mhurhangee/ep-ind-claims huggingface dataset:
An electrochromic device, ECD,, the ECD comprising: a partially octadecyltrichlorosilane, OTS, covered indium tin oxide, ITO, substrate, POTS-ITO substrate, wherein the POTS-ITO substrate is an ITO substrate comprising a OTS coverage of between about 10% to about 40%; and an electrochromic polymer film, ECP, on the POTS-ITO substrate, wherein the POTS-ITO substrate is obtained by a method comprising immersing an ITO substrate in an OTS hexane solution for about 80 minutes, wherein the concentration of the OTS in the OTS hexane solution is 1vol%; whereby the POTS-ITO suppresses self-bleaching behavior of the ECP. a partially octadecyltrichlorosilane, OTS, covered indium tin oxide, ITO, substrate, POTS-ITO substrate, wherein the POTS-ITO substrate is an ITO substrate comprising a OTS coverage of between about 10% to about 40%; and an electrochromic polymer film, ECP, on the POTS-ITO substrate, wherein the POTS-ITO substrate is obtained by a method comprising immersing an ITO substrate in an OTS hexane solution for about 80 minutes, wherein the concentration of the OTS in the OTS hexane solution is 1vol%; whereby the POTS-ITO suppresses self-bleaching behavior of the ECP.
An engine cooling system which, comprising an engine inlet (Ei), an engine outlet (Eo), a radiator, a self-controlled wax-based thermostat assembly with a primary thermo-actuator, a secondary thermo-actuator, a valve, a frame structure through where mentioned valve structure is guided, a connection shaft, a first spring, a second spring, a spring holder, a valve seat, an adapter, O-ring sealing elements, a U-cap sealing element, a first cover, screws, and lastly a second cover, provides precise temperature control of the engine cooling system by adjusting the coolant flow ratio between bypass outlet (11.1) and radiator outlet (11.3) wherein the engine cooling system is configured to operate according to sum of strokes coming from each thermo-actuator which is corresponding to one inlet connected to different sensing point of the engine cooling system from each other; the self-controlled wax-based thermostat assembly further comprising - an inlet (11.2) thereby main coolant flows from the engine outlet (Eo) to heat sensitive part of the primary thermo-actuator, - a sensing inlet (11.4) thereby sensing coolant flows from the engine inlet (Ei) to heat sensitive part of the secondary thermo-actuator, and - a sensing radiator outlet (11.5) for channeling sensing coolant coming from sensing inlet (11.4) to flow toward the radiator. - an inlet (11.2) thereby main coolant flows from the engine outlet (Eo) to heat sensitive part of the primary thermo-actuator, - a sensing inlet (11.4) thereby sensing coolant flows from the engine inlet (Ei) to heat sensitive part of the secondary thermo-actuator, and - a sensing radiator outlet (11.5) for channeling sensing coolant coming from sensing inlet (11.4) to flow toward the radiator.
Use of a tobacco filler for a non-combustion smoking article comprising a shredded tobacco, and liquid that generates aerosol, wherein the tobacco filler contains an acid that has a first acid dissociation constant of 4.0 to 6.0 inclusive and a boiling point of 366°C to 600°C inclusive, wherein the acid is at least one selected from the group consisting of ascorbic acid, isoascorbic acid, heneicosanoic acid, lignoceric acid, octacosanoic acid and nonadecanoic acid, wherein the tobacco filler contains the liquid that generates aerosol at 20% by mass or more and 80% by mass or less, and the liquid that generates aerosol contains propylene glycol, and wherein the tobacco filler contains the shredded tobacco at 20% by mass or more and 80% by mass or less and the acid at 0.25% by mass to 10% by mass inclusive of the whole tobacco filler. wherein the tobacco filler contains an acid that has a first acid dissociation constant of 4.0 to 6.0 inclusive and a boiling point of 366°C to 600°C inclusive, wherein the acid is at least one selected from the group consisting of ascorbic acid, isoascorbic acid, heneicosanoic acid, lignoceric acid, octacosanoic acid and nonadecanoic acid, wherein the tobacco filler contains the liquid that generates aerosol at 20% by mass or more and 80% by mass or less, and the liquid that generates aerosol contains propylene glycol, and wherein the tobacco filler contains the shredded tobacco at 20% by mass or more and 80% by mass or less and the acid at 0.25% by mass to 10% by mass inclusive of the whole tobacco filler.
A protective sleeve structure adapted to an inductive proximity sensor comprising a body made of non-magnetic material, and the body including: a fitting portion arranged on a first end thereof to fit with a sensing end of the inductive proximity sensor, wherein an outer surface of the body is located at a non-sensing area of the inductive proximity sensor; a passageway defined on a second end thereof and located at a sensing area of the inductive proximity sensor to pass an inducing element (40, 50) through the passageway, such that the sensing end of the inductive proximity sensor is triggered, characterized in that the fitting portion is a recessed hole and matingly fits with the sensing end of the inductive proximity sensor. a fitting portion arranged on a first end thereof to fit with a sensing end of the inductive proximity sensor, wherein an outer surface of the body is located at a non-sensing area of the inductive proximity sensor; a passageway defined on a second end thereof and located at a sensing area of the inductive proximity sensor to pass an inducing element (40, 50) through the passageway, such that the sensing end of the inductive proximity sensor is triggered, characterized in that the fitting portion is a recessed hole and matingly fits with the sensing end of the inductive proximity sensor.
A combustion gas generation device using electrolysis which comprises: an electrolytic cell filled with an electrolytic solution; a positive electrode and a negative electrode immersed in the electrolytic solution in the electrolytic cell; a plurality of intermediate electrodes arranged between the two electrodes so as to be insulated from both the electrodes and to also be insulated from the other intermediate electrodes, and are configured to divide and receive a voltage across the two electrodes; a power source unit which applies a DC or AC voltage across both the electrodes; and a sealing cover configured to seal the electrolytic cell and having a discharge opening through which a gas mixture of hydrogen and oxygen generated by the electrolysis is discharged; characterized in that a gas-liquid separation unit disposed above the electrolytic cell and below the sealing cover for separating the gas mixture generated in a bubble-like state in the electrolytic cell from the electrolytic solution, wherein the gas-liquid separation unit comprises a bottomed separation chamber which is divided into a plurality of chambers by at least one partition wall; and each of the partition walls and a bottom of each of the chambers have an opening. an electrolytic cell filled with an electrolytic solution; a positive electrode and a negative electrode immersed in the electrolytic solution in the electrolytic cell; a plurality of intermediate electrodes arranged between the two electrodes so as to be insulated from both the electrodes and to also be insulated from the other intermediate electrodes, and are configured to divide and receive a voltage across the two electrodes; a power source unit which applies a DC or AC voltage across both the electrodes; and a sealing cover configured to seal the electrolytic cell and having a discharge opening through which a gas mixture of hydrogen and oxygen generated by the electrolysis is discharged;
A process for forming a liquid filled reservoir with a fluid conduit, the fluid conduit having a frangible seal to prevent egress of fluid from the reservoir and through the conduit, the process comprising the steps of: (a) Forming a reservoir body; (b) Filling the reservoir body with a liquid; (c) Positioning a base component on the reservoir body and using a set of first tools to heat seal the base component to the reservoir body, so as to create a fluid tight seal around the reservoir body, apart from the fluid conduit which remains unsealed; (d) Positioning a separate set of second tools to heat seal across the conduit, wherein the heat applied by the second tool creates a frangible seal across the conduit. (a) Forming a reservoir body; (b) Filling the reservoir body with a liquid; (c) Positioning a base component on the reservoir body and using a set of first tools to heat seal the base component to the reservoir body, so as to create a fluid tight seal around the reservoir body, apart from the fluid conduit which remains unsealed; (d) Positioning a separate set of second tools to heat seal across the conduit, wherein the heat applied by the second tool creates a frangible seal across the conduit.
A motor control device that drives a motor including a first motor winding and a second motor winding, wherein the motor control device includes a first control unit that drives the first motor winding and a second control unit that drives the second motor winding, each of the first control unit and the second control unit includes a motor driving unit and a control unit (4a, 4b) to which a power supply voltage (VBa, VBb) is supplied, characterized in that the first control unit and the second control unit acquire the power supply voltage of the other control unit, each of the control units (4a, 4b) includes a power supply voltage selection unit (22, 40) having a minimum value selection unit (27, 44) and a d-axis target current computation unit, the minimum value selection unit (27, 44) selects the lower of a value of an own power supply voltage input into the power supply voltage selection unit (22, 40) and a value of the power supply voltage of the other control unit, and outputs the selected value from the power supply voltage selection unit (22, 40) as a post-selection power supply voltage (VBmin), the post-selection power supply voltage (VBmin) is input into the d-axis target current computation unit, and the d-axis target current computation unit outputs a target d-axis current (Id*) using the post-selection power supply voltage (VBmin). the motor control device includes a first control unit that drives the first motor winding and a second control unit that drives the second motor winding, each of the first control unit and the second control unit includes a motor driving unit and a control unit (4a, 4b) to which a power supply voltage (VBa, VBb) is supplied, characterized in that the first control unit and the second control unit acquire the power supply voltage of the other control unit, each of the control units (4a, 4b) includes a power supply voltage selection unit (22, 40) having a minimum value selection unit (27, 44) and a d-axis target current computation unit, the minimum value selection unit (27, 44) selects the lower of a value of an own power supply voltage input into the power supply voltage selection unit (22, 40) and a value of the power supply voltage of the other control unit, and outputs the selected value from the power supply voltage selection unit (22, 40) as a post-selection power supply voltage (VBmin), the post-selection power supply voltage (VBmin) is input into the d-axis target current computation unit, and the d-axis target current computation unit outputs a target d-axis current (Id*) using the post-selection power supply voltage (VBmin).
A burner comprising a swirl chamber having a substantially conical shape defining a central axis, a transition element at the larger end of the swirl chamber, a mixing tube connected to the transition element and connectable to a combustion chamber, the transition element has a larger end facing the swirl chamber and a smaller end facing the mixing tube, wherein at least a passage is provided between the transition element and the mixing tube, an inlet of the passage faces the outside of the mixing tube and the swirl chamber and an outlet of the passage faces the inside of the mixing tube; the swirl chamber is defined by a plurality of wall elements, the wall elements define slots between each other, the slots have different widths (w) in consecutive planes (11, 11') in the axial direction, wherein said planes (11, 11') are perpendicular to the central axis the wall elements are airfoil elements defining a pressure side, a suction side and a trailing edge, wherein at least some of the wall elements comprise nozzles for fuel injection, said nozzles are located at the pressure side, at the suction side, at the trailing edge, or at any combination of these locations.
A flow cytometer system comprising a nozzle and a sheath fluid container, a sample injection tube disposed within the sheath fluid container, the sample injection tube having an injection point that introduces sample into the sheath fluid container, a sheath fluid port that introduces sheath fluid into the sheath fluid container that surrounds the sample before exiting the nozzle, and an analytical system which senses below said nozzle, wherein the nozzle comprises; a gradually tapered interior surface element having elliptically varying zones (c, d) including at least one elliptically increasing zone with a circular mouth at the top wherein the ratio of the major axis to the minor axis in the cross sections is increasing; an elliptical demarcation location, wherein the elliptical demarcation location is downstream of the elliptically increasing zone at which the major axis to the minor axis reaches an optimal ratio that may be a maximum ratio; at least one elliptically decreasing zone downstream of the elliptical demarcation location wherein the ratio of the major axis to the minor axis in the cross sections is decreasing; and the nozzle further comprises a circular exit orifice, and wherein the elliptical demarcation location is the point of the nozzle tapered interior surface element that transitions from the elliptically increasing zone to the elliptically decreasing zone. a gradually tapered interior surface element having elliptically varying zones (c, d) including at least one elliptically increasing zone with a circular mouth at the top wherein the ratio of the major axis to the minor axis in the cross sections is increasing; an elliptical demarcation location, wherein the elliptical demarcation location is downstream of the elliptically increasing zone at which the major axis to the minor axis reaches an optimal ratio that may be a maximum ratio; at least one elliptically decreasing zone downstream of the elliptical demarcation location wherein the ratio of the major axis to the minor axis in the cross sections is decreasing; and the nozzle further comprises a circular exit orifice, and wherein the elliptical demarcation location is the point of the nozzle tapered interior surface element that transitions from the elliptically increasing zone to the elliptically decreasing zone.
Recoil damping device for a firearm, in particular for fastening on or in a buttstock of the firearm, preferably a small arm, comprising a rear part and a front part which can be moved counter to one another against the force of at least one damping element, a locking mechanism being provided which acts between the rear part and the front part and which, in a locking position, blocks a relative movement between the rear part and the front part and, in a release position, allows a relative movement between the rear part and the front part, a trigger element being provided which can be activated by means of a shock pulse and, in a holding position, holds the locking mechanism in the locking position and, in an active position, releases the locking mechanism into the release position, characterised in that the release element and at least one part of the locking mechanism are designed so as to be pivotable about a pivot axis (10a, 6a) as a result of the shock pulse.
A flow diverter of a coke catching element, comprising: a body disposable in a flow field and defining an interior; an upstream end, which is defined relative to the flow field; and a downstream end, which is downstream from the upstream end, wherein: at least one of the upstream end and the downstream end is open to the interior and the other of the upstream end and the downstream end is closed, and the interior diverges at the one of the upstream end and the downstream end that is open and converges at the other of the upstream end and the downstream end. a body disposable in a flow field and defining an interior; an upstream end, which is defined relative to the flow field; and a downstream end, which is downstream from the upstream end, wherein: at least one of the upstream end and the downstream end is open to the interior and the other of the upstream end and the downstream end is closed, and the interior diverges at the one of the upstream end and the downstream end that is open and converges at the other of the upstream end and the downstream end. at least one of the upstream end and the downstream end is open to the interior and the other of the upstream end and the downstream end is closed, and the interior diverges at the one of the upstream end and the downstream end that is open and converges at the other of the upstream end and the downstream end.
A forage harvester comprising a post-acceleration member which is arranged in the interior thereof and which is in the form of a conveyor fan rotating about an rotary axle and which is partially enclosed by a housing which is of a portion-wise open configuration and which extends portion-wise into a crop material conveyor path, wherein the degree of extent into the crop material conveyor path is adjustable by displacement of the post-acceleration member relative to the housing, and a wall opposite to the open portion, wherein the rotary axle is mounted rotatably in bearing supports arranged at the end on the rotary axle, characterised in that the bearing supports are arranged with their one end on the housing pivotably about a pivot axis and are respectively connected at their opposite free end to an actuator.
A product comprising: a) a tea component, b) from 0.03 to 3 wt% by dry weight of FeBisglycinate; and c) 0.07 to 7 wt% by dry weight of Na 2 H 2 EDTA. a) a tea component, b) from 0.03 to 3 wt% by dry weight of FeBisglycinate; and c) 0.07 to 7 wt% by dry weight of Na 2 H 2 EDTA.
A refrigeration cycle device, comprising: a refrigerant circuit configured to cause refrigerant to circulate; a heat exchanger unit (1, 2) that houses a heat exchanger of the refrigerant circuit; and a controller configured to control the heat exchanger unit (1, 2), the heat exchanger unit (1, 2) being provided with an air-sending fan (5f, 7f) and an electrical refrigerant detector (98, 99), the controller being configured to cause the air-sending fan (5f, 7f) to run, characterized in that the controller is configured to disregard a detection signal from the refrigerant detector (98, 99) when a rotational speed of the air-sending fan (5f, 7f) is equal to or greater than a first threshold value, even if the controller detects a leakage of refrigerant on a basis of the detection signal from the refrigerant detector (98, 99). a refrigerant circuit configured to cause refrigerant to circulate; a heat exchanger unit (1, 2) that houses a heat exchanger of the refrigerant circuit; and a controller configured to control the heat exchanger unit (1, 2), the heat exchanger unit (1, 2) being provided with an air-sending fan (5f, 7f) and an electrical refrigerant detector (98, 99), the controller being configured to cause the air-sending fan (5f, 7f) to run, characterized in that the controller is configured to disregard a detection signal from the refrigerant detector (98, 99) when a rotational speed of the air-sending fan (5f, 7f) is equal to or greater than a first threshold value, even if the controller detects a leakage of refrigerant on a basis of the detection signal from the refrigerant detector (98, 99).
A liquid composition comprising: a) at least one anionic or nonionic surfactant; and b) at least one polysaccharide structurant; wherein the polysaccharide structurant is: i) a colloidal dispersion of poly alpha-1,3-glucan; ii) poly alpha-1,3-glucan fibrids; or iii) a combination thereof; wherein at least 50% of the glycosidic linkages in said poly alpha-1,3-glucan are alpha-1,3-glycosidic linkages and wherein the polysaccharide structurant constitutes between 0.1 wt% and 15 wt% of the total liquid composition. a) at least one anionic or nonionic surfactant; and b) at least one polysaccharide structurant; wherein the polysaccharide structurant is: i) a colloidal dispersion of poly alpha-1,3-glucan; ii) poly alpha-1,3-glucan fibrids; or iii) a combination thereof; wherein at least 50% of the glycosidic linkages in said poly alpha-1,3-glucan are alpha-1,3-glycosidic linkages and wherein the polysaccharide structurant constitutes between 0.1 wt% and 15 wt% of the total liquid composition. i) a colloidal dispersion of poly alpha-1,3-glucan; ii) poly alpha-1,3-glucan fibrids; or iii) a combination thereof;
Training device for motorcyclists having a roller arrangement for accommodating a rear wheel and a holder for supporting a front wheel of a motorcycle, wherein the holder is pivotable from a normal position into a support position, and has a variable free space for lifting the front wheel starting from this support position, and wherein the rear wheel is freely movable in the lateral direction on the roller arrangement and remains further in its place, wherein the rollers are free-running or braked and characterised in that the support position is variable in height.
A material set, comprising: a powder bed material, comprising composite particles including glass beads coated with polyamide-12 polymer, wherein the composite particles have an average particle size from 20 μm to 200 μm, wherein the polyamide-12 polymer includes greater than 80 meq/g carboxylic end groups and less than 40 meq/g amino end groups; and a fusing agent comprising an energy absorber capable of absorbing electromagnetic radiation to produce heat. a powder bed material, comprising composite particles including glass beads coated with polyamide-12 polymer, wherein the composite particles have an average particle size from 20 μm to 200 μm, wherein the polyamide-12 polymer includes greater than 80 meq/g carboxylic end groups and less than 40 meq/g amino end groups; and a fusing agent comprising an energy absorber capable of absorbing electromagnetic radiation to produce heat.
A disposable wearing article, comprising: a perforated nonwoven fabric provided with a plurality of holes penetrating front and back surfaces at intervals; and a support sheet on which the perforated nonwoven fabric is bonded via a hot melt adhesive, wherein, in the perforated nonwoven fabric, a peripheral portion of the hole is a warped portion warped toward the support sheet side, at least a tip portion of the warped portion of the perforated nonwoven fabric has an adhesive portion bonded to the support sheet via the hot melt adhesive, and a portion of the perforated nonwoven fabric other than the adhesive portion is not adhered to the support sheet. wherein, in the perforated nonwoven fabric, a peripheral portion of the hole is a warped portion warped toward the support sheet side, at least a tip portion of the warped portion of the perforated nonwoven fabric has an adhesive portion bonded to the support sheet via the hot melt adhesive, and a portion of the perforated nonwoven fabric other than the adhesive portion is not adhered to the support sheet.