mhurhangee/ep-ind-claims huggingface dataset:
An accumulator comprising: a housing having a sealing face and a fluid inlet/outlet passage; and a bellows fixed at one end to the housing such that an inner space of the housing is hermetically partitioned by the bellows into an interior and an exterior of the bellows, the bellows including a bellows main body capable of expanding and contracting and a bellows cap provided with a sealing member covered with an elastic body that is opposed to and capable of being closely attached to the sealing face of the housing, the fluid inlet/outlet passage of the housing being closed upon a close attachment of the elastic body to the sealing face, wherein the accumulator further comprises a spacer placed between the housing and the bellows cap so as to surround the sealing member, the spacer having a communication passage providing communication between an inside and an outside of the spacer characterized in that a groove portion extending in the radial direction on the inner diameter side of the spacer is provided in the bellows cap. a housing having a sealing face and a fluid inlet/outlet passage; and a bellows fixed at one end to the housing such that an inner space of the housing is hermetically partitioned by the bellows into an interior and an exterior of the bellows, the bellows including a bellows main body capable of expanding and contracting and a bellows cap provided with a sealing member covered with an elastic body that is opposed to and capable of being closely attached to the sealing face of the housing, the fluid inlet/outlet passage of the housing being closed upon a close attachment of the elastic body to the sealing face, wherein the accumulator further comprises a spacer placed between the housing and the bellows cap so as to surround the sealing member, the spacer having a communication passage providing communication between an inside and an outside of the spacer characterized in that a groove portion extending in the radial direction on the inner diameter side of the spacer is provided in the bellows cap.
An organic light emitting display device comprising: a base substrate; a buffer layer arranged on the base substrate; a thin film transistor arranged on the buffer layer, the thin film transistor including a gate electrode, a source electrode, and a drain electrode; and an organic light emitting diode connected to the thin film transistor and arranged on the thin film transistor, wherein at least one of the gate electrode, the source electrode and the drain electrode includes a semi-transmissive metal layer, a reflective metal layer, and a transparent metal layer between the semi-transmissive metal layer and the reflective metal layer, wherein the thickness of the transparent metal layer is configured such that external light that is reflected by the semi-transmissive metal layer and the reflective metal layer destructively interfere, and wherein the transparent metal layer has a thickness in the range of 350Å to 450Å. a base substrate; a buffer layer arranged on the base substrate; a thin film transistor arranged on the buffer layer, the thin film transistor including a gate electrode, a source electrode, and a drain electrode; and an organic light emitting diode connected to the thin film transistor and arranged on the thin film transistor, wherein at least one of the gate electrode, the source electrode and the drain electrode includes a semi-transmissive metal layer, a reflective metal layer, and a transparent metal layer between the semi-transmissive metal layer and the reflective metal layer, wherein the thickness of the transparent metal layer is configured such that external light that is reflected by the semi-transmissive metal layer and the reflective metal layer destructively interfere, and wherein the transparent metal layer has a thickness in the range of 350Å to 450Å.
An apparatus comprising: a region comprising an integrated device; and a heat dissipating means (400; 900) coupled to the region comprising the integrated device, the heat dissipating means (400; 900) implemented in at least a first wall of the apparatus, the heat dissipating means (400; 900) is configured to dissipate heat away from the region, wherein the heat dissipating means (400; 900) comprises: a fluid; an evaporator means configured to evaporate the fluid; a first condenser means configured to condense the fluid, wherein the first condenser means is located in the first wall of the apparatus; an evaporation portion coupled to the evaporator means and the first condenser means, the evaporation portion configured to channel an evaporated fluid from the evaporator means to the first condenser means; and a collection portion coupled to the first condenser means and the evaporator means, the collection portion configured to channel a condensed fluid from the first condenser means to the evaporator means, wherein the collection portion is located in at least another wall of the apparatus. a region comprising an integrated device; and a heat dissipating means (400; 900) coupled to the region comprising the integrated device, the heat dissipating means (400; 900) implemented in at least a first wall of the apparatus, the heat dissipating means (400; 900) is configured to dissipate heat away from the region, wherein the heat dissipating means (400; 900) comprises: a fluid; an evaporator means configured to evaporate the fluid; a first condenser means configured to condense the fluid, wherein the first condenser means is located in the first wall of the apparatus; an evaporation portion coupled to the evaporator means and the first condenser means, the evaporation portion configured to channel an evaporated fluid from the evaporator means to the first condenser means; and a collection portion coupled to the first condenser means and the evaporator means, the collection portion configured to channel a condensed fluid from the first condenser means to the evaporator means, wherein the collection portion is located in at least another wall of the apparatus. a fluid; an evaporator means configured to evaporate the fluid; a first condenser means configured to condense the fluid, wherein the first condenser means is located in the first wall of the apparatus; an evaporation portion coupled to the evaporator means and the first condenser means, the evaporation portion configured to channel an evaporated fluid from the evaporator means to the first condenser means; and a collection portion coupled to the first condenser means and the evaporator means, the collection portion configured to channel a condensed fluid from the first condenser means to the evaporator means, wherein the collection portion is located in at least another wall of the apparatus.
A toilet bowl system comprising a toilet bowl, a hinged flap, a controllable hatch with tight closing, said hatch being arranged at an excreta discharge outlet of a receptacle portion of said toilet bowl, water cleaning means (4, 25, 25a) of said receptacle portion, flap sealing means (30, 24, 31) arranged to allow tight closure with said flap of an upper opening of said receptacle portion, and air compression means (5, 26, 26a) charged with pressurizing said receptacle portion being hermetically sealed, said pressurizing occurring prior to an opening command (CD4, T4) of said hatch and to a discharge of said excreta by suction through said excreta discharge outlet, wherein said air compression means comprise an electric air compressor supplying a compressed air circuit (26, 26a) arranged in said receptacle portion and comprising a first plurality of nozzles distributed in said receptacle portion and delivering the compressed air, and said water cleaning means comprise an electric water pump supplying a pressurized water cleaning circuit (25, 25a) arranged in said receptacle portion and comprising a second plurality of nozzles distributed in said receptacle portion and delivering water under pressure.
A vehicle window glass comprising: a glass plate; a conductive film laminated on the glass plate; and an antenna structured with a feeding structure placed on the conductive film, wherein the feeding structure has a dielectric and a pair of electrodes; and the conductive film has a slot and is disposed between the glass plate and the dielectric; wherein the slot is formed in a shape and size suitable for receiving the radio waves in the frequency band that the antenna is to receive, the slot has one end which makes an end portion of the conductive film an open end of the slot, the pair of electrodes comprises a signal line side electrode and a ground line side electrode; and the pair of electrodes are disposed on an opposite side of a side of the conductive film with the dielectric in between so that the slot is sandwiched between the pair of electrodes when the pair of electrodes are projected onto the conductive film, and are capacitively coupled to the conductive film. a glass plate; a conductive film laminated on the glass plate; and an antenna structured with a feeding structure placed on the conductive film, wherein
A method of making a light weight component, comprising: forming a metallic foam core into a desired configuration; wherein the metallic foam core is a sheet of metallic foam and the sheet of metallic foam is formed to the desired configuration by a hot or cold forming process wherein the sheet of metallic foam is placed in a die, then the metallic foam core is formed into the desired configuration by a machining process selected from the group comprising: milling; electrical discharge machining; water-jet machining; and laser machining after the hot or cold forming process, wherein the desired configuration is slightly smaller than the final dimensions of the light weight component; applying an external metallic shell to an exterior surface of the metallic foam core after it has been formed into the first configuration; and attenuating the component to a frequency by forming a plurality of openings in the external metallic shell; the plurality of openings in the external metallic shell are formed after application of the external metallic shell to the exterior surface of the metallic foam core; and in that the external metallic shell is applied via a spray application process, wherein the spray application process is selected from the group comprising: flame spray application process; plasma spray application process; and cold-spray application process. forming a metallic foam core into a desired configuration; wherein the metallic foam core is a sheet of metallic foam and the sheet of metallic foam is formed to the desired configuration by a hot or cold forming process wherein the sheet of metallic foam is placed in a die, then the metallic foam core is formed into the desired configuration by a machining process selected from the group comprising: milling; electrical discharge machining; water-jet machining; and laser machining after the hot or cold forming process, wherein the desired configuration is slightly smaller than the final dimensions of the light weight component; applying an external metallic shell to an exterior surface of the metallic foam core after it has been formed into the first configuration; and attenuating the component to a frequency by forming a plurality of openings in the external metallic shell; the plurality of openings in the external metallic shell are formed after application of the external metallic shell to the exterior surface of the metallic foam core; and in that the external metallic shell is applied via a spray application process, wherein the spray application process is selected from the group comprising: flame spray application process; plasma spray application process; and cold-spray application process.
A solid oxide fuel cell including unit cells, comprising: a pair of interconnectors for electrically connecting the unit cells, the unit cell including a flat plate-like cell; a membrane-electrode assembly disposed between the pair of interconnectors and including an electrolyte membrane and a pair of electrode layers (15, 16) disposed with the electrolyte membrane therebetween; a pair of current collectors, each of which includes an abutting surface abutting against a corresponding one of the pair of electrode layers and a first base material surface being in contact with a corresponding one of the pair of interconnectors and electrically connecting the corresponding of the pair of electrode layers and the corresponding one of the pair of interconnectors; and elastic bodies biasing the abutting surface of at least one current collector of the pair of current collectors toward a corresponding one of the pair of electrode layers, wherein the elastic bodies includes: a second base material surface being in contact with the first base material surface; and characterized by an elastic body protruding portion supporting the abutting surface and protruding from the second base material surface toward the corresponding one of the pair of electrode layers to bias the abutting surface toward the corresponding one of the pair of electrode layers. a pair of interconnectors for electrically connecting the unit cells, the unit cell including a flat plate-like cell; a membrane-electrode assembly disposed between the pair of interconnectors and including an electrolyte membrane and a pair of electrode layers (15, 16) disposed with the electrolyte membrane therebetween; a pair of current collectors, each of which includes an abutting surface abutting against a corresponding one of the pair of electrode layers and a first base material surface being in contact with a corresponding one of the pair of interconnectors and electrically connecting the corresponding of the pair of electrode layers and the corresponding one of the pair of interconnectors; and elastic bodies biasing the abutting surface of at least one current collector of the pair of current collectors toward a corresponding one of the pair of electrode layers, wherein the elastic bodies includes: a second base material surface being in contact with the first base material surface; and characterized by an elastic body protruding portion supporting the abutting surface and protruding from the second base material surface toward the corresponding one of the pair of electrode layers to bias the abutting surface toward the corresponding one of the pair of electrode layers. a second base material surface being in contact with the first base material surface; and characterized by an elastic body protruding portion supporting the abutting surface and protruding from the second base material surface toward the corresponding one of the pair of electrode layers to bias the abutting surface toward the corresponding one of the pair of electrode layers.
A method for expanding and differentiating hemopoietic progenitor cells comprising culturing cells from a sample comprising stem cells, progenitor cells or both, from human postembryonic tissue in an expansion medium comprising a cell culture medium, 1-100 mg/l desulphated heparin and/or low molecular weight heparin (LMWH) having an average molecular weight of between about 2000-10000 dalton, a collection of cytokines wherein said collection of cytokines comprises TPO, FLT-3L, SCF and IL-7, and optionally further comprises IL-3, in conventional amounts and in addition GM-CSF, G-CSF, LIF, MIP-1α and IL-6, in physiological amounts, and further conventional supplements, and culturing the cells further in an expansion and differentiation medium comprising a collection of cytokines, 1-100 mg/l desulphated heparin and/or low molecular weight heparin (LMWH) having an average molecular weight of between about 2000-10000 dalton and human serum, wherein said collection of cytokines comprises TPO, FLT-3L, SCF, IL-7, IL-2, IL-15, and in addition GM-CSF, G-CSF, LIF, MIP-la and IL-6, wherein the cultured cells are expanded and differentiated.
An arrangement with energy store, wherein the energy store, in particular battery, rechargeable battery or the like, is arranged in a housing, wherein the cover part has an extinguishing agent which is released in the event of mechanically or thermally caused deformation, structural change or destruction of a partial region of the cover part and drops down onto the energy store, wherein the partial region is arranged on the underside of the cover part, wherein a recess is produced in the wall of the cover part due to the mechanically or thermally caused deformation, structural change or destruction, wherein the cover part is a hollow part, in the cavity of which the extinguishing agent is arranged, characterised in that the cover part has on its upper side a closable opening for filling the cavity with extinguishing agent, a thermoelectric generator and/or a heat exchanger being arranged outside the housing, in particular with a first material being arranged between the housing and the thermoelectric generator or heat exchanger, and a second material being arranged outside the thermoelectric generator or heat exchanger, the housing surrounding the energy store being filled with a protective gas, in particular with carbon dioxide or SF 6 or another chemically inert gas, the protective gas under normal conditions, in particular normal pressure and normal temperature, or a temperature of between -10° Celsius to +50° Celsius, having a greater density than oxygen and/or air, the housing having a connection device for filling with the protective gas, the cover part of the housing being manufactured from plastics material.
An optical fiber assembly comprising: a first optical fiber and a second optical fiber each including a pre-coated section and a stripped section; a fusion splice including a splice joint joining an end of the stripped section of the first optical fiber with an end of the stripped section of the second optical fiber to form a fusion spliced optical fiber having a longitudinal axis; and a splice protector surrounding the splice joint, the splice protector including at least one wall arranged in a tubular shape having a central axis extending in a longitudinal direction, wherein the splice protector is bend-resistant, the at least one wall bounds an inner cavity extending in the longitudinal direction, and a longitudinal opening extends through an entire thickness of the at least one wall to permit passage of the pre-coated section of the first optical fiber or the pre-coated section of the second optical fiber into the inner cavity; and characterised in that the splice protector has a length in the longitudinal direction of between about 3 mm and about 5 mm. a first optical fiber and a second optical fiber each including a pre-coated section and a stripped section; a fusion splice including a splice joint joining an end of the stripped section of the first optical fiber with an end of the stripped section of the second optical fiber to form a fusion spliced optical fiber having a longitudinal axis; and a splice protector surrounding the splice joint, the splice protector including at least one wall arranged in a tubular shape having a central axis extending in a longitudinal direction, wherein the splice protector is bend-resistant, the at least one wall bounds an inner cavity extending in the longitudinal direction, and a longitudinal opening extends through an entire thickness of the at least one wall to permit passage of the pre-coated section of the first optical fiber or the pre-coated section of the second optical fiber into the inner cavity; and
A connector for coupling a first tube to a second tube, the connector comprising: a first coupler comprising an engagement portion; a second coupler comprising a tubular body defining a bore to receive the engagement portion of the first coupler; and a roller assembly associated with the second coupler, the roller assembly comprising a cylindrical roller that, in a first configuration, is offset from an axis of the second coupler, wherein the cylindrical roller is configured to engage an outer surface of the engagement portion in rolling contact as the engagement portion translates within the bore of the tubular body; and characterized in that the roller assembly further comprises: an axle about which the cylindrical roller rotates; and a spring attached to opposite ends of the axle and extending circumferentially about the tubular body. a first coupler comprising an engagement portion; a second coupler comprising a tubular body defining a bore to receive the engagement portion of the first coupler; and a roller assembly associated with the second coupler, the roller assembly comprising a cylindrical roller that, in a first configuration, is offset from an axis of the second coupler, wherein the cylindrical roller is configured to engage an outer surface of the engagement portion in rolling contact as the engagement portion translates within the bore of the tubular body; and characterized in that the roller assembly further comprises: an axle about which the cylindrical roller rotates; and a spring attached to opposite ends of the axle and extending circumferentially about the tubular body. an axle about which the cylindrical roller rotates; and a spring attached to opposite ends of the axle and extending circumferentially about the tubular body.
An inkjet head comprising: a plurality of ink dischargers, each comprising: an ink storage for storing ink; a pressure changer that changes pressure in ink stored in the ink storage; a nozzle which communicates to the ink storage and through which ink is discharged according to change in the pressure in ink in the ink storage; and a first individual ejection flow path and a second individual ejection flow path which communicate to the ink storage and through which ink is ejected from the ink storage but not supplied to the nozzle; a first common ejection flow path that communicates to a plurality of first individual ejection flow paths of the respective plurality of the ink dischargers; and a second common ejection flow path that communicates to a plurality of second individual ejection flow paths of the respective plurality of the ink dischargers; characterized in that a volume of a first section of the first common ejection flow path into which ink flows from the plurality of first individual ejection flow paths is different from a volume of a second section of the second common ejection flow path into which ink flows from the plurality of second individual ejection flow paths. a plurality of ink dischargers, each comprising: an ink storage for storing ink; a pressure changer that changes pressure in ink stored in the ink storage; a nozzle which communicates to the ink storage and through which ink is discharged according to change in the pressure in ink in the ink storage; and a first individual ejection flow path and a second individual ejection flow path which communicate to the ink storage and through which ink is ejected from the ink storage but not supplied to the nozzle; an ink storage for storing ink; a pressure changer that changes pressure in ink stored in the ink storage; a nozzle which communicates to the ink storage and through which ink is discharged according to change in the pressure in ink in the ink storage; and a first individual ejection flow path and a second individual ejection flow path which communicate to the ink storage and through which ink is ejected from the ink storage but not supplied to the nozzle; a first common ejection flow path that communicates to a plurality of first individual ejection flow paths of the respective plurality of the ink dischargers; and a second common ejection flow path that communicates to a plurality of second individual ejection flow paths of the respective plurality of the ink dischargers; characterized in that a volume of a first section of the first common ejection flow path into which ink flows from the plurality of first individual ejection flow paths is different from a volume of a second section of the second common ejection flow path into which ink flows from the plurality of second individual ejection flow paths.