mhurhangee/ep-ind-claims huggingface dataset:
Electrode carrier for electrophysiological measurement, comprising • a flexible substrate; • a plurality of contact pads attached to a substrate surface, wherein each contact pad comprises conductive means for accommodating an electrode for electrophysiological measurement; • first connecting means attached to the substrate for communicatively connecting the contact pads to a signal processing device; wherein • the first connecting means comprise a plurality of conductive tracks on the substrate surface for electrically connecting the plurality of contact pads, wherein each conductive track corresponds to at least one contact pad; wherein • the substrate having at least two inextendible sections for accommodating the contact pads; • wherein the at least two inextendible sections are interconnected by an extendible section; wherein • each extendible section comprises at least one warpable member of flexible material; wherein • at least one of the warpable members accommodates at least one of the conductive tracks; • wherein the at least one warpable member comprises a V-shaped portion of the substrate, characterized by • the extendible section comprises four warpable members each having a V-shaped portion, which four warpable members are arranged in an X-shaped fashion; wherein • the four warpable members are grouped in two parallel connected strings of two warpable members, wherein a center part of the two series connected warpable members are interconnected using an interconnection member. • a flexible substrate; • a plurality of contact pads attached to a substrate surface, wherein each contact pad comprises conductive means for accommodating an electrode for electrophysiological measurement; • first connecting means attached to the substrate for communicatively connecting the contact pads to a signal processing device; wherein • the first connecting means comprise a plurality of conductive tracks on the substrate surface for electrically connecting the plurality of contact pads, wherein each conductive track corresponds to at least one contact pad; wherein • the substrate having at least two inextendible sections for accommodating the contact pads; • wherein the at least two inextendible sections are interconnected by an extendible section; wherein • each extendible section comprises at least one warpable member of flexible material; wherein • at least one of the warpable members accommodates at least one of the conductive tracks; • wherein the at least one warpable member comprises a V-shaped portion of the substrate, • the extendible section comprises four warpable members each having a V-shaped portion, which four warpable members are arranged in an X-shaped fashion; wherein • the four warpable members are grouped in two parallel connected strings of two warpable members, wherein a center part of the two series connected warpable members are interconnected using an interconnection member.
A radial piston pump (10, 30, 40) including a housing, a cylinder block in said housing, a plurality of cylinders radially arranged in said cylinder block, a corresponding plurality of pistons, each piston being slidable in the respective cylinder of said plurality of cylinders, a fluid distributor, which is associated with said cylinder block, and a cam profile including a plurality of cam lobes, each lobe comprising a delivery ramp (R 1) and a suction ramp (R 2), wherein at least two pistons of said plurality of pistons have an end portion that protrudes from the respective cylinder and is a follower simultaneously engaging with a same type of ramp (R 1, R 2) of a relative lobe of said plurality of cam lobes, characterized in that said cam profile is adapted to impose to said pistons a law of motion that provides, in the function describing the velocity v i (φ) of said pistons, a horizontal inflection point between the suction phase and the delivery phase, with null velocity and null acceleration for said pistons during the switching between the suction phase and the delivery phase.
A method for a media muxer node of a local network of time-shifting a live media stream playing on a local-network UE, wherein a user is logged-in to an external network-connected UE and to a virtual control node of the local network, the virtual control node and the media muxer node both connected to the media aggregating node, the media muxer node further connected to a media streaming server for providing a media stream to the local network-UE, as well as to a local network-storage, the method characterized by the playing being initiated by the external network-connected UE located outside the local network and communicating with a media aggregating node, and comprising the following steps being performed by the media muxer node: - Discovering a pause of the media stream to the local network-UE; - Storing the media stream in an available local network-storage; - Discovering a restart of the media stream to the local network-UE; - Providing a time-shifted media stream from the local network storage to the local network-UE. - Discovering a pause of the media stream to the local network-UE; - Storing the media stream in an available local network-storage; - Discovering a restart of the media stream to the local network-UE; - Providing a time-shifted media stream from the local network storage to the local network-UE.
A composite frame system with a basic frame profile (10; 110; 210; 310) having two mutually parallel mounting surfaces (13, 14; 113, 114; 213, 214; 313, 314) facing away from one another for translucent panes or plates and at least one receiving region (19; 119; 219; 319) for insert elements that is internal relative to the finished frame, wherein the receiving region (19; 119; 219; 319) for the insert elements is covered only on the inside of the frame by a screen (23; 123; 223; 323) that extends transversely to the mounting surfaces (13, 14; 113, 114; 213, 214; 313, 314), so that the receiving region (19; 119) is open to the mounting sides for panes and plates, characterized in that there is a gap between the screen and the panes or plates in the assembled state.
A dish rack assembly comprising: a dish rack (32, 34) defining an interior; and an adjustable tine assembly located within the interior and comprising first and second sets of tines, which are coaxial about a common rotational axis, and rotatable about the rotational axis, the first set of tines having a first cross member from which multiple first tines extend, and the second set of tines having a second cross member from which multiple second tines extend, the second cross member having a C-shaped cross section defining a hollow interior, which receives the first cross member. a dish rack (32, 34) defining an interior; and an adjustable tine assembly located within the interior and comprising first and second sets of tines, which are coaxial about a common rotational axis, and rotatable about the rotational axis, the first set of tines having a first cross member from which multiple first tines extend, and the second set of tines having a second cross member from which multiple second tines extend, the second cross member having a C-shaped cross section defining a hollow interior, which receives the first cross member.
An assembly, comprising: an outer component; an inner component located in the outer component and movable relative thereto; a tolerance ring (100, 200, 500, 600, 700) mounted between the inner and outer components, the tolerance ring, characterized by: a radial stiffness that is greater than about 20,000 N/mm; an axial sliding force in a range of about 10 to 600 N; and a diameter of at least 10 mm, wherein the tolerance ring comprises an annular band (102, 202, 502, 602, 702) formed from a metallic material and a low friction material (104, 204, 504, 604, 710) joined to the annular band. an outer component; an inner component located in the outer component and movable relative thereto; a tolerance ring (100, 200, 500, 600, 700) mounted between the inner and outer components, the tolerance ring, characterized by: a radial stiffness that is greater than about 20,000 N/mm; an axial sliding force in a range of about 10 to 600 N; and a diameter of at least 10 mm, a radial stiffness that is greater than about 20,000 N/mm; an axial sliding force in a range of about 10 to 600 N; and a diameter of at least 10 mm,
A data writing device characterized by comprising: a reader-writer configured to receive a radio wave from a wireless tag that stores a first identifier and a second identifier, the reader-writer measuring a radio wave intensity of the radio wave received from the wireless tag, the first identifier being an electronic product code, EPC, and the second identifier being a tag ID; and a processor configured to: determine the radio wave intensities of the radio waves received from a plurality of the wireless tags by acquiring the respective first identifiers from the plurality of wireless tags through the reader-writer, set a reading threshold between a strongest radio wave intensity and a next strongest radio wave intensity among the radio wave intensities of the radio waves received from the plurality of wireless tags, and acquire a second identifier from one of the plurality of wireless tags if the one of the plurality of wireless tags has a radio wave intensity exceeding the set reading threshold through the reader-writer. a reader-writer configured to receive a radio wave from a wireless tag that stores a first identifier and a second identifier, the reader-writer measuring a radio wave intensity of the radio wave received from the wireless tag, the first identifier being an electronic product code, EPC, and the second identifier being a tag ID; and a processor configured to: determine the radio wave intensities of the radio waves received from a plurality of the wireless tags by acquiring the respective first identifiers from the plurality of wireless tags through the reader-writer, set a reading threshold between a strongest radio wave intensity and a next strongest radio wave intensity among the radio wave intensities of the radio waves received from the plurality of wireless tags, and acquire a second identifier from one of the plurality of wireless tags if the one of the plurality of wireless tags has a radio wave intensity exceeding the set reading threshold through the reader-writer. determine the radio wave intensities of the radio waves received from a plurality of the wireless tags by acquiring the respective first identifiers from the plurality of wireless tags through the reader-writer, set a reading threshold between a strongest radio wave intensity and a next strongest radio wave intensity among the radio wave intensities of the radio waves received from the plurality of wireless tags, and acquire a second identifier from one of the plurality of wireless tags if the one of the plurality of wireless tags has a radio wave intensity exceeding the set reading threshold through the reader-writer.
A hyaluronic acid composition for tissue augmentation, comprising crosslinked, water-insoluble, hydrated HA gel particles, wherein the HA includes crosslinks represented by the following structural formula: HA'-U-R 2 -U-HA' wherein: each HA' is the same or different crosslinked HA' molecule; each U is independently an optionally substituted O-acyl isourea or N-acyl urea; R2 is optionally substituted alkyl, alkenyl, alkynyl, alkoxy, cycloalkyl, cycloalkenyl, cycloalkynyl, aryl, heteroaryl, heterocyclyl, cycloaliphaticalkyl, aralkyl, heteroaralkyl, or heterocyclylalkyl; and wherein the HA composition is a single hydrated particle phase. each HA' is the same or different crosslinked HA' molecule; each U is independently an optionally substituted O-acyl isourea or N-acyl urea; R2 is optionally substituted alkyl, alkenyl, alkynyl, alkoxy, cycloalkyl, cycloalkenyl, cycloalkynyl, aryl, heteroaryl, heterocyclyl, cycloaliphaticalkyl, aralkyl, heteroaralkyl, or heterocyclylalkyl; and wherein the HA composition is a single hydrated particle phase.
A transmitter comprising: a nonlinear input-output conversion characteristic control unit configured to determine a nonlinear input-output conversion characteristic for converting a signal to be a smoother conversion characteristic close to a saturated output with a decrease of unused adjacent bands, the nonlinear input-output conversion characteristic representing a relationship between an input amplitude value of the signal and an output amplitude value of the signal as a nonlinear function; an amplitude control unit configured to convert an amplitude of the signal based on the determined nonlinear input-output conversion characteristic; and a transmission power amplification unit configured to amplify power of the signal with the converted amplitude. a nonlinear input-output conversion characteristic control unit configured to determine a nonlinear input-output conversion characteristic for converting a signal to be a smoother conversion characteristic close to a saturated output with a decrease of unused adjacent bands, the nonlinear input-output conversion characteristic representing a relationship between an input amplitude value of the signal and an output amplitude value of the signal as a nonlinear function; an amplitude control unit configured to convert an amplitude of the signal based on the determined nonlinear input-output conversion characteristic; and a transmission power amplification unit configured to amplify power of the signal with the converted amplitude.
An electromagnetic relay comprising: an iron core that has a circular end face, the end face comprising a groove which goes across the end face and divides the end face into a first area and a second area; and a shading coil that is fitted in the groove; characterized in that the shading coil is fixed to the iron core by applying caulking processing to both ends (28b-1) of the groove, and the first and second areas (28c, 28d) at positions which sandwich both ends (28b-1) of the groove. an iron core that has a circular end face, the end face comprising a groove which goes across the end face and divides the end face into a first area and a second area; and a shading coil that is fitted in the groove; characterized in that the shading coil is fixed to the iron core by applying caulking processing to both ends (28b-1) of the groove, and the first and second areas (28c, 28d) at positions which sandwich both ends (28b-1) of the groove.
Process for preparing an anhydride of formula A-C(=O)-O-(O=)C-A, wherein A is a -CH=CH 2 or -C(CH 3)=CH 2 group, said process comprising: a) a step of reacting an anhydride B-C(=O)-O-(O=)C-B with an acid A-COOH, A being as defined above, this step resulting in the formation of an anhydride A-C(=O)-O-(O=)C-B and of an acid B-COOH, A and B being such that said acid B-COOH is more volatile than said acid A-COOH; and b) a step of reacting said anhydride A-C(=O)-O-(O=)C-B with the acid A-COOH under conditions such that the amount of acid B-COOH is less than the amount of acid A-COOH, resulting in the formation of the anhydride A-C(=O)-O-(O=)C-A, wherein: ∘ said steps (a) and (b) are carried out in the presence of triflic acid in hydrated form ∘ the anhydride A-C(=O)-O-(O=)C-A formed in step (b) is isolated from the reaction medium resulting from step (b) according to the following successive or concomitant separation steps: e1) the compounds, termed heavy compounds, having a volatility of less than or equal to that of the anhydride A-C(=O)-O-(O=)C-A are separated from said reaction medium, typically by fractional distillation, these heavy compounds including the anhydride A-C(=O)-O-(O=)C-A and triflic acid in hydrated form; e2) the anhydride A-C(=O)-O-(O=)C-A is separated from the heavy compounds, by virtue of difference in volatility. a) a step of reacting an anhydride B-C(=O)-O-(O=)C-B with an acid A-COOH, A being as defined above, this step resulting in the formation of an anhydride A-C(=O)-O-(O=)C-B and of an acid B-COOH, A and B being such that said acid B-COOH is more volatile than said acid A-COOH; and b) a step of reacting said anhydride A-C(=O)-O-(O=)C-B with the acid A-COOH under conditions such that the amount of acid B-COOH is less than the amount of acid A-COOH, resulting in the formation of the anhydride A-C(=O)-O-(O=)C-A, ∘ said steps (a) and (b) are carried out in the presence of triflic acid in hydrated form ∘ the anhydride A-C(=O)-O-(O=)C-A formed in step (b) is isolated from the reaction medium resulting from step (b) according to the following successive or concomitant separation steps: e1) the compounds, termed heavy compounds, having a volatility of less than or equal to that of the anhydride A-C(=O)-O-(O=)C-A are separated from said reaction medium, typically by fractional distillation, these heavy compounds including the anhydride A-C(=O)-O-(O=)C-A and triflic acid in hydrated form; e2) the anhydride A-C(=O)-O-(O=)C-A is separated from the heavy compounds, by virtue of difference in volatility. e1) the compounds, termed heavy compounds, having a volatility of less than or equal to that of the anhydride A-C(=O)-O-(O=)C-A are separated from said reaction medium, typically by fractional distillation, these heavy compounds including the anhydride A-C(=O)-O-(O=)C-A and triflic acid in hydrated form; e2) the anhydride A-C(=O)-O-(O=)C-A is separated from the heavy compounds, by virtue of difference in volatility.
Head lamp lighting system of a vehicle comprising a DC/DC boost converter configured to provide a common boosted output voltage from a battery voltage; a plurality of DC/DC buck converters (36, 38, 40), each DC/DC buck converter (36, 38, 40) configured to provide an adjusted buck output current (42, 44, 46) from the common boosted output voltage; a plurality of strings (26, 28, 30) of Light-Emitting Diodes (32, 34); each string (26, 28, 30) of Light-Emitting Diodes (32, 34) being electrically connected to only one adjusted buck output current (42, 44, 46) and vice versa; characterized in that the head lamp lighting system further comprises a main controller electrically connected to the DC/DC boost converter and configured to provide a boost switching frequency value to the DC/DC boost converter; a battery voltage supervisor electrically connected to the main controller and electrically connected to the battery voltage, said battery voltage supervisor being configured to provide the battery voltage value to the main controller; the main controller being configured to determine the boost switching frequency value according to the provided battery voltage value. a DC/DC boost converter configured to provide a common boosted output voltage from a battery voltage; a plurality of DC/DC buck converters (36, 38, 40), each DC/DC buck converter (36, 38, 40) configured to provide an adjusted buck output current (42, 44, 46) from the common boosted output voltage; a plurality of strings (26, 28, 30) of Light-Emitting Diodes (32, 34); each string (26, 28, 30) of Light-Emitting Diodes (32, 34) being electrically connected to only one adjusted buck output current (42, 44, 46) and vice versa; characterized in that the head lamp lighting system further comprises a main controller electrically connected to the DC/DC boost converter and configured to provide a boost switching frequency value to the DC/DC boost converter; a battery voltage supervisor electrically connected to the main controller and electrically connected to the battery voltage, said battery voltage supervisor being configured to provide the battery voltage value to the main controller; the main controller being configured to determine the boost switching frequency value according to the provided battery voltage value.
A method for the electrically conductive connection of a stranded conductor surrounded by an insulation, which has a plurality of wires containing aluminum, having an electrical contact element, wherein the contact element designed as a flat component with an approximately rectangular cross section has an approximately rectangular contact point for the electrically conductive connection between the contact element and the stranded conductor and a mechanical holding part integrally connected to the contact element for the mechanical relief of the contact point, wherein the contact point and the holding part are separated from one another on the one-piece component, wherein the stripped stranded conductor is placed with its end on the contact element, wherein the stranded conductor is connected electrically conductively to the contact element at its end under destruction of the oxide layers of the wires at the contact point located on the contact element and wherein the holding part integrally connected to the contact element is crimped around the stripped stranded conductor.
A manufacturing method of a concrete pile that uses a formwork (10, 20, 30) in which a drainage hole connected to outside is provided on a molding surface and in which a pile molding space can be reduced and enlarged, the method comprising: pouring concrete in the pile molding space, reducing the pile molding space to compress and mold the concrete, draining water drained from the concrete by compression and molding outside of the formwork (10, 20, 30) from the drainage hole, and holding the concrete a predetermined amount of time to harden the concrete, wherein, the formwork includes an outer formwork that molds an outer wall surface of the concrete pile, an inner formwork that molds an inner wall surface of a hollow space of the concrete pile, and a pair of end formwork that mold upper and lower end surfaces of the concrete pile, the outer formwork includes a plurality of components (10b, 10L, 10R), characterised in that the drainage hole is a gap between the adjacent components when the mold is tightened, and the gap is configured to be capable of being opened larger during cleaning than when the mold is tightened, the plurality of components (10b, 10L, 10R) are linked with a hinge, and the drainage hole is a slit shape. pouring concrete in the pile molding space, reducing the pile molding space to compress and mold the concrete, draining water drained from the concrete by compression and molding outside of the formwork (10, 20, 30) from the drainage hole, and holding the concrete a predetermined amount of time to harden the concrete, wherein, the formwork includes an outer formwork that molds an outer wall surface of the concrete pile, an inner formwork that molds an inner wall surface of a hollow space of the concrete pile, and a pair of end formwork that mold upper and lower end surfaces of the concrete pile, the outer formwork includes a plurality of components (10b, 10L, 10R), characterised in that the drainage hole is a gap between the adjacent components when the mold is tightened, and the gap is configured to be capable of being opened larger during cleaning than when the mold is tightened, the plurality of components (10b, 10L, 10R) are linked with a hinge, and the drainage hole is a slit shape.