mhurhangee/ep-ind-claims huggingface dataset:
Lift with a traction system, the traction system comprising: - a motor with a traction pulley responsible for transmitting the movement to belts or cables by adhesion, wherein the belts or cables perform traction on a counterweight, the belts or cables being arranged in a closed loop, - Car and counterweight suspension cables; - a cam system applying tension on the car and counterweight suspension cables, wherein - the traction of the car from the motor is performed indirectly through the counterweight, by means of the car and counterweight suspension cables; - the car suspension is carried out by two suspension pulleys (8.1) and by the car and counterweight suspension cables which running from the counterweight and passing through the suspension pulleys are connected to the car; - characterized in that - the suspension pulleys (8.1) are disposed on the cam system wherein said suspension pulleys (8.1) can only rotate in the direction of providing tension to the car and counterweight suspension cables, and in the opposite direction rotation is locked to prevent loss of tension, the tension being set to the maximum car load; and - the traction system is entirely located in the space comprised between one of the car walls and the facing wall of the lift shaft. - a motor with a traction pulley responsible for transmitting the movement to belts or cables by adhesion, wherein the belts or cables perform traction on a counterweight, the belts or cables being arranged in a closed loop, - Car and counterweight suspension cables; - a cam system applying tension on the car and counterweight suspension cables, wherein - the traction of the car from the motor is performed indirectly through the counterweight, by means of the car and counterweight suspension cables; - the car suspension is carried out by two suspension pulleys (8.1) and by the car and counterweight suspension cables which running from the counterweight and passing through the suspension pulleys are connected to the car; - characterized in that - the suspension pulleys (8.1) are disposed on the cam system wherein said suspension pulleys (8.1) can only rotate in the direction of providing tension to the car and counterweight suspension cables, and in the opposite direction rotation is locked to prevent loss of tension, the tension being set to the maximum car load; and - the traction system is entirely located in the space comprised between one of the car walls and the facing wall of the lift shaft.
An antenna function extension apparatus, wherein the apparatus comprises a control unit, a storage unit, an antenna identification unit, a modulation and demodulation unit, a power supply unit, a peripheral connection unit, a radio frequency, RF, channel, a first transceiver unit, and a second transceiver unit; the control unit is separately connected to the storage unit, the antenna identification unit, the peripheral connection unit, and the modulation and demodulation unit and is configured to trigger the antenna identification unit to read an RFID label of an antenna by using the first transceiver unit, to obtain antenna feature identification information; the storage unit is configured to save the antenna feature identification information, and to select antenna weight data that matches the feature identification information from a weight database stored in the storage unit; the first transceiver unit is connected to the antenna identification unit; the second transceiver unit is separately connected to the modulation and demodulation unit, the power supply unit, and the peripheral connection unit, whereby the peripheral connection unit comprises an AISG interface to connect with a peripheral device such as a barcode scanner or a portable control unit, PCU, by using an AISG signal to obtain the antenna feature identification information, when the antenna identification unit fails to read the RFID label of the antenna, the modulation and demodulation unit is configured to modulate and convert the AISG signal, and the AISG interface and the second transceiver is configured to send the antenna weight data to a base station, wherein the base station comprises a remote radio unit, RRU, which is connected to the second transceiver unit via a RF cable; and the first transceiver unit and the second transceiver unit are separately located at two ends of the RF channel.
An exhaust gas recirculation device for an internal combustion engine, having an EGR control valve that is provided in an EGR gas passage connecting an exhaust passage and an intake passage in order to control an EGR gas amount, the exhaust gas recirculation device being characterized by comprising: an opening command signal output unit which outputs an opening command signal in relation to the EGR control valve on the basis of an operating condition of the internal combustion engine; a variation component separation unit which separates the valve opening command signal from the opening command signal output unit into a basic component and a variation component generated so as to be superimposed on the basic component; a variation component determination unit which determines whether the EGR control valve is in a steady state or a transient state on the basis of a magnitude of the variation component separated by the variation component separation unit; and an EGR control valve diagnosis device that performs an abnormality diagnosis on the EGR control valve when the variation component determination unit determines that the EGR control valve is in the steady state. an opening command signal output unit which outputs an opening command signal in relation to the EGR control valve on the basis of an operating condition of the internal combustion engine; a variation component separation unit which separates the valve opening command signal from the opening command signal output unit into a basic component and a variation component generated so as to be superimposed on the basic component; a variation component determination unit which determines whether the EGR control valve is in a steady state or a transient state on the basis of a magnitude of the variation component separated by the variation component separation unit; and an EGR control valve diagnosis device that performs an abnormality diagnosis on the EGR control valve when the variation component determination unit determines that the EGR control valve is in the steady state.
A cableway vehicle for a continuous cableway, the cableway vehicle having a suspension having an actuatable cable clamp for detachably coupling the cableway vehicle to a conveying cable of the continuous cableway and a cabin for accommodating a number of persons, wherein at least one barrier device is provided on the cableway vehicle, which barrier device is arranged such a way that, it faces an adjacent cableway vehicle, when the cableway vehicle moves along a platform of a cableway station, and which barrier device is configured to at least partially bridge an intermediate space between the cabin of the cableway vehicle and a cabin of the adjacent cableway vehicle to to form a barrier for persons against entering into the intermediate space, wherein at least two barrier devices are provided, one barrier device being arranged at the front of the cableway vehicle in the direction of movement of the cableway vehicle and one barrier device being provided at the rear of the cableway vehicle in the direction of movement of the cableway vehicle, characterized in that the barrier device provided at the front in the direction of movement and the barrier device provided at the rear in the direction of movement are arranged at different positions in a transverse direction extending transversely to the direction of movement.
A robot arm apparatus, comprising: one or a plurality of a joint unit that joins a plurality of links constituting a multi-link structure; an acquisition unit that acquires an on-screen enlargement factor of a subject imaged by an imaging unit attached to the multi-link structure; and a driving control unit that controls driving of the joint unit based on a state of the joint unit and the enlargement factor; characterized in that the driving control unit controls a viscosity of driving of the joint unit according to the state of the joint unit and the enlargemet factor. one or a plurality of a joint unit that joins a plurality of links constituting a multi-link structure; an acquisition unit that acquires an on-screen enlargement factor of a subject imaged by an imaging unit attached to the multi-link structure; and a driving control unit that controls driving of the joint unit based on a state of the joint unit and the enlargement factor; characterized in that the driving control unit controls a viscosity of driving of the joint unit according to the state of the joint unit and the enlargemet factor.
A method of compressing data values using four spatial decorrelation modules which are arranged to process 8-bit data values and four entropy encoding modules which are arranged to process 8-bit data values, the method comprising: reformatting data values having three input data channels in a 10:10:10 format into four 8-bit output channels by: placing the eight most significant bits of data values of a first input channel in a first output channel, placing the eight most significant bits of data values of a second input in a second output channel, placing the eight most significant bits of data values of a third input channel in a third output channel, placing the two least significant bits from data values of each of the three input channels in a fourth output channel to form 6-bit data values, and appending 2 bits to the least significant end of the 6-bit data values, thereby forming 8-bit data values; and for each of the output channels: using one of the spatial decorrelation modules to perform a spatial decorrelation process on the 8-bit data values involving using a modulo-256 function; and using one of the entropy encoding modules to perform entropy encoding on the data values subsequent to said spatial decorrelation. reformatting data values having three input data channels in a 10:10:10 format into four 8-bit output channels by: placing the eight most significant bits of data values of a first input channel in a first output channel, placing the eight most significant bits of data values of a second input in a second output channel, placing the eight most significant bits of data values of a third input channel in a third output channel, placing the two least significant bits from data values of each of the three input channels in a fourth output channel to form 6-bit data values, and appending 2 bits to the least significant end of the 6-bit data values, thereby forming 8-bit data values; and placing the eight most significant bits of data values of a first input channel in a first output channel, placing the eight most significant bits of data values of a second input in a second output channel, placing the eight most significant bits of data values of a third input channel in a third output channel, placing the two least significant bits from data values of each of the three input channels in a fourth output channel to form 6-bit data values, and appending 2 bits to the least significant end of the 6-bit data values, thereby forming 8-bit data values; and for each of the output channels: using one of the spatial decorrelation modules to perform a spatial decorrelation process on the 8-bit data values involving using a modulo-256 function; and using one of the entropy encoding modules to perform entropy encoding on the data values subsequent to said spatial decorrelation. using one of the spatial decorrelation modules to perform a spatial decorrelation process on the 8-bit data values involving using a modulo-256 function; and using one of the entropy encoding modules to perform entropy encoding on the data values subsequent to said spatial decorrelation.
A 3D printing method comprising a step of applying an electromagnetic field to a three-dimensional shape molded by using a slurry, wherein the method comprises a step of: - molding the slurry in the electromagnetic field to the three-dimensional shape; - molding the slurry so as to have the three-dimensional shape after passing through the electromagnetic field; or - molding the slurry to the three-dimensional shape and then applying the electric field thereto, wherein the slurry comprises a metal powder and a binder, wherein the slurry comprises 5 to 200 parts by weight of the binder relative to 100 parts by weight of the metal powder, wherein the metal powder contains a conductive metal having a relative magnetic permeability of 90 or more, wherein the conductive metal has a conductivity of 8 MS/m or more at 20°C, wherein the slurry comprises the conductive metal in an amount of 30 wt% or more based on the weight of the entire metal powder, wherein the binder is alkyl cellulose, polyalkylene oxide, polyalkylene carbonate, polyvinyl alcohol or lignin, wherein the electromagnetic field is formed by applying a current in a range of 100A to 1,000A, and wherein the electromagnetic field is formed by applying a current at a frequency in a range of 100 kHz to 1,000 kHz. wherein the method comprises a step of: - molding the slurry in the electromagnetic field to the three-dimensional shape; - molding the slurry so as to have the three-dimensional shape after passing through the electromagnetic field; or - molding the slurry to the three-dimensional shape and then applying the electric field thereto, - molding the slurry in the electromagnetic field to the three-dimensional shape; - molding the slurry so as to have the three-dimensional shape after passing through the electromagnetic field; or - molding the slurry to the three-dimensional shape and then applying the electric field thereto, wherein the slurry comprises a metal powder and a binder, wherein the slurry comprises 5 to 200 parts by weight of the binder relative to 100 parts by weight of the metal powder, wherein the metal powder contains a conductive metal having a relative magnetic permeability of 90 or more, wherein the conductive metal has a conductivity of 8 MS/m or more at 20°C, wherein the slurry comprises the conductive metal in an amount of 30 wt% or more based on the weight of the entire metal powder, wherein the binder is alkyl cellulose, polyalkylene oxide, polyalkylene carbonate, polyvinyl alcohol or lignin, wherein the electromagnetic field is formed by applying a current in a range of 100A to 1,000A, and wherein the electromagnetic field is formed by applying a current at a frequency in a range of 100 kHz to 1,000 kHz.
Acoustic resonant structure of the HBAR type comprising a carrier (12, 26) and a piezoelectric transducer that comprises a first conductive electrode placed on the carrier (12, 26) and a second conductive electrode, which electrodes are separated by a layer of piezoelectric material, the thickness e18 of the layer of piezoelectric material being given by the relationship e 18 = n ′ + x V 18 F 0 where n' is a natural integer and preferably n' = 0, x is a real number lower than 1 and preferably x = 0.5, V18 is the propagation speed of the acoustic wave in the piezoelectric material and F0 is the operating frequency of the resonant structure, the acoustic resonant structure also comprising an additional layer placed on the surface of the second electrode opposite the piezoelectric layer, the thickness e22 of the additional layer being given by the relationship e 22 = n " V 22 2 + 1 − 2 x ′ V 22 4 1 F 0 where n" is a natural integer and preferably n" = 1, V22 is the propagation speed of the acoustic wave in the additional layer, and x' = x ± 20% so as to optimize the acousto-electric density within the piezoelectric layer, wherein the thickness e16 of the layer forming the first electrode is smaller than λ16/20, where λ16 is the wavelength of the acoustic wave propagating inside the material of the first electrode, wherein the thickness e20 of the layer forming the second electrode is smaller than λ20/20, where λ20 is the wavelength of the acoustic wave propagating inside the material of the second electrode. where n" is a natural integer and preferably n" = 1, V22 is the propagation speed of the acoustic wave in the additional layer, and x' = x ± 20% so as to optimize the acousto-electric density within the piezoelectric layer, wherein the thickness e16 of the layer forming the first electrode is smaller than λ16/20, where λ16 is the wavelength of the acoustic wave propagating inside the material of the first electrode, wherein the thickness e20 of the layer forming the second electrode is smaller than λ20/20, where λ20 is the wavelength of the acoustic wave propagating inside the material of the second electrode.
A head-wearable hearing instrument comprising: - a first housing portion configured for placement at, or behind, a user's ear and comprising a radio-frequency data communication interface configured to transmit and receive data packets at transmit and receipt time slots, respectively, through a wireless communication channel; - a connector assembly configured to electrically and mechanically interconnect the first housing portion with a second housing portion; - said second housing portion configured for placement in the user's ear canal and comprising a sensor configured to measure a physical property associated with operation of the head-wearable hearing instrument and generate sensor data representative of the measured physical property, - a wired data communication link extending between the first and second housing portions through the connector assembly for transmission of sensor data during transmit time slots defined by a processor; wherein said transmit time slots of the sensor data and at least said receipt time slots of the wireless data communication channel are non-overlapping in time. - a first housing portion configured for placement at, or behind, a user's ear and comprising a radio-frequency data communication interface configured to transmit and receive data packets at transmit and receipt time slots, respectively, through a wireless communication channel; - a connector assembly configured to electrically and mechanically interconnect the first housing portion with a second housing portion; - said second housing portion configured for placement in the user's ear canal and comprising a sensor configured to measure a physical property associated with operation of the head-wearable hearing instrument and generate sensor data representative of the measured physical property, - a wired data communication link extending between the first and second housing portions through the connector assembly for transmission of sensor data during transmit time slots defined by a processor; wherein
A propylene polymerization process comprising: contacting propylene and an amount of ethylene with a first metallocene catalyst and a second metallocene catalyst within a polymerization reaction vessel to form a propylene based polymer, wherein the amount is an amount effective to form the propylene based polymer comprising from 2 wt.% to 6 wt.% ethylene, the second metallocene catalyst is capable of incorporating a greater amount of ethylene into the propylene based polymer than the first metallocene catalyst and wherein the first metallocene catalyst is capable of forming a propylene/ethylene random copolymer exhibiting a melting temperature that is greater than that of a propylene/ethylene random copolymer formed from the second metallocene catalyst; wherein the second metallocene catalyst is represented by the general formula: X(IndR 1 R 2) 2 MA 2; wherein X is a structural bridge between Ind, Ind is an indenyl group, R 1 is a substituent on the 2 nd position and is an alkyl, R 2 is a benzo group at the 4,5 position, M is a transition metal and A is an alkyl, hydrocarbyl or halogen group, or wherein the second metallocene catalyst comprises dimethylsilylbis(2-methyl-4,5-benzo-indenyl)zirconium dichloride, or wherein the second metallocene catalyst comprises diphenylmethylene(2,7-di-tert-butyl-fluorenyl)(2-methyl-4-tert-butylcyclopentadienyl)zirconium dichloride, or wherein the second metallocene catalyst comprises dimethylmethylene(fluorenyl)(2-methyl-4-tert-butylcyclopentadienyl)zirconium dichloride. contacting propylene and an amount of ethylene with a first metallocene catalyst and a second metallocene catalyst within a polymerization reaction vessel to form a propylene based polymer, wherein the amount is an amount effective to form the propylene based polymer comprising from 2 wt.% to 6 wt.% ethylene, the second metallocene catalyst is capable of incorporating a greater amount of ethylene into the propylene based polymer than the first metallocene catalyst and wherein the first metallocene catalyst is capable of forming a propylene/ethylene random copolymer exhibiting a melting temperature that is greater than that of a propylene/ethylene random copolymer formed from the second metallocene catalyst; wherein the second metallocene catalyst is represented by the general formula: X(IndR 1 R 2) 2 MA 2; wherein X is a structural bridge between Ind, Ind is an indenyl group, R 1 is a substituent on the 2 nd position and is an alkyl, R 2 is a benzo group at the 4,5 position, M is a transition metal and A is an alkyl, hydrocarbyl or halogen group, or wherein the second metallocene catalyst comprises dimethylsilylbis(2-methyl-4,5-benzo-indenyl)zirconium dichloride, or wherein the second metallocene catalyst comprises diphenylmethylene(2,7-di-tert-butyl-fluorenyl)(2-methyl-4-tert-butylcyclopentadienyl)zirconium dichloride, or wherein the second metallocene catalyst comprises dimethylmethylene(fluorenyl)(2-methyl-4-tert-butylcyclopentadienyl)zirconium dichloride.