mhurhangee/ep-ind-claims huggingface dataset:
A method of enrolling a fingerprint of a user's finger, by means of a fingerprint detection arrangement comprising a fingerprint sensor and an optical sensor comprising a light emitting source and a light receiving device, the method comprising the steps of: - capturing, by the fingerprint sensor, a first enrollment image of a fingerprint of a user's finger placed on the fingerprint sensor, wherein a position of the user's finger on the fingerprint sensor is set as a first position; - emitting light, by the light emitting source of the optical sensor, towards the user's finger; - determining an emitted light intensity (I em) of the light emitted by the light emitting source; - receiving, by the light receiving device, light emitted by the light emitting source when the finger is placed at said first position on the fingerprint sensor; - determining a received light intensity (I 1, I 2) of the light received by the light receiving device; - determining a first light response profile for the first position of the user's finger, the first light response profile being a difference in light intensity between the received light intensity and the emitted light intensity when the finger is placed at the first position of the fingerprint sensor; and - forming a first fingerprint sub template for the fingerprint when the finger is placed at the first position of the fingerprint sensor, the first fingerprint sub template comprising a fingerprint representation comprising a combination of the first enrollment image and the first light response profile when the finger is placed at the first position of the fingerprint sensor. - capturing, by the fingerprint sensor, a first enrollment image of a fingerprint of a user's finger placed on the fingerprint sensor, wherein a position of the user's finger on the fingerprint sensor is set as a first position; - emitting light, by the light emitting source of the optical sensor, towards the user's finger; - determining an emitted light intensity (I em) of the light emitted by the light emitting source; - receiving, by the light receiving device, light emitted by the light emitting source when the finger is placed at said first position on the fingerprint sensor; - determining a received light intensity (I 1, I 2) of the light received by the light receiving device; - determining a first light response profile for the first position of the user's finger, the first light response profile being a difference in light intensity between the received light intensity and the emitted light intensity when the finger is placed at the first position of the fingerprint sensor; and - forming a first fingerprint sub template for the fingerprint when the finger is placed at the first position of the fingerprint sensor, the first fingerprint sub template comprising a fingerprint representation comprising a combination of the first enrollment image and the first light response profile when the finger is placed at the first position of the fingerprint sensor.
A method of forming a flexible container, the method comprising providing one or more flexible materials, the method further comprising: joining together at least a portion of the one or more flexible materials to form: a product volume; a plurality of structural support members (144-1,144-2,146-1 to 146-4,148-1,148-2), each of which including an expanded structural support volume, which is a fillable space made from the one or more flexible materials configured to be filled with one or more expansion materials, preferably one or more gases, which create tension in the one or more flexible materials, wherein the plurality of structural support members supports the product volume; and forming, from the one or more flexible materials, a dispenser that is configured to dispense a fluent product from the product volume; filling the product volume so that the product volume directly contains a fluent product. joining together at least a portion of the one or more flexible materials to form: a product volume; a plurality of structural support members (144-1,144-2,146-1 to 146-4,148-1,148-2), each of which including an expanded structural support volume, which is a fillable space made from the one or more flexible materials configured to be filled with one or more expansion materials, preferably one or more gases, which create tension in the one or more flexible materials, wherein the plurality of structural support members supports the product volume; and a product volume; a plurality of structural support members (144-1,144-2,146-1 to 146-4,148-1,148-2), each of which including an expanded structural support volume, which is a fillable space made from the one or more flexible materials configured to be filled with one or more expansion materials, preferably one or more gases, which create tension in the one or more flexible materials, wherein the plurality of structural support members supports the product volume; and forming, from the one or more flexible materials, a dispenser that is configured to dispense a fluent product from the product volume; filling the product volume so that the product volume directly contains a fluent product.
A cleaning device for cleaning inner walls of containers using a pressurized liquid which emerges from at least one nozzle held in an arm of a nozzle holder when functioning, wherein the nozzle holder is fastened to a rotatable drive shaft which is mounted in a nozzle head rotatable about an axis running transversely to the drive shaft, wherein the drive shaft and the nozzle head are reversibly pivotable by means of one gear mechanism in each case, characterized in that an auxiliary drive is connected to a first gear mechanism as drive of the nozzle holder and that the first gear mechanism which reversibly pivots the drive shaft is configured as a coupling gear mechanism, wherein a connecting rod is connected to a crank disk driven over its entire circumference, which connecting rod is connected in an articulated manner to a coupling member to which a connecting rod is connected on the other hand, which connecting rod is in communication with the drive shaft and that a second gear mechanism which reversibly pivots the nozzle head is configured as a coupling gear mechanism and has a toothed gear driven by a driving toothed gear which turns over its full circumference and to which a crank is connected which is connected to a coupling member which on the other hand is fastened to a drive disk.
A method of producing a composite part using an automated fiber placement system, the method comprising: receiving at least one of a fiber and a plurality of fibers formed as a laydown tape at a compaction roller of a tool head of the AFP system; applying the laydown tape to a workpiece using the compaction roller at a predetermined speed and at a predetermined direction; applying a first amount of heat to the laydown tape using a first variable heat source of the AFP system, wherein the first amount of heat applied is related to the predetermined speed, wherein the applying the first amount of heat to the laydown tape comprises using a thermal roller in contact with the laydown tape, wherein the thermal roller is heated by the first variable heat source, and wherein the thermal roller is, using a spring element, compressed against the compaction roller with the laydown tape received therebetween; and applying a second amount of heat to the workpiece using a second variable heat source of the AFP system, wherein the second amount of heat applied is related to at least one of: a position on the workpiece, a thickness of the workpiece at the position, and a separation distance between the second heat variable source and the workpiece. receiving at least one of a fiber and a plurality of fibers formed as a laydown tape at a compaction roller of a tool head of the AFP system; applying the laydown tape to a workpiece using the compaction roller at a predetermined speed and at a predetermined direction; applying a first amount of heat to the laydown tape using a first variable heat source of the AFP system, wherein the first amount of heat applied is related to the predetermined speed, wherein the applying the first amount of heat to the laydown tape comprises using a thermal roller in contact with the laydown tape, wherein the thermal roller is heated by the first variable heat source, and wherein the thermal roller is, using a spring element, compressed against the compaction roller with the laydown tape received therebetween; and applying a second amount of heat to the workpiece using a second variable heat source of the AFP system, wherein the second amount of heat applied is related to at least one of: a position on the workpiece, a thickness of the workpiece at the position, and a separation distance between the second heat variable source and the workpiece.
A method for testing for changes in a number of display devices, the method comprising: receiving images displayed on the number of display devices by a computer system for a platform during a performance of a number of tests at a number of test locations for the platform; and identifying a portion of the images from the images in which changes are identified as a number of images of interest using a policy, wherein the identifying step comprises: comparing a number of areas in a first image in the images with the number of areas in a second image in the images, wherein the second image is subsequent to the first image; determining whether a percentage of changed pixels between the number of areas in the first image and the second image meets a threshold; and responsive to a determination that the percentage of changed pixels between the number of areas in the first image and the second image meets the threshold, identifying the second image as an image of interest. receiving images displayed on the number of display devices by a computer system for a platform during a performance of a number of tests at a number of test locations for the platform; and identifying a portion of the images from the images in which changes are identified as a number of images of interest using a policy, wherein the identifying step comprises: comparing a number of areas in a first image in the images with the number of areas in a second image in the images, wherein the second image is subsequent to the first image; determining whether a percentage of changed pixels between the number of areas in the first image and the second image meets a threshold; and responsive to a determination that the percentage of changed pixels between the number of areas in the first image and the second image meets the threshold, identifying the second image as an image of interest.
Contact spring for a relay, comprising a main body, a make/break pad and a contact pad, the make/break pad and the contact pad, both being arranged on the main body, the make/break pad being made from a first material and the contact pad being made from a second material different from the first material, characterized in that at least one substrate layer is provided between the make/break pad and the contact pad on one side and the main body on the other side, wherein make/break pad is located in a longitudinal direction between a distal end of the main body and the contact pad and wherein the main body exhibits a deformation zone with increased flexibility between the axis of rotation of the main body and the contact pad.
An offset measurement tool comprising: a body having a central longitudinal axis; a pin with a cross-sectional center axis, the pin coupled to the body, wherein the pin is sized to fit within at least one of one or more holes in a graft; and two or more legs (205, 206, 207, 208) coupled to the body and extending to two or more different distances from the cross-sectional center axis of the pin, characterized in that the cross-sectional center axis of the pin is colinear with the central longitudinal axis of the body. a body having a central longitudinal axis; a pin with a cross-sectional center axis, the pin coupled to the body, wherein the pin is sized to fit within at least one of one or more holes in a graft; and two or more legs (205, 206, 207, 208) coupled to the body and extending to two or more different distances from the cross-sectional center axis of the pin, characterized in that the cross-sectional center axis of the pin is colinear with the central longitudinal axis of the body.
Use of bFGF per se as the agent for a cosmetic treatment of ageing of skin, said use being a single administration of bFGF at a dosage of 0.1μg to 10μg per 1cm2 of skin, administered intradermally or subcutaneously.
An aluminosilicate molecular sieve of MFS framework type and, in its as-synthesized form, comprising 1-ethyl-1-[5-(triethylammonio)pentyl]piperidinium cations in its pores.
A rotary feedthrough for a motor vehicle wheel having tire pressure regulation, having a wheel carrier and having a wheel hub rotatably supported on the wheel carrier, wherein a compressed air annular space and at least one annular lubricant space (22, 22'), which are sealed with respect to one another, are formed in an intermediate space between the wheel carrier and the wheel hub, wherein the compressed air annular space communicates with a compressed air passage of the wheel carrier and with a compressed air passage of the wheel hub, wherein the compressed air passage of the wheel hub furthermore communicates with a controllable valve in order to selectively fill a tire of the motor vehicle wheel with compressed air or to deflate the tire, and wherein the annular lubricant space (22, 22') communicates with a lubricant passage of the wheel carrier, characterized in that the annular lubricant space (22, 22') also communicates with a lubricant passage of the wheel hub, which lubricant passage leads to a control port of the valve in order to selectively control the valve for the passage of compressed air.
Flooding device for a horizontal galvanic or wet-chemical process line for metal, in particular copper, deposition on a substrate to be treated, wherein the flooding device comprises at least a flooding element (2, 2', 2") and at least a first substrate guiding element (5, 5', 5"), wherein said flooding element (2, 2', 2") is mechanically connected to the at least first substrate guiding element (5, 5', 5"), and wherein the first substrate guiding element (5, 5', 5") is spatially arranged on the entry side (8, 8', 8") of the flooding element (2, 2', 2"), wherein the flooding device further comprises at least a second substrate guiding element (6, 6', 6"), wherein the flooding element (2, 2', 2") is mechanically connected to the at least second substrate guiding element (6, 6', 6"), and wherein the second substrate guiding element (6, 6', 6") is spatially arranged on the exit side (9, 9', 9") of the flooding element (2, 2', 2"), wherein the flooding device provides a transport direction of the substrates to be treated, wherein the flooding device provides an entry side and an exit side, wherein the term "entry side" refers to the side of a flooding device of a horizontal process line, wherein a substrate to be treated will arrive in transport direction in the transportation area at the flooding device before entering the flooding device through which the substrate to be treated will run subsequently, wherein the term "exit side" refers to said side of a flooding device of a horizontal process line, wherein a substrate to be treated will arrive in transport direction in the transportation area at the flooding device after leaving the flooding device through which the substrate to be treated has been run before, characterized in that the first substrate guiding element (5, 5', 5") and the second substrate guiding element (6, 6', 6") comprise each a plurality of protrusions, wherein the protrusions of the first substrate guiding element (5, 5', 5") are extending in axial direction from the flooding element (2, 2', 2") against the transport direction of the substrates to be treated, and wherein the protrusions of the second substrate guiding element (6, 6', 6") are extending in axial direction from the flooding element (2, 2', 2") in transport direction of the substrates to be treated.
A method for producing a floatingly mounted ceiling or wall covering comprising a panel face having a plurality of panels which are connected to one another on the longitudinal sides and/or transverse sides by means of locking profiles which correspond to one another and which can be connected without adhesive, having the steps of: - arranging a first panel of a first row of panels on structural rails by means of mounting clips, - wherein the mounting clips are movably mounted on the structural rails in the longitudinal axis direction of the structural rails and by means of a rotating movement about a rotational axis perpendicular to the panel face, and - are subsequently pushed along the structural rail with a receptacle onto the second side of the first panel such that - each mounting clip with the receptacle engages in a recess of the first panel such that the first panel is movably mounted on the receptacle transversely to the longitudinal axis direction of the structural rails, - connecting a second panel of a second row of panels to the first panels by means of the longitudinal locking profiles, characterized in that - a fall arresting device is arranged prior to, at the same time as or following the connection, which fall arresting device prevents the second panel detaching from the structural rails. - arranging a first panel of a first row of panels on structural rails by means of mounting clips, - wherein the mounting clips are movably mounted on the structural rails in the longitudinal axis direction of the structural rails and by means of a rotating movement about a rotational axis perpendicular to the panel face, and - are subsequently pushed along the structural rail with a receptacle onto the second side of the first panel such that - each mounting clip with the receptacle engages in a recess of the first panel such that the first panel is movably mounted on the receptacle transversely to the longitudinal axis direction of the structural rails, - connecting a second panel of a second row of panels to the first panels by means of the longitudinal locking profiles, characterized in that - a fall arresting device is arranged prior to, at the same time as or following the connection, which fall arresting device prevents the second panel detaching from the structural rails.
An ex vivo expansion method for cord blood Natural killer cells, characterized in that the ex vivo expansion method comprises the following steps: step 1): activatedly culturing the cord blood NK cells by: adjusting the density of cord blood mononuclear cells to 0.5×10 6 to 5×10 6 /mL using a lymphocyte culture medium, adding at least zoledronic acid with the concentration ranging from 1μg/mL to 10μg/mL and recombinant human interleukin-2 with the concentration ranging from 200IU/mL to 2000IU/mL, culturing for 1 to 5 days in an environment with a temperature ranging from 36°C to 40°C and CO 2 saturated humidity of 5%, and collecting cell fluid; and step 2): proliferately culturing the cord blood NK cells by: obtaining cells from the cell fluid collected in step 1), adjusting the density of the cells to 0.5×10 6 to 5×10 6 /mL using a lymphocyte culture medium, adding recombinant human interleukin-2 with the concentration ranging from 200IU/mL to 2000IU/mL, culturing in an environment with a temperature ranging from 36°C to 38°C and CO 2 saturated humidity of 5%, replenishing with fresh culture medium every other 2 to 3 days and adjusting the density of the cells to 0.5×10 6 to 5×10 6 /mL, and culturing for 14 to 35 days to harvest the cord blood NK cells. step 1): activatedly culturing the cord blood NK cells by: adjusting the density of cord blood mononuclear cells to 0.5×10 6 to 5×10 6 /mL using a lymphocyte culture medium, adding at least zoledronic acid with the concentration ranging from 1μg/mL to 10μg/mL and recombinant human interleukin-2 with the concentration ranging from 200IU/mL to 2000IU/mL, culturing for 1 to 5 days in an environment with a temperature ranging from 36°C to 40°C and CO 2 saturated humidity of 5%, and collecting cell fluid; and step 2): proliferately culturing the cord blood NK cells by: obtaining cells from the cell fluid collected in step 1), adjusting the density of the cells to 0.5×10 6 to 5×10 6 /mL using a lymphocyte culture medium, adding recombinant human interleukin-2 with the concentration ranging from 200IU/mL to 2000IU/mL, culturing in an environment with a temperature ranging from 36°C to 38°C and CO 2 saturated humidity of 5%, replenishing with fresh culture medium every other 2 to 3 days and adjusting the density of the cells to 0.5×10 6 to 5×10 6 /mL, and culturing for 14 to 35 days to harvest the cord blood NK cells.
A method of monitoring a battery status of a battery included in a mobile communication device, the method comprising: receiving in a computerized service unit via a mobile radio network battery status reports from the mobile communication device, the battery status reports including at least an electrical battery parameter indicative of a current charge or voltage level of the battery; and storing in the computerized service unit battery data, based on the battery status reports received from the mobile communication device, the battery data including at least a time series of the electrical battery parameter. receiving in a computerized service unit via a mobile radio network battery status reports from the mobile communication device, the battery status reports including at least an electrical battery parameter indicative of a current charge or voltage level of the battery; and storing in the computerized service unit battery data, based on the battery status reports received from the mobile communication device, the battery data including at least a time series of the electrical battery parameter.
An apparatus for separating adult stem cells from adipose tissue, characterized by a container for holding adipose tissue removed from a biological structure, which comprises fatty cells and stem cells, a feed installation for a fluid under pressure, an outlet arrangement for the fluid under pressure, wherein the outlet arrangement is formed by a hollow body and the outlet arrangement is disposed within the container such that the hollow body that forms the outlet arrangement has an exit opening and an entrance opening into which the adipose tissue containing the fatty cells and the stem cells is sucked in by the fluid jet.
A lid construction for a container to prevent leakage and spillage, comprising a top circular base, said top circular base being flat; a slit portion set on a center of the circular base; and a cylindrical member forming a rim structure to adapt over a rim flange of the container, said lid construction being made of elastic material, characterized by: a protrusion structure integral with and extending downward from a peripheral edge of said base; the cylindrical member being integrated with one end to a lower end of the protrusion structure and another end of the cylindrical member forming the rim structure; and the protrusion structure being spherical. a protrusion structure integral with and extending downward from a peripheral edge of said base; the cylindrical member being integrated with one end to a lower end of the protrusion structure and another end of the cylindrical member forming the rim structure; and the protrusion structure being spherical.