mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a wireless device in a wireless communication system, the method comprising: transmitting a first codeword and a second codeword through a physical uplink shared channel, PUSCH; and determining a first physical hybrid automatic repeat request indicator channel, PHICH, resource and a second PHICH resource respectively corresponding to the first codeword and the second codeword, wherein the first PHICH resource and the second PHICH resource are determined based on the equations below: n PHICH group = I PRB _ RA lowest _ index + β + n DMRS mod N PHICH group + I PHICH N PHICH group , and n PHICH seq = ⌊ I PRB _ RA lowest _ index + β / N PHICH group ⌋ + n DMRS mod 2 N SF PHICH where n PHICH group is an index of a PHICH group, n PHICH seq is an orthogonal sequence index in the PHICH group, n DMRS is a cyclic shift field for a demodulation reference signal, DMRS, I PRB _ RA lowest _ index is a lowest physical resource block, PRB, index among PRBs in a first slot to which the PUSCH is mapped, β is an offset, N PHICH group is a number of PHICH groups, I PHICH has a value of 0 or 1, and N SF PHICH is a spreading factor, and wherein an offset β for the first PHICH resource is a first value, and wherein an offset β for the second PHICH resource is a second value different from the first value. transmitting a first codeword and a second codeword through a physical uplink shared channel, PUSCH; and determining a first physical hybrid automatic repeat request indicator channel, PHICH, resource and a second PHICH resource respectively corresponding to the first codeword and the second codeword, wherein the first PHICH resource and the second PHICH resource are determined based on the equations below: n PHICH group = I PRB _ RA lowest _ index + β + n DMRS mod N PHICH group + I PHICH N PHICH group , and n PHICH seq = ⌊ I PRB _ RA lowest _ index + β / N PHICH group ⌋ + n DMRS mod 2 N SF PHICH where n PHICH group is an index of a PHICH group, n PHICH seq is an orthogonal sequence index in the PHICH group, n DMRS is a cyclic shift field for a demodulation reference signal, DMRS, I PRB _ RA lowest _ index is a lowest physical resource block, PRB, index among PRBs in a first slot to which the PUSCH is mapped, β is an offset, N PHICH group is a number of PHICH groups, I PHICH has a value of 0 or 1, and N SF PHICH is a spreading factor, and wherein an offset β for the first PHICH resource is a first value, and wherein an offset β for the second PHICH resource is a second value different from the first value.
Electric powered self-propelled driving machine for working a ground (T) comprising: - a bearing frame adapted to remain at a given distance from a reference surface (S) when said machine is assembled; - kinematic mechanisms coupled to said bearing frame and adapted to be arranged close to said reference surface (S) when said machine is in use conditions; - electric motorization means , coupled to said bearing frame and operatively connected to said kinematic mechanisms , adapted to be electrically operated to move said bearing frame ; - a power supply cable adapted to be electrically connected to said electric motorization means and to be connected to an electric power supply source (E); - a reference rotor around which said power supply cable is wound to form an electric coil of predefined length, coupled to said bearing frame and operatively connected to first rotation means adapted to be operated to unwind/rewind said power supply cable from/onto said reference rotor at least during the advancement of said driving machine while working on a ground (T); - a distribution arm , operatively connected to said bearing frame and supporting said power supply cable so as to at least limit the interference thereof with said kinematic mechanisms during said advancement of said driving machine on said ground (T), wherein said reference rotor , and said electric coil wound thereon, are arranged in the central part of said bearing frame so that both the front part and the rear part of said bearing frame are frontally free and directly facing the external environment in such a way to be configured to accommodate both, removably, front and rear pieces of equipment (L 1 , L 2 ) for working said ground (T), characterized in that said reference rotor , and said electric coil wound thereon, are always positioned at the weight gravity center defined by said bearing frame and said equipment (L 1 , L 2 ) for working said ground (T). - a bearing frame adapted to remain at a given distance from a reference surface (S) when said machine is assembled; - kinematic mechanisms coupled to said bearing frame and adapted to be arranged close to said reference surface (S) when said machine is in use conditions; - electric motorization means , coupled to said bearing frame and operatively connected to said kinematic mechanisms , adapted to be electrically operated to move said bearing frame ; - a power supply cable adapted to be electrically connected to said electric motorization means and to be connected to an electric power supply source (E); - a reference rotor around which said power supply cable is wound to form an electric coil of predefined length, coupled to said bearing frame and operatively connected to first rotation means adapted to be operated to unwind/rewind said power supply cable from/onto said reference rotor at least during the advancement of said driving machine while working on a ground (T); - a distribution arm , operatively connected to said bearing frame and supporting said power supply cable so as to at least limit the interference thereof with said kinematic mechanisms during said advancement of said driving machine on said ground (T),
A system for the identification and recognition of a motor vehicle based on the profile of voltage values from a vehicle's onboard electrical system , comprising: - a voltage and/or current detecting device connected to the vehicle's onboard electrical system ; said system being configured to: - create a database comprising at least one reference value of voltage and/or absorbed current acquired from the vehicle's onboard electrical system and associated with at least one pre-established vehicle condition; - detect at least one operating value of voltage and/or absorbed current from the vehicle's onboard electrical system , the at least one operating value of voltage and/or absorbed current being associated with said at least one pre-established vehicle condition; - compare the at least one reference value with the at least one operating value, and in the case where: a) the at least one operating value coincides with the at least one reference value, determining that the system for the identification is installed on the vehicle; b) the at least one operating value does not coincide with the at least one reference value, determining that the system for the identification is not installed on the vehicle. - a voltage and/or current detecting device connected to the vehicle's onboard electrical system ; - create a database comprising at least one reference value of voltage and/or absorbed current acquired from the vehicle's onboard electrical system and associated with at least one pre-established vehicle condition; - detect at least one operating value of voltage and/or absorbed current from the vehicle's onboard electrical system , the at least one operating value of voltage and/or absorbed current being associated with said at least one pre-established vehicle condition; - compare the at least one reference value with the at least one operating value, and in the case where: a) the at least one operating value coincides with the at least one reference value, determining that the system for the identification is installed on the vehicle; b) the at least one operating value does not coincide with the at least one reference value, determining that the system for the identification is not installed on the vehicle. a) the at least one operating value coincides with the at least one reference value, determining that the system for the identification is installed on the vehicle; b) the at least one operating value does not coincide with the at least one reference value, determining that the system for the identification is not installed on the vehicle.
A needle cannula inspection method comprising: rotating a first bevel of said needle cannula about an axis of the needle relative to a first image capture device (32-37); operating the first image capture device to capture a plurality of images (1-25) along the circumferential direction of said needle cannula for a whole rotation of said needle cannula; and screening, processing and analyzing the captured images to inspect at least one quality or technical parameter of said needle cannula ; characterised in that the method further comprises: identifying one image from among all the plurality of images captured by the first image capture device for said needle cannula, wherein said one image is identified as the image with a bright area that is the largest; and selecting said one identified image, wherein said first image capture device is arranged such that said identified image is a front illuminated image capturing the position wherein the bevel of said needle cannula directly faces the first image capture device. rotating a first bevel of said needle cannula about an axis of the needle relative to a first image capture device (32-37); operating the first image capture device to capture a plurality of images (1-25) along the circumferential direction of said needle cannula for a whole rotation of said needle cannula; and screening, processing and analyzing the captured images to inspect at least one quality or technical parameter of said needle cannula ; characterised in that the method further comprises: identifying one image from among all the plurality of images captured by the first image capture device for said needle cannula, wherein said one image is identified as the image with a bright area that is the largest; and selecting said one identified image, wherein said first image capture device is arranged such that said identified image is a front illuminated image capturing the position wherein the bevel of said needle cannula directly faces the first image capture device. identifying one image from among all the plurality of images captured by the first image capture device for said needle cannula, wherein said one image is identified as the image with a bright area that is the largest; and selecting said one identified image, wherein said first image capture device is arranged such that said identified image is a front illuminated image capturing the position wherein the bevel of said needle cannula directly faces the first image capture device.
A depth detection apparatus comprising: a memory storing frames of raw time-of-flight sensor data received from a time-of- flight sensor, the frames having been captured by a time-of-flight camera in the presence of motion such that different ones of the frames were captured using different locations of the camera or with different locations of an object in a scene depicted in the frames or with both different locations of the camera and different locations of an object in a scene depicted in the frames; and computation logic with functionality to compute a plurality of depth maps from the stream of frames, whereby each frame of raw time-of-flight sensor data contributes to more than one depth map; wherein the computation logic has functionality to carry out inference with respect to a model of temporal time-of-flight, the model of temporal time-of-flight describing how raw time-of-flight data is generated by the camera under imaging conditions comprising albedo, illumination and surface depth from the camera , and where the model describes how imaging conditions at individual pixels evolve over time. a memory storing frames of raw time-of-flight sensor data received from a time-of- flight sensor, the frames having been captured by a time-of-flight camera in the presence of motion such that different ones of the frames were captured using different locations of the camera or with different locations of an object in a scene depicted in the frames or with both different locations of the camera and different locations of an object in a scene depicted in the frames; and computation logic with functionality to compute a plurality of depth maps from the stream of frames, whereby each frame of raw time-of-flight sensor data contributes to more than one depth map; wherein the computation logic has functionality to carry out inference with respect to a model of temporal time-of-flight, the model of temporal time-of-flight describing how raw time-of-flight data is generated by the camera under imaging conditions comprising albedo, illumination and surface depth from the camera , and where the model describes how imaging conditions at individual pixels evolve over time.
A multi-scale fiducial , comprising: a first fiducial at a first scale; a second fiducial at a second scale smaller than the first scale and linked to the first fiducial; and a third fiducial at a third scale smaller than the second scale and linked to the second fiducial; wherein at least one of: the second fiducial is linked to the first fiducial in that the first fiducial provides information to independently determine the relative position of the second fiducial and the second fiducial is located outside of an outer boundary of the first fiducial, or the third fiducial is linked to the second fiducial in that the second fiducial provides information to independently determine the relative position of the third fiducial and the third fiducial is located outside of an outer boundary of the second fiducial. a first fiducial at a first scale; a second fiducial at a second scale smaller than the first scale and linked to the first fiducial; and a third fiducial at a third scale smaller than the second scale and linked to the second fiducial; wherein at least one of: the second fiducial is linked to the first fiducial in that the first fiducial provides information to independently determine the relative position of the second fiducial and the second fiducial is located outside of an outer boundary of the first fiducial, or the third fiducial is linked to the second fiducial in that the second fiducial provides information to independently determine the relative position of the third fiducial and the third fiducial is located outside of an outer boundary of the second fiducial. the second fiducial is linked to the first fiducial in that the first fiducial provides information to independently determine the relative position of the second fiducial and the second fiducial is located outside of an outer boundary of the first fiducial, or the third fiducial is linked to the second fiducial in that the second fiducial provides information to independently determine the relative position of the third fiducial and the third fiducial is located outside of an outer boundary of the second fiducial.
Tubular spring , in particular as a coil spring , torsion-rod spring , and/or stabilizer for motor vehicles, comprising at least one metal tube element having a tube internal cross section , a tube internal diameter (DI), a tube external diameter (DA), a tube internal wall , and a tube wall thickness (W), wherein at least one metal foam is disposed in the tube internal cross section of the at least one metal tube element of the tubular spring in at least one part-region, and the at least one metal tube element has an at least partially martensitic structure and wherein the at least one metal tube element and/or the at least one metal tube element that is foamed at least in a part-region are/is at least partially formed so as to be a tubular spring that is configured so as to not be fully rectilinear.
Method for manufacturing a mixed solution comprising propionate and acetate, which comprises the steps of • providing a fermentation product having a pH from 6 to 9, and comprising propionate, acetate, and carbonate-related compounds being carbonates, bicarbonates and carbonic acids, • adding acid to the fermentation product to obtain an acidified fermentation product comprising propionate and acetate with a pH in the range of 2.5 to below 8 and containing at most 0.05 mol/l of carbonate-related compounds at ambient temperature. • providing a fermentation product having a pH from 6 to 9, and comprising propionate, acetate, and carbonate-related compounds being carbonates, bicarbonates and carbonic acids, • adding acid to the fermentation product to obtain an acidified fermentation product comprising propionate and acetate with a pH in the range of 2.5 to below 8 and containing at most 0.05 mol/l of carbonate-related compounds at ambient temperature.
A waste heat recovery system comprising: a refrigerant circuit having a condenser configured to condense, by heat exchange with cooling water, a refrigerant that passed through a turbine rotated by the refrigerant evaporated by an evaporator; a cooling water pipe through which the cooling water that passed through the condenser flows; and a leakage detector provided to the cooling water pipe and configured to detect the refrigerant contained in the cooling water flowing through the cooling water pipe, wherein the leakage detector has a gas discharge valve provided perpendicularly above the cooling water pipe, a refrigerant detector configured to detect the refrigerant discharged from the gas discharge valve, and a discharge pipe that is connected to the gas discharge valve and through which a gas discharged from the gas discharge valve flows, and wherein a discharge port of the discharge pipe is opened perpendicularly downward, and the refrigerant detector is provided perpendicularly below the discharge port. a refrigerant circuit having a condenser configured to condense, by heat exchange with cooling water, a refrigerant that passed through a turbine rotated by the refrigerant evaporated by an evaporator; a cooling water pipe through which the cooling water that passed through the condenser flows; and a leakage detector provided to the cooling water pipe and configured to detect the refrigerant contained in the cooling water flowing through the cooling water pipe, wherein the leakage detector has a gas discharge valve provided perpendicularly above the cooling water pipe, a refrigerant detector configured to detect the refrigerant discharged from the gas discharge valve, and a discharge pipe that is connected to the gas discharge valve and through which a gas discharged from the gas discharge valve flows, and wherein a discharge port of the discharge pipe is opened perpendicularly downward, and the refrigerant detector is provided perpendicularly below the discharge port.
An electric rocket engine forced cooling system intended for regulating the temperature conditions of an area thermally affected by electrons and/or plasma ions and/or an electromagnetic field wherein the system comprises the following system elements: a pump configured to provide a continuous flow of working substance in the cooling system, the pump having an inlet and an outlet; a cooling jacket that surrounds and/or is built in to parts of the electric rocket engine that require cooling, the cooling jacket having an inlet and a first and second outlet; a reservoir for storing working substance, the reservoir having an inlet and a first and second outlet; a hydraulic accumulator configured to ensure that a required pressure is maintained in the cooling system, the hydraulic accumulator having a first and second inlet and an outlet; a radiator containing one or more segments and configured to dissipate heat energy received from the working substance, wherein the one or more segments are optionally equipped with individual temperature regulators, the radiator having an inlet and an outlet; and a thermostatic valve configured to regulate working substance flow through the radiator , the thermostatic valve having an inlet and a first and second outlet; and wherein the system further comprises tubes configured to provide working substance circulation through the cooling system and connecting the abovementioned system elements in the following way: the outlet of the pump is connected with the inlet of the cooling jacket , the first outlet of the cooling jacket is connected with the first inlet of the hydraulic accumulator , the outlet of the hydraulic accumulator is connected with the inlet of the pump , the second outlet of the cooling jacket is connected with the inlet of the reservoir , the first outlet of the reservoir is connected with the second inlet of the hydraulic accumulator , the second outlet of the reservoir is connected with the inlet of the thermostatic valve , the first outlet of the thermostatic valve is connected with the inlet of the pump , the second outlet of the thermostatic valve is connected with the inlet of the radiator , and the outlet of the radiator is connected with the inlet of the pump .
Optically variable surface pattern divided into at least four partial regions (8-11) each having a plurality of pixel sections (4-7), wherein a first and a second of the partial regions present two different views of a first motif upon tilting about a first axis and thus depending on the viewing angle and a third of the partial regions presents a further view of the first motif upon tilting about a second axis, which is not parallel to the first axis, wherein the first and second partial regions present the two different views such that a three-dimensional image impression is produced in a viewer, wherein a plurality of the pixel sections (4-7) each have one or more reflective and/or refractive subpixels, wherein the reflective or refractive subpixels each have a reflective or refractive facet , and wherein the at least four partial regions (8-11) present, depending on the viewing angle, four different views of the first motif with a horizontal and vertical parallax, wherein in each case one or more of the reflective and/or refractive facets having dimensions of between 2 μm and 300 μm is/are present in the pixel sections (4-7). wherein a first and a second of the partial regions present two different views of a first motif upon tilting about a first axis and thus depending on the viewing angle and a third of the partial regions presents a further view of the first motif upon tilting about a second axis, which is not parallel to the first axis, wherein the first and second partial regions present the two different views such that a three-dimensional image impression is produced in a viewer, wherein a plurality of the pixel sections (4-7) each have one or more reflective and/or refractive subpixels, wherein the reflective or refractive subpixels each have a reflective or refractive facet , and wherein the at least four partial regions (8-11) present, depending on the viewing angle, four different views of the first motif with a horizontal and vertical parallax, wherein in each case one or more of the reflective and/or refractive facets having dimensions of between 2 μm and 300 μm is/are present in the pixel sections (4-7).