mhurhangee/ep-ind-claims huggingface dataset:
A nitride-based light emitting device comprising: a light emitting layer (200, 430, 530, 830) comprising at least one quantum well structure including: a first quantum barrier layer (210, 431, 531, 831); a stress accommodating layer (220, 432, 532, 832) arranged on the first quantum barrier layer; a second quantum barrier layer (230, 433, 533, 833) arranged on the stress accommodating layer; a quantum well layer (240, 434, 534, 834) arranged on the second quantum barrier layer; and another first quantum barrier layer (210, 431, 531, 831) arranged on the quantum well layer, wherein the stress accommodating layer has an in-plane lattice constant ranging between in-plane lattice constants of the first quantum barrier layer and the quantum well layer, and wherein an energy band gap of the stress accommodating layer (220, 432, 532, 832) is smaller than the energy band gap of the first quantum barrier layer (210, 431, 531, 831) and the energy band gap of the second quantum barrier layer (230, 433, 533, 833) and greater than an energy band gap of the quantum well layer (240, 434, 534, 834), characterized in that the second quantum barrier layer has a thickness smaller than a thickness of the first quantum barrier layer. a light emitting layer (200, 430, 530, 830) comprising at least one quantum well structure including: a first quantum barrier layer (210, 431, 531, 831); a stress accommodating layer (220, 432, 532, 832) arranged on the first quantum barrier layer; a second quantum barrier layer (230, 433, 533, 833) arranged on the stress accommodating layer; a quantum well layer (240, 434, 534, 834) arranged on the second quantum barrier layer; and another first quantum barrier layer (210, 431, 531, 831) arranged on the quantum well layer, a first quantum barrier layer (210, 431, 531, 831); a stress accommodating layer (220, 432, 532, 832) arranged on the first quantum barrier layer; a second quantum barrier layer (230, 433, 533, 833) arranged on the stress accommodating layer; a quantum well layer (240, 434, 534, 834) arranged on the second quantum barrier layer; and another first quantum barrier layer (210, 431, 531, 831) arranged on the quantum well layer, wherein the stress accommodating layer has an in-plane lattice constant ranging between in-plane lattice constants of the first quantum barrier layer and the quantum well layer, and wherein an energy band gap of the stress accommodating layer (220, 432, 532, 832) is smaller than the energy band gap of the first quantum barrier layer (210, 431, 531, 831) and the energy band gap of the second quantum barrier layer (230, 433, 533, 833) and greater than an energy band gap of the quantum well layer (240, 434, 534, 834), characterized in that the second quantum barrier layer has a thickness smaller than a thickness of the first quantum barrier layer.
A method of wireless communication performed by a user equipment, UE, comprising: determining that a communication from a transmission/reception point, TRP, included in a coordinated multipoint network, was not successfully received; transmitting a plurality of negative acknowledgements, NACKs, corresponding to the communication, to a plurality of TRPs included in the coordinated multipoint network based at least in part on determining that the communication was not successfully received; and receiving a retransmission of the communication from one or more TRPs of the plurality of TRPs, wherein the one or more TRPs does not include the TRP from which the communication was not successfully received. determining that a communication from a transmission/reception point, TRP, included in a coordinated multipoint network, was not successfully received; transmitting a plurality of negative acknowledgements, NACKs, corresponding to the communication, to a plurality of TRPs included in the coordinated multipoint network based at least in part on determining that the communication was not successfully received; and receiving a retransmission of the communication from one or more TRPs of the plurality of TRPs, wherein the one or more TRPs does not include the TRP from which the communication was not successfully received.
An information processing apparatus that controls a smell presentation device that presents smell to a user, the information processing apparatus comprising: an acquisition unit configured to acquire content information used to implement control of a smell by a control unit 23 the content being video content indicative of a state of a virtual space and comprising a smell object, wherein smell information that specifies at least one of a type of the smell and a strength of the smell is associated with the smell object; and the control unit configured to control the smell presentation device to present smell in a mode according to the smell information included in the acquired content information, wherein flag information included in the smell information indicative of whether or not smell transfer occurs is associated with the smell object, and when a different virtual object disposed in the virtual space is brought into contact with the smell object, if the flag information indicating that smell transfer occurs is associated as the flag information with the smell object, then the different virtual object is changed to a new smell object, and wherein the control unit instructs the smell presentation device to present the smell of the new smell object to the user. an acquisition unit configured to acquire content information used to implement control of a smell by a control unit 23 the content being video content indicative of a state of a virtual space and comprising a smell object, wherein smell information that specifies at least one of a type of the smell and a strength of the smell is associated with the smell object; and the control unit configured to control the smell presentation device to present smell in a mode according to the smell information included in the acquired content information, wherein flag information included in the smell information indicative of whether or not smell transfer occurs is associated with the smell object, and when a different virtual object disposed in the virtual space is brought into contact with the smell object, if the flag information indicating that smell transfer occurs is associated as the flag information with the smell object, then the different virtual object is changed to a new smell object, and wherein the control unit instructs the smell presentation device to present the smell of the new smell object to the user.
A method to make a corrugated medium from washed pulp comprising: pulping comminuted cellulosic fibrous material in a cooking vessel using a cooking liquor injected into the cooking vessel; fiberizing the cooked fibrous material discharged from the cooking vessel to form a fiberized pulp for a corrugated medium; removing lignin from the fiberized pulp or oxidizing lignin in the fiberized pulp by injecting oxygen (O 2) into the fiberized pulp in an oxygen delignification treatment; washing the fiberized pulp to form the washed pulp; and producing a corrugated medium using the washed pulp; wherein the fiberized pulp before oxygen delignification has a shives content of 10% to 50%. pulping comminuted cellulosic fibrous material in a cooking vessel using a cooking liquor injected into the cooking vessel; fiberizing the cooked fibrous material discharged from the cooking vessel to form a fiberized pulp for a corrugated medium; removing lignin from the fiberized pulp or oxidizing lignin in the fiberized pulp by injecting oxygen (O 2) into the fiberized pulp in an oxygen delignification treatment; washing the fiberized pulp to form the washed pulp; and producing a corrugated medium using the washed pulp; wherein the fiberized pulp before oxygen delignification has a shives content of 10% to 50%.
A strip of fuel cell plates comprising: a plurality of fuel cell plates spaced apart in a first direction; an indexing structure (110a, 110b) connected to the plurality of fuel cell plates, the indexing structure (110a, 110b) configured to define the position of one of the plurality of fuel cell plates in the first direction; wherein the indexing structure (110a, 110b) is formed of a different type of material to the plurality of fuel cell plates characterised in that the indexing structure (110a, 110b) comprises a plurality of electrically conductive tracks that are insulated from one another, the conductive tracks (416,516) are connected to the anode or cathode side of a cell for monitoring or current collection and extend along the length of the indexing structure (110a, 110b). a plurality of fuel cell plates spaced apart in a first direction; an indexing structure (110a, 110b) connected to the plurality of fuel cell plates, the indexing structure (110a, 110b) configured to define the position of one of the plurality of fuel cell plates in the first direction; wherein the indexing structure (110a, 110b) is formed of a different type of material to the plurality of fuel cell plates
A power supply unit for an aerosol inhaler, the power supply unit comprising: a power supply able to discharge power to a load for generating an aerosol from an aerosol source; a charger which is configured to convert power, which is input, into charging power for the power supply; a microcontroller which is configured to be able to control charging and discharging of the power supply; a circuit board on which the charger and the microcontroller are provided; a first capacitor which is provided on an input side of the charger so as to be connected in parallel with the charger to stabilize voltage to be input to the charger; and a second capacitor which is provided on an input side of the microcontroller so as to be connected in parallel with the microcontroller and is provided on an output side of the charger so as to be connected in parallel with the charger, wherein a capacity of the first capacitor is smaller than a capacity of the second capacitor. a power supply able to discharge power to a load for generating an aerosol from an aerosol source; a charger which is configured to convert power, which is input, into charging power for the power supply; a microcontroller which is configured to be able to control charging and discharging of the power supply; a circuit board on which the charger and the microcontroller are provided; a first capacitor which is provided on an input side of the charger so as to be connected in parallel with the charger to stabilize voltage to be input to the charger; and a second capacitor which is provided on an input side of the microcontroller so as to be connected in parallel with the microcontroller and is provided on an output side of the charger so as to be connected in parallel with the charger, wherein a capacity of the first capacitor is smaller than a capacity of the second capacitor.
A method for coding an image of a video sequence, wherein the image comprises a current image block, the method comprises: obtaining initial motion information of the current image block; obtaining constrained sample values of at least two candidate reference image blocks corresponding to the current image block according to the initial motion information; wherein the constrained sample values are obtained by constraining a bit-depth of sample values of each candidate reference image block to a predefined bit-depth; wherein the constraining a bit-depth of sample values of each candidate reference image block to a predefined bit-depth is performed according to the following formula: L ′ = L ^ + 1 ≪ Q − 1 ≫ Q + b − d wherein, L ' is a constrained sample value of each candidate reference image block; L̂ is a non-normalized sample value of each candidate reference image block, Q is a normalization factor of an interpolation filter; b is the bit-depth of sample values of each candidate reference image block and d is the predefined bit-depth; wherein, d is less than b; obtaining refined motion information based on constrained sample values of at least two candidate reference image blocks; and determining a prediction image block of the current image block according to the refined motion information. obtaining initial motion information of the current image block; obtaining constrained sample values of at least two candidate reference image blocks corresponding to the current image block according to the initial motion information; wherein the constrained sample values are obtained by constraining a bit-depth of sample values of each candidate reference image block to a predefined bit-depth; wherein the constraining a bit-depth of sample values of each candidate reference image block to a predefined bit-depth is performed according to the following formula: L ′ = L ^ + 1 ≪ Q − 1 ≫ Q + b − d wherein, L ' is a constrained sample value of each candidate reference image block; L̂ is a non-normalized sample value of each candidate reference image block, Q is a normalization factor of an interpolation filter; b is the bit-depth of sample values of each candidate reference image block and d is the predefined bit-depth; wherein, d is less than b; obtaining refined motion information based on constrained sample values of at least two candidate reference image blocks; and determining a prediction image block of the current image block according to the refined motion information.
A vacuum-cleaner filter bag for an upright vacuum cleaner, which has a length and a width in a ratio of > 1.5, so that the vacuum-cleaner filter bag has a long side and a narrow side, with a first bag wall comprising a filter material, a second bag wall comprising a filter material, wherein the first and second bag wall are joined in circumambient manner at the edges, so that the vacuum-cleaner filter bag is completely closed and an inner space is formed between the first and the second bag wall, an entry opening made in the second bag wall, through which opening air which is to be cleaned can flow into the vacuum-cleaner filter bag and also a holding plate encompassing the entry opening, wherein at least the first bag wall has folding comprising at least a first and a second lateral fold and extending in the longitudinal direction of the vacuum-cleaner filter bag, wherein the first and second lateral fold extend parallel or substantially parallel to one another, the first lateral fold has two branches (4-21, 21-22), and the length ratio of the branch to the branch is from 0.1 to 0.8, characterised in that the holding plate with entry opening is arranged close to a narrow side of the vacuum-cleaner filter bag, so that the ratio of the minimum distance (d) of the holding plate from a join, on the narrow side, of the vacuum-cleaner filter bag relative to dimensioning (L 6) of the holding plate in the longitudinal direction of the vacuum-cleaner filter bag is < 0.5, or is arranged projecting over a narrow side of the vacuum-cleaner filter bag, so that the ratio of the projecting length (d') of the holding plate to a join, on the narrow side, of the vacuum-cleaner filter bag relative to dimensioning (L 6) of the holding plate in the longitudinal direction of the vacuum-cleaner filter bag is < 0.5.
A method performed by a wireless device comprising determining a first bandwidth for monitoring a downlink control signal; determining a first set of possible downlink control indicator, DCI, formats that are compatible with the first bandwidth; receiving a first transmission from a network node using the first bandwidth; blindly decoding control information in the first transmission by using at least one DCI format of the first set of DCI formats; and when successful decoding of the control information, checking whether bandwidth to be monitored is indicated by the control information in the first transmission to be changed to a second bandwidth, and when bandwidth is indicated to be changed: determining the second bandwidth for downlink control signal monitoring, determining a second set of possible downlink control indicator, DCI, formats that are compatible with the second bandwidth, receiving a second transmission from the network node using the second bandwidth, and blindly decoding control information in the second transmission by using at least one DCI format of the second set of DCI formats. determining a first bandwidth for monitoring a downlink control signal; determining a first set of possible downlink control indicator, DCI, formats that are compatible with the first bandwidth; receiving a first transmission from a network node using the first bandwidth; blindly decoding control information in the first transmission by using at least one DCI format of the first set of DCI formats; and when successful decoding of the control information, checking whether bandwidth to be monitored is indicated by the control information in the first transmission to be changed to a second bandwidth, and when bandwidth is indicated to be changed: determining the second bandwidth for downlink control signal monitoring, determining a second set of possible downlink control indicator, DCI, formats that are compatible with the second bandwidth, receiving a second transmission from the network node using the second bandwidth, and blindly decoding control information in the second transmission by using at least one DCI format of the second set of DCI formats.
A method for manufacture of a torsion-box type skin composite structure mountable to a main sub-structure, the torsion-box type skin composite structure comprises a skin component, a stringer, a rib foot for mounting the torsion-box type skin composite structure to the main sub-structure, the method comprises the step of: - providing a forming tool; - providing a skin lay-up onto the forming tool; - positioning a stringer lay-up and a rib foot lay-up to the skin lay-up for forming an integral lay-up; wherein a first surface of the rib foot lay-up is attached to the stringer lay-up and a second surface of the rib foot lay-up is attached to the skin lay-up; and - co-curing the integral lay-up. - providing a forming tool; - providing a skin lay-up onto the forming tool; - positioning a stringer lay-up and a rib foot lay-up to the skin lay-up for forming an integral lay-up; wherein a first surface of the rib foot lay-up is attached to the stringer lay-up and a second surface of the rib foot lay-up is attached to the skin lay-up; and - co-curing the integral lay-up.
An optoelectronic sensor for recognizing objects or object properties comprising a light transmitter (13, 13', 13") for transmitting transmitted light into a detection zone; a light receiver for receiving received light; and an evaluation unit which is configured to detect an object located in or projecting into the detection zone and/or to determine a property of such an object with reference to the received light received by the light receiver, wherein the light transmitter (13, 13', 13") comprises a monolithic semi-conductor component having a first light emitting layer and a second light emitting layer, and wherein the second light emitting layer defines a central light emitting surface (39, 39') and the first light emitting layer defines an outer light emitting surface surrounding the central light emitting surface (39, 39'), characterized in that the first light emitting layer is configured for emitting red light and the second light emitting layer is configured for emitting infrared light; in that a control device which is configured to individually control the first light emitting layer and the second light emitting layer is associated with the light transmitter; and in that the control device is configured to activate the first light emitting layer only part time during the operation of the optoelectronic sensor, with the control device being configured only to activate the first light emitting layer when the optoelectronic sensor is in an alignment mode and/or when a switching condition of the optoelectronic sensor is satisfied and/or when the optoelectronic sensor is in a predefined switching state.
A method performed by a terminal, comprising: - receiving, from a base station, a downlink configuration control message indicative of control information on at least one invalid time-frequency resource block included in a plurality of resource blocks, - receiving, from the base station, scheduling information for a transmission (5991, 5992) on the plurality of resource blocks, - receiving, from the base station, a downlink activation control message, and - upon blocking being activated by the downlink activation control message: blocking the transmission on the at least one invalid resource block based on the control information. - receiving, from a base station, a downlink configuration control message indicative of control information on at least one invalid time-frequency resource block included in a plurality of resource blocks, - receiving, from the base station, scheduling information for a transmission (5991, 5992) on the plurality of resource blocks, - receiving, from the base station, a downlink activation control message, and - upon blocking being activated by the downlink activation control message: blocking the transmission on the at least one invalid resource block based on the control information.
A portable medical device adapted to be carried by a user, comprising - at least one electrically actuated means for performing a therapeutic and/or a diagnostic function on a patient, - at least one mobile electric power supply, - a control unit having at least one microelectronic controller and at least one electronic memory, - at least one multi-channel impact sensor unit, wherein the impact sensor unit is adapted to simultaneously detect linear acceleration (a x; a y; a z) along the three space axes (x; y; z) and angular rates (ω x; ω y; ω z) around the three space axes (x; y; z), wherein the impact sensor unit generates impact sensor data sets, and wherein the impact sensor data sets are electronically transferred to the microelectronic controller via an interface, - a housing, in which the electric components of the device are contained, characterised in that the microelectronic controller is adapted to execute a classification algorithm which allows to discriminate - a first impact sensor data set, said first impact data set being correlated to a first impact event which is detrimental for the device, from - a second impact sensor data set, said second impact data set being correlated to a second impact event which is not detrimental for the device, wherein the classification algorithm includes a support vector machine. - at least one electrically actuated means for performing a therapeutic and/or a diagnostic function on a patient, - at least one mobile electric power supply, - a control unit having at least one microelectronic controller and at least one electronic memory, - at least one multi-channel impact sensor unit, wherein the impact sensor unit is adapted to simultaneously detect linear acceleration (a x; a y; a z) along the three space axes (x; y; z) and angular rates (ω x; ω y; ω z) around the three space axes (x; y; z), wherein the impact sensor unit generates impact sensor data sets, and wherein the impact sensor data sets are electronically transferred to the microelectronic controller via an interface, - a housing, in which the electric components of the device are contained, characterised in that the microelectronic controller is adapted to execute a classification algorithm which allows to discriminate - a first impact sensor data set, said first impact data set being correlated to a first impact event which is detrimental for the device, from - a second impact sensor data set, said second impact data set being correlated to a second impact event which is not detrimental for the device,