one high-pressure, rotating water nozzle that sprays a water jet;d) wherein when the first and second pair of arms simultaneously lift the first and second garbage bin into the hopper, a first of the at least two spray rods is situated within the first garbage bin and a second of the at least two spray rods is situated within the second garbage bin;e) at least two air blower nozzles within the hopper that blow air into the first and second garbage bins, and at least two deodorizer nozzles within the hopper that spray deodorizer into the first and second garbage bins; andf) a power takeoff driven pressure washing system comprising a first hydraulic pump mechanically coupled with a transmission of the vehicle, such that the transmission drives the first hydraulic pump, a first pressure washer pump hydraulically coupled to the first hydraulic pump such that the first hydraulic pump drives the first pressure washer pump, and wherein the at least two spray rods are fluidically coupled with the first pressure washer pump such that first pressure washer pump provides pressurized water to the at least two spray rods.

2. The vehicle-mounted garbage bin cleaning system of claim 1, wherein the power takeoff driven pressure washing system comprises an open loop hydraulic system.

3. The vehicle-mounted garbage bin cleaning system of claim 2, wherein the power takeoff driven pressure washing system further comprises a hydraulic tank that feeds hydraulic fluid to the first hydraulic pump.

4. The vehicle-mounted garbage bin cleaning system of claim 3, wherein the power takeoff driven pressure washing system further comprises a hydraulic directional control valve coupled to the first hydraulic pump and the first pressure washer pump, so as to control the direction of hydraulic fluid through the first pressure washer pump.

5. The vehicle-mounted garbage bin cleaning system of claim 1, wherein the hopper is configured to catch substantially all water that is sprayed by the at least two spray rods.

6. The vehicle-mounted garbage bin cleaning system of claim 5, wherein the at least two spray rods include a plurality of high-pressure, rotating water nozzles that spray water jets.

7. The vehicle-mounted garbage bin cleaning system of claim 6, further comprising a water tank that provides a source of water to the first pressure washer pump.

8. The vehicle-mounted garbage bin cleaning system of claim 7, further comprising: a computing device programmed to automatically activate the first and second pair of arms to simultaneously lift the first and second garbage bins into the hopper, automatically activate the pressure washing system to spray water jets, automatically activate an air blower to blow air through the at least two air blower nozzles and automatically activate a deodorizer pump to spray deodorizer through the at least two deodorizer nozzles; anda control panel for activating the computing device.

9. A vehicle-mounted garbage bin cleaning system including power takeoff, the system comprising: a) a first pair of arms configured for lifting a first garbage bin, the first pair of arms rotatably coupled to a vehicle, and a second pair of arms configured for lifting a second garbage bin simultaneously with the first pair of arms, the second pair of arms rotatably coupled to the vehicle;b) a hopper configured for accepting the first and second garbage bins when the first and second pair of arms simultaneously lift the first and second garbage bins into the hopper;c) at least two spray rods extending upwards from the hopper, each of the at least two spray rods including at least one high-pressure, rotating water nozzle that sprays a water jet;d) wherein when the first and second pair of arms simultaneously lift the first and second garbage bin into the hopper, a first of the at least two spray rods is situated within the first garbage bin and a second of the at least two spray rods is situated within the second garbage bin;e) at least two air blower nozzles within the hopper that blow air into the first and second garbage bins, and at least two deodorizer nozzles within the hopper that spray deodorizer into the first and second garbage bins; andf) a power takeoff driven pressure washing system comprising a first hydraulic pump mechanically coupled with a transmission of the vehicle, such that the transmission drives the first hydraulic pump, a first pressure washer pump hydraulically coupled to the first hydraulic pump such that the first hydraulic pump drives the first pressure washer pump, and wherein the at least two spray rods are fluidically coupled with the first pressure washer pump such that first pressure washer pump provides pressurized water to the at least two spray rods.

10. The vehicle-mounted garbage bin cleaning system of claim 9, wherein the power takeoff driven pressure washing system comprises an open loop hydraulic system.

11. The vehicle-mounted garbage bin cleaning system of claim 10, wherein the power takeoff driven pressure washing system further comprises a hydraulic tank that feeds hydraulic fluid to the first hydraulic pump.

12. The vehicle-mounted garbage bin cleaning system of claim 11, wherein the power takeoff driven pressure washing system further comprises a first hydraulic directional control valve coupled to the first hydraulic pump and the first pressure washer pump, so as to control the direction of hydraulic fluid through the first pressure washer pump.

13. The vehicle-mounted garbage bin cleaning system of claim 9, wherein the hopper is configured to catch substantially all water that is sprayed by the at least two spray rods.

14. The vehicle-mounted garbage bin cleaning system of claim 13, wherein each of the at least two spray rods include a plurality of high-pressure, rotating water nozzles that spray water jets.

15. The vehicle-mounted garbage bin cleaning system of claim 14, further comprising a water tank that provides a source of water to the first pressure washer pump.

16. The vehicle-mounted garbage bin cleaning system of claim 15, further comprising: a computing device programmed to automatically activate the first and second pair of arms to simultaneously lift the first and second garbage bins into the hopper, automatically activate the pressure washing system to spray water jets, automatically activate an air blower to blow air through the at least two air blower nozzles and automatically activate a deodorizer pump to spray deodorizer through the at least two deodorizer nozzles; anda control panel for activating the computing device.

17. A vehicle-mounted garbage bin cleaning system, the system comprising: a) a first pair of arms configured for lifting a first garbage bin, the first pair of arms rotatably coupled to a vehicle, and a second pair of arms configured for lifting a second garbage bin simultaneously with the first pair of arms, the second pair of arms rotatably coupled to the vehicle;b) a hopper configured for accepting the first and second garbage bins when the first and second pair of arms simultaneously lift the first and second garbage bins into the hopper;c) at least two spray rods in the hopper, each of the at least two spray rods including at least one high-pressure, rotating water nozzle that sprays a water jet;d) wherein when the first and second pair of arms simultaneously lift the first and second garbage bin into the hopper, a first of the at least two spray rods is situated within the first garbage bin and a second of the at least two spray rods is situated within the second garbage bin;e) at least two air blower nozzles within the hopper that blow air into the first and second garbage bins, and at least two deodorizer nozzles within the hopper that spray deodorizer into the first and second garbage bins; andf) a pressure washing system comprising: 1) a first pressure washer pump hydraulically coupled to a first hydraulic pump such that the first hydraulic pump drives the first pressure washer pump, and a second pressure washer pump hydraulically coupled to the first hydraulic pump such that the first hydraulic pump drives the second pressure washer pump; and2) wherein the first of the at least two spray rods is fluidically coupled with the first pressure washer pump such that first pressure washer pump provides pressurized water to the first of the at least two spray rods, and the second of the at least two spray rods is fluidically coupled with the second pressure washer pump such that second pressure washer pump provides pressurized water to the second of the at least two spray rods.

18. The vehicle-mounted garbage bin cleaning system of claim 17, wherein the pressure washing system comprises an open loop hydraulic system.

19. The vehicle-mounted garbage bin cleaning system of claim 18, wherein the pressure washing system further comprises a hydraulic tank that feeds hydraulic fluid to the first hydraulic pump.

20. The vehicle-mounted garbage bin cleaning system of claim 17, further comprising: a computing device programmed to automatically activate the first and second pair of arms to simultaneously lift the first and second garbage bins into the hopper, automatically activate the pressure washing system to spray water jets, automatically activate an air blower to blow air through the at least two air blower nozzles and automatically activate a deodorizer pump to spray deodorizer through the at least two deodorizer nozzles; anda control panel for activating the computing device.