mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for degassing a battery cell, comprising: a gas suction portion providing negative pressure; a first tubular member connected to the gas suction portion, and having at least one suction port formed in a form of a through-hole in a radial direction of the first tubular member; a second tubular member connected to the gas suction portion, and provided to be coupled to the first tubular member; and a hemispherical cover (147, 157) coupled to the first tubular member and the second tubular member, respectively, wherein the hemispherical cover (147, 157) comprises a first cover coupled to the first tubular member and a second cover coupled to the second tubular member, when the first tubular member and the second tubular member are coupled, the first cover and the second cover are disposed such that openings face each other, and the suction port is disposed between the first cover and the second cover, wherein the first tubular member penetrates through a gas chamber of the battery cell and is coupled to the second tubular member, and the hemispherical cover (147, 157) is in close contact with an exterior material forming the gas chamber to block an internal space of the gas chamber from an external space of the gas chamber, wherein when the first tubular member penetrates through the gas chamber and is coupled to the second tubular member, the suction port is disposed inside the gas chamber. a gas suction portion providing negative pressure; a first tubular member connected to the gas suction portion, and having at least one suction port formed in a form of a through-hole in a radial direction of the first tubular member; a second tubular member connected to the gas suction portion, and provided to be coupled to the first tubular member; and a hemispherical cover (147, 157) coupled to the first tubular member and the second tubular member, respectively, wherein the hemispherical cover (147, 157) comprises a first cover coupled to the first tubular member and a second cover coupled to the second tubular member, when the first tubular member and the second tubular member are coupled, the first cover and the second cover are disposed such that openings face each other, and the suction port is disposed between the first cover and the second cover, wherein the first tubular member penetrates through a gas chamber of the battery cell and is coupled to the second tubular member, and the hemispherical cover (147, 157) is in close contact with an exterior material forming the gas chamber to block an internal space of the gas chamber from an external space of the gas chamber, wherein when the first tubular member penetrates through the gas chamber and is coupled to the second tubular member, the suction port is disposed inside the gas chamber.
A conjugate acid salt of N,N-dimethylglycine with metal and organic acid, characterized in that, it has a following structural formula: [(CH 3) 2 NCH 2 COO] n M·[Organic acid] wherein, n is 1 or 2; M is selected from an alkali metal ion or a divalent metal ion; the organic acid is selected from an organic polyacid, a C 2 -C 18 linear fatty acid or an aromatic acid.
Spacecraft comprising a body having at least one face (16, 18), at least one radiator (22, 23) carried by said face (16, 18) and at least one thermal insulation device (28,58,64,74,88,96,98,99,106,118,122) carried by the radiator (22,23), said thermal insulation device (28,58,64,74, 88,96,98, 99,106,118,122) comprising: - a first screen device able to cover a first area of said radiator (22, 23), said first screen device comprising a thermally insulating and flexible sheet and - a traction device (34, 60) able to pull in a pulling direction so that the insulating sheet covers the first area in a mode referred to as deployed mode characterized in that said thermal insulation device (28,58,64,74, 88,96,98, 99,106,118,122) further comprises at least two springs able to generate a constant reaction force, said springs being preformed so as to roll onto themselves at rest, said springs being fixed to the insulating sheet, said springs each having a first end fixed to a traction device (34,60) and a second end fixed to the radiator (22, 23); and in that the traction device (34, 60) is configured to pull on the first end of said springs of the first screen device, said traction device (34, 60) being able to release the first end of said springs in order to expose the first area to the space environment in a mode referred to as exposure mode. - a first screen device able to cover a first area of said radiator (22, 23), said first screen device comprising a thermally insulating and flexible sheet and - a traction device (34, 60) able to pull in a pulling direction so that the insulating sheet covers the first area in a mode referred to as deployed mode
Sensor for detecting a physical or chemical property from the surroundings of the sensor, which has at least the following components: a measured value pickup, an apparatus for generating a measurement signal and for transmitting same, a housing for protecting at least one of said components, and at least one outer-lying electrical connection for outputting an electrical measurement signal, characterized in that the electrical connection is formed by a spring in connection with a contact area inside the housing, subsequently referred to as inner contact area, wherein the spring extends from the inner contact area through the housing wall and forms outside of the housing an outer contact area, wherein an electrically conductive path between the inner contact area and the outer contact area is able to be produced by means of the spring.
An ultrasonic probe comprising: a piezoelectric layer that vibrates and generates ultrasonic waves if a current is supplied to the piezoelectric layer; a thermoelectric element that contacts one surface of an application specific integrated circuit (ASIC, 11a) and controls the temperature of the piezoelectric layer if a current is supplied to the thermoelectric element, with the bottom surface of the thermoelectric element being a heat dissipation plate and the top surface of the thermoelectric element being a heat absorption plate, and the ASIC being disposed between the piezoelectric layer and the thermoelectric element, wherein the ASIC makes surface contact with the bottom surface of the piezoelectric layer and is configured to control a current transmitted to the piezoelectric layer; a shared signal electrode disposed on the bottom surface of the thermoelectric element and configured to supply current; a shared ground electrode disposed on the upper surface of the piezoelectric layer and configured to discharge current flowing through the ASIC, the thermoelectric element and the piezoelectric layer. a piezoelectric layer that vibrates and generates ultrasonic waves if a current is supplied to the piezoelectric layer; a thermoelectric element that contacts one surface of an application specific integrated circuit (ASIC, 11a) and controls the temperature of the piezoelectric layer if a current is supplied to the thermoelectric element, with the bottom surface of the thermoelectric element being a heat dissipation plate and the top surface of the thermoelectric element being a heat absorption plate, and the ASIC being disposed between the piezoelectric layer and the thermoelectric element, wherein the ASIC makes surface contact with the bottom surface of the piezoelectric layer and is configured to control a current transmitted to the piezoelectric layer; a shared signal electrode disposed on the bottom surface of the thermoelectric element and configured to supply current; a shared ground electrode disposed on the upper surface of the piezoelectric layer and configured to discharge current flowing through the ASIC, the thermoelectric element and the piezoelectric layer.
A clear multi-layered liquid cosmetic comprising: not less than 0.0005% by weight, and not more than 1% by weight of a nonionic surfactant comprising a single species of nonionic surfactant, or a mixed surfactant containing two or more species of nonionic surfactants mixed therein, having an HLB of the single species of nonionic surfactant or the mixed surfactant of 5 to 11; not less than 0.05% by weight, and not more than 5% by weight of a water-soluble cellulose derivative; not less than 10% by weight, and not more than 90% by weight of an oil having a viscosity at 30°C of not more than 30 mPa·s; and water, wherein the cosmetic is configured to separate into multiple layers when allowed to stand still, and to form an O/W-type emulsion when mixed by shaking, and wherein the ratio by weight given by / is not less than 2, and not more than 500. not less than 0.0005% by weight, and not more than 1% by weight of a nonionic surfactant comprising a single species of nonionic surfactant, or a mixed surfactant containing two or more species of nonionic surfactants mixed therein, having an HLB of the single species of nonionic surfactant or the mixed surfactant of 5 to 11; not less than 0.05% by weight, and not more than 5% by weight of a water-soluble cellulose derivative; not less than 10% by weight, and not more than 90% by weight of an oil having a viscosity at 30°C of not more than 30 mPa·s; and water,
A system for determining battery characteristics based on differential current monitoring, the system comprising: a first battery (101,201,301,401,501,601,701); a second battery (102,202,302,402,502,602,702), the second battery (102,202,302,402,502,602,702) being connected in parallel with the first battery (101,201,301,401,501,601,701); and a differential current measurement module comprising at least one current measuring device (203,303,405,503,605,704), the differential current measurement module being configured to determine a differential current associated with the parallel connected first battery (101,201,301,401,501,601,701) and the second battery (102,202,302,402,502,602,702); characterised in that the differential current measurement module is configured to use the differential current associated with the parallel connected first battery (101,201,301,401,501,601,701) and the second battery (102,202,302,402,502,602,702) to: a) determine a net flow of charge from one battery to the other battery over the course of one or more complete charge/discharge cycles in order to monitor battery health; or b) determine the average value of the differential current over a predetermined period of time wherein a shift in magnitude of the average differential current away from zero indicates the presence of an internal short circuit. a first battery (101,201,301,401,501,601,701); a second battery (102,202,302,402,502,602,702), the second battery (102,202,302,402,502,602,702) being connected in parallel with the first battery (101,201,301,401,501,601,701); and a differential current measurement module comprising at least one current measuring device (203,303,405,503,605,704), the differential current measurement module being configured to determine a differential current associated with the parallel connected first battery (101,201,301,401,501,601,701) and the second battery (102,202,302,402,502,602,702); characterised in that the differential current measurement module is configured to use the differential current associated with the parallel connected first battery (101,201,301,401,501,601,701) and the second battery (102,202,302,402,502,602,702) to: a) determine a net flow of charge from one battery to the other battery over the course of one or more complete charge/discharge cycles in order to monitor battery health; or b) determine the average value of the differential current over a predetermined period of time wherein a shift in magnitude of the average differential current away from zero indicates the presence of an internal short circuit. a) determine a net flow of charge from one battery to the other battery over the course of one or more complete charge/discharge cycles in order to monitor battery health; or b) determine the average value of the differential current over a predetermined period of time wherein a shift in magnitude of the average differential current away from zero indicates the presence of an internal short circuit.
A device for automated producing of a prepared food product, e.g. a cooked egg product, from a food ingredient, e.g. comprising a raw egg, the device comprising - at least one holder provided with at least one recipient having an inner surface, said holder being arranged for holding, after placement of the food ingredient in the recipient, the food ingredient in the recipient in contact with said inner surface, - and further comprising means (3, 13) for subjecting the food ingredient to a temperature-time regime to obtain, in the at least one recipient, the prepared food product, characterised in that the device comprises at a de-moulding position of the prepared food product, at least one nozzle for ejecting a fluid to form a fluid jet, said nozzle being positioned so that, in use, the fluid jet impinges at an impingement position of the recipient so that a fluid film is produced, wherein the impingement position extends along at least part of a contact edge between the prepared food product and the inner surface of the recipient and is arranged such that the fluid film reaches the recipient and extends between the food product and the inner surface of the recipient, wherein a volumetric flow rate and dimension of the fluid jet are arranged to permit loosening the heated food product from at least part, and preferably all, of the inner surface of the recipient. - at least one holder provided with at least one recipient having an inner surface, said holder being arranged for holding, after placement of the food ingredient in the recipient, the food ingredient in the recipient in contact with said inner surface, - and further comprising means (3, 13) for subjecting the food ingredient to a temperature-time regime to obtain, in the at least one recipient, the prepared food product,
An injection molding machine comprising: a moving mechanism configured to move a movable platen in a mold opening and closing direction with respect to a stationary platen; a mold clamping force detector configured to detect an actual value of a mold clamping force; a control unit configured to control the moving mechanism, based on the actual value of the mold clamping force detected at a predetermined acquisition timing during a molding cycle; and a display unit configured to display a setting screen to which the acquisition timing is input, characterized in that the control unit is configured to acquire the actual value of the mold clamping force detected at the acquisition timing input to the setting screen, and the acquisition timing of the actual value of the mold clamping force is changed to assume a value lying between a mold closing process and a mold opening process, based on the acquisition timing input to the setting screen. a moving mechanism configured to move a movable platen in a mold opening and closing direction with respect to a stationary platen; a mold clamping force detector configured to detect an actual value of a mold clamping force; a control unit configured to control the moving mechanism, based on the actual value of the mold clamping force detected at a predetermined acquisition timing during a molding cycle; and a display unit configured to display a setting screen to which the acquisition timing is input, characterized in that the control unit is configured to acquire the actual value of the mold clamping force detected at the acquisition timing input to the setting screen, and the acquisition timing of the actual value of the mold clamping force is changed to assume a value lying between a mold closing process and a mold opening process, based on the acquisition timing input to the setting screen.
A bending tube for endoscope, the bending tube comprising: a cylindrical bending tube body made of superelastic alloy material; multiple slots for bending (33a, 33b) provided at set intervals, respectively, along a direction of a longitudinal axis of the bending tube body, the multiple slots for bending extending in a circumferential direction of the bending tube body; and a wire guide (35a, 35b) formed by using paired particular slots for bending (33a', 33b') among the multiple slots for bending (33a, 33b) also as slots for forming wire guide and deforming a circumferential part of the bending tube body between the paired particular slots for bending (33a', 33b') in an inner diameter direction over an entire width between the particular slots for bending (33a', 33b'), said paired particular slots adjoining each other; characterized in that a width of the particular slots for bending (33a', 33b') used also as the slots for forming wire guide is set narrower than a width of other slots for bending (33a, 33b) which are not used as slots for forming wire guide, such that a folding angle (α2) of the bending tube body determined by front and back wall parts of each of the particular slots for bending (33a', 33b') used also as the slots for forming wire guide is equal to a folding angle (α1) of the bending tube body determined by front and back wall parts of each of the other slots for bending (33a, 33b) which are not used as slots for forming wire guide. a cylindrical bending tube body made of superelastic alloy material; multiple slots for bending (33a, 33b) provided at set intervals, respectively, along a direction of a longitudinal axis of the bending tube body, the multiple slots for bending extending in a circumferential direction of the bending tube body; and a wire guide (35a, 35b) formed by using paired particular slots for bending (33a', 33b') among the multiple slots for bending (33a, 33b) also as slots for forming wire guide and deforming a circumferential part of the bending tube body between the paired particular slots for bending (33a', 33b') in an inner diameter direction over an entire width between the particular slots for bending (33a', 33b'), said paired particular slots adjoining each other; characterized in that a width of the particular slots for bending (33a', 33b') used also as the slots for forming wire guide is set narrower than a width of other slots for bending (33a, 33b) which are not used as slots for forming wire guide, such that a folding angle (α2) of the bending tube body determined by front and back wall parts of each of the particular slots for bending (33a', 33b') used also as the slots for forming wire guide is equal to a folding angle (α1) of the bending tube body determined by front and back wall parts of each of the other slots for bending (33a, 33b) which are not used as slots for forming wire guide.
Polymethylmethacrylate bone cement composition for controlled hyperthermia treatment, containing A. polymethylmethacrylate; B. radio-opaquer; C. methylmethacrylate and/or alkyl methacrylates; D. initiator system; E. ferromagnetic and/or superparamagnetic particles having a particle size of maximally 500 μm as well as F. at least one biodegradable or biocompatible crystalline substance having a melting point in the range of 42-80°C. A. polymethylmethacrylate; B. radio-opaquer; C. methylmethacrylate and/or alkyl methacrylates; D. initiator system; E. ferromagnetic and/or superparamagnetic particles having a particle size of maximally 500 μm as well as F. at least one biodegradable or biocompatible crystalline substance having a melting point in the range of 42-80°C.
An assembly for supplying electrical power to a heater cable in a wellbore, the assembly comprising a heater cable connected to a pump power cable via a connector: the heater cable comprising a cold lead comprising a stripped terminal end; the pump power cable comprising a conductor lead comprising a stripped terminal end and a metal sheath covering the pump power cable; the connector comprising: a conductive sleeve assembly joining the stripped terminal end of the heater cable cold lead and the stripped terminal end of the pump power cable conductor lead; an insulating boot covering the conductive sleeve assembly and disposed inside a protective outer sleeve; a covering for the cold lead of the heater cable, the covering having an extrusion limiting top stop retaining said covering at a first end of said protective sleeve in a spaced relationship with the conductive sleeve assembly; the protective outer sleeve being affixed over said insulating boot, where the connective covering is connected over the cold lead of the heater cable and the metal sheath covering the pump power cable to seal and maintain the terminal ends (102, 316) of each of the heater cable and the pump power cable within said protective outer sleeve in a spaced relationship and said protective outer sleeve providing therein an epoxy coating adjacent an extrusion limiting bottom stop at a second end of said protective outer sleeve. the heater cable comprising a cold lead comprising a stripped terminal end; the pump power cable comprising a conductor lead comprising a stripped terminal end and a metal sheath covering the pump power cable; the connector comprising: a conductive sleeve assembly joining the stripped terminal end of the heater cable cold lead and the stripped terminal end of the pump power cable conductor lead; an insulating boot covering the conductive sleeve assembly and disposed inside a protective outer sleeve; a covering for the cold lead of the heater cable, the covering having an extrusion limiting top stop retaining said covering at a first end of said protective sleeve in a spaced relationship with the conductive sleeve assembly; a conductive sleeve assembly joining the stripped terminal end of the heater cable cold lead and the stripped terminal end of the pump power cable conductor lead; an insulating boot covering the conductive sleeve assembly and disposed inside a protective outer sleeve; a covering for the cold lead of the heater cable, the covering having an extrusion limiting top stop retaining said covering at a first end of said protective sleeve in a spaced relationship with the conductive sleeve assembly; the protective outer sleeve being affixed over said insulating boot, where the connective covering is connected over the cold lead of the heater cable and the metal sheath covering the pump power cable to seal and maintain the terminal ends (102, 316) of each of the heater cable and the pump power cable within said protective outer sleeve in a spaced relationship and said protective outer sleeve providing therein an epoxy coating adjacent an extrusion limiting bottom stop at a second end of said protective outer sleeve.