mhurhangee/patent-ind-claim-en huggingface dataset:
A gas venting structure for venting gas in an injection mold cavity comprising a body and a porous portion integrated with the body , said body being provided with a plurality of gas venting paths formed therein, each of said plurality of gas venting paths being in communication with the porous portion at its one end, characterized in that said plurality of gas venting paths are open to the outside of the body at the other ends thereof in such a manner that at least two gas venting paths are so constructed as to merge into a single path , and wherein at the communication part between said gas venting paths and said porous portion, a concavity , which is in communication with the plurality of gas venting paths is formed, wherein said body is made of a porous metal denser than the material of said porous portion . a body and a porous portion integrated with the body , said body being provided with a plurality of gas venting paths formed therein, each of said plurality of gas venting paths being in communication with the porous portion at its one end, characterized in that said plurality of gas venting paths are open to the outside of the body at the other ends thereof in such a manner that at least two gas venting paths are so constructed as to merge into a single path , and wherein at the communication part between said gas venting paths and said porous portion, a concavity , which is in communication with the plurality of gas venting paths is formed, wherein said body is made of a porous metal denser than the material of said porous portion .
A contact pressure element suitable for a power module , the power module consists of a molded body having a substantially flat contact surface for contact on a support structure and having a plurality of contact pins projecting from the molded body , wherein the contact pressure element can engage over the molded body of the power module , wherein the contact pressure element can be provided on a side of the power module opposite the contact surface , can be fastened to the support structure of the power module using at least one connecting element , and a contact force can be applied onto the contact surface , characterized in that , per power module , four outer sections shaped like tabs or tongues extend from a center area of the contact pressure element , the outer edge areas of said outer sections can elastically act on edge areas of the power module in the fastened position of the power module and contact pressure element , wherein the outer sections shaped on the contact pressure element are designed as edge strips on two opposite sides of the contact pressure element and extend along an edge area of the power module with contact pins .
Disposable incontinence article in the form of underpants, the article comprising a longitudinal central axis and a transverse central axis for absorbing bodily excretions for preferred use by men, the article comprising a front abdominal portion and a rear back portion spaced apart from one another in a longitudinal direction , which portions are connected to one another by the manufacturer at side seam regions on both sides to form a continuous abdominal and back band in the transverse or hip circumferential direction , which band comprises a hip opening which is closed in the hip circumferential direction , and the article comprising a crotch portion which has an absorption body and extends in a longitudinal direction between the abdominal portion and the back portion and is non-detachably attached to the abdominal portion and the back portion in a relevant overlapping region , wherein the crotch portion , the abdominal portion and the back portion jointly delimit leg openings of the incontinence article and wherein the crotch portion has cuff elements on both sides which form a lateral leakage barrier and run on both sides along a longitudinal extension of the absorption body , which cuff elements are fixed at least along a cuff base line on a side of the incontinence article facing the body and have an unfixed, free longitudinal edge which is elasticated at least partially in the longitudinal direction , with which edge the cuff elements can be raised from the side of the incontinence article facing the body and thus form the relevant lateral leakage barrier and wherein the absorption body is arranged such that a transverse central line of the absorption body is arranged between the transverse central axis of the incontinence article and a hip opening edge of the abdominal portion which delimits the hip opening , and wherein the cuff elements are guided at varying distances from one another between the cuff base lines , and wherein the absorption body extends in the direction of the back portion over the transverse central axis of the incontinence article in the direction of a hip opening edge of the back portion , characterized in that a ratio of a length S2 of the absorption body behind the transverse central axis of the incontinence article , in the direction of the back portion , to a length S1 of the absorption body in front of the transverse central axis of the incontinence article , in the direction of the abdominal portion , is at most 0.30.
A method of inter-layer prediction for scalable video coding, SVC, wherein video data is configured into a Base Layer, BL, and an Enhancement Layer, EL, and wherein EL video data has higher spatial resolution or better quality than BL video data, the method comprising: receiving first data associated with first EL video data of a current EL picture; and applying predictive decoding to the first data based on prediction data, wherein the prediction data includes Inter prediction data; determining a reference picture list comprising one or more reference pictures, wherein the reference picture list includes an inter-layer reference picture, ILRP, corresponding to BL texture frame or up-sampled BL texture frame; and generating the Inter prediction data for the first EL video data based on a block, referred to as candidate block, of a selected one of the one or more reference pictures in the reference picture list, wherein the Inter prediction data comprises a motion vector, MV, for the candidate block, characterized by the method further comprising: clipping the MV for the candidate block to within a range around if the ILRP is selected as the reference picture to generate the Inter prediction data and the MV of the candidate block is not within a range around . receiving first data associated with first EL video data of a current EL picture; and applying predictive decoding to the first data based on prediction data, wherein the prediction data includes Inter prediction data; determining a reference picture list comprising one or more reference pictures, wherein the reference picture list includes an inter-layer reference picture, ILRP, corresponding to BL texture frame or up-sampled BL texture frame; and generating the Inter prediction data for the first EL video data based on a block, referred to as candidate block, of a selected one of the one or more reference pictures in the reference picture list, wherein the Inter prediction data comprises a motion vector, MV, for the candidate block, characterized by the method further comprising: clipping the MV for the candidate block to within a range around if the ILRP is selected as the reference picture to generate the Inter prediction data and the MV of the candidate block is not within a range around .
A system for gas turbine engine motoring, the system comprising: a gas turbine engine comprising a gearbox (124A.124B); a compressed air source ; an air turbine starter coupled to the gearbox of the gas turbine engine; and a starter air valve in fluid communication with the air turbine starter to drive motoring of the gas turbine engine responsive to a regulated pressure from the compressed air source; characterized by a manual override of the starter air valve , the manual override adjustable to one or more predefined intermediate positions that partially open the starter air valve to limit a motoring speed of the gas turbine engine below a resonance speed of a starting spool of the gas turbine engine responsive to the regulated pressure. a gas turbine engine comprising a gearbox (124A.124B); a compressed air source ; an air turbine starter coupled to the gearbox of the gas turbine engine; and a starter air valve in fluid communication with the air turbine starter to drive motoring of the gas turbine engine responsive to a regulated pressure from the compressed air source; characterized by a manual override of the starter air valve , the manual override adjustable to one or more predefined intermediate positions that partially open the starter air valve to limit a motoring speed of the gas turbine engine below a resonance speed of a starting spool of the gas turbine engine responsive to the regulated pressure.
A stable sustained release letrozole composition for intramuscular administration suitable for forming an in situ intramuscular implant comprising from 10 to 500 mg of letrozole and a sterile biodegradable thermoplastic polymer of poly(lactic acid) (PLA), wherein said PLA is milled; and/or wherein said PLA has a particle size mass distribution with not more than 10% above 300 microns, preferably not above 250 microns, when measured by analytical sieving according to USP<786> and/or said PLA has a particle size volume distribution with a D90 not above 330 microns, preferably not above 280 microns when measured by laser diffraction analysis; and/or wherein said PLA has a particle size mass distribution where not more than 80 % of the particles have a particle size below 125 microns, when measured by analytical sieving according to USP<786> and/or said PLA has a particle size volume distribution with a D80 not below 135 microns when measured by laser diffraction analysis; and wherein the release of the active agent from the implant is between 2 and 30 % of the active agent each 28 days, preferably is between 5 and 25 % of the active agent each 28 days; and/or wherein the composition releases from 0.1 to 2 milligrams of letrozole every day, preferably from 0.13 to 0.80 milligrams of letrozole every day.
A driver circuit for a phase-shift keying system, the driver circuit comprising: an input to receive a carrier wave to cause resonance in a Resistor-Inductor-Capacitor (RLC) tank circuit; an amplifier to amplify the carrier wave ; a pulse generator comprising: an input configured to receive a modulation signal; and a zero crossing detection circuit configured to generate a pulse train that includes a pulse at each state change of the modulation signal; a switch coupled to the pulse generator ; a capacitor coupled to the switch in parallel such that when the switch is on, the capacitor is bypassed; and the Resistor-Inductor-Capacitor (RLC) tank circuit coupled to the switch and the capacitor such that the capacitor is connected in series to capacitance of the RLC tank circuit, wherein the switch is configured to be operated by the pulse train such that the resonance frequency of the Resistor-Inductor-Capacitor (RLC) tank circuit is changed for a specific period during a carrier wave cycle to effect a phase change shape between a first phase and a second phase of a current waveform through the Resistor-Inductor-Capacitor (RLC) tank circuit, wherein the value of the capacitor is such that the resonance frequency of the Resistor-Inductor-Capacitor (RLC) tank circuit is doubled for the specific period during the carrier wave cycle. an input to receive a carrier wave to cause resonance in a Resistor-Inductor-Capacitor (RLC) tank circuit; an amplifier to amplify the carrier wave ; a pulse generator comprising: an input configured to receive a modulation signal; and a zero crossing detection circuit configured to generate a pulse train that includes a pulse at each state change of the modulation signal; an input configured to receive a modulation signal; and a zero crossing detection circuit configured to generate a pulse train that includes a pulse at each state change of the modulation signal; a switch coupled to the pulse generator ; a capacitor coupled to the switch in parallel such that when the switch is on, the capacitor is bypassed; and the Resistor-Inductor-Capacitor (RLC) tank circuit coupled to the switch and the capacitor such that the capacitor is connected in series to capacitance of the RLC tank circuit, wherein the switch is configured to be operated by the pulse train such that the resonance frequency of the Resistor-Inductor-Capacitor (RLC) tank circuit is changed for a specific period during a carrier wave cycle to effect a phase change shape between a first phase and a second phase of a current waveform through the Resistor-Inductor-Capacitor (RLC) tank circuit, wherein the value of the capacitor is such that the resonance frequency of the Resistor-Inductor-Capacitor (RLC) tank circuit is doubled for the specific period during the carrier wave cycle.
An actuator assembly comprising: an actuator drive unit (ADU) housing comprising a first ADU track and a ball screw comprising: a first thrust bearing track having a fourth diameter, wherein the first ADU track and the first thrust bearing track form a first thrust bearing raceway in which a first thrust bearing ball is disposed; and a second thrust bearing track having a fifth diameter, wherein the first thrust bearing track and the second thrust bearing track are disposed in a radially inward surface of the ball screw , and characterised by a second ADU track wherein the second ADU track and the second thrust bearing track form a second thrust bearing raceway in which a second thrust bearing ball is disposed, wherein the fourth diameter and the fifth diameter are not equal and wherein the first thrust bearing raceway and the second thrust bearing raceway are adjacent in an axial direction. an actuator drive unit (ADU) housing comprising a first ADU track and a ball screw comprising: a first thrust bearing track having a fourth diameter, wherein the first ADU track and the first thrust bearing track form a first thrust bearing raceway in which a first thrust bearing ball is disposed; and a second thrust bearing track having a fifth diameter, a first thrust bearing track having a fourth diameter, wherein the first ADU track and the first thrust bearing track form a first thrust bearing raceway in which a first thrust bearing ball is disposed; and a second thrust bearing track having a fifth diameter, wherein the first thrust bearing track and the second thrust bearing track are disposed in a radially inward surface of the ball screw , and characterised by a second ADU track wherein the second ADU track and the second thrust bearing track form a second thrust bearing raceway in which a second thrust bearing ball is disposed, wherein the fourth diameter and the fifth diameter are not equal and wherein the first thrust bearing raceway and the second thrust bearing raceway are adjacent in an axial direction.
A radiation detector configured to sense radiation, the detector comprising a plurality of image pixels that each include a plurality of counting pixels, wherein, each of said plurality of counting pixels comprises: a radiation absorption layer for converting incident photons into an electrical signal; and a photon processor for counting a number of the photons, based on the electrical signal transferred from the radiation absorption layer, and wherein each of the plurality of image pixels is a pixel for calculating one pixel value included in the image, based on number of photons counted by the plurality of counting pixels, CHARACTERISED IN THAT the photon processor is configured to store, in a counting memory, the number of the counted photons, and to separately perform photon counting operation and photon number storing operation for each counting pixel of the plurality of counting pixels. a radiation absorption layer for converting incident photons into an electrical signal; and a photon processor for counting a number of the photons, based on the electrical signal transferred from the radiation absorption layer, and wherein each of the plurality of image pixels is a pixel for calculating one pixel value included in the image, based on number of photons counted by the plurality of counting pixels, CHARACTERISED IN THAT the photon processor is configured to store, in a counting memory, the number of the counted photons, and to separately perform photon counting operation and photon number storing operation for each counting pixel of the plurality of counting pixels.
A genome analysis device configured to analyze genome data including information on a large quantity of fragmented genome base sequences outputted from a next generation sequencer, and transmit output data concerning the genome data in response to an output request from a client device connected via a network , the genome analysis device comprising: a processing unit for calculating coverage of fragmented genome base sequences, outputted from a next generation sequencer, in a bin size of 1, followed by repeatedly multiplying the bin size by N, wherein N is an integer equal to or greater than two, and calculating coverage of the fragmented genome base sequences in the multiplied bin size, wherein the bin size refers to a unit number of bases for which calculation of coverage is to be made, and wherein the coverage in the multiplied bin size is calculated by calculating a mean value of coverage from the number of bases corresponding to the multiplied bin size; a storage unit comprising a coverage database for storing the calculated coverages, for the genome data; a request receiving unit for receiving an output request from the client device ; and an output data generating unit for selecting coverage of a bin size corresponding to the output request from the calculated coverages stored in the coverage database when the request receiving unit receives the output request, and generating output data based on the selected coverage. a processing unit for calculating coverage of fragmented genome base sequences, outputted from a next generation sequencer, in a bin size of 1, followed by repeatedly multiplying the bin size by N, wherein N is an integer equal to or greater than two, and calculating coverage of the fragmented genome base sequences in the multiplied bin size, wherein the bin size refers to a unit number of bases for which calculation of coverage is to be made, and wherein the coverage in the multiplied bin size is calculated by calculating a mean value of coverage from the number of bases corresponding to the multiplied bin size; a storage unit comprising a coverage database for storing the calculated coverages, for the genome data; a request receiving unit for receiving an output request from the client device ; and an output data generating unit for selecting coverage of a bin size corresponding to the output request from the calculated coverages stored in the coverage database when the request receiving unit receives the output request, and generating output data based on the selected coverage.
A method of recovering a target metal from a pregnant aqueous solution containing dissolved target metal, the method comprising: a) a dissolution step comprising dissolving the target metal from a solid feedstock material with a lixiviant to form a pregnant aqueous solution containing the target metal ions; b) a biosorption step comprising contacting a microorganism with the pregnant aqueous solution such that at least a portion of the dissolved target metal biosorb to the microorganism, wherein the microorganism becomes metal laden and the pregnant aqueous solution becomes a barren solution; c) a separating step comprising substantially separating the metal laden microorganism from the barren solution; and d) a recovery step comprising recovery of the target metal from the metal laden microorganism; wherein the concentration factor of the target metal from the pregnant aqueous solution to the microorganism is greater than 5; wherein the target metal is gold and the lixiviant solution is a halogen-based solution. a) a dissolution step comprising dissolving the target metal from a solid feedstock material with a lixiviant to form a pregnant aqueous solution containing the target metal ions; b) a biosorption step comprising contacting a microorganism with the pregnant aqueous solution such that at least a portion of the dissolved target metal biosorb to the microorganism, wherein the microorganism becomes metal laden and the pregnant aqueous solution becomes a barren solution; c) a separating step comprising substantially separating the metal laden microorganism from the barren solution; and d) a recovery step comprising recovery of the target metal from the metal laden microorganism; wherein the concentration factor of the target metal from the pregnant aqueous solution to the microorganism is greater than 5; wherein the target metal is gold and the lixiviant solution is a halogen-based solution.
A terminal apparatus comprising: a reception unit configured to receive a Physical Downlink Control Channel, PDCCH; and a Medium Access Control, MAC, layer processing unit configured to trigger a first confirmation in a case that downlink control information included in the PDCCH indicates release of unicast transmissions in a primary cell, trigger a second confirmation in a case that the downlink control information included in the PDCCH indicates release of unicast transmissions in a Licensed Assisted Access, LAA, secondary cell, at least based on that the first confirmation has been triggered and not cancelled, generate a first confirmation MAC Control Element, CE, corresponding to a first Logical Channel Identity, LCID, and cancel the first confirmation, at least based on that the second confirmation has been triggered and not cancelled, generate a second confirmation MAC CE corresponding to a second LCID which is different from the first LCID and cancel the second confirmation, and generate a MAC Protocol Data Unit including the first confirmation MAC CE and/or the second confirmation MAC CE, wherein a size of the first confirmation MAC CE is 0 bits, a size of the second MAC CE is larger than 0 bits, and the first confirmation MAC CE is identified by a MAC subheader with the first LCID. a reception unit configured to receive a Physical Downlink Control Channel, PDCCH; and a Medium Access Control, MAC, layer processing unit configured to trigger a first confirmation in a case that downlink control information included in the PDCCH indicates release of unicast transmissions in a primary cell, trigger a second confirmation in a case that the downlink control information included in the PDCCH indicates release of unicast transmissions in a Licensed Assisted Access, LAA, secondary cell, at least based on that the first confirmation has been triggered and not cancelled, generate a first confirmation MAC Control Element, CE, corresponding to a first Logical Channel Identity, LCID, and cancel the first confirmation, at least based on that the second confirmation has been triggered and not cancelled, generate a second confirmation MAC CE corresponding to a second LCID which is different from the first LCID and cancel the second confirmation, and generate a MAC Protocol Data Unit including the first confirmation MAC CE and/or the second confirmation MAC CE, wherein a size of the first confirmation MAC CE is 0 bits, a size of the second MAC CE is larger than 0 bits, and the first confirmation MAC CE is identified by a MAC subheader with the first LCID.