Patent Abstract:
An intravascular port access device includes a first component having a chamber configured to attach reversibly to an intravenous line port. A second component reversibly attaches to the first component and contains a disinfecting agent and an applicator material. The second component is configured to be reversibly received over external surfaces of the intravenous line port. A method of cleansing an intravenous line port includes providing a port cleaning device having a first component with a chamber containing a first cleaning agent. A second component includes a second cleaning agent. A third component has a microbiocidal agent and is reversibly attached to the first component. The second component is removed from the device, the external surfaces of the port are contacted with the second cleaning agent, the first cleaning agent is ejected from the chamber into the port, and the third component is used to cap the port.

Full Description:
RELATED PATENT DATA 
     This patent resulted from a divisional application of U.S. patent application Ser. No. 11/745,843, which claims priority under 35 U.S.C. §119 to U.S. Provisional Application No. 60/747,606, which was filed May 18, 2006; and to U.S. Provisional Application No. 60/842,194, which was filed Aug. 31, 2006, and claims priority to U.S. Provisional Application No. 60/895,621, which was filed Mar. 19, 2007. 
    
    
     TECHNICAL FIELD 
     The invention pertains to intravascular port access devices, intravascular port cleaning devices, methods of cleaning an intravascular port, methods of administering an agent into an intravascular line port, methods of obtaining a blood sample from an individual, and sets of intravascular line port caps. 
     BACKGROUND OF THE INVENTION 
     Intravenous lines, such as peripheral IV lines and central IV lines, are common intravenous access methods for administering medicants, nutrient solutions, blood products, or other substances into a vein. Arterial lines are used, for example, in monitoring physiological parameters by arterial blood sampling during coronary, intensive or critical care. However, microorganism intravascular device colonization or infection can occur as a result from a patients&#39; own endogenous flora or from microorganisms introduced from contaminated equipment or other environmental contamination sources. As a result, localized or systemic infection or septicemia can occur and can be life threatening. 
     Introduction of microorganisms into an intravenous line can be initiated or facilitated during handling of a catheter, hub, associated tubing, equipment, or injection ports, especially during manipulation of lines in preparation and during initiation of fluid administration into or withdrawal from the line. Microorganisms present on a surface of an injection port can be introduced through the port during administration. Microorganisms present on contaminated equipment utilized for administration can be introduced through the port causing colonization or infection. Bacterial growth and/or aggregation in a port or catheter can serve as the nidus for clotting, embolization and/or occlusion of the port or catheter. Further manipulation or administration through the port can facilitate spreading of microorganisms within the port, catheter, and lines, and ultimately into the patient&#39;s vein/artery and/or surrounding tissue. Accordingly, it would be advantageous to develop methods and devices for cleaning of external surfaces of intravascular access ports and/or internal port areas to reduce risks of colonization and infection. 
     Another complication that can occur in association with an intravascular line, catheter or access port is clot formation due to blood return. Initial clot formation could extend and/or embolize into the superior vena cava and/or the right atrium and/or right ventricle of the heart, and subsequently into the pulmonary system circulating to the lungs. It would be advantageous to develop methodology and devices to deliver clot dissolving or clot inhibitory agents through intravascular ports to minimize or eliminate intravascular port associated clotting. 
     Yet another issue that can be associated with intravascular lines is lipid accumulation or build-up within the line or port. It would be advantageous to develop methodology and devices to deliver lipolytic agents through intravascular ports to minimize or eliminate port associated lipid build up. 
     SUMMARY OF THE INVENTION 
     In one aspect the invention pertains to an intravascular port access device. The device includes a first component having a chamber and being configured to attach reversibly to an intravenous line port. The second component reversibly attaches to the first component and contains a disinfecting agent and an applicator material selected from the group consisting of polyethylene felt sponge, polyethylene foam sponge, plastic foam sponge and silicon foam sponge. The second component is configured to be reversibly received over external surfaces of the intravenous line port. 
     In one aspect the invention encompasses an intravascular line port cleaner including a syringe barrel having a first end and a second end. A slideable piston is received into the barrel through the second end. The line port cleaner includes a first cap containing a cleansing agent and a second cap containing a microbiocidal agent. 
     In one aspect the invention encompasses a method of cleansing an intravenous line port. The method includes providing a port cleaning device comprising a first component having a chamber with a first cleaning agent. A second component includes a second cleaning agent. A third component has a microbiocidal agent and is reversibly attached to the first component. The method includes removing a second component from the device, contacting the external surfaces of the port with the second cleaning agent, injecting the first cleaning agent from the chamber into the port, removing the third component from the device, and capping the port with the third component. 
     In one aspect the invention encompasses a method of obtaining a blood sample from an individual. The method includes providing a port access device having a first component including a chamber, a second component containing a cleaning agent and a third component comprising a microbiocidal agent. The third component is reversibly attached to the first component. The method includes removing the second component from the device and contacting the external surfaces of the port with the cleaning agent. The method further includes drawing blood from the individual through the port into the chamber of the first component removing the third component from the device and capping the port with the third component. 
     In one aspect the invention includes a set of intravascular line port caps. The set of caps includes a first port cap containing a first agent and a first applicator material. The set further includes a second port cap containing a second agent and a second applicator material. 
    
    
     
       BRIEF DESCRIPTION OF THE DRAWINGS 
       Preferred embodiments of the invention are described below with reference to the following accompanying drawings. 
         FIG. 1  is a diagrammatic isometric view of a device in accordance with one aspect of the invention. 
         FIG. 2  is a diagrammatic side view of the device shown in  FIG. 1 . 
         FIG. 3  is a diagrammatic exploded view of the device shown in  FIG. 1 . 
         FIG. 4  is a diagrammatic cross-sectional view of the device shown in  FIG. 1 . 
         FIG. 5  is a diagrammatic cross-sectional view of the device shown in  FIG. 1  after repositioning relative to the positioning depicted in  FIG. 4 . 
         FIG. 6  is a diagrammatic isometric view of a device in accordance with another aspect of the invention. 
         FIG. 7  is a diagrammatic side view of the device shown in  FIG. 6 . 
         FIG. 8  is a diagrammatic exploded view of the device of  FIG. 6 . 
         FIG. 9  is a diagrammatic cross-sectional view of the device shown in  FIG. 6 . 
         FIG. 10  is a diagrammatic view of an exemplary packaging concept for the device shown in  FIG. 6 . 
         FIG. 11  shows a multi-pack packaging concept for the device shown in  FIG. 6 . 
         FIG. 12  is a diagrammatic exploded view of a device in accordance with another aspect of the invention. 
         FIG. 13  is a diagrammatic cross-sectional view of the device shown in  FIG. 12 . 
         FIG. 14  is a diagrammatic exploded view of a device in accordance with another aspect of the invention. 
         FIG. 15  is a diagrammatic exploded view of a device in accordance with another aspect of the invention. 
         FIG. 16  is a diagrammatic cross-sectional side view of the device shown in  FIG. 15 . 
         FIG. 17  is a diagrammatic isometric view of a packaging concept in accordance with one aspect of the invention. 
         FIG. 18  is a diagrammatic isometric view of the packaging concept shown in  FIG. 17 . 
         FIG. 19  is another diagrammatic isometric view of the packaging concept shown in  FIG. 17 . 
         FIG. 20  is a diagrammatic isometric view of a set of components in accordance with one aspect of the invention. 
         FIG. 21  is an exploded view of the set of components depicted in  FIG. 20 . 
         FIG. 22  is a diagrammatic exploded view of a packaging concept in accordance with one aspect of the invention. 
     
    
    
     DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS 
     This disclosure of the invention is submitted in furtherance of the constitutional purposes of the U.S. Patent Laws “to promote the progress of science and useful arts” (Article 1, Section 8). 
     In general the invention includes devices and methodology for cleaning and/or accessing intravascular line ports. In particular applications devices of the invention can be used for cleaning external surfaces of a intravascular line port followed by cleaning of the port itself and in particular instances cleaning of intravascular lines. 
     In other applications devices of the invention can be utilized for administering an agent intravascularly. During these applications, the devices in accordance with the invention can typically be utilized to cleanse external surfaces of the port prior to utilizing the device for administering of an agent intravascularly. In another application devices of the invention can be utilized to obtain a blood sample from an individual. A device in accordance with the invention is typically utilized to cleanse external surfaces of a port prior to utilizing the device to withdraw a sample of blood from the port. The invention also includes methodology for such port cleansing agent administration and blood sampling techniques. 
     In one embodiment, the device comprises two components. An example two component device is described with reference to  FIGS. 1-5 . 
     Referring initially to  FIG. 1 , a port access device  10  comprises a first component  12  at a first end  14  of the device, and a second component  16  at a second end  18  of the device. Second component  16  can have a tab  20  or other extension feature for assisting removal of the second component from the first component. First component  12  has a chamber housing  22  which can be a collapsible housing. First component  12  can also comprise an extension portion  24 . Referring to  FIG. 2 , as depicted device  10  can have second portion  16  insertable within connector portion  24 . It is to be understood however that the invention contemplates other configurations wherein second portion  16  fits over or caps extension portion  24 . It is also to be understood that the shape and dimension of collapsible housing  22  is but an example with alternative shapes, sizes and configurations contemplated. 
     Referring to  FIG. 3  such shows an exploded view of the device depicted in  FIGS. 1 and 2 . As illustrated chamber housing  22  of device  10  can house a chamber  23 . Connector  24  can comprise a separator  25  having an opening  29  passing therethrough. Connector  24  can further comprise a receiving port  30  for receiving a dispenser  26 . Dispenser  26  in turn can comprise a valve portion  28 . Second component  16  can comprise a container  21 . 
     Referring next to  FIG. 4 , such shows dispenser  26  with valve  28  seated within receiving port  30 . As depicted such valve mechanism is in the “closed” position where contents of chamber  23  are blocked from passing into or through connector  24 . Referring next to  FIG. 5 , application of force upon collapsible housing  22  such as a downward pressure upon a top surface of the housing can be utilized to displace valve device  28  from receiving port  30  as illustrated. Such displacement can allow passage of the contents of chamber  23  into or through connector portion  24 . 
     As depicted in  FIG. 4 , second component  16  can contain an applicator material  32 . Such applicator material can be for example, a sponge or sponge-type material. Exemplary sponge-type materials can include but are not limited to polyethylene felt sponge, polyethylene foam sponge, plastic foam sponge and silicon foam sponge. 
     Where device  10  is to be utilized for port cleansing applications, container  21  of second component  16  will typically contain a cleansing agent. The cleansing agent can be a disinfecting agent for cleansing external port surfaces. The agent is not limited to a particular cleaning or disinfecting agent and can comprise for example alcohol, preferably contained in an alcohol solution comprising from about 5% to about 99% alcohol. In particular applications the alcohol solution will comprise 25% to 90% alcohol. The sponge-type applicator material can be utilized to assist in containing the cleansing agent and can further assist in applying the agent to external surfaces of the intravascular port. Second component  16  is removably attached to the device  10 . For cleansing of the port, removable component  16  is removed from first component  12  and is utilized to contact external port surfaces for cleansing of external portions of an intravascular line port. 
     After cleansing of external portions of the port, the first component of the device, which in cleansing/disinfecting applications can be utilized for internal cleansing of the intravascular port, can be reversibly attached to the port to be cleansed. The chamber volume can be for example up to 3.5 ml; a preferred volume range can be from about 1 to about 3 ml. although alternative chamber sizes for smaller or larger volumes are contemplated. The chamber can have appropriate calibration marks relative to the total volume of the chamber. For example, a 3.5 ml. fluid volume chamber can have volume markings every 1 ml, every 0.5 ml, every 0.1 ml, etc. In particular embodiments, the connector portion can have a LEUR-LOK® (Becton, Dickinson and Company Corp., Franklin Lakes N.J.) fitting (not shown) for connection to a LEUR-LOK® type port. A cleansing agent can be provided within chamber  23  and can be an antibiotic or an alternative appropriate disinfectant. An exemplary agent can be an alcohol or alcohol solution such as described above relative to the second component container  21 . In cleansing applications chamber  22  can alternatively or additionally contain chemical agents including ethylene diamine tretaacetic acid (EDTA) and/or sodium citrate. 
     Once connected to the line port external pressure can be applied to collapsible housing  22  by for example squeezing, pinching, or pushing inward on the housing to displace dispenser  26  thereby opening or displacing valve  28  from receiving port  30 . Continued squeezing or external force can be utilized to dispel or eject contents of chamber  23  through connector  24  and into the connected port. Depending upon the volume of chamber  23  the injected cleansing solution may extend into the intravascular line itself. After dispelling the contents of chamber  23  device component  12  can be removed from the port to allow administration of fluids to be delivered intravascularly (for example). If such delivery is not to be performed immediately upon cleansing, component  12  of the cleansing device can be retained on the port until such time as intravascular delivery is desired. 
     In another aspect, the above-described device and methodology can be utilized for administering an anti-clot agent to minimize or prevent intravascular associated clot formation or to dissolve an existing clot. In this aspect, rather than or in addition to the antimicrobial agent, chamber  23  can contain an appropriate anticoagulant agent or clot dissolving agent. Exemplary anti-clot agents which can be utilized include but are not limited to anticoagulants such as EDTA, sodium citrate, heparin and heparin derivatives, and anti-thrombolytic agents such as tissue plasminogen activator. Where lipid accumulation is an issue an appropriate dispersion or lipolytic agent can be administered, either independently or in combination with antimicrobial agent and/or anti-clot agent. Injection of any such agents can be achieved in a manner analogous to that described above relative to the cleansing agent. These applications may also be accomplished utilizing the embodiments illustrated and described below. 
     An alternative embodiment of a device in accordance with the invention is illustrated and described with reference to  FIGS. 6-11 . Referring to  FIG. 6 , such illustrates an alternative example port access device  40  having a syringe-like first component  42  and a second component  44 . Referring to  FIG. 7  syringe-like first component  42  includes a plunger  46 . An exploded view of the port access device is depicted in  FIG. 8 . First component  42  includes a syringe barrel-like housing  48  having a first end  50  and a second end  52  with an internal chamber  54 . Chamber  54  can preferably have a fluid volume of from 1 to about 3.5 ml. Housing  48  can have appropriate calibration marks as discussed above with respect to the earlier embodiment. 
     Plunger  46  can include a stem portion  56  having a seal  57 . Plunger  46  can be insertable into second end  52  of housing  48 . A second seal  59  can be associated with the larger diameter body of the plunger. Seal  59  is preferably present to form a seal between the plunger and an internal surface of the device chamber. Seal  59  can preferably be an elastameric seal which is over molded onto the piston (which can preferably be a molded hard plastic material). However, the invention contemplates alternative seal material and use of non-overmolded techniques. 
     Seal  57  can be a single seal or a set of seals and can be for example a set of two o-rings, a single broad overmolded elastameric o-ring or sleeve or a hard plastic seal molded integrally with the piston stem. The presence of seal  57  can advantageously inhibit or prevent unwanted or unintentional backflow of fluid into the device chamber thereby decreasing the risk of contamination of the device and/or its contents. Alternatively relative to the depicted configuration a single seal can be over molded to have a base portion which forms the seal between an internal wall of the device chamber and the large diameter portion of the piston and a sleeve portion which covers the walls of the smaller diameter portion of the piston (not shown). 
     The second component  44  is a removable cap portion having a housing  60  and an internal container  62 . Container  62  can contain an applicator material  64 . The applicator material can be, for example, any of those materials discussed above with respect to the earlier embodiment. The second component  44  can additionally contain a cleansing agent such as those cleansing agents discussed above. Second component  44  preferably can be configured to fit over or onto an intravascular port such that the cleansing agent can be applied to external surfaces of the port. Such cleaning preferably can be conducted prior to administering the contents of chamber  54  (for example, an anti-clot, antimicrobial or other cleansing agent) into the port. However, the invention contemplates post-administration cleansing of the port utilizing the removable cap portion. 
     Referring next to  FIG. 9 , such shows a cross-sectional view of the embodied device  40  in an intact configuration. For utilization second component  44  can be removed and utilized to cleanse external surface of the port. Subsequently, first end  50  of the second component can be attached to the port and contents of the chamber  54  can be administered into the port by application of force to plunger  46 . Alternatively, chamber  54  can be provided empty or can be provided to contain, for example, an anticoagulant agent and device  40  can be provided with plunger  46  in a forward position. Thus device  40  can be utilized for applications such as obtaining and/or testing of a blood sample from an individual by attaching first end  50  of the device to the port and repositioning of plunger  46  to draw fluid through the port into chamber  54 . 
     Referring to  FIG. 10  packaging  70  for delivery, storage and/or disposal of the component for access device  40  is illustrated. Such packaging includes a lid  72  and a tray portion  74 . Tray portion  74  has a cavity  76  with molded retainers  78  for positioning/retaining of the device and assisting in maintaining the integrity of the device and proper positioning of the plunger relative to the device chamber. Such packaging can be sealed and can be utilized to provide a sterile environment for device  40 . As shown in  FIG. 11  a series  71  of individual packaging unit  70  can be provided with individually sealed units to allow individual removal of units while maintaining sterility of additional units in the series. 
     Another alternative embodiment is described with reference to  FIGS. 12-13 . In this embodiment first component  42   a  is the same as the immediately preceding embodiment. However, referring to  FIG. 12  second component  44   a  comprises a “dual cap” system. Cap housing  60   a  includes container portion  62  and a second cap extension  65  which houses a second container  66 . Container  62  can contain an applicator material  64  such as the sponge-like materials described above. Similarly container  66  can also contain a sponge or other applicator material  67 . Container  62  can further contain a cleansing agent such as those described above. 
     Container  66  can preferably contain one or more microbiocidal agents that differ in composition from the cleaning solution contained in the cleansing cap  62 . An example agent composition within cap portion  65  can include from about 3% to about 11% H 2 O 2 . Additional components of the agent can include for example ethanol (from about 30% to about 40%) sodium citrate (from about 1% to about 4%), EDTA, and/or peracetic acid (less than or equal to about 11%). Preferably, the pH will be between 5 and 10 and can be adjusted with NaOH or other appropriate base/acid to about ph 7.4 as needed based upon the physiological pH and biocidal activity. The presence of EDTA can provide sporocidal activity against for example bacillus spores by complexing Mn and can additionally help stabilize H 2 O 2 . In combination with H 2 O 2  in the solution a synergistic and/or additive effect can be achieved. The invention does contemplate use of alternative chelators and pH stabilizers relative to those indicated. 
     It is to be noted that in some instances a similar solution having lower peroxide content may be included within the first container  62  and in particular instances may be present within the chamber of the first component. 
     Referring to  FIG. 13  such shows an intact device prior to use. In port cleansing applications second component  44   a  is removed from the device and portion  60   a  is utilized to cover a port thereby contacting the port with the contents of container  62 . Applicator material  64  can assist in applying the cleaning agent to external port surfaces. When the contents of chamber  54  are to be administered, component  44   a  is removed from the port and first component is attached to the port. Plunger  46  is depressed thereby injecting the contents of chamber  54  into the port. The syringe component is then removed from the port. A removable seal  68  can then be removed from second cap portion  65 . Cap portion  65  can be placed over the port such that the contents of container  66  contact the port. Second component  44  can then be removed from the port or can be retained on the port until further port access or manipulation is desired. 
     Referring to  FIG. 14  such shows an alternative embodiment wherein port access device  40   b  comprises a first component  42   b , a second component  44   b  and a third component  45   b  where second component  44   b  and third component  45   b  are independently removable caps. As illustrated the caps are disposed initially at opposing ends of the device and are of differing size. However, alternative relative size and positioning of the caps on the device is contemplated. For example, first component  44   b  and second  45   b  can be disposed on top-side or bottom-side of wing extensions  51 ,  53  of chamber housing  48   b.    
     For the example configuration illustrated, the larger cap (first component  44   b ) can be removed from the device and can be utilized for external port cleaning in a manner analogous to that described above. The second smaller cap (third component  45   b ) can be removed from the device after administration of the chamber contents and can be subsequently utilized as a port cap to protect the port until subsequent port access is desired as described above. Third component  45   b  optionally can contain an applicator material  82  and/or cleansing agent or microbiocidal agent as described above. 
     Alternative two-cap configurations include a device having a larger cap external to a smaller internal cap, the first cap being removable from the second cap where one of the first and second caps is configured for utilization as a port cap. 
     In the device shown in  FIG. 14 , cap housing  60   b  of second component  44   b  and cap housing  80  of third component  45   b  can be of differing colors. As such, the caps can be color coded (or otherwise coded) to notify the user or other personnel of the status of the port or intravascular line. For example, a first color such as green can be utilized on all or a portion of cap housing  80  which will be retained on the port after use of the device to signify a properly sterilized port. Cap housing  60   b  can be a second color (e.g., yellow or red) signifying the cleansing or other procedure being performed has not yet been completed. Accordingly, the caps can be utilized as an added safety measure to help ensure proper use and assist in maintaining sterility and appropriate record keeping. For example, the caps can allow visual monitoring and can be tracked by hospital pharmacy and/or central auditing software. 
     In addition to visual auditing of compliance to proper cleaning and maintenance of sterility, a barcode, radio frequency identification (RFID) and/or other pharmacy dispensary or inventory control system associated with the device can be utilized to provide an independent audit/compliance system. 
     Referring next to  FIG. 15  such depicts an additional alternate embodiment which can utilize a conventional type syringe and plunger design and can utilize caps in accordance with the invention. Accordingly, first component  42   c  comprises a syringe housing  48   c  and can have a LEUR-LOK® fitting at first end  50 . Plunger  46   c  can have a conventional type piston seal  57   c  configured to insert into second end  52  of housing  48   c  and form a seal with the walls of chamber  54   c . Second component  44   c  can comprise a housing  60   c  which can for example have an internal receiving port which fits either internally relative to the LEUR-LOK® fitting or which fits over and covers the LEUR-LOK® fitting at first end  50  of first component housing  48   c . Third component  45   c  can also have housing  80   c  configured such that it comprises an internal receiving port which fits either internally relative to a LEUR-LOK® fitting or which fits over and covers the LEUR-LOK® fitting (or which can have an alternative type fitting) based upon the type of port being cleansed. 
     A cross-sectional view of the device shown in  FIG. 15  is illustrated in  FIG. 16 . Such shows the exemplary type of cap housings for covering LEUR-LOK®-type fittings. For example third component  45   c  has housing  80   c  comprising a portion of such housing which fits internally within a LEUR-LOK® type fitting thereby capping such fitting. In contrast second component  44   c  has housing  60   c  which is threaded to thread onto LEUR-LOK® type fitting. It is to be understood that the depiction is for illustrative purposes only and that either or both caps can have the threaded configuration or the snap in configuration. Cap housing  60   c  and  80   c  can further be color coded as described above. 
     The invention also contemplates dual cap system disposed at the distal (non-administration) end of the port cleaner device (not shown). In this dual cap system a first “green” cap can be reversibly joined to both the device and also back to front in a stack relationship relative to a second “yellow” cap. Each of the two caps can be, for example, a LEUR-LOK® type fitting cap, friction fit cap, etc. The green cap can contain the microbiocide composition described above. The yellow cap can contain for example the cleaning compositions discussed earlier or the microbiocide composition as contained in the green cap since in this configuration the yellow cap is not in contact with the administration end of the device. 
     Possible materials for caps include, but are not limited to, polyethylene, polypropylene, and/or copolymer materials. Further, the caps can preferably comprise a material or agent that is UV protective to preserve the integrity of hydrogen peroxide during storage, shipping, etc. Packaging may also contain UV protective materials to inhibit peroxide breakdown. 
     As mentioned above, devices of the invention can be utilized for withdrawing blood from an individual through an intravascular catheter or intravascular port. In particular applications, the device can be utilized directly for blood testing purposes. The device chamber can preferably have a chamber size in the range of 1 to 3 ml, with appropriate calibration marks as discussed above. Where whole blood is desired, depending upon the particular purpose for drawing, blood can be drawn into either a device having an empty chamber or into a device containing an anticoagulant such as EDTA, sodium citrate or alternative coagulant (such as discussed above). The device containing blood and anticoagulant can then be utilized directly in blood testing equipment or blood can be transferred to an alternative device for testing. 
     In applications where serum is desired, whole blood can be drawn into the device chamber and, after coagulation, the device containing the blood sample can be spun to separate the serum from the red blood cells. If anticoagulant is present in the device chamber, further separation can occur to isolate plasma. Alternatively, a filter such as a MILLIPORE® (Millipore Corp., Bedford Mass.) filter can be fitted onto the device after a sample is drawn into the device chamber. Such technique can filter out red blood cells, white blood cells and platelets allowing serum to flow from the chamber while retaining the blood cells within the filter. Anticoagulants can optionally be provided within the chamber to allow transfer of blood cells or plasma if such is desired based upon the testing or other procedure to be performed (i.e., complete blood count, CBC, platelet count, reticulocyte count, T and B lymphocyte assays and chemistries). 
     An appropriate filter can also be utilized to filter out particulates during drawing of a blood sample from an individual into the chamber. 
     It is to be understood that any of the devices above can be utilized for cleansing purposes, for administration purposes or for blood drawing/testing purposes. Methodology will be analogous with variation based upon the particular device utilized as described above. 
     Example device packaging is illustrated in  FIGS. 17-19 . Packaging  100  can include a lid portion  102  and a packaging tray  104  as shown in  FIG. 17 . Referring to  FIGS. 18 and 19  packaging tray  104  can be a molded tray which has integrally molded retaining features which conform to the shape of a device  40   c  in accordance with the invention. Preferably the molded features conform to the shape of the device in the non-deployed position for shipment, storage, etc. Accordingly tray  104  can have one or more integrally molded retainer features  106 ,  107 ,  108  and  109 . Tray  104  can also comprise an integrally molded receiving stand  110  which can be configured to receive device  40   c  in an upright position as depicted in  FIG. 18 . Such receiving stand can allow device  40   c  to be inserted and retained during administrative procedures or after use. Tray  104  may also be used for device disposal purposes. 
     Device caps in accordance with the invention can be utilized independent of the devices for cleansing and protection of alternative access catheters and ports such as intravascular, peritoneal dialysis, urinary ports and catheters, etc. Accordingly, the caps can be packaged independently in pairs (one each of two differing sizes, colors, etc., in groups or in bulk, of one or more colors).  FIGS. 20-21  show an example two cap packaging system  115  having a first cap  117  which can be for example a yellow cap and which can preferably be a LEUR-LOK® type cap and a second cap  118  which can be, for example, a green cap and which can also be a LEUR-LOK®. Packaging system  115  can comprise a packaging tray  120  and as illustrated in  FIG. 21  can include integrally molded appropriate receiving ports/receiving rings  122 ,  124 . Where additional or fewer caps are to be packaged together tray  120  can have an appropriate number of receiving ports for receiving and reversibly retaining the caps. Where the caps differ in size (diametric), the ports can also be of differing size as appropriate. It is to be understood that the caps may be provided in groups such as one green and four yellow caps per package or any other appropriate number depending upon the particular procedure for which they will be utilized with the number and size of package ports corresponding to the number and size of various caps. 
     Referring next to  FIG. 22  an alternative packaging system  130  is illustrated. Packaging system  130  comprises a lid  132  and a tray  130  having integral receiving ports  136  and  138  for receiving caps  117  and  118 . As discussed above alternative numbers and sizes of receiving ports can be provided based upon the number and sizes of caps to be utilized. 
     Where caps are provided in bulk, such may be individually packaged and may be provided individually in sheets or on strips. Caps can alternatively be provided with catheter or line/import devices. Such can be included in common packaging either loose or attached to a port catheter or line to be used for port cleaning and/or protection after package opening and/or while the device is in use. In some instances the cap(s) can be packaged in one or more sub-packages included within a larger package enclosing the catheter device. 
     In compliance with the statute, the invention has been described in language more or less specific as to structural and methodical features. It is to be understood, however, that the invention is not limited to the specific features shown and described, since the means herein disclosed comprise preferred forms of putting the invention into effect. The invention is, therefore, claimed in any of its forms or modifications within the proper scope of the appended claims appropriately interpreted in accordance with the doctrine of equivalents.

Technology Classification (CPC): 0