mhurhangee/ep-ind-claims huggingface dataset:
A refrigerator, comprising: a refrigerator body having a cooling chamber; a case comprising a case body having therein an accommodation space of which one side is open, and a transformation preventing member (160; 290; 300) formed of a material having a higher strength than that of the case body, the transformation preventing member (160; 290; 300) provided at an open region of the case body and configured to prevent transformation of the case; a drawer accommodated in the case in a withdrawable manner; and a depressurizing device configured to depressurize inside of the drawer and the case to a pressure lower than an atmospheric pressure, when the drawer is accommodated in the case, wherein the case body comprises a plurality of protrusions or ribs protruding from an outer surface of the case body, wherein a flange portion, which extends to an outside along the edge of the open region, is provided on the case body, and wherein the transformation preventing member (160; 290; 300) is disposed on a rear surface of the flange portion, characterized in that a mounting portion is provided at a rear surface of the flange portion and concaved from the rear surface of the flange portion in a thickness direction so that the transformation preventing member (160; 290; 300) is inserted therein. a refrigerator body having a cooling chamber; a case comprising a case body having therein an accommodation space of which one side is open, and a transformation preventing member (160; 290; 300) formed of a material having a higher strength than that of the case body, the transformation preventing member (160; 290; 300) provided at an open region of the case body and configured to prevent transformation of the case; a drawer accommodated in the case in a withdrawable manner; and a depressurizing device configured to depressurize inside of the drawer and the case to a pressure lower than an atmospheric pressure, when the drawer is accommodated in the case, wherein the case body comprises a plurality of protrusions or ribs protruding from an outer surface of the case body, wherein a flange portion, which extends to an outside along the edge of the open region, is provided on the case body, and wherein the transformation preventing member (160; 290; 300) is disposed on a rear surface of the flange portion, characterized in that a mounting portion is provided at a rear surface of the flange portion and concaved from the rear surface of the flange portion in a thickness direction so that the transformation preventing member (160; 290; 300) is inserted therein.
A composition for administration of a pharmacologically active compound to a mammal comprising a salt of a basic pharmacologically active compound and a lipophilic acid wherein the lipophilic acid is selected from the group consisting of saturated or unsaturated fatty acids, cholic acids, phospatidic acids, dicarboxylic acids (like sebacic acid), polysebacic acid and polybenzoic acid; and a pharmaceutically acceptable organic solvent, wherein the pharmaceutically acceptable solvent is selected from the group consisting of one or a combination of: pyrrolidone, N-methyl pyrrolidone, polyethylene glycol, propylene glycol, glycerol formal, isosorbide dimethyl ether, ethanol, dimethyl sulfoxide, tetrahydrofurfuryl alcohol, and triacetin; combined together to form an injectable composition, wherein the composition forms a precipitate when the composition is introduced or injected into an aqueous environment and wherein the composition releases the active compound over time when introduced or injected into the aqueous environment.
A process for positioning a light-forming body, e.g., a reflector, relative to at least one LED light source, with the following steps: a) Attaching the at least one light source to a mounting plate; b) Measuring the position of the at least one light source on the mounting plate; c) Putting one or preferably more reference positions on the mounting plate, the position of the at least one reference position depending on the position of the at least one light source; d) Referencing, i.e., aligning the light-forming body to the reference position(s) on the mounting plate; and e) Fastening the light-forming body to the mounting plate or in relation to the mounting plate, the one or more reference positions being in the form of one or more holes, for example elongated holes, and/or in the form of one or more reference edges, preferably running in a straight line, characterized in that in step b) the geometric center of the at least one light source is determined and the reference positions are arranged on the mounting plate in relation to this geometric center, or the significantly brightest area or the brightest point of the at least one light source is determined and the reference positions are arranged on the mounting plate in relation to this significantly brightest area or this brightest point, the light-forming body being fastened in relation to the mounting plate, by fastening it, by means of at least one, preferably two, fastening elements to a heat sink to which the mounting plate is fastened. a) Attaching the at least one light source to a mounting plate; b) Measuring the position of the at least one light source on the mounting plate; c) Putting one or preferably more reference positions on the mounting plate, the position of the at least one reference position depending on the position of the at least one light source; d) Referencing, i.e., aligning the light-forming body to the reference position(s) on the mounting plate; and e) Fastening the light-forming body to the mounting plate or in relation to the mounting plate,
Process for cleaning a surface of a vehicle, comprising providing a cleaning concentrate, diluting the cleaning concentrate to obtain a cleaning composition and applying the cleaning composition to the surface of the vehicle, wherein the cleaning concentrate contains at least 50 wt.-% of ethylene glycol, at least 15 wt.-% of oxalic acid and at most 30 wt.-% of water, wherein wt.-% is based on the total weight of the cleaning concentrate.
A method of treating a livestock or poultry confinement facility to reduce and mitigate the effects of gaseous ammonia within the facility, said facility having a manure collection zone, upright walls forming an enclosure, and a roof substantially covering said zone, said method comprising the step of applying a treatment material to said manure within said zone in an amount of from about 0.0189-11.36 liter of said material per 1000 kg of manure (from about 0.005-3 gallons of said material per ton of manure) and effective to lower the concentration of gaseous ammonia within said facility, characterized in that said material comprises an aqueous mixture including from about 40-80% by weight of a partial calcium salt of a maleic-itaconic copolymer solid and from about 20-60% by weight of a partial ammonium salt of a maleic-itaconic copolymer solid, wherein the total amount of the solids is taken as 100% by weight, said material having a pH of from about 1-5.
A press belt made from an elastomer material and forming a closed loop, wherein the belt has a longitudinal direction and a transverse direction, and the belt further having an inner surface and an outer surface and three layers of reinforcement yarns (7', 5', 6') arranged inside the elastomer material, an innermost yarn layer closest to the inner surface being formed by longitudinal and transversely adjacent reinforcement yarns of the press belt, and a middle yarn layer being formed by transverse longitudinally adjacent reinforcement yarns of the press belt, and an outermost yarn layer closest to the outer surface of the press belt being formed by longitudinal and transversely adjacent reinforcement yarns of the press belt, characterized in that the material and/or structure of the reinforcement yarns of the outermost yarn layer is are more flexible than that of the reinforcement yarns of the innermost yarn layer, in such a manner that in connection with deformation of the press belt the yarns of the outermost layer absorb more energy and are restored from the deformation more slowly than the yarns of the innermost yarn layer.
Roof structure in a vehicle, wherein the roof structure is provided with printed electrical connection means for connecting electrical devices in the vehicle, wherein the electrical devices are integrated into the roof structure, characterized in that the electrical connection means are printed on the roof structure using a conductive ink.
Method for operating a gas turbine which in particular feeds power to a locally isolated power supply network, and which comprises a compressor for compressing combustion air drawn in from the environment, a combustion chamber for combusting supplied fuel by means of the compressed combustion air, a turbine driven by the hot gas stemming from the combustion chamber, and a generator driven by the turbine for producing electrical power, wherein one or more of the following parameters of the gas turbine is measured or determined: - the ambient temperature (T 1), - the compressor inlet temperature (T 2), - the compressor outlet temperature, - the turbine outlet temperature, - the ambient air pressure, - total or static absolute or positive pressure (p 3) at the compressor outlet, - the total or static absolute or positive pressure at the turbine inlet, - the pressure loss between the compressor outlet and the turbine inlet, - the rotation speed (n GT) of the gas turbine or the frequency of the power supply network, - the measured or specified mass flow (m fuel) of the fuel supplied to the combustion chamber, and - the lower heating value of the fuel, the effective thermal output power (P GT) of the gas turbine is calculated from the measured or determined parameters, and the calculated effective thermal output power (P GT) is used for regulating the gas turbine, characterised in that the effective thermal output power (P GT) of the gas turbine is calculated according to the equation P GT ∞ f 1 p 3 ⋅ f 2 m fuel ⋅ f 3 LHV ⋅ f 4 n GT ⋅ f 5 T 2 wherein f 1,..., f 5 are functions to be determined for the respective case, p 3 is the compressor outlet pressure, m fuel is the fuel mass flow, LHV is the lower heating value of the fuel, n GT is the rotation speed of the gas turbine, and T 2 is the compressor inlet temperature. - the ambient temperature (T 1), - the compressor inlet temperature (T 2), - the compressor outlet temperature, - the turbine outlet temperature, - the ambient air pressure, - total or static absolute or positive pressure (p 3) at the compressor outlet, - the total or static absolute or positive pressure at the turbine inlet, - the pressure loss between the compressor outlet and the turbine inlet, - the rotation speed (n GT) of the gas turbine or the frequency of the power supply network, - the measured or specified mass flow (m fuel) of the fuel supplied to the combustion chamber, and - the lower heating value of the fuel,
An aerosol-generating device configured to receive an aerosol-generating article, wherein the aerosol-generating device has a distal end and a mouth end, the aerosol-generating device comprising: a housing, the housing comprising a peripheral wall, the peripheral wall defining a device cavity having an open end for removably receiving the aerosol-generating article at the mouth end of the device, wherein the open end of the device cavity is located at the mouth end face t2t of the device; and a heater for heating the aerosol-generating article when the aerosol-generating article is received within the device cavity; wherein the housing comprises a ventilation chamber, the ventilation chamber being defined within the peripheral wall, and the ventilation chamber being configured to be in fluid communication with the exterior of the aerosol-generating device and an aerosol-generating article received within the device cavity, wherein the ventilation chamber is configured to be in fluid communication with the exterior of the aerosol-generating device through a chamber inlet defined within the thickness of the peripheral wall, the chamber inlet having a cross-sectional area that is smaller than a cross-sectional area of the ventilation chamber and extending between the ventilation chamber and the mouth end r face of the aerosol-generating device, further wherein a length of the ventilation chamber is less than or equal to 8 mm. a housing, the housing comprising a peripheral wall, the peripheral wall defining a device cavity having an open end for removably receiving the aerosol-generating article at the mouth end of the device, wherein the open end of the device cavity is located at the mouth end face t2t of the device; and a heater for heating the aerosol-generating article when the aerosol-generating article is received within the device cavity; wherein the housing comprises a ventilation chamber, the ventilation chamber being defined within the peripheral wall, and the ventilation chamber being configured to be in fluid communication with the exterior of the aerosol-generating device and an aerosol-generating article received within the device cavity, wherein the ventilation chamber is configured to be in fluid communication with the exterior of the aerosol-generating device through a chamber inlet defined within the thickness of the peripheral wall, the chamber inlet having a cross-sectional area that is smaller than a cross-sectional area of the ventilation chamber and extending between the ventilation chamber and the mouth end r face of the aerosol-generating device, further wherein a length of the ventilation chamber is less than or equal to 8 mm.
Fall-prevention device capable of shifting from a disengaged configuration to an engaged configuration to prevent the fall of an elevator which is capable of being moved along a rack of an elevator mast, said fall-prevention device comprising a frame, a lever, a roller pivotably connected to said lever and fixed to a first end of said lever, said roller being capable of rolling on a smooth face of the rack, a cleat fixed to a second end of said lever, said cleat comprising a toothed portion able to cooperate with a toothed face of the rack and being connected to the frame by means of a compression spring, and at least one shock absorber arranged on an upper part of said fall-prevention device, said fall-prevention device also being characterised in that it is in sliding connection with said elevator.
A thrust bearing disposed so as to face a thrust collar provided on a rotary shaft, the thrust bearing comprising: a top foil disposed so as to face the thrust collar; a back foil disposed on a side of the top foil opposite to another side of the top foil facing the thrust collar; and an annular plate-shaped base plate disposed on a side of the back foil opposite to the top foil, the base plate supporting the back foil; wherein the back foil is formed of a plurality of back foil pieces arranged in a circumferential direction of the base plate, wherein the top foil is formed of a plurality of top foil pieces disposed on the back foil pieces, and wherein a vibration-damping foil piece (51, 55) is disposed in each of positions between the back foil pieces and the top foil pieces, characterised in that: the top foil pieces and the vibration-damping foil piece (51, 55) are configured such that, in use, sliding occurs between the top foil pieces and the vibration-damping foil piece (51, 55), and the vibration-damping foil piece (51, 55) is disposed such that the separation between the vibration-damping foil piece (51, 55) and the base plate gradually increases from a leading side to a trailing side of the vibration-damping foil piece (51, 55) in a rotational direction of the rotary shaft. a top foil disposed so as to face the thrust collar; a back foil disposed on a side of the top foil opposite to another side of the top foil facing the thrust collar; and an annular plate-shaped base plate disposed on a side of the back foil opposite to the top foil, the base plate supporting the back foil; the top foil pieces and the vibration-damping foil piece (51, 55) are configured such that, in use, sliding occurs between the top foil pieces and the vibration-damping foil piece (51, 55), and the vibration-damping foil piece (51, 55) is disposed such that the separation between the vibration-damping foil piece (51, 55) and the base plate gradually increases from a leading side to a trailing side of the vibration-damping foil piece (51, 55) in a rotational direction of the rotary shaft.
A movable contact assembly for an electrical switching apparatus, said electrical switching apparatus including a housing assembly and a conductor assembly, said housing assembly defining an enclosed space, said conductor assembly substantially disposed in said housing assembly enclosed space, said conductor assembly including a load conductor, said movable contact assembly comprising: a number of shunts; a carriage assembly including two sidewalls (70,74) and a contact arm assembly; said carriage assembly sidewalls (70,74) disposed in a spaced relation; said contact arm assembly including a plurality of contact arms, a number of isolation members, a number of movable contacts, and an axle assembly; said axle assembly including an axle; each contact arm defining an opening; one said movable contact disposed on each said contact arm; each said contact arm rotatably coupled to said axle with said axle extending through said contact arm opening; each said isolation member disposed adjacent at least one contact arm; each isolation member coupled to, and in electrical communication with said adjacent contact arm; said shunts coupled to, and in electrical communication with, said isolation members; wherein no shunt operatively engages a contact arm; and wherein said isolation members and said contact arms are floatably coupled to said axle without any lateral compression and/or engagement by the carriage assembly sidewalls (70, 74), in a manner that allows a longitudinal shift on said axle, and that each contact arm is exposed to substantially the same frictional forces. a number of shunts; a carriage assembly including two sidewalls (70,74) and a contact arm assembly; said carriage assembly sidewalls (70,74) disposed in a spaced relation; said contact arm assembly including a plurality of contact arms, a number of isolation members, a number of movable contacts, and an axle assembly; said axle assembly including an axle; each contact arm defining an opening; one said movable contact disposed on each said contact arm; each said contact arm rotatably coupled to said axle with said axle extending through said contact arm opening; each said isolation member disposed adjacent at least one contact arm; each isolation member coupled to, and in electrical communication with said adjacent contact arm; said shunts coupled to, and in electrical communication with, said isolation members; wherein no shunt operatively engages a contact arm; and wherein said isolation members and said contact arms are floatably coupled to said axle without any lateral compression and/or engagement by the carriage assembly sidewalls (70, 74), in a manner that allows a longitudinal shift on said axle, and that each contact arm is exposed to substantially the same frictional forces.
A knitted component for an article of footwear, comprising: an overfoot portion and an underfoot portion for forming respective overfoot and underfoot portions of an article of footwear; a first yarn, wherein the first yarn at least partially forms the overfoot portion and at least partially forms the underfoot portion; and a second yarn, wherein the second yarn at least partially forms the overfoot portion and at least partially forms the underfoot portion, wherein the first yarn includes a first material composition, the first material composition including a first melting point, wherein the first material composition at least partially includes a first thermoplastic polymer material, wherein the second yarn includes a second material composition, the second material composition including a second melting point, wherein the second material composition at least partially includes a second thermoplastic polymer material, the second thermoplastic polymer material being different from the first thermoplastic polymer material, wherein the first melting point is at least 20 degrees Celsius higher than the second melting point, wherein the first melting point is 195 degrees Celsius or less, wherein the second melting point is 140 degrees Celsius or less, wherein the knitted component further comprises a third yarn with a third material composition, wherein the third material composition includes a third temperature equal to the lowest of a melting point and decomposition point of the third material composition, and wherein the third temperature is higher than the first melting point. an overfoot portion and an underfoot portion for forming respective overfoot and underfoot portions of an article of footwear; a first yarn, wherein the first yarn at least partially forms the overfoot portion and at least partially forms the underfoot portion; and a second yarn, wherein the second yarn at least partially forms the overfoot portion and at least partially forms the underfoot portion, wherein the first yarn includes a first material composition, the first material composition including a first melting point, wherein the first material composition at least partially includes a first thermoplastic polymer material, wherein the second yarn includes a second material composition, the second material composition including a second melting point, wherein the second material composition at least partially includes a second thermoplastic polymer material, the second thermoplastic polymer material being different from the first thermoplastic polymer material, wherein the first melting point is at least 20 degrees Celsius higher than the second melting point, wherein the first melting point is 195 degrees Celsius or less, wherein the second melting point is 140 degrees Celsius or less, wherein the knitted component further comprises a third yarn with a third material composition, wherein the third material composition includes a third temperature equal to the lowest of a melting point and decomposition point of the third material composition, and wherein the third temperature is higher than the first melting point.
A method for providing a packet data service in an asynchronous Wideband Code Division Multiple Access, WCDMA, system, the method comprising: determining a first combination of physical channel elements corresponding to a Transport Block Size, TBS, of uplink transport channel data based on combinations of physical channel elements and a first Puncturing Limit, PL, and determining a second combination of physical channel elements corresponding to the TBS based on a second PL which punctures a greater number of bits than the first PL, if there is no combination of physical channel elements to satisfy the first PL, wherein each combination of physical channel elements comprises a number of physical channels and a spreading factor, SF; and transmitting control information associated with the TBS; transmitting the uplink transport channel data using the first or second combination of physical channel elements. determining a first combination of physical channel elements corresponding to a Transport Block Size, TBS, of uplink transport channel data based on combinations of physical channel elements and a first Puncturing Limit, PL, and determining a second combination of physical channel elements corresponding to the TBS based on a second PL which punctures a greater number of bits than the first PL, if there is no combination of physical channel elements to satisfy the first PL, wherein each combination of physical channel elements comprises a number of physical channels and a spreading factor, SF; and transmitting control information associated with the TBS; transmitting the uplink transport channel data using the first or second combination of physical channel elements.