2617 results about "Pack material" patented technology

A wound packing for use with suction is provided. The wound packing comprises a plurality of nonabsorbent synthetic polymeric fibers coupled together to form a nonabsorbent material suitable for placement in the wound of a mammal. A method for treating the wound in a mammal using the disclosed wound packing is also provided.

The present invention provides improved devices, components, and conduit assemblies for delivery of a breathable/inhalable fluid stream containing a solvation-enhancing atomized liquid, the fluid stream carrying a functional liquid component. In one aspect, devices of the invention incorporate an exchangeable fluid-permeable body, such as a cartridge comprising a fluid-permeable packing material, containing the functional liquid. In another aspect, devices of the invention incorporate an electronic control system configured to detect and store physical states, settings, modes/configurations, and/or usage of the device over time. Optionally, the detected states may be exported to a separate electronic device via a Wi-Fi or other suitable remote connection. In other embodiments, the electronic control system provides passcode authorization for actuating an atomizing element and/or toggling the device between locked and unlocked states.

An improved inflow conduit for an implantable ventricular assist device comprising covering the flexible porous tubular graft body of the conduit with an attached non-porous polymer to produce a non-porous conduit. The flexible conduit has an upstream end and a downstream end, a ventricular attachment structure to which the upstream end of the body connects; and a coupling fitting on the downstream end of the body. Also taught is a combination of the improved inflow conduit with an implantable ventricular assist device. A method for the treatment of congestive heart failure, comprising implanting the implantable ventricular assist device in a patient in need of such treatment, as well as an article of manufacture, comprising packaging material and the implantable ventricular assist device contained within the packaging material are also provided.

A method of producing a custom packaging system for arbitrary objects. A first image of an object to be packaged is received via an electronic user interface. Information relating to the material properties of the object may be received as well via the interface. A three dimensional size for the object is determined. At least one package for the object is automatically selected. Based on the material properties, a packing material type is automatically determined. Based upon the size and the selected package, a packing material amount is determined. Further printing options are permitted.

A stand-up packaging pouch manufactured in three-dimensional form or flattened form and provided with at least front face portion and rear face portion sides formed from packaging material having a pleat which is formed by folding a part of the packaging material in a three-fold strip form and adhering the inner faces of this folded part is constituted such that when the pouch is opened out into three dimensions, the pleat, formed in the same plane as the peripheral face portion, is positioned at a substantial right angle to a bottom face portion, thereby concealing the bottom face portion.

The invention discloses high chemical resistance borosilicate glass, comprising the following components based on oxides in percentage by weight: 71-75 SiO2, 3-6 Al2O3, 8-10 B2O3, 4-10 Na2O and 0-2.5 K2O, 0-1.2 CaO, 0-1 MgO, 1-3 BaO and 0-0.3 CeO2, wherein Na2O+K2O ranges from 7 to 10, and CaO+MgO ranges from 0 to 1.2. The invention has the following advantages: 1. As2O3, Sb2O3, BaSO4 and other harmful substances are not used in constituents, and the borosilicate glass can be used as a material for packing medicines; and 2. tested by experiments, the high chemical resistance borosilicate glass prepared from the constituents by the traditional production equipment has the coefficient of heat expansion ranging from 5.0*10<-6> K<-1> to 6.0*10<-6> K<-1>, the inversion temperature Tg ranging from 520 DEGC to 572 DEGC, the softening point ranging from 765 DEGC to 782 DEGC, the working temperature ranging from 920 DEGC to 1200 DEGC and the density ranging from, 2.32 g/cm<3> to 2.5g/cm<3>, which meet the requirement on medicinal packing and reduces the production cost.

A system for abating undesired component(s) from a gas stream containing same, such as halocompounds, acid gases, silanes, ammonia, etc., by scrubbing of the effluent gas stream with an aqueous scrubbing medium. Halocompounds, such as fluorine, fluorides, perfluorocarbons, and chlorofluorocarbons, may be scrubbed in the presence of a reducing agent, e.g., sodium thiosulfate, ammonium hydroxide, or potassium iodide. In one embodiment, the scrubbing system includes a first acid gas scrubbing unit operated in cocurrent gas/liquid flow, and a second "polishing" unit operated in countercurrent gas/liquid flow, to achieve high removal efficiency with low consumption of water. The scrubbing system may utilize removable insert beds of packing material, packaged in a foraminous containment structure. The abatement system of the invention has particular utility in the treatment of semiconductor manufacturing process effluents.

A drainage bag (3), part of a dialysis set, comprises a wrapper (4), fluid-sealed, and a transparent pocket (10) superposed on a part of the wrapper (4); an edge of the pocket (10) has a first part (11a) which is fixed to the wrapper (4), and a second part (11b) which is free and delimits an opening of the pocket (10). The pocket (10) at least partially contains a drainage tube of the used dialysis liquid which is fluidly connected with an inside of the bag (3). The bag (3) keeps the tubing forming the dialysis set in a stable conformation both during a production process thereof and at moment of use, reducing a risk of endoluminal contamination of the dialysis set. The bag (3) is usable in particular for collection of a used and used peritoneal dialysis liquid.

The present invention provides a smoking article having a reduced ignition propensity by reason of one or more cross-directional bands of an adhesive applied to the paper wrapper of the smoking article. The adhesive may be one of a cigarette seam adhesive, a filter plug wrap adhesive or a tipping paper adhesive conventionally used in the manufacture of cigarettes. A cigarette maker is modified to include the adhesive applicator apparatus of the invention which applies the adhesive bands to the paper wrapper in an in line process.

Methods and apparatus are described for reducing damage to items shipped in corrugated boxes, and for reducing damage to the boxes themselves and the packing material within them. Damage is limited by adding one or more planar damped panels to a box for redistributing kinetic energy absorbed by the box when it is subjected to characteristic shipping shock and vibration. Efficient coupling of redistributed kinetic energy to resilient packing material within a box allows the use of relatively less resilient padding surrounding shipped items, thus allowing use of a relatively smaller box to obtain an acceptable level of protection. Planar damped panels also limit shifting of the item(s) to be protected by acting as damped variable-rate springs.

The present invention provides an on-chip packed reactor bed design that allows for an effective exchange of packing materials such as beads at a miniaturized level. In accordance with the present invention, there is provided a method of concentrating an analyte within a microfluidic analysis system, comprising the steps of: a) providing a main channel having a trapping zone suitable for trapping packing material; b) providing a slurry of a reagent treated packing material prepared in a solution having a predetermined composition of a solvent; c) inducing a flow of said packing material into said trapping zone through a flow channel connected to said trapping zone so as to load said trapping zone and form a packed bed of said packing material; d) and flowing a sample containing analytes through said packed bed, said reagent acting to concentrate at least some of said analytes within said trapping zone. The present invention extends the function of microfluidic analysis systems to new applications including on-chip solid phase extraction (SPE) and on-chip capillary electrochromatography (CEC). The design can be further extended to include integrated packed bed immuno- or enzyme reactors.

The present invention provides a biodegradable packaging material useable for indicating the expiration of the shelf-life of the goods enclosed therein. For example, the packaging material of the present invention is used to enclose perishable foods, medicines, medical devices, medical instruments, medical implant, or other such limited shelf-life goods.

A packaging material for a lithium ion battery includes: a base material layer that is formed from a film obtained by biaxially stretching a multi-layered coextruded film including a first thermoplastic resin layer having rigidity and chemical resistance and being disposed at an outer side thereof, a second thermoplastic resin layer having a capability of propagating stress and adhesiveness, and a third thermoplastic resin layer having toughness; a metal foil layer that is laminated on one surface of the base material layer; an anti-corrosion-treated layer that is laminated on the metal foil layer; an inner adhesive layer that is laminated on the anti-corrosion-treated layer; and a sealant layer that is laminated on the inner adhesive layer.

A tabless battery housed in a sealed package is provided. The packaging material for the battery comprises a conductive material and a sealing material. At least a portion of the interior surface of the conductive material is exposed to form an internal contact between at least one electrode and the conductive material. At least a portion of the exterior surface of the conductive material is also exposed to form an external contact between the electrode and the device.

The invention relates to a quickly shaped diatomite composition with high strength and high function and a manufacturing method thereof. The composition comprises 100 portions of diatomite, 0 to 1,000 portions of stuffing, 50 to 300 portions of adhesive, 0 to 30 portions of antibacterial agent, and 0 to 30 portions of shaping and processing aid. Formulation and shaping manufacturing technology ofthe diatomite composition radically solve the problems that a common diatomite product has long producing and shaping period and low manufacturing efficiency; and the obtained product has the advantages of good mechanical property, light weight and low formaldehyde release, and has good functional properties such as flame retarding, water proofing, bacteria resistance and the like. The diatomite composition is applied to be manufactured into plates and profiles, can replace wood and artificial boards, and is used for products such as indoor and outdoor ornaments, office and household furniture, furniture components, acoustics, internal ornaments of vehicles, wall panels, security doors, wall boards, partition wall boards, packing materials, bed boards, floor, solid door frames, shutters, and the like.

A device and method for stabilizing a drug, particularly a chiral drug or the active enantiomer(s) thereof, in a carrier composition of a transdermal delivery system prior to the systems use by providing a product packaging system to prevent or control degradation reactions that can result from certain packaging materials and moisture contamination, while at the same time providing a child-resistant wrapping for the transdermal system.

The invention is concerned with a process of manufacturing filled drinking cups closed by cover foil blanks heat-sealed thereto and formed by deep-drawing from a thermoplastic packing material strip, comprising a beaded peripheral flange, with the cover foil blanks being provided with a pull flap. According to the invention the method includes the following steps: cyclically feeding the packing material strip loaded with the deep-drawn and filled cups underneath a cover foil blank transfer means; taking up the cover foil blanks from the transfer means, with the pull flaps, during transfer of the cover foil blanks to the packing material strip, being positioned in a direction substantially vertical to the extension plane of the blanks, and the blanks with the upright pull flaps above the cup openings being applied to the packing material strip; sealing the margins of the cover foil blanks to the unmolded areas of the packing material strip about the cup openings; bending the upright flaps during the advance movement of the packing material strip; punching the cups from the packing material strip along a punching contour line extending in parallel to and at a space from the circumferential contour of the cover foil blanks; and transferring the punched cups into a beading means wherein the peripheral flange portion projecting relative to the cover foil blanks is downwardly beaded.

Packaging material may be profiled to generate an incremental containment force per revolution (ICF) attribute that is represented by a function that is variable as a function of wrap force. Moreover, the performance of different packaging materials, e.g., in terms of speed or cost, may be compared for a particular load through simulation of wrap operations based upon dimensions of the load and a desired load containment force requirement for the load.

Control of a wrapping apparatus is facilitated by enabling an operator to input a load containment force requirement and/or a minimum number of layers of packaging material to be applied to a load, with a wrap control system automatically determining wrap force and other parameters required to meet user input requirements and/or parameters to minimize the expertise required of an operator and to provide more consistent and reliable wrapping of loads. In addition, a wrapping apparatus may be controlled to apply at least a minimum number of layers of packaging material to a load throughout a contiguous region thereof.

Packaging materials and containers may be treated with sterilization dosages internally and externally using monochromatic, continuous wave, high-intensity, incoherent light in single and/or multiple light source configurations. The treatment systems and methods preserve physical and performance properties of the packaging/container while achieving a desired level of sterilization. The sterilized materials may be adapted for extended shelf life (ESL) products. The disclosed treatment systems and methods may also be used for sterilization of food and beverage products (either prepackaged or post packaged), medicines, pharmaceuticals, vitamins, infusion products, clinical and/or non-clinical solutions and systems, enteral and/or parenteral solutions and systems, and the like.

The apparatus and methods of the present invention are of use for the production of emulsion-based microparticles containing a biological or chemical agent. In particular, the apparatus provides a vessel; packing material situated inside such vessel and may further provide material capable of insertion into both ends of said vessel for enclosure of the packing material. In a particular embodiment, the apparatus is a packed bed apparatus. The methods include production of emulsion based microparticles containing a biological or chemical agent. The usefulness of the present invention is that the apparatus and methods of the present invention provide for a low-shear, non-turbulent, production of emulsion-based microparticles that provides a narrow, reproducible, particle size distribution, capable of use with both large and small volumes that is capable of being conveniently scaled up while providing predictable emulsion properties.

A package 10 has a sliding blister card 12 and a locking sleeve 14 made from a base 16 and a top 18. The card is made from conventional blister dose packaging material, with blisters 30 formed in a single layer plastic top holding medicaments on a sealing paper, board, or foil layer. The top and base form a closed case, open along one end 26. Blister cards with receiving aperture(s) 34 are slid between guides and cylinders, and pushed inward until detent(s) 29 engage aperture(s) 34. Appurtenant(s) 48 adjacent to the detent(s) urge the blister card to engage the detent(s) at the card's receiving aperture. Pressing on release 20 disengages the card and detent by warping the card to move the aperture away from the detent so that the card may be slid through the open end of the sleeve. Reverse pressure easily slides the blister card back into the containment element without manipulation of parts.

The present invention relates to a high-power LED array. The high-power LED array has a printed circuit board (PCB), anodes, cathodes, high-power LED dies, packing materials, and lenses. The PCB has cavities arranged in an array. One anode and one cathode are located in each cavity. The anode and the cathode are correspondingly connected to the anode and cathode in the neighboring cavities. At least one high-power LED die is placed in the cavity and connected to the anode and the cathode in series or in parallel. The cavity is filled with packing material to secure the high-power LED die. Lenses are placed on the cavities to focus light emitted by the high-power LED die.

A packaging condition for packaging a product using a film roll is stored in a recording medium, and the packaging condition is read by a recording medium reading device in a rotator of a support shaft. In this case, an operator can set an optimum packaging condition at the time of exchange of packaging rolls regardless of his/her skill. Therefore, even an unskilled operator would not set an erroneous packaging condition which may result in additional time loss and film loss.