mhurhangee/ep-ind-claims huggingface dataset:
Process for production of a powder, suitable for use in a process for the layer-by-layer moldless production of a three-dimensional shaped article, in which regions of the respective powder layer are selectively melted via input of electromagnetic energy, the production process comprising the mixing of a polymer or copolymer with at least one water-soluble polymeric polyol, the dissolution of the mixture in water to form a dispersion, the isolation of the polymer particles or copolymer particles from the dispersion, and the washing and drying of the isolated polymer particles or isolated copolymer particles, the polymeric polyol having been selected from a group comprising polyethylene glycol and polyvinyl alcohol.
Composite material capable of storing electric energy, comprising a mixture of a. An electrochemically active inorganic particulate material and b. An electrochemically active organic material, wherein the composite material is a particulate material with particles having a size from 0.01 μm to 100 μm and wherein the organic material contains or is composed of subunits according to general formulaes and/or, wherein in these structures and • n is an integer ≥ 2, preferably ≥ 20, • Y represents an amide group, namely -NH-CO- or -CO-NH-, an ester group, namely -O-CO- or -CO-O- or a urethane group, namely -NH-CO-O- or -O-CO-NH-, • R 1, R 2, R 3 and R 4 each independently represent H, alkyl, Alkoxy-, -halogen or -CN, • Ar 1 and Ar 4 independently represent a bridging aryl group, • Ar 2 and Ar 3 independently represent a non-bridging aryl group, and • R 5 is a bridging alkyl, alkene or aryl group, wherein Ar 1 and Ar 4 in structures and independently represent a bridging aryl group of formula (III.a), (III.b) or (III.c) wherein in these structures (III.a) to (III.c) • * marks a point of attachment • R 6, R 7, R 8 and R 9 each independently represent H, alkyl, Alkoxy-, -halogen or -CN and wherein R 5 represents one of the groups of formulae (VI.a) to (VI.q) wherein • * marks a point of attachment, • m = 1 to 20, and • R 1, R 2, R 3, R 4, R 6, R 7, R 8, R 9, Ar 1, Ar 2, Ar 3 and Ar 4 are defined as above. a. An electrochemically active inorganic particulate material and b. An electrochemically active organic material, • n is an integer ≥ 2, preferably ≥ 20, • Y represents an amide group, namely -NH-CO- or -CO-NH-, an ester group, namely -O-CO- or -CO-O- or a urethane group, namely -NH-CO-O- or -O-CO-NH-, • R 1, R 2, R 3 and R 4 each independently represent H, alkyl, Alkoxy-, -halogen or -CN, • Ar 1 and Ar 4 independently represent a bridging aryl group, • Ar 2 and Ar 3 independently represent a non-bridging aryl group, and • R 5 is a bridging alkyl, alkene or aryl group, • * marks a point of attachment • R 6, R 7, R 8 and R 9 each independently represent H, alkyl, Alkoxy-, -halogen or -CN and wherein R 5 represents one of the groups of formulae (VI.a) to (VI.q) • * marks a point of attachment, • m = 1 to 20, and • R 1, R 2, R 3, R 4, R 6, R 7, R 8, R 9, Ar 1, Ar 2, Ar 3 and Ar 4 are defined as above.
Multispectral sensor comprising: - an opaque housing having a first chamber with a first aperture and a separate second chamber with a second aperture, - an optical emitter arranged in the first chamber and arranged to emit light of a specified wavelength or specified range of wavelengths through the first aperture, - an optical sensor arranged in the second chamber and arranged to detect received photons through the second aperture, - a control unit configured to initiate emission of light by the optical emitter, and - a measurement unit configured to provide sensor signals generated by the optical sensor; wherein: - the optical sensor comprises an array of sensor pixels of a first type (Spx) and pixels of a second type (Cpx), - the pixels of the first type (Spx) each have a different spectral transmission characteristic, each generating a multispectral sensor signal, respectively, and - the pixels of the second type (Cpx) have a same transmission characteristic, each generating a compensation sensor signal, further comprising a processing unit which is arranged to: - determine a radiance distribution signal depending on the compensation sensor signals, and - determine a spectral distribution signal depending on the radiance distribution signal. - an opaque housing having a first chamber with a first aperture and a separate second chamber with a second aperture, - an optical emitter arranged in the first chamber and arranged to emit light of a specified wavelength or specified range of wavelengths through the first aperture, - an optical sensor arranged in the second chamber and arranged to detect received photons through the second aperture, - a control unit configured to initiate emission of light by the optical emitter, and - a measurement unit configured to provide sensor signals generated by the optical sensor; - the optical sensor comprises an array of sensor pixels of a first type (Spx) and pixels of a second type (Cpx), - the pixels of the first type (Spx) each have a different spectral transmission characteristic, each generating a multispectral sensor signal, respectively, and - the pixels of the second type (Cpx) have a same transmission characteristic, each generating a compensation sensor signal, - determine a radiance distribution signal depending on the compensation sensor signals, and - determine a spectral distribution signal depending on the radiance distribution signal.
Sound transmission device for transmitting sound of an operating noise, specifically of the air filter noise, of a motor vehicle into the interior of the motor vehicle, having a transmission line for transmitting the noise from the noise source, which is in the form of an air filter element, into the interior, wherein the transmission line is formed at least regionally by at least one component which is already originally present, and is present independently of the sound transmission, at the motor vehicle, characterized in that the transmission line is formed at least regionally by multiple standard solid components which form a part of the body and are substantially free of cavities and have structure-stiffening properties, specifically by a crossmember, a longitudinal member and a bulkhead.member, wherein the sound transmission device taps off the noise from the air filter element indirectly and/or directly and firstly couples said noise into the crossmember, wherein the longitudinal member subsequently transmits the noise as far as the interior of the vehicle, and wherein the bulkhead member, which is perforated at least regionally, emits the noise into the interior uniformly over the width of the motor vehicle.
An assembly machine for a medicine mixer, comprising: a rack, provided with a rotatable dividing table on which a plurality of clamps is arranged fixedly; a medicine mixing cup mounting device, arranged on the rack in butt-joint with the dividing table, for mounting the medicine mixing cup on the clamp of the dividing table; a rubber plug mounting device, arranged on the rack in butt-joint with the dividing table, for mounting the rubber plug in the medicine mixing cup; an elastic clip mounting device, arranged on the rack in butt-joint with the dividing table, for mounting an elastic clip in the medicine mixing cup; a puncture needle mounting device, arranged on the rack in butt-joint with the dividing table, for mounting a puncture needle in the medicine mixing cup; a coverplate mounting device, arranged on the rack in butt-joint with the dividing table, for mounting a coverplate on the medicine mixing cup; a soldering device, arranged on the rack in butt-joint with the dividing table, for covering a peeling tape on the coverplate and soldering the same on the medicine mixing cup; and an output device, arranged on the rack in butt-joint with the dividing table, for outputting the assembled medicine mixer. a rack, provided with a rotatable dividing table on which a plurality of clamps is arranged fixedly; a medicine mixing cup mounting device, arranged on the rack in butt-joint with the dividing table, for mounting the medicine mixing cup on the clamp of the dividing table; a rubber plug mounting device, arranged on the rack in butt-joint with the dividing table, for mounting the rubber plug in the medicine mixing cup; an elastic clip mounting device, arranged on the rack in butt-joint with the dividing table, for mounting an elastic clip in the medicine mixing cup; a puncture needle mounting device, arranged on the rack in butt-joint with the dividing table, for mounting a puncture needle in the medicine mixing cup; a coverplate mounting device, arranged on the rack in butt-joint with the dividing table, for mounting a coverplate on the medicine mixing cup; a soldering device, arranged on the rack in butt-joint with the dividing table, for covering a peeling tape on the coverplate and soldering the same on the medicine mixing cup; and an output device, arranged on the rack in butt-joint with the dividing table, for outputting the assembled medicine mixer.
A robot joint drive with a stationary housing, an output part rotatable relative to the stationary housing, an electric drive motor and a gear, wherein the electric drive motor comprises a motor circuit board with a commutation sensor system, and an input shaft of the electric drive motor is coupled via the transmission to an output shaft of the rotatable output member to rotate the output member relative to the stationary housing, wherein a transmitter element is arranged on the output shaft, which extends from the output part into the transmission, and an encoder is provided, which determines the rotational position of the output shaft by means of the transmitter element, and wherein the transmitter element is arranged on a free end of the output shaft and the encoder is arranged on the motor circuit board of the electric drive motor in an axial direction to the output shaft, characterised in that the input shaft of the electric drive motor and the output shaft of the output part are arranged offset to one another.
A micro-electromechanical device comprising: a substrate; a beam suspended relative to a surface of the substrate, the beam comprising a first beam portion and a second beam portion; and an electrical isolation joint between the first beam portion and the second beam portion, characterised in the electrical isolation joint having a first isolation joint portion, a second isolation joint portion, and a first solid bridge portion, the bridge portion is between the first isolation joint portion and the second isolation joint portion and does not have an internal void or a seam, the first isolation joint portion and the second isolation joint portion each have a seam, wherein the seam is an interface that is not chemically bonded. a substrate; a beam suspended relative to a surface of the substrate, the beam comprising a first beam portion and a second beam portion; and an electrical isolation joint between the first beam portion and the second beam portion, characterised in the electrical isolation joint having a first isolation joint portion, a second isolation joint portion, and a first solid bridge portion, the bridge portion is between the first isolation joint portion and the second isolation joint portion and does not have an internal void or a seam, the first isolation joint portion and the second isolation joint portion each have a seam, wherein the seam is an interface that is not chemically bonded.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving only one downlink signal in a set of slots related to one transmission of acknowledgement/negative acknowledgement, A/N, information; generating an A/N codebook for the set of slots; and transmitting the A/N codebook, wherein based on that a specific condition including the following 1) to 3) is satisfied, the A/N codebook includes only A/N information for the one downlink signal, 1) an A/N codebook configuration scheme is set as a semi-static A/N codebook, 2) the downlink signal is received in a primary cell, PCell, and 3) the downlink signal is scheduled by a first downlink control information, DCI, format of plural DCI formats, and a specific 2-bit field of the first DCI format has a first value, and wherein the first DCI format includes the specific 2-bit field, regardless of the A/N codebook configuration scheme, and wherein based on the A/N codebook configuration scheme configured as a dynamic A/N codebook, the specific 2-bit field is used to indicate a counter-downlink assignment index, c-DAI, value. receiving only one downlink signal in a set of slots related to one transmission of acknowledgement/negative acknowledgement, A/N, information; generating an A/N codebook for the set of slots; and transmitting the A/N codebook, wherein based on that a specific condition including the following 1) to 3) is satisfied, the A/N codebook includes only A/N information for the one downlink signal, 1) an A/N codebook configuration scheme is set as a semi-static A/N codebook, 2) the downlink signal is received in a primary cell, PCell, and 3) the downlink signal is scheduled by a first downlink control information, DCI, format of plural DCI formats, and a specific 2-bit field of the first DCI format has a first value, and 1) an A/N codebook configuration scheme is set as a semi-static A/N codebook, 2) the downlink signal is received in a primary cell, PCell, and 3) the downlink signal is scheduled by a first downlink control information, DCI, format of plural DCI formats, and a specific 2-bit field of the first DCI format has a first value, and wherein the first DCI format includes the specific 2-bit field, regardless of the A/N codebook configuration scheme, and wherein based on the A/N codebook configuration scheme configured as a dynamic A/N codebook, the specific 2-bit field is used to indicate a counter-downlink assignment index, c-DAI, value.
Automatic bicycle pedal, comprising a pedal body rotationally connected to a spindle suitable to be coupled to a pedal crank, said pedal body having a front-rear direction and comprising a front portion and a rear portion which are engageable by a cleat, said cleat being connectable to the sole of a rider's shoe and comprising a front hook and a rear hook, said front portion comprising flexible engagement means (132,134) for said front hook of said cleat, wherein said flexible engagement means (132,134) comprise a first flexible leg and a second flexible leg separated by a gap arranged along said front-rear direction and wherein said rear portion comprises an appendix including a rear edge engageable by the rear hook of the cleat, characterised in that said first flexible leg and said second flexible leg have a cross section that is taller than wide, and said first and second flexible leg (132, 134) determine the amount of engagement force of the cleat into the pedal body, such engagement force being independent from the release force and the width of said gap being suitable to ensure safe engagement of said front hook of the cleat, and quick and easy disengagement of the latter from said pedal body.
Curable composition providing, upon curing, an abrasion resistant, transparent, antistatic coating comprising: - a) at least one conductive polymer, - b) colloidal particles of at least one non-conductive oxide, - c) at least one binder comprising at least one epoxysilane having at least two hydrolysable groups directly linked to the Si atom of the epoxysilane, and/or its hydrolysis product, said at least one conductive polymer and said colloidal particles of at least one non-conductive oxide being substantially not agglomerated, the content of said conductive polymer in the dry extract of said curable composition ranging from 0.1 to 10% by weight, preferably from 0.2 to 10% by weight and the content of the dry extract of said at least one epoxysilane in the dry extract of said curable composition ranging from 20 to 80 %, preferably 25 to 60 % by weight based on the total weight of the dry extract. - a) at least one conductive polymer, - b) colloidal particles of at least one non-conductive oxide, - c) at least one binder comprising at least one epoxysilane having at least two hydrolysable groups directly linked to the Si atom of the epoxysilane, and/or its hydrolysis product,
A spectrophotometric and liquid handling system comprising: a robotic arm; a needle capillary rigidly coupled to the robotic arm; an optical/flow cell comprising: a housing; a first and a second window (34a, 34b) disposed within the housing and defining a width of an internal chamber therebetween; a collimating lens optically coupled to the first window; a focusing lens optically coupled to the second window; a fluidic inlet port fluidically coupled to a first end of the internal chamber; and a fluidic outlet port fluidically coupled to a second end of the internal chamber; a fluidic pump; a first and a second tubing (12,16) fluidically coupled, respectively, between the needle capillary and the fluidic inlet port and between the fluidic pump and the fluidic outlet port; a light source; a photodetector; and a first and a second optical fiber optically coupled, respectively, between the light source and the collimating lens and between the photodetector and the focusing lens, characterized in that the optical/flow cell, the light source and the photodetector are mounted onto the robotic arm or onto a mounting structure that mechanically couples the optical/flow cell to the robotic arm. a robotic arm; a needle capillary rigidly coupled to the robotic arm; an optical/flow cell comprising: a housing; a first and a second window (34a, 34b) disposed within the housing and defining a width of an internal chamber therebetween; a collimating lens optically coupled to the first window; a focusing lens optically coupled to the second window; a fluidic inlet port fluidically coupled to a first end of the internal chamber; and a fluidic outlet port fluidically coupled to a second end of the internal chamber; a housing; a first and a second window (34a, 34b) disposed within the housing and defining a width of an internal chamber therebetween; a collimating lens optically coupled to the first window; a focusing lens optically coupled to the second window; a fluidic inlet port fluidically coupled to a first end of the internal chamber; and a fluidic outlet port fluidically coupled to a second end of the internal chamber; a fluidic pump; a first and a second tubing (12,16) fluidically coupled, respectively, between the needle capillary and the fluidic inlet port and between the fluidic pump and the fluidic outlet port; a light source; a photodetector; and a first and a second optical fiber optically coupled, respectively, between the light source and the collimating lens and between the photodetector and the focusing lens, characterized in that the optical/flow cell, the light source and the photodetector are mounted onto the robotic arm or onto a mounting structure that mechanically couples the optical/flow cell to the robotic arm.
An acoustical assembly comprising - an assembly housing, - a receiver module, - one or more vibration isolation spacers being arranged between the assembly housing and the receiver module, the one or more spacers forming a free-space region between the assembly housing and the receiver module, and - one or more microphone units (508, 509) for receiving incoming sound, the one or more microphone units (508, 509) being secured to the assembly housing and being least partly positioned in the free-space region between the assembly housing and the receiver module wherein the receiver module comprises a receiver assembly comprising - a first receiver having a distinct longitudinal direction and a first longitudinal centre line, and - a second receiver having a distinct longitudinal direction and a second longitudinal centre line, wherein the distinct longitudinal directions of the first and second receivers (501, 502) are arranged essentially along a distinct longitudinal direction of the receiver assembly, and wherein the first receiver, the second receiver and the one or more microphone units (508, 509) are at least partly arranged within an assembly housing. - an assembly housing, - a receiver module, - one or more vibration isolation spacers being arranged between the assembly housing and the receiver module, the one or more spacers forming a free-space region between the assembly housing and the receiver module, and - one or more microphone units (508, 509) for receiving incoming sound, the one or more microphone units (508, 509) being secured to the assembly housing and being least partly positioned in the free-space region between the assembly housing and the receiver module wherein the receiver module comprises a receiver assembly comprising - a first receiver having a distinct longitudinal direction and a first longitudinal centre line, and - a second receiver having a distinct longitudinal direction and a second longitudinal centre line,
A composition for a heat cycle system comprising a working fluid for heat cycle containing at least one unsaturated fluorinated hydrocarbon compound selected from a compound having at least one carbon-carbon unsaturated bond in its molecule represented by the following formula, and a refrigerant oil having a breakdown voltage of at least 25 kV, having a hydroxy value of at most 0.1 mgKOH/g, and a minimum temperature on the high temperature side of the phase separation temperature from the working fluid for heat cycle of at least 35°C and a maximum temperature on the low temperature side of at most -60°C, wherein the refrigerant oil is an ester refrigerant oil, an ether refrigerant oil or a polyglycol refrigerant oil: C x F y R z wherein R is H or Cl, x is an integer of from 2 to 6, y is an integer of from 1 to 12, and z is an integer of from 0 to 11, provided that 2x≧y+z≧2, wherein the working fluid for heat cycle further contains a saturated fluorinated hydrocarbon compound, and wherein trifluoroethylene and 2,3,3,3-tetrafluoropropene are contained as the unsaturated fluorinated hydrocarbon compound, and difluoromethane is contained as the saturated fluorinated hydrocarbon compound, the proportion of the total amount of trifluoroethylene, 2,3,3,3-tetrafluoropropene and difluoromethane based on the entire amount of the working fluid for heat cycle is higher than 90 mass% and at most 100 mass%, and based on the total amount of trifluoroethylene, 2,3,3,3-tetrafluoropropene and difluoromethane, the proportion by the mass of trifluoroethylene is at least 10 mass% and less than 70 mass%, the proportion by the mass of 2,3,3,3-tetrafluoropropene is higher than 0 mass% and at most 50 mass%, and the proportion by the mass of difluoromethane is higher than 30 mass% and at most 75 mass%.