described herein , among other things , is a self - orienting desiccant holder for use with a suction device . the receptacle described herein is configured such that when a suction device is placed in the receptacle , the force of gravity will pull the device into a tube and rotate the suction device such that the orientation of the device with respect to the physician is consistent from use to use , allowing the physician to reliably place and grasp the handle in a usable orientation without taking his eyes from the surgical field or having to use two hands to reorient , or having to rely upon staff to orient the device for the physician . as described herein , the receptacle may further include a reservoir for isolating secretions and other biological active materials . also as described herein , the receptacle may further include a desiccant system which reduces secretions egressing from the receptacle or reservoir , particularly in the event that the receptacle is dislodged and / or upended . in the embodiment depicted in fig1 , the receptacle ( 101 ) generally includes a tube ( 109 ) and a reservoir ( 103 ). the depicted tube ( 109 ) is generally an elongated , hollow , and curved cylinder with one flattened back side portion ( 105 ). the top ( 113 ) and bottom ( 117 ) portions of the tube ( 109 ) are dilated or flared at the ends and tapering or narrowing toward the middle portion ( 119 ) of the tube ( 109 ), giving each end portion ( 113 , 117 ) of the tube ( 109 ) a generally trumpet - shaped appearance . the tube ( 109 ) of fig1 is generally in the shape of a curved cylinder , but is also offset in two axes or planes , having a slightly “ twisted ” appearance . this generally means that whereas the axis of a cylinder is a straight line , the axis ( 123 ) of the depicted tube ( 109 ) is a curve ( 123 ) in three - dimensional space . by way of example and not limitation , the curve of the tube axis ( 123 ) is distorted from a straight line along at least the y - axis when the tube ( 109 ) is viewed from the side , as depicted in fig1 . similarly , the curve of the tube axis ( 123 ) is distorted from a straight line along at least the x - axis when the tube ( 109 ) is viewed from the front or back side , as depicted in fig1 . these distortions in the tube axis ( 123 ) result in the characteristic “ twisted ” shape which encourages a suction device ( 201 ), when placed into the tube ( 109 ) and released , to rotate such that the device ( 201 ) is oriented in generally the same fashion with respect to the tube ( 109 ) each time the device ( 201 ) is placed and released into the tube ( 109 ). because of the curved tube axis ( 123 ) and tapering shape of the tube ( 109 ), certain surfaces of the suction device will come into contact with the interior wall of the tube ( 109 ) as the suction device ( 201 ) descends into the tube ( 109 ). if the device ( 201 ) is not properly oriented when deposited into the tube ( 109 ), further descent is unlikely unless the device ( 201 ) is rotated about its major lengthwise axis ( 121 ). because the force of gravity exceeds the force of friction from contact with the interior surface of the tube ( 109 ), the device ( 201 ) will rotate appropriately to continue to descend into the tube ( 109 ), coming to rest at the same orientation with respect to the tube ( 109 ) each time the device ( 201 ) is placed into the tube ( 109 ) and released . thus , the device ( 201 ) may be dropped into the tube ( 109 ) without looking , and at any angle or orientation , and the handle ( 203 ) will be oriented in the same manner for retrieval each time the device ( 201 ) comes to rest . in the depicted embodiment , the flared top portion ( 113 ) has a generally circular top opening ( 107 ) allowing access to the hollow interior of the tube ( 109 ). among other things , the top opening ( 107 ) is suitable for facilitating insertion of a suction device ( 201 ) into the hollow interior of the tube ( 109 ). in an embodiment , the physician places a suction device ( 201 ) into the receptacle ( 101 ) by inserting the tip ( 217 ) of the suction device ( 201 ) into the top opening ( 107 ) and lowering the wand ( 207 ) of the device ( 201 ) into the tube ( 109 ) until a sufficient portion of the wand ( 207 ) is within the tube ( 109 ) that , if the physician were to release the handle ( 203 ), the device ( 201 ) would descend further into the tube ( 109 ). in the depicted embodiment , the shape of the flared portions ( 113 , 117 ) of the receptacle ( 101 ) and the curved tube axis ( 123 ) encourage this orientation of the device ( 201 ). for example , the diameter of the tube ( 109 ) narrows from the top opening ( 107 ) to the middle portion ( 119 ) of the tube ( 109 ). as the wand ( 207 ) is lowered into the tube ( 109 ), the shape of the top flared portion ( 113 ) causes the suction device ( 201 ) increasingly to come into an alignment generally parallel with the lengthwise axis ( 121 ) of the tube ( 109 ), because the wand ( 207 ) cannot descend further into the narrowing tube ( 109 ) unless the device &# 39 ; s ( 201 ) orientation with respect to the lengthwise axis ( 121 ) of the tube ( 109 ) becomes more parallel with the lengthwise axis ( 121 ). when the receptacle ( 101 ) is installed for use , the lengthwise axis ( 121 ) is also generally parallel to the pull of gravity . thus , the center of gravity of the suction device ( 201 ) will tend to become increasingly centered over the top opening ( 107 ) as the wand ( 207 ) is lowered further into the tube ( 109 ), reaching a point at which the center of gravity is sufficiently above the top opening ( 107 ) that , if the device ( 201 ) is released , the pull of gravity will cause the device ( 201 ) to descend into the tube ( 109 ). the flared top portion ( 113 ) also aids the physician in placing the device because , among other things , the shape results in a larger target into which the wand ( 207 ) may be inserted than if the top portion ( 113 ) were not flared . because there is a larger opening ( 107 ), the tolerance for error by the physician when placing the device is larger , increasing the likelihood that the physician will successfully reseat the suction device ( 201 ) in the receptacle ( 101 ) without diverting his attention from the surgical field . as depicted in fig2 and 3 , medical suction devices ( 201 ) generally are in roughly a curved or squared “ l - shape ,” having a narrow , elongated tubular wand ( 207 ) extending from a handle ( 203 ) with a curve or bend ( 205 ) at a particular angle and at a particular distance from the handle ( 203 ). the wand ( 207 ) thus comprises a portion that is straight ( 209 ) with respect to the handle ( 203 ), and a portion that is bent ( 211 ) at an angle with respect to the handle ( 203 ). the angle of this bend ( 205 ), the location of the bend ( 205 ) along the wand ( 207 ), and the sharpness of the bend ( 205 ) all may vary significantly with the particular suction device ( 201 ), as depicted in the embodiments of various suction devices ( 201 ) in fig3 . for example , in the depicted embodiment of fig4 , the device ( 201 ) includes a bend ( 205 ) near the tip ( 217 ) of the wand , with a relatively short bent portion ( 211 ). in the depicted embodiment , the bottom portion ( 117 ) of the tube ( 109 ) is flared or dilated into a trumpet - shape . among other things , this shape facilitates the aligning of the suction device ( 201 ) by accommodating the bent portion ( 211 ) of the wand ( 207 ), because the wand ( 207 ) fits best into the bottom flared portion ( 117 ) of the tube ( 109 ) if the bent portion ( 211 ) is turned in the direction of the flare rather than the flat back wall ( 105 ). as elsewhere described herein , other facets of the shape and / or configuration of the receptacle ( 101 ) may facilitate rotation or orienting of the suction device ( 201 ). as described herein , the tube ( 109 ) of fig1 is generally cylindrical but with a center axis ( 123 ) that is a curve in three - dimensional space , rather than a straight line . this shape , among other things , facilitates and encourages self - orientation of a suction device ( 201 ) placed in the tube ( 109 ). by way of example and not limitation , because the center axis ( 123 ) of the tube ( 109 ) is distorted from a straight line along at least the x - axis , the shape of the tube ( 109 ) is distorted from a cylinder along at least the x - axis . as a suction device ( 201 ) descends into the depicted tube ( 109 ), its orientation along the x - axis generally will change in correspondence with the distortion of the tube axis ( 123 ) along the x - axis . as the wand ( 207 ) is further lowered into the top portion ( 113 ), the tip ( 207 ) approaches the tapered , narrowed middle portion ( 119 ), further limiting the possible range of movement of the wand ( 207 ) within the tube ( 207 ) and encouraging the wand ( 207 ) to become oriented in correspondence with the curve of the tube axis ( 123 ) along the x - axis . by way of example and not limitation , because the center axis ( 123 ) of the tube ( 109 ) is distorted from a straight line along at least the y - axis , the shape of the tube ( 109 ) is distorted from a cylinder along at least the y - axis . as a suction device ( 201 ) descends into the depicted tube ( 109 ), its orientation along the y - axis generally will change in correspondence with the distortion of the tube axis ( 123 ) along the y - axis . as the wand ( 207 ) is further lowered into the top portion ( 113 ), the tip ( 207 ) approaches the tapered , narrowed middle portion ( 119 ), further limiting the possible range of movement of the wand ( 207 ) within the tube ( 207 ) and encouraging the wand ( 207 ) to become oriented in correspondence with the curve of the tube axis ( 123 ) along the y - axis . the distortion of the tube axis ( 123 ) in more than one dimension , among other things , orients the wand ( 207 ) such that when the pull of gravity does not cause the suction device ( 201 ) to descend any further into the tube ( 109 ), the orientation of the bent portion ( 211 ) of the wand ( 207 ) with respect to the x - and y - axis is generally the same each time the suction device ( 201 ) is placed into the tube ( 109 ), as depicted in fig4 . because the construction of a suction device ( 201 ) is generally fixed such that the orientation of the bent portion ( 211 ) relative to the handle ( 203 ) does not change , by facilitating generally consistent orientation of the bent portion ( 211 ) within the tube ( 109 ), the receptacle ( 101 ) also encourages generally consistent orientation of the handle ( 203 ) of the suction device ( 201 ). this in turn provides the physician a reliably - and predictably - oriented handle ( 203 ) for grasping the device ( 201 ), allowing the physician to grab the handle ( 203 ) without looking and having the device ( 201 ) properly oriented for use in the surgical field . this also allows the physician to reholster the device ( 201 ) in the receptacle ( 101 ) without removing his attention from the surgical field , and the receptacle ( 101 ) will properly orient the device ( 201 ) to the same angle for grasping by the physician each time the physician reholsters the device ( 201 ). fig5 depicts multiple perspective views of an alternate embodiment wherein a suction device is placed in an alternate embodiment of a receptacle for a suction device . component systems other than the shape of the tube ( 109 ) may be used to facilitate rotation . for example , in an embodiment , rotation is achieved by a set or series of ridges attached to the interior wall of the tube ( 109 ) which guide the device to the proper orientation . although a tube ( 109 ) having generally circular cross - section with a flattened portion is depicted , the cross - section need not be circular . by way of example and not limitation , a tube ( 109 ) with a generally polygonal or ellipsoidal cross - section , or a combination thereof , is specifically contemplated . when in use , the receptacle ( 101 ) is generally hung from or attached to a flat surface in the operating room , such as the side of a bed , gurney , or table , and oriented such that the lengthwise axis ( 121 ) of the tube ( 109 ) is generally parallel with the pull of gravity , and the top opening ( 107 ) faces upward to accept a suction device ( 201 ). when a suction device ( 201 ) is placed into the opening ( 207 ) and released , the pull of gravity will cause the device ( 201 ) to descend into the tube ( 109 ). when the receptacle ( 101 ) is hung against a flat vertical surface , the round tube ( 109 ) may tend to roll along the flat surface , especially when bumped , potentially dislodging the suction device ( 201 ) or moving the receptacle ( 101 ) out of position . in the depicted embodiment of fig1 , the receptacle ( 101 ) includes a generally flat back side ( 105 ), giving the tube ( 109 ) a generally circular cross - section with a truncated arc . this flat back side ( 105 ), among other things , may reduce the susceptibility of the receptacle ( 101 ) to rolling or other undesired movement when bumped . thus , when the receptacle ( 101 ) is installed , the flat back side ( 105 ) may be placed against a flat vertical surface to reduce the receptacle &# 39 ; s ( 101 ) susceptibility to displacement when it , or the surface to which it is attached or hung , is jostled . the receptacle ( 101 ) may be hung or installed through any suitable means . in an embodiment , the receptacle ( 101 ) includes a hanger ( not depicted ) which is part of or attachable to the receptacle ( 101 ). in an alternative embodiment , the receptacle ( 101 ) is installed through a means other than by hanging , such as by use of an adhesive . in such an embodiment , the flat back side ( 105 ), among other things , provides a suitable surface for applying an adhesive , as the amount of surface area of the flat back side ( 105 ) in contact with the gurney , bed , table , or other apparatus generally is greater than the surface area of the tube ( 109 ) in contact with such a surface , providing more adhesive to hold the receptacle ( 101 ) in place . the shape of the tube ( 109 ), among other things , encourages material leaking from the tip ( 217 ) of the wand ( 207 ) to drain down the interior surface of the tube ( 109 ) toward the reservoir ( 103 ). because the tip ( 217 ) is oriented , in the depicted embodiment of fig1 and 4 , away from the flat back side ( 105 ) and toward the curved side of the tube ( 109 ), the leaked material is less likely to get caught or stuck in corners or creases , and more likely to drain toward the bottom of the tube ( 109 ), where it can be isolated by a desiccant system or reservoir ( 103 ). because the interior of the tube ( 109 ) is generally sterile , the tip ( 217 ) may come into contact with the interior surface of the tube ( 109 ) without posing a significantly increased risk of infection or contamination to the patient . the depicted embodiment of fig1 further includes a system or method for isolating biologically active materials when and if they leak from the suction device ( 201 ), such as a reservoir ( 103 ). in the depicted embodiment of fig1 , the reservoir ( 103 ) is a generally cylindrical component having a diameter approximately the same as the diameter of the bottom opening ( 115 ) of the tube ( 109 ). in the depicted embodiment , the reservoir ( 103 ) includes a coupling portion ( 111 ) which is also generally cylindrical in shape , but shorter and squatter than the body of the reservoir ( 103 ), and the coupling component ( 111 ) is of generally the same diameter as the interior surface of the bottom opening ( 115 ). as such , in the depicted embodiment , the reservoir ( 103 ) can be attached to the tube ( 109 ) by inserting the coupling portion ( 111 ) into the bottom opening ( 115 ) of the tube ( 109 ). the resulting receptacle ( 101 ) then has the general appearance of a contiguous curved cylindrical shape , because the diameter of the reservoir body ( 103 ) is the same as the diameter of the tube at the bottom opening ( 115 ). in an embodiment , the reservoir need not be configured to be the same diameter as any portion of the tube ( 109 ) but may be of any size and shape suitable for collecting and retaining biological secretions as contemplated and described herein . to secure the reservoir ( 103 ) to the tube ( 109 ), any suitable means for secure attachment is contemplated , such as but not limited to threaded components suitable for screwing or interlocking , a snap on design , friction or tension based mounting , adhesive , or other interlocking or intercoupling components suitable to hold the reservoir ( 103 ) in place against the tube ( 109 ). in an embodiment , the system for coupling the reservoir ( 103 ) to the tube ( 109 ) is temporary by design , so that the reservoir ( 103 ) may be quickly removed from the tube ( 109 ), such as but not limited to for replacement , repair , sterilization , cleaning , or examination . in an embodiment , the reservoir ( 103 ) is detachable from the tube ( 109 ). this improves the cleaning or replacement or the reservoir ( 103 ). a detachable reservoir ( 103 ) may also be used to customize the configuration of a particular receptacle ( 101 ) for a particular operation . by way of example and not limitation , if the physician anticipates a lengthy operation involving a large volume of material , a large reservoir ( 103 ) may be attached to the tube ( 109 ). among other things , it is easier for the physician or attending staff to identify whether a detachable reservoir ( 103 ) has been sterilized , cleaned , or soiled , prior to use . in an embodiment having a detachable reservoir ( 103 ), where the reservoir ( 103 ) is disturbed , contaminated , cracked , defective , broken , or otherwise rendered unusable during a procedure , the detachable feature allows the unusable reservoir ( 103 ) to be quickly and easily replaced by a usable sterile reservoir ( 103 ) so that the receptacle ( 101 ) may continue to be used without significantly interrupting the procedure . in an embodiment , the tube ( 109 ) and / or reservoir ( 103 ) include a system for isolating secretions . this system may be an absorbent material attached to the bottom of the reservoir ( 103 ) which soaks or isolates secretions . this material may be or contain antibacterial , antiviral and / or antifungal compounds to inhibit and / or prevent the growth of organisms or other compounds hazardous to the patient , the physician , the attending staff , or the surgical tools and materials . in an embodiment , the system may include a second reservoir ( not depicted ) attached to the tube ( 109 ), such as by a sealed surgical tube attached to the bottom of the first reservoir ( 103 ). secretions entering the first reservoir ( 103 ) would tend to be pulled into the tube by gravity , and to collect in the second reservoir , which generally has a larger volume and is safely located out of the way of the physician and attending staff . in such an embodiment , if the first reservoir ( 103 ) were to become dislodged or upended , a minimal amount of material would be discharged into the environment , reducing the risk of infection and / or contamination , as the majority of the material will have drained into the second reservoir and be isolated from the environment . in a still further embodiment , the tube ( 109 ) is itself attached directly to such a reservoir , such as via sealed surgical tube attached to the bottom of the tube ( 109 ). in an embodiment , the system for isolating secretions is a desiccant system . the desiccant system may include a material or compound suitable for isolating secretions and other materials , and may be organic or inorganic . the desiccant system may include a loose material , such as but not limited to porous , granular , crystalline , or powdered materials , or in one or more solid absorbent forms , such as a stone or sponge . in an embodiment , the desiccant system includes a silica or sand . in an alternative embodiment , the desiccant system includes a sponge including a silica or sand . the desiccant system will generally include a largely dry material which is mostly chemically and biologically inert . by way of example and not limitation , such materials include silica gels and clays , vermiculite , fibrous desiccant materials , desiccant papers , activated alumina , activated carbon , calcium oxides , zeolite compounds , molecular sieves , calcium sulfate , and other anhydrous chemicals . in another embodiment , the desiccant may include a tape , film , or membrane . in a still further embodiment , the desiccant system includes a liquid desiccant . a desiccant system may also include additives which deactivate chemical or biological agents and / or contaminants , including but not limited to metal ions . a desiccant system may include anti - viral , anti - fungal , anti - bacterial , and anti - microbial compounds or chemicals . in an embodiment , the desiccant system includes a gel . a desiccant material or system may be attached to an interior surface of the reservoir ( 103 ) or the tube ( 109 ) itself , or may be dispersed thereon . the desiccant system may itself be isolated , such as within a sachet , and distributed within the tube ( 109 ) or reservoir ( 103 ) prior to use . in an embodiment , the desiccant system may be temporarily secured to the reservoir ( 103 ), such as by an adhesive , and removed during cleaning and sterilization . in another embodiment , the tube ( 109 ) and / or reservoir ( 103 ) are disposable , and after the desiccant system is used or consumed , the entire receptacle ( 101 ) is discarded . in a still further embodiment , the desiccant system or material is laminated to a surface of the tube ( 109 ) or reservoir ( 103 ). in an embodiment having a desiccant system , the desiccant system generally reduces the risk posed by dislodging or otherwise upsetting the receptacle ( 101 ). by way of example and not limitation , in an embodiment having a desiccant system including a silica or sand , when liquid secretions come into contact with the silica or sand , the liquid secretions will tend to be absorbed or adsorbed by the silica , and tend to become more viscous , or less liquid , or more solid . if the receptacle ( 101 ) is upset or dislodged , and the contents are discharged into the operating environment , the resulting spill may generally be more confined or easier to clean , because the desiccant system reduced the quantity or volume of liquid secretions , resulting in less liquid in the operating environment . because liquids tend to run or flow across surfaces more so than solids , a lesser amount of liquid secretions may result in a more confined spill , consisting of less slippery material , reducing the risk of slips and falls which pose risk to the patient , physician , and staff . this may also reduce the likelihood of contamination or infection . additionally , solid spills are generally easier to clean , and the surfaces are easier to sterilize , than liquid spills . in an embodiment having a desiccant system , the desiccant system generally reduces the risk that the wand ( 207 ), specifically the open end ( 217 ), will come into contact with accumulated secretions . by way of example and not limitation , in an embodiment having a desiccant system including an absorbent material , by absorbing the liquid secretions , the level of such accumulated secretions in the reservoir ( 103 ) is lowered , meaning that when the wand ( 207 ) is inserted into the tube ( 109 ), the likelihood that the open end ( 217 ) of the wand ( 207 ) comes into contact with such secretions is lessened ? further , even if the wand ( 207 ) does come into contact with the absorbent materials of the desiccant system , there is less likelihood that secretions will become attached to the wand ( 207 ) than if the secretions were still in mostly liquid form . in an embodiment , the systems and methods discourage egress of a desiccant system or a component system thereof . by way of example and not limitation , a desiccant system may include a sponge which , due to its shape and size , is too large to slip out of the tube ( 109 ) when the tube ( 109 ) is inverted . also , by way of example and not limitation , this sponge may have a diameter generally the same as or greater than the bottom portion ( 117 ) of the tube ( 109 ). because the tube ( 109 ) narrows or tapers from the bottom portion ( 117 ) to the middle portion ( 119 ), a sponge in such an embodiment would not be able to travel through the middle portion ( 119 ) of the tube ( 109 ), and thus could not egress through the top opening ( 107 ) and into the operating environment . the receptacle ( 101 ) will generally be located near the surgical field , such as attached to the operating surface to one side of the physician , depending on the physician &# 39 ; s handedness preference . in an embodiment , the tube ( 109 ) is configured such that the orientation of the suction device ( 201 ) when at rest in the tube ( 109 ) is suitable for easy grasping by either a right - handed or left - handed person . by way of example and not limitation , the receptacle ( 101 ) may be configured such that when a device ( 201 ) is at rest in the tube ( 109 ), the angle of the handle ( 203 ) relative to the surface to which the receptacle ( 101 ) is attached is generally perpendicular , resulting in generally the same angle with respect to either a right - or left - handed physician &# 39 ; s hand . in another embodiment , the tube ( 109 ) is configured such that the orientation of the suction device ( 201 ) at rest in the tube ( 109 ) is particularly suitable for easy grasping by a right - or left - handed person . by way of example and not limitation , the receptacle ( 101 ) may be configured such that when a device ( 201 ) is at rest in the tube ( 109 ), the handle ( 203 ) is angled toward the physician for particularly easily or comfortably grasping according to the physician &# 39 ; s handedness preference . it should be noted that the precise configuration of the tube ( 109 ) will depend on the particular suction device ( 201 ) with which the receptacle ( 101 ) is designed to be used . as depicted in fig3 , suction devices ( 201 ) are manufactured in a wide variety of sizes , shapes , lengths , triggering systems , pumping systems , secretion accumulation systems , and other options . for example , the direction and amount of curve in the tube axis ( 123 ) may vary depending on the suction device ( 201 ) for which the receptacle ( 101 ) is configured . in an embodiment , the receptacle ( 101 ) is designed to self - orient a suction device ( 201 ) in which the suction is provided by a pump , but any system for providing suction may be used . for a pumping system , the system may be a squeeze - operated hand trigger , or a mechanical or electrical pump . the pump may be integrated into the suction device ( 201 ), or may be a device connected via tubing . in an embodiment , the receptacle ( 101 ) includes a notch or slot desired to accommodate a suction device ( 201 ) with attached tubing . in an embodiment , the triggering system for the suction device ( 201 ) may be a button or lever , or squeeze trigger . any triggering system is contemplated , and any location is contemplated , and the specific system and location may affect the design and configuration of the receptacle ( 101 ). for example , if the triggering system for a specific suction device ( 201 ) is a finger - operated squeeze lever that extends laterally from the handle ( 203 ), the receptacle ( 101 ) may include a notch or slot to allow gravity to pull the suction device ( 201 ) into the tube ( 109 ) and properly orient it without the squeeze lever getting caught on a lip or edge preventing the device ( 201 ) from descending into the tube ( 109 ). in another embodiment , where the device ( 201 ) does not include such a trigger , the tube ( 109 ) may not need such a notch or slot , through a receptacle ( 101 ) designed for use with multiple devices may nevertheless have one . in an embodiment , the receptacle ( 101 ) is configured for use with a suction device ( 201 ) in which the handle ( 203 ) portion includes a reservoir . such suction devices ( 201 ) are often mechanical and use a squeeze trigger to provide and activate the suction action , and biological material is then collected in a small reservoir attached directly to the device ( 201 ). in an embodiment , the receptacle ( 101 ) may include features or surfaces to accommodate the reservoir attached to the device ( 201 ) handle ( 203 ) while still permitting the device ( 201 ) to self - orient when placed in the tube ( 109 ). in an embodiment , the receptacle ( 101 ) is configured for use with a device ( 201 ) that includes attachments such as replaceable wands ( 207 ) and extensions . in an embodiment , the receptacle ( 101 ) may itself be capable of accepting attachments which increase the distance between the tip ( 217 ) of the device ( 201 ) when at rest in the receptacle ( 101 ), and the reservoir ( 203 ). for example , the receptacle ( 101 ) may consist of two separable sections — a self - orienting section which accepts and orients a device ( 201 ), and a reservoir section , which may be of varying depth depending on whether , and which , extensions are attached to the suction device ( 201 ). in an embodiment , the receptacle ( 101 ) is fashioned as a single monolithic piece of material . in another embodiment , the receptacle ( 101 ) is fashioned from multiple pieces of material attached together . any method for attaching a receptacle ( 101 ) fashioned from multiple pieces of material is contemplated . the receptacle ( 101 ) will most commonly be made of a generally translucent material suitable for use in a sterile environment . such materials are easy to identify when soiled , easy to clean , easy to sanitize , and allow the physician and attending staff to quickly determine the level of material in the reservoir ( 103 ). such materials include , without limitation , plastics and glasses . however , any material suitable for use in a sterile environment is contemplated , including without limitation opaque materials such as aluminum and stainless steel . an embodiment using an opaque material may also include a fluid level indicator system in the reservoir ( 103 ). the interior surface of the receptacle ( 101 ) will generally be smooth to reduce the coefficient of friction of the surface and thus reduce the force of friction operating on the suction device ( 201 ) when released into the tube ( 109 ) so that the force of gravity will overcome the friction between the interior wall of the tube ( 109 ) and the device ( 201 ), and cause the device ( 201 ) to descend and rotate . because the tube ( 109 ) of the depicted embodiment causes the suction device ( 201 ) to descend only a certain distance into the tube ( 109 ) before coming to a rest , the tip ( 217 ) of the wand ( 207 ) does not generally come into contact with the bottom ( 115 ) of the tube ( 109 ). thus , even though material collects in the reservoir ( 103 ), the material will not come into contact with the tip ( 217 ) of the wand ( 207 ), thus reducing the likelihood that the suction device ( 201 ) becomes contaminated . further , in an embodiment having a desiccant system , the desiccant system will tend to absorb or otherwise reduce the amount or quantity of liquid secretions in the tube ( 109 ) or reservoir ( 103 ), further reducing the likelihood that the suction device ( 201 ) or a component thereof , will come into contact with biological secretions . this feature is particularly useful where staff neglect to replace or sterilize or otherwise clean the reservoir ( 103 ) following a procedure . when the receptacle ( 101 ) is used for the next procedure , biological material from the prior procedure has been absorbed , isolated and contained by the desiccant system , meaning that when a suction device ( 201 ) is inserted into the tube ( 209 ), that device ( 201 ) will not come in contact with the biological secretions from the prior patient . while this invention has been disclosed in connection with certain preferred embodiments , this should not be taken as a limitation to all of the provided details . modifications and variations of the described embodiments may be made without departing from the spirit and scope of this invention , and other embodiments should be understood to be encompassed in the present disclosure as would be understood by one of ordinary skill in the art .
a receptacle for consistently orienting a sterilized surgical instrument for natural grasping by a physician without removing his or her vision from the operational field , wherein the receptacle may also comprise a reservoir and desiccant for maintaining sanitized or sterilized instruments .