mhurhangee/ep-ind-claims huggingface dataset:
A laser phosphor display system, comprising: a laser phosphor display screen, the screen including phosphor regions, a filter layer with a plurality of first reflective regions thereon which diffusively reflect servo light; one or more excitation and servo light sources; a light directing system (204, 206, 208) disposed between the one or more excitation and servo light sources and the screen and configured to direct excitation and servo light delivered by the excitation and servo light sources at the filter layer and to scan the excitation and servo light across the filter layer; and a plurality of detectors, wherein each of the plurality of detectors is configured to detect servo light diffusely reflected from the plurality of first reflective regions, wherein each detector has a face and a center line that is perpendicular to the face, wherein the face of each detector is angled towards a portion of the screen, wherein the center line of each detector is angled with respect to a direction perpendicular to the screen, and wherein the screen is divided into multiple sections (502A, 502B, 502C, 502D), and each detector is positioned and angled to be configured to detect servo light from at least one respective section of the screen that is different from the closest section to the detector. a laser phosphor display screen, the screen including phosphor regions, a filter layer with a plurality of first reflective regions thereon which diffusively reflect servo light; one or more excitation and servo light sources; a light directing system (204, 206, 208) disposed between the one or more excitation and servo light sources and the screen and configured to direct excitation and servo light delivered by the excitation and servo light sources at the filter layer and to scan the excitation and servo light across the filter layer; and a plurality of detectors, wherein each of the plurality of detectors is configured to detect servo light diffusely reflected from the plurality of first reflective regions,
A wall installation comprising at least first and second uprights (20, 120) having respective first and second longitudinal directions and being configured to receive removably respective a first and a second fastener devices of a storage accessory of the wall installation, the first and second fastener devices being spaced apart from each other by a first distance (d), the first and second uprights respectively including at least a first and a second top fastener means configured to fasten the first and second uprights to a wall; • in which installation at least the first upright further includes at least a first registering means having a registering orifice, the first registering means and the first top fastener means being spaced apart from each other by the first distance (d). • in which installation at least the first upright further includes at least a first registering means having a registering orifice, the first registering means and the first top fastener means being spaced apart from each other by the first distance (d).
A method of making an integrated circuit medical device, comprising the steps of: a. depositing a layer of an electrically conductive material onto a releasable substrate, thereby forming a framework support member consisting of the electrically conductive material on the releasable substrate; b. forming a plurality of slots passing through the framework support member and to the releasable substrate thereby defining a plurality of circuit traces in the framework support member bounded by the plurality of slots; and c. coating a dielectric layer onto the framework support member and the plurality of circuit traces thereby filling the plurality of slots and binding the plurality of circuit traces to the framework support member and electrically isolating the plurality of circuit traces from the framework support member. a. depositing a layer of an electrically conductive material onto a releasable substrate, thereby forming a framework support member consisting of the electrically conductive material on the releasable substrate; b. forming a plurality of slots passing through the framework support member and to the releasable substrate thereby defining a plurality of circuit traces in the framework support member bounded by the plurality of slots; and c. coating a dielectric layer onto the framework support member and the plurality of circuit traces thereby filling the plurality of slots and binding the plurality of circuit traces to the framework support member and electrically isolating the plurality of circuit traces from the framework support member.
A method of reducing message latency for high priority messages transmitted over a Link 16 wireless, multiple access network comprising a plurality of nodes, wherein the Link 16 network implements at least one simultaneous messaging protocol creating at least two subnets (200A, 200B), wherein one of the subnets is designated as a low latency subnet and is configured as a contention access subnet; the method comprising using a processor of each node of the plurality of nodes to perform the steps of monitoring the at least two subnets simultaneously and transmitting messages on the at least two subnets; receiving messages simultaneously on the low latency subnet and at least one other of the subnets; designating messages before they are transmitted as being standard messages or high priority messages; and transmitting only messages designated as high priority messages over the low latency subnet. monitoring the at least two subnets simultaneously and transmitting messages on the at least two subnets; receiving messages simultaneously on the low latency subnet and at least one other of the subnets; designating messages before they are transmitted as being standard messages or high priority messages; and transmitting only messages designated as high priority messages over the low latency subnet.
A method for clock synchronization of protocols in a network comprising a base station, BS, the BS comprising a BS scheduler, a user equipment, UE, and a master clock as an Over-the-Top, OTT, IP service on uplink and downlink channels, the method comprising the steps of: a) enabling, by the network, one or more IP communication flows between interfaces of the master clock and the UE for IP time synchronization packets or packets with similar symmetrical delay and low jitter requirements; b) receiving at the UE and the BS packets of these IP communication flows; c) disabling, at the BS and the UE, the use of Carrier-Aggregation, CA, Coordinated MultiPoint, CoMP, and Dual Connectivity, DC, for data of these IP communication flows; d) setting, at the BS and the UE, the target radio Block Error Rate, BLER, of the uplink and downlink channels to a value equal to or less than that of the IP communication flow's target packet loss rate; e) calculating, at the BS and the UE, the radio packet size so as to ensure that each packet is transmitted over a single radio transmission; f) signaling, from the network to the BS scheduler, a signal indicating to bypass radio scheduler queues; g) receiving a signal at the BS scheduler to bypass radio scheduler queues; h) signaling, from the BS to the UE, a signal indicating to utilize grant-free transmission on the uplink channel; and i) receiving, at the UE, a signal indicating to utilize grant-free transmission on the uplink channel. a) enabling, by the network, one or more IP communication flows between interfaces of the master clock and the UE for IP time synchronization packets or packets with similar symmetrical delay and low jitter requirements; b) receiving at the UE and the BS packets of these IP communication flows; c) disabling, at the BS and the UE, the use of Carrier-Aggregation, CA, Coordinated MultiPoint, CoMP, and Dual Connectivity, DC, for data of these IP communication flows; d) setting, at the BS and the UE, the target radio Block Error Rate, BLER, of the uplink and downlink channels to a value equal to or less than that of the IP communication flow's target packet loss rate; e) calculating, at the BS and the UE, the radio packet size so as to ensure that each packet is transmitted over a single radio transmission; f) signaling, from the network to the BS scheduler, a signal indicating to bypass radio scheduler queues; g) receiving a signal at the BS scheduler to bypass radio scheduler queues; h) signaling, from the BS to the UE, a signal indicating to utilize grant-free transmission on the uplink channel; and i) receiving, at the UE, a signal indicating to utilize grant-free transmission on the uplink channel.
A method for treating waste water of a plant for the hydrothermal carbonization of biomass (HTC plant), wherein ▪ process water of the hydrothermal carbonization is partly evaporated by means of optional evaporative cooling (2, 14) and thermal drying, ▪ the obtained process steam (S33, S2, S18) is condensed in a heat exchanger (7, 17), ▪ the obtained process steam condensate is discharged from the HTC plant at least as a partial quantity of waste water, and ▪ the waste water is biologically treated, characterized in that - a minimum quantity of process water (S32, S22) is discharged from the HTC plant as waste water, wherein the discharged minimum quantity of process water (S32, S22) is the minimum quantity required to raise the ash melting behavior of the carbonized biomass to such an extent that an increase of the ash softening temperature to at least 1000°C is achieved, and - either the water content of the biomass is limited to such an extent or the evaporative capacity of a thermal drying of the carbonized biomass in a steam atmosphere is increased to such an extent that the remaining process water to be discharged from the HTC plant as waste water is evaporated and condensed in the thermal drying of the carbonized biomass in a steam atmosphere, and the obtained process steam condensate is discharged as waste water. ▪ process water of the hydrothermal carbonization is partly evaporated by means of optional evaporative cooling (2, 14) and thermal drying, ▪ the obtained process steam (S33, S2, S18) is condensed in a heat exchanger (7, 17), ▪ the obtained process steam condensate is discharged from the HTC plant at least as a partial quantity of waste water, and ▪ the waste water is biologically treated, - a minimum quantity of process water (S32, S22) is discharged from the HTC plant as waste water, wherein the discharged minimum quantity of process water (S32, S22) is the minimum quantity required to raise the ash melting behavior of the carbonized biomass to such an extent that an increase of the ash softening temperature to at least 1000°C is achieved, and - either the water content of the biomass is limited to such an extent or the evaporative capacity of a thermal drying of the carbonized biomass in a steam atmosphere is increased to such an extent that the remaining process water to be discharged from the HTC plant as waste water is evaporated and condensed in the thermal drying of the carbonized biomass in a steam atmosphere, and the obtained process steam condensate is discharged as waste water.
Resin film composed of polyurethane that has not been fully hardened, with an NCO value of from 8% by weight to 16% by weight (measured in accordance with DIN EN ISO 14896: 2009-07-Method A), and that has a T g -value below 40°C (measured in accordance with DIN 53765-A-20), where the polyurethane is obtainable from a reaction mixture composed of A) one or more di- and/or polyisocyanates from the group consisting of aromatic di- and/or polyisocyanates and polymeric homologs of these, and also blends thereof B) a polyol component made of one or more polyols with an average OH number of from 30 to 1000 mg KOH/g (measured in accordance with DIN EN ISO 53240), having an average functionality of from 1.9 to 2.5 C) one or more dianhydrohexitols D) one or more latent catalysts which are catalytically active at temperatures of from 50°C to 100°C E) optionally auxiliaries and/or additives, other than polyepoxides where the initial viscosity of the reaction mixture at 40°C is from 30 to 500 mPas (measured in accordance with DIN 53019), and the ratio of the number of the NCO groups in component A) to the number of the OH groups in component B) is from 1.35:1 to 10:1. A) one or more di- and/or polyisocyanates from the group consisting of aromatic di- and/or polyisocyanates and polymeric homologs of these, and also blends thereof B) a polyol component made of one or more polyols with an average OH number of from 30 to 1000 mg KOH/g (measured in accordance with DIN EN ISO 53240), having an average functionality of from 1.9 to 2.5 C) one or more dianhydrohexitols D) one or more latent catalysts which are catalytically active at temperatures of from 50°C to 100°C E) optionally auxiliaries and/or additives, other than polyepoxides
Method for operating a premix gas burner, wherein during burner-on phases a defined gas/air mixture having a defined mixing ratio of gas and air is provided to a burner chamber of the gas burner for combusting the defined gas/air mixture within the burner chamber, wherein the defined gas/air mixture is provided by a mixing device mixing an air flow provided by an air duct with a gas flow provided by a gas duct, wherein the air flow provided by the air duct depends on a fan speed of a fan assigned to the air duct or the burner chamber, wherein the gas flow provided by the gas duct depends on a position of at least one gas valve (18, 19) assigned to the gas duct, wherein flames resulting from the combustion of the defined gas/air mixture within the burner chamber are monitored by an ionization sensor, wherein exhaust gas resulting from the combustion of the defined gas/air mixture within the burner chamber leaves the burner chamber through an exhaust duct of the burner chamber to which a temperature sensor is assigned, and wherein during burner-on phases a pre-purge-check and an ignition-check and a flue-check and a running-check and a gas-pressure-check and a post-purge-check are executable by monitoring and analysing an ionization signal of the ionization sensor and/or a signal being indicative of a power consumption of the fan and/or a fan speed signal of the fan and/or an exhaust gas temperature signal of the temperature sensor in order to detect a potential blockage within the gas burner; characterized in that the pre-purge-check is only executed during an actual burner-on phase after a burner start has been requested by an actual heat demand if during a previous burner-on phase a potential blockage was detected; the ignition-check is executed during an actual burner-on phase after a burner start has been requested by an actual heat demand, after the optional execution of the pre-purge-check, after the at least one gas valve (18, 19) assigned to the gas duct has been opened and after flames are established by the combustion of the gas/air mixture; after the ignition-check is executed the flue-check and the running-check and the gas-pressure-check and the post-purge-check are executable if no potential blockage was detected during the ignition-check, wherein the running-check is only executed if no potential blockage was detected during the flue-check and if the fan speed is almost constant, and wherein the post-purge-check is only executed if a potential blockage has been detected during the running-check or during the flue-check; wherein the combustion in the gas burner is stopped or will be brought to a level where the combustion is hygienic if a potential blockage within the gas burner is detected.
Laying head for the production of coils starting from a rolled product, comprising a central body provided with a central cylinder and at least a shaped feed pipe that is a closed tube with a substantially spiral shape, defining a progressively growing radius, having an exit end for the rolled product which defines its point of maximum radius, said feed pipe being attached to said central body by means of clamping elements, and at least a circumferential guide disposed on the periphery of said cylindrical element and having an entrance directly facing the exit end of said feed pipe, characterized in that said circumferential guide consists of a plurality of elementary segments, disposed adjacent to each other, able to define together a guide path closed on all sides, and has a constant radius of curvature for an angular extension of at least 180°.
A three-dimensional in vitro skin equivalent, comprising a biomatrix and cells of at least a first cell type embedded therein, characterised in that the cells of the first cell type have (a) at least one transgenic reporter gene, comprising at least one nucleotide sequence encoding for a reporter protein under the control of a regulatory element that is inducible by at least one transcription factor present in the cell type, and (b) at least one transgenic receptor gene, and cells of a second cell type, wherein the first cell type is a fibroblast and the second cell type is a keratinocyte.
A method of operating a mobile terminal for controlling a washing machine, the method comprising: displaying a menu screen including a washing machine management menu; and displaying recommended operation information for the washing machine which is set according to external environment information when an item regarding recommended operation for the washing machine is selected from the washing machine management menu; characterized in that the method further comprises: accessing a service center server and displaying a service center connecting state screen when a service call item is selected from the washing machine management menu; and transmitting washing machine diagnosis data to the service center; wherein the external environment information includes at least one of weather information, time information, and season information, wherein the recommended operation information is displayed together with the at least one of weather information, time information, and season information, wherein the external environment information is input by a user or is previously stored, wherein the mobile terminal includes a wireless communication unit including a mobile communication module, and a global positioning system "GPS" module; a microphone configured to receive an external audio signal in a call mode; a sensing unit configured to sense position of the mobile terminal; and an audio output module configured to output audio data which is received from the wireless communication unit in the call mode. displaying a menu screen including a washing machine management menu; and displaying recommended operation information for the washing machine which is set according to external environment information when an item regarding recommended operation for the washing machine is selected from the washing machine management menu; accessing a service center server and displaying a service center connecting state screen when a service call item is selected from the washing machine management menu; and transmitting washing machine diagnosis data to the service center;
A process for producing an electrochemical bundle of a lithium accumulator, such as a Li-ion accumulator, with a view to its electrical connection to the output terminals of the accumulator, including the following steps: a/ providing an electrochemical bundle including at least one electrochemical cell consisting of a cathode and an anode on either side of a separator suitable for being impregnated with an electrolyte, the bundle having a shape that is elongate along a longitudinal axis X1, having, at one of its lateral ends, anode bands that are not coated and, at the other of its lateral ends, cathode bands that are not coated; b/ folding with plastic deformation, at least in a direction radial to the axis X1, a portion of the bands from the exterior to the interior of the electrochemical bundle, onto an area portion of at least one of the lateral ends so that at least two consecutive bands overlap in their folded portion (21, 31) and so that the folded portions that overlap form a substantially flat area; and c/ axial tamping along the axis X1 of the bands (20, 30) of the electrochemical bundle, of at least the area portion of the lateral end that is not folded in step b/, the axial tamping being carried out repeatedly so as to obtain in the tamped and not folded area portion of the lateral end, a substantially flat plinth intended to be welded to a current collector. a/ providing an electrochemical bundle including at least one electrochemical cell consisting of a cathode and an anode on either side of a separator suitable for being impregnated with an electrolyte, the bundle having a shape that is elongate along a longitudinal axis X1, having, at one of its lateral ends, anode bands that are not coated and, at the other of its lateral ends, cathode bands that are not coated; b/ folding with plastic deformation, at least in a direction radial to the axis X1, a portion of the bands from the exterior to the interior of the electrochemical bundle, onto an area portion of at least one of the lateral ends so that at least two consecutive bands overlap in their folded portion (21, 31) and so that the folded portions that overlap form a substantially flat area; and c/ axial tamping along the axis X1 of the bands (20, 30) of the electrochemical bundle, of at least the area portion of the lateral end that is not folded in step b/, the axial tamping being carried out repeatedly so as to obtain in the tamped and not folded area portion of the lateral end, a substantially flat plinth intended to be welded to a current collector.