mhurhangee/patent-ind-claim-en huggingface dataset:
A transmission timing adjustment method, comprising: receiving, by user equipment, UE , a timing advance, TA, quantized value from a base station , wherein quantization precision of the TA quantized value is M * Ts, M is a positive integer less than 16, and Ts has a value of 1/30.72 μs; determining, by the UE , a transmission timing adjustment amount according to the TA quantized value; and performing, by the UE , uplink transmission timing adjustment according to the transmission timing adjustment amount. receiving, by user equipment, UE , a timing advance, TA, quantized value from a base station , wherein quantization precision of the TA quantized value is M * Ts, M is a positive integer less than 16, and Ts has a value of 1/30.72 μs; determining, by the UE , a transmission timing adjustment amount according to the TA quantized value; and performing, by the UE , uplink transmission timing adjustment according to the transmission timing adjustment amount.
A method of formulating a cleaning composition, comprising the steps of: coating a granular absorbent material with a coating agent to produce a coated absorbent material, wherein the coating agent is a biocide that forms a surface-bonded film on the granular absorbent material; and mixing the coated absorbent material with a sanitation agent, wherein the coated absorbent material absorbs the sanitation agent to form the cleaning composition, wherein the granular absorbent material comprises vermiculite; and wherein the biocide is selected from the group consisting of silanes, siloxanes, aminopropyltrimethoxysilane, quaternary amines, fumed metal hydroxides, solutions of silver, solutions of copper and combinations thereof. coating a granular absorbent material with a coating agent to produce a coated absorbent material, wherein the coating agent is a biocide that forms a surface-bonded film on the granular absorbent material; and mixing the coated absorbent material with a sanitation agent, wherein the coated absorbent material absorbs the sanitation agent to form the cleaning composition, wherein the granular absorbent material comprises vermiculite; and wherein the biocide is selected from the group consisting of silanes, siloxanes, aminopropyltrimethoxysilane, quaternary amines, fumed metal hydroxides, solutions of silver, solutions of copper and combinations thereof.
An air-bag to be mounted in a vehicle, the air-bag comprising: a top side , which will be at the top of the air-bag when it is mounted in a vehicle; a bottom side ; a face side , extending between the top side and the bottom side ; a rear side , substantially opposite the face side ; a body part , defined between the face side and the rear side , and positioned adjacent or close to the bottom side ; and a head part , defined between the face side and the rear side and adjacent to or close to the top side , wherein: the body part is divided into at least two chambers by a first tether arrangement which extends between the face side and the rear side and is connected both to the face side and the rear side ; gas may flow between the two or more chambers ; gas may flow between the head part and the body part; and when the air-bag is in an inflated state, the face side extends further in a first direction, which is generally the direction in which the face side faces, in the region of the head part than in the region of the body part . a top side , which will be at the top of the air-bag when it is mounted in a vehicle; a bottom side ; a face side , extending between the top side and the bottom side ; a rear side , substantially opposite the face side ; a body part , defined between the face side and the rear side , and positioned adjacent or close to the bottom side ; and a head part , defined between the face side and the rear side and adjacent to or close to the top side , wherein: the body part is divided into at least two chambers by a first tether arrangement which extends between the face side and the rear side and is connected both to the face side and the rear side ; gas may flow between the two or more chambers ; gas may flow between the head part and the body part; and when the air-bag is in an inflated state, the face side extends further in a first direction, which is generally the direction in which the face side faces, in the region of the head part than in the region of the body part . the body part is divided into at least two chambers by a first tether arrangement which extends between the face side and the rear side and is connected both to the face side and the rear side ; gas may flow between the two or more chambers ; gas may flow between the head part and the body part; and when the air-bag is in an inflated state, the face side extends further in a first direction, which is generally the direction in which the face side faces, in the region of the head part than in the region of the body part .
A device for dispensing a predetermined quantity of fluid into the nasal passage of a user, said device comprising: a body comprising a nozzle end designed for insertion into the nostril of a user; a user operated trigger device ; a discharge nozzle; an actuator in contact with the trigger device; a plunger connected to the actuator; a dosage form comprising a piercable membrane and containing the fluid ; and a piercing mechanism ; and an activation knob that is rotatable from a first position to a second position; wherein operating the trigger causes the piercing mechanism to penetrate the dosage form and discharge the fluid through the discharge channel; wherein the actuator is a toggle mechanism that provides a mechanical advantage and the piercing mechanism is contained in the dosage form; wherein the activation knob is connected to the actuator such that when the activation knob is rotated from the first position to the second position, the toggle mechanism is rotated from an inactive first position to an activated position; and wherein rotation of the toggle mechanism to the second position pushes the trigger device into an activated position; and further wherein the actuator is a bar joined at one end to the activation knob in a flexible joint, joined to the plunger at the opposite end in a flexible joint and forming approximately a 90° central angle at the center point of the bar, wherein the center point is a flexible point. a body comprising a nozzle end designed for insertion into the nostril of a user; a user operated trigger device ; a discharge nozzle; an actuator in contact with the trigger device; a plunger connected to the actuator; a dosage form comprising a piercable membrane and containing the fluid ; and a piercing mechanism ; and an activation knob that is rotatable from a first position to a second position; wherein operating the trigger causes the piercing mechanism to penetrate the dosage form and discharge the fluid through the discharge channel; wherein the actuator is a toggle mechanism that provides a mechanical advantage and the piercing mechanism is contained in the dosage form; wherein the activation knob is connected to the actuator such that when the activation knob is rotated from the first position to the second position, the toggle mechanism is rotated from an inactive first position to an activated position; and wherein rotation of the toggle mechanism to the second position pushes the trigger device into an activated position; and further wherein the actuator is a bar joined at one end to the activation knob in a flexible joint, joined to the plunger at the opposite end in a flexible joint and forming approximately a 90° central angle at the center point of the bar, wherein the center point is a flexible point.
A method for the combined processing of at least two polymer melts selected from the group consisting of (M1), (M2) and (M3), wherein (M1) is a polymer melt comprising a terephthalate polyester (A1), (M2) is a polymer melt comprising a copolyester (A2) on the basis of terephthalic acid, at least one aliphatic 1,w-dicarboxylic acid and at least one aliphatic 1,w-diol, and (M3) is a polymer melt comprising a copolyester (A3) on the basis of terephthalic acid, at least one polytetramethylene glycol and at least one aliphatic 1,w-diol, wherein the method comprises the alternating processing of the at least two polymer melts into at least one product selected from the group consisting of pellets (P1), fibres (P2), expanded particles (P3), preforms (P4) and articles (P5). (M1) is a polymer melt comprising a terephthalate polyester (A1), (M2) is a polymer melt comprising a copolyester (A2) on the basis of terephthalic acid, at least one aliphatic 1,w-dicarboxylic acid and at least one aliphatic 1,w-diol, and (M3) is a polymer melt comprising a copolyester (A3) on the basis of terephthalic acid, at least one polytetramethylene glycol and at least one aliphatic 1,w-diol, wherein the method comprises the alternating processing of the at least two polymer melts into at least one product selected from the group consisting of pellets (P1), fibres (P2), expanded particles (P3), preforms (P4) and articles (P5).
A method of evaluating fatigue damage in a turbine by a data acquisition system , comprising: receiving a plurality of operating parameters from a plurality of sensors ; based upon the plurality of operating parameters, determining: a run time from start-up until the turbine reaches X percent load; and a start-up temperature transient from start-up until the turbine reaches X percent load; calculating: a run time ratio of the determined run time until the turbine reaches X percent load to a predetermined run time; a start-up temperature ratio of the determined start-up temperature transient to a predetermined start-up temperature transient; and a fatigue severity factor by averaging the run time ratio and the start-up temperature ratio of a number of starts; and based upon the determined fatigue severity factor, altering one or more of the plurality of operating parameters and/or initiating repair procedures. receiving a plurality of operating parameters from a plurality of sensors ; based upon the plurality of operating parameters, determining: a run time from start-up until the turbine reaches X percent load; and a start-up temperature transient from start-up until the turbine reaches X percent load; a run time from start-up until the turbine reaches X percent load; and a start-up temperature transient from start-up until the turbine reaches X percent load; calculating: a run time ratio of the determined run time until the turbine reaches X percent load to a predetermined run time; a start-up temperature ratio of the determined start-up temperature transient to a predetermined start-up temperature transient; and a fatigue severity factor by averaging the run time ratio and the start-up temperature ratio of a number of starts; and a run time ratio of the determined run time until the turbine reaches X percent load to a predetermined run time; a start-up temperature ratio of the determined start-up temperature transient to a predetermined start-up temperature transient; and a fatigue severity factor by averaging the run time ratio and the start-up temperature ratio of a number of starts; and based upon the determined fatigue severity factor, altering one or more of the plurality of operating parameters and/or initiating repair procedures.
A microporous crystalline silicoaluminophosphate (SAPO) material, where said material comprises a crystal structure having building units of double-6-rings ( d6r ) and pore opening of 8-rings, and said crystal structure comprises structural codes of CHA, and has a pore opening ranging from 3 to 5 Angstroms and comprises an alkali-earth metal or a rare-earth metal or an alkali metal or mixtures thereof, and copper, where said alkali-earth or rare-earth metal or alkali metal comprises an amount of at least 0.2 weight percent of the total weight of said material.
A method of modulation implemented by a polarization insensitive integrated optical modulator (PIIOM), comprising: receiving, at an input , a continuous wave (CW) light; splitting, by a first polarization splitter-rotator (PSR) , the CW light into a first light beam having a transverse electric (TE) polarization and a second light beam having a transverse magnetic (TM) polarization; rotating, by the first PSR , the second light beam having the TM polarization to generate a third light beam having the TE polarization; modulating, with one multiport modulator , the first light beam with data to generate a first output signal and the third light beam with data to generate a second output signal, wherein the multiport modulator comprises four ports, a port receiving the first light beam is different from a port outputting the second output signal, and a port receiving the second light beam is different from a port outputting the first output signal; combining, by a second PSR , the first output signal and the second output signal to form a modulated output CW light; and transmitting, at an output separate from the input, the modulated output CW light to an optical receiving device. receiving, at an input , a continuous wave (CW) light; splitting, by a first polarization splitter-rotator (PSR) , the CW light into a first light beam having a transverse electric (TE) polarization and a second light beam having a transverse magnetic (TM) polarization; rotating, by the first PSR , the second light beam having the TM polarization to generate a third light beam having the TE polarization; modulating, with one multiport modulator , the first light beam with data to generate a first output signal and the third light beam with data to generate a second output signal, wherein the multiport modulator comprises four ports, a port receiving the first light beam is different from a port outputting the second output signal, and a port receiving the second light beam is different from a port outputting the first output signal; combining, by a second PSR , the first output signal and the second output signal to form a modulated output CW light; and transmitting, at an output separate from the input, the modulated output CW light to an optical receiving device.
Method for coating the edge of eyeglass lenses by means of a needle- or jet-type metering device, wherein the eyeglass lens and the metering device are moved relative to one another and in the process a coating material is deposited on the edge of the eyeglass lens from the metering device, wherein the control data for control of the movement of the eyeglass lens and/or of the metering device before and/or during the deposition process are ascertained on the basis of geometric data of the metering device and geometry data of the edge face to be coated of the eyeglass lens which are retrieved from a data storage means or measured, characterized in that the metering axis of the metering device is constantly fixedly aligned, or is kept by means of the control data, in an angular range of less than or equal to +/- 45° about the direction of gravitational force, preferably in an angular range of less than or equal to +- 30° about the direction of gravitational force.
A mobile agricultural planting machine , comprising: a ground engaging element for carrying the machine over a field;a valve comprising an inlet end configured to be connected to a source of pressurised liquid, for application to the field, and an outlet end; a control system configured to control the flow rate of liquid through the valve by opening and closing the valve using a pulse width modulated signal; and an application assembly comprising a proximal end connected to the outlet end of the valve and a distal end through which liquid passes to be applied to the field; wherein the application assembly defines a conduit between the proximal end and the distal end; characterised in that the application assembly further comprises an accumulator disposed along the conduit configured to at least partially absorb pressure in the conduit when the liquid under pressure is in the conduit. a ground engaging element for carrying the machine over a field;a valve comprising an inlet end configured to be connected to a source of pressurised liquid, for application to the field, and an outlet end; a control system configured to control the flow rate of liquid through the valve by opening and closing the valve using a pulse width modulated signal; and an application assembly comprising a proximal end connected to the outlet end of the valve and a distal end through which liquid passes to be applied to the field; wherein the application assembly defines a conduit between the proximal end and the distal end; characterised in that the application assembly further comprises an accumulator disposed along the conduit configured to at least partially absorb pressure in the conduit when the liquid under pressure is in the conduit.
A full-fiber burner brick, comprising a full-fiber brick body and a coating coated on surface of the full-fiber brick body; the full-fiber brick body is prepared from a raw material including the following components in mass ratio: alumina crystal fiber 20%∼50%; high-aluminum blown fiber 5%∼20%; fine powder filler 20%∼50%; inorganic binder 30%∼50%; organic binder 5%∼15%; flocculant 1%∼5%; the alumina crystal fiber is composed of a combination of fibers of different lengths, and mass ratio of the fibers of different lengths in the alumina crystal fiber is: 0.01 mm ≤ length < 0.05 mm 25%∼35%; 0.05 mm ≤ length < 0.1mm 35%∼45%; 0.1 mm ≤ length < 1 mm 25%∼35%; the high-aluminum blown fiber is composed of a combination of fibers of different lengths, and mass ratio of the fibers of different lengths in the high-aluminum blown fiber is: 0.01 mm ≤ length < 0.05 mm 25%∼35%; 0.05 mm ≤ length < 0.1mm 35%∼45%; 0.1 mm ≤ length < 1 mm 25%∼35%; wherein, the fine powder filler is alumina fine powder, and wherein the fine powder filler is composed of particles of different particle sizes, and mass ratio of the fine powder filler of different particle sizes in the raw material is: 200∼325 mesh filler 10%∼20%; 1000 mesh filler 10%∼30% the full-fiber brick body is prepared from a raw material including the following components in mass ratio: alumina crystal fiber 20%∼50%; high-aluminum blown fiber 5%∼20%; fine powder filler 20%∼50%; inorganic binder 30%∼50%; organic binder 5%∼15%; flocculant 1%∼5%; the alumina crystal fiber is composed of a combination of fibers of different lengths, and mass ratio of the fibers of different lengths in the alumina crystal fiber is: 0.01 mm ≤ length < 0.05 mm 25%∼35%; 0.05 mm ≤ length < 0.1mm 35%∼45%; 0.1 mm ≤ length < 1 mm 25%∼35%; the high-aluminum blown fiber is composed of a combination of fibers of different lengths, and mass ratio of the fibers of different lengths in the high-aluminum blown fiber is: 0.01 mm ≤ length < 0.05 mm 25%∼35%; 0.05 mm ≤ length < 0.1mm 35%∼45%; 0.1 mm ≤ length < 1 mm 25%∼35%; wherein, the fine powder filler is alumina fine powder, and wherein the fine powder filler is composed of particles of different particle sizes, and mass ratio of the fine powder filler of different particle sizes in the raw material is: 200∼325 mesh filler 10%∼20%; 1000 mesh filler 10%∼30%
Seal arrangement for sealing a gap between a door leaf of a sliding door and a floor, wherein the seal arrangement has a housing rail for fastening in or on the door leaf, wherein the housing rail has a downwardly open first groove with a first side wall , a second side wall and a first web connecting these two side walls , and wherein a sealing strip for sealing the gap is arranged in the first groove, wherein the seal arrangement has a downwardly open cavity (A) which runs parallel next to the groove and which forms a guide channel for receiving a guide means of the sliding door, wherein the cavity (A) is designed to be at least partially open upwards and thus, when the gap is sealed, allows air circulation from one side of the sliding door to the opposite side of the sliding door via a lower side of the cavity (A) to the upper side of the cavity (A), wherein an air channel is present which, together with the cavity (A), allows the air circulation, wherein the air channel (B, C) is present on an outer side of the first side wall and on an outer side of the first web , or wherein it runs rectilinearly outwards from the first web , characterized in that the cavity (A) is delimited by two opposite side walls and an upper web interconnecting the two side walls , wherein the upper web and/or one of the two side walls have/has at least one upper through-opening , wherein the at least one through-opening provides a connection from the cavity (A) to the air channel. wherein the seal arrangement has a housing rail for fastening in or on the door leaf, wherein the housing rail has a downwardly open first groove with a first side wall , a second side wall and a first web connecting these two side walls , and wherein a sealing strip for sealing the gap is arranged in the first groove, wherein the seal arrangement has a downwardly open cavity (A) which runs parallel next to the groove and which forms a guide channel for receiving a guide means of the sliding door, wherein the cavity (A) is designed to be at least partially open upwards and thus, when the gap is sealed, allows air circulation from one side of the sliding door to the opposite side of the sliding door via a lower side of the cavity (A) to the upper side of the cavity (A), wherein an air channel is present which, together with the cavity (A), allows the air circulation, wherein the air channel (B, C) is present on an outer side of the first side wall and on an outer side of the first web , or wherein it runs rectilinearly outwards from the first web , characterized in that the cavity (A) is delimited by two opposite side walls and an upper web interconnecting the two side walls , wherein the upper web and/or one of the two side walls have/has at least one upper through-opening , wherein the at least one through-opening provides a connection from the cavity (A) to the air channel.