mhurhangee/patent-ind-claim-en huggingface dataset:
Computer-implemented, trained machine learning system , wherein the machine learning system is a deep neural network having a convolution layer, comprising at least one filter , wherein the machine learning system is configured to take an input variable as a basis for using the filter to determine an output variable, wherein the input variable comprises a chronological sequence of images, wherein the machine learning system is configured to apply the filter to a sequence of pixels that are all located at the same coordinates in the images or at the same coordinates in intermediate results of the machine learning system , respectively, characterized in that the filter coefficients of the filter are quantized with a maximum of 8 bits and in that the quantizations of the filter coefficients of the filter were obtained by taking said filter coefficients into account for training the machine learning system, and in that the filter is configured to omit individual pixels of the images or of the intermediate results when the filter is used. wherein the machine learning system is a deep neural network having a convolution layer, comprising at least one filter , wherein the machine learning system is configured to take an input variable as a basis for using the filter to determine an output variable, wherein the input variable comprises a chronological sequence of images, wherein the machine learning system is configured to apply the filter to a sequence of pixels that are all located at the same coordinates in the images or at the same coordinates in intermediate results of the machine learning system , respectively, characterized in that the filter coefficients of the filter are quantized with a maximum of 8 bits and in that the quantizations of the filter coefficients of the filter were obtained by taking said filter coefficients into account for training the machine learning system, and in that the filter is configured to omit individual pixels of the images or of the intermediate results when the filter is used.
A waterslide feature comprising: a channel comprising a sliding surface and walls ; a plurality of nozzles angled to spray water over the sliding surface , the nozzles are positioned to provide a flow of water to impact a vehicle sliding on the sliding surface ; characterized in that the walls defining a plurality of recesses along the interior of the walls ; wherein the plurality of nozzles comprising a nozzle extending through each of the recesses ; and wherein the nozzles are sized to provide a flow of water sufficient in use to affect motion of the vehicle. a channel comprising a sliding surface and walls ; a plurality of nozzles angled to spray water over the sliding surface , the nozzles are positioned to provide a flow of water to impact a vehicle sliding on the sliding surface ; characterized in that the walls defining a plurality of recesses along the interior of the walls ; wherein the plurality of nozzles comprising a nozzle extending through each of the recesses ; and wherein the nozzles are sized to provide a flow of water sufficient in use to affect motion of the vehicle.
A passive optical network communications method, wherein the method comprises: receiving (S204), by an optical network unit, a first message sent by an optical line terminal, wherein the first message carries backup wavelength channel ID information; switching (S206), by the optical network unit when the optical network unit detects a fault, an operating wavelength channel of the optical network unit to a backup wavelength channel identified by the backup wavelength channel ID information; and performing (S208), by the optical network unit, data communication between the optical network unit and the optical line terminal over the switched-to backup wavelength channel. receiving (S204), by an optical network unit, a first message sent by an optical line terminal, wherein the first message carries backup wavelength channel ID information; switching (S206), by the optical network unit when the optical network unit detects a fault, an operating wavelength channel of the optical network unit to a backup wavelength channel identified by the backup wavelength channel ID information; and performing (S208), by the optical network unit, data communication between the optical network unit and the optical line terminal over the switched-to backup wavelength channel.
A method for producing a crosslinked product, comprising the steps of: melt molding an ethylene copolymer (A) or a resin composition containing the ethylene copolymer (A); and carrying out crosslinking; wherein the ethylene copolymer (A) contains a constitutional unit derived from ethylene and a constitutional unit derived from an α-olefin having from 3 to 20 carbon atoms, and satisfies all of the following requirements , , and : a vinyl group content per 1,000 carbon atoms as measured by 1 H-NMR is 0.06 or more and one or less; a ratio MFR 10 /MFR 2.16 is 8.6 or more and 50 or less; a density d is 850 kg/m 3 or more and 920 kg/m 3 or less; and MFR 2.16 is within the range of from 2.0 to 200 g/10 min (wherein, MFR 10 represents a melt flow rate (g/10 min) as measured in accordance with ASTM D1238 at a load of 10 kg and at a temperature of 190°C; and MFR 2.16 represents a melt flow rate (g/10 min) as measured in accordance with ASTM D1238 at a load of 2.16 kg and at a temperature of 190°C). a vinyl group content per 1,000 carbon atoms as measured by 1 H-NMR is 0.06 or more and one or less; a ratio MFR 10 /MFR 2.16 is 8.6 or more and 50 or less; a density d is 850 kg/m 3 or more and 920 kg/m 3 or less; and MFR 2.16 is within the range of from 2.0 to 200 g/10 min (wherein, MFR 10 represents a melt flow rate (g/10 min) as measured in accordance with ASTM D1238 at a load of 10 kg and at a temperature of 190°C; and MFR 2.16 represents a melt flow rate (g/10 min) as measured in accordance with ASTM D1238 at a load of 2.16 kg and at a temperature of 190°C).
A method, performed by a user equipment, UE, of transmitting an uplink channel in a wireless communication system, the method comprising: determining a transmission resource of at least one physical uplink control channel, PUCCH, for transmitting uplink control information, UCI; determining a transmission resource of a first physical uplink shared channel, PUSCH , to be transmitted to a first transmission and reception point, TRP, the first PUSCH overlapping the at least one PUCCH on a time resource; determining a transmission resource of a second PUSCH to be transmitted to a second TRP, the second PUSCH overlapping the at least one PUCCH on the time resource; multiplexing the UCI to at least one PUSCH from among the first PUSCH and the second PUSCH ; transmitting the first PUSCH to the first TRP; and transmitting the second PUSCH to the second TRP, the method characterised in that the multiplexing of the UCI comprises, in case that the first PUSCH and the second PUSCH are overlapped and a start symbol of the first PUSCH is different from a start symbol of the second PUSCH , multiplexing the UCI to a PUSCH transmitted on a transmission resource having an earlier start symbol from among the first PUSCH and the second PUSCH . determining a transmission resource of at least one physical uplink control channel, PUCCH, for transmitting uplink control information, UCI; determining a transmission resource of a first physical uplink shared channel, PUSCH , to be transmitted to a first transmission and reception point, TRP, the first PUSCH overlapping the at least one PUCCH on a time resource; determining a transmission resource of a second PUSCH to be transmitted to a second TRP, the second PUSCH overlapping the at least one PUCCH on the time resource; multiplexing the UCI to at least one PUSCH from among the first PUSCH and the second PUSCH ; transmitting the first PUSCH to the first TRP; and transmitting the second PUSCH to the second TRP, the method characterised in that the multiplexing of the UCI comprises, in case that the first PUSCH and the second PUSCH are overlapped and a start symbol of the first PUSCH is different from a start symbol of the second PUSCH , multiplexing the UCI to a PUSCH transmitted on a transmission resource having an earlier start symbol from among the first PUSCH and the second PUSCH .
Component with a constituent made of steel, characterized in that the steel comprises 0.30 - 0.50 wt.-% C, 0.05 - 1.3 wt.-% Mn, 0.001 - 0.015 wt.-% P, 0.001 - 0.015 wt.-% S, 0.01 - 0.8 wt.-% Si, 0.3 - 1.5 wt.-% Cr, 0.005 - 0.40 wt.-% V, 0.0008 - 0.0050 wt.-% B, 0.02 - 0.35 wt.-% Al, 0.0001 - 0.0200 wt.-% N, 0.01 - 0.08 wt.-% Ti, and 0.0030 - 0.0800 wt.-% Zr; optionally 0.01 - 0.20 wt.-% Mo, 0.01 - 0.50 wt.-% Ni, 0.01 - 0.50 wt.-% Cu 0.0010 - 0.0100 wt.-% Ca, 0.01-0.10 wt.-% Bi, 0.01-0.30 wt.-% Co, 0.01-0.06 wt.-% Nb, 0.01-0.40 wt.-% Pb, 0.01-0.10 wt.-% Se, 0.01-0.10 wt.-% Te, 0.01-0.3 wt.-% W, 0.01-0.04 wt.-% As, 0.01-0.20 wt.-% Ta, 0.01-0.20 wt.-% Ce, 0.01-0.50 wt.-% Sn, 0.01-0.40 wt.-% Sb, 0.01-0.20 wt.-% Hf, and/or one or more lanthanides, each in an amount of 0.01 - 0.02 wt.-%; the rest iron and unavoidable impurities, wherein each unavoidable impurity is ≤ 0.01 wt.-% and wherein the constituent of the component has a steel surface and the B content in the steel at a depth of 5 - 60 μm ≥ is 80% of the B content in the steel at a depth of 500 μm, wherein the depth is measured perpendicular to the steel surface. 0.30 - 0.50 wt.-% C, 0.05 - 1.3 wt.-% Mn, 0.001 - 0.015 wt.-% P, 0.001 - 0.015 wt.-% S, 0.01 - 0.8 wt.-% Si, 0.3 - 1.5 wt.-% Cr, 0.005 - 0.40 wt.-% V, 0.0008 - 0.0050 wt.-% B, 0.02 - 0.35 wt.-% Al, 0.0001 - 0.0200 wt.-% N, 0.01 - 0.08 wt.-% Ti, and 0.0030 - 0.0800 wt.-% Zr; optionally 0.01 - 0.20 wt.-% Mo, 0.01 - 0.50 wt.-% Ni, 0.01 - 0.50 wt.-% Cu 0.0010 - 0.0100 wt.-% Ca, 0.01-0.10 wt.-% Bi, 0.01-0.30 wt.-% Co, 0.01-0.06 wt.-% Nb, 0.01-0.40 wt.-% Pb, 0.01-0.10 wt.-% Se, 0.01-0.10 wt.-% Te, 0.01-0.3 wt.-% W, 0.01-0.04 wt.-% As, 0.01-0.20 wt.-% Ta, 0.01-0.20 wt.-% Ce, 0.01-0.50 wt.-% Sn, 0.01-0.40 wt.-% Sb, 0.01-0.20 wt.-% Hf, and/or one or more lanthanides, each in an amount of 0.01 - 0.02 wt.-%; the rest iron and unavoidable impurities, wherein each unavoidable impurity is ≤ 0.01 wt.-% and wherein the constituent of the component has a steel surface and the B content in the steel at a depth of 5 - 60 μm ≥ is 80% of the B content in the steel at a depth of 500 μm, wherein the depth is measured perpendicular to the steel surface.
An illumination device comprising: a power feeding portion ; and a surface light emitter including a light-emitting surface configured to emit light in accordance with a voltage applied by said power feeding portion and including a transparent base plate having a flat plate shape, wherein said surface light emitter includes a first electrode layer , a second electrode layer , and a light emission layer interposed between said first electrode layer and said second electrode layer , wherein said power feeding portion includes a plurality of wirings that are provided in a spatially periodic manner and that are electrically connected to said first electrode layer , and said power feeding portion applies a voltage between said first electrode layer and said second electrode layer through said plurality of wirings, said surface light emitter emits light which generates a spatially periodic luminance variation having a substantially constant amplitude; wherein the electrical resistance of said first electrode layer in a direction parallel to a main surface thereof is higher than the electrical resistance of said second electrode layer in a direction parallel to a main surface thereof in so that the voltage applied between the first electrode layer and the second electrode layer drops at a location farther from the wirings, producing a spatially periodic luminance variation in accordance with the voltage drop centered at each wiring. a power feeding portion ; and a surface light emitter including a light-emitting surface configured to emit light in accordance with a voltage applied by said power feeding portion and including a transparent base plate having a flat plate shape, wherein said surface light emitter includes a first electrode layer , a second electrode layer , and a light emission layer interposed between said first electrode layer and said second electrode layer , wherein said power feeding portion includes a plurality of wirings that are provided in a spatially periodic manner and that are electrically connected to said first electrode layer , and said power feeding portion applies a voltage between said first electrode layer and said second electrode layer through said plurality of wirings, said surface light emitter emits light which generates a spatially periodic luminance variation having a substantially constant amplitude; wherein the electrical resistance of said first electrode layer in a direction parallel to a main surface thereof is higher than the electrical resistance of said second electrode layer in a direction parallel to a main surface thereof in so that the voltage applied between the first electrode layer and the second electrode layer drops at a location farther from the wirings, producing a spatially periodic luminance variation in accordance with the voltage drop centered at each wiring.
A processor-implemented method, the method comprising: estimating , from frame images of consecutive frames acquired from one or more sensors , short-term ego-motion information indicating an ego-motion variation of the one or more sensors between a current frame and a short-term reference frame among the consecutive frames; estimating long-term ego-motion information indicating an ego-motion variation of the one or more sensors between the current frame and a long-term reference frame of the one or more sensors from the frame images ; wherein a number of frames between the short-term reference frame and the current frame is less than a number of frames between the long-term reference frame and the current frame; determining attention information by extracting, using an attention model , an attention element from the short-term ego-motion information and the long-term ego-motion information, wherein the attention element is data wherein a higher weight is assigned to a key that is similar to query data corresponding to the long-term ego-motion information among key data corresponding to the short-term ego-motion information; and determining final long-term ego-motion information of the current frame, of the consecutive frames, based on the long-term ego-motion information and the attention information. estimating , from frame images of consecutive frames acquired from one or more sensors , short-term ego-motion information indicating an ego-motion variation of the one or more sensors between a current frame and a short-term reference frame among the consecutive frames; estimating long-term ego-motion information indicating an ego-motion variation of the one or more sensors between the current frame and a long-term reference frame of the one or more sensors from the frame images ; wherein a number of frames between the short-term reference frame and the current frame is less than a number of frames between the long-term reference frame and the current frame; determining attention information by extracting, using an attention model , an attention element from the short-term ego-motion information and the long-term ego-motion information, wherein the attention element is data wherein a higher weight is assigned to a key that is similar to query data corresponding to the long-term ego-motion information among key data corresponding to the short-term ego-motion information; and determining final long-term ego-motion information of the current frame, of the consecutive frames, based on the long-term ego-motion information and the attention information.
An axial gap motor comprising: a rotor ; and a pair of stators arranged opposite to the rotor so that the rotor is sandwiched between the stators through a gap (G) in a direction of a rotation axis of the rotor , wherein the rotor has: a plurality of non-rare-earth magnets arranged as separated from each other along a circumferential direction around the rotation axis ; and a plurality of magnetic members arranged through a non-magnetic member or a spatial gap between the plurality of non-rare-earth magnets , wherein each of magnetization directions of the plurality of non-rare-earth magnets extends along the direction of the rotation axis , wherein the magnetic permeability of the plurality of magnetic members is larger than that of the plurality of non-rare-earth magnets , wherein the plurality of non-rare-earth magnets and the plurality of magnetic members define opposite faces of the rotor to the pair of stators , and characterized in that a separation distance along the circumferential direction around the rotation axis between each of the plurality of non-rare-earth magnets and each of the plurality of magnetic members is larger than a width of the gap (G) in the direction alone the rotation axis between the rotor and the pair of stators . a rotor ; and a pair of stators arranged opposite to the rotor so that the rotor is sandwiched between the stators through a gap (G) in a direction of a rotation axis of the rotor , wherein the rotor has: a plurality of non-rare-earth magnets arranged as separated from each other along a circumferential direction around the rotation axis ; and a plurality of magnetic members arranged through a non-magnetic member or a spatial gap between the plurality of non-rare-earth magnets , a plurality of non-rare-earth magnets arranged as separated from each other along a circumferential direction around the rotation axis ; and a plurality of magnetic members arranged through a non-magnetic member or a spatial gap between the plurality of non-rare-earth magnets , wherein each of magnetization directions of the plurality of non-rare-earth magnets extends along the direction of the rotation axis , wherein the magnetic permeability of the plurality of magnetic members is larger than that of the plurality of non-rare-earth magnets , wherein the plurality of non-rare-earth magnets and the plurality of magnetic members define opposite faces of the rotor to the pair of stators , and characterized in that a separation distance along the circumferential direction around the rotation axis between each of the plurality of non-rare-earth magnets and each of the plurality of magnetic members is larger than a width of the gap (G) in the direction alone the rotation axis between the rotor and the pair of stators .
An electronic device comprising a touch-screen interface wherein the external surface of said touch-screen interface is a thermoformed biaxially oriented coextruded polyester film comprising a copolyester base layer B, a first polyester outer layer A1 and a second polyester outer layer A2, wherein said outer layers are disposed on opposite surfaces of said base layer, and wherein: (i) said base layer B comprises a copolyester derived from terephthalic acid (TA) and a second aromatic dicarboxylic acid and one or more diol(s), wherein said second aromatic dicarboxylic acid is present in the copolyester in an amount of from about 5 to about 20 mol% of the acid fraction of the copolyester; (ii) the polyester of each of said outer layers A1 and A2 is selected from polyethylene terephthalate (PET); and (iii) the thickness of the base layer constitutes at least 90% of the total thickness of the coextruded multi-layer polyester film. (i) said base layer B comprises a copolyester derived from terephthalic acid (TA) and a second aromatic dicarboxylic acid and one or more diol(s), wherein said second aromatic dicarboxylic acid is present in the copolyester in an amount of from about 5 to about 20 mol% of the acid fraction of the copolyester; (ii) the polyester of each of said outer layers A1 and A2 is selected from polyethylene terephthalate (PET); and (iii) the thickness of the base layer constitutes at least 90% of the total thickness of the coextruded multi-layer polyester film.
Method for determining an orientation of a rotor plane of a wind turbine, - wherein direction information of a moving part of a wind turbine is determined on basis of at least one signal of a positioning system received at the moving part , - wherein the orientation of the rotor plane is determined on basis of the determined direction information , - wherein speed information of the moving part of the wind turbine is determined on basis of the at least one received signal of the positioning system, - wherein the speed information is corresponding to the respective direction information , - wherein the orientation of the rotor plane is determined on basis of the determined direction information and the corresponding speed information . - wherein direction information of a moving part of a wind turbine is determined on basis of at least one signal of a positioning system received at the moving part , - wherein the orientation of the rotor plane is determined on basis of the determined direction information , - wherein speed information of the moving part of the wind turbine is determined on basis of the at least one received signal of the positioning system, - wherein the speed information is corresponding to the respective direction information , - wherein the orientation of the rotor plane is determined on basis of the determined direction information and the corresponding speed information .
Fluid supply system comprising a district hot fluid supply line , a district fluid return line , a district cold fluid supply line , at least one local hot fluid line , at least one heat exchanger and a hot fluid pump arranged in the district hot fluid supply line , wherein the at least one heat exchanger comprises a primary side that is connected at a primary inlet to the district hot fluid supply line and at a primary outlet to the district fluid return line , and wherein the at least one heat exchanger comprises a secondary side that is connected at a secondary inlet to the district cold fluid supply line and at a secondary outlet to the local hot fluid line , and wherein the at least one local hot fluid line is connected to at least one local fluid tapping unit to supply heated fluid from the secondary outlet of the connected heat exchanger , and wherein the hot fluid pump is configured such that it is activated if a need for hot fluid is detected, wherein the hot fluid pump is configured such that it is activated if fluid is tapped at one of the fluid tapping units , characterized in that the fluid supply system comprises two or more heat exchangers , wherein each heat exchanger is connected at its respective primary inlet to the district hot fluid supply line , at its respective primary outlet to the district fluid return line , at its respective secondary inlet to the district cold fluid supply line and at its respective secondary outlet each to a corresponding local hot fluid line , wherein each heat exchanger is connected at the respective secondary outlet to a different local hot fluid line , wherein the hot fluid pump provides hot fluid to all connected heat exchangers , and wherein a main sensor is arranged in the district cold fluid supply line to detect if fluid is tapped at one of the fluid tapping units .