mhurhangee/patent-ind-claim-en huggingface dataset:
A hydrodynamic foil system for a sensor streamer array, comprising: at least two tow ropes each coupled at one end to a survey vessel and at the other end to a paravane , the paravanes configured to provide lateral outward force as the vessel and paravanes are moved through a body of water ; a spreader cable coupled to each of the paravanes for maintaining a lateral separation between said paravanes; a plurality of laterally spaced apart sensor streamers coupled at forward ends thereof to each of the spreader cables ; characterized in that : a plurality of foils is disposed on each of the spreader cables , the foils configured to provide hydrodynamic lift in a vertical direction as each of the spreader cables are moved through the water. at least two tow ropes each coupled at one end to a survey vessel and at the other end to a paravane , the paravanes configured to provide lateral outward force as the vessel and paravanes are moved through a body of water ; a spreader cable coupled to each of the paravanes for maintaining a lateral separation between said paravanes; a plurality of laterally spaced apart sensor streamers coupled at forward ends thereof to each of the spreader cables ; characterized in that : a plurality of foils is disposed on each of the spreader cables , the foils configured to provide hydrodynamic lift in a vertical direction as each of the spreader cables are moved through the water.
A micro device transfer equipment , comprising: a convey platform configured to carry a wafer and move the wafer towards a specific direction, wherein a plurality of micro devices are fabricated on the wafer ; characterized by comprising: a transfer device including a plurality of transfer heads and configured to remove the plurality of micro device from the wafer along the specific direction, each transfer head comprising: a base arm ; and an upper side arm and a lower side arm disposed on the base arm in a movable manner for clamping a corresponding micro device among the plurality of micro devices by adjusting a distance between the upper side arm and the lower side arm according to a height of the corresponding micro device . a convey platform configured to carry a wafer and move the wafer towards a specific direction, wherein a plurality of micro devices are fabricated on the wafer ; characterized by comprising: a transfer device including a plurality of transfer heads and configured to remove the plurality of micro device from the wafer along the specific direction, each transfer head comprising: a base arm ; and an upper side arm and a lower side arm disposed on the base arm in a movable manner for clamping a corresponding micro device among the plurality of micro devices by adjusting a distance between the upper side arm and the lower side arm according to a height of the corresponding micro device . a base arm ; and an upper side arm and a lower side arm disposed on the base arm in a movable manner for clamping a corresponding micro device among the plurality of micro devices by adjusting a distance between the upper side arm and the lower side arm according to a height of the corresponding micro device .
Reinforcement means for stabilising a cavity formed by connected hollow profiles , comprising: - an expandable sheath , and - bulk material enclosed in the expandable sheath , wherein the bulk material is adapted to expand and combine into a solid block upon exposure to an activation temperature, and wherein the expandable sheath is adapted to cause compaction and pressure build-up of the expanding bulk material . - an expandable sheath , and - bulk material enclosed in the expandable sheath , wherein the bulk material is adapted to expand and combine into a solid block upon exposure to an activation temperature, and wherein the expandable sheath is adapted to cause compaction and pressure build-up of the expanding bulk material .
A method performed by a wireless device in a wireless communication system supporting a narrowband Internet of Things, NB-IoT, the method comprising: receiving, from a base station, a Narrowband Primary Synchronization Signal, NPSS, and a Narrowband Secondary Synchronization Signal, NSSS; performing a cell search procedure for the base station based on the NPSS and the NSSS; and receiving, from the base station, a Narrowband Physical Broadcast Channel, NPBCH, wherein the NPSS is transmitted over 11 orthogonal frequency division multiplexing, OFDM, symbols in subframe #5 of each radio frame, wherein based on each radio frame having a first radio frame structure that is applied for frequency division duplex, FDD, (i) the NSSS is transmitted over 11 OFDM symbols in subframe #9 of even-numbered radio frames, and (ii) the NPBCH is transmitted in subframe #0 of each radio frame, wherein based on each radio frame having a second radio frame structure that is applied for time division duplex, TDD, (i) the NSSS is transmitted over 11 OFDM symbols in subframe #0 of even-numbered radio frames, and (ii) the NPBCH is transmitted in subframe #9 of each radio frame, and wherein a transmission period of the NSSS is configured to be twice a transmission period of the NPSS. receiving, from a base station, a Narrowband Primary Synchronization Signal, NPSS, and a Narrowband Secondary Synchronization Signal, NSSS; performing a cell search procedure for the base station based on the NPSS and the NSSS; and receiving, from the base station, a Narrowband Physical Broadcast Channel, NPBCH, wherein the NPSS is transmitted over 11 orthogonal frequency division multiplexing, OFDM, symbols in subframe #5 of each radio frame, wherein based on each radio frame having a first radio frame structure that is applied for frequency division duplex, FDD, (i) the NSSS is transmitted over 11 OFDM symbols in subframe #9 of even-numbered radio frames, and (ii) the NPBCH is transmitted in subframe #0 of each radio frame, wherein based on each radio frame having a second radio frame structure that is applied for time division duplex, TDD, (i) the NSSS is transmitted over 11 OFDM symbols in subframe #0 of even-numbered radio frames, and (ii) the NPBCH is transmitted in subframe #9 of each radio frame, and wherein a transmission period of the NSSS is configured to be twice a transmission period of the NPSS.
A method for controlling at least one lighting device during the reproduction of acoustic signals encoded in an audio file, wherein a string is read out from a field or tag of the audio file, which string contains control commands for controlling at least one lighting device, and wherein the acoustic signals encoded in the audio file are audibly output and, meanwhile, based on the control commands contained in the string, a sequence of drive signals is generated and, by means of these, a sequence of lighting scenarios is generated by means of said at least one lighting device, wherein, based on the control commands, the lighting scenarios are started and/or changed at times determined relative to the encoded acoustic signals in the control commands in the string.
A tissue graft comprising two or more layers of amnion, wherein at least one layer of amnion is cross-linked, two or more layers of chorion, wherein at least one layer of chorion is cross-linked, or one or more layers of amnion and one or more layers of chorion, wherein at least one layer of amnion and/or chorion is cross-linked, wherein at least one layer of amnion is not decellularized and comprises fibroblast cells and/or epithelial cells, and wherein said amnion or portions thereof is obtained from an intact amniotic membrane.
A method for performing image processing, comprising: sending a control instruction to a controller via an inter-integrated circuit, I2C, bus in response to a first processing unit receiving an image collection instruction sent by a second processing unit , the control instruction being configured to turn on at least one of a floodlight and a laser light; and sending a pulse to the controller via a pulse width modulation (PWM) module of the first processing unit to illustrate the at least one of the floodlight and the laser light being turned up, and operating the laser camera to collect a target image via the I2C bus in response to the first processing unit receiving the image collection instruction sent by the second processing unit , wherein the first processing unit , the controller and the laser camera are coupled to the same I2C bus; and performing processing on the target image via the first processing unit , and sending the target image processed to the second processing unit . sending a control instruction to a controller via an inter-integrated circuit, I2C, bus in response to a first processing unit receiving an image collection instruction sent by a second processing unit , the control instruction being configured to turn on at least one of a floodlight and a laser light; and sending a pulse to the controller via a pulse width modulation (PWM) module of the first processing unit to illustrate the at least one of the floodlight and the laser light being turned up, and operating the laser camera to collect a target image via the I2C bus in response to the first processing unit receiving the image collection instruction sent by the second processing unit , wherein the first processing unit , the controller and the laser camera are coupled to the same I2C bus; and performing processing on the target image via the first processing unit , and sending the target image processed to the second processing unit .
A lighting device comprising: a circuit board that is long and flexible; light emitters mounted in a row on the circuit board ; and a cover that is long, the cover comprising a translucent member that is made of a translucent soft material and covers the circuit board and the light emitters , and a phosphorescent member containing a phosphorescent material that is to be excited by light emitted by the light emitters , wherein the cover has an elongated tubular shape, and characterized in that the phosphorescent member comprises: a first sub phosphorescent portion having one end exposed to an inner space of the cover , the first sub phosphorescent portion extending toward an outer wall of the cover in a direction perpendicular to a thickness direction of the circuit board ; and a second sub phosphorescent portion continuous with the other end of the first sub phosphorescent portion , a width of the second sub phosphorescent portion in the thickness direction of the circuit board gradually increasing toward the outer wall of the cover . a circuit board that is long and flexible; light emitters mounted in a row on the circuit board ; and a cover that is long, the cover comprising a translucent member that is made of a translucent soft material and covers the circuit board and the light emitters , and a phosphorescent member containing a phosphorescent material that is to be excited by light emitted by the light emitters , a translucent member that is made of a translucent soft material and covers the circuit board and the light emitters , and a phosphorescent member containing a phosphorescent material that is to be excited by light emitted by the light emitters , wherein the cover has an elongated tubular shape, and characterized in that the phosphorescent member comprises: a first sub phosphorescent portion having one end exposed to an inner space of the cover , the first sub phosphorescent portion extending toward an outer wall of the cover in a direction perpendicular to a thickness direction of the circuit board ; and a second sub phosphorescent portion continuous with the other end of the first sub phosphorescent portion , a width of the second sub phosphorescent portion in the thickness direction of the circuit board gradually increasing toward the outer wall of the cover . a first sub phosphorescent portion having one end exposed to an inner space of the cover , the first sub phosphorescent portion extending toward an outer wall of the cover in a direction perpendicular to a thickness direction of the circuit board ; and a second sub phosphorescent portion continuous with the other end of the first sub phosphorescent portion , a width of the second sub phosphorescent portion in the thickness direction of the circuit board gradually increasing toward the outer wall of the cover .
A method for diagnosis and monitoring of cancer in a patient, the method comprising: obtaining a cell-free nucleic acid sample from the patient; attaching adaptors to nucleic acids; using a selector set to enrich by hybrid selection for circulating tumor nucleic acid that corresponds to the regions of the genome that are most likely to contain tumor-specific somatic mutations; amplifying and sequencing the selected circulating nucleic acid to determine which of the selected genomic regions are mutated in the tumor; and detecting the tumor-specific mutation in the cell-free nucleic acid sample; wherein the regions of the genome that are most likely to contain tumor specific somatic mutations comprise genes known to be drivers in the cancer. obtaining a cell-free nucleic acid sample from the patient; attaching adaptors to nucleic acids; using a selector set to enrich by hybrid selection for circulating tumor nucleic acid that corresponds to the regions of the genome that are most likely to contain tumor-specific somatic mutations; amplifying and sequencing the selected circulating nucleic acid to determine which of the selected genomic regions are mutated in the tumor; and detecting the tumor-specific mutation in the cell-free nucleic acid sample; wherein the regions of the genome that are most likely to contain tumor specific somatic mutations comprise genes known to be drivers in the cancer.
A pneumatic tire, comprising: a carcass; an insulation adjacent to a radially inner side of the carcass; and an innerliner adjacent to a radially inner side of the insulation, the innerliner comprising an innerliner rubber composition, the innerliner rubber composition comprising a polymer component including, based on 100% by mass thereof, 80 to 100% by mass of a butyl-based rubber and comprising, per 100 parts by mass of the polymer component, 40 to 70 parts by mass of carbon black, 0.5 to 5.0 parts by mass of zinc oxide, and 0.2 to 5.0 parts by mass of sulfur, the insulation comprising an insulation rubber composition, the insulation rubber composition comprising a polymer component including, based on 100% by mass thereof, 20 to 90% by mass of a butyl-based rubber and 10 to 80% by mass of an isoprene-based rubber and comprising, per 100 parts by mass of the polymer component, 40 to 80 parts by mass of carbon black and 0.2 to 5.0 parts by mass of sulfur, the innerliner and insulation rubber compositions having butyl-based rubber contents based on 100% by mass of the polymer component that satisfy the following relationship: (Butyl-based rubber content of innerliner rubber composition) ≥ (Butyl-based rubber content of insulation rubber composition). a carcass; an insulation adjacent to a radially inner side of the carcass; and an innerliner adjacent to a radially inner side of the insulation, the innerliner comprising an innerliner rubber composition, the innerliner rubber composition comprising a polymer component including, based on 100% by mass thereof, 80 to 100% by mass of a butyl-based rubber and comprising, per 100 parts by mass of the polymer component, 40 to 70 parts by mass of carbon black, 0.5 to 5.0 parts by mass of zinc oxide, and 0.2 to 5.0 parts by mass of sulfur, the insulation comprising an insulation rubber composition, the insulation rubber composition comprising a polymer component including, based on 100% by mass thereof, 20 to 90% by mass of a butyl-based rubber and 10 to 80% by mass of an isoprene-based rubber and comprising, per 100 parts by mass of the polymer component, 40 to 80 parts by mass of carbon black and 0.2 to 5.0 parts by mass of sulfur, the innerliner and insulation rubber compositions having butyl-based rubber contents based on 100% by mass of the polymer component that satisfy the following relationship: (Butyl-based rubber content of innerliner rubber composition) ≥ (Butyl-based rubber content of insulation rubber composition).
A rotor comprising a magnet , a magnet retaining element located, at least in part, radially outward of the magnet relative to a rotor axis, and a rotor shaft , wherein the rotor shaft and the magnet retaining element are of fibre reinforced composite material and are formed integrally with one another, characterised in that the orientation of the fibres of the magnet retaining element differs from the orientation of the fibres of the rotor shaft .
A woven fabric , comprising: a warp component including warp yarns ; and a weft component including weft yarns interwoven with the warp yarns to define the woven fabric , characterized in that : at least one of a) the warp component , and b) the weft component includes a plurality of multi-core yarns , each multi-core yarn having a length and comprising a sheath of dyed staple fibers twisted together, wherein a first and a second hollow core extend through the sheath of staple fibers along the length of the multi-core yarn , the cross-sectional dimension (F1, F2) of each hollow core along the length of the multi-core yarn being between about 4% to about 20% cross-sectional dimension (D1) of the yarn and the total cross-sectional dimensions of the first and second hollow cores along the length of the multi-core yarn being between 8% and about 40% cross sectional dimension (D1) of the yarn . a warp component including warp yarns ; and a weft component including weft yarns interwoven with the warp yarns to define the woven fabric , characterized in that : at least one of a) the warp component , and b) the weft component includes a plurality of multi-core yarns , each multi-core yarn having a length and comprising a sheath of dyed staple fibers twisted together, wherein a first and a second hollow core extend through the sheath of staple fibers along the length of the multi-core yarn , the cross-sectional dimension (F1, F2) of each hollow core along the length of the multi-core yarn being between about 4% to about 20% cross-sectional dimension (D1) of the yarn and the total cross-sectional dimensions of the first and second hollow cores along the length of the multi-core yarn being between 8% and about 40% cross sectional dimension (D1) of the yarn . at least one of a) the warp component , and b) the weft component includes a plurality of multi-core yarns , each multi-core yarn having a length and comprising a sheath of dyed staple fibers twisted together, wherein a first and a second hollow core extend through the sheath of staple fibers along the length of the multi-core yarn , the cross-sectional dimension (F1, F2) of each hollow core along the length of the multi-core yarn being between about 4% to about 20% cross-sectional dimension (D1) of the yarn and the total cross-sectional dimensions of the first and second hollow cores along the length of the multi-core yarn being between 8% and about 40% cross sectional dimension (D1) of the yarn .
Device for closing openings , in particular openings in rail vehicles, comprising - a closure element , in particular a roller shutter curtain, which has a plurality of slat profiles which are connected to one another in an articulated manner and each extend along a longitudinal direction from a first end edge to a second end edge , - guide rails which are located opposite one another and by means of which the closure element can be moved in a guided manner from a closed position into an open position and back, and - at least one sliding element for supporting a guided movement of the closure element between the closed position and the open position, which at least one sliding element is arranged on at least one of the end edges of at least one of the slat profiles , wherein the at least one sliding element comprises - at least one rolling element for rolling on one of the guide rails and - a sliding plate for rotatably supporting the at least one rolling element , wherein the at least one rolling element has an axis of rotation having a directional component, which directional component is normal to the respective longitudinal direction , characterized in that the at least one sliding element has at least one spring element arranged along a longitudinal edge of the sliding plate in order to produce a contact pressure on the respective guide rail , in particular on a side wall of the respective guide rail . - a closure element , in particular a roller shutter curtain, which has a plurality of slat profiles which are connected to one another in an articulated manner and each extend along a longitudinal direction from a first end edge to a second end edge , - guide rails which are located opposite one another and by means of which the closure element can be moved in a guided manner from a closed position into an open position and back, and - at least one sliding element for supporting a guided movement of the closure element between the closed position and the open position, which at least one sliding element is arranged on at least one of the end edges of at least one of the slat profiles , wherein the at least one sliding element comprises - at least one rolling element for rolling on one of the guide rails and - a sliding plate for rotatably supporting the at least one rolling element , wherein the at least one rolling element has an axis of rotation having a directional component, which directional component is normal to the respective longitudinal direction ,
A path loss determining method, comprising: measuring , by a terminal , a receive power of a channel state information-reference signal, CSI-RS, sent by a network device ; receiving , by the terminal , pre-configuration information from the network device , wherein the pre-configuration information comprises a transmit power of a synchronization signal, SS, and further comprises correspondences between a plurality of CSI-RSs and a transmit power offset value of a plurality of transmit power offset values, wherein the correspondences relate each of one or more groups comprising the plurality of CSI-RSs and the transmit power offset value of the plurality of transmit power offset values, and wherein each of the plurality of transmit power offset values is an offset value relative to a transmit power reference value that is a transmit power of any one of the plurality of CSI-RSs in the one or more groups; determining , by the terminal , the transmit power offset value of the CSI-RS based on the pre-configuration information; determining , by the terminal , a transmit power of the CSI-RS based on the transmit power offset value of the CSI-RS and the transmit power of the SS; and determining , by the terminal , a path loss based on the receive power of the CSI-RS and the transmit power of the CSI-RS. measuring , by a terminal , a receive power of a channel state information-reference signal, CSI-RS, sent by a network device ; receiving , by the terminal , pre-configuration information from the network device , wherein the pre-configuration information comprises a transmit power of a synchronization signal, SS, and further comprises correspondences between a plurality of CSI-RSs and a transmit power offset value of a plurality of transmit power offset values, wherein the correspondences relate each of one or more groups comprising the plurality of CSI-RSs and the transmit power offset value of the plurality of transmit power offset values, and wherein each of the plurality of transmit power offset values is an offset value relative to a transmit power reference value that is a transmit power of any one of the plurality of CSI-RSs in the one or more groups; determining , by the terminal , the transmit power offset value of the CSI-RS based on the pre-configuration information; determining , by the terminal , a transmit power of the CSI-RS based on the transmit power offset value of the CSI-RS and the transmit power of the SS; and determining , by the terminal , a path loss based on the receive power of the CSI-RS and the transmit power of the CSI-RS.