Patent Grant
8585338
This application is the U.S. national phase under 35 U.S.C. 371 International Application No. PCT/SE2008/000202 filed 19 Mar. 2008, which claims priority to Sweden Application No. 0700768-5 filed 21 Mar. 2007, the entire contents of each of which are hereby incorporated by reference.
The present invention relates in general to a fixing arrangement and more specifically to a resilient fixing arrangement, intended to be able to be anchored in a first, for instance in a fixed and bearing, construction and in such an anchored position be able resiliently to retain a second, for instance a laterally related and/or sub-oriented, construction.
The arrangement displays a first part portion cooperable with the first construction and a second part portion cooperable with the second construction.
The invention has as its principle object to be able in a simple and economical manner to create the preconditions for considerably reduced sound and/or thermal conductivity, between the first and the second construction, such as for example between a studwork frame, as a first construction, and an inner ceiling as a second construction.
The present invention may have its application as a sound damping arrangement, between a beam structure and an inner ceiling suspended in discrete points and is based on the feature that the arrangement is to be resilient, in order to damp the propagation of sound waves via vibration movements or the propagation of sound waves via sound bridges, under the utilisation of a thin resilient means and where said arrangement is “punctiform” and well distributed to cooperate with the ceiling and its construction.
Methods, arrangements and constructions relating to the above disclosed technical field and with a function and a nature which satisfy set requirements are previously known in a plurality of different embodiments.
As one example of background art as regards vibration damping rubber rings and/or resilient units, mention might be made of the contents of the following Patent Publications:
The present invention more specifically relates to a resilient fixing arrangement, intended to be able to be fixedly anchored to a first, for instance a fixed and bearing, construction, such as in the form of a studwork frame and in such a fixedly anchored position be able to retain a second, for instance a laterally related and/or a sub-related, construction, for instance a ceiling built up from studs and plasterboard panels, where each arrangement is to display a first part portion cooperable with the first construction and a second, part portion cooperable with the second construction.
As then regards the prior art, concerning a resilient or elastically suspended ceiling in a beam structure, so as to reduce sound transport from the beam structure to a subjacent space, there is proposed an arrangement, more closely described in appended
Taking into account the circumstance that the technical considerations which a person skilled within the art must do in order to be able to offer a solution to one or more set technical problems is on the one hand initially a necessary insight into the measures and/or the sequence of measures to be implemented and on the other hand a necessary selection of the means required, in view hereof the following technical problems and considerations are likely to be relevant in the evolution of the subject matter of the present invention.
Taking into account the state of the art, as described in the foregoing, it is probably therefore likely to be seen as a technical problem to be able to realise the importance of, the advantages associated with and/or the technical measures and considerations which will be required in order in a sound-damping arrangement, which is to be able to offer on the one hand a resilient fixing and on the other hand a sound-damping effect, intended pointwise to be able to be anchored in a first, for instance a fixed and bearing, construction and in such an anchored position be able to retain a second, for instance a laterally related and/or sub-oriented construction, and where the sound-damping arrangement to this end is to display a first part portion cooperable with the first construction and a second part portion cooperable with the second construction, to be able to disclose the construction and offer the insight that the first part portion and the second part portion are to be coordinated in series with one another and a resilient means, such as a helical spring unit, is to be adapted, with tractive or compressive force, to spotwise resiliently retain said second construction at an adapted distance from (under) said first construction.
There resides a technical problem in being able to realise the importance of, the advantages associated with and/or the technical measures and considerations which will be required in order to cause the first part portion to be formed with a fixing means, such as a helically formed thread.
There resides a technical problem in being able to realise the importance of, the advantages associated with and/or the technical measures and considerations which will be required in order to cause the second part portion to be formed with a fixing means, such as helically formed thread.
There resides a technical problem in being able to realise the importance of the advantages associated with and/or the technical measures and considerations which will be required in order to cause said first part portion and said second part portion to be oriented in one another's extension and that the resilient means is to be adapted, related to said extension, to cooperate with the mutually facing end sections of said part portions.
There resides a technical problem in being able to realise the importance of, the advantages associated with and/or the technical measures and considerations which will be required in order to cause the resilient means to include a spring unit dimensioned for tractive forces or alternatively a spring unit dimensioned for compressive forces.
There resides a technical problem in being able to realise the importance of, the advantages associated with and/or the technical measures and considerations which will be required in order to cause the spring unit to be dimensioned with a spring constant or a “K” value of between 0.01·106 and 10.0·106 (N/m).
There resides a technical problem in being able to realise the importance of, the advantages associated with and/or the technical measures and considerations which will be required in order to cause the first part portion to be formed with a first fixing means, such as a thread adapted for wood.
There resides a technical problem in being able to realise the importance of, the advantages associated with and/or the technical measures and considerations which will be required in order to cause a tip of said first part portion to be adapted as a drill tip, with a diameter slightly less than the diameter given to the first means.
There resides a technical problem in being able to realise the importance of, the advantages associated with and/or the technical measures and considerations which will be required in order to cause the second part portion to be formed with a second fixing means, such as for example a thread adapted for wood, and intended to fixedly cooperate with a hole formed in the second construction.
There resides a technical problem in being able to realise the importance of, the advantages associated with and/or the technical measures and considerations which will be required in order within said second part portion to create a space, adapted in order to be able to accommodate a helical spring unit.
There resides a technical problem in being able to realise the importance of, the advantages associated with and/or the technical measures and considerations which will be required in order to cause said second part portion to be given the form of a sleeve, rotatably coordinated with a rod-shaped device to which said first part portion is non-rotationally connected.
There resides a technical problem in being able to realise the importance of, the advantages associated with and/or the technical measures and considerations which will be required in order to cause said second part portion to be axially displaceable along a rod-shaped device and in a slightly compressed displacement position there are cooperating means in order simultaneously to make for the rotation of both said second part portion and said rod-shaped device.
There resides a technical problem in being able to realise the importance of, the advantages associated with and/or the technical measures and considerations which will be required in order in a slightly protracted displacement position to cause said second part portion to be rotatably disposed about a rod-shaped device, for an adjustment of said second construction in relation to said first construction or vice versa.
There resides a technical problem in being able to realise the importance of, the advantages associated with and/or the technical measures and considerations which will be required in order to cause, in a second embodiment, the first part portion and the second part portion to be co-ordinately formed as a first part portion, provided with a first thread, such as a wood screw thread, and a second part portion, provided with a second thread, for instance a metric thread.
There resides a technical problem in being able to realise the importance of, the advantages associated with and/or the technical measures and considerations which will be required in order to cause said second part portion to be divided in two, with the parts axially displaced from one another, but still retained in such a displaced position by an axially disposed resilient unit will be adapted to cooperate with the grooves of the thread.
There resides a technical problem in being able to realise the importance of, the advantages associated with and/or the technical measures and considerations which will be required in order to cause said resilient unit to be formed as a helical spring, with a radius connecting to a radius of said second part portion and/or groove of the thread.
There resides a technical problem in being able to realise the importance of, the advantages associated with and/or the technical measures and considerations which will be required in order to cause the section of said division in two to leave threaded part sections on each side of the section and that said resilient unit is to be adapted to cooperate with groove-formed thread sections on either side of the division in two.
There resides a technical problem in being able to realise the importance of, the advantages associated with and/or the technical measures and considerations which will be required in order to cause said resilient unit to be adapted with a thread pitch approximating an allocated thread pitch of said second part portion.
There resides a technical problem in being able to realise the importance of, the advantages associated with and/or the technical measures and considerations which will be required in order to cause a first end portion and end section, facing towards the division in two, and a second end portion and end section, facing towards said division in two, to display mutually fixedly coordinating coupling means.
There resides a technical problem in being able to realise the importance of, the advantages associated with and/or the technical measures and considerations which will be required in order to cause said coupling means to be coordinable in order to be able to transmit a torque between one another, under the utilisation of an axially directed force working against the spring action, operative within the axial direction of the second part portion towards the first part portion.
There resides a technical problem in being able to realise the importance of, the advantages associated with and/or the technical measures and considerations which will be required in order to cause the end portion or end section of the first part portion to display an irregular axially related pin while the end portion or end section of the second part portion is to display an axially related hole corresponding to the pin.
There resides a technical problem in being able to realise the importance of, the advantages associated with and/or the technical measures and considerations which will be required in order to cause said displacement to be adapted to a selected distance, for instance corresponding to a selected diameter of the second part portion.
There resides a technical problem in being able to realise the importance of, the advantages associated with and/or the technical measures and considerations which will be required in order to cause the helically adapted extent of the resilient unit over the section of the division in two to constitute a sound and/or heat reducing bridge.
There resides a technical problem in being able to realise the importance of, the advantages associated with and/or the technical measures and considerations which will be required in order to make for the provision around the rod-shaped device of an elastic damping, for instance in the form of a viscoelastic layer.
In such instance, the present invention takes as its point of departure the prior art as disclosed by way of introduction and is intended to create a resilient fixing arrangement, adapted to be able to be anchored in a first, such as a fixed and bearing, construction and in such an anchored position to be able to fixedly retain a second, such as a laterally related and/or a sub-oriented, construction, where the arrangement displaying a first part portion cooperable with the first construction and a second part portion, cooperable with the second construction.
In order to be able to resolve one or more of the above-disclosed technical problems, the present invention more specially discloses that the prior art technique is to be supplemented by the feature that the first part portion and the second part portion are, e.g. via a rod-shaped or similar device, are to be coordinated in series and axially with one another and that a resilient means is to be adapted to make for the connection between said first and second part portions in order with a tractive and/or compressive force resiliently and axially resiliently to be able to fixedly retain said second construction at an adapted distance from said first construction.
As proposed embodiments, falling within the scope of the basic concept of the present invention, it is moreover disclosed that the first part portion should be formed with a fixing means, such as a helically formed thread, while the second part portion should be formed with a fixing means, such as a helically formed thread.
Said first part portion and said second part portion are to be oriented in one another's extension and the spring means is to be adapted, related to said extension, to cooperate with the mutually facing end sections of said part portions.
It is further disclosed that the spring means can include a spring unit dimensioned for tractive forces, alternatively a spring unit dimensioned for compressive forces.
More specially it is disclosed that the spring unit will advantageously be able to be dimensioned with a spring constant of between 0.01·106 and 10.0·106 (N/m).
It is further disclosed that the first part portion may advantageously be formed with a thread adapted for wood.
It is further disclosed that a tip of said first part portion may be adapted as a drill tip, with a diameter slightly less than the groove related diameter given to the first thread.
The invention more specially discloses that the second part portion can advantageously be formed with a thread adapted for wood and is intended to cooperate with a hole formed in the second construction.
Within said second part portion is formed and there exists a space, adapted to be able to accommodate a helically formed spring unit.
Said second part portion may then be given the form of a sleeve, rotatably coordinated with a rod-shaped device, to which said first part portion is non-rotationally connected.
Said second part portion may be axially displaceable along a rod-shaped device and in a slightly axially compressed displacement position there are means for simultaneously allowing rotation of both said second part portion and said rod-shaped device.
In a slightly separated displacement position said second part portion should be rotatably disposed about said rod-shaped device, for a positional adjustment of said second construction in relation to said first construction.
As a second embodiment of a resilient fixing arrangement, intended to be able to be fixedly anchored in a first, for instance a fixed and bearing, construction and in such a fixedly anchored position be able to retain a second, such as a laterally related or sub-oriented, construction, where the arrangement displaying a first part portion for instance provided with a helical thread, and cooperable with said first construction and a part portion for instance provided with a helical thread, cooperable with the second construction, the present invention discloses that the first part portion and the second part portion are to be coordinatedly formed as a first part portion, provided with a first thread, for instance a wood screw thread, and a second part portion provided with a second thread, for instance a metric thread.
As then regards the second embodiment, the present invention offers the feature that said second part portion is to be divided in two with a radial section, with the thus formed two parts or end sections slightly displaced from one another, but nevertheless fixedly retained in this disclosed displaced position by said resilient unit.
It is further disclosed that said resilient unit should be formed substantially as a helical spring and then with a radius corresponding to or slightly less than a selected radius for said second part portion.
The section for said division in two is advantageously to leave threaded portions on either side of the radial section and where said resilient unit is to be adapted to tightly cooperate with grooves in threaded sections on either side of the division in two.
Said resilient unit should then be adapted with a thread pitch corresponding to the thread pitch and a groove of said second part portion.
A first end portion or end section, facing towards the division in two, and a second end portion or end section, facing towards the division in two display mutually coordinable and corresponding coupling means.
Said coupling means are to be coordinable with one another in order to be able to transmit a torque between one another, under the utilisation of a force acting against the spring force within the axial direction of the second part portion and towards the first part portion.
It is proposed that the end portion of the first part portion is to display an irregular axially related pin while the end portion of the second part portion is to display an axially related hole corresponding to the pin.
It is further proposed that said displacement should be adapted to a distance, where this distance is to be corresponding to a selected diameter of the second part portion.
The linear adapted extent of the resilient unit, for instance of metal, over the section for the division in two thus constitutes the only mechanical sound and/or heat bridge.
Further, a bar-shaped device can cooperate with an elastic damping.
The advantages which may principally be deemed to be characteristic of the present invention and the special significative characterising features disclosed thereby are that there have hereby been created the preconditions in order in a resilient fixing arrangement, intended to be able to be anchored in a first, for instance a fixed and bearing, construction and in such an anchored position be able to retain a second, for instance a laterally related and/or sub-oriented, construction, where the arrangement displaying a first, part portion cooperable with the first construction and a second part portion cooperable with the second construction, to disclose that the first part portion and the second part portion are, for instance via a rod-shaped device, to be in series and axially coordinated with one another and that a resilient means, for instance a helically formed spring unit formed of metal, is to be adapted to interconnect said first and said second part portions in order with a tractive or a compressive force resiliently and spotwise to make for the retention of said second construction at an adapted distance from said first construction.
That which may principally be deemed to be characteristic of the present invention is disclosed in the characterising clauses of appended Claims 1 and 15.
The prior art and a number of currently proposed embodiments, displaying the significative characterising features associated with the present invention, will now be described in greater detail hereinbelow for purposes of exemplification, with reference to the accompanying Drawings, in which:
With reference to
The arrangement “A” here consists of a “U”-formed elongate rail whose one shank (right-hand shank) is fixedly related to the beam construction “B” and where the interconnecting centre portion “1b” of the shanks is fixed to the construction “C”.
The resilient effect is here based on the fact that the rail “C” is only fixed with its one shank to the construction “B” while the other shank within the “U”-form is free.
The resilient effect is here based on a rotation along the elongate form of the one shank between the anchorages “1a” and “1b”.
Description of Currently Proposed Embodiment
By way of introduction, it should be emphasised that in the following description of one currently proposed embodiment, which displays the significative characterising features associated with the present invention and which has been clarified by means of the figures shown in the accompanying Drawings, we have selected terms and a special terminology with the intention in such instance principally of clarifying the inventive idea.
However, in this context it should be observed that expressions selected here should not be seen as restrictive exclusively to the terms utilised here and selected but it should be understood that every thus selected term is to be interpreted so that in addition it encompasses all technical equivalents which function in the same or substantially the same manner, in order in such instance to be able to attain the same or substantially the same intention and/or technical effect.
With reference to accompanying
Thus
The resilient fixing arrangement 3, intended to be able to be fixedly anchored in a first, for instance a fixed and bearing, construction 1 and in such a fixedly anchored position be able to fixedly retain a second, for instance a laterally related and/or sub-oriented construction 2, where the arrangement 3 displaying a first part portion 3a cooperable with the first construction 1 and a second part portion 3b cooperable with the second construction 2.
The first part portion 3a and the second part portion 3b are in the axial direction coordinated with one another via a resilient unit 4a and/or via a rod-shaped device 3c (
The first part portion 3a is in
The second part portion 3b is also formed with a thread 3b′ adapted for wood and is intended to cooperate with a prefabricated hole 2a formed in the second construction 2.
The second part portion 3b is in
Within said second part portion 3b there is a space 3d, adapted to be able to accommodate the helical spring unit 4a.
Said second part portion 3b is in the form of a sleeve, rotatably coordinated with said rod-shaped device 3c, to which said first part portion 3a is non-rotationally connected or integrated.
Said second part portion 3b is axially displaceably disposed along said rod-shaped device 3c.
In a slightly compressed displacement position, there are means 5 (two screw grooves assume a mutually cooperating position, one screw groove 3e in the other part 3b, one screw groove 3c′ in the lower end portion of the device 3c) in order with the aid of a tool, a screw driver, simultaneously to make for the rotation of both said second part portion 3b and said rod-shaped device 3c, under the activation of a compressive force “P”.
In a slightly separated displacement position, said second part portion 3b is rotatably disposed about said rod-shaped device 3c for an adjustment of the distance “D” between said second construction 2 in relation to said first construction 1.
With reference to
It is here disclosed that the first part portion (3a) and the second part portion (3b) are to be coordinatedly formed as a first part portion (3a) provided with a first thread, for instance a wood screw thread, and a second part portion (3b) provided with a second thread, for instance a metric thread.
Said first and second part portions (3a and 3b) may form a unit that is here via a section (6) to be divided in two, with the parts or end sections (3c′ and 3c″) axially slightly displaced from one another, but retained in this displaced position by a resilient unit (4b).
Said resilient unit (4b) is formed as a helical screw with a radius corresponding to a radius of a groove within the thread of said second part portion (3b).
The radial section (6) for said division in two leaves threaded part portions (6a, 6b) on either side of the section and where said resilient unit (4b) is to be adapted to cooperate with thread sections on either side of this division in two (6).
Said resilient unit (4b) should then be adapted with a thread pitch corresponding to a selected thread pitch for said second part portion (3b).
A first end portion (3a′), facing towards the section (6) of the division in two, and a second end portion (3b′), facing towards the section (6) for the division in two display end portions (3c′) and (3c″) and with mutually cooperable coupling means (7).
Said coupling means (7) are here to be coordinable in order to be able to transmit an axially-related torque between one another, but under the utilisation of a force “P” acting against spring force, in the axial direction of the second part portion (3b) towards the first part portion (3a).
The end portion (3a′) of the first part portion (3a) displays an irregular axially-related and centred pin (7a), while the end portion (3b′) of the second part portion (3b) displays a corresponding axially-related and centred hole (7b) corresponding with the pin (7a).
Said displacement, corresponding to the section (6) is adapted to a distance corresponding to a selected diameter of the second part portion (3b).
The helical adapted thin and short mechanical extent (4b) of the resilient unit (4b) over the section (6) for the division in two constitutes the only mechanical sound and/or heat bridge.
It should be specially observed that the section (6) for the division in two is to be laid so that the length “L1” of the lower section (3b) is to connect to or slightly exceed the allocated thickness of the second construction 2 with a stud (2b) and a plasterboard (2c).
The mechanical sound and/or heat bridge (4b′) can further reduce sound and heat transport by forming the spring section (4b′) from a sound and heat damping material.
The first part portion 3a is formed with a fixing means adjacent the end portion 3a′, for instance to a helically formed thread, while the second part portion (3b) is formed with a fixing means adjacent the end portion (3b′), for instance to a helically formed thread.
Said first part portion (3a) and said second part portion (3b) are oriented in one another's extension and the spring means (4) is adapted, related to said extension, to cooperate with the mutually facing end portions (3a′) and (3b′), respectively, of said part portions.
The spring means (4) can then include a spring unit (
The spring unit (4) is here dimensioned to display a spring constant or “K” value between 0.01·106 and 10.0·106 (N/m).
The present invention requires for its sound-damping function a selection of a spring constant “K” (N/m).
Such a spring constant will be dependent upon the selected frequency (f) of the sound wave which is to be damped, the number of connection points (n), the mass (m) which the spring is to support according to the formula
n·K=(f·2π)2·m
which will have a frequency (f) of 50 Hz, the number of connection points (n)=1 and the mass approx. 9 kg/m2 gives a “K” value of 0.8·106 (N/m) at m=18 kg/m2 a “K” value of 1.6·106 (N/m).
At n=7, m=9 there will be obtained a “K” value of 0.13−106 (N/m).
Thus falling within the scope of the invention are “K” values between 0.01·106 and 10.0·106 (N/m).
The upper portion of the compression spring 72 is enclosed by a sleeve 73 which in its lower part 73a is secured to the construction 2.
A special movement damping unit 74 corresponding (“d” in
Naturally the invention is not restricted to the embodiment described by way of example in the foregoing, but may undergo modifications without departing from the scope of the inventive concept as illustrated in the appended Claims.
It should specially be observed that every illustrated unit and/or circuit is to be able to be combined with every other illustrated unit and/or circuit within the scope in order to be able to attain the desired technical function.
| Number | Date | Country | Kind |
|---|---|---|---|
| 0700768 | Mar 2007 | SE | national |
| Filing Document | Filing Date | Country | Kind | 371c Date |
|---|---|---|---|---|
| PCT/SE2008/000202 | 3/19/2008 | WO | 00 | 1/20/2010 |
| Publishing Document | Publishing Date | Country | Kind |
|---|---|---|---|
| WO2008/115119 | 9/25/2008 | WO | A |
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| Number | Date | Country | |
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| 20100139182 A1 | Jun 2010 | US |
