mhurhangee/ep-ind-claims huggingface dataset:
A method for reporting a Direct Current, DC, carrier location, characterized by comprising: reporting, by a terminal device, at least one piece of DC carrier location information, wherein each of the at least one piece of DC carrier location information is associated with N cells and N bandwidth parts, BWPs, where N is a positive integer, wherein the N cells are N severing cells in an active state among M severing cells, the N BWPs are N active BWPs of the N cells, and the active BWPs are not dormant BWPs; and M is a positive integer greater than or equal to N, wherein the DC carrier location information comprises at least one of: an indication of a shift of 7.5 KHz, or txDirectCurrentLocation, wherein the shift of 7.5 KHz and the txDirectCurrentLocation are defined in a New Radio, NR, Radio Resource Control, RRC, ReconfigurationComplete message. reporting, by a terminal device, at least one piece of DC carrier location information, wherein each of the at least one piece of DC carrier location information is associated with N cells and N bandwidth parts, BWPs, where N is a positive integer, wherein the N cells are N severing cells in an active state among M severing cells, the N BWPs are N active BWPs of the N cells, and the active BWPs are not dormant BWPs; and M is a positive integer greater than or equal to N, wherein the DC carrier location information comprises at least one of: an indication of a shift of 7.5 KHz, or txDirectCurrentLocation, wherein the shift of 7.5 KHz and the txDirectCurrentLocation are defined in a New Radio, NR, Radio Resource Control, RRC, ReconfigurationComplete message.
An apparatus for manufacturing cosmetic using instantaneous emulsification including a housing which forms an outer appearance, the apparatus comprising: an internal phase container which is replaceably coupled to the housing, and which stores internal phase fluid; an external phase container which is replaceably coupled to the housing, and which stores external phase fluid; a plate in which a channel unit is formed, wherein the channel unit generates emulsion by mixing the internal phase fluid provided from the internal phase container and the external phase fluid provided from the external phase container; and an operative unit which provides external force required to form and discharge emulsion at the channel unit by manipulation of a user, wherein the internal phase container and the external phase container have each a pumping part (214; 224) which is operated by action of the operative unit, wherein the the plate is disposed at an upper side of the operative unit, wherein the pumping part (214; 224) provided at the upper portion of the internal phase container and the upper portion of the external phase container is disposed at a lower side of the operative unit, wherein by pressing the plate, the operative unit presses the pumping part of the internal phase container and the pumping part of the external phase container at the same time, so that the internal phase fluid stored in the internal phase container and the external phase fluide stored in the external phase container are discharged to the channel unit and mixed to generate the emulsion. an internal phase container which is replaceably coupled to the housing, and which stores internal phase fluid; an external phase container which is replaceably coupled to the housing, and which stores external phase fluid; a plate in which a channel unit is formed, wherein the channel unit generates emulsion by mixing the internal phase fluid provided from the internal phase container and the external phase fluid provided from the external phase container; and an operative unit which provides external force required to form and discharge emulsion at the channel unit by manipulation of a user, wherein the internal phase container and the external phase container have each a pumping part (214; 224) which is operated by action of the operative unit, wherein the the plate is disposed at an upper side of the operative unit, wherein the pumping part (214; 224) provided at the upper portion of the internal phase container and the upper portion of the external phase container is disposed at a lower side of the operative unit, wherein by pressing the plate, the operative unit presses the pumping part of the internal phase container and the pumping part of the external phase container at the same time, so that the internal phase fluid stored in the internal phase container and the external phase fluide stored in the external phase container are discharged to the channel unit and mixed to generate the emulsion.
A wind-turbine rotor blade having a rotor blade portion which comprises an inner rotor blade portion with a first end having a plurality of fastening units for fastening to a hub of a wind turbine and a second end having a flange for fastening further portions of the wind-turbine rotor blade, wherein the inner rotor blade portion is produced from polymer concrete, wherein the inner rotor blade portion has a plurality of resin-impregnated fiber-composite laid scrims or rovings which are wound around the inner rotor blade portion, wherein the inner rotor blade portion serves as a winding mandrel and is produced by casting or spinning polymer concrete.,
A method of operating a wireless device in a wireless system, comprising: allocating a first uplink sub-channel to the wireless device in a first subframe associated with the wireless device, wherein the first uplink sub-channel comprises a portion of an uplink system bandwidth, and portions of the uplink system bandwidth outside of the first uplink sub-channel are not available for transmission in the first subframe by the wireless device; and determining a first sounding reference signal, SRS, sub-channel, wherein the first SRS sub-channel comprises a portion of the first uplink sub-channel in frequency domain, and the SRS sub-channel is available for transmitting SRS in the first subframe by the wireless device; wherein the uplink system bandwidth comprises a plurality of uplink sub-channels including the first uplink sub-channel, wherein: each uplink sub-channel coincides with a starting resource block of a SRS sub-channel such that adjacent uplink sub-channels overlap; or the plurality of uplink sub-channels do not overlap, each uplink sub-channel contains a SRS sub-channel comprising a portion of the uplink sub-channel, and the relative frequency position of the SRS sub-channel in each uplink sub-channel varies between the uplink sub-channels. allocating a first uplink sub-channel to the wireless device in a first subframe associated with the wireless device, wherein the first uplink sub-channel comprises a portion of an uplink system bandwidth, and portions of the uplink system bandwidth outside of the first uplink sub-channel are not available for transmission in the first subframe by the wireless device; and determining a first sounding reference signal, SRS, sub-channel, wherein the first SRS sub-channel comprises a portion of the first uplink sub-channel in frequency domain, and the SRS sub-channel is available for transmitting SRS in the first subframe by the wireless device; wherein the uplink system bandwidth comprises a plurality of uplink sub-channels including the first uplink sub-channel, wherein: each uplink sub-channel coincides with a starting resource block of a SRS sub-channel such that adjacent uplink sub-channels overlap; or the plurality of uplink sub-channels do not overlap, each uplink sub-channel contains a SRS sub-channel comprising a portion of the uplink sub-channel, and the relative frequency position of the SRS sub-channel in each uplink sub-channel varies between the uplink sub-channels.
A bone fixation assembly comprising: a unitary coupling element having a first bore having an axis and internal threads, the first bore adapted to receive a head portion of a fixation element and to permit axial, sliding movement of the coupling element relative to the fixation element, the coupling element having a second bore adapted to receive a spinal rod; a first locking element having external threads adapted to engage with the internal threads of the first bore about the axis to secure the head portion in the first bore; and a second locking element adapted to secure the spinal rod in the second bore. a unitary coupling element having a first bore having an axis and internal threads, the first bore adapted to receive a head portion of a fixation element and to permit axial, sliding movement of the coupling element relative to the fixation element, the coupling element having a second bore adapted to receive a spinal rod; a first locking element having external threads adapted to engage with the internal threads of the first bore about the axis to secure the head portion in the first bore; and a second locking element adapted to secure the spinal rod in the second bore.
An accessing circuitry (36A; 36D) configured to be coupled in series in a daisy chain network of a plurality of accessing circuitries (36A-36B; 36D-36E), comprising: multi-pin couplers (42A1-42A2; 42B1-42B2) configured for daisy chaining the accessing circuitry (36A; 36D) in said daisy chain network and communicating data between the accessing circuitry (36A; 36D) and adjacent accessing circuitries of said daisy chain network; switching circuitry configured to control communication between a first point-to-point sensor of a plurality of point-to-point sensors and a controller; and flip-flop circuitry configured to output a control signal in response to receiving a clock signal, the clock signal having a count of clock pulses that corresponds to one greater than a numerical position of the first point-to-point sensor relative to the controller; wherein the switching circuitry is configured to only communicatively couple the first point-to-point sensor to a communication channel shared with each of the plurality of point-to-point sensors and the controller in response to receiving the control signal. multi-pin couplers (42A1-42A2; 42B1-42B2) configured for daisy chaining the accessing circuitry (36A; 36D) in said daisy chain network and communicating data between the accessing circuitry (36A; 36D) and adjacent accessing circuitries of said daisy chain network; switching circuitry configured to control communication between a first point-to-point sensor of a plurality of point-to-point sensors and a controller; and flip-flop circuitry configured to output a control signal in response to receiving a clock signal, the clock signal having a count of clock pulses that corresponds to one greater than a numerical position of the first point-to-point sensor relative to the controller; wherein the switching circuitry is configured to only communicatively couple the first point-to-point sensor to a communication channel shared with each of the plurality of point-to-point sensors and the controller in response to receiving the control signal.
Heating apparatus (100; 400) comprising: a light emitting diode array comprising at least one LED to heat a target object; a heatsink thermally coupled to the LED array, to dissipate heat from the LED array, the heatsink comprising a plurality of refrigerant paths, each refrigerant path including an input (112; 212) to and an output (114; 214) from the refrigerant path to pass cooled refrigerant therethrough; and a conduit to receive the cooled refrigerant; wherein: at least one refrigerant path of the plurality of refrigerant paths comprises a through hole formed in the heatsink; and at least one refrigerant path of the plurality of refrigerant paths comprises a channel formed in a surface of the heatsink and the conduit is received within the channel. a light emitting diode array comprising at least one LED to heat a target object; a heatsink thermally coupled to the LED array, to dissipate heat from the LED array, the heatsink comprising a plurality of refrigerant paths, each refrigerant path including an input (112; 212) to and an output (114; 214) from the refrigerant path to pass cooled refrigerant therethrough; and a conduit to receive the cooled refrigerant; wherein: at least one refrigerant path of the plurality of refrigerant paths comprises a through hole formed in the heatsink; and at least one refrigerant path of the plurality of refrigerant paths comprises a channel formed in a surface of the heatsink and the conduit is received within the channel. at least one refrigerant path of the plurality of refrigerant paths comprises a through hole formed in the heatsink; and at least one refrigerant path of the plurality of refrigerant paths comprises a channel formed in a surface of the heatsink and the conduit is received within the channel.
A heart treatment system, comprising: an implantable blood pump configured to couple with a circulatory system of a patient and to pump blood therethrough, the implantable blood pump comprising a pump processor, the pump processor including an input; an implantable cardiac rhythm management device configured to deliver heart stimulation pulses to a heart of the patient; a first lead having a first end and a second end opposite the first end, the first end of the first lead coupling with the implantable cardiac rhythm management device and the second end of the first lead coupled with the input of the pump processor; wherein the implantable cardiac rhythm management device is configured to deliver an electrical pace signal through the first lead to the implantable blood pump; and wherein the pump processor of the implantable blood pump is configured to receive the electrical pace signal from the implantable cardiac rhythm management device and to adjust a pumping of the implantable blood pump based on the electrical pace signal. an implantable blood pump configured to couple with a circulatory system of a patient and to pump blood therethrough, the implantable blood pump comprising a pump processor, the pump processor including an input; an implantable cardiac rhythm management device configured to deliver heart stimulation pulses to a heart of the patient; a first lead having a first end and a second end opposite the first end, the first end of the first lead coupling with the implantable cardiac rhythm management device and the second end of the first lead coupled with the input of the pump processor; wherein the implantable cardiac rhythm management device is configured to deliver an electrical pace signal through the first lead to the implantable blood pump; and wherein the pump processor of the implantable blood pump is configured to receive the electrical pace signal from the implantable cardiac rhythm management device and to adjust a pumping of the implantable blood pump based on the electrical pace signal.
A glucose test device (1000, 1000A, 1000B), comprising: a housing (1100, 1100a, 1100b); a carrying unit (1200, 1200a, 1200b) detachably assembled in the housing (1100, 1100a, 1100b), the carrying unit (1200, 1200a, 1200b) comprising: a first cartridge (1210, 1210a, 1210b) having a plurality of first perforated grooves; a plurality of lancets slidably disposed in the first perforated grooves respectively; a second cartridge (1230, 1230a, 1230b) adjacent to the first cartridge (1210, 1210a, 1210b), and the second cartridge (1230, 1230a, 1230b) having a plurality of second perforated grooves; and a plurality of strips slidably disposed in the second perforated grooves respectively; a first push rod (1300, 1300a, 1300b) as corresponding to the first cartridge (1210, 1210a, 1210b) being movably disposed in the housing (1100, 1100a, 1100b); and a second push rod (1400, 1400a, 1400b) as corresponding to the second cartridge (1230, 1230a, 1230b) being movably disposed in the housing (1100, 1100a, 1100b), wherein the first push rod (1300, 1300a, 1300b) is parallel to the second push rod (1400, 1400a, 1400b). a housing (1100, 1100a, 1100b); a carrying unit (1200, 1200a, 1200b) detachably assembled in the housing (1100, 1100a, 1100b), the carrying unit (1200, 1200a, 1200b) comprising: a first cartridge (1210, 1210a, 1210b) having a plurality of first perforated grooves; a plurality of lancets slidably disposed in the first perforated grooves respectively; a second cartridge (1230, 1230a, 1230b) adjacent to the first cartridge (1210, 1210a, 1210b), and the second cartridge (1230, 1230a, 1230b) having a plurality of second perforated grooves; and a plurality of strips slidably disposed in the second perforated grooves respectively; a first cartridge (1210, 1210a, 1210b) having a plurality of first perforated grooves; a plurality of lancets slidably disposed in the first perforated grooves respectively; a second cartridge (1230, 1230a, 1230b) adjacent to the first cartridge (1210, 1210a, 1210b), and the second cartridge (1230, 1230a, 1230b) having a plurality of second perforated grooves; and a plurality of strips slidably disposed in the second perforated grooves respectively; a first push rod (1300, 1300a, 1300b) as corresponding to the first cartridge (1210, 1210a, 1210b) being movably disposed in the housing (1100, 1100a, 1100b); and a second push rod (1400, 1400a, 1400b) as corresponding to the second cartridge (1230, 1230a, 1230b) being movably disposed in the housing (1100, 1100a, 1100b), wherein the first push rod (1300, 1300a, 1300b) is parallel to the second push rod (1400, 1400a, 1400b).
A fiber optic connector, comprising: a housing comprising a rear end and a front end with a longitudinal passageway extending from the rear end to the front end, wherein a part of the rear portion of the housing comprises a round cross-section and a part of the front portion of the housing comprises a non-round cross-section (NRCS) with a transition region disposed between the rear portion and the front portion, wherein the transition region comprises a threaded portion and the housing provides a first connector footprint; an O-ring; a ferrule comprising a fiber bore extending from a rear end to a front end; and a conversion housing (80, 82), wherein the conversion housing (80, 82) cooperates with the housing for changing the fiber optic connector from the first connector footprint to a second connector footprint. a housing comprising a rear end and a front end with a longitudinal passageway extending from the rear end to the front end, wherein a part of the rear portion of the housing comprises a round cross-section and a part of the front portion of the housing comprises a non-round cross-section (NRCS) with a transition region disposed between the rear portion and the front portion, wherein the transition region comprises a threaded portion and the housing provides a first connector footprint; an O-ring; a ferrule comprising a fiber bore extending from a rear end to a front end; and a conversion housing (80, 82), wherein the conversion housing (80, 82) cooperates with the housing for changing the fiber optic connector from the first connector footprint to a second connector footprint.
A detector (10, 110) of incident radiation in the infrared region comprising: at least one detector unit cell (12, 112, 212); and a common contact (22, 222) and a contact bump (20, 122, 220) coupled to the at least one unit cell for imposing a bias condition across the unit cell (12, 112, 212); wherein the unit cell (12, 112, 212) comprises: a first semiconductor absorption layer (14, 114, 214) which is either of a n-type or a p-type charge carrier type for outputting a corresponding charge carrier current that is proportional to absorption of energy in a first band when a bias in a first direction is imposed across the unit cell (12, 112, 212); a second semiconductor absorption layer (16, 116, 216) which is of the other of a n-type or a p-type charge carrier type than the first semiconductor absorption layer for outputting a corresponding charge carrier current that is proportional to absorption of energy in a second band when a bias in the first direction is imposed across the unit cell (12, 112, 212); and a barrier layer (24, 124a, 224a) disposed between the first (14, 114, 214) and second (16, 116, 216) semiconductor absorption layers that allows photocurrent from the first semiconductor absorption layer (14, 114, 214) to flow when said bias in the first direction is below a threshold voltage and that allows photocurrent from both the first (14, 114, 214) and second (16, 116, 216) semiconductor absorption layers to flow when said bias in the first direction exceeds the threshold voltage. at least one detector unit cell (12, 112, 212); and a common contact (22, 222) and a contact bump (20, 122, 220) coupled to the at least one unit cell for imposing a bias condition across the unit cell (12, 112, 212); a first semiconductor absorption layer (14, 114, 214) which is either of a n-type or a p-type charge carrier type for outputting a corresponding charge carrier current that is proportional to absorption of energy in a first band when a bias in a first direction is imposed across the unit cell (12, 112, 212); a second semiconductor absorption layer (16, 116, 216) which is of the other of a n-type or a p-type charge carrier type than the first semiconductor absorption layer for outputting a corresponding charge carrier current that is proportional to absorption of energy in a second band when a bias in the first direction is imposed across the unit cell (12, 112, 212); and a barrier layer (24, 124a, 224a) disposed between the first (14, 114, 214) and second (16, 116, 216) semiconductor absorption layers that allows photocurrent from the first semiconductor absorption layer (14, 114, 214) to flow when said bias in the first direction is below a threshold voltage and that allows photocurrent from both the first (14, 114, 214) and second (16, 116, 216) semiconductor absorption layers to flow when said bias in the first direction exceeds the threshold voltage.
Optical detection device for a meter, including a visible consumption indicator formed of a rotating disc provided with what is called an active sector and with optical elements of emitter type and of receiver type facing said disc, the received optical signal of which is processed in order to deduce at least the number of revolutions of said disc, comprising at least two said optical elements (6A, 6B) of one type and at least one said optical element of the other type, said two optical elements of one type (6A, 6B) being elements that emit a light beam, the straight lines linking each trace (S, S) on the disc from these beams to the centre of the disc forming a central angle, called nonzero second angle (α), characterized in that said sector is a reflective sector with a central angle, called first angle (γ), of between 45° and 225°.