mhurhangee/patent-ind-claim-en huggingface dataset:
One or more computer storage media having computer-executable instructions embodied thereon which, when executed by an existing user device , cause said existing user device to perform the steps of a method for configuring a peer group, wherein the existing user device resides on the peer group, the peer group resides on a subnetwork that is a home location of the existing user device , and a new user device is located on the subnetwork and has designated the subnetwork as its home location, the method comprising: sending a request to join the peer group to the new user device; challenging the new user device for a passkey; receiving the passkey from the new user device; determining whether the received passkey is correct; and if the passkey received from the new user device is correct, allowing the new user device to join the peer group. sending a request to join the peer group to the new user device; challenging the new user device for a passkey; receiving the passkey from the new user device; determining whether the received passkey is correct; and if the passkey received from the new user device is correct, allowing the new user device to join the peer group.
A process for preparing a pullulan hard capsule having improved film properties comprising the steps of : i) sequentially adding and solubilizing 0.01-0.2 wt part of propylene glycol as plasticizing agent, 0.001-0.02 wt part of polyglycerin fatty acid ester as emulsifying agent, 0.01-0.2 wt part of colloidal silica as viscosity stabilizer, and 18-22 wt part of pullulan to the 80 wt part of purified water at 77-83 °C; ii) sequentially adding and solubilizing 0.3-1.0 wt part of iota-carrageenan as gelling agent, 0.03-0.3 wt part of potassium carbonate and 0.05-0.3 wt part of magnesium chloride as auxiliary gelling agent; and 0.001-0.05 wt part of glacial acetic acid as a pH neutralizing agent to the resulting admixture, after cooling the obtained mixture in step i) at 57-63 °C; iii) transferring the resulting admixture to the dipping pan at 57-63 °C after adjusting the viscosity of the mixture obtained in step ii) to be 0.7-1.5 Pa·s at 57°C, forming a pullulan hard capsule using mold pin, and cooling and drying a pullulan hard capsule using 15-35°C air for 40-70 minutes wherein said forming step comprises a) adjusting the temperature of mold pin to 20-25°C, b) dipping the mold pin into the dipping pan at constant velocity, and c) withdrawing the mold pin from the dipping pan at accelerated velocity and subsequently at reduced velocity for 16-18 seconds. i) sequentially adding and solubilizing 0.01-0.2 wt part of propylene glycol as plasticizing agent, 0.001-0.02 wt part of polyglycerin fatty acid ester as emulsifying agent, 0.01-0.2 wt part of colloidal silica as viscosity stabilizer, and 18-22 wt part of pullulan to the 80 wt part of purified water at 77-83 °C; ii) sequentially adding and solubilizing 0.3-1.0 wt part of iota-carrageenan as gelling agent, 0.03-0.3 wt part of potassium carbonate and 0.05-0.3 wt part of magnesium chloride as auxiliary gelling agent; and 0.001-0.05 wt part of glacial acetic acid as a pH neutralizing agent to the resulting admixture, after cooling the obtained mixture in step i) at 57-63 °C; iii) transferring the resulting admixture to the dipping pan at 57-63 °C after adjusting the viscosity of the mixture obtained in step ii) to be 0.7-1.5 Pa·s at 57°C, forming a pullulan hard capsule using mold pin, and cooling and drying a pullulan hard capsule using 15-35°C air for 40-70 minutes
Field emission propulsion system for a spacecraft, comprising: - a control unit ; - a propulsion assembly having a plurality of field emission propulsion units comprising an ion source having a plurality of ion emitters and extractor electrodes associated with the ion emitters and arranged in a field arrangement; - a plurality of extractor electrode voltage sources , which are each assigned to the extractor electrodes , in order to control them by the control unit with an individual extractor electrode voltage. - a control unit ; - a propulsion assembly having a plurality of field emission propulsion units comprising an ion source having a plurality of ion emitters and extractor electrodes associated with the ion emitters and arranged in a field arrangement; - a plurality of extractor electrode voltage sources , which are each assigned to the extractor electrodes , in order to control them by the control unit with an individual extractor electrode voltage.
Method for capturing a calibration object using an optical sensor device , which is a confocal or chromatic-confocal optical sensor device, wherein the sensor device is configured to emit electromagnetic radiation at at least one wavelength and focus said radiation on a focus position along a sensor axis (L), wherein the method comprises: - radiating electromagnetic radiation along the sensor axis (L) onto a curved surface of the calibration object and capturing radiation reflected off the curved surface of the calibration object , the curved surface being an outer surface of the calibration object and the calibration object being non-transparent to the radiation, - moving the sensor device and the calibration object relative to each other while monitoring the measurement signals created by the sensor device until the focus position is arranged at a distance from the curved surface and a target state is reached, in which a capturable reflected radiation power of the wavelength of the electromagnetic radiation associated with the focus position fulfils a predetermined condition. wherein the sensor device is configured to emit electromagnetic radiation at at least one wavelength and focus said radiation on a focus position along a sensor axis (L), wherein the method comprises: - radiating electromagnetic radiation along the sensor axis (L) onto a curved surface of the calibration object and capturing radiation reflected off the curved surface of the calibration object , the curved surface being an outer surface of the calibration object and the calibration object being non-transparent to the radiation, - moving the sensor device and the calibration object relative to each other while monitoring the measurement signals created by the sensor device until the focus position is arranged at a distance from the curved surface and a target state is reached, in which a capturable reflected radiation power of the wavelength of the electromagnetic radiation associated with the focus position fulfils a predetermined condition. - radiating electromagnetic radiation along the sensor axis (L) onto a curved surface of the calibration object and capturing radiation reflected off the curved surface of the calibration object , the curved surface being an outer surface of the calibration object and the calibration object being non-transparent to the radiation, - moving the sensor device and the calibration object relative to each other while monitoring the measurement signals created by the sensor device until the focus position is arranged at a distance from the curved surface and a target state is reached, in which a capturable reflected radiation power of the wavelength of the electromagnetic radiation associated with the focus position fulfils a predetermined condition.
An electric grill with two grill plates , which lie opposite of one another referred to their large plate surfaces and jointly define a grilling space , wherein the grill comprises a first grill plate for supporting grillables and a second grill plate that can be displaced relative to the first grill plate , wherein a plate base that holds the grill plate is assigned to each grill plate , and wherein at least one grill plate comprises at least one plate segment (9 to 16), which is displaceably held on the plate base and can be automatically displaced relative to the plate base holding this plate segment (9 to 16) in dependence on a size and/or shape of a grillable introduced into the grilling space , characterized in that the grill plate comprises multiple plate segments (9 to 16), which can be displaced relative to one another and relative to the respectively associated plate base .
Microwave oscillator using integrated circuit technology, the oscillator comprising a microwave output (Sf) providing an oscillation frequency F out as a function of a control signal Vt, the change in the frequency F out of the oscillator being achieved as a result of variation of the control voltage Vt applied to a varactor of the oscillator (VCO), characterised in that the oscillation frequency F out can be modulated around a central frequency Fc via two oscillator control inputs, the oscillator comprising a first control input Ec1 driven by a first control signal Vt1 fixing the central frequency Fc of the oscillator and a second control input Ec2 driven by a second control signal Vt2 allowing for the linear modulation of this central frequency Fc, the control signal Vt of the oscillator being a function of the two control signals Vt1 and Vt2, the control signal Vt applied to the varactor of the oscillator resulting in the sum: Vt = Vt 1 − k . Vt 2 k being a parameter between 0 and 1 selected based on the application, k being a function of the second signal Vt2, expressed by k(Vt2), the control signal Vt then being: Vt = Vt 1 − F Vt 2 with F(Vt2) = k(Vt2).Vt2 the function F generating from the second control voltage Vt2 the voltage F(Vt2) = k(Vt2).Vt2.
A catheter comprising a jacket defining a lumen and comprising an inner liner and an outer tubular layer with a helical support in jacket material along at least some of its length, the catheter comprising at least a proximal portion and a distal portion , said distal portion having a corrugated outer surface with corrugations in the outer surface of the outer tubular layer and the helical support is encapsulated between said corrugations and the outside of the inner liner; wherein the inner liner defines said lumen, and the inner liner extends between the distal portion and the proximal portion; wherein the inner liner comprises an ePTFE tubular layer in the distal portion and a PTFE tubular layer in the proximal portion, and a transition wherein said inner liner tubular layers are in contact without overlap or are in contact by a lap joint in which the tubular layers are concentric. wherein the inner liner defines said lumen, and the inner liner extends between the distal portion and the proximal portion; wherein the inner liner comprises an ePTFE tubular layer in the distal portion and a PTFE tubular layer in the proximal portion, and a transition wherein said inner liner tubular layers are in contact without overlap or are in contact by a lap joint in which the tubular layers are concentric.
A sealable, capless fuel-tank filler system bottle , comprising: a bottle that includes: a storage portion defining an interior volume to retain a liquid therein; a pouring spout extending from the storage portion and defining a throat in fluid communication with the interior volume of the storage portion , the pouring spout defining an opening connected to the throat for discharging the liquid, the pouring spout including an external coupling mechanism to secure a cap thereon, characterised in that the pouring spout defines a clearance feature on the exterior of the pouring spout that interrupts the coupling mechanism , the clearance feature forming a flattened surface proximal to the bottle opening and extending through the coupling mechanism , the clearance feature being sufficiently smoother than the external coupling mechanism to avoid catching on an interior protrusion within a fuel-tank filler neck. a storage portion defining an interior volume to retain a liquid therein; a pouring spout extending from the storage portion and defining a throat in fluid communication with the interior volume of the storage portion , the pouring spout defining an opening connected to the throat for discharging the liquid, the pouring spout including an external coupling mechanism to secure a cap thereon, characterised in that the pouring spout defines a clearance feature on the exterior of the pouring spout that interrupts the coupling mechanism , the clearance feature forming a flattened surface proximal to the bottle opening and extending through the coupling mechanism , the clearance feature being sufficiently smoother than the external coupling mechanism to avoid catching on an interior protrusion within a fuel-tank filler neck.
A nonwoven material for use with an antimicrobial agent, the nonwoven material comprising a nonwoven fibrous substrate comprising cellulosic fibers and continuous synthetic filaments, said substrate treated with - a polyvinylamine polymer PVAm and - a poly(amideamine-epichlorohydrin) polymer PAE, wherein the two polymers are used at a ratio from 8:1 to 3:1 of PVAm to PAE forming covalent bonding resulting in a three dimensional crosslinked network structure with the said nonwoven fibrous substrate, the nonwoven material further comprising a quaternary ammonium antimicrobial agent. - a polyvinylamine polymer PVAm and - a poly(amideamine-epichlorohydrin) polymer PAE, wherein the two polymers are used at a ratio from 8:1 to 3:1 of PVAm to PAE forming covalent bonding resulting in a three dimensional crosslinked network structure with the said nonwoven fibrous substrate, the nonwoven material further comprising a quaternary ammonium antimicrobial agent.
A method performed by a wireless communication device, the method comprising: obtaining, by a media access control, MAC, layer module of the wireless communication device, an indication from a physical layer module of the wireless communication device, wherein the indication indicates a transmission failure of the wireless communication device at a physical layer, the transmission failure being due to a listen-before-talk, LBT, failure in unlicensed spectrum; starting, in response to the indication, a timer at a MAC layer; incrementing, in response to the indication, a counter at the MAC layer by one; determining that the counter has reached a predetermined threshold; and indicating a MAC layer transmission failure to a radio resource control, RRC, layer of the wireless communication device, further comprising: resetting the counter at the MAC layer in response to an expiration of the timer; and restarting, in response to another indication indicating a transmission failure of the wireless communication device at the physical layer due to an LBT failure in unlicensed spectrum, the timer at the MAC layer. obtaining, by a media access control, MAC, layer module of the wireless communication device, an indication from a physical layer module of the wireless communication device, wherein the indication indicates a transmission failure of the wireless communication device at a physical layer, the transmission failure being due to a listen-before-talk, LBT, failure in unlicensed spectrum; starting, in response to the indication, a timer at a MAC layer; incrementing, in response to the indication, a counter at the MAC layer by one; determining that the counter has reached a predetermined threshold; and indicating a MAC layer transmission failure to a radio resource control, RRC, layer of the wireless communication device, further comprising: resetting the counter at the MAC layer in response to an expiration of the timer; and restarting, in response to another indication indicating a transmission failure of the wireless communication device at the physical layer due to an LBT failure in unlicensed spectrum, the timer at the MAC layer. resetting the counter at the MAC layer in response to an expiration of the timer; and restarting, in response to another indication indicating a transmission failure of the wireless communication device at the physical layer due to an LBT failure in unlicensed spectrum, the timer at the MAC layer.
A wireless communication device for avoiding an influence of an electric oven operating with a commercial power supply, the wireless communication device comprising: a transmission data generator for generating a transmission data; a modulator for generating modulated signal according to the transmission signal, the transmission comprising a plurality of slots generated by the transmission data generator ; a high frequency processor for converting the modulated signal to a high frequency signal and for converting a received high frequency signal to a modulated signal; demodulator for demodulating the received modulated signal; a data analyzer for analyzing the demodulated signal; a controller for controlling the modulator , the demodulator and the data analyzer ; and an antenna for transmitting and receiving the high frequency signal, characterized in that the transmission data generator is configured to generate a plurality of slots, each of the plurality of slots including a predetermined number of subslots, after dividing the transmission data into the plurality of subslots, a sequence of the subslots included in each of the plurality of slots is constant, and the time length T 2 of each of the plurality of slots is T 2 = T 0 / 2 + T 1 or T 2 = T 0 / 2 − T 1 , where T 1 is a time length of each of the subslots and the T 0 is a period of the commercial AC power supply T 1 of each of the plurality of subslots is equal to or smaller than an oscillator stopping time which is determined on the basis of a change in voltage of the commercial power supply, and the transmission data in the plurality of slots is the same. a transmission data generator for generating a transmission data; a modulator for generating modulated signal according to the transmission signal, the transmission comprising a plurality of slots generated by the transmission data generator ; a high frequency processor for converting the modulated signal to a high frequency signal and for converting a received high frequency signal to a modulated signal; demodulator for demodulating the received modulated signal; a data analyzer for analyzing the demodulated signal; a controller for controlling the modulator , the demodulator and the data analyzer ; and an antenna for transmitting and receiving the high frequency signal, characterized in that the transmission data generator is configured to generate a plurality of slots, each of the plurality of slots including a predetermined number of subslots, after dividing the transmission data into the plurality of subslots, a sequence of the subslots included in each of the plurality of slots is constant, and the time length T 2 of each of the plurality of slots is T 2 = T 0 / 2 + T 1 or T 2 = T 0 / 2 − T 1 , where T 1 is a time length of each of the subslots and the T 0 is a period of the commercial AC power supply T 1 of each of the plurality of subslots is equal to or smaller than an oscillator stopping time which is determined on the basis of a change in voltage of the commercial power supply, and the transmission data in the plurality of slots is the same.
A method performed by a User Equipment, UE, configured to use Physical Uplink Control Channel, PUCCH, format 3 for transmitting Acknowledgement/Negative Acknowledgement, ACK/NACK, information in a wireless communication system supporting Long Term Evolution, LTE, system, the method comprising: determining whether transmission of ACK/NACK information for a downlink transmission in a downlink subframe set including M downlink subframes is configured in one uplink subframe for transmission of a scheduling request for uplink resources, where M≥1; transmitting the ACK/NACK information and the scheduling request in the one uplink subframe, when the transmission of the ACK/NACK information is configured in the one uplink subframe, wherein the ACK/NACK information and the scheduling request are transmitted based on PUCCH format 1b if one of conditions for PUCCH format 1b is satisfied, and wherein the ACK/NACK information and the scheduling request are transmitted based on PUCCH format 3 unless one of the conditions is satisfied, wherein the conditions include: - one Physical Downlink Control Channel, PDCCH, indicating Semi-Persistent Scheduling, SPS, release with bit values of a Downlink Assignment Index, DAI, equal to '00', - one Physical Downlink Shared Channel, PDSCH, received only on a Primary Cell, PCell, and indicated by a corresponding PDCCH with bit values of a DAI equal to '00', or - one PDSCH without a corresponding PDCCH received on the PCell. determining whether transmission of ACK/NACK information for a downlink transmission in a downlink subframe set including M downlink subframes is configured in one uplink subframe for transmission of a scheduling request for uplink resources, where M≥1; transmitting the ACK/NACK information and the scheduling request in the one uplink subframe, when the transmission of the ACK/NACK information is configured in the one uplink subframe, wherein the ACK/NACK information and the scheduling request are transmitted based on PUCCH format 1b if one of conditions for PUCCH format 1b is satisfied, and wherein the ACK/NACK information and the scheduling request are transmitted based on PUCCH format 3 unless one of the conditions is satisfied, wherein the conditions include: - one Physical Downlink Control Channel, PDCCH, indicating Semi-Persistent Scheduling, SPS, release with bit values of a Downlink Assignment Index, DAI, equal to '00', - one Physical Downlink Shared Channel, PDSCH, received only on a Primary Cell, PCell, and indicated by a corresponding PDCCH with bit values of a DAI equal to '00', or - one PDSCH without a corresponding PDCCH received on the PCell. - one Physical Downlink Control Channel, PDCCH, indicating Semi-Persistent Scheduling, SPS, release with bit values of a Downlink Assignment Index, DAI, equal to '00', - one Physical Downlink Shared Channel, PDSCH, received only on a Primary Cell, PCell, and indicated by a corresponding PDCCH with bit values of a DAI equal to '00', or - one PDSCH without a corresponding PDCCH received on the PCell.
An ultra high-strength and high-ductility steel sheet having an excellent yield ratio, comprising, by weight percentage (wt%), carbon (C) : 0.4% to 0.9%, silicon (Si) : 0.1% to 2.0%, manganese (Mn) : 10% to 25%, phosphorus (P) : 0.05% or less, excluding 0%, sulfur (S) : 0.02% or less, excluding 0%, aluminum (Al): 4% or less and excluding 0%, vanadium (V): 0.7% or less and excluding 0% molybdenum (Mo) : 0.5% or less and excluding 0%, nitrogen (N): 0.02% or less, excluding 0%, a remainder of iron (Fe) and unavoidable impurities, optionally further comprising, by weight percentage (wt%), at least one selected from titanium (Ti) : 0.005% to 0.1%, niobium (Nb) : 0.005% to 0.1%, and tungsten (W) : 0.005 to 0.5%, optionally further comprising, by weight percentage (wt%), at least one selected from nickel (Ni): 1% or less, excluding 0%, copper (Cu): 0.5% or less, excluding 0%, and chromium (Cr) : 1% or less, excluding 0%, wherein, when the X value represented by the following Relationship 1 is 40 or more, a microstructure is composed of stable austenite single phase; when the X value is less than 40, a microstructure is composed of metastable austenite having an area fraction of 50% or more, including 100% and ferrite phase, wherein the metastable austenite phase is a structure in which phase transformation into a hard phase such as α'-martensite or ε'-martensite occurs with respect to external deformation, wherein the steel sheet has a tensile strength of 1400MPa or more, the product of the tensile strength and the elongation of 25,000 MPa% or more, and yield ratio of 0.65 or more, X = 80 × C + 0.5 × Mn − 0.2 × Si − 0.4 × Al − 21 where, C, Mn, Si, and Al refer to the content by weight of each corresponding element.
Therapeutic vaccine for use in the treatment of diabetes type 1 in children characterised in that it contains: - Treg cells CD3(+)CD4(+)CD25(high)CD127(-) - Treg cells CD3(+)CD4(+)CD25(high)CD127(-)