mhurhangee/ep-ind-claims huggingface dataset:
A vehicle seat mounted with an occupant restraint device for restraining a seated occupant, the vehicle seat comprising: a seat cushion frame forming a framework of a seat cushion; a seatback frame including a seatback side frame (38A, 38B) extending in a seat vertical direction at a seat width direction end portion of the seatback frame, the seatback frame being supported so as to be swingable at a seat rear end side of the seat cushion frame, and the seatback frame extending from the seat rear end side of the seat cushion frame toward a seat upper side; a metal inflating body disposed along the seatback side frame (38A, 38B), and configured so as to be stretched out toward a seat lower side such that a lower end of the metal inflating body abuts a vehicle floor surface; and a drive member configured to stretch out the metal inflating body in a case in which a vehicle collision at a seat front side occurs or in a case in which a vehicle collision at the seat front side has been predicted. a seat cushion frame forming a framework of a seat cushion; a seatback frame including a seatback side frame (38A, 38B) extending in a seat vertical direction at a seat width direction end portion of the seatback frame, the seatback frame being supported so as to be swingable at a seat rear end side of the seat cushion frame, and the seatback frame extending from the seat rear end side of the seat cushion frame toward a seat upper side; a metal inflating body disposed along the seatback side frame (38A, 38B), and configured so as to be stretched out toward a seat lower side such that a lower end of the metal inflating body abuts a vehicle floor surface; and a drive member configured to stretch out the metal inflating body in a case in which a vehicle collision at a seat front side occurs or in a case in which a vehicle collision at the seat front side has been predicted.
A composition for forming a secondary battery electrode which contains at least one of the electrode active material and the carbon material as a conductive assistant; characterised by an amphoteric resin-type dispersant prepared by neutralizing at least some carboxyl groups in a copolymer obtained by copolymerizing the following monomers with a basic compound; and an aqueous liquid medium: Ethylenically unsaturated monomer having an aromatic ring 5 to 70% by weight; Ethylenically unsaturated monomer having a carboxyl group: 15 to 60% by weight; Ethylenically unsaturated monomer having an amino group: 1 to 80% by weight; and Other monomers except the monomers to: 0 to 79% by weight, wherein the total of the monomers to are 100% by weight. Ethylenically unsaturated monomer having an aromatic ring 5 to 70% by weight; Ethylenically unsaturated monomer having a carboxyl group: 15 to 60% by weight; Ethylenically unsaturated monomer having an amino group: 1 to 80% by weight; and Other monomers except the monomers to: 0 to 79% by weight, wherein the total of the monomers to are 100% by weight.
A method for making a gas transport film comprising a brominated styrene-butadiene copolymer, comprising brominating a starting styrene-butadiene copolymer and then forming the brominated styrene-butadiene copolymer into a film, wherein the brominated styrene-butadiene copolymer contains from 40 to 80 mole-% brominated or unbrominated butadiene units, from 20 to 60 mole-% brominated or unbrominated styrene units, and no more than 10 mole percent of repeating units other than styrene and butadiene units, and wherein at least 60% of the butadiene units of the styrene-butadiene copolymer are brominated, and no more than 10% of the rings of the styrene units of the styrene-butadiene copolymer are brominated.
Hob (1, 1') with a cooling air device comprising a cooling air guide for cooling electronic components of the hob (1, 1'), characterised in that the cooling air guide is arranged such that a cooling air flow (10, 13) is directed only in the region of a rear half-zone of the hob, wherein the cooling air guide is configured such that the cooling air flow (10, 13) can be blown in via a first flow opening embodied in a base plate of the hob, wherein the cooling air guide is embodied such that the cooling air flow (10, 13) can be blown out via a second flow opening embodied in the base plate of the hob, wherein the two flow openings (19, 20) are embodied in a rear half-zone of the hob and wherein a flow channel section extending in the width direction of the hob is embodied between the two flow openings (19, 20).
A method of processing lignocellulosic biomass comprising: - Providing soft lignocellulosic biomass feedstock, - Pretreating the feedstock at pH within the range 3.5 to 9.0 in a single-stage pressurized hydrothermal pretreatment at a DM content of at least 35% at temperatures between 160 and 200°C for residence times of less than 60 minutes such that the pretreated biomass is characterized by having a xylan number of 10% or higher, - Separating the pretreated biomass into an solid fraction and a liquid fraction, - Hydrolysing the solid fraction with or without addition of supplemental water content at 15 % DM or greater for a time between 24 and 150 hours using enzymatic hydrolysis catalysed by an enzyme mixture comprising endoglucanase, exoglucanase, B-glucosidase, endoxylanase, xylosidase and acetyl xylan esterase activities, and - Subsequently mixing the separated liquid fraction and the hydrolysed solid fraction after at least 50% cellulose conversion to glucose has been obtained and further conducting post-hydrolysis for a period of at least 6 hours, whereby xylo-oligomers in the liquid fraction are degraded to xylose monomers by the action of enzyme activities remaining within the hydrolysed solid fraction. - Providing soft lignocellulosic biomass feedstock, - Pretreating the feedstock at pH within the range 3.5 to 9.0 in a single-stage pressurized hydrothermal pretreatment at a DM content of at least 35% at temperatures between 160 and 200°C for residence times of less than 60 minutes such that the pretreated biomass is characterized by having a xylan number of 10% or higher, - Separating the pretreated biomass into an solid fraction and a liquid fraction, - Hydrolysing the solid fraction with or without addition of supplemental water content at 15 % DM or greater for a time between 24 and 150 hours using enzymatic hydrolysis catalysed by an enzyme mixture comprising endoglucanase, exoglucanase, B-glucosidase, endoxylanase, xylosidase and acetyl xylan esterase activities, and - Subsequently mixing the separated liquid fraction and the hydrolysed solid fraction after at least 50% cellulose conversion to glucose has been obtained and further conducting post-hydrolysis for a period of at least 6 hours, whereby xylo-oligomers in the liquid fraction are degraded to xylose monomers by the action of enzyme activities remaining within the hydrolysed solid fraction.
Apparatus for blowing insulating material into insulating material chambers of a wall element which are open on one side, comprising a blow-in plate which covers at least one insulating material chamber and has, on the lower side facing the insulating material chambers, an air-permeable cover layer with at least one blow-in opening for the insulating material, and comprising a detection device, which is connected to an evaluation unit, for the progression of the webs which define the insulating material chambers on the peripheral side, characterised in that the detection device for the web progression of the insulating material chambers comprises at least two sets of film potentiometers (9, 10) which are provided on the lower side of the blow-in plate and the sets of which run in different directions.
A computer implemented method for designing a 3D modeled object that represents a mechanical part, the 3D modeled object being defined by a B-Rep, the method comprising: • selecting a group of faces ( f 1, f 2, f 3, f 4) of the B-Rep; • defining a trajectory ( W ( t)( f i) t ∈[0, 1]) for each respective face ( f i) of the group of faces; • computing, for each face of the group of faces, a respective swept volume ( A 1,R 2,R 3,A 4), the swept volume corresponding to the volume swept (U t ∈[0,1] W ( t)( f i)) by the respective face ( f i) with respect to the trajectory; • assigning (S32-S36) a material removal label or a material adding label to each swept volume, according to the position of the swept volume at the respective face with respect to the interior of the 3D modeled object; • updating the B-Rep ( S' = ( S - M -) U M +) with a material removal volume and then a material adding volume, the material adding volume ( M +) corresponding to the union (( A 1 - R 3) U ( A 4 - R 2)) of all swept volumes having a material adding label, each respective swept volume having a material adding label being in the union subtracted by all swept volumes ( R 3, R 2) having a material removal label and an end face ( f 2 1, f 3 1) that collides with the respective swept volume having a material adding label, the material removal volume ( M -) corresponding to the union (( R 2 - A 4) ∪ ( R 3 - A 1)) of all swept volumes having a material removal label, each respective swept volume having a material removal label being in the union subtracted by all swept volumes ( A 1, A 4) having a material adding label and a start face ( f 1 0, f 4 0) that collides with the respective swept volume having a material removal label. • selecting a group of faces ( f 1, f 2, f 3, f 4) of the B-Rep; • defining a trajectory ( W ( t)( f i) t ∈[0, 1]) for each respective face ( f i) of the group of faces; • computing, for each face of the group of faces, a respective swept volume ( A 1,R 2,R 3,A 4), the swept volume corresponding to the volume swept (U t ∈[0,1] W ( t)( f i)) by the respective face ( f i) with respect to the trajectory; • assigning (S32-S36) a material removal label or a material adding label to each swept volume, according to the position of the swept volume at the respective face with respect to the interior of the 3D modeled object; • updating the B-Rep ( S' = ( S - M -) U M +) with a material removal volume and then a material adding volume,
A device for detecting non-cavitated caries lesions, comprising: a measuring electrode having an electrically conductive tip, said tip being dimensionally configured to fit within a fissure (120; 220) having a width in the range from 0.05 to 0.3 mm and a length in the range from 0.5 to 1.5 mm in a patient's tooth and to provide electrical contact with fluid at the bottom of the fissure; a reference electrode, the reference electrode being configured for electrical contact with the patient's body; and measuring means for determining electrical conductance between the measuring electrode and the reference electrode, wherein the device is further configured to receive a current source for providing electrical current between the measuring electrode and the reference electrode. a measuring electrode having an electrically conductive tip, said tip being dimensionally configured to fit within a fissure (120; 220) having a width in the range from 0.05 to 0.3 mm and a length in the range from 0.5 to 1.5 mm in a patient's tooth and to provide electrical contact with fluid at the bottom of the fissure; a reference electrode, the reference electrode being configured for electrical contact with the patient's body; and measuring means for determining electrical conductance between the measuring electrode and the reference electrode, wherein the device is further configured to receive a current source for providing electrical current between the measuring electrode and the reference electrode.
A method for denoising a noisy image, said noisy image being two-dimensional, comprising: associating the noisy image with a potential V 2 of a semi-classical Schrödinger operator H 2,h, wherein h is a semi-classical parameter; discretizing the semi-classical Schrödinger operator H 2,h to form a discretized two-dimensional semi-classical Schrödinger operator H h; decoupling rows and columns of the discretized two-dimensional semi-classical Schrödinger operator H h into decoupled rows A i,h and columns B j,h of one-dimensional operators; determining, for each pixel of the noisy image, all negative eigenvalues and associated l 2 normalized eigenvectors of the one-dimensional operators; constructing a denoised image, which is an approximation of the noisy image, based on the negative eigenvalues and associated l 2 normalized eigenvectors; and checking a stopping criterion for the denoised image; the method characterized by: updating a value of the semi-classical parameter h and then repeating the determining constructing and checking steps to construct a new denoised image, wherein the value of the semi-classical parameter h is updated by minimizing a cost function that is based on a norm of an estimation error and a norm of the denoised image. associating the noisy image with a potential V 2 of a semi-classical Schrödinger operator H 2,h, wherein h is a semi-classical parameter; discretizing the semi-classical Schrödinger operator H 2,h to form a discretized two-dimensional semi-classical Schrödinger operator H h; decoupling rows and columns of the discretized two-dimensional semi-classical Schrödinger operator H h into decoupled rows A i,h and columns B j,h of one-dimensional operators; determining, for each pixel of the noisy image, all negative eigenvalues and associated l 2 normalized eigenvectors of the one-dimensional operators; constructing a denoised image, which is an approximation of the noisy image, based on the negative eigenvalues and associated l 2 normalized eigenvectors; and checking a stopping criterion for the denoised image; the method characterized by: updating a value of the semi-classical parameter h and then repeating the determining constructing and checking steps to construct a new denoised image, wherein the value of the semi-classical parameter h is updated by minimizing a cost function that is based on a norm of an estimation error and a norm of the denoised image. updating a value of the semi-classical parameter h and then repeating the determining constructing and checking steps to construct a new denoised image, wherein the value of the semi-classical parameter h is updated by minimizing a cost function that is based on a norm of an estimation error and a norm of the denoised image.
An audio decoder for providing a decoded audio information on the basis of an encoded audio information comprising linear prediction coefficients, the audio decoder comprising: - a tilt adjuster configured to adjust a tilt of a noise in dependence on a tilt information, wherein the tilt adjuster is configured to use linear prediction coefficients of a current frame to obtain the tilt information; and - a decoder core configured to decode an audio information of the current frame using the linear prediction coefficients of the current frame to obtain a decoded core coder output signal; and - a noise inserter configured to add the adjusted noise to the current frame, characterized in that the tilt adjuster is configured to obtain the tilt information using a calculation of a gain g of the linear prediction coefficients of the current frame, wherein g = ∑ a k ⋅ a k + 1 / ∑ a k ⋅ a k, wherein a k are LPC coefficients of the current frame, located at LPC index k. - a tilt adjuster configured to adjust a tilt of a noise in dependence on a tilt information, wherein the tilt adjuster is configured to use linear prediction coefficients of a current frame to obtain the tilt information; and - a decoder core configured to decode an audio information of the current frame using the linear prediction coefficients of the current frame to obtain a decoded core coder output signal; and - a noise inserter configured to add the adjusted noise to the current frame, the tilt adjuster is configured to obtain the tilt information using a calculation of a gain g of the linear prediction coefficients of the current frame, wherein g = ∑ a k ⋅ a k + 1 / ∑ a k ⋅ a k, wherein a k are LPC coefficients of the current frame, located at LPC index k.
Device for emitting a modulated light signal of Li-Fi signal type including: - connection means to an external source of an AC supply voltage (V ac); - a dimmer and a rectifier used to transform the AC supply voltage into an analog carrier voltage of adjustable amplitude, the rectifier being connected to an output of the dimmer; - processing means for controlling the dimmer to adjust the amplitude of the carrier voltage (V p) and generating an electrical digital data signal; - a zero crossing detector of the AC supply voltage, the zero crossing detector being adapted to generate a binary detection signal (S bd) from zero crossings of the AC supply voltage, the processing means being adapted to control the dimmer on the basis of the binary detection signal; - modulation means (18, 23) for modulating the carrier voltage as a function of the digital data signal to generate a modulated voltage; - at least one light-emitting diode including terminals between which the modulated voltage is applied to generate the modulated light signal. - connection means to an external source of an AC supply voltage (V ac); - a dimmer and a rectifier used to transform the AC supply voltage into an analog carrier voltage of adjustable amplitude, the rectifier being connected to an output of the dimmer; - processing means for controlling the dimmer to adjust the amplitude of the carrier voltage (V p) and generating an electrical digital data signal; - a zero crossing detector of the AC supply voltage, the zero crossing detector being adapted to generate a binary detection signal (S bd) from zero crossings of the AC supply voltage, the processing means being adapted to control the dimmer on the basis of the binary detection signal; - modulation means (18, 23) for modulating the carrier voltage as a function of the digital data signal to generate a modulated voltage; - at least one light-emitting diode including terminals between which the modulated voltage is applied to generate the modulated light signal.
Device for reducing the heating of a vacuum chamber, which is provided to accommodate a charged particle beam, wherein a magnetic field emitted by a superconductive magnet impinges on the particle beam, characterised by a plurality of superconductive strips (3, 3',...) which are arranged between the charged particle beam and the superconductive magnet.
An extruder with a cylindrical spar, a counter spar and at least one tie rod connecting them to form a press frame, wherein a pressure column surrounds the tie rod, said pressure column being arranged between the cylindrical spar and the counter spar, characterized in that the pressure column comprises in each case at least one pressure piece which is adjustable in length in the longitudinal direction of the pressure column.
A cardiopulmonary bypass system comprising: a cardiopulmonary bypass machine comprising a console, the console comprising a base and a frame connected to the base; a plurality of peripheral modules operatively connectable to the cardiopulmonary bypass machine; and a cable chase (100,136) comprising a first end and a second end, and a cable chase housing that extends at least partially between the first end and second end and at least partially encloses a channel for receiving one or more cables or conduits connected to at least one of the plurality of peripheral modules, wherein the base comprises a console pump support surface for supporting a plurality of console pumps, and wherein the frame comprises a shelf that is elevated with respect to the console pump support surface, and wherein the channel is configured to attach to one or both of the base and the frame, and wherein a cable holder is suspended from an underside of the shelf and comprises a plurality of fingers extending upwards from a channel body to provide for one or more passages for cables or conduits to be secured underneath the shelf. a cardiopulmonary bypass machine comprising a console, the console comprising a base and a frame connected to the base; a plurality of peripheral modules operatively connectable to the cardiopulmonary bypass machine; and a cable chase (100,136) comprising a first end and a second end, and a cable chase housing that extends at least partially between the first end and second end and at least partially encloses a channel for receiving one or more cables or conduits connected to at least one of the plurality of peripheral modules, wherein the base comprises a console pump support surface for supporting a plurality of console pumps, and wherein the frame comprises a shelf that is elevated with respect to the console pump support surface, and wherein the channel is configured to attach to one or both of the base and the frame, and wherein a cable holder is suspended from an underside of the shelf and comprises a plurality of fingers extending upwards from a channel body to provide for one or more passages for cables or conduits to be secured underneath the shelf.
A propeller rotor comprising: a hub mounting a plurality of blades; a drive shaft for driving said hub, and said blades about a central axis; a motor being operably connected to drive at least one counterweight (46; 52); and a sensor for sensing vibration on said propeller rotor, and communicating with a controller, said controller controlling said motor to change a position of said counterweight (46; 52) in response to a sensed imbalance; characterised in that said motor drives at least two counterweights (46; 52), through one-way clutches (40; 42), with said motor being operable to rotate in opposed directions of rotation, and a first of said one-way clutches (40; 42) associated with a first of said counterweights (46; 52) transmits rotation when said electric motor is driven in a clockwise direction, and a second of said one-way clutches (40; 42) associated with a second of said counterweights (46; 52) transmits rotation when said electric motor is rotated in a counter-clockwise direction. a hub mounting a plurality of blades; a drive shaft for driving said hub, and said blades about a central axis; a motor being operably connected to drive at least one counterweight (46; 52); and a sensor for sensing vibration on said propeller rotor, and communicating with a controller, said controller controlling said motor to change a position of said counterweight (46; 52) in response to a sensed imbalance; characterised in that said motor drives at least two counterweights (46; 52), through one-way clutches (40; 42), with said motor being operable to rotate in opposed directions of rotation, and a first of said one-way clutches (40; 42) associated with a first of said counterweights (46; 52) transmits rotation when said electric motor is driven in a clockwise direction, and a second of said one-way clutches (40; 42) associated with a second of said counterweights (46; 52) transmits rotation when said electric motor is rotated in a counter-clockwise direction.