mhurhangee/patent-ind-claim-en huggingface dataset:
A pouch for a secondary battery , comprising: a surface protection layer made of a first polymer and formed at the outermost layer; a sealant layer made of a second polymer and formed at the innermost layer; a gas barrier layer made of a metal and stacked between the surface protection layer and the sealant layer ; and a heat dissipation layer made of ceramic, stacked between the surface protection layer and the sealant layer , and releasing heat to the outside when a specific pressure is applied thereto, characterized in that the ceramic comprises lambda trititanium pentoxide. a surface protection layer made of a first polymer and formed at the outermost layer; a sealant layer made of a second polymer and formed at the innermost layer; a gas barrier layer made of a metal and stacked between the surface protection layer and the sealant layer ; and a heat dissipation layer made of ceramic, stacked between the surface protection layer and the sealant layer , and releasing heat to the outside when a specific pressure is applied thereto, characterized in that the ceramic comprises lambda trititanium pentoxide. characterized in that the ceramic comprises lambda trititanium pentoxide.
Method of adjusting the tightening behaviour of an electromagnetic feedback actuator , wherein the electromagnetic feedback actuator has a magnet armature (10, 10a 10b) movable against a spring force by at least one electromagnet , and wherein the position of the magnet armature (10, 10a 10b) in the vicinity of each electromagnet can be detected by a respective position sensor , and wherein a drive device (AV) with a microcontroller (MC) drives the at least one electromagnet and reads in the output signals of the at least one position sensor , comprising the following method steps: - Detecting a respective output position of the magnetic armature (10, 10a 10b) by the at least one position sensor , - starting to drive the electromagnet(s) with a constant current, - repeated detection of the respective position(s) of the magnet armature (10, 10a 10b) by means of the at least one position sensor until in each case a constant position value (p1, p2) has been set as a stationary state, - wherein a settling time from the start of the activation of the electromagnet until the stationary state is reached is additionally detected, - termination of the driving of the electromagnet , - calculating the armature stroke caused by each electromagnet as a change in position between the respective initial position and the respective constant position value (p1, p2) of the magnet armature (10, 10a 10b), - determining the value of an optimized drive current for each solenoid by a calculation performed by the drive device (AV) or by reading out from a stored table as a function of the detected armature stroke, - storing the value of the optimized drive current for the electromagnet(s) in a data memory (M) of the drive device (AV). - Detecting a respective output position of the magnetic armature (10, 10a 10b) by the at least one position sensor , - starting to drive the electromagnet(s) with a constant current, - repeated detection of the respective position(s) of the magnet armature (10, 10a 10b) by means of the at least one position sensor until in each case a constant position value (p1, p2) has been set as a stationary state, - wherein a settling time from the start of the activation of the electromagnet until the stationary state is reached is additionally detected, - termination of the driving of the electromagnet , - calculating the armature stroke caused by each electromagnet as a change in position between the respective initial position and the respective constant position value (p1, p2) of the magnet armature (10, 10a 10b), - determining the value of an optimized drive current for each solenoid by a calculation performed by the drive device (AV) or by reading out from a stored table as a function of the detected armature stroke, - storing the value of the optimized drive current for the electromagnet(s) in a data memory (M) of the drive device (AV).
A machine for measuring and sorting assembling parts , of the countersunk head rivet type, each comprising a head and a shank , said machine comprising: - a supply tank for the parts to be sorted, - a plurality of receiving tubs for the sorted parts, - a conveying device for the parts to be sorted arranged between said supply tank and said receiving tubs , - optical means for acquiring images of each part to be sorted conveyed by said conveying device , - a processing unit for the images acquired by said optical means , said processing unit being configured to provide at least one measurement of at least one structural characteristic ( d, α, i, β, t ) of each part to be sorted, - distributing means for each part to a receiving tub chosen from said plurality of tubs as a function of at least one measurement of at least one structural characteristic ( d, α, i, β, t ) of this part provided by said processing unit , referred to as a sorting structural characteristic, each receiving tub being associated with a predetermined range of values of at least one sorting structural characteristic ( d, α, i, β, t ) of said assembling parts. - a supply tank for the parts to be sorted, - a plurality of receiving tubs for the sorted parts, - a conveying device for the parts to be sorted arranged between said supply tank and said receiving tubs , - optical means for acquiring images of each part to be sorted conveyed by said conveying device , - a processing unit for the images acquired by said optical means , said processing unit being configured to provide at least one measurement of at least one structural characteristic ( d, α, i, β, t ) of each part to be sorted, - distributing means for each part to a receiving tub chosen from said plurality of tubs as a function of at least one measurement of at least one structural characteristic ( d, α, i, β, t ) of this part provided by said processing unit , referred to as a sorting structural characteristic, each receiving tub being associated with a predetermined range of values of at least one sorting structural characteristic ( d, α, i, β, t ) of said assembling parts.
A blind rivet insert , in particular a blind rivet nut, comprising: a. a bearing head forming an annular flange and b. a shank extending from an underside of the bearing head and comprising a head end , a foot end and a cylindrical bore extending in lengthwise direction from the head end to the foot end , and having a first bore segment near the foot end , provided with an internal thread , and a second bore segment near the head end whose diameter is greater than the diameter of the first bore segment , the wall surrounding the second bore segment forming a deformable region of the shank , wherein c. the underside of the bearing head comprises an annular underhead groove concentrically arranged to the shank and adapted for receiving a sealing ring in a mounted condition of the blind rivet insert , and d. at least one annular retaining shank groove extends circumferentially around the shank , being arranged adjacent to the underside of the bearing head , for retaining the sealing ring in a preloaded position before mounting the blind rivet insert . a. a bearing head forming an annular flange and b. a shank extending from an underside of the bearing head and comprising a head end , a foot end and a cylindrical bore extending in lengthwise direction from the head end to the foot end , and having a first bore segment near the foot end , provided with an internal thread , and a second bore segment near the head end whose diameter is greater than the diameter of the first bore segment , the wall surrounding the second bore segment forming a deformable region of the shank , wherein c. the underside of the bearing head comprises an annular underhead groove concentrically arranged to the shank and adapted for receiving a sealing ring in a mounted condition of the blind rivet insert , and d. at least one annular retaining shank groove extends circumferentially around the shank , being arranged adjacent to the underside of the bearing head , for retaining the sealing ring in a preloaded position before mounting the blind rivet insert .
Method for the pumping of sludge that is susceptible to producing an explosive atmosphere and/or producing volatile organic compounds by vacuum suction, wherein, in an alternating fashion: - the product is sucked into an initial transit tank under vacuum and, simultaneously, a secondary transit tank is emptied by flushing under pressure of the previously suctioned product, the previously suctioned product being flushed into a reception tank , - then, said product is sucked into said secondary transit tank under vacuum and, simultaneously, said initial transit tank is emptied by flushing under pressure of the previously suctioned product, the previously suctioned product being flushed into the reception tank . - the product is sucked into an initial transit tank under vacuum and, simultaneously, a secondary transit tank is emptied by flushing under pressure of the previously suctioned product, the previously suctioned product being flushed into a reception tank , - then, said product is sucked into said secondary transit tank under vacuum and, simultaneously, said initial transit tank is emptied by flushing under pressure of the previously suctioned product, the previously suctioned product being flushed into the reception tank .
A method for coding soundfield representations comprising: receiving a representation of a soundfield, the representation characterizing the soundfield around a point in space; decomposing the received representation into independent signals comprising a mono channel and a number of independent source channels; performing blind source separation on the received representation of the soundfield, wherein performing the blind source separation comprises using a directional-decomposition map obtained from a directional decomposition pre-processor, estimating an RMS power, performing a scale-invariant clustering, and applying a mixing matrix; and encoding the independent signals, wherein a quantization noise for any one of the independent signals has a common spatial profile with a corresponding one of the independent signals. receiving a representation of a soundfield, the representation characterizing the soundfield around a point in space; decomposing the received representation into independent signals comprising a mono channel and a number of independent source channels; performing blind source separation on the received representation of the soundfield, wherein performing the blind source separation comprises using a directional-decomposition map obtained from a directional decomposition pre-processor, estimating an RMS power, performing a scale-invariant clustering, and applying a mixing matrix; and encoding the independent signals, wherein a quantization noise for any one of the independent signals has a common spatial profile with a corresponding one of the independent signals.
An antenna structure, comprising: a radiator element comprising an array of antenna elements; and an enclosure including the radiator element therein, the enclosure comprising a front face that is adjacent a surface of the radiator element and sidewall surfaces that house the radiator element therebetween, and an interface plate configured to accept mounting hardware that secures the enclosure to external telecommunications equipment, wherein the front face of the enclosure comprises an internal surface that is bounded by the sidewall surfaces and an external surface opposite the internal surface , wherein the surface of the radiator element is positioned closer to the external surface than the internal surface of the front face of the enclosure . a radiator element comprising an array of antenna elements; and an enclosure including the radiator element therein, the enclosure comprising a front face that is adjacent a surface of the radiator element and sidewall surfaces that house the radiator element therebetween, and an interface plate configured to accept mounting hardware that secures the enclosure to external telecommunications equipment, wherein the front face of the enclosure comprises an internal surface that is bounded by the sidewall surfaces and an external surface opposite the internal surface , wherein the surface of the radiator element is positioned closer to the external surface than the internal surface of the front face of the enclosure .
An electro-optic phase modulator , intended to modulate the optical phase of a lightwave incident on said modulator , including: - an electro-optic substrate comprising an entrance face and an exit face , - an optical waveguide continuously rectilinear from a guide entrance end located on said entrance face of the substrate to a guide exit end located on said exit face of the substrate , said optical waveguide having an optical refractive index (n g ) higher than the optical refractive index (n s ) of the substrate and being adapted to guide said incident lightwave partially coupled in said optical waveguide into a guided lightwave propagating along the optical path of said optical waveguide between said guide entrance end and exit end , and - at least two modulation electrodes arranged parallel to said waveguide , so as, when a modulation voltage (V m (t)) is applied between said modulation electrodes , to introduce a modulation phase-shift, function of said modulation voltage (V m (t)), on said guided lightwave propagating in said optical waveguide , - means able to reduce the optical refractive index (n s ) of said electro-optic substrate in the vicinity of the waveguide , characterized in that said means comprises electric polarization means (131, 132; 141, 142, 151, 152) for the electric polarization of said electro-optic substrate adapted to generate a permanent electric field in the electro-optic substrate , said means being able to reduce the optical refractive index (n s ) of said electro-optic substrate in the vicinity of the waveguide . - an electro-optic substrate comprising an entrance face and an exit face , - an optical waveguide continuously rectilinear from a guide entrance end located on said entrance face of the substrate to a guide exit end located on said exit face of the substrate , said optical waveguide having an optical refractive index (n g ) higher than the optical refractive index (n s ) of the substrate and being adapted to guide said incident lightwave partially coupled in said optical waveguide into a guided lightwave propagating along the optical path of said optical waveguide between said guide entrance end and exit end , and - at least two modulation electrodes arranged parallel to said waveguide , so as, when a modulation voltage (V m (t)) is applied between said modulation electrodes , to introduce a modulation phase-shift, function of said modulation voltage (V m (t)), on said guided lightwave propagating in said optical waveguide , - means able to reduce the optical refractive index (n s ) of said electro-optic substrate in the vicinity of the waveguide , characterized in that said means comprises electric polarization means (131, 132; 141, 142, 151, 152) for the electric polarization of said electro-optic substrate adapted to generate a permanent electric field in the electro-optic substrate , said means being able to reduce the optical refractive index (n s ) of said electro-optic substrate in the vicinity of the waveguide .
Reticle for a telescopic sight , having a transparent carrier plate on which a size value scale is depicted, wherein the size value scale has a first principal line , which forms a first positioning line for positioning at a first reference point (E1) of a target object (ZO), read lines for positioning at a second reference point (E2) of the target object (ZO) being arranged parallel to the first principal line , the read lines being assigned in each case one numerical value (W), wherein the distance between two adjacently arranged read lines which are each assigned a natural numerical value (W) increases with increasing distance from the first principal line , characterised in that the size value scale has a second principal line which is oriented perpendicular to the first principal line , wherein the read lines are arranged along the second principal line , the second principal line forming a second positioning line for positioning at a third reference point (E3) of the target object (ZO), and the read lines extending away from the second principal line , and the respective free end of the read lines forming a read point for positioning at a fourth reference point (E4) of the target object (ZO), wherein the distance between the second principal line and the read point of a read line increases with increasing distance of the read line from the first principal line .
Rotational connection system provided with a free-wheel , said free-wheel comprising a driving part and a driven part which are able to rotate about an axis of rotation (AX), said free-wheel comprising at least one rotational link member arranged in a linking space , said linking space being located radially relative to the axis of rotation (AX) between a driving linking section of the driving part and a driven linking section of the driven part , said rotational connection system comprising a lubrication device for lubricating the free-wheel , said lubrication device comprising a lubricating fluid , characterized in that said lubrication device comprises a fluid circulation device constrained to rotate about the axis of rotation (AX) of a driven pumping section of the driven part , a driving pumping section of the driving part and said driven pumping section being arranged one about the other radially with respect to the axis of rotation (AX), said fluid circulation device being set in rotation with respect to the driving pumping section when a driving speed of rotation of said driving pumping section about the axis of rotation (AX) is lower than a driven speed of rotation of said driven pumping section about the axis of rotation (AX), in order to generate a forced circulation of said lubricating fluid within said linking space .
A method for fabricating a conductive plug structure, comprising: providing a substrate ; forming a mask layer having an opening on a surface of the substrate ; etching the substrate to form a contact hole using the mask layer as an etching mask; etching the mask layer to increase a feature size of the opening ; forming an insulation layer on an inner surface of the opening , an inner surface of the enlarged opening and a surface of the mask layer to have more edge corners, a thickness of the insulation layer being greater than a thickness of the remaining mask layer ; forming a conductive layer (240; 340) filling the contact hole on the insulation layer , wherein the conductive layer is formed by an electroplating process with an inhibitor added in an electroplating solution; and planarizing the conductive layer (240; 340) and the insulation layer until a surface of the mask layer is exposed. providing a substrate ; forming a mask layer having an opening on a surface of the substrate ; etching the substrate to form a contact hole using the mask layer as an etching mask; etching the mask layer to increase a feature size of the opening ; forming an insulation layer on an inner surface of the opening , an inner surface of the enlarged opening and a surface of the mask layer to have more edge corners, a thickness of the insulation layer being greater than a thickness of the remaining mask layer ; forming a conductive layer (240; 340) filling the contact hole on the insulation layer , wherein the conductive layer is formed by an electroplating process with an inhibitor added in an electroplating solution; and planarizing the conductive layer (240; 340) and the insulation layer until a surface of the mask layer is exposed.
A fireproof board of silicon nitride-bonded silicon carbide, wherein the fireproof board has a side surface , a front surface , and a rear surface , the side surface is covered with glass of a first thickness (t2), and the front surface has a first region , the first region being covered with glass of a second thickness that is less than the first thickness, or the first region being not covered with glass; wherein the first thickness (t2) is 5 μm or more and 100 μm or less and the second thickness is 7 μm or less.
A thermoelectric material comprising: a p-type skutterudite material of the following Chemical Formula 1, greater than 0 wt% and 7.5 wt% or less of AlSb, and greater than 0 wt% and 20 wt% or less of FeSb 2 : [Chemical Formula 1] (M) m (Fe) a (A') a' (Co) b (B') b' (Sb) c (C') c' in Chemical Formula 1, M is at least one of element selected from the group consisting of S, In, Nd, Pr, Ce, Yb, La, Sr, Ba, Ca, Sm, Eu, and Gd, 0<m<1.5, A' is at least one of element selected from the group consisting of Ni, Mn, Tc, and Pd, 1<(a+a')≤4, and 0≤a'<1, B' is at least one of element selected from the group consisting of Ni, Ru, Os, Ir, and Pt, 0<(b+b')<3, and 0≤b'<1, C' is at least one of element selected from the group consisting of Sn and Te, and 11<(c+c')<13.5, and 0≤c'<1. a p-type skutterudite material of the following Chemical Formula 1, greater than 0 wt% and 7.5 wt% or less of AlSb, and greater than 0 wt% and 20 wt% or less of FeSb 2 : [Chemical Formula 1] (M) m (Fe) a (A') a' (Co) b (B') b' (Sb) c (C') c' in Chemical Formula 1, M is at least one of element selected from the group consisting of S, In, Nd, Pr, Ce, Yb, La, Sr, Ba, Ca, Sm, Eu, and Gd, 0<m<1.5, A' is at least one of element selected from the group consisting of Ni, Mn, Tc, and Pd, 1<(a+a')≤4, and 0≤a'<1, B' is at least one of element selected from the group consisting of Ni, Ru, Os, Ir, and Pt, 0<(b+b')<3, and 0≤b'<1, C' is at least one of element selected from the group consisting of Sn and Te, and 11<(c+c')<13.5, and 0≤c'<1. M is at least one of element selected from the group consisting of S, In, Nd, Pr, Ce, Yb, La, Sr, Ba, Ca, Sm, Eu, and Gd, 0<m<1.5, A' is at least one of element selected from the group consisting of Ni, Mn, Tc, and Pd, 1<(a+a')≤4, and 0≤a'<1, B' is at least one of element selected from the group consisting of Ni, Ru, Os, Ir, and Pt, 0<(b+b')<3, and 0≤b'<1, C' is at least one of element selected from the group consisting of Sn and Te, and 11<(c+c')<13.5, and 0≤c'<1.
Electronic apparatus for a camera system of a motor vehicle, comprising a housing , comprising a circuit board disposed in the housing , and comprising an electrical connecting unit for electrically connecting the electronic apparatus to an external apparatus, wherein the connecting unit has a base body and a plurality of electrical connecting elements , which project from the base body and are electrically connected to the circuit board , and wherein the base body has a connecting area disposed outside of the housing for connecting a cable, characterized in that the base body of the connecting unit is supported on the housing with a clearance at least in one translational degree of freedom and the base body has a bearing element , which is supported with the clearance in a bearing chamber formed in the housing while the housing on its side comprising the connecting unit has on its respective edge regions a projection reaching further than the connecting unit and a movement of the bearing element within the bearing chamber is limited in defined manner by walls of the bearing chamber formed in the form of a groove, in which an edge region of the bearing element is supported.