mhurhangee/patent-ind-claim-en huggingface dataset:
A surface acoustic wave, SAW, sensor system, comprising: a SAW bio sensor comprising an input part , an output part , and a sensing part between the input part (200 and the output part ; a signal generating part providing a first electrical signal to the input part of the SAW bio sensor, wherein the SAW bio sensor is connected to the signal generating part and the input part is adapted to convert the first electrical signal into a SAW; and wherein, when a measurement target contacts the sensing part of the SAW bio sensor, the sensing part of the SAW bio sensor is further adapted to output a SAW corresponding to the measurement target with the SAW provided from the input part , wherein the measurement target includes at least one of protein, DNA, a virus, bacteria, a cell, and a tissue, and wherein the output part of the SAW bio sensor is adapted to convert the SAW corresponding to the measurement target into a second electrical signal and to output the second electrical signal to the signal measuring part; and the SAW bio sensor system further comprises a signal measuring part being connected to one side of the SAW bio sensor and being configured for detecting a change in the second electrical signal by time-gating and measuring a multiple-transit-echo wave , wherein the multiple-transit-echo wave is reflected by a portion of the output part at least one time, and wherein the multiple-transit-echo wave is further reflected by a portion of the input part at least one time. a SAW bio sensor comprising an input part , an output part , and a sensing part between the input part (200 and the output part ; a signal generating part providing a first electrical signal to the input part of the SAW bio sensor, wherein the SAW bio sensor is connected to the signal generating part and the input part is adapted to convert the first electrical signal into a SAW; and wherein, when a measurement target contacts the sensing part of the SAW bio sensor, the sensing part of the SAW bio sensor is further adapted to output a SAW corresponding to the measurement target with the SAW provided from the input part , wherein the measurement target includes at least one of protein, DNA, a virus, bacteria, a cell, and a tissue, and wherein the output part of the SAW bio sensor is adapted to convert the SAW corresponding to the measurement target into a second electrical signal and to output the second electrical signal to the signal measuring part; and the SAW bio sensor system further comprises a signal measuring part being connected to one side of the SAW bio sensor and being configured for detecting a change in the second electrical signal by time-gating and measuring a multiple-transit-echo wave , wherein the multiple-transit-echo wave is reflected by a portion of the output part at least one time, and wherein the multiple-transit-echo wave is further reflected by a portion of the input part at least one time.
An inertial measurement system , comprising: at least one motion sensor configured to output motion data with an output data rate - ODR - period (T ODR ) ; and a control unit coupled to the motion sensor and configured to control operation thereof based on a power mode switching, according to which each ODR period (T ODR ) comprises: a first phase (T OFF ), in which the motion sensor is controlled in a condition of low power consumption; and a subsequent measurement phase (T MEAS ), in which the motion sensor is controlled to perform measurements for generation of measurement data, characterized in that the control unit is configured to adaptively adjust the duration of the ODR period (T ODR ) based on at least one check related to the measurement data generated during the measurement phase (T MEAS ), and wherein each ODR period (T ODR ) further comprises: at least one check phase (T CHK ) subsequent to the measurement phase (T MEAS ) and designed to perform the at least one check related to the measurement data generated during said measurement phase; and at least one further measurement phase (T CHK ) following the check phase (T CHK ), in case the check phase (T CHK ) is not successful. at least one motion sensor configured to output motion data with an output data rate - ODR - period (T ODR ) ; and a control unit coupled to the motion sensor and configured to control operation thereof based on a power mode switching, according to which each ODR period (T ODR ) comprises: a first phase (T OFF ), in which the motion sensor is controlled in a condition of low power consumption; and a subsequent measurement phase (T MEAS ), in which the motion sensor is controlled to perform measurements for generation of measurement data, characterized in that the control unit is configured to adaptively adjust the duration of the ODR period (T ODR ) based on at least one check related to the measurement data generated during the measurement phase (T MEAS ), and wherein each ODR period (T ODR ) further comprises: at least one check phase (T CHK ) subsequent to the measurement phase (T MEAS ) and designed to perform the at least one check related to the measurement data generated during said measurement phase; and at least one further measurement phase (T CHK ) following the check phase (T CHK ), in case the check phase (T CHK ) is not successful.
A method of making clumping deodorizer granules, the method comprising applying a clumping agent to particles comprising activated carbon to at least partially coat an outer surface of each of the particles with a distinct layer comprising the clumping agent.
A light emitting diode (LED) apparatus comprising: a substantially flat metal substrate having a reflective surface; a plurality of LED chips each in direct contact with the reflective surface of the substrate to enable thermal dissipation, at least a portion of the LED chips being spaced a distance from each other to expose regions of the flat metal substrate having the reflective surface to allow light to reflect from the exposed regions of the reflective surface that is located between the LED chips; a dielectric insulating layer disposed on a portion of the substantially flat metal substrate ; a bonding pad that is disposed on the dielectric insulating layer and that is electrically connected to at least one of the plurality of LED chips , wherein on top of the dielectric copper traces are run to the bonding pad ; and bonding wires routed from the bonding pad in a chip to chip fashion that connect respective electrical contacts on each of the LED chips . a substantially flat metal substrate having a reflective surface; a plurality of LED chips each in direct contact with the reflective surface of the substrate to enable thermal dissipation, at least a portion of the LED chips being spaced a distance from each other to expose regions of the flat metal substrate having the reflective surface to allow light to reflect from the exposed regions of the reflective surface that is located between the LED chips; a dielectric insulating layer disposed on a portion of the substantially flat metal substrate ; a bonding pad that is disposed on the dielectric insulating layer and that is electrically connected to at least one of the plurality of LED chips , wherein on top of the dielectric copper traces are run to the bonding pad ; and bonding wires routed from the bonding pad in a chip to chip fashion that connect respective electrical contacts on each of the LED chips .
Fluid container for releasable connection to a vehicle component , wherein the fluid container has at least one first fastening lug with a first opening and a second fastening lug with a second opening which are aligned with a plug-through opening in the vehicle component and the connection is secured by a locking pin which can be extended into the plug-through opening and the openings and can be locked in an end position by a rectilinear plug-in movement in a plug-in direction (S), wherein a first locking device is formed on at least one of the two fastening lugs and is arranged in alignment with the respective opening and the locking device comprises at least one first elastically resilient tab with a concavely formed first surface portion and a second elastically resilient tab with a concavely formed second surface portion which act in a latching manner on a thickened locking portion of the locking pin and thereby secure the locking pin in its axial direction, characterized in that the locking portion has a convexly formed third surface portion which corresponds to the first and the second surface portions of the tabs and, for locking the locking pin , the first and the second surface portions simultaneously interact with the third surface portion .
A selective peptide agonist of melanocortin 1 receptor (MC1R) according to the following formula: Ar(CH 2 ) m X 1 -X 2 -CO-X 3 -X 4 -X 5 -(Trp) n -NX 6 R Formula I or a dermatologically-acceptable salt, solvate, or enantiomer thereof, wherein: Ar is selected from the group consisting of unsubstituted or substituted phenyl; m is 3; X 1 is absent; X 2 is absent; X 3 is selected from the group consisting of unsubstituted or substituted L-histidine (His); X 4 is selected from the group consisting of D-4-t-Bu-phenylalanine (D-4-tBuPhe), D-4-biphenylalanine (D-4-Bip), D-1-naphthylalanine (D-1-Nal), D-2-naphthylalanine (D-2-Nal); X 5 is selected from the group consisting of unsubstituted or substituted L-arginine (Arg); n is 0 or 1; X 6 is selected from the group consisting of H, methyl or ethyl; and R is selected from the group consisting of H, methyl or ethyl. Ar is selected from the group consisting of unsubstituted or substituted phenyl; m is 3; X 1 is absent; X 2 is absent; X 3 is selected from the group consisting of unsubstituted or substituted L-histidine (His); X 4 is selected from the group consisting of D-4-t-Bu-phenylalanine (D-4-tBuPhe), D-4-biphenylalanine (D-4-Bip), D-1-naphthylalanine (D-1-Nal), D-2-naphthylalanine (D-2-Nal); X 5 is selected from the group consisting of unsubstituted or substituted L-arginine (Arg); n is 0 or 1; X 6 is selected from the group consisting of H, methyl or ethyl; and R is selected from the group consisting of H, methyl or ethyl.
An inrun track element for formation of an inrun track system for a ski jumping hill, comprising a track building plate and two guiding ridges which extend in an extension direction (E) and which delimit the track building plate laterally as side walls, characterized in that - the track building plate and the two guiding ridges are integrally designed in such a way that they form a one-piece track channel body which has the two guiding ridges as side walls and two end faces , that - at least one coupling element is designed on one end face on the track building plate and / or on the two guiding ridges and at least one further coupling element is designed on the other end face on the track building plate and / or on the two guiding ridges , and that - the one-piece track channel body is designed from a polymer which has a heat deflection temperature in the range from 120 to 160° C, as measured according to method A DIN en ISO 75. - the track building plate and the two guiding ridges are integrally designed in such a way that they form a one-piece track channel body which has the two guiding ridges as side walls and two end faces , that - at least one coupling element is designed on one end face on the track building plate and / or on the two guiding ridges and at least one further coupling element is designed on the other end face on the track building plate and / or on the two guiding ridges , and that - the one-piece track channel body is designed from a polymer which has a heat deflection temperature in the range from 120 to 160° C, as measured according to method A DIN en ISO 75.
A computer-implemented method for managing cryptographic keys needed for peripheral devices to securely communicate with host computing devices , the method comprising: receiving , at a centralized identity management resource , a first key that is part of a cryptographic key pair comprising the first key and a second key; sending the second key of the cryptographic key pair to a peripheral device , wherein the second key is stored at the peripheral device for use by the peripheral device (130; 230) in encrypting data; identifying , by the centralized identity management resource from the host computing devices, a set of host computing devices (120; 420) that is permitted to engage in secure communications with the peripheral device (130; 230) utilizing the first key of the cryptographic key; and making available the first key from the centralized identity management resource to the set of host computing devices (120; 420) to enable the first host computing device (120; 420) to decrypt data encrypted by the peripheral device (130; 230) using the second key. receiving , at a centralized identity management resource , a first key that is part of a cryptographic key pair comprising the first key and a second key; sending the second key of the cryptographic key pair to a peripheral device , wherein the second key is stored at the peripheral device for use by the peripheral device (130; 230) in encrypting data; identifying , by the centralized identity management resource from the host computing devices, a set of host computing devices (120; 420) that is permitted to engage in secure communications with the peripheral device (130; 230) utilizing the first key of the cryptographic key; and making available the first key from the centralized identity management resource to the set of host computing devices (120; 420) to enable the first host computing device (120; 420) to decrypt data encrypted by the peripheral device (130; 230) using the second key.
A crosslinked rubber composition having a volume of the low density region of 35% or more at elongation by an applied stress of 1.5 MPa, a volume of the void portion of 7.5% or less at elongation by an applied stress of 3.0 MPa and a filler dispersibility index ΔG * shown by the following equation (I) of 3 or less, ΔG ∗ = G ∗ 4 % − G ∗ 256 % / G ∗ 256 % wherein in the equation (I), G * (n%) indicates a shear modulus when an n% strain is applied, wherein the low density region is a region having a density of 0.1 to 0.8 time the density of a crosslinked rubber composition before the elongation, wherein the void portion is a region having a density of 0 to 0.1 time the density of a crosslinked rubber composition before the elongation, wherein volumes of the low density region and the void portion are evaluated using an X-ray computerized tomography, wherein a decay time of a phosphor for converting the X-ray into a visible light is 100 ms or less, and wherein a luminance of the X-ray is 10 10 photons/s/mrad 2 /mm 2 /0.1% bw or more. wherein in the equation (I), G * (n%) indicates a shear modulus when an n% strain is applied, wherein the low density region is a region having a density of 0.1 to 0.8 time the density of a crosslinked rubber composition before the elongation, wherein the void portion is a region having a density of 0 to 0.1 time the density of a crosslinked rubber composition before the elongation, wherein volumes of the low density region and the void portion are evaluated using an X-ray computerized tomography, wherein a decay time of a phosphor for converting the X-ray into a visible light is 100 ms or less, and wherein a luminance of the X-ray is 10 10 photons/s/mrad 2 /mm 2 /0.1% bw or more.
A nozzle for spraying substances, in particular dispersions, emulsions or suspensions, comprising - a nozzle body which has a nozzle mouthpiece , - wherein the nozzle body comprises an inner pipe , said inner pipe being connected to a feed for the substance to be sprayed and comprising an inner wall and an exit opening , and an outer pipe , said outer pipe being distanced to the inner pipe , being connected to a feed for a gas and comprising an exit opening , and - the exit opening of the inner pipe and the exit opening of the outer pipe are arranged in the region of the nozzle mouthpiece , characterised in that the inner pipe is designed at least partly of an elastic material and a device which comprises an inlet for the fluid feed and an outlet for the fluid discharge is arranged in the annular gap between the inner pipe and the outer pipe , wherein the device has a closure position for closing the inner pipe and at least one open position, wherein in the at least one open position the substance to be sprayed can flow through at least the fluid channel , and wherein the device is designed in a manner such that the volume of the device can be changed by the fluid feed or the fluid discharge, by which means the device can be brought or is brought from the one closure position of the inner pipe into the at least one open position of the inner pipe and vice versa. - a nozzle body which has a nozzle mouthpiece , - wherein the nozzle body comprises an inner pipe , said inner pipe being connected to a feed for the substance to be sprayed and comprising an inner wall and an exit opening , and an outer pipe , said outer pipe being distanced to the inner pipe , being connected to a feed for a gas and comprising an exit opening , and - the exit opening of the inner pipe and the exit opening of the outer pipe are arranged in the region of the nozzle mouthpiece ,
A process for the preparation of 2-chloro-1-(2-chlorothiazol-5-yl)ethanone comprising at least the steps of: a) cyclization of 1,3-bis(dimethylaminomethylene)thiourea and chloroacetone to form N'-(5-acetylthiazol-2-yl)-N, N-dimethyl-formamidine, b) subjecting (5-acetylthiazol-2-yl)-N,N-dimethyl-formamidine to at least one acid to form 1-(2-aminothiazol-5-yl)ethanone, c) Sandmeyer reaction of 1-(2-aminothiazol-5-yl)ethanone to form 1-(2-chlorothiazol-5-yl)ethanone, and d) chlorination of 1-(2-chlorothiazol-5-yl)ethanone to form 2-chloro-1-(2-chlorothiazol-5-yl)ethanone, wherein in step a) chloroacetone is added at a rate in the range of ≥ 2.0 vol.-%/minute to ≤ 8.0 vol.-%/minute, based on the total volume of chloroacetone. a) cyclization of 1,3-bis(dimethylaminomethylene)thiourea and chloroacetone to form N'-(5-acetylthiazol-2-yl)-N, N-dimethyl-formamidine, b) subjecting (5-acetylthiazol-2-yl)-N,N-dimethyl-formamidine to at least one acid to form 1-(2-aminothiazol-5-yl)ethanone, c) Sandmeyer reaction of 1-(2-aminothiazol-5-yl)ethanone to form 1-(2-chlorothiazol-5-yl)ethanone, and d) chlorination of 1-(2-chlorothiazol-5-yl)ethanone to form 2-chloro-1-(2-chlorothiazol-5-yl)ethanone,
A lamp assembly for use in an exterior rear view mirror of a vehicle for illuminating a ground area adjacent a vehicle, including: a housing ; an outer lens covering the housing ; a plurality of light emitting diode (LED) light sources arranged in the housing ; and a reflector mounted in the housing such that light emitted from the plurality of LED light sources is captured by the reflector which reflects light towards the lens , the lens directing light generally downward towards the ground area, characterized in that the lens includes surface optics to direct light towards the ground area, wherein the surface optics include a plurality of notched regions which extend horizontally across the inner surface of the lens and which have sloped surfaces to refract light by varying amounts towards the ground area, wherein the sloped surfaces towards the top of the surface optics are less steep than the sloped surfaces towards the bottom of the surface optics, and wherein, light output from the lamp assembly appears to be emitted from a single light source , and the reflector includes one or more segments, each of the one or more segments receiving light emitted from each of the plurality of LED light sources . a housing ; an outer lens covering the housing ; a plurality of light emitting diode (LED) light sources arranged in the housing ; and a reflector mounted in the housing such that light emitted from the plurality of LED light sources is captured by the reflector which reflects light towards the lens , the lens directing light generally downward towards the ground area, characterized in that the lens includes surface optics to direct light towards the ground area, wherein the surface optics include a plurality of notched regions which extend horizontally across the inner surface of the lens and which have sloped surfaces to refract light by varying amounts towards the ground area, wherein the sloped surfaces towards the top of the surface optics are less steep than the sloped surfaces towards the bottom of the surface optics, and wherein, light output from the lamp assembly appears to be emitted from a single light source , and the reflector includes one or more segments, each of the one or more segments receiving light emitted from each of the plurality of LED light sources .
An apparatus comprising: a cache memory ; a high-bandwidth memory; a shader core (2655A-N, 2910) communicatively coupled to the cache memory and comprising a processing element configured to decompress a first data element extracted from an in-memory database in the cache memory and having a first bit length to generate a second data element having a second bit length, greater than the first bit length; and an arithmetic logic unit, ALU, configured to compare the second data element to a target value provided in a query of the in-memory database. a cache memory ; a high-bandwidth memory; a shader core (2655A-N, 2910) communicatively coupled to the cache memory and comprising a processing element configured to decompress a first data element extracted from an in-memory database in the cache memory and having a first bit length to generate a second data element having a second bit length, greater than the first bit length; and an arithmetic logic unit, ALU, configured to compare the second data element to a target value provided in a query of the in-memory database.
A computer-implemented method for marking an object on a surface of an aligner with a marking device , wherein the surface of the aligner is modeled by a virtual, tessellated surface , the method comprising: calculating a normal for each of a plurality of tiles in the tessellated surface ; disqualifying at least one tile from being selected for marking, wherein disqualifying includes comparing the calculated normal for each of the plurality of tiles with orientations reachable with the marking device ; for tiles not disqualified, identifying a patch of tiles that produce a markable area ; selecting an object to be marked; calculating a location of the object in the markable area ; and providing the location of the object to the marking device . calculating a normal for each of a plurality of tiles in the tessellated surface ; disqualifying at least one tile from being selected for marking, wherein disqualifying includes comparing the calculated normal for each of the plurality of tiles with orientations reachable with the marking device ; for tiles not disqualified, identifying a patch of tiles that produce a markable area ; selecting an object to be marked; calculating a location of the object in the markable area ; and providing the location of the object to the marking device .