Manifold for a medical waste collection assembly and method of collecting tissue samples therewith

The manifold assembly addresses the inefficiencies in tissue sample collection by providing dual suction paths, ensuring safe and efficient sample retrieval during surgical procedures.

JP2026016732APending Publication Date: 2026-02-03STRYKER CORP
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Patent Information

Application Number
JP2025185694
Authority / Receiving Office
JP · JP
Patent Type
Applications
Current Assignee / Owner
Priority Date
2018-10-17
Filing Date
2025-11-04
Publication Date
2026-02-03

AI Technical Summary

Technical Problem

Existing surgical procedures face challenges in efficiently collecting tissue samples under suction, leading to increased time, inconvenience, and potential exposure to hazardous medical waste due to complex systems.

Method used

A manifold assembly with a suction line, inlet bore, auxiliary sleeve, and outlet opening, featuring a tray with a sealing surface and tissue collection cavity, allows for efficient collection and separation of tissue samples by creating dual suction paths to prevent loss and exposure.

Benefits of technology

The manifold assembly effectively collects and separates tissue samples, minimizing the risk of loss and exposure to hazardous waste while maintaining suction, thus enhancing surgical efficiency and safety.

✦ Generated by Eureka AI based on patent content.

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Abstract

There is a need for improved manifolds and methods of collecting tissue samples with such manifolds and medical waste collection assemblies.SOLUTION: A manifold for collecting tissue samples with a medical waste collection assembly. A base of the housing is removably engaged with the manifold receiver to provide an aspiration path from an inlet fitting that receives an aspiration line. A tray may be removably positioned within the accessory sleeve. A locating mechanism facilitates defining a gap between the base of the tray and the lower barrier of the accessory sleeve. The tray may comprise a control surface for moving the manifold between the sealing configuration and an outflow configuration in which the second suction path is provided through the gap to the underside of the tray. A non-return valve may be disposed in the suction path between the tray and the filter element. Also disclosed is a method of collecting a tissue sample.SELECTED DRAWING: None
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Description

[Technical Field]

[0001] CROSS-REFERENCE TO RELATED APPLICATIONS This patent application is a continuation of U.S. Provisional Patent Application No. 62 / 673,4 filed on May 18, 2018. No. 18, U.S. Provisional Patent Application No. 62 / 685,792, filed June 15, 2018; and U.S. Provisional Patent Application No. 62 / 746,802, filed October 17, 2018. Priority and full benefit of the present invention are claimed and the entire contents of each are incorporated herein by reference. Use it in writing.

[0002] The present disclosure is directed generally to devices, systems, and methods for surgical procedures, more particularly In particular, a surgical procedure involving collection of tissue samples under suction by a medical waste collection assembly is This includes, but is not limited to, surgical procedures. [Background technology]

[0003] During certain surgical procedures, tissue samples are removed and evaluated, e.g., polypectomy This involves the removal of polyps from a surgical site within a patient, such as the colon or the endometrial tissue that covers the uterus. The polyps are removed by suction applied at the surgical site using a medical waste collection assembly. The recovery of polyps collected in the suction path is of particular interest. Many known systems and methods suffer from several drawbacks: Among other things, the increased time and inconvenience during surgery, potential exposure to hazardous medical waste, and complex Therefore, in the art, it is difficult to collect a large number of tissue samples. An improved manifold and a medical waste collection assembly comprising the manifold and a medical waste collection assembly. What is needed is a method for collecting fabric samples. Summary of the Invention

[0004] A manifold that collects tissue samples through a suction line. a hold volume in fluid communication with the manifold volume and configured to be in fluid communication with the aspiration line; an inlet bore formed in the manifold and an auxiliary opening leading to an auxiliary sleeve in fluid communication with the manifold volume; In fluid communication with the suction source, the suction line extends through the auxiliary sleeve and manifold volume. and an outlet opening configured to provide a first suction path through the housing. The manifold includes a control surface and a positioning mechanism disposed within the auxiliary sleeve. a sealing surface coupled to the base, a base and a tissue collection cavity extending from the sealing surface together with the base. a tray having sides fixedly coupled to a base and a porous feature within the base. The tray has (i) a sealing surface that seals the auxiliary opening, and (ii) a tissue collection cavity that seals the auxiliary slot. (iii) a base and / or side The portion engages with a positioning mechanism in the auxiliary sleeve to define the base of the tray and the auxiliary sleeve. The housing is removably connected to the lower barrier of the housing so as to provide a gap between the lower barrier and the housing. The tray is configured to receive input from a user and move closer to the lower barrier. The sealing surface is spaced away from the auxiliary opening, thereby defining the base of the tray and the auxiliary sleeve. A second opening extends from the auxiliary opening to the outlet opening through a gap between the lower wall of the housing and the auxiliary opening. The suction path is configured to provide and position the suction path.

[0005] A manifold that collects tissue samples through a suction line. a manifold volume, a manifold volume, and a suction line; an inlet bore configured in the manifold volume and an auxiliary bore leading to an auxiliary sleeve in fluid communication with the manifold volume; a trough in the auxiliary sleeve extending to the auxiliary opening, the trough being in fluid communication with the suction source; configured to provide a suction path from the manifold through the auxiliary sleeve and manifold volume The manifold includes a housing defining a control surface and an outlet opening. a sealing surface coupled to the base, a base and a tissue collection cavity extending from the sealing surface together with the base. a tray having sides fixedly coupled to a base and a porous feature within the base. The tray has (i) a sealing surface that seals the auxiliary opening, and (ii) a tissue collection cavity that seals the auxiliary slot. (iii) a tray base and auxiliary A sealing structure that defines a gap between the housing and the trough in the auxiliary sleeve, and is removable from the housing. The control surface of the tray is configured to receive input from a user and The sealing configuration allows a portion of the sealing surface to be spaced away from a portion of the auxiliary opening, thereby providing a trough and a manifold. A second suction path is provided and positioned through the nifold volume from the auxiliary opening to the outlet opening. The manifold is configured to actuate the manifold into an outlet configuration.

[0006] A method for collecting tissue samples through a suction line connected to a manifold. The manifold is in fluid communication with the manifold volume and the suction line and the fluid an inlet bore communicating therewith and an auxiliary opening leading to an auxiliary sleeve in fluid communication with the manifold volume; a positioning mechanism disposed within the auxiliary sleeve; and an outlet opening in fluid communication with the suction source. The manifold includes a housing for supporting the control surface and a sealing surface coupled to the control surface. a base and a base coupled thereto with the base extending from the sealing surface to define a tissue collection cavity; The tray includes a tissue collection tray having a porous structure within the base and a side wall that is curved. A cavity is located within the auxiliary sleeve and communicates with the inlet bore, and a sealing surface seals the auxiliary opening. The base and / or sides engage with a locating mechanism in the auxiliary sleeve to secure the base of the tray. The housing is provided with a clearance between the lower wall of the housing and the auxiliary sleeve. The outlet port is connected to the suction line through the auxiliary sleeve and manifold volume. A first suction path is provided leading to the mouth. The suction source is connected to the tissue collection portion of the tray with the porous feature. The tray operates to collect the tissue sample in the collection cavity. and separating at least a portion of the sealing surface from a portion of the auxiliary opening that is proximate to the lower barrier. This allows the outlet port to pass through the gap between the tray base and the lower barrier of the housing and out of the auxiliary opening. A second suction path is provided and positioned to reach the mouth.

[0007] The following detailed description, when considered in conjunction with the accompanying drawings, will better illustrate, by way of example, the principles of the present invention. The more fully understood, the more readily the benefits of the present disclosure will be appreciated. [Brief explanation of the drawings]

[0008] [Figure 1] 1 is a schematic diagram of a portion of a medical waste collection assembly with a manifold positioned within a manifold receiver. [Figure 2] FIG. 10 is a partial cross-sectional view of a manifold engaged with a manifold receiver including a suction inlet. [Figure 3] FIG. [Figure 4] FIG. 4 is a perspective view of the manifold of FIG. 3 with the tray removed from the auxiliary sleeve. [Figure 5] FIG. 4 is an exploded view of the manifold of FIG. 3. [Figure 6] 5 is a cross-sectional view of the manifold of FIG. 3 taken along section line 5-5. [Figure 7] FIG. 7 is a cross-sectional view of FIG. 6 with the control surface moved to an outlet configuration. [Figure 8] FIG. [Figure 9] FIG. [Figure 10] FIG. 10 is a rear view of the cap portion of the manifold. [Figure 11] FIG. 10 is a front view of the main body of the manifold. [Figure 12] FIG. [Figure 13] FIG. 13 is an exploded view of the manifold of FIG. 12. [Figure 14] FIG. 5 is a cross-sectional view of the manifold of FIG. 12 taken along section line 5-5. [Figure 15] FIG. 13 is an exploded view of the cap portion of the manifold of FIG. 12. [Figure 16] FIG. 2 is a rear perspective view of the cap head of the cap portion. [Figure 17] 19 is a rear perspective view of the cap face plate of the cap portion of FIG. 18. FIG. [Figure 18] FIG. 10 is a perspective view of an alternative cap face plate of a manifold, including a magnifying lens, and a tray of the manifold. [Figure 19] 13 is a perspective view of a tray of the manifold of FIG. 12, defining a tissue collection cavity and a bypass channel. FIG. [Figure 20] FIG. 13 is a perspective view of another tray for use with the manifold of FIG. 12, the tray including a magnifying lens. [Figure 21] FIG. 13 is a perspective view of another tray for use with the manifold of FIG. 12. [Figure 22] FIG. 13 is a perspective view of another tray for use with the manifold of FIG. 12. [Figure 23] FIG. [Figure 24]FIG. 24 is an exploded view of the manifold of FIG. 23. [Figure 25] 25 is a cross-sectional view of the manifold of FIG. 23 taken along section line 25-25. [Figure 26] FIG. 24 is a front view of a tray of the manifold of FIG. 23, defining a tissue collection cavity and a bypass channel. [Figure 27] FIG. [Figure 28] FIG. 28 is an exploded view of the manifold of FIG. 27. [Figure 29] FIG. [Figure 30] FIG. 30 is an exploded view of the manifold of FIG. 29. [Figure 31] FIG. 31 is a cross-sectional view of the manifold of FIG. 29 taken along section line 31-31. [Figure 32] FIG. 30 is a rear perspective view of the cap portion of the manifold of FIG. 29. [Figure 33] FIG. 30 is a perspective view of a tray of the manifold of FIG. 29, defining a tissue collection cavity. [Figure 34] FIG. [Figure 35] FIG. 35 is an exploded view of the manifold of FIG. 34. [Figure 36] FIG. 36 is a cross-sectional view of the manifold of FIG. 34 taken along section line 36-36. [Figure 37] FIG. 35 is a front perspective view of the cap portion of the manifold of FIG. 34. [Figure 38] FIG. 38 is a rear perspective view of the cap portion of FIG. 37. [Figure 39] FIG. 35 is a perspective view of a sliding member of the manifold of FIG. 34. [Figure 40] FIG. 41 is a perspective view of a tray of the manifold of FIG. 40, defining a tissue collection cavity. [Figure 41] FIG. [Figure 42] FIG. 42 is an exploded view of the manifold of FIG. 41. [Figure 43] FIG. 42 is a cross-sectional view of the manifold of FIG. 41 with the rotor in a tissue collection position. [Figure 44] FIG. 42 is a cross-sectional view of the manifold of FIG. 41 with the rotor in the bypass position. [Figure 45] 42 is a partial cross-sectional view of the manifold of FIG. 41 showing a schematic representation of the aspiration path with the rotor in a tissue collection position. [Figure 46] 42 is a partial cross-sectional view of the manifold of FIG. 41, showing a schematic representation of the suction path when the rotor is in the bypass position. [Figure 47] FIG. 42 is a front perspective view of a cap portion of the manifold of FIG. 41 including a stator defining a window. [Figure 48] 42 is a rotor of the manifold of FIG. 41, showing a first perspective view of the rotor defining a tissue collection cavity. [Figure 49] FIG. 45 is a second perspective view of the rotor of FIG. 44. [Figure 50] FIG. [Figure 51] FIG. 51 is an exploded view of the manifold of FIG. 50. [Figure 52] 52 is a cross-sectional view of the manifold of FIG. 50 taken along section line 52-52. [Figure 53] 53 is a cross-sectional view of the manifold of FIG. 50 taken along section line 53-53. [Figure 54] FIG. 51 is a rear perspective view of the cap faceplate of the manifold of FIG. 50. [Figure 55] FIG. [Figure 56] FIG. 56 is an exploded view of the manifold of FIG. 55. [Figure 57] FIG. 56 is a rear perspective view of the cap faceplate of the manifold of FIG. 55. [Figure 58] FIG. 56 is a rear perspective view of the cap head of the manifold of FIG. 55. [Figure 59] FIG. 56 is a front view of the manifold of FIG. 55, showing the manifold in a tissue collection position. [Figure 60] FIG. 56 is a front view of the manifold of FIG. 55, showing the manifold in a bypass position. [Figure 61]56 is a cross-sectional view of the manifold of FIG. 55, showing a schematic representation of the flow path through the manifold in a tissue collection position. [Figure 62] FIG. 56 is a perspective view of a variation of the manifold of FIG. 55. [Figure 63] FIG. 56 is a side view of the cap head of the manifold of FIG. 55, including an orientation and / or positioning feature. [Figure 64] 63 is a view of a tray of the manifold of FIG. 62, the tray having complementary orientation and / or positioning features. [Figure 65] FIG. 2 is a perspective view of a cap portion of the manifold. [Figure 66] FIG. 66 is a side view of the cap portion of FIG. 65 with the tray removed. [Figure 67] FIG. 2 is a perspective view of a cap portion of the manifold. [Figure 68] FIG. 67 is a side view of the cap portion of FIG. 66 with the tray removed. [Figure 69] FIG. 10 is a rear perspective view of a manifold with access features that are permanently cut to provide access to the internal filter element. [Figure 70] FIG. 10 is a rear perspective view of a manifold with access features that are permanently cut to provide access to the internal filter element. [Figure 71] FIG. 10 is a rear perspective view of a manifold with access features that are permanently cut to provide access to the internal filter element. [Figure 72] FIG. 70 is a rear perspective view of the main body of FIG. 69. [Figure 73] FIG. 10 is a rear perspective view of a filter element including a window that allows for the retrieval of a tissue sample through an access mechanism. DETAILED DESCRIPTION OF THE INVENTION

[0009] The collection of tissue samples from inside the patient is carried out using a medical waste collection system, which is shown diagrammatically in Figure 1. This can be facilitated by assembly 50. An exemplary medical waste collection assembly suitable for wicking is shown in FIG. Mumbri is a subsidiary of Stryker Corporation, Kalamazoo, Mich. ) manufactured by Neptune 2 (registered trademark) and Neptune 3 (registered trademark) waste Waste management systems, including those disclosed in commonly owned U.S. Patents 7,621,898 and 8,216 , No. 199, No. 8,740,866, No. 8,915,897, No. 9,579,428 and 9,782,524, the entire contents of each of which are incorporated herein by reference. The medical waste collection assembly 50, in its broadest sense, includes a suction line 52 a vacuum pump configured to be disposed in fluid communication with the proximal end of the suction line. The distal end of 52 is coupled to an instrument positioned near the surgical site, such as a snare. The technique removes the desired tissue sample, which is then placed under a suction line. The medical waste is then sucked up by the fan 52 and directed towards the medical waste collection assembly 50.

[0010] For the blotting of semi-solid and solid materials such as tissue samples, the capture or preferably filtering is performed. 1. Avoid potential clogging of components of the medical waste collection assembly 50 by 2, the medical waste collection assembly 50 includes a manifold 1 00, 200, 300, 400, 500, 600, 700, 800, 900, 1000, The medical waste collection assembly 50 is engaged with the medical waste collection device 1100 (hereinafter referred to as 100 to 1100). Manifold configured to be removably engaged with manifolds 100-1100 The manifold receiver 54 is located near the manifolds 100 to 1100. The medical waste collection device may define a cavity 56 sized to receive the medical waste. The assembly 50 includes manifolds 100-1100 engaged with manifold receivers 54. a suction port configured to be in fluid communication with the outlet opening of the manifold 100-1100 when The manifold receiver 54 further includes an inlet 58. The manifold receiver 54 is fitted with a boss 64 that defines a bore 62. When the outlet opening is engaged and rotated, the perforations 62 are aligned with the suction inlet 58. The manifolds 100 to 1100 may be provided with a rotatable valve disc 60. The specifications for the interface between the holder and the receiver 54 are set forth in commonly owned U.S. Pat. No. 7,616,616. Nos. 5,037, 8,518,002, 8,915,897, and 9,579 ,428, the entire contents of each of which are incorporated herein by reference.

[0011] As shown in FIG. 1, the manifolds 100-1100 are configured to receive the suction line 52. The manifolds 100 to 1100 are engaged with the manifold receivers 54. In this state, the medical waste collection assembly is supplied from the suction line 52 through the manifolds 100 to 1100. A suction path is established to the assembly 50. The manifolds 100 to 1100 are provided with a function to be described later. Among other things, semi-solid and solid materials entrained in the flow being aspirated from the surgical site Capture.

[0012] 3-7 show one embodiment of a manifold 100 for collecting tissue samples. The manifold 100 is configured to be removably engaged with the manifold receiver 54. The housing 102 includes a main body 104 and a cap. The cap portion 106 may be a removable or permanent connection. The cap portion 104 is connected to the body portion 104 by a fastening means. It is also contemplated that the 6 may be formed as a single, integral structure. As shown, manifold 100 includes manifold volume 108 and manifold volume 109. The body portion 104 defines an outlet opening 110 in fluid communication with the cavity 108. The body portion 104 has a proximal base 126 and A cavity extends distally from the proximal base 126 and contains a portion of the manifold volume 108. and at least one side 128 defining a tee 130. Although the body portion 104 is shown as being shaped and defining a cavity 130, an asymmetrical shape may be used. It is understood that other shapes are also contemplated, such as proximal (P). manifold 100 and the medical waste collection assembly when engaged with said manifold 100. The distal (D) represents the anterior direction of the manifold 100 and the surgical site. 4. The outlet opening 110 may be disposed within the proximal base 126. Alternatively, the outlet opening 110 may be positioned in any suitable location on the housing 102. The side portion 128 of the main body portion 104 and the cap face plate 140 of the cap portion 106 (to be described later) may be The housing 102 includes, but is not limited to, a suction line 52. The inlet fitting includes at least one inlet fitting 112a, 112b configured to 112a, 112b are inlet bores 114a, 114b in fluid communication with the manifold volume 108. The outlet opening 110 defines a suction path through which suction passes from the inlet perforations 114a, 114b. The housing 102 is engaged with the manifold receiver 54 so that the inlet 58 is provided. configured to be in fluid communication with the suction inlet 58 of the medical waste collection assembly 50 when are.

[0013] The manifold 100 is disposed within the outlet opening 110 and is adapted to be removed from the housing after, for example, a surgical procedure. When the ring 102 is disengaged from the manifold receiver 54, the outlet opening 110 A drip valve 132 may be provided to prevent fluid from leaking. The support may include a pair of flexible wings 134 defining a slit 136 therebetween. U.S. Patent Nos. 7,615,037, 8,518,002, and 8,915,897 for and 9,579,428, the manifold receptor 54 ( The boss 64 (see FIG. 2) allows the wings 134 to flex and prevents the drip valve 132 from slipping. 136 to connect the manifold volume 108 and the medical waste collection assembly. 1. The suction inlet 58 of the nozzle 50 is in fluid communication with the nozzle 58.

[0014] Referring again to FIG. 5, the manifold 100 prevents backflow from the manifold volume 108. 5 to 7, the device may include at least one valve 133 configured to stop the flow of the fluid. Further referring to the valve 133, the valve 133 is coupled to the cap portion 106 and is connected to the manifold volume. The cap portion 106 is disposed within a cavity that defines at least a portion of the cavity 108. In particular, the inner or proximal surface of the cap portion 106 may have a proximal extending projection or the like. The valve 133 may include a coupler 107 (see FIG. 10). 07. The coupler 137 is connected to the central hub 138 of the valve 133. a slot disposed within the recess and sized to engage the protrusion in an interference arrangement; Additionally or alternatively, the valve 133 may be bonded to the cap portion 106 by adhesive, Any suitable joining process may be used, such as mechanical fastening.

[0015] Valve 133 comprises a pair of flappers connected to a central hub 138 by flexible wings 139. The flexible wings 139 may be attached to the coupler 10 of the cap portion 106. 7 and (i) a transition hole establishing communication between the auxiliary sleeve 113 and the manifold volume 108 hole 125 (see Figures 6 and 7) and (ii) the distance between the second inlet bore 114b Enough space to separate each of the pair of flappers 135 from the central hub 138 by equal distances. The flapper 135 has a circular shape and covers the inlet hole 114 as shown in FIG. The valve 133 is made of rubber or other polymer with suitable viscoelastic properties. The dimensions and material of the valve 133 may be determined by the The valve is configured to facilitate elastic deformation about an axis perpendicular to its length. The dimensions and material of 133 are such that the flapper 135 can move in a proximal-distal direction. 6 and 7 show the natural or shows the valve 133 in an unstressed state. The flexural characteristics of the wings 139 allow the vacuum pump to The amount of vacuum that is applied to the flapper 135 is adjusted based on the desired amount of movement of the flapper 135 under the expected level of vacuum. The specific features of the valve 133 are set forth in the publication of the same on November 10, 2009. The invention may be similar to that disclosed in U.S. Pat. No. 7,715,037, all of which are incorporated herein by reference. The contents of which are incorporated herein by reference.

[0016] When the manifold 100 is assembled, the valve 133 is inserted into the housing 102, more particularly, into the The complementary couplers 107 and 137 may be coupled to the cap 106. The valve 133 is positioned directly adjacent to or in contact with the inner or proximal surface of the cap portion 106. In particular, when the valve 133 is in a natural or unstressed state, the flapper 135 is in contact with the cap portion. 106 and the transition perforation 125 and the second entry perforation 1 The manifold 100 is inserted into the manifold receptacle 54, and the medical waste is When waste collection system 50 is in operation, manifold 1 is in fluid communication with suction inlet 58. A vacuum is applied to the cap 151a or through the manifold 100. If the inlet holes 114a, 114b are not sealed from fluid communication with the surroundings, The elastic deformation of the wing 139 of the trumpet 135 allows the wing 139 to bend in the proximal direction. To achieve this, a vacuum is drawn on or through the manifold 100. is sufficient. By moving the nozzle 135 away from the inlet bores 114a, 114b, the manifold volume 1 08 and thus a suction path leading to the suction inlet 58 is established. Upon stopping the vacuum pumping through manifold 100, valve 133 closes naturally or Returning to the unstressed state, the wings 139 resiliently move the flapper 135 to the cap portion 106 the inner or proximal surface of the entry perforation 114 and the transition perforation 125. The proximal ends of the entry bore 114 and transition bore 125 are sealed. Counterflow from the fold volume 108 to the auxiliary sleeve 113 and the inlet bore 114b, respectively. This in turn prevents possible spillage of waste.

[0017] The manifold 100 includes a filter element disposed within the housing 102 and in the suction path. The filter element 116 may be sucked along the suction path. configured to capture or filter semi-solid and solid matter entrained in the flow The manifold 116 includes a porous structure or opening 118. In other words, the suction path is The inlet perforations pass through the inlet volume 108, the filter element 116, and the outlet opening 110, respectively. The holes 114a, 114b are provided to the suction inlet 58. The filter element 116 is 20 and at least one side wall 121 extending distally from said base wall 120. The porous mechanism may comprise a basket-like structure 119 that defines the mouth. It may be defined within the base wall 120, the side wall 121, and / or the flange 117 described below. To maintain the rotational orientation of the filter element 116 relative to the body portion 104, 16 and body portion 104 radially align filter element 116 within body portion 104. The device may include multiple features including ribs 115 configured to facilitate movement. The filter element 116 is in fluid communication with the outlet opening 110 of the manifold 100. The manifold 100 may be disposed in a location separate from the volume 108. The shape and configuration of the filter element 116 suitable for various applications is disclosed in the patent application filed on March 15, 2018. and commonly owned International Publication No. WO2018 / 170233, all of which Further, the filter element 116 is considered optional and the filter Manifold designs that do not include elements are also contemplated.

[0018] The filter element 116 may include a collar 117 coupled to a basket 119. The collar 117 may extend distally and radially outward from the basket 119. The flange 117 has an outer diameter or outer size larger than the outer diameter or outer size of the basket 119. 6 and 7, the length of the basket 119 is The length of the flange 117 may be set to be equal to or greater than the length of the main body 104. The inner surface of the neck 105 may be arranged in the neck 105 of the nozzle 104. , a step 109 extends radially inward. The filter element 116 has a protruding wall 116a that defines a portion of the flange 117. The resulting configuration is that when the body portion 104 is coupled with the cap portion 106, The basket 119 is secured within the manifold volume 108 by an interference fit. In other words, when assembling the manifold 100, the flange 117 of the filter element 116 is The cap 106 is positioned against the inner surface of the cap 106, and the body 104 is positioned against the back of the filter element 116. The main body 104 may be adapted to advance on a skid 119. The step 109 of the body portion 104 is coupled to the cap portion 106 and defines the proximal side of the collar portion 117. The filter basket 116 is axially moved within the manifold volume 108 by engaging the overhanging wall of the filter basket 116. As previously mentioned, the rib 11 engages with a slot (not shown) within the body 104. 5 radially aligns the filter element 116 within the body portion 104 .

[0019] The filter element 116, in its broadest sense, is a filter that is provided by the medical waste collection system 50. Semi-solid matter trapped in the liquid waste is pulled through manifold 100 under the influence of vacuum. The filter element 1 includes a structure configured to capture or collect solid waste. The 16 openings may be specifically shaped as holes, pores, and / or slots. The holes, pores, and / or slots are formed in the base wall 120, the side wall 121, and the collar 117. The openings may be defined in any one or more of the following ways: The filter element 116 is positioned to minimize clogging. For example, the slots defined in the sidewall 121 extend above the lower side of the filter element 116. Once collected, semi-solid or solid waste is transported by gravity. The waste accumulates at the bottom of the basket 119 under the influence of the wind, and the waste then flows through the top of the accumulation. Once a sufficient amount of semi-solid or solid waste has accumulated, the waste will encounter a slot. It is believed desirable to have a slot with an area that allows for a larger volumetric flow. while being approximately equal to the pore size (to capture semi-solid or solid waste of the same size as the pores). Furthermore, the vertical orientation of the slots is perpendicular to the suction path and is oriented in a direction parallel to gravity. Therefore, further accumulation of semi-solid or solid waste will not substantially affect the basket. At least part of the slot will remain unobstructed until the entire lot 119 is consumed by waste. thus maximizing the operational life cycle of the manifold 100.

[0020] The filter element 116 has at least one overfill opening ( The overfill opening may also include a valve (not shown) to minimize the operational cycle of the manifold 100. As explained above, semi-solid or solid waste is collected and When the liquid is sucked into the basket 119, it accumulates at the bottom of the basket 119 under the influence of gravity. proximal direction), semi-solid or solid waste accumulates on the base wall 120 of the basket 119. If sufficient semi-solid or solid waste is generated during a surgical procedure, The accumulated semi-solid or solid waste may have consumed the entire basket 119. In other words, most of the holes, pores, and / or slots in the filter element 116 Some or all of the overfill openings may be clogged with semi-solid or solid waste. The suction path can be routed through the overfill opening to the exterior of the basket 119. In other words, they are sized and positioned so that the fluid follows the path of least resistance. Due to well-understood principles of fluid dynamics, the suction path in the above scenario is 14a, 114b through the cap portion 106, and the basket 119 and the inner surface of the main body portion 104. and extends through an overfill opening in the body portion 104 between the openings 104 and 110 to an outlet opening 110, which will be described later. .

[0021] Referring now to FIG. 5, the cap portion 106 comprises a cap head 142 and a support frame. The support frame 143 is integrally formed with the cap head 142. The support frame 143 may be positioned distal to the cap head 142, The cap portion 106 generally defines the front portion of the manifold 100. The cap portion 106 includes the upper wall 103, the first The support frame includes a first inlet fitting 112a and a second inlet fitting 112b. An auxiliary sleeve 113 coupled to the frame 143 includes a first inlet fitting 112a. The head 142 includes a second inlet fitting 112b. The first inlet fitting 112a is Extending upward from the distal barrier 103 with the mouth perforation 114a extending through the distal barrier 103. The second inlet fitting 112b is connected to a second inlet bore 114b (referred to herein as a valve bore). With the cap head 142 having a through hole (also referred to as a through hole) extending through the cap head 142, 142 extending distally.

[0022] The housing of the manifold 100 also has an auxiliary opening 111 which leads to an auxiliary sleeve 113. The auxiliary sleeve 113 is provided between the upper barrier 103, the lower barrier 122, and the upper barrier 103. The wall 103 is at least partially defined by side barriers 123 extending between the wall 103 and the lower barrier 122. The auxiliary sleeve 113 may be attached to an end barrier 124 opposite the auxiliary opening 111. The auxiliary sleeve 113 may be further defined by a perforation 125 (referred to herein as a and an opening 158 extending through the cap faceplate 140. The manifold volume 108 is in fluid communication with the manifold volume 108 through the perforations 125. More specifically, the perforations 125 are A first end of at least one of the barrier 122 and the side barriers 123 and a manifold and a second end (eg, opening 158) that opens into the ring volume.

[0023] The manifold 100 is removably positioned within the auxiliary sleeve 113. The tray 176 includes a tissue collection cavity 182 and a The tissue collection cavity 182 defines a porous feature 186. When positioned within the sleeve 113, the porous feature 186 is in the suction path, The tray 176 is placed in the auxiliary sleeve 113 to collect the tissue sample. It further includes a sealing surface 155 configured for sealing engagement with the opening 111. In particular, the tray 1 76 defines a sealing surface 155 configured to contact the outer periphery of the auxiliary opening 111. More specifically, the upper barrier, the lower barrier, and the side barriers may have flanges. With the auxiliary opening 111 integrally defined by the walls 103, 122, and 123, the upper obstacle The wall, the lower barrier, and the side barriers 103, 122, 123 each have a sealing surface 155 at their end. The tray 176 is located within the auxiliary sleeve 113 and is configured to contact the sealing surface 1 With the auxiliary opening 111 covered by the medical waste collection assembly 50, the suction Suction is maintained through the draw path.

[0024] Once the collected tissue sample is ready for retrieval, the tissue sample is placed in the tissue collection cavity. When the tray 176 is disposed in the auxiliary sleeve 113, the tray 176 is slidably removed from the auxiliary sleeve 113. However, moving the sealing surface 155 out of sealing engagement with the auxiliary opening 111 Using the principles of fluid dynamics, a second suction path can be created: from the suction line to the auxiliary sleeve. 113 and the first suction path through the manifold volume to the outlet opening is reduced or eliminated. 111 to the auxiliary sleeve 113 and manifold volume In other words, the perforations 125 are connected to the first and second, common to both suction paths, and includes the fluid itself (e.g., air vs. liquid waste) and Depending on the relative resistance to the fluid in the first and second suction paths, the second suction path , when the tray 176 is slidably removed from the auxiliary sleeve 113, the auxiliary opening 111 and the auxiliary sleeve 113, containing a substantial volume flow of fluid (usually air) through the In known systems, the tissue sample is subjected to a volumetric flow of fluid and associated forces. The tissue sample may be swept along with the fluid flow and expelled from the tray. In another example, the manifold from the medical waste collection assembly may without the need to remove the card and / or interrupt the operation of the medical waste collection assembly. It may be desirable to "bleed off" or reduce suction through the first suction path, at least temporarily. Known systems do not adequately address this requirement.

[0025] The manifold 100 minimizes the chance of inadvertent loss of tissue samples. In this way, it is convenient to position the second suction path. provides sufficient suction to the second suction path so that the first suction path may be temporarily restricted or omitted. This is convenient because it ensures a volume flow.

[0026] 6 and 7, the housing of the manifold 100 includes an auxiliary sleeve. 113. In the broadest sense, the positioning mechanism The mechanism 145 is attached to the base 184 (also referred to herein as the screen surface) of the tray 176. ) and at least a portion of the lower barrier 122 that at least partially defines the auxiliary sleeve 113 The tray 176 is configured to be appropriately positioned so that a gap (G) is defined between the tray 176 and the As will be explained in more detail below, the gap (G) is the gap where the second suction path (SSP) is located. The gap (G) is closed by mechanical forces without encountering the tissue collection cavity 182 of the tray 176. By being guided through the tissue, the possibility of losing tissue samples is minimized. The illustrated positioning mechanism 145 is a plate that defines a trough 127 therebetween. It should be understood that the trough 127 is at least part of the auxiliary sleeve 113. The opening 111 also defines a portion of the opening 112 and extends to the auxiliary opening 111 .

[0027] 8 and 9 show a tray 176 having a base 184. As shown, The base 184 may be slightly arched, or alternatively, may be planar. The tray 176 may be of any suitable profile. The base and the side 185 (also referred to herein as the side surface) are formed on the base. Side portions 184, 185 extend from sealing surface 155 and define tissue collection cavity 182. Conventionally, the tissue collection cavity 182 has a flat surface with sides 185. The porous feature 186 is thought to be open in the longitudinal direction away from the base 184. is defined within the base 184.

[0028] The tray 176 includes one or more control surfaces configured to receive input from a user. 8 and 9 show the flanges in opposite directions from the sealing surface 155. The control surfaces 188a and 188b are shown extending from the The grip may be formed as a grip portion that is held by the user's fingers. The device has a first portion 188a and a second portion 188b arranged in a plane such that the user By pinching, the first portion 188a is detached from the second portion 188b for the function described below. The device may be configured to move the image data to the target image.

[0029] With the tray 176 removably coupled to the housing, as shown in FIG. (i) the sealing member 155 seals the auxiliary opening 111, and (ii) the tissue collection cavity 182 seals the auxiliary opening 111. (iii) a base member 112b positioned in the auxiliary sleeve 113 and communicating with the inlet bore 112a; The portion 184 and / or the side portion 185 engage the positioning mechanism 145 in the auxiliary sleeve 113. Thus, the aforementioned gap (G) is provided between the base 184 of the tray 176 and the lower barrier 122 . More specifically, a gap ( The base 184 of the tray 176 rests or rests on the plateau 147 as defined by arrow G. The gap (G) is located directly below the tray 176 (i.e., i.e., in the aforementioned convention, is considered to be opposite the tissue collection cavity 182). With the tray 176 positioned within the auxiliary sleeve 113, the manifold volume 10 The gap (G) communicates with the perforation 125 extending to the tray 176. It is positioned adjacent to the upper barrier 103 with very little space between them.

[0030] At least a portion of the sealing surface 155 may be formed from a resiliently flexible material. , the lower side of the sealing surface 155 (i.e., the lower side that at least partially defines the auxiliary opening 111 The side of the sealing surface 155 that contacts the end of the side barrier 122 is made of an elastically flexible material. The resiliently flexible material may be secured to the control surface 18 by, for example, gussets 129. 9, the gusset 129 defines a sealing surface 155. and a second portion 188b of the gripping portion that defines the control surface 188. It has a triangular structure.

[0031] In operation, the user installs the first inlet bore 114a, the auxiliary sleeve 113, and the bore If it is desired to reduce or eliminate the first suction path through 125, an input is provided to control surface 188. In particular, the user presses first and second portions 188a, 188b of the grip portion, which define the control surface 188. 6 and 7, first portion 188a The manifold 100 is moved or pivoted (P) toward the second portion 188b. The flange defining the sealing surface 155 is resiliently deflected to move from the sealing configuration to the flow-through configuration. The rigid connection from the flexible material and gusset 129 allows the auxiliary opening 124 near the lower barrier 122 to be At least a portion of the sealing surface 155 is spaced apart from the portion 11. The trough 127 is exposed to the atmosphere and provides a second suction path (SSP). Thus, the second suction path (SSP) passes through the base 184 of the tray 176 and the auxiliary sleeve 113. From the auxiliary opening 111 through the gap (G) between the lower wall 122 of the housing defining The end of the suction line is positioned well upstream of the surgical site. The resistance of the fluid (e.g., air) entering the second suction path (SSP) is low relative to the (and the density of the waste in the suction line relative to the air) will cause a second The suction path (SSP) is the primary suction path in the outflow configuration, and the suction line 52 Negligible suction may be maintained. The user may choose to use the First Suction Path (FSP) as the primary (and only) If one wishes to quickly re-establish the suction path, one simply releases the input provided to control surface 188. The elasticity of the sealing surface 155 and the second suction path (SSP) adjacent to the sealing surface 155 This causes the sealing surface 155 to re-engage the auxiliary opening 111, thereby sealing the manifold 100. Moving the manifold 100 between the sealing and outflow configurations can be extremely as many times as necessary without difficulty and without stopping the operation of the medical waste collection assembly 50. It is Noh.

[0032] Additionally, as previously mentioned, the second suction path (SSP) is located below the tray 176 (i.e., In the above-mentioned convention, the tissue collection cavity 182 is located opposite the tissue collection cavity 182. As such, if the user wishes to retrieve the tissue sample collected in the tissue collection cavity 182, In this case, the tray 176 is pulled out of the auxiliary sleeve 113 while maintaining input to the control surface 188. Any distance from the upper side of the tray 176 positioned adjacent to the upper barrier 103 Since the gap (G) is relatively larger than the distance, when removing the tray 176, The second suction path (SSP) remains almost entirely below the tray 176. While the tissue is being collected, a second suction travels over the tray 176 and is drawn into the tissue collection cavity 182. Any flow of fluid in the path (SSP) can be ignored. As a result, the user can without the risk of compromising critical aspects of the surgical procedure by inadvertently losing tissue samples. -176 can be extracted reliably.

[0033] 8 and 9, the tray 176 includes a foot 131 extending from a base 184. Specifically, the tissue collection cavity 182 includes a foot 131 extending from a base 184 in a direction opposite the tissue collection cavity 182. The foot 131 is generally U-shaped and is a porous structure of the base 184 when viewed from the bottom. 186 (see FIG. 9). Alternatively, the foot 131 may be, for example, a side It may also be a series of discontinuous projections extending from base 184 near 185. However, the generally U-shaped foot portion 131 is configured so that the entire tray 176 is positioned within the auxiliary sleeve 113. If so, the boundary of the perforations 125 in communication with the manifold volume 108 may be shown. In other words, each side of the foot 131 rests on one of the plateaus 147. and a foot 131 near the end barrier 124 opposite the auxiliary opening 111. The distal portion of the foot 131 may be supported by the lower barrier 122. The relatively minimal gaps (particularly with the boundary definition of the perforations 125) allow for the formation of a porous structure 1 86), when the manifold 100 is in the outlet configuration, a second suction path ( This configuration substantially isolates the first suction path (FSP) from the second suction path (SSP). When the field 100 is in the outflow configuration, the second suction path (SSP) and the first suction path (FSP) ) and the resistance difference between the first and second suction paths (SSP) becomes larger, so the second suction path (SSP) becomes the outflow configuration. so that negligible suction is maintained in the suction line 52. It may be so.

[0034] The foot 131 also positions the base 184 of the tray 176 within the auxiliary sleeve 113. More specifically, the foot portion 131 may be configured as a plateau, as described above. 147 or may be positioned adjacent to the plateau 147. Another gap is provided between the base 184 and the lower barrier 122 that defines a gap (G). FIG. 7 shows the gap (G) between the base 1 of the tray 176 and the plateau 147. 8 shows the distal portion of foot 131 resting on lower barrier 122 as it extends to 84. The size of the gap (G) (i.e., the distance from the base 184 defining the trough 127 to the lower barrier 122 By maximizing the distance to the outlet, the outflow function becomes more effective and the second intake The fluid in the drainage path (SSP) flows over the tray 176 and collects the tissue samples. This further reduces the likelihood of rejection or excretion.

[0035] With continued reference to FIGS. 8 and 9, the tray 176 is configured to accommodate the complementary orientation of the auxiliary sleeve 113. 4, specifically to allow the tissue collection cavity 182 to engage the upper barrier 103. The tray 176 is supported by the auxiliary slide 176 in a single relative orientation with respect to the upper barrier 103. An orientation mechanism 187 configured to position within the sleeve 113 may be included. The orientation mechanism 189 of the auxiliary sleeve 113 may be a groove defined in each of the side walls 123. In other words, the two side walls 123 are each stretched outward near the upper wall 103. The tray 176 has an orientation mechanism 187 that defines a groove. Rails extending from the side 185 near the upper side are contemplated. 9 may be configured to be movably engaged by sliding of the rail within the groove. The orientation feature 187 of the tray 176 adjusts the vertical orientation of the base 184 relative to the lower barrier 122. The positioning determines the size of the gap (G) at least in part by defining the position. It will be appreciated that the device may also function as a locking mechanism.

[0036] In certain embodiments, the cap portion 106 and the body portion 104 are removably attached to each other. 3 to 5, the cap portion 106 is at least one of the main body portion 104 and the cap portion 106 is connected to each other. configured to be removably coupled with one of the keyways 148 or the fuselage coupler. The head coupler includes at least one key 146. The key 146 is diametrically spaced apart from the head coupler. There may be two keys 146 that face each other and extend proximally from the cap portion 106 . The keyways 148 are diametrically opposed to one another and extend radially outward from the neck 105 of the body 104. There may be two keyways 148 defined between at least one extended lip 149. In another embodiment, the key 146 and keyway 148 are each angled approximately 120 degrees from one another. There may be three spaced apart keys 146 and three keyways 148. The keyways 148 are The device may include an insertion portion 152 and a locking portion 153 that communicates with the insertion portion 152. As best shown in FIG. 11, the insertion portion 152 may be wider than the locking portion 153. Then, the portion of the lip 149 that defines the locking portion 153 comes into contact with the portion of the lip 149 that defines the insertion portion 152. The key 146 may be thinner than the portion 49. The key 146 has a leg 162 and a portion extending from the leg 162. The barb 164 may be thicker than the leg 162. The width of the portion 152 is greater than the thickness of the barb 164 and greater than the thickness of the leg portion 162. The width of the locking portion 153 is smaller than the thickness of the barb 164 and is larger than the thickness of the leg portion 162. Additionally, the length of the legs 162 may be at least equal to the length of the lip 149. More specifically, the length of the leg 162 is the length of the portion of the lip 149 that defines the insert 152. The length of the legs 162 may be greater than the length of the lip 149 that defines the stop 153. As a result, when assembling the manifold 100, If it is desired to couple the cap portion 106 to the body portion 104, the cap portion 106 may be The insert 152 is rotated relative to the main body 104 so that the insert 164 is aligned with the insert 152 in the rotational direction. A barb 164 extends through the insert 152, past the lip 149, and toward the leg. The cap portion 106 is positioned on the main body portion 104 side so that the portion 162 is positioned within the insertion portion 152. The cap portion 106 moves clockwise in FIG. Rotation relative to the leg 162 moves the key 146 within the keyway 148. The portion of the lip 166 that defines the locking portion 153 and the barb 164 are positioned in an interference arrangement. In this state, the insertion portion 152 moves into the locking portion 153. The cap portion 106 is fixed to the main body portion 104 to prevent axial movement of the cap portion 106. These components may be considered to constitute the housing 102 of the manifold 100.

[0037] The removable connection between the cap portion 106 and the body portion 104 allows the filter element 116 is accessible to the manifold volume 108 in which it is disposed. Among other things, access to the filter element 116 allows the user to: Waste matter (most notably polyps or tissue fragments) collected in the filter element 116 The samples can be collected for further testing and processing. Published and co-owned International Publication No. WO2013 / 090579 discloses methods for treating polyps or tissue The manifold includes a tissue trap for collecting samples, all of which In certain embodiments, the manifold 100 (cap portion 106) may include other mechanisms to facilitate collection of tissue samples.

[0038] If it is desired to separate the cap portion 106 from the body portion 104, the method steps described above may be repeated. The cap portion 106 rotates counterclockwise in FIG. 11 relative to the main body portion 104. Rotation of the legs 162 moves the key 146 within the keyway 148. With barb 164 removed from interference with the portion of lip 149 that defines stop 153 In this state, the cap portion 106 moves from the inside of the locking portion 153 to the inside of the insertion portion 152. 4 moves away from the body portion 104 so as to pass the lip 149, and the key 146 moves into the keyway 14 5, the cap portion 106 is disengaged from the cap 8. Access to the cavity 130 and / or manifold volume 108 of the body portion 104 Access is possible.

[0039] In certain embodiments, the cap portion 106 and the body portion 104 are connected by a suitable connecting process. are rigidly connected by means of a bonding agent (e.g., spin welding, solvent bonding, adhesive, mechanical fastening, etc.) As mentioned above, the housing 102 is made of a single piece so that the head and the body do not come apart. A preferred manufacturing process for constructing the housing 102 includes: In particular, injection molding, 3D printing, computer numerical control (CNC) machining, polymer casting, Suitable materials for constructing the housing 102 include: These include polymers, composites, metals, ceramics, and combinations thereof. The material has sufficient corrosion resistance and durability to avoid degradation when exposed to medical waste. have sufficient mechanical properties to maintain their integrity under the vacuum levels provided by the collection system; In low cost and disposable embodiments, polyethylene, polypropylene, poly Vinyl chloride, polyethylene terephthalate (PET, PETE), polystyrene, polycarbonate Carbonate and poly(methyl methacrylate) polymers are used in Manifold 100. It is considered suitable for

[0040] 12-14, which are similar in at least some respects to those described above. 10 shows another similar manifold 200 (certain like components are numbered the same). (The figure shows the number 0 added.) The manifold 200 is detachably connected to the manifold receiver 54. The housing 202 is configured to be engaged with the It comprises a body portion 204 and a cap portion 206 coupled to the body portion 204. As best shown, the housing 202 defines a manifold volume 208 and the manifold. The body portion 204 defines an outlet opening 210 in fluid communication with the proximal base portion 208. 26 and extending distally from the proximal base 226 to include a portion of the manifold volume 208. and a side 228 defining a cavity 230. The exit opening 210 may include a proximal The cap portion 206 may be positioned within the base portion 226. 8. The drip valve 23 includes an inlet fitting 212 defining an inlet bore 214 in fluid communication with the drip valve 23. 2 may be disposed within the outlet opening 210 as described above.

[0041] 15-17 show a cap assembly including a cap faceplate 240 and a cap head 242. 206 is shown. The cap head 242 may be coupled to the body portion 204. The cap head 242 may include an annular beveled surface that terminates in an annular plateau 246. The annular beveled surface 244 is formed to facilitate proper assembly when the body and cap portions 204, 206 are assembled. The flange 248 of the body 204 is shaped to transmit elastic deflection. The return mechanism 250 passes through the annular plateau 246 and resiliently deflects outward. The cap head 242 is guided within the cap head 242 until it comes into interference engagement with the toe 246. In this configuration, the body and cap portions 204, 206 are generally prevented from separating. Additionally, the cap head 242 may include one or more orientation features 252 (e.g., annular inner surface The ribs may be formed on the flange 248. to prevent rotation of the cap head 242 relative to the body portion 204. The ribs receive tabs 227 of the filter element 216 to secure the filter to the cap portion 206. Rotation of the rotor element 216 may be prevented.

[0042] The cap head 242 has at least one distally extending cap 242 terminating at a distal face 256. The cap head 242 has a side wall 254. An opening 258 is formed through a distal face 256 of the cap head 242. The cap head 242 extends distally from the distal face 256 and defines a cavity 262 and a spindle 260 defining a coupling mechanism 264. The coupling mechanism 264 is 266 of the top plate 240. The complementary coupling mechanism 266 of the cap faceplate 240 is a pair of slots received in the slots. The complementary coupling mechanism 266 is a post arranged circumferentially to accommodate the spindle. radially from a tubular portion 268 configured to be received within the cavity 242 of the The cap face plate 240 has a proximal surface 270 and a distal surface opposite the proximal surface 270. The tubular portion 268 may be disc-shaped, including a proximal surface 272. The tubular portion 268 may extend proximally from the proximal surface 270. The cap head 242 and the cap face plate 240 are removably coupled to each other. To facilitate separation, the cap faceplate 240 may be manipulated (e.g., squeezed) by the user. The gripping portion 274 may be configured as follows.

[0043] The cap face plate 240 of the cap portion 206 includes the inlet fitting 212. Thus, the inlet fitting 212 is fitted with the inlet bore 214 extending through the cap faceplate 240. , extending distally from the distal surface 272 of the cap faceplate 240. As a result, the manifold When the hood 200 is assembled, the inlet fitting 212 is rotatable relative to the body 204. is fixed at

[0044] During operation of the medical waste collection assembly 50 with the manifold 200, the filter element The porous feature 218 of 216 allows tissue samples to be collected. Retrieval of tissue samples from the manifold 216 can be cumbersome. The manifold 200 allows for efficient collection of tissue samples from the manifold 200, and In addition to efficient collection of multiple tissue samples, the present invention also provides a method for eliminating the need for collection of tissue samples (i.e., This is advantageous because it allows selective operation of the system (without replacing components). 13, the manifold 200 is rotatable relative to the housing 202. 19, the tray 276 includes: A central lumen sized to receive the spindle 260 of the cap head 242 The tray 276 defines a spindle 280. The tray 276 is rotatably disposed about the spindle 260. In this state, the cap face plate 240 and the cap head 242 are in contact with each other, and the cap face plate 240 The cap head 242 is positioned between the proximal surface 270 of the cap head 242 and the distal surface 256 of the cap head 242. The tray 276 may be a single component or may be constructed from multiple components to form a tray assembly. The tray 276 may be attached to the housing 202 in a manner other than rotatable. The suction cup 11 may be movably disposed within the suction cup 11.

[0045] The tray 276 defines a plurality of tissue collection cavities 282. 82 may each extend at least partially through the tray 276. 6 further defines a porous feature 286 in each tissue collection cavity 282. Although four tissue collection cavities 282 are shown, the tray 276 does not include the tissue collection cavities 28 It is contemplated that the tissue may have one, two, three, five, six or more of the above. The collection cavities 282 are angularly spaced about an axis A that extends coaxially through the tray 276. Alternative configurations of the trays 276 may be unevenly spaced or a combination of evenly and unevenly spaced. The tissue collection cavities 282 may be arranged in a uniform manner in the tray 276. Although shown as an integrated unit, it is also shown as a modular insert for tray 276. The tray 276 may be configured to receive input from a user. 19 is realized by a central lumen 280 and an annular outer surface 290 opposite. A control surface 288 is shown that is qualitatively defined and provides a generally cylindrical shape to the tray 276. Input to surface 288 rotates tray 276 about axis A, thereby allowing tissue collection. One of the cavities 282 is selectively in fluid communication with the inlet bore 214, thereby allowing the porous material to The structure 286 is positioned in the suction path to allow tissue samples to be collected during operation of the medical waste collection assembly 50. Collect.

[0046] The distal face 256 of the cap head 242 may define the aforementioned opening 258 . The cap faceplate 240 is attached to the cap with the inlet bore 214 aligned with the opening 258. The tray 276 is rotatably fixed to the top head 242. and opening 258. The user inserts the tissue collection cavity 2 If one wishes to collect a tissue sample at one of the tissue samples 82, input is provided to control surface 288 to initiate the tissue sample collection. By moving (i.e., rotating) the 276 about axis A, the tissue collection cavity 282 is aligned with the entrance perforation 214 (and opening 258). The collection cavity 282 is located in the suction path and collects tissue samples being drawn through the suction path. The sample encounters a porous feature 286 within the tissue collection cavity 282. If a roll is desired, the user simply provides another input to control surface 288 to roll tray 276. By rotating about axis A, another tissue collection cavity 282 is formed between the entrance fenestrations 214. This method may be repeated for each tissue collection cavity 282. It may be configured to be returned.

[0047] For various reasons, users may choose to wait until a certain point in the surgical procedure and then 00 to collect tissue samples while for other reasons (e.g., visualization) You may want to maintain the ability to blot the surgical site. Additionally, the tissue samples are collected Thus, the user can perform the procedure in the surgical area without first having to retrieve the tissue sample from the manifold 200. You may want to continue suctioning data from the past for any period of time. Directing the flow over a contaminated tissue sample may also degrade the tissue sample itself. Manifold 200 is advantageous because it addresses the above-mentioned considerations. Referring again to FIG. In light of this, the tray 276 has at least one bypass cavity 282 separate from the tissue collection cavity 282. The bypass channels 292 each define a pair of bypass channels 292. ... The illustrated embodiment may be shaped as a four bar. Although the bypass channel 292 is shown, the tray 276 may have one or two bypass channels 292. It is contemplated that the tissue collection cavity 2 may define 3, 5, 6 or more tissue collection cavities. 82 and bypass channels 292 are alternately and equally angularly spaced about axis A. In an alternative embodiment of the tray 276, the tissue collection cavity 282 and / or The bypass channels 292 may be grouped and may be unequally spaced. Alternatively, the trays 276 may be spaced at regular intervals and at irregular intervals. A bypass channel 292 is defined between the outer surface of the tray 276 and the inner surface of the housing 202. It is contemplated that the tissue collection cavity 282 may be formed to define only the tissue collection cavity 282 in the assembled state. For example, the tray 276 may be triangular in shape and define a tissue collection cavity 282. The inner surface of the housing 202 circumscribes this triangle, and the triangular tray 276 The area between the inner surface of the housing 202 defines a bypass channel 292 .

[0048] During operation of the medical waste collection assembly 50, the tray 276 rotates about axis A to By selectively aligning the bypass channel 292 with the inlet bore 214 and the opening 258 This allows fluid to flow through the manifold 200 without collecting a tissue sample. In particular, a user may provide input to control surface 288 to rotate tray 276 about axis A. By rotating, one of the bypass channels 292 is aligned with the inlet bore 214 and the opening With the bypass channel 292 in the suction path, , the tissue collection cavity is not in the aspiration path and the flow does not encounter the porous feature 286. Thus, when the bypass channel 292 is in fluid communication with the inlet fenestrations 214, the tissue collection It is contemplated that cavity 282 is not in fluid communication with inlet bore 214. Whether or not tissue samples are collected by tray 276, manifold 20 The zero filter element 216 provides flow filtering.

[0049] The tray 276 of the manifold 200 is configured to accommodate the angular position of the tissue collection cavity 282. An alignment mechanism 294 may be included that is configured to provide a visual cue to the user. 19 and 20 show tabs extending radially from the annular outer surface 290 of the tray 276. Alignment feature 294 is shown in FIG. 1. Alignment feature 294 extends through axis A. , tissue collection cavity 282 are shown as being coplanar with the plane that bisects each of them. The alignment mechanism 294 also adjusts the alignment of the control surface 288 when applying an input to the control surface 288. Advantageously, the alignment mechanism 294 may function to improve operation of the device. , and control the input until one of the surface 288 (and / or alignment feature 294). 2 is aligned with the inlet bore 214, a pair of opposing alignment features 294 The gripping portion 274 is flush with the distal surface 22 of the cap face plate 240. This additional alignment provides the user with visual confirmation. Additional or alternative markings may be provided at suitable locations on the manifold 200. It is contemplated that the tray 276 may be configured to facilitate accurate orientation of the tray 276.

[0050] The manifold 200 expands in one or more of the tissue collection cavities 282. 296 positioned to provide a Referring to FIG. 18, the lens 296 is disposed on the cap face plate 240 of the cap portion 206. The lens 296 is positioned adjacent to the inlet fitting 212 and is in contact with the inlet bore 214. Visualize within the fluid-connected tissue collection cavity 282. In another embodiment (see FIG. 20), In this case, the lens 296 is disposed on the tray 276. The lens 296 is often on the order of micrometers, and the tissue collection cavity 282 With expansion occurring in one or more of the tissue collection cavities 28, the user More efficiently and effectively determine if sufficient tissue samples have been collected in one of two ways Illumination may be provided to illuminate one or more of the tissue collection cavities 282. It is contemplated that the manifold receptor 54 and / or the manifold 20 may be A light source (not shown) is suitably positioned at 0 to direct light into the tissue collection cavity 282. It may be designed to do so.

[0051] As previously mentioned, the bypass channel 292 allows the user to first without the need to retrieve tissue samples from the tissue sample collection site and without adequately checking the quality of the tissue sample initially collected. As a result, the manifold 20 can continue to suction the surgical site without interference. The surgical instrument can remain engaged with the medical waste collection assembly 50 until the end of the surgical procedure. The manifold 200 then facilitates efficient collection of the tissue sample. 206 is removably coupled to the tray 276 to form a tissue collection cavity. The user can then access the manifold 282 while holding the grip 274 in one hand. The user may hold the cap faceplate 240 and the cap 200 in the other hand. Complementary coupling mechanisms 266, 267 (for example, bayonet mounts) between the cap head 242 The gripping portion 274 is operated to disengage the cap head. The tissue collection cavity 282 is exposed by being separated from the cavity 242. The tray 276 is slidably removed from the spindle 260 of the cap head 242. This allows the user to simply manage the tray 276 during tissue sample collection. Additionally, the tray 276 is separable from the rest of the manifold 200 for easy collection. (e.g., placing a tray 276 containing tissue samples into a formalin container) It is envisaged that the tissue sample can be further processed.

[0052] 20-22 show alternative trays 277, 278, 279 for use with manifold 200. In many respects, trays 277, 278, and 279 are similar to the trays described above. 20 is the same as lens 296, and like numbers refer to like components. The control surfaces 288 are shown disposed on the control surfaces 288 and arranged circumferentially around the control surfaces 288. Each of the lenses 296 is angularly aligned with one of the tissue collection cavities 282. 21, in contrast to the tissue collection cavity 282. A mechanism 294 is angularly aligned with the bypass channel 292 and is adapted for a lens 296. 21 illustrates the user's position relative to the control surface 288. Annular outer surface 290 is shown including different contours to improve handling. 90 corresponds to the angular position of the tissue collection cavity 282 and the bypass channel 292 The alignment feature 294 includes a plurality of valleys separating the plurality of peaks. and corresponds to the angular position of the tissue collection cavity 282. 94 is less obtrusive than those described above. The tray 278 of FIG. 22 is particularly 22 shows an alternative configuration for the tee 282 and bypass channel 292. The cavity 282 and bypass channel 292 are generally defined by a pie-shaped sector. Additionally, the tray 278 extends radially from the central lumen 280 to the annular outer surface 290. The channel 295 is defined between the opposing surfaces and extends through the cap portion 206. The channel 295 has a width approximately equal to or greater than the diameter of the spindle 260. The width of the tray 278 provides a surmountable interference fit between the tray 278 and a portion of the central lumen 280. The diameter of the channel 295 may be slightly smaller than that of the spindle 260 so that the For example, the cap faceplate 240 can be mounted on the manifold 240 without having to be separated from the cap head 242. The tray 278 is separable from the rest of the 00.

[0053] 23-25, which are similar in at least some respects to those described above. 10 shows another similar manifold 300 (certain like components are numbered the same). (The figure shows the number 0 added.) The manifold 300 is detachably connected to the manifold receiver 54. The housing 302 is configured to be engaged with the It comprises a body portion 304 and a cap portion 306 coupled to the body portion 304. As best shown, the housing 302 defines a manifold volume 308 and the manifold. The body portion 304 defines an outlet opening 310 in fluid communication with the proximal base portion 308. 26 and extending distally from the proximal base 326 to include a portion of the manifold volume 308. and a side 328 that defines the cavity 230. The exit opening 310 may include a proximal The cap portion 306 may be positioned within the base portion 326. 8. The drip valve (FIG. A nozzle (not shown) may be disposed within the outlet opening 310 as described above.

[0054] The cap portion 306 may be removably coupled to the body portion 304. 23 and 24, the cap portion 306 is formed by inserting the cap faceplate 340 into the cap portion 306 adjacent the rim of the cap faceplate 340. Circumferentially positioned flanges 307 are provided. The proximal end includes a sloped surface 309. The sloped surface 309 of the flange 307 is The flange 307 is formed to transmit elastic deflection when the portions 304 and 306 are assembled. The flange 307 is configured such that the return mechanism 350 passes through the annular plateau 346 of the body portion 304. and resiliently deflects inwardly until it engages with annular plateau 346. The body portion 304 is further guided on the side wall 328 of the body portion 304. 2 (e.g., extending radially from sidewall 328 to engage flange 307 and extending from body portion 304 (one or more surfaces that prevent rotation of the cap portion 306 relative to the That is, the cap portion 306 is rotatably fixed to the main body portion 304 .

[0055] The manifold 300 includes a filter element disposed within the housing 302 and in the suction path. The filter element 316 may be sucked along the suction path. a porous feature 318 configured to capture semi-solid and solid matter entrained in the flow; The filter element 316 has an inner annular rim 319 opposite the inner annular rim 319 that defines a lumen 321. 24 and 25 are shown as being disc-shaped with an outer annular rim 317. Thus, the tray 376 has an axis 377 extending proximally from its proximal side. The lumen 321 of the filter element 316 is sized to receive the axis 377 of the tray 376. Further, the tray 376 and the filter element 316 are each defined as tray 3 Complementary orientation mechanism 379 configured to prevent rotation of filter element 316 relative to 76 In other words, as the tray 376 rotates about axis A, as will be described below, The filter element 316 also rotates in response to the rotation of the filter element 316. The orientation mechanism 379 is arranged on the axis 377. The filter element 316 includes a key and a corresponding keyhole (not shown) suitably disposed therein. It may be possible.

[0056] The manifold 300 includes a tray 376 rotatably coupled to the housing 302. The tray 376 is positioned adjacent to the cap face plate 340 of the cap portion 306. Referring also to FIG. 26, the tray 376 includes a tissue collection cavity 382. Each tissue collection cavity 382 is formed as a sector and has an internal The porous feature 386 may be defined in the sector shape. The sector shape may be roughly pie-shaped. Although FIG. 26 shows five tissue collection cavities 382, ​​the tray 376 does not include any tissue collection cavities. It is contemplated that the system may have one, two, three, four, six or more tees 382. Additionally, the tissue collection cavities 382 may be of equal size, but in the alternative, may be of unequal size. They may be of equal size or a combination of equal and unequal sizes.

[0057] Manifold 300 includes a control surface 388 configured to receive input from a user. 23 to 25 show a knob 389 positioned distally from the cap portion 306. In particular, the cap face plate 340 of the cap portion 306 is shown as an open control surface 388. The tray includes an opening 305 through which the control surface 388 is configured to be operated. Depending on the location of aperture 376, body portion 304 may alternatively include such an aperture. The knob 389 is coupled to the tray 376 by a complementary orientation feature 381. A complementary orientation feature 38 including a keyway defined in the tray 376 near the central lumen 380 1, and FIG. 25 shows a complementary orientation mechanism including a key extending from the proximal region of knob 389. The complementary orientation mechanism 381 is configured to rotate the knob 389 about the axis A. The relative rotation between the control surface 388 and the tray 376 is controlled so that the tray 376 rotates in response to the rotation. It is designed to keep the rotation.

[0058] In operation, a user collects a tissue sample in one of the tissue collection cavities 382. When it is desired to collect, an input is applied to control surface 388 to rotate knob 389 and tray 376 around axis A. By rotating the tissue collection cavity 282 in the opposite direction, one of the tissue collection cavities 282 is connected to the entrance fenestrations 314. The aligned tissue collection cavity 382 is in the aspiration path and The tissue sample being drawn through the drawing path is drawn into the porous tissue collection cavity 382. If another tissue sample is desired, the user simply enters another input. By applying a control surface 388 to rotate the knob 389 and tray 376 about axis A, This allows another tissue collection cavity 382 to be aligned with the entrance fenestrations 314. This method may be repeated for as many tissue collection cavities 382 as there are tissue collection cavities. stomach.

[0059] For the reasons discussed above, the tray 376 includes a bypass channel separate from the tissue collection cavity 382. 26 defines a bypass channel 392. The bypass channel 392 shown in FIG. During operation of assembly 50, fluid can flow through manifold 300 without collecting a tissue sample. The tray 376 rotates about axis A to open the bypass channel 392 to the inlet perforations 393. 14. In particular, the user may provide input to the control surface 3 88 to rotate knob 389 and tray 376 about axis A. The bypass channel 392 is aligned with the inlet bore 314. As previously mentioned, the bypass channel When the inlet fenestrations 392 are in fluid communication with the inlet fenestrations 314, the tissue collection cavity 382 is It is believed that the manifold 300 is not in fluid communication with the perforations 314. 382, the above-mentioned levels may be used to provide magnification and improve visualization in one or more of the above levels. The device may be equipped with lenses (not shown) and / or lighting.

[0060] Manifold 300 facilitates efficient collection of tissue samples. 0 is separate from the medical waste collection assembly 50, which is connected to the associated stations of the surgical procedure. The user holds the main body 304 with one hand and the cap 30 6 and the annular plateau 34 of the body portion 304. 6. By separating the cap portion 306 from the body portion 304, This exposes the tissue sample collected in the tissue collection cavity 382 of the tray 376 .

[0061] 27 and 28, which are similar in at least some respects to those described above. 1 shows another manifold 400 similar to that shown in FIG. 1 (certain like components are numbered the same). For simplicity, only certain features are explicitly described. Nifold 400 includes a cap portion 406 rotatably coupled to a body portion 404. The tray 476 is rotatably fixed to the main body 404. extends proximally from tray 476 and engages a complementary orientation feature (not shown) on body portion 404. 4 shows an axis 477 defining an orienting mechanism 479 configured to mate with the complementary orienting mechanism. The engagement of mechanism 479 prevents rotation of tray 476 relative to main body 404 .

[0062] The cap portion 406 includes a flange 440 positioned circumferentially near the rim of the cap faceplate 440. The flanges 407 are connected to the body portion and the cap portion 404, respectively. An inclined surface formed to transmit the elastic deflection of flange 407 when 406 is assembled The flank 407 has a return mechanism 450 that engages with the annular plateau 446 of the main body 404. and resiliently deflects inwardly into interference engagement with annular plateau 446. The body portion 404 is guided on the side wall 428 of the cap portion 404. When the cap portion 406 is coupled as described above, the cap portion 406 can rotate relative to the main body portion 404. In particular, the return mechanism 450 may be provided on the main body portion. 404 along the annular plateau 446 while maintaining the axial position of the cap portion 406 relative to the The moving object may be moved by the moving object.

[0063] The cap portion 406 includes an inlet fitting 412 to accommodate rotation of the cap portion 404. In particular, the inlet joint 41 is connected to a tray 476 rotatably fixed to the main body 404. The tray 476 has a tissue collection cavity 482 and a The porous feature 486 within the tissue collection cavity 482 defines a bypass channel 492. It may be separate from the tissue collection cavity 482. In operation, the user If one wishes to collect a tissue sample in one of cavities 482, an input is provided to control surface 488. By providing and rotating the cap portion 406 and the inlet fitting 412 about axis A, Align the entrance perforation 414 with one of the tissue collection cavities 428. The tissue collection cavity 482 is located in the suction path and is sucked through the suction path. The tissue sample encountered by the sample encounters porous feature 486. If another tissue sample is desired, The user simply applies another input to the control surface 488 to activate the cap portion 406 and inlet fitting 408. 12 about axis A, the entrance perforations 414 are connected to different tissue collection cavities 4 82. This method allows for the number of tissue collection cavities 482 to be aligned. Similarly, the operation of the medical waste collection assembly 50 may be repeated. Meanwhile, the cap portion 406 rotates about axis A to expose the inlet bore 414 to the bypass channel 4 92, the fluid is directed through the manifold without collection of the tissue sample. The manifold 400 may allow flow through the tissue collection cavity 48. 2. The lenses described above (as shown) for providing magnification and visualization in one or more of the two may be equipped with a built-in hood (without hood) and / or lighting.

[0064] 29-31, which are similar in at least some respects to those described above. 10 shows another similar manifold 500 (certain like components are numbered the same). (The figure shows the number 0 added.) The manifold 500 is detachably connected to the manifold receiver 54. The housing 502 is configured to be engaged with the It comprises a body portion 504 and a cap portion 506. As mentioned above, the cap portion 506 can be removed. It may be connected to the body 504 by a removable or permanent connection means, or and cap portions 504, 506 may be formed as a single, integral structure. The body and cap portions 504, 506 are spin-welded at the interface for reuse. As best seen in FIG. 31, the housing 502 defines a manifold volume 50 8 and an outlet opening 510 in fluid communication with the manifold volume 508. 504 includes a proximal base 526 and a manifold volume extending distally from the proximal base 526. and a side 528 defining a cavity 530 containing a portion of the cavity 508. The housing 502 includes an inlet defining an inlet bore 514 in fluid communication with the manifold volume 508. As previously mentioned, the outlet opening 510 is provided so that the suction path extends from the inlet bore 514 to the outlet port 512. The housing 502 engages with the manifold receiver 54 so that the manifold receiver 54 is provided from the intake port 502 to the suction inlet 58. When mated, the medical waste collection assembly 50 is configured to be in fluid communication with the suction inlet 58. It has been completed.

[0065] The manifold 500 is positioned within the outlet opening 510 and the housing 502 is When disengaged from the holder receptacle 54, the outlet opening 510 prevents material from flowing out. The drip valve 532 may include a drip valve 532 defining a slit 536. The manifold receiver 54 (FIG. 2) may have a pair of flexible wings 534 that are spaced apart from the manifold receiver 54 (FIG. 2). The boss 64 of the drip valve 532 bends the wing 534 and the slit 5 36. This configuration allows manifold volume 508 and Fluid communication is provided between the suction inlet 58 of the medical waste collection assembly 50 .

[0066] The manifold 500 includes a filter element disposed within the housing 502 and in the suction path. The filter element 516 may be sucked along the suction path. a porous feature 518 configured to capture semi-solid and solid matter entrained in the flow; The suction path includes the manifold volume 508, the filter element 516, and the outlet opening. 510 through each of the inlet holes 514 to the suction inlet 58. The element 516 includes a base wall 520 and a side wall 522 extending from the base wall 520. , may comprise a basket defining a mouth 524. The filter element 516 may comprise: It may also include certain features (e.g., window 715) as detailed in However, even if the filter elements 216, 316 of the above-described embodiments are used, good.

[0067] Referring also to FIG. 32, the cap portion 506 includes a cap head 542 and a support frame. The cap head 542 includes one or more orientation features 552 (e.g., For example, one or more pairs of rails extending radially inward from the annular inner surface. The rails may receive tabs 552 disposed near the mouth 524 of the filter element 516. This prevents rotation of the filter element 516 relative to the cap portion 506. 542 includes at least one sidewall extending distally and terminating in a distal face 556 . An opening 558 extends through the distal face 556 .

[0068] The support frame 543 may be integrally formed with the cap head 542. The frame 543 is positioned distal to the cap head 542 and is connected to the manifold 500 As shown in FIGS. 29 and 30, the cap portion 5 of the housing 502 defines the front portion of the housing 502. 06 defines a distal barrier 503 near the front of the manifold 500. comprises the inlet fitting 512, and more particularly, the support frame 543 of the cap portion 506. The inlet fitting 512 includes an inlet bore 514 extending through the distal barrier 503. In its extended state, it extends distally from distal barrier 503.

[0069] Housing 502 further defines a secondary opening 511 that leads to a secondary sleeve 513 . The auxiliary sleeve 513 is connected to the manifold 516 through an opening 558 extending through the distal face 556. The auxiliary sleeve 513 is in fluid communication with the cap volume 508. 29 shows the auxiliary sleeve 513 in the support frame 543. 5 shows the auxiliary opening 511 positioned on the upper surface of the support frame 543 with the opening facing downward. The auxiliary sleeve 513 is angled away from the longitudinal axis of the housing 502. Axis A with s , more specifically, angled proximally away from the front of the housing. Axis A attached s The tray 576 may be oriented above the auxiliary sleeve 513, as described below. The orientation of the auxiliary sleeve 513 allows the tray 5 76 from the suction path, the medical waste from the inside of the auxiliary sleeve 513 In one example, the longitudinal axis of the housing 502 is Axis A of the auxiliary sleeve 513 s is in the range of about 45 to 75 degrees, more specifically, 55 to 6 Within a range of 5°.

[0070] The inlet bore 514 of the inlet fitting 512 may be inclined relative to the horizontal. The bore 514 is oriented along an axis A that is angled distally and upwardly relative to the longitudinal axis of the housing 502. b The inlet bore 514 is angled to allow for easy access to the inlet after the suction line 52 is removed. The inadvertent "drip" of medical waste from the perforations 514 is limited or prevented. Any other fluid within 4 will flow under the influence of gravity towards the auxiliary sleeve 513. As best seen in FIG. 10, a valve 541 is coupled to the housing 502 and includes a secondary sleeve 513. The valve 541 may be fixed above the proximal end of the inlet bore 514. and configured to prevent backflow of fluid from the auxiliary sleeve 513 to the inlet bore 514. It may be a flapper valve, although other suitable valves are contemplated, such as a duckbill valve.

[0071] As previously mentioned, the manifold 500 is removably positioned within the auxiliary sleeve 513. The tray 576 includes a tissue collection cavity. 582 and a porous feature 586 within the tissue collection cavity 582. With 76 positioned within auxiliary sleeve 513, porous mechanism 582 is positioned in the suction path. and collect tissue samples. Retrieval of collected tissue samples becomes desirable. With the tissue sample disposed within the tissue collection cavity 582, the auxiliary sleeve 51 3, a tray 576 can be slidably removed. Tray 576 is optional. It is understood that manifold 500 operates without tray 576 in auxiliary sleeve 513. The manifold 500 may be configured to be disposed in sealing engagement with the auxiliary opening 511. The cap 545 may include a size-defined cap 545. The cap 545 may include a tether 547. 29 shows a sealing engagement between the inlet fitting 512 and the housing 502. 5 illustrates another cap 549 configured to be coupled to cover the inlet bore 514. The cap 549 may also be coupled to the housing 502 by a tether 551. stomach.

[0072] Referring also to FIG. 33, the tray 576 may be formed of a single or multiple components. The tray 576 may include a control surface 58 configured to receive input from a user. 8. The control surface 588 may be formed as a handle that is gripped by the user's fingers. FIG. 33 shows a square handle with one or more of the faces of the square handle. The figure shows a state in which a plurality of gripping mechanisms 553 are arranged. a sealing surface 555 configured to sealingly engage the housing 502 when seated within the housing 502; In particular, the tray 576 is configured to contact the outer periphery of the auxiliary opening 511. The tray 576 may have a flange defining a sealing surface 555 in the closed position. When the medical waste collection device is in the sleeve 513 and the sealing surface 555 covers the auxiliary opening 511, Suction is maintained through the suction path during operation of the collection assembly 50. Similarly, the cap 54 5 is sized to cover the auxiliary opening 511 and maintain suction through the suction path. There are.

[0073] The tray 576 is adapted to surmountably engage complementary retention features on the housing 502. The retaining mechanism 559 may include a retaining mechanism configured to retain the auxiliary opening 511. The seal surface 555 is configured to simultaneously engage with the seal surface 555 positioned adjacent the outer periphery. FIG. 31 illustrates a retention mechanism including a detent positioned on the underside of the tissue collection cavity 582. The retention mechanism 559 is shown in FIG. 10. The retention mechanism 559 is located in a recess or cap in the housing 502. The retaining mechanism 559 engages with a complementary retaining mechanism. When the tray 576 is fully seated or secured within the auxiliary sleeve 513, the user Tactile and / or audible feedback should be provided to the user to ensure Furthermore, when the retention mechanism 559 is engaged, the medical waste collection applicator The sealing surface 555 is positioned at the auxiliary opening 551 to ensure successful establishment of a suction path upon actuation of the assembly 50. 511. A tissue sample is collected in tissue collection cavity 582, and the user If a user wants to remove tray 576, a sufficient force is applied to control surface 588 of tray 576. is applied, and the retention feature 559 and the complementary retention feature are disengaged (e.g., detent and (interference engagement between the housing 502 is overcome).

[0074] The tray 576 has a second retaining mechanism (not shown) that engages a second complementary retaining mechanism (not shown) on the housing 502. The second complementary retention mechanism may comprise a retaining mechanism (not shown) for the tray 576. The tray 576 and the auxiliary sleeve 513 may be partially disposed or secured within the auxiliary sleeve 513. Only a portion of the tray 576 is in a suitable position on the housing 502. A separate sealing surface is provided to cover the auxiliary opening 511 to maintain suction while the device is disposed within the Thus, the tray 576 is "staged" in the bypass position and a bypass channel 592 between the distal side 585 and the bottom of the auxiliary sleeve 513; The medical waste collection assembly 50 may include a tray 576 for collecting tissue samples. With tray 576 in the bypass position, fluid can flow through the suction path without If the user wishes to collect a tissue sample, the user may Applying an input to control surface 588 (i.e., urging tray 576 downward) The retention mechanism is disengaged and the tray 576 is moved from the bypass position to the porous mechanism 586. A tissue collection cavity 582 is provided in the suction path to collect the tissue sample. The tissue collection position is then moved to a tissue collection position where it is fully disposed within the sleeve 513 .

[0075] As mentioned above, when collecting a tissue sample, it is important to visualize the tissue collection cavity 582. The user may need to quickly visualize the tissue sample once it is in the tissue collection cavity 582. Once the visual confirmation is obtained, any other aspect of the surgical procedure can proceed. The tissue collection cavity 582 is configured to accommodate the tray 576 when it is placed within the auxiliary sleeve 513. The distal barrier 503 opens toward the front of the tray 500 and prevents the tray from slipping onto the auxiliary sleeve 505. 13 includes a lens 596 that provides magnification within the tissue collection cavity. .

[0076] Referring to FIG. 33, the tray 576 includes a screen surface 584 defining a porous feature 586. The screen may have pairs of opposing sides 585 extending from the screen. The surfaces 584 together define a tissue collection cavity 582 in the tray 576. 33, the tissue collection cavity 582 is configured to extend from the screen surface 584 in a direction parallel to the side 585. The tray 576 is considered to be open away from the auxiliary sleeve 513. The complementary orientation feature 589 engages with the tissue collection cavity 582, specifically opening the tissue collection cavity 582 toward the distal barrier 503. 503. With the tray 576 in the open position, the tray 576 is supported by a support sleeve 508 in a predetermined orientation relative to the distal barrier 503. 33 further includes an orientation mechanism 587 configured for positioning within 513. Orientation mechanism 587 is shown, including tapered portions of sides 585 of tray 576. 7 results in the side 585 of the tray 576 tapering to the design thickness. 589 shows the tray 576 in the auxiliary sleeve 513 in only one orientation relative to the distal barrier 503. The auxiliary sleeve 513 has a protrusion positioned within it so that it is fully secured to the As best shown at 31, one of the protrusions is located at the design thickness of the side 585 of the tray 576. 513 from the proximal surface of the auxiliary sleeve 513 by a distance slightly greater than Then, when the tray 576 moves slightly downward in the auxiliary sleeve 513 in a predetermined orientation, , in the portion of the auxiliary sleeve 513 between the protrusion and the proximal surface defining the auxiliary sleeve 513 31 shows the distal portion of the auxiliary sleeve 513. By blocking the portion, the tray 576 is supported in any orientation other than the predetermined orientation. 513. The tray 576 is shown with an additional protrusion that prevents the tray 576 from being disposed within the auxiliary sleeve 513. When disposed within the auxiliary sleeve 513 in the predetermined orientation, the tissue collection cavity 582 is located on the front side of the manifold 500 (e.g., the distal end defining the distal surface of the auxiliary sleeve 513). The opening is on the side of the position barrier 503.

[0077] 29-31 show a distal barrier 503 including a lens 596. The lens 596 Although shown as an oval shape, other suitable shapes are contemplated. It is shaped to maximize visualization of and provide magnification of the vein 582. The angled auxiliary sleeve 513 allows the forward opening tissue collection cavity 576 of the tray 576 to 82, and the lens 596 of the distal barrier 503, the combined effect of which allows the user to View the manifold 500 from a reasonable distance without excessive manipulation of the manifold 500 to ensure proper organization. It is possible to quickly confirm whether the sample has been captured. By inserting the tray 576 into the manifold 500 on the surface of the manifold 500 , which makes visualization easier. Illumination is provided to illuminate the tissue collection cavity 582. It is also considered to be a good idea.

[0078] 34-36, which are similar in at least some respects to those described above. 10 shows another similar manifold 600 (certain like components are numbered the same). (The figure shows the number 0 added.) The manifold 600 is connected to the manifold receiver 54 and the removable The housing 602 is configured to be engaged with the It comprises a body portion 604 and a cap portion 606. As mentioned above, the cap portion 606 can be removed. It may be connected to the body 604 by a removable or permanent connection means, or and cap portions 604, 606 may be formed as a single, integral structure. In this case, the body portion and the cap portion 604, 606 are spin-welded at the interface, making them reusable. As best seen in FIG. 36, the housing 602 defines a manifold volume 60 8 and an outlet opening 610 in fluid communication with the manifold volume 608. 604 includes a proximal base 626 and a manifold volume extending distally from the proximal base 626. and a side 628 defining a cavity 630 that contains a portion of the cavity 608. The lip valve 632 is positioned within the outlet opening 610 to accommodate the housing 60, as described above. 2 is disengaged from the manifold receiver 54. and when the housing 602 is engaged with the manifold receiver 54, A fluid connection is provided between the manifold volume 608 and the suction inlet 52 of the medical waste collection assembly 50. It may also be possible to provide communication.

[0079] The manifold 600 includes a filter element disposed within the housing 602 and in the suction path. The filter element 616 may be sucked along the suction path. a porous feature 618 configured to capture semi-solid and solid matter entrained in the flow; 37 and 38, the cap portion 606 is a cap head. 642 and a support frame 643. The cap head 642 includes one or more The orientation mechanism 652 (e.g., one or more pairs of levers extending radially inward from the annular inner surface) The rails may receive tabs 627 of the filter element 616 to Prevents rotation of the filter element 616 relative to the cap portion 606. Cap head 642 has at least one sidewall 654 extending distally and terminating in a distal face 656 . A first opening 658 and a second opening 657 extend through the distal surface 656 by features described below. The cap head is fixed above the first and second openings 657 and 658. A valve 641 is disposed within the cap head 642 to prevent backflow of fluid from the cap head 642. It can also be set to

[0080] The support frame 643 may be integrally formed with the cap head 642 or may be formed separately from the cap head 642. The support frame 643 may be removably coupled to the cap head 642. The housing 602 includes a front surface 663 separated by opposing side surfaces 661 and a top and bottom surface. further defines an auxiliary opening 611 that leads to an auxiliary sleeve 613. The manifold 650 is configured to receive the manifold through first and second openings 657, 658 extending through the distal face 656. The auxiliary sleeve 613 is in fluid communication with the holding volume 608. The auxiliary opening 611 is disposed in the support frame 643. More specifically, the auxiliary opening 611 is 13 extends inward from the auxiliary opening 611, and the opposite side 66 of the support frame 643 The auxiliary sleeve 613 is located at one end of the tray 676, and is removable in a manner to be described later. The tray 676 is shaped to complement the side profile of the tray 676 for easy reception. The front surface 663 of the support frame 643 has a first opening 665 and a The first opening 665 further defines a separate bypass opening 667. As shown in FIG. is coaxial with and in fluid communication with the first opening 658 and is separated by a secondary sleeve 613. and the bypass opening 667 is coaxial with and in fluid communication with the second opening 657, A bypass channel 692 may be defined.

[0081] The manifold 600 includes a slide member 643 slidably coupled to a support frame 643. The sliding member 669 is a support frame defined between the upper and lower surfaces of the support frame 643. upper and lower surfaces 671 separated by a gap approximately sized to the thickness of the frame 643; 673. The gap between the upper and lower surfaces 671, 673 slidably receives the support frame 643. The support frame 643 and the sliding member 669 are respectively The support includes a complementary tracking mechanism 675 that limits the movement of the sliding member 669 to one degree of freedom. The tracking mechanism 675 of the support frame 643 includes an elongated slot oriented parallel to the front surface 663. The tracking mechanism 675 of the sliding member 669 is an elongated rail oriented to engage the slot. The movement of the sliding member 669 relative to the support frame 643 causes the front surface of the manifold 600 to Visually, it appears to be lateral movement.

[0082] The slide member 669 includes an inlet fitting 612 that defines an inlet bore 614. FIG. An inlet extending distally from the front surface 672 of the sliding member 669 separating the upper and lower surfaces 671, 673. 1 shows fitting 612. Inlet fitting 612 is configured to receive suction line 52. The sliding member 669 receives input from the user for the resulting function described below. The control surface 688 is configured to be grasped by the user's fingers or or pinching the sliding member 669 relative to the support frame 643. The upper and lower surfaces 671, 673 may be configured as follows.

[0083] As previously mentioned, the auxiliary sleeve 613 of the support frame 643 allows the tray 676 to be removed. Referring to FIG. 40, the tray 676 is roughly the same size as a box. The tray 676 may be shaped like a screen surface 6 84 and a pair of screens 684 extending from the screen surface 684 to define a tissue collection cavity 682. One of the pairs of opposing sides 685 defines a front wall opposite a rear wall. The screen surface 684 of the tray 676 defines a porous feature 686. The screen surface 684 includes a first screen surface 684a and a second screen surface 684b. The second screen surface 684b may be inclined relative to the first screen surface 684a. The surface 684b is angled upward toward the rear wall to more effectively guide the suction path. In addition to being positioned, the inclined second screen surface 684b also By providing a trapezoidal shape for the side profile, the training for the auxiliary sleeve 613 is In other words, it acts as an orientation mechanism for inserting and removing tray 676. 76 and the corresponding shape of the side profile of the auxiliary opening 611, the tray 676 is It must be oriented in a predetermined manner so that it can be disposed or secured within the sleeve 613. 40 includes a notch 699 in the front wall and a gripping portion 674 extending from one of the side portions 685. The cutout 699 allows the tray 676 to accommodate the auxiliary sleeve 61. 3, the inlet bore 614 of the inlet fitting 612 (and the first opening 68 8). The gripping portion 674 facilitates secure manipulation of the tray 676. A gripping mechanism 653 may be provided.

[0084] In operation, when a user desires to collect a tissue sample in tissue collection cavity 682, , an input is applied to the control surface 688 to move the slide member 669 to the tissue collection position. 669 is the inlet joint 612 when the tray 676 is disposed in the auxiliary sleeve 613. The inlet fenestrations 614 are moved to be positioned in fluid communication with the tissue collection cavity 682. The suction path is through the first opening 665, the tissue collection cavity 682, the first opening 658, Through each of the manifold volume 608, the filter element 616, and the outlet opening 610. 676 from the inlet perforations 614 to the suction inlet 52. is in the suction path to collect the tissue sample. In one example, tissue collection cavity 6 The movement of the inlet bore 614 in communication with the first opening 665 is If the tissue collection cavity 682 is in the aspiration path, the bypass channel It is understood that the nozzle 692 is not in the suction path.

[0085] Once the desired tissue sample has been collected and / or the user has decided not to collect the tissue sample, When it is desired to operate the manifold 600, another input is applied to the control surface 688 to cause the sliding member 669 to the bypass position. The slide member 669 slides into the inlet bore 6 of the inlet fitting 612. 14 is moved to be positioned in fluid communication with the bypass channel 692. The bypass opening 667, the bypass channel 692, the second opening 657, the manifold Inlet perforations 616 pass through each of the volume 608, the filter element 616, and the outlet opening 610. 614 to the suction inlet 52. In one example, the bypass channel 692 The movement of the inlet bore 614 requires axial alignment of the inlet bore 614 with the bypass opening 667. When the bypass channel 692 is in the aspiration path, the tissue collection cavity 68 It is understood that 2 is not in the suction path.

[0086] The slide member 669 is bypassed so that the tissue collection cavity 682 is not in the suction path. In this position, the tray 676 can be moved without interrupting the operation of the medical waste collection assembly 50. For example, the user may The user can then remove the instrument 676 and retrieve the collected tissue sample, while another user can discard it in the medical waste. Other aspects of the surgical procedure that require suction by the waste collection assembly 50 may continue. If the tissue sample collected is insufficient and / or another tissue sample is needed, In this case, another tray 676 can be quickly inserted into the auxiliary sleeve 61 without undue interruption such as loss of suction. 3.

[0087] The manifold 600 improves the user's tissue collection experience through visualization. 39, the slide member 669 slides in the direction of the arrow A. The slide member 669 slides in the direction of the arrow B. The slide member 669 slides in the direction of the arrow B. When the sliding member 669 is in the tissue collection position, it expands within the tissue collection cavity 682. A lens 696 is provided to illuminate the tissue collection cavity 682. It is considered acceptable to do so.

[0088] Also contemplated are exemplary methods for collecting tissue samples through manifold 600. The manifold 600 has an outlet opening 610 that is connected to the suction inlet 50 of the medical waste collection assembly 50. 8 is coupled to the medical waste collection assembly 50 so as to be in fluid communication with the suction line 52. is coupled to the inlet fitting 612 of the manifold 600. The inlet bore 6 of the inlet fitting 612 operates with the slide member 669 in the bypass position. 14 allows fluid to flow through the aspiration pathway without the tray 676 collecting the tissue sample. The control surface 688 is in fluid communication with the bypass channel 692 so that the user can apply input to the control surface 688. 5, the sliding member 669 is moved from the bypass position to the tissue collection position. In this case, the inlet perforation 614 of the inlet joint 612 is arranged so that the porous mechanism 686 is in the suction path. The medical waste collection assembly 50 is in fluid communication with the tissue collection cavity 682. With member 669 in the tissue collection position, it is operated to collect a tissue sample. For example, After collecting the tissue sample in tissue collection cavity 682, another input is provided to control surface 688. The former input may be applied to return the sliding member 669 to the bypass position. , the application of a lateral force to the control surface 688 in a first linear direction, , in a second linear direction opposite the first linear direction to return the sliding member 669 to the bypass position. The tissue collection cavity may be formed by applying a different lateral force to the control surface 688 at the sliding member. 669 is viewable through lens 696 when in tissue collection position. 6 is removable from the auxiliary sleeve 613 with the slide member 669 in the bypass position. With the slide 669 in the bypass position, another tray (not shown) can be slid in. The member 669 may be provided and positioned within a secondary sleeve 613 .

[0089] 41-46, which are similar in at least some respects to those described above. 10 shows another similar manifold 700 (certain like components are numbered the same). (The figure shows the number 0 added.) The manifold 700 is detachably connected to the manifold receiver 54. The housing 702 is configured to be engaged with the It comprises a body portion 704 and a cap portion 706. As mentioned above, the cap portion 706 can be removed. It may be connected to the body portion 704 by a removable or permanent connection means, or and cap portions 704, 706 may be formed as a single, integral structure. The body and cap portions 704, 706 are spin-welded at the interface for reuse. As best seen in FIG. 43, the housing 702 defines a manifold volume 70 8 and an outlet opening 710 in fluid communication with the manifold volume 708. 704 includes a proximal base 726 and a manifold volume extending distally from the proximal base 726. and a side 728 defining a cavity 730 that contains a portion of the cavity 708. A lip valve (not shown) is positioned within outlet opening 710 to accommodate the housing, as described above. When the lug 702 is disengaged from the manifold receiver 54, the fluid from the outlet opening 710 When the housing 702 is engaged with the manifold receiver 54, In this case, between the manifold volume 708 and the suction inlet 58 of the medical waste collection assembly 50 Fluid communication may be provided.

[0090] The manifold 700 is provided with a flow passage disposed in a housing 702 and a suction passage described later. The filter element 716 may include a filter element 716 that directs suction along the suction path. a porous mechanism configured to capture semi-solid and solid matter entrained in the flow being taken; 41, the cap portion 706 defines a cap head 74. 2 and a support frame 743. The support frame 743 of the manifold 700 includes: The cap head 742 is a stator, and will be referred to as such hereinafter. The cap head 742 has a small distally extending portion 756 that terminates at a distal face 756. It has at least one sidewall 754. An opening 758 extends through the distal face 756.

[0091] The stator 743 may be integrally formed with the cap head 742 or may be formed by any suitable method. It may be coupled to the cap head 742 by a coupling process. 7 shows a stator 743 coupled to a cap head 742 by material 729. The member 729 extends distally from the distal face 756 of the cap head 742 and distally from the distal face 756 of the stator 743. The stator 743 extends proximally from one side of the throat member 729. A cavity 731 is defined which communicates with the opening 758 through the lumen. In reference to FIG. 7, the air gap 731 of the stator 734 is formed by a base 733 and a rotor 734 extending from the base 733. The cavity 731 may be defined by at least one sidewall 735. The cavity 731 is shown as a cylinder. However, other suitable shapes are contemplated. The stator 743 of the housing 702 is The inlet fitting 712 is configured to receive the cavity 72. 31 defines an inlet bore 714 in fluid communication with the nozzle 31 .

[0092] Manifold 700 includes rotor 737 rotatably disposed within stator 743. When the rotor 737 is disposed in the air gap 731, the rotor 737 is attached to the base 733 of the stator 743. 48 and 49, the rotor 737 is supported by a large inner diameter of the annular inner wall. The rotor 737 includes an annular outer wall 739 having an outer diameter that is approximately equal to, but slightly smaller than, the rotor 737. , a pair of first openings 765a, 765b and a pair of bypass openings 767a, 767b The pair of first openings 765a, 765b are defined by the outer wall 739. , which are in fluid communication with each other to define a tissue channel 791. 767a, 767b are each defined by an outer wall 739 and are in fluid communication with each other. This defines a bypass channel 792 (see FIGS. 45 and 46). One side 765a is considered the entrance to the tissue channel 791, and the other side 765b of the first opening is the assembly. It can be considered the outlet of the woven channel 791. Similarly, one of the bypass openings 767a is a bypass The other side of the bypass opening 767b is considered to be the entrance of the channel 792, and the other side of the bypass opening 767b is considered to be the entrance of the bypass channel The bypass channel 792 is considered to be the outlet of the tissue channel 791 and the tissue It is separate from the collection cavity 782 .

[0093] The rotor 737 includes a tissue collection cavity 782 and a A porous mechanism 786 is defined. The porous mechanism 786 is removable from the rotor 737. The rotor 737 may be defined by a screen surface 784 coupled to the rotor 737. In the embodiment, the screen surface 784 is integrally formed with the rotor 737. The cavity 782 is configured such that the entrance opening 765a of the tissue channel 791 is in the tissue collection cavity 782. 765a.

[0094] Rotor 737 also includes a control surface 788 configured to receive input from a user. The control surface 788 may be associated with a handle 789 extending from the top surface of the rotor 737. The control surface 788 receives input and controls the tissue collection position and the bypass position, which will be described later. The control surface switches the manifold 700 between the controller It may also be an electronic input (e.g., a button) sent to actuate rotor 737. It is possible.

[0095] In operation, a user places a tissue sample in tissue collection cavity 782 of tray 776. If collection is desired, input is provided to control surface 788 to organize rotor 737 within stator 743. Rotate the rotor 737 to the collection position. The rotor 737 rotates the tissue collection cavity 782 until the entrance perforations 714 The porous feature 786 is in the aspiration path and rotates to be in fluid communication with the tissue sample. 43 and 44 show manifold 7 with rotor 737 in the tissue collection position. 00. For reasons identified below, the entrance fenestrations 714 and tissue collection cavities It can be seen that the suction path between the two is somewhat meandering. The rotor 737 includes a recess 793 in the outer wall 739. As best shown in FIG. The portion 793 extends radially from the inlet opening 765a over a design distance, which is When the rotor 737 is rotated to the tissue collection position, the recess 793 opposite the opening 765a The end is substantially aligned with the entrance bore 714. The rotor 737 In this position, the suction path passes through the inlet opening 765a, the recess 793, the tissue collection cavity 7 82, tissue channel 791, outlet opening 765b, opening 758, manifold volume 708 , through the filter element 716 and the outlet opening 710, respectively, from the inlet perforations 714. The suction inlet 52 is established. If the tissue collection cavity 782 is in the suction path, It is understood that the pass channel 792 is not in the suction path.

[0096] Once the desired tissue sample has been collected and / or the user has decided not to collect the tissue sample, If it is desired to operate the manifold 700, another input is applied to the control surface 788 to operate the stator Rotate rotor 737 in 743 to the bypass position. 737 shows the manifold 700 in the bypass position. The tissue collection cavity 792 is rotated so that the inlet fenestrations 792 are in fluid communication with the inlet fenestrations 714. 82 is not present in the suction path. The suction path includes the inlet opening 767a, the bypass channel 79 2, outlet opening 767b, opening 758, manifold volume 708, filter element 716, and outlet openings 710 through which the inlet perforations 714 are established to the suction inlet 52. can be.

[0097] The rotor 737 is in the bypass position so that the tissue collection cavity 682 is not in the aspiration path. In this position, the manifold 70 can be operated without interruption of the operation of the medical waste collection assembly 50. 0 is advantageous as it allows for the retrieval of collected tissue samples. The data 743 defines a window 715 extending through the sidewall 735. 15 is positioned circumferentially around the stator 743 so that the rotor 737 is in the bypass position. The tissue collection cavity 782 may be adapted to align with the tissue collection cavity 782 when in position. Additionally, window 715 exposes tissue collection cavity 782 for collection of tissue samples. For example, the user may need to A container (e.g., a formalin bottle) is positioned directly under the device 782, and an instrument (e.g., a spatula) is placed in the container. ) may be used to scrape the tissue sample through the porous feature 786 into a container. A notch 799 in the rotor 737 directly below the tissue collection cavity 782 allows tissue collection. The tissue sample is collected and falls straight down into the collection cavity 782 into the container. At the same time, another user may be performing other surgical procedures that require suction by the medical waste collection assembly 50. If insufficient tissue samples are collected and / or If another tissue sample is required, rotor 737 rotates to quickly move the sample into the tissue collection position. The input may be returned quickly.

[0098] Manifold 700 improves the user's tissue collection experience through visualization. 743 is positioned with the tissue collection cavity 782 when the rotor 737 is in the tissue collection position. and positioned to provide expansion within the tissue collection cavity 782. The tissue collection device may include a lens 796, which is connected to the entrance fenestrations 714 and tissue collection apertures, as previously described. This is achieved in part by the somewhat tortuous suction path to and from the cavity. With the recess 793 in the rotor 737, the lens 796 is When 7 is in the tissue collection position, it is coaxially aligned with the tissue collection cavity 782 . Additionally, with lens 796 in front of manifold 700, the user can View the manifold 700 from a reasonable distance without excessive manipulation of the manifold 700 to ensure a suitable tissue sample is obtained. This allows quick confirmation that the tissue has been captured. It is contemplated that lighting may be provided.

[0099] Also contemplated are exemplary methods for collecting tissue samples through manifold 700. The housing 702 of the manifold 700 has an outlet opening 710 that is connected to the medical waste collection assembly. a medical waste collection assembly 50 coupled thereto so as to be in fluid communication with the suction inlet 58 of the A suction line 52 is coupled to the inlet fitting 712 and flows through an inlet bore 714 of the inlet fitting 712. The medical waste collection assembly 50 provides a suction path from the manifold to the suction inlet 58. The bypass channel 792 is in the suction path. Thus, the tissue collection cavity 782 is not in the aspiration path. , the rotor 737 within the stator 743 rotates from the bypass position to the tissue collection position. For example, the control surface 788 rotates in a first rotational direction. The medical waste collection assembly is in the path and the bypass channel 792 is removed from the suction path. The bridge 50 operates with the manifold 700 in the tissue collection position to provide a tissue collection cavity. The tissue sample is collected through the porous feature 786 of the tissue collection cavity 782. 2 is observable through lens 796 when rotor 797 is in tissue collection position. After collection of the tissue sample, actuation of control surface 788 moves rotor 737 to the bypass position. For example, the control surface 788 may be rotated in a second direction opposite to the first direction. The tissue sample is collected by the tissue collection kit while the rotor 737 is in the bypass position. For example, tissue samples may be collected from the cavity 782. The stator 743 may be scrubbed with an instrument or the like to remove tissue samples by scraping the porous feature 786. The tissue is then collected from the exposed tissue collection cavity 782 through the window 715. It's fine.

[0100] In the above-described embodiment of manifold 700, rotor 737 is It is rotatably disposed while being fixed relative to the body 704. The reverse configuration is also possible. The "rotor" is fixed to the main body 704, and the "stator" is attached to the periphery of the "rotor." It is also contemplated that the manifold 700 may rotate or pivot. In this case, rotor 737 rotates around a vertical axis. It is contemplated that each may be oriented about a horizontal axis.

[0101] 50 and 51, which are similar in at least some respects to those described above. 8 shows another manifold 800 similar to that shown in FIG. 8 (certain like components are numbered the same). (The figure shows the number 100 added.) The manifold 800 is detachably connected to the manifold receiver 54. The housing 802 is configured to be removably engaged with the , comprising a cap portion 806 and a body portion (not shown), and is similar to those described in this disclosure. As mentioned above, the cap portion 806 may be either removable or permanently connected. The body portion may be connected to the cap portion 806 by a fastening means, or the body portion and cap portion 806 may be a single may be formed as a unitary structure (e.g., by spin welding at the interface, allowing for reuse) As best seen in FIG. 52, a manifold volume 808 is defined, and an outlet An opening (not shown) is in fluid communication with the manifold volume 808. The housing 802 includes: a first inlet fitting defining a first inlet bore 814a in fluid communication with the manifold volume 808; The housing 802 is connected to a manifold volume 808 and a flow channel 812a, as described below. A second inlet fitting 812b defining a second inlet bore 814b in fluid communication therewith. , the outlet opening is positioned such that a suction path is provided from the inlet bore 514 to the suction inlet 58. When the housing 802 is engaged with the manifold receptacle 54, the medical waste collection assembly The drip valve (not shown) is configured to be in fluid communication with the suction inlet 52 of the assembly 50. ) is positioned within the outlet opening so that the housing 802 is manifold-receiving, as described above. This prevents fluid from flowing out of the outlet opening when disengaged from the container 54 and also prevents the housing from leaking. When the housing 802 is engaged with the manifold receiver 54, the manifold volume 808 and The medical waste collection assembly 50 may be provided with fluid communication with the suction inlet 58. The manifold 800 is disposed in the housing 802 and in the suction path described later. The filter element may include a filter element (not shown) along the suction path. a porous structure configured to capture semi-solid and solid matter entrained in the siphoning flow; Define the mechanism.

[0102] FIG. 51 illustrates a cap portion 806 including a cap faceplate 840 and a cap head 842. The cap head 842 has at least one distal end extending distally and terminating at a distal face 856. Both have a side wall 854. Openings 858a and 858b are formed in the cap head 852. and a tissue collection tube extending through the distal surface 856 of the cap head 842, respectively. 54, the cap face plate 840 has a proximal surface 87 5. The proximal surface 870 may be disk-shaped, including a distal surface 872 opposite the proximal surface 870. 51 and 54, the coupling mechanism 864 is complementary to the coupling mechanism 864 of the cap faceplate 840. 66 and a pair of slots configured to provide a bayonet mount. The complementary coupling features 866 of the cap faceplate 840 are circumferentially oriented to be received within the slots. Of course, other coupling mechanisms are also contemplated. 8 extends proximally from proximal face 870. Operation of manifold 800 is described below. For ease of use, the cap faceplate 840 is configured for user manipulation (e.g., gripping). The control surface 874 may be configured.

[0103] The cap face plate 840 of the cap portion 806 includes a first inlet fitting 812a. As shown in FIG. 50 and FIG. 51, the first inlet fitting 812a has an inlet bore 814a in a cap. Extending distally from the distal surface 872 of the cap face plate 840 while extending through the face plate 840 As a result, when the manifold 800 is assembled, it is The first inlet fitting 812a is rotatable, i.e., about the longitudinal axis of the housing. It is contemplated that the first inlet fitting may be movable in other ways. may extend distally from the distal face 856 of the cap head 852. The fitting 812b is not directly connected to the cap faceplate 840. a is rotatable relative to the body, while the second inlet fitting 812b is rotatable relative to the cap head 8 52 and the main body portion. The second inlet bore 814b communicates with a second opening 857b, described below, to form a bypass channel. 892. Alternatively, the second inlet fitting may be a part of the housing. may be.

[0104] The housing 802 has auxiliary openings 811 each leading to an auxiliary sleeve 813. The auxiliary sleeve 813 further defines at least one manifold volume 808 and a flow The auxiliary sleeve 813 is disposed within the cap portion 806. The auxiliary sleeve 813 extends radially inward into the manifold volume 808. 8 shows one of the auxiliary openings 811 positioned on the side of the cap head 842. Diametrically opposite the other access opening 811 relative to the cap 806 is another auxiliary opening 81 1 may be positioned.

[0105] The manifold 800 is removably positioned within the auxiliary sleeve 813. The tray 876 comprises at least one tray 876a, 876b. The trays 876a, 876b include a tissue collection cavity 882 and The trays 876a, 876b define a porous feature 886 within the auxiliary sleeve 81. When positioned within the tissue sampler 580, the porous feature 582 is in the aspiration path and allows the tissue sample to be collected. This may be accomplished by rotating the first inlet bore 814a as described below. Once the collection of the tissue sample is desired, the tissue sample is With the tray 880 disposed within the tissue collection cavity 882, the auxiliary sleeve 813 is Trays 876a and 876b can be slidably removed. It is understood that manifold 800 is optional and includes tray 87 within auxiliary sleeve 813. 6 and can be operated without any problems.

[0106] The trays 876a, 876b may be formed from a single or multiple components. With continued reference to FIG. 51, trays 876a, 886b define porous features 886. The screen surface 884 has a plurality of pairs of opposing side portions 885 extending therefrom. The screen surface 884 integrally separates the tissue collection cavities 882 of the trays 876a, 876b. The trays 876a and 876b are provided with a complementary alignment mechanism (not shown) for the auxiliary sleeve 813. ) to position the trays 876a, 876b in a predetermined orientation relative to the distal barrier 803. and an orientation mechanism (not shown) configured to position the The tray 876 may include a control configured to receive input from a user. The control surface 888 is shaped as a handle that is gripped by the user's fingers. The trays 876a, 876b may be housed in the auxiliary sleeve 813. The tray 87 further includes a sealing surface 855 configured for sealing engagement with the tray 802. 6 defines a sealing surface 855 configured to contact the outer periphery of the auxiliary opening 811. The trays 876a, 876b are located within the auxiliary sleeve 813. With the sealing surface 855 covering the auxiliary opening 811, the medical waste collection assembly 50 During operation, suction is maintained through the suction passage. Similarly, a cap (not shown) is provided. 876a, 876b. Further, the trays 876a, 876b are sized to maintain suction through the tract. b indicates that the trays 876a and 876b are completely disposed or fixed in the auxiliary sleeve 813. to the complementary retention features of the housing 802 so that the user can be confident that A retention mechanism (not shown) configured to engage the function (e.g., tactile and / or The tissue sample may be inserted into the tissue collection kit. When the user wants to remove the trays 876a and 876b, A sufficient force input is applied to the control surfaces 888 of the trays 876a, 876b to engage the retention mechanisms and The complementary retention features are disengaged (e.g., the interference between the detent and the housing 802 is removed). (The problem is overcome.)

[0107] 51, the cap head 842 of the housing 802 has an opening 858 a, 858b and at least one of the second opening 857. Each of the tissue collection channels 891 may be connected to a respective tissue collection channel 891. The channel 891 may be coaxial with and in fluid communication with the auxiliary sleeve 813. 857 may lead to a bypass channel 892 (shown in FIG. 51). 814 b is in fluid communication with another bypass channel 892 .

[0108] In operation, a user may insert one or both tissue collection cavities 882 of the tray 876 into the tissue collection cavity 882. If it is desired to collect a tissue sample at the first inlet fitting 812, an input is provided to the control surface 874 to activate the first inlet fitting 812. a, the first inlet bore 814a is rotated to one of the openings 858a, 858b. Additionally, the user may align the tray in one of the auxiliary sleeves 813. First inlet bore 814a is positioned at one of openings 858a and 876a. , 858b, and the trays 876a, 876b are aligned with one of the auxiliary sleeves 813. When positioned at the suction path, the tissue collection cavities 382 are each in the suction path, The tissue sample being drawn through the suction passage is drawn through the porous tissue collection cavity 882. The manifold 800 is then considered to be in a tissue collection position. If a second tissue sample is desired, the user simply provides another input to control surface 844 to select the second tissue sample. Rotating the first inlet fitting 812a moves the first inlet bore 814a to the opening 858. The user may align the auxiliary sleeve 813 with one of the auxiliary sleeves 813a and 858b. The other of the trays 876a, 876b is positioned in one of the first inputs. The mouth perforation 814a is aligned with the other of the openings 858a, 858b, and the tray 876a, With the other tissue collection cavity 876b positioned within the other auxiliary sleeve 813, The tissue sample 382 is present in the suction path, and the tissue sample being sucked through the suction path A porous feature 886 within the tissue collection cavity 882 is encountered.

[0109] If the user does not want to collect tissue samples on the manifold 800 but wants to maintain suction , the bypass channel 892 allows the tissue sample to pass through during operation of the medical waste collection assembly 50. Allows fluid to flow through manifold 800 without collection. Two bypass channels 8 92 is shown. The first inlet bore 812a is rotated to selectively connect with the bypass opening 857. In particular, a user may provide input to control surface 844. This rotates the first inlet bore 814a, which is aligned with the bypass opening 857. The hold 800 is considered to be in the bypass position. In fluid communication with inlet fenestrations 814a, tissue collection cavity 882 is inserted through inlet fenestrations 814b. 14. Additionally or alternatively, the second inlet bore 814 A second suction line may be coupled to second inlet fitting 812b, which defines a second inlet fitting 812b. In such an exemplary operation, waste entering the second inlet bore 814b is directed to the other bypass bore 814b. The fluid is guided through a channel 892. Naturally, other inlet fittings are also conceivable, and three Or certain features mentioned above, such as the four inlet fittings, are replicated.

[0110] The manifold 800 is configured such that the tissue collection cavity 882 is not in the aspiration path. In the pass position, the manifold can be opened without interrupting the operation of the medical waste collection assembly 50. Advantageously, the bypass channel 800 allows for the retrieval of collected tissue samples. According to rule 892, the user must first retrieve the tissue sample from manifold 800. Absorbing the surgical site without the need for suction or compromising the quality of the initial tissue sample collected As a result, the manifold 800 can continue to operate until the end of the surgical procedure. The manifold 800 can maintain engagement with the medical waste collection assembly 50. position (or when the manifold 800 is using the other tray 876a, 876b) While the trays 876a, 876b are in the tissue collection position, the user inputs the control surfaces of the trays 876a, 876b. 888 to remove the trays 876a, 876b from their respective auxiliary sleeves 813. The trays 876a, 876b to be replaced can be removed without interrupting the operation of the medical waste collection assembly 50. b may be positioned within the auxiliary sleeve 813.

[0111] As mentioned above, manifold 800 improves the user's tissue collection experience through visualization. 51 and 53, the tissue collection cavity 882 of the tray 876 is The manifold 800 is connected to the top of the holder 800, and the tray is inserted into the auxiliary sleeve 813. It includes a lens 896 that, when seated, provides magnification within the tissue collection cavity. Then, a lens 896 at the top of the manifold 800 is inserted into the medical waste collection assembly 50. When positioned horizontally, the user can adjust the manifold 800 to a reasonable degree without excessive manipulation. View the manifold 800 from a distance to quickly verify that a suitable tissue sample has been captured. It is contemplated that lighting may be provided to illuminate the tissue collection cavity 882. can be done.

[0112] Referring now to Figures 55-61, these figures are similar in at least some respects to those described above. 10 shows another similar manifold 900 (certain like components are numbered the same). (The figure shows the number 0 added.) The manifold 900 is detachably connected to the manifold receiver 54. The housing 902 is configured to be engaged with the function. The device includes a cap portion 906 and a body portion 904. As described above, the cap portion 906 is removable. The body may be connected to the body by a removable or permanent connection means, or the body and The cap portion 904 may be formed as a single, integral structure (e.g., a surface area at the interface). (Pin welding prevents reuse.) Housing 902 contains the manifold volume (unidentified). An outlet opening (not shown) is in fluid communication with the manifold volume. The housing 902 has a first inlet bore 914a that defines a first inlet bore 914a in fluid communication with the manifold volume. The manifold defines a first inlet fitting 912a and a second inlet bore 914b in fluid communication with the manifold volume. As mentioned above, the outlet opening is provided so that the suction path is The housing 902 is mounted to the suction inlet 52 through the perforations 914a, 914b. When engaged with the nifold receptacle 54, the suction inlet 55 of the medical waste collection assembly 50 2. A drip valve (not shown) is located within the outlet opening. 9. The housing 902 is disengaged from the manifold receiver 54 as described above. This prevents fluid from flowing out of the outlet opening when the housing 902 is closed. When engaged with the manifold receptacle 54, the manifold volume and the medical waste collection assembly 50 The manifold 900 may be configured to provide fluid communication between the suction inlet 52 of the A filter element (not shown) disposed in the housing 902 and in the suction path (described later) The filter element may be entrained in the flow being sucked along the suction path. The porous feature is configured to capture the solid and semi-solid materials.

[0113] FIG. 55 illustrates a cap portion 906 including a cap faceplate 940 and a cap head 942. 56, the cap head 942 extends distally to 57, the at least one sidewall 954 terminates in a surface 956. The cap face plate 940 includes a proximal surface 970 and a distal surface 972 opposite the proximal surface 970. The coupling mechanism 964 may be a disc-shaped member that is complementary to the coupling mechanism 964 of the cap faceplate 940. 66. The tubular portion 968 may be configured to provide a bayonet mount with Extending proximally from proximal face 970. Of course, other coupling mechanisms may be used. As will be described later, in order to facilitate the operation of the manifold 900, The cap faceplate 940 may include a control surface 974 configured for user manipulation. stomach.

[0114] The cap face plate 940 of the cap portion 906 includes a first inlet fitting 912a. As shown in FIG. 6, the first inlet fitting 912a and the second inlet fitting 912b are respectively With the port perforations 914a, 914b extending through the cap face plate 940, the cap face plate 9 40. As a result, the manifold 900 is assembled In the upright position, the first and second inlet joints 912a, 912b are connected to the main body 904. b is rotatable, i.e., rotates around the longitudinal axis of the body and moves to the tissue collection position. and a bypass position. The fittings may be movable relative to the housing in different ways. Indicia 994 indicates first inlet fitting 912a if a serves as a port for tissue collection. The markings 994 shown in Figures 55 and 56 indicate the first inlet fitting 912. It includes a ring that surrounds a and provides tactile as well as visual indications without undue effort. Other types of indicia are also contemplated, such as tabs or protrusions.

[0115] Housing 902 further defines a secondary opening 911 that leads to a secondary sleeve 913 . The auxiliary sleeve 913 is in fluid communication with the manifold volume 908. 3 is disposed in the cap portion 906. In FIG. 56, the auxiliary sleeve 913 is The auxiliary opening 911 is positioned on the side of the cap head 942 in an upwardly inclined state. Diametrically opposite to the cap portion 806 is another auxiliary sleeve (not shown). may be positioned.

[0116] The manifold 900 is removably positioned within the auxiliary sleeve 913. 56, the tray 976 includes a tissue collection container 976. The tissue collection cavity 982 defines a porous feature 986 within the tissue collection cavity 982. With the roller 976 positioned within the auxiliary sleeve 913, the porous mechanism 986 It may be present in the pathway to collect tissue samples, which is described below. The recovery of the collected tissue sample is further based on the rotatable position of the inlet perforation 914a. When desired, the tissue sample may be removed with the tissue sample disposed within the tissue collection cavity 982. The tray 976 can be slidably removed from the auxiliary sleeve 913. It is understood that this is optional, and manifold 900 may include a tray within auxiliary sleeve 913. 976 and can be operated without any problems.

[0117] As best seen in FIG. 56, the tray 976 may be formed from a single or multiple components. With continued reference to FIG. 56, the tray 976 may define a porous feature 986. The screen surface 984 defines a plurality of pairs of opposing side portions 985 extending from the screen surface 984. and screen surface 984 together define tissue collection cavity 982 of tray 976. The tray 976 engages a complementary orientation feature (not shown) on the auxiliary sleeve 913 to Positioning the tray 976 within the auxiliary sleeve 913 at a predetermined orientation relative to the barrier 903 The tray 976 may further include an orientation mechanism (not shown) configured to orient the tray 976. The device includes a control surface 988 configured to receive input from a user. The tray 976 may be formed as a handle for a user's fingers to grasp. a sealing surface configured to sealingly engage with housing 902 when seated within tube 913; In particular, the tray 976 is configured to contact the outer periphery of the auxiliary opening 911. The tray 976 may have a flange that defines a sealing surface 955 in the assembled state. When in the auxiliary sleeve 913 and the sealing surface 955 covers the auxiliary opening 911, During operation of the waste collection assembly 50, suction is maintained through the suction path. 29) may be provided to cover the auxiliary opening 911 and allow the tray 976 is sized to maintain suction through the suction path in the absence of The tray 976 is fully disposed or secured within the auxiliary sleeve 913. to the complementary retention features of the housing 902 so that the user can be confident that A retention mechanism (not shown) configured to engage the function (e.g., tactile and / or The tissue sample may be inserted into the tissue collection kit. If the user wants to remove the tray 976, the tray 976 can be removed by applying sufficient force. A force is applied to the control surface 988 of the tray 976, causing the retention mechanism and complementary retention mechanism to disengage. (eg, interference engagement between the detent and the housing 902 is overcome).

[0118] 58 and 60 simultaneously, the cap head 942 of the housing 902 is At least one of an opening 958 and a bypass opening 957 may be defined. The opening 958 leads to a tissue collection channel 991. The tissue collection channel 991 is connected to an auxiliary 58 illustrates the bypass channels 992 in a manner described below. Three bypass openings 957a, 957b, and 957c are shown. In this embodiment, when manifold 900 is in the bypass position, suction to suction line 52 is To remove the pull, one of the bypass openings 957a may be removed.

[0119] In operation, a user places a tissue sample in tissue collection cavity 982 of tray 976. If collection is desired, an input is provided to the control surface 974 to cause the first inlet fitting 912a (and the resulting 59. As an input, the second inlet fitting 912b is rotated to the tissue collection position shown in FIG. In this case, torque in a first rotational direction D1 can be applied to the control surface 974 of the cap face plate 940. In the tissue collection position shown in FIG. 59, the first inlet perforation 914a is When the 76 is positioned within the auxiliary sleeve 913, the tissue collection cavity 982 is proximate. axially aligned opening 958 (e.g., coaxially aligned opening 958) At the same time, the second inlet bore 914b provides a bypass to the manifold volume 908. It is in communication with (eg, coaxially aligned with) one of the openings 957b.

[0120] The user positions the tray 976 in the auxiliary sleeve 913. First entrance hole 914a is aligned with the opening 958 and the tray 976 is positioned within the auxiliary sleeve 913. In the determined state, a suction path is established as shown in Figure 49. In particular, the tissue collection cavity The tissue sample being drawn through the suction path is The manifold 900 is assembled to encounter a porous feature 986 within the tissue collection cavity 982. The second bypass opening 957b is considered to be in the collection position and is simultaneously in communication with one of the bypass openings 957b. The waste can be sucked separately through two inlet fittings 912b.

[0121] If the user wishes to retrieve the tissue sample collected in the tray 976 and / or aspirate it, If it is desired to remove tray 976 from the pull path, another input is provided to control surface 974 to activate the first The inlet fitting 912a (and consequently the second inlet fitting 912b) is connected to the bypass shown in FIG. The input is a second rotation direction D2 opposite to the first rotation direction. 60. In the bypass position shown in FIG. The first inlet bore 914a communicates with one of the bypass openings 957a (for example, For example, the second inlet bore 914b is coaxially aligned with another bypass opening 914b. 57c in communication with (eg, coaxially aligned with) 57c.

[0122] In the aforementioned variation, the bypass opening 957a is in the bypass position and is connected to the first inlet bore. 914a is removed to align with a portion of the distal surface 856 of the cap head 942. The suction through the first inlet aperture 914a is removed, allowing another tissue sample to be drawn in. Alternatively, waste may be drawn through the suction line 52 and the first inlet bore 914a. The block is removed.

[0123] The tray 976 is positioned such that the manifold 900 is in the tissue collection position and / or the bypass position. In this state, the auxiliary opening 911 is removed from the auxiliary sleeve 913. A loss of suction can occur due to the loss of sealing engagement with the sealing surface 955 of the manifold 976. With the tool 900 in the tissue collection position and / or bypass position, the user may enter to the control surface 988 of the tray 976 to remove the tray 976 from the auxiliary sleeve 913. If another tissue sample is desired, do not interrupt the operation of the medical waste collection assembly 50. Even if the replacement tray 976 is positioned within the auxiliary sleeve 913, good.

[0124] Manifold 900 improves the user's tissue collection experience through visualization. The tissue collection cavity 982 of the 76 leads to a distal barrier 903, and the manifold 900 When the ray is seated within the auxiliary sleeve 913, it provides expansion within the tissue collection cavity. A barrier, such as distal barrier 903, defines the exterior of auxiliary sleeve 913. The distal barrier 903 with the lens 996 is oriented relative to the longitudinal axis of the manifold 900. It is "clocked" relative to its longitudinal axis so that it is oriented distally and superiorly. Based on the orientation of the manifold 900 within the medical waste collection assembly 50, the lens 996 is positioned on top of the manifold 900. The user may Without any manipulation, one can view the manifold 900 from a reasonable distance to ensure that a suitable tissue sample is captured. A light is provided to illuminate the tissue collection cavity 982. It is considered acceptable.

[0125] 62-64 illustrate certain alternative or additional features described below, particularly within auxiliary sleeve 913. 55-6, which have features directed to the orientation and / or positioning of the tray 976. 55 to 61 show a modification of the manifold 900. The explanation is not repeated here for the sake of brevity, and should be considered as a reference. The manifold 900 includes a cap portion 906 and a housing 902 that are integrally formed with the cap portion 906. The housing 902 includes a main body portion 904. The housing 902 includes a first manifold volume in fluid communication with the manifold volume. a first inlet fitting 912a defining an inlet bore 914a; and a second inlet fitting 912b defining a second inlet bore 914b. The air filter 900 includes a filter element (not shown) disposed within the housing 902 and in the suction path. ) may be provided.

[0126] FIG. 62 illustrates a cap portion 906 including a cap faceplate 940 and a cap head 942′. The cap face plate 940 of the cap portion 906 is rotatable relative to the main body portion 904. the ability to rotate about the longitudinal axis of the body and to move between tissue collection and bypass positions. The first inlet fitting 912a and the second inlet fitting 912 are configured to rotate between It has b.

[0127] Referring also to FIG. 63, the cap head 942' extends distally to a distal surface (as shown). The housing 902 includes at least one side wall 954 that terminates in a support slot. The manifold further defines a secondary opening 911 that leads to a sleeve 913. The secondary sleeve 913 The auxiliary sleeve 913 is disposed within the cap portion 906 and is in fluid communication with the cold volume 908. FIG. 63 shows the auxiliary sleeve 913 in a state where it is tilted upward as will be described later. 9 shows auxiliary openings 911 positioned on the sides of the cap head 942'.

[0128] The manifold 900 is removably positioned within the auxiliary sleeve 913. 64, the tray 976 includes a tissue collection container 976. The tissue collection cavity 982 defines a porous feature 986 within the tissue collection cavity 982. With the roller 976 positioned within the auxiliary sleeve 913, the porous mechanism 986 It may be present in the pathway to collect tissue samples, as described above. The recovery of the collected tissue sample is further based on the rotatable position of the inlet perforation 914a. When desired, the tissue sample may be removed with the tissue sample disposed within the tissue collection cavity 982. The tray 976 can be slidably removed from the auxiliary sleeve 913 .

[0129] With continued reference to FIG. 64, the tray 976 includes a screen that defines a porous feature 986. The surface 984 may have a plurality of pairs of opposing sides 985 extending from the surface 984. The clean surface 984 integrally defines the tissue collection cavity 982 of the tray 976. The ray 976 includes a control surface 988 configured to receive input from a user. The surface 988 may be formed as a handle for a user's fingers to grasp. , configured to sealingly engage with housing 902 when received within auxiliary sleeve 913. In particular, the tray 976 contacts the outer periphery of the auxiliary opening 911. The tray may include a flange defining a sealing surface 955 configured to 976 is in the auxiliary sleeve 913 and the sealing surface 955 covers the auxiliary opening 911. Suction is maintained through the suction path during operation of the medical waste collection assembly 50. The sample is collected in the tissue collection cavity 982 and the user wishes to remove the tray 976. If a sufficient force input is applied to the control surface 988 of the tray 976, the tray 976 It is removed from the sleeve 913 .

[0130] Referring to FIG. 64, the tray 976 is configured to accommodate the complementary orientation of the auxiliary sleeve 913 (shown in FIG. 63). Engagement of mechanism 989 allows for a single relative orientation, specifically a predetermined orientation relative to upper barrier 903. an orienting mechanism 98 configured to position the tray 976 within the auxiliary sleeve 913; The tray's auxiliary sleeve 913 may further include an orientation feature 989. The tabs may be spaced apart from opposing barriers that at least partially define the auxiliary sleeve 913. 913 (for example, parallel to the upper wall 903) 63 shows the auxiliary opening 911 and the cap head opposite the auxiliary opening 911. 9 shows a tab extending only partially between an interface opening in a side wall 954 of door 942'. The orientation mechanism 989 is configured to substantially align the auxiliary sleeve 913 so as to approach the elongated rail. The orientation feature 989 may extend along the entire surface of the upper barrier 903. The auxiliary sleeve 913 is spaced closer to the distal barrier 903 than the barrier that at least partially defines the auxiliary sleeve 913. To separate the tray 976 from the housing 902, only one orientation is required. become.

[0131] The complementary orientation features 987 of the tray 976 movably engage with tabs on the auxiliary sleeve 913. 64 shows a rail configured to move from the sealing surface 955 to the sealing surface 955. 9 shows the rails extending outward to a position near the opposite end of the tray 976. Additionally, the orienting feature 987 has opposing sides that at least partially define the tissue collection cavity 982. The orientation feature 987 extends laterally outward from the upper edge of the side portion 985. In other words, it is positioned at the edge of the side 985 opposite the screen surface 984. The position of the alignment feature 987 relative to the line surface 984 and the alignment feature 98 relative to the upper barrier 903 The position of 7 requires that the tray 976 be inserted into the auxiliary sleeve 913 in a single orientation. The rails are threaded to the tissue collection cavity 982 so that the tissue collection cavity 982 opens into the first entrance bore 914a. The spring is movably engaged with the spring.

[0132] The orienting mechanisms 987, 989 are also located directly below the tray 976 (i.e., the tissue collection cavity). A positioning device (adjacent to the screen surface 984 opposite the tee 982) provides a second suction path. The auxiliary opening 911 may function as a sealing mechanism other than the sealing surface 955 of the tray 976. Therefore, the use of the second suction path reduces the distance between the inlet perforations 912a, 912b and the outlet opening. The suction ("outflow") between the two may be at least partially reduced or blocked. The attachment mechanism and the second suction path are described in more detail below. When the tray 976 is started to be removed from the sleeve 913, the corresponding The flow of fluid through the auxiliary sleeve 913 occurs in the path of least resistance. When the tray 976 is being removed from the tray 913, the second suction path is located directly below the tray 976. In this state, fluid flow through the auxiliary sleeve 913 is concentrated in the tissue collection cavity 982. This reduces the likelihood of inadvertent and unnecessary ejection of collected tissue samples. 987, 989 above the lower barrier that at least partially defines the auxiliary sleeve 913 The screen surface 984 may be raised to define the gap. An alignment feature 987 (e.g., a lens) is provided adjacent to the upper barrier 903 that at least partially defines the With the top surface of the tray 976 positioned, most of the fluid is guided directly below the tray 976. , so as not to come into contact with the tissue sample collected in the tissue collection cavity 982. It may be the path of least resistance. Negligible fluid flow enters the tissue collection cavity 982. In this condition, the forces involved are minimal and the collected tissue sample is firmly attached to the tissue collection cavity. The possibility of refrigerant being drawn off 82 and transferred to the manifold volume is reduced or eliminated.

[0133] The manifold 900 improves the user's tissue collection experience through visualization. 64, the tissue collection cavity 982 of the tray 976 is attached to the upper barrier 903. Thus, the manifold 900 accommodates the tissue collection when the tray is seated within the auxiliary sleeve 913. The auxiliary sleeve 913 is provided with a lens 996 that provides magnification within the collecting cavity. The barriers, such as the upper barrier 903, define a manifold. 900. The longitudinal axis of the rod 900 is oriented distally and superiorly. In particular, FIG. 63 shows the manifold 900 with its longitudinal axis The upper wall 903 on which the lens 996 is disposed is positioned at an angle γ with respect to the plane including the lens 996. The angle γ is about 10 to 45°, more specifically about 20 to 35°, and even more specifically The angle of the manifold 900 in the medical waste collection assembly 50 may be approximately 25°. Based on the orientation, the lens 996 is positioned in the manifold 900, which is oriented generally horizontally relative to the ground. The user can adjust the manifold 900 at a reasonable distance without excessive manipulation. manifold 900 from the outside to quickly verify that a suitable tissue sample has been captured. It is contemplated that lighting may be provided to illuminate the tissue collection cavity 982. do.

[0134] Referring now to FIGS. 65 to 68, cap portions 11 of manifolds 1100 and 1200 06, 1206 are cap heads 1142, 1242 and support frames 1143, 1 The cap portions 1106, 1206 define the upper barriers 1103, 1203. The housing includes first inlet fittings 1112a, 1212a and second inlet fittings 1112b, 1212c. More specifically, the support of the cap portions 1106 and 1206 is provided. The frame 1143, 1243 includes the first inlet fitting 1112a, 1212a, and the cap The head 1142, 1242 includes a second inlet fitting 1112b, 1212b. The fittings 1112a, 1212a have first inlet bores 1114a, 1214a. With the hands 1112a, 1212a and the upper barriers 1103, 1203 extended, The second inlet joint 111 extends upwardly away from the side walls 1103, 1203. 2b, 1212b are the second inlet bores 1114b, 1214b of the cap head 1142. , 1242, extending distally from the cap heads 1142, 1242. The housings of the manifolds 1100 and 1200 are fitted with auxiliary sleeves 1113 and 1114. The auxiliary sleeve 1113 further defines auxiliary openings 1111, 1211 that communicate with the auxiliary sleeve 1113. 1213 is the upper barrier 1103, 1203, the lower barrier 1122, 1222, and the upper barrier two side barriers 1123 extending between the walls 1103, 1203 and the lower barriers 1122, 1222; The auxiliary sleeve 1113, 2 113 is in fluid communication with the manifold volume through perforations 1125, 1225.

[0135] Manifolds 1100 and 1200 can be removed into auxiliary sleeves 1113 and 1213 The tray 1176, 1276 is configured to be positioned in the 76, 1276 may be the same as those described above. The operation of the manifolds 1100 and 1200, including the movement of the holds 1100 and 1200, is This is the same as the above.

[0136] As can be seen from Figures 65 and 66, the cap portion 1106 is "laterally loaded" and While the cap portion 1206 is considered "front loaded," i.e., the tray 1176 and 1276 are respectively from the front and side of the manifolds 1100 and 1200. 67 and 68 are side views of the front loading cap portion 1206. The cap portions 1106, 1206 are cap face plates 1140, 1240 and the cap face plates 66. The cap heads 1142 and 1242 are connected to the cap heads 1140 and 1240. 67, the cap face plates 1140, 1240 are aligned along a first axis (A1). The cap heads 1142 and 1242 are oriented as described above with the auxiliary sleeve 1113, and an upper barrier 1103, 1203 at least partially defining a barrier 1213. 1103, 1203 are arranged on a second axis (A2) that is angled with respect to the first axis (A1). As shown in Figures 62 and 63, a line perpendicular to the first axis (A1) is aligned with the second axis (A 2) are angles α and β. The angles α and β are about 10 to 45°, more specifically about 20 to 35°, and more particularly, about 25°. Configuration of medical waste collection assembly 50 with gap 56 oriented at an angle, specifically angles α and β. In FIG. 1, a cap (coupled to a body portion 1104, 1204 inserted into the cavity 56) The orientation of the upper barriers 1103, 1203 relative to the face plates 1140, 1240 allows the upper barrier 1 103, 1203 are approximately horizontal. Furthermore, the auxiliary sleeves 1113, 1213 are also horizontally, the trays 1176, 1213 relative to the auxiliary sleeves 1113, 1213, respectively; 76. Furthermore, the auxiliary sleeves 1113, 12 Perforations (not shown) extending between 13 and the manifold volume are arranged at angles α and β to the horizontal. By directing the flow of waste from the manifold volume to the auxiliary sleeves 1113, 1213, This makes it easier to prevent backflow. In other words, the waste overcomes gravity and fills the manifold volume. through the inclined holes 1125, 1225 to the auxiliary sleeves 1113, 1213. The possibility is low.

[0137] The side loading cap portion 1106 of FIG. 65 is positioned proximally-distal to the joint axis (A F ) oriented on 1 shows a first inlet fitting 1112a. More specifically, the first inlet fitting 1112a is , an upper side near a distal side 1125 that at least partially defines the auxiliary sleeve 1113 The first inlet fitting 1112a extends distally from the barrier wall 1103. The auxiliary sleeve 1113 may define the distal end of the sleeve axis (A S )above (considered to be the direction of entry and exit in Figure 67). S ) The auxiliary sleeve 1113 is oriented laterally so that the joint axis (A F ) may be perpendicular to (i.e., a "side-loaded" cap portion 1106). In FIG. 65, the auxiliary opening 1111 may be positioned on the right side. This configuration defines the side ends of the manifold 1100. It is thought to be more convenient for right-handed users who approach from the front. It is understood that an alternative configuration is contemplated in which the auxiliary opening 1111 is positioned on the left side. The cap portion 1106 is coupled to the cap faceplate 1140 and does not pass through the auxiliary sleeve 1113. A second inlet bore 1114b defining a second inlet bore 1114b providing a bypass suction path to the manifold volume. It may further comprise two inlet fittings 1112b.

[0138] The front loading cap portion 1206 of FIGS. 67 and 68 is aligned vertically with the joint axis (A F ) on 12 shows the first inlet fitting 1212a oriented. More specifically, the first inlet fitting 121 2a extends upward from the upper barrier 1203 that at least partially defines the auxiliary sleeve 1113. The auxiliary sleeve 1213 extends from the auxiliary opening 1211 to the distal end of the manifold 1200. With the position end specified, s ) may be defined on the sleeve axis (A S ) is connected to the coupling axis (A) so that the auxiliary sleeve 1213 is oriented in the proximal-distal direction. F ) The cap portion 1206 may be straight (i.e., a "front-loading" cap portion 1206). 206 is coupled to the cap faceplate 1240 and is connected to the manifold without passing through the auxiliary sleeve 1213. a second inlet defining a second inlet bore 1214b providing a bypass suction path to the chamber volume; A port fitting 1212b may also be provided.

[0139] The upper barriers 1103, 1203 are oriented relative to the cap faceplates 1140, 1240. To complement the generally horizontal position during operation, lenses 1196 and 1296 are present. As shown, during collection of tissue samples, the tissue collection cavities 1182, 1282 are visualized. The user may then determine whether the tissue sample is in the tissue collection cavity 1182, 1282 or in the tissue collection cavity 1282. The ability to quickly visually confirm when the injury has occurred allows for the patient to move on to any other aspect of the surgical procedure. The Manifold 1100 and 1200 improve the user's tissue collection experience through visualization. The tissue collection cavities 1182, 1282 of the trays 1176, 1276 are 176, 1276 in the auxiliary sleeve 1113, 1213, the upper barrier 1103 , 1203. As shown in FIGS. 53 to 63, the lenses 1196, 1296 are The barriers 1103, 1203 are disposed to expand within the tissue collection cavities 1182, 1282. The lenses 1196, 1296 are oval in shape, although other suitable shapes are contemplated. The lenses 1196, 1296 facilitate visualization of the tissue collection cavities 1182, 1282. It may be shaped to maximize and provide that expansion. The manifold 1100, 1200 can be operated from a reasonable distance without excessive manipulation. 1100 and 1200 to quickly confirm that a suitable tissue sample has been captured. Illumination may be provided to illuminate the tissue collection cavities 1182, 1282. It is possible.

[0140] As explained above, for example, trays 176 to 676, 876, 976, 1176, Regardless of whether tissue samples are collected by 1276, manifold 100 The 900, 1100, and 1200 filter elements 216 to 716 filter the flow. For various reasons, it may be necessary to access the filter elements 216-716. In one example, the manifold is 100 to 900, 1100, 12 00 operates in "bypass mode" when the desired tissue sample is drawn from the patient. 69 to 71, FIG. 69 shows the above-mentioned manifold. 70 and 71 show one embodiment of the cap of manifold 500. 69 to 71 show the manifold 506. The filter element 1016 includes an access mechanism 1040 that allows access to the filter element 1016. As will be described, the access mechanism 1040 receives user input to permanently disconnect the manifold. configured to provide access to the filter element 1016 by cutting the The access mechanism 1040 is connected to any of the manifolds 100, 1100, and 1200. In addition to the embodiments described herein, the present invention may also be implemented with compatible manifolds not described herein. It is understood that this is a good thing.

[0141] Referring to FIG. 72, the main body 1004 includes a proximal base 1026 and a distal end 1028 extending from the proximal base 1026. The outlet opening 1010 includes at least one side portion 1028 extending from the proximal base portion 102. 6. The access mechanism 1040 may include a weak boundary 942. The weakened boundary 942 in the form of an access mechanism 1040 shown in FIG. 7 is between the lateral and upper portions of the side 1028. and at least a partially removable portion 1046 of the side portion 1026. The access mechanism 1040 further comprises a gripping portion 1044. The gripping portion 1044 includes a thin material that defines a portion of the access mechanism 1040 that is shaped like a proximal end of the access mechanism 1040. FIG. 72 defines a gap sized to receive at least one finger of a user. The user can, for example, hold the grip 1044 by pressing it against the handle 1044. Grasp and peel portion 1046 of side 1026 apart, causing weakened boundary 942 to tear. Peeling away portion 1046 exposes filter element 1016 within body portion 1004 .

[0142] FIG. 73 illustrates a filter element 1016 that is particularly suitable for use with the access mechanism 1040 described above. The filter element 1016 has at least one side wall 1016 extending from a base wall 1020. 022 constitutes a basket defining a cavity 1025. shows opposing side walls 1022 separated by a top wall 1023 and a bottom wall 1025. The sidewall 1022 may define the porous feature 1018, or in other embodiments, the base wall 1022 may define the porous feature 1018. 1020 may similarly define porous features 1018. The filter element 1016 has a side A window 1050 is defined extending through at least one of the walls 1022. Window 1050 is shown consuming almost the entire top wall 1023. 50, when the filter element 1016 is disposed within the body portion 1004, the access mechanism 1 040, and more particularly, is aligned with the removable portion 1046. After permanently cutting accessor 1040 (e.g., peeling off portion 1046), After exposing the filter element 1016, the window 1050 allows light from within the filter element 1016 to pass through. In one example, the window is sized to allow for the collection of a tissue sample. The forceps are guided through the cavity 1025 of the filter element 1016 via the clamp 1050. This allows the tissue sample to be removed without the need to remove the filter element 1016 from the body portion 1004. can be recovered.

[0143] Referring now to FIG. 70, this shows another form of access mechanism 1040. The access mechanism 1040 includes at least one ring (shown as a ring) coupled to a gripping portion 1044. It includes a weakened boundary 1042 that is a partially removable portion 1046. By gripping the gripping portion 1044, the removable ring 1044 on the circumference of the main body portion 1004 is removed. Peeling tears the interface between the cap portion 1006 and the body portion 1004. When the cap portion 506 is separated from the main body portion 1004, a cap portion communicating with the cavity 1025 is formed. The aperture 1024 of the filter element 1016 is exposed. The forceps are guided within the cavity 1025 of the filter element 1016 to remove the filter. The tissue sample can be retrieved without having to remove element 1016 from body portion 1004 .

[0144] Figure 71 shows yet another form of access mechanism 1040. The access mechanism of Figure 71 The structure 1040 has a closed perimeter of a weakened boundary 1024 that defines a removable portion 1046. The closed periphery resides entirely within one of the side walls 1028 of the body portion 1004. The access mechanism 1040 may be attached to the removable portion 1026 (e.g., a ring). The user can manipulate the grip 1044 to move the side 102 6 portion 1046 is peeled away to cause the weakened boundary 942 to tear. The closed perimeter may allow for complete removal of the removable portion 1026. 73 with the window 1050 aligned with the closed perimeter disposed within. A similar filter element may be provided. Of course, the access mechanism may be the same as that described above. Whether or not the cap is of the type shown in FIGS. 69 to 71, the cap may be attached to the main body 1004. and / or on the section 1006.

[0145] Example clauses Article 1 Medical waste collection assembly with manifold receptacle and suction inlet a manifold for collecting tissue samples and configured to receive an aspiration line; an inlet fitting defining an inlet bore and adapted to be removably engaged with a manifold receiver; a housing configured to receive the manifold, and a manifold volume and a manifold receiving portion of the housing. configured to be in fluid communication with the suction inlet of the medical waste collection assembly when engaged with the vessel; and an outlet opening defined by the inlet hole, through which the suction passes through the manifold volume. a housing providing a suction path leading to the inlet; a tissue collection cavity and a porous membrane within the tissue collection cavity; a flow director defining a bypass channel separate from the tissue collection cavity; Upon receiving input from the laser, the porous mechanism is inside the suction path and the bypass channel is outside the suction path. a tissue collection location where the tissue collection cavity is in fluid communication with the inlet fenestrations so as to The tissue collection cavity is in fluid communication with an inlet hole in the aspiration path, and the tissue collection cavity is in fluid communication with a bypass hole outside the aspiration path. a flow director having a control surface configured to move the flow director between a stop position and a stop position; Equipped with a manifold.

[0146] Article 2 Medical waste collection assembly with manifold receptacle and suction inlet a manifold for collecting tissue samples, the manifold being detachably connected to a manifold receiver; a housing configured to be engaged with the inlet perforations and defining a manifold volume; a housing having an inlet fitting defining a bore and configured to receive a suction line; a housing for collecting medical waste when the housing is engaged with a manifold receptacle; by defining an outlet opening configured to be in fluid communication with the suction inlet of the assembly; a housing that provides a suction path from the inlet perforation through the manifold volume to the suction inlet; a filter element disposed in the housing in the suction path; a plurality of tissue collection cavities and a plurality of tissue collection cavities within each tissue collection cavity; A tray that defines a porous structure, and receives input from the user and rotates the tray around an axis. By rotating the porous feature, the tissue sample is collected in a suction path. configured to selectively align one of the tissue collection cavities with the entrance fenestrations. A manifold comprising: a tray having a control surface;

[0147] Clause 3. The tray further defines a bypass channel separate from the tissue collection cavity; rotates about an axis to allow fluid to flow through the aspiration path without collecting tissue samples; Clause 2, further configured to selectively align the bypass channel with the inlet perforation. The manifold according to claim 1.

[0148] Clause 4. The bypass channel includes a plurality of bypass channels, and a tissue collection cavity and 4. A manifold as claimed in claim 3, wherein the channels and bypass channels are angularly alternatingly arranged about the axis. Do.

[0149] Clause 5: The tissue collection cavity and bypass channel are equally angularly spaced about the axis. 5. A manifold as described in clause 4.

[0150] Clause 6: The tray further comprises a plurality of lenses arranged circumferentially around the control surface, Each of the lenses is aligned with one of the tissue collection cavities and 3. The method of claim 2, wherein the molded body is molded to provide an expansion in one of the collection cavities. Nifold.

[0151] Clause 7: The housing is adapted to provide expansion in one of the tissue collection cavities. 3. The manifold of claim 2, further comprising a lens positioned on the

[0152] Clause 8 The housing further comprises a cap portion and a body portion connected to the cap portion. a manifold as described in clause 2, wherein the tray is positioned adjacent to the face plate of the cap portion. Rudo.

[0153] Clause 9 One of the cap portion and the body portion is fixed so that the cap portion can rotate relative to the body portion. 9. The manifold of claim 8, comprising an orienting mechanism configured to determine

[0154] Clause 10: The cap portion includes an opening through which the control surface is operated. 9. A manifold as described in clause 8, comprising:

[0155] Clause 11. A carrier defining a cavity sized to removably receive a tray. Clause 2 further comprises a carrier, the carrier being a body and removably coupled to the housing. The manifold according to claim 1.

[0156] Clause 12: A biocompatible device in which the housing is configured to removably receive a suction line. A pass inlet fitting that allows fluid channels to bypass the tray without fluid communication with the tissue collection cavity. 3. The manifold of claim 2, further comprising a bypass inlet fitting defining a channel.

[0157] Clause 13: The housing is connected to a cap portion having an inlet fitting and a cap portion. 10. The manifold of claim 1, further comprising a body portion.

[0158] Clause 14: Medical waste collection assembly having a manifold receptacle and a suction inlet. a manifold for collecting tissue samples from a cap portion including a cap face plate; an inlet fitting configured to receive the suction line and the inlet fitting defining an inlet bore; and a cap portion rotatably fixed to the cap portion to integrally define a manifold volume. a body portion configured to be removably engaged with a manifold receiver; a medical waste collection assembly having a suction inlet that is in fluid communication with the suction inlet when engaged with the hold receptacle; By defining an outlet opening configured so as to allow the inlet bore to pass through the manifold volume. a body portion providing a suction path leading to a suction inlet; and a small amount of air within the body portion in the suction path. a filter element at least partially disposed in the cap portion; and a cap face plate disposed adjacent to the cap portion. defining a plurality of tissue collection cavities and a porous feature for each of the tissue collection cavities; a bypass channel separate from the tray and tissue collection cavity, of the tissue collection cavity so that the mechanism is in the suction path to collect the tissue sample. a tissue collection location, one in fluid communication with the inlet perforation, and a tray for collecting tissue samples; A bypass channel is formed in the suction path between the inlet perforation and the flow path so that fluid can flow through the suction path. a bypass position in which the manifold is in fluid communication with the main body;

[0159] Clause 15: A tray is rotatably coupled to the housing and receives input from a user. By rotating the cap and body parts around the axis, the tissue collection position and the back Clause 14 configured to selectively switch the manifold between a bypass position and a bypass position. The manifold according to claim 1.

[0160] Clause 16 The cap portion is removably coupled to the tray, thereby A manifold as described in clause 14, providing access to the collection cavity.

[0161] Clause 17 Medical waste collection assembly having a manifold receptacle and a suction inlet A manifold for collecting tissue samples from a tissue sampler, the manifold having a front and a rear portion. a manifold defining a manifold volume and including an inlet fitting at a front portion of the housing; Also, the manifold is configured with an inlet fitting adapted to removably receive a suction line. and defining an inlet bore in fluid communication with the housing volume and further defining an outlet opening at a rear of the housing. and a medical waste collection system when the housing is engaged with a manifold receiver. The inlet bore is in fluid communication with the suction inlet of the collection assembly, and the suction inlet is passed through the manifold volume. a housing configured to provide a suction path leading to the mouth; a filter element disposed within the housing, the housing being in fluid communication with the manifold volume; and oriented on an axis angled away from the longitudinal axis of the housing. a filter element further defining an auxiliary sleeve and removably positionable within the auxiliary sleeve; a tissue collection cavity and a porous tissue collection cavity; A tray defining a porous mechanism, the porous mechanism being within a suction path for collecting tissue samples. When the tray is seated within the auxiliary sleeve so that the tissue collection cavity is A manifold having a tray leading to the front of the hold.

[0162] Clause 18: The housing is a distal barrier that at least partially defines an auxiliary sleeve. , which provides expansion within the tissue collection cavity when the tray is seated within the auxiliary sleeve. 18. The manifold of claim 17 further comprising a distal barrier having a lens configured as follows: Rudo.

[0163] Clause 19: A tray comprising: a control surface configured to receive input from a user; a sealing surface configured to sealingly engage the housing when received within the auxiliary sleeve; 18. The manifold of clause 17, further comprising:

[0164] Clause 20: The auxiliary sleeve is angled proximally away from the front of the housing. 18. The manifold of claim 17, oriented on a curved axis.

[0165] Clause 21 Inlet bore angled distally and upwardly relative to the longitudinal axis of the housing 18. The manifold of clause 17, oriented on an axis.

[0166] Clause 22. The valve assembly further comprises a valve coupled to the housing and positioned within the auxiliary sleeve. , a manifold as described in clause 17.

[0167] Clause 23: The tray is secured by being surmountably engaged with a complementary retaining feature on the housing. and a retention mechanism configured to facilitate retention of the tray within the auxiliary sleeve. 18. A manifold as described in clause 17,

[0168] Clause 24: The housing includes a body portion having a filter element at least partially disposed therein. a cap portion coupled to the body portion and having an inlet fitting; and Permanently disconnect the manifold to access the filter element inside the body. and an access mechanism configured on the manifold.

[0169] Clause 25 An access mechanism is provided that is coupled to the vulnerable boundary and receives user input. and configured to tear the weakened boundary to access the filter element within the body portion. 25. The manifold of claim 24, further comprising a gripping portion.

[0170] Clause 26: The filter element includes at least one side wall extending from the base wall and a filter element extending through the side wall. a porous feature extending through the sidewall and aligned with the access feature, the porous feature extending through the sidewall and aligned with the access feature, the manifold After permanently disconnecting and accessing the filter element, tissue samples from within the filter element are removed. and a window sized to allow for the recovery of the pull, as described in clause 25. The manifold is mounted.

[0171] Clause 27 Medical waste collection assembly having a manifold receptacle and a suction inlet A manifold for collecting tissue samples from a tissue sampler, the manifold having a front and a rear portion. a manifold defining a manifold volume and including an inlet fitting at a front portion of the housing; Also, the manifold is configured with an inlet fitting adapted to removably receive a suction line. and defining an inlet bore in fluid communication with the housing volume and further defining an outlet opening at a rear of the housing. and a medical waste collection system when the housing is engaged with a manifold receiver. The inlet bore is in fluid communication with the suction inlet of the collection assembly, and the suction inlet is passed through the manifold volume. a housing configured to provide a suction path leading to the mouth; a filter element disposed within the housing, the housing being in fluid communication with the manifold volume; a filter element and a tissue collection cavity, further comprising a distal barrier defining an auxiliary sleeve. and a porous mechanism within the tissue collection cavity, the porous mechanism being removably disposed within an auxiliary sleeve. a tray configured to be disposed in a suction path, the distal barrier being configured to When the tray is disposed within the auxiliary sleeve, the assembly is performed to collect tissue samples. a tray having a lens shaped to provide magnification within the collection cavity; Equipped with a manifold.

[0172] Clause 28: An auxiliary sleeve engages a complementary orientation feature on the tray to provide a predetermined orientation relative to the distal barrier. The tray may further include an orientation mechanism configured to position the tray within the auxiliary sleeve in the orientation 28. A manifold as claimed in clause 27,

[0173] Clause 29 Medical waste collection assembly having a manifold receptacle and a suction inlet a manifold for collecting tissue samples and configured to receive an aspiration line; a cap portion having an inlet fitting attached thereto, and a manifold volume integrally formed by connecting the cap portion to the inlet fitting. a body portion generally defining a manifold receiver, the body portion configured to be removably engaged with the manifold receiver; and connects the suction inlet and flow outlet of the medical waste collection assembly when engaged with the manifold receiver. and defining an outlet opening configured to communicate the inlet fitting with the manifold. a body portion providing a suction path through the cavity volume to a suction inlet; a filter element at least partially disposed within the body portion and the cap portion; At least one of the manifolds may be permanently disconnected upon user input. a manifold having an access mechanism configured to allow access to the filter element; World.

[0174] Clause 30 An access mechanism is coupled to the vulnerable boundary and receives user input. 29. The machine of claim 28, further comprising a gripping portion configured to tear the weakened boundary by Nifold.

[0175] Clause 31 A weakened boundary is connected to one of the body portion and the cap portion, and the cap portion and the body Clause 30, wherein the removable ring is configured to tear the interface between the Manifold.

[0176] Clause 32 The weakened boundary further includes a closed perimeter within the body and the tear occurs along the closed perimeter. 31. The manifold of claim 30, formed of a thin material so as to

[0177] Clause 33: The filter element comprises at least one side wall extending from a base wall and at least one a porous feature extending through the sidewall of the access mechanism; and a porous feature extending through the sidewall and aligned with the access mechanism. , permanently disconnecting the manifold to access the filter element, and then a window sized to allow for the collection of a tissue sample from within the , a manifold as described in clause 29.

[0178] Clause 34. A device configured to be removably coupled to the manifold and A collection cavity and a porous mechanism within the tissue collection cavity are defined, the porous mechanism being positioned within the suction path. The method further comprises: Item 30. The manifold according to item 29.

[0179] Clause 35 Medical waste collection assembly having a manifold receptacle and a suction inlet a manifold for collecting tissue samples from the tissue sample collection manifold, the manifold being detachable from the manifold receiver; a housing configured to be engaged with a manifold receiver and the housing When the gasket is engaged in the manifold receptacle, the medical waste collection assembly has a suction inlet and a flow outlet. The bypass channel defines an outlet opening configured to communicate with the body. a housing having a support frame defining a support sleeve separate from the housing; a filter element disposed within the tissue collection cavity; A tray defining the porous structure, removably disposed within an auxiliary sleeve of the support frame. a tray sized to be mounted on the support frame and slidably coupled to the support frame; an inlet defining an inlet bore and configured to removably receive a suction line; The sliding member has a joint, and upon receiving input from the user, the porous mechanism is connected to the suction path. When the tray is disposed within the auxiliary sleeve, the inlet The inlet bore of the fitting is in fluid communication with the tissue collection cavity, and the tray is configured to receive the tissue sample. The inlet perforations of the inlet fitting are fluidly connected so that fluid can flow through the suction path without collecting pull. a control surface configured to move the sliding member between a bypass position and a bypass position, A manifold comprising:

[0180] Clause 36: The sliding member is configured to slide the tray into the auxiliary sleeve, and the sliding member is configured to slide the tissue collection device. The tray is shaped to provide expansion within the tissue collection cavity when in position. 36. The manifold of claim 35, further comprising:

[0181] Clause 37 The support frame further comprises opposite sides separated by a front face and an auxiliary sleeve. Clause 3: A bypass channel extends inward from one of the opposing sides. 6. The manifold according to claim 5.

[0182] Clause 38: The sliding member engages a complementary tracking feature on the support frame to move relative to the support frame. a tracking mechanism configured to limit the movement of the sliding member to one degree of freedom; A manifold as described in clause 35.

[0183] Clause 39: The tray comprises a front wall separated by opposing side walls opposite a rear wall, and a porous mechanism. and a base portion including a front wall configured to contact the inlet of the inlet fitting when the sliding member is in the tissue collection position. 36. The manifold of claim 35, including a notch configured to align with the port perforation. Rudo.

[0184] Clause 40: The tray base further comprises an inclined surface sloping upward toward the rear wall. Item 39. The manifold according to item 39.

[0185] Article 41 - Collecting tissue samples by means of a manifold for medical waste collection assemblies wherein the manifold comprises a housing defining a manifold volume, an outlet opening, and a complementary a support frame defining an auxiliary sleeve and a bypass channel separate from the auxiliary sleeve; and a manifold including a filter element disposed within the housing and a support frame. a slide member slidably coupled to the tissue and including an inlet fitting defining an inlet bore; a tissue collection cavity and a tissue collection cavity positionable within the tissue collection cavity; and a tray defining a porous feature therein, the outlet opening configured to receive medical waste. A manifold is attached to the medical waste collection assembly so as to be in fluid communication with the suction inlet of the waste collection assembly. a suction line to the inlet fitting; and a sliding member , the tray is attached to the inlet fitting so that fluid can flow through the aspiration path without collecting tissue samples. The medical waste collection access valve is positioned with the inlet perforation in a bypass position in fluid communication with the bypass channel. and applying an input to the control surface to move the porous material from the bypass position. The inlet bore of the inlet fitting is in fluid communication with the tissue collection cavity so that the mechanism is in the suction path. moving the sliding member to a tissue collection position; and and operating the medical waste collection assembly to collect the tissue sample. ,method.

[0186] Clause 42 further comprising applying another input to the control surface to return the sliding member to the bypass position. 42. The method according to clause 41, including:

[0187] Clause 43: The sliding member further comprises a lens shaped to provide magnification, observing the tissue collection cavity through the lens when the material is in the tissue collection position. The method of clause 41 further comprising:

[0188] Clause 44 Sliding member in bypass position to remove tray from auxiliary sleeve 42. The method of claim 41, further comprising the step of:

[0189] Clause 45 With the sliding member in the bypass position, another tray may be inserted in the auxiliary sleeve of the sliding member. 45. The method of clause 44, further comprising the step of replacing the

[0190] Clause 46. The method of claim 46, further comprising applying an input to a control surface to move a sliding member to a tissue collection position. 42. The method of claim 41, further comprising applying a lateral force to the control surface in a first linear direction. method.

[0191] Article 47 Applying another lateral force to the control surface in a second linear direction opposite to the first linear direction 46. ​​The method of claim 45, further comprising returning the sliding member to a bypass position.

[0192] Clause 48 Medical waste collection assembly having a manifold receptacle and a suction inlet a manifold for collecting tissue samples from the tissue sample collection manifold, the manifold being detachable from the manifold receiver; a housing configured to be engaged with the suction a stage having an inlet fitting configured to receive a line and defining an inlet bore; a housing having a manifold receiving portion, the housing being engaged with the manifold receiving portion; an outlet opening configured to be in fluid communication with the suction inlet of the medical waste collection assembly when By defining the suction path from the inlet bore through the manifold volume to the suction inlet, a housing providing a suction path; and a filter element disposed within the housing in the suction path. and a tissue collection cavity and a tissue collection device rotatably disposed within the stator. The rotor defines the porosity within the cavity, and receives input from the user to By rotating the device, the porous structure becomes part of the suction path and collects the tissue sample. a control configured to selectively establish fluid communication between the inlet fenestrations and the tissue collection cavity; A rotor having a control surface and a manifold.

[0193] Clause 49: The rotor further defines a bypass channel separate from the tissue collection cavity. , the control surface receives input from a user and rotates the rotor within the stator, Inlet perforations and bypass channels to allow fluid to flow through the aspiration pathway without collecting tissue samples. 49. The manifold of claim 48, further configured to selectively establish fluid communication between Rudo.

[0194] Clause 50: The stator is configured to perform tissue collection when the bypass channel of the rotor is in the suction path. and a sidewall defining a window positioned to align with the cavity. 49. A manifold as described in clause 48, comprising:

[0195] Clause 51. The sidewall of the stator further comprises a lens shaped to provide magnification; Positioning the tissue collection cavity so that it is aligned with the lens when in the aspiration path 51. A manifold as described in clause 50.

[0196] Clause 52: The rotor further comprises a cylindrical outer wall, the tissue collection cavity and the bypass chamber. 49. A manifold as described in clause 48, wherein each of the channels is defined between two openings in the outer wall. .

[0197] Clause 53 Medical waste collection assembly having a manifold receptacle and a suction inlet a manifold for collecting tissue samples from the tissue sample collection manifold, the manifold being detachable from the manifold receiver; a housing configured to be engaged with the suction an inlet fitting configured to receive a line and extending therethrough; a housing having a stator defining a bore, the housing being a manifold; configured to be in fluid communication with the suction inlet of the medical waste collection assembly when engaged with the receptacle a housing rotatably disposed within the stator and defining an outlet opening formed therein; a tissue collection cavity and a porous structure within the tissue collection cavity for receiving a tissue sample; and defining a bypass channel separate from the tissue collection cavity. a rotor, the porous mechanism being in a suction path to collect the tissue sample. a tissue collection location where the collection cavity is in fluid communication with the inlet perforation and where aspiration is performed without collection of the tissue sample; a bypass position where the bypass channel is in fluid communication with the inlet perforation to allow fluid to flow through the pathway; a manifold configured to operate on one of the

[0198] Clause 54: The rotor comprises an outer wall, the tissue collection cavity and the bypass channel being disposed therein. 54. A manifold as set forth in clause 53, each defined between two openings in the side wall.

[0199] Clause 55: The rotor receives input from a user to move between a tissue collection position and a bypass position. and a control surface configured to switch the manifold to operate at Also, a manifold as described in clause 53.

[0200] Clause 56: The stator is configured to operate the manifold in a bypass position to allow circulation of tissue samples. When the tissue collection cavity is opened, the tissue collection cavity is aligned with the tissue collection cavity. a sidewall defining a window positioned to expose the tee. 54. The manifold of claim 53.

[0201] Clause 57 The stator further comprises a lens shaped to provide magnification, When the nifold is operated in the tissue collection position, it is aligned with the tissue collection cavity. 54. A manifold as defined in clause 53, positioned as follows:

[0202] Article 58 - Collecting tissue samples by means of a manifold for medical waste collection assemblies The manifold is a hybrid valve that defines a manifold volume, an outlet opening, and a stator. A filter manifold having a housing and an inlet fitting is disposed within the housing. an element; and a rotor rotatably disposed within the stator and having a control surface. a medical waste collection assembly having a medical waste collection system, the medical waste collection system comprising: a medical waste collection assembly having a medical waste collection system and a medical waste collection system; and connecting the suction line to the inlet of the medical waste collection assembly. coupling to the fitting to provide a suction path from the inlet bore of the inlet fitting to the suction inlet; and a manifold, a bypass channel defined in the rotor is in the suction path, and the rotor The tissue collection cavity defined within the medical disposal device is in a bypass position where it is not in the suction path. operating the object collection assembly and actuating the control surface to move the assembly from the bypass position. The tissue collection cavity is in the aspiration path and the bypass channel is removed from the aspiration path. rotating the rotor within the stator to a collection position, and rotating the manifold to the tissue collection position. and operating the medical waste collection assembly in the state of and collecting a tissue sample by

[0203] Clause 59 After collection of the tissue sample, actuate the control surface to return the rotor to the bypass position. 59. The method of clause 58, further comprising the step of:

[0204] Clause 60: While the rotor is in the bypass position, a tissue sample is removed from the tissue collection cavity. 60. The method of clause 59, further comprising the step of recovering.

[0205] Clause 61: The stator has side walls defining windows and actuates control surfaces to control the rotor. Returning the tissue collection cavity to the bypass position aligns the tissue collection cavity with the window of the stator. This exposes the tissue collection cavity and the window in the stator. and recovering the tissue sample from the exposed tissue collection cavity through the tissue collection cavity. , the method described in clause 59.

[0206] Clause 62: The stator further comprises a lens shaped to provide magnification, and the rotor and observing the tissue collection cavity through the lens when the tissue collection cavity is in the tissue collection position. 59. The method according to clause 58, including:

[0207] Clause 63: The step of retrieving the tissue sample from the tissue collection cavity is performed by the device. 61. The method of clause 60, further comprising scrubbing the porous feature to expel the tissue sample.

[0208] Clause 64 Actuating the control surface to move the rotor from the bypass position to the tissue collection position 59. The method of claim 59, wherein the steps further include rotating the control surface in a first rotational direction. method.

[0209] Clause 65: The step of actuating the control surface to return the rotor to the bypass position comprises: 65. The method of claim 64, further comprising rotating the control surface in a second rotational direction opposite the first rotational direction. Law.

[0210] Clause 66 Medical waste collection assembly having a manifold receptacle and a suction inlet a manifold for collecting tissue samples from the tissue sample collection manifold, the manifold being detachable from the manifold receiver; a housing configured to be engaged with the manifold volume and the manifold volume; a secondary sleeve in fluid communication with the tissue collection channel; and a barrier separate from the tissue collection channel. a manifold receiving manifold for receiving a medical waste stream when the housing is engaged with the manifold receiving manifold; a housing defining an outlet opening configured to be in fluid communication with the suction inlet of the collection assembly; a filter element disposed within the housing, the filter element being rotatable relative to the housing; an inlet fitting configured to receive a suction line and defining an inlet bore; a tray configured to be removably positioned within a support tray; a tissue collection cavity and a multi-layered tissue collection passageway that communicate with the tissue collection cavity when positioned within the sleeve; a tray defining a porous feature; and, upon receiving input from a user, the tray being moved within the auxiliary sleeve. a tissue collection channel, the inlet perforations communicating with the tissue collection channel and the porous feature when positioned; and a bypass configuration in which the inlet bore communicates with the bypass channel. and a control surface configured to

[0211] Clause 67: The housing is positioned to provide expansion within the tissue collection cavity. 67. The manifold of claim 66, further comprising a lens.

[0212] Clause 68: The housing further includes a second auxiliary sleeve in fluid communication with the manifold volume. wherein the manifold is removably positioned within a second auxiliary sleeve; a second tray defining a second tissue-collecting cavity and a second porous feature; Also, a manifold as described in clause 66.

[0213] Clause 69 The first auxiliary sleeve and the second auxiliary sleeve are arranged in opposite diametric directions of the housing. 69. A manifold as described in clause 68 positioned in pairs.

[0214] Clause 70. The housing is configured to removably receive a separate suction line. a bypass inlet fitting for allowing fluid to bypass the tray without being in fluid communication with the tissue collection cavity; Clause 67. A manifold as set forth in clause 66, further comprising a bypass inlet fitting defining a channel. .

[0215] Clause 71 Medical waste collection assembly having a manifold receptacle and a suction inlet a manifold for collecting tissue samples from the tissue sample collection manifold, the manifold being detachable from the manifold receiver; a housing configured to engage with the manifold volume; a manifold receptacle in fluid communication with the suction inlet of the medical waste collection assembly when engaged with the manifold receptacle; a housing defining an exit opening configured to allow the fluid to pass therethrough; a filter element movable relative to the housing and adapted to receive the first suction line; a first inlet fitting defining a first inlet bore; and a housing fixed to the first inlet fitting. a second inlet configured to receive the first suction line and defining a first inlet bore; a second inlet bore, the first and second inlet bores being in fluid communication with the manifold volume, respectively; a tray configured to be removably coupled to the housing; a tissue collection tray that communicates with the tissue collection passage when the tray is positioned within the auxiliary sleeve; a tray defining a cavity and a porous feature; and a tray defining a cavity and a porous feature; a tissue collection device, the first inlet perforation communicating with the porous feature when the device is positioned within the auxiliary sleeve; a first inlet connection between the assembly configuration and a bypass configuration in which the first inlet perforations do not communicate with the porous feature; a control surface configured to move a hand.

[0216] Clause 72. The method of claim 72, wherein the second inlet perforation is in fluid communication with the tissue collection cavity in the tissue collection configuration. Not, manifolds as described in clause 71.

[0217] Clause 73. The housing further defines an auxiliary sleeve in fluid communication with the manifold volume. and wherein the tray is configured to be removably positioned within the auxiliary sleeve. 71. A manifold as described in 71.

[0218] Clause 74 Medical waste collection assembly having a manifold receptacle and a suction inlet a manifold for collecting tissue samples from the tissue sample collection manifold, the manifold being detachable from the manifold receiver; a housing configured to engage the manifold volume, the opening, and the opening a bypass opening separate from the manifold receiving portion and a bypass opening that opens when the housing is engaged with the manifold receiving portion; an outlet opening configured to be in fluid communication with the suction inlet of the medical waste collection assembly; a housing, a filter element disposed within the housing, and a filter element rotating relative to the housing; a first inlet bore configured to receive the first suction line; The first inlet fitting is rotatable relative to the housing and adapted to receive the second suction line. a second inlet fitting defining a second inlet bore; and a second inlet fitting configured to receive input from a user. The first inlet perforation communicates with the opening, and the second inlet perforation communicates with one of the bypass openings. a tissue collection configuration in which the first inlet fenestrations and the second inlet fenestrations each have separate bypass openings; a bypass arrangement in communication with the first inlet fitting and the second inlet fitting; and a control surface configured as follows:

[0219] Clause 75: The housing further defines an auxiliary sleeve in communication with the manifold volume; Clause 74. The tray is configured to be removably positioned within the auxiliary sleeve. The manifold according to claim 1.

[0220] Clause 76. The manifold of clause 75, wherein the tissue collection cavity of the tray is in communication with the opening. hold.

[0221] Clause 77 The housing further comprises an orienting mechanism in the auxiliary sleeve, and the tray is and a releasably engageable structure to allow coupling of the tray with the housing in a single orientation. 67. The manifold of clause 66, further comprising a complementary orientation mechanism configured to:

[0222] Clause 78: The orientation feature on the housing is a tab and the complementary orientation feature on the tray is a tab that extends from the side. The manifold of clause 77, wherein the rail is configured to extend and movably engage the tab. hold.

[0223] Clause 79 A manifold for collecting tissue samples through a suction line, the manifold comprising: a manifold volume configured to be in fluid communication with the manifold volume and in fluid communication with the suction line; an inlet bore formed in the manifold; an auxiliary sleeve in fluid communication with the manifold volume; and an auxiliary sleeve in fluid communication with the suction source. The suction path extends from the suction line through the auxiliary sleeve and manifold volume. a housing defining an outlet opening configured to provide a suction path; a filter element disposed within the cavity; a tissue collection cavity; a tray defining a porous structure within the tray, the porous structure being in a suction path for guiding the tissue sample therethrough; a tray configured to be removably positioned within the auxiliary sleeve in a collecting state; and a check valve in the suction path between the tray and the filter element. World.

[0224] Clause 80: The housing has a first end communicating with an auxiliary sleeve and a manifold volume. a transition perforation having a second end communicating with the second end of the transition perforation, the anti-reflux valve selectively covering the portion to allow waste to flow from the auxiliary opening to the manifold volume; A manifold as described in clause 79.

[0225] Clause 81 The housing has a bypass perforation in fluid communication with the outlet opening that bypasses the auxiliary sleeve. The hole may further define a passage extending from the bypass bore through the manifold volume to the outlet opening. a bypass suction path leading to the second end of the transition bore and the bypass; 81. The manifold of claim 80, wherein the manifold selectively covers ends of the perforations.

[0226] Clause 82. A manifold as claimed in clause 81, wherein the check valve is a flapper valve unit. .

[0227] Clause 83: A flapper valve unit includes a first flapper valve selectively covering a second end of the transition bore. 83. The method of claim 82, further comprising: Manifold.

[0228] Clause 84 The housing further comprises a cap portion and a body portion coupled to the cap portion. wherein the cap portion at least partially defines a manifold volume with the body portion. a cap face plate, a transition perforation extending through the cap face plate, and a check valve disposed on the cap A manifold as described in clause 81 coupled to a face plate.

[0229] Clause 85: The housing defines a bypass bore and receives a separate suction line. a bypass joint connected to a cap face plate; 8. A manifold as described in clause 84,

[0230] Clause 86: A manifold for collecting tissue samples through a suction line, the manifold comprising: a manifold volume configured to be in fluid communication with the manifold volume and in fluid communication with the suction line; an inlet bore formed in the manifold; an auxiliary sleeve in fluid communication with the manifold volume; and an auxiliary sleeve in fluid communication with the suction source. The suction path extends from the suction line through the auxiliary sleeve and manifold volume. and an outlet opening configured to provide a housing having a body portion and a cap portion coupled to the first portion and at least partially defining a manifold volume; a cap portion including a cap face plate oriented on the axis of the cap portion; and an auxiliary slide coupled to the cap face plate. an upper barrier at least partially defining the rib and a second barrier angled relative to the first axis; a housing having an upper barrier and a tissue collection cavity and a a tray defining a porous structure within the tissue collection cavity, the porous structure being in contact with a suction path; and removably positioned within the auxiliary sleeve in a condition for collecting a tissue sample. A manifold comprising a tray configured as follows.

[0231] Clause 87 A lever connected to the upper barrier and shaped to provide expansion within the auxiliary sleeve. 87. The manifold of claim 86, further comprising:

[0232] Clause 88: The method further comprises providing a filter element disposed within the manifold volume and in the suction path. 86. A manifold as claimed in claim 86,

[0233] Clause 89 The housing has an auxiliary opening leading to an auxiliary sleeve, and the auxiliary sleeve is proximal a distal end of the manifold, the distal end defining an auxiliary opening for distal orientation; 86. A manifold as defined in clause 86.

[0234] Clause 90: The housing is an inlet fitting defining an inlet bore and adapted to receive a suction line. and an inlet fitting sized so that, when the inlet fitting is coupled to the upper barrier, 89. A manifold as described in clause 89, both extending upwardly from the upper barrier.

[0235] Clause 91 The housing has an auxiliary opening leading to an auxiliary sleeve, and the auxiliary sleeve is provided on the side a side end of the manifold defining an auxiliary opening oriented toward the 86. The manifold according to claim 86.

[0236] Clause 92: The housing is an inlet fitting defining an inlet bore and adapted to receive a suction line. and an inlet fitting sized so that, when the inlet fitting is coupled to the upper barrier, Clause 91, both extending distally from the upper barrier and defining the distal end of the manifold. The manifold according to claim 1.

[0237] Clause 93: The housing is connected to the cap faceplate and has an outlet opening bypassing the auxiliary sleeve. The bypass fitting may further define a bypass bore in fluid communication with the bypass. Provides a bypass suction path from the bypass perforations through the manifold volume to the outlet opening , a manifold as described in clause 86.

[0238] Clause 94 A manifold for collecting tissue samples through a suction line, the manifold comprising: a manifold volume configured to be in fluid communication with the manifold volume and in fluid communication with the suction line; an inlet bore formed in the manifold; an auxiliary sleeve in fluid communication with the manifold volume; and an auxiliary sleeve in fluid communication with the suction source. The suction path extends from the suction line through the auxiliary sleeve and manifold volume. an outlet opening configured to provide a housing defining an inlet bore; an inlet fitting, the inlet fitting being oriented on a first axis in a proximal-distal direction; a housing in which the spring is disposed about a second axis perpendicular to the first axis so as to be laterally oriented; and a tray defining a tissue collection cavity and a porous feature within the tissue collection cavity. and in the auxiliary sleeve with the porous mechanism in the suction path to collect the tissue sample. A manifold comprising: a tray configured to be removably positioned.

[0239] Clause 95. The method according to claim 9, further comprising: A manifold as described in clause 94.

[0240] Clause 96 A manifold for collecting tissue samples through a suction line, the manifold a manifold volume configured to be in fluid communication with the manifold volume and in fluid communication with the suction line; and an inlet bore formed in the manifold volume, the inlet bore being in fluid communication with the suction source to allow the suction line to pass through the manifold volume. a housing defining an exit opening configured to provide a suction path leading to the tissue collection device; a tray defining a tissue collection cavity and a porous feature in communication with the tissue collection cavity. a tray configured to be removably coupled to the housing; a filter element disposed within the housing, the housing being configured to accommodate the filter element. Removably attached caps allow access and tissue sample collection a manifold having a nozzle portion and a body portion.

[0241] Article 97 The cap and body parts are detachable, respectively. 97. The manifold of claim 96, comprising a complementary coupling mechanism for coupling to a functional group.

[0242] Clause 98 Complementary coupling features are configured to releasably engage with each other by interference engagement. 97, with at least one key and at least one keyway formed therein. manifold.

[0243] Clause 99 At least one key and at least one keyway shall be provided for three keys and 99. A manifold as described in clause 98, including three keyways.

[0244] Clause 100 At least one keyway connects an insert portion and a locking portion communicating with the insert portion. 99. The manifold of claim 98, wherein the insertion portion is wider than the locking portion.

[0245] Clause 101: A manifold for collecting tissue samples through a suction line, comprising: a hold volume in fluid communication with the manifold volume and in fluid communication with the suction line; an inlet bore configured and an auxiliary opening leading to an auxiliary sleeve in fluid communication with the manifold volume; and in fluid communication with the suction source, from the suction line through the auxiliary sleeve and manifold volume. and an outlet opening configured to provide a first suction path leading to the outlet opening. a housing having a positioning mechanism disposed within the auxiliary sleeve; a control surface; A tray having a sealing surface coupled to a control surface, a base, and sides coupled to the base. The base and sides extend from the sealing surface and define a tissue collection cavity and a base. a tray defining a porous feature, wherein a control surface of the tray receives input from a user. By moving the sealing surface away from the portion of the auxiliary opening near the lower barrier, the tray base and auxiliary the auxiliary opening through a gap between the auxiliary sleeve and the lower wall of the housing, which defines the auxiliary sleeve; a manifold configured to provide and position a second suction path leading to the

[0246] Clause 102: A manifold for collecting tissue samples through a suction line, comprising: a hold volume in fluid communication with the manifold volume and in fluid communication with the suction line; an inlet bore configured and an auxiliary opening leading to an auxiliary sleeve in fluid communication with the manifold volume; and in fluid communication with the suction source, from the suction line through the auxiliary sleeve and manifold volume. and an outlet opening configured to provide a first suction path leading to the outlet opening. a housing having a positioning mechanism disposed within the auxiliary sleeve; a sealing surface; a base; and a side coupled to the base, wherein the base and the side are spaced apart from the sealing surface. a tray extending from the base and defining a tissue collection cavity and a porous feature within the base; and wherein the tray comprises: (i) a sealing surface sealing the auxiliary opening; and (ii) a tissue collection cavity (iii) a base and / or The tray base and the auxiliary sleeve are aligned such that the tray base and the auxiliary sleeve engage the locating mechanism in the auxiliary sleeve. The housing and the removable barrier are provided with a gap between the housing and the lower barrier defining the gap. a manifold configured to be coupled to the power supply.

[0247] The above description is not intended to be exhaustive or to limit the present invention to any particular form. The terminology used is intended to be in the nature of words of description rather than of limitation. Many modifications and variations are possible in light of the above teachings, and the present invention may be practiced in accordance with the specific embodiments described. Implementations other than those shown may be made.

Claims

1. a manifold for collecting tissue samples through a suction line, a manifold volume; and a fluid communication line in fluid communication with the manifold volume. an inlet bore configured to allow the manifold volume to be in fluid communication with the auxiliary sleeve; an auxiliary opening in fluid communication with a suction source for connecting the suction line to the auxiliary sleeve and an outlet opening configured to provide a first suction path leading through the manifold volume; and a housing defining the auxiliary sleeve, the housing including a positioning mechanism disposed within the auxiliary sleeve. The housing and a control surface, a sealing surface coupled to the control surface, a base, and a spring coupled to the sealing surface together with the base. a side portion coupled to the base and extending from the base to define a tissue collection cavity; and a porous feature, (i) the sealing surface seals the auxiliary opening, and (ii) ii) the tissue collection cavity is positioned within the auxiliary sleeve and the inlet (iii) the base and / or the side are connected to the auxiliary sleeve; The housing that engages the positioning mechanism and defines the base and auxiliary sleeve of the tray. a lower barrier of the housing, the lower barrier being removably coupled to the housing to provide a gap between the lower barrier and the lower barrier of the housing; a tray configured to be Equipped with The control surface of the tray receives input from a user and adjusts the auxiliary barrier adjacent to the lower barrier. By moving the sealing surface away from the opening, the base and the auxiliary sleeve of the tray can be easily and a lower wall of the housing defining a cavity through the gap between the lower wall and the auxiliary opening. a manifold configured to provide and position a second suction path from the manifold to the outlet opening; Rudo.

2. The housing has a first end within the lower barrier and communicates with the manifold volume. The manifold of claim 1 further defining a bore having a second end.

3. The positioning mechanism further defines the gap between the positioning mechanism and the base of the tray.

3. The manifold of claim 1 or 2, further comprising a plateau defining a flange.

4. The tray further includes feet extending from the base in a direction opposite the tissue collection cavity. the foot portion is adjacent to the plateau when the tray is coupled with the housing.

4. The manifold of claim 3, wherein the manifold is positioned such that the

5. The housing further comprises an orientation mechanism within the auxiliary sleeve, and the tray An orienting mechanism is removably engaged to align the housing of the tray in only one relative orientation.

5. The method of claim 1, further comprising: providing a complementary orientation mechanism configured to enable coupling with a 10. The manifold according to claim 1,

6. The orientation feature on the housing is a groove, and the complementary orientation feature on the tray is 6. The manifold of claim 5, wherein the rails extend from the sides.

7. a gripping portion that defines the control surface when the sealing surface is firmly coupled thereto, a retainer configured to pivot the sealing surface away from the portion of the auxiliary opening, 7. The manifold of any one of claims 1 to 6.

8. The gripping portion includes a first portion and a second portion extending from the sealing surface, and the first The user pinches the first part and the second part, and the first part is attached to the second part. and pivoting the sealing surface away from the portion of the auxiliary opening. The manifold of claim 7 configured to:

9. The sealing surface comprises a resiliently flexible material and is pivotable from the portion of the auxiliary opening. The manifold of claim 7 configured for flexion separation.

10. The manifold of claim 3 wherein said trough extends to and defines a portion of said auxiliary opening. Do.

11. a first suction path and a second suction path disposed within the housing; The manifold of claim 1 further comprising a filter element.

12. The housing is attached to the auxiliary sleeve with the inlet bore engaged and extending distally.

11. The method of claim 1 further comprising an upper barrier at least partially defining the recess.

2. The manifold of claim 1.

13. a lens coupled to the upper barrier and shaped to provide expansion within the auxiliary sleeve; The manifold of claim 12 further comprising a nozzle.

14. a manifold for collecting tissue samples through a suction line, a manifold volume; and a fluid communication line in fluid communication with the manifold volume. an inlet bore configured to allow the manifold volume to be in fluid communication with the auxiliary sleeve; a trough in the auxiliary sleeve extending to the auxiliary opening; In fluid communication with the suction line through the auxiliary sleeve and the manifold volume an outlet opening configured to provide a suction path leading to the outlet opening; a control surface, a sealing surface coupled to the control surface, a base, and a spring coupled to the sealing surface together with the base. a side portion coupled to the base and extending from the base to define a tissue collection cavity; and a porous feature, (i) the sealing surface seals the auxiliary opening, and (ii) ii) the tissue collection cavity is positioned within the auxiliary sleeve and the inlet (iii) a trough in the auxiliary sleeve connected to the base of the tray; so as to be removably coupled to the housing in a sealing configuration defining a gap therebetween. A tray comprising: Equipped with The control surface of the tray receives input from a user to change the sealed configuration to the sealed configuration. The trough and the manifold are spaced apart by a portion of the surface being spaced apart from a portion of the auxiliary opening. A second suction path is provided and positioned through the ring volume from the auxiliary opening to the outlet opening. a manifold configured to actuate the manifold into an outlet configuration in which the manifold is inlet;

15. The housing has a first end that communicates with the trough and a second end that communicates with the manifold volume.

15. The manifold of claim 14, further defining a bore having a second end.

16. The housing at least partially defines the auxiliary sleeve and has the trough therebetween.

16. A manifold according to claim 14 or 15, comprising a lower barrier with a defining plateau. Do.

17. The tray further includes feet extending from the base in a direction opposite the tissue collection cavity. the foot portion is adjacent to the plateau when the tray is coupled with the housing.

17. The manifold of claim 16, wherein the manifold is positioned such that the

18. The housing further comprises an orientation mechanism within the auxiliary sleeve, and the tray An orienting mechanism is removably engaged to align the housing of the tray in only one relative orientation.

15. The method of claim 14 further comprising a complementary orientation mechanism configured to allow coupling with a 18. A manifold as described in any one of claims 17.

19. The orientation feature on the housing is a groove, and the complementary orientation feature on the tray is 20. The manifold of claim 18, wherein the rails extend from the sides.

20. a gripping portion that defines the control surface when the sealing surface is firmly coupled thereto, A support pivotally moves the manifold from the sealing configuration to the outlet configuration.

20. The manifold of any one of claims 14 to 19, configured to:

21. The gripping portion includes a first portion and a second portion extending from the sealing surface, and the first The user pinches the first part and the second part, and the first part is attached to the second part. 2 and move the manifold from the sealing configuration to the outlet configuration.

21. The manifold of claim 20, configured to actuate

22. The sealing surface comprises a resiliently flexible material and is pivotable from the portion of the auxiliary opening.

22. The manifold of claim 21 configured for flexion spacing.

23. a first suction path and a second suction path disposed within the housing; 23. The manifold of any one of claims 14 to 22, further comprising a filter element. 。

24. The housing is attached to the auxiliary sleeve with the inlet bore engaged and extending distally.

24. The method of claim 14, further comprising an upper barrier at least partially defining the recess.

10. The manifold according to claim 1.

25. a lens coupled to the upper barrier and shaped to provide expansion within the auxiliary sleeve; 25. The manifold of claim 24, further comprising a nozzle.

26. a manifold volume; and a fluid communication line in fluid communication with the manifold volume. an inlet bore extending through the manifold volume; and an auxiliary opening leading to an auxiliary sleeve in fluid communication with the manifold volume. a positioning mechanism disposed within the auxiliary sleeve; and an outlet opening in fluid communication with a suction source. a housing defining a control surface, a sealing surface coupled to said control surface, a base, and a sealing surface coupled to said base. a portion coupled to the base and extending from the sealing surface to define a tissue collection cavity; a tray having a side wall with a porous feature in the base; 1. A method of collecting a tissue sample through an integrated suction line, comprising: A tissue collection cavity is provided within the auxiliary sleeve and communicates with the inlet perforation, and the sealing surface is The auxiliary opening is sealed, and the base and / or the side are positioned within the auxiliary sleeve. The housing engages a mounting mechanism to define the base and auxiliary sleeve of the tray. A gap is provided between the tray and the lower wall of the housing. Tep and activating the suction source to draw the tissue into the tissue collection cavity of the tray through the porous mechanism; collecting the tissue sample within Applying an input to the control surface of the tray to move the tray from a portion of the auxiliary opening that is closest to the lower barrier By moving at least a portion of the sealing surface away from the base and the house of the tray, the auxiliary opening to the outlet opening through the gap between the lower barrier of the housing and the auxiliary opening providing and positioning a second suction path; A method comprising:

27. The tray defines the control surface and has a first portion and a second portion respectively coupled to the sealing surface. and a gripping portion having a first portion and a second portion, and wherein the step of applying the input comprises: a portion of the auxiliary opening toward the second portion, 27. The method of claim 26, including pivotally bending the portions apart.

28. The first portion and the second portion are pinched together, and the first portion is attached to the second portion.

28. The method of claim 27, further comprising moving the