mhurhangee/ep-ind-claims huggingface dataset:
Wireless sound equipment comprising: a case forming an exterior appearance; a first holder and a second holder provided in both sides of the case, respectively; a first receiver and a second receiver coupled to and decoupled from the first holder and the second holder, respectively; a first winding device rotatably mounted in the case, the first winding device comprising a first gear formed in an outer circumference; a second winding device rotatably mounted in the case, the second winding device comprising a second gear formed in an outer circumference to engage with the first gear; a first audio cable connected between the first receiver and the first winding device, and wound around the circumference of the first winding device; and a second audio cable connected between the second receiver and the second winding device, and wound around the circumference of the second winding device. a case forming an exterior appearance; a first holder and a second holder provided in both sides of the case, respectively; a first receiver and a second receiver coupled to and decoupled from the first holder and the second holder, respectively; a first winding device rotatably mounted in the case, the first winding device comprising a first gear formed in an outer circumference; a second winding device rotatably mounted in the case, the second winding device comprising a second gear formed in an outer circumference to engage with the first gear; a first audio cable connected between the first receiver and the first winding device, and wound around the circumference of the first winding device; and a second audio cable connected between the second receiver and the second winding device, and wound around the circumference of the second winding device.
A porous film, being a separator of an electrochemical device, said porous film comprising: (a) a porous substrate having pores; and (b) a coating layer formed on at least one region selected from the group consisting of a surface of the substrate and a part of the pores present in the substrate, wherein the coating layer comprises styrene-butadiene rubber, characterized in that: - the styrene-butadiene rubber has a glass transition temperature Tg of 25°C or less, and - the styrene-butadiene rubber contains a hydrophilic functional group (a) a porous substrate having pores; and (b) a coating layer formed on at least one region selected from the group consisting of a surface of the substrate and a part of the pores present in the substrate, wherein the coating layer comprises styrene-butadiene rubber, characterized in that: - the styrene-butadiene rubber has a glass transition temperature Tg of 25°C or less, and - the styrene-butadiene rubber contains a hydrophilic functional group - the styrene-butadiene rubber has a glass transition temperature Tg of 25°C or less, and - the styrene-butadiene rubber contains a hydrophilic functional group
An electronic device, comprising: an antenna device which is constituted by a plate like radiator being provided on a top surface side of a plate like dielectric and a plate like grounding conductor being provided on a back surface side of the plate like dielectric, the plate like dielectric being sandwiched by the plate like radiator and the plate like grounding conductor; a solar panel which is arranged on a top surface side of the antenna device; and a circuit board which is arranged on a back surface side of the antenna device and electrically connected with an electrode (201a, 206a) formed at an outer circumference of the solar panel; characterized in that the outer circumference of the solar panel, excluding the electrode (201a, 206a), is formed so as not to exceed outside from an outer circumference (6a1) of the radiator, and the electrode (201a, 206a) projects outside from the outer circumference of the radiator and an outer circumference of the dielectric and is electrically connected with the circuit board at outside of the dielectric. an antenna device which is constituted by a plate like radiator being provided on a top surface side of a plate like dielectric and a plate like grounding conductor being provided on a back surface side of the plate like dielectric, the plate like dielectric being sandwiched by the plate like radiator and the plate like grounding conductor; a solar panel which is arranged on a top surface side of the antenna device; and a circuit board which is arranged on a back surface side of the antenna device and electrically connected with an electrode (201a, 206a) formed at an outer circumference of the solar panel; characterized in that the outer circumference of the solar panel, excluding the electrode (201a, 206a), is formed so as not to exceed outside from an outer circumference (6a1) of the radiator, and the electrode (201a, 206a) projects outside from the outer circumference of the radiator and an outer circumference of the dielectric and is electrically connected with the circuit board at outside of the dielectric.
A method of producing a flexible ultrasound transducer or ultrasonic transducer array for imaging, measurement or non-destructive testing, the method comprising: providing or depositing a layer of piezoelectric material on a substrate comprising a metal foil; wherein the layer of piezoelectric material has a thickness in the range of 2 to 20μm, and the substrate is from 20 to 200μm thick, the piezoelectric material is a doped, co-deposited or alloyed piezoelectric material; and the piezoelectric material comprises: a doped, co-deposited or alloyed metal oxide or metal nitride, the metal oxide or metal nitride being doped, co-deposited or alloyed with vanadium or a compound thereof; or zinc oxide doped, co-deposited or alloyed with a transition metal or a compound thereof. providing or depositing a layer of piezoelectric material on a substrate comprising a metal foil; wherein the layer of piezoelectric material has a thickness in the range of 2 to 20μm, and the substrate is from 20 to 200μm thick, the piezoelectric material is a doped, co-deposited or alloyed piezoelectric material; and the piezoelectric material comprises: a doped, co-deposited or alloyed metal oxide or metal nitride, the metal oxide or metal nitride being doped, co-deposited or alloyed with vanadium or a compound thereof; or zinc oxide doped, co-deposited or alloyed with a transition metal or a compound thereof. a doped, co-deposited or alloyed metal oxide or metal nitride, the metal oxide or metal nitride being doped, co-deposited or alloyed with vanadium or a compound thereof; or zinc oxide doped, co-deposited or alloyed with a transition metal or a compound thereof.
Polycarbonate diol having a hydroxyl value of 20 mg-KOH/g to 450 mg-KOH/g, wherein the hydroxyl value of the polycarbonate diol is measured by a method using an acetylation reagent in conformity with JIS K1557-1; wherein a ratio of an ether group to a carbonate group of the polycarbonate diol is 0.01 mol% to 0.7 mol%, wherein the ratio of an ether group to a carbonate group is calculated as set out in the specification from % by weight obtained by analyzing the structure of dihydroxy compounds obtained by hydrolyzing the polycarbonate diol using GC-MS analysis and performing GC analysis of a dihydroxy compound including an ether group and the entire dihydroxy compounds; and a molecular weight of the dihydroxy compounds; the amount of a linear dihydroxy compound having no substituent among dihydroxy compounds obtained by hydrolyzing the polycarbonate diol is 95 mol% or more of the entire dihydroxy compounds, wherein the amount of the linear dihydroxy compound having no substituent is determined as set out in the specification; and the average carbon number of the dihydroxy compounds is 3.5 to 5.5, wherein the average carbon number of the dihydroxy compounds is determined as set out in the specification, and wherein the linear dihydroxy compound having no substituent in the polycarbonate diol of the present invention includes at least one selected from the group consisting of 1,3-propanediol, 1,4-butanediol, and 1,5-pentanediol, and at least one selected from the group consisting of 1,9-nonanediol, 1,10-decanediol, 1,11-undecanediol, and 1,12-dodecane diol.
A wrought 7xxx aluminum alloy product comprising: 0.15 to 0.50 wt. % Mn; 5.5-7.3 wt. % Zn; 0.95-2.2 wt. % Mg; 1.5-2.4 wt. % Cu; up to 1.0 wt. % of grain structure control materials, wherein the grain structure control materials comprise at least one of Zr, Cr, Sc, and Hf; and up to 0.15 wt. % Ti; the balance being aluminum and unavoidable impurities; wherein the wrought 7xxx aluminum alloy product has a thickness of from 3.8 - 30 cm (1.5 to 12 inches). 0.15 to 0.50 wt. % Mn; 5.5-7.3 wt. % Zn; 0.95-2.2 wt. % Mg; 1.5-2.4 wt. % Cu; up to 1.0 wt. % of grain structure control materials, wherein the grain structure control materials comprise at least one of Zr, Cr, Sc, and Hf; and up to 0.15 wt. % Ti; the balance being aluminum and unavoidable impurities; wherein the wrought 7xxx aluminum alloy product has a thickness of from 3.8 - 30 cm (1.5 to 12 inches).
A method to perform broadcasting in a network node, the network node being configured to broadcast information within a coverage area by using a directional beam, the method comprising: - determining one or more directions for the directional beam based on a priori information about receiver (14 1,..., 14 i,...14 N) locations within the coverage area, and - broadcasting the information in the determined one or more directions, characterized by that the network node is preconfigured with information on one or more directions, which are excluded based on a placement of the network node. - determining one or more directions for the directional beam based on a priori information about receiver (14 1,..., 14 i,...14 N) locations within the coverage area, and - broadcasting the information in the determined one or more directions, characterized by that the network node is preconfigured with information on one or more directions, which are excluded based on a placement of the network node.
A biological polymer analyzing equipment with nanopore comprising a chamber part comprising: a chamber having a sample introduction section and a sample outflow section separated by a substrate; a first electrode provided in the sample introduction section and a second electrode provided in the sample outflow section; a thin membrane formed on the substrate; a nanopore provided in the thin membrane of the substrate and communicating between the sample introduction section and the sample outflow section; a third electrode provided near the nanopore of the substrate to be between the sample introduction section and the sample outflow section; an insulating layer provided on the third electrode and facing the sample introduction section; and a voltage applying member, wherein the voltage applying member comprises a member for applying voltages between the first electrode and the third electrode to collect a charged biomolecule polymer at the nanopore, and for applying voltages between the first electrode and the second electrode and between the third electrode and the second electrode to transfer the charged biomolecule polymer through the nanopore, and wherein the insulating layer is formed so that the third electrode is exposed to the sample introduction section near the nanopore. a chamber having a sample introduction section and a sample outflow section separated by a substrate; a first electrode provided in the sample introduction section and a second electrode provided in the sample outflow section; a thin membrane formed on the substrate; a nanopore provided in the thin membrane of the substrate and communicating between the sample introduction section and the sample outflow section; a third electrode provided near the nanopore of the substrate to be between the sample introduction section and the sample outflow section; an insulating layer provided on the third electrode and facing the sample introduction section; and a voltage applying member, wherein the voltage applying member comprises a member for applying voltages between the first electrode and the third electrode to collect a charged biomolecule polymer at the nanopore, and for applying voltages between the first electrode and the second electrode and between the third electrode and the second electrode to transfer the charged biomolecule polymer through the nanopore, and wherein the insulating layer is formed so that the third electrode is exposed to the sample introduction section near the nanopore.
Composition based on copolymers comprising at least one A B blocks copolymer, wherein: - the A block is a polyester; - the B block is a poly-oxyethylene; - the molecular mass in weight of the B blocks, determined by size-exclusion chromatography carried out in dimethylformamide as analysis solvent, using a standard range of polyethylene glycol, is greater than or equal to 50 kDa; and - the molar ratio of ethylene oxide units to ester units is between 0.5 and 5. - the A block is a polyester; - the B block is a poly-oxyethylene; - the molecular mass in weight of the B blocks, determined by size-exclusion chromatography carried out in dimethylformamide as analysis solvent, using a standard range of polyethylene glycol, is greater than or equal to 50 kDa; and - the molar ratio of ethylene oxide units to ester units is between 0.5 and 5.
Brake test stand comprising, at minimum, - at least one drive motor - which can be coupled, via at least one torque transmission device, to - a load generator and - at least one brake to be tested, the drive motor providing the energy to be converted by the brake to be tested and/or the torque to be produced by the brake, and, at least before the testing of the brake, the load generator absorbing the energy provided by the drive motor and/or the torque provided by the drive motor, characterised in that the brake test stand has a control system, which includes at least one input for the signal of at least one torque sensor (6, 7) and includes outputs respectively for controlling the load generator, the drive motor and the brake to be tested. - at least one drive motor - which can be coupled, via at least one torque transmission device, to - a load generator and - at least one brake to be tested, the drive motor providing the energy to be converted by the brake to be tested and/or the torque to be produced by the brake, and, at least before the testing of the brake, the load generator absorbing the energy provided by the drive motor and/or the torque provided by the drive motor, characterised in that the brake test stand has a control system, which includes at least one input for the signal of at least one torque sensor (6, 7) and includes outputs respectively for controlling the load generator, the drive motor and the brake to be tested.
Refrigeration appliance, in particular household refrigeration appliance, having a dispenser recess, and a heat-insulating housing, which surrounds a storage compartment for refrigerated goods, and at least one opening between the storage compartment and the dispenser recess, wherein the dispenser recess is disposed outside of the heat-insulating housing, and a container-valve assembly, which has a container and a valve, wherein a cover, by means of which the dispenser recess can be closed off, is hinged to the housing, wherein an operating paddle is assembled in the dispenser recess, which is used to open the valve and to fill a vessel pressed against the operating paddle in the dispenser recess with beverage from the above-lying container, wherein the operating paddle is assembled in the dispenser recess independently of the container valve assembly, wherein the operating paddle forms an arm of a pivotable two-arm lever, wherein a second arm of the lever is moulded and dimensioned in order, when the operating paddle is deflected by the vessel pressed against it, to push against the valve from the lateral direction, characterised in that the container-valve assembly in the storage compartment is detachably assembled to penetrate the opening, wherein a container is connected with a valve to the container-valve assembly.
A surfactant having the following structure: where m is a value in a range of 3 to 10, n is a value in a range of 5 to 20 and z is a value in a range of 5 to 30.
An automatic injection and retraction syringe, comprising: a medicine cartridge; an injection assembly; and a retraction assembly being selectively securable to said injection assembly to house said medicine cartridge therein, said retraction assembly comprising: an end cap, a double-ended hypodermic needle having an axially mobile needle hub, a retraction spring disposed between said needle hub and said end cap and maintained in a partially compressed condition therebetween, and an upper seal urged against a facially sealing surface perpendicular to a radial sealing surface of an inner diameter of said retraction assembly by said retraction spring in said partially compressed condition to form a first hermetic seal between the medicine cartridge and the needle hub; wherein the medicine cartridge is adapted to move towards the upper seal such that one tip of the double-ended hypodermic needle pierces the upper seal and medicine cartridge to place the double-ended hypodermic needle in fluid communication with the medicine cartridge. a medicine cartridge; an injection assembly; and a retraction assembly being selectively securable to said injection assembly to house said medicine cartridge therein, said retraction assembly comprising: an end cap, a double-ended hypodermic needle having an axially mobile needle hub, a retraction spring disposed between said needle hub and said end cap and maintained in a partially compressed condition therebetween, and an upper seal urged against a facially sealing surface perpendicular to a radial sealing surface of an inner diameter of said retraction assembly by said retraction spring in said partially compressed condition to form a first hermetic seal between the medicine cartridge and the needle hub; wherein the medicine cartridge is adapted to move towards the upper seal such that one tip of the double-ended hypodermic needle pierces the upper seal and medicine cartridge to place the double-ended hypodermic needle in fluid communication with the medicine cartridge. an end cap, a double-ended hypodermic needle having an axially mobile needle hub, a retraction spring disposed between said needle hub and said end cap and maintained in a partially compressed condition therebetween, and an upper seal urged against a facially sealing surface perpendicular to a radial sealing surface of an inner diameter of said retraction assembly by said retraction spring in said partially compressed condition to form a first hermetic seal between the medicine cartridge and the needle hub; wherein the medicine cartridge is adapted to move towards the upper seal such that one tip of the double-ended hypodermic needle pierces the upper seal and medicine cartridge to place the double-ended hypodermic needle in fluid communication with the medicine cartridge.
Use of a duct for an insertion into a wall or floor element and for feeding through a line, said duct comprising a tube element which is provided for extending through said wall or floor element in a line direction, wherein said tube element comprises a first tube element piece and a second tube element piece, said tube element pieces (23, 24) being displaceable with respect to each other in said line direction and being arrangeable in a plurality of different relative positions to each other thus, so that a length of said tube element, taken in said line direction, is adjustable, wherein said first tube element piece can be inserted into said second tube element piece and is guided therein displaceable to enable said displaceability, wherein a locking device (26, 32; 51, 61) is provided, which locks said displaceability of said tube element pieces (23, 24) in said relative positions, wherein a locking ring (26, 91) is provided as said locking device (26, 32; 51, 61), which locking ring can be brought into a locking position for locking said displaceability of said tube element pieces, in which locking position said locking ring (26, 91) defines the relative position of said first and said second tube element piece, wherein pourable material which hardens then encloses said tube element in said use, characterized in that, in said locking position, said locking ring tensions said second tube element piece inwards onto said first tube element piece. said duct comprising a tube element which is provided for extending through said wall or floor element in a line direction, wherein said tube element comprises a first tube element piece and a second tube element piece, said tube element pieces (23, 24) being displaceable with respect to each other in said line direction and being arrangeable in a plurality of different relative positions to each other thus, so that a length of said tube element, taken in said line direction, is adjustable, wherein said first tube element piece can be inserted into said second tube element piece and is guided therein displaceable to enable said displaceability, wherein a locking device (26, 32; 51, 61) is provided, which locks said displaceability of said tube element pieces (23, 24) in said relative positions, wherein a locking ring (26, 91) is provided as said locking device (26, 32; 51, 61), which locking ring can be brought into a locking position for locking said displaceability of said tube element pieces, in which locking position said locking ring (26, 91) defines the relative position of said first and said second tube element piece,
A system for identifying a landmark, the system comprising: a. a field generator for generating a magnetic field; b. an orthopaedic implant located within the magnetic field, the orthopaedic implant comprising at least one landmark, a proximal end, a distal end and a longitudinal axis extending from the proximal end to the distal end, c. a first magnetic sensor mounted to the orthopaedic implant and spaced apart from the at least one landmark a set distance; d. a landmark identifier having a second magnetic sensor; and e. a processor for comparing sensor data from the first and second sensor and using the set distance to calculate the position of the landmark identifier relative to the at least one landmark characterised in that the orthopaedic implant further comprises a longitudinal groove that extends along the implant in a direction parallel to the longitudinal axis and comprises a proximal end portion and a distal end portion and in that the first magnetic sensor is mounted to the orthopaedic implant at the distal end portion of the longitudinal groove. a. a field generator for generating a magnetic field; b. an orthopaedic implant located within the magnetic field, the orthopaedic implant comprising at least one landmark, a proximal end, a distal end and a longitudinal axis extending from the proximal end to the distal end, c. a first magnetic sensor mounted to the orthopaedic implant and spaced apart from the at least one landmark a set distance; d. a landmark identifier having a second magnetic sensor; and e. a processor for comparing sensor data from the first and second sensor and using the set distance to calculate the position of the landmark identifier relative to the at least one landmark characterised in that the orthopaedic implant further comprises a longitudinal groove that extends along the implant in a direction parallel to the longitudinal axis and comprises a proximal end portion and a distal end portion and in that the first magnetic sensor is mounted to the orthopaedic implant at the distal end portion of the longitudinal groove.