mhurhangee/ep-ind-claims huggingface dataset:
A device for securing a client application for a symbology display system of the client-server type, said client application being able to generate, from instantaneous values of measured quantities, a command for modifying a graphic object intended to be interpreted by a server application of said display system, said graphic object corresponding to a symbol to be displayed as an image on a graphic device of said display system, characterized in that, said client application including: - an acquisition and processing module taking as an input the instantaneous values of measured quantities, in order to generate instantaneous values of quantities of interest; - a matching table associating with each dynamic variable from a set of dynamic variables of each of the objects maintained by the server application, a quantity of interest, said matching table giving the possibility of assigning, as an instantaneous value of a dynamic variable, the instantaneous value of the corresponding quantity of interest; and, - a module for generating commands able to emit a command intended for the server application, the device includes: - a dedicated means (52, 54) for securing the operation of said acquisition and processing module; - a dedicated means for securing said matching table; and, - a dedicated means (62, 64) for securing said module for generating commands. - an acquisition and processing module taking as an input the instantaneous values of measured quantities, in order to generate instantaneous values of quantities of interest; - a matching table associating with each dynamic variable from a set of dynamic variables of each of the objects maintained by the server application, a quantity of interest, said matching table giving the possibility of assigning, as an instantaneous value of a dynamic variable, the instantaneous value of the corresponding quantity of interest; and, - a module for generating commands able to emit a command intended for the server application, the device includes: - a dedicated means (52, 54) for securing the operation of said acquisition and processing module; - a dedicated means for securing said matching table; and, - a dedicated means (62, 64) for securing said module for generating commands. - a dedicated means (52, 54) for securing the operation of said acquisition and processing module; - a dedicated means for securing said matching table; and, - a dedicated means (62, 64) for securing said module for generating commands.
A method for removing ceramic coatings applied on metallic, ceramic, plastic or composite substrates, comprising stripping by blasting phase with solid CO2 blasting; said method being applied without modifying or damaging the substrate characteristics, thickness and roughness, the method being configured to prepare the substrate to be recoated with a new ceramic layer; characterized in that the method provides a combination of coating and substrate pre-heating by irradiation during or immediately before said stripping by blasting with solid CO2.
Process for preparing ground mineral material comprising the steps of: a) Wet grinding the mineral material in at least one grinding step in aqueous suspension or slurry until the mineral material has a weight median particle diameter d 50 from 0.6 μm to 1.5 μm, preferably from 0.6 μm to 1.1 μm, and most preferably from 0.8 μm to 0.9 μm, and wherein in the at least one grinding step no grinding aid additives are present. b) Up-concentrating or dewatering the aqueous suspension or slurry of step a) to achieve a solid content of between 50% and 70%, preferably between 55% and 65%, and most preferably of 60% by weight of dry matter, said mineral matter having weight median particle diameter d 50 from 0.6 μm to 1.5 μm, preferably from 0.6 μm to 1.1 μm, and most preferably from 0.8 μm to 0.9 μm. c) Drying the aqueous suspension or slurry of step b) to achieve a mineral matter with a solid content of 99.8%, wherein no grinding aid additives are present. d) Optionally surface treatment of the product of step c) with at least one aliphatic carboxylic acid, wherein the mineral material is selected from marble, chalk, dolomite, calcite, limestone, magnesium hydroxide, talc, gypsum, titanium oxide or mixtures thereof. a) Wet grinding the mineral material in at least one grinding step in aqueous suspension or slurry until the mineral material has a weight median particle diameter d 50 from 0.6 μm to 1.5 μm, preferably from 0.6 μm to 1.1 μm, and most preferably from 0.8 μm to 0.9 μm, and wherein in the at least one grinding step no grinding aid additives are present. b) Up-concentrating or dewatering the aqueous suspension or slurry of step a) to achieve a solid content of between 50% and 70%, preferably between 55% and 65%, and most preferably of 60% by weight of dry matter, said mineral matter having weight median particle diameter d 50 from 0.6 μm to 1.5 μm, preferably from 0.6 μm to 1.1 μm, and most preferably from 0.8 μm to 0.9 μm. c) Drying the aqueous suspension or slurry of step b) to achieve a mineral matter with a solid content of 99.8%, wherein no grinding aid additives are present. d) Optionally surface treatment of the product of step c) with at least one aliphatic carboxylic acid,
A material for adhesion prevention composed of a 1 to 1,000 μm-thick water-soluble support layer comprising a water-soluble polymer and a 10 to 1,000 nm-thick adhesion prevention layer comprising a biodegradable polymer, wherein the biodegradable polymer is composed of a branched polyalkylene glycol comprising 3 to 8 terminal hydroxyl groups per molecule bound to a polyhydroxy alkanoic acid and the mass ratio of the branched polyalkylene glycol relative to the total mass is 1% to 40%, wherein the biodegradable polymer has a structure represented by Formula: wherein, l, m, n, and o are each independently an integer of 24 to 88 and A, B, C, and D each independently represent a group represented by Formula: wherein, y is an integer of 72 to 132 and z is an integer of 19 to 39, or wherein the biodegradable polymer has a structure represented by Formula: wherein, p, q, r, s, and t are each independently in each repeating unit an integer of 5 to 20, u is an integer of 0 to 4, and A, B, C, D, and E each independently in each repeating unit represent a group represented by Formula: wherein, y is an integer of 35 to 65 and z is an integer of 9 to 20, and wherein the polyhydroxy alkanoic acid in the biodegradable polymer represented by Formula or Formula is a copolymer of lactic acid and glycolic acid and the ratio of the molar number of the lactic acid relative to the molar number of the glycolic acid in the biodegradable polymer is 3.0 to 5.0. wherein the biodegradable polymer has a structure represented by Formula: wherein, l, m, n, and o are each independently an integer of 24 to 88 and A, B, C, and D each independently represent a group represented by Formula: wherein, y is an integer of 72 to 132 and z is an integer of 19 to 39, or wherein the biodegradable polymer has a structure represented by Formula: wherein, p, q, r, s, and t are each independently in each repeating unit an integer of 5 to 20, u is an integer of 0 to 4, and A, B, C, D, and E each independently in each repeating unit represent a group represented by Formula: wherein, y is an integer of 35 to 65 and z is an integer of 9 to 20, and wherein the polyhydroxy alkanoic acid in the biodegradable polymer represented by Formula or Formula is a copolymer of lactic acid and glycolic acid and the ratio of the molar number of the lactic acid relative to the molar number of the glycolic acid in the biodegradable polymer is 3.0 to 5.0.
Tool holder, having - a basic body, - a circular cylindrical clamping chuck having several parting lines (421a - 421f) and an external thread which has an external pitch angle, wherein a tool receiving region having a non-circular cross-section is located in the clamping chuck, and the clamping chuck has an opening extending orthogonally to its longitudinal axis, - a chip stopper that is inserted into the opening in such a way that a fixing section of the chip stopper is arranged in the opening, and a chip stopper section of the chip stopper is arranged on the end of the chip stopper facing away from the base body, and - a union nut having an internal thread that has an internal pitch angle that differs from the external pitch angle, wherein the union nut abuts on a stopping surface on the base body or abuts directly on the clamping chuck. - a basic body, - a circular cylindrical clamping chuck having several parting lines (421a - 421f) and an external thread which has an external pitch angle, wherein a tool receiving region having a non-circular cross-section is located in the clamping chuck, and the clamping chuck has an opening extending orthogonally to its longitudinal axis, - a chip stopper that is inserted into the opening in such a way that a fixing section of the chip stopper is arranged in the opening, and a chip stopper section of the chip stopper is arranged on the end of the chip stopper facing away from the base body, and - a union nut having an internal thread that has an internal pitch angle that differs from the external pitch angle, wherein the union nut abuts on a stopping surface on the base body or abuts directly on the clamping chuck.
A shift register using oxide transistor comprising a plurality of stages (ST1-STn), wherein each stage (STi) comprises: an output part comprising an oxide pull-up transistor (Tu) responding to a logic state of a first node configured to output a corresponding clock (CLKn) of a plurality of clocks as a scan signal, a node control part comprising a plurality of transistors (Ts, Tr) configured to control the logic state of the first node; at least one light shielding layer (LSn) overlapped with oxide transistors of the stage (STi); and a connection transistor (Tcn) that comprises: a gate electrode configured to be supplied with a control signal, wherein the control signal is applied periodically or non-periodically within each frame, a first electrode configured to be supplied with a voltage being one of the scan signal, a carry signal, the corresponding clock (CLKn), an AC voltage and a DC voltage applied to the stage (STi); and a second electrode electrically connected to the light shielding layer to selectively apply the voltage at the first electrode to the light shielding layer overlapped with the pull-up transistor (Tu) to allow the first light shielding layer to float when the voltage at the first electrode is not applied to the light shielding layer. an output part comprising an oxide pull-up transistor (Tu) responding to a logic state of a first node configured to output a corresponding clock (CLKn) of a plurality of clocks as a scan signal, a node control part comprising a plurality of transistors (Ts, Tr) configured to control the logic state of the first node; at least one light shielding layer (LSn) overlapped with oxide transistors of the stage (STi); and a connection transistor (Tcn) that comprises: a gate electrode configured to be supplied with a control signal, wherein the control signal is applied periodically or non-periodically within each frame, a first electrode configured to be supplied with a voltage being one of the scan signal, a carry signal, the corresponding clock (CLKn), an AC voltage and a DC voltage applied to the stage (STi); and a second electrode electrically connected to the light shielding layer to selectively apply the voltage at the first electrode to the light shielding layer overlapped with the pull-up transistor (Tu) to allow the first light shielding layer to float when the voltage at the first electrode is not applied to the light shielding layer. a gate electrode configured to be supplied with a control signal, wherein the control signal is applied periodically or non-periodically within each frame, a first electrode configured to be supplied with a voltage being one of the scan signal, a carry signal, the corresponding clock (CLKn), an AC voltage and a DC voltage applied to the stage (STi); and a second electrode electrically connected to the light shielding layer to selectively apply the voltage at the first electrode to the light shielding layer overlapped with the pull-up transistor (Tu) to allow the first light shielding layer to float when the voltage at the first electrode is not applied to the light shielding layer.
Resin suspension with antimicrobial properties, in particular antiviral properties, for surface coatings of paper layers or wood-based panels comprising - at least one formaldehyde resin; - at least one compound of the general formula R 1 SiX 3, where - X alkoxy is, and - R 1 is an organic moiety selected from the group comprising C1-C10 alkyl which may be interrupted by -O- or -NH-, and - wherein R 1 has at least one functional moiety Q 1 selected from a group containing an amino, methacrylic, methacryloxy, vinyl and epoxy moiety, - at least one further compound of the general formula SiX 4, where X is alkoxy, and - at least one antimicrobial agent, in particular at least one biocide. - at least one formaldehyde resin; - at least one compound of the general formula R 1 SiX 3, where - X alkoxy is, and - R 1 is an organic moiety selected from the group comprising C1-C10 alkyl which may be interrupted by -O- or -NH-, and - wherein R 1 has at least one functional moiety Q 1 selected from a group containing an amino, methacrylic, methacryloxy, vinyl and epoxy moiety, - X alkoxy is, and - R 1 is an organic moiety selected from the group comprising C1-C10 alkyl which may be interrupted by -O- or -NH-, and - wherein R 1 has at least one functional moiety Q 1 selected from a group containing an amino, methacrylic, methacryloxy, vinyl and epoxy moiety, - at least one further compound of the general formula SiX 4, where X is alkoxy, and - at least one antimicrobial agent, in particular at least one biocide.
An aircraft antenna fairing assembly comprising: a fairing shell; and connection components for positionally fixing the fairing shell to an airframe structure of an aircraft, wherein the connection components comprise a latch assembly for latching the fairing shell to the airframe structure of the aircraft, wherein the connection components further comprise a guide assembly which includes a guide head and a receiver defining a generally C-shaped or generally U-shaped guide channel for slidably receiving the guide head therewithin, characterized in that the guide assembly includes a guide arm having a proximal end connected to the fairing shell and an upright guide support having a base configured to be positionally fixed to the airframe structure, wherein the guide head is provided at a distal end of the guide arm and the guide channel is provided at a distal end of the upright guide support. a fairing shell; and connection components for positionally fixing the fairing shell to an airframe structure of an aircraft, wherein the connection components comprise a latch assembly for latching the fairing shell to the airframe structure of the aircraft, wherein the connection components further comprise a guide assembly which includes a guide head and a receiver defining a generally C-shaped or generally U-shaped guide channel for slidably receiving the guide head therewithin, characterized in that the guide assembly includes a guide arm having a proximal end connected to the fairing shell and an upright guide support having a base configured to be positionally fixed to the airframe structure, wherein the guide head is provided at a distal end of the guide arm and the guide channel is provided at a distal end of the upright guide support.
A blade angle feedback assembly for a rotor of an aircraft, the rotor rotatable about a longitudinal axis and having blades each rotatable about a radial axis to adjust a blade pitch angle thereof, the blade angle feedback assembly comprising: an annular feedback device having a root surface; a plurality of position markers circumferentially disposed on the root surface, the plurality of position markers circumferentially spaced from one another and non-aligned with the longitudinal axis; and at least one sensor mounted adjacent to the annular feedback device; wherein one of the annular feedback device and the at least one sensor is coupled to rotate with the rotor; and wherein the at least one sensor is configured to detect a presence or a passage of the plurality of position markers as the one of the annular feedback device and the at least one sensor rotates with the rotor about the longitudinal axis, the at least one sensor comprising a first end section (404 1) and a second end section (404 2) opposite the first end section (404 1), a first magnetic pole (406 1) provided at the first end section (404 1) and a second magnetic pole (406 2) provided at the second end section (404 2), characterized in that the first and second magnetic poles (406 1, 406 2) are positioned on either side of the root surface. an annular feedback device having a root surface; a plurality of position markers circumferentially disposed on the root surface, the plurality of position markers circumferentially spaced from one another and non-aligned with the longitudinal axis; and at least one sensor mounted adjacent to the annular feedback device; wherein one of the annular feedback device and the at least one sensor is coupled to rotate with the rotor; and wherein the at least one sensor is configured to detect a presence or a passage of the plurality of position markers as the one of the annular feedback device and the at least one sensor rotates with the rotor about the longitudinal axis, the at least one sensor comprising a first end section (404 1) and a second end section (404 2) opposite the first end section (404 1), a first magnetic pole (406 1) provided at the first end section (404 1) and a second magnetic pole (406 2) provided at the second end section (404 2), characterized in that the first and second magnetic poles (406 1, 406 2) are positioned on either side of the root surface.
A product guide for supplying food products to a slicing unit of a food slicing machine comprising: a traction roller configured to come into conveying contact with a food product for contributing to the supply of the food product to the slicing unit, a carrier, wherein the carrier can be arranged pivotable around a first axis, a drive means, wherein the drive means is configured to rotate the traction roller around a second axis, wherein the traction roller is disposed on the carrier and the first axis is spaced from the second axis. a traction roller configured to come into conveying contact with a food product for contributing to the supply of the food product to the slicing unit, a carrier, wherein the carrier can be arranged pivotable around a first axis, a drive means, wherein the drive means is configured to rotate the traction roller around a second axis, wherein the traction roller is disposed on the carrier and the first axis is spaced from the second axis.
A handover, HO, method, performed by a terminal, comprising: executing an HO command sent by a network-side device; and when the HO fails and the terminal is configured with a Condition Handover, CHO, performing a CHO; wherein performing the CHO comprises: performing the CHO according to first indication information sent by the network-side device; and the first indication information comprises: indication information for indicating timing information of a timer; wherein if any CHO trigger condition is met before the timer times out, the terminal performs the CHO corresponding to the trigger condition which is met; or else, the terminal performs a cell reestablishment; wherein the timing information of the timer comprises a starting condition of the timer; and the starting condition of the timer comprises that the terminal fails in executing the HO and is configured with the CHO. executing an HO command sent by a network-side device; and when the HO fails and the terminal is configured with a Condition Handover, CHO, performing a CHO; wherein performing the CHO comprises: performing the CHO according to first indication information sent by the network-side device; and the first indication information comprises: indication information for indicating timing information of a timer; wherein if any CHO trigger condition is met before the timer times out, the terminal performs the CHO corresponding to the trigger condition which is met; or else, the terminal performs a cell reestablishment; wherein the timing information of the timer comprises a starting condition of the timer; and the starting condition of the timer comprises that the terminal fails in executing the HO and is configured with the CHO. performing the CHO according to first indication information sent by the network-side device; and the first indication information comprises: indication information for indicating timing information of a timer; wherein if any CHO trigger condition is met before the timer times out, the terminal performs the CHO corresponding to the trigger condition which is met; or else, the terminal performs a cell reestablishment; wherein the timing information of the timer comprises a starting condition of the timer; and the starting condition of the timer comprises that the terminal fails in executing the HO and is configured with the CHO. indication information for indicating timing information of a timer; wherein if any CHO trigger condition is met before the timer times out, the terminal performs the CHO corresponding to the trigger condition which is met; or else, the terminal performs a cell reestablishment; wherein the timing information of the timer comprises a starting condition of the timer; and the starting condition of the timer comprises that the terminal fails in executing the HO and is configured with the CHO.
A pipe coupling comprising: a clamp housing comprising at least one end having two opposing clamp members and one or more tightening elements for tightening said clamp members towards each other in a direction transverse to an axial length of said clamp housing so as to apply a radially-inward clamping force on a pipe being clamped in said clamp housing; and an at least partially annular seal mounted in said at least one end of said clamp housing, wherein said seal has a folded-inwards configuration in which a foldable portion of said seal is folded inwards to create a first inner diameter, and a folded-outwards configuration in which said foldable portion of said seal is unfolded outwards to create a second inner diameter larger than said first inner diameter; wherein in said folded-inwards configuration said foldable portion is folded against another portion of the seal which is radially offset from said foldable portion; and wherein said foldable portion and said other portion of the seal comprise mating portions (28, 30) which mate with each other in said folded-inwards configuration. a clamp housing comprising at least one end having two opposing clamp members and one or more tightening elements for tightening said clamp members towards each other in a direction transverse to an axial length of said clamp housing so as to apply a radially-inward clamping force on a pipe being clamped in said clamp housing; and an at least partially annular seal mounted in said at least one end of said clamp housing, wherein said seal has a folded-inwards configuration in which a foldable portion of said seal is folded inwards to create a first inner diameter, and a folded-outwards configuration in which said foldable portion of said seal is unfolded outwards to create a second inner diameter larger than said first inner diameter; wherein in said folded-inwards configuration said foldable portion is folded against another portion of the seal which is radially offset from said foldable portion; and wherein said foldable portion and said other portion of the seal comprise mating portions (28, 30) which mate with each other in said folded-inwards configuration.