mhurhangee/ep-ind-claims huggingface dataset:
A lithium reagent composition for measuring the quantity of lithium, characterized by comprising a compound having a structure represented by the formula: in which all hydrogens bonded to carbons of a tetraphenylporphyrin are replaced by fluorine atoms, a water-miscible organic solvent chosen from dimethylsulfoxide (DMSO), dimethylformamide and dimethylacetamide, and a pH modifier for adjusting pH to a range from pH 5 to pH 12.
A transport vehicle comprising a three-wheeled carriage, wherein the three-wheeled carriage comprises two non-driven front wheels (2, 3) which are coupled to a steering, and a non-jointed rear wheel which is coupled to a drive (13, 26), wherein a transport platform is arranged between the axles of the front wheels (2, 3) and the axle of the rear wheel, and a driver's area is arranged in front of the transport platform as viewed in the direction of travel, wherein a steering rod which is provided for operating the steering is mounted rigidly in the direction of travel, and the steering rod is mounted such that it can be inclined transverse to the direction of travel about a steering axis, characterised in that the lower part of the steering rod, to which the steerable front wheels (2, 3) are each fastened via a ball joint, a push rod, another ball joint and an axle arm which can be articulated, is moved inversely with respect to a movement of the upper part of the steering rod, thus enabling the front wheels (2, 3) to be moved to the right and left.
An optical deflection apparatus comprising: a mirror unit; a pair of elastic supporting units (7, 8, 9, 10) configured to rotatably support the mirror unit around a predetermined axis; at least one drive unit (9E1, 10E1) configured to elastically deform the pair of elastic supporting units (7, 8, 9, 10); a drive control unit configured to input a drive frequency into the at least one drive unit (9E1, 10E1) so as to control the at least one drive unit (9E1, 10E1); and a temperature detecting unit configured to detect an ambient temperature, wherein the drive control unit is configured to change the drive frequency at a predetermined rate, and characterized in that a first predetermined rate at which the drive control unit changes the drive frequency when the detected ambient temperature is in a first temperature range is higher than a second predetermined rate at which the drive control unit changes the drive frequency when the detected ambient temperature is in a second temperature range, the second temperature range being at a higher temperature than the first temperature range. a mirror unit; a pair of elastic supporting units (7, 8, 9, 10) configured to rotatably support the mirror unit around a predetermined axis; at least one drive unit (9E1, 10E1) configured to elastically deform the pair of elastic supporting units (7, 8, 9, 10); a drive control unit configured to input a drive frequency into the at least one drive unit (9E1, 10E1) so as to control the at least one drive unit (9E1, 10E1); and a temperature detecting unit configured to detect an ambient temperature, wherein the drive control unit is configured to change the drive frequency at a predetermined rate, and characterized in that a first predetermined rate at which the drive control unit changes the drive frequency when the detected ambient temperature is in a first temperature range is higher than a second predetermined rate at which the drive control unit changes the drive frequency when the detected ambient temperature is in a second temperature range, the second temperature range being at a higher temperature than the first temperature range.
A multi-faced display device, comprising: a first display panel having a first lateral side and a second lateral side opposite to the first lateral side, the first lateral side curving towards a back side of the first display panel such that the first display panel forms an L-shaped structure; a second display panel having a first lateral side and a second lateral side opposite to the first lateral side, the first lateral side curving towards a back side of the second display panel such that the second display panel forms an L-shaped structure; a first encapsulating plate for sealing a top of the closed structure; a second encapsulating plate for sealing a bottom of the closed structure; and at least one function slot and/or physical function key, wherein the second lateral side of the first display panel is encapsulated with the first lateral side of the second display panel and the first lateral side of the first display panel is encapsulated with the second lateral side of the second display panel to form a closed structure, an outside surface and/or inside surface of the closed structure being a display surface of the multi-faced display device, and wherein the function slot and/or physical function key are disposed at an encapsulating location of the lateral sides of the first display panel and/or second display panel, or disposed on a surface of the first encapsulating plate and/or second encapsulating plate. a first display panel having a first lateral side and a second lateral side opposite to the first lateral side, the first lateral side curving towards a back side of the first display panel such that the first display panel forms an L-shaped structure; a second display panel having a first lateral side and a second lateral side opposite to the first lateral side, the first lateral side curving towards a back side of the second display panel such that the second display panel forms an L-shaped structure; a first encapsulating plate for sealing a top of the closed structure; a second encapsulating plate for sealing a bottom of the closed structure; and at least one function slot and/or physical function key, wherein the second lateral side of the first display panel is encapsulated with the first lateral side of the second display panel and the first lateral side of the first display panel is encapsulated with the second lateral side of the second display panel to form a closed structure, an outside surface and/or inside surface of the closed structure being a display surface of the multi-faced display device, and wherein the function slot and/or physical function key are disposed at an encapsulating location of the lateral sides of the first display panel and/or second display panel, or disposed on a surface of the first encapsulating plate and/or second encapsulating plate.
Seal comprising a flexible strip, a body arranged at one end of said flexible strip, a housing arranged in said body, an intermediate piece that is arranged inside said housing, at least one welding area that is formed between the inner surface of the housing and the outer surface of the intermediate piece for fixing the intermediate piece inside the housing, and a first hole through said housing and a second hole through said piece that are aligned when the intermediate piece is arranged inside the housing, so that the other end of the strip passes through said holes (6, 9) for locking said seal, characterized in that: - the intermediate piece comprises a hollow, and - the seal comprises a framework arranged inside the hollow of the intermediate piece and having a third hole aligned with the first and second holes (6, 9) when the intermediate piece is arranged inside the housing, and - at least one inner edge in the intermediate piece in one of the walls of the hollow conformed for coupling with at least one edge of the perimeter of the framework. - the intermediate piece comprises a hollow, and - the seal comprises a framework arranged inside the hollow of the intermediate piece and having a third hole aligned with the first and second holes (6, 9) when the intermediate piece is arranged inside the housing, and - at least one inner edge in the intermediate piece in one of the walls of the hollow conformed for coupling with at least one edge of the perimeter of the framework.
A plate type biofilter having a polluted air supply duct, a filtering section, a humidification system, a ventilator which blows polluted air to the filtering section, systems for maintaining temperature in the biofilter, the filtering section consisting of plurality of vertical polymer plates arranged with milligaps between them in parallel to the movement direction of the polluted air, the milligaps being such to reduce aerodynamic resistance and allow contact between polluted air and microorganisms on the plates, characterized in that the plates are covered from both sides with porous boards, in that means are provided such that in use the bottom of the covered plates is submersed in activated liquid, thus causing capillary humidification of the filtering section, and in that the heating elements are arranged under the filtering section to maintain the temperature of the activated liquid at 30°C.
Electrode (21, 22) for a battery cell, comprising an active material (41, 42) comprising silicon and comprising a first, ionically conductive polymer, characterized in that the active material (41, 42) comprises a copolymer comprising the first polymer and a second polymer, where the second polymer is electrically conductive, and where the second polymer comprises polyaniline (PANI) or polypyrrole.
A method for controlling infiltration and exfiltration of gases via a shaft (216,218) of a turbomachine which is part of an organic Rankine cycle system, the method comprising: sealing said shaft (216,218) against exfiltration of a process gas when said turbomachine is operating; sealing said shaft (216,218) against infiltration of ambient air when said turbomachine is in a standstill mode; and detecting a pressure of gas within said system to monitor whether said infiltration has occurred; wherein said step of detecting said pressure of said gas is performed outside of said turbomachine within a loop of said organic Rankine cycle system. sealing said shaft (216,218) against exfiltration of a process gas when said turbomachine is operating; sealing said shaft (216,218) against infiltration of ambient air when said turbomachine is in a standstill mode; and detecting a pressure of gas within said system to monitor whether said infiltration has occurred; wherein said step of detecting said pressure of said gas is performed outside of said turbomachine within a loop of said organic Rankine cycle system.
An air compressor comprising: a motor configured to actuate a compression mechanism to generate compressed air; a tank part in which the compressed air generated by the compression mechanism is stored; a pressure detector configured to detect a pressure value in the tank part; and a controller configured to drive the motor when the pressure value in the tank part detected by the pressure detector is equal to or smaller than an ON pressure value (a pressure value for starting drive of the compression mechanism) and to stop drive of the motor when the pressure value in the tank part detected by the pressure detector is equal to or greater than an OFF pressure value (a pressure value for stopping drive of the compression mechanism); characterized in that the controller is capable of executing setting change processing for detecting a continuous drive time or a continuous stop time of the motor and changing at least one of the ON pressure value, the OFF pressure value and an output of the motor, based on the continuous drive time or the continuous stop time, and the controller is configured to periodically detect a change amount of the pressure value in the tank part, and to determine an execution cycle of the setting change processing or a change amount of a value in the setting change processing, based on the change amount of the pressure value. a motor configured to actuate a compression mechanism to generate compressed air; a tank part in which the compressed air generated by the compression mechanism is stored; a pressure detector configured to detect a pressure value in the tank part; and a controller configured to drive the motor when the pressure value in the tank part detected by the pressure detector is equal to or smaller than an ON pressure value (a pressure value for starting drive of the compression mechanism) and to stop drive of the motor when the pressure value in the tank part detected by the pressure detector is equal to or greater than an OFF pressure value (a pressure value for stopping drive of the compression mechanism); characterized in that the controller is capable of executing setting change processing for detecting a continuous drive time or a continuous stop time of the motor and changing at least one of the ON pressure value, the OFF pressure value and an output of the motor, based on the continuous drive time or the continuous stop time, and the controller is configured to periodically detect a change amount of the pressure value in the tank part, and to determine an execution cycle of the setting change processing or a change amount of a value in the setting change processing, based on the change amount of the pressure value.
Planet gear assembly comprising a planet carrier, said planet carrier comprising at least one crankpin carrying a planet gear of said planet gear assembly, said crankpin being hollow and comprising a wall extending radially with respect to an elevation axis and in a first direction from an inner face to an outer face, said planet gear comprising a toothing provided with teeth, the toothing being located around the crankpin and outside the crankpin, characterized in that a planet gear bearing of said planet gear assembly is arranged at least partially within the crankpin, said planet gear comprising a foot that extends along the elevation axis, said foot extending at least partially into the crankpin, said planet gear comprising a rim connecting the foot and the toothing at least partially outside the crankpin, said planet gear bearing extending radially with respect to said elevation axis and in said first direction from an outer face of the foot to the inner face, said planet gear bearing comprising at least one row (31, 32) of rolling elements, said planet gear bearing being a self-aligning bearing.
A composite container manufacturing method for manufacturing a composite container provided with a paper label on a trunk, comprising the steps of: preparing the paper label and a preform, and preparing a molding die equipped with a closed, cylindrical lower mold, and an upper mold composed of a plurality of split-mold segments (13, 14); next, arranging the paper label in the lower mold, and arranging the preform between the opened split-mold segments (13, 14) from a direction that intersects an axis of the lower mold; thereafter, moving one the lower mold arranged with the paper label, and one or both of the split-mold segments (13, 14) arranged with the preform in a direction to approach the other; thereafter, blow-molding to the preform by closing the molding die; and next opening the molding die to separate the composite container from the molding die, characterized in that the paper label is equipped with square window holes at portions positioned toward a top end of the trunk and/or with a plurality of grooves (13a, 14a) disposed in the inner faces of the split-mold segments (13, 14). preparing the paper label and a preform, and preparing a molding die equipped with a closed, cylindrical lower mold, and an upper mold composed of a plurality of split-mold segments (13, 14); next, arranging the paper label in the lower mold, and arranging the preform between the opened split-mold segments (13, 14) from a direction that intersects an axis of the lower mold; thereafter, moving one the lower mold arranged with the paper label, and one or both of the split-mold segments (13, 14) arranged with the preform in a direction to approach the other; thereafter, blow-molding to the preform by closing the molding die; and next opening the molding die to separate the composite container from the molding die, characterized in that the paper label is equipped with square window holes at portions positioned toward a top end of the trunk and/or with a plurality of grooves (13a, 14a) disposed in the inner faces of the split-mold segments (13, 14).
Driver observation system for a motor vehicle, comprising at least one camera device which has at least one camera unit arranged on a carrier element and at least one infrared emitter, and the carrier element having at least one device for locking the infrared emitter to the carrier element, and the camera device being integrated/capable of being integrated into an instrument cluster of the motor vehicle, characterized by means by which the camera device can be clipped into a circuit board of the instrument cluster, the circuit board of the instrument cluster having at least one cut-out for receiving the camera device.
A temperature-dependent switch comprising a temperature-dependent switching mechanism and a housing (11, 12) receiving the switching mechanism, wherein a first and a second connection surface (22, 23) for the electrical connection of connection leads (46, 47; 55, 56, 66; 71, 82, 83) are provided externally on the housing (11, 12), the temperature-dependent switching mechanism producing or opening an electrically conductive connection between the two connection surfaces (22, 23) depending on the temperature of said switching mechanism, to at least one of the connection surfaces (22, 23) a connection lead (46, 47; 55, 56, 66; 71) being secured in materially bonded manner via its inner end (48, 49; 59, 60, 70; 71), and wherein the inner end (48, 49; 59, 60, 70; 71) of the connection lead (46, 47; 55, 56, 66; 71) is welded on to the at least one connection surface (22, 23) by at least one weld spot (37, 38), characterized in that the inner end (48, 49; 59, 60, 70; 71) of the connection lead (46, 47; 55, 56, 66; 71) is welded on to the least one connection surface (22, 23) by one-sided spot welding, and that the inner end (48, 49; 59, 60, 70; 71) of the connection lead (46, 47; 55, 56, 66; 71) comprises at least two lugs (51, 52, 53, 54; 61, 62, 63, 64, 67, 68; 73, 74), each of which is welded on to the at least one connection surface (22, 23) via a weld spot (37, 38).
A method of making a catalyst, comprising: mixing a catalytically active component and a surfactant to form a mixture, wherein the catalytically active component comprises phosphorus; allowing the mixture to form a gel, wherein allowing the mixture to form a gel comprises allowing the mixture to sit for greater than 1 hour without mixing; physically shearing the gel to form a physically sheared gel; combining the physically sheared gel with a support; and calcining the support with the physically sheared gel to form the catalyst; and wherein the catalyst comprises 0.2 to 25 wt% platinum, 0.2 to 5 wt% tin, 1 to 3 wt% phosphorus, 0.1 to 5 wt% calcium, 0.1 to 2 wt% chlorine, and 0.1 to 4 wt% nickel, based upon a total weight of the catalyst. mixing a catalytically active component and a surfactant to form a mixture, wherein the catalytically active component comprises phosphorus; allowing the mixture to form a gel, wherein allowing the mixture to form a gel comprises allowing the mixture to sit for greater than 1 hour without mixing; physically shearing the gel to form a physically sheared gel; combining the physically sheared gel with a support; and calcining the support with the physically sheared gel to form the catalyst; and wherein the catalyst comprises 0.2 to 25 wt% platinum, 0.2 to 5 wt% tin, 1 to 3 wt% phosphorus, 0.1 to 5 wt% calcium, 0.1 to 2 wt% chlorine, and 0.1 to 4 wt% nickel, based upon a total weight of the catalyst.
A pneumatic tire having an inner liner including a film layer on an inner face of the pneumatic tire, wherein the pneumatic tire is produced by a manufacturing method including a process to press an unvulcanized tire against a mold (11,13) by use of a bladder without applying a mold release agent, the inner face of the pneumatic tire consists of the film layer, the film layer has a multilayer structure obtainable by laminating a resin film or sheet and an auxiliary layer, a surface of the film layer is composed of a thermoplastic urethane elastomer layer, wherein the film layer includes a lubricant having a molecular weight of 1000 or less, and a dynamic friction coefficient between the film layer and a bladder formed of a vulcanized and molded rubber composition in which butyl rubber 95 parts by mass, chloroprene rubber 5 parts by mass, carbon black 48 parts by mass, resin 5.5 parts by mass, castor oil 8 parts by mass, and zinc oxide 5 parts by mass are mixed is 2.0 or less at 25 degrees Celsius.
A composition comprising: (a) from 20 to 75 dry wt% of a styrene-diene block copolymer having from 10-30 wt% polymerized units of styrene, wherein the block copolymer is present as a dispersion of copolymer in water, and said dispersion contains less than 5 wt% organic solvent based on total dispersion weight; (b) from 0.5 to 20 dry wt% of a plasticizer; and (c) from 20 to 75 dry wt% of a tackifier.
A method of wellbore operations comprising: a. directing gamma radiation from a source (120, 220, 416) to a formation (150, 406) surrounding the wellbore; b. detecting radiation scattered from the formation; c. estimating a rate and energy of the detected radiation; and d. identifying a fracture (153, 155, 414) in the formation based on the rate and energy of the detected radiation; wherein the step of detecting radiation is performed using a detector (140, 240, 418) axially offset from the source. a. directing gamma radiation from a source (120, 220, 416) to a formation (150, 406) surrounding the wellbore; b. detecting radiation scattered from the formation; c. estimating a rate and energy of the detected radiation; and d. identifying a fracture (153, 155, 414) in the formation based on the rate and energy of the detected radiation; wherein the step of detecting radiation is performed using a detector (140, 240, 418) axially offset from the source.
A method comprising: receiving, at an SR/LDP node, a packet with a first label distribution protocol, LDP, label attached thereto, wherein the SR/LDP node is LDP enabled and segment routing, SR, enabled; detaching the first LDP label from the packet; attaching a segment identifier, ID, to the packet after the first LDP label is detached; and forwarding the packet with the attached segment ID on a path towards an SR enabled node, wherein the path comprises a first SR enabled node, the first SR enabled node employs SR and lacks LDP in its control plane, and the SR enabled node is uniquely assigned the segment ID. receiving, at an SR/LDP node, a packet with a first label distribution protocol, LDP, label attached thereto, wherein the SR/LDP node is LDP enabled and segment routing, SR, enabled; detaching the first LDP label from the packet; attaching a segment identifier, ID, to the packet after the first LDP label is detached; and forwarding the packet with the attached segment ID on a path towards an SR enabled node, wherein the path comprises a first SR enabled node, the first SR enabled node employs SR and lacks LDP in its control plane, and the SR enabled node is uniquely assigned the segment ID.