WO2015076780A1 - Barquette de conditionnement rigide à évent destinée à la stérilisation par gaz - Google Patents
Barquette de conditionnement rigide à évent destinée à la stérilisation par gaz Download PDFInfo
- Publication number
- WO2015076780A1 WO2015076780A1 PCT/US2013/070722 US2013070722W WO2015076780A1 WO 2015076780 A1 WO2015076780 A1 WO 2015076780A1 US 2013070722 W US2013070722 W US 2013070722W WO 2015076780 A1 WO2015076780 A1 WO 2015076780A1
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- WO
- WIPO (PCT)
- Prior art keywords
- tray
- cap
- wall
- rigid
- rigid tray
- Prior art date
- Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
- Ceased
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Classifications
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B65—CONVEYING; PACKING; STORING; HANDLING THIN OR FILAMENTARY MATERIAL
- B65D—CONTAINERS FOR STORAGE OR TRANSPORT OF ARTICLES OR MATERIALS, e.g. BAGS, BARRELS, BOTTLES, BOXES, CANS, CARTONS, CRATES, DRUMS, JARS, TANKS, HOPPERS, FORWARDING CONTAINERS; ACCESSORIES, CLOSURES, OR FITTINGS THEREFOR; PACKAGING ELEMENTS; PACKAGES
- B65D81/00—Containers, packaging elements, or packages, for contents presenting particular transport or storage problems, or adapted to be used for non-packaging purposes after removal of contents
- B65D81/18—Containers, packaging elements, or packages, for contents presenting particular transport or storage problems, or adapted to be used for non-packaging purposes after removal of contents providing specific environment for contents, e.g. temperature above or below ambient
- B65D81/20—Containers, packaging elements, or packages, for contents presenting particular transport or storage problems, or adapted to be used for non-packaging purposes after removal of contents providing specific environment for contents, e.g. temperature above or below ambient under vacuum or superatmospheric pressure, or in a special atmosphere, e.g. of inert gas
- B65D81/2069—Containers, packaging elements, or packages, for contents presenting particular transport or storage problems, or adapted to be used for non-packaging purposes after removal of contents providing specific environment for contents, e.g. temperature above or below ambient under vacuum or superatmospheric pressure, or in a special atmosphere, e.g. of inert gas in a special atmosphere
- B65D81/2076—Containers, packaging elements, or packages, for contents presenting particular transport or storage problems, or adapted to be used for non-packaging purposes after removal of contents providing specific environment for contents, e.g. temperature above or below ambient under vacuum or superatmospheric pressure, or in a special atmosphere, e.g. of inert gas in a special atmosphere in an at least partially rigid container
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- A—HUMAN NECESSITIES
- A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
- A61B—DIAGNOSIS; SURGERY; IDENTIFICATION
- A61B50/00—Containers, covers, furniture or holders specially adapted for surgical or diagnostic appliances or instruments, e.g. sterile covers
- A61B50/30—Containers specially adapted for packaging, protecting, dispensing, collecting or disposing of surgical or diagnostic appliances or instruments
-
- A—HUMAN NECESSITIES
- A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
- A61B—DIAGNOSIS; SURGERY; IDENTIFICATION
- A61B50/00—Containers, covers, furniture or holders specially adapted for surgical or diagnostic appliances or instruments, e.g. sterile covers
- A61B50/30—Containers specially adapted for packaging, protecting, dispensing, collecting or disposing of surgical or diagnostic appliances or instruments
- A61B50/33—Trays
-
- A—HUMAN NECESSITIES
- A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
- A61L—METHODS OR APPARATUS FOR STERILISING MATERIALS OR OBJECTS IN GENERAL; DISINFECTION, STERILISATION OR DEODORISATION OF AIR; CHEMICAL ASPECTS OF BANDAGES, DRESSINGS, ABSORBENT PADS OR SURGICAL ARTICLES; MATERIALS FOR BANDAGES, DRESSINGS, ABSORBENT PADS OR SURGICAL ARTICLES
- A61L2/00—Methods or apparatus for disinfecting or sterilising materials or objects other than foodstuffs or contact lenses; Accessories therefor
- A61L2/26—Accessories or devices or components used for biocidal treatment
-
- A—HUMAN NECESSITIES
- A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
- A61B—DIAGNOSIS; SURGERY; IDENTIFICATION
- A61B50/00—Containers, covers, furniture or holders specially adapted for surgical or diagnostic appliances or instruments, e.g. sterile covers
- A61B2050/005—Containers, covers, furniture or holders specially adapted for surgical or diagnostic appliances or instruments, e.g. sterile covers with a lid or cover
-
- A—HUMAN NECESSITIES
- A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
- A61L—METHODS OR APPARATUS FOR STERILISING MATERIALS OR OBJECTS IN GENERAL; DISINFECTION, STERILISATION OR DEODORISATION OF AIR; CHEMICAL ASPECTS OF BANDAGES, DRESSINGS, ABSORBENT PADS OR SURGICAL ARTICLES; MATERIALS FOR BANDAGES, DRESSINGS, ABSORBENT PADS OR SURGICAL ARTICLES
- A61L2202/00—Aspects relating to methods or apparatus for disinfecting or sterilising materials or objects
- A61L2202/10—Apparatus features
- A61L2202/18—Aseptic storing means
- A61L2202/182—Rigid packaging means
Definitions
- the present application relates generally to gas sterilization packaging trays and more specifically to venting and filtration means for such trays.
- sterilization containers There are many types of sterilization containers which serve various needs.
- One class of containers are known as hospital sterilization containers and are used to sterilize articles of various shapes and sizes just prior to or within hours or a few days of their intended use. They are usually reusable rigid containers adapted for sterilization typically by steam under pressure e.g. in an autoclave, and are often used with equipment which is re-usable and not disposable.
- containers are typically loaded and sterilized at the hospital. They are not designed for a particular single product and they are not intended for shipping or to provide long term sterility. They do not typically require heat sealing equipment for closure, but are commonly designed to be mechanically closed by hand. Examples of hospital sterilization containers are One Tray® Sealed Containers from Sterile Containment Technology, LLC of Richmond, California, USA and SteriTite® containers from Case Medical Inc. of Ridgefieid, New Jersey, USA. Hospital sterilization containers are also disclosed e.g. in U.S. Patent Nos.
- Another class of sterilization containers is known as medical package sterilization coniainers and is designed for sterilization prior to delivery to a hospital or surgical facility.
- This class of containers is designed for single use and to withstand shipping and distribution.
- the containers are typically employed by article Attorney Docket No. 20808- WO manufacturers to package disposable or impiantable articles, which are sterilized by the article manufacturer or at a special sterilization service facility usually sterilizing many packages at once which have been loaded into bulk containers.
- Medicai package sterilization containers typically require heat sealing equipment for closure and often use ethylene oxide gas as the steriiant
- These medical packaging sterilization containers typically are used to provide many months or years of sterile she!f life for their contents.
- the present invention relates to medical packaging sterilization containers which may be used by article manufacturers to provide long term sterility of articles which are designed for shipment and storage without the necessity for being used within hours or a day or so of sterilization.
- Articles, such as medical devices can be held within a medical packaging sterilization container e.g. a sealed tray to protect the contents from microbial contamination, airborne particulates, foreign matter, etc, for an extended period of time e.g. months or years.
- the medical packaging sterilization container may be a rigid polymeric tray having a peelabSe heat sealed lid stock covering the tray top with contents held inside the tray which may also include package inserts to stabilize the artic!e(s) located therein from movement during transport.
- disposable medical equipment and implantable devices are sterilized following packaging and before transport to healthcare providers.
- Common forms of sterilization include irradiation, autoclaving, and treatment with a sterilizing gas, such as ethylene oxide (ETO).
- certain containers e.g. pouches or trays are provided with a gas permeable membrane, wall or lidding which allows introduction and removal of a sterilizing gas such as ethylene oxide.
- This gas permeable Sid or wall also functions as a barrier to entry of pathogens such as bacteria, viruses and other microbes.
- Articles such as medical devices and tools e.g. artificial joints, stents, implantable structures and equipment, surgical knives, catheters, clamps, etc. may be stored and transported in a sterile condition until needed whereupon the contents may be accessed under controlled conditions to minimize infection and Attorney Docket No. 20808- WO introduction of undesirable organisms.
- These medical packaging steriiization containers often use spunbonded poiyo!efin polymeric sheets such as Tyvek® as a permeable membrane lid or waS! component to permit gas sterilization and to act as a microbial barrier; see e.g. European Patent EP 07850868.
- Examples of medicai packaging steriiization containers are disclosed in U.S. Patent Nos. 4,022,324 (Schuster);
- a typical medical device package has a sheet of opaque breathable material sealed to the peripheral: edge of a tray or flexible thermoformed blister container to form a lidding. After placing and sealing an article inside, a sterilizing gas is admitted into the interior of the package through the breathable membrane.
- thermoplastic coated paper or thermoplastic coated Tyveki thermoplastic coated Tyveki spun bonded polyolefin are opaque and prevent inspection of package contents prior to opening. They are also susceptible to weakened seals and failure in gas steriiization due to the use of elevated temperatures and steam. More careful and time consuming handling must be used to minimize seal failures which negatively impacts packaging productivity and limits the speed at which such packages can be
- Opening of the package for use also raises potential problems.
- Use of nonwoven sheet material made of individual fibers that are thermally bonded to each other may potentially result in exposure to, or formation during an opening process, of small fibers that may be deposited on the sterilized article; this a particular concern where such nonwoven spunbonded polyolefin sheets are included as a wali component and form a peelable seam.
- spunbonded nonwovens such as Tyvek® are expensive.
- a gas sterilization rigid vented tray having: (a) a synthetic polymer tray wall having an exterior surface and an interior surface and comprising a base and upstanding base sidewali, with a foraminous wall portion in at least one of the base and sidewali; (b) filter media; (c) a foraminous cap; and (d) attachment means for the foraminous cap and tray wail whereby filter media is held by the cap to the foraminous wail portion.
- the attachment means may include snap fit mechanica! attachment, adhesives, heat seals, fusion seals, ultrasonic welding, or combinations thereof. Also, it is preferred that the filter media be held between the cap and wall.
- This tray may be provided with a lid attached to the sidewali e.g. at a flange by a continuous seal such as an adhesive seal or a heat seal.
- the seal is a tamper evident heat seal.
- the lid is preferably transparent and advantageously may provide an unobstructed view of the tray contents.
- articles may be packaged within the tray including medical devices, pharmaceuticals, persona! care items or foodstuffs a!l of which may advantageously be sterilized to prevent spoiiage of the contents or illness from contact or ingestion of deleterious microbes, bacteria, viruses, molds, etc. It will be appreciated that the function of the tray and all of its Attorney Docket No. 20808- WO constituent elements, i.e.
- the tray wails including bottom any sidewaii and the lid which may be considered after package formation as a top wali is to protect the contents of the package from contamination after the article is placed within the tray and the tray is enclosed by sealing with a lid.
- the sealed tray including lid acts as a physical barrier to entrance of foreign matter e.g. microbes, yeast, molds, bacteria, dirt, airborne particulates, etc. from the environment exterior to the package into the package interior thereby protecting the article held therein.
- the tray and lid are therefore made of continuous structural materials which act as a physical barrier between the exterior of the package and the interior package.
- the foraminous wall portion has a continuous and surrounding projecting wall proximate to and enclosing the one or more openings (A) in a first section within an interior space defined by this projecting wall and has no openings within a second section which is also within the interior space defined b the projecting wall; and the cap has a panel and a continuous sidewaii depending therefrom and has one or more openings (B) through the panel in a first section within an interior space defined by the continuous sidewaii and has no openings within a second section which is also within the interior space defined by the continuous
- the cap is secured to the wall portion with the first and second cap sections oriented with respect to the first and second wall portion sections such that a path from openings A to openings B in its shortest distance DR is greater than a path in its shortest distance DT from an interior surface of the cap panel to an interior surface of the wall portion circumscribed by the projecting wall.
- the cap is formed e.g. by molding from filter media such as a porous sintered polymer and the filter media and foraminous cap are one and the same with the foramina being the small openings providing tortuous gas Attorney Docket No. 20808- WO passageways from the exterior of the cap therethrough to the interior compartment of an attached tray through one or more openings in the sidewali,
- FIG. 1 is a perspective view of a vented gas sterilization rigid tray in accordance with the present invention.
- Figure 2 is a perspective view of an alternative embodiment vented gas sterilization rigid tray with a sidewali located vent in accordance with the present invention.
- Figure 3 is a plan view of the top of the tray depicted in Fig. 1 .
- FIG. 1 is a plan view of the bottom of the tray depicted In Fig. 1.
- Figure 5 is a sectional view of the tray depicted in Fig. 3 taken along !ines 5-5.
- Figure 8 is an enlarged view of a portion of the tray vent area of Fig. 5.
- Figure 7 Is a sectional view of a foraminous cap and tray wali portion taken along lines 7-7 of Fig. 6.
- Figure 8 Is an exploded view of the foraminous cap, filter media, and tray wall portion depicted in Fig. 7.
- Figure 9 Is a sectional view of an alternative embodiment of the foraminous cap, filter media, and tray wall portion depicted in Fig. 7.
- Figure 10 Is a schematic top view of an alternative foraminous cap and tray wali portion in accordance with the present invention.
- Figure 1 1 is a sectional view taken along lines 11 -11 of Fig. 10. Attorney Docket No. 20808- WO
- Figure 12 is an enlarged view of the cap, filter media, and tray portion depicted in Fig. 11 showing gas movement directions.
- Figure 13 is an exploded perspective view of an alternative embodiment of the invention.
- the present invention relates to package sterilization containers which may be useful for sterilizing a variety of articles from food to medicai supplies.
- the inventive package is disposable, designed for single use applications.
- the invention may be beneficially employed as a disposable, intended for single use, medicai package sterilization container.
- Articles may be sealed within a tray according to the present invention to provide a physical barrier between the sealed tray interior and exteriorly located contaminants such as microbes and particulates in the
- the sealed package may then undergo gas sterilization processes to decontaminate the interior contents of the sea! tray.
- Porous materials such as medical grade paper and Tyvek® spunbonded polyolefin sheets are often used for prior art gas sterilization packaging.
- the gas permeability of these materials is such that it allows for flow of steriiant and flushing gases into and out of the package being sterilized.
- These materials maintain the sterility of the package as they prevent bacteria and other microbes from entering the package.
- Tyvek® is very expensive and paper does not typically have as good of a microbial barrier as Tyvek®. Both of these materials are opaque and obscure viewing of package contents when used, as is typical, as the fray lid o as a portion thereof.
- porous medical device packaging systems the porous material allows for proper gas flow, but can also be thought of as a filter medium in order to provide microbial barrier.
- Impaction play a strong role in filtration.
- low gas flow situations such as storage, Diffusion, Gravitational Effects, and ESectrokinetic Effects play a prominent role in filtration.
- Tyvek® and paper depend upon all of these methods to create a sufficient microbial barrier.
- the tortuous path inherent in the structure of Tyvek® as well as its electrostatic properties make Tyvek® an excellent microbial barrier for packaging medical devices.
- a novel vent design utilizes an increased gas flow rate coupled with a thicker filter media or longer filtration path e.g. created by a change in flow direction with a predominant transverse or cross-directional flow through a vent which permits use of other filter media. This resuits in an adequate or improved microbial barrier through one or more of the following mechanisms:
- the surface area at the opening or openings on one side of the vent may be selected to be greater than the surface area of opening(s) on the other side of the filter media and vent, and optionally offset therefrom, the flow rate of individual particles may change as gas traverses the material in its multiple directions (i.e. transverse or cross-directional to the sheet thickness), allowing for more diffusion impactions as the particle velocity changes in transit.
- both the cap and a portion of the tray wall are "foraminous" meaning that the cap and wall portion each has one or more openings (these openings may also be termed apertures or holes). These openings may be formed by a variety of means and in a variety of shapes and sizes. As a general rule the holes should be small enough to retain the filter media and, if needed, avoid any unwanted contact between the media and a packages contents, yet large enough to facilitate gas flow rates, while maintaining integrity of the tray wail and cap.
- the opening size and its passageway dimensions and the number of openings are parameters which may be controlled to provide the desired gas flow rate.
- Other considerations in design of hole size, number and shape include: volume of the tray to be sterilized, gas exchange rates, filtration resistance, spatial relationships between any Attorney Docket No. 20808- WO two or more notes.
- Suitable holes for various vents may be made by use of lasers e.g. a CO2 laser, hot needles, mechanical drilling, or punching.
- a vent may be provided by construction of a wall portion or cap made from a porous material such as porous sintered polymers e.g. a porous sintered poiyoiefin, preferably porous sintered polyethylene or PCTFE.
- the sintered cap or wall portion comprises the filter medium in addition to functioning as a cap and/or wall.
- Each method of hole creation has its own advantages and drawbacks e.g. use of punches is inexpensive and produces few fibers but chads may be created and the variable depth of trays may make set up and operation diff icult or add expense; use of drills may be precise but are expensive and produce undesirable fines and fiber debris; hot needles may be quick and useful particularly for thin gauge materials, but may cause heat distortion of the cap or wall for larger thicknesses; lasers have an expensive fixed cost and have safety considerations, require smoke & gas removal, but do not produce fibrous debris or fines and create openings having a nice glassy edge e.g.
- a relatively small opening (or small opening area provided by a plurality of openings) in a rigid tray wall provides fluidic communication between the exterior of the package container and its interior so that gases may enter or exit the opening with passage through a filter which may be placed on either side of the opening.
- the filter provides a tortuous gas passageway from the tray exterior opening through the filter until reaching the interior compartment of the tray.
- the filter retaining cap has an opening to complete the fluidic communication with the tray interior.
- This cap opening ma also be relatively small (or have a small opening area provided by a plurality of openings).
- the filter and cap may be placed on the tray exterior so that gases enter and exit from the iray exterior through the cap then the filter and through the opening in the wail portion of the tray.
- the cap may be on either the tray interior or exterior with the filter media held between the cap and tray Attorney Docket No. 20808- WO wall in another embodiment, a wall portion or cap is formed from filter media itself rather than being a separate component.
- an opening area and a wall may be provided with a porous sintered polymer cap which itself provides both desired filtration of microbes and desired gas flow rates.
- more permeable materials can be used as the porous medium.
- more permeable structures are open cell foams, sintered porous plastics, high loft nonwoven fabrics, and woven fabrics. Since these materials are more permeable, less surface area of material is required over or as part of a package wall. Since Tyvek® is typically the most expensive material in a packaging system, these alternate materials may be less expensive than Tyvek®, and a reduction in porous surface area required should a!low for a reduction in overall cost while providing the possibility of other benefits including Improved visibility of package contents.
- the venting means may be relocated from the lid to the tray thereby allowing use of a highly clear, transparent lid providing an unobstructed view of the contents of the tray.
- the lid may be made of a nonporous or nonpermeable material and/or may also be formed of an oxygen and/or moisture barrier material.
- the lid may be made of a nonpermeable material which also functions as a retainer to prevent undesired movement of an enclosed article, e.g. during shipping and handling, by combining the functions of Sid and a retainer in a single component.
- a novel gas sterilization package tray which suitably comprises a vented rigid tray for gas sterilization having: Attorney Docket No. 20808- WO
- a synthetic polymer tra wail having an exterior surface and an interior surface and comprising a base and upstanding base sidewait with a foraminous wall portion in at Seast one of the base and the sidewaii;
- attachment means for the foraminous cap and the tray wal! whereby the filter media is held between the cap and the foraminous wal! portion and the attachment means are provided by snap fit or press fit mechanical fastening, adhesive, heat sealing, ultrasonic welding, or combinations thereof.
- the present invention provides packages which have both microbial filtration and gas venting (i.e. communication back and forth between the package interior and exterior).
- the tray walls and Sid are formed of materials to provide a barrier to transmission of microbes, particulates, dirt, foreign matter, etc. between the exterior and interior of the package. The same materials typica!!y render the walls and lid
- the inventive package and tray equips the tray with a powerful yet small vent that has filtration capability.
- this vent has (a) a first apertured wall !ayer having an opening of area "A”, (b) a second apertured cap layer having an opening of area ,S B". and (c) filtration media disposed between and in contact with layers (a) and (b).
- the first apertured wall layer has an opening of area "A" in a first section and has a second section having a nonapertured area greater than "A" and located in an area distinct from the apertured area.
- the second apertured cap layer is similarly defined with a first apertured section having an opening of area "B” and a second nonapertured section and the cap and wall layers are fixed relative to one another such that the apertured first section of the wal! layer overlays the second nonapertured section of the cap layer.
- the nonapertured second section of the wall !ayer overlays the first apertured section of the cap layer.
- the materials selected for the wall layer and cap are typically sufficiently restrictive to air flow through their thicknesses that gas flow is diverted or directed to the openings in wall and cap and from these openings
- the predominate gas flow into and out of the novel vent is caused to turn 90° which permits a gas transit distance greater than the thickness of the filter media sheet, and preferably at least twice this distance.
- Suitable materials which may be selected and used for layers of the tray wail and cap include many of the same materials thai may be used to construct a typical tray wall and may be monolayer or multilayer in construction. Lid stock for the lid used with the tray may also use similar materials. Examples of such materials include polyolefins, polyethylene terephtha Sates, polyamides, nylons, polystyrenes, polyacrylates, cyclic polyolefins, generally any polymer that is known for use in polymeric packaging. Such materials may be homopoiymers, copolymers, and their derivatives and blends thereof. Metal foils and meta!ized films are also contemplated.
- One or more functional properties may be contributed by one or more layers including desired levels of heat seaiability, optical properties e.g. transparency, gloss, haze, abrasion resistance, coefficient of friction, tensile strength, flex crack resistance, puncture resistance, abrasion resistance, portability, coiorfastness, flexibility, stretch or shrinkability, dimensional stability, barrier properties to gases such as oxygen, or to moisture, light of broad or narrow spectrum: including e.g. uv resistance, etc.
- Preferred materials for use as container walls, and Sidstock include nylons, polyesters, polystyrenic polymers, and polyolefin e.g.
- polystyrene resin ethylene or propylene homopoiymers or copolymers, or mixtures thereof in any number of layers, particularly, but not limited to, one to nine or 1 layers or more.
- Preferred polyolefins include ethylene homopoiymers or copolymers and may include low, medium, high and ultra-low or ultra-high density polymers. Examples are high Attorney Docket No. 20808- WO density polyethylene (HOPE), ethylene aipha-oiefin copoiymers (EAO) preferably utilizing butene-1 , hexene-1 , or octene-1 comonomer with a predominate ethylene comonomer portion) and including e.g.
- HOPE high Attorney Docket No. 20808- WO density polyethylene
- EAO ethylene aipha-oiefin copoiymers preferably utilizing butene-1 , hexene-1 , or oc
- LLDPE linear low density polyethylene
- VLDPE very low density polyethylene
- plastomers elastomers
- LDPE low density polyethylene copoiymers of ethylene and polar groups such as vinyl acetate or ethyl acryiate e.g. ethylene vinyl acetate (EVA) or ethylene methyl acryiate (EMA) or ethylene acrylic acid copo!ymer(EAA) t functional group modified polymers including e.g. anhydride modified EAOs.
- Propylene homopolymers and copolymers including polypropylene and propylene ethylene copolymer are useful, in some embodiments of the invention tray and !id layers in may utilize a gas barrier layer such as aluminum foil, poiyvinylidene chloride copolymers such as saran, polyacrylonitriles, or ethylene vinyi alcohol copolymers which provide high barriers to gas permeability or materials such as nylon which impede gas permeation to a lesser extent, or materials such as polyethylene which are generally not considered oxygen barriers.
- Gas barrier embodiments may be used for sterilization followed by purging the package interior with an inert gas and sealing or capping the vent to provide a hermetic package. This may be useful to package articles sensitive to the presence of oxygen over time.
- Tray including tray wall and cap, and Sid layers in accordance with the present invention may utilize a sealant layer which can include polyethylene, ionomer, polyacryionitrile, polyester, Barex®, or Surlyn®, Lid or trays may be multilayer coextrusions or laminates which may include more layers than those described above such as one or more adhesive layers to bond together layers which might otherwise have weak bonds and be subject to delamination or for other property enhancements or reasons of performance or cost.
- a sealant layer which can include polyethylene, ionomer, polyacryionitrile, polyester, Barex®, or Surlyn®
- Lid or trays may be multilayer coextrusions or laminates which may include more layers than those described above such as one or more adhesive layers to bond together layers which might otherwise have weak bonds and be subject to delamination or for other property enhancements or reasons of performance or cost.
- the synthetic polymer tray wall comprises a polyo!ef in, polyester, polyurethane, polystyrene, cyclic olefin copolymer, or combinations thereof.
- the synthetic polymer tray wall comprises a polyester terephthalate (PET) hornopo!ymer or copolymer, amorphous PET (aPET), glycol Attorney Docket No. 20808- WO modified PET (PETg), high impact polystyrene (HIPS), high density polyethylene (HDPE), polypropylene or combinations thereof.
- packaging articles which have rough surfaces such as implants
- One type of polymeric surface layer with advantageous abrasion resistance is based upon thermoplastic aromatic polyether polyurethane. DeerfieJd Urethanes, a subsidiary of Bayer, markets suitable
- thermoplastic aromatic polyether polyurethane films under the trademark Durefiex ⁇ with grade PT9400 being particularl suitable, it is also advantageous to use this
- the synthetic polymer tra wall comprises a multilayer structure having at least one layer of polyester terephthalate (PET) homopolymer or copolymer, and an interior surface layer comprising
- trays out of materials which can be readily thermoformed into packages of suitable rigidity The typical packaging material for medical implants including femoral stem components has been sheets or films of polyethylene terephthalate glycol (PETG) because they have adequate rigidity and mechanical strength and good thermal formability. However, it is sometimes desirabie to have greater abrasion resistance than this material offers. This material may be used with a laye of thermoplastic aromatic polyether polyurethane in a multilayer
- This laminate is conveniently formed by melt laminating the polyurethane to the PETG.
- a preferred PETG for this lamination is Eastman's Eastar 8763 PETG resin.
- the thicknesses for both fiims should be compatible with both thermoforming the package configuration and providing adequate mechanical strength.
- a convenient range for the polyurethane is between about 0.01 and 0.025 inches while for the PETG it is between about 0.015 and 0.04 inches.
- the synthetic poiymer tray wall comprises a multilayer structure having an interior surface layer comprising poSyurethane or a cyclic olefin copolymer.
- Adhesives useful in the present invention include permanent adhesives and pressure sensitive adhesives commonly available from many commercial sources. It is contemplated that acrylic and anhydride modified polymers may be employed as well as many adhesives which may be selected depending upon other material selections for the filter material as well as the gas diversion layer materials.
- Additives and processing aides may also be incorporated into the tray wall, cap and/or filter media of the present invention.
- the thickness of the multilayer structure laminate may be any suitable thickness that provides structural integrity, and desired combinations of properties which may vary depending upon the nature of the contents 1 usage requirements and which may include e.g. consideration of rigidity, structural support, tensile strength,
- the synthetic polymer tray wall has a typical average thickness between about 20 mil to 60 mil (508-1524 microns), and preferred thickness of 30 to 50 mil (762-1270 microns); more preferably about 40 mil (1016 microns).
- the lid has a typical thickness between about 2 to 20 mil (51 -508 microns ( ⁇ ) note and preferred thickness of 2-10 mil (51-251 microns); more preferably 3-6 mil (76-152 ⁇ ).
- the cap has a typical thickness between about 15-60 mil (381 -1524 ⁇ ), and preferred thickness of 20-50 mil (508-1270 microns; more preferably 30-40 mil (762-1016 ⁇ ).
- the cap may be a snap-on rigid cap or a semi-rigid cap or even a sheet or film cap which is fastened to the tray wail by adhesive or fusion e.g. by heat sealing or ultra-sonic welding or fastened by a combination of means, for example, by mechanica! means such as a snap-on cap coupled with an adhesive which sets over time,
- a filtration media is used to provide gas transport between opposing exterior and interior sides of a package wall while inhibiting, reducing or preventing passage of smali particles, foreign materials, viruses, and microbes.
- Suitable filtration media may be fibers, disks or sheets and may be polymeric, cellulosic or non-celSuSosic or a combination thereof.
- Suitable oeSlulosic materials include cotton including air laid, carded, fibrous cotton wadding, wood pulp such as fluff pulp and non-wood plant counterparts.
- Suitable non-ce!luiosic materials include
- thermoplastics that can be used to provide porous thermoplastic filter media sheets which inciude but are not limited to, homopolymers and copolymers of poiyoiefins, polyurethanes, polyamides, nylons, polycarbonates, poly (ether sulfones),
- f!uoropolymers such as po!yietrafluoroethyiene (PTFE) and polyvinylidene fluoride
- PVDF polyvinylene
- a preferred thermoplastic is a poiyoiefin.
- suitable poiyoiefins inciude but are not limited to: ethylene vinyl acetate; ethylene methyl aery late; polyethyienes; poly propylenes including nonwoven spunbonded
- polypropylene ethylene-propylene rubbers; ethylene-propylenediene rubbers; po!y(1- butene); polystyrene; poly(2 ⁇ butene); poly(1 ⁇ pentene); poiy ⁇ 2 ⁇ pentene); po!y(3-methyl ⁇ 1 - pentene); poly(4 ⁇ methyi ⁇ 1-pentene); 1 ,2-poiy ⁇ 1 ,3-butadtene; l4 ⁇ poSy ⁇ 1 ,3-butadiene; polyisoprene; poSychloroprene: poiy(vinyi acetate) ; poly(viny!idene chloride); and mixtures and derivatives thereof.
- a preferred poiyoiefin is polyethylene homopoiymer or copolymer.
- suitable polyethyienes include, but are not limited to, low- density polyethylene, high density polyethylene, ultra-high molecular weight Attorney Docket No. 20808- WO polyethylene, ethylene aSpha-oSefin copoiymers such as linear low density polyethyiene or very low density polyethylene, and derivatives thereof.
- Suitable filter media sheets made of porous sintered thermoplastics such as polyolefins may be made from the materials and by the processes as more fully described in U.S. Patent No. 6,551 ,608, U.S. Publication No.
- filter media may include e.g. air iaid. wet laid or dry laid nonwovens of materials such as polypropylene, polyethylene, polyester, nylon, celluiose or combinations thereof.
- Electrostatic air filtration materials such as TechnostatTM from Holiingsworth & Vose may be adapted for use e.g. air laid
- polypropylene fiber mats which are needle punch bonded to a polypropylene
- the filter media may also be made from open DCled foamed polymers. It has long been known that a "foam" of poiyurethane can be prepared by reacting a "foam" of poiyurethane.
- polyisocyanate with a poly-hydroxy compound in the presence of a small amount of water which acts as a blowing agent.
- the water reacts with isocyanate groups producing carbon dioxide gas which forms small gas bubbles or ceils in the "foam" when the poiyurethane sets.
- Such "foam” products have a structure made up of numerous individual ceils which generally are constructed of a three dimensional skeletal structure of
- thermoplastic materials of the invention may further comprise materials such as lubricants, colorants, fillers, processing additives, and mixtures thereof.
- Suitable fillers include, but are not limited to: mtcrocrystalline cellulose, DCF, calcium carbonate, calcium siliceous fillers, polyethyiene fibers and filaments, and mixtures thereof.
- antimicrobial, anti-bacterial, anti-viral and anti-mycotic agents may be incorporated within the filter medium structure.
- Suitabie agents include e.g., natural antimicrobial agents; polymeric antimicrobial agents; phenolic and chlorinated phenolic compounds; resorcinol and its derivatives; bisphenolic compounds; benzoic esters; halogenated carbaniiides; thazoiines; trichioromethylthiol ides; metal salts; silver ions; and mixtures thereof as further described in U.S. Patent No. 6,551 ,608, It is desirable that the filter media be contained to prevent direct contact with the tray contents e.g. a medical device to avoid contact transfer of any media material or additives via the device to a patient.
- this filtration media is a microporous structure which may be e.g. a sintered thermoplastic e.g. sintered porous poSyo!efin e.g. an ultra-high molecular weight polyethylene, or an open celled polymeric material such as those sold under the trademark Porex® by Porex Technologies GmbH of Aachen, Germany.
- Preferred materials are chemically Inert, and have excellent physical properties including high tensile strength and temperature resistance to withstand elevated temperatures and steam employed in gas sterilization processes.
- Other desirable properties for preferred embodiments of the invention include filter media having oleophobic and hydrophobic properties and uniformity of pore size.
- porous PTFE material which is an expanded po!ytetrafluoroethylene (PTFE) polymeric film is commercially available under the Porex trademark.
- Expanded polytetrafluoroethylene (PTFE) films are further described in U.S. Patent Nos. 3,953,568; 4,187,390; 4,945,125; 5,066,683; 5,157,058; and 5,362,553 each of which is hereby incorporated by reference in their entireties. Expanded PTFE materials are also available commercially from Tetratec, Philadelphia, Pa. as Tetratec #1305 and from Sumitomo Electric Industries, Osaka, Japan under the Attorney Docket No. 20808- WO brand Poreflon® WP-100.
- An expanded PTFE fiSm typically comprises a plurality of nodes interconnected by fibrils to form a microporous structure.
- Sintered porous polymers may be used to form a cap and/or wail portion in accordance with the present invention thereby combining the filter media and the cap and/or wall into a single component.
- Porous filter media according to the present invention have a preferred average pore size between about 1 to 500 microns.
- the pore size will preferably have substantial uniformity, although materials with a range of pore sizes are suitable.
- Filter media such as sintered polymers from Porex are compatible with steam and ethylene oxide sterilization processes and may be ultrasonicaily welded or heat sealed.
- Gurley Hill porosity values may be used to select the materials.
- Gurley Hill porosity refers to the air resistance of an approximately 8.45 cm 2 (1 in 2 ) circular area of test sample using a pressure differential of 1.22 kPa and Is measured in accordance with International Standard ISO 5636-6, "Paper and board— Determination of air permeance and air resistance (medium range)— Part 5: Gurley method.”
- Gurley Hill porosity values are reported in the amount of time (seconds) required for a given volume (100 cm 3 ) of air to pass through the test sample, in general, Gurley Hiil porosity values indicate the gas barrier strength of a sample; lower values indicate the sample is more porous. Samples with Gurley Hill porosity values greater than 300 seconds are generally considered substantially non-breathable.
- the filter media has a typical thickness between about 25 to 250 mil (635 - 6350 ⁇ ) ; and preferred thickness of 60 to 125 mil (1524-3175 microns).
- FIG. 1 depicts a perspective view of a vented, rigid tray 10 in accordance with the present invention.
- Tray 10 has a tray wall 11 , preferably made from synthetic polymer, and having an exterior surface 12 and Attorney Docket No. 20808- WO interior surface 13.
- the tray wall 1 1 comprises a base 14 and upstanding base sidewall 15.
- the sidewai! 15 may have a sidewall flange 16 which is adapted to receive a heat sealabie or adherabie !idstock on an upper flange surface 17.
- the sidewall 15 may also be equipped with an interna! rim 18 for receiving an article-stabilizing insert (not shown).
- the tray 10 is also equipped with a vent 19 in its base 14.
- the vent 19 has a
- the base 14 and base sidewall 15 are preferably integrally formed of a single polymeric sheet e.g. by thermoforming and the base 14 and base sidewall 15 portions of the tray wall 1 1 meet at base perimeter 22.
- tray 1 10 depicts a perspective view of a vented, rigid tray 1 10 in accordance with the present invention.
- Tray 110 is similar to the tray 10 of Fig. 1 except for the vent location.
- tray 1 10 has a tray wall 11 preferably made from synthetic polymer, and having an exterior surface 1 12 and interior surface 113.
- the tray wall 11 1 comprises a base 1 14 and upstanding base sidewall 1 5.
- the sidewall 115 may have a sidewai! flange 116 which is adapted to receive a heat sealabie or adherabie Sidstock on an upper flange surface 1 17.
- the sidewall 1 15 may also be equipped with an internal rim 1 18 for receiving an article-stabilizing insert (not shown).
- the tray 1 10 is also equipped with a vent 1 19, however in this embodiment the vent 1 9 is located in its sidewai! 1 15,
- the vent 1 19 has a foraminous cap 120 having a plurality of holes 121.
- the base 114 and base sidewai! 1 15 are preferably integrally formed of a single polymeric sheet e.g. by thermoforming and the base 114 and base sidewai! 1 15 portions of the tray wall 1 1 1 meet at base perimeter 122.
- FIG. 3 a top plan view of the tray 10 of Fig. 1 is shown.
- rigid tray 10 having tray wall 1 1 clearly shows the vent 19 having a foraminous cap 20 with holes 21
- the vent 19 is centrally located in the base 14 within the base perimeter 22.
- Tray 10 has a tray wall 1 1 and interior surface Attorney Docket No. 20808- WO
- Tray wall 1 1 has a sidewali flange 16 with an upper flange surface 17 for receiving an attachable, preferably clear and transparent, lid.
- Upper flange 17 is
- a lid may be attached to the tray 10 by several means.
- the lid may be a plastic snap- on iid where the Sid has an outer rim which expands and snaps around flange 16.
- the Sid will be a heat scalable, thermoplastic film which may be heat sealed to the upper flange surface 17 thereb providing a continuous seal around an interior compartment 24 of the tray 10.
- the lid may be sealed entirely around a perimeter 25 which defines a tray opening into its internal compartment 24, while the while seal does not extend into an flange area extension 26 having pulitab grooves 23, These grooves 23 and proxtmate extension area 26 is an area of the flange 17 which is not heat sealed and therefore a user may grasp a lid edge and manually, peelably remove the lidding film from the upper flange surface 1 .
- the lidding film used in various embodiments of the invention may be chosen to be heat sealabte to compatible material on the upper flange surface 17 to provide a strong heat seal which is also manually peelable and may , in addition, provide evidence of a continuous seal, or Sack thereof, through a tamper evident feature in which, upon removal of the lid film by peeling, the Sid is transformed from transparency to a mi!ky white opaqueness. This is a visual indicator which may be used to check whether the iid has been properly sealed and whether it is properly sealed just prior to opening. Prior to removal the Sid is continuously heat sealed about the perimeter 25 of the upper flange surface 17 thereby enclosing the interior compartment 24.
- the lid attached to the upper flange surface Prior to peeling the lid attached to the upper flange surface should be transparent in appearance. Upon detachment from the flange surface 17 the lid should become opaque and have a milky white appearance: if it does not then it may not have been properly sealed wherever there is a discontinuity in the opaqueness.
- a transparent clear lidding heat sealed to the upper flange surface 17 also advantageously provides a tray having an unobstructed view of its interior.
- the Attorney Docket No. 20808- WO interior compartment 24 of tra 10 may also utilize a transparent insert which is seated on rim 18 to stabilize an article held therein and this insert may likewise be of
- this article will be a medical device such as an implantable prosthetic device such as a hip joint, knee joint, or other medical devices e.g. a catheter, scalpel, etc.
- the vent 19 is constructed so that sterilant and purge gases may communicate through plurality of holes 21 between the interior compartment 24 and the environment exterior to the tray 10 while at the same time the vent filters out unwanted, deleterious materials and agents such as harmful bacteria, molds, viruses, dust, etc.
- a bottom plan view of the tray 10 of Figs. 1 and 3 is shown, in this view, rigid tray 10 having tray wall 11 clearly shows the vent 19 having a foraminous wall portion 27 with holes 28.
- the vent 19 is centrally located in the base 14 within the base perimeter 22.
- Tray 10 has a tray wali 1 1 and exterior surface 12 of the tray wall 11 equipped with a rim 18, Tray wali 1 1 has a sidewa!l flange 16 with an lower flange surface 29 connected to rim 18 which in turn is connected by tapering side wall section 30 to base perimeter 22.
- Flange 16 is provided with a flange extension area 26 in one corner with pull tab grooves 23 which on its reverse side assists in lid removal.
- a lid may be attached to the tray 10 by several means.
- the lid may be a plastic snap-on lid where the lid has an outer rim which expands and snaps around flange 16 removably hooking on the tower fiange surface 29,
- the vent 19 is constructed so that sterilant and purge gases may communicate through plurality of holes 28 which extend from the exterior surface 12 of the tray wall base 14 to th interior surface (See Fig. 3) so that these gases pass through a filter media (See Figs. 6-8) between the interior compartment (See Fig. 3) and the environment exterior to the tray 10 via foraminous cap holes 21 (See Fig.
- the exterior surface 31 of the base 14 is circumscribed by base perimeter 22 and Attorney Docket No. 20808- WO may be provided with a plurality of raised extensions or feet 32. These feet may be integraily formed e.g. by therm of orming. The feet 32 provide a separation between the tray vent 19 and any flat surface upon which the tray rests e.g. a surgical table or sterilizing tray.
- FIG. 5 a sectional view of the tray 10 depicted in Fig. 3 taken along lines 5-5 is shown.
- the rigid tray 10 has a tray wall 1 1 which comprises a base 1 and upstanding base sidewal! 15 forming an interior compartment 24.
- the vent 19 is clearly shown with its foraminous cap 20 having holes 21 connected to the sidewal!
- Tray 10 has a tray wall 11 with an exterior surface 12 and opposing interior surface 13. This interior surface 3 of the tray wail 1 1 has a peripheral rim 18 formed therein.
- Tray wall 11 has a sidewal! flange 16 with an upper flange surface 17 and lower flange surface 29 connected to rim 18 which in turn is connected by tapering side wall section 30 to base perimeter 22.
- Flange 16 is provided with a flange extension area 26 in one corner with pu!l tab grooves 23 which assist in lid removal.
- Vent 19 may be recessed slightly, as shown, to prevent contact of the fray or table surface with the area adjacent to the vent 19 and this recess may also facilitate gas flow into and out of the vent holes 28. This may be useful e.g. where the tray is subjected to conditions where steam condensation may occur since a recessed location e.g. on the tray base may assist in protecting the vent from condensate.
- projecting from an exterior surface 31 of the base 14 are a plurality of feet 32 which elevate the exterior base surface 31 to space apart the vent 19 from a surface such as a flat tray or table. This spacing further facilitates prevention of contact of the area adjacent the vent 19 with a tray or table surface and any contaminates or liquids which may be present thereon and further may facilitate the aforementioned gas transfer.
- Vent 19 comprises a foraminous cap 20 having holes 21 and a mating foraminous wa!i portion 27 which has holes 28 which are preferabiy axially offset from alignment with holes 21.
- Filter media 33 held between cap 20 and wall portion 27 are filter media 33.
- Attachment means are provided to connect together the foraminous 20 and the tray wail 11 and the foraminous wall portion 27 These attachment means are preferabiy snap fit attachment means whereby filter media 33 is held between the cap 20 in the foraminous wall portion 27.
- the foraminous wail portion 27 has a continuous projeciing wail 34 proximate to and surrounding the foraminous wall portion 27 which by definition contains at least one hole, and in this depicted embodiment a plurality of holes 28.
- the projecting wali 34 extends from the tray wall 11 towards the interior compartment 24 of the tray 10 (See Fig, 5),
- the projecting wall of the vent may extend from the tray wall 11 towards the exterior of the tray in which case the filter media and cap placement are made on the exterior surface of the tray.
- the projecting wail 34 may be provided with the least one recess 35 as the projecting wail 34 extends away from base 14.
- this recess may be a continuous recess about the periphery of a continuous projecting wall 34. While a circular projecting wall is depicted, it is contemplated that projecting walls of various shapes may be employed. For example, it may be desirable to utilize a symmetrical shape or asymmetrical shape, either having a configuration which allows cap placement along any dimension of rotation about an axis perpendicular to the base, or alternatively which requires a specific location for engagement of the cap 20 with the wall portion 27. The advantages of the specific placement of the cap 20 to the wail portion 27 are further discussed below with respect to Figs. 10 - 12.
- a plurality of recesses may also be employed to effect cap placement positioning as well as for securing the cap 20 to the projecting wall 34.
- the projecting wall 34 extends outward to a perimeter hold position 38 whereupon the projecting wall turns inwardly and then downwardly and then turning parallel to the base 14 to create a recess 37 for holding the filter media 33.
- This filter media 33 is placed in the filter media recess 35 where it is enclosed by and securely held by foraminous cap 20.
- the foraminous cap 20 Attorney Docket No. 20808- WO has a at least one hole and in this depicted embodiment a plurality of holes 21.
- Cap 20 has a pane! 38 and a continuous cap sidewal! 39 depending therefrom.
- the cap 20 has a detent 40 which fits into the recess 35 of the projecting wa!l 34 to provide a snap fit.
- a cap 20 having a pane! 38 and a continuous side wa!i 39 depending therefrom with the sidewail 39 having at feast one detent 40 may be employed to cooperate with the projecting wall 34 to provide snap fit aitachment means.
- Each detent and recess is adapted to cooperate with each other to provide attachment means whereby a cap 20 is securely connected to the tray wall 1 1 .
- Fig. 7 a sectional view of a foraminous cap 20 and fray wall portion 27 taken along lines 7-7 of Fig. 6 is shown. In figure 7, the cap 20, filter media 33 and foraminous wai!
- vent 19 in accordance with the present invention.
- the solid headed arrows show gas flow between the interior of the tray through openings in the cap 20 provided by a plurality of holes 21 across the fitter media 33 and into and out of openings in the foraminous wall portion 27 provided by a plurality of ho!es 28.
- vent 19 permits sterilizing gases to be admitted from the tray exterior through holes 28, across the filter media 33 and out of holes 21 into the tray interior whereupon the damaging, dangerous or undesirable microbes, molds, yeasts, spores, viruses, bacteria and the like are eradicated to render contents of an enclosed tray sterile.
- the sterilant gases are flushed from the tray interior by application of an vacuum and re-admittance of atmospheric or purging gases.
- This sterilant, vacuum , gas exchange operation may be cycled multiple times to effect sterilization.
- This process which typically employs ethylene oxide as a sterilant which may be performed under elevated temperatures and with or without elevated humidity can cause changes in pressure or pressure differentials which stress not only lid to tray seals, but also the attachment means for securing the filter media over the openings in the tray wall.
- the cap 20 may be held mechanically e.g. by snap fit means and/or may also be held by heat seals, ultrasonic welding, adhesives or combinations thereof.
- FIG. 8 an exploded view of the foraminous cap 20, filter media 33, and tray wall portion 27 of vent 19 depicted in Fig. 7 is shown.
- the foraminous wail portion 27 of tray wall 1 1 is formed into a shape Attorney Docket No. 20808- WO having a projecting vval! 34 with a recess 35 which is adapted to receive a
- Portion 27 is further formed to have a f ilter media recess 37 for receiving filter media 33.
- the cap 20 may be formed with either or both of a recess for receiving the filter media 33 and/or one or more recesses for receiving a corresponding detent which detent could be made in the wall portion e.g. on the interior side of a projecting wall 34 and into which a cap could snap fit in a nesting arrangement.
- a bottom panel 41 of the wali portion 27 has a plurality of openings which could be slots, ovals, or of various sizes or shapes, but preferably are generally circular holes 28 which may be formed from variety of well-known means e.g. laser perforations, die punched, hot needle formed, etc.
- the filter media may employ a variety of materials which can range from cellu!osic materials such as cotton to synthetic non-cellulosic polymers such as polypropylene nonwovens, sintered polyethylene discs or open celled foamed polymers, etc.
- the foraminous cap 20 has a panel 38 through which are provided a plurality of holes 21 as for the wall panel 41 .
- the dimensions of the filter media recess 37, projecting wali recess 35, cap detent 40 and thickness of the filter media are such that, upon attachment of the cap 20 to the wall portion 27 , the filter media 331s securely held therebetween in a manner which precludes filtration defeating channeling between the holes in the cap 20 and the holes 28 in the wall portion 27.
- FIG. 9 an alternative vent 219 to the vent 19 depicted In Fig. 7 is shown having a foraminous cap 220, filter media 233, and foraminous tray wall portion 227.
- the vent 219 is similar to that described above for Figs. 6-8 except that a single opening or hole is used in either or both of the cap 220 and/or wall portion 2:27.
- a cap 220 having a single hole 221 and a wail portion 227 also having a singie hole 28.
- This embodiment contemplates use of filter media 233 which is self-contained e.g. a cohesive sintered disk having sufficient integrity that it does not disintegrate in use or a filter media having a woven or nonwoven containing wall e.g. as a sachet or self-contained semi-permeable pouch.
- FIG. 10-12 an alternative form of the vent 19 of Figs. 6-8 is depicted in the form of a transverse flow vent 319.
- FIG 10 is a schematic top view of an alternative foraminous cap 320 and tray wall portion 311 in accordance with the present invention.
- An opening or slot-like hole 323 in foraminous wati portion 327 is shown by dotted line to axialiy offset from the cap opening 321.
- a single hole is shown in both cap 320 and wa! portion 327, it is contemplated that a plurality of hoies couid be grouped together to achieve the same effect, as further described below.
- slot hole 321 cou!d be e.g. three holes in a Sine within the same outline of the slot or an array of e.g.
- 9-12 small holes could be bunched together on one side of the cap 320 while in a similar fashion the single slot 328 of the wali portion 327 could be transformed into a plurality of holes in a line or bunched array yet distalSy located from the cap holes 321.
- FIG 11 is a sectional view taken along lines 1 1-1 1 of Fig. 10. in this sectional view a similar vent component arrangement to that of vent 19 in Figs. 6-8 are shown except for the openings or holes in the cap 20 and wall portion 27.
- a tray wall 311 has a foraminous wail portion 327 with the projecting wall 334 having a recess 335 time which is seated filter media 333 held in place by a foraminous cap 320 which is connected to the wail portion 327 by snap fit aitachment means.
- the cap 320 is provided with at least one detent 340 and the projecting wall 334 has a mating recess 335 to receive the detent 340 thereby providing retention of the cap 320 by pushing and stretching the detent 340 over the projecting wall 334 until it snaps back with the cap detent 340 nesting within the recess 335 of the projecting wall 334 as for the embodiment of Figs. 6-8.
- the detent and recess are adapted to cooperate to provide the attachment means whereby the cap is securely connected to the tray wall, it should also be noted that the attachment means may be provided by use of an adhesive, heat sealing, ultrasonic welding, mechanical attachment for exampie by snap fit or press that means, or combinations thereof.
- FIG. 12 is an enlarged schematic view of the cap 320, filter media 333, and an the foraminous tray wall portion 327 defined by the projecting wall 334 as depicted in Fig. 1 1 and the interior space thereof.
- Fig. 12 illustrates gas movement directions by solid headed arrows.
- Vent 319 is depicted in Fig. 12 showing a Attorney Docket No. 20808- WO foraminous wall portion 327 having a hoie 328 therethrough in a f irst section within the interior space defined by the projecting wail (See Fig. 1 1 ).
- a second section which has no openings.
- the cap 320 has a pane!
- the cap 320 and iray wall 311 may be secured to the wall portion 327 with the first and second cap sections oriented with respect to the first and second waii portion sections such that a path from opening 328 opening 321 in its shortest distance D R is greater than a path from an interior surface 348 of the cap 320 to an interior surface 347 of the wail portion recess 335 in its shortest distance Dr.
- the shortest distance Dj also corresponds to the thickness of the filter media 333. in one preferred embodiment, the relationship between these two shortest distances DR and D T wi!i satisfy the formula DR ⁇ 2D T
- the cap 320 and iray wall 311 may be secured to the wall portion 327 with the first and second cap sections oriented with respect to the first and second waii portion sections such that a path from opening 328 opening 321 in its shortest distance D R is greater than a path from an interior surface 348 of the cap 320 to an interior surface 347 of the wail portion recess 335 in its shortest distance Dr
- orienting means for positioning opening or hole 328 in a spaced apart relationship to the opening or hole 321 , along a plane of the cap panel 338 or bottom pane! 341 of the wal! portion 327,
- These orienting means may comprise at !east one of: (i) mating cap and wali portion projecting wail configurations which preclude transverse alignment of openings of the cap 320 with the openings of the foraminous wali portion 327; locating notches or visual indicators in the cap 320 and wali portion 327; and (iii) an asymmetric cap perimeter; and (iv) positioning lock tabs.
- gas flow may enter o exit opening 321 and proceed longitudinally or transversely through filter media 333 entering or exiting opening 328 to provide a long pathway through the filter media 333.
- This long transverse flow path advantageously in accordance with the present invention allows for a low profile vent to be provided on a rigid tray where this low-profile vent 319 is capable of providing a high degree of filtration undesirable partic!es and/or organisms while permitting a high gas volume to flow into and out of the tray interior during gas sterilization processes. This helps to prevent seal rupture between the tray and led and aiso around the vent itself.
- a highly Attorney Docket No. 20808- WO desirable combination of filtration efficiency, effectiveness, and stress reducing gas flow rates.
- a vented rigid tray indicated generally by 410 having a continuous tray wall 411 with exterior surface 412 and interior surface 413, base 414 and base sidewall 415.
- the base sidewaSI 415 has a continuous perimeter sidewall flange 416 with an upper flange surface 417.
- Sidewall 415 is equipped with an internal rim 4 8 for receiving a retainer insert 451.
- a microbe filter vent 419 is shown in an exploded view having a foraminous cap 420 with holes 421 , filter media 433, and a foraminous wall portion 427 with the projecting wall 434 forming a filter media recess 437.
- Cap 420 comprises a panel 438 and sidewall 439 which is depicted as having a generally rectangular shape which may be asymmetrical such that the May only be connected to wall portion 427 and a single configuration.
- Cap 420 may be mechanically fastened wall portion 427 by manually pushing the cap for 20 against the wail portion 427 with filter media 433 therebetween which causes cap sidewall 439 to distort and extend about projecting wall 434 with detent means of the cap 420 springing back into a recess four and 35 of the projecting wall 4 to 34 to securely hold the cap 420 two wall portion 427 with filter media 433 therebetween.
- an adhesive may be applied to the perimeter surface of the projecting wall 434 which provides upon setting of the adhesive a hermetic seal about the perimeter.
- An article 450 depicted as a generic plug may be inserted into the tray 410 and secured against movement therein by a projection formed in fray base 414 and by provision of retainer insert 451 having a shaped engagement means for securing the article depicted as rejection 453 whereby the retainer insert 451 is inserted within the tray such that the retainer insert perimeter edge 452 engages tray side wail Internal rim 418.
- This retainer insert 451 may also be configured to snap fit into a recess adjacent the internal rim 418 on the interior surface 413 of the iray wall 411.
- the retainer insert may be manually removable which may be facilitated by providing a finger hole opening.
- a lid 454 which is preferably transparent may be made from a thin film or clear plastic sheet and adhered to or heat sealed or otherwise fastened to the upper flange surface 41 of the tray sidewall flange 416 thereby providing and hermetic seal about the Attorney Docket No. 20808- WO perimeter of the tray for 410 where the id is connected to the tray side wall.
- the retainer insert 451 may be designed to act as the lid itself and attached by suitable fastening means which may include mechanical fastening means, adhesive, heat seal or combinations thereof.
- suitable fastening means which may include mechanical fastening means, adhesive, heat seal or combinations thereof.
- a rigid lid may be utilized in the present invention wherein the filter vent for 419 may be located therein rather than on the tray side wall or base.
- the tray lid and/or retainer insert acts as an upper tray wall to enclose and seal within the interior of the tray for 410 the article 450 while providing filtration and vent means through the top of the tray via ltd and/or retainer insert.
- the filtration vent may utilize a material which combines the functionality of the filtration means as part of material forming the cap or foraminous wall portion.
- a foraminous cap or lid containing the same may be said to be a spring cover whereby the cap or lid has sufficient extensibility to be disiortabie about its perimeter whereby it may be compressed or extended to engage a tray projection or recess to provide mechanical fastening thereto.
- a spring cover may be provided which comprises filter means for filtering microbes and particulates, and fastening means for connecting said cover to a tray.
- This spring cover may be a foraminous cap which may be attached as described above either trapping filter media between the cap and a portion of the tray wall having an opening therein or the cap may be formed from filter media itself such as porous sintered po!yolefin.
- the fastening means for this may be mechanical fastening means, for example, having a perimeter extensible resilient wall which may be pressed over a projection from the tray wall to engage a perimeter cap detent with a recess on the tray wail projection or alternatively may be compressed and fit within a projection from the tray wall to engage a perimeter recess located within that projection such that the cap detent expands to engage the interiorly located internal perimeter recess.
- the spring cover may be a iid equipped with filter means and said filter means may be the same as the foraminous cap described above.
- a spring cover lid may be similarly fastened by using a disiortabie perimeter which may be
- trays that are equipped with a vent and preferred embodiments of such trays may also advantageously provide easy access to remove contents within the tray.
- the novel trays may be manually opened without use of scissors or other tools, preferably using easy to peel open systems such as peelab!e seals.
- the lid seal may be either peelable or non-peelabSe,
- the lid seal is a peelable seal which is peelabie along at least a portion of the seal or along the entire seal to provide access to the tray contents.
- Peelable sea!” and like terminology is used herein to refer to a seal, and especially heat seals, which are engineered to be readily peelable without uncontrolled or random tearing or rupturing the packaging materials which may result in premature destruction of the package and/or inadvertent contamination or spillage of the contents of the package.
- a peelabie seal is one that can be manually peeled apart to open the package at the seal without resort to a knife or other implement to tear or rupture the package.
- Many varieties of peelable seals are known in the art, such as those disclosed in U.S. Pat. No. 4,944,409 (Busche et al.); U.S. Pat. No. 4,875,587 (LuSham et al.); U.S. Pat. No.
- a non-peetabie seal may also be employed e.g. a strong integral heat seal along either a portion or along the entire perimeter. Such a non ⁇ peelabie seal may be easily opened by tear open features such as notches, and surface weakened areas, or through the use of tools such as scissors, etc..
- the attachment means between (a) the Attorney Docket No. 20808- WO cap, and (b) the tray wall can be formed by a variety of ways, and may be either removable or permanent. Mechanical fasters such as snap fit attachment or press fit fastening means may be provided by mating detents and recesses with either being located on at least one of the cap and the tray wall. Attachment may also be by a permanent seal.
- the seal may be formed as a weld heat seal by application of heat and pressure to the cap and tray wall with their respective surfaces in contact with each other for a sufficient time to cause bonding with cooling of the bonded perimeter to form an integral permanent seal.
- an adhesive can be sandwiched between the cap and tray wall.
- the lid may be heat sealed to the tray.
- the cap may be attached to the wall portion by heat sealing.
- Such seals may have a minimum width of about 1 mm to about 5 mm or more. Preferred widths are from 5 to 15 mm with a typical width being about 8-10 mm.
- the seal between the lid and tray wall e.g. at a flange may be a permanent seal made by use of a heat seal or permanent adhesive or it may also be removable e.g. by using a peelable seal.
- the lid seal whether permanent or peeiable, can seal contents within a compartment of a tray with only a small tray wail vent having a gas passageway that filters out unwanted materials such as particles and microbes.
- the tray is equipped with a gas sterilization vent in a wall or lid, preferably in its rigid wall, which comprises filter media disposed between a foramsnous cap and a tray wall or lid, and so equipped provides a gas sterilization container and barrier to nongaseous particles including biological agents, pathogens, bacteria, viruses, etc.
- Typical contents for various embodiments of the inventive tray container may include, for example, medical devices, stents, catheters, medical equipment, tools, bandages, surgical supplies, transdermal patches, bandages, wound care products as well as personal care products such as soaps, lotions, skin, nail, and hair care products, cotton balls or swabs, emery boards, contact lenses, hearing aids, identification tags and chips for pets or wildlife, foodstuffs such as spices, herbs, mushrooms, berries, etc.
- the inventive vented tray may also have applications where rapid venting due to Attorney Docket No. 20808- WO pressure changes is required to equilibrate internal pressure within a package with exterior pressures while achieving or maintaining a barrier to undesirable particles, chemicals, or organisms, etc,
- vents which are polygons such as hexagons or circular or oval or other curved or linear shapes or combinations thereof may be used.
- the distance between gas entrance and exit points of the vent is at ieast equa! to or greater than the thickness of the filter material used.
- the entrance and exit points will be reversible and flo will typically proceed back and forth e.g. in gas sterilization processes where vacuum is applied and then a sterilant gas pumped in foiiowed by vacuum removal for several iterations followed by flushing cycles of vacuum purging and flushing gas to remove the sterilant gases.
- An description with respect to entrance and exit should be read to include fiow in the reverse direction unless otherwise specially excluded.
- a tray is formed e.g. by thermoforming and assembled with filter media and cap attached to the tray wail e.g. at its base with an opening in the tray wall and an opening in the adjacent cap.
- An article is piaced into the internal compartment of the tray through its open top which is then covered with a flexible transparent lid which is sealed to the tray sidewa!l flange, for example, by heat sealing thereby forming a sealed ventable package having only a tortuous path gas vent microbial barrier passageway between the exterior and interior thereof .
- the sealed tray has only its filter vent providing a gas passageway between the tray compartment and external environment.
- the vent serves multiple functions; Attorney Docket No. 20808- WO initially, it provides a means for gas transfer into and out of the compartment so thai the compartment interior and the hip imp!ant may be sterilized, in addition, after completion of sterilization, the vent provides a barrier to and/or filters out undesirable material e.g. particles, dust, bacteria, viruses, pathogens, etc. to permit the implant to be transported, stored and handled prior to use without compromising the implant's sterility.
- the vented tray also permits the package to shipped or subjected to, or maintained in
- the chamber After introduction of the tray to the gas sterilization chamber, the chamber is closed and the state of the atmosphere around the tray is random air flow with no pressure differential between the interna! compartment and the external environment outside the tray. Airflow through an ingress port and egress port is in equilibrium. Then the sterilization process begins and the ingress port is closed and a vacuum applied to the egress port. Since there are little or no restrictions between the external
- a sterilizing gas which is typically ethylene oxide (ETO) and/or steam.
- ETO ethylene oxide
- the egress means such as an egress port is closed and ETO and/or steam is admitted e.g. through ingress means such as an ingress port.
- Flushing gases such as nitrogen and also elevated humidit may be employed in these
- the temperature employed during this process may also be varied to enhance or aid the sterilization process and typically elevated temperatures may be used, but decreased temperatures may also be used as well as a combination thereof.
- filtration vents capable of quickly transporting large volumes of gas to minimize (i) pressure differential magnitude, and (ii) the length of time at a pressure differential.
- the time for the sterilization process is impacted because those stresses may be minimized by slowing the rate of change of the pressure or vacuum applied during the process as a means to avoid undue stress on the container. So if a vacuum is applied slowly i.e.
- filter venting is typically provided by a calendared medical grade paper or a calendared spun bonded polyolefin such as that commercially sold under the brand Tyvek®.
- This spunbonded material is a very good barrier to passage of microbes and particulates, but requires a large surface area to provide sufficient gas flow across its thickness for efficient use in gas sterilization processes. It is also opaque and non-transparent obscuring the view therethrough.
- the paper or Tyvek® is used as the lid for the tray or constitutes a large portion of the lid.
- the softening and melting point temperatures for spunbonded polyolefins used in commercial Tyvek® or a heat seal coating applied thereto are such that heat seals to the material are Attorney Docket No. 20808- WO weakened by exposure to steam heat leading to possible premature seal failure
- Typical thicknesses of commercially available spun bonded poiyoiefin materials used in sterilizable packaging range from about 6 to 8 mils (152 - 203 ⁇ ). Papers are also sometimes used and have a thickness which ranges from 2 to 6 mils (51 - 152 ⁇ ). Both papers and spunbonded polyolefins such as Tyvek® have significant resistance to transverse gas flow which is inadequate for any utility in small vent devices such as those enabled by the present invention.
- the key parts of the vented tray according to the invention are; (1 ) a filter media, typically greater than 1/16 inch (1587.5 microns) in thickness, preferably in the form of a thin sheet or disc, that combines: (i) good gas flow (not only across its thickness, but transversely along its length and preferably radially in all directions) with (ii) excellent filtration barrier properties (to arrest, impede and bar transfer of undesired materials between the entrance and exit points of the filter media); (2) a foraminous tray wail portion that covers a desired portion of a filter media surface; and (3) a foraminous cap across the thickness of the filter media from the foraminous tray wall portion and having an opening therethrough.
- a filter media typically greater than 1/16 inch (1587.5 microns) in thickness, preferably in the form of a thin sheet or disc, that combines: (i) good gas flow (not only across its thickness, but transversely along its length and preferably radially in all directions) with (ii) excellent filtration barrier properties (
- the position of the cap and tray wall portion and their respective openings or holes are such that a longer transit path than the width of the filter media is formed therebetween.
- This longer transit path mainly extends radially or transversely to the shortest distance across the filter media thickness.
- a longer tortuous path may be utilized with a sufficiently open pore structure to preferably both increase gas flow and reduce undesired particle and material transmission between ingress and egress points.
- a thicker f ilter media than paper Attorney Docket No. 20808- WO or Tyvek €> spunbonded poSyoiefin may be utilized to provide an advantageous combination of high gas flow and excellent filtration barrier properties.
- gas may transit either or both (1) across the face of a thicker filter media; and (2) between a defined area of a first face of the filter sheet edge and a transversely displaced defined area on the opposing second face of the filter sheet at a point away from the first defined area and therefore resulting in a change of direction of gas flow from an axial entrance point to an offset exit point thus making at least two right angles or 90° turns in general direction from the typical across thickness flow in prior art packaging.
- the distances employed by the presently disclosed vent technology range from (i) the thickness of a suitabl filter sheet media as for the "across the face" transit method ⁇ 1 ) above where typical distances are at least about 0.062 inches, to transit method (2) having offset openings where typical distances may be from 0.125 inches to 0.375 inches or longer. In comparison to the typical
- This path may also have at least two 90° turns which facilitate filtration by inertia! impaction.
- Suitable distance for the gas passageway in the vents of the present invention will be greater than 10 mil (0.010 inch) and typically greater than 50 mi! (0.050 inch), preferably greater than 100 mi! (0.100 inch), more preferably at least 250 mil. As this distance increases a longer tortuous path for filtration is presented with all the advantages presented by greater filtration. Balanced against an increased tortuous path will be the gas flow properties which as described above must be sufficient to Attorney Docket No. 20808- WO withstand the pressure changes to which the package or other article will be subjected. The upper limits may be experimentally determined without undue experimentation based upon other parameters selected Including usage environments e.g. gas sterilization apparatus and processes, transit conditions, and gas flow rates obtainable by different filter media, volumes to be sterilized or held, etc.
- this distance will be at least double the distance across the narrow dimension of the filter media ⁇ i.e. the thickness).
- the filtration distance provided by preferred embodiments of the invention which require offset openings in opposing filter vent faces may be from 2, 3, 4, 5, 8, 7, 8, 9, 10 or more times greater in distance than the thickness of the filter media used and over 16 times greater than the thickness of commercially available coated Tyvek®. it may be from 28 to 50 to 83 to 150 times greater than the thicknesses of commercially available papers for gas sterilization packaging.
- a filter media having an open pored three dimensional tortuous path structure may be utilized with tray walls and lids having low gas permeability, and which also are barriers to other materials including particulates, Attorney Docket No. 20808- WO organisms, bacteria, viruses, etc., to direct the fiow of gases aiong a longer path than the thickness of a thin sheet material, !n this manner several improvements and advantages over the prior art are enabled.
- These iid, cap, and wall components may be selected to be inert with respect to the package contents and act as a barrier to any other undesired material such as micro-organisms, bacteria, viruses, particulates, dust, etc., Advantageously, it may also be selected to present a smooth, nonabrasive surface which is unlikely to contaminate the contents e.g. by detached or abraded fibers or particles from a coating.
- a longer tortuous path may be used to provide excellent filtration while utilizing increased pore sizes.
- gases are directed over a longer path and preferably lengthwise and radially from a line representing the shortest distance across the filter media thickness.
- the thickness of the vent is kept small, typicaliy sizes under 125 mils (3.2 mm) in thickness, and preferably from about 60 to 125 mils (15-3.2 mm).
- the filter media sheet thickness may range as thin as is consistent with the volume of gas and gas flow rate that is needed for conditions of use. It is contemplated that thicknesses as low as 100 microns will be suitable. Of course larger thicknesses than 125 mil could be employed, but typically there will be no offsetting advantage to do so.
- the vent will not interfere with the tray contents, content loading and removal with be unhindered and there will be less likelihood of abrasion or detachment by frictional forces. Also, more trays may be held within a given unit space.
- the distance from the perimeter of the section Attorney Docket No. 20808- WO containing the openings in the cap and the perimeter of the section containing the openings in the foraminous tray wail portion is greater than the filter thickness between the cap and tray wall portion.
- the present invention utilizes three dimensional gas flow provided by open celled materials such as sintered open celled polymers and an open celled foamed polymers and plastics,
- a transparent lid may be employed to provide an unobstructed view of the tray contents.
- a transparent lid may also be combined with a transparent tray and/or insert.
- the present invention may see an improvement in one or more of the above properties.
- Preferred embodiments of the invention will have a combination of improved properties.
- the inventive vented tray may increase air flow rates while maintaining or increasing filtration against passage of unwanted materials while providing a protective filter cover on the package interior and do this in a smaller space and using less material than presently employed in commercial packaging e.g. for medical devices and suppiies.
- the present invention in its various embodiments finds particular utility in providing packaging for a product which undergoes gas sterilization such as a medical device such as an implantable joint, catheter etc. , or for personal care items such as cotton swabs, cosmetics, etc., or for foodstuffs such as spices, mushrooms, or berries, etc.
- a product which undergoes gas sterilization such as a medical device such as an implantable joint, catheter etc.
- personal care items such as cotton swabs, cosmetics, etc.
- foodstuffs such as spices, mushrooms, or berries, etc.
- the present invention permits smaller sized filter vents to be used at a materia! cost savings while maintaining and enhancing protection of enclosed products from damage and contamination during transportation through zones of pressure differentials such as those found in gas sterilization operations, !t also provides enhanced visibilit to tray contents.
- a vented rigid tray for gas sterilization comprising:
- attachment means for the foraminous cap and the tray wall whereby the filter media is held between the cap and the foraminous wall portion e.g. by snap fit or press fit mechanical fastening, adhesives, heat seals, ultrasonic welding, or combinations thereof.
- a rigid tray as defined in embodiments 1-39, wherein the foraminous wa!l portion is in the base.
- a rigid tray as defined in embodiments 1-39, wherein the base sidewa!i has a heat sealable lid receiving flange.
- a rigid tray as defined in embodiments 1-39, wherein the tray is thermoplastic or thermosetting.
- a rigid tray as defined in embodiments 1-39, wherein the iray is transparent.
- a rigid tray as defined in embodiments 1-39, wherein the tray wall is thernioformed or injection molded.
- a rigid tray as defined in embodiments 1-39, wherein the foraminous wall portion has a continuous projecting wali proximate to and surrounding the portion.
- a rigid tray as defined in embodiments 8-39, wherein the projecting wall extends from the tray wall towards the tray exterior.
- a rigid tray as defined in embodiments 8-39, wherein the projecting wall extends from the tray wail towards the tray interior.
- a rigid tray as defined in embodiments 8-39, wherein the cap has a panel and a continuous sidewall depending therefrom with the cap sidewall having at least one detent which cooperates with the projecting wall to provide the snap fit attachment means and optionally the cap may be formed of a foraminous material such as sintered porous polyolefin forming a cap which functions as a filter itself.
- a rigid fray as defined in embodiments 8-39, wherein the cap is provided with at least one detent and the projecting wall has at least one recess, each the detent and recess are adapted to cooperate to provide the attachment means whereby the cap is securely connected to the tray wail.
- a rigid tray as defined in embodiments 8-39, wherein (i) the wall portion has one or more openings (A) therethrough in a first section within an interior space defined by the projecting wall and has no openings within a second section which is also within the interior space defined by the projecting wali; and (ii) the cap has a panel and a Attorney Docket No.
- 20808- WO continuous sidewaSI depending therefrom and has one or more openings (8) through the panel in a first section within an interior space defined by the continuous sidewall and has no openings within a second section which is also within the interior space defined by the continuous sidewall; and (iii) wherein the cap is secured to the wall portion with the first and second cap sections oriented with respect to the first and second wail portion sections such that a path from openings A to openings B in its shortest distance D R is greater than a path from an interior surface of the cap pane! to an interior surface of the wall portion circumscribed by the projecting wall in its shortest distance D .
- a rigid tray as defined in embodiments 13-39, wherein D R ⁇ 2D T .
- a rigid tray as defined in embodiments 13-39, wherein the cap and the tray wail have orienting means for positioning the openings 8 in a spaced apart relationship, along a plane of the cap pane!, to openings A.
- a rigid tray as defined in embodiments 1 -39, further comprising an article located within an interior surface of the tray and a transparent iid attached to the sidewall by a continuous seal.
- a rigid tray as defined in embodiments 1 -39 wherein a transparent iid provides an unobstructed view of an enclosed article.
- a pharmaceutical product a personal care product or a foodstuff.
- a rigid tray as defined in embodimenis 1-39, wherein the filter media comprises: air Said, wet laid or dry Said nonwovens; polypropylene, polyethylene, polyester, nylon, cellulose fibers or permeable sheets; cotton; sintered porous polymers; open
- a rigid tray as defined in embodimenis 1 -39, wherein the synthetic polymer tray wail comprises a mono! a er or multilayer structure.
- a rigid tray as defined in embodiments 1-39, wherein the synthetic polymer tray wail comprises a po!yo!efin. polyester, poiyureihane, polystyrene, cyclic olefin copolymer, a porous sintered polymer, or combinations thereof.
- PET polyester terephthalate
- aPET amorphous PET
- PETg glycol modified PET
- H!PS high impact polystyrene
- HOPE high density polyethylene
- a rigid tray as defined in embodiments 1-39, wherein the synthetic polymer tray wail comprises a multilayer structure having at least one layer of polyester terephthalate (PET) homopolymer or copolymer, and an interior surface layer comprising poiyureihane.
- PET polyester terephthalate
- a rigid tray as defined in embodiments 1-39, wherein the synthetic polymer tray wail comprises a multilayer structure having an interior surface layer comprising poiyureihane or a cyclic olefin copolymer.
- a rigid tray a defined in embodiments 1-39, wherein the fitter media is greater than 100 mil (2540 u) in thickness.
- a rigid tray as defined in embodimenis 1 -39, wherein the filter media has a gas path distance greater than a minimum thickness of the filter media.
- a rigid tray as defined in embodiments 1 -39, wherein the gas path is at least 10 mil (254 ⁇ ) in length, preferably at least 100 mii (2540 ⁇ ), and more preferably at least 200 mil (5080 ⁇ ).
- a rigid tray as defined in embodiments 1-39, wherein the fitter media has a three dimensional open ceil structure.
- a rigid tray as defined in embodiments 1 -39, wherein the filter media comprises a sintered porous polyolefin and optionally the filter media comprises the foraminous cap.
- a rigid tray as defined in embodiments 1-39, wherein the filter media comprises an open celled foamed polymer.
- a rigid tray as defined in embodiments 1-39, wherein the filter media comprises a fibrous polypropylene mat.
- a rigid tray as defined in embodiments 1 -39, wherein the filter media comprises a sintered porous polyethylene,
- a rigid tray as defined in embodiments 1-39, wherein the fitter media has a pore size between 15-50 microns.
- a rigid tray as defined in embodiments 1-39, wherein the filter media further comprises
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Abstract
La présente invention se rapporte à une barquette rigide à évent qui est destinée à la stérilisation par gaz et qui comprend : (a) une paroi de barquette en polymère synthétique qui comporte des surfaces extérieure et intérieure, une base et une paroi latérale droite, une partie de paroi foraminée se situant dans la base et/ou la paroi latérale ; (b) une couche filtrante ; (c) un capuchon foraminé ; et (d) un moyen de fixation par encliquetage pour le capuchon foraminé et la paroi de barquette, la couche filtrante étant maintenue entre le capuchon et la partie de paroi foraminée.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| PCT/US2013/070722 WO2015076780A1 (fr) | 2013-11-19 | 2013-11-19 | Barquette de conditionnement rigide à évent destinée à la stérilisation par gaz |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| PCT/US2013/070722 WO2015076780A1 (fr) | 2013-11-19 | 2013-11-19 | Barquette de conditionnement rigide à évent destinée à la stérilisation par gaz |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| WO2015076780A1 true WO2015076780A1 (fr) | 2015-05-28 |
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| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| PCT/US2013/070722 Ceased WO2015076780A1 (fr) | 2013-11-19 | 2013-11-19 | Barquette de conditionnement rigide à évent destinée à la stérilisation par gaz |
Country Status (1)
| Country | Link |
|---|---|
| WO (1) | WO2015076780A1 (fr) |
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| TWI858822B (zh) * | 2022-07-18 | 2024-10-11 | 德商格雷斯海姆格拉斯有限責任公司 | 醫療容器包裝 |
| CN117416612A (zh) * | 2022-07-18 | 2024-01-19 | 格雷斯海姆玻璃有限责任公司 | 医疗容器包装 |
| CN117416613A (zh) * | 2022-07-18 | 2024-01-19 | 格雷斯海姆玻璃有限责任公司 | 医疗容器包装 |
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