mhurhangee/ep-ind-claims huggingface dataset:
A biocontainer comprising: a first flexible wall; a second flexible wall opposite the first flexible wall; a first end; a second end opposite the first end; a third end extending between the first and second ends (18, 22); a fourth end extending between the first and second ends (18, 22) and opposite the third end; and a first relief section extending along a path beginning at a first location of said first end and ending at a second location of said first end, the first location being spaced apart from the second location, and the first relief section extending from said first end, wherein said first relief section connects the first flexible wall to the second flexible wall, and wherein the first relief section is spaced apart from each of the second end, the third end and the fourth end; wherein the first flexible wall and the second flexible wall meet along the entire of each of said first end, second end, third end, and fourth end (18, 22, 24, 20) and wherein said first end, second end, third end, fourth end (18, 22, 24, 20), and first relief section define boundaries of an interior of said biocontainer, wherein when the bag is filled with a fluid, the biocontainer has a depth as measured between the first and second walls (16A, 16B), wherein the depth increases from each of said third and fourth (24, 20) ends in a direction along each of said first and second ends (18, 22) transitioning between minimum or no depth at each of the third and fourth ends (24, 20) to an expanded depth at a distance from each of said third and fourth ends (24, 20), wherein said first relief section is located along a length within said distance, and wherein the expanded depth is a maximum depth. a first flexible wall; a second flexible wall opposite the first flexible wall; a first end; a second end opposite the first end; a third end extending between the first and second ends (18, 22); a fourth end extending between the first and second ends (18, 22) and opposite the third end; and a first relief section extending along a path beginning at a first location of said first end and ending at a second location of said first end, the first location being spaced apart from the second location, and the first relief section extending from said first end, wherein said first relief section connects the first flexible wall to the second flexible wall, and wherein the first relief section is spaced apart from each of the second end, the third end and the fourth end; wherein the first flexible wall and the second flexible wall meet along the entire of each of said first end, second end, third end, and fourth end (18, 22, 24, 20) and wherein said first end, second end, third end, fourth end (18, 22, 24, 20), and first relief section define boundaries of an interior of said biocontainer,
A light tube kit for a skylight comprising: a light tunnel, the light tunnel being configured from a sheet member having a first edge and a second edge opposite the first edge, with opposed third and fourth edges disposed between the first and second edges, the sheet member being rolled upon itself such that the third edge overlaps the fourth edge; a first defined through the sheet member proximate to the third edge and a second slot defined through the sheet member proximate to the fourth edge, the first and second slots being aligned; a spring clip (30, 30'), the spring clip (30, 30') having first (51, 51') and second (61, 61') hooks and a handle (40, 40') disposed therebetween; and the first hook (51, 51') being disposed through the first and second slots (80b, 80d) and engaged therewith. a light tunnel, the light tunnel being configured from a sheet member having a first edge and a second edge opposite the first edge, with opposed third and fourth edges disposed between the first and second edges, the sheet member being rolled upon itself such that the third edge overlaps the fourth edge; a first defined through the sheet member proximate to the third edge and a second slot defined through the sheet member proximate to the fourth edge, the first and second slots being aligned; a spring clip (30, 30'), the spring clip (30, 30') having first (51, 51') and second (61, 61') hooks and a handle (40, 40') disposed therebetween; and the first hook (51, 51') being disposed through the first and second slots (80b, 80d) and engaged therewith.
A system for an aircraft engine, the system comprising: a variable area fan nozzle (VAFN) assembly comprising an arcuate VAFN section having a plurality of rods (212, 222) connected along an arc of the VAFN section, the VAFN section and rods being configured to move fore and aft with respect to the aircraft engine; a skew sensing apparatus comprising a sensor (418, 428) configured to inspect each rod; wherein each rod is configured to move away from its associated sensor when the VAFN section moves to an aft position and towards its associated sensor when the VAFN moves to a fore position; the system further comprising a translatable sleeve of a thrust reverser assembly that is movable between a stowed position and a deployed position, the arcuate VAFN section being supported by the translatable sleeve; a first of said rods being coupled with a first portion of the VAFN section spanning across the translatable sleeve, the first rod having a first pattern along a length of the first rod; a second of said rods being coupled with a second portion of the VAFN section and spanning across the translatable sleeve, the second rod having a second pattern along a length of the second rod; a first said sensor configured to sense a position of the first rod using the first rod pattern; a second said sensor configured to sense a position of the second rod using the second rod pattern; and further comprising a circuit configured to compare the positions first and second rods from the first and second sensors. a variable area fan nozzle (VAFN) assembly comprising an arcuate VAFN section having a plurality of rods (212, 222) connected along an arc of the VAFN section, the VAFN section and rods being configured to move fore and aft with respect to the aircraft engine; a skew sensing apparatus comprising a sensor (418, 428) configured to inspect each rod; wherein each rod is configured to move away from its associated sensor when the VAFN section moves to an aft position and towards its associated sensor when the VAFN moves to a fore position; the system further comprising a translatable sleeve of a thrust reverser assembly that is movable between a stowed position and a deployed position, the arcuate VAFN section being supported by the translatable sleeve; a first of said rods being coupled with a first portion of the VAFN section spanning across the translatable sleeve, the first rod having a first pattern along a length of the first rod; a second of said rods being coupled with a second portion of the VAFN section and spanning across the translatable sleeve, the second rod having a second pattern along a length of the second rod; a first said sensor configured to sense a position of the first rod using the first rod pattern; a second said sensor configured to sense a position of the second rod using the second rod pattern; and further comprising a circuit configured to compare the positions first and second rods from the first and second sensors.
A padlock having a lock body and a hoop, the hoop being displaceably held at the lock body; furthermore having a cylinder core into which at least one core pin is inserted and which is rotatably supported about a cylinder axis directly in a reception opening of the lock body in order selectively to lock or release the hoop at the lock body; and having a tumbler housing into which at least one housing pin is inserted and which is received in a fixed position in the lock body, characterized in that the tumbler housing is pressed in the lock body.
A centrifugal blood processing apparatus comprising: a centrifuge rotor; a blood processing vessel for receiving whole blood and separating said whole blood into components; a tubing set adapted to be mounted on said rotor for conducting blood components and fluids, said tubing set having a leukoreduction chamber for periodically accumulating platelets received from said blood processing vessel, said leukoreduction chamber being configured to form a fluidized bed of platelets in the leukoreduction chamber; a light-detecting sensor, said sensor being adapted to be placed in optical communication with at least part of said tubing set; means in electrical communication with said sensor for detecting spill-over of platelets out of said leukoreduction chamber, and means for determining said platelet pre-count from at least a known volume associated with said leukoreduction chamber and a measured volume of blood that had entered said centrifugal blood processing apparatus before said spill-over. a centrifuge rotor; a blood processing vessel for receiving whole blood and separating said whole blood into components; a tubing set adapted to be mounted on said rotor for conducting blood components and fluids, said tubing set having a leukoreduction chamber for periodically accumulating platelets received from said blood processing vessel, said leukoreduction chamber being configured to form a fluidized bed of platelets in the leukoreduction chamber; a light-detecting sensor, said sensor being adapted to be placed in optical communication with at least part of said tubing set; means in electrical communication with said sensor for detecting spill-over of platelets out of said leukoreduction chamber, and means for determining said platelet pre-count from at least a known volume associated with said leukoreduction chamber and a measured volume of blood that had entered said centrifugal blood processing apparatus before said spill-over.
An apparatus for separating fine particles using magnetophoresis, comprising: an upper substrate; a lower substrate comprising a patterned fine structure of a magnetic material; a microfluidic channel, which is formed between the upper substrate and the lower substrate and where a sample comprising fine particles passes; and an external magnetic field source generating a magnetic field around the patterned fine structure of a magnetic material; wherein the patterned fine structure of a magnetic material is a plurality of linear structures, and is patterned and contained in the lower substrate by molding to have a certain angle of inclination to the direction of sample flow at the microfluidic channel domain for separation; wherein when the angles of inclination of the fine structure of a magnetic material to the direction of sample flow, θ, from the microfluidic channel for sample injection to the microfluidic channel domain for discharge are θ1, θ2, θ3... θn in order, respectively, the angles θ1, θ2, θ3... θn satisfy the following relation expression: θ 1 ≤ θ 2 ≤ θ 3 ≤... ≤ θn 3 ≤ n; wherein the point where the angle of inclination of the fine structure of a magnetic material to the direction of sample flow θ is changed from θn-1 to θn, is located in a horizontally extended part of the outlet connected to a chamber, where the fine particles in the sample are collected, and wherein the angle θn is 90°. an upper substrate; a lower substrate comprising a patterned fine structure of a magnetic material; a microfluidic channel, which is formed between the upper substrate and the lower substrate and where a sample comprising fine particles passes; and an external magnetic field source generating a magnetic field around the patterned fine structure of a magnetic material;
Ferrite particles for bonded magnets, having a crystal distortion of not more than 0.14 as measured by XRD, and an average particle diameter of not less than 1.30 μm as measured by Fisher method, wherein the ferrite particles are magnetoplumbite-type ferrite particles, and wherein the measurement of the crystal distortion of the ferrite particles is conducted in a completely oriented state in ethylene-vinyl acetate copolymer resin as defined herein.
A protection cover for covering a transformer terminal of a transformer substation comprising: - a base configured to be fixed to the transformer terminal, wherein the base defines a receptacle to receive the transformer terminal, - a cap configured to cover the receptacle and enclose the transformer terminal, - a fastening mechanism configured to fasten the cap to the base, characterised in that the base comprises an inner waist surface for attaching the base to the transformer terminal, the inner waist surface defining the receptacle to receive the transformer terminal, - further comprising a cable feed configured to guide a cable to the transformer terminal inside the receptacle. - a base configured to be fixed to the transformer terminal, wherein the base defines a receptacle to receive the transformer terminal, - a cap configured to cover the receptacle and enclose the transformer terminal, - a fastening mechanism configured to fasten the cap to the base, characterised in that the base comprises an inner waist surface for attaching the base to the transformer terminal, the inner waist surface defining the receptacle to receive the transformer terminal, - further comprising a cable feed configured to guide a cable to the transformer terminal inside the receptacle.
A method of manufacturing an electronic device (10; 30; 50; 60) comprising forming at least a first portion (18; 38; 54; 64) and a second portion (16; 40; 56; 66) based on a metal oxide by a sol-gel method, heating the first portion up to a temperature higher than a first temperature so that the first portion becomes semiconductor and heating the second portion up to a temperature lower than a second temperature, the second temperature being lower than the first temperature, so that the second portion becomes electrically insulating.
Method for storing a plurality of identical piece goods in a picking device, which comprises at least one rack row, at least one storage device (20, 30), a control unit, and an operator unit coupled to the control unit, wherein multiple identical piece goods are placed in a support area (21, 31) of a storage device (20, 30), it is detected that a last piece good has been placed in a support area (21, 31), as soon as this is detected, the piece goods are moved along a storage direction into a removal area (25, 35) of the storage device (20, 30), a gripping apparatus of the operating unit is moved into the removal area (25, 35), the piece goods are grasped with the gripping apparatus and moved from the removal area (25, 35) onto the support table over an end-face edge of a support table of the control unit, wherein the number of piece goods situated in the support area (21, 31) is determined based on piece goods data and size data of the piece goods that are detected with at least one sensor system (80, 81a, 81b, 200, 300, 250, 260), after it has been detected that a last piece good has been placed in the support area (21, 31).
A surface light source device, comprising: a light guide plate; a monochromatic light source located at a side of an incidence surface of the light guide plate; and a cholesteric liquid crystal film, and a λ/4 wave sheet sequentially located at a side of an emission surface of the light guide plate, characterized in that, the surface light source device further comprises a wavelength converting thin film located on the λ/4 wave sheet. a light guide plate; a monochromatic light source located at a side of an incidence surface of the light guide plate; and a cholesteric liquid crystal film, and a λ/4 wave sheet sequentially located at a side of an emission surface of the light guide plate,
Aircraft data management system comprising: - a first storage device for data representative of operating parameters of said aircraft, said first device being situated on the ground, - a second storage device for data representative of parameters of said aircraft, said second device being embedded onboard said aircraft, - a device for accessing the data contained in said first and second storage devices, said system being characterized in that it also comprises: - a device for determining the stopping of said aircraft on the ground, - a device for synchronizing the data contained in said first and second storage devices, according to information from said determination device; said access device also being designed to: - select said first storage device or said second storage device to access the data, according to said information from said determination device. - a first storage device for data representative of operating parameters of said aircraft, said first device being situated on the ground, - a second storage device for data representative of parameters of said aircraft, said second device being embedded onboard said aircraft, - a device for accessing the data contained in said first and second storage devices, - a device for determining the stopping of said aircraft on the ground, - a device for synchronizing the data contained in said first and second storage devices, according to information from said determination device; - select said first storage device or said second storage device to access the data, according to said information from said determination device.
A method for preparing a water-absorbent resin composition comprising a water-absorbent resin and an antimicrobial agent comprising an inorganic compound carrying an antimicrobial metal, wherein the method comprises mixing the water-absorbent resin and the antimicrobial agent, wherein the degree of generated dust of the water-absorbent resin composition is at most 100 counts per minute, wherein the amount of the antimicrobial agent is 0.001 to 1 part by weight, based on 100 parts by weight of the water-absorbent resin and wherein the antimicrobial agent has an indefinite shape and a median particle diameter of at most 4 μm or wherein the antimicrobial agent has a cubic shape and a median particle diameter of at most 2.5 μm, wherein the antimicrobial metal is selected from silver, copper and zinc.
A method of providing information about at least one Bluetooth low energy, BLE, device by using a mobile terminal, the method comprising: in response to receiving a first user input for requesting a search for BLE devices registered in the mobile terminal, searching for at least one BLE device; receiving, from the at least one BLE device, identification information of the at least one BLE device; displaying a list of the BLE devices registered in the mobile terminal by using the identification information corresponding to the at least one BLE device; receiving a second user input for selecting a BLE device from the list of the BLE devices; and displaying profile information about the selected BLE device, the profile information including at least one of property information indicating an appearance of the selected BLE device and user added information regarding the selected BLE device, wherein the method further comprises: receiving sensing information detected by the selected BLE device from the selected BLE device, determining whether there is a control command mapped with the sensing information received from the selected BLE device, based on the determination that there is a control command mapped with the selected BLE device, executing the control command based on the received sensing information, and updating the user added information based on the received sensing information. in response to receiving a first user input for requesting a search for BLE devices registered in the mobile terminal, searching for at least one BLE device; receiving, from the at least one BLE device, identification information of the at least one BLE device; displaying a list of the BLE devices registered in the mobile terminal by using the identification information corresponding to the at least one BLE device; receiving a second user input for selecting a BLE device from the list of the BLE devices; and displaying profile information about the selected BLE device, the profile information including at least one of property information indicating an appearance of the selected BLE device and user added information regarding the selected BLE device, wherein the method further comprises: receiving sensing information detected by the selected BLE device from the selected BLE device, determining whether there is a control command mapped with the sensing information received from the selected BLE device, based on the determination that there is a control command mapped with the selected BLE device, executing the control command based on the received sensing information, and updating the user added information based on the received sensing information. receiving sensing information detected by the selected BLE device from the selected BLE device, determining whether there is a control command mapped with the sensing information received from the selected BLE device, based on the determination that there is a control command mapped with the selected BLE device, executing the control command based on the received sensing information, and updating the user added information based on the received sensing information.
A system for providing a secure domain name service for establishing a secure communication link for a first computer communicating with a second computer (3304, 3322) over a non-secure communication link in a computer network, the system comprising: a secure domain name service configured: to be connected to a communication network, to store a plurality of secure domain names and corresponding network addresses, wherein the plurality of secure domain names comprises secure top-level domain names, to receive a query, from a software module of the first computer, for a network address for a secure top-level domain name for the second computer, to access a VPN gatekeeper for establishing the secure communication link between the software module of the first computer and a secure server (3320; 3322) corresponding to the second computer; and to return, to the software module of the first computer, based on the secure top-level domain name, the network address for the secure server (3320, 3322) corresponding to the second computer. a secure domain name service configured: to be connected to a communication network, to store a plurality of secure domain names and corresponding network addresses, wherein the plurality of secure domain names comprises secure top-level domain names, to receive a query, from a software module of the first computer, for a network address for a secure top-level domain name for the second computer, to be connected to a communication network, to store a plurality of secure domain names and corresponding network addresses, wherein the plurality of secure domain names comprises secure top-level domain names, to receive a query, from a software module of the first computer, for a network address for a secure top-level domain name for the second computer, to access a VPN gatekeeper for establishing the secure communication link between the software module of the first computer and a secure server (3320; 3322) corresponding to the second computer; and to return, to the software module of the first computer, based on the secure top-level domain name, the network address for the secure server (3320, 3322) corresponding to the second computer.