mhurhangee/ep-ind-claims huggingface dataset:
An interrupter assembly for power distribution systems, the interrupter assembly comprising a drive lever, a linking rod, and an interrupter unit, wherein the interrupter unit comprises a movable contact and a stationary contact, the movable contact having a stem and being movable along an axis of the movable contact; wherein the drive lever is adapted for being driven by the linking rod to drive the stem for moving the movable contact, wherein the linking rod is connected to the drive lever via a linking connection allowing at least a rotation of the linking rod relative to the drive lever, wherein the drive lever is connected to the stem via a stem connection allowing at least a rotation of the drive lever relative to the stem, wherein the drive lever is mounted via a revolute joint, the revolute joint allowing a rotation of the drive lever for transmitting a movement of the linking rod to a movement of the stem, wherein a rotation axis of the linking connection, a rotation axis of the revolute joint, and a rotation axis of the stem connection are parallel to each other, wherein the linking connection is arranged in an axially intermediate location between the stem connection and the stationary contact, and characterised in that the axially intermediate location is defined along the axis of the movable contact. wherein the interrupter unit comprises a movable contact and a stationary contact, the movable contact having a stem and being movable along an axis of the movable contact; wherein the drive lever is adapted for being driven by the linking rod to drive the stem for moving the movable contact, wherein the linking rod is connected to the drive lever via a linking connection allowing at least a rotation of the linking rod relative to the drive lever, wherein the drive lever is connected to the stem via a stem connection allowing at least a rotation of the drive lever relative to the stem, wherein the drive lever is mounted via a revolute joint, the revolute joint allowing a rotation of the drive lever for transmitting a movement of the linking rod to a movement of the stem, wherein a rotation axis of the linking connection, a rotation axis of the revolute joint, and a rotation axis of the stem connection are parallel to each other, wherein the linking connection is arranged in an axially intermediate location between the stem connection and the stationary contact, and characterised in that the axially intermediate location is defined along the axis of the movable contact.
A method for decontaminating soil and/or sludge polluted by hydrocarbons, characterised in that it comprises the successive steps of: - a) mixing said soil and/or said sludge polluted by hydrocarbons with an aqueous solution comprising a mixture of glycol and glycerol so as to obtain a mixture a'), - b) adding to mixture a') an aqueous solution comprising hydrogen peroxide and mixing so as to obtain a mixture b'), and - c) settling mixture b') in a separating-settling tank comprising water, such that the hydrocarbons are separated by flotation from said soil and/or sludge and that said soil/and or said sludge from which the hydrocarbons have been removed precipitates out on the bottom of the settling tank. - a) mixing said soil and/or said sludge polluted by hydrocarbons with an aqueous solution comprising a mixture of glycol and glycerol so as to obtain a mixture a'), - b) adding to mixture a') an aqueous solution comprising hydrogen peroxide and mixing so as to obtain a mixture b'), and - c) settling mixture b') in a separating-settling tank comprising water, such that the hydrocarbons are separated by flotation from said soil and/or sludge and that said soil/and or said sludge from which the hydrocarbons have been removed precipitates out on the bottom of the settling tank.
Process for the production of a device for dispensing eye drops, comprising at least the following steps: - providing a first container comprising a tubular element with an open end portion, - providing a second container comprising a wall configured to be engaged in a fluid-tight manner around the tubular element, - providing a spacer having oppositely arranged bases which are substantially parallel, - introducing water or water-based solution for injection inside the first container, - introducing a solution or dispersion comprising a drug of a chemical and/or biotechnological nature inside the second container, - arranging the spacer between the first and second containers (2, 3) so that the bases are in contact with the first and second containers (2, 3), - engaging in a fluid-tight manner the wall of the second container around the tubular element of the first container; and characterized in - freeze-drying the solution or dispersion comprising the drug, wherein the step of freeze-drying the solution or dispersion comprising the drug is performed following assembly and comprises subjecting the first container, the second container, and the spacer assembly to a freeze-drying atmosphere. - providing a first container comprising a tubular element with an open end portion, - providing a second container comprising a wall configured to be engaged in a fluid-tight manner around the tubular element, - providing a spacer having oppositely arranged bases which are substantially parallel, - introducing water or water-based solution for injection inside the first container, - introducing a solution or dispersion comprising a drug of a chemical and/or biotechnological nature inside the second container, - arranging the spacer between the first and second containers (2, 3) so that the bases are in contact with the first and second containers (2, 3), - engaging in a fluid-tight manner the wall of the second container around the tubular element of the first container; and characterized in - freeze-drying the solution or dispersion comprising the drug,
A method of forming a bristle stack for a paint brush comprising the steps of: - providing a plurality of synthetic, virgin bristle filaments, all of the filaments being substantially the same length; and - forming the filaments into a stack; characterised by the steps of: - placing the stack into a ferrule; - presenting the bristle stack to a forming tool with the bristle filaments already fitted into the ferrule; and - using a push-up process such that a ferrule end of the stack is caused to conform to a shape of the forming tool, shaping the bristle stack such that both ends collectively define a first notional plane which is generally curved, and a second notional plane which is generally orthogonal to the first notional plane and is also generally curved. - providing a plurality of synthetic, virgin bristle filaments, all of the filaments being substantially the same length; and - forming the filaments into a stack; characterised by the steps of: - placing the stack into a ferrule; - placing the stack into a ferrule; - presenting the bristle stack to a forming tool with the bristle filaments already fitted into the ferrule; and - using a push-up process such that a ferrule end of the stack is caused to conform to a shape of the forming tool, shaping the bristle stack such that both ends collectively define a first notional plane which is generally curved, and a second notional plane which is generally orthogonal to the first notional plane and is also generally curved.
A tunnel field-effect transistor device comprising: - a semiconductor substrate, - a fin structure disposed on said semiconductor substrate, said fin structure comprising a channel region and a source region disposed on said channel region, - a drain region contacting the channel region, wherein the source region and the drain region are of opposite conductivity type, - a pocket layer covering a gate interface portion of the source region and contacting at least part of the channel region, - a gate dielectric layer covering said pocket layer and - a gate electrode covering said gate dielectric layer, wherein said gate interface portion of the source region comprises at least three mutually non-coplanar surface segments (41,42,43,44), the tunnel field-effect transistor device further comprising a source contact for providing an electrical interface to the source region, a drain contact for providing an electrical interface to the drain region and a gate contact for providing an electrical interface to the gate electrode, characterized in that the gate interface portion comprises an end portion of the source region with respect to a longitudinal direction along which the fin structure extends over the semiconductor substrate, and further characterized in that the source contact is disposed between the drain contact and the gate contact along said longitudinal direction. - a semiconductor substrate, - a fin structure disposed on said semiconductor substrate, said fin structure comprising a channel region and a source region disposed on said channel region, - a drain region contacting the channel region, wherein the source region and the drain region are of opposite conductivity type, - a pocket layer covering a gate interface portion of the source region and contacting at least part of the channel region, - a gate dielectric layer covering said pocket layer and - a gate electrode covering said gate dielectric layer,
A method for forming chromatographic material, said method comprising: reacting support material with one or more first reactants comprising a) 3-(mercaptopropyl)trimethoxysilane or b) a combination of at least one epoxy silane, in particular (3-glycidoxypropyl)trimethoxysilane, and 1,2-ethanedithiol so as to form an intermediate product having thiol groups thereon, and polymerizing one or more monomers onto the intermediate product via the thiol groups so as to form polymer chains covalently bonded to the thiol groups, wherein said polymerizing step comprises utilizing a reaction mixture consisting of (i) the intermediate product having thiol groups thereon, (ii) the one or more monomers, (iii) a single oxidizing agent consisting of a bromate ion-containing salt, and (iv) deionized water, and wherein said monomers for forming the polymer chains extending from a surface of the support material are selected from 2-acrylamido-2-methyl-1-propanesulfonic acid, acrylic acid, methacrylic acid, N,N-diethylaminoethyl acrylate, (3-acrylamidopropyl)trimethylammonium chloride, diallyldimethylammonium chloride, or any combination thereof. reacting support material with one or more first reactants comprising a) 3-(mercaptopropyl)trimethoxysilane or b) a combination of at least one epoxy silane, in particular (3-glycidoxypropyl)trimethoxysilane, and 1,2-ethanedithiol so as to form an intermediate product having thiol groups thereon, and polymerizing one or more monomers onto the intermediate product via the thiol groups so as to form polymer chains covalently bonded to the thiol groups, wherein said polymerizing step comprises utilizing a reaction mixture consisting of (i) the intermediate product having thiol groups thereon, (ii) the one or more monomers, (iii) a single oxidizing agent consisting of a bromate ion-containing salt, and (iv) deionized water, and wherein said monomers for forming the polymer chains extending from a surface of the support material are selected from 2-acrylamido-2-methyl-1-propanesulfonic acid, acrylic acid, methacrylic acid, N,N-diethylaminoethyl acrylate, (3-acrylamidopropyl)trimethylammonium chloride, diallyldimethylammonium chloride, or any combination thereof.
A thermal interface material comprising thermally conductive filler dispersed in a resin system, wherein the resin system comprises a block copolymer, a tackifier and at least one plasticizer having a Volatile Organic Compound content of no greater than 500 ppm as measured according to the TGA Procedure of the description, wherein the Volatile Organic Compound content of the thermal interface material is no greater than 400 ppm as measured according to the Thermal Desorption Procedure of the description, based on the total weight of the thermal interface material; and further wherein the resin system comprises (a) 20 to 40 weight percent block copolymers, (b) 20 to 40 weight percent tackifiers, and (c) 30 to 50 weight percent plasticizer(s), provided that the total weight percent of block copolymer(s), tackifier(s) and plasticizer(s) is 100%. (a) 20 to 40 weight percent block copolymers, (b) 20 to 40 weight percent tackifiers, and (c) 30 to 50 weight percent plasticizer(s),
Method for replacing railway rails in which the worn rails of two strings forming the track are replaced by new rails, in which method, for each string of rails, the following steps are carried out: a new rail is taken from wagons for transporting new rails containing a plurality of new rails arranged on roller supports allowing them to be moved freely in the longitudinal direction; the new rail is moved by guiding it with guide means (31, 32, 33, 34, 35, 35') and it is placed on rollers (36, 36') previously deposited on the ground between the sleepers of the rails to be replaced; said new rail, previously placed on the rollers (36, 36'), is butt-welded to a new rail with a welding train (140, 150); the welding train (140, 150) is moved such that the welded new rail is unloaded from the transport wagons by sliding on the roller supports and on the guide means (31-35'); during the movement of the welding train, a new rail is taken from the plurality of new rails and it is brought into the vicinity of the free end of the welded rail in the process of being unloaded; steps to are carried out in a repeated manner in order to achieve the predetermined number of new rails welded in succession to one another; the welded new rails are destressed by heating to a destressing temperature; the old rails are replaced by the welded new rails destressed by fastening them at their destressing temperature; the replaced old rails are discharged. a new rail is taken from wagons for transporting new rails containing a plurality of new rails arranged on roller supports allowing them to be moved freely in the longitudinal direction; the new rail is moved by guiding it with guide means (31, 32, 33, 34, 35, 35') and it is placed on rollers (36, 36') previously deposited on the ground between the sleepers of the rails to be replaced; said new rail, previously placed on the rollers (36, 36'), is butt-welded to a new rail with a welding train (140, 150); the welding train (140, 150) is moved such that the welded new rail is unloaded from the transport wagons by sliding on the roller supports and on the guide means (31-35'); during the movement of the welding train, a new rail is taken from the plurality of new rails and it is brought into the vicinity of the free end of the welded rail in the process of being unloaded; steps to are carried out in a repeated manner in order to achieve the predetermined number of new rails welded in succession to one another; the welded new rails are destressed by heating to a destressing temperature; the old rails are replaced by the welded new rails destressed by fastening them at their destressing temperature; the replaced old rails are discharged.
Conductor assembly (1, 1', 1 ", 1"') for a power network, the conductor assembly (1, 1', 1", 1"') comprising - an inner conductor, defining axial directions and radial directions, - an insulating layer arranged concentrically around at least an axial section of the inner conductor, - a sensing electrode (40, 40'), arranged radially outward of the insulating layer, and operable as a first electrode of a sensing capacitor of a voltage sensor, - the inner conductor or a conductor extension is operable as the second electrode of a sensing capacitor of a voltage sensor, - the conductor assembly (1, 1', 1", 1"') further comprising: - a voltage pickup element (70, 70'), comprising an electrically conductive first major surface and an opposed electrically conductive second major surface, the first major surface being in a surface contact with the sensing electrode (40, 40'), and - an electrode wire, in electrical and mechanical contact with the voltage pickup element (70, 70'), for electrically connecting the voltage pickup element (70, 70') with an electric or electronic component disposed remote from the sensing electrode (40, 40'), characterized in, that the voltage pickup element comprises a conformable portion or is conformable. - an inner conductor, defining axial directions and radial directions, - an insulating layer arranged concentrically around at least an axial section of the inner conductor, - a sensing electrode (40, 40'), arranged radially outward of the insulating layer, and operable as a first electrode of a sensing capacitor of a voltage sensor, - the inner conductor or a conductor extension is operable as the second electrode of a sensing capacitor of a voltage sensor, - the conductor assembly (1, 1', 1", 1"') further comprising: - a voltage pickup element (70, 70'), - an electrode wire, in electrical and mechanical contact with the voltage pickup element (70, 70'), for electrically connecting the voltage pickup element (70, 70') with an electric or electronic component disposed remote from the sensing electrode (40, 40'),
A method of signal transmission for a transmitter device in a mobile communication system, the method comprising: receiving, from a receiver, channel information including signal-to-interference-plus-noise ratio, SINR; determining a modulation scheme for data transmission as a first modulation scheme based on the SINR being less than a threshold value, and the modulation scheme for the data transmission as a second modulation scheme based on the SINR being greater than the threshold value; identifying a modulation and coding scheme, MCS, level based on the determined modulation scheme; generating modulated symbols corresponding to data to be transmitted, based on an amplitude and a phase of a carrier wave associated with the identified MCS level, and a sequence, in case that the determined modulation scheme is the first modulation scheme, wherein a length of the sequence is selected based on the channel information; generating the modulated symbols corresponding to the data to be transmitted, based on the amplitude and the phase of the carrier wave associated with the identified MCS level, in case that the determined modulation scheme is the second modulation scheme; and transmitting, to the receiver, a signal including the data. receiving, from a receiver, channel information including signal-to-interference-plus-noise ratio, SINR; determining a modulation scheme for data transmission as a first modulation scheme based on the SINR being less than a threshold value, and the modulation scheme for the data transmission as a second modulation scheme based on the SINR being greater than the threshold value; identifying a modulation and coding scheme, MCS, level based on the determined modulation scheme; generating modulated symbols corresponding to data to be transmitted, based on an amplitude and a phase of a carrier wave associated with the identified MCS level, and a sequence, in case that the determined modulation scheme is the first modulation scheme, wherein a length of the sequence is selected based on the channel information; generating the modulated symbols corresponding to the data to be transmitted, based on the amplitude and the phase of the carrier wave associated with the identified MCS level, in case that the determined modulation scheme is the second modulation scheme; and transmitting, to the receiver, a signal including the data.
A method for forming an article comprising: depositing on a substrate a first absorber layer; after depositing the first absorber layer, depositing a first selective light modulator layer; after depositing the first selective light modulator layer, depositing a magnetic-containing layer; after depositing the magnetic-containing layer, depositing a second selective light modulator layer; and after depositing the second selective light modulator layer, depositing a second absorber layer; wherein at least one of the first and second selective light modulator layers (12, 12') is deposited using a liquid coating process. depositing on a substrate a first absorber layer; after depositing the first absorber layer, depositing a first selective light modulator layer; after depositing the first selective light modulator layer, depositing a magnetic-containing layer; after depositing the magnetic-containing layer, depositing a second selective light modulator layer; and after depositing the second selective light modulator layer, depositing a second absorber layer; wherein at least one of the first and second selective light modulator layers (12, 12') is deposited using a liquid coating process.
A dispensing device for dental material, comprising: - a receptacle for receiving a container for the dental material, - at least two plungers for extruding two components of the dental material from the container, and - a planetary gear drive for moving the plungers and the container relative to each other, - wherein the planetary gear drive has at least three planet gears (12a, 12b, 12c) which are in engagement with an annulus gear, and wherein the annulus gear is supported against radial inward directed forces on the annulus gear only by the planet gears (12a, 12b, 12c); the device further having: - a drive shaft, wherein the planetary gear drive is adapted to drive the drive shaft by the planet gear carrier and thereby to move the plungers; - a motor which is engagable with the sun gear for rotating the drive shaft by motor power; and - a second drive shaft for driving a mixing rotor of a dynamic mixer for mixing the components to form the dental material; wherein the device further comprises: - a hand wheel which is engageable with the annulus gear for manually rotating the drive shaft; and - a sun gear being in engagement with each of the planet gears (12a, 12b, 12c); - wherein the motor is engaged with the sun gear via a worm gear such that in an inactivated stage of the motor the sun gear is automatically blocked against rotation by the worm gear. - a receptacle for receiving a container for the dental material, - at least two plungers for extruding two components of the dental material from the container, and - a planetary gear drive for moving the plungers and the container relative to each other, - wherein the planetary gear drive has at least three planet gears (12a, 12b, 12c) which are in engagement with an annulus gear, and wherein the annulus gear is supported against radial inward directed forces on the annulus gear only by the planet gears (12a, 12b, 12c); - a drive shaft, wherein the planetary gear drive is adapted to drive the drive shaft by the planet gear carrier and thereby to move the plungers; - a motor which is engagable with the sun gear for rotating the drive shaft by motor power; and - a second drive shaft for driving a mixing rotor of a dynamic mixer for mixing the components to form the dental material; - a hand wheel which is engageable with the annulus gear for manually rotating the drive shaft; and - a sun gear being in engagement with each of the planet gears (12a, 12b, 12c); - wherein the motor is engaged with the sun gear via a worm gear such that in an inactivated stage of the motor the sun gear is automatically blocked against rotation by the worm gear.