mhurhangee/patent-ind-claim-en huggingface dataset:
A manufacturing method of an optical fibre grating, comprising: firstly, coating an optical fibre core with an optical fibre coating , and curing the optical fibre coating ; then, spraying the optical fibre coating with a plurality of annular or semi-annular hard embedding bodies at intervals, coating the optical fibre coating and the hard embedding bodies with an optical fibre colouring layer ; and finally, extruding and curing the optical fibre colouring layer to produce a radial inward extruding force, so that the density of the optical fibre core changes in an alternate manner along the axial direction of the optical fibre core ; the density of the optical fibre core of the part wrapped by the hard embedding bodies is higher than the density of the optical fibre core of the other part which is not wrapped by the hard embedding bodies ; wherein the optical fibre grating comprises the optical fibre core , an optical fibre coating and an optical fibre colouring layer in sequence from inside to outside, wherein the optical fibre core comprises a plurality of high-density segments and a plurality of low-density segments; the high-density segments and the low-density segments are arranged in an alternate manner along the axial direction of the optical fibre core ; the plurality of hard embedding bodies are arranged between the optical fibre coating and the optical fibre colouring layer ; the optical fibre coating and the optical fibre core are wrapped by the hard embedding bodies in an annular manner; the plurality of hard embedding bodies are arranged at intervals along the axis direction of the optical fibre core . the density of the optical fibre core of the part wrapped by the hard embedding bodies is higher than the density of the optical fibre core of the other part which is not wrapped by the hard embedding bodies ; wherein the optical fibre grating comprises the optical fibre core , an optical fibre coating and an optical fibre colouring layer in sequence from inside to outside, wherein the optical fibre core comprises a plurality of high-density segments and a plurality of low-density segments; the high-density segments and the low-density segments are arranged in an alternate manner along the axial direction of the optical fibre core ; the plurality of hard embedding bodies are arranged between the optical fibre coating and the optical fibre colouring layer ; the optical fibre coating and the optical fibre core are wrapped by the hard embedding bodies in an annular manner; the plurality of hard embedding bodies are arranged at intervals along the axis direction of the optical fibre core .
Pump housing of a hydraulic assembly of a vehicle brake system , having at least one wheel-brake-cylinder connection for connection of a wheel-brake cylinder to the pump housing , having an outlet-valve receptacle , associated with an individual wheel-brake-cylinder connection , for accommodating an outlet valve which is intended for discharging brake fluid from the wheel-brake cylinder into the pump housing and comprises a valve inlet which is to be closed off by a closing body by way of an associated closing force , wherein the outlet-valve receptacle has an inlet for admission of brake fluid from the wheel-brake cylinder into the outlet valve , characterized in that the inlet is adapted to guide the brake fluid, during admission into the outlet valve , in a flow direction directed counter to the closing force when the outlet valve is accommodated in the outlet-valve receptacle , wherein, at the pump housing , provision is made of a motor side for arrangement of a drive motor and of a control-device side , situated opposite the motor side , for arrangement of a control device and the inlet is adapted such that the flow direction counter to the closing force is directed between the motor side and the control-device side .
A drive having a housing , an adaptor plate and a covering hood , wherein a plane bearing surface is formed at the housing , in particular for the placing of the covering hood thereon , wherein the adaptor plate is secured to the housing , wherein a first seal , in particular an O-ring, is received at the outer circumference of the adaptor plate and is arranged between the covering hood and the adapter plate , in particular for sealing, wherein a second seal , in particular an O-ring or a flat seal, is received and/or secured at that side of the adaptor plate facing the bearing surface , wherein the second seal is arranged between the adaptor plate and the bearing surface , in particular for sealing. a plane bearing surface is formed at the housing , in particular for the placing of the covering hood thereon , wherein the adaptor plate is secured to the housing , wherein a first seal , in particular an O-ring, is received at the outer circumference of the adaptor plate and is arranged between the covering hood and the adapter plate , in particular for sealing, wherein a second seal , in particular an O-ring or a flat seal, is received and/or secured at that side of the adaptor plate facing the bearing surface , wherein the second seal is arranged between the adaptor plate and the bearing surface , in particular for sealing.
Motor vehicle comprising a device for outputting an audio signal into a passenger cell of the motor vehicle comprising: a plurality of audio output elements (5a - 5d) arranged in the passenger compartment of the motor vehicle comprising audio output means for outputting at least one audio signal which includes audio content in the form of music and/or speech into the passenger compartment of the motor vehicle , a control device that can be assigned or assigned to the audio output device for controlling the output of at least one audio signal via respective audio output elements (5a - 5d), wherein The control device is configured to control the output of at least one audio signal into the passenger cell of the motor vehicle on the basis of a movement of at least one object , in particular a road user, relative to the motor vehicle descriptive motion information, characterized in that The control device is configured to use the control of the output of at least one audio signal into the passenger cell of the motor vehicle during the output of at least one audio signal by targeted control of the output direction of at least one audio signal to provide a vehicle occupant with information about itself in the environment around the motor vehicle , relative to the motor vehicle moving objects . a plurality of audio output elements (5a - 5d) arranged in the passenger compartment of the motor vehicle comprising audio output means for outputting at least one audio signal which includes audio content in the form of music and/or speech into the passenger compartment of the motor vehicle , a control device that can be assigned or assigned to the audio output device for controlling the output of at least one audio signal via respective audio output elements (5a - 5d), wherein The control device is configured to control the output of at least one audio signal into the passenger cell of the motor vehicle on the basis of a movement of at least one object , in particular a road user, relative to the motor vehicle descriptive motion information, characterized in that The control device is configured to use the control of the output of at least one audio signal into the passenger cell of the motor vehicle during the output of at least one audio signal by targeted control of the output direction of at least one audio signal to provide a vehicle occupant with information about itself in the environment around the motor vehicle , relative to the motor vehicle moving objects .
An optical sensor (1000; 1000'; 5000) including: - an optical device (100; 100'; 500) comprising a waveguide micro-resonator (120; 520; 720; 820; 920A; 920B; 920C; 920D; 1020; 1120), arranged to guide a light beam along a closed loop optical path, and an injection and extraction waveguide (110; 1010A; 1010B; 1110), or an injection waveguide and an extraction waveguide , optically coupled with the micro-resonator for injecting and extracting said light beam; - a photo-detector (150; 550), disposed at the output of the injection and extraction waveguide, respectively at the output of the extraction waveguide; and - an analysis device (160; 560), receiving as an input a signal provided by the photo-detector, arranged to compare this signal with reference data, and to deduce therefrom a piece of information relating to a movement within the optical device (100; 100'; 500); the micro-resonator consisting of a plurality of unit waveguides (121; 521; 721; 821; 921; 1121) spaced apart from each other, and disposed one after the other according to a loop-shaped arrangement. - an optical device (100; 100'; 500) comprising a waveguide micro-resonator (120; 520; 720; 820; 920A; 920B; 920C; 920D; 1020; 1120), arranged to guide a light beam along a closed loop optical path, and an injection and extraction waveguide (110; 1010A; 1010B; 1110), or an injection waveguide and an extraction waveguide , optically coupled with the micro-resonator for injecting and extracting said light beam; - a photo-detector (150; 550), disposed at the output of the injection and extraction waveguide, respectively at the output of the extraction waveguide; and - an analysis device (160; 560), receiving as an input a signal provided by the photo-detector, arranged to compare this signal with reference data, and to deduce therefrom a piece of information relating to a movement within the optical device (100; 100'; 500);
A panel , manufactured from a rigid plate-shaped base material and a finish layer provided on a first main surface of said base material , said plate-shaped base material comprising two parallel V-shaped recesses at a second main surface that is directed away from said finish layer , having a depth that substantially reaches to said first main surface , characterized in that said finish layer comprises a flexible material that is comprised of a compressible material that is positioned at the side of said first main surface and an abrasion resistant layer that is remote from said first main surface .
Electronic chip (100 - 400) comprising at least: - an electronic circuit located at a front face of a substrate ; - at least one capacitive element placed at least at a back face of the substrate and at least partly facing the electronic circuit , and electrically connected to the electronic circuit by at least one first and second electrical connections, the first electrical connection including at least one first electrically conducting via passing through the substrate , the electronic circuit being adapted to measure the value of the electrical capacitance of the capacitive element between the first and the second electrical connections, and - at least one second via or a trench passing through the back face of the substrate and a part of the thickness of the substrate , and facing the electronic circuit such that a bottom wall of the second via or of the trench are separated from the electronic circuit by a non-zero distance. - an electronic circuit located at a front face of a substrate ; - at least one capacitive element placed at least at a back face of the substrate and at least partly facing the electronic circuit , and electrically connected to the electronic circuit by at least one first and second electrical connections, the first electrical connection including at least one first electrically conducting via passing through the substrate , the electronic circuit being adapted to measure the value of the electrical capacitance of the capacitive element between the first and the second electrical connections, and - at least one second via or a trench passing through the back face of the substrate and a part of the thickness of the substrate , and facing the electronic circuit such that a bottom wall of the second via or of the trench are separated from the electronic circuit by a non-zero distance.
Support (1; 101; 201) for vehicle battery caps, comprising multiple battery caps (11, 12, 13; 211, 212, 213) and a securing member (10; 210) connecting the battery caps of said support to one another, characterized in that each battery cap is individually detachable from said securing member, said support forming a kit and said caps being caps intended for closing off a degassing hole .
A method for receiving a Wireless Local-Area Network, WLAN, data transmission, the method comprising: receiving, at a first WLAN device from a remote WLAN device, a WLAN transmission comprising first bits that are modulated and encoded using a first Modulation and Coding Scheme, MCS, associated with a first modulation scheme and a first Forward Error Correction, FEC, coding rate; computing first soft-decoding metrics for the first bits; receiving, from the remote WLAN device, a WLAN retransmission corresponding to the WLAN transmission, the WLAN retransmission comprising second bits that are modulated and encoded using a second MCS associated with a second modulation scheme and a second FEC coding rate, the second MCS having better error performance than the first MCS; computing second soft-decoding metrics for the second bits; combining the first soft-decoding metrics and the second soft-decoding metrics, to produce combined soft- decoding metrics; and reconstructing data carried by the WLAN transmission by applying FEC decoding to the combined soft-decoding metrics, wherein the second bits of the WLAN retransmission comprise i) one or more second bits that do not have corresponding first bits in the WLAN transmission having the first MCS, rand ii) one or more second bits that have corresponding first bits in the WLAN transmission having the first MCS, and further comprising buffering the first soft-decoding metrics in a memory buffer while retaining in the memory buffer spaces for the soft-decoding metrics of the second bits that do not have corresponding first bits. receiving, at a first WLAN device from a remote WLAN device, a WLAN transmission comprising first bits that are modulated and encoded using a first Modulation and Coding Scheme, MCS, associated with a first modulation scheme and a first Forward Error Correction, FEC, coding rate; computing first soft-decoding metrics for the first bits; receiving, from the remote WLAN device, a WLAN retransmission corresponding to the WLAN transmission, the WLAN retransmission comprising second bits that are modulated and encoded using a second MCS associated with a second modulation scheme and a second FEC coding rate, the second MCS having better error performance than the first MCS; computing second soft-decoding metrics for the second bits; combining the first soft-decoding metrics and the second soft-decoding metrics, to produce combined soft- decoding metrics; and reconstructing data carried by the WLAN transmission by applying FEC decoding to the combined soft-decoding metrics, wherein the second bits of the WLAN retransmission comprise i) one or more second bits that do not have corresponding first bits in the WLAN transmission having the first MCS, rand ii) one or more second bits that have corresponding first bits in the WLAN transmission having the first MCS, and further comprising buffering the first soft-decoding metrics in a memory buffer while retaining in the memory buffer spaces for the soft-decoding metrics of the second bits that do not have corresponding first bits.
A method for receiving information, comprising: monitoring, at a receiving end, Downlink Control Information, DCI, information through a Physical Downlink Control Channel, PDCCH, or an enhanced physical control channel, ePDCCH of an unlicensed carrier or a licensed carrier (S202); wherein the DCI information is used by the receiving end to acquire information about time that the unlicensed carrier is occupied after the unlicensed carrier is seized; wherein the information about time describes the number of subframes which are continuously occupied starting from a certain subframe; wherein monitoring, at the receiving end, the DCI information comprises at least one of: receiving, at the receiving end, the information about time through a PDCCH in first one, two, three or four OFDM symbols of a subframe; receiving, at the receiving end, the information about time through a PDCCH in an OFDM symbol of a second slot of a subframe; and receiving, at the receiving end, the information about time through a PDCCH/ePDCCH at a preset resource location of a subframe. monitoring, at a receiving end, Downlink Control Information, DCI, information through a Physical Downlink Control Channel, PDCCH, or an enhanced physical control channel, ePDCCH of an unlicensed carrier or a licensed carrier (S202); wherein the DCI information is used by the receiving end to acquire information about time that the unlicensed carrier is occupied after the unlicensed carrier is seized; wherein the information about time describes the number of subframes which are continuously occupied starting from a certain subframe; wherein monitoring, at the receiving end, the DCI information comprises at least one of: receiving, at the receiving end, the information about time through a PDCCH in first one, two, three or four OFDM symbols of a subframe; receiving, at the receiving end, the information about time through a PDCCH in an OFDM symbol of a second slot of a subframe; and receiving, at the receiving end, the information about time through a PDCCH/ePDCCH at a preset resource location of a subframe. receiving, at the receiving end, the information about time through a PDCCH in first one, two, three or four OFDM symbols of a subframe; receiving, at the receiving end, the information about time through a PDCCH in an OFDM symbol of a second slot of a subframe; and receiving, at the receiving end, the information about time through a PDCCH/ePDCCH at a preset resource location of a subframe.
A method for producing aluminum can sheet comprising: providing a body made of an aluminum alloy type AA3004, AA3104 or other aluminum alloy suitable for making aluminum can sheet, wherein the aluminum alloy comprises 0.05 - 0.60 wt% Si; 0.10 - 0.80 wt% Fe; 0.70 - 1.50 wt% Mn; 0.80 - 1.50 wt% Mg; 0.05 - 0.25 wt% Cu; up to 0.10 wt% Ti; up to 0.25 wt% Zn; and up to 0.15 wt% impurities with the remainder as Al. heating the body to a homogenization temperature; hot rolling said body in a hot rolling mill to produce a hot rolled sheet, said hot rolled sheet exiting the hot rolling mill at a hot rolling exit temperature with a hot mill exit gauge, wherein the hot rolling exit temperature is selected to be lower than 290°C to substantially avoid recrystallization of the hot rolled sheet; cold rolling the hot rolled sheet in a cold rolling mill to apply a cold reduction to produce a cold rolled sheet with a cold mill exit gauge smaller than the hot mill exit gauge; annealing the cold rolled sheet in an intermediate temperature range selected to allow recrystallization of the cold rolled sheet to obtain a recrystallized annealed sheet; cold rolling the recrystallized annealed sheet to apply a cold reduction to produce a cold rolled sheet with a final gauge. providing a body made of an aluminum alloy type AA3004, AA3104 or other aluminum alloy suitable for making aluminum can sheet, wherein the aluminum alloy comprises 0.05 - 0.60 wt% Si; 0.10 - 0.80 wt% Fe; 0.70 - 1.50 wt% Mn; 0.80 - 1.50 wt% Mg; 0.05 - 0.25 wt% Cu; up to 0.10 wt% Ti; up to 0.25 wt% Zn; and up to 0.15 wt% impurities with the remainder as Al. heating the body to a homogenization temperature; hot rolling said body in a hot rolling mill to produce a hot rolled sheet, said hot rolled sheet exiting the hot rolling mill at a hot rolling exit temperature with a hot mill exit gauge, wherein the hot rolling exit temperature is selected to be lower than 290°C to substantially avoid recrystallization of the hot rolled sheet; cold rolling the hot rolled sheet in a cold rolling mill to apply a cold reduction to produce a cold rolled sheet with a cold mill exit gauge smaller than the hot mill exit gauge; annealing the cold rolled sheet in an intermediate temperature range selected to allow recrystallization of the cold rolled sheet to obtain a recrystallized annealed sheet; cold rolling the recrystallized annealed sheet to apply a cold reduction to produce a cold rolled sheet with a final gauge.
A mobility management entity capable of receiving a mobile terminated-forward-short-message-request message for forwarding a short message towards a user equipment, said mobility management entity configured to: - upon reception of a mobile terminated-forward-short-message-request message for forwarding a short message towards a user equipment using extended idle mode discontinuous reception, said mobile terminated-forward-short-message-request message including a short message-delivery-timer/short message-delivery-start-time indicating the time used in a short message gateway to supervise the receipt of a mobile terminated-forward-short-message-answer message, deliver the short message to the user equipment without short message retransmission if the user equipment is waking up within the time frame indicated by the short message-delivery-timer/short message-delivery-start-time. - upon reception of a mobile terminated-forward-short-message-request message for forwarding a short message towards a user equipment using extended idle mode discontinuous reception, said mobile terminated-forward-short-message-request message including a short message-delivery-timer/short message-delivery-start-time indicating the time used in a short message gateway to supervise the receipt of a mobile terminated-forward-short-message-answer message, deliver the short message to the user equipment without short message retransmission if the user equipment is waking up within the time frame indicated by the short message-delivery-timer/short message-delivery-start-time.
A display apparatus comprising: a display ; a motor configured to rotate the display; a sensor configured to sense a rotation of the display; and a processor configured to based on an event for rotating the display from a first posture to a second posture occurring, output, to the motor, a driving signal for rotating the display in a first direction, identify whether the display is collided with an object while the display is rotating, based on the driving signal output to the motor and a signal received from the sensor while the display is rotating, and based on identifying that the display is collided with the object, output, to the motor, a driving signal for rotating the display in a second direction, opposite to the first direction. a display ; a motor configured to rotate the display; a sensor configured to sense a rotation of the display; and a processor configured to based on an event for rotating the display from a first posture to a second posture occurring, output, to the motor, a driving signal for rotating the display in a first direction, identify whether the display is collided with an object while the display is rotating, based on the driving signal output to the motor and a signal received from the sensor while the display is rotating, and based on identifying that the display is collided with the object, output, to the motor, a driving signal for rotating the display in a second direction, opposite to the first direction.