mhurhangee/ep-ind-claims huggingface dataset:
An information distribution apparatus, comprising: a receiving unit that receives identification data from each of a plurality of wireless terminals that have received a radio signal transmitted from one of a plurality of wireless devices, the plurality of wireless devices being installed at specified locations, and the received identification data being unique to the one of the plurality of wireless devices from which the wireless terminals have received a radio signal; a classifying unit that classifies the plurality of wireless terminals into groups based on identification data received by the receiving unit, the groups being formed of a plurality of wireless terminals that have received a radio signal from a same wireless device; and a distributing unit that distributes distribution data to a wireless terminal classified into a group by the classifying unit, the distribution data corresponding to the group, wherein the distributing unit distributes distribution data to a wireless terminal classified into a group by the classifying unit, the wireless terminal currently receiving a radio signal, the distribution data corresponding to the group, and the distributing unit distributes distribution data with a predetermined restriction to a wireless terminal classified into the group by the classifying unit, the wireless terminal having previously received a radio signal and not currently receiving a radio signal, the distribution data corresponding to the group. a receiving unit that receives identification data from each of a plurality of wireless terminals that have received a radio signal transmitted from one of a plurality of wireless devices, the plurality of wireless devices being installed at specified locations, and the received identification data being unique to the one of the plurality of wireless devices from which the wireless terminals have received a radio signal; a classifying unit that classifies the plurality of wireless terminals into groups based on identification data received by the receiving unit, the groups being formed of a plurality of wireless terminals that have received a radio signal from a same wireless device; and a distributing unit that distributes distribution data to a wireless terminal classified into a group by the classifying unit, the distribution data corresponding to the group, wherein the distributing unit distributes distribution data to a wireless terminal classified into a group by the classifying unit, the wireless terminal currently receiving a radio signal, the distribution data corresponding to the group, and the distributing unit distributes distribution data with a predetermined restriction to a wireless terminal classified into the group by the classifying unit, the wireless terminal having previously received a radio signal and not currently receiving a radio signal, the distribution data corresponding to the group.
Hob with hob control device, having at least one control electronics support unit and at least two control electronics board units (14, 16), characterised in that each control electronics board unit has exactly one board, wherein both control electronics board units (14, 16) each have at least one touch and/or proximity sensor (22a-g, 24a-g, 26a-g), wherein in an assembled state the control electronics board units (14, 16) are mounted in rows (18, 20) one above the other on the control electronics support unit.
A method comprising: - receiving, by a data decoder, encoded image data; and - decoding, by the data decoder, the encoded image data, characterized in that said decoding comprises mapping digital code values in the encoded image data to normalized luminance values based at least in part on a functional model of: Y = max V 1 m − c 1 0 c 2 − c 3 V 1 m 1 n, wherein: Y is a normalized luminance value, wherein 0 ≤ Y ≤ 1, V is a normalized value of a corresponding one of the digital code values D of the encoded image data, wherein 0 ≤ V ≤ 1, and n, m, c 1, c 2, and c 3 are predetermined values, with: n = 2610 4096 × 1 4 ≃ 0.1593017578125; m = 2523 4096 × 128 ≃ 78.84375; c 1 = c 3 − c 2 + 1 = 3424 4096 ≃ 0.8359375; c 2 = 2413 4096 × 32 ≃ 18.8515625; and c 3 = 2392 4096 × 32 ≃ 18.6875. - receiving, by a data decoder, encoded image data; and - decoding, by the data decoder, the encoded image data, characterized in that said decoding comprises mapping digital code values in the encoded image data to normalized luminance values based at least in part on a functional model of: Y = max V 1 m − c 1 0 c 2 − c 3 V 1 m 1 n, wherein: Y is a normalized luminance value, wherein 0 ≤ Y ≤ 1, V is a normalized value of a corresponding one of the digital code values D of the encoded image data, wherein 0 ≤ V ≤ 1, and n, m, c 1, c 2, and c 3 are predetermined values, with: n = 2610 4096 × 1 4 ≃ 0.1593017578125; m = 2523 4096 × 128 ≃ 78.84375; c 1 = c 3 − c 2 + 1 = 3424 4096 ≃ 0.8359375; c 2 = 2413 4096 × 32 ≃ 18.8515625; and c 3 = 2392 4096 × 32 ≃ 18.6875. Y is a normalized luminance value, wherein 0 ≤ Y ≤ 1, V is a normalized value of a corresponding one of the digital code values D of the encoded image data, wherein 0 ≤ V ≤ 1, and n, m, c 1, c 2, and c 3 are predetermined values, with: n = 2610 4096 × 1 4 ≃ 0.1593017578125; m = 2523 4096 × 128 ≃ 78.84375; c 1 = c 3 − c 2 + 1 = 3424 4096 ≃ 0.8359375; c 2 = 2413 4096 × 32 ≃ 18.8515625; and c 3 = 2392 4096 × 32 ≃ 18.6875.
Propylene polymer with up to and including 1.0 wt%, relative to the total weight of the propylene polymer, of at least one comonomer, said propylene polymer being characterized by - a melt flow index in the range from 3.0 to 8.0 dg/min, determined according to ISO 1133, condition L, 230°C, 2.16 kg, - a xylene solubles content in the range from 1.0 wt% to 3.5 wt%, relative to the total weight of the propylene polymer, - a polydispersity index of at least 3.0 and of at most 5.0, - a content of mmmm pentads in the range from 97.0 % to 99.0 %, determined on the insoluble heptane fraction of the xylene insolubles fraction, and - a recovery compliance in the range from 2.5 • 10 -4 Pa -1 to 5.5 • 10 -4 Pa -1. - a melt flow index in the range from 3.0 to 8.0 dg/min, determined according to ISO 1133, condition L, 230°C, 2.16 kg, - a xylene solubles content in the range from 1.0 wt% to 3.5 wt%, relative to the total weight of the propylene polymer, - a polydispersity index of at least 3.0 and of at most 5.0, - a content of mmmm pentads in the range from 97.0 % to 99.0 %, determined on the insoluble heptane fraction of the xylene insolubles fraction, and - a recovery compliance in the range from 2.5 • 10 -4 Pa -1 to 5.5 • 10 -4 Pa -1.
A system for treating target tissue of a patient's heart with pulsed field energy, the heart having a ventricle and a cardiac cycle, the system comprising: an energy delivery device including an at least substantially circular electrode array having a plurality of energy delivery electrodes; a control unit including a pulsed field energy delivery generator, the control unit being programmed to: determine timing of the cardiac cycle; determine an optimal time within the cardiac cycle for pulsed field energy delivery; determine a quality of contact between at least one energy delivery electrode and the target tissue; and deliver, during the optimal time for pulsed field energy delivery and when there is adequate determined quality of contact, pulsed field energy from the electrode array to the target tissue, wherein determining the timing of the cardiac cycle includes evaluating a surface electrocardiogram having a Q wave, an R wave, an S wave, and a T wave, the control unit being programmed to deliver the pulsed field energy to the target tissue between the S wave and an onset of the T wave. an energy delivery device including an at least substantially circular electrode array having a plurality of energy delivery electrodes; a control unit including a pulsed field energy delivery generator, the control unit being programmed to: determine timing of the cardiac cycle; determine an optimal time within the cardiac cycle for pulsed field energy delivery; determine a quality of contact between at least one energy delivery electrode and the target tissue; and deliver, during the optimal time for pulsed field energy delivery and when there is adequate determined quality of contact, pulsed field energy from the electrode array to the target tissue, determine timing of the cardiac cycle; determine an optimal time within the cardiac cycle for pulsed field energy delivery; determine a quality of contact between at least one energy delivery electrode and the target tissue; and deliver, during the optimal time for pulsed field energy delivery and when there is adequate determined quality of contact, pulsed field energy from the electrode array to the target tissue,
A method for receiving a signal at a relay node, RN,, the method comprising: receiving information on a start point of a relay-physical downlink control channel, R-PDCCH, in a specific downlink subframe configured for the RN to an evolved node B, eNB, transmission, wherein the start point of the R-PDCCH is configured as a fourth orthogonal frequency divisional multiplexing, OFDM, symbol in the specific downlink subframe and wherein the R-PDCCH is mapped to the specific downlink subframe by units of resource element group, REG, and a REG consists of four contiguous resource elements, REs; receiving the R-PDCCH from the eNB in the configured specific downlink subframe based on the received information; demodulating the R-PDCCH based on a reference signal for demodulation transmitted on an antenna port; and after receiving the R-PDCCH, receiving a data channel for the RN during seven OFDM symbols from the eNB. receiving information on a start point of a relay-physical downlink control channel, R-PDCCH, in a specific downlink subframe configured for the RN to an evolved node B, eNB, transmission, wherein the start point of the R-PDCCH is configured as a fourth orthogonal frequency divisional multiplexing, OFDM, symbol in the specific downlink subframe and wherein the R-PDCCH is mapped to the specific downlink subframe by units of resource element group, REG, and a REG consists of four contiguous resource elements, REs; receiving the R-PDCCH from the eNB in the configured specific downlink subframe based on the received information; demodulating the R-PDCCH based on a reference signal for demodulation transmitted on an antenna port; and after receiving the R-PDCCH, receiving a data channel for the RN during seven OFDM symbols from the eNB.
A method of manufacturing a light emitting diode, the method comprising: measuring a light emitting diode at a stage of a wafer before each unit light emitting diode chip formed on the wafer is diced and separated; and further comprising: performing conformal coating on the light emitting diode with a material having a phosphor mixing ratio based on the measured result, wherein the measuring comprises measuring a wavelength of light emitted by the light emitting diode, to convert light emitted from the light emitting diode to white light; characterized in that: the light emitting diode is multiply coated with phosphor material, each coat having different phosphor mixing ratios of yellow, green and red phosphors. measuring a light emitting diode at a stage of a wafer before each unit light emitting diode chip formed on the wafer is diced and separated; and further comprising: performing conformal coating on the light emitting diode with a material having a phosphor mixing ratio based on the measured result, wherein the measuring comprises measuring a wavelength of light emitted by the light emitting diode, to convert light emitted from the light emitting diode to white light; performing conformal coating on the light emitting diode with a material having a phosphor mixing ratio based on the measured result, wherein the measuring comprises measuring a wavelength of light emitted by the light emitting diode, to convert light emitted from the light emitting diode to white light; the light emitting diode is multiply coated with phosphor material, each coat having different phosphor mixing ratios of yellow, green and red phosphors.
A method of controlling an actual speed of a motor vehicle in travelling direction thereof during a hill descent, comprising the following steps: • determining an actual speed signal; • determining an inclination signal; • determining a setpoint speed signal; • determining a difference signal from the actual speed signal and the setpoint speed signal; • determining an actuating signal from the difference signal with simultaneous influencing by the inclination signal; • converting the actuating signal to at least one braking signal; and • supplying the at least one braking signal to a brake system of the motor vehicle, characterized in that the inclination signal indicates a time rate of change of the inclination. • determining an actual speed signal; • determining an inclination signal; • determining a setpoint speed signal; • determining a difference signal from the actual speed signal and the setpoint speed signal; • determining an actuating signal from the difference signal with simultaneous influencing by the inclination signal; • converting the actuating signal to at least one braking signal; and • supplying the at least one braking signal to a brake system of the motor vehicle,
Piezoelectric ceramic material of the general formula: P 1-c-d D c Z d (PbO) w where: 0 < c ≤ 0.025; 0 ≤ d ≤ 0.05; 0 ≤ w ≤ 0.05; - wherein P is a compound of the formula [Pb 1-v Ag I v] [(Zr 1-y Ti y) 1-u Cu II u]O 3, where 0.50 ≤ 1-y ≤ 0.60; 0 < u ≤ 0.0495; 0 ≤ v ≤ 0.02, and - D is a component of the general formula: [(M 1 O) 1-p (M 2 O) p] a [Nb 2 O 5] 1-a where -- M 1 is Ba 1-t Sr t, where 0 ≤ t ≤ 1, -- M 2 is Sr and/or Ca, -- and 0 < p < 1 and 2/3 < a < 1, and - Z is a compound of the general formula: Pb(L l R r)O 3 where L is present in the oxidation state II or III and R is in the oxidation state VI or V, and: L II is selected from among Fe, Mg, Co, Ni and Cu in combination with R VI = W, where l = 1/2 and r = 1/2, or L III is selected from among Fe, Cr and Ga in combination with R V = Nb, Ta or Sb, where l = 1/2 and r = 1/2, or L III is selected from among Fe, Cr and Ga in combination with R VI = W, where l = 2/3 and r = 1/3. - wherein P is a compound of the formula [Pb 1-v Ag I v] [(Zr 1-y Ti y) 1-u Cu II u]O 3, where 0.50 ≤ 1-y ≤ 0.60; 0 < u ≤ 0.0495; 0 ≤ v ≤ 0.02, and - D is a component of the general formula: [(M 1 O) 1-p (M 2 O) p] a [Nb 2 O 5] 1-a where -- M 1 is Ba 1-t Sr t, where 0 ≤ t ≤ 1, -- M 2 is Sr and/or Ca, -- and 0 < p < 1 and 2/3 < a < 1, and -- M 1 is Ba 1-t Sr t, where 0 ≤ t ≤ 1, -- M 2 is Sr and/or Ca, -- and 0 < p < 1 and 2/3 < a < 1, and - Z is a compound of the general formula: Pb(L l R r)O 3 where L is present in the oxidation state II or III and R is in the oxidation state VI or V, and: L II is selected from among Fe, Mg, Co, Ni and Cu in combination with R VI = W, where l = 1/2 and r = 1/2, or L III is selected from among Fe, Cr and Ga in combination with R V = Nb, Ta or Sb, where l = 1/2 and r = 1/2, or L III is selected from among Fe, Cr and Ga in combination with R VI = W, where l = 2/3 and r = 1/3.
An optoelectronic component having - a connection carrier, comprising a structured carrier strip, in which interspaces are filled with an electrically insulating material, - and an optoelectronic semiconductor chip, which is attached and electrically connected to the top of the connection carrier, wherein - the electrically insulating material terminates flush with the carrier strip in places or the carrier strip projects beyond the electrically insulating material, and - the carrier strip is not covered by the electrically insulating material on the top and/or on the bottom of the connection carrier, characterized in that - the optoelectronic semiconductor chip is surrounded by a potting body, which contains a silicone and in places directly adjoins the electrically insulating material of the connection carrier, and - the electrically insulating material contains a silicone or consists of a silicone. - a connection carrier, comprising a structured carrier strip, in which interspaces are filled with an electrically insulating material, - and an optoelectronic semiconductor chip, which is attached and electrically connected to the top of the connection carrier, wherein - the electrically insulating material terminates flush with the carrier strip in places or the carrier strip projects beyond the electrically insulating material, and - the carrier strip is not covered by the electrically insulating material on the top and/or on the bottom of the connection carrier, characterized in that - the optoelectronic semiconductor chip is surrounded by a potting body, which contains a silicone and in places directly adjoins the electrically insulating material of the connection carrier, and - the electrically insulating material contains a silicone or consists of a silicone.
A method of compensating for processing timing misalignment in a communication receiver comprising: estimating a set of path delays for a received signal according to a first timing resolution; setting a first processing delay on each estimated path delay according to a second timing resolution; estimating timing misalignment between two or more of the first processing delays and actual path delays by: jointly hypothesizing combinations of fractional timing offsets between the two or more first processing delays and actual path delays; computing a decision metric for each joint hypothesis that indicates the accuracy of the joint hypothesis; evaluating the decision metrics to identify a best estimate of timing misalignment for the two or more estimated path delays; and compensating coherent processing of the received signal according to the best estimate of timing misalignment. estimating a set of path delays for a received signal according to a first timing resolution; setting a first processing delay on each estimated path delay according to a second timing resolution; estimating timing misalignment between two or more of the first processing delays and actual path delays by: jointly hypothesizing combinations of fractional timing offsets between the two or more first processing delays and actual path delays; computing a decision metric for each joint hypothesis that indicates the accuracy of the joint hypothesis; evaluating the decision metrics to identify a best estimate of timing misalignment for the two or more estimated path delays; and compensating coherent processing of the received signal according to the best estimate of timing misalignment. jointly hypothesizing combinations of fractional timing offsets between the two or more first processing delays and actual path delays; computing a decision metric for each joint hypothesis that indicates the accuracy of the joint hypothesis; evaluating the decision metrics to identify a best estimate of timing misalignment for the two or more estimated path delays; and compensating coherent processing of the received signal according to the best estimate of timing misalignment.
A carbon fiber recycling device, adapted to recycle a first carbon fiber from a carbon fiber polymer composite, the carbon fiber recycling device comprising: at least one first microwave supplying unit and a cavity; wherein the cavity has a second long axis direction; wherein the carbon fiber recycling device further contains a carbon fiber polymer composite to be recycled disposed in an interior of the cavity, wherein the carbon fiber polymer composite to be recycled comprises a polymer matrix and the first carbon fiber, wherein the polymer matrix is coupled to the first carbon fiber and the first carbon fiber defines a first long axis direction, wherein the first microwave supplying unit is configured to generate a first microwave that is propagated along a first microwave direction to the interior of the cavity; characterized in that the first microwave of the first microwave supplying unit is adjustable to change an angle between a first electric field direction of the electric field of the first microwave and the second long axis direction of the cavity to make the first long axis direction of the first carbon fiber being parallel to the first electric field direction. at least one first microwave supplying unit and a cavity; wherein the cavity has a second long axis direction; wherein the carbon fiber recycling device further contains a carbon fiber polymer composite to be recycled disposed in an interior of the cavity, wherein the carbon fiber polymer composite to be recycled comprises a polymer matrix and the first carbon fiber, wherein the polymer matrix is coupled to the first carbon fiber and the first carbon fiber defines a first long axis direction, wherein the first microwave supplying unit is configured to generate a first microwave that is propagated along a first microwave direction to the interior of the cavity; characterized in that the first microwave of the first microwave supplying unit is adjustable to change an angle between a first electric field direction of the electric field of the first microwave and the second long axis direction of the cavity to make the first long axis direction of the first carbon fiber being parallel to the first electric field direction.
A wet friction material for use in a fluid environment comprising a fibrous base material that includes a resin binder, characterised in that the fibrous base material comprises: small diameter fibers which have a fiber diameter ranging from 1 to 20 micrometers and a tensile modulus of greater than 70 Gpa, which comprise a combination of carbon fibers and ceramic fibers, silica fibers, or mineral fibers, and which are present in an amount that ranges from 10 to 70 weight percent of the fibrous base material; large diameter fibers which have a fiber diameter greater than 20 micrometers and which are carbon fibers, aramid fibers or cellulose fibers; and an inorganic filler material which is diatomaceous earth, clay, wollastonite, silica, carbonate, vermiculite or mica; wherein the fibrous base material further includes friction modifying particles comprising silica, and the binder is a phenolic or modified phenolic resin, a silicone or modified silicone resin, or a blend of the phenolic and silicone resins. small diameter fibers which have a fiber diameter ranging from 1 to 20 micrometers and a tensile modulus of greater than 70 Gpa, which comprise a combination of carbon fibers and ceramic fibers, silica fibers, or mineral fibers, and which are present in an amount that ranges from 10 to 70 weight percent of the fibrous base material; large diameter fibers which have a fiber diameter greater than 20 micrometers and which are carbon fibers, aramid fibers or cellulose fibers; and an inorganic filler material which is diatomaceous earth, clay, wollastonite, silica, carbonate, vermiculite or mica; wherein the fibrous base material further includes friction modifying particles comprising silica, and the binder is a phenolic or modified phenolic resin, a silicone or modified silicone resin, or a blend of the phenolic and silicone resins.