mhurhangee/ep-ind-claims huggingface dataset:
A process for the preparation of a catalyst system, comprising the steps of: a) combining a support material with a first composition including a first portion of at least one aluminoxane in a first solvent, wherein the first composition contains at least 5 mmoles of the at least one aluminoxane per gram of support material; b) heating the combined support material with the first composition in the first solvent to a temperature of from at least 30°C to 200°C to provide an aluminoxane loaded support; and c) contacting the aluminoxane loaded support with a second composition including at least one metallocene compound, a second solvent, and a cocatalyst, wherein the cocatalyst includes a second portion of the at least one aluminoxane, alone or in combination with an ionic compound and/or a Lewis acid. a) combining a support material with a first composition including a first portion of at least one aluminoxane in a first solvent, wherein the first composition contains at least 5 mmoles of the at least one aluminoxane per gram of support material; b) heating the combined support material with the first composition in the first solvent to a temperature of from at least 30°C to 200°C to provide an aluminoxane loaded support; and c) contacting the aluminoxane loaded support with a second composition including at least one metallocene compound, a second solvent, and a cocatalyst, wherein the cocatalyst includes a second portion of the at least one aluminoxane, alone or in combination with an ionic compound and/or a Lewis acid.
A conductive composition comprising a conductive polymer, a water-soluble polymer, and a solvent, wherein: the conductive polymer has water solubility or water dispersibility, the water-soluble polymer comprises a water-soluble polymer represented by formula, and an amount of a water-soluble polymer represented by formula as the water-soluble polymer is less than 0.005% by mass, based on a total mass of the conductive composition, as determined according to the description: wherein R 1 denotes a linear or branched alkyl group with 6 to 20 carbon atoms, Y 1 denotes a single bond, -S-, -S(=O)-, -C(=O)-O- or -O-, p1 denotes an average number of repetitions and is a number of from 1 to 50, and m denotes a number of from 1 to 5; and wherein each of R 4 and R 5 independently denotes a methyl or ethyl group, R 6 denotes a hydrophilic group derived from a water-soluble vinyl monomer, which is a raw material monomer of the water-soluble polymer, R 7 denotes a hydrogen atom or a methyl group, Z denotes a cyano group or a hydroxy group, and q denotes an average number of repetitions, and is a number of from 1 to 50. the conductive polymer has water solubility or water dispersibility, the water-soluble polymer comprises a water-soluble polymer represented by formula, and an amount of a water-soluble polymer represented by formula as the water-soluble polymer is less than 0.005% by mass, based on a total mass of the conductive composition, as determined according to the description:
A direct current circuit breaker comprising: a current sensor for sensing current of a system; a controller; a physical switch electrically coupled to the current sensor in series; and a first switch module electrically coupled to the physical switch in series, wherein the first switch module comprises a first base element; characterized by the first base element comprising: a first silicon carbide (SiC) metal-oxide-semiconductor field-effect transistor (MOSFET); and a second SiC MOSFET electrically coupled to the first SiC MOSFET in an opposite series connection mode; wherein the first and second SiC MOSFETs (Q1, Q2) are configured in a synchronous rectification mode by channel reverse conduction control; and wherein the controller is configured to control the first and second SiC MOSFETs (Q1, Q2) to connect current in the system, and break current of the first and second SiC MOSFETs (Q1, Q2) according to sensed current signals from the current sensor, wherein the current direction is from the first SiC MOSFET to the second SiC MOSFET of the first base element. a current sensor for sensing current of a system; a controller; a physical switch electrically coupled to the current sensor in series; and a first switch module electrically coupled to the physical switch in series, wherein the first switch module comprises a first base element; characterized by the first base element comprising: a first silicon carbide (SiC) metal-oxide-semiconductor field-effect transistor (MOSFET); and a second SiC MOSFET electrically coupled to the first SiC MOSFET in an opposite series connection mode; a first silicon carbide (SiC) metal-oxide-semiconductor field-effect transistor (MOSFET); and a second SiC MOSFET electrically coupled to the first SiC MOSFET in an opposite series connection mode; wherein the first and second SiC MOSFETs (Q1, Q2) are configured in a synchronous rectification mode by channel reverse conduction control; and wherein the controller is configured to control the first and second SiC MOSFETs (Q1, Q2) to connect current in the system, and break current of the first and second SiC MOSFETs (Q1, Q2) according to sensed current signals from the current sensor, wherein the current direction is from the first SiC MOSFET to the second SiC MOSFET of the first base element.
Method for producing at least one device with light emitting and/or light receiving diodes, comprising at least: - producing, on a substrate, a stack of layers including at least first and second semiconductor layers (108, 116) doped according to opposite types of conductivity, the first layer being arranged between the substrate and the second layer; - first etching of the stack from a front face of the stack located on the side opposite to that arranged against the substrate, forming first openings made through the entire thickness of the second layer and of which the bottom walls are formed by the first layer; - producing dielectric portions covering, in the first openings, side walls formed at least by the second layer; - second etching of the stack, extending the first openings through a remaining thickness of the first layer until reaching the substrate, the first openings delimiting portions (130, 136) of the first and second layers (108, 116) forming the p-n junctions of the diodes; - additional etching extending the first openings into a part of the substrate; - producing first electrically conductive portions arranged in the first openings and in contact electrically with the side walls of the portions of the first layer, forming first electrodes of the diodes, and producing second electrodes electrically connected to the portions of the second layer; - eliminating the substrate, exposing a rear face of each of the diodes and freeing parts of the first electrically conductive portions forming a collimation grid. - producing, on a substrate, a stack of layers including at least first and second semiconductor layers (108, 116) doped according to opposite types of conductivity, the first layer being arranged between the substrate and the second layer; - first etching of the stack from a front face of the stack located on the side opposite to that arranged against the substrate, forming first openings made through the entire thickness of the second layer and of which the bottom walls are formed by the first layer; - producing dielectric portions covering, in the first openings, side walls formed at least by the second layer; - second etching of the stack, extending the first openings through a remaining thickness of the first layer until reaching the substrate, the first openings delimiting portions (130, 136) of the first and second layers (108, 116) forming the p-n junctions of the diodes; - additional etching extending the first openings into a part of the substrate; - producing first electrically conductive portions arranged in the first openings and in contact electrically with the side walls of the portions of the first layer, forming first electrodes of the diodes, and producing second electrodes electrically connected to the portions of the second layer; - eliminating the substrate, exposing a rear face of each of the diodes and freeing parts of the first electrically conductive portions forming a collimation grid.
A support plate device for baking bakery, pastry or cake products, comprising a frame on which a solid support material is fixed configured so as to arrange housings for receiving dough rolls, said housings extending parallel to one another from one edge to an opposite edge of said plate, where each housing is made up of a solid sheet having an arched section and is made up of an independent element relative to another housing, characterized in that the adjacent edges of two neighboring housings being spaced apart so as to form a continuous slot between them, said slot defining a free passage for a rising heat flow by convection.
A friction control composition comprising: (a) from 40 to 95 weight percent water; (b) from 0.5 to 50 weight percent rheological agent; (c) from 0.5 to 2 weight percent antioxidant selected from the group consisting of a styrenated phenol type antioxidant; an amine type antioxidant, a hindered phenol type antioxidant; a thioester type antioxidant, and a combination thereof, for increasing retentivity of the friction control composition on a surface; and one or more of (d) from 0.5 to 40 weight percent retentivity agent; (e) from 0 to 40 weight percent lubricant; and (f) from 0 to 25 weight percent friction modifier wherein, if said lubricant is 0 weight percent, then said composition comprises at least 0.5 weight percent friction modifier, and wherein if said friction modifier is 0 weight percent, then said composition comprises at least 1 weight percent lubricant. (a) from 40 to 95 weight percent water; (b) from 0.5 to 50 weight percent rheological agent; (c) from 0.5 to 2 weight percent antioxidant selected from the group consisting of a styrenated phenol type antioxidant; an amine type antioxidant, a hindered phenol type antioxidant; a thioester type antioxidant, and a combination thereof, for increasing retentivity of the friction control composition on a surface; and one or more of (d) from 0.5 to 40 weight percent retentivity agent; (e) from 0 to 40 weight percent lubricant; and (f) from 0 to 25 weight percent friction modifier
A multistage compressor, comprising a low stage side compressing mechanism and a high stage side compressing mechanism provided in a housing with the low stage side compressing mechanism compressing an intermediate pressure refrigerant gas and the high stage side compressing mechanism suctioning the compressed intermediate pressure refrigerant gas to perform two-stage compression; characterized in that it comprises: an injection circuit for injecting an intermediate pressure refrigerant extracted from a refrigerant circuit into the intermediate pressure refrigerant gas suctioned to the high stage side compressing mechanism, the high stage side compressing mechanism including a bypass port cooperating with a capacity control mechanism for bypassing a refrigerant gas that is being compressed to a suction side, the injection circuit including an on/off mechanism for performing on/off control of refrigerant injection, and the capacity control mechanism and the on/off mechanism being operated in conjunction with each other. a low stage side compressing mechanism and a high stage side compressing mechanism provided in a housing with the low stage side compressing mechanism compressing an intermediate pressure refrigerant gas and the high stage side compressing mechanism suctioning the compressed intermediate pressure refrigerant gas to perform two-stage compression; characterized in that it comprises: an injection circuit for injecting an intermediate pressure refrigerant extracted from a refrigerant circuit into the intermediate pressure refrigerant gas suctioned to the high stage side compressing mechanism, the high stage side compressing mechanism including a bypass port cooperating with a capacity control mechanism for bypassing a refrigerant gas that is being compressed to a suction side, the injection circuit including an on/off mechanism for performing on/off control of refrigerant injection, and the capacity control mechanism and the on/off mechanism being operated in conjunction with each other.
An optoelectronic apparatus for securing a source of danger in a spatial zone, the optoelectronic apparatus having at least one sensor that works in the infrared spectrum and that can generate range-resolved data of the spatial zone, as well as an evaluation unit that is configured for the evaluation of the data for the detection of objects in a three-dimensional protected space within the spatial zone, wherein the source of danger is additionally at least partly secured by a mechanical partition that is at least very largely permeable for visually visible light, characterized in that the partition is coated with a layer (34, 36, 44) in such a way that the non-coated partition that is at least partly transparent for the sensor becomes visible for the sensor in a defined manner and becomes opaque in the infrared spectrum by means of the layer (34, 36, 44).
A method comprising: receiving, at a mobile hub that is associated with a communications network, a request for cloud service issued by an application executed by a mobile terminal; creating, on said mobile hub, an application agent based upon the application that issued the request; causing a request to be transmitted to a cloud service provider in response to the request for cloud service; receiving a response from the cloud service provider; causing a response to be provided to the mobile terminal based upon the response from the cloud service provider; receiving context information from the mobile terminal comprising location information; determining that the mobile terminal has moved to another region based upon the context information; identifying a different mobile hub to support cloud services for the mobile terminal within the other region; and causing information regarding the different mobile hub to be provided to the mobile terminal. receiving, at a mobile hub that is associated with a communications network, a request for cloud service issued by an application executed by a mobile terminal; creating, on said mobile hub, an application agent based upon the application that issued the request; causing a request to be transmitted to a cloud service provider in response to the request for cloud service; receiving a response from the cloud service provider; causing a response to be provided to the mobile terminal based upon the response from the cloud service provider; receiving context information from the mobile terminal comprising location information; determining that the mobile terminal has moved to another region based upon the context information; identifying a different mobile hub to support cloud services for the mobile terminal within the other region; and causing information regarding the different mobile hub to be provided to the mobile terminal.
A process for the continuous manufacture of a building product composition comprising: a) providing a mixer reaction chamber; b) continuously feeding into the mixer reaction chamber compounds: c) continuously mixing, for a predetermined length of time, the compounds within said mixer reaction chamber to produce a slurry; d) withdrawing the slurry from the mixer reaction chamber; and e) utilizing said slurry in the manufacture of a building product; wherein the compounds comprise compounds in specified ranges by weight percent: MgO: 3.33 to 70.00 % KH 2 PO 4: 4.67 to 70.00% stucco hemihydrate (CaSO 4 • 1/2 H 2 O): 10.5 to 90.0 % adding up to 100 weight %; wherein the ratio of MgO to KH 2 PO 4 is between 1:1.8 and 1: 3.37; and addition of water: 15 to 60 % by weight relative to the solid constituents; and wherein the manufactured building product comprises KMgPO 4 •6H 2 O in an amount of from 0.1 to 67.0 weight percent; K 2 Ca(SO 4) 2 •H 2 O in an amount of from 2.5 to 60.0 weight percent; and one or more of anhydrite gypsum, stucco (CaSO 4 •1/2H 2 O), hydrated gypsum (CaSO 4 •2H 2 O), and MgO making up the remaining composition. a) providing a mixer reaction chamber; b) continuously feeding into the mixer reaction chamber compounds: c) continuously mixing, for a predetermined length of time, the compounds within said mixer reaction chamber to produce a slurry; d) withdrawing the slurry from the mixer reaction chamber; and e) utilizing said slurry in the manufacture of a building product; wherein the compounds comprise compounds in specified ranges by weight percent: MgO: 3.33 to 70.00 % KH 2 PO 4: 4.67 to 70.00% stucco hemihydrate (CaSO 4 • 1/2 H 2 O): 10.5 to 90.0 % adding up to 100 weight %; wherein the ratio of MgO to KH 2 PO 4 is between 1:1.8 and 1: 3.37; and addition of water: 15 to 60 % by weight relative to the solid constituents; and wherein the manufactured building product comprises KMgPO 4 •6H 2 O in an amount of from 0.1 to 67.0 weight percent; K 2 Ca(SO 4) 2 •H 2 O in an amount of from 2.5 to 60.0 weight percent; and one or more of anhydrite gypsum, stucco (CaSO 4 •1/2H 2 O), hydrated gypsum (CaSO 4 •2H 2 O), and MgO making up the remaining composition.
A method for analyzing scans of a shoe part to generate dimension data, which is useable to model three-dimensional (3-D) features of the shoe part, the method comprising: attaching a shoe bottom onto a lasted shoe upper, such that a terminal edge of the shoe bottom encircles the lasted shoe upper; projecting a laser beam onto the shoe bottom and the lasted shoe upper, such that a first segment of a projected laser line extends on the shoe bottom and a second segment of the projected laser line extends on the lasted shoe upper; recording, with at least one camera (32, 438), an image of the projected laser line that depicts a first-segment representation and a second-segment representation, wherein an interface region between the first-segment representation and a second-segment representation represents a position of the terminal edge; identifying a coordinate point of the interface region that defines a position of the interface region as depicted in the image; and converting the coordinate point to a geometric coordinate point of the lasted shoe upper, wherein the geometric coordinate point is deemed a bite point that represents a position on the lasted shoe upper that is aligned with a portion of the terminal edge, wherein settings of the at least one camera (32, 438) and/or a color of the laser beam and/or a power level of the laser beam is/are adjusted based on a color of the shoe bottom and the lasted shoe upper. attaching a shoe bottom onto a lasted shoe upper, such that a terminal edge of the shoe bottom encircles the lasted shoe upper; projecting a laser beam onto the shoe bottom and the lasted shoe upper, such that a first segment of a projected laser line extends on the shoe bottom and a second segment of the projected laser line extends on the lasted shoe upper; recording, with at least one camera (32, 438), an image of the projected laser line that depicts a first-segment representation and a second-segment representation, wherein an interface region between the first-segment representation and a second-segment representation represents a position of the terminal edge; identifying a coordinate point of the interface region that defines a position of the interface region as depicted in the image; and converting the coordinate point to a geometric coordinate point of the lasted shoe upper, wherein the geometric coordinate point is deemed a bite point that represents a position on the lasted shoe upper that is aligned with a portion of the terminal edge, wherein settings of the at least one camera (32, 438) and/or a color of the laser beam and/or a power level of the laser beam is/are adjusted based on a color of the shoe bottom and the lasted shoe upper.
A circular stapler comprising: a cartridge assembly including a loading unit having a staple cartridge, a plurality of staples received within the staple cartridge, and a pusher assembly movable relative to the staple cartridge; and an anvil assembly including an anvil member, and a first pull cable extending through the anvil member and engageable with the pusher assembly, wherein retraction of the first pull cable causes the pusher assembly to move relative to the staple cartridge to eject the plurality of staples from the staple cartridge, characterized in that the cartridge assembly includes a trocar member and the anvil assembly includes a second pull cable, the second pull cable being engageable with the trocar member to approximate the loading unit relative to the anvil member. a cartridge assembly including a loading unit having a staple cartridge, a plurality of staples received within the staple cartridge, and a pusher assembly movable relative to the staple cartridge; and an anvil assembly including an anvil member, and a first pull cable extending through the anvil member and engageable with the pusher assembly, wherein retraction of the first pull cable causes the pusher assembly to move relative to the staple cartridge to eject the plurality of staples from the staple cartridge, characterized in that the cartridge assembly includes a trocar member and the anvil assembly includes a second pull cable, the second pull cable being engageable with the trocar member to approximate the loading unit relative to the anvil member.
A method of delivering multimedia content to a mobile device operating in a macro cell in a cellular network, the cellular network supporting a first bitrate and a second bitrate for transmitting the multimedia content to the mobile device, wherein the method comprises performing the following steps by a network entity in the cellular network: streaming the multimedia content to the mobile device at the first bitrate, wherein the first bitrate is available throughout the macro cell and wherein the second bitrate is available only over a small cell within the macro cell and is higher than the first bitrate; and upon detecting that the mobile device is present in the small cell, delivering the multimedia content to the mobile device at the second bitrate instead of streaming at the first bitrate. streaming the multimedia content to the mobile device at the first bitrate, wherein the first bitrate is available throughout the macro cell and wherein the second bitrate is available only over a small cell within the macro cell and is higher than the first bitrate; and upon detecting that the mobile device is present in the small cell, delivering the multimedia content to the mobile device at the second bitrate instead of streaming at the first bitrate.