Surgery table apparatus

Abstract

A surgery table utilizing first and second sections which are hingedly attached to one another. First and second sections are also connected to supports apart from the hinged portion. An elevator moves one of the sections upwardly and downwardly at the support. The resultant position of the frame formed by the first and second sections may take the configuration of a flat surface or an upwardly or downwardly oriented vee.

Claims

1. A torso assembly for supporting and moving a torso region of a patient during a medical procedure in response to hinging of a first section relative to a second section of a frame of a surgical table, the torso assembly comprising: a torso platform configured to be supported on the first section of the surgical table and comprising a central portion, a first arm extending outwardly from the central portion and configured to engage with a first portion of the first section of the surgical table, and a second arm extending outwardly from the central portion in a generally opposite direction from the first arm, the second arm configured to engage with a second portion of the first section of the surgical table; and a slide mechanism operably coupling the torso platform and the surgical table, the slide mechanism configured to move the torso platform in response to hinging of the first section relative to the second section, wherein the torso platform moves towards the hinge when the first and second sections transition from a generally level position to an inverted V position, wherein the slide mechanism comprises a control rod coupled to the torso platform and a portion of the surgical table, wherein movement of the control rod causes movement of the torso platform.

2. The torso assembly of claim 1, wherein the slide mechanism prevents free moving of the torso platform.

3. The torso assembly of claim 1, wherein the inverted V position defines an angle under the first and second sections of less than one hundred eighty degrees.

4. The torso assembly of claim 1, wherein the torso platform moves away from the hinge when the first and second sections transition from the inverted V position to the generally level position.

5. The torso assembly of claim 1, wherein: a first end of the control rod comprises a first connection point that moves between a first position and a second position as the first and second sections transition from the generally level position to the inverted V position; a second end of the control rod comprises a second connection point that moves between a first position and a second position as the first and second sections transition from the generally level position to the inverted V position; a distance between the first connection point and the second connection point, a distance between the first positions and a distance between the second positions remains the same as the first and second sections transition from the generally level position to the inverted V position.

6. The torso assembly of claim 1, wherein: the control rod comprises a connection point; and movement of the connection point in one direction causes movement of the torso platform in an opposite direction.

7. The torso assembly of claim 1, wherein: the slide mechanism includes a plate that is connected to the control rod and captures a timing belt in conjunction with a link; and movement of a control rod connection point of the control rod in a first direction moves the belt according to the first direction.

8. The torso assembly of claim 1, wherein the slide mechanism includes a drive plate is connected to one of the arms via a pin.

9. The torso assembly of claim 1, wherein the central portion comprises a central opening that extends through a thickness of the central portion.

10. The torso assembly of claim 1, wherein the torso platform includes a lock fixture that stabilizes the torso platform atop of the frame.

11. The torso assembly of claim 1, wherein one of the arms includes a lock fixture that stabilizes the torso platform atop of the frame.

12. A surgery table comprising: first and second sections that are inwardly coupled by a hinge and outwardly coupled by respective first and second supports; a torso platform slidably supported on the first section; and a slide mechanism comprising a control rod coupled to the torso platform and a portion of the surgical table, wherein movement of the control rod causes movement of the torso platform.

13. The surgery table of claim 12, wherein the torso platform moves towards the hinge when the first section is pivoted relative to the second section about the hinge.

14. A surgery table comprising: first and second sections that are inwardly coupled by a hinge and outwardly coupled by respective first and second supports; a torso platform slidably supported on the first section; and a slide mechanism comprising a control rod coupled to the torso platform and a portion of the surgical table, the slide mechanism comprising a plate that captures a timing belt in conjunction with a link, wherein movement of the control rod in a first direction causes movement of the belt and the torso platform in a second direction.

15. The surgery table of claim 14, wherein one of the arms includes a lock fixture that stabilizes the torso platform atop of the first section.

16. The surgery table of claim 14, wherein the first direction is about 180 degrees from the second direction.

17. The surgery table of claim 14, wherein the torso platform moves towards the hinge when the first section is pivoted relative to the second section about the hinge.

18. The surgery table of claim 14, wherein: a first end of the control rod comprises a first connection point that moves between a first position and a second position as the first and second sections transition from a generally level position to an inverted V position; a second end of the control rod comprises a second connection point that moves between a first position and a second position as the first and second sections transition from the generally level position to the inverted V position; a distance between the first connection point and the second connection point, a distance between the first positions and a distance between the second positions remains the same as the first and second sections transition from the generally level position to the inverted V position.

19. The surgery table of claim 14, wherein the torso platform comprises a central portion, a first arm that extends from a first side of the central portion and a second arm that extends from a second side of the central portion, the arms each defining a channel configured for disposal of a rail of the first section.

20. The surgery table of claim 14, wherein the central portion comprises a central opening that extends through a thickness of the central portion.

Description

BRIEF DESCRIPTION OF THE DRAWINGS

(1) FIG. 1 is a side elevational view of the surgery table of the present invention.

(2) FIG. 2 is a side elevational view of the surgery table of the present invention angulated upwardly through its hinge mechanism to position a patient for back surgery.

(3) FIG. 3 is a partial side elevational view of the hinged portion of the table of the present invention, reversed in placement from FIGS. 1 and 2.

(4) FIG. 4 is a broken perspective view of the hinge adjustment mechanism of the present invention.

(5) FIG. 5 is a top, front, right perspective view of the slidable platform for supporting the torso or chest of a patient used with the hinged sections of the table of the present invention.

(6) FIG. 6 is partial perspective view of the mechanism employed for sliding the torso platform of the present invention.

(7) FIG. 7 is a partial top plan view of the surgery table of the FIG. 1 showing the face pad, chest pad, hip pads, and arm rests, and slidable platform.

(8) FIG. 8 is a schematic side elevational view of a portion of the surgery table of the present invention in which both sections are in the same plane.

(9) FIG. 9 is a side elevational view of a portion of the surgery table showing upward articulation of the same through its hinge mechanism and the movement of the face and torso support during such articulation.

(10) For a better understanding of the invention reference is made to the following detailed description of the preferred embodiments of the invention which should be taken in conjunction with the above described drawings.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS OF THE INVENTION

(11) Various aspects of the present invention will evolve from the following detailed description of the preferred embodiments thereof which should be referenced to the prior described drawings.

(12) An embodiment of the invention as a whole shown in the drawings by reference character 10. Table 10 includes as two of its elements a first section 12 and a second section 14. First section 12 includes a proximal portion 16 and a distal portion 18. Likewise, second section 14 is provided with a proximal portion 20 and a distal portion 22. Hinge 24 rotatably connects distal portion 18 of first section 12 to distal portion 22 of second section 14, FIG. 1. First section 12, second section 14, and hinge 24 form a frame 26 which is intended to support a patient during surgery.

(13) Again referring to FIG. 1, it may be observed that a first support 28 holds proximal portion 16 of first section 12, while a second support 30 holds proximal portion 20 of second section 14. Adjustable rod member 32 further stabilizes the interconnection between first support 28 and second support 30. Plurality of wheels 34 allow surgery table 10 to roll on a surface 36. Such mobility is necessary for storage and use of surgery table 12. Of course, wheels 34 may be locked into place while surgery table is used for medical procedures.

(14) Turning to FIG. 2, it may be seen that first section 12 has been rotated relative to second section 14, directional arrow 38. FIG. 1, depicts the up and down movement of distal ends 18 and 22 in phantom. During this operation, hinge 24 rotates about axis 40 and the proximal portion of second section 14 rotates about pivot 42. Additionally, an elevator 44 lowers the proximal portion 16 of first section 12. Adjustor 46, in the form of a journaled shaft, determines the distance between proximal portion 16 of first section 12 and support 28. Further, pivot 48 allows the rotation of a portion of adjustor 46 relative to elevator 44. Elevator 44 may be of known configuration, similar to one found in the Jackson surgery table distributed by Mizuho Orthopedic Systems Inc of Union City, Calif.

(15) With respect to FIG. 7, it may be apparent that surgery table 10 includes a number of patient support items. For example, arm rests 50 and 52 extend to second section 14 for support therefrom. Face support 54 and chest support 56 lie on a platform 58 which slides along second section 14 of frame 26, the details of which will be discussed hereinafter. Hip supports 60 position atop first section 12. Other pads atop frame 26 have not been shown for the sake of clarity.

(16) With reference to FIG. 3, it should be apparent that the hinged structure 24 of the table 10 is shown with portions of sections 12 and 14 shown on FIGS. 1 and 2. Hinge 24 is employed with a control rod 62 that is pivotally attached to tab 64 of first section 12 and to tab 66 of second section 14. When first and second sections 12 and 14 hinge downwardly, forming an upward vee, connection point 68 of control rod moves along arc 70 to a point 68A. At the same time, connection point 72 on the end of control rod at tab 64 moves to a point 72A. Likewise, when sections 12 and 14 hinge upwardly to form an upside down vee, connection point 68 moves along are 70 to a position identified as 68B, while position point 72 relative to section 12 moves to a point shown as 72B. Most importantly, the distances between points 68 and 72, 68A and 72A, and 68B and 72B remain the same, being identified as distance A, FIG. 3.

(17) Referring now to FIG. 4, it may be observed that the drive mechanism 74 is revealed in broken away configuration for the movement of sections 12 and 14. In essence, a lead screw 76 is rotated via link rod 78 according to directional arrow 80. Motor 82 provides the motivational force for such movement in a clockwise or a counter clockwise direction of link rod and lead screw 76. As depicted in FIG. 4, lead screw 76 has been turned to move frame 26 upwardly into an inverted vee position.

(18) Turning now to FIGS. 5 and 6, it may be apparent that chest or torso sliding platform 58 is depicted. Platform 58 includes a central portion 84 and upwardly extending arms 86 and 88. Central opening 90 lies below the face of a patient when platform 58 is placed atop frame 26, FIG. 7. Plate 92 aides in the mounting of platform 58 to frame 26. Lock fixture 94 stabilizes platform 58 atop of frame 26.

(19) FIG. 6, depicts the sliding mechanism 96 which moves platform 58 commensurate with the hinging of sections of 14 and 12 heretofore described. A plate 98, connected to control rod 62, captures a timing belt 100 in conjunction with a link 102. Thus, the movement of control rod connection point 72, directional arrow 104, moves belt 100 according to directional arrow 106. Needless to say, drive plate 108 also moves according to directional arrow 106 and is connected to sliding platform 58 at arm 88 via drive pin 89. In other words, the movement of connection point 72 of control rod 62 in one direction causes the movement of sliding platform 58 in the opposite direction.

(20) In operation, referencing FIGS. 7-9, platform 58 is placed upon frame 26 and allowed to slide thereupon when sections 12 and 14 move about hinge 24 and around axis 40. In addition, face support 54, usually constructed of soft foam material, is positioned on sliding platform 58 above opening 90 chest support 56. Hip supports 60 are also placed as shown in FIG. 7. In addition, other pads may lie atop of frame 26 which are not depicted in order to reveal the mechanical mechanism of table 10. With reference to FIG. 8, it may be observed that a patient 110 has been placed on table 10 in a prone position. Head 112 lies atop of face support 54 while the remaining portion of patients body 114 extends toward first section 12 of frame 26. As shown in FIG. 8, the patient is generally in a level position. The hinging or movement of section 14 relative to section 12, FIG. 9, causes the upward movement of frame 26 in the formation of an inverted vee which allows patient 110 to be position appropriately for the conducting of operation procedures such as back surgery and the like. It should also be noted that sliding platform 58 and face support 54 has moved according to directional arrow 116 toward hinge axis 40 to prevent the frictional dragging of patient 110 relative to table 10. It should also be realized that patient 110 may be placed on table 10 laterally, in a supine position and the like. Of course, the hinging of table 10 about axis 40 would be accomplished in conjunction with such variations and positions of patient 110 pursuant to the surgical procedure taking place on patient 110. That is to say, distal portions 18 and 22 of first and second sections of frame 26 may raise or lower from a level position as required directional arrow 118, FIG. 2.

(21) While in the foregoing, embodiments of the present invention have been set forth in considerable detail for the purposes of making a complete disclosure of the invention, it may be apparent to those of skill in the art that numerous changes may be made in such detail without departing from the spirit and principles of the invention.