mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a control master unit, comprising a communication node for transmitting and receiving wireless signals and a user-inaccessible memory storing a system identification code; and a plurality of slave units (12a, 12b, 12c), each slave unit comprising a communication node for transmitting and receiving wireless signals and a user-inaccessible memory storing a system identification code which is in common with the system identification code stored in the user-inaccessible memory of the control master unit; wherein the control master unit is configured to transmit a control signal, the control signal comprising the system identification code; and wherein each of the slave units is configured to receive the control signal, and act upon the control signal only in the event that the system identification code in the control signal matches the system identification code stored in the memory of the respective slave unit; wherein the control signal is configured to initiate pairing and establish a communications link between the control master unit and the respective slave unit; wherein the control master unit is configured to pair with only one of the plurality of slave units at any one time; wherein each of the plurality of slave units is configured to adopt a state of readiness to pair upon activation; and wherein each of the slave units is configured to adopt a state of unavailability for pairing once the communications link is established with the control master unit. a control master unit, comprising a communication node for transmitting and receiving wireless signals and a user-inaccessible memory storing a system identification code; and a plurality of slave units (12a, 12b, 12c), each slave unit comprising a communication node for transmitting and receiving wireless signals and a user-inaccessible memory storing a system identification code which is in common with the system identification code stored in the user-inaccessible memory of the control master unit; wherein the control master unit is configured to transmit a control signal, the control signal comprising the system identification code; and wherein each of the slave units is configured to receive the control signal, and act upon the control signal only in the event that the system identification code in the control signal matches the system identification code stored in the memory of the respective slave unit; wherein the control signal is configured to initiate pairing and establish a communications link between the control master unit and the respective slave unit; wherein the control master unit is configured to pair with only one of the plurality of slave units at any one time; wherein each of the plurality of slave units is configured to adopt a state of readiness to pair upon activation; and wherein each of the slave units is configured to adopt a state of unavailability for pairing once the communications link is established with the control master unit.
An air pollution-control device for a vehicle including a passenger compartment and a supply flap able to adopt closed, open and intermediate positions allowing said passenger compartment to be supplied with air originating respectively from the interior, from the exterior, and from the interior and the exterior of said passenger compartment, said device including pollution-control means arranged for removing pollution from at least a portion of the air supplying said passenger compartment, and further including analysis means arranged to estimate a risk of pollution as a function at least of data representative of the quality of the air at the exterior of said vehicle, and a physiological risk and/or a risk of misting as a function at least of a concentration of carbon dioxide and/or of a moisture content in said passenger compartment, of a number of passengers present in said passenger compartment, and of physical and health parameters of said passengers, and of control means arranged to control the position of said supply flap and the operation of said pollution-control means as a function at least of said estimated risk of pollution and estimated physiological risk and/or estimated risk of misting, characterized in that said control means are arranged to trigger the placement of said supply flap in its open position and to prohibit the operation of said pollution-control means when said estimated risk of pollution is less than a first threshold and said estimated physiological risk is less than a second threshold and/or the estimated risk of misting is less than a third threshold, or when said estimated risk of pollution is less than said first threshold and said estimated physiological risk is greater than said second threshold and/or said estimated risk of misting is greater than said third threshold.
A method of transmitting a radio link control, RLC, status report performed by a receiving apparatus in a wireless communication system, the method comprising: receiving an RLC protocol data unit, PDU, from a transmitting apparatus; generating a status PDU based on the RLC PDU; and transmitting the status PDU to the transmitting apparatus, wherein the status PDU includes an extension bit 1, E1, field indicating whether a negative acknowledgement sequence number, NACK_SN, field, an E1 field, an extension bit 2, E2, field, and an extension bit 3, E3, field follow, wherein the NACK_SN field indicates a first sequence number, SN, of an RLC data unit identified as lost, the E2 field indicates whether a segment offset, SO, start field and an SO end field follow, the E3 field indicates whether a NACK_range field follows, and the NACK_range field includes a number of consecutively lost RLC data units starting from and including the first SN, wherein a first reserved, R, field is placed immediately after the E1 field and an octet including the first R field is byte aligned based on the first R field, and wherein a second R field is placed immediately after the E3 field and an octet including the second R field is byte aligned based on the second R field. receiving an RLC protocol data unit, PDU, from a transmitting apparatus; generating a status PDU based on the RLC PDU; and transmitting the status PDU to the transmitting apparatus, wherein the status PDU includes an extension bit 1, E1, field indicating whether a negative acknowledgement sequence number, NACK_SN, field, an E1 field, an extension bit 2, E2, field, and an extension bit 3, E3, field follow, wherein the NACK_SN field indicates a first sequence number, SN, of an RLC data unit identified as lost, the E2 field indicates whether a segment offset, SO, start field and an SO end field follow, the E3 field indicates whether a NACK_range field follows, and the NACK_range field includes a number of consecutively lost RLC data units starting from and including the first SN, wherein a first reserved, R, field is placed immediately after the E1 field and an octet including the first R field is byte aligned based on the first R field, and wherein a second R field is placed immediately after the E3 field and an octet including the second R field is byte aligned based on the second R field.
An assist grip assembly comprising: a user handle; and an object hook pivotally coupled to the user handle; and a pivot-control mechanism enabling dependent rotation, in which the object hook and the user handle move together, and permitting independent rotation, in which the object hook and the user handle move freely with respect to one another, wherein the pivot-control mechanism includes a mating shaft and a receiving cavity having a flex retainer disposed therein, the flex retainer engaging the mating shaft during the dependent rotation, the flex retainer releasing the mating shaft to permit the independent rotation, characterized in that the mating shaft is integrally formed with the user handle. a user handle; and an object hook pivotally coupled to the user handle; and a pivot-control mechanism enabling dependent rotation, in which the object hook and the user handle move together, and permitting independent rotation, in which the object hook and the user handle move freely with respect to one another, wherein the pivot-control mechanism includes a mating shaft and a receiving cavity having a flex retainer disposed therein, the flex retainer engaging the mating shaft during the dependent rotation, the flex retainer releasing the mating shaft to permit the independent rotation, characterized in that the mating shaft is integrally formed with the user handle.
Process for conversion of a paraffinic feedstock that has a number of carbon atoms of between 10 and 22, whereby said paraffinic feedstock is produced starting from renewable resources, excluding paraffinic feedstocks that are obtained by a process that involves a stage for upgrading by the Fischer-Tropsch method, whereby said process uses a catalyst that comprises at least one hydrogenating-dehydrogenating metal that is selected from the group that is formed by the metals of group VIB and group VIII of the periodic table, taken by themselves or in a mixture, and a substrate comprising at least one IZM-2 zeolite and at least one binder, whereby said process is carried out at a temperature of between 150 and 500°C, at a pressure of between 0.1 MPa and 15 MPa, at an hourly volumetric flow rate of between 0.1 and 10 h -1, and in the presence of a total quantity of hydrogen that is mixed with the feedstock such that the hydrogen/feedstock ratio is between 70 and 2,000 Nm 3 /m 3 of feedstock.
Actuating apparatus for actuating a friction clutch, in particular for coupling a drive shaft of a motor vehicle engine to at least one transmission input shaft of a motor vehicle transmission, having an axially movable sliding sleeve for moving a pressure plate of the friction clutch, and a pivotable lever which acts on the sliding sleeve in order to move the sliding sleeve, the sliding sleeve being supported on the lever in the radial direction over the movement travel between two end positions of the lever, characterized in that the sliding sleeve has a first part sleeve which is guided on the lever and a second part sleeve which can be moved radially with respect to the first part sleeve to a limited extent, it being possible for the second part sleeve to be moved axially by the first part sleeve, in particular via a clip connection.
Method for detecting the status of a moving object during the at least semi-autonomous manoeuvring of a motor vehicle along a trajectory by using a control unit and a sensor system, by carrying out the following method steps: a) detecting an object in a first state in or on the trajectory by means of the sensor system in a training phase, b) detecting the object in a second state in or on the trajectory by means of the sensor system in the training phase, c) comparing the results from step a) and step b) and identifying the object which was detected in the first state in step a) and in the second state in step b) as the moving object, d) determining the status of the moving object in an operating phase, wherein the sensor system detects an area surrounding the motor vehicle, and generating a status signal relating to the status of the moving object, wherein the sensor system has at least one camera and at least one further sensor, and the at least one camera and the at least one further sensor together continuously detect an area surrounding the motor vehicle, wherein the motor vehicle is brought to a standstill at a first intermediate point in the training phase, characterized in that at the first intermediate point, the at least one further sensor detects no obstacle but the at least one camera has already detected the obstacle. a) detecting an object in a first state in or on the trajectory by means of the sensor system in a training phase, b) detecting the object in a second state in or on the trajectory by means of the sensor system in the training phase, c) comparing the results from step a) and step b) and identifying the object which was detected in the first state in step a) and in the second state in step b) as the moving object, d) determining the status of the moving object in an operating phase, wherein the sensor system detects an area surrounding the motor vehicle, and generating a status signal relating to the status of the moving object, wherein the sensor system has at least one camera and at least one further sensor, and the at least one camera and the at least one further sensor together continuously detect an area surrounding the motor vehicle, wherein the motor vehicle is brought to a standstill at a first intermediate point in the training phase, characterized in that at the first intermediate point, the at least one further sensor detects no obstacle but the at least one camera has already detected the obstacle.
A separator for lithium secondary battery comprising: a plate-like porous substrate; and a porous thin-film coating layer formed on at least one surface of the plate-like porous substrate, the porous thin-film coating layer consisting of crosslinked polyamide prepared by polymerization of a multifunctional amine compound having at least two amine groups with a multifunctional acyl halide compound of an aromatic compound having at least two acyl halide groups, and the plate-like porous substrate being a polyolefin-based porous membrane. a plate-like porous substrate; and a porous thin-film coating layer formed on at least one surface of the plate-like porous substrate,
An actuating ring for a tire mold, the actuating ring having a plurality of axially upper slots (324, 325) and a plurality of axially lower slots (322, 323) that are axially offset from the axially upper slots (324, 325), wherein the axially upper slots (324, 325) include first upper slots and second upper slots, the second upper slots being circumferentially shorter than the first upper slots; and wherein the axially lower slots (322, 323) include first lower slots and second upper slots, the second lower slots being circumferentially shorter than the first lower slots.
A composite power amplifier for amplification of an input signal into an output signal, wherein the composite power amplifier comprises: an input port for receiving the input signal, an output port for providing the output signal, a first set of sub-amplifiers, comprising at least two sub-amplifiers (111, 112), wherein the at least two sub-amplifiers (111, 112) of the first set are arranged along a taper of a first transmission line, wherein the first transmission line is connected to the first set of sub-amplifiers and the output port, a second set of sub-amplifiers, comprising at least two sub-amplifiers (121, 122), wherein the at least two sub-amplifiers (121, 122) of the second set are arranged along a taper of a second transmission line, wherein the second transmission line is connected to the second set of sub-amplifiers and the output port, wherein the composite power amplifier is configured with a first transition point related to an amplitude of the input signal, wherein the composite power amplifier comprises: a third set of sub-amplifiers, comprising at least two sub-amplifiers (131, 132), wherein the at least two sub-amplifiers (131, 132) of the third set are arranged along a taper of a third transmission line, wherein the third transmission line is connected to the third set of sub-amplifiers and the output port, wherein the composite power amplifier is configured to operate only the third set of sub-amplifiers below the first transition point. an input port for receiving the input signal, an output port for providing the output signal, a first set of sub-amplifiers, comprising at least two sub-amplifiers (111, 112), wherein the at least two sub-amplifiers (111, 112) of the first set are arranged along a taper of a first transmission line, wherein the first transmission line is connected to the first set of sub-amplifiers and the output port, a second set of sub-amplifiers, comprising at least two sub-amplifiers (121, 122), wherein the at least two sub-amplifiers (121, 122) of the second set are arranged along a taper of a second transmission line, wherein the second transmission line is connected to the second set of sub-amplifiers and the output port, wherein the composite power amplifier is configured with a first transition point related to an amplitude of the input signal, wherein the composite power amplifier comprises: a third set of sub-amplifiers, comprising at least two sub-amplifiers (131, 132), wherein the at least two sub-amplifiers (131, 132) of the third set are arranged along a taper of a third transmission line, wherein the third transmission line is connected to the third set of sub-amplifiers and the output port, wherein the composite power amplifier is configured to operate only the third set of sub-amplifiers below the first transition point.
A method for measuring the level of the Insulin Receptor Substrate 1 protein in a human biological sample of formalin fixed tissue, comprising detecting and/or quantifying the amount of an IRS1 fragment peptide in a protein digest prepared from said human biological sample using mass spectrometry; and calculating the level of IRS protein in said sample; wherein the IRS1 fragment peptide is SEQ ID NO: 70 or SEQ ID NO: 76, and wherein said level is a relative level or an absolute level.
A fluoropiperidine compound of formula, Wherein: R 1 represents phenyl or pyridyl; wherein the phenyl or pyridyl is optionally substituted with one or more groups selected from halogen, (C 1-6)-alkyl or halo(C 1-6)-alkyl; R 2 represents hydrogen or (C 1-6)-alkyl; R 3 represents hydrogen or (C 1-6)-alkyl; or R 2 and R 3 can combine together to form (C 3-6)-cycloalkyl; R 4 represents hydrogen, (C 1-6)-alkyl or halo(C 1-6)-alkyl; R 5 represents hydrogen, (C 1-6)-alkyl, halo(C 1-6)-alkyl or -(CH 2) 0-3 -(C 3-6)-cycloalkyl; or a stereoisomer or an isotopic form or a pharmaceutically acceptable salt thereof. R 1 represents phenyl or pyridyl; wherein the phenyl or pyridyl is optionally substituted with one or more groups selected from halogen, (C 1-6)-alkyl or halo(C 1-6)-alkyl; R 2 represents hydrogen or (C 1-6)-alkyl; R 3 represents hydrogen or (C 1-6)-alkyl; or R 2 and R 3 can combine together to form (C 3-6)-cycloalkyl; R 4 represents hydrogen, (C 1-6)-alkyl or halo(C 1-6)-alkyl; R 5 represents hydrogen, (C 1-6)-alkyl, halo(C 1-6)-alkyl or -(CH 2) 0-3 -(C 3-6)-cycloalkyl; or a stereoisomer or an isotopic form or a pharmaceutically acceptable salt thereof.
Closure system for bottles containing lyophilized or liquid products, particularly injectable or perfusable pharmaceutical products, comprising: - a perforable closure body adapted for closing the mouth of a bottle; - an inner capsule, able to be fitted onto the neck of said bottle, configured to hold said closure body in a sealed closure configuration of said mouth of said bottle, said inner capsule comprising an opening adapted for allowing access to said closure body; - an outer capsule, able to be fitted onto said inner capsule; wherein said outer capsule is made in a single body and comprises an upper disc-shaped portion configured to close said opening of said inner capsule and a lower portion fitted around said inner capsule, said outer capsule comprising a breaking line between said upper disc-shaped portion and said lower portion, characterised in that the lower portion of the outer capsule completely covers the side of the inner capsule. - a perforable closure body adapted for closing the mouth of a bottle; - an inner capsule, able to be fitted onto the neck of said bottle, configured to hold said closure body in a sealed closure configuration of said mouth of said bottle, said inner capsule comprising an opening adapted for allowing access to said closure body; - an outer capsule, able to be fitted onto said inner capsule;
A method for producing titanium powder containing a solid-soluted oxygen, comprising the steps of: heating the titanium powder comprised of titanium particles in an oxygen-containing atmosphere to form a titanium oxide layer on a surface of each of titanium particles; heating the titanium powder having the titanium oxide layer in an oxygen-free atmosphere to decompose the titanium oxide layer on the surface of the titanium particle so that oxygen atoms dissociated form a solid solution in a matrix of the titanium particle, wherein a heating temperature for forming the titanium oxide layer is 160°C or higher and less than 600°C, and wherein a heating temperature for decomposing the titanium oxide layer is 450°C or higher and less than a melting point of the titanium oxide layer wherein a cycle including of formation of the titanium oxide layer and subsequent decomposition of the titanium oxide layer is repeated a plurality of times to increase an oxygen content to be a solid solution in the matrix of the titanium particle and to bring the oxygen content of the titanium particle into the range of 1.15 to 4.7 mass%. heating the titanium powder comprised of titanium particles in an oxygen-containing atmosphere to form a titanium oxide layer on a surface of each of titanium particles; heating the titanium powder having the titanium oxide layer in an oxygen-free atmosphere to decompose the titanium oxide layer on the surface of the titanium particle so that oxygen atoms dissociated form a solid solution in a matrix of the titanium particle, wherein a heating temperature for forming the titanium oxide layer is 160°C or higher and less than 600°C, and wherein a heating temperature for decomposing the titanium oxide layer is 450°C or higher and less than a melting point of the titanium oxide layer wherein a cycle including of formation of the titanium oxide layer and subsequent decomposition of the titanium oxide layer is repeated a plurality of times to increase an oxygen content to be a solid solution in the matrix of the titanium particle and to bring the oxygen content of the titanium particle into the range of 1.15 to 4.7 mass%.