mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a microelectromechanical system (MEMS) device comprising: forming a dielectric layer; forming a silicon layer on the dielectric layer; forming a device structure in one of the dielectric layer and the silicon layer, said device structure comprising a pressure sensor electrode; forming a thermistor structure in the silicon layer, wherein the thermistor structure surrounds the pressure sensor electrode; and forming a plurality of contacts (208, 210) on the silicon layer, the plurality of contacts (208, 210) being subtended by the thermistor structure; wherein the forming the thermistor structure comprises forming a resistive structure including a plurality of dielectric columns extending from the dielectric layer toward a top surface of the silicon layer, wherein a portion of the silicon layer is disposed between adjacent ones of the plurality of dielectric columns; wherein the forming the resistive structure comprises forming a second dielectric layer, the second dielectric layer being subtended by the plurality of dielectric columns and removing one or more portions of the second dielectric layer to provide a plurality of lateral extensions, each of the plurality of lateral extensions being subtended by at least one of the plurality of dielectric columns; and wherein forming a silicon layer on the dielectric layer includes forming a first silicon layer on the dielectric layer and a second silicon layer on the second dielectric layer. forming a dielectric layer; forming a silicon layer on the dielectric layer; forming a device structure in one of the dielectric layer and the silicon layer, said device structure comprising a pressure sensor electrode; forming a thermistor structure in the silicon layer, wherein the thermistor structure surrounds the pressure sensor electrode; and forming a plurality of contacts (208, 210) on the silicon layer, the plurality of contacts (208, 210) being subtended by the thermistor structure; wherein the forming the thermistor structure comprises forming a resistive structure including a plurality of dielectric columns extending from the dielectric layer toward a top surface of the silicon layer, wherein a portion of the silicon layer is disposed between adjacent ones of the plurality of dielectric columns; wherein the forming the resistive structure comprises forming a second dielectric layer, the second dielectric layer being subtended by the plurality of dielectric columns and removing one or more portions of the second dielectric layer to provide a plurality of lateral extensions, each of the plurality of lateral extensions being subtended by at least one of the plurality of dielectric columns; and wherein forming a silicon layer on the dielectric layer includes forming a first silicon layer on the dielectric layer and a second silicon layer on the second dielectric layer.
Connection apparatus for a continuous-flow heater with a one-piece, electrically conductive base body, which has a U-shaped clamping bracket for mounting on a pipe and at least one additional U-shaped clamping bracket for mounting on at least one additional pipe, characterised in that the base body comprises a first clamping element as part of a multi-part collecting terminal that is to be formed for the central electrical contacting of an external electrical protective conductor.
A feedthrough assembly comprising a non-conductive substrate and a feedthrough, the feedthrough comprising: a via from an outer surface to an inner surface of the non-conductive substrate; a conductive material disposed in the via; and an external contact disposed over the via on the outer surface of the non-conductive substrate, wherein the external contact is electrically coupled to the conductive material disposed in the via, and wherein the external contact is hermetically sealed to the outer surface of the non-conductive substrate by a laser bond surrounding the via, the laser bond being between the external contact and the outer surface of the non-conductive substrate. a via from an outer surface to an inner surface of the non-conductive substrate; a conductive material disposed in the via; and an external contact disposed over the via on the outer surface of the non-conductive substrate, wherein the external contact is electrically coupled to the conductive material disposed in the via, and wherein the external contact is hermetically sealed to the outer surface of the non-conductive substrate by a laser bond surrounding the via, the laser bond being between the external contact and the outer surface of the non-conductive substrate.
A backrest chair having a chair sheet material and a chair support frame to which the chair sheet material is attached; wherein the chair sheet material has a backrest portion, said chair sheet material includes a core sheet and a back side buffer sheet covering a surface of the core sheet at a back side of a seated person; the backrest portion has a width larger than a breadth of a seated person's shoulders; the core sheet (5.5) is provided with a shape retaining material (58, 71) made capable of elastic bending deformation by a high-strength carbon fiber sheet (59, 72), to have an elastic resilience for assuming a backrest shape in a natural state on the one hand, and, on the other hand, when a seated person applies a load to the backrest portion, to be elastically displaceable such that right and left opposite ends of the backrest portion are displaced in directions to approach each other due to elasticity of the core sheet; and the chair support frame is lower than a seat surface.
A nanofiber fabrication method comprising nanofiber growth from a catalyst zone, furthermore comprising the following steps: - producing at least one micropattern on the surface of a substrate; which pattern comprises a base, at least partially convergent side walls and an upper face; - producing a catalyst zone on the surface of said micropattern; nanofiber growth from the catalyst zone, said method furthermore comprising the steps of: - depositing a so-called "poison" layer, said so-called "poison" layer being a catalyst layer, preventing ulterior wetting, or a layer capable of annihilating the effect of a catalyst deposited later then the growth method, above said base and on the level on which no nanofiber growth catalysis effect can take place, - depositing a catalyst layer above said upper surface and above said "poison" layer on the level of said base, said "poison" layer not being present on the level of said upper face, the thickness of the "poison" layer and the thickness of the catalyst layer being such that the nanofibers cannot grow either on the side walls or on the base of the micro patterns constructed beforehand. - a dewetting operation allowing the catalyst to be formed into a droplet above said upper surface by heating the substrate comprising the micropattern covered with the catalyst layer and said "poison" layer; - a nanofiber growth operation on the surface of the catalyst-droplet, said so-called "poison"-layer being present on the level of said base. - producing at least one micropattern on the surface of a substrate; which pattern comprises a base, at least partially convergent side walls and an upper face; - producing a catalyst zone on the surface of said micropattern; - depositing a so-called "poison" layer, said so-called "poison" layer being a catalyst layer, preventing ulterior wetting, or a layer capable of annihilating the effect of a catalyst deposited later then the growth method, above said base and on the level on which no nanofiber growth catalysis effect can take place, - depositing a catalyst layer above said upper surface and above said "poison" layer on the level of said base, said "poison" layer not being present on the level of said upper face, the thickness of the "poison" layer and the thickness of the catalyst layer being such that the nanofibers cannot grow either on the side walls or on the base of the micro patterns constructed beforehand. - a dewetting operation allowing the catalyst to be formed into a droplet above said upper surface by heating the substrate comprising the micropattern covered with the catalyst layer and said "poison" layer; - a nanofiber growth operation on the surface of the catalyst-droplet, said so-called "poison"-layer being present on the level of said base.
A substrate with a surface having a hydrophilic coating comprising a cross-linked copolymer of components A and B, and optional components C and D; wherein component A comprises one or more C 2 -C 16 hydrophilic monomers each bearing one or more alkene and/or alkyne groups; component B comprises one or more hydrophilic polymers each bearing two or more alkene and/or alkyne groups; component C, if present, comprises one or more beneficial agents each bearing one or more alkene or alkyne groups; and component D, if present, comprises one or more low molecular weight cross-linking agents each bearing two or more functional groups independently selected from thiol, alkene and alkyne groups; wherein the cross-linked copolymer is formed by radical polymerisation involving the alkene and/or alkyne groups of components A, B and C (if present) and involving the functional groups of component D (if present); wherein the hydrophilic coating optionally comprises component E which comprises one or more beneficial agents, wherein component E does not form a copolymer with components A, B, C (if present) and D (if present); wherein the hydrophilic coating is covalently attached to the surface of the substrate; wherein the covalent attachment between the surface of the substrate and the hydrophilic coating is formed via the reaction of surface-bound radicals on the surface of the substrate with a component of the hydrophilic coating, and wherein the surface bound radicals are generated via abstraction of hydrogen atoms from the surface of the substrate.
Wine aging process using grape stems characterized in that the process comprises the following steps: - Toasting the grape stems; - Adding the prior grape stems to the wine in a proportion of 0.1 kg of stalk to 1 L of wine, in a period between 1 month and 3 years; - Periodically collecting samples for chromatographic analyses of the control wines; - Separating the stems from the wine. - Toasting the grape stems; - Adding the prior grape stems to the wine in a proportion of 0.1 kg of stalk to 1 L of wine, in a period between 1 month and 3 years; - Periodically collecting samples for chromatographic analyses of the control wines; - Separating the stems from the wine.
An image forming apparatus comprising: an apparatus body; a recording head configured to discharge droplets onto a recording medium to form an image; a mist generation region in which the discharged droplets form a mist; a removable battery located inside the apparatus body and configured to supply power necessary for operation of the apparatus body; a connection terminal configured to connect the battery to the apparatus body, and disposed outside a mist generation region; a duct configured to collect the mist from the mist generation region; and a partition member disposed between the connection terminal and the duct. an apparatus body; a recording head configured to discharge droplets onto a recording medium to form an image; a mist generation region in which the discharged droplets form a mist; a removable battery located inside the apparatus body and configured to supply power necessary for operation of the apparatus body; a connection terminal configured to connect the battery to the apparatus body, and disposed outside a mist generation region; a duct configured to collect the mist from the mist generation region; and a partition member disposed between the connection terminal and the duct.
Connection device for an electrical appliance, comprising: - a connection land of the appliance; - a holding element for a conductor provided with a passage substantially perpendicular to the connection land; - spring-forming means coupled to the holding element; - a compression member, formed as one by a gripping lever and a pivoting cam, that can act on an operating part of the spring-forming means and move the holding element substantially orthogonally to the connection land between a first, rest position in which the connection land is located substantially at a first end of the passage, and a second, compression position in which the passage is opened up and a conductor passing through the passage at the first end is located parallel to the connection land; characterized by a screen made of insulating material that acts as an interface between the operating part of the spring-forming means and the compression member, said screen covering the region of the spring-forming means that is exposed and being able to move with respect to the spring-forming means and the compression member. - a connection land of the appliance; - a holding element for a conductor provided with a passage substantially perpendicular to the connection land; - spring-forming means coupled to the holding element; - a compression member, formed as one by a gripping lever and a pivoting cam, that can act on an operating part of the spring-forming means and move the holding element substantially orthogonally to the connection land between a first, rest position in which the connection land is located substantially at a first end of the passage, and a second, compression position in which the passage is opened up and a conductor passing through the passage at the first end is located parallel to the connection land;
A vacuum forming mold for substrates comprising: a cavity; and a vacuum suction opening communicating with the cavity, wherein the vacuum suction opening is provided in a sidewall surface of the cavity, so that when a substrate is placed in the cavity air inside the cavity below a substrate can be sucked out through the sidewall surface; and wherein the expression "sidewall surface" refers to a surface that contacts the side surfaces of a substrate that is placed into the cavity during the forming process. a cavity; and a vacuum suction opening communicating with the cavity, wherein the vacuum suction opening is provided in a sidewall surface of the cavity, so that when a substrate is placed in the cavity air inside the cavity below a substrate can be sucked out through the sidewall surface; and wherein the expression "sidewall surface" refers to a surface that contacts the side surfaces of a substrate that is placed into the cavity during the forming process.
A radiation curable gel nail coating composition, comprising: from 40% to 60% by weight of di-[hydroxyethyl methacrylic] trimethylhexyl dicarbamate based on the weight of the nail coating composition; from 3% to 5% by weight of at least one methacrylic acid ester based on the weight of the nail coating composition; from 3% to 6% by weight by weight hydroxyethyl methacrylate based on the weight of the nail coating composition; from 3% to 6% by weight hydroxypropyl methacrylate based on the weight of the nail coating composition; from 0.1% to 0.4% by weight of a photoinitiator based on the weight of the nail coating composition; and a nail art paint. from 40% to 60% by weight of di-[hydroxyethyl methacrylic] trimethylhexyl dicarbamate based on the weight of the nail coating composition; from 3% to 5% by weight of at least one methacrylic acid ester based on the weight of the nail coating composition; from 3% to 6% by weight by weight hydroxyethyl methacrylate based on the weight of the nail coating composition; from 3% to 6% by weight hydroxypropyl methacrylate based on the weight of the nail coating composition; from 0.1% to 0.4% by weight of a photoinitiator based on the weight of the nail coating composition; and a nail art paint.
Apparatus for flame spraying thermoplastic powders, comprising a spray gun predisposed to perform the spraying of thermoplastic powders and to be fed with a flammable gas for producing a flame to be directed on the article to be coated in order to heat the surface of said article to a suitable operating temperature; said spray gun comprising a mixing device internally shaping separated discharge chambers (7, 9, 12), predisposed to be fed with said thermoplastic powders to be sprayed mixed to a transport inert gas, with a flow of compressed air and/or nitrogen and with said flammable gas, so as to direct, through a mixing chamber at the exit from said mixing device, a resulting flow of said thermoplastic powders on said heated surface, at least a couple of inclined elements (17, 18) inclined in a way as to orient respective flows (31, 32) of compressed air and/or nitrogen in direction convergent to said resulting flow of projected thermoplastic powders flowing out of the same mixing device, so as to modify the shape of the same resulting flow of projected thermoplastic powders giving said resulting flow a substantially flattened fan shape, feed means for thermoplastic powders, associated with said feed device; said apparatus being characterized in that it further comprises diffusion means for said flow of compressed air and/or nitrogen; diffusion means for said flammable gas; said inclined spray elements (17, 18) being radially arranged between said diffusion means of said flow of compressed air and/or nitrogen and said diffusion means for said flammable gas.
A lubrication arrangement configured to be used with a final drive being connected to an AWD coupling and having a bevel gear unit, in the driveline of a vehicle, said lubrication arrangement comprising an oil reservoir being external to the AWD coupling and to areas of the bevel gear unit to be lubricated, from which first and second oil channels (27, 28) in a housing of the bevel gear unit lead to areas (16, 17, 10, 12) in the bevel gear unit in special need of oil supply, and by a return channel in the housing of the bevel gear unit for returning oil thrown out by a crown wheel of the bevel gear unit against an inside of the housing to the reservoir, characterized by a third oil channel, connected to the first and second oil channels (27, 28) and leading to a disc package of the AWD coupling, as well as a return channel to the common external oil reservoir.
Charger for an electric vehicle on a train wagon, the charger comprising: - a first electric interface for connecting to or disconnecting from a busbar of the train wagon; - a second electric interface for connecting to or disconnecting from the vehicle and to exchange electric energy to charge the electric vehicle; - a power converter for converting power from the first interface into power for the second interface; characterized in also comprising: - a housing; - a handle attached to the housing; - a set of wheels such as to ease moving the charger; and - a data interface adapted to provide data exchange with the vehicle, the data concerning a charging process of the vehicle, wherein the data interface is a part of the second interface, and wherein the data interface is configured to modulate the data onto the electric energy exchanged between the charger and the electric vehicle. - a first electric interface for connecting to or disconnecting from a busbar of the train wagon; - a second electric interface for connecting to or disconnecting from the vehicle and to exchange electric energy to charge the electric vehicle; - a power converter for converting power from the first interface into power for the second interface; characterized in also comprising: - a housing; - a handle attached to the housing; - a set of wheels such as to ease moving the charger; and - a data interface adapted to provide data exchange with the vehicle, the data concerning a charging process of the vehicle, wherein the data interface is a part of the second interface, and wherein the data interface is configured to modulate the data onto the electric energy exchanged between the charger and the electric vehicle. - a housing; - a handle attached to the housing; - a set of wheels such as to ease moving the charger; and - a data interface adapted to provide data exchange with the vehicle, the data concerning a charging process of the vehicle, wherein the data interface is a part of the second interface, and wherein the data interface is configured to modulate the data onto the electric energy exchanged between the charger and the electric vehicle.
Drive device for a motor vehicle, having a drive unit, a charge air cooler for cooling fresh gas to be supplied to the drive unit, a first coolant circuit for cooling the drive unit and a second coolant circuit which is operable independently of the first coolant circuit, wherein the first coolant circuit is connected to a first coolant radiator and the second coolant circuit comprises a second coolant radiator, wherein the charge air cooler is fluidically connectable to each of the first coolant circuit and the second coolant circuit, characterised in that the second coolant circuit is operable independently of the charge air cooler for cooling a device to be cooled, and in that a coolant outlet of the charge air cooler is connected to the first coolant circuit and the second coolant circuit.
A lithium secondary battery comprising an anode comprising an anode active material and a cathode comprising a cathode active material and a polymer membrane and having a structure in which an electrode assembly comprising the polymer membrane disposed between the cathode and the anode is accommodated in a battery case, wherein the anode active material consists of a mixture of at least two kinds of lithium metal oxide particles having different mass median particle diameters D50, wherein a mix ratio of the first lithium metal oxide particles to the second lithium metal oxide particles is 70:30 to 30:70 by weight, wherein the anode active material is a lithium metal oxide represented by Formula 2 bellow: Li a Ti b O 4 wherein 0.5≤a≤3 and 1≤b≤2.5, and wherein the cathode active material is a lithium metal oxide represented by Formula 3 below: Li x MyMn 2-y O 4-z A z wherein 0.9≤x≤1.2, 0<y<2, and 0≤z<0.2; M is at least one element selected from the group consisting of Al, Mg, Ni, Co, Fe, Cr, V, Ti, Cu, B, Ca, Zn, Zr, Nb, Mo, Sr, Sb, W, Ti, and Bi; and A is at least one monovalent or divalent anion. characterised in that the mixture comprises first lithium metal oxide particles having a mass median particle diameter D50 of 700 nm to less than 1.8 μm and second lithium metal oxide particles having a mass median particle diameter D50 of 12 μm to less than 20 μm, wherein the lithium metal oxide particles are secondary particles comprising primary particles. wherein the anode active material consists of a mixture of at least two kinds of lithium metal oxide particles having different mass median particle diameters D50, wherein a mix ratio of the first lithium metal oxide particles to the second lithium metal oxide particles is 70:30 to 30:70 by weight, wherein the anode active material is a lithium metal oxide represented by Formula 2 bellow: Li a Ti b O 4 wherein 0.5≤a≤3 and 1≤b≤2.5, and wherein the cathode active material is a lithium metal oxide represented by Formula 3 below: Li x MyMn 2-y O 4-z A z wherein 0.9≤x≤1.2, 0<y<2, and 0≤z<0.2; M is at least one element selected from the group consisting of Al, Mg, Ni, Co, Fe, Cr, V, Ti, Cu, B, Ca, Zn, Zr, Nb, Mo, Sr, Sb, W, Ti, and Bi; and A is at least one monovalent or divalent anion. M is at least one element selected from the group consisting of Al, Mg, Ni, Co, Fe, Cr, V, Ti, Cu, B, Ca, Zn, Zr, Nb, Mo, Sr, Sb, W, Ti, and Bi; and A is at least one monovalent or divalent anion.