mhurhangee/ep-ind-claims huggingface dataset:
An apparatus (110, 200) for interfacing between a digital audio source device and two or more wireless speakers (141, 142, 143, 144, 145), comprising: a connector that connects to the digital audio source device, and that receives power from the digital audio source device, wherein the apparatus (110, 200) is powered by the received power; an input digital audio interface that receives an input digital audio signal from the digital audio source device via a wired signal path; a processor that receives the input digital audio signal from the input digital audio interface, and that generates an output digital audio signal comprising a surround audio signal; a wireless transceiver including an output audio transmitter that receives the output digital audio signal from the processor, and that transmits two or more calibration tones and the output digital audio signal to the two or more wireless speakers (141, 142, 143, 144, 145) via a wireless signal path, wherein each calibration tone is unique for one of the wireless speakers (141, 142, 143, 144, 145), wherein the wireless transceiver receives audio data from a first wireless speaker (141, 142, 143, 144, 145) via the wireless signal path, and wherein the audio data has been recorded by the first wireless speaker (141, 142, 143, 144, 145), and wherein the processor determines, using the two or more calibration tones, that the audio data corresponds to one of the calibration tones rendered by a second wireless speaker (141, 142, 143, 144, 145). a connector that connects to the digital audio source device, and that receives power from the digital audio source device, wherein the apparatus (110, 200) is powered by the received power; an input digital audio interface that receives an input digital audio signal from the digital audio source device via a wired signal path; a processor that receives the input digital audio signal from the input digital audio interface, and that generates an output digital audio signal comprising a surround audio signal; a wireless transceiver including an output audio transmitter that receives the output digital audio signal from the processor, and that transmits two or more calibration tones and the output digital audio signal to the two or more wireless speakers (141, 142, 143, 144, 145) via a wireless signal path, wherein each calibration tone is unique for one of the wireless speakers (141, 142, 143, 144, 145), wherein the wireless transceiver receives audio data from a first wireless speaker (141, 142, 143, 144, 145) via the wireless signal path, and wherein the audio data has been recorded by the first wireless speaker (141, 142, 143, 144, 145), and wherein the processor determines, using the two or more calibration tones, that the audio data corresponds to one of the calibration tones rendered by a second wireless speaker (141, 142, 143, 144, 145).
Device for an optical sensor for a motor vehicle, said optical sensor comprising an optic, - a housing that is mounted so as to be able to rotate around an axis of rotation and that has a compartment that is configured to accommodate the optical sensor; - an optical element that is securely fastened to the housing, the optical element having at least one planar surface (9a, 9b) that is configured to be placed in the field of view of the optical sensor, and the position of the optical element defined the front of the housing; and - an actuator that is coupled to the housing in order to drive the housing and the optical element to rotate, the device characterized in that the actuator is arranged at the rear of the housing. - a housing that is mounted so as to be able to rotate around an axis of rotation and that has a compartment that is configured to accommodate the optical sensor; - an optical element that is securely fastened to the housing, the optical element having at least one planar surface (9a, 9b) that is configured to be placed in the field of view of the optical sensor, and the position of the optical element defined the front of the housing; and - an actuator that is coupled to the housing in order to drive the housing and the optical element to rotate,
A nucleic acid construct comprising the following structure: A-X-B in which X is a nucleic acid sequence which encodes a cleavage site; and A and B are nucleic acid sequences encoding a first and a second chimeric antigen receptor, each CAR comprising: (i) an antigen-binding domain; (ii) a spacer (iii) a trans-membrane domain; and (iv) an endodomain wherein the antigen binding domains of the first and second CARs bind to different antigens, wherein the spacer of the first CAR has a different size to the spacer of the second CAR such that when the first CAR and the second CAR bind their respective target antigens at the cell surface, the first CAR and second CAR become spatially separated on the cell membrane; wherein one of the first or second CARs is an activating CAR comprising an activating endodomain and the other CAR is an inhibitory CAR comprising a ligation-off inhibitory endodomain, which inhibitory CAR inhibits T-cell activation by the activating CAR in the absence of inhibitory CAR ligation, but does not significantly inhibit T-cell activation by the activating CAR when the inhibitory CAR is ligated; and wherein: (a) the first and/or second CAR comprises an intracellular retention signal; and/or (b) the signal peptide of the first or second CAR comprises one or more mutation(s) such that it has fewer hydrophobic amino acids. X is a nucleic acid sequence which encodes a cleavage site; and A and B are nucleic acid sequences encoding a first and a second chimeric antigen receptor, each CAR comprising: (i) an antigen-binding domain; (ii) a spacer (iii) a trans-membrane domain; and (iv) an endodomain (i) an antigen-binding domain; (ii) a spacer (iii) a trans-membrane domain; and (iv) an endodomain (a) the first and/or second CAR comprises an intracellular retention signal; and/or (b) the signal peptide of the first or second CAR comprises one or more mutation(s) such that it has fewer hydrophobic amino acids.
Vehicle composite pane with an integrated light sensor, at least comprising an outer pane and an inner pane that are bonded to one another via a thermoplastic intermediate layer, wherein at least four photodiodes situated on a circuit board are arranged between the outer pane and the inner pane, wherein the photodiodes are SMD components, and wherein the photodiodes are arranged on the circuit board as serially connected groups of parallel connected photodiodes.
Display device, comprising an optical display unit, which is designed to display at least one pictogram, and a housing frame, the optical display unit being elastically mounted on the housing frame and being designed to be excited to mechanical vibrations relative to the housing frame, and the display device having vibration-generating means which are designed to excite the optical display unit to mechanical vibrations for reproducing an acoustic signal in a frequency range perceptible to humans on the basis of a control signal; and the display device comprising a control unit for generating and outputting the control signal to the vibration-generating means of the display device, and characterized in that the control unit is designed to actuate the vibration-generating means using the control signal in a first operating mode for acoustically reproducing a voice and/or music signal, and to actuate these means simultaneously with optical output of the pictogram and acoustic output of the acoustic signal associated with the pictogram, and the control unit is designed to actuate the vibration-generating means in the first operating mode if the control unit detects an operation of the display device in a mains operation, and to actuate the vibration-generating means in the second operating mode if the control unit detects a mains-independent, battery-supported operation of the display device. comprising an optical display unit, which is designed to display at least one pictogram, and a housing frame, the optical display unit being elastically mounted on the housing frame and being designed to be excited to mechanical vibrations relative to the housing frame, and the display device having vibration-generating means which are designed to excite the optical display unit to mechanical vibrations for reproducing an acoustic signal in a frequency range perceptible to humans on the basis of a control signal; and the display device comprising a control unit for generating and outputting the control signal to the vibration-generating means of the display device, and characterized in that the control unit is designed to actuate the vibration-generating means using the control signal in a first operating mode for acoustically reproducing a voice and/or music signal, and to actuate these means simultaneously with optical output of the pictogram and acoustic output of the acoustic signal associated with the pictogram, and the control unit is designed to actuate the vibration-generating means in the first operating mode if the control unit detects an operation of the display device in a mains operation, and to actuate the vibration-generating means in the second operating mode if the control unit detects a mains-independent, battery-supported operation of the display device.
A wireless communication method, comprising: transmitting, by an access point, AP, a multi-user ready-to-send, MU-RTS, trigger frame to a plurality of stations, STAs, wherein the MU-RTS trigger frame indicates whether a clear-to-send, CTS, frame response is to be transmitted by each of the plurality of STAs on a primary 20 MHz channel, P20, a primary 40 MHz channel, P40, a primary 80 MHz channel, P80, a primary 160 MHz channel, P160, or a 320 MHz channel, and at least one 20 MHz channel is punctured in the P80, the P160, or the 320 MHz channel, wherein each user information field of the MU-RTS trigger frame comprises a subfield and an RU allocation subfield, and the subfield and the RU allocation subfield of each user information field in the MU-RTS trigger frame indicate RU allocation information, and wherein the subfield of each user information field in the MU-RTS trigger frame comprises a lower/upper 160 MHz segment subfield. transmitting, by an access point, AP, a multi-user ready-to-send, MU-RTS, trigger frame to a plurality of stations, STAs, wherein the MU-RTS trigger frame indicates whether a clear-to-send, CTS, frame response is to be transmitted by each of the plurality of STAs on a primary 20 MHz channel, P20, a primary 40 MHz channel, P40, a primary 80 MHz channel, P80, a primary 160 MHz channel, P160, or a 320 MHz channel, and at least one 20 MHz channel is punctured in the P80, the P160, or the 320 MHz channel, wherein each user information field of the MU-RTS trigger frame comprises a subfield and an RU allocation subfield, and the subfield and the RU allocation subfield of each user information field in the MU-RTS trigger frame indicate RU allocation information, and wherein the subfield of each user information field in the MU-RTS trigger frame comprises a lower/upper 160 MHz segment subfield.
A microRNA inhibitor comprising two or more sequences complementary to a sequence of a microRNA to be the target of inhibition, wherein said two or more complementary sequences are linked via linker residue (s), the linker residue is bonded to each terminal portion of said complementary sequences present at the both termini of the microRNA inhibitor, and wherein the linker residue is selected from the group consisting of an atomic group represented by the following chemical formula: in the aforementioned chemical formula, Gly is an atomic group represented by the following chemical formula (Gly), the terminal carbonyl carbon in the following chemical formula (Gly) is bonded to N atom in the chemical formula, the terminal nitrogen atom in the following chemical formula (Gly) is bonded to the carbonyl carbon in the above-mentioned chemical formula, (Gly) -HN-CH 2 -CO-; an atomic group represented by the following chemical formula: in the aforementioned chemical formula, GlyGly is an atomic group represented by the following chemical formula (GlyGly), the terminal carbonyl carbon in the following chemical formula (GlyGly) is bonded to N atom in the chemical formula, the terminal nitrogen atom in the following chemical formula (GlyGly) is bonded to the carbonyl carbon in the above-mentioned chemical formula, (GlyGly) -HN-CH 2 -CO-HN-CH 2 -CO-; and an atomic group represented by the following chemical formula: and provided that when the linker residue is present at the terminal portion of the complementary sequence of the aforementioned microRNA present at the terminus, a terminal of the linker residue is H, a protecting group or a phosphate-protecting group. in the aforementioned chemical formula, Gly is an atomic group represented by the following chemical formula (Gly), the terminal carbonyl carbon in the following chemical formula (Gly) is bonded to N atom in the chemical formula, the terminal nitrogen atom in the following chemical formula (Gly) is bonded to the carbonyl carbon in the above-mentioned chemical formula, (Gly) -HN-CH 2 -CO-; in the aforementioned chemical formula, GlyGly is an atomic group represented by the following chemical formula (GlyGly), the terminal carbonyl carbon in the following chemical formula (GlyGly) is bonded to N atom in the chemical formula, the terminal nitrogen atom in the following chemical formula (GlyGly) is bonded to the carbonyl carbon in the above-mentioned chemical formula, (GlyGly) -HN-CH 2 -CO-HN-CH 2 -CO-; and
A method of operations in a subterranean formation comprising: a) providing a string of drill pipe with an attached drill bit to define a drill string; b) forming a wellbore through the formation using the drill string; characterized by, c) forming a seal across a space bounded by the drill bit and a wall of the wellbore by filling spaces between adjacent blades on the drill bit with sliding blades that slide into the spaces and which creates a sealed space from a bottom end of the wellbore to the seal; d) injecting pressurized fluid into the sealed space from the drill bit to pressurize the sealed space; and e) fracturing a portion of the formation adjacent the sealed space by the step of pressurizing the sealed space. a) providing a string of drill pipe with an attached drill bit to define a drill string; b) forming a wellbore through the formation using the drill string; c) forming a seal across a space bounded by the drill bit and a wall of the wellbore by filling spaces between adjacent blades on the drill bit with sliding blades that slide into the spaces and which creates a sealed space from a bottom end of the wellbore to the seal; d) injecting pressurized fluid into the sealed space from the drill bit to pressurize the sealed space; and e) fracturing a portion of the formation adjacent the sealed space by the step of pressurizing the sealed space.
A network mechanism for a communication network with a first control mechanism, a second control mechanism, a first physical port, which is assigned to the first control mechanism and a second physical port, which is assigned to the second control mechanism, wherein the first and the second physical port are set up to receive data from a transmission medium and to send data, wherein the network mechanism is set up such that either transmitted data from the first control mechanism are coupled by an internal transmit connector of the first control mechanism via the first physical port into the transmission medium and received data arriving at the second physical port are routed to an internal receive connector of the first control mechanism, or that received data (ED1') arriving at the first physical port are routed to an internal receive connector of the first control mechanism and transmitted data (SD1') from the first control mechanism are coupled by an internal transmit connector of the first control mechanism via the second physical port into the transmission medium, further with a first and a second switch mechanism, wherein a respective switch mechanism (4, 5) comprises a plurality of switch ports, wherein a respective switch port comprises an internal transmit connector and an internal receive connector and the first switch mechanism with a switch port is communicatively coupled to the first control mechanism and the second switch mechanism with a switch port is communicatively coupled to the second control mechanism.
A method for determining misalignment of a radar sensor unit mounted to a vehicle comprising: positioning a vehicle at a test station so that a radar sensor unit mounted thereon is disposed at a given location and a given distance from an alignment apparatus that includes a plurality of targets (41, 42, 43) that form a pattern, the plurality of targets (41, 42, 43) including two targets aligned horizontally and two targets aligned vertically with respect to each other, and wherein at least one of the targets is offset in depth from the other targets; transmitting a radar wave from the radar sensor unit toward the pattern of targets; receiving at the radar sensor unit, radar waves reflected by the pattern of targets; determining locations and distances of the pattern of targets with the radar sensor unit from the reflected radar waves; comparing the determined locations and distances of the two horizontally spaced targets with given locations and distances for the two horizontally spaced targets stored in a memory and comparing the determined locations and distances of the two vertically spaced targets with given locations and distances for the two vertically spaced targets stored in the memory; determining an alignment for the radar sensor unit from the comparisons of the targets; and adjusting an alignment of the radar sensor unit based at least on the comparing of the determined locations and distances of the two horizontally spaced targets and the comparing of the determined locations and distances of the two vertically spaced targets. positioning a vehicle at a test station so that a radar sensor unit mounted thereon is disposed at a given location and a given distance from an alignment apparatus that includes a plurality of targets (41, 42, 43) that form a pattern, the plurality of targets (41, 42, 43) including two targets aligned horizontally and two targets aligned vertically with respect to each other, and wherein at least one of the targets is offset in depth from the other targets; transmitting a radar wave from the radar sensor unit toward the pattern of targets; receiving at the radar sensor unit, radar waves reflected by the pattern of targets; determining locations and distances of the pattern of targets with the radar sensor unit from the reflected radar waves; comparing the determined locations and distances of the two horizontally spaced targets with given locations and distances for the two horizontally spaced targets stored in a memory and comparing the determined locations and distances of the two vertically spaced targets with given locations and distances for the two vertically spaced targets stored in the memory; determining an alignment for the radar sensor unit from the comparisons of the targets; and adjusting an alignment of the radar sensor unit based at least on the comparing of the determined locations and distances of the two horizontally spaced targets and the comparing of the determined locations and distances of the two vertically spaced targets.
Lighting system comprising: - a light source, in particular a LED, - an optical assembly having a lens located opposite to said light source and adapted to make a movement at least partially of translation along its optical axis, and - a mechanical assembly adapted to cause rotation of a rotor of said optical assembly and consequently translation of said lens; wherein said mechanical assembly comprises: - a slide adapted to run along a guide in a first direction and in a second direction opposite to the first direction between two ends of said guide, and - a first actuator means adapted to cause sliding of said slide in said first direction between said two ends, characterized in that said slide is adapted to cause rotation of said rotor only when said slide runs in said first direction. - a light source, in particular a LED, - an optical assembly having a lens located opposite to said light source and adapted to make a movement at least partially of translation along its optical axis, and - a mechanical assembly adapted to cause rotation of a rotor of said optical assembly and consequently translation of said lens; - a slide adapted to run along a guide in a first direction and in a second direction opposite to the first direction between two ends of said guide, and - a first actuator means adapted to cause sliding of said slide in said first direction between said two ends, characterized in that said slide is adapted to cause rotation of said rotor only when said slide runs in said first direction.
A hydraulic oil composition comprising a base oil, the base oil consisting of a base oil for hydraulic oil comprising a mineral oil; and a poly(meth)acrylate series additive having a weight-average molecular weight of 10,000 to 1,000,000 in an amount of 0.1 to 15 mass % to the total mass of the composition; said base oil is defined by kinematic viscosity at 100°C: 3.5 to 4.5 mm 2 /s, pour-point: -10°C or less, viscosity index: 100 or more, %C P: 70 or more, %C A: 2 or less, and aniline point: 106°C or more; said base oil contains tertiary carbon atoms at a ratio of 7.4% or more to the total carbon atoms; and wherein the base oil is a base oil the base oil having a kinematic viscosity at 100°C of 3.5 to 4.5 mm 2 /s, or is a mixed base oil of the base oil and a base oil, the base oil having a kinematic viscosity at 100°C of 1.5 to 3.5 mm 2 /s; wherein %C P is the percentage of paraffinic carbon number to total carbon number, %C A is the percentage of aromatic carbon number to total carbon number, %C P and %C A being measured by a method in accordance with ASTM D 3238-85, and the aniline point is measured in accordance with JIS K 2256-1985.
Perfume dispensing device, comprising a bottle equipped with a neck to which a pump is fixed, and a nebulizer button which includes a base to which an actuation push button is coupled, the push button and the base being mutually configured so that the push button can rotate in a limited way with respect to the base between at least a first angular dispensing position in which the button is slidable with respect to the base in an axial direction for the actuation of the pump between a first rest position and a second actuation position, and a second angular closing position where said base prevents the axial sliding of said button, the button defining a delivery channel equipped at a first end with a nebulization nozzle and sealedly coupled at a second end to a hollow stem of the pump, the base being fixed and torsionally coupled to the pump and/or to the container, the perfume dispensing device being characterized in that the push button and the base are mutually configured so that the push button provides a angular mounting position with respect to the base, different from said first angular dispensing position and from said second angular closing position, the base and the push button providing mutual engagement means (18, 19) which block the axial movement of the push button with respect to the base when the push button is in said angular mounting position.