mhurhangee/ep-ind-claims huggingface dataset:
A quantum dot device, comprising a first electrode and a second electrode, a light emitting layer between the first electrode and the second electrode, the light emitting layer comprising quantum dots, a first charge auxiliary layer between the second electrode and the light emitting layer, the first charge auxiliary layer configured to enhance transport of first charge carriers from the second electrode to the light emitting layer, and a buffer layer between the light emitting layer and the first charge auxiliary layer, the buffer layer configured to enhance extraction of second charge carriers from the light emitting layer, characterized in that the buffer layer comprises a first charge auxiliary material configured to enhance transport of the first charge carriers and a second charge auxiliary material configured to enhance extraction of the second charge carriers, a highest occupied molecular orbital energy level of the second charge auxiliary material is lower than a highest occupied molecular orbital energy level of the first charge auxiliary material, the first charge auxiliary material is a first electron transport material, and the second charge auxiliary material is a hole extraction material, and the first charge auxiliary material comprises n-type inorganic nanoparticles, the second charge auxiliary material comprises a p-type nonpolymer organic material, a p-type polymer, a p-type inorganic material, a p-type organic-inorganic material, or a combination thereof. a first electrode and a second electrode, a light emitting layer between the first electrode and the second electrode, the light emitting layer comprising quantum dots, a first charge auxiliary layer between the second electrode and the light emitting layer, the first charge auxiliary layer configured to enhance transport of first charge carriers from the second electrode to the light emitting layer, and a buffer layer between the light emitting layer and the first charge auxiliary layer, the buffer layer configured to enhance extraction of second charge carriers from the light emitting layer, characterized in that the buffer layer comprises a first charge auxiliary material configured to enhance transport of the first charge carriers and a second charge auxiliary material configured to enhance extraction of the second charge carriers, a highest occupied molecular orbital energy level of the second charge auxiliary material is lower than a highest occupied molecular orbital energy level of the first charge auxiliary material, the first charge auxiliary material is a first electron transport material, and the second charge auxiliary material is a hole extraction material, and the first charge auxiliary material comprises n-type inorganic nanoparticles, the second charge auxiliary material comprises a p-type nonpolymer organic material, a p-type polymer, a p-type inorganic material, a p-type organic-inorganic material, or a combination thereof.
A method performed by a user equipment, UE, the method comprising: - receiving from a network node, a single physical downlink control channel, PDCCH, or a higher layer grant, wherein the PDCCH or the higher layer grant schedules at least two physical uplink shared channel, PUSCH, transmission occasions for the UE; - wherein all the scheduled PUSCH transmission occasions are associated with a same PUSCH transport block, - wherein the scheduling PDCCH or higher layer grant indicates: - at least two sounding reference signal, SRS, resources wherein each SRS resource is associated with a different SRS resource set, and wherein an SRS resource set is a higher layer configuration that comprises one or more SRS resources, - at least two transmit power control, TPC, commands, and - one or more Demodulation Reference Signal, DMRS, port(s), - and performing the scheduled PUSCH transmissions, wherein each PUSCH transmission is performed using the SRS port(s) of one of the indicated SRS resources and the indicated DMRS ports, on a set of symbols that is distinct from any other PUSCH transmission scheduled by the PDCCH or higher layer grant, and is associated with one of the indicated TPC commands. - receiving from a network node, a single physical downlink control channel, PDCCH, or a higher layer grant, wherein the PDCCH or the higher layer grant schedules at least two physical uplink shared channel, PUSCH, transmission occasions for the UE; - wherein all the scheduled PUSCH transmission occasions are associated with a same PUSCH transport block, - wherein the scheduling PDCCH or higher layer grant indicates: - at least two sounding reference signal, SRS, resources wherein each SRS resource is associated with a different SRS resource set, and wherein an SRS resource set is a higher layer configuration that comprises one or more SRS resources, - at least two transmit power control, TPC, commands, and - one or more Demodulation Reference Signal, DMRS, port(s), - at least two sounding reference signal, SRS, resources wherein each SRS resource is associated with a different SRS resource set, and wherein an SRS resource set is a higher layer configuration that comprises one or more SRS resources, - at least two transmit power control, TPC, commands, and - one or more Demodulation Reference Signal, DMRS, port(s), - and performing the scheduled PUSCH transmissions, wherein each PUSCH transmission is performed using the SRS port(s) of one of the indicated SRS resources and the indicated DMRS ports, on a set of symbols that is distinct from any other PUSCH transmission scheduled by the PDCCH or higher layer grant, and is associated with one of the indicated TPC commands.
A control method for operating a cooling device that comprises a variable speed compressor for implementing the refrigeration cycle, an inverter that controls the speed of the compressor and drives the compressor according to the determined speed, one or more sensors for detecting the temperature changes in the cooling volume, and a control unit that supplies the required digital data to the inverter for performing the necessary speed adjustment of the compressor characterized by the following steps: - Operation conditions for the compressor arise - Postponing operation of the compressor for a predefined constant "T" time duration - Listening to and counting the signals received from the control unit by the inverter for a predefined constant "T" time duration before the compressor starts to operate, - Determining the compressor speed according to number of signals received from the control unit and - At the end of a "T" time duration predetermined by the producer, the inverter determining the signal number value received from the control unit and the speed value assigned to the said value and the inverter operating the compressor according to this speed. - Operation conditions for the compressor arise - Postponing operation of the compressor for a predefined constant "T" time duration - Listening to and counting the signals received from the control unit by the inverter for a predefined constant "T" time duration before the compressor starts to operate, - Determining the compressor speed according to number of signals received from the control unit and - At the end of a "T" time duration predetermined by the producer, the inverter determining the signal number value received from the control unit and the speed value assigned to the said value and the inverter operating the compressor according to this speed.
A conjugate comprising: (i) mannan; and (ii) at least one epitope comprising a peptide fragment of myelin oligodendrocyte glycoprotein said peptide fragment being in linear or cyclic form; wherein the epitope comprises the peptide MOG 35-55, corresponding to the peptide of SEQ ID NO. 2: in linear or cyclic form; and wherein said epitope is linked to mannan via a [(Lys-Gly) 5] bridge. (i) mannan; and (ii) at least one epitope comprising a peptide fragment of myelin oligodendrocyte glycoprotein said peptide fragment being in linear or cyclic form; wherein the epitope comprises the peptide MOG 35-55, corresponding to the peptide of SEQ ID NO. 2: in linear or cyclic form; and wherein said epitope is linked to mannan via a [(Lys-Gly) 5] bridge.
A medical imaging apparatus comprising: an X-ray source configured to irradiate X-rays to an object (ob); an X-ray detector configured to detect the X-rays radiated from the X-ray source to obtain projection data; and an image processor, wherein the image processor is configured to rebin the projection data based on a motion parameter representing movement of at least one of the object (ob), the X-ray source, and the X-ray detector, to apply a filtering process to the rebinned projection data, to apply a weighting process to the rebinned and filtered projection data, and to generate a medical image based on the weighted, rebinned and filtered projection data. an X-ray source configured to irradiate X-rays to an object (ob); an X-ray detector configured to detect the X-rays radiated from the X-ray source to obtain projection data; and an image processor, wherein the image processor is configured to rebin the projection data based on a motion parameter representing movement of at least one of the object (ob), the X-ray source, and the X-ray detector, to apply a filtering process to the rebinned projection data, to apply a weighting process to the rebinned and filtered projection data, and to generate a medical image based on the weighted, rebinned and filtered projection data.
Plant for coating workpieces, in form of brake discs or brake drums, with a coating device which is designed to apply a metallic coating to a surface of the workpiece, characterized, - in that several coating devices to apply a metallic layer, which are designed as coating modules of the same type, are provided and arranged in a module group, - in that the module group is assigned an input measuring station through which a surface of the surface of the workpiece to be coated can be detected, - in that a conveyor device is provided, through which a workpiece can be fed from the input measuring station to one of the coating modules, and - in that the module group is assigned an output measuring station through which a surface of the coated surface of the workpiece can be detected. - in that several coating devices to apply a metallic layer, which are designed as coating modules of the same type, are provided and arranged in a module group, - in that the module group is assigned an input measuring station through which a surface of the surface of the workpiece to be coated can be detected, - in that a conveyor device is provided, through which a workpiece can be fed from the input measuring station to one of the coating modules, and - in that the module group is assigned an output measuring station through which a surface of the coated surface of the workpiece can be detected.
A brake control system, comprising: a servo valve (42l, 42r) configured to receive a hydraulic fluid and provide the hydraulic fluid to apply a braking force to a wheel via a hydraulic line; and a brake control unit in electronic communication with the servo valve; characterized in that the brake control unit is configured to: determine whether an aircraft is on a ground surface and not moving relative to the ground surface; determine whether braking is applied to a brake system of the aircraft; and calibrate the servo valve in response to the brake control unit determining that i) the aircraft is on the ground surface, ii) the aircraft is not moving relative to the ground surface, and iii) the braking is not applied to the brake system of the aircraft. a servo valve (42l, 42r) configured to receive a hydraulic fluid and provide the hydraulic fluid to apply a braking force to a wheel via a hydraulic line; and a brake control unit in electronic communication with the servo valve; characterized in that the brake control unit is configured to: determine whether an aircraft is on a ground surface and not moving relative to the ground surface; determine whether braking is applied to a brake system of the aircraft; and calibrate the servo valve in response to the brake control unit determining that i) the aircraft is on the ground surface, ii) the aircraft is not moving relative to the ground surface, and iii) the braking is not applied to the brake system of the aircraft. determine whether an aircraft is on a ground surface and not moving relative to the ground surface; determine whether braking is applied to a brake system of the aircraft; and calibrate the servo valve in response to the brake control unit determining that i) the aircraft is on the ground surface, ii) the aircraft is not moving relative to the ground surface, and iii) the braking is not applied to the brake system of the aircraft.
Method for determining a driving intention for a vehicle, wherein the driving intention comprises information about a predicted driving maneuver, comprising determining a position of the vehicle; acquiring a road section based on the position of the vehicle and a digital map, wherein one or more possible driving intentions are associated with the road section, and wherein one or more possible driving intentions are associated with one or more trigger conditions based on one or more trigger variables; obtaining information about internal trigger variables for determining a current driving intention on the basis of on-board sensors or actuators of the vehicle; and determining the driving intention on the basis of the road section, the information about the internal trigger variables and the one or more trigger conditions. determining a position of the vehicle; acquiring a road section based on the position of the vehicle and a digital map, wherein one or more possible driving intentions are associated with the road section, and wherein one or more possible driving intentions are associated with one or more trigger conditions based on one or more trigger variables; obtaining information about internal trigger variables for determining a current driving intention on the basis of on-board sensors or actuators of the vehicle; and determining the driving intention on the basis of the road section, the information about the internal trigger variables and the one or more trigger conditions.
An accessory for a clamp assembly comprising: a clamp bridge comprising a plurality of curved bridge elements attached to one another by a joint that permits relative motion between neighboring bridge elements; characterized in that said joint comprises one or more partially circumferential slots formed in the neighboring bridge elements and one or more bands that are received in said one or more slots, said bands being movable in said slots, and wherein said bands are bent members with legs or ring members that fit into said slots. a clamp bridge comprising a plurality of curved bridge elements attached to one another by a joint that permits relative motion between neighboring bridge elements; characterized in that said joint comprises one or more partially circumferential slots formed in the neighboring bridge elements and one or more bands that are received in said one or more slots, said bands being movable in said slots, and wherein said bands are bent members with legs or ring members that fit into said slots.
Method for controlling a power factor correction circuit for a device for charging a battery on board an electric or hybrid motor vehicle, said charging device being capable of being connected to a three-phase power supply network in order to charge the battery and comprising an isolated AC-to-DC converter comprising said power factor correction circuit and a DC-to-DC converter, said power factor correction circuit being a three-phase Vienna rectifier comprising three switching arms (S1, S2, S3) each capable of being connected to one of the respective phases (A, B, C) of the three-phase power supply network by means of a series inductor (L1, L2, L3), said method comprising the feedback control of the network current at the input of the three-phase Vienna rectifier, characterized in that it comprises applying a control loop for each one of the currents between phases at the input of the three-phase Vienna rectifier, having a control variable and a setpoint, said control variable being a differential duty cycle or a duty cycle deviation between phases applied to the corresponding switching arms of the three-phase Vienna rectifier, the currents between phases being the differential currents corresponding to each pair of phases at the input of the three-phase Vienna rectifier.
Method for controlling a light distribution of a headlamp of an ego vehicle, comprising the following steps: - generating sensor data from external vehicles in the vicinity by means of a sensor apparatus; - predicting a path (38, 40, 46) of at least one of the vehicles (10, 34) based on the sensor data acquired by the sensor apparatus; - adjusting the light distribution of the headlamp depending on the at least one predicted path (38, 40, 46), wherein it is checked whether an entry event of one of the external vehicles into a region of the light distribution is imminent, in which region a glare criterion is fulfilled by the light distribution, and the light distribution of the headlamp is adjusted in such a way that the fulfilment of the glare criterion is prevented in the region, characterised in that manoeuvre probabilities of the external vehicles (10, 34) and the ego vehicle are calculated, and the path (38, 40, 46) of at least one of the vehicles (10, 34) is predicted taking into account the calculated manoeuvre probabilities of the vehicles (10, 34), and to adjust the light distribution of the headlamp, the light distribution is aligned along the predicted path (38, 46) of the ego vehicle. - generating sensor data from external vehicles in the vicinity by means of a sensor apparatus; - predicting a path (38, 40, 46) of at least one of the vehicles (10, 34) based on the sensor data acquired by the sensor apparatus; - adjusting the light distribution of the headlamp depending on the at least one predicted path (38, 40, 46), wherein it is checked whether an entry event of one of the external vehicles into a region of the light distribution is imminent, in which region a glare criterion is fulfilled by the light distribution, and the light distribution of the headlamp is adjusted in such a way that the fulfilment of the glare criterion is prevented in the region, manoeuvre probabilities of the external vehicles (10, 34) and the ego vehicle are calculated, and the path (38, 40, 46) of at least one of the vehicles (10, 34) is predicted taking into account the calculated manoeuvre probabilities of the vehicles (10, 34), and to adjust the light distribution of the headlamp, the light distribution is aligned along the predicted path (38, 46) of the ego vehicle.
Fan module, comprising: - a fan wheel having an axial inlet side and a radial outlet side, - an electric motor for the purpose of driving the fan wheel in a coaxial manner, and - a cooling air ducting that leads from the outlet side to the electric motor, wherein the cooling air ducting leads from the electric motor onwards to the fan wheel and the fan wheel comprises a cut-out in a region near to the axis for the purpose of allowing cooling air to pass through to the inlet side, wherein a base plate having a cut-out for the purpose of allowing cooling air to pass through axially from the outlet side into the cooling air ducting is provided in a plane of rotation between the electric motor and the fan wheel, characterized in that a vane that extends in the axial direction is provided on a border of the cut-out of the base plate. - a fan wheel having an axial inlet side and a radial outlet side, - an electric motor for the purpose of driving the fan wheel in a coaxial manner, and - a cooling air ducting that leads from the outlet side to the electric motor,
Electrosurgical instrument with a first jaw and a second jaw that are pivotably arranged about a pivot axis at each other by a pivot joint, wherein the pivot joint comprises a support pin and a support cavity, characterized in that the electrosurgical instrument further comprises a seal that completely surrounds the support pin in circumferential direction around the pivot axis and sealingly abuts against the first jaw and the second jaw, whereby the seal is compacted and elastically deformed in an axial direction parallel to the pivot axis between the jaws (11, 12).
Binary arithmetic decoder for decoding a non-negative integer value from a bitstream, the binary arithmetic decoder being configured to use a binary unary representation of the non-negative integer value, which maps the non-negative integer value c onto a binary symbol sequence comprising a number of MPS's equal to the non-negative integer value, followed by an LPS, a current state of the binary arithmetic decoder being defined by a current interval defined by an interval width R, and a value V from the interior of the current interval, the binary arithmetic decoder being configured to decode the number of MPS's of the non-negative integer value iteratively using an iteration comprising determining a maximum number c max of MPS that can be decoded until an LPS occurs with using 2 s as a partial interval width R LPS corresponding to an LPS, according to c max = (R - 1 - V) >> s; determining a maximum number c mps of MPS that can be decoded until a renormalization occurs with using 2 s as the partial interval width R LPS corresponding to the LPS, according to c mps = 1 + ((R - R min) >> s), with R min denoting a minimum allowed value for R and being a power of 2; if c max is greater zero and c max is greater than c mps, reducing R by c mps times 2 s, thereby decoding c mps of the MPS's of c; performing a renormalization by including increasing R using a renormalization factor being a predetermined power of 2, reading a bit bit from the bitstream, and increasing V using the renormalization factor and subsequently adding the value of bit; if c max is greater zero and c max is smaller than c mps, reducing R by c max times 2 s, thereby decoding c max of the MPS's of c, wherein the binary arithmetic decoder is further configured to decode the LPS of the non-negative integer value by determining a renormalization number based on a difference of log2(R min) and s; updating V using a difference of V and a partial interval width R MPS corresponding to an MPS, multiplied with 2 to the power of the renormalization number; reading the renormalization number of bits from the bitstream and adding the same to V; setting R to be R min or a predetermined function of R min. reducing R by c mps times 2 s, thereby decoding c mps of the MPS's of c; performing a renormalization by including increasing R using a renormalization factor being a predetermined power of 2, reading a bit bit from the bitstream, and increasing V using the renormalization factor and subsequently adding the value of bit; reducing R by c max times 2 s, thereby decoding c max of the MPS's of c,