mhurhangee/ep-ind-claims huggingface dataset:
A method of fabricating a part, the method comprising: stacking sheets of fusible material to form a stack; directing a laser beam through at least one sheet of the stack; and transferring energy from the laser beam to multiple locations on at least one interface between adjacent ones of the sheets of the stack, according to a predetermined pattern corresponding with a design of the part, to form corresponding multiple molten regions, conjoined together to form a fused portion of the adjacent ones of the sheets, wherein the fused portion of the adjacent ones of the sheets defines the part, wherein transferring energy from the laser beam to multiple locations comprises focusing the laser beam at the multiple locations, and wherein: the laser beam is focused at multiple locations on a first interface between a first sheet of the sheets of the stack and a second sheet of the sheets of the stack; the laser beam is focused at multiple locations on a second interface between the second sheet of the sheets of the stack and a third sheet of the sheets of the stack; and the second sheet is interposed between the first sheet and the third sheet. stacking sheets of fusible material to form a stack; directing a laser beam through at least one sheet of the stack; and transferring energy from the laser beam to multiple locations on at least one interface between adjacent ones of the sheets of the stack, according to a predetermined pattern corresponding with a design of the part, to form corresponding multiple molten regions, conjoined together to form a fused portion of the adjacent ones of the sheets, wherein the fused portion of the adjacent ones of the sheets defines the part, wherein transferring energy from the laser beam to multiple locations comprises focusing the laser beam at the multiple locations, and wherein: the laser beam is focused at multiple locations on a first interface between a first sheet of the sheets of the stack and a second sheet of the sheets of the stack; the laser beam is focused at multiple locations on a second interface between the second sheet of the sheets of the stack and a third sheet of the sheets of the stack; and the second sheet is interposed between the first sheet and the third sheet. the laser beam is focused at multiple locations on a first interface between a first sheet of the sheets of the stack and a second sheet of the sheets of the stack; the laser beam is focused at multiple locations on a second interface between the second sheet of the sheets of the stack and a third sheet of the sheets of the stack; and the second sheet is interposed between the first sheet and the third sheet.
Cosmetic composition comprising: - (i) one or more linear α-olefin sulfonates, - (ii) one or more non-oxyalkylenated anionic surfactants other than the compounds (i), present in the composition in an amount ranging from 1% to 20% by weight relative to the total weight of the composition; the composition comprising at least one non-oxyalkylenated anionic surfactant, other than the compounds (i), chosen from acyl sarcosinates, C6-C24 alkylsulfosuccinates and (C6-C24)acylisethionates, and also the salts of these compounds and mixtures thereof, and - (iii) at least one nonionic surfactant chosen from (C6-C24 alkyl)polyglycosides, ethoxylated C8-C30 fatty acid esters of sorbitan, polyethoxylated C8-C30 fatty alcohols, polyoxyethylenated C8-C30 fatty acid esters, C8-C30 fatty acid alkanolamides, and mixtures thereof, and at least one amphoteric surfactant chosen from (C8-C20)alkylbetaines, (C8-C20)alkylamido(C1-C6)alkylbetaines, (C8-C20)alkyl amphoacetates and (C8-C20)alkyl amphodiacetates, and mixtures thereof; the total amount of the additional nonionic and amphoteric surfactants ranging from 1.5% to 12% by weight, relative to the total weight of the composition; said composition not comprising any anionic surfactant comprising a sulfate group. - (i) one or more linear α-olefin sulfonates, - (ii) one or more non-oxyalkylenated anionic surfactants other than the compounds (i), present in the composition in an amount ranging from 1% to 20% by weight relative to the total weight of the composition; the composition comprising at least one non-oxyalkylenated anionic surfactant, other than the compounds (i), chosen from acyl sarcosinates, C6-C24 alkylsulfosuccinates and (C6-C24)acylisethionates, and also the salts of these compounds and mixtures thereof, and - (iii) at least one nonionic surfactant chosen from (C6-C24 alkyl)polyglycosides, ethoxylated C8-C30 fatty acid esters of sorbitan, polyethoxylated C8-C30 fatty alcohols, polyoxyethylenated C8-C30 fatty acid esters, C8-C30 fatty acid alkanolamides, and mixtures thereof, and at least one amphoteric surfactant chosen from (C8-C20)alkylbetaines, (C8-C20)alkylamido(C1-C6)alkylbetaines, (C8-C20)alkyl amphoacetates and (C8-C20)alkyl amphodiacetates, and mixtures thereof; the total amount of the additional nonionic and amphoteric surfactants ranging from 1.5% to 12% by weight, relative to the total weight of the composition;
An adhesive medical article comprising: (a) a conformable backing having a first major surface and a second major surface, and an opening that forms a window through the backing; (b) a pressure sensitive adhesive coated on at least a portion of the first major surface of the backing; (c) a self-supporting substrate comprising a first planar surface, and at least one side wall formed at an angle between zero to one hundred eighty degrees to the first planar surface, and a second planar surface connected to the at least one side wall in the form of a flange; a carrier releasably attached to at least a portion of the second major surface of the backing; wherein the self-supporting substrate is attached to the backing by an adhesive layer to enclose the opening through the backing; and wherein the self-supporting substrate comprises a valve. (a) a conformable backing having a first major surface and a second major surface, and an opening that forms a window through the backing; (b) a pressure sensitive adhesive coated on at least a portion of the first major surface of the backing; (c) a self-supporting substrate comprising a first planar surface, and at least one side wall formed at an angle between zero to one hundred eighty degrees to the first planar surface, and a second planar surface connected to the at least one side wall in the form of a flange; wherein the self-supporting substrate is attached to the backing by an adhesive layer to enclose the opening through the backing; and wherein the self-supporting substrate comprises a valve.
A pressure controller sensitive to fluid pressure and adapted to increase or decrease supply of air pressure when said fluid pressure exceeds a predetermined value, characterised in that said fluid pressure is exerted by an angle detection valve (19, 29, 33, 40) and is variable in dependence on the angular position of the angle detection valve (19, 29, 33, 40), and in that the angular position of the valve can be varied.
A sacrificial electrode attachment structure contacting electrolyte, comprising: a first pipe in which electrolyte flows; a second pipe which is formed of an insulating material and allows the electrolyte to flow; a cylindrical sacrificial electrode unit arranged between the first pipe and the second pipe so as to allow the electrolyte to flow, and including a sacrificial electrode that contacts the electrolyte; a first pipe joint configured to liquid-tightly connect the first pipe to the sacrificial electrode unit in a detachable manner; and a second pipe joint configured to liquid-tightly connect the second pipe to the sacrificial electrode unit in a detachable manner, which sacrificial electrode attachment structure is configured such that in order to replace the sacrificial electrode, the first and second pipe joints are detachable and the used sacrificial electrode unit is separable and detachable from the first pipe and the second pipe, and then a new sacrificial electrode unit can be set between the first pipe and the second pipe and can be fixed by the pipe joints, wherein the first and second pipe joints can be operated from the outside, and wherein the sacrificial electrode unit is partly inserted into the second pipe, characterized in that the second pipe is formed of a material through which the sacrificial electrode can be visually checked from outside. a first pipe in which electrolyte flows; a second pipe which is formed of an insulating material and allows the electrolyte to flow; a cylindrical sacrificial electrode unit arranged between the first pipe and the second pipe so as to allow the electrolyte to flow, and including a sacrificial electrode that contacts the electrolyte; a first pipe joint configured to liquid-tightly connect the first pipe to the sacrificial electrode unit in a detachable manner; and a second pipe joint configured to liquid-tightly connect the second pipe to the sacrificial electrode unit in a detachable manner, which sacrificial electrode attachment structure is configured such that in order to replace the sacrificial electrode, the first and second pipe joints are detachable and the used sacrificial electrode unit is separable and detachable from the first pipe and the second pipe, and then a new sacrificial electrode unit can be set between the first pipe and the second pipe and can be fixed by the pipe joints, wherein the first and second pipe joints can be operated from the outside, and wherein the sacrificial electrode unit is partly inserted into the second pipe, characterized in that the second pipe is formed of a material through which the sacrificial electrode can be visually checked from outside.
Process for the preparation of a non-hygroscopic pulverulent composition, comprising a stage of spray drying, without an atomization support, of an aqueous solution containing at least one originally hygroscopic product, and a cryogenic fluid, in particular a food-quality cryogenic fluid, or a mixture of cryogenic fluids, in particular chosen from carbon dioxide, nitrogen, liquid air, said aqueous solution being obtained by dissolving said cryogenic fluid in an initial aqueous solution containing said originally hygroscopic product, characterized in that the originally hygroscopic product is lactulose.
Oxygen module for the supply of oxygen to aircraft passengers, comprising - an oxygen source - a mask and - a hose between the oxygen source and the mask, wherein the oxygen module comprises a mounting member for mounting in a supply channel of an aircraft, a cover coverable by a fairing flap of the supply channel, and a locking member, wherein the locking element is configured such that the cover of the oxygen module is lockable and does not open during an opening test of the fairing flap and that the cover of the oxygen module is unlocked and released and opens during an automatic opening of the fairing flap. - an oxygen source - a mask and - a hose between the oxygen source and the mask,
A detection system, comprising: a transmitter configured to transmit electromagnetic energy at two or more wavelengths, wherein the electromagnetic energy has a selected polarization state; a receiver configured to receive scattered electromagnetic energy that has been scattered by a material illuminated by the transmitted electromagnetic energy, and measure the received scattered electromagnetic energy at two or more polarization states and two or more wavelengths; a processor configured to combine the measured scattered electromagnetic energy at the two or more polarization states and the two or more wavelengths into different combinations to obtain input parameters, and to classify the material illuminated by the transmitted electromagnetic energy based on the input parameters, characterized in that each of the different combinations comprises a ratio of the measured power of the scattered electromagnetic energy at each one of the polarization states and each one of the wavelengths to the sum of the measured power of the scattered electromagnetic energy over each of the two or more polarization states and each of two or more wavelengths. a transmitter configured to transmit electromagnetic energy at two or more wavelengths, wherein the electromagnetic energy has a selected polarization state; a receiver configured to receive scattered electromagnetic energy that has been scattered by a material illuminated by the transmitted electromagnetic energy, and measure the received scattered electromagnetic energy at two or more polarization states and two or more wavelengths; a processor configured to combine the measured scattered electromagnetic energy at the two or more polarization states and the two or more wavelengths into different combinations to obtain input parameters, and to classify the material illuminated by the transmitted electromagnetic energy based on the input parameters, characterized in that each of the different combinations comprises a ratio of the measured power of the scattered electromagnetic energy at each one of the polarization states and each one of the wavelengths to the sum of the measured power of the scattered electromagnetic energy over each of the two or more polarization states and each of two or more wavelengths.
Method for inheriting coding data, for a first image in the format F1, from coding data of a second image in the format F2 of lower resolution than the first format F1, the video content of the first and second images and having at least one common part, the first image and the second image being partitioned respectively into HR blocks and BR blocks, a coding mode and motion data having been calculated and attributed to BR blocks of the second image for their coding/decoding, characterized in that the following steps are implemented: - superimposition, after zooming and for the common part, of the second image in the format F2 onto the first image in the format F1 - determination of the number of zoomed BR blocks covering the said HR block, - if this number equals 1, assignment of the mode and motion data of the zoomed BR block to this HR image block, - if this number is greater than 1, assignment of a mode and of motion data as a function of the modes and the motion data of the zoomed BR blocks covering this HR block, - merging neighbouring HR blocks depending on the similarity of the motion data and/or of the coding modes assigned to the HR blocks and assigning of the coding modes and motion data to the new blocks according to the coding modes and motion data of the merged blocks. - superimposition, after zooming and for the common part, of the second image in the format F2 onto the first image in the format F1 - determination of the number of zoomed BR blocks covering the said HR block, - if this number equals 1, assignment of the mode and motion data of the zoomed BR block to this HR image block, - if this number is greater than 1, assignment of a mode and of motion data as a function of the modes and the motion data of the zoomed BR blocks covering this HR block, - merging neighbouring HR blocks depending on the similarity of the motion data and/or of the coding modes assigned to the HR blocks and assigning of the coding modes and motion data to the new blocks according to the coding modes and motion data of the merged blocks.
An electrical distribution center configured for use in a motor vehicle, comprising: a housing containing an electrical device (12, 14); and a bus bar connector system including: a first bus bar configured to supply current from a power supply; a second bus bar configured to supply current to the electrical device (12, 14); characterized by a spring clip disposed within a slot defined by the housing and configured to apply a contact force to the first and second bus bars (18A, 18B) effective to bring at least in a portion the first and second bus bars (18A, 18B) into intimate contact with one another, wherein the spring clip comprises two longitudinal spring arms extending from a lateral spring base connecting the spring arms and wherein the spring arms are angled toward one another, wherein spring arm ends are angled away from one another, wherein side walls forming the slot define retaining features protruding from the side walls and wherein the spring arm ends interface with said retaining features to retain the spring clip within the slot. a housing containing an electrical device (12, 14); and a bus bar connector system including: a first bus bar configured to supply current from a power supply; a second bus bar configured to supply current to the electrical device (12, 14); characterized by a spring clip disposed within a slot defined by the housing and configured to apply a contact force to the first and second bus bars (18A, 18B) effective to bring at least in a portion the first and second bus bars (18A, 18B) into intimate contact with one another, wherein the spring clip comprises two longitudinal spring arms extending from a lateral spring base connecting the spring arms and wherein the spring arms are angled toward one another, wherein spring arm ends are angled away from one another, wherein side walls forming the slot define retaining features protruding from the side walls and wherein the spring arm ends interface with said retaining features to retain the spring clip within the slot. a first bus bar configured to supply current from a power supply; a second bus bar configured to supply current to the electrical device (12, 14); characterized by a spring clip disposed within a slot defined by the housing and configured to apply a contact force to the first and second bus bars (18A, 18B) effective to bring at least in a portion the first and second bus bars (18A, 18B) into intimate contact with one another, wherein the spring clip comprises two longitudinal spring arms extending from a lateral spring base connecting the spring arms and wherein the spring arms are angled toward one another, wherein spring arm ends are angled away from one another, wherein side walls forming the slot define retaining features protruding from the side walls and wherein the spring arm ends interface with said retaining features to retain the spring clip within the slot.
Method of manufacturing an article comprising a fabric, wherein the method comprises at least the steps of: a. providing a fabric comprising a first surface and a second surface opposite the first surface; b. placing the fabric on a surface of a support structure, wherein the support structure is adapted to permit gas circulation through at least a portion of its surface and comprises at least a raised or embossed portion on its surface, and wherein the fabric is placed such that the first surface of the fabric faces the surface of the support structure and such that the fabric is arranged at least in part over the raised or embossed portion of the support structure; c. providing at least one coating comprising a first surface and a second surface opposite the first surface; d. placing the coating at least partially on the second surface of the fabric, such that the first surface of the coating faces the fabric; and e. applying a gas pressure differential between the second surface of the coating and the first surface of the fabric. a. providing a fabric comprising a first surface and a second surface opposite the first surface; b. placing the fabric on a surface of a support structure, wherein the support structure is adapted to permit gas circulation through at least a portion of its surface and comprises at least a raised or embossed portion on its surface, and wherein the fabric is placed such that the first surface of the fabric faces the surface of the support structure and such that the fabric is arranged at least in part over the raised or embossed portion of the support structure; c. providing at least one coating comprising a first surface and a second surface opposite the first surface; d. placing the coating at least partially on the second surface of the fabric, such that the first surface of the coating faces the fabric; and e. applying a gas pressure differential between the second surface of the coating and the first surface of the fabric.
A communication control method used in a mobile communication system, the mobile communication system providing a multicast broadcast service, MBS, from a base station to a user equipment, the communication control method comprising: receiving, at a first base station configured to establish an MBS connection with a core network apparatus (300A, 300B), MBS data from the core network apparatus (300A, 300B) through the MBS connection; transmitting, from the first base station to a first user equipment in multicast or broadcast, the MBS data received from the core network apparatus (300A, 300B); determining, by the first base station, handover of the first user equipment from the first base station to a second base station; transmitting a handover request message, from the first base station to the second base station, the handover request message including an identifier identifying an MBS session provided by the first base station in multicast or broadcast and request information for data forwarding for the MBS session; and transmitting from the second base station to the first base station, a handover response message including a data forwarding address for the MBS session, the data forwarding address including a GTP-TEID of the second base station. receiving, at a first base station configured to establish an MBS connection with a core network apparatus (300A, 300B), MBS data from the core network apparatus (300A, 300B) through the MBS connection; transmitting, from the first base station to a first user equipment in multicast or broadcast, the MBS data received from the core network apparatus (300A, 300B); determining, by the first base station, handover of the first user equipment from the first base station to a second base station; transmitting a handover request message, from the first base station to the second base station, the handover request message including an identifier identifying an MBS session provided by the first base station in multicast or broadcast and request information for data forwarding for the MBS session; and transmitting from the second base station to the first base station, a handover response message including a data forwarding address for the MBS session, the data forwarding address including a GTP-TEID of the second base station.