mhurhangee/ep-ind-claims huggingface dataset:
An apparatus (108, 300, 400) to wake up a slave circuit in a system, the apparatus comprising: a coupler configured to couple a remote wake-up signal between a master circuit and the slave circuit using at least one connection of the fixed set of cable connections, the at least one connection further coupling a second signal between the master circuit and the slave circuit; a selection component (322, 406, 408) configured to select, at the slave circuit, the remote wake-up signal from a radio frequency, RF, control signal, an intermediate frequency, IF, signal, or a local oscillator, LO, signal; and a detector (312, 314, 402) configured to detect, at the slave circuit, the remote wake-up signal coupled between the master circuit and the slave circuit; and a wake-up signal generator (342, 344, 404) configured to generate a local wake-up signal at the slave circuit based on detecting the remote wake-up signal coupled between the master circuit and the slave circuit and wake up the slave circuit with the local wake-up signal. a coupler configured to couple a remote wake-up signal between a master circuit and the slave circuit using at least one connection of the fixed set of cable connections, the at least one connection further coupling a second signal between the master circuit and the slave circuit; a selection component (322, 406, 408) configured to select, at the slave circuit, the remote wake-up signal from a radio frequency, RF, control signal, an intermediate frequency, IF, signal, or a local oscillator, LO, signal; and a detector (312, 314, 402) configured to detect, at the slave circuit, the remote wake-up signal coupled between the master circuit and the slave circuit; and a wake-up signal generator (342, 344, 404) configured to generate a local wake-up signal at the slave circuit based on detecting the remote wake-up signal coupled between the master circuit and the slave circuit and wake up the slave circuit with the local wake-up signal.
A composition for AAV-mediated delivery of a therapeutic product having a controlled transgene expression ablation system, said composition comprising (a) an AAV vector containing a nucleic acid molecule comprising: (i) a nucleic acid sequence encoding a therapeutic product operably linked to a promoter that controls transcription; and (ii) at least one endonuclease ablation site which comprises a sequence of at least 30 nucleic acid base pairs which are specifically recognized by at least ten zinc fingers, said at least one endonuclease ablation site being located at least 5' to the sequence encoding the therapeutic product; (b) at least one ablator which comprises a chimeric endonuclease comprising at least ten copies of a zinc finger domain linked to a functional endonuclease catalytic domain in operative association with a promoter, wherein transcription and/or ablation activity is induced in response to a pharmacological agent, said at least ten zinc finger domain specifically recognizing said at least 30 base pair sequence of (a)(ii) in said at least one endonuclease ablation site and comprising at least 10 recognition helices. (a) an AAV vector containing a nucleic acid molecule comprising: (i) a nucleic acid sequence encoding a therapeutic product operably linked to a promoter that controls transcription; and (ii) at least one endonuclease ablation site which comprises a sequence of at least 30 nucleic acid base pairs which are specifically recognized by at least ten zinc fingers, said at least one endonuclease ablation site being located at least 5' to the sequence encoding the therapeutic product; (i) a nucleic acid sequence encoding a therapeutic product operably linked to a promoter that controls transcription; and (ii) at least one endonuclease ablation site which comprises a sequence of at least 30 nucleic acid base pairs which are specifically recognized by at least ten zinc fingers, said at least one endonuclease ablation site being located at least 5' to the sequence encoding the therapeutic product; (b) at least one ablator which comprises a chimeric endonuclease comprising at least ten copies of a zinc finger domain linked to a functional endonuclease catalytic domain in operative association with a promoter, wherein transcription and/or ablation activity is induced in response to a pharmacological agent, said at least ten zinc finger domain specifically recognizing said at least 30 base pair sequence of (a)(ii) in said at least one endonuclease ablation site and comprising at least 10 recognition helices.
A method for pedestrian navigation for a user carrying a mobile device, the method comprising: estimating a three dimensional trajectory of motion of the mobile device in a building that does not enable acquisition of satellite position system signals, based at least in part on three dimensional sensor measurements performed by at least one motion sensor at said mobile device; and characterised by estimating, by the mobile device, a location of said mobile device in the building based at least in part on a comparison of said estimated three dimensional trajectory with one or more predetermined candidate three dimensional trajectories stored at said mobile device, wherein the method further comprises: obtaining externally-sourced, ES, position information for said mobile device before the mobile device enters the building; using said ES position information in the building to reduce a number of said one or more predetermined candidate three dimensional trajectories; and storing said obtained ES position information during at least a portion of time when said mobile device is located where said ES position information is not available. estimating a three dimensional trajectory of motion of the mobile device in a building that does not enable acquisition of satellite position system signals, based at least in part on three dimensional sensor measurements performed by at least one motion sensor at said mobile device; and characterised by estimating, by the mobile device, a location of said mobile device in the building based at least in part on a comparison of said estimated three dimensional trajectory with one or more predetermined candidate three dimensional trajectories stored at said mobile device, wherein the method further comprises: obtaining externally-sourced, ES, position information for said mobile device before the mobile device enters the building; using said ES position information in the building to reduce a number of said one or more predetermined candidate three dimensional trajectories; and storing said obtained ES position information during at least a portion of time when said mobile device is located where said ES position information is not available. obtaining externally-sourced, ES, position information for said mobile device before the mobile device enters the building; using said ES position information in the building to reduce a number of said one or more predetermined candidate three dimensional trajectories; and storing said obtained ES position information during at least a portion of time when said mobile device is located where said ES position information is not available.
An optical data storage tape comprising: a first read/write data area including a first plurality of tracks for storing data, each track, in the first plurality of tracks, having a first track width; a pre-seam area positioned between the first read/write data area and a seam, the pre-seam area including a second plurality of tracks, wherein at least one of the second plurality of tracks has a second track width greater than the first track width; the seam; a post-seam area positioned between the seam and a second read/write data area, the post-seam area including a third plurality of tracks, wherein at least one of the third plurality of tracks has a third track width that is greater than the first track width; the second read/write data area including a fourth plurality of tracks for storing data. a first read/write data area including a first plurality of tracks for storing data, each track, in the first plurality of tracks, having a first track width; a pre-seam area positioned between the first read/write data area and a seam, the pre-seam area including a second plurality of tracks, wherein at least one of the second plurality of tracks has a second track width greater than the first track width; the seam; a post-seam area positioned between the seam and a second read/write data area, the post-seam area including a third plurality of tracks, wherein at least one of the third plurality of tracks has a third track width that is greater than the first track width; the second read/write data area including a fourth plurality of tracks for storing data.
Apparatus for introducing shock waves into a living body for disintegrating concretions such as kidney stones, urinary stones or gall stones, the shock waves being introduced by at least one element (4; 12; 14) which transmits the shock waves and on which shock pulses act, at least one spring member serving to generate the shock pulses, the spring member being assigned a tensioning device, characterised in that an impact energy being stored in the spring member is abruptly released and can be transmitted to a percussion part (3, 16), via which the element (4, 12, 14) is abruptly acted on directly or indirectly via a projectile, the percussion part (3, 16) having a toothing or rack, into which a pinion engages, the pinion having a toothed rim only on a part of its circumference and therefore being suitable only for being engaged periodically with the toothing or rack.
Method for monitoring a cableway installation, the cableway installation comprising at least one vehicle provided with a clamp attaching the vehicle to the cable, the method comprising: - detection of entry of the at least one vehicle in a running zone to trigger calculation of a variable that is representative of a running length of the cable starting from said detection, - comparison of the variable with a threshold, - transmission of a malfunction signal (Sd) when the variable has reached the threshold, characterised in that the clamp is fixed to the cable so that the cable hauls the vehicle when the at least one vehicle is running in the running zone, in that the threshold is a threshold representative of the length of the running zone; and in that the method comprises determining receipt of an event indicating exit of the vehicle from the running zone, and transmitting the malfunction signal (Sd) if the event is not received after the variable has reached the threshold and/or includes resetting the variable in response to receipt of an event indicating exit of the vehicle from the running zone, the variable having not reached the threshold. - detection of entry of the at least one vehicle in a running zone to trigger calculation of a variable that is representative of a running length of the cable starting from said detection, - comparison of the variable with a threshold, - transmission of a malfunction signal (Sd) when the variable has reached the threshold, characterised in that the clamp is fixed to the cable so that the cable hauls the vehicle when the at least one vehicle is running in the running zone, in that the threshold is a threshold representative of the length of the running zone; and in that the method comprises determining receipt of an event indicating exit of the vehicle from the running zone, and transmitting the malfunction signal (Sd) if the event is not received after the variable has reached the threshold and/or includes resetting the variable in response to receipt of an event indicating exit of the vehicle from the running zone, the variable having not reached the threshold.
An outdoor blower device comprising: a housing having a motor and a fan therein; an air tube connected to a front portion of the housing; and a concentrator connected at an end of the air tube, the concentrator positioning an air guide surface within the air tube, characterised in that the air guide surface is partially inside the air tube and partially outside the air tube. a housing having a motor and a fan therein; an air tube connected to a front portion of the housing; and a concentrator connected at an end of the air tube, the concentrator positioning an air guide surface within the air tube,
A timepiece movement having a monolithic timepiece mechanism (6, 7) and a movable energy distribution member, said monolithic timepiece mechanism (6, 7) being made in a single plate of material and comprising a frame, a first elastic suspension (21; 121; 221; 321) and an inertial regulating member (17; 117; 217; 317) which is connected to the frame by said first elastic suspension so as to be able to oscillate, wherein the monolithic timepiece mechanism further includes a blocking mechanism having at least a blocking member (8; 108; 208) connected to the frame by a second elastic suspension (33; 133; 233), said blocking member (8; 108; 208) cooperating with said energy distribution member and being controlled by the regulating member (17; 117; 217; 317) to be able to regularly and alternatively hold and release said energy distribution member so that said energy distribution member moves by steps, of a constant travel at each step, said blocking mechanism being further adapted to regularly transmit energy from the energy distribution member to the regulating member (17; 117; 217; 317) for maintaining oscillation of said regulating member, wherein the blocking member (8; 108; 208) is connected to the regulating member (17; 117; 217; 317) by at least an elastic link (27; 127; 227; 327) so as to move in synchronism with said regulating member (17; 117; 217; 317).
An Fe-Ni-based alloy having excellent high-temperature characteristics and hydrogen embrittlement resistance, which has a composition consisting of, in terms of % by mass, C: 0.005% to 0.10%, Si: 0.01% to 0.10%, P: 0.015% or less, S: 0.003% or less, Ni: 23.0% to 27.0%, Cr: 12.0% to 16.0%, Mo: 0.01% or less, Nb: 0.01% or less, W: 2.5% to 6.0%, Al: 1.5% to 2.5%, and Ti: 1.5% to 2.5%, the balance being Fe and other unavoidable impurities, wherein the composition further optionally contains one or two kinds of B: 0.0020% to 0.0050% and Zr: 0.02% to 0.05%, wherein the alloy does not contain an η phase and wherein the alloy contains 15% or more of a γ' phase in terms of a volume ratio in the metal structure.
An impedance measurement apparatus comprising: a first hardware circuit element and a second hardware circuit element; an excitation circuit for outputting an excitation signal to an impedance under measurement, the excitation circuit comprising a first DAC arranged to convert a first digital input to a first output signal using the first or the second hardware circuit elements; and a sensing circuit arranged to sense a signal across the impedance, the sensing circuit comprising a second DAC arranged to convert a second digital input to a second output signal using the first or the second hardware circuit elements, wherein the apparatus is configured to operate in: a first mode in which the first DAC converts the first digital input using the first hardware circuit element and the second DAC converts the second digital input using the second hardware circuit element, and a second mode in which the first DAC converts the first digital input using the second hardware circuit element and the second DAC converts the second digital input using the first hardware circuit element. a first hardware circuit element and a second hardware circuit element; an excitation circuit for outputting an excitation signal to an impedance under measurement, the excitation circuit comprising a first DAC arranged to convert a first digital input to a first output signal using the first or the second hardware circuit elements; and a sensing circuit arranged to sense a signal across the impedance, the sensing circuit comprising a second DAC arranged to convert a second digital input to a second output signal using the first or the second hardware circuit elements, wherein the apparatus is configured to operate in: a first mode in which the first DAC converts the first digital input using the first hardware circuit element and the second DAC converts the second digital input using the second hardware circuit element, and a second mode in which the first DAC converts the first digital input using the second hardware circuit element and the second DAC converts the second digital input using the first hardware circuit element. a first mode in which the first DAC converts the first digital input using the first hardware circuit element and the second DAC converts the second digital input using the second hardware circuit element, and a second mode in which the first DAC converts the first digital input using the second hardware circuit element and the second DAC converts the second digital input using the first hardware circuit element.
A process for manufacturing a composite sheet comprising: providing a substrate having a first outer surface and an opposing second outer surface; metalizing the first outer surface of the substrate to form thereon a metal layer; depositing on the metal layer a precursor of an outer polymeric coating layer to form a precursor film, the precursor being capable of being cured to form a three-dimensional network containing a plurality of linkages having a structure -A-R-B-, wherein A is an olefin group polymerically linked to another olefin group, B is a silane or isocyanate group cross-linked to another silane or isocyanate group, and R is a diradical comprising at least one of a C1 to C20 alkylene or aryl, each optionally substituted with a member selected from the group consisting of O, N, P and S, and wherein the alkylene can be linear, branched, or cyclic; and treating the precursor to form the outer polymeric coating layer, the treating comprising: creating free radicals in the precursor to induce polymerization of at least a portion thereof; and exposing the precursor film to water vapor. providing a substrate having a first outer surface and an opposing second outer surface; metalizing the first outer surface of the substrate to form thereon a metal layer; depositing on the metal layer a precursor of an outer polymeric coating layer to form a precursor film, the precursor being capable of being cured to form a three-dimensional network containing a plurality of linkages having a structure -A-R-B-, wherein A is an olefin group polymerically linked to another olefin group, B is a silane or isocyanate group cross-linked to another silane or isocyanate group, and R is a diradical comprising at least one of a C1 to C20 alkylene or aryl, each optionally substituted with a member selected from the group consisting of O, N, P and S, and wherein the alkylene can be linear, branched, or cyclic; and treating the precursor to form the outer polymeric coating layer, the treating comprising: creating free radicals in the precursor to induce polymerization of at least a portion thereof; and exposing the precursor film to water vapor. creating free radicals in the precursor to induce polymerization of at least a portion thereof; and exposing the precursor film to water vapor.
An integrated circuit structure, comprising: a transistor in a semiconductor layer, the transistor overlaying an oxide layer, the transistor including a first source/drain region and a body region in the semiconductor layer, the body region in contact with the oxide layer; a raised source/drain region coupled to a backside of the first source/drain region of the transistor, the raised source/drain region extending from the backside of the first source/drain region of the transistor into the oxide layer toward a dielectric layer arranged to support the oxide layer; a raised body region coupled to a backside of the body region of the transistor, the raised body region extending from the backside of the body region through the oxide layer and into the dielectric layer, wherein the raised body region and the raised source/drain region are separated via the oxide layer; and a metallization (550-2, 550-3) coupled to the raised source/drain region and/or the raised body region of the transistor. a transistor in a semiconductor layer, the transistor overlaying an oxide layer, the transistor including a first source/drain region and a body region in the semiconductor layer, the body region in contact with the oxide layer; a raised source/drain region coupled to a backside of the first source/drain region of the transistor, the raised source/drain region extending from the backside of the first source/drain region of the transistor into the oxide layer toward a dielectric layer arranged to support the oxide layer; a raised body region coupled to a backside of the body region of the transistor, the raised body region extending from the backside of the body region through the oxide layer and into the dielectric layer, wherein the raised body region and the raised source/drain region are separated via the oxide layer; and a metallization (550-2, 550-3) coupled to the raised source/drain region and/or the raised body region of the transistor.
A method for wireless communications, characterized by: identifying a reference number of tones for an overhead channel of a transport block, wherein the tones for the overhead channel are in a data region which is used for transmitting the transport block; and segmenting the transport block into one or more code blocks based at least in part on the reference number of tones for the overhead channel. identifying a reference number of tones for an overhead channel of a transport block, wherein the tones for the overhead channel are in a data region which is used for transmitting the transport block; and segmenting the transport block into one or more code blocks based at least in part on the reference number of tones for the overhead channel.
A comfort layer (16, 50, 56, 16a, 56a, 132, 140, 150, 160, 160a, 180, 200) configured to overlay a spring core of a bedding or seating cushion product, said comfort layer comprising: a matrix of pocketed mini coil springs, each mini coil spring of which is contained within a pocket (44, 84, 44a, 84a, 171, 175), said pocket being permeable to airflow through said pocket and having a weld seam (30, 70, 30a, 70a, 170, 172) around the pocket joining first and second pieces of fabric (22, 24, 64, 66) of the pocket; at least one of said pieces of fabric (22, 24, 64, 66) being made of a nonwoven aperture fabric to increase the rate at which air escapes through the fabric of the pocket when a load is placed on the pocket, the rate of compression of the mini coil springs subjected to the load being increased by apertures in the fabric, at least one of said pieces of fabric being a four-mesh or or an eight, ten, twenty or twenty-two mesh-fabric, the four-mesh fabric being a non-woven spunlaced fabric having four apertures per square centimeter wherein each of the apertures has an oval shape in a relaxed condition, in which the length dimension is 3 millimeters and the width dimension is 2.5 millimeters. a matrix of pocketed mini coil springs, each mini coil spring of which is contained within a pocket (44, 84, 44a, 84a, 171, 175), said pocket being permeable to airflow through said pocket and having a weld seam (30, 70, 30a, 70a, 170, 172) around the pocket joining first and second pieces of fabric (22, 24, 64, 66) of the pocket; at least one of said pieces of fabric (22, 24, 64, 66) being made of a nonwoven aperture fabric to increase the rate at which air escapes through the fabric of the pocket when a load is placed on the pocket, the rate of compression of the mini coil springs subjected to the load being increased by apertures in the fabric, at least one of said pieces of fabric being a four-mesh or or an eight, ten, twenty or twenty-two mesh-fabric, the four-mesh fabric being a non-woven spunlaced fabric having four apertures per square centimeter wherein each of the apertures has an oval shape in a relaxed condition, in which the length dimension is 3 millimeters and the width dimension is 2.5 millimeters.