mhurhangee/ep-ind-claims huggingface dataset:
A filter (10; 100; 200; 300; 400; 500; 600; 700; 1500; 1600) for filtering a liquid metal and to be received in a mold housing defined by internal side and face walls, the filter comprising a top wall (12; 112; 212; 312; 412; 512; 612; 712; 1512; 1612) and first, second, third and fourth side walls (14, 16, 18, 20; 114, 116, 118, 120; 214, 216, 218, 220; 314, 316, 318, 320; 414, 416, 418, 420; 514, 516, 518, 520; 614, 616, 618, 620; 714, 716, 718, 720; 1514, 1516, 1518, 1520, 1614, 1616, 1618, 1620) extending downwardly from the top wall, the first, second, third and fourth side walls being joined together at respective first, second, third and fourth corners (22, 24, 26, 28; 122, 124, 126, 128; 222, 224, 226, 228; 322, 324, 326, 328; 422, 424, 426, 428; 522, 524, 526, 528; 622, 624, 626, 628; 722, 724, 726, 728; 1522, 1524, 1526, 1528; 1622, 1624, 1626, 1628), the first, second, third and fourth side walls extending downwardly towards first, second, third and fourth distal end portions (230, 232, 234, 236; 330, 332, 334, 336; 430, 432, 434, 436; 530, 532, 534, 536; 1530, 1532, 1534, 1536; 1630, 1632, 1634, 1636), wherein the filter (i) is made of a rigidified fabric comprising heat resistant fibers or threads of heat resistant fibers (ii) is obtained by moulding and hardening of a flat sheet of a fabric comprising the heat resistant fibers or the threads of heat resistant fibers to form said top wall, said first, second, third and fourth side walls and said first, second, third and fourth corners, and (iii) has a deflection strength, wherein - the top wall and the first, second, third and fourth side walls have a first fiber density and the first, second, third and fourth corners have a second fiber density, the second fiber density being higher than the first fiber density such that the first, second, third and fourth corners define first, second, third and fourth stiffening corners; and - the top wall and the first, second, third and fourth side walls have a first stiffness and the first, second, third and fourth corners have a second stiffness, the second stiffness being higher than the first stiffness. (i) is made of a rigidified fabric comprising heat resistant fibers or threads of heat resistant fibers (ii) is obtained by moulding and hardening of a flat sheet of a fabric comprising the heat resistant fibers or the threads of heat resistant fibers to form said top wall, said first, second, third and fourth side walls and said first, second, third and fourth corners, and (iii) has a deflection strength, - the top wall and the first, second, third and fourth side walls have a first fiber density and the first, second, third and fourth corners have a second fiber density, the second fiber density being higher than the first fiber density such that the first, second, third and fourth corners define first, second, third and fourth stiffening corners; and - the top wall and the first, second, third and fourth side walls have a first stiffness and the first, second, third and fourth corners have a second stiffness, the second stiffness being higher than the first stiffness.
Method for producing an individual battery cell having a stack or winding of electrodes (2, 3) and separators, at least one of the electrodes (2, 3) comprising collector tabs which project laterally in one direction beyond the stack or winding and are welded to one another, characterized in that the collector tabs are compacted and attached by welding on their side facing the stack or winding, after which the compacted and welded collector tabs are gripped by a welding electrode on their side facing away from the stack or winding and wound around the welding electrode in the direction of the stack or winding, and after which a cell cover of the individual battery cell is welded to the wound collector tabs.
A refrigerating apparatus in which a refrigerant circuit is constituted of compression means, a gas cooler, an intermediate heat exchanger, main reducing means (62A, 62B), an evaporator and control means, characterized in that auxiliary reducing means are provided and that the refrigerating apparatus is configured to branch a refrigerant exiting from the gas cooler into two flows, pass a first refrigerant flow through a first flow path of the intermediate heat exchanger via the auxiliary reducing means, pass a second refrigerant flow through a second flow path of the intermediate heat exchanger and then through the evaporator (63A, 63B) via the main reducing means (62A, 62B), perform heat exchange between the first refrigerant flow and the second refrigerant flow in the intermediate heat exchanger, suck the refrigerant exiting from the evaporator (63A, 63B) into a low pressure portion of the compression means and suck the first refrigerant flow exiting from the intermediate heat exchanger into a medium pressure portion of the compression means, to obtain a supercritical pressure on a high pressure side, wherein the control means control the auxiliary reducing means, wherein the control means calculates a first control amount exerted in such a direction as to increase an open degree of the auxiliary reducing means in a case where a temperature of the refrigerant discharged from the compression means is higher than a predetermined value DT0, a second control amount exerted in such a direction as to increase the open degree of the auxiliary reducing means in a case where an over-compression judgment value obtained from a pressures of a medium pressure region of the refrigerant circuit and a low pressure side pressure of the refrigerant circuit is lower than a high pressure side pressure of the refrigerant circuit, and a third control amount exerted in such a direction as to increase the open degree of the auxiliary reducing means in a case where a difference (GCT-LT) between a temperature of the refrigerant discharged from the gas cooler and a temperature of the second refrigerant flow discharged from the intermediate heat exchanger is smaller than a predetermined value SP, and the control means adds up the first to third control amounts to determine an operation amount of the valve open degree of the auxiliary reducing means.
Intraocular lens having an optics body which comprises an optical axis, a first haptic comprising a first partial haptic and a second partial haptic both attached to the optics body, characterized in that the first partial haptic and the second partial haptic are arranged next to one another in an axial direction with respect to the optical axis and have a convergence state and a divergence state in which the first partial haptic and the second partial haptic are further apart from one another than in the convergence state, and a superabsorber arranged between the first partial haptic and the second partial haptic in the axial direction and configured to increase its volume by absorbing water and thus transfer the first partial haptic and the second partial haptic from the convergence state to the divergence state.
An oral formulation, comprising pomegranate extract, panax ginseng extract, and- cordyceps sinensis each present in an amount effective to counteract effects of aging in a subject when administered to the subject, wherein the oral formulation is more effective to counteract the effects in the subject to a greater degree than any one of pomegranate extract, panax ginseng extract, and cordyceps sinensis, and wherein the formulation includes at least one anamorph strain found on cordyceps fungus selected from paecilomyces hepialis and hirsutella sinensis.
Scattered light smoke detector having a housing shell and a circuit substrate accommodated thereon, wherein at least one light emitter and one light receiver are arranged on the circuit substrate, wherein the circuit substrate has an inner face disposed opposite the housing shell and an outer face disposed opposite the inner face, wherein the light emitter is embodied for emitting a light beam having a directional ray, wherein the light emitter and the light receiver are arranged in a scattered light array, and wherein a part of the path travelled by the directional ray between light emitter and the scattered light volume runs parallel to the outer face of the circuit substrate, characterised in that the scattered light array is provided for smoke detection in a scattered light volume located in the open air outside of the scattered light smoke detector.
A kit for amplifying a nucleic acid sample, said kit comprising a set of amplification primers to said nucleic acid sample, said set comprising a mixture of: a plurality of locus specific primers configured to amplify at least 100 predetermined regions of said nucleic acid sample, optionally wherein the at least 100 predetermined regions are evenly distributed across said nucleic acid sample and, a plurality of random primers, wherein said random primers are in greater abundance compared to said locus specific primers, and a plurality of blocked primers designed to hybridise to an overamplified region of said nucleic acid, optionally wherein said overamplified region is a highly repetitive region, a set of instructions for using said random primers and said locus specific primers in an amplification reaction, and a set of instructions for combining said set of amplification primers with a nucleic acid library and amplifying said nucleic acid library, wherein the combining provides for reduced amplification bias relative to random primer amplification. a plurality of locus specific primers configured to amplify at least 100 predetermined regions of said nucleic acid sample, optionally wherein the at least 100 predetermined regions are evenly distributed across said nucleic acid sample and, a plurality of random primers, wherein said random primers are in greater abundance compared to said locus specific primers, and a plurality of blocked primers designed to hybridise to an overamplified region of said nucleic acid, optionally wherein said overamplified region is a highly repetitive region, a set of instructions for using said random primers and said locus specific primers in an amplification reaction, and a set of instructions for combining said set of amplification primers with a nucleic acid library and amplifying said nucleic acid library, wherein the combining provides for reduced amplification bias relative to random primer amplification.
A cord lock, comprising a female member having a first opening, a second opening, an insertion path for a string therebetween, and female-side fastening portions formed in the insertion path; a male member having one portion entering into the insertion path from a side of the first opening, and male-side fastening portions at the one portion adapted to be fastened to the string inserted to pass through the insertion path in cooperation with the female-side fastening portions; and a spring member interposed between the female member and the male member, wherein fastening relative to the string is released by a pulling operation of reducing an entering amount of the one portion of the male member into the insertion path, the spring member storing energy by the pulling operation, and wherein a second contact portion of one spring end of the spring member is integrally formed with the male member, characterized in that a first contact portion of another spring end of the spring member is integrally formed with the female member.
An apparatus comprising: a first process component for directly contacting a first process fluid, the first process component having a first cavity in a wall of the first process component that contacts the first process fluid; a first heat pipe formed in part by the wall that contacts the first process fluid, the first cavity in the wall, and a first working fluid within the cavity; and a thermoelectric generator assembly; wherein the first heat pipe is thermally coupled to a first side of the thermoelectric generator assembly and a heat sink is thermally coupled to a second side of the thermoelectric generator assembly, so that heat is transferred from the first process fluid through the wall to the first working fluid and from the first working fluid to the first side of the thermoelectric generator, wherein the thermoelectric generator assembly produces electrical power. a first process component for directly contacting a first process fluid, the first process component having a first cavity in a wall of the first process component that contacts the first process fluid; a first heat pipe formed in part by the wall that contacts the first process fluid, the first cavity in the wall, and a first working fluid within the cavity; and a thermoelectric generator assembly; wherein the first heat pipe is thermally coupled to a first side of the thermoelectric generator assembly and a heat sink is thermally coupled to a second side of the thermoelectric generator assembly, so that heat is transferred from the first process fluid through the wall to the first working fluid and from the first working fluid to the first side of the thermoelectric generator, wherein the thermoelectric generator assembly produces electrical power.
A rotary engine comprising: a housing defining a rotor cavity; and a rotor rotationally received in the rotor cavity, characterised in that: the rotor cavity is defined with a peripheral inner surface having a peritrochoid configuration defined by a first eccentricity e H; and the rotor has a peripheral outer surface defining a plurality of circumferentially spaced apex portions each including an apex seal biased away from the peripheral outer surface and engaging the peripheral inner surface of the rotor cavity, the peripheral outer surface of the rotor having a peritrochoid inner envelope configuration defined by a second eccentricity e R, the second eccentricity e R being larger than the first eccentricity e H. a housing defining a rotor cavity; and a rotor rotationally received in the rotor cavity, characterised in that: the rotor cavity is defined with a peripheral inner surface having a peritrochoid configuration defined by a first eccentricity e H; and the rotor has a peripheral outer surface defining a plurality of circumferentially spaced apex portions each including an apex seal biased away from the peripheral outer surface and engaging the peripheral inner surface of the rotor cavity, the peripheral outer surface of the rotor having a peritrochoid inner envelope configuration defined by a second eccentricity e R, the second eccentricity e R being larger than the first eccentricity e H. the rotor cavity is defined with a peripheral inner surface having a peritrochoid configuration defined by a first eccentricity e H; and the rotor has a peripheral outer surface defining a plurality of circumferentially spaced apex portions each including an apex seal biased away from the peripheral outer surface and engaging the peripheral inner surface of the rotor cavity, the peripheral outer surface of the rotor having a peritrochoid inner envelope configuration defined by a second eccentricity e R, the second eccentricity e R being larger than the first eccentricity e H.
A light emitting diode package comprising: a package body having a front surface, side surfaces and a back surface, and a recess-shaped mount formed in the front surface; a pair of electrodes; a light emitting diode mounted in the recess-shaped mount on the front surface of the package body; a barrier rib formed inside the recess-shaped mount on the front surface of the package body and arranged around the light emitting diode, wherein the barrier rib is transparent; and a phosphor layer filled in spaces between the barrier rib and the light emitting diode, wherein the thickness of the phosphor layer over the upper surface of the light emitting diode is equal to the thickness of the phosphor layer over each side surface of the light emitting diode characterized in that: - the package body has side grooves formed in opposite side surfaces of the package body; the barrier rib is disposed on the pair of electrodes and is made of a photosensitive polymer; the pair of electrodes are formed on the package body such that each electrode comprises a front-side electrode connected to the light emitting diode and a back-side electrode formed at the back surface of the package body and connected to the front-side electrode via through holes such that each electrode connects an interior surface of the recess-shaped mount, an associated one of the side grooves and the back surface of the package body; and the side grooves form the through holes. a package body having a front surface, side surfaces and a back surface, and a recess-shaped mount formed in the front surface; a pair of electrodes; a light emitting diode mounted in the recess-shaped mount on the front surface of the package body; a barrier rib formed inside the recess-shaped mount on the front surface of the package body and arranged around the light emitting diode, wherein the barrier rib is transparent; and a phosphor layer filled in spaces between the barrier rib and the light emitting diode, wherein the thickness of the phosphor layer over the upper surface of the light emitting diode is equal to the thickness of the phosphor layer over each side surface of the light emitting diode characterized in that: - the package body has side grooves formed in opposite side surfaces of the package body; the barrier rib is disposed on the pair of electrodes and is made of a photosensitive polymer; the pair of electrodes are formed on the package body such that each electrode comprises a front-side electrode connected to the light emitting diode and a back-side electrode formed at the back surface of the package body and connected to the front-side electrode via through holes such that each electrode connects an interior surface of the recess-shaped mount, an associated one of the side grooves and the back surface of the package body; and the side grooves form the through holes.
A method, comprising: determining the location of a mobile device configured to be transported, carried or worn by a user at a plurality of times during a journey from a first location to a second location using location determining means; measuring acceleration values indicative of the movement of the user and/or device at a plurality of times during the journey at a first frequency using acceleration measurement means; generating values representative of the measured acceleration values at a second frequency, which is lower than the first frequency, said step of generating comprising: defining a plurality of time windows, each time window containing a plurality of measured acceleration values; and applying a transformation to the measured acceleration values within each time window to generate a plurality of transformed values; selecting, for each time window, at least one of said plurality of transformed values and/or one or more parameters associated therewith to be stored; storing data received from and/or derived from the location determining means and the selected data derived from the acceleration measurement means (207,209); and transmitting the stored data from the mobile device to a remote server for use in providing a representation of the journey. determining the location of a mobile device configured to be transported, carried or worn by a user at a plurality of times during a journey from a first location to a second location using location determining means; measuring acceleration values indicative of the movement of the user and/or device at a plurality of times during the journey at a first frequency using acceleration measurement means; generating values representative of the measured acceleration values at a second frequency, which is lower than the first frequency, said step of generating comprising: defining a plurality of time windows, each time window containing a plurality of measured acceleration values; and applying a transformation to the measured acceleration values within each time window to generate a plurality of transformed values; defining a plurality of time windows, each time window containing a plurality of measured acceleration values; and applying a transformation to the measured acceleration values within each time window to generate a plurality of transformed values; selecting, for each time window, at least one of said plurality of transformed values and/or one or more parameters associated therewith to be stored; storing data received from and/or derived from the location determining means and the selected data derived from the acceleration measurement means (207,209); and transmitting the stored data from the mobile device to a remote server for use in providing a representation of the journey.
A structure comprising: a plurality of LEDs attached to a mount; a wavelength converting layer disposed over the LEDs; a transparent protective layer disposed over the wavelength converting layer; and reflective material, wherein at the edge of the structure the reflective material is in direct contact with side surfaces of the LEDs, side surfaces of the wavelength converting layer and side surfaces of the protective layer, and optionally reflective material is disposed between neighboring LEDs in direct contact with the side surfaces of the LEDs, the side surfaces of the wavelength converting layer and the side surfaces of the protective layer. a plurality of LEDs attached to a mount; a wavelength converting layer disposed over the LEDs; a transparent protective layer disposed over the wavelength converting layer; and reflective material, wherein at the edge of the structure the reflective material is in direct contact with side surfaces of the LEDs, side surfaces of the wavelength converting layer and side surfaces of the protective layer, and optionally reflective material is disposed between neighboring LEDs in direct contact with the side surfaces of the LEDs, the side surfaces of the wavelength converting layer and the side surfaces of the protective layer.
An apparatus comprising: a downconverter to downconvert an input signal and provide a downconverted signal; a notch filter to filter the downconverted signal and provide a filtered signal; characterised in that the apparatus further comprises: an upconverter to upconvert the filtered signal and provide a feedback signal used to cancel an undesired signal in the input signal; wherein the notch filter passes the undesired signal and attenuates a jammer and a desired signal in the input signal. a downconverter to downconvert an input signal and provide a downconverted signal; a notch filter to filter the downconverted signal and provide a filtered signal; characterised in that the apparatus further comprises: an upconverter to upconvert the filtered signal and provide a feedback signal used to cancel an undesired signal in the input signal; wherein the notch filter passes the undesired signal and attenuates a jammer and a desired signal in the input signal. an upconverter to upconvert the filtered signal and provide a feedback signal used to cancel an undesired signal in the input signal; wherein the notch filter passes the undesired signal and attenuates a jammer and a desired signal in the input signal.