with reference to fig1 , shoulder sling device 100 is shown as worn by a user in accordance with the present invention . device 100 consists of shoulder sling portion 200 from which emerges a plurality of straps , namely strap 1 , strap 2 and strap 3 . referring to fig1 - 3 , strap 1 is shown to emerge from the most superior portion of shoulder sling portion 200 , extend across the patient &# 39 ; s dorsum , return anteriorly by crossing the patient over the left trapezius muscle , pass through length adjusting mechanism 1 a and loop into in attachment element 1 b to return into the length adjusting mechanism . attachment element 1 b will be inserted into attachment retaining element 1 c located on the anterior area of the device 100 . the length of strap 1 may be adjusted via length adjusting mechanism 1 a by pulling on strap 1 . similarly , strap 2 begins from a more posteriolateral location on the device , crosses the patients back , emerges anterior after crossing the patient &# 39 ; s left axillary region to pass through length adjusting mechanism 2 a , loop into attaching element 2 b and return to the length adjusting mechanism . attaching element 2 b will be inserted into attachment retaining element 2 c located on the anteriomedial of the shoulder sling portion 200 . the length of strap 2 may be adjusted via length adjusting mechanism 2 a by pulling on strap 2 . referring to fig1 - 5 , strap 3 emerges from the lateral surface of the sling 200 and descends to length adjusting mechanism 3 a , after which it descends to the lateral surface of elbow elevating support 300 where it passes through elbow strap guiding element 3 b . elbow strap guiding element 3 b may run through the partial or entire length of the elbow elevating support 300 . strap 3 then emerges medially , ascends towards the medial surface of sling 200 and loops through strap looping element 3 c ( shown in fig3 , 5 ) on the shoulder sling portion 200 , after which it descends to reenter elbow strap guiding element 3 b . from here it emerges laterally and enters length adjusting 3 a once again . this orientation allows for length adjustment of strap 3 which will symmetrically raise elbow elevating support 300 . straps 1 , 2 , 3 may be constructed from a variety of different materials , including but not limited to leather , cotton , nylon , elastic / non - elastic cord , shock cord , web , woven elastic , elastic lace , polyester , polymers , denim , braid , and / or combinations and / or mixes of these materials , or any other material obvious to one in the art . similarly , elbow strap guiding element may be constructed and / or coated with similar materials that allow for reduced friction against strap 3 . attachment elements 1 b , 2 b , 3 b , attachment retaining elements 1 c , 2 c , 3 c , and length adjusting mechanisms 1 a , 2 a , 3 a may be assembled from a variety of devices for attachment . this includes , but is not limited to a conventional prong belt buckle , web strap buckle , snap hooks , cam buckles , hook clips , adjusters , web strap slides , carabiners , luggage clips , hook and loops mechanisms ( trademark velcro ) or any other material obvious to one in the art . the straps , attachment and length adjustment mechanisms serve merely to initially mount the device 100 on the patient . an initial gross adjustment of the strap length will adjust the device to the patients overall size but will not provide any fine adjustment specific to an individual &# 39 ; s body contours . such fine adjustment will be discussed later . with regard to the initial mounting of the device on the patient , refer to fig5 . shoulder sling portion 200 is shown to be continuous through its circumference . the figure depicts a region that is drawn transparent to allow the viewing of open region 400 . in this orientation , the shoulder sling portion will be initially mounted on a user by inserting the user &# 39 ; s arm into the open region and sliding the device up the desired arm . subsequent securing of the device will be achieved via the attachment of straps 1 , 2 , and 3 into their respective attachment retaining elements . referring now to fig4 , elbow elevating support 300 is depicted in an anterior view , as well as in coronal section to illustrate its various components . beginning from its exterior , elbow strap retaining mechanism 3 b is shown to allow passage of strap 3 throughout its entire length . interior to the elbow strap retaining mechanism 3 b is the cushioning element housing wall 4 which retains cushioning element 4 a . cushioning element 4 a may be constructed of a variety of different malleable materials , including but not limited to different varieties of foam such as flexible soft polyurethane foam , as well as highly viscoelastic pliable polymer gel materials as found in gel seats and / or mouse pads . cushioning element 4 a will provide a comfortable cushion to the user &# 39 ; s elbow . exterior to the more interior cushioning element housing wall is an interior textile layer 5 , which will contact the skin of the user &# 39 ; s elbow region . this interior textile layer 5 can be constructed from a variety of different materials , including but not limited to cotton , polyester blends , neoprene , fleece , satin , suede , any other fabric or cloth , blends thereof as well as any other material obvious to one in the art . the equivalent of the interior textile layer 5 of the exterior surface of the elbow elevating support 300 is the exterior textile layer 6 , which will be constructed of a less pliable material including but not limited to leather , cotton , nylon , wool , denim , polyester , polymers , blends and / or combinations thereof , as well as any other material obvious to one in the art . referring now to fig5 , an anteriolateral perspective view of the shoulder sling as worn of the left arm is shown with component layers exposed in a zoomed in section . these layers can be better visualized in fig6 and 7 . fig6 depicts a cross sectional view of the shoulder sling portion 200 depicting its internal structures , which can be seen better in the zoomed in portion of the figure . the exterior surface of the sling is lined by an exterior textile layer 7 that is similar in construction to exterior textile layer 6 of the elbow elevating support 300 . the interior surface of the sling is lined by an interior textile layer 13 that is similar in construction to interior textile layer 5 of the elbow elevating support 300 . external to the internal textile layer is a cushioning element housing wall 12 which contains cushioning element 12 a . the cushioning element 12 a is similar to the cushioning element 4 a of the elbow elevating support 300 . in a preferred embodiment , the cushioning element 12 a consists of a highly viscoelastic pliable polymer gel material . this gel material is preferentially elastomeric with the consistency of fatty tissue , such as t - gel , a trademark of alimed . external to the cushioning element housing wall is a unique air bladder 8 . air bladder 8 is shown to comprise a continuous air chamber space 9 and air bubbles 10 . these elements are better shown in an exploded view as depicted in fig7 . the air bladder is depicted in zoomed section which allows a better visualization of air bubble inlet 10 a . referring to fig5 - 7 , note that ventilation holes 11 extend from the interior aspect of the device to its exterior . these ventilation holes are not continuous with the air bladder 8 . they pass through the air bladder between the aforementioned air bubbles . these ventilation holes prevent the buildup of heat and sweat on the user &# 39 ; s skin by allowing the escape of warm air and the subsequent physiological cooling . this aspect of the invention allows for greater comfort of use which will translate into greater compliance . referring back to fig1 - 3 , an inflation mechanism 14 is depicted on the anterior surface of the shoulder sling portion . details of the inflation mechanism are depicted in fig8 . inflation mechanism 14 is shown to comprise collapsible inflation mechanism housing 14 a , as well as one way valves 16 and 17 , and is continuous with air chamber 8 . the inflation mechanism is depressed with a user &# 39 ; s finger , a process which will cover one way valve 15 to prevent air in inflation mechanism chamber area 15 from escaping into the atmosphere . the depression of the inflation mechanism 14 will force the opening of one way valve 17 and allow entry of air into the continuous air bladder space 9 of air bladder 8 . the inflation mechanism 14 is held in place via inflation mechanism retaining element 15 a . this component passes through all layers exterior to the air bladder 8 and terminates at the air bladder . it will not only maintain the integrity of the inflation mechanism 14 , but will allow the passage of air into the air bladder without fail . once the air enters the air bladder , it will travel to areas with a negative pressure gradient , with greater distribution to areas with a larger pressure gradient . during inflation , the air will enter air bubbles 10 via air bubble inlet 10 a as shown in fig7 . these bubbles will inflate until a point where they provide adequate and comfortable support to the patient &# 39 ; s shoulder . in a preferred embodiment , the inflation of the bubbles will distribute and deform the cushioning element 12 a and allow for a snug , comfortable fit . when the air bubbles are optimally inflated to adjust to an individual body contour , the pressure gradient will dissipate in this area and the inflated air will preferentially distribute to more distal air bubbles in need of inflation . note that the dashed lines of fig8 represent the ventilation hole 11 that passes through the air chamber 8 and is not continuous with air chamber 8 . referring back to fig1 - 3 , a pressure releasing mechanism 18 is shown on the anterior surface of the shoulder sling portion . details of the pressure releasing mechanism are depicted in fig9 , which depicts it in coronal section . pressure releasing mechanism 18 comprises a semi - rigid collapsible pressure releasing mechanism housing 19 which is penetrated with a plurality of symmetric spaced pressure releasing air outlets 20 . the pressure releasing mechanism housing 19 contains a pressure releasing valve 21 which penetrates air chamber 8 . the pressure releasing valve 21 is maintained in an upright position via resilient buoyant pressure retaining mechanism 22 , which prevents air from escaping from the air chamber 8 . similar to the inflation mechanism retaining element 15 a , the integrity of the pressure releasing mechanism is maintained by pressure releasing mechanism retaining element 19 a , which also passes through all layers exterior to the air bladder 8 and terminates at the air bladder . when a user depresses the pressure releasing mechanism 18 with his / her finger , the pressure releasing mechanism housing 19 will collapse and allow the depression of pressure releasing valve 21 . the depression of the pressure releasing valve will compress the buoyant pressure retaining mechanism 22 which will depress the tail of the pressure releasing valve and allow the escape of air up , through a plurality of air passage mechanism 21 a in the head of the pressure releasing valve 21 and out through the pressure releasing air outlets 20 . when depression of the pressure releasing mechanism is released , the buoyant pressure retaining mechanism 22 will cause the aforementioned pressure releasing valve to rise again . in this orientation , further escape of air from the air bladder 8 into the atmosphere is prevented , for the contact interface between the pressure releasing valve 21 and pressure releasing mechanism retaining element 19 a is inherently airtight . the collapsible inflation mechanism housing 14 a , collapsible pressure releasing mechanism housing 19 , as well as buoyant pressure retaining mechanism 22 may be constructed from any resilient , buoyant material such as rubber , polymers , and / or any other material obvious to one in the art . one way valves and pressure releasing valve 21 may be constructed of a metal , rubber , polymer or any other material obvious to one in the art . moreover , pressure releasing valve 21 may further comprise airtight lining element 21 b , which may be constructed of similar materials to perform the desired function . the air chamber and air bubbles may be made of an airtight polymer , rubber , and / or any other material obvious to one in the art . inflation mechanism retaining element 15 a , and pressure releasing mechanism retaining element 19 a may be constructed of rubber or any other material capable of performing the stated function that is apparent to one in the art , such that the inflation mechanism and pressure releasing mechanism , respectively , are maintained in position , and that interface between the pressure releasing valve 21 is airtight . in summary , referring to fig1 , 3 , or 5 , upon donning the device 100 via straps 1 and 2 , the user will insert his / her elbow into the elbow elevating support 300 and adjust its height via tugging on strap 3 . after this gross adjustment of the shoulder sling device 100 is completed , the user will inflate the air bladder 8 within the shoulder sling portion 200 via multiple depressions of inflation mechanism 14 which will preferentially distribute air to desired air bubble 10 areas due to a differential negative pressure gradient . when the desired snug fit is achieved , the user will cease to depress the inflation mechanism 14 and pressure will be retained via one way valve 18 , and a small amount of air will be retained in the inflation mechanism chamber . the fit will thus remain snug throughout the use of the apparatus . comfort of use is granted via a comfortable inner textile layer at both the elbow elevating support 300 and shoulder sling 200 , as well as ventilation holes 11 at the shoulder sling 200 that will allow the escape of warm air , prevent sweat buildup , and allow physiologic cooling . if the inflated pressure if too high , or if the user desires to remove the device , he / she will depress the pressure releasing mechanism 18 which will allow the escape of air from the air bladder and decrease the pressure . having thus described details of preferred embodiments in accordance with the scope of the present invention it is apparent that it provides numerous benefits over , and addresses inadequacies of the prior art . it should be apparent to one skilled in the art that various adaptations of modifications of the present invention can be made and will still fall within its scope , which is limited only by the appended claims :
a device intended to provide stabilization of a subluxed joint through a pneumatic air chamber combined with a plurality of straps designed to provide ease of use to the patient with a subluxed shoulder joint . this pneumatic sling will allow the user to operate this device with one upper extremity and improves independence to this population . the combination of the air chamber to the sling will provide added comfort by conforming to the discrepancies of an individual &# 39 ; s body contours . the design of this invention with the manual pump and release valve will allow the ease of donning and doffing the device .