mhurhangee/ep-ind-claims huggingface dataset:
A light-emitting device comprising: a substrate; a plurality of LED dies arranged on a surface of the substrate, wherein the LED dies are electrically connected to form at least two independently addressable groups of LEDs, the groups of LEDs including a first group of LEDs (108 g-1) to produce light whose color is in a first region of a color space and a second group of LEDs (108 a-f) to produce light whose color is in a second region of the color space, wherein the first region and the second region are non-overlapping regions; and a plurality of phosphor chips, each of the phosphor chips being disposed to cover a light-emitting surface of a different one of the LED dies, wherein the phosphor chip covering each of the LED dies is selected based on the peak wavelength of light produced by the LED die and the color of the light to be produced by the group in which the LED die is included, wherein multiple combinations of LED die wavelength and phosphor chip type produce light in at least one of the first region or second region. a substrate; a plurality of LED dies arranged on a surface of the substrate, wherein the LED dies are electrically connected to form at least two independently addressable groups of LEDs, the groups of LEDs including a first group of LEDs (108 g-1) to produce light whose color is in a first region of a color space and a second group of LEDs (108 a-f) to produce light whose color is in a second region of the color space, wherein the first region and the second region are non-overlapping regions; and a plurality of phosphor chips, each of the phosphor chips being disposed to cover a light-emitting surface of a different one of the LED dies, wherein the phosphor chip covering each of the LED dies is selected based on the peak wavelength of light produced by the LED die and the color of the light to be produced by the group in which the LED die is included, wherein multiple combinations of LED die wavelength and phosphor chip type produce light in at least one of the first region or second region.
Helicopter, comprising an airframe including a variable area engine inlet; at least one rotor, which is rotatable relative to the airframe to generate lift and, optionally, thrust; an engine disposed within an interior of the airframe to be receptive of air drawn into the interior through the variable area engine inlet, the engine being coupled to the at least one rotor to drive rotation of the rotor in accordance with a combustion of a mixture of fuel and the air, a capture area of the variable area engine inlet being variable in accordance with current flight conditions, wherein the variable area engine inlet comprises first inlet portions disposed to face one another in opposite directions and at a distance from one another; and second inlet portions extending between the first inlet portions and being disposed to face one another in opposite directions and at a distance from one another, the first and second inlet portions (20, 21) defining said capture area and at least one or both of the first and second inlet portions (20, 21) comprising a movable portion disposed to occupy a first position and a second position and move between said first and second positions, the first position being associated with a non-constricted condition of the capture area, and the second position being associated with a constricted condition of the capture area, characterized in that the helicopter further comprises a controller configured to constrict the capture area of the variable area engine inlet in accordance with high-speed flight conditions and to dilate the capture area in accordance with low-speed or hover flight conditions, wherein the movable portion is movable into the first position in accordance with low-speed or hover flight conditions and into the second position in accordance with high-speed flight conditions, and wherein the variable area engine inlet comprises first and second variable area engine inlets and the controller is configured to independently vary respective capture areas of the first and second variable area engine inlets in accordance with the current flight conditions and asymmetric flows relative to the first and second variable area engine inlets.
A reciprocating piston expansion machine having a piston and a cylinder, the piston having a piston head, a piston neck and a piston skirt, the piston head having at least one groove which runs in the circumferential direction and is suitable for receiving a piston ring, and the piston skirt having a pin boss which is suitable for receiving a gudgeon pin and, on its outer circumference, a guide face which is suitable for guiding the piston along the cylinder inner wall, an external diameter of the piston neck being smaller than an external diameter of the piston head and/or of the piston skirt, and the piston being configured in such a way that a cavity is provided in the installed state between the cylinder inner wall and an outer face of the piston neck of the piston, characterized in that the piston is loaded with steam, in that the cavity is a collecting space for blow-by gases, and in that the collecting space is connected to a steam circuit.
An in vitro method for the prognosis of survival time of a patient suffering from a solid cancer with tumor-induced lymphoid structures, comprising the following steps: a) quantifying, in a tumor-induced lymphoid structure, the cell density of follicular B cells, and b) comparing the cell density of follicular B cells value obtained at step a) with a predetermined reference value; and c) providing a favorable prognosis of survival time for said patient when the cell density of follicular B cells is higher than said predetermined reference value, or providing a poor prognosis of survival time for said patient when the cell density of follicular B cells is lower than said predetermined reference value. a) quantifying, in a tumor-induced lymphoid structure, the cell density of follicular B cells, and b) comparing the cell density of follicular B cells value obtained at step a) with a predetermined reference value; and c) providing a favorable prognosis of survival time for said patient when the cell density of follicular B cells is higher than said predetermined reference value, or
A power device, capable of powering different types of tool bodies each comprising a working component and a tool control unit; wherein the power device is detachably connectable to a tool body, and the power device comprises motor and a power control unit for controlling the motor; and the power control unit is configured to receive a control instruction transmitted by the tool control unit, and to control the motor according to the control instruction, to drive the working component of the tool body when the power device is mounted on a tool body; wherein the power control unit has a program block, the program block has a default value, the tool control unit is configured to convert the control instruction into a control parameter corresponding to the control instruction and is configured to transmit the control parameter to the power control unit, and the power control unit is configured to receive the control parameter and to convert the control parameter into a control instruction, and to write the control instruction to the default value to form a complete program block to control the operation of the motor. wherein the power device is detachably connectable to a tool body, and the power device comprises motor and a power control unit for controlling the motor; and the power control unit is configured to receive a control instruction transmitted by the tool control unit, and to control the motor according to the control instruction, to drive the working component of the tool body when the power device is mounted on a tool body; wherein the power control unit has a program block, the program block has a default value, the tool control unit is configured to convert the control instruction into a control parameter corresponding to the control instruction and is configured to transmit the control parameter to the power control unit, and the power control unit is configured to receive the control parameter and to convert the control parameter into a control instruction, and to write the control instruction to the default value to form a complete program block to control the operation of the motor.
A measurement device comprising: a biosensor which includes a reagent surface on which a reagent is placed, the reagent selectively responding to a specific analyte in a blood to detect the presence or concentration of the analyte in the blood, the actual interaction between the reagent and the analyte occurs in the blood; an analyte measurement section that measures a concentration of the specific analyte with a biosensor; a motion measurement section that measures a motion level of the measurement device and outputs the measured level as motion information of living activity; a recording section that records the concentration of the analyte and the motion information; a controlling section that connects the analyte measurement section and the motion measurement section controls the analyte measurement section and the recording section based on the measured motion information; the device further comprising a housing configured to house therein at least one of the analyte measurement section, the motion measurement section, the recording section and the controlling section; characterized in that the controlling section includes a damage judging section that judges whether or not the housing is damaged based on the motion information. a biosensor which includes a reagent surface on which a reagent is placed, the reagent selectively responding to a specific analyte in a blood to detect the presence or concentration of the analyte in the blood, the actual interaction between the reagent and the analyte occurs in the blood; an analyte measurement section that measures a concentration of the specific analyte with a biosensor; a motion measurement section that measures a motion level of the measurement device and outputs the measured level as motion information of living activity; a recording section that records the concentration of the analyte and the motion information; a controlling section that connects the analyte measurement section and the motion measurement section controls the analyte measurement section and the recording section based on the measured motion information; the device further comprising a housing configured to house therein at least one of the analyte measurement section, the motion measurement section, the recording section and the controlling section;
An optical sensor comprising: a first electrode; a graphene quantum dot layer, the graphene quantum dot layer including a plurality of first graphene quantum dots bonded to a first functional group; and a second electrode on the graphene quantum dot layer, wherein the plurality of first graphene quantum dots are configured to absorb light of a first wavelength band, characterized in that the graphene quantum dot layer further includes a plurality of second graphene quantum dots bonded to a second functional group that is different from the first functional group, and in that the plurality of second graphene quantum dots are configured to absorb light of a second wavelength band that is different from the first wavelength band. a first electrode; a graphene quantum dot layer, the graphene quantum dot layer including a plurality of first graphene quantum dots bonded to a first functional group; and a second electrode on the graphene quantum dot layer, wherein the plurality of first graphene quantum dots are configured to absorb light of a first wavelength band, characterized in that the graphene quantum dot layer further includes a plurality of second graphene quantum dots bonded to a second functional group that is different from the first functional group, and in that the plurality of second graphene quantum dots are configured to absorb light of a second wavelength band that is different from the first wavelength band.
A method for obtaining information related to a cellular system in a wireless communication system, comprising: transmitting, by an Access Point, AP, (81-83, 20) to a multi radio access technology, RAT, device (61-65,900), a request message for requesting information related to the cellular system through a Wireless Local Area network, WLAN, system network; receiving, by the AP (81-83, 20) from the multi-RAT device (61-65, 900), a response message in response to the request message through the WLAN system network, wherein the response message includes the information related to the cellular system; and transmitting, by the AP (81-83, 20) to a managing server, a report message including the information related to the cellular system through the WLAN system network, wherein the request message and the response message have the same structure as that of an IEEE 802.11 MAC management frame format. transmitting, by an Access Point, AP, (81-83, 20) to a multi radio access technology, RAT, device (61-65,900), a request message for requesting information related to the cellular system through a Wireless Local Area network, WLAN, system network; receiving, by the AP (81-83, 20) from the multi-RAT device (61-65, 900), a response message in response to the request message through the WLAN system network, wherein the response message includes the information related to the cellular system; and transmitting, by the AP (81-83, 20) to a managing server, a report message including the information related to the cellular system through the WLAN system network, wherein the request message and the response message have the same structure as that of an IEEE 802.11 MAC management frame format.
A polyimide resin comprising a structural unit A derived from a tetracarboxylic dianhydride and a structural unit B derived from a diamine compound, wherein the structural unit A comprises a structural unit (A-1) derived from a compound represented by the following formula (a-1), and a structural unit (A-2) derived from a compound represented by the following formula (a-2), wherein the proportion of the structural unit (A-2) in the structural unit A is 60 mol% or less; and the structural unit B comprises a structural unit (B-1) derived from a compound represented by the following formula (b-1), wherein the structural unit (B-1) includes a structural unit (B-1-1) derived from a compound represented by the following formula (b-1-1), wherein the proportion of the structural unit (B-1-1) in the structural unit (B-1) is 50 mol% or more: wherein m and n in the formula (b-1) each independently are an integer of 0 or 1. wherein the structural unit A comprises a structural unit (A-1) derived from a compound represented by the following formula (a-1), and a structural unit (A-2) derived from a compound represented by the following formula (a-2), wherein the proportion of the structural unit (A-2) in the structural unit A is 60 mol% or less; and the structural unit B comprises a structural unit (B-1) derived from a compound represented by the following formula (b-1), wherein the structural unit (B-1) includes a structural unit (B-1-1) derived from a compound represented by the following formula (b-1-1), wherein the proportion of the structural unit (B-1-1) in the structural unit (B-1) is 50 mol% or more: wherein m and n in the formula (b-1) each independently are an integer of 0 or 1.
An anti-sloshing apparatus comprising: a plurality of buoyant members, each buoyant member having buoyancy to be floated on the surface of liquid by having hollow buoyant structure having hermetic space to fill gas therein; and a connecting member (120, 122) to connect adjacent buoyant members to one another, characterized by for each buoyant member, a foam member having open cell structure to absorb the liquid and covering the buoyant member. a plurality of buoyant members, each buoyant member having buoyancy to be floated on the surface of liquid by having hollow buoyant structure having hermetic space to fill gas therein; and a connecting member (120, 122) to connect adjacent buoyant members to one another, characterized by for each buoyant member, a foam member having open cell structure to absorb the liquid and covering the buoyant member.
A medical sensing system, comprising: a probe unit, the probe unit comprising an ultrasound sensing means, and at least one electrode for use in electrocardiogram, ECG, measurement; and a controller operably coupled with the probe, and the controller comprising an atlas dataset storing reference ultrasound data associated with each of a plurality of possible locations of the probe relative to the body, and comprising a datastore storing a plurality of reference target electrode locations relative to the body for different ECG measurements, the controller being configured in at least one operation mode to control the ultrasound sensing means to acquire ultrasound data, and to implement a position guidance function configured to generate guidance information for a user for positioning the probe in one or more of the reference electrode locations based on the acquired ultrasound data, and based on reference to the atlas dataset. a probe unit, the probe unit comprising an ultrasound sensing means, and at least one electrode for use in electrocardiogram, ECG, measurement; and a controller operably coupled with the probe, and the controller comprising an atlas dataset storing reference ultrasound data associated with each of a plurality of possible locations of the probe relative to the body, and comprising a datastore storing a plurality of reference target electrode locations relative to the body for different ECG measurements, the controller being configured in at least one operation mode to control the ultrasound sensing means to acquire ultrasound data, and to implement a position guidance function configured to generate guidance information for a user for positioning the probe in one or more of the reference electrode locations based on the acquired ultrasound data, and based on reference to the atlas dataset.
Process for fast or on-line determination of the ash content of a substance, namely of coal or a paper web, with the following steps: - Irradiating the surface of the substance with polychromatic X-ray radiation, wherein the X-ray radiation exhibits in the energy range from 1 to 30 keV one or more peaks in the continuum, - measuring the spectrum of the radiation backscattered and emitted by the substance in an energy range between 1 and 30 keV, with a resolution of at least 250 eV, - analysing the spectrum, wherein at least the intensities of the elastically backscattered and the inelastically backscattered peak are separately determined, and wherein the mean atomic number of the sample is determined by the determination of the ratio between the elastically and the inelastically backscattered peak, characterized in that the analysis further comprises the following steps: - Determination of the mean atomic number of the ash from the ratios of the Kα peaks in the energy range between 1 and 7 keV, in order to compensate for the influence of a fluctuating elemental composition within the ash, - determination of the absolute ash content, taking into account the mean atomic number of the ash and the mean atomic number of the sample. - Irradiating the surface of the substance with polychromatic X-ray radiation, wherein the X-ray radiation exhibits in the energy range from 1 to 30 keV one or more peaks in the continuum, - measuring the spectrum of the radiation backscattered and emitted by the substance in an energy range between 1 and 30 keV, with a resolution of at least 250 eV, - analysing the spectrum, wherein at least the intensities of the elastically backscattered and the inelastically backscattered peak are separately determined, and wherein the mean atomic number of the sample is determined by the determination of the ratio between the elastically and the inelastically backscattered peak, characterized in that the analysis further comprises the following steps: - Determination of the mean atomic number of the ash from the ratios of the Kα peaks in the energy range between 1 and 7 keV, in order to compensate for the influence of a fluctuating elemental composition within the ash, - determination of the absolute ash content, taking into account the mean atomic number of the ash and the mean atomic number of the sample. - Determination of the mean atomic number of the ash from the ratios of the Kα peaks in the energy range between 1 and 7 keV, in order to compensate for the influence of a fluctuating elemental composition within the ash, - determination of the absolute ash content, taking into account the mean atomic number of the ash and the mean atomic number of the sample.
A method for receiving data at a user equipment, UE, in wireless communications, comprising: monitoring, at the UE, a common search space of a control channel for scheduling first data resources of a first transmission time interval, TTI; determining that the control channel schedules second data resources for the UE based on a second TTI and based at least in part on determining a value of one or more bits of a downlink control indicator, DCI, in the common search space; and processing data received over the second data resources based on the second TTI, wherein a first duration of the first TTI is greater than a second duration of the second TTI, wherein the monitoring comprises monitoring a common search space of the control channel. monitoring, at the UE, a common search space of a control channel for scheduling first data resources of a first transmission time interval, TTI; determining that the control channel schedules second data resources for the UE based on a second TTI and based at least in part on determining a value of one or more bits of a downlink control indicator, DCI, in the common search space; and processing data received over the second data resources based on the second TTI, wherein a first duration of the first TTI is greater than a second duration of the second TTI, wherein the monitoring comprises monitoring a common search space of the control channel.
A bump bond superconductivity test structure comprising: a first superconducting integrated circuit, IC, chip; a second superconducting IC chip galvanically connected to the first chip by bump bonds (104, 106, 204, 206); galvanic connections (Φ+, Φ-) to one of the bump bonds (104, 204), the galvanic connections (Φ+, Φ-) configured to provide a flux bias current vertically through the one of the bump bonds (104, 204) between the first and second chips (108, 110); and a DC SQUID (112, 212) comprising a loop that electrically includes at least two of the bump bonds (104, 106, 204, 206); wherein the galvanic connections (Φ+, Φ-) and the one of the bump bonds (104, 204) are configured such that the only part of the DC SQUID loop through which the flux bias current flows is the one of the bump bonds (104, 204). a first superconducting integrated circuit, IC, chip; a second superconducting IC chip galvanically connected to the first chip by bump bonds (104, 106, 204, 206); galvanic connections (Φ+, Φ-) to one of the bump bonds (104, 204), the galvanic connections (Φ+, Φ-) configured to provide a flux bias current vertically through the one of the bump bonds (104, 204) between the first and second chips (108, 110); and a DC SQUID (112, 212) comprising a loop that electrically includes at least two of the bump bonds (104, 106, 204, 206); wherein the galvanic connections (Φ+, Φ-) and the one of the bump bonds (104, 204) are configured such that the only part of the DC SQUID loop through which the flux bias current flows is the one of the bump bonds (104, 204).