mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: two or more receiver sub-systems , each receiver sub-system comprising: a receive circuit configured to receive symbols of a codeword of a vector signaling code on a respective receive sub-channel, each receive sub-channel comprising a plurality of signal lines, wherein codewords received in any adjacent signaling interval are different; a data decoder configured to decode the received symbols of the codeword into a set of bits; a data history post-decoder configured to receive the set of bits, and to produce received reduced-modulus sub-system data based on the received set of bits and a set of prior received bits; and, a global decoder configured to receive the received reduced-modulus sub-system data from each of the two or more receiver sub-systems and to reconstitute the received reduced-modulus sub-system data into a set of output data. two or more receiver sub-systems , each receiver sub-system comprising: a receive circuit configured to receive symbols of a codeword of a vector signaling code on a respective receive sub-channel, each receive sub-channel comprising a plurality of signal lines, wherein codewords received in any adjacent signaling interval are different; a data decoder configured to decode the received symbols of the codeword into a set of bits; a data history post-decoder configured to receive the set of bits, and to produce received reduced-modulus sub-system data based on the received set of bits and a set of prior received bits; and, a receive circuit configured to receive symbols of a codeword of a vector signaling code on a respective receive sub-channel, each receive sub-channel comprising a plurality of signal lines, wherein codewords received in any adjacent signaling interval are different; a data decoder configured to decode the received symbols of the codeword into a set of bits; a data history post-decoder configured to receive the set of bits, and to produce received reduced-modulus sub-system data based on the received set of bits and a set of prior received bits; and, a global decoder configured to receive the received reduced-modulus sub-system data from each of the two or more receiver sub-systems and to reconstitute the received reduced-modulus sub-system data into a set of output data.
A light-source device , comprising: an excitation light source configured to emit excitation light being a first color light; an optical member having a reflecting surface configured to reflect the first color light emitted from the excitation light source ; a wavelength conversion unit including a wavelength conversion member on which the first color light reflected by the optical member is incident, the wavelength conversion member being configured to convert at least part of the first color light into second color light having a wavelength different from a wavelength of the first color light and emit the second color light, a first optical system ; a second optical system , the first optical system and the second optical system being disposed in an order of the first optical system and the second optical system from a side of the excitation light source on an optical path between the excitation light source and the wavelength conversion unit ; and a refractive optical system and a light mixing element that are disposed in that order on an optical path of the first color light reflected by the wavelength conversion unit and the second color light emitted from the wavelength conversion unit, wherein a center of the first color light on the reflecting surface of the optical member does not intersect with a light flux of the first color light emitted from the wavelength conversion unit; characterised in that a light condensing point (SP) of excitation light reflected by the wavelength conversion unit is between the second optical system and the refractive optical system . an excitation light source configured to emit excitation light being a first color light; an optical member having a reflecting surface configured to reflect the first color light emitted from the excitation light source ; a wavelength conversion unit including a wavelength conversion member on which the first color light reflected by the optical member is incident, the wavelength conversion member being configured to convert at least part of the first color light into second color light having a wavelength different from a wavelength of the first color light and emit the second color light, a first optical system ; a second optical system , the first optical system and the second optical system being disposed in an order of the first optical system and the second optical system from a side of the excitation light source on an optical path between the excitation light source and the wavelength conversion unit ; and a refractive optical system and a light mixing element that are disposed in that order on an optical path of the first color light reflected by the wavelength conversion unit and the second color light emitted from the wavelength conversion unit, wherein a center of the first color light on the reflecting surface of the optical member does not intersect with a light flux of the first color light emitted from the wavelength conversion unit; characterised in that a light condensing point (SP) of excitation light reflected by the wavelength conversion unit is between the second optical system and the refractive optical system .
Use of a binary mixed oxide catalyst for reducing NO x using H 2 as a reducing agent, the catalyst comprising one from the A metal oxide of Fe 2 O 3 and one from the B metal oxide of MnO 2 , which are co-precipitated and mixed.
A material feeding mechanism , comprising: a main body ; an unloading clutch assembly connected to the main body ; and a driver assembly configured to drive the unloading clutch assembly to be switchable between (i) a first position relative to the main body in which the unloading clutch assembly is drivingly coupled to a reel to rotate the reel under driving of the driver assembly to wind a wire around the reel ; and (ii) a second position relative to the main body in which the unloading clutch assembly is drivingly separated from the reel , characterized in that the material feeding mechanism further comprises: a loading clutch assembly connected to the main body , wherein the driver assembly is further configured to drive the loading clutch assembly to be switchable between (i) a third position relative to the main body in which the loading clutch assembly is drivingly separated from the wire ; and (ii) a fourth position relative to the main body in which the loading clutch assembly is drivingly coupled to the wire to pull the wire to be released from the reel under driving of the driver assembly . a main body ; an unloading clutch assembly connected to the main body ; and a driver assembly configured to drive the unloading clutch assembly to be switchable between (i) a first position relative to the main body in which the unloading clutch assembly is drivingly coupled to a reel to rotate the reel under driving of the driver assembly to wind a wire around the reel ; and (ii) a second position relative to the main body in which the unloading clutch assembly is drivingly separated from the reel , characterized in that the material feeding mechanism further comprises: a loading clutch assembly connected to the main body , wherein the driver assembly is further configured to drive the loading clutch assembly to be switchable between (i) a third position relative to the main body in which the loading clutch assembly is drivingly separated from the wire ; and (ii) a fourth position relative to the main body in which the loading clutch assembly is drivingly coupled to the wire to pull the wire to be released from the reel under driving of the driver assembly . a loading clutch assembly connected to the main body , wherein the driver assembly is further configured to drive the loading clutch assembly to be switchable between (i) a third position relative to the main body in which the loading clutch assembly is drivingly separated from the wire ; and (ii) a fourth position relative to the main body in which the loading clutch assembly is drivingly coupled to the wire to pull the wire to be released from the reel under driving of the driver assembly .
A logic circuitry package for a replaceable print apparatus component comprising an interface to communicate with a print apparatus logic circuit, and at least one logic circuit; characterized in that the at least one logic circuit is configured to: receive, via the interface , calibration parameters including an offset parameter; receive, via the interface , a sensor ID; and output, via the interface , a digital value corresponding to the sensor ID and offset based on the offset parameter. receive, via the interface , calibration parameters including an offset parameter; receive, via the interface , a sensor ID; and output, via the interface , a digital value corresponding to the sensor ID and offset based on the offset parameter.
A method performed by a user equipment , UE, of transmitting channel quality information to a base station, BS, in a wireless communication system supporting narrowband Internet of things, NB-IoT, the method comprising: transmitting (S402) a random access preamble to the BS; receiving (S404) a random access response from the BS; and transmitting (S406) the channel quality information to the BS through a narrowband physical uplink shared channel, NPUSCH, based on the random access response, the channel quality information is related to a repetition number required to detect a hypothetical narrowband physical downlink control channel, NPDCCH, at a 1% block error rate, BLER, characterized in that , the required repetition number is represented based on a maximum NPDCCH repetition number 'R max ' for the random access response reception (S404), and a maximum value which can be used as the required repetition number for the hypothetical NPDCCH, is K times larger than the maximum NPDCCH repetition number 'R max ' for the random access response reception (S404). transmitting (S402) a random access preamble to the BS; receiving (S404) a random access response from the BS; and transmitting (S406) the channel quality information to the BS through a narrowband physical uplink shared channel, NPUSCH, based on the random access response, the channel quality information is related to a repetition number required to detect a hypothetical narrowband physical downlink control channel, NPDCCH, at a 1% block error rate, BLER, characterized in that , the required repetition number is represented based on a maximum NPDCCH repetition number 'R max ' for the random access response reception (S404), and a maximum value which can be used as the required repetition number for the hypothetical NPDCCH, is K times larger than the maximum NPDCCH repetition number 'R max ' for the random access response reception (S404).
A solid-state imaging element , comprising: a photoelectric conversion section formed in a depth direction of a semiconductor substrate and generating charges corresponding to a quantity of received light; a charge accumulating section accumulating the charges generated by the photoelectric conversion section; and a transfer gate transferring the charges generated by the photoelectric conversion section to the charge accumulating section , wherein the transfer gate includes a plurality of vertical gate electrodes which is filled to a predetermined depth from an interface of the semiconductor substrate , and at least a part of a diameter is different in the depth direction of the semiconductor substrate , wherein the vertical gate electrodes are laterally separated from each other by the semiconductor substrate and characterised in that the plurality of vertical gate electrodes having a shape whose diameter becomes smaller at a taper ratio of 0.02 or more in the depth direction of the semiconductor substrate . a photoelectric conversion section formed in a depth direction of a semiconductor substrate and generating charges corresponding to a quantity of received light; a charge accumulating section accumulating the charges generated by the photoelectric conversion section; and a transfer gate transferring the charges generated by the photoelectric conversion section to the charge accumulating section , wherein the transfer gate includes a plurality of vertical gate electrodes which is filled to a predetermined depth from an interface of the semiconductor substrate , and at least a part of a diameter is different in the depth direction of the semiconductor substrate , wherein the vertical gate electrodes are laterally separated from each other by the semiconductor substrate and characterised in that the plurality of vertical gate electrodes having a shape whose diameter becomes smaller at a taper ratio of 0.02 or more in the depth direction of the semiconductor substrate .
A demagnetization device, comprising terminals for the detachable connection of the demagnetization device to a primary side of a transformer , a source (41; 111, 113, 114) which is configured to feed via the terminals an alternating signal (70; 75; 78; 80; 85; 88) to the primary side of the transformer for a demagnetization of a transformer core of the transformer , characterized by a measuring device for detecting a response of the transformer to the alternating signal (70; 75; 78; 80; 85; 88), wherein the demagnetization device is configured to vary the alternating signal (70; 75; 78; 80; 85; 88) in accordance with the response detected by the measuring device .
A gas turbine engine , comprising: a bearing compartment ; a shaft configured to rotate during operation of the gas turbine engine ; a bearing nut mounted directly to the shaft and configured to rotate with the shaft during operation of the gas turbine engine ; a sleeve mounted to the bearing nut and configured to rotate with the shaft during operation of the gas turbine engine , wherein the sleeve includes a radially outer surface concentric with a center of the shaft , and a variable radial dimension about a circumference of the sleeve , wherein a minimum radial dimension of the sleeve is circumferentially aligned with a location on the bearing nut corresponding to a maximum deviation between the bearing nut and a reference axis (A); and a seal statically mounted relative to the sleeve and configured to cooperate with the sleeve to seal the bearing compartment . a bearing compartment ; a shaft configured to rotate during operation of the gas turbine engine ; a bearing nut mounted directly to the shaft and configured to rotate with the shaft during operation of the gas turbine engine ; a sleeve mounted to the bearing nut and configured to rotate with the shaft during operation of the gas turbine engine , wherein the sleeve includes a radially outer surface concentric with a center of the shaft , and a variable radial dimension about a circumference of the sleeve , wherein a minimum radial dimension of the sleeve is circumferentially aligned with a location on the bearing nut corresponding to a maximum deviation between the bearing nut and a reference axis (A); and a seal statically mounted relative to the sleeve and configured to cooperate with the sleeve to seal the bearing compartment .
Sliding door system with a rail device (10A; 10B), which comprises a mounting rail (2A; 2B) mountable in a building, a running rail in which at least two carriages that are connected to a sliding door are held displaceable along a running axis (x), as well as a plurality of coupling devices (3A; 3B, 4A; 4B), with which the running rail and the mounting rail (2A; 2B) are releasably connected with one another and which comprise each a coupling head that is connected to the running rail (1A; 1B) or to the mounting rail (2A; 2B), that comprises a coupling plate and a coupling neck , which adjoins the lower side of the coupling plate , and that can be anchored in a coupling opening (4A; 4B), which is provided in the mounting rail or the running rail and which comprises a first opening part with a diameter that is larger than a diameter of the coupling plate , and a second opening part adjacent thereto with a diameter larger than the diameter of the coupling neck but smaller than the diameter of the coupling plate , characterised in that at least on one side of the coupling head and on the lower side of the coupling plate a ramp is provided, which, in a direction towards the coupling neck , rises towards the coupling plate .
Gear mechanism device which has a strain wave gear mechanism , which comprises a circular spline and a flex spline , and a holding element which holds the strain wave gear mechanism on the circular spline , characterized in that the holding element holds the circular spline on an outer circumferential surface of the circular spline in an exclusively non-positive manner, in particular at least in the tangential direction, and in that the outer circumferential surface of the circular spline has an axial length which is greater than 0.2 times the pitch circle diameter of an external spline system of the flex spline .
A double-walled drawer sidewall comprising an outer wall and an inner wall connected thereto, wherein in a side view onto the drawer side wall , a rounded portion is provided at the rear lower end of the outer wall , wherein the rounded portion is configured to minimize a risk of a damage of a support when a drawer, comprising the drawer sidewall , rests on the support and is lifted on a front side opposing the rear lower end of the outer wall , wherein a partially U-shaped drawer body rail is arranged in the lower region between the outer wall and the inner wall and is fixedly connected thereto, wherein the drawer body rail includes a support limb for supporting a drawer bottom , the support limb facing towards the drawer inner side.
A system for manipulating magnetic beads for processes involving molecular manipulations, comprising: a housing receiving a vessel containing a fluid sample and a plurality of magnetic beads therein, the housing having a circumference and a height perpendicular to the circumference; a first plurality of electromagnets (106A-106F) spaced evenly around the circumference of the housing at a height h 1 ; a second plurality of electromagnets spaced evenly around the circumference of the housing at a height h 2 , the second plurality of electromagnets being equal in number to the first plurality of electromagnets, the electromagnets of the second plurality offset from the electromagnets of the first plurality around the circumference of the housing ; a controller for selectively energizing electromagnets of the first and second pluralities in sequence causing the magnetic beads to circulate in the vessel ; characterised in that the system comprises an optical scattering sensor for measuring magnetic bead density in a target location within the vessel and providing the measured bead density to the controller to enable modification of the sequence of selective energizing of the electromagnets (106A-106F). a housing receiving a vessel containing a fluid sample and a plurality of magnetic beads therein, the housing having a circumference and a height perpendicular to the circumference; a first plurality of electromagnets (106A-106F) spaced evenly around the circumference of the housing at a height h 1 ; a second plurality of electromagnets spaced evenly around the circumference of the housing at a height h 2 , the second plurality of electromagnets being equal in number to the first plurality of electromagnets, the electromagnets of the second plurality offset from the electromagnets of the first plurality around the circumference of the housing ; a controller for selectively energizing electromagnets of the first and second pluralities in sequence causing the magnetic beads to circulate in the vessel ; characterised in that the system comprises an optical scattering sensor for measuring magnetic bead density in a target location within the vessel and providing the measured bead density to the controller to enable modification of the sequence of selective energizing of the electromagnets (106A-106F).
Method for surface modifying, in particular hydrophobing, of microstructured components having a polar surface, in particular for high-pressure applications, characterized in that a microstructured component comprising silicon is brought into contact, in particular treated, with a modification reagent, the surface properties of the substrate being modified by chemical and/or physical interaction between the component surface and the modification reagent, the modification reagent comprising at least one modifier, the modification reagent containing the modifier in concentrations of from 0.001 to 2 mol/l, based on the modification reagent, and wherein as the modifier a silane corresponding to the general formula I R 1 4-(n+m) SiR 2 m X n (I) with R 1 = C 8 - to C 18 -alkyl; R 2 = C 1 - to C 3 -alkyl; X = halide; alkoxy; and n = 1 to 3 and m = 0 to 2, is used. R 1 = C 8 - to C 18 -alkyl; R 2 = C 1 - to C 3 -alkyl; X = halide; alkoxy; and n = 1 to 3 and m = 0 to 2,
Mechanical heat exchanger comprising: - tubes parallel to each other and in which a first heat transfer fluid is capable of circulating; and - at least one superposition of fins comprising orifices , through which the tubes pass, the fins forming, in relation to an axis perpendicular to the axis of the tubes , an angle different from 0°, the exchanger being characterized in that it comprises a water box disposed at each end of the tubes and in that it comprises covers covering the space not occupied by the fins between the end fins of the same group of tubes and said water boxes . - tubes parallel to each other and in which a first heat transfer fluid is capable of circulating; and - at least one superposition of fins comprising orifices , through which the tubes pass,
An electronic device , in particular an electronic watch, comprising a case and an electronic system arranged within the case , the case being provided with a housing for a battery allowing supplying the electronic system with energy, the electronic device comprising a standalone endothermic protection module configured to be automatically triggered in the event of thermal runaway of the battery in order to absorb heat, the module is automatically triggered starting from a threshold temperature, characterised in that the protection module comprises two products that are separate before triggering, and which mix together after the automatic triggering.
A phenol-free method for isolating a nucleic acid from a sample, said method comprising the following steps: a) preparing a precipitation mixture by adding at least one metal cation precipitant and at least one water-miscible organic solvent selected from aprotic polar solvents and protic solvents to the sample, wherein the precipitation mixture i) comprises the metal cation precipitant; ii) comprises the organic solvent in a concentration of 15% or less; iii) comprises at least one buffering agent; and iv) has an acidic pH value, and precipitating proteins; b) separating the precipitate from the supernatant, wherein the supernatant comprises small RNA having a length of less than 200nt and large RNA having a length of at least 1000nt; and c) isolating a nucleic acid from the supernatant. a) preparing a precipitation mixture by adding at least one metal cation precipitant and at least one water-miscible organic solvent selected from aprotic polar solvents and protic solvents to the sample, wherein the precipitation mixture i) comprises the metal cation precipitant; ii) comprises the organic solvent in a concentration of 15% or less; iii) comprises at least one buffering agent; and iv) has an acidic pH value, and precipitating proteins; i) comprises the metal cation precipitant; ii) comprises the organic solvent in a concentration of 15% or less; iii) comprises at least one buffering agent; and iv) has an acidic pH value, b) separating the precipitate from the supernatant, wherein the supernatant comprises small RNA having a length of less than 200nt and large RNA having a length of at least 1000nt; and c) isolating a nucleic acid from the supernatant.