mhurhangee/ep-ind-claims huggingface dataset:
A capacitive transducer, comprising: a substrate having an opening in a surface thereof; a back plate (37, 47, 57) facing the opening in the substrate; a vibration electrode film facing the back plate across a space, the vibration electrode film being deformable to have a deformation converted into a change in capacitance between the vibration electrode film and the back plate, the vibration electrode film having a through-hole (35b, 45b, 65b, 75b) as a pressure relief hole; and a protrusion (37b, 47b, 57b, 67b, 77b) integral with and formed from the same member as the back plate, the protrusion being placed in the pressure relief hole before the vibration electrode film deforms, wherein the pressure relief hole and the protrusion have a gap therebetween defining an airflow channel as a pressure relief channel, and the protrusion has a through-hole (37c, 47c, 57c, 67c, 77c) extending from a distal portion of the protrusion to a portion of the back plate opposite to the protrusion. a substrate having an opening in a surface thereof; a back plate (37, 47, 57) facing the opening in the substrate; a vibration electrode film facing the back plate across a space, the vibration electrode film being deformable to have a deformation converted into a change in capacitance between the vibration electrode film and the back plate, the vibration electrode film having a through-hole (35b, 45b, 65b, 75b) as a pressure relief hole; and a protrusion (37b, 47b, 57b, 67b, 77b) integral with and formed from the same member as the back plate, the protrusion being placed in the pressure relief hole before the vibration electrode film deforms, wherein the pressure relief hole and the protrusion have a gap therebetween defining an airflow channel as a pressure relief channel, and the protrusion has a through-hole (37c, 47c, 57c, 67c, 77c) extending from a distal portion of the protrusion to a portion of the back plate opposite to the protrusion.
Conveying vehicle for transporting workpieces during the manufacture thereof, comprising: - a carriage by means of which the conveying vehicle and a workpiece arranged thereon are movable as a whole; - a workpiece receiving device for receiving the workpiece, characterized in that the carriage is at least approximately C-shaped, wherein the carriage of the conveying vehicle comprises two legs which are connected to one another by means of a connecting part, wherein each leg of the conveying vehicle comprises at least one respective handling device for moving the workpiece or at least a part of the workpiece relative to the carriage. - a carriage by means of which the conveying vehicle and a workpiece arranged thereon are movable as a whole; - a workpiece receiving device for receiving the workpiece, characterized in that the carriage is at least approximately C-shaped, wherein the carriage of the conveying vehicle comprises two legs which are connected to one another by means of a connecting part, wherein each leg of the conveying vehicle comprises at least one respective handling device for moving the workpiece or at least a part of the workpiece relative to the carriage.
A process for translating N audio input channels, each associated with a spatial direction, to M audio output channels, each associated with a spatial direction, wherein M and N are positive whole integers, N is three or more, and M is one or more, comprising deriving said M audio output channels from said N audio input channels, wherein one or more of said M audio output channels is associated with a spatial direction other than a spatial direction with which any of the N audio input channels is associated, at least one of said one or more of said M audio output channels being derived from a respective set of at least three of said N audio input channels, at least one of said one or more of said M audio output channels is derived from a respective set of at least three of said N audio input channels at least in part by approximating the cross-correlation of said at least three of said N audio input channels; and providing a blind upmix mode in which audio input channel signals are augmented so that at least some signal output is provided in a derived audio output channel when at least one of the audio input channels from which the derived audio output channel is derived has a signal input, by setting a lower limit on the value of the cross correlation and taking a weighted average of the signal power of the audio input channels from which the derived audio output channel is derived.
A method of performing cell search in a wireless communication system, performed by a user equipment, the method comprising: searching for a primary synchronization code, PSC; searching for a first secondary synchronization signal, SSS, comprising a first sequence and a second sequence; searching for a second SSS comprising the first sequence and the second sequence; and acquiring a cell identity based on the PSC, the first SSS and the second SSS, wherein the first sequence of the first SSS is scrambled by using a first scrambling code, the second sequence of the first SSS is scrambled by using a second scrambling code, the first sequence of the second SSS is scrambled by using the second scrambling code, and the second sequence of the second SSS is scrambled by using the first scrambling code, and wherein the first scrambling code and the second scrambling code are associated with the PSC. searching for a primary synchronization code, PSC; searching for a first secondary synchronization signal, SSS, comprising a first sequence and a second sequence; searching for a second SSS comprising the first sequence and the second sequence; and acquiring a cell identity based on the PSC, the first SSS and the second SSS, wherein the first sequence of the first SSS is scrambled by using a first scrambling code, the second sequence of the first SSS is scrambled by using a second scrambling code, the first sequence of the second SSS is scrambled by using the second scrambling code, and the second sequence of the second SSS is scrambled by using the first scrambling code, and wherein the first scrambling code and the second scrambling code are associated with the PSC.
An expression vector comprising (a) at least one nucleic acid sequence encoding a transcriptional gene silencing element; and (b) at least two other nucleic acid sequences selected from the group consisting of a nucleic acid sequence that encodes a nucleic acid molecule that inhibits an HIV co-receptor; a nucleic acid sequence that encodes an HIV fusion inhibitor protein; a nucleic acid sequence encoding an inhibitor of HIV replication; and a nucleic acid sequence encoding an inhibitor of viral entry; wherein the at least one nucleic acid sequence encoding a transcriptional gene silencing element is selected from the group consisting of (i) a silencing nucleic acid which targets a sequence from about position 143 to about position 161 of a 5' LTR of HIV-1, (ii) a silencing nucleic acid which targets a sequence from about position 136 to about position 154 of the 5' LTR of HIV-1, (iii) a silencing nucleic acid which targets a sequence from about position 205 to about position 223 of the 5' LTR of HIV-1; and (iv) a silencing nucleic acid which targets a sequence from about position 350 to about position 368 of the 5' LTR of HIV-1.
A method of assembling an endoscope, said method comprising the steps of: a. placing a camera device and a light source in a mould cavity, said mould cavity having an essentially cylindrical shape and being held in a position such that it has an essentially vertical longitudinal axis, b. placing the most distal portion of a bending portion of the endoscope in the mould cavity, c. placing one end of at least one control wire (34, 105) of a bending portion of the endoscope in the mould cavity, d. injecting an amount of polymer material in a fluid state into the mould cavity from the bottom of the mould cavity such that the material rises in the mould cavity in a controlled manner, e. hardening the material and f. removing the hardened camera housing (5, 100) from the mould cavity. a. placing a camera device and a light source in a mould cavity, said mould cavity having an essentially cylindrical shape and being held in a position such that it has an essentially vertical longitudinal axis, b. placing the most distal portion of a bending portion of the endoscope in the mould cavity, c. placing one end of at least one control wire (34, 105) of a bending portion of the endoscope in the mould cavity, d. injecting an amount of polymer material in a fluid state into the mould cavity from the bottom of the mould cavity such that the material rises in the mould cavity in a controlled manner, e. hardening the material and f. removing the hardened camera housing (5, 100) from the mould cavity.
A method of generating a variation of a load in a wireless power receiver, the method comprising: receiving, by a power receiver, power from a wireless power transmitter; receiving, from the wireless power transmitter, a time set value that is set for checking cross connection; in response to the receiving the time set value, generating the variation of the load; maintaining the load as varied for time corresponding to the received time set value; and returning to an original load, upon a lapse of the time corresponding to the received time set value. receiving, by a power receiver, power from a wireless power transmitter; receiving, from the wireless power transmitter, a time set value that is set for checking cross connection; in response to the receiving the time set value, generating the variation of the load; maintaining the load as varied for time corresponding to the received time set value; and returning to an original load, upon a lapse of the time corresponding to the received time set value.
A control apparatus configured to control a thermal recycling plant which includes a plurality of cooling apparatus which are configured to cool a coolant that recovers heat from a plurality of load apparatus and which consume energy while operating, the control apparatus comprising: a calculator configured to calculate an optimal temperature that is optimal for the coolant by optimization calculation for minimizing energy consumption under given conditions; a monitor and controller configured to monitor an operating state of the load apparatus to determine whether an abnormality exists in the load apparatus; and the monitor and controller configured to, upon determining that the abnormality exists in any of the load apparatus, cool the coolant to a temperature lower than the calculated optimal temperature in order to minimize the number of cooling apparatus in operation. a calculator configured to calculate an optimal temperature that is optimal for the coolant by optimization calculation for minimizing energy consumption under given conditions; a monitor and controller configured to monitor an operating state of the load apparatus to determine whether an abnormality exists in the load apparatus; and the monitor and controller configured to, upon determining that the abnormality exists in any of the load apparatus, cool the coolant to a temperature lower than the calculated optimal temperature in order to minimize the number of cooling apparatus in operation.
A circular stapling apparatus comprising: an end effector including a shell assembly configured to support a cartridge assembly thereon said cartridge assembly configured to house a plurality of fasteners, and comprising a distal portion, wherein said distal portion is configured to be inserted into an entrance to a body lumen; an aperture defined in an outer surface of the shell assembly in fluid communication with a lumen of said shell assembly; and an elongated member releasably coupled from the shell assembly, further comprising a channel guide, wherein the channel guide defines a passageway, said passageway configured to be in fluid communication with the aperture, characterised in that the channel guide further comprises a nipple configured for insertion into the aperture of the shell assembly, wherein said nipple is secured to the shell assembly via tabs extending form the nipple. an end effector including a shell assembly configured to support a cartridge assembly thereon said cartridge assembly configured to house a plurality of fasteners, and comprising a distal portion, wherein said distal portion is configured to be inserted into an entrance to a body lumen; an aperture defined in an outer surface of the shell assembly in fluid communication with a lumen of said shell assembly; and an elongated member releasably coupled from the shell assembly, further comprising a channel guide, wherein the channel guide defines a passageway, said passageway configured to be in fluid communication with the aperture, characterised in that the channel guide further comprises a nipple configured for insertion into the aperture of the shell assembly, wherein said nipple is secured to the shell assembly via tabs extending form the nipple.
A method of wireless communication by a user equipment, UE, the method comprising: receiving, from a base station, a message requesting beam state information, BSI, wherein the message indicates a number N of BSI reports; receiving, from the base station, a set of signals through a set of beams; determining a received power for each signal of the set of signals received through each beam of the set of beams, each received power associated with a beam of the set of beams; determining the number N of BSI reports to send to the base station based on the message, wherein the number N is determined to be greater than or equal to zero; and sending, to the base station, NBSI reports based on the number N of BSI reports determined to be sent to the base station, each of the N BSI reports indicating a beam index corresponding to a beam of the set of beams and a received power associated with the beam. receiving, from a base station, a message requesting beam state information, BSI, wherein the message indicates a number N of BSI reports; receiving, from the base station, a set of signals through a set of beams; determining a received power for each signal of the set of signals received through each beam of the set of beams, each received power associated with a beam of the set of beams; determining the number N of BSI reports to send to the base station based on the message, wherein the number N is determined to be greater than or equal to zero; and sending, to the base station, NBSI reports based on the number N of BSI reports determined to be sent to the base station, each of the N BSI reports indicating a beam index corresponding to a beam of the set of beams and a received power associated with the beam.
A method of storing a gas, the method comprising: contacting the gas with a gaseous storage system comprising at least one porous gas sorbent monolith having (i) < about 100 cc/L-M volume in pores smaller than about 9Å size, (ii) > about 200 cc/L-M volume in pores about 9-27Å size, and (iii) > about 50 cc/L-M volume in pores about 27-490Å size, and (iv) a part density of ≥ 0.4 g/cc; wherein the porous gas sorbent monolith comprises a gas adsorbing material and a non-aqueous binder selected from the group consisting of a fluoropolymer, a polyamide, a polyimide, fibrillated cellulose, a copolymer with a fluoropolymer, a copolymer with a polyamide, a copolymer with a polyimide, and a combination thereof, and wherein the porous gas sorbent monolith has a working gravimetric capacity of ≤ 18.1 kg/2.57 kg of natural gas (40 lbs/GGE) and/or a volumetric capacity of ≤ 35 L/2.57 kg of natural gas (35L/GGE). contacting the gas with a gaseous storage system comprising at least one porous gas sorbent monolith having (i) < about 100 cc/L-M volume in pores smaller than about 9Å size, (ii) > about 200 cc/L-M volume in pores about 9-27Å size, and (iii) > about 50 cc/L-M volume in pores about 27-490Å size, and (iv) a part density of ≥ 0.4 g/cc; (i) < about 100 cc/L-M volume in pores smaller than about 9Å size, (ii) > about 200 cc/L-M volume in pores about 9-27Å size, and (iii) > about 50 cc/L-M volume in pores about 27-490Å size, and (iv) a part density of ≥ 0.4 g/cc; wherein the porous gas sorbent monolith comprises a gas adsorbing material and a non-aqueous binder selected from the group consisting of a fluoropolymer, a polyamide, a polyimide, fibrillated cellulose, a copolymer with a fluoropolymer, a copolymer with a polyamide, a copolymer with a polyimide, and a combination thereof, and wherein the porous gas sorbent monolith has a working gravimetric capacity of ≤ 18.1 kg/2.57 kg of natural gas (40 lbs/GGE) and/or a volumetric capacity of ≤ 35 L/2.57 kg of natural gas (35L/GGE).
Surface cleaning machine, comprising a device body having a housing, a suction unit device having a fan, said suction unit device being arranged in the housing, a cleaning head which is arranged at the device body outside of the housing and comprises at least one cleaning roller and is operatively connected to the suction unit device for fluid communication therewith, an air-cooled drive motor for rotatingly driving the at least one cleaning roller, a process air routing device for process air of the suction unit device, wherein the drive motor is arranged outside of the housing of the device body, and a cooling air routing device for cooling air of the drive motor which comprises at least one fluid path which is arranged at or in the housing, wherein the cooling air routing device is coupled to the process air routing device and wherein the cooling air routing device comprises a cooling air inlet and a cooling air outlet and wherein the process air routing device comprises a process air inlet and a process air outlet, characterized by a wetting device for wetting the at least one cleaning roller with cleaning liquid, and characterized in that the cooling air outlet and the process air outlet coincide, and in that the process air inlet is formed by one or more suction mouths at the cleaning head, and in that the cooling air inlet is arranged at a distance from the process air inlet and, when the surface cleaning machine is operated in a cleaning mode, is positioned above the process air inlet with respect to the direction of gravity (g).
Use of a cationizing agent for cationizing a fabric prior to firmly fixing water-insoluble particles to the fabric, the cationizing agent comprising: a polymer having a constituent unit derived from a vinylamine monomer represented by formula below, wherein R 1 represents a hydrogen atom or a methyl group. a polymer having a constituent unit derived from a vinylamine monomer represented by formula below, wherein R 1 represents a hydrogen atom or a methyl group.
Wheel comprising a. a rim and a wheel center, b. wherein the wheel center comprises several spokes extending in a longitudinal direction from a wheel hub to the rim, c. wherein at least one spoke comprises an outer wall surrounding a cavity extending in the longitudinal direction of the at least one spoke, wherein the cavity is delimited from the outer wall by an inner surface, d. wherein the at least one spoke comprises a reinforcing member extending along the inner surface, characterised in that e. the at least one reinforcing member is made at least partially from unidirectional fibers. a. a rim and a wheel center, b. wherein the wheel center comprises several spokes extending in a longitudinal direction from a wheel hub to the rim, c. wherein at least one spoke comprises an outer wall surrounding a cavity extending in the longitudinal direction of the at least one spoke, wherein the cavity is delimited from the outer wall by an inner surface, d. wherein the at least one spoke comprises a reinforcing member extending along the inner surface, characterised in that e. the at least one reinforcing member is made at least partially from unidirectional fibers.
System for multi-storey building pressure control and for air conditioning as well as for apartments replacement air, comprising a staircase which is pressurized and which is connected on each floor of the staircase to one or more apartments, into which the replacement air enters from the pressurized staircase, whereby a heat exchanger system (2, 3, 4, 5, 23, 25), which comprises a cooling unit and heating unit, is arranged at the top part of the staircase, which is in connection at its inlet side at least to on external space outside the building and which is in connection at its output side at least to the different floors of the staircase through one or more vertical pipes, preferably via ventilation diffusers, for controlling temperature of the staircase, i.e. for keeping the temperature at a preset temperature by means of supply air outgoing from the vertical pipe, whereby temperature of the staircase remains at the said preset temperature, by means of the supply air outgoing from the vertical pipe and by means of the input air, at least temperature of which is controlled by the said heat exchanger system (2, 3, 4, 5, 23, 25) or by the said cooling unit thereof, and whereby said preset temperature of the staircase is lower than the temperature of the apartment both when heating and/or cooling the input air by the heat exchanger system (2, 3, 4, 5, 23, 25) characterized in that the preset rate of differential pressure ΔP between the staircase pressure Pk and the absolute pressure Pu of the external space is selected at least about 1 mbar, when number of the floor is between 3 and 10, and about 1.5 mbar, when the number of the floors is between 11 and 20, and that differential temperature between the apartments and the staircase is reached with heating in each apartment by radiator heating of the apartment.
An apparatus comprising: a data acquiring section that acquires measurement data of temperature and pressure of a natural resource, measured by a measurement device, a relationship between the temperature and the pressure indicating a state of the natural resource that is a fluid flowing through an extraction network for extracting the natural resource; a state estimating section that estimates the state of the natural resource indicated by the relationship between the temperature and the pressure at each of a plurality of locations in a flow path of the extraction network, the plurality of locations differing from a location where the measurement device is provided, and estimates a pressure and a temperature of the natural resource at each of the plurality of locations, using the measurement data and a model of the extraction network, the model simulating the temperature and the pressure while treating a component ratio of the natural resource as being constant; and a margin calculating section that calculates a critical curve indicating a relationship of pressure and temperature across which flow path blocking matter is generated and calculates a difference between the estimated temperature at each of the plurality of locations and the temperature obtained from the critical curve at the pressure corresponding to the estimated pressure at each of the plurality of locations as a temperature margin until the flow path blocking matter is generated in the extraction network, wherein the critical curve changes depending on an amount of a chemical substance injected into the natural resource for preventing the generation of the flow path blocking matter.