mhurhangee/ep-ind-claims huggingface dataset:
A system comprising a sensor for measuring a skin parameter, the sensor comprising (i) at least three, spatially separated light sources configured to provide unpolarized, visible light source light, and (ii) a detector configured at a first distance selected from the range of 10-80 mm from each of the light sources, and configured to detect polarized light; and (iii) a polarizer configured upstream of the detector, and wherein the polarizer comprises one or more of (i) a segmented polarizer and (ii) a spatially varying polarizer, wherein the system comprises a housing containing the sensor, wherein the housing comprises a first aperture providing a field of view to the detector, wherein the sensor is configured to, when in use, provide the light source light directed towards the skin, with optical axes under an angle of incidence (α) selected from the range of 10-80° with the skin at a second distance defined as the distance between the first aperture and the detector or as the distance between the first aperture and optional last optics before the detector when seen from the detector, and to detect, when in use, reflected light source light, characterised in that the device comprises a sensing mode, wherein the light sources are configured to sequentially provide the light source light, wherein the detector is configured to sequentially detect reflected light source light sequentially generated by the light sources, and configured to generate corresponding detector signals. (i) at least three, spatially separated light sources configured to provide unpolarized, visible light source light, and (ii) a detector configured at a first distance selected from the range of 10-80 mm from each of the light sources, and configured to detect polarized light; and (iii) a polarizer configured upstream of the detector, and wherein the polarizer comprises one or more of (i) a segmented polarizer and (ii) a spatially varying polarizer, (i) a segmented polarizer and (ii) a spatially varying polarizer,
Display device for a motor vehicle, comprising - a flexible display element which is an instrument cluster for a motor vehicle; - an adjustment device which is configured to adjust the display element from a stowed position into a position of use; characterised in that the adjustment device is designed to curve up the display element from the stowed position into the position of use, wherein the display device comprises a display arranged behind the display element in the vehicle longitudinal direction (x), in particular a ribbon-like display, which is designed to display at least some of the information which can be shown by the display element. - a flexible display element which is an instrument cluster for a motor vehicle; - an adjustment device which is configured to adjust the display element from a stowed position into a position of use;
A method for solving non-controllability of OFDMA system terminal's power spectrum density, the method being characterized by the following steps: 1) determining, by an AMC module at base station side, a modulation coding method of a terminal according to uplink receiving Signal to Noise Ratio, SNR; 2) determining, by a power control module at the base station side, a carrier transmit power regulating value of the terminal according to the uplink receiving SNR and the modulation coding method determined in Step 1); 3) determining a maximum carrier number that can be allocated to the terminal according to the carrier transmit power regulating value determined in Step 2), the terminal's carrier transmit power reported by the terminal, and a maximum total transmit power of the terminal; 4) allocating, by a dispatching module, uplink time-frequency channel resources to the terminal according to service requirements, the modulation coding method determined in Step 1) and the maximum carrier number determined in Step 3); 5) sending to the terminal, via downlink link, the modulation coding method determined in step 1), the carrier transmit power regulating value determined in step 2), and the uplink time-frequency channel resource allocated in step 4); 6) according to the information sent in Step 5), the terminal regulating its transmission power and its modulation coding method and sending data. 1) determining, by an AMC module at base station side, a modulation coding method of a terminal according to uplink receiving Signal to Noise Ratio, SNR; 2) determining, by a power control module at the base station side, a carrier transmit power regulating value of the terminal according to the uplink receiving SNR and the modulation coding method determined in Step 1); 3) determining a maximum carrier number that can be allocated to the terminal according to the carrier transmit power regulating value determined in Step 2), the terminal's carrier transmit power reported by the terminal, and a maximum total transmit power of the terminal; 4) allocating, by a dispatching module, uplink time-frequency channel resources to the terminal according to service requirements, the modulation coding method determined in Step 1) and the maximum carrier number determined in Step 3); 5) sending to the terminal, via downlink link, the modulation coding method determined in step 1), the carrier transmit power regulating value determined in step 2), and the uplink time-frequency channel resource allocated in step 4); 6) according to the information sent in Step 5), the terminal regulating its transmission power and its modulation coding method and sending data.
A photomultiplier with a radiation detector, comprising: a lower insulator; an a-Se photoconductive layer; and an upper insulator, wherein the a-Se photoconductive layer is between the lower insulator and the upper insulator, characterized in that a light interaction region, an avalanche region, and a collection region are provided along a length of the radiation detector, wherein the light interaction region and the collection region are positioned on opposite sides of the avalanche region, wherein the light interaction region has an upper optical window and a lower optical window, for input of first light and second light, from above and below the radiation detector, respectively, the photomultiplier further comprising: a) a high voltage source positioned at a distal end of the light interaction region; and b) a collector positioned at a distal end of the collection region, wherein the high voltage source and the collector are positioned on opposite horizontal ends of the radiation detector, c) a plurality of grids (152, 154, 156, 158) forming a plurality of lateral Frisch grids positioned at predetermined intervals along a horizontal length of the avalanche region. a lower insulator; an a-Se photoconductive layer; and an upper insulator, wherein the a-Se photoconductive layer is between the lower insulator and the upper insulator, characterized in that a light interaction region, an avalanche region, and a collection region are provided along a length of the radiation detector, wherein the light interaction region and the collection region are positioned on opposite sides of the avalanche region, wherein the light interaction region has an upper optical window and a lower optical window, for input of first light and second light, from above and below the radiation detector, respectively, the photomultiplier further comprising: a) a high voltage source positioned at a distal end of the light interaction region; and b) a collector positioned at a distal end of the collection region, wherein the high voltage source and the collector are positioned on opposite horizontal ends of the radiation detector, c) a plurality of grids (152, 154, 156, 158) forming a plurality of lateral Frisch grids positioned at predetermined intervals along a horizontal length of the avalanche region. a) a high voltage source positioned at a distal end of the light interaction region; and b) a collector positioned at a distal end of the collection region, wherein the high voltage source and the collector are positioned on opposite horizontal ends of the radiation detector, c) a plurality of grids (152, 154, 156, 158) forming a plurality of lateral Frisch grids positioned at predetermined intervals along a horizontal length of the avalanche region.
Mobile electronic device, characterized in that it includes a first interface adapted to establish communication with an external electronic entity a second interface also adapted to establish communication with an external electronic entity, means (1111, 1112, 1114) for processing a secret value, adapted to react to reception of a message via either interface control means adapted - to update an indicator for counting incorrect uses of said means for using a secret value via either interface, - to apply a first inhibition to communication using the first interface as a function of said indicator, - to apply a second inhibition to communication using the second interface as a function of said indicator, the device being such that for at least one value of the indicator, the second inhibition is different from the first, wherein said second interface includes data receiving means using a contactless communication protocol and said first interface includes means for receiving data using a contact communication protocol, wherein two different thresholds are used to apply respectively the first and the second inhibitions, wherein for at least one value of the indicator corresponding to the range of values of the indicator defined by the two different thresholds, communication using the second and contactless interface is blocked, while communication using the first and contact interface is authorized. - to update an indicator for counting incorrect uses of said means for using a secret value via either interface, - to apply a first inhibition to communication using the first interface as a function of said indicator, - to apply a second inhibition to communication using the second interface as a function of said indicator,
An audio signal decoding method comprising: a long-term prediction information decoding step of decoding a time-domain pitch period code to obtain a time-domain pitch period L; and a period conversion step of obtaining, as a converted interval T 1, a frequency-domain sample interval corresponding to the time-domain pitch period L, decoding a first frequency-domain pitch period code to obtain a multiple value indicating how many times a first frequency-domain pitch period T is greater than the converted interval T 1, and obtaining, as the first frequency-domain pitch period T, the converted interval T 1 multiplied by the multiple value. a long-term prediction information decoding step of decoding a time-domain pitch period code to obtain a time-domain pitch period L; and a period conversion step of obtaining, as a converted interval T 1, a frequency-domain sample interval corresponding to the time-domain pitch period L, decoding a first frequency-domain pitch period code to obtain a multiple value indicating how many times a first frequency-domain pitch period T is greater than the converted interval T 1, and obtaining, as the first frequency-domain pitch period T, the converted interval T 1 multiplied by the multiple value.
An apparatus comprising an enclosure (100,200) comprising an outer exposure layer that is resistant to and compatible with an operating environment and an inner enclosure layer disposed within the outer layer such that a gap volume exists between the outer and the inner layers; one or more gas analyzer components disposed within the inner enclosure layer, the one or more gas analyzer components comprising one or more of a tunable diode laser (110,206), a detector (122,210) and a sample cell; and a mass of a phase changing material disposed within the gap volume between the outer and the inner layers, the phase changing material having a phase transition temperature at which the phase changing material transitions from a first phase to a second phase while absorbing or releasing a latent heat energy Δ H L, the phase transition temperature being within a desired operating temperature range of the one or more gas analyzer components, the mass M of the phase changing material being given by M ≥ F T Δ H L where F T is an expected net heat energy flux from the operating environment into the enclosure during a period of an operating day during which an ambient temperature outside of the enclosure exceeds the phase transition temperature.
Paper or cardboard machine for producing a web, having a first treatment unit and a second treatment unit, wherein the web from the first treatment unit having a revolving first clothing on which the web bears within a first web running path is transferred to the second treatment unit which has a revolving second clothing to which the web is transferred and guided within a second web running path, wherein a deflection roller which is configured as a suction roller and which is suitable for lifting the web from the first clothing and deflecting said web in the direction of the second clothing is provided, wherein a web separation element in the web running direction is disposed behind the deflection roller which is configured as a suction roller, characterized in that the web separation element in the web running direction of the first web running path is disposed between 200 and 600 mm behind the deflection roller which is configured as a suction roller, and in that the web separation element is formed by a blade having a cutting edge which faces the first clothing.
A pressure-sensitive adhesive composition, including an interpenetrating polymer network structure in a cured state, wherein the interpenetrating polymer network structure comprises a cross-linked structure formed by reaction of a crosslinkable acrylic resin and a multifunctional crosslinking agent capable of realizing the cross-linked structure by reacting with the acrylic resin and a crosslinked structure formed by a reaction of a multifunctional acrylate and a polymerization initiator, wherein a molecular weight of the multifunctional acrylate is less than 1,000, and wherein the pressure-sensitive adhesive composition has a storage modulus of 0.05 MPa to 0.3 MPa at 80°C and a storage modulus of 0.07 MPa to 0.25 MPa at 23°C in a cured state.
Measuring device for optical distance measurement, in particular handheld measuring device, comprising: a transmitting unit for emitting optical measurement radiation toward a target object; an evaluation unit which has at least one distance determining unit designed to determine a time of flight of measurement radiation (13, 16) between emission by the transmitting unit until detection of measurement radiation returning from the target object and to determine a distance therefrom, a receiving unit having a detection area for detecting optical measurement radiation returning from the target object; wherein the detection area has a multiplicity of pixels, wherein each pixel has at least one Single Photon Avalanche Diode (SPAD) and wherein each of the multiplicity of pixels is connected to the evaluation unit; wherein the transmitting unit and the receiving unit are designed in such a way that optical measurement radiation returning from the target object simultaneously illuminates a plurality of pixels; wherein the evaluation unit is furthermore designed to determine a distance between the measuring device and the target object on the basis of an evaluation of detection signals of a plurality of pixels, wherein the detection signals of the pixels are generated by the SPADs, characterized in that the evaluation unit has a plurality of distance determining units and the evaluation unit is designed to determine the distance between the measuring device and the target object on the basis of the distances determined by the distance determining units. a transmitting unit for emitting optical measurement radiation toward a target object; an evaluation unit which has at least one distance determining unit designed to determine a time of flight of measurement radiation (13, 16) between emission by the transmitting unit until detection of measurement radiation returning from the target object and to determine a distance therefrom, a receiving unit having a detection area for detecting optical measurement radiation returning from the target object; wherein the detection area has a multiplicity of pixels, wherein each pixel has at least one Single Photon Avalanche Diode (SPAD) and wherein each of the multiplicity of pixels is connected to the evaluation unit; wherein the transmitting unit and the receiving unit are designed in such a way that optical measurement radiation returning from the target object simultaneously illuminates a plurality of pixels; wherein the evaluation unit is furthermore designed to determine a distance between the measuring device and the target object on the basis of an evaluation of detection signals of a plurality of pixels, wherein the detection signals of the pixels are generated by the SPADs,
A glutamine enriched nutritional composition for use in providing nutrition to low birth weight and/or preterm infants for use in: - increasing brain volume and/or brain mass; - improving growth of brain volume and/or mass; - increasing white matter volume and/or mass, brain stem volume and/or mass, and/or hippocampus volume and/or mass; and/or - improving white matter volume and/or mass growth, brain stem volume and/or mass growth, and/or hippocampus volume and/or mass growth. - increasing brain volume and/or brain mass; - improving growth of brain volume and/or mass; - increasing white matter volume and/or mass, brain stem volume and/or mass, and/or hippocampus volume and/or mass; and/or - improving white matter volume and/or mass growth, brain stem volume and/or mass growth, and/or hippocampus volume and/or mass growth.
A positive electrode for a lithium secondary battery, comprising a positive electrode collector and a positive active material layer formed on this collector, wherein the positive active material layer is composed of: a matrix phase containing at least one particulate positive active material and at least one binder; and an aggregate phase dispersed in the matrix phase, constituted by aggregation of at least one particulate positive active material and containing substantially no binder. a matrix phase containing at least one particulate positive active material and at least one binder; and an aggregate phase dispersed in the matrix phase, constituted by aggregation of at least one particulate positive active material and containing substantially no binder.
A drive mechanism for a repetitive processing machine, the drive mechanism comprising: a body; a carrier member configured to carry an output unit; a first drive member comprising a rotary actuator rotationally constrained to the body; a second drive member, separate to the first drive member, comprising a rotary actuator rotationally constrained to the carrier member; a drive linkage system comprising a first member and a second member that are rotatably connected about a first axis; and a control system; wherein the first member is arranged to receive rotary motion relative the body from the first drive member to cause the first member to rotate about a second axis and with a length between the second axis and first axis; the second member is arranged to receive rotary motion relative the carrier member from the second drive member to cause the second member to rotate about a third axis and with a length between the third axis and first axis; a stabilizing system to provide a rotational constraint of the carrier member relative the body so that the carrier member is rotationally constrained for translational movement; and a position of the carrier member relative the body is controllable to move with a cyclic movement by the control system controlling rotational speed and direction of the first and second rotary actuators whilst the stabilizing system rotationally constrains the carrier member relative to the body. a body; a carrier member configured to carry an output unit; a first drive member comprising a rotary actuator rotationally constrained to the body; a second drive member, separate to the first drive member, comprising a rotary actuator rotationally constrained to the carrier member; a drive linkage system comprising a first member and a second member that are rotatably connected about a first axis; and a control system; wherein the first member is arranged to receive rotary motion relative the body from the first drive member to cause the first member to rotate about a second axis and with a length between the second axis and first axis; the second member is arranged to receive rotary motion relative the carrier member from the second drive member to cause the second member to rotate about a third axis and with a length between the third axis and first axis; a stabilizing system to provide a rotational constraint of the carrier member relative the body so that the carrier member is rotationally constrained for translational movement; and a position of the carrier member relative the body is controllable to move with a cyclic movement by the control system controlling rotational speed and direction of the first and second rotary actuators whilst the stabilizing system rotationally constrains the carrier member relative to the body.
An electronic mirror comprises a liquid crystal cell, wherein the liquid crystal cell is configured to be operated in a reflective mode in which external light is reflected or in a transmissive mode in which an electric mirror function is activated; the liquid crystal cell comprises: a first transparent electrode; a second transparent electrode; a liquid crystal layer comprising liquid crystal molecules arranged between the first transparent electrode and the second transparent electrode; and an AC voltage source configured to apply an alternating voltage across the liquid crystal layer between the first transparent electrode and the second transparent electrode, wherein when a voltage is applied across the liquid crystal layer, the liquid crystal molecules in the liquid crystal layer change their orientation, the electronic mirror is configured to apply a varying voltage across the liquid crystal layer which gradually decreases from outer areas towards the center of the liquid crystal layer such that, in the reflective mode, the refraction index of the liquid crystal layer gradually varies from outer areas towards the center of the liquid crystal layer, so as to provide a magnification effect for images reflected by the cell, a polarizing filter layer, wherein the second transparent electrode is arranged between the polarizing filter layer and the liquid crystal layer; and a reflective polarizing filter layer, wherein the first transparent electrode is arranged between the reflective polarizing filter layer and the liquid crystal layer. a first transparent electrode; a second transparent electrode; a liquid crystal layer comprising liquid crystal molecules arranged between the first transparent electrode and the second transparent electrode; and an AC voltage source configured to apply an alternating voltage across the liquid crystal layer between the first transparent electrode and the second transparent electrode, wherein when a voltage is applied across the liquid crystal layer, the liquid crystal molecules in the liquid crystal layer change their orientation, the electronic mirror is configured to apply a varying voltage across the liquid crystal layer which gradually decreases from outer areas towards the center of the liquid crystal layer such that, in the reflective mode, the refraction index of the liquid crystal layer gradually varies from outer areas towards the center of the liquid crystal layer, so as to provide a magnification effect for images reflected by the cell, a polarizing filter layer, wherein the second transparent electrode is arranged between the polarizing filter layer and the liquid crystal layer; and a reflective polarizing filter layer, wherein the first transparent electrode is arranged between the reflective polarizing filter layer and the liquid crystal layer.