mhurhangee/ep-ind-claims huggingface dataset:
A proton exchange membrane for an electrochemical cell comprising: an ionomer substrate, and a catalytically active component capable of decomposing hydrogen peroxide disposed within or on a surface of the substrate, said catalytically active component comprising colloidal particles having a mean diameter of less than 200 nanometers, said particles containing a metal oxide selected from silica, a stabilizer selected from boron ions, and at least one catalyst different from the stabilizer wherein the catalyst is selected from the group of cerium, platinum, lanthanum, gadolinium, iron, ruthenium, and combinations thereof. an ionomer substrate, and a catalytically active component capable of decomposing hydrogen peroxide disposed within or on a surface of the substrate, said catalytically active component comprising colloidal particles having a mean diameter of less than 200 nanometers, said particles containing a metal oxide selected from silica, a stabilizer selected from boron ions, and at least one catalyst different from the stabilizer wherein the catalyst is selected from the group of cerium, platinum, lanthanum, gadolinium, iron, ruthenium, and combinations thereof.
Hob device comprising at least one support plate which is designed to accommodate at least one cooking vessel, at least one heating device which is designed to supply heating power to a cooking vessel positioned on the support plate in order to heat a fluid in the cooking vessel, at least one control device by means of which the supply of the heating power can be controlled, and at least one, in particular at least two weighing devices which are designed, when the hob device is installed, to detect at least one weight acting on the support plate, characterised in that the support plate is assigned at least one cooking vessel identification device which is configured to detect the at least one footprint of a cooking vessel arranged on the support plate, the control device being configured to determine a curve of the change in the at least one weight over time, the control device being configured to control the heating device depending on the quotient from the time curve of the at least one weight and the footprint.
Aloom comprising: a display setting device comprising a display panel and a base mount to which the display panel is attached; a support mechanism configured to support the display setting device on the base mount via a support member attached to a side of a loom frame and extending toward an outer side of the frame; and a vibration-proof structure configured to support the base mount on the support member of the support mechanism via an elastic member, the loom being characterized in that the vibration-proof structure has a configuration where a support structure member provided to the loom is suspended from the base mount.
UHF RFID transponder with an antenna and an RFID chip, wherein the antenna has a first dipole structure, a second dipole structure, a first inductive loop, a second inductive loop and a infeed point, wherein the first dipole structure and the second dipole structure are folded dipoles, and wherein the first dipole structure, the second dipole structure, the first inductive loop, the second inductive loop and the RFID chip are electrically connected to the infeed point, and wherein the second inductive loop is connected in parallel to the first inductive loop, characterised in that the dipole structures (4 and 6) designed as folded dipoles, each featuring a slit that is parallel to one long side of the antenna, and that these slits have curved ends (10 and 11) and that the curved ends of the first dipole structure and the curved ends of the second dipole structure are turned towards each other.
Scissors for an endoscope, comprising: a treatment section including a pair of scissor elements (10; 11) which are pivotably supported by a pivoting shaft and are pivotally displaced between an open position and a closed position, each of said scissor elements (10; 11) having a blade (10c; 11c); an operation wire connected to the treatment section; and an operation section for displacing the scissor elements (10; 11) between the open position and the closed position by anteriorly advancing and rearwardly retracting the operation wire, wherein a stopper is provided at the treatment section, which restricts the relative movement between the pair of scissor elements (10; 11) in the opening direction when the scissor elements (10; 11) are in the open position, while restricting the relative movement between the pair of scissor elements (10; 11) in the closing direction when the scissor elements (10; 11) are in the closed position; characterised in that the stopper is provided on at least one of the pair of scissor elements (10; 11) in such a manner that when the scissor elements (10; 11) are in the closed position, it abuts a blade (10c; 11c) formed on the inner side of the other scissor element (10; 11) anteriorly to the pivoting shaft and that when the scissor elements (10; 11) are in the open position, it abuts an arm of the other scissor element (10; 11) which extends to rearward of the pivoting shaft. a treatment section including a pair of scissor elements (10; 11) which are pivotably supported by a pivoting shaft and are pivotally displaced between an open position and a closed position, each of said scissor elements (10; 11) having a blade (10c; 11c); an operation wire connected to the treatment section; and an operation section for displacing the scissor elements (10; 11) between the open position and the closed position by anteriorly advancing and rearwardly retracting the operation wire, wherein a stopper is provided at the treatment section, which restricts the relative movement between the pair of scissor elements (10; 11) in the opening direction when the scissor elements (10; 11) are in the open position, while restricting the relative movement between the pair of scissor elements (10; 11) in the closing direction when the scissor elements (10; 11) are in the closed position; characterised in that the stopper is provided on at least one of the pair of scissor elements (10; 11) in such a manner that when the scissor elements (10; 11) are in the closed position, it abuts a blade (10c; 11c) formed on the inner side of the other scissor element (10; 11) anteriorly to the pivoting shaft and that when the scissor elements (10; 11) are in the open position, it abuts an arm of the other scissor element (10; 11) which extends to rearward of the pivoting shaft.
Computer-implemented method for generating a three-dimensional representation of scenery, comprising the steps of: • recording the scenery using a multiplicity of cameras (3, 4, 5, 6) and storing the recorded textures as two-dimensional images in a texture memory, wherein the texture is described by a regular coordinate grid, and • providing a virtual grid, wherein the virtual grid comprises a plurality of nodes which span an irregular grid, and the virtual grid forms a virtual three-dimensional projection area, • rendering the three-dimensional representation by projecting the textures determined by each camera (3, 4, 5, 6) onto the virtual grid, wherein the uniformly arranged texture coordinates of the textures are mapped to nodes of the virtual grid, wherein the textures are projected onto the virtual grid by distorting the texture, • wherein the textures are subdivided into individual cells by the regular coordinate grid, wherein precisely one cell in the irregular virtual grid is assigned to each cell in the regular coordinate grid, and • wherein that part of the texture which is defined by a cell in the coordinate grid is distorted in such a manner that it assumes the form of the corresponding cell in the virtual grid. • recording the scenery using a multiplicity of cameras (3, 4, 5, 6) and storing the recorded textures as two-dimensional images in a texture memory, wherein the texture is described by a regular coordinate grid, and • providing a virtual grid, wherein the virtual grid comprises a plurality of nodes which span an irregular grid, and the virtual grid forms a virtual three-dimensional projection area, • rendering the three-dimensional representation by projecting the textures determined by each camera (3, 4, 5, 6) onto the virtual grid, wherein the uniformly arranged texture coordinates of the textures are mapped to nodes of the virtual grid, wherein the textures are projected onto the virtual grid by distorting the texture, • wherein the textures are subdivided into individual cells by the regular coordinate grid, wherein precisely one cell in the irregular virtual grid is assigned to each cell in the regular coordinate grid, and • wherein that part of the texture which is defined by a cell in the coordinate grid is distorted in such a manner that it assumes the form of the corresponding cell in the virtual grid.
Joint for use in a riser extending between a floating installation and a subsea installation, comprising an inner pipe segment and an outer pipe segment, arranged moveable relative each other in an axial direction and connectable to respective riser segments, forming a chamber between them with a radially extending piston, dividing the chamber in a first chamber part and a second chamber part, wherein at least one of said chamber parts in an initial position of the joint is adapted to contain a mainly incompressible fluid, this chamber part decreasing in volume as the inner pipe segment is moved relatively out of the outer pipe segment, characterized in that the joint is configured with a fluid line connection from said one chamber part to the other chamber part, configured such that the relative movement of the pipe segments (21,22) is controlled by the allowed flow rate of a fluid flowing out of the chamber part through the fluid line connection to the other chamber part.
An optical transmitter (1A; 1B; 1C), comprising: a signal generator configured to generate a drive signal from input data; an optical modulator (25; 25X) configured to have a voltage-to-light-intensity characteristic in which intensity of output light changes in response to an applied voltage, and to generate a light signal that corresponds to the drive signal; a multiplier (29; 29X) configured to multiply the drive signal and an electric signal that is obtained from the light signal; and a control section configured to control, based on output of the multiplier, a bias voltage for the optical modulator, wherein the optical modulator includes an I arm and a Q arm, the signal generator generates a drive signal for the I arm and a drive signal for the Q arm, wherein: the transmitter is adapted to selectively provide one of the I arm drive signal and the Q arm drive signal to the multiplier; the control section is adapted to control a bias voltage for the I arm of the optical modulator, based on a signal obtained by the multiplier multiplying the drive signal for the I arm with an electric signal that represents the light signal, when a switch selects a drive signal for the I arm, and the control section is adapted to control a bias voltage for the Q arm of the optical modulator, based on a signal obtained by the multiplier multiplying the drive signal for the Q arm with the electric signal that represents the light signal, when the switch selects a drive signal for the Q arm. a signal generator configured to generate a drive signal from input data; an optical modulator (25; 25X) configured to have a voltage-to-light-intensity characteristic in which intensity of output light changes in response to an applied voltage, and to generate a light signal that corresponds to the drive signal; a multiplier (29; 29X) configured to multiply the drive signal and an electric signal that is obtained from the light signal; and a control section configured to control, based on output of the multiplier, a bias voltage for the optical modulator, wherein the optical modulator includes an I arm and a Q arm, the signal generator generates a drive signal for the I arm and a drive signal for the Q arm, the transmitter is adapted to selectively provide one of the I arm drive signal and the Q arm drive signal to the multiplier; the control section is adapted to control a bias voltage for the I arm of the optical modulator, based on a signal obtained by the multiplier multiplying the drive signal for the I arm with an electric signal that represents the light signal, when a switch selects a drive signal for the I arm, and the control section is adapted to control a bias voltage for the Q arm of the optical modulator, based on a signal obtained by the multiplier multiplying the drive signal for the Q arm with the electric signal that represents the light signal, when the switch selects a drive signal for the Q arm.
A protective helmet comprising: a shell exhibiting a longitudinal plane of symmetry and comprising left and right lateral portions, an opening formed in at least one of the lateral portions; a lighting device comprising: at least one module (23, 24) which comprises a housing exhibiting a front wall that is transparent and containing at least one light source (31, 32) positioned facing said transparent front wall; an electrical power supply device and an electronic control device both connected to the light source or sources and each positioned in at least one housing mounted on the shell; the module (23, 24) being intended to be fitted, removably, inside the opening of the lateral portion of the shell so that the rear part of the module (23, 24) is situated inside the shell and so that the front part of the module (23, 24) is situated outside the shell, so that the light source (31, 32) can emit a beam (51, 52) toward the outside of the shell. a shell exhibiting a longitudinal plane of symmetry and comprising left and right lateral portions, an opening formed in at least one of the lateral portions; a lighting device comprising: at least one module (23, 24) which comprises a housing exhibiting a front wall that is transparent and containing at least one light source (31, 32) positioned facing said transparent front wall; an electrical power supply device and an electronic control device both connected to the light source or sources and each positioned in at least one housing mounted on the shell; at least one module (23, 24) which comprises a housing exhibiting a front wall that is transparent and containing at least one light source (31, 32) positioned facing said transparent front wall; an electrical power supply device and an electronic control device both connected to the light source or sources and each positioned in at least one housing mounted on the shell; the module (23, 24) being intended to be fitted, removably, inside the opening of the lateral portion of the shell so that the rear part of the module (23, 24) is situated inside the shell and so that the front part of the module (23, 24) is situated outside the shell, so that the light source (31, 32) can emit a beam (51, 52) toward the outside of the shell.
An implantable medical device system, comprising: a housing; electronics disposed within the housing; a feedthrough assembly attached to a sidewall of the housing and electrically coupled to the electronics, the feedthrough assembly comprising a non-conductive substrate and a feedthrough, the feedthrough comprising: a via from an outer surface to an inner surface of the non-conductive substrate; a conductive material disposed in the via; and an external contact disposed over the via on the outer surface of the non-conductive substrate, wherein the external contact is electrically coupled to the conductive material disposed in the via, and wherein the external contact is hermetically sealed to the outer surface of the non-conductive substrate by a laser bond surrounding the via; and a connector header disposed on the housing of the implantable medical device, the connector header comprising a housing that surrounds the feedthrough assembly, wherein the connector header further comprises a receptacle adapted to receive a proximal portion of a lead and electrically couple a contact of the lead to the external contact of the feedthrough assembly. a housing; electronics disposed within the housing; a feedthrough assembly attached to a sidewall of the housing and electrically coupled to the electronics, the feedthrough assembly comprising a non-conductive substrate and a feedthrough, the feedthrough comprising: a via from an outer surface to an inner surface of the non-conductive substrate; a conductive material disposed in the via; and an external contact disposed over the via on the outer surface of the non-conductive substrate, wherein the external contact is electrically coupled to the conductive material disposed in the via, and wherein the external contact is hermetically sealed to the outer surface of the non-conductive substrate by a laser bond surrounding the via; and a via from an outer surface to an inner surface of the non-conductive substrate; a conductive material disposed in the via; and an external contact disposed over the via on the outer surface of the non-conductive substrate, wherein the external contact is electrically coupled to the conductive material disposed in the via, and wherein the external contact is hermetically sealed to the outer surface of the non-conductive substrate by a laser bond surrounding the via; and a connector header disposed on the housing of the implantable medical device, the connector header comprising a housing that surrounds the feedthrough assembly, wherein the connector header further comprises a receptacle adapted to receive a proximal portion of a lead and electrically couple a contact of the lead to the external contact of the feedthrough assembly.
An electricity charging point with inductive transmission of electrical energy from a primary induction coil of the charging point to a secondary induction coil of an electric vehicle including a charging system connected to the primary induction coil, wherein the charging system is arranged in a housing set into the ground, which is covered by a cover, which has a raised region situated above the ground level, characterised in that the raised region of the cover has an upwardly domed shape, which resembles a spherical ball of the shape that the electrical vehicle can drive past with its wheels on both sides of the cover and that the primary induction coil is arranged in a cavity in the raised region of the cover, which is closed by a bottom wall, which may be opened.
An adjustable support for seat belts, comprising: - a slider configured for coupling with a loop for the routing of a seat belt; and - a guide path (4', 6', 8', 10'), which develops in a first direction of adjustment and is configured for guiding the slider along said first direction of adjustment (z), said slider having a plurality of operating positions along said first direction of adjustment, wherein said guide path (4', 6', 8', 10') develops in a second direction of adjustment (x), incident to said first direction of adjustment (z), and is configured for guiding the slider along said second direction of adjustment (x), said slider having further operating positions along said second direction of adjustment (x), wherein said second direction of adjustment (x) is orthogonal to said first direction of adjustment, wherein said guide path (4', 6', 8', 10') includes at least one first portion developing in said first direction of adjustment (z) and second portions (8', 10') developing in said second direction of adjustment (x), the adjustable support being characterized in that the slider is engaged and movable along the first portions and the second portions (8', 10'), and in that along said first portions the guide path includes a plurality of discrete position references configured for coupling with said slider for defining operating positions in the first direction of adjustment (z). - a slider configured for coupling with a loop for the routing of a seat belt; and - a guide path (4', 6', 8', 10'), which develops in a first direction of adjustment and is configured for guiding the slider along said first direction of adjustment (z), said slider having a plurality of operating positions along said first direction of adjustment,
An adapter for contacting a circuit breaker to a busbar system with a casing having a first mounting side to attach and electrically contact the adapter to at least one busbar of a busbar system and a second mounting side to attach and electrically contact a circuit breaker to the casing, characterized in that on the second mounting side at least one rotary disk with several sets of threaded inserts is fitted so that it can pivot around a rotational axis perpendicular to the mounting sides (2, 3) for attaching a circuit breaker, wherein each set of threaded inserts is equipped for mounting a particular type of circuit breaker so that for each position of the rotary disk one of the sets of threaded inserts is positioned in a mounting position for a particular type of circuit breaker.
A microcapillary film or foam having a first end and a second end, wherein said film or foam comprises: (a) a matrix comprising a thermoplastic material, (b) at least one or more surface treated channels disposed in parallel in said matrix from the first end to the second end of said film or foam, wherein said one or more surface treated channels are at least 1 μm apart from each other, and wherein each said one or more surface treated channels have a diameter in the range of at least 1 μm; wherein said film or foam has a thickness in the range of from 2 μm to 2000 μm; and wherein the one or more channels and the surface of the microcapillary film or foam are surface treated and the surface treatment comprises a plasma surface treatment. (a) a matrix comprising a thermoplastic material, (b) at least one or more surface treated channels disposed in parallel in said matrix from the first end to the second end of said film or foam, wherein said one or more surface treated channels are at least 1 μm apart from each other, and wherein each said one or more surface treated channels have a diameter in the range of at least 1 μm;