mhurhangee/ep-ind-claims huggingface dataset:
A sensor for measuring at least one physical or chemical parameter of a cartridge filled with a liquid substance and comprising a tubular-shaped barrel sealed by a piston slidably displaceable inside the cartridge, wherein the piston exhibits an electric susceptibility or permittivity being distinguishable from the electric susceptibility of the liquid substance inside the cartridge, the sensor comprising: - a planar flexible foil attachable to an outer circumference of the barrel of the cartridge, and - at least a first and a second measuring electrode (102, 104) arranged on said foil and configured as electrical capacity measuring electrodes to measure an electrical capacitance between the first and second capacity measuring electrodes (102, 104) when wrapped around the cartridge, which electrical capacitance depends on an axial position of the piston, characterized by - at least a first and a second contact electrode (106, 108) arranged on said foil, - wherein the first contact electrode is connected to the first measuring electrode and wherein the second contact electrode is connected to the second measuring electrode, - wherein the first and second contact electrodes (106, 108) are configured to provide a wired energy supply to the first and second measuring electrodes (102, 104), and - wherein the first and second contact electrodes (106, 108) are configured to provide a wired transfer of electrical signals obtained or generated by at least one of the first and second measuring electrodes (102, 104) to a processor or transceiver. - a planar flexible foil attachable to an outer circumference of the barrel of the cartridge, and - at least a first and a second measuring electrode (102, 104) arranged on said foil and configured as electrical capacity measuring electrodes to measure an electrical capacitance between the first and second capacity measuring electrodes (102, 104) when wrapped around the cartridge, which electrical capacitance depends on an axial position of the piston, characterized by - at least a first and a second contact electrode (106, 108) arranged on said foil, - wherein the first contact electrode is connected to the first measuring electrode and wherein the second contact electrode is connected to the second measuring electrode, - wherein the first and second contact electrodes (106, 108) are configured to provide a wired energy supply to the first and second measuring electrodes (102, 104), and - wherein the first and second contact electrodes (106, 108) are configured to provide a wired transfer of electrical signals obtained or generated by at least one of the first and second measuring electrodes (102, 104) to a processor or transceiver.
A skin care apparatus comprising: a main body; a vibration unit installed on the main body; and an ultrasonic generation portion to generate vibration, wherein the vibration unit includes a skin contact member provided with a projection that is in a tube shape to transfer the ultrasonic vibration generated from the ultrasonic generation portion to a skin, characterized: - in that the vibration unit is separably installed on the main body, - in that the ultrasonic generation portion is installed inside the vibration unit, - by a piezoelectric element included in the ultrasonic generation portion, - in that the piezoelectric element is provided in a form of a ring which has a hole in the center, and - in that, when a voltage is applied, the piezoelectric element is stretched on the outside of the piezoelectric element and on the inside of the hole to increase the strength of the ultrasonic vibration. a main body; a vibration unit installed on the main body; and an ultrasonic generation portion to generate vibration, wherein the vibration unit includes a skin contact member provided with a projection that is in a tube shape to transfer the ultrasonic vibration generated from the ultrasonic generation portion to a skin, characterized: - in that the vibration unit is separably installed on the main body, - in that the ultrasonic generation portion is installed inside the vibration unit, - by a piezoelectric element included in the ultrasonic generation portion, - in that the piezoelectric element is provided in a form of a ring which has a hole in the center, and - in that, when a voltage is applied, the piezoelectric element is stretched on the outside of the piezoelectric element and on the inside of the hole to increase the strength of the ultrasonic vibration. - in that the vibration unit is separably installed on the main body, - in that the ultrasonic generation portion is installed inside the vibration unit, - by a piezoelectric element included in the ultrasonic generation portion, - in that the piezoelectric element is provided in a form of a ring which has a hole in the center, and - in that, when a voltage is applied, the piezoelectric element is stretched on the outside of the piezoelectric element and on the inside of the hole to increase the strength of the ultrasonic vibration.
An ignition plug comprising: a tubular insulator having an axial hole extending in a direction of an axial line; a center electrode inserted into a forward end portion of the axial hole; and a metallic shell provided around the insulator and having a protrusion protruding radially inward, wherein the insulator has an engagement portion which is engaged directly or indirectly with a receiving surface of the protrusion which is a rear-end-side surface thereof, and an intermediate trunk portion extending rearward from a rear end of the engagement portion, the metallic shell has, on its outer circumference, an attachment screw portion located on a radially outer side of the protrusion, a seating portion located rearward of the screw portion and projecting radially outward, and a tube portion located between the screw portion and the seating portion, the tube portion being located on the radially outer side of the intermediate trunk portion and having a diameter smaller than that of the seating portion, and the screw portion has a screw diameter of 10 mm or less, the ignition plug being characterized in that a relation A ≤ 1.70 and a relation B ≥ 1.20 are satisfied, where A is a thickness in mm of the metallic shell along a direction which passes through a center of the receiving surface and is orthogonal to the axial line on a cross section including the axial line, and B is a minimum thickness in mm of the metallic shell at the tube portion along the direction orthogonal to the axial line. a tubular insulator having an axial hole extending in a direction of an axial line; a center electrode inserted into a forward end portion of the axial hole; and a metallic shell provided around the insulator and having a protrusion protruding radially inward, wherein the insulator has an engagement portion which is engaged directly or indirectly with a receiving surface of the protrusion which is a rear-end-side surface thereof, and an intermediate trunk portion extending rearward from a rear end of the engagement portion, the metallic shell has, on its outer circumference, an attachment screw portion located on a radially outer side of the protrusion, a seating portion located rearward of the screw portion and projecting radially outward, and a tube portion located between the screw portion and the seating portion, the tube portion being located on the radially outer side of the intermediate trunk portion and having a diameter smaller than that of the seating portion, and the screw portion has a screw diameter of 10 mm or less, the ignition plug being characterized in that a relation A ≤ 1.70 and a relation B ≥ 1.20 are satisfied, where A is a thickness in mm of the metallic shell along a direction which passes through a center of the receiving surface and is orthogonal to the axial line on a cross section including the axial line, and B is a minimum thickness in mm of the metallic shell at the tube portion along the direction orthogonal to the axial line.
A magnetic actuator (100, 300, 400) comprising a collar element (101, 301, 401) capable of transferring torque to and from a shaft surrounded by the collar element and capable of sliding in an axial direction with respect to the shaft, the collar element comprising indentations (102, 402) for locking in a torque transferring way to a counterpart when the collar element is in a first axial position with respect to the shaft, wherein: - the magnetic actuator comprises a coil (103, 303, 403) surrounding the collar element so as to generate a current density, the current density being circumferential around an axis of rotation of the collar element and the collar element being capable of moving in the axial direction with respect to the coil, - the collar element comprises permanent magnet material (104, 304, 404) for generating an axial force for moving the collar element to the first axial position when the coil carries electric current flowing in a first direction and to a second axial position when the coil carries electric current flowing in a second direction opposite to the first direction, and - reluctance of a magnetic circuit conducting the magnetic flux produced by the electric current of the coil is dependent on the axial position of the collar element, characterized in that the magnetic actuator further comprises: - a supply device arranged to supply measurement electric current to the coil, and - a processing system arranged to detect the axial position of the collar element on the basis of impedance constituted by the coil to the measurement electric current. - the magnetic actuator comprises a coil (103, 303, 403) surrounding the collar element so as to generate a current density, the current density being circumferential around an axis of rotation of the collar element and the collar element being capable of moving in the axial direction with respect to the coil, - the collar element comprises permanent magnet material (104, 304, 404) for generating an axial force for moving the collar element to the first axial position when the coil carries electric current flowing in a first direction and to a second axial position when the coil carries electric current flowing in a second direction opposite to the first direction, and - reluctance of a magnetic circuit conducting the magnetic flux produced by the electric current of the coil is dependent on the axial position of the collar element, - a supply device arranged to supply measurement electric current to the coil, and - a processing system arranged to detect the axial position of the collar element on the basis of impedance constituted by the coil to the measurement electric current.
A vial cap comprising a synthetic resin cap body having an upper surface and a synthetic resin protective cover; wherein the cap body is provided with a through hole vertically penetrating in the central part thereof; wherein the protective cover is removably attached to the upper surface of the cap body to close the through hole, wherein an adhesive strength is generated between mutual contacting surfaces of the cap body and the protective cover by injection-molding either one of the cap body and the protective cover making the contacting surface of the other, preliminarily formed by an injection molding method and inserted in an injection mold for forming the one, serve as a shaping surface for forming the contacting surface of the one; wherein the cap body comprises a top plate; wherein the upper surface of the top plate is the contact surface against the protective cover; wherein the through hole is provided in the central part of the top plate; and wherein at least one anti-rotation projection is provided; wherein, when the cap is placed over a mouth of a vial having a plug fitted thereinto, the anti-rotation projection engages into the upper surface of the plug; characterized in that the anti-rotation projection is provided on the undersurface of the top plate and configured to prevent the cap from relatively rotating about the vial.
Jawbone transplant arrangement having a bone transplant, wherein the bone transplant has at least one modelled first free-form surface, characterised in that the bone transplant has at least one implant opening and a position of the implant opening in the bone transplant is aligned with a position of a dental plate relatively to the bone transplant, wherein the implant opening has a fastening element which engages with the bone transplant, and at which an implant can be fastened, wherein the fastening element is formed as a sheath from a metal alloy or a metal, wherein an axial extension of the fastening element is aligned with an axial extension of the implant opening.
A system for variable coupling of a high pressure spool and a low pressure spool to power a generator in a turbofan engine, the system comprising: a differential gear portion having a first input portion coupled with one of the high pressure spool and the low pressure spool, a second input portion coupled to the other spool (52, 54), and an output shaft; the gear portion having a high pressure gear and a low pressure gear operable with a fixed speed relationship; an electromagnetic variable transmission having an independently rotatable inner rotor portion and an independently rotatable outer rotor portion, the inner rotor portion and the outer rotor portion rotatable about a common axis, the inner rotor portion coupled with one of the high pressure spool and the low pressure spool, and the outer portion coupled to the other spool (52, 54), to transfer torque between the high pressure spool and the low pressure spool; the differential gear portion being connected between the high pressure spool and the low pressure spool in parallel with the electromagnetically variable transmission; a generator mechanically coupled to the output shaft; wherein the differential gear portion is thereby operable to equalize a rotational speed of the high pressure spool, a rotational speed of the low pressure spool, and an output speed of the output shaft for driving the generator; and the EVT is thereby operable to controllably couple power from the low pressure spool to the high pressure spool. a differential gear portion having a first input portion coupled with one of the high pressure spool and the low pressure spool, a second input portion coupled to the other spool (52, 54), and an output shaft; the gear portion having a high pressure gear and a low pressure gear operable with a fixed speed relationship; an electromagnetic variable transmission having an independently rotatable inner rotor portion and an independently rotatable outer rotor portion, the inner rotor portion and the outer rotor portion rotatable about a common axis, the inner rotor portion coupled with one of the high pressure spool and the low pressure spool, and the outer portion coupled to the other spool (52, 54), to transfer torque between the high pressure spool and the low pressure spool; the differential gear portion being connected between the high pressure spool and the low pressure spool in parallel with the electromagnetically variable transmission; a generator mechanically coupled to the output shaft; wherein the differential gear portion is thereby operable to equalize a rotational speed of the high pressure spool, a rotational speed of the low pressure spool, and an output speed of the output shaft for driving the generator; and the EVT is thereby operable to controllably couple power from the low pressure spool to the high pressure spool.
A method of wireless communication operating in a user equipment, UE, comprising: receiving a first multicast traffic channel, MTCH; and characterized by storing (1004; 1106; 1204; 1304; 1404) multimedia broadcast multicast service, MBMS, control information for at least a second MTCH (912; 914; 916), the MBMS control information acquired from an evolved Node B, eNB; accessing (1008; 1114; 1210; 1310; 1406) the stored MBMS control information for the second MTCH (912; 914; 916) upon determining to receive the second MTCH (912; 914; 916); and receiving the second MTCH (912; 914; 916) based on the accessed MBMS control information, the second MTCH (912; 914; 916) received without acquiring from the eNB the MBMS control information for the second MTCH (912; 914; 916) after the determination to receive the second MTCH (912; 914; 916). receiving a first multicast traffic channel, MTCH; and characterized by storing (1004; 1106; 1204; 1304; 1404) multimedia broadcast multicast service, MBMS, control information for at least a second MTCH (912; 914; 916), the MBMS control information acquired from an evolved Node B, eNB; accessing (1008; 1114; 1210; 1310; 1406) the stored MBMS control information for the second MTCH (912; 914; 916) upon determining to receive the second MTCH (912; 914; 916); and receiving the second MTCH (912; 914; 916) based on the accessed MBMS control information, the second MTCH (912; 914; 916) received without acquiring from the eNB the MBMS control information for the second MTCH (912; 914; 916) after the determination to receive the second MTCH (912; 914; 916).
A combination of: - an oncolytic adenovirus consisting of an adenovirus delta24; and - an histone deacetylase inhibitor consisting of valproic acid; for use as a medicament in cancer therapy. - an oncolytic adenovirus consisting of an adenovirus delta24; and - an histone deacetylase inhibitor consisting of valproic acid;
Fuel injection system of an internal combustion engine, having a combustion chamber, with at least one intake valve on an intake side and at least one exhaust valve on an exhaust side and having a central injection nozzle for injecting fuel into the combustion chamber, wherein the injection nozzle has six injection holes (13'a, 13'b, 13'c, 13'd, 13'e, 13'f), wherein - a first partial quantity of fuel can be injected onto the intake side by means of two injection holes (13'a, 13'b), - a second partial quantity of fuel can be injected onto the exhaust side by means of two injection holes (13'c, 13'd), - a third partial quantity of fuel can be injected by means of two injection holes (13'e, 13'f) into a boundary region, extending in the axial direction, between the intake side and the exhaust side, characterised in that - the second partial quantity of fuel is in each case smaller than the first and the third partial quantity of fuel and - the first partial quantity of fuel is substantially equal to the third partial quantity of fuel. - a first partial quantity of fuel can be injected onto the intake side by means of two injection holes (13'a, 13'b), - a second partial quantity of fuel can be injected onto the exhaust side by means of two injection holes (13'c, 13'd), - a third partial quantity of fuel can be injected by means of two injection holes (13'e, 13'f) into a boundary region, extending in the axial direction, between the intake side and the exhaust side, - the second partial quantity of fuel is in each case smaller than the first and the third partial quantity of fuel and - the first partial quantity of fuel is substantially equal to the third partial quantity of fuel.
A method for heating a heat transfer medium comprising: providing a quantity of carbon dioxide in gaseous form within an interior volume of a vessel; contacting the carbon dioxide gas with a heat exchanger disposed within the interior volume of the vessel; exposing the vessel to solar radiation, wherein the carbon dioxide absorbs radiation in one or more vibration bands of the carbon dioxide, the absorbed radiation obtained from the solar radiation; and transferring, via the heat exchanger, heat within the first quantity of carbon dioxide produced by collisional thermalization of the absorbed radiation to a heat transfer medium within the heat exchanger and in fluid communication with an external environment of the vessel; stirring the quantity of carbon dioxide within the interior volume of the vessel; wherein the vessel comprises a fan disposed within the interior volume, the fan stirring the quantity of carbon dioxide within the interior volume of the vessel. providing a quantity of carbon dioxide in gaseous form within an interior volume of a vessel; contacting the carbon dioxide gas with a heat exchanger disposed within the interior volume of the vessel; exposing the vessel to solar radiation, wherein the carbon dioxide absorbs radiation in one or more vibration bands of the carbon dioxide, the absorbed radiation obtained from the solar radiation; and transferring, via the heat exchanger, heat within the first quantity of carbon dioxide produced by collisional thermalization of the absorbed radiation to a heat transfer medium within the heat exchanger and in fluid communication with an external environment of the vessel; stirring the quantity of carbon dioxide within the interior volume of the vessel; wherein the vessel comprises a fan disposed within the interior volume, the fan stirring the quantity of carbon dioxide within the interior volume of the vessel.
An ultraviolet irradiation system comprising: a medical device having a central lumen; an optical fiber having a longitudinal length, a proximal end, a distal end, a cylindrical core, and a cladding layer extending along the longitudinal length from the proximal end to the distal end; and an ultraviolet wave generator, wherein ultraviolet waves generated by the wave generator are dispersed along the longitudinal length of the optical fiber to disinfect the central lumen of the medical device, characterised in that a thickness of the cladding layer decreases along the longitudinal length from the proximal end to the distal end, and a depth of porosity of the cladding layer increases along the longitudinal length from the proximal end to the distal end. a medical device having a central lumen; an optical fiber having a longitudinal length, a proximal end, a distal end, a cylindrical core, and a cladding layer extending along the longitudinal length from the proximal end to the distal end; and an ultraviolet wave generator, wherein ultraviolet waves generated by the wave generator are dispersed along the longitudinal length of the optical fiber to disinfect the central lumen of the medical device, characterised in that a thickness of the cladding layer decreases along the longitudinal length from the proximal end to the distal end, and a depth of porosity of the cladding layer increases along the longitudinal length from the proximal end to the distal end. and an ultraviolet wave generator, wherein ultraviolet waves generated by the wave generator are dispersed along the longitudinal length of the optical fiber to disinfect the central lumen of the medical device, characterised in that a thickness of the cladding layer decreases along the longitudinal length from the proximal end to the distal end, and a depth of porosity of the cladding layer increases along the longitudinal length from the proximal end to the distal end.
A tappet comprising: a hydraulic lash adjuster which supports a lower end portion of a push rod; and a tappet case to which the lash adjuster is internally fitted and which is reciprocally displaced in a vertical direction according to a rotating cam, wherein an inner peripheral surface of the tappet case is provided with an air-vent passage through which air existing between the tappet case and the lash adjuster is discharged upward when the lash adjuster is being assembled. a hydraulic lash adjuster which supports a lower end portion of a push rod; and a tappet case to which the lash adjuster is internally fitted and which is reciprocally displaced in a vertical direction according to a rotating cam, wherein an inner peripheral surface of the tappet case is provided with an air-vent passage through which air existing between the tappet case and the lash adjuster is discharged upward when the lash adjuster is being assembled.