mhurhangee/ep-ind-claims huggingface dataset:
A radio communication terminal apparatus comprising: a generation section that is adapted to measure an interference component, using a reference signal mapped in a first resource for measuring the interference component, the measurement to be performed before receival of trigger information requesting a Channel State Information, CSI, report, the first resource corresponding to a base station not participating in a coordinated multipoint, CoMP, transmission; measure, upon receival of the trigger information and using a reference signal mapped in a second resource for measuring a desired signal component, the desired signal component, the second resource corresponding to one of a plurality of base stations communicating with the radio communication terminal apparatus according to the CoMP transmission; and generate the CSI, using the measured desired signal component and the measured interference component; and a transmitting section that is adapted to transmit the CSI in a predetermined period after receiving the trigger information, wherein the generation section is adapted to not measure the interference component for the predetermined period after receival of the trigger information and measure, after the CSI is transmitted in the predetermined period, the interference component using the reference signal mapped in the first resource received in a subframe in which the trigger information was received. a generation section that is adapted to measure an interference component, using a reference signal mapped in a first resource for measuring the interference component, the measurement to be performed before receival of trigger information requesting a Channel State Information, CSI, report, the first resource corresponding to a base station not participating in a coordinated multipoint, CoMP, transmission; measure, upon receival of the trigger information and using a reference signal mapped in a second resource for measuring a desired signal component, the desired signal component, the second resource corresponding to one of a plurality of base stations communicating with the radio communication terminal apparatus according to the CoMP transmission; and generate the CSI, using the measured desired signal component and the measured interference component; and a transmitting section that is adapted to transmit the CSI in a predetermined period after receiving the trigger information, wherein the generation section is adapted to not measure the interference component for the predetermined period after receival of the trigger information and measure, after the CSI is transmitted in the predetermined period, the interference component using the reference signal mapped in the first resource received in a subframe in which the trigger information was received.
An illumination apparatus comprising: a holder having a support structure in which a groove is formed, wherein the groove is sized to receive therein a side of a waveguide that is to be fixed in position next to a surface of the groove, wherein the groove runs in a longitudinal direction along the length of the side of the waveguide; wherein the holder is to one of a) reflect, diffuse or absorb some light that is out-coupled from the side of the waveguide, or b) wavelength convert some of the out-coupled light from the side of the waveguide, to produce side illumination that emerges from a side of the holder, the illumination apparatus being characterized in that the holder comprises an opaque portion for hiding a part, not all, of the out-coupled light that is emerging from the side of the waveguide, wherein the opaque portion prevents some, not all, of the out-coupled light that is emerging from the side of the waveguide, from reaching an illumination region, while other portions of the holder allow the out-coupled light to reach the illumination region. a holder having a support structure in which a groove is formed, wherein the groove is sized to receive therein a side of a waveguide that is to be fixed in position next to a surface of the groove, wherein the groove runs in a longitudinal direction along the length of the side of the waveguide; wherein the holder is to one of a) reflect, diffuse or absorb some light that is out-coupled from the side of the waveguide, or b) wavelength convert some of the out-coupled light from the side of the waveguide, to produce side illumination that emerges from a side of the holder, the illumination apparatus being characterized in that the holder comprises an opaque portion for hiding a part, not all, of the out-coupled light that is emerging from the side of the waveguide, wherein the opaque portion prevents some, not all, of the out-coupled light that is emerging from the side of the waveguide, from reaching an illumination region, while other portions of the holder allow the out-coupled light to reach the illumination region.
Chop saw for a cutting machine, having an axis of rotation and comprising a circular first saw-tooth disc and a first carrier which receives the first saw-tooth disc, the first saw-tooth disc having a plurality of saw teeth over its circumference and/or at its plane surfaces, and the first carrier being formed symmetrically along the axis of rotation, and the first saw-tooth disc being positioned on a second carrier surface of the first carrier, which second carrier surface is designed to face away from a first carrier surface, and the chop saw having a second saw-tooth disc which is arranged in parallel with the first saw-tooth disc, and the chop saw comprising a second carrier and the second carrier being designed to receive the second saw-tooth disc, the second carrier and the first carrier being coaxial, and the second carrier being designed to predominantly enclose the first carrier in the direction of the axis of rotation, and an axial distance being formed between the first saw-tooth disc and the second saw-tooth disc, characterised in that the first carrier has a holding mandrel on the first carrier surface for receiving the chop saw in a machine chuck of the cutting machine, and that an outer first disc diameter of the first saw-tooth disc is smaller than an outer second disc diameter of the second saw-tooth disc.
A composition for extrusion-molded bodies in form of a paste comprising a) an inorganic material that sets as a result of baking or sintering, b) a methylhydroxyethyl cellulose having a DS(methyl) of from 1.50 to 1.90, an MS(hydroxyethyl) of from 0.30 to 0.90 and a sum of the DS(methyl) and the MS(hydroxyethyl) of from 2.00 to 2.60, and c) water wherein the inorganic material is an aluminate, aluminosilicate, alumina silica, feldspar, titania, fused silica, aluminum nitride, aluminum carbide, kaolin, cordierite, mullite, clay, bentonite, talc, zircon, zirconia, spinel, silicon carbide, silicon boride, silicon nitride, titanium dioxide, titanium carbide, boron carbide, boron oxide, borosilicate, soda barium borosilicate, a silicate, a sheet silicate, soda lime, zeolite, barium titanate, lead titanate zirconate, aluminium titanate, barium ferrite, strontium ferrite, a rare earth oxide, or a combination of two or more of such inorganic materials; wherein the composition does not include hydraulic binders and wherein the composition comprises from 85 to 99.5 percent of the inorganic material a) and 0.5 to 15 percent of methylhydroxyethyl cellulose b) based on the total weight of the inorganic material a) and the methylhydroxyethyl cellulose b). a) an inorganic material that sets as a result of baking or sintering, b) a methylhydroxyethyl cellulose having a DS(methyl) of from 1.50 to 1.90, an MS(hydroxyethyl) of from 0.30 to 0.90 and a sum of the DS(methyl) and the MS(hydroxyethyl) of from 2.00 to 2.60, and c) water wherein the inorganic material is an aluminate, aluminosilicate, alumina silica, feldspar, titania, fused silica, aluminum nitride, aluminum carbide, kaolin, cordierite, mullite, clay, bentonite, talc, zircon, zirconia, spinel, silicon carbide, silicon boride, silicon nitride, titanium dioxide, titanium carbide, boron carbide, boron oxide, borosilicate, soda barium borosilicate, a silicate, a sheet silicate, soda lime, zeolite, barium titanate, lead titanate zirconate, aluminium titanate, barium ferrite, strontium ferrite, a rare earth oxide, or a combination of two or more of such inorganic materials; wherein the composition does not include hydraulic binders and wherein the composition comprises from 85 to 99.5 percent of the inorganic material a) and 0.5 to 15 percent of methylhydroxyethyl cellulose b) based on the total weight of the inorganic material a) and the methylhydroxyethyl cellulose b).
A method for recovering heat in a device for the sterilization of biological material, characterised by the steps of - transferring heat from a sterilized effluent stream to a stream in a heat recovery circuit - transferring heat from the stream in the heat recovery circuit to a stream of biologically contaminated feed, - the pressure (p 12) in the sterilized effluent stream is maintained higher than the pressure (p 10) in the heat recovery circuit, which is maintained higher than the pressure (p 11) in the stream of biologically contaminated feed. - transferring heat from a sterilized effluent stream to a stream in a heat recovery circuit - transferring heat from the stream in the heat recovery circuit to a stream of biologically contaminated feed, - the pressure (p 12) in the sterilized effluent stream is maintained higher than the pressure (p 10) in the heat recovery circuit, which is maintained higher than the pressure (p 11) in the stream of biologically contaminated feed.
Method for communicating at least one piece of information between a first control unit on-board a first vehicle and a public transport network, wherein: - the information is sent by the first control unit in the form of a command (T2W, T2Q, T2T), said command being transferred to a first communication unit (I/O_1) on board the first vehicle, - the first communication unit (I/O_1) establishes a transmission link outside the vehicle with a second communication unit (I/O_2, I/O_3) linked to a module (EXE2, EXE3) for executing said command, the second communication unit and the execution module being located either on the ground or on board a second vehicle comprising a second control unit, - in the event of a transmission to the second communication unit (I/O_2) on the ground, the execution module on the ground is controlled in a governed slave mode for said command by a master mode of the first control unit, characterised in that - in the event of a transmission to the second on-board communication unit (I/O_3), the execution module on board the second vehicle is controlled in a governed slave mode to permit said command to be executed in a master mode of the first control unit, thereby at least temporarily placing a second control unit on board the second vehicle in a slave mode to execute said command. - the information is sent by the first control unit in the form of a command (T2W, T2Q, T2T), said command being transferred to a first communication unit (I/O_1) on board the first vehicle, - the first communication unit (I/O_1) establishes a transmission link outside the vehicle with a second communication unit (I/O_2, I/O_3) linked to a module (EXE2, EXE3) for executing said command, the second communication unit and the execution module being located either on the ground or on board a second vehicle comprising a second control unit, - in the event of a transmission to the second communication unit (I/O_2) on the ground, the execution module on the ground is controlled in a governed slave mode for said command by a master mode of the first control unit, characterised in that - in the event of a transmission to the second on-board communication unit (I/O_3), the execution module on board the second vehicle is controlled in a governed slave mode to permit said command to be executed in a master mode of the first control unit, thereby at least temporarily placing a second control unit on board the second vehicle in a slave mode to execute said command.
A resonant rectifying device comprising a primary input module, a secondary output module and a transformer, wherein the primary input module transfers power via the transformer to the secondary output module, the primary input module comprises: a first field effect transistor and a second FET connected in series between a voltage source (V in) and a ground; a first junction capacitor (C oss1) connected between a source and a drain of the first FET; a second junction capacitor (C oss2) connected between a source and a drain of the second FET; and a first inductor (L m) connected at both ends of a primary coil of the transformer, one end of the first inductor (L m) being connected between the first FET and the second FET via a first capacitor (C r), and the other end of the first inductor (L m) being connected to the ground, and the secondary output module comprises: a third FET having a source connected to one end of a secondary coil of the transformer; and a fourth FET having a source connected to the other end of the secondary coil of the transformer, wherein a drain of the third FET is connected with a drain of the fourth FET, and is connected to an output terminal of the secondary output module via a second capacitor (C o) and a first resistant (R L) that are connected in parallel; characterised by a control apparatus which comprises: a first amplifier connected at a non-inverting input to a reference output voltage and at the output (FEAO) to a mode selector, a second amplifier connected at an inverting input to the output of the mode selector and at the output to a controller, a programmable gain amplifier connected to the controller, a charge pump connected to the programmable gain amplifier, and a crystal oscillator connected to the charge pump and to the controller, the control apparatus configured to provide switching signals to each of the field effect transistors in the primary input module and the secondary output module, further configured to operate in a pulse width modulation control mode by comparing the output signal of the second amplifier with a zigzag wave in the controller, when the resonant rectifying circuit is in a full load mode as detected by the first amplifier and to operate in a frequency modulation control mode by controlling the charge pump with the programmable gain amplifier to control the magnitude of the slope of a zigzag wave generated by the crystal oscillator when the resonant rectifying circuit is in a light-loaded or idle mode as detected by the first amplifier.
A method for connecting a user equipment, UE, comprising: monitoring connections of different devices with the UE; correlating the connections of the different devices over time to obtain historical information regarding the interactions and connections with the different devices; determining a mobile computing environment, MCE, based on the correlations; and storing information associated with the MCE. monitoring connections of different devices with the UE; correlating the connections of the different devices over time to obtain historical information regarding the interactions and connections with the different devices; determining a mobile computing environment, MCE, based on the correlations; and storing information associated with the MCE.
An electronic device, comprising: an image-capturing unit that captures an image of a subject with an image sensor, the image sensor being configured to be able to set image-capturing conditions for a plurality of regions on an image-capturing surface, the image-capturing conditions including exposure conditions and image processing conditions; and a control unit that determines the image-capturing conditions varied for each of the regions depending on a type of subject elements detected by object recognition processing from the image captured by the image-capturing unit and a type of preset image-capturing modes. an image-capturing unit that captures an image of a subject with an image sensor, the image sensor being configured to be able to set image-capturing conditions for a plurality of regions on an image-capturing surface, the image-capturing conditions including exposure conditions and image processing conditions; and a control unit that determines the image-capturing conditions varied for each of the regions depending on a type of subject elements detected by object recognition processing from the image captured by the image-capturing unit and a type of preset image-capturing modes.
Heat pump, comprising: an evaporator with an evaporator inlet and an evaporator outlet; a temperature raiser for raising a temperature of an evaporated operating liquid; a condenser for condensing an evaporated operating liquid with raised temperature; a temperature sensor means (41, 42, 43, 44, 45) with a first temperature sensor (41, 44, 45) for detecting a temperature with regard to the evaporator and with a second temperature sensor (42, 43) for detecting a temperature at the condenser; a switching means (24, 26, 27, 28, 94, 96) wherein the switching means (24, 26, 27, 28, 94, 96) is configured to operate the heat pump in a first operating mode or a different second operating mode, wherein the first operating mode is a bypass mode and wherein the second operating mode is a normal mode, wherein the switching means (24, 26, 27, 28, 94, 96) is configured to connect, in the bypass mode, a return of a region to be cooled to a forward of a region to be heated and to connect a return of the region to be heated to a forward of the region to be cooled; and a control means for controlling the switching means (24, 26, 27, 28, 94, 96) so that the switching means (24, 26, 27, 28, 94, 96) operates in the first operating mode or the second operating mode based on an output signal of the second temperature sensor (42, 43) and for controlling the temperature raiser based on an output signal of the first temperature sensor (41, 44, 45). an evaporator with an evaporator inlet and an evaporator outlet; a temperature raiser for raising a temperature of an evaporated operating liquid; a condenser for condensing an evaporated operating liquid with raised temperature; a temperature sensor means (41, 42, 43, 44, 45) with a first temperature sensor (41, 44, 45) for detecting a temperature with regard to the evaporator and with a second temperature sensor (42, 43) for detecting a temperature at the condenser; a switching means (24, 26, 27, 28, 94, 96) wherein the switching means (24, 26, 27, 28, 94, 96) is configured to operate the heat pump in a first operating mode or a different second operating mode, wherein the first operating mode is a bypass mode and wherein the second operating mode is a normal mode, wherein the switching means (24, 26, 27, 28, 94, 96) is configured to connect, in the bypass mode, a return of a region to be cooled to a forward of a region to be heated and to connect a return of the region to be heated to a forward of the region to be cooled; and a control means for controlling the switching means (24, 26, 27, 28, 94, 96) so that the switching means (24, 26, 27, 28, 94, 96) operates in the first operating mode or the second operating mode based on an output signal of the second temperature sensor (42, 43) and for controlling the temperature raiser based on an output signal of the first temperature sensor (41, 44, 45).
A vehicle safety system comprising: a steering angle sensor, to sense an angular position of the steering wheel and a rate of turning of the steering wheel; a steering angle prediction module connected to receive signals from the steering angle sensor, and adapted to determine, from the sensed angular position and rate of turning of the steering wheel, a predicted future angular position of the steering wheel at a future time; an active braking system, which is operable to apply a braking force to one or more wheels of the vehicle without the driver having taken any action to initiate the braking; characterized by an evaluation module adapted to compare the predicted future angular position of the steering wheel against a threshold, and to generate a signal to cause suppression of the active braking system if the predicted future angular position of the steering wheel is greater than the threshold. a steering angle sensor, to sense an angular position of the steering wheel and a rate of turning of the steering wheel; a steering angle prediction module connected to receive signals from the steering angle sensor, and adapted to determine, from the sensed angular position and rate of turning of the steering wheel, a predicted future angular position of the steering wheel at a future time; an active braking system, which is operable to apply a braking force to one or more wheels of the vehicle without the driver having taken any action to initiate the braking; characterized by an evaluation module adapted to compare the predicted future angular position of the steering wheel against a threshold, and to generate a signal to cause suppression of the active braking system if the predicted future angular position of the steering wheel is greater than the threshold.
An airbag for a motor vehicle, comprising a gas cushion which is formed from at least two layers of fabric and which is brought on inflation from a folded or rolled state into an unfolded state, the at least two layers of fabric being connected to each other at connection points to form inflated cushion portions and non-inflated cushion portions, and the connection points having linear connection points and rounded connection points, wherein the linearly extending connection points are arranged at an angle of 45° relative to the threads (7, 8) forming the layers of fabric, or at an angle deviating slightly therefrom that does not impair the tear strength of the connection points when the gas cushion is in the inflated state, characterized in that when the cushion portions (3, 4) are of different sizes, the radii of the connection points provided at the rounded corners are proportional to the lengths of the respective linearly extending connection points of said cushion portions (3, 4).
A system for enabling collaboration between a plurality of extended reality, XR, devices (10, 20), the system comprising: a first XR device having a first set of features; a second XR device having a second set of features; and a hub device communicatively connected to the first XR device and the second XR device, wherein the first XR device is configured to provide the first set of features to the hub device, characterized in that the second XR device is configured to use at least one of the features defined in the first set of features, and wherein the second XR device is configured to subscribe to the hub device to be informed about the first set of features in case the first set of features is provided to the hub device. a first XR device having a first set of features; a second XR device having a second set of features; and a hub device communicatively connected to the first XR device and the second XR device, wherein the first XR device is configured to provide the first set of features to the hub device, characterized in that the second XR device is configured to use at least one of the features defined in the first set of features, and wherein the second XR device is configured to subscribe to the hub device to be informed about the first set of features in case the first set of features is provided to the hub device.