mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communications in a time division duplex, TDD, long term evolution, LTE, based network, comprising: determining a location of a reference subframe based on an aperiodic channel state information, A-CSI, report uplink subframe, an A-CSI request downlink subframe, a reference delay, and a report delay, wherein the reference delay is a first delay value before the A-CSI report uplink subframe, and wherein the report delay is a second delay value between the A-CSI request downlink subframe and the A-CSI report uplink subframe; wherein the reference subframe is located four subframes prior to the A-CSI report uplink subframe when the report delay is greater than four subframes and a subframe located four subframes prior to the A-CSI report uplink subframe is a downlink subframe; determining a type of the reference subframe based on the location of the reference subframe and a subframe configuration, the type of the reference subframe being a flexible subframe or a fixed subframe; measuring at least one of a channel or interference based on the reference subframe and the type of the reference subframe; and sending , at the A-CSI report uplink subframe, an A-CSI report based on the at least one of the channel or the interference. determining a location of a reference subframe based on an aperiodic channel state information, A-CSI, report uplink subframe, an A-CSI request downlink subframe, a reference delay, and a report delay, wherein the reference delay is a first delay value before the A-CSI report uplink subframe, and wherein the report delay is a second delay value between the A-CSI request downlink subframe and the A-CSI report uplink subframe; wherein the reference subframe is located four subframes prior to the A-CSI report uplink subframe when the report delay is greater than four subframes and a subframe located four subframes prior to the A-CSI report uplink subframe is a downlink subframe; determining a type of the reference subframe based on the location of the reference subframe and a subframe configuration, the type of the reference subframe being a flexible subframe or a fixed subframe; measuring at least one of a channel or interference based on the reference subframe and the type of the reference subframe; and sending , at the A-CSI report uplink subframe, an A-CSI report based on the at least one of the channel or the interference.
A powder material (P) comprising metal particles (P1) comprising an iron alloy and having an average particle diameter, d50, of 10 μm or larger and 500 μm or smaller, and nanoparticles (P2) that comprise a metal or a metal compound and that have undergone no surface treatment with an organic substance, the nanoparticles (P2) constitute fused-bodies in each of which a plurality of nanoparticles (P2) is fusion-bonded to each other, characterized in that the fused-bodies have a dendritic structure. metal particles (P1) comprising an iron alloy and having an average particle diameter, d50, of 10 μm or larger and 500 μm or smaller, and nanoparticles (P2) that comprise a metal or a metal compound and that have undergone no surface treatment with an organic substance, the nanoparticles (P2) constitute fused-bodies in each of which a plurality of nanoparticles (P2) is fusion-bonded to each other, characterized in that the fused-bodies have a dendritic structure.
A bolt having a composition comprising: 0.50 mass % or greater and 0.65 mass % or less of a carbon (C), 1.5 mass % or greater and 2.5 mass % or less of a silicon (Si), 1.0 mass % or greater and 2.0 mass % or less of a chromium (Cr), 0.2 mass % or greater and 1.0 mass % or less of a manganese (Mn), 1.5 mass % or greater and 5.0 mass % or less of a molybdenum (Mo), wherein a total amount of a phosphorous (P) and a sulfur (S) as impurities is 0.03 mass % or less, a remaining is an iron (Fe), and the bolt comprises an iron based oxide film with a film thickness of 3 μm or greater and 20 μm or less on a surface thereof, wherein the iron based oxide film contains Fe 3 O 4 in a greater amount on a surface side of the bolt than on a bolt base material side of the bolt and contains Fe 2 SiO 4 in a greater amount on the bolt base material side of the bolt than on the surface side of the bolt. 0.50 mass % or greater and 0.65 mass % or less of a carbon (C), 1.5 mass % or greater and 2.5 mass % or less of a silicon (Si), 1.0 mass % or greater and 2.0 mass % or less of a chromium (Cr), 0.2 mass % or greater and 1.0 mass % or less of a manganese (Mn), 1.5 mass % or greater and 5.0 mass % or less of a molybdenum (Mo),
A composition comprising zonisamide, or a salt or sustained release formulation thereof, for use in the treatment of Alzheimer's disease.
A cryogenic physical therapy cabin , comprising: a cabin body ; a cabin door , which is hinged with the cabin body to form at least one sauna room; a refrigeration module, which comprises an evaporator arranged on an inner wall of the cabin body ; an air outlet module, which is arranged on the cabin body and comprises fan blades and a fan electrically connected to the fan blades , wherein the fan is configured to drive the fan blades to rotate to generate a circulating airflow inside the sauna room; and a main control module, which comprises a controller electrically connected to the fan and the refrigeration module, wherein the controller is configured to receive a user adjustment instruction and adjust operation states of the air outlet module and the refrigeration module according to the user adjustment instruction, characterized in that the cabin door further comprises a glass window structure , which comprises at least two pieces of glass fixedly connected and arranged in parallel with each other, wherein there is an air gap between adjacent two pieces of glass , and an electric heater is arranged on a first glass in the at least two pieces of glass close to the sauna room; and the controller is electrically connected to the electric heater, and is configured to control an operation state of the electric heater. a cabin body ; a cabin door , which is hinged with the cabin body to form at least one sauna room; a refrigeration module, which comprises an evaporator arranged on an inner wall of the cabin body ; an air outlet module, which is arranged on the cabin body and comprises fan blades and a fan electrically connected to the fan blades , wherein the fan is configured to drive the fan blades to rotate to generate a circulating airflow inside the sauna room; and a main control module, which comprises a controller electrically connected to the fan and the refrigeration module, wherein the controller is configured to receive a user adjustment instruction and adjust operation states of the air outlet module and the refrigeration module according to the user adjustment instruction, characterized in that the cabin door further comprises a glass window structure , which comprises at least two pieces of glass fixedly connected and arranged in parallel with each other, wherein there is an air gap between adjacent two pieces of glass , and an electric heater is arranged on a first glass in the at least two pieces of glass close to the sauna room; and the controller is electrically connected to the electric heater, and is configured to control an operation state of the electric heater.
An article, comprising: a ceramic substrate, and a thermal barrier coating covering a surface of the ceramic substrate, the thermal barrier coating having: a void volume fraction of at least 60% and a major part of the void volume being closed porosity, the thermal barrier coating comprising, as a major component, a plurality of hollow particles sintered together, each of the plurality of hollow particles comprising, as a major component, a first material, wherein the first material is selected from rare earth silicates, each of the plurality of hollow particles having: a maximum interior dimension less than 1 millimeter (mm) and greater than 5 micrometers, and a maximum wall thickness less than 1/10 of the maximum interior dimension; characterized in that the article further comprises a capping layer covering a portion of a surface of the thermal barrier coating, the capping layer having a porosity less than 10% and a thickness less than 1/10 of the thickness of the thermal barrier coating, wherein the capping layer includes or consists of the same material as the hollow particles . a ceramic substrate, and a thermal barrier coating covering a surface of the ceramic substrate, the thermal barrier coating having: a void volume fraction of at least 60% and a major part of the void volume being closed porosity, a void volume fraction of at least 60% and a major part of the void volume being closed porosity, the thermal barrier coating comprising, as a major component, a plurality of hollow particles sintered together, each of the plurality of hollow particles comprising, as a major component, a first material, wherein the first material is selected from rare earth silicates, each of the plurality of hollow particles having: a maximum interior dimension less than 1 millimeter (mm) and greater than 5 micrometers, and a maximum wall thickness less than 1/10 of the maximum interior dimension; a maximum interior dimension less than 1 millimeter (mm) and greater than 5 micrometers, and a maximum wall thickness less than 1/10 of the maximum interior dimension; characterized in that the article further comprises a capping layer covering a portion of a surface of the thermal barrier coating, the capping layer having a porosity less than 10% and a thickness less than 1/10 of the thickness of the thermal barrier coating, wherein the capping layer includes or consists of the same material as the hollow particles .
A land vehicle comprising: - a first interior compartment , said first compartment comprising a first floor ; - a substantially vertical wall delimiting said first interior compartment; - an opening in said wall; and - a door capable of reversibly closing the opening; the door comprising: a vertical panel that is movable relative to the wall; and a mechanical device for moving the panel; the mechanical device comprising a main actuator , configured so that pressure exerted on said main actuator triggers movement of the panel relative to the wall; the land vehicle being characterised in that the main actuator comprises a first pedal assembled to a first face of the door panel, the said first pedal being movable in rotation relative to the panel along a first horizontal axis , said first axis being located at a first vertical distance from the first floor of less than or equal to 30 cm, preferably less than or equal to 10 cm. - a first interior compartment , said first compartment comprising a first floor ; - a substantially vertical wall delimiting said first interior compartment; - an opening in said wall; and - a door capable of reversibly closing the opening; the door comprising: a vertical panel that is movable relative to the wall; and a mechanical device for moving the panel; the mechanical device comprising a main actuator , configured so that pressure exerted on said main actuator triggers movement of the panel relative to the wall; the land vehicle being characterised in that the main actuator comprises a first pedal assembled to a first face of the door panel, the said first pedal being movable in rotation relative to the panel along a first horizontal axis , said first axis being located at a first vertical distance from the first floor of less than or equal to 30 cm, preferably less than or equal to 10 cm. the door comprising: a vertical panel that is movable relative to the wall; and a mechanical device for moving the panel; the mechanical device comprising a main actuator , configured so that pressure exerted on said main actuator triggers movement of the panel relative to the wall; the land vehicle being characterised in that the main actuator comprises a first pedal assembled to a first face of the door panel, the said first pedal being movable in rotation relative to the panel along a first horizontal axis , said first axis being located at a first vertical distance from the first floor of less than or equal to 30 cm, preferably less than or equal to 10 cm.
Device for rolling up a dough piece on a separator sheet, comprising - a receptacle for receiving the dough sheet - a rolling chamber for receiving a flat separator sheet with a dough piece on top, and configured for rolling up the separator sheet and the dough piece , wherein the chamber comprises: - a controllable release opening for controlled transfer of the rolled up sheet with the dough piece to a receptacle , characterized by : - at least one sensor for determining directly or indirectly a closure position and/or end of the separator sheet and providing a signal representing said position, - a controller for controlling the controllable release opening based on the signal from the sensor; and - the receptacle for receiving the dough sheet being configured for holding the dough piece in a predetermined position.
A device for detecting and/or quantifying functional C1-esterase inhibitor (fC1-INH), the device comprising: (i) a conjugate pad comprising a first zone and a second zone, on which a first agent and a second agent are immobilized, respectively, and (ii) a membrane, which is in communication with the conjugate pad, wherein the membrane comprises a third zone, on which a third agent is immobilized, wherein the first agent is a functional C1 inhibitor (fC1-INH) binding agent or a C1 inhibitor (C1-INH) binding agent; wherein the second agent and the third agent are each selected from the group consisting of a functional C1 inhibitor (fC1-INH) binding agent, a C1 inhibitor (C1-INH) binding agent, and a capture agent, the first agent, the second agent, and the third agents being different from each other; wherein one of the C1-INH binding agent and the capture agent is conjugated to a detectable label, and the fC1-INH binding agent is conjugated to a docking agent, wherein the docking agent is capable of binding to the capture agent and/or the capture agent is capable of binding to the docking agent; and wherein the conjugate pad further comprises a fourth zone for placing a biological sample, which flows through the device in the order of the first zone, the second zone, and the third zone; and wherein the fC1-INH binding agent specifically binds fC1-INH and does not specifically bind C1-INH. (i) a conjugate pad comprising a first zone and a second zone, on which a first agent and a second agent are immobilized, respectively, and (ii) a membrane, which is in communication with the conjugate pad, wherein the membrane comprises a third zone, on which a third agent is immobilized, wherein the first agent is a functional C1 inhibitor (fC1-INH) binding agent or a C1 inhibitor (C1-INH) binding agent; wherein the second agent and the third agent are each selected from the group consisting of a functional C1 inhibitor (fC1-INH) binding agent, a C1 inhibitor (C1-INH) binding agent, and a capture agent, the first agent, the second agent, and the third agents being different from each other; wherein one of the C1-INH binding agent and the capture agent is conjugated to a detectable label, and the fC1-INH binding agent is conjugated to a docking agent, wherein the docking agent is capable of binding to the capture agent and/or the capture agent is capable of binding to the docking agent; and wherein the conjugate pad further comprises a fourth zone for placing a biological sample, which flows through the device in the order of the first zone, the second zone, and the third zone; and wherein the fC1-INH binding agent specifically binds fC1-INH and does not specifically bind C1-INH.
A method, performed by a gateway , which is connected to a WLAN via a trusted WLAN access and via an S2a interface to a PGW or performed by an ePDG , which is connected to the WLAN via an untrusted WLAN access and via a S2b interface to the PGW , comprising: generating a GTPv2 message and transmitting (S7) the generated GTPv2 message over either the S2a or the S2b interface to the PGW; characterized in that the GTPv2 message includes a SSID or an APN of the WLAN in the ULI as standardized in GTPv2 for cellular specific location information.
A method for microbial bioburden reduction of a chromatography matrix, comprising contacting the chromatography matrix with a composition, wherein said composition consists of: (a) 0.1 M to 0.7 M acetic acid; or (b) 0.4 M to 0.7 M acetic acid and benzyl alcohol; or (c) 0.1 M acetic acid and 20 % ethanol; or (d) 0.1 M to 0.5 M acetic acid and 1% benzyl alcohol; or (e) 0.5 M to 1.0 M acetic acid and 1% to 2% benzyl alcohol wherein the contacting step is performed for at least 1 hour. (a) 0.1 M to 0.7 M acetic acid; or (b) 0.4 M to 0.7 M acetic acid and benzyl alcohol; or (c) 0.1 M acetic acid and 20 % ethanol; or (d) 0.1 M to 0.5 M acetic acid and 1% benzyl alcohol; or (e) 0.5 M to 1.0 M acetic acid and 1% to 2% benzyl alcohol
An electronic device comprising: a sensor for sensing motion of the electronic device; an application processor ; and a state determination unit configured to: while the application processor is in a sleep state, control to cause sensing information relating to the motion of the electronic device sensed by the sensor to be stored in a memory of the state determination unit, and before entering a sleep state, transmitting at least one of the stored sensing information and information related to existence of the stored sensing information to the application processor, wherein the application processor is configured, when waking up from the sleep state, to: obtain the sensing information from the memory of the state determination unit, and analyze the obtained sensing information. a sensor for sensing motion of the electronic device; an application processor ; and a state determination unit configured to: while the application processor is in a sleep state, control to cause sensing information relating to the motion of the electronic device sensed by the sensor to be stored in a memory of the state determination unit, and before entering a sleep state, transmitting at least one of the stored sensing information and information related to existence of the stored sensing information to the application processor, while the application processor is in a sleep state, control to cause sensing information relating to the motion of the electronic device sensed by the sensor to be stored in a memory of the state determination unit, and before entering a sleep state, transmitting at least one of the stored sensing information and information related to existence of the stored sensing information to the application processor, wherein the application processor is configured, when waking up from the sleep state, to: obtain the sensing information from the memory of the state determination unit, and analyze the obtained sensing information. obtain the sensing information from the memory of the state determination unit, and analyze the obtained sensing information.
A method for producing an unsaturated carboxylic ester by an esterification reaction of unsaturated carboxylic acid and alcohol using a reactor packed with a solid catalyst, comprising: a step of continuously feeding unsaturated carboxylic acid and alcohol to the reactor from an inlet of the reactor to form a fluid of the reaction solution within the reactor, wherein the unsaturated carboxylic acid is selected from acrylic acid and methacrylic acid; and a step of continuously feeding a vaporized organic solvent into the reactor from the inlet of or a part near the inlet of the reactor in a concurrent flow, wherein the organic solvent is an aliphatic hydrocarbon or an aromatic hydrocarbon. a step of continuously feeding unsaturated carboxylic acid and alcohol to the reactor from an inlet of the reactor to form a fluid of the reaction solution within the reactor, wherein the unsaturated carboxylic acid is selected from acrylic acid and methacrylic acid; and a step of continuously feeding a vaporized organic solvent into the reactor from the inlet of or a part near the inlet of the reactor in a concurrent flow, wherein the organic solvent is an aliphatic hydrocarbon or an aromatic hydrocarbon.
A process for producing a cavitated microparticulated ideal whey protein preparation comprising the steps of: - providing an ideal whey protein preparation which is a microfiltration permeate obtained from microfiltration of a milk raw material, or a concentrated form of the microfiltration permeate, - providing a cavitator, - optionally preheating the ideal whey protein preparation containing whey proteins in their native form and β-caseins, β-lactoglobulin and α-lactalbumin, - treating the optionally preheated ideal whey protein preparation with the cavitator for providing the cavitated microparticulated ideal whey protein preparation, wherein the cavitated microparticulated ideal whey protein preparation contains β-lactoglobulin polymers having a size of >200 kDa and a denaturation level in the range of 90-95%, wherein the cavitation is performed under the following conditions: - the temperature at the output of the cavitator is in the range of about 73-93°C, - the cavitation time is in the range of 3-60 s, and/or - the frequency in the cavitator is in the range of about 50-60 Hz. - providing an ideal whey protein preparation which is a microfiltration permeate obtained from microfiltration of a milk raw material, or a concentrated form of the microfiltration permeate, - providing a cavitator, - optionally preheating the ideal whey protein preparation containing whey proteins in their native form and β-caseins, β-lactoglobulin and α-lactalbumin, - treating the optionally preheated ideal whey protein preparation with the cavitator for providing the cavitated microparticulated ideal whey protein preparation, wherein the cavitated microparticulated ideal whey protein preparation contains β-lactoglobulin polymers having a size of >200 kDa and a denaturation level in the range of 90-95%, wherein the cavitation is performed under the following conditions: - the temperature at the output of the cavitator is in the range of about 73-93°C, - the cavitation time is in the range of 3-60 s, and/or - the frequency in the cavitator is in the range of about 50-60 Hz. - the temperature at the output of the cavitator is in the range of about 73-93°C, - the cavitation time is in the range of 3-60 s, and/or - the frequency in the cavitator is in the range of about 50-60 Hz.
A monitoring unit for a surveillance system, comprising a camera, and a cover , the cover being movable in response to a camera activation signal, from a first position obscuring a lens of the camera and preventing the camera from imaging a zone of interest, to a second position not obscuring the camera lens, and wherein the monitoring unit being further arranged such that the cover is movable from the second position not obscuring the lens, back to the first position only through manual intervention of a person by manually engaging the cover, and wherein the default position of the cover is the first position obscuring the camera lens, and wherein the transition from the first position to the second position is done automatically upon the camera activation signal.