mhurhangee/ep-ind-claims huggingface dataset:
A communication jack configured to be mated with a RJ45 communication plug having a plurality of plug contacts, said communication jack comprising: a housing with an aperture for receiving said communication plug; a front sled positioned in the housing; and a plurality of plug interface contacts at least partially received in said aperture, each of the plurality of plug interface contacts including a respective free end proximal said aperture, and a respective end distal said aperture, said distal ends fixed within said jack, wherein each of said free ends includes a spring section, wherein each plug interface contact is supported at said free end by a floor of a respective slot included in the front sled, and wherein each slot includes a pair of opposing latches which hold the respective plug interface contact in proximity to the floor of the respective slot. a housing with an aperture for receiving said communication plug; a front sled positioned in the housing; and a plurality of plug interface contacts at least partially received in said aperture, each of the plurality of plug interface contacts including a respective free end proximal said aperture, and a respective end distal said aperture, said distal ends fixed within said jack, wherein each of said free ends includes a spring section, wherein each plug interface contact is supported at said free end by a floor of a respective slot included in the front sled, and wherein each slot includes a pair of opposing latches which hold the respective plug interface contact in proximity to the floor of the respective slot.
A damper comprising a piston provided with a rod, and a cylinder storing the piston, and generating a braking force by a movement or relative movement of the piston, wherein the cylinder is provided with width-side wall portions and thickness-side wall portions, has a flat shape in a cross section in a direction orthogonal to a moving direction (x) of the piston, and includes a connection portion, and the damper being characterized in that the rod includes a long hole, and the connection portion bridges the width-side wall portions on an open side of the cylinder to allow the connection portion to pass through and allow the piston to move along the moving direction (x) such that the long hole can prevent the piston from coming off from the cylinder, and a movement on a piston side can be smoothly carried out, wherein the connection portion includes one portion of the width-side wall portion sectioned by a division groove provided in one of the width-side wall portions, and includes a movable piece provided with a bendable thin base portion and a free end engageable with an engaged portion formed in another of the width-side wall portions. wherein the cylinder is provided with width-side wall portions and thickness-side wall portions, has a flat shape in a cross section in a direction orthogonal to a moving direction (x) of the piston, and includes a connection portion, and the damper being characterized in that the rod includes a long hole, and the connection portion bridges the width-side wall portions on an open side of the cylinder to allow the connection portion to pass through and allow the piston to move along the moving direction (x) such that the long hole can prevent the piston from coming off from the cylinder, and a movement on a piston side can be smoothly carried out, wherein the connection portion includes one portion of the width-side wall portion sectioned by a division groove provided in one of the width-side wall portions, and includes a movable piece provided with a bendable thin base portion and a free end engageable with an engaged portion formed in another of the width-side wall portions.
A system for displaying portions of a route on a coverage map that are non-compliant for a Global Navigation Satellite System (GNSS) navigation system in an aircraft, the system comprising: a route compliance module configured to define a geodetic reference datum standard based on the GNSS navigation system; a navigation system database having compliance information corresponding to each of a plurality of airports; a flight management system configured to determine the route of the aircraft; and a visual display configured to display the route and the coverage map, wherein the route compliance module is further configured to query the navigation system database, identify a non-compliant region of the coverage map that is not compliant with the geodetic reference datum standard based on the compliance information, and adjust the visual display to differentiate a non-compliant portion of the route extending within the non-compliant region of the coverage map. a route compliance module configured to define a geodetic reference datum standard based on the GNSS navigation system; a navigation system database having compliance information corresponding to each of a plurality of airports; a flight management system configured to determine the route of the aircraft; and a visual display configured to display the route and the coverage map, wherein the route compliance module is further configured to query the navigation system database, identify a non-compliant region of the coverage map that is not compliant with the geodetic reference datum standard based on the compliance information, and adjust the visual display to differentiate a non-compliant portion of the route extending within the non-compliant region of the coverage map.
A computer-implemented method of producing a magnetic resonance image of a region of interest, the method including the steps of: acquiring initial MR images of the region of interest for estimating an MR-sensitive, physical property at positions over the region of interest; estimating a map of values of the MR-sensitive, physical property at the positions over the region of interest; estimating a corresponding map of uncertainties in the estimated values of the MR-sensitive, physical property at the positions over the region; and calculating a weighted MR image of the region, the weighted MR image mapping values of a function which combines, at each position of the initial image, the respective value of the MR-sensitive, physical property and the respective estimated uncertainty, the function applying a higher weighting to positions with relatively low estimated uncertainties than to positions with relatively high estimated uncertainties; wherein the estimated uncertainties are variances in the estimated values of the MR-sensitive, physical property; and characterised in that the MR-sensitive, physical property is apparent diffusion coefficient and the function also applies (i) a higher weighting to positions with relatively low apparent diffusion coefficient than to positions with relatively high apparent diffusion coefficient, or (ii) a lower weighting to positions with relatively low apparent diffusion coefficient than to positions with relatively high apparent diffusion coefficient. acquiring initial MR images of the region of interest for estimating an MR-sensitive, physical property at positions over the region of interest; estimating a map of values of the MR-sensitive, physical property at the positions over the region of interest; estimating a corresponding map of uncertainties in the estimated values of the MR-sensitive, physical property at the positions over the region; and calculating a weighted MR image of the region, the weighted MR image mapping values of a function which combines, at each position of the initial image, the respective value of the MR-sensitive, physical property and the respective estimated uncertainty, the function applying a higher weighting to positions with relatively low estimated uncertainties than to positions with relatively high estimated uncertainties; wherein the estimated uncertainties are variances in the estimated values of the MR-sensitive, physical property; and characterised in that the MR-sensitive, physical property is apparent diffusion coefficient and the function also applies (i) a higher weighting to positions with relatively low apparent diffusion coefficient than to positions with relatively high apparent diffusion coefficient, or (ii) a lower weighting to positions with relatively low apparent diffusion coefficient than to positions with relatively high apparent diffusion coefficient.
A computer-implemented method for compiling rendering program code, comprising: accepting, by a High Level Shading Language, HLSL, compiler, one or more interfaces in program code to define alternative implementations of at least one rendering function; each of said of interfaces declared in High Level Shading Language, HLSL defining a template from which multiple shader classes can be instantiated; creating, by the HLSL compiler, bytecode from the program code, wherein an interface variable is inserted to point to at least one table of alternative implementations of the at least one rendering function in a precompiled state, wherein the interface variable indicates a number of call sites for the at least one rendering function in the program code; and wherein an instruction is inserted in the bytecode at each call site of the at least one rendering function, said instruction indicating the rendering function to be called, without indicating an implementation to call; creating, by a device driver, native code from the bytecode, wherein upon reaching the instruction, code is generated for each implementation by repeatedly caching a current state of register allocation, generating the code for the respective implementation, and restoring the cached state; and providing, by an application at runtime of the native code, a listing of specific class instances to be used. accepting, by a High Level Shading Language, HLSL, compiler, one or more interfaces in program code to define alternative implementations of at least one rendering function; each of said of interfaces declared in High Level Shading Language, HLSL defining a template from which multiple shader classes can be instantiated; creating, by the HLSL compiler, bytecode from the program code, wherein an interface variable is inserted to point to at least one table of alternative implementations of the at least one rendering function in a precompiled state, wherein the interface variable indicates a number of call sites for the at least one rendering function in the program code; and wherein an instruction is inserted in the bytecode at each call site of the at least one rendering function, said instruction indicating the rendering function to be called, without indicating an implementation to call; creating, by a device driver, native code from the bytecode, wherein upon reaching the instruction, code is generated for each implementation by repeatedly caching a current state of register allocation, generating the code for the respective implementation, and restoring the cached state; and providing, by an application at runtime of the native code, a listing of specific class instances to be used.
A coated, isolated substrate for use as an electrode, the coated isolated substrate comprising a substrate that is at least partially coated with a layer comprising a polymer and a redox active substance, wherein the polymer is a cation exchange polymer, and wherein the redox active substance is present in both an oxidised and reduced state. substrate comprising a substrate that is at least partially coated with a layer comprising a polymer and a redox active substance, wherein the polymer is a cation exchange polymer, and wherein the redox active substance is present in both an oxidised and reduced state.
Device for connecting electrical lines on essentially tubular connecting elements (1, 2) of drill pipes that can be screwed together, characterised in that on one connecting element a first electrical contact element is arranged and movable in a direction of rotation of the connecting element, and in that on the other connecting element a second electrical contact element is arranged in a fixed manner.
A display device comprising: a substrate having a display area and a peripheral area outside the display area; a first transistor and a second transistor each located over the display area of the substrate and arranged at different levels over the substrate, wherein a first gate electrode of the first transistor and a second gate electrode of the second transistor are arranged at different levels over the substrate; and a plurality of wirings located over the peripheral area of the substrate, wherein the plurality of wirings comprise first wirings and second wirings, the first wirings being located at a same level as the first gate electrode; characterized in that the second wirings are located at a same level as the second gate electrode. a substrate having a display area and a peripheral area outside the display area; a first transistor and a second transistor each located over the display area of the substrate and arranged at different levels over the substrate, wherein a first gate electrode of the first transistor and a second gate electrode of the second transistor are arranged at different levels over the substrate; and a plurality of wirings located over the peripheral area of the substrate, wherein the plurality of wirings comprise first wirings and second wirings, the first wirings being located at a same level as the first gate electrode; characterized in that the second wirings are located at a same level as the second gate electrode.
A method for operating a UE, user equipment, in an LTE, Long Term Evolution, network using TDD, time division duplex, mode, the method comprising: receiving transmitted downlink resource allocations from an eNB, evolved Node B, in an enhanced physical downlink control channel, ePDCCH, made up of one or more indexed enhanced control channel elements, eCCEs, contained within indexed physical resource blocks, PRBs; transmitting a hybrid-ARQ acknowledgement corresponding to downlink data transmitted on physical downlink shared channel, PDSCH, resources via a physical uplink control channel, PUCCH, resource that is implicitly indicated by a detected ePDCCH allocating said PDSCH resources; wherein the ePDCCH is detected in a downlink subframe belonging to a specified bundling window of M indexed downlink subframes and wherein the PUCCH resource is defined by a PUCCH resource index n PUCC H, i 1 representing a PUCCH Format 1 resource that is a function of subframe index, lowest index of a PRB containing at least one eCCE in the detected ePDCCH, and lowest eCCE index; characterized in that the method further comprising: for each subframe i in the bundling window having an ePDCCH allocating downlink resources, calculating the PUCCH resource index n PUCCH, i 1 such that the mapping of consecutive PUCCH resource indices is performed by the ePDCCHs ordered in accordance with an ordered list of the eCCEs making up the ePDCCHs that depends upon the PRB index, the subframe index, and the eCCE index. receiving transmitted downlink resource allocations from an eNB, evolved Node B, in an enhanced physical downlink control channel, ePDCCH, made up of one or more indexed enhanced control channel elements, eCCEs, contained within indexed physical resource blocks, PRBs; transmitting a hybrid-ARQ acknowledgement corresponding to downlink data transmitted on physical downlink shared channel, PDSCH, resources via a physical uplink control channel, PUCCH, resource that is implicitly indicated by a detected ePDCCH allocating said PDSCH resources; wherein the ePDCCH is detected in a downlink subframe belonging to a specified bundling window of M indexed downlink subframes and wherein the PUCCH resource is defined by a PUCCH resource index n PUCC H, i 1 representing a PUCCH Format 1 resource that is a function of subframe index, lowest index of a PRB containing at least one eCCE in the detected ePDCCH, and lowest eCCE index; characterized in that the method further comprising: for each subframe i in the bundling window having an ePDCCH allocating downlink resources, calculating the PUCCH resource index n PUCCH, i 1 such that the mapping of consecutive PUCCH resource indices is performed by the ePDCCHs ordered in accordance with an ordered list of the eCCEs making up the ePDCCHs that depends upon the PRB index, the subframe index, and the eCCE index.
A method for determining the coagulation time of a blood sample to be analyzed, comprising the following steps: - providing a reaction cuvette containing the blood sample to be analyzed, the reaction cuvette comprising a bottom delimiting a concave raceway whose concavity is directed upwards, - placing a ferromagnetic ball on the raceway of the reaction cuvette, - subjecting the ferromagnetic ball to a magnetic field so as to displace the ferromagnetic ball along the raceway in an oscillatory movement, - exposing the blood sample to be analyzed to an incident light beam configured to be at least partially obscured by the ferromagnetic ball during at least one part of the oscillatory movement of the ferromagnetic ball along the raceway, - detecting at least one light beam transmitted through the reaction cuvette and coming from the incident light beam so as to provide a measurement signal (S M), characterized in that it comprises: - carrying out a first processing of the measurement signal (S M) so as to provide a first signal representative of the variation of at least one physical quantity representative of the movement of the ferromagnetic ball, - carrying out a second processing of the measurement signal (S M) so as to provide a second signal representative of the variation of at least one optical property of the blood sample to be analyzed, - determining a first value of the coagulation time of the blood sample to be analyzed from the first signal, and - determining a second value of the coagulation time of the blood sample to be analyzed from the second signal. - providing a reaction cuvette containing the blood sample to be analyzed, the reaction cuvette comprising a bottom delimiting a concave raceway whose concavity is directed upwards, - placing a ferromagnetic ball on the raceway of the reaction cuvette, - subjecting the ferromagnetic ball to a magnetic field so as to displace the ferromagnetic ball along the raceway in an oscillatory movement, - exposing the blood sample to be analyzed to an incident light beam configured to be at least partially obscured by the ferromagnetic ball during at least one part of the oscillatory movement of the ferromagnetic ball along the raceway, - detecting at least one light beam transmitted through the reaction cuvette and coming from the incident light beam so as to provide a measurement signal (S M), - carrying out a first processing of the measurement signal (S M) so as to provide a first signal representative of the variation of at least one physical quantity representative of the movement of the ferromagnetic ball, - carrying out a second processing of the measurement signal (S M) so as to provide a second signal representative of the variation of at least one optical property of the blood sample to be analyzed, - determining a first value of the coagulation time of the blood sample to be analyzed from the first signal, and - determining a second value of the coagulation time of the blood sample to be analyzed from the second signal.
A composition for maternal administration comprising myo-inositol and vitamin B2 and comprising vitamin B6, vitamin B12, vitamin D, and a combination of Lactobacillus and Bifidobacterium, wherein the Bifidobacterium is the Bifidobacterium lactis BB12 strain deposited as CNCM I-3446 and the Lactobacillus is the Lactobacillus rhamnosus GG strain available under the deposit number CGMCC 1.3724.
A system (100, 1900, 1902, 1904) comprising: a pressure sensor (602, 706, 902) configured to generate pressure readings from a user who is sleeping on a bladder (114A, 114B, 1906, 1908, 1910); a worn-sensor (1912, 1914) configured to be worn by the user, a client unit (1916, 1918, 1920) communicably coupled to the worn-sensor and configured to receive the pressure readings from the pressure sensor and worn-readings from the worn-sensor (1912, 1914) for a plurality of night's sleep for the user, and transmit sleep-data to a cloud unit (1924, 1926, 1928) that is geographically remote from the client unit (1916, 1918, 1920); and the cloud unit (1924, 1926, 1928) that is configured to receive the sleep-data, wherein the sleep-data is generated from both the pressure readings and from the worn-readings, generate report-data from the sleep data, and generate sleep-reports for the user, each report corresponding to at least one different night's sleep of the user, wherein the worn-readings are sensed based on information of the pressure readings. a pressure sensor (602, 706, 902) configured to generate pressure readings from a user who is sleeping on a bladder (114A, 114B, 1906, 1908, 1910); a worn-sensor (1912, 1914) configured to be worn by the user, a client unit (1916, 1918, 1920) communicably coupled to the worn-sensor and configured to receive the pressure readings from the pressure sensor and worn-readings from the worn-sensor (1912, 1914) for a plurality of night's sleep for the user, and transmit sleep-data to a cloud unit (1924, 1926, 1928) that is geographically remote from the client unit (1916, 1918, 1920); and receive the pressure readings from the pressure sensor and worn-readings from the worn-sensor (1912, 1914) for a plurality of night's sleep for the user, and transmit sleep-data to a cloud unit (1924, 1926, 1928) that is geographically remote from the client unit (1916, 1918, 1920); and the cloud unit (1924, 1926, 1928) that is configured to receive the sleep-data, wherein the sleep-data is generated from both the pressure readings and from the worn-readings, generate report-data from the sleep data, and generate sleep-reports for the user, each report corresponding to at least one different night's sleep of the user, receive the sleep-data, wherein the sleep-data is generated from both the pressure readings and from the worn-readings, generate report-data from the sleep data, and generate sleep-reports for the user, each report corresponding to at least one different night's sleep of the user, wherein the worn-readings are sensed based on information of the pressure readings.
A polyethylene yarn for skin cooling fabric having (i) a tensile strength of 3.087 to 7.497 cN/dtex (3.5 to 8.5 g/de), as measured in accordance with ASTM D885, (ii) a tensile modulus of 13.230 to 70.560 cN/dtex (15 to 80 g/de), as measured in accordance with ASTM D885, (iii) an elongation at break of 14 to 55%, as measured in accordance with ASTM D885, and (iv) a crystallinity of 55 to 85%, as measured in accordance with the method disclosed in the description, wherein the polyethylene yarn includes a polyethylene polymer having a density of 0.941 to 0.965 g/cm 3, a weight average molecular weight (Mw) of 50,000 to 99,000 g/mol, and a number average molecular weight (Mn) of 10,500 to 14,000 g/mol.
Balancing weight having a center section and two side wings (11, 12) comprising a plastic material without integrated mass portion or mass particles, and a clip for attaching the balancing weight to a rim of a wheel, the clip has a rim section for attachment to the rim of a wheel and a body section which is integrated into the body of the balancing weight. characterized in, that the body section of the clip is integrated into the plastic material. a plastic material without integrated mass portion or mass particles, and a clip for attaching the balancing weight to a rim of a wheel, the clip has a rim section for attachment to the rim of a wheel and a body section which is integrated into the body of the balancing weight. characterized in, that the body section of the clip is integrated into the plastic material.