mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a first imager comprising a pixel array, the imager configured to capture image data; a first variable transmittance mirror having a first level of transmittance; a controller configured to: assign a first light intensity value to one or more pixels, and change the first level of transmittance to a second level of transmittance based at least in part on the detected first light intensity; and a second variable transmittance mirror , having a third level of transmittance; wherein the controller is further configured to: determine whether the first light intensity is present in a first region of the pixel array, and change the first level of transmittance to a second level of transmittance and the third level of transmittance to a fourth level of transmittance, based further at least in part on: the detected first light intensity, and a determination of the presence of the first light intensity in the first region. a first imager comprising a pixel array, the imager configured to capture image data; a first variable transmittance mirror having a first level of transmittance; a controller configured to: assign a first light intensity value to one or more pixels, and change the first level of transmittance to a second level of transmittance based at least in part on the detected first light intensity; and assign a first light intensity value to one or more pixels, and change the first level of transmittance to a second level of transmittance based at least in part on the detected first light intensity; and a second variable transmittance mirror , having a third level of transmittance; determine whether the first light intensity is present in a first region of the pixel array, and change the first level of transmittance to a second level of transmittance and the third level of transmittance to a fourth level of transmittance, based further at least in part on: the detected first light intensity, and a determination of the presence of the first light intensity in the first region. the detected first light intensity, and a determination of the presence of the first light intensity in the first region.
Trailer coupling for a motor vehicle with a coupling arm , wherein the coupling arm is pivotably mounted on a holder which is or may be attached to the motor vehicle with the aid of a swivel bearing between a position of use (G) and an inoperative position (N), wherein the coupling arm in the position of use (G) extends further back beyond a rear section of the motor vehicle for attaching a trailer or mounting a load carrier than in the inoperative position (N) provided for when the coupling arm is not in use, wherein the swivel bearing has a holder bearing location provided on the holder and a coupling arm bearing element carrying the coupling arm and mounted on the holder bearing location , pivotable around a swivel axis (S), wherein the coupling arm bearing element engages in an inner periphery of the holder bearing location , characterised in that on an inner periphery of the holder bearing location and an outer periphery of the coupling arm bearing element , a bearing slot and a bearing projection engage in one another around the swivel axis (S), for the rotatable mounting of the coupling arm bearing element in the holder bearing location .
A method for indicating a channel in a wireless local area network, WLAN, said method being performed by a sending station and comprising: generating a physical protocol data unit, PPDU, wherein the PPDU includes a preamble field and a data field, a high efficiency signal field, HE-SIG-A, of the preamble field includes a bandwidth identifier, and the bandwidth identifier indicates a data transmission channel of the PPDU; sending the PPDU; characterized in that , the bandwidth identifier includes three bits; and when the bandwidth identifier is a first value, the first value indicates a first mode of the data transmission channel in a channel with a 80 MHz bandwidth; in the first mode, a primary 20 MHz channel and a secondary 40 MHz channel are included in the data transmission channel; and when the bandwidth identifier is a second value, the second value indicates a second mode of the data transmission channel in a channel with a 80 MHz bandwidth; in the second mode, the primary 20 MHz channel, the secondary 20 MHz channel, and one 20 MHz channel of the secondary 40 MHz channel are included in the data transmission channel. generating a physical protocol data unit, PPDU, wherein the PPDU includes a preamble field and a data field, a high efficiency signal field, HE-SIG-A, of the preamble field includes a bandwidth identifier, and the bandwidth identifier indicates a data transmission channel of the PPDU; sending the PPDU; characterized in that , the bandwidth identifier includes three bits; and when the bandwidth identifier is a first value, the first value indicates a first mode of the data transmission channel in a channel with a 80 MHz bandwidth; in the first mode, a primary 20 MHz channel and a secondary 40 MHz channel are included in the data transmission channel; and when the bandwidth identifier is a second value, the second value indicates a second mode of the data transmission channel in a channel with a 80 MHz bandwidth; in the second mode, the primary 20 MHz channel, the secondary 20 MHz channel, and one 20 MHz channel of the secondary 40 MHz channel are included in the data transmission channel.
A method of wireless communication performed by a user equipment, UE, , comprising: receiving , from a base station, an indication that a plurality of physical downlink shared channel, PDSCH, communications are associated for purposes of demodulation reference signal, DMRS, bundling; characterized in that it further comprises: determining whether a phase continuity is maintained for the plurality of PDSCH communications based at least on respective quasi-co-location, QCL, assumptions for the plurality of PDSCH communications; and processing the plurality of PDSCH communications based at least on whether the phase continuity is maintained, wherein the processing comprises: coherently processing DMRSs from the plurality of PDSCH communication for which phase continuity is determined to be maintained, and non-coherently processing DMRSs from the plurality of PDSCH communication for which phase continuity is determined not to be maintained. determining whether a phase continuity is maintained for the plurality of PDSCH communications based at least on respective quasi-co-location, QCL, assumptions for the plurality of PDSCH communications; and processing the plurality of PDSCH communications based at least on whether the phase continuity is maintained, wherein the processing comprises: coherently processing DMRSs from the plurality of PDSCH communication for which phase continuity is determined to be maintained, and non-coherently processing DMRSs from the plurality of PDSCH communication for which phase continuity is determined not to be maintained. coherently processing DMRSs from the plurality of PDSCH communication for which phase continuity is determined to be maintained, and non-coherently processing DMRSs from the plurality of PDSCH communication for which phase continuity is determined not to be maintained.
An electronic device , comprising: a housing , having a battery compartment arranged therein; a battery , mounted in the battery compartment and comprising a battery body and a wrapping film wrapped around a surface of the battery body , wherein the battery body has a first surface ; and an electrical connector , having at least a part located on the first surface , characterized in that the first surface has an expansion region (51a2) and a non-expansion region (51a1) surrounding a periphery of the expansion region (51a2); a distance between each edge of the expansion region (51a2) and a peripheral edge of the first surface adjacent to the respective edge of the expansion region (51a2) is d, and d is d = (0 . 5 * h + a) mm, wherein h is a thickness of the battery body and a is in a range of mm; and the part of the electrical connector located on the first surface does not overlap with the wrapping film in the expansion region (51a2). a housing , having a battery compartment arranged therein; a battery , mounted in the battery compartment and comprising a battery body and a wrapping film wrapped around a surface of the battery body , wherein the battery body has a first surface ; and an electrical connector , having at least a part located on the first surface , characterized in that the first surface has an expansion region (51a2) and a non-expansion region (51a1) surrounding a periphery of the expansion region (51a2); a distance between each edge of the expansion region (51a2) and a peripheral edge of the first surface adjacent to the respective edge of the expansion region (51a2) is d, and d is d = (0 . 5 * h + a) mm, wherein h is a thickness of the battery body and a is in a range of mm; and the part of the electrical connector located on the first surface does not overlap with the wrapping film in the expansion region (51a2).
A tightening system for tightening an annular element to a central cylindrical body comprising a central cylindrical body , an annular element to be tightened to said central cylindrical body , a first annular groove formed circumferentially on an inner surface of said annular element , a second annular groove formed circumferentially on an outer surface of said central cylindrical body , interference means adapted to be inserted within said first and said second grooves, said first and said second grooves being able to be coupled to form a channel wherein said interference means can be inserted, characterized in that said first groove is eccentric to the rotational axis of symmetry of said annular element and said second groove is eccentric to the rotational axis of symmetry of said central cylindrical body , in such a way that in a first coupling configuration in phase between said annular element and said central cylindrical body , said channel presents a cross section, as measured in the radial direction with respect to the symmetry rotational axis , which is constant and uniform along the entire annular extent, and in a second coupling configuration which is rotated, and not in phase between said annular element and said central cylindrical body , said channel has a cross section which is not uniform and is variable along the annular extent.
A hand machine tool comprising a tool and an electric motor for driving the tool , a housing , and a light module which is attached to the machine and which has at least one light source for illuminating a working region, wherein the light module is configured for a gesture control, wherein the machine comprises a programmable control unit which is configured to recognize gestures and to control the light module in dependence on recognized gestures, characterized in that the control unit is configured to recognize a single or multiple tapping or knocking at the outer side of the housing as a gesture for controlling the light module and thus for changing the state of the light source of the light module . a tool and an electric motor for driving the tool , a housing , and a light module which is attached to the machine and which has at least one light source for illuminating a working region, wherein the light module is configured for a gesture control, wherein the machine comprises a programmable control unit which is configured to recognize gestures and to control the light module in dependence on recognized gestures, characterized in that the control unit is configured to recognize a single or multiple tapping or knocking at the outer side of the housing as a gesture for controlling the light module and thus for changing the state of the light source of the light module .
A device for reading and decoding paper or non-paper documents including micro-perforated patterns , in the form of micro-perforated characters or symbols, and graphic patterns , said device comprising - at least one image sensor having a light flashing component arranged to flash a visible light on a first side of a document , and image detectors arranged to read said visible light reflected or scattered by said graphic patterns ; - at least one further light flashing component located in front of said image sensor and arranged to flash an infrared light on a second side of the document ; said image detectors being arranged to read the infrared light passing through the micro-perforated patterns ; - a control circuit arranged to manage said image detectors to read said visible light reflected by said graphic patterns and said infrared light passing through the micro-perforated patterns , and to obtain bit-maps of the graphic and micro-perforated patterns read; characterized in that said control circuit is further arranged to decode the bit-maps of the micro-perforated patterns into symbols or characters and to send to an external computer only said decoded micro-perforated patterns, wherein said control circuit comprises - one A/D converter ; - one FPGA component ; and - one CPU arranged to control operation - of the A/D converter to convert analog signals coming from said at least one image sensor into digital signals; and - of the FPGA component to at least construct bit-maps of the micro-perforated patterns and of the graphic patterns . - at least one image sensor having a light flashing component arranged to flash a visible light on a first side of a document , and image detectors arranged to read said visible light reflected or scattered by said graphic patterns ; - at least one further light flashing component located in front of said image sensor and arranged to flash an infrared light on a second side of the document ; said image detectors being arranged to read the infrared light passing through the micro-perforated patterns ; - a control circuit arranged to manage said image detectors to read said visible light reflected by said graphic patterns and said infrared light passing through the micro-perforated patterns , and to obtain bit-maps of the graphic and micro-perforated patterns read; - one A/D converter ; - one FPGA component ; and - one CPU arranged to control operation - of the A/D converter to convert analog signals coming from said at least one image sensor into digital signals; and - of the FPGA component to at least construct bit-maps of the micro-perforated patterns and of the graphic patterns . - of the A/D converter to convert analog signals coming from said at least one image sensor into digital signals; and - of the FPGA component to at least construct bit-maps of the micro-perforated patterns and of the graphic patterns .
A method to offload computations in a networked environment, the method comprising: detecting, by executing an instruction via a processor, an offload indicator in a web request received from a computing device, the web request triggered by processing of a webpage at the computing device; determining, by executing an instruction via the processor, a function identified in the web request, the function included in the webpage; retrieving, by executing an instruction via the processor, the function from the webpage; and transmitting a result of execution of the function to the computing device in response to the web request, the method characterised in that the processor is included in a mobile edge computing server and wherein retrieving the function includes retrieving the function from a storage of a web server that includes the processor. detecting, by executing an instruction via a processor, an offload indicator in a web request received from a computing device, the web request triggered by processing of a webpage at the computing device; determining, by executing an instruction via the processor, a function identified in the web request, the function included in the webpage; retrieving, by executing an instruction via the processor, the function from the webpage; and transmitting a result of execution of the function to the computing device in response to the web request, the method characterised in that the processor is included in a mobile edge computing server and wherein retrieving the function includes retrieving the function from a storage of a web server that includes the processor.
An antimicrobial composition, comprising a cationic polymer having a poly-allylamine backbone, wherein 65% to 85% of the poly-allylamine backbone is functionalized with a guanidine functional group and optionally further functionalized with a biguanide functional group.
A catalyst for producing at least one of an unsaturated aldehyde compound, an unsaturated carboxylic acid compound, and a conjugated diene comprising molybdenum; bismuth; and cobalt, wherein a composition of a catalytically active component is represented by the following formula (I-1): Mo a1 Bi b1 Ni c1 Co d1 Fe e1 X f1 Y g1 Z h1 O i1 ... (I-1) wherein in the formula, Mo, Bi, Ni, Co and Fe represent molybdenum, bismuth, nickel, cobalt and iron, respectively; X is at least one element selected from tungsten, antimony, tin, zinc, chromium, manganese, magnesium, silicon, aluminum, cerium and titanium; Y is at least one element selected from sodium, potassium, cesium, rubidium, and thallium; Z belongs to the 1st to 16th groups in the periodic table and means at least one element selected from elements other than the above Mo, Bi, Ni, Co, Fe, X, and Y; a1, b1, c1, d1, e1, f1, g1, h1, and i1 represent the number of atoms of molybdenum, bismuth, nickel, cobalt, iron, X, Y, Z, and oxygen, respectively; when a1 = 12, 0 < b1 ≤ 7, 0 ≤ c1 ≤ 10, 0< d1 ≤ 6.3, 0 < c1 + d1 ≤ 20, 0 ≤ e1 ≤ 5, 0 ≤ f1 ≤ 2, 0 ≤ g1 ≤ 3, 0 ≤ h1 ≤ 5, and i1 is a value determined by an oxidation state of each element, and wherein a sum (S) of ratios of peak intensities expressed by the following formula in an X-ray diffraction pattern obtained by using CuKα rays as an X-ray source is 42 or more and 95 or less. S = {(peak intensity at 2θ = 14.1° ± 0.1°) + (peak intensity at 2θ = 25.4° ± 0.1°) + (peak intensity at 2θ = 28.5° ± 0.1°)}/(peak intensity at 2θ = 26.5° ± 0.1°) × 100 molybdenum; bismuth; and cobalt, wherein a composition of a catalytically active component is represented by the following formula (I-1): Mo a1 Bi b1 Ni c1 Co d1 Fe e1 X f1 Y g1 Z h1 O i1 ... (I-1) wherein in the formula, Mo, Bi, Ni, Co and Fe represent molybdenum, bismuth, nickel, cobalt and iron, respectively; X is at least one element selected from tungsten, antimony, tin, zinc, chromium, manganese, magnesium, silicon, aluminum, cerium and titanium; Y is at least one element selected from sodium, potassium, cesium, rubidium, and thallium; Z belongs to the 1st to 16th groups in the periodic table and means at least one element selected from elements other than the above Mo, Bi, Ni, Co, Fe, X, and Y; a1, b1, c1, d1, e1, f1, g1, h1, and i1 represent the number of atoms of molybdenum, bismuth, nickel, cobalt, iron, X, Y, Z, and oxygen, respectively; when a1 = 12, 0 < b1 ≤ 7, 0 ≤ c1 ≤ 10, 0< d1 ≤ 6.3, 0 < c1 + d1 ≤ 20, 0 ≤ e1 ≤ 5, 0 ≤ f1 ≤ 2, 0 ≤ g1 ≤ 3, 0 ≤ h1 ≤ 5, and i1 is a value determined by an oxidation state of each element, and wherein a sum (S) of ratios of peak intensities expressed by the following formula in an X-ray diffraction pattern obtained by using CuKα rays as an X-ray source is 42 or more and 95 or less. S = {(peak intensity at 2θ = 14.1° ± 0.1°) + (peak intensity at 2θ = 25.4° ± 0.1°) + (peak intensity at 2θ = 28.5° ± 0.1°)}/(peak intensity at 2θ = 26.5° ± 0.1°) × 100
A method of ground vibration testing of an aircraft , wherein the aircraft has a plurality of landing gear , the method comprising the steps of: engaging the aircraft with a plurality of measurement devices , each one of the measurement devices being coupled to at least one lifting mechanism engaged to a jack point on one of the landing gear of the aircraft via a lifting beam , wherein each of the measurement devices has a compression load cell interposed between the jack point and the lifting beam by engaging a jack fitting to the jack point , inserting a shaft of the jack fitting through an opening in the load cell , receiving the shaft in a bearing block mounted to the lifting beam and interposing the load cell between the jack fitting and the lifting beam ; lifting the aircraft off of a supporting surface using the lifting mechanisms ; determining a weight of the lifted aircraft based on outputs of the measurement devices ; and performing ground vibration testing of the lifted aircraft ; the method further comprising the steps of: determining the weight measurement at each one of the landing gear ; determining a center of gravity of the aircraft , the center of gravity of the aircraft based on the weight measurement at each one of the landing gear . engaging the aircraft with a plurality of measurement devices , each one of the measurement devices being coupled to at least one lifting mechanism engaged to a jack point on one of the landing gear of the aircraft via a lifting beam , wherein each of the measurement devices has a compression load cell interposed between the jack point and the lifting beam by engaging a jack fitting to the jack point , inserting a shaft of the jack fitting through an opening in the load cell , receiving the shaft in a bearing block mounted to the lifting beam and interposing the load cell between the jack fitting and the lifting beam ; lifting the aircraft off of a supporting surface using the lifting mechanisms ; determining a weight of the lifted aircraft based on outputs of the measurement devices ; and performing ground vibration testing of the lifted aircraft ; the method further comprising the steps of: determining the weight measurement at each one of the landing gear ; determining a center of gravity of the aircraft , the center of gravity of the aircraft based on the weight measurement at each one of the landing gear . determining the weight measurement at each one of the landing gear ; determining a center of gravity of the aircraft , the center of gravity of the aircraft based on the weight measurement at each one of the landing gear .
A two-component composition for making a waterproofing membrane comprising as one component A) one or more aqueous emulsion copolymer having a residual (meth)acrylamide content of less than 40 ppm, and, as a separate component B), a fast curing dry mix powder composition of a hydraulic cement and a high alumina content cement, wherein at least one of the one or more aqueous emulsion copolymers in component A) is the copolymerization product of (i) from 60 to 89.9 wt.% of one or more nonionic (meth)acrylic monomers, (ii) from 10 to 40 wt.% of one or more vinyl aromatic monomers, (iii) from 0.1 to 3 wt.% of one or more monomers chosen from, amides of a,β-unsaturated C 3 to C 6 carboxylic acids and mixtures thereof with itaconic acid or methacrylic acid, all wt.%s of monomers based on the total monomer solids used to make the aqueous emulsion copolymer, wherein after the copolymerization, t-butyl hydroperoxide and a reducing agent are charged into the aqueous emulsion copolymer and, then an ascorbic acid reducing agent is fed into the composition, and the aqueous emulsion copolymer has a residue of an ascorbic acid reducing agent and a residue of t-butyl hydroperoxide, wherein, the mole ratio of t-butyl hydroperoxide to ascorbic acid reducing agent that are charged into the aqueous emulsion copolymer ranges from greater than 1.0:1 to 3.0:1.