mhurhangee/ep-ind-claims huggingface dataset:
A method for the construction and installation of a road structure for the crossing of a lower track and an existing upper track extending respectively on two superimposed levels, the method comprising the following steps in this order: - removing the upper track directly above a final position of the road structure, - erecting support structures on either side of the location of said lower track, directly above said final position of the road structure, - positioning a horizontal or quasi-horizontal final deck, prefabricated in one or more elements, said final deck being placed in direct or indirect support on said support structures and directly above said final position of the road structure, said final deck being intended to support said upper track before and after the road structure has been built, - carrying out an underpinning excavation under the final deck and between the support structures, said excavation being intended to be crossed by the lower track characterised in that the support structures are sheet piles. - removing the upper track directly above a final position of the road structure, - erecting support structures on either side of the location of said lower track, directly above said final position of the road structure, - positioning a horizontal or quasi-horizontal final deck, prefabricated in one or more elements, said final deck being placed in direct or indirect support on said support structures and directly above said final position of the road structure, said final deck being intended to support said upper track before and after the road structure has been built, - carrying out an underpinning excavation under the final deck and between the support structures, said excavation being intended to be crossed by the lower track characterised in that the support structures are sheet piles.
A method comprising: receiving, at a Domain Name Service server associated with an enterprise network and from a user device, first data indicating an identity of a user associated with the user device; receiving, at the DNS server and from the user device, a first request to resolve an address of a service associated with a service provider; identifying, by the DNS server and based at least in part on the identity of the user, a policy associated with the user accessing the service, the policy indicating that the user device is configured for a direct access path to the service; providing, from the DNS server and to the user device, an indication of an address of the service associated with the service provider; receiving, at the service provider and from the user device, a second request for the direct access path from the user device to the service provider; receiving, at an identity provider of the enterprise network and from the user device, request data indicating a third request to authenticate the identity of the user to access the direct access path; based at least in part on authenticating the identity of the user, receiving, at the identity provider, the policy; determining, by the identity provider, that the policy indicates the direct access path and the request data indicates the direct access path; and based at least in part on determining that the policy indicates the direct access path and the request data indicates the direct access path, providing the user device with access to the direct access path from the user device to the service provider. receiving, at a Domain Name Service server associated with an enterprise network and from a user device, first data indicating an identity of a user associated with the user device; receiving, at the DNS server and from the user device, a first request to resolve an address of a service associated with a service provider; identifying, by the DNS server and based at least in part on the identity of the user, a policy associated with the user accessing the service, the policy indicating that the user device is configured for a direct access path to the service; providing, from the DNS server and to the user device, an indication of an address of the service associated with the service provider; receiving, at the service provider and from the user device, a second request for the direct access path from the user device to the service provider; receiving, at an identity provider of the enterprise network and from the user device, request data indicating a third request to authenticate the identity of the user to access the direct access path; based at least in part on authenticating the identity of the user, receiving, at the identity provider, the policy; determining, by the identity provider, that the policy indicates the direct access path and the request data indicates the direct access path; and based at least in part on determining that the policy indicates the direct access path and the request data indicates the direct access path, providing the user device with access to the direct access path from the user device to the service provider.
Timepiece provided with a device for controlling at least 3 functions and/or time indications comprising a control for selecting each function and/or time indication which has to be adjusted and a control for the said selected functions and/or time indications, a kinematic link being provided between at least the control for selection of the function and/or time indication requiring adjustment and a selection cam (C 1) whose profile comprises n ≥ 2 times two states 0, 1 corresponding respectively to a non-selection state and a selection state, the adjustment device comprising means (L 1, L 2, L 3) for linking the control to each of the selected functions and/or time indications, characterized in that the casing of the timepiece is provided with a rotating bezel which constitutes said selection control for each function and/or time indication which has to be adjusted.
A liquid feed pump which sucks or discharges a liquid, whereby: a first plunger pump which sucks or discharges the liquid by sliding of a first plunger; a second plunger pump which sucks or discharges the liquid by sliding of a second plunger; and a liquid replacement mechanism which replace the liquid to be introduced into the liquid feed pump, wherein the first plunger pump and the second plunger pump are connected in series in a channel in which the liquid moves, the first plunger is structured to be able to move between a first lower limit point and a first upper limit point in the first plunger pump, the second plunger is structured to be able to move between a second lower limit point and a second upper limit point in the second plunger pump, in the second plunger pump, a second plunger seal for sealing between a main body of the second plunger pump and the second plunger is located at a position nearer to the second lower limit point than to the second upper limit point, characterized in that when the liquid in the liquid feed pump is replaced, the first plunger slides back and forth in a space between the first lower limit point and the first upper limit point, and when the liquid in the liquid feed pump is replaced, the second plunger stops at least temporarily at a position nearer to the second upper limit point than to the second lower limit point or slides back and forth for a shorter distance than when the liquid feed pump sucks and discharges the liquid. a first plunger pump which sucks or discharges the liquid by sliding of a first plunger; a second plunger pump which sucks or discharges the liquid by sliding of a second plunger; and a liquid replacement mechanism which replace the liquid to be introduced into the liquid feed pump, wherein the first plunger pump and the second plunger pump are connected in series in a channel in which the liquid moves, the first plunger is structured to be able to move between a first lower limit point and a first upper limit point in the first plunger pump, the second plunger is structured to be able to move between a second lower limit point and a second upper limit point in the second plunger pump, in the second plunger pump, a second plunger seal for sealing between a main body of the second plunger pump and the second plunger is located at a position nearer to the second lower limit point than to the second upper limit point, characterized in that when the liquid in the liquid feed pump is replaced, the first plunger slides back and forth in a space between the first lower limit point and the first upper limit point, and when the liquid in the liquid feed pump is replaced, the second plunger stops at least temporarily at a position nearer to the second upper limit point than to the second lower limit point or slides back and forth for a shorter distance than when the liquid feed pump sucks and discharges the liquid.
A microbial oil comprising a triacylglycerol fraction of at least 10%by weight, wherein at least 12%by weight of the fatty acids in the triacylglycerol fraction is eicosapentaenoic acid, wherein at least 25% by weight of the fatty acids in the triacylglycerol fraction is docosahexaenoic acid, and wherein less than 5%by weight of the fatty acids in the triacylglycerol fraction is arachidonic acid.
An aqueous dispersion whose particulate population includes dispersant-laden particles, the dispersion comprising: (a) an aqueous carrier medium; (b) pigment core particles; (c) a dispersant; and (d) a salt of at least one of a fatty acid or a substituted fatty acid, each nominal unit of said salt having a cation and a hydrophobic carbon chain having an anionic moiety associated therewith; said salt having at least one of the following structural features: (a) a standard critical micelle concentration, at 25°C and at a pH of 7, is at most 500 millimoles/liter (mM/l); (b) a pH dependent CMC, at 25°C and at a pH of the aqueous dispersion, is at most 500 mM/l; said salt having at least one of the following additional structural features: a Griffin hydrophilic-lipophilic balance (G-HLB) number of at least 3.8; a Davies hydrophilic-lipophilic balance (D-HLB) number of at least 9.5; wherein dispersant molecules of said dispersant surround, and are associated with, an outer surface of said pigment core particles to form a dispersant envelope; wherein individual hydrophobic carbon chains of said salt are associated with said dispersant molecules in said dispersant envelope; the dispersant-laden particles being dispersed within said aqueous carrier medium; wherein the particulate population has a median size on a volume basis (D V50) within a range of 20nm to 400nm; and wherein a first ratio of said salt to a nominal surface area of at least one of (i) said pigment core particles and (ii) the dispersant-laden particles is at most 3.5g per 1000m 2. (a) an aqueous carrier medium; (b) pigment core particles; (c) a dispersant; and (d) a salt of at least one of a fatty acid or a substituted fatty acid, each nominal unit of said salt having a cation and a hydrophobic carbon chain having an anionic moiety associated therewith; (a) a standard critical micelle concentration, at 25°C and at a pH of 7, is at most 500 millimoles/liter (mM/l); (b) a pH dependent CMC, at 25°C and at a pH of the aqueous dispersion, is at most 500 mM/l; a Griffin hydrophilic-lipophilic balance (G-HLB) number of at least 3.8; a Davies hydrophilic-lipophilic balance (D-HLB) number of at least 9.5;
An optical component group for use in a spectrometer module of a system for measuring whole-blood hemoglobin parameters or whole-blood bilirubin parameters wherein the system includes an optical path, the optical component group comprising: a light dispersing element; and an achromatic lens assembly comprising a lens mount and an achromatic lens, the achromatic lens assembly being disposed between the light dispersing element and a light entrance port of the spectrometer module, wherein the lens mount has a fixed mount end and an unfixed mount end, the unfixed mount end of the lens mount having a slot and a fastener which extends through the lens mount slot, the lens mount being configured to thermo-compensate by permitting thermal expansion and contraction of the lens mount in a linear direction along the lens mount slot so that the achromatic lens slides in the linear direction toward or away from the fixed mount end as the slot slides relative to the fastener, wherein the linear direction is transverse to a light beam from the light entrance port to the achromatic lens assembly, and wherein the light beam travels through the achromatic lens assembly to the light dispersing element, and then back through the achromatic lens assembly. a light dispersing element; and an achromatic lens assembly comprising a lens mount and an achromatic lens, the achromatic lens assembly being disposed between the light dispersing element and a light entrance port of the spectrometer module, wherein the lens mount has a fixed mount end and an unfixed mount end, the unfixed mount end of the lens mount having a slot and a fastener which extends through the lens mount slot, the lens mount being configured to thermo-compensate by permitting thermal expansion and contraction of the lens mount in a linear direction along the lens mount slot so that the achromatic lens slides in the linear direction toward or away from the fixed mount end as the slot slides relative to the fastener, wherein the linear direction is transverse to a light beam from the light entrance port to the achromatic lens assembly, and wherein the light beam travels through the achromatic lens assembly to the light dispersing element, and then back through the achromatic lens assembly.
Anchor having a main body made of metal, for anchoring in a drilled hole, characterised in that the anchor has at least one laterally projecting, deformable clamping element which is joined to the main body by means of substance-to-substance bonding.
A communications system for V2X communication which is installable in an installation location in a motor vehicle, including: a receiver for receiving communications data; a V2X transmitter designed to transmit the received communications data; and a processor designed to detect a characteristic of the received communications data, characterized in that the processor is designed to verify the arrangement of the communications system in the installation location based on a comparison of the detected characteristic and a reference characteristic, and wherein the V2X transmitter is designed to not transmit the communications data when the processor identifies an invalid arrangement of the communications system. a receiver for receiving communications data; a V2X transmitter designed to transmit the received communications data; and a processor designed to detect a characteristic of the received communications data, characterized in that the processor is designed to verify the arrangement of the communications system in the installation location based on a comparison of the detected characteristic and a reference characteristic, and wherein the V2X transmitter is designed to not transmit the communications data when the processor identifies an invalid arrangement of the communications system.
A peptide derivative of general formula R 1 -AA 1 -AA 2 -AA 3 -AA 4 -R 2 its stereoisomers, mixtures thereof, or its cosmetically or pharmaceutically acceptable salts, wherein: AA 1 is selected from the group consisting of -Glu- and-Arg-; AA 2 is selected from the group consisting of -Met-, -Ahx- and -Phg-; AA 3 is selected from the group consisting of -Ala- and-Phg-; AA 4 is selected from the group consisting of -Ile- and a single bond; R 1 is selected from the group consisting of H, and R 5 -C -; and R 2 is selected from the group consisting of -NR 3 R 4, and-OR 3; wherein R 3 and R 4 are independently selected from the group consisting of H, and non-substituted non-cyclic aliphatic group; wherein R 5 is selected from the group consisting of H, and non-substituted non-cyclic aliphatic group; wherein -Ahx- is and -Phg- is AA 1 is selected from the group consisting of -Glu- and-Arg-; AA 2 is selected from the group consisting of -Met-, -Ahx- and -Phg-; AA 3 is selected from the group consisting of -Ala- and-Phg-; AA 4 is selected from the group consisting of -Ile- and a single bond; R 1 is selected from the group consisting of H, and R 5 -C -; and R 2 is selected from the group consisting of -NR 3 R 4, and-OR 3; wherein R 3 and R 4 are independently selected from the group consisting of H, and non-substituted non-cyclic aliphatic group; wherein R 5 is selected from the group consisting of H, and non-substituted non-cyclic aliphatic group; wherein -Ahx- is and -Phg- is
A method for producing a strand from a monotectic alloy which is formed from a plurality of constituents and in which droplets of a primary phase are uniformly distributed in a crystalline matrix in the solidified state, characterized by the following method steps: a) melting the alloy constituents, which consist of at least one matrix component and a component that forms the primary phase, and heating the constituents to a temperature at which a single homogeneous phase exists; b) transferring the melt in strand form in a transfer unit that slopes with respect to the horizontal at a transfer speed; c) cooling the melt from a lower side of the strand, which is perpendicular to the transfer direction, during transfer in order to form a crystallization front during transfer in a cooling zone; d) matching the cooling intensity, the slope of the transfer direction and the transfer speed in such a way that a horizontal crystallization front is formed and that the Marangoni force produced by the cooling and formation of the primary phase in the form of droplets is oriented anti-parallel to the gravitational force, with the result that the droplets of the primary phase in the matrix component move in the direction of the gravitational force; e) withdrawing the alloy, which has solidified into the strand, from the cooling zone. a) melting the alloy constituents, which consist of at least one matrix component and a component that forms the primary phase, and heating the constituents to a temperature at which a single homogeneous phase exists; b) transferring the melt in strand form in a transfer unit that slopes with respect to the horizontal at a transfer speed; c) cooling the melt from a lower side of the strand, which is perpendicular to the transfer direction, during transfer in order to form a crystallization front during transfer in a cooling zone; d) matching the cooling intensity, the slope of the transfer direction and the transfer speed in such a way that a horizontal crystallization front is formed and that the Marangoni force produced by the cooling and formation of the primary phase in the form of droplets is oriented anti-parallel to the gravitational force, with the result that the droplets of the primary phase in the matrix component move in the direction of the gravitational force; e) withdrawing the alloy, which has solidified into the strand, from the cooling zone.
An X-ray detector, comprising: a substrate; a plurality of pixels (42A(1,1);...; 42A(m,n)) on the substrate; a first insulating layer configured to cover the plurality of pixels (42A(1,1);...; 42A(m,n)); an electrode block (42A; 42B; 42C; 42D; 42E; 72; B2(1,1); B2(1,3); B2(2,3)) configured to penetrate the first insulating layer and be in electrical contact with the plurality of pixels (42A(1,1);...; 42A(m,n)); a second insulating layer on the electrode block (42A; 42B; 42C; 42D; 42E; 72; B2(1,1); B2(1,3); B2(2,3)); and a metal wire (80b; 44) configured to penetrate the second insulating layer and be in electrical contact with the electrode block (42A; 42B; 42C; 42D; 42E; 72; B2(1,1); B2(1,3); B2(2,3)), wherein the electrode block (42A; 42B; 42C; 42D; 42E; 72; B2(1,1); B2(1,3); B2(2,3)) is formed by a transparent conductive layer, and is a single piece that covers the plurality of pixels. a substrate; a plurality of pixels (42A(1,1);...; 42A(m,n)) on the substrate; a first insulating layer configured to cover the plurality of pixels (42A(1,1);...; 42A(m,n)); an electrode block (42A; 42B; 42C; 42D; 42E; 72; B2(1,1); B2(1,3); B2(2,3)) configured to penetrate the first insulating layer and be in electrical contact with the plurality of pixels (42A(1,1);...; 42A(m,n)); a second insulating layer on the electrode block (42A; 42B; 42C; 42D; 42E; 72; B2(1,1); B2(1,3); B2(2,3)); and a metal wire (80b; 44) configured to penetrate the second insulating layer and be in electrical contact with the electrode block (42A; 42B; 42C; 42D; 42E; 72; B2(1,1); B2(1,3); B2(2,3)), wherein the electrode block (42A; 42B; 42C; 42D; 42E; 72; B2(1,1); B2(1,3); B2(2,3)) is formed by a transparent conductive layer, and is a single piece that covers the plurality of pixels.
A method of handling communication in a decentralized microgrid control system comprised in a microgrid arrangement comprising at least a first microgrid and a second microgrid separated by a microgrid breaker and each comprising a plurality of assets (G, L, S, B), each asset being associated with a respective microgrid controller, MGC, of the microgrid control system, the method comprising: determining that the microgrid breaker is open; based on the determination that the microgrid breaker is open, for at least one MGC of the MGCs in the first microgrid, assigning the MGC to a first group of MGCs in the first microgrid; the MGC broadcasting information to the MGCs in the first group; the method characterized by the steps of: determining that the microgrid breaker is closed; based on the determination that the microgrid breaker is closed, assigning the MGC to a second group of MGCs in both the first microgrid and the second microgrid; and the MGC broadcasting information to the MGCs in the second group. determining that the microgrid breaker is open; based on the determination that the microgrid breaker is open, for at least one MGC of the MGCs in the first microgrid, assigning the MGC to a first group of MGCs in the first microgrid; the MGC broadcasting information to the MGCs in the first group; the method characterized by the steps of: determining that the microgrid breaker is closed; based on the determination that the microgrid breaker is closed, assigning the MGC to a second group of MGCs in both the first microgrid and the second microgrid; and the MGC broadcasting information to the MGCs in the second group. determining that the microgrid breaker is closed; based on the determination that the microgrid breaker is closed, assigning the MGC to a second group of MGCs in both the first microgrid and the second microgrid; and the MGC broadcasting information to the MGCs in the second group.