mhurhangee/ep-ind-claims huggingface dataset:
A lighting system (100, 200, 300, 400, 500, 550) for providing a daylight appearance, the lighting system comprising - a plurality of light emitters (106, 202, 210, 212, 408, 510, 524, 516) for emitting a wide light beam, and - a plurality of optical elements, each optical element of at least a subset of the plurality of optical elements being related to a light emitter of the plurality of light emitters, thereby forming a pair, wherein, for each pair, it applies that if a light emitter of a pair is arranged at a first relative position with respect to the optical element of said pair, the light emitter and the optical element are configured to emit the wide light beam, and if the light emitter of the pair is arranged at a second relative position with respect to the optical element of said pair, the optical element is configured to collimate a portion of light of the wide light beam to obtain a collimated light beam, and to absorb another portion of light of the wide light beam in a predefined spectral range to obtain a blue light emission at light emission angles at least outside the collimated light beam. - a plurality of light emitters (106, 202, 210, 212, 408, 510, 524, 516) for emitting a wide light beam, and - a plurality of optical elements, each optical element of at least a subset of the plurality of optical elements being related to a light emitter of the plurality of light emitters, thereby forming a pair, wherein, for each pair, it applies that if a light emitter of a pair is arranged at a first relative position with respect to the optical element of said pair, the light emitter and the optical element are configured to emit the wide light beam, and if the light emitter of the pair is arranged at a second relative position with respect to the optical element of said pair, the optical element is configured to collimate a portion of light of the wide light beam to obtain a collimated light beam, and to absorb another portion of light of the wide light beam in a predefined spectral range to obtain a blue light emission at light emission angles at least outside the collimated light beam.
A method for performing wireless communication by a first device, the method comprising: receiving (S1310, S1510), from a second device, a first sidelink control information, SCI, including a field indicating a transmission of a sidelink, SL, channel state information reference signal, CSI-RS, from the second device; determining (S1320, S1520) that a report of SL channel state information is requested by the second device, based on the field indicating the transmission of the SL CSI-RS; obtaining the SL channel state information related to a channel state between the first device and the second device based on the SL CSI-RS; transmitting, to the second device through a physical sidelink control channel, PSCCH, a second SCI for scheduling a physical sidelink shared channel, PSSCH, wherein the second SCI includes priority information; and transmitting (S1340, 1540), to the second device through the PSSCH, the SL channel state information, wherein the priority information included in the second SCI is set to a value related to a highest priority, and wherein the value related to the highest priority is pre-configured for the first device. receiving (S1310, S1510), from a second device, a first sidelink control information, SCI, including a field indicating a transmission of a sidelink, SL, channel state information reference signal, CSI-RS, from the second device; determining (S1320, S1520) that a report of SL channel state information is requested by the second device, based on the field indicating the transmission of the SL CSI-RS; obtaining the SL channel state information related to a channel state between the first device and the second device based on the SL CSI-RS; transmitting, to the second device through a physical sidelink control channel, PSCCH, a second SCI for scheduling a physical sidelink shared channel, PSSCH, wherein the second SCI includes priority information; and transmitting (S1340, 1540), to the second device through the PSSCH, the SL channel state information, wherein the priority information included in the second SCI is set to a value related to a highest priority, and wherein the value related to the highest priority is pre-configured for the first device.
Electrical panel comprising: - a plurality of removable trays, each having an electrical device and allowing the electrical device to be connected to the electrical panel or to be withdrawn therefrom, - a plurality of receivers, each adapted to receive a removable tray in order to connect the electrical device carried by that tray to the electrical panel, - a plurality of communication interfaces each situated in the region of a receiver, - a data bus connected to each communication interface, each communication interface having: - a data connector which is configured to be connected to a corresponding data connector of the electrical device of the removable tray when the removable tray is received in the panel, - a switching device which is selectively and reversibly switchable between: • a connected state, in which it connects the data bus to the data connector, and • a disconnected state, in which it isolates the data bus from the data connector while ensuring the continuity of the data bus, the electrical panel being characterised in that the communication interface comprises a housing in which the switching device and the data connector are integrated. - a plurality of removable trays, each having an electrical device and allowing the electrical device to be connected to the electrical panel or to be withdrawn therefrom, - a plurality of receivers, each adapted to receive a removable tray in order to connect the electrical device carried by that tray to the electrical panel, - a plurality of communication interfaces each situated in the region of a receiver, - a data bus connected to each communication interface, each communication interface having: - a data connector which is configured to be connected to a corresponding data connector of the electrical device of the removable tray when the removable tray is received in the panel, - a switching device which is selectively and reversibly switchable between: • a connected state, in which it connects the data bus to the data connector, and • a disconnected state, in which it isolates the data bus from the data connector while ensuring the continuity of the data bus, • a connected state, in which it connects the data bus to the data connector, and • a disconnected state, in which it isolates the data bus from the data connector while ensuring the continuity of the data bus,
A scanner system comprising a radiation source arranged to produce radiation, detection means arranged to detect the radiation after it has interacted with an object thereby to produce data sets, a filter wheel comprising a plurality of filter sections having different filter characteristics and arranged to move so that each of the filter sections is aligned with the radiation in turn, and a processing system which is arranged to generate the radiation in pulses, and to vary the timing of the pulses so as to vary which of the filter sections is aligned with the radiation when the data sets are collected, characterised in that the filter wheel comprises a central portion, and a plurality of spokes extending radially outwards from the central portion and having gaps therebetween, each of the spokes has a filter block mounted thereon, and each of the filter blocks is made up of a number of sections of different thicknesses, side by side in the circumferential direction.
A housing structure for a footwear apparatus, the housing structure comprising: a first inlet defined by a first pair of opposing channel walls of the housing structure; a second inlet defined by a second pair of opposing channel walls of the housing structure; and a lacing channel extending between the first and second inlets, the lacing channel comprising: a spool receptacle defined by a counterbore in a floor of the housing structure located between the first and second inlets, whereby the counterbore is centered within the floor and forms the lowest portion of the lacing channel; a first relief area defined by a pair of angled channel transition walls of the housing structure extending from the spool receptacle to the first inlet; and a second relief area defined by a pair of angled channel transition walls of the housing structure extending from the spool receptacle to the second inlet; wherein the first and second relief areas are linearly tapered between the spool receptacle and the first and second inlets, respectively, wherein the pairs of angled channel transition walls of the first and second relief areas comprise planar sidewalls extending from the spool receptacle to form passageways that taper from the spool receptacle to the first and second inlets, respectively. a first inlet defined by a first pair of opposing channel walls of the housing structure; a second inlet defined by a second pair of opposing channel walls of the housing structure; and a lacing channel extending between the first and second inlets, the lacing channel comprising: a spool receptacle defined by a counterbore in a floor of the housing structure located between the first and second inlets, whereby the counterbore is centered within the floor and forms the lowest portion of the lacing channel; a first relief area defined by a pair of angled channel transition walls of the housing structure extending from the spool receptacle to the first inlet; and a second relief area defined by a pair of angled channel transition walls of the housing structure extending from the spool receptacle to the second inlet; a spool receptacle defined by a counterbore in a floor of the housing structure located between the first and second inlets, whereby the counterbore is centered within the floor and forms the lowest portion of the lacing channel; a first relief area defined by a pair of angled channel transition walls of the housing structure extending from the spool receptacle to the first inlet; and a second relief area defined by a pair of angled channel transition walls of the housing structure extending from the spool receptacle to the second inlet;
A porous oil binder in the form of a nonwoven material, consisting of fibres comprising lignocellulosic raw materials, characterized in that: a) the density of the oil binder is 80 to 300 kg/m 3, b) the oil binder is 3 to 6 mm thick, wherein the thickness refers to the length of the shortest edge of the oil binder c) the large surface of the oil binder has a dimension of 9 to 200 cm 2, d) the pore fraction of the oil binder, determined according to DIN 51913, is 30 % to 96 %, measured over the entirety of the oil binder, e) the bending strength of the oil binder, determined according to DIN EN 310, is at least 1.5 N/mm 2. a) the density of the oil binder is 80 to 300 kg/m 3, b) the oil binder is 3 to 6 mm thick, wherein the thickness refers to the length of the shortest edge of the oil binder c) the large surface of the oil binder has a dimension of 9 to 200 cm 2, d) the pore fraction of the oil binder, determined according to DIN 51913, is 30 % to 96 %, measured over the entirety of the oil binder, e) the bending strength of the oil binder, determined according to DIN EN 310, is at least 1.5 N/mm 2.
A method of loading software parts on a vehicle, comprising: receiving, by a processor unit, information identifying a desired software configuration for active software parts on the vehicle; identifying, by the processor unit, a documented software configuration included in a current configuration software part and comprising a list of the active software parts on the vehicle; determining, by the processor unit, a dataload plan for loading the software parts on the vehicle, wherein the dataload plan comprises a plan for loading software parts on the vehicle to change the configuration of the active software parts on the vehicle from a current software configuration to a desired software configuration based on a difference between the desired software configuration and the documented software configuration, wherein the dataload plan identifies an order for loading the software parts on the vehicle; and using the dataload plan for loading the software parts on the vehicle to make the software parts active on the vehicle, wherein if the determining of the dataload plan indicates that the documented software configuration is the same as the desired configuration, then using the list of software parts identified in the documented software configuration to identify the desired software configuration and using a measured software configuration for determining the dataload plan, wherein the measured software configuration is determined by checking the vehicle to identify software parts that are actually loaded and active on the vehicle. receiving, by a processor unit, information identifying a desired software configuration for active software parts on the vehicle; identifying, by the processor unit, a documented software configuration included in a current configuration software part and comprising a list of the active software parts on the vehicle; determining, by the processor unit, a dataload plan for loading the software parts on the vehicle, wherein the dataload plan comprises a plan for loading software parts on the vehicle to change the configuration of the active software parts on the vehicle from a current software configuration to a desired software configuration based on a difference between the desired software configuration and the documented software configuration, wherein the dataload plan identifies an order for loading the software parts on the vehicle; and using the dataload plan for loading the software parts on the vehicle to make the software parts active on the vehicle, wherein if the determining of the dataload plan indicates that the documented software configuration is the same as the desired configuration, then using the list of software parts identified in the documented software configuration to identify the desired software configuration and using a measured software configuration for determining the dataload plan, wherein the measured software configuration is determined by checking the vehicle to identify software parts that are actually loaded and active on the vehicle.
Method for the preparation of n-butyl nitrite; the method comprises a step STEP1, STEP1 comprises a reaction REAC1, in REAC1 n-butanol, an acid ACI and NaNO 2 are reacted; REAC1 is done in a continuous way; the n-butanol, ACI and NaNO 2 are mixed in a mixing device MIXDEV; ACI is selected from the group consisting of HCl, H 2 SO 4, formic acid, methanesulfonic acid, and mixtures thereof; MIXDEV provides for a pressure drop DELTAP of at least 1 bar; and the amount of ACI is at least 1.02 molar equivalent, the molar equivalent being based on the molar amount of n-butanol.
Hybrid vehicle, comprising: - an internal combustion engine with a drive shaft for driving the wheels (5, 6) of at least one axle, - at least one first electric machine (10, 11) for driving the wheels (8, 9) of said axle or at least one further axle, wherein the at least one first electric machine (10, 11) can be operated as a generator during a braking process and as a motor during an acceleration process, - a flywheel accumulator which has a rotor and can be charged during a braking process and discharged during an acceleration process, characterised in that a planetary gear is arranged between the flywheel accumulator and the internal combustion engine or between the flywheel accumulator and a gear connected to the internal combustion engine or between the flywheel accumulator and an axle of the hybrid vehicle, which planetary gear is coupled to a second electric machine and wherein the second electric machine is designed to match the speed of the flywheel accumulator and the speed of the internal combustion engine to one another via the planetary gear. - an internal combustion engine with a drive shaft for driving the wheels (5, 6) of at least one axle, - at least one first electric machine (10, 11) for driving the wheels (8, 9) of said axle or at least one further axle, wherein the at least one first electric machine (10, 11) can be operated as a generator during a braking process and as a motor during an acceleration process, - a flywheel accumulator which has a rotor and can be charged during a braking process and discharged during an acceleration process,
A method for transmitting and/or receiving an optical signal through a fluid, the method comprising: using a pressure wave to cause a change in refractive index in the fluid, the change in refractive index causing a waveguide to be formed; and transmitting and/or receiving the optical signal through the waveguide. using a pressure wave to cause a change in refractive index in the fluid, the change in refractive index causing a waveguide to be formed; and transmitting and/or receiving the optical signal through the waveguide.
A method of managing resources of an electronic device comprising: receiving resource requirements from one or more resource requesters executing on the electronic device; determining resource characteristic values for a plurality of resource characteristics associated with resources of the electronic device based on the received resource requirements and dependency information defining hierarchical dependency requirements between defined resource characteristic values, wherein each hierarchical dependency requirement between resource characteristic values is expressed as a statement between a target resource characteristic value for one of the plurality of resource characteristics and one or more dependent resource characteristic values for one or more other resource characteristics of the plurality of resource characteristics, the one or more dependent resource characteristic values required to provide the target resource characteristic value; and providing the determined resource characteristic values for the plurality of resource characteristics to the respective associated resources of the electronic device. receiving resource requirements from one or more resource requesters executing on the electronic device; determining resource characteristic values for a plurality of resource characteristics associated with resources of the electronic device based on the received resource requirements and dependency information defining hierarchical dependency requirements between defined resource characteristic values, wherein each hierarchical dependency requirement between resource characteristic values is expressed as a statement between a target resource characteristic value for one of the plurality of resource characteristics and one or more dependent resource characteristic values for one or more other resource characteristics of the plurality of resource characteristics, the one or more dependent resource characteristic values required to provide the target resource characteristic value; and providing the determined resource characteristic values for the plurality of resource characteristics to the respective associated resources of the electronic device.
A method for distributing data packets on a communication channel consisting in that it comprises a stage of communicating with a service provider in order to receive a GSM and/or 3G and/or 4G signal by a first module, wherein the first module and a first logic circuit are integrated with the logic of a stationary modular transceiver device in the form of an Outdoor Unit ODU located outside the building of a household, wherein the said GSM and/or 3G and/or 4G signal is converted into a WiFi signal through a cellular device and/or an access point integrated in the first module with which is coupled the first logic circuit performing a dividing/summing of the WiFi signal coupled with TV signals, and subsequently said WiFi signal is transmitted directly from the Outdoor Unit ODU which is connected directly in series by means of a transmission medium in the form of a coaxial cable to a second logic circuit performing a dividing/summing of the WiFi signal coupled with TV signals, wherein the second logic circuit being coupled with a second module of WiFi signal distribution unit, wherein the second module and the second logic circuit are integrated with the logic of a stationary modular transceiver device in the form of an Indoor Unit IDU located inside the building of the household to form a communication interface for bidirectional transmission of data packets over the said transmission medium, wherein said the Indoor Unit IDU by means of the said second module of WiFi signal distribution unit broadcasts said WiFi signal within the building of a household and/or additionally broadcasts the signal via available Ethernet interface by performing conversion into other data transmission standards.
Use of the spink6 gene or its encoded protein in the manufacture of an anti-liver cancer drug, wherein the gene has a nucleotide sequence designated as SED ID NO:1, and the encoded protein by the gene has an amino acid sequence designated as SED ID NO:2.
A process comprising: determining a first location of a sighting system virtual trainer in three-dimensional space using a three-dimensional positional tracking system; upon placement of a virtual reality, VR, head mounted display, HMD, in proximity to the sighting system virtual trainer, determining a second location of the VR HMD in three-dimensional space using the three-dimensional positional tracking system; analyzing a relationship between the first location and second location; and upon a determination that the VR HMD is properly positioned in relation to the sighting system virtual trainer based on the analysis of the relationship between the first location and second location, locking a visual feed to the VR HMD; wherein the determination that the VR HMD is properly positioned comprises a determination that a user can look down an aiming sight line of the sighting system virtual trainer; and wherein the determination that the user can look down the aiming sight line of the sighting system virtual trainer comprises a determination that the VR HMD is positioned within a software-defined virtual collision zone of the sighting system virtual trainer. determining a first location of a sighting system virtual trainer in three-dimensional space using a three-dimensional positional tracking system; upon placement of a virtual reality, VR, head mounted display, HMD, in proximity to the sighting system virtual trainer, determining a second location of the VR HMD in three-dimensional space using the three-dimensional positional tracking system; analyzing a relationship between the first location and second location; and upon a determination that the VR HMD is properly positioned in relation to the sighting system virtual trainer based on the analysis of the relationship between the first location and second location, locking a visual feed to the VR HMD; wherein the determination that the VR HMD is properly positioned comprises a determination that a user can look down an aiming sight line of the sighting system virtual trainer; and wherein the determination that the user can look down the aiming sight line of the sighting system virtual trainer comprises a determination that the VR HMD is positioned within a software-defined virtual collision zone of the sighting system virtual trainer.