mhurhangee/ep-ind-claims huggingface dataset:
A process for the preparation of organic bromide of formula from a carboxylic acid of formula represented by scheme 1: said process comprises radical bromodecarboxylation reaction of carboxylic acid with a bromoisocyanurate to yield organic bromide; wherein said bromoisocyanurate is tribromoisocyanuric acid, dibromoisocyanuric acid, bromodichloroisocyanuric acid, dibromochloroisocyanuric acid, bromochloroisocyanuric acid, or any combination thereof; A is arene, alkane, cycloalkane or saturated heterocycle; n is an integer of at least 1; m is an integer of at least 0; and each Q is independently F, Cl, Br, R 1, acyl, C R 1, C OR 1, C Cl, C N(R 1) 2, CN, SO 2 R 1, SO 3 R 1, NO 2, N(R 1) 3 +, OR 1, OCF 3, O-acyl, OC R 1, OSO 2 R 1, SR 1, S-acyl, SC R 1, N(R 1)acyl, N(R 1)C R 1, N(R 1)SO 2 R 1, N(acyl) 2, N[C R 1]SO 2 R 1, N[C R 1] 2, CF 3; or any two vicinal Q substituents are joined to form a 5- or 6-membered substituted or unsubstituted, saturated or unsaturated carbocyclic or heterocyclic ring; wherein each R 1 is independently aryl, alkyl, cycloalkyl or heterocyclyl, wherein said R 1 is optionally substituted by one or more substituents of R 2; wherein each R 2 is independently F, Cl, Br, COOH, acyl, aryl, alkyl, cycloalkyl or heterocyclyl; wherein if either one of R 2 in is carboxylic group COOH, then the respective R 2 in is Br; wherein the position of said Br and Q in said structure of formula correspond to the same position of said COOH and Q, respectively in said structure of formula. said bromoisocyanurate is tribromoisocyanuric acid, dibromoisocyanuric acid, bromodichloroisocyanuric acid, dibromochloroisocyanuric acid, bromochloroisocyanuric acid, or any combination thereof; A is arene, alkane, cycloalkane or saturated heterocycle; n is an integer of at least 1; m is an integer of at least 0; and each Q is independently F, Cl, Br, R 1, acyl, C R 1, C OR 1, C Cl, C N(R 1) 2, CN, SO 2 R 1, SO 3 R 1, NO 2, N(R 1) 3 +, OR 1, OCF 3, O-acyl, OC R 1, OSO 2 R 1, SR 1, S-acyl, SC R 1, N(R 1)acyl, N(R 1)C R 1, N(R 1)SO 2 R 1, N(acyl) 2, N[C R 1]SO 2 R 1, N[C R 1] 2, CF 3; or any two vicinal Q substituents are joined to form a 5- or 6-membered substituted or unsubstituted, saturated or unsaturated carbocyclic or heterocyclic ring; wherein each R 1 is independently aryl, alkyl, cycloalkyl or heterocyclyl, wherein said R 1 is optionally substituted by one or more substituents of R 2; wherein each R 2 is independently F, Cl, Br, COOH, acyl, aryl, alkyl, cycloalkyl or heterocyclyl; wherein if either one of R 2 in is carboxylic group COOH, then the respective R 2 in is Br; wherein the position of said Br and Q in said structure of formula correspond to the same position of said COOH and Q, respectively in said structure of formula.
A liquid stream combining apparatus for combining at least two liquid streams in layers, comprising (a) a component A having numerous slits therein through which the respective liquid streams are passed, (b) a component B having a first stream combining section therein for combining numerous layered liquid streams in a predetermined order each of which is formed with each of the liquid streams passed the respective slits and for forming a first layered liquid stream, (c) wherein two or more of the component A are provided independently of each other and two or more of the component B are also provided independently of each other, (d) components C each of which has a liquid retaining section therein for receiving the respective liquid stream to be supplied to the liquid stream combining apparatus and for supplying the respective liquid streams to the respective components A, and (e) a component D which has a second stream combining section therein for combining the first layered liquid streams formed by the respective components B, in layers in a predetermined order, to form a second layered liquid stream. (a) a component A having numerous slits therein through which the respective liquid streams are passed, (b) a component B having a first stream combining section therein for combining numerous layered liquid streams in a predetermined order each of which is formed with each of the liquid streams passed the respective slits and for forming a first layered liquid stream, (c) wherein two or more of the component A are provided independently of each other and two or more of the component B are also provided independently of each other, (d) components C each of which has a liquid retaining section therein for receiving the respective liquid stream to be supplied to the liquid stream combining apparatus and for supplying the respective liquid streams to the respective components A, and (e) a component D which has a second stream combining section therein for combining the first layered liquid streams formed by the respective components B, in layers in a predetermined order, to form a second layered liquid stream.
A method of manufacturing a gas barrier film, comprising: depositing an atomic layer deposition film on a surface of a plastic substrate to form a gas barrier laminate, using atomic layer deposition; depositing a curable resin layer on a support from which the curable resin layer is peelable, to form an overcoat laminate; laminating the overcoat laminate to the gas barrier laminate, with the atomic layer deposition film and the curable resin layer facing each other, and transferring the curable resin layer onto the atomic layer deposition film; curing the curable resin layer through application of heat or an active energy beam; and releasing the curable resin layer from the support wherein the cured curable resin layer is the outermost layer of the gas barrier film. depositing an atomic layer deposition film on a surface of a plastic substrate to form a gas barrier laminate, using atomic layer deposition; depositing a curable resin layer on a support from which the curable resin layer is peelable, to form an overcoat laminate; laminating the overcoat laminate to the gas barrier laminate, with the atomic layer deposition film and the curable resin layer facing each other, and transferring the curable resin layer onto the atomic layer deposition film; curing the curable resin layer through application of heat or an active energy beam; and releasing the curable resin layer from the support
Protective shock absorbing element for a transport and/or temporary storage packaging for radioactive materials, said element comprising a solid infill made of rigid and brittle foam, a rigid casing covering the infill, the infill having, between a face exposed to impacts and an opposite face adjacent to the packaging, a foam discontinuity, the discontinuity having dimensions equal to at least five times a maximum diameter of foam pores, the foam delimiting the discontinuity by a section comprising a reentrant angle in the foam, characterised in that the foam is a carbon foam.
A valve unit (40A, B, 60, 80) comprising: a channel (35, 36, 37) which forms a fluid passage; a first drain chamber (46, 66, 68) formed along the channel; a valve substance including a phase change material that is non-fluidic at ambient temperature and fluidic when energy is applied thereto; a valve substance container (42A, B, 62, 82) which contains the valve substance; and a valve connection path (44A, B, 63, 64) which connects the valve substance container (42A, B, 62, 82) to the channel (35, 36, 37), characterised in that a second drain chamber (47, 67, 69) is formed along the channel, the first and the second drain chambers being spaced from each other wherein the connection point of the channel (35, 36, 37) where the valve connection path meets the channel is located between the first drain chamber (46, 66, 68) and the second drain chamber (47, 67, 69), and wherein when energy is applied to the valve substance contained in the valve substance container, the valve substance expands and becomes fluidic and a portion of the valve substance flows to the channel through the valve connection path, and the portion of the valve substance flowed in the channel becomes non-fluidic and blocks the channel; and when energy is applied to the portion of the valve substance blocking the channel, the portion of the valve substance becomes fluidic and discharged to the first drain chamber and the second drain chamber to open the channel. a channel (35, 36, 37) which forms a fluid passage; a first drain chamber (46, 66, 68) formed along the channel; a valve substance including a phase change material that is non-fluidic at ambient temperature and fluidic when energy is applied thereto; a valve substance container (42A, B, 62, 82) which contains the valve substance; and a valve connection path (44A, B, 63, 64) which connects the valve substance container (42A, B, 62, 82) to the channel (35, 36, 37), characterised in that a second drain chamber (47, 67, 69) is formed along the channel, the first and the second drain chambers being spaced from each other wherein the connection point of the channel (35, 36, 37) where the valve connection path meets the channel is located between the first drain chamber (46, 66, 68) and the second drain chamber (47, 67, 69), and wherein when energy is applied to the valve substance contained in the valve substance container, the valve substance expands and becomes fluidic and a portion of the valve substance flows to the channel through the valve connection path, and the portion of the valve substance flowed in the channel becomes non-fluidic and blocks the channel; and when energy is applied to the portion of the valve substance blocking the channel, the portion of the valve substance becomes fluidic and discharged to the first drain chamber and the second drain chamber to open the channel.
A method of manufacturing a semiconductor wafer having a roughened metallization layer surface, the method comprising: immersing the wafer in an electrolytic bath; generating gas bubbles in the electrolytic bath; and electrochemically roughening a surface of the metallization layer on the wafer in the presence of the gas bubbles by applying a reversing voltage between the metallization layer and an electrode of the electrolytic bath. immersing the wafer in an electrolytic bath; generating gas bubbles in the electrolytic bath; and electrochemically roughening a surface of the metallization layer on the wafer in the presence of the gas bubbles by applying a reversing voltage between the metallization layer and an electrode of the electrolytic bath.
An insulated electrical cable that includes: - at least two electrical conductors of metal, each surrounded by an electrically insulating layer; - an electrical shield (5, 6, 11) that surrounds the conductors outside of the insulating layer; and - a moisture barrier that surrounds the electrical shield, characterised by: - at least two shield strips of the electrical shield, which are arranged in a space between the electrical conductors and the moisture barrier, which shield strips fill at least partially the said regions; - that the shield strips are of at least partially electrically conducting filler material; - shield wires of metal, which are arranged in the shield strips and which are in electrical contact with them; and - that the moisture barrier includes a layer of electrically conducting material that is in electrical contact with the shield wires directly and/or via the shield strips. - at least two electrical conductors of metal, each surrounded by an electrically insulating layer; - an electrical shield (5, 6, 11) that surrounds the conductors outside of the insulating layer; and - a moisture barrier that surrounds the electrical shield, characterised by: - at least two shield strips of the electrical shield, which are arranged in a space between the electrical conductors and the moisture barrier, which shield strips fill at least partially the said regions; - that the shield strips are of at least partially electrically conducting filler material; - shield wires of metal, which are arranged in the shield strips and which are in electrical contact with them; and - that the moisture barrier includes a layer of electrically conducting material that is in electrical contact with the shield wires directly and/or via the shield strips.
A process for manufacturing flat glass, comprising: (a) impregnating a glass textile with a molten glass composition heated to a temperature above the Littleton softening temperature of the composition, the glass forming the fibers of the glass textile having a Littleton softening temperature above that of the glass forming the molten glass composition, said step (a) comprising impregnating the glass textile with a glass frit composition, and heating the impregnated glass textile, obtained in step, to a temperature above the Littleton softening temperature of the glass frit; and (b) cooling the impregnated glass textile, obtained in step (a), so as to obtain a glass sheet. (a) impregnating a glass textile with a molten glass composition heated to a temperature above the Littleton softening temperature of the composition, the glass forming the fibers of the glass textile having a Littleton softening temperature above that of the glass forming the molten glass composition, said step (a) comprising impregnating the glass textile with a glass frit composition, and heating the impregnated glass textile, obtained in step, to a temperature above the Littleton softening temperature of the glass frit; and impregnating the glass textile with a glass frit composition, and heating the impregnated glass textile, obtained in step, to a temperature above the Littleton softening temperature of the glass frit; and (b) cooling the impregnated glass textile, obtained in step (a), so as to obtain a glass sheet.
A driving assistance device comprising an image generator that generates a first image representing an action a vehicle is capable of executing depending on a travel environment during autonomous driving and a second image in which a travel-environmental basis of the action around the vehicle is highlighted; and an image output unit that outputs the first image and the second image generated by the image generator to a notification device in the vehicle in association with each other. an image generator that generates a first image representing an action a vehicle is capable of executing depending on a travel environment during autonomous driving and a second image in which a travel-environmental basis of the action around the vehicle is highlighted; and an image output unit that outputs the first image and the second image generated by the image generator to a notification device in the vehicle in association with each other.
A cover member having a cover housing for mating with a connector member and a plurality of attaching parts (104, 122) for attachment to an attached member, wherein the cover housing has a box shape including a front surface part that has a mating opening for receiving the connector member and a rear surface part that is closed, the cover member characterized in that the plurality of attaching parts (104, 122) each has: an insertion opening (106, 124) adapted for receiving an attached member which has a plate-shaped body and can be inserted thereto, and a tubular-shaped body adapted for surrounding the attached member having the plate-shaped body when it is inserted through the insertion opening (106, 124). an insertion opening (106, 124) adapted for receiving an attached member which has a plate-shaped body and can be inserted thereto, and a tubular-shaped body adapted for surrounding the attached member having the plate-shaped body when it is inserted through the insertion opening (106, 124).
A process control valve comprising: a valve body having an inlet and an outlet, with a process flow path defined between the inlet and the outlet; a guide sleeve extending into the process flow path between the inlet and the outlet, the guide sleeve being closed opposite the process flow path to define a gap; and a plug that is configured to move within the guide sleeve to selectively restrict fluid communication between the inlet and the outlet, characterised in that the plug is comprising a plug body and a plurality of fins extending radially outward from the plug body between a first end of the plug and a second end of the plug, each one of the plurality of fins having a tapered section proximate the second end of the plug, the tapered section tapering radially inward toward the second end of the plug, the plug being disposed partly within the guide sleeve with the plurality of fins disposed to guide movement of the plug within the guide sleeve and the tapered section extending into the gap, and in that the plug is including a cylindrical section configured to be received in the guide sleeve, the cylindrical section having a circumference that forms a tight clearance fit within the guide sleeve to restrict flow through the guide sleeve. a valve body having an inlet and an outlet, with a process flow path defined between the inlet and the outlet; a guide sleeve extending into the process flow path between the inlet and the outlet, the guide sleeve being closed opposite the process flow path to define a gap; and a plug that is configured to move within the guide sleeve to selectively restrict fluid communication between the inlet and the outlet, characterised in that the plug is comprising a plug body and a plurality of fins extending radially outward from the plug body between a first end of the plug and a second end of the plug, each one of the plurality of fins having a tapered section proximate the second end of the plug, the tapered section tapering radially inward toward the second end of the plug, the plug being disposed partly within the guide sleeve with the plurality of fins disposed to guide movement of the plug within the guide sleeve and the tapered section extending into the gap, and in that the plug is including a cylindrical section configured to be received in the guide sleeve, the cylindrical section having a circumference that forms a tight clearance fit within the guide sleeve to restrict flow through the guide sleeve.
A configuration module for establishing a local end-to-end, E2E, path connecting at least one source node and at least one target node via at least one radio access network, RAN, node, in a vehicle-to-everything, V2X, service communication, the configuration module being configured to: - select data radio bearers, DRBs, per quality of service, QoS, flow based on inter-node information from the at least one source node, the at least one target node, the at least one RAN node and all other nodes involved in establishing the local E2E path; and - initiate, after selecting the DRBs per QoS flow, a radio resource communication, RRC, connection configuration using an identification, ID, of the local E2E path to be established. - select data radio bearers, DRBs, per quality of service, QoS, flow based on inter-node information from the at least one source node, the at least one target node, the at least one RAN node and all other nodes involved in establishing the local E2E path; and - initiate, after selecting the DRBs per QoS flow, a radio resource communication, RRC, connection configuration using an identification, ID, of the local E2E path to be established.
Welded connection between a differential ring gear and the casing of same, having a substantially cylindrical connecting surface between an outer face of the casing and an inner face of the ring gear, in which there is provided a hollow degassing form consisting of two opposing cutouts in the mass of the casing and that of the ring gear on either side of the connecting surface of same, characterized in that the cutouts have an angle (α) greater than 90° between the connecting surface and the plane tangent to the entrance of the cutout, and a radius of curvature that is greater at the bottom of the cutout than in the areas of transition between same and the entrance of the cutout.
A method of operation of a wireless device in a cellular communications network further comprising a base station, the method comprising: determining whether the wireless device is to operate in a long range extension mode or a normal mode, wherein the long range extension mode is a mode of operation in which the wireless device is configured to maintain communication with the base station over an extended range as compared to that of the normal mode of operation; and applying different values for at least one parameter utilized by the wireless device for radio link monitoring depending on whether the wireless device is to operate in the long range extension mode or the normal mode. determining whether the wireless device is to operate in a long range extension mode or a normal mode, wherein the long range extension mode is a mode of operation in which the wireless device is configured to maintain communication with the base station over an extended range as compared to that of the normal mode of operation; and applying different values for at least one parameter utilized by the wireless device for radio link monitoring depending on whether the wireless device is to operate in the long range extension mode or the normal mode.
An underwater mobile inspection apparatus capable of inspecting an inspection object on a seafloor while cruising, the underwater mobile inspection apparatus comprising: a cruising body configured to submerge under water and cruise along the inspection object in such a manner as not to come into contact with the inspection object; a first movable arm provided on the cruising body; an inspection tool unit for use in inspecting the inspection object, the inspection tool unit being provided on the first movable arm; an inspection object detector provided on the cruising body and configured to obtain inspection object information containing a positional relationship between the cruising body and the inspection object and a shape of the inspection object; and a controller configured to control the cruising body based on the inspection object information, such that the cruising body autonomously cruises along the inspection object in such a manner as not to come into contact with the inspection object, and when the cruising body cruises along the inspection object in such a manner as not to come into contact with the inspection object, operate the first movable arm based on the inspection object information to move the inspection tool unit, such that a positional relationship of the inspection tool unit with the inspection object becomes a predetermined target positional relationship. a cruising body configured to submerge under water and cruise along the inspection object in such a manner as not to come into contact with the inspection object; a first movable arm provided on the cruising body; an inspection tool unit for use in inspecting the inspection object, the inspection tool unit being provided on the first movable arm; an inspection object detector provided on the cruising body and configured to obtain inspection object information containing a positional relationship between the cruising body and the inspection object and a shape of the inspection object; and a controller configured to control the cruising body based on the inspection object information, such that the cruising body autonomously cruises along the inspection object in such a manner as not to come into contact with the inspection object, and when the cruising body cruises along the inspection object in such a manner as not to come into contact with the inspection object, operate the first movable arm based on the inspection object information to move the inspection tool unit, such that a positional relationship of the inspection tool unit with the inspection object becomes a predetermined target positional relationship.