mhurhangee/patent-ind-claim-en huggingface dataset:
A traffic service obtaining method, wherein the method is applied to a transport system, the transport system comprises a management center, a first vehicle, and a second vehicle, the management center stores a table of a correspondence between a traffic service and status information, and the method comprises: receiving , by the management center, a registration request sent by the first vehicle; allocating , by the management center, a temporary identifier to the first vehicle based on the registration request, wherein the temporary identifier is used to identify the first vehicle in coverage of the transport system; receiving , by the management center, a request message that is sent by the second vehicle and that is used to request a target traffic service; determining , by the management center, a temporary identifier related to the target traffic service, wherein the temporary identifier is used to indicate a corresponding first vehicle; and determining , based on the table of a correspondence, target status information required for the target traffic service; obtaining , by the management center, the target status information from the first vehicle, wherein the target status information carries the temporary identifier; and sending , by the management center, the target status information to the second vehicle, wherein the target status information is used to provide the second vehicle with the target traffic service. receiving , by the management center, a registration request sent by the first vehicle; allocating , by the management center, a temporary identifier to the first vehicle based on the registration request, wherein the temporary identifier is used to identify the first vehicle in coverage of the transport system; receiving , by the management center, a request message that is sent by the second vehicle and that is used to request a target traffic service; determining , by the management center, a temporary identifier related to the target traffic service, wherein the temporary identifier is used to indicate a corresponding first vehicle; and determining , based on the table of a correspondence, target status information required for the target traffic service; obtaining , by the management center, the target status information from the first vehicle, wherein the target status information carries the temporary identifier; and sending , by the management center, the target status information to the second vehicle, wherein the target status information is used to provide the second vehicle with the target traffic service.
An assistance device to support a body of a care receiver (X), wherein it has a pipe , a base end of the pipe is configured to be attached at an upper position in a room, and a leading end of the pipe is connected to a torso support configured to be attached to a torso of the care receiver (X), characterized in that the pipe is made of a fiber reinforced plastic and if the care receiver (X) tilts leftward or rightward, the pipe is bendable to follow the care receiver (X) and to exert a force in a direction that effects recovery of his/her original position or posture. a base end of the pipe is configured to be attached at an upper position in a room, and a leading end of the pipe is connected to a torso support configured to be attached to a torso of the care receiver (X), characterized in that the pipe is made of a fiber reinforced plastic and if the care receiver (X) tilts leftward or rightward, the pipe is bendable to follow the care receiver (X) and to exert a force in a direction that effects recovery of his/her original position or posture.
TDI line-scan detector , comprising n TDI lines (Zl-Zn), wherein each TDI line (Z) has m pixels (P), and at least one read electronic system (11-14), characterized in that the TDI line-scan detector is divided into x submodules (S1-S4), wherein the number of lines (Z) of a submodule (S1-S4) is n/x, wherein the last line of each submodule (S1-S4) is assigned a dedicated read electronic system (11-14), wherein the length (L1) of the read electronic system (11-14) corresponds to an integer multiple of the length (L2) of a pixel (P), wherein x is ≥ 2, wherein the submodules (S1-S4) or groups of submodules (S1-S4) are arranged in alternation with a lateral offset of half a pixel (P), wherein the pixels (P) are rectangular, wherein the pixels (P) are twice as wide as they are long.
A multi-layer sliding bearing element made from a composite material comprising a support layer , a bonding layer joined to the support layer and a bearing metal layer joined to the bonding layer , wherein the bonding layer is made from aluminum or a first, soft-phase-free aluminum base alloy and the bearing metal layer is made from a second aluminum base alloy containing at least one soft phase selected from a group consisting of Sn, Bi, In, Pb, as well as mixtures thereof, with a share of between 3 wt.% and 49.9 wt.%, in particular between 3 wt.% and 40 wt.%, wherein the first and the second aluminum base alloy contain at least one element selected from a group comprising or consisting of Si, Sb, Cu, Mn, Mg, Zn, Co, Zr, Ni, Sc, Er, Ti, V, Nb, Ta, wherein further the proportion of the at least one alloying element amounts to between 0.5 wt.% and 15 wt.% and the summary proportion in these alloying elements to the respective aluminum base alloy amounts to between 0.5 wt.% and 25 wt.%, and the bonding layer and the bearing metal layer are joined to one another by means of a fusion-metallurgy join forming a bonding zone arranged between the bonding layer and the bearing metal layer , wherein grains are formed in the bonding zone, wherein a continuous grain boundary gradient is formed in the bonding zone between the bonding layer and the bearing metal layer , characterized in that the bonding zone has a layer thickness of between 10 μm and 200 μm, in particular between 10 μm and 100 μm.
A method of initiating action based on content played by a vehicle infotainment system in a vehicle , the method comprising: detecting a voice command in an audio signal received by at least one microphone ; determining that the voice command relates to audio content output by the vehicle infotainment system and, based on that determination , parsing buffered output audio content from the vehicle infotainment system to extract, from the buffered output audio content, data relating to the voice command, wherein parsing buffered output audio content from the vehicle infotainment system to extract, from the buffered output audio content, data relating to the voice command includes transcribing the buffered output audio content and searching the transcribed buffered output audio content for actionable data relating to the voice command, wherein actionable data is data that can be acted upon in accordance with the voice command; and initiating an action based on the extracted actionable data and the voice command. detecting a voice command in an audio signal received by at least one microphone ; determining that the voice command relates to audio content output by the vehicle infotainment system and, based on that determination , parsing buffered output audio content from the vehicle infotainment system to extract, from the buffered output audio content, data relating to the voice command, wherein parsing buffered output audio content from the vehicle infotainment system to extract, from the buffered output audio content, data relating to the voice command includes transcribing the buffered output audio content and searching the transcribed buffered output audio content for actionable data relating to the voice command, wherein actionable data is data that can be acted upon in accordance with the voice command; and initiating an action based on the extracted actionable data and the voice command.
A bearing system comprising a fluid bearing , a shaft with a solid portion , and a bush located around said solid portion and in front of pad or pads of the fluid bearing , wherein the bush comprises a hollow cylindrical portion and a plurality of supporting elements that fix the hollow cylindrical portion of the bush to the solid portion of the shaft , wherein first and second sets of supporting elements , positioned at first and second positions respectively of the hollow cylindrical portion , - define an annular chamber between the hollow cylindrical portion of the bush and the solid portion of the shaft characterized in that the supporting elements - are shaped and positioned to provide, during rotation of the shaft , the flow of a lubricant fluid (LF) or a heat-exchange fluid (HEF) from the annular chamber to a first side (S1) of the fluid bearing and to a second side (S2) of the fluid bearing or from a first side (S1) of the fluid bearing and from a second side (S2) of the fluid bearing to the annular chamber . - define an annular chamber between the hollow cylindrical portion of the bush and the solid portion of the shaft characterized in that the supporting elements - are shaped and positioned to provide, during rotation of the shaft , the flow of a lubricant fluid (LF) or a heat-exchange fluid (HEF) from the annular chamber to a first side (S1) of the fluid bearing and to a second side (S2) of the fluid bearing or from a first side (S1) of the fluid bearing and from a second side (S2) of the fluid bearing to the annular chamber .
A switchable light modulator device (203-205, 207, 209, 210) comprising first and second substrates with opposite spaced apart major surfaces, and a fluid layer (303-305, 307, 309, 310) disposed between opposite said spaced apart major surfaces of said first and second substrates, characterized in that each of said substrates has first (43-47) and second (70-73) interoperable microstructures formed on said opposite major surfaces and extending from said opposite surfaces of said substrates into said fluid layer, said respective microstructures fitting together with an engagement length along a length of interoperating first and second microstructures to join said first and second substrates and to define wall portions for a plurality of cavities (80-85), said cavities sealing said fluid in discrete volumes, the engagement length being orthogonal to the juxtaposed parallel spaced apart major surfaces of the substrates, wherein the engagement length is from one tenth to ten tenths of the cell gap of said fluid layer, the cell gap corresponding to the orthogonal distance between the respective interfaces of the fluid layer with the first and second substrates.
Method for forming a handling substrate for a composite structure, the method comprising: a) providing a monocrystalline silicon wafer obtained by Czochralski pulling, the wafer having a resistivity of between 10 and 500 ohm.cm; b) growing a silicon epitaxial layer on the monocrystalline silicon wafer obtained by Czochralski pulling in order to form a base substrate , said silicon epitaxial layer having a resistivity greater than 2000 ohm.cm and a thickness ranging from 2 to 100 micrometers; c) forming a passivation layer on the silicon epitaxial layer , said passivation layer being amorphous or polycrystalline; d) growing a polycrystalline charge trapping layer on the passivation layer ; the method being characterized in that step c) comprises: - carbonizing the surface of the silicon epitaxial layer so as to form a passivation layer made of polycrystalline silicon carbide, the carbonization being carried out under partial pressure of a single carbon precursor gas below atmospheric pressure, or - nitriding the surface of the silicon epitaxial layer so as to form a silicon nitride passivation layer , the nitridation being carried out under partial pressure of a nitrogen precursor gas at a pressure of between 0.1 Torr, i.e. 13.3322 Pa, and 760 Torr, i.e. 101325 Pa. a) providing a monocrystalline silicon wafer obtained by Czochralski pulling, the wafer having a resistivity of between 10 and 500 ohm.cm; b) growing a silicon epitaxial layer on the monocrystalline silicon wafer obtained by Czochralski pulling in order to form a base substrate , said silicon epitaxial layer having a resistivity greater than 2000 ohm.cm and a thickness ranging from 2 to 100 micrometers; c) forming a passivation layer on the silicon epitaxial layer , said passivation layer being amorphous or polycrystalline; d) growing a polycrystalline charge trapping layer on the passivation layer ; - carbonizing the surface of the silicon epitaxial layer so as to form a passivation layer made of polycrystalline silicon carbide, the carbonization being carried out under partial pressure of a single carbon precursor gas below atmospheric pressure, or - nitriding the surface of the silicon epitaxial layer so as to form a silicon nitride passivation layer , the nitridation being carried out under partial pressure of a nitrogen precursor gas at a pressure of between 0.1 Torr, i.e. 13.3322 Pa, and 760 Torr, i.e. 101325 Pa.
An anchor deployment device , comprising: at least one cannula configured to receive at least one anchor element on the at least one cannula and a medical device within the at least one cannula ; and a locking mechanism configured to selectively secure the medical device and a portion of the at least one cannula , characterized in that , the locking mechanism comprises a removable clip , wherein, when the removable clip is coupled to the main body of the anchor deployment device in a first position, the removable clip is configured to be engaged with the medical device and disengaged from the portion of the at least one cannula and, when the removable clip is coupled to the main body of the anchor deployment device in a second position, the removable clip is configured to be disengaged from the medical device and engaged with the portion of the at least one cannula . at least one cannula configured to receive at least one anchor element on the at least one cannula and a medical device within the at least one cannula ; and a locking mechanism configured to selectively secure the medical device and a portion of the at least one cannula , characterized in that , the locking mechanism comprises a removable clip , wherein, when the removable clip is coupled to the main body of the anchor deployment device in a first position, the removable clip is configured to be engaged with the medical device and disengaged from the portion of the at least one cannula and, when the removable clip is coupled to the main body of the anchor deployment device in a second position, the removable clip is configured to be disengaged from the medical device and engaged with the portion of the at least one cannula .
A curable composition comprising: A) a fluoroelastomer comprising copolymerized units of a nitrile group-containing cure site monomer; and B) a hydrazone or oxime of the general formula R 1 (C=NY) n R 2 wherein n = 1 or 2, Y = OH or NH 2 ; R 1 is aryl, alkyl, perfluoroalkyl, benzyl or heterocyclic; and R 2 is aryl or heterocyclic. A) a fluoroelastomer comprising copolymerized units of a nitrile group-containing cure site monomer; and B) a hydrazone or oxime of the general formula R 1 (C=NY) n R 2
An exosome-like vesicle isolated from ginseng root for use in preventing or treating a skin pigmentation disease associated with melanin increase.
An α-alumina wherein a crystallite size obtained by a Rietveld analysis is not greater than 95 nm, and a lattice strain obtained by the Rietveld analysis is not greater than 0.0020. a crystallite size obtained by a Rietveld analysis is not greater than 95 nm, and a lattice strain obtained by the Rietveld analysis is not greater than 0.0020.
A portable electronic system comprising a hearing assistance device (HaDv) and an auxiliary device (AuxDv), the hearing assistance device (HaDv) and the auxiliary device (AuxDv) each comprising circuitry allowing the establishment of a uni- or bi-directional wireless link between the devices, wherein the hearing assistance device (HaDv) comprises • a first antenna defining a first spatial direction (HD-D), and • a first wireless unit (ITx/IRx) operationally coupled to the first antenna , and wherein the auxiliary device (AuxDv) comprises • a second antenna defining a second spatial direction (ro), the second antenna comprising a multitude of antenna elements (a x , a y , a z ), each antenna element defining a specific spatial direction (x, y, z), said second spatial direction (ro) being defined relative to said one or more specific spatial directions (x, y, z), • a second wireless unit (Tx/Rx, ITx/IRx) operationally coupled to the second antenna , • a direction detector (MvS) configured to provide a direction-signal indicating an estimate of a current value ( r 1 ) of said second spatial direction relative to a reference direction (RfD), and • a control unit (CONT) configured to selectively control the connection of said multitude of antenna elements (a x , a y , a z ) of the second antenna to said second wireless unit (Tx/Rx, ITx/IRx) based on said direction-signal from the direction detector (MvS), wherein the control unit is configured to stimulate two of the multitude of antenna elements depending on a current input from the direction detector. • a first antenna defining a first spatial direction (HD-D), and • a first wireless unit (ITx/IRx) operationally coupled to the first antenna , and wherein • a second antenna defining a second spatial direction (ro), the second antenna comprising a multitude of antenna elements (a x , a y , a z ), each antenna element defining a specific spatial direction (x, y, z), said second spatial direction (ro) being defined relative to said one or more specific spatial directions (x, y, z), • a second wireless unit (Tx/Rx, ITx/IRx) operationally coupled to the second antenna , • a direction detector (MvS) configured to provide a direction-signal indicating an estimate of a current value ( r 1 ) of said second spatial direction relative to a reference direction (RfD), and • a control unit (CONT) configured to selectively control the connection of said multitude of antenna elements (a x , a y , a z ) of the second antenna to said second wireless unit (Tx/Rx, ITx/IRx) based on said direction-signal from the direction detector (MvS), wherein the control unit is configured to stimulate two of the multitude of antenna elements depending on a current input from the direction detector.
A composite nonwoven textile comprising: a first region comprising a first entangled web of fibers, a second entangled web of fibers, and an elastomeric layer positioned between the first entangled web of fibers and the second entangled web of fibers; and a second region comprising a debossed portion and the second entangled web of fibers, the debossed portion comprising a plurality of fibers from the first entangled web of fibers integrated within the elastomeric layer. a first region comprising a first entangled web of fibers, a second entangled web of fibers, and an elastomeric layer positioned between the first entangled web of fibers and the second entangled web of fibers; and a second region comprising a debossed portion and the second entangled web of fibers, the debossed portion comprising a plurality of fibers from the first entangled web of fibers integrated within the elastomeric layer.
A bite indicator comprising a housing , guide means for guiding a fishing line relative to the housing , a stylus movably mounted relative to the housing , a control means, a signal processing means and a sensing means for sensing movement of the stylus ; wherein the stylus is arranged to contact a fishing line such that movement of the fishing line relative to the stylus causes the stylus to vibrate and the sensing means senses the vibrations and transmits a signal to the signal processing means; the signal processing means being arranged to monitor the signal over a period of time and to compare the signal with a signal detected earlier; and wherein the signal processing means is arranged to generate an alarm signal dependent upon a comparison of the signal over the period of time, said bite indicator being characterised in that : the signal processing means is arranged to measure the acceleration of the fishing line over the stylus and the control means provides a predetermined threshold acceleration wherein the alarm signal is generated if the predetermined threshold acceleration is exceeded.
A wind turbine rotor blade spar cap , the spar cap having a length and comprising: a stack comprising a plurality of layers of conductive material and at least one intermediate layer , wherein the layers of conductive material each have a length along the length of the spar cap in a first direction, wherein the intermediate layer is arranged between adjacent layers of the conductive material , wherein the intermediate layer includes a fibre fabric material having: a first edge (E) extending in the first direction, a conductive portion (C) having conductive fibres oriented in the first direction, a first border portion (B) between the first edge (E) and the conductive portion (C), the first border portion having a plurality of non-conductive fibres oriented in the first direction and no conductive fibres oriented in the first direction, and cross fibres oriented to cross the conductive fibres and the non-conductive fibres , and wherein the intermediate layer is bonded with the adjacent layers of the conductive material and is electrically coupled to the adjacent layers of conductive material so as to equipotentially bond the adjacent layers of the conductive material via the conductive portion (C) of the intermediate layer. a stack comprising a plurality of layers of conductive material and at least one intermediate layer , wherein the layers of conductive material each have a length along the length of the spar cap in a first direction, wherein the intermediate layer is arranged between adjacent layers of the conductive material , wherein the intermediate layer includes a fibre fabric material having: a first edge (E) extending in the first direction, a conductive portion (C) having conductive fibres oriented in the first direction, a first border portion (B) between the first edge (E) and the conductive portion (C), the first border portion having a plurality of non-conductive fibres oriented in the first direction and no conductive fibres oriented in the first direction, and cross fibres oriented to cross the conductive fibres and the non-conductive fibres , and a first edge (E) extending in the first direction, a conductive portion (C) having conductive fibres oriented in the first direction, a first border portion (B) between the first edge (E) and the conductive portion (C), the first border portion having a plurality of non-conductive fibres oriented in the first direction and no conductive fibres oriented in the first direction, and cross fibres oriented to cross the conductive fibres and the non-conductive fibres , and wherein the intermediate layer is bonded with the adjacent layers of the conductive material and is electrically coupled to the adjacent layers of conductive material so as to equipotentially bond the adjacent layers of the conductive material via the conductive portion (C) of the intermediate layer.