mhurhangee/ep-ind-claims huggingface dataset:
Personal identification device for physical access control systems, comprising: - comprising a body in which is provided a housing of shapes and dimensions suitable for receiving at least one identification badge, a window being provided in the body so that visual information carried by a badge placed in the housing remains at least partially visible through the window, - at least one reader (151, 152) capable of reading data from an identification badge, said data including at least personal identification data, - a processing unit, - a data storage member, - at least one wireless communication module (11, 110, 111, 151, 152), and - an internal battery arranged to supply power to the components of the device, - an electronic paper type of screen able to display contextual information and/or visual elements reproducing at least partially visual elements of an identification badge previously read, said screen being placed on an opposite face of the window provided in the body, the processing unit being arranged for: - acquiring data from at least one identification badge by means of the reader, - control the electronic paper type of screen - storing the acquired data in the data storage member, so that said data remain stored independently of the subsequent accessibility of said identification badge by the reader, then - if the acquired data are encrypted, decrypting the data, - transmitting at least a portion of the acquired data to a reader external to the device, via the wireless communication module and on request from said reader external to the device. - comprising a body in which is provided a housing of shapes and dimensions suitable for receiving at least one identification badge, a window being provided in the body so that visual information carried by a badge placed in the housing remains at least partially visible through the window, - at least one reader (151, 152) capable of reading data from an identification badge, said data including at least personal identification data, - a processing unit, - a data storage member, - at least one wireless communication module (11, 110, 111, 151, 152), and - an internal battery arranged to supply power to the components of the device, - an electronic paper type of screen able to display contextual information and/or visual elements reproducing at least partially visual elements of an identification badge previously read, said screen being placed on an opposite face of the window provided in the body, - acquiring data from at least one identification badge by means of the reader, - control the electronic paper type of screen - storing the acquired data in the data storage member, so that said data remain stored independently of the subsequent accessibility of said identification badge by the reader, then - if the acquired data are encrypted, decrypting the data, - transmitting at least a portion of the acquired data to a reader external to the device, via the wireless communication module and on request from said reader external to the device.
A heavy truck tire, comprising: a casing, wherein the casing has a central axis; a rubber tread that has a rib that has a first layer and a second layer, wherein the first layer is located farther from the central axis in a radial direction than the second layer, wherein the first layer has a lower max tan (δ) than a max tan (δ) of the second layer, a sculptural feature comprising: at least one sacrificial rib (40, 42), or one or more micro sipes that extend from the edge of the rib into the rib in the axial direction, and that extend from the outer surface of the rib into the rib in the radial direction, or at least one directional micro sipe oriented at a non-zero angle angled towards the forward rolling direction of the tire; characterized in that the max tan (δ) of the first layer is from 0.06 - 0.15, wherein the max tan(δ) of the second layer is from 0.12 - 0.27; and the first layer has a complex shear modulus for 25% strain (G*25) at 60°C that is from 1.2 MPa to 2.3 MPa, and wherein the second layer has a complex shear modulus for 25% strain (G*25) at 60°C that is from 1.2 MPa to 2.3 MPa; with the tan(δ) values measured according to Standard ASTM D5992-96 at a frequency of 10 Hz and at a temperature of 60 °C. a casing, wherein the casing has a central axis; a rubber tread that has a rib that has a first layer and a second layer, wherein the first layer is located farther from the central axis in a radial direction than the second layer, wherein the first layer has a lower max tan (δ) than a max tan (δ) of the second layer, a sculptural feature comprising: at least one sacrificial rib (40, 42), or one or more micro sipes that extend from the edge of the rib into the rib in the axial direction, and that extend from the outer surface of the rib into the rib in the radial direction, or at least one directional micro sipe oriented at a non-zero angle angled towards the forward rolling direction of the tire; at least one sacrificial rib (40, 42), or one or more micro sipes that extend from the edge of the rib into the rib in the axial direction, and that extend from the outer surface of the rib into the rib in the radial direction, or at least one directional micro sipe oriented at a non-zero angle angled towards the forward rolling direction of the tire; characterized in that the max tan (δ) of the first layer is from 0.06 - 0.15, wherein the max tan(δ) of the second layer is from 0.12 - 0.27; and the first layer has a complex shear modulus for 25% strain (G*25) at 60°C that is from 1.2 MPa to 2.3 MPa, and wherein the second layer has a complex shear modulus for 25% strain (G*25) at 60°C that is from 1.2 MPa to 2.3 MPa; with the tan(δ) values measured according to Standard ASTM D5992-96 at a frequency of 10 Hz and at a temperature of 60 °C.
A printed circuit board assembly (PCBA), comprising: a printed circuit board, at least one electronic component disposed on the printed circuit board; and a nanofilm including: an inner coating comprising metal oxide; and an outer coating in contact with the inner coating, the outer coating comprising silicon dioxide; the PCBA further comprising a waterproof coating comprising a polymer coating material, characterized in that: the waterproof coating is disposed on or in contact with at least one portion of the at least one electronic component; the inner coating is disposed on the printed circuit board or in contact with the waterproof coating; the inner coating comprises metal oxide particles with a particle diameter in a range of 5 nm to 100 nm; and the outer coating comprises silicon dioxide particles having a particle diameter in a range of 0.1 nm to 10 nm, wherein the metal oxide particles and the silicon dioxide particles are bonded or fused together with each other in each of the inner coating and the outer coating, and in the interface between the inner coating and outer coating. a printed circuit board, at least one electronic component disposed on the printed circuit board; and a nanofilm including: an inner coating comprising metal oxide; and an outer coating in contact with the inner coating, the outer coating comprising silicon dioxide; an inner coating comprising metal oxide; and an outer coating in contact with the inner coating, the outer coating comprising silicon dioxide; the PCBA further comprising a waterproof coating comprising a polymer coating material, characterized in that: the waterproof coating is disposed on or in contact with at least one portion of the at least one electronic component; the inner coating is disposed on the printed circuit board or in contact with the waterproof coating; the inner coating comprises metal oxide particles with a particle diameter in a range of 5 nm to 100 nm; and the outer coating comprises silicon dioxide particles having a particle diameter in a range of 0.1 nm to 10 nm, wherein the metal oxide particles and the silicon dioxide particles are bonded or fused together with each other in each of the inner coating and the outer coating, and in the interface between the inner coating and outer coating. the waterproof coating is disposed on or in contact with at least one portion of the at least one electronic component; the inner coating is disposed on the printed circuit board or in contact with the waterproof coating; the inner coating comprises metal oxide particles with a particle diameter in a range of 5 nm to 100 nm; and the outer coating comprises silicon dioxide particles having a particle diameter in a range of 0.1 nm to 10 nm, wherein the metal oxide particles and the silicon dioxide particles are bonded or fused together with each other in each of the inner coating and the outer coating, and in the interface between the inner coating and outer coating.
A method for generating a digital certificate of an entity, comprising: receiving, at a certification authority, a certificate signing request from the entity, the certificate signing request including public key information of the entity, identification information of the entity, and verification information; transmitting the certificate signing request to a registration authority; processing, at the registration authority, information of the certificate signing request; determining whether to approve the certificate signing request based on a result of the processing; transmitting an approval to the certification authority when the certificate signing request is approved; generating a certificate associated with the entity when the approval is received by the certification authority; and transmitting the certificate to the entity, characterised in that the verification information includes at least one of header stored shared secret information automatically retrieved from a storage device, network address information, device identification information, or location information, and wherein the sufficiency of the verification information is determined in accordance with a Certification Practices Statement, and the determination includes evaluation of the security properties of a computer and/or data communication system performing the communication. receiving, at a certification authority, a certificate signing request from the entity, the certificate signing request including public key information of the entity, identification information of the entity, and verification information; transmitting the certificate signing request to a registration authority; processing, at the registration authority, information of the certificate signing request; determining whether to approve the certificate signing request based on a result of the processing; transmitting an approval to the certification authority when the certificate signing request is approved; generating a certificate associated with the entity when the approval is received by the certification authority; and transmitting the certificate to the entity, characterised in that the verification information includes at least one of header stored shared secret information automatically retrieved from a storage device, network address information, device identification information, or location information, and wherein the sufficiency of the verification information is determined in accordance with a Certification Practices Statement, and the determination includes evaluation of the security properties of a computer and/or data communication system performing the communication.
An interior trim component for a vehicle comprising: • a support member movable between a retracted position and an extended position, • a functional member movably attached to the support member by means of a release mechanism between a stowage position and a use position, and • a motion mechanism adapted at least to move the support member from the retracted position to the extended position, wherein the motion mechanism comprises: ∘ an actuator for moving the support member, characterized in that the motion mechanism further comprises: ∘ a fixed gear member arranged to be held in a fixed position when the support member is moved, ∘ a movable gear member meshing with the fixed gear member and being movable together with the support member, and ∘ a flexible drive for transmitting motion from the movable gear member to the release mechanism of the functional member. • a support member movable between a retracted position and an extended position, • a functional member movably attached to the support member by means of a release mechanism between a stowage position and a use position, and • a motion mechanism adapted at least to move the support member from the retracted position to the extended position, wherein the motion mechanism comprises: ∘ an actuator for moving the support member, characterized in that the motion mechanism further comprises: ∘ a fixed gear member arranged to be held in a fixed position when the support member is moved, ∘ a movable gear member meshing with the fixed gear member and being movable together with the support member, and ∘ a flexible drive for transmitting motion from the movable gear member to the release mechanism of the functional member. ∘ an actuator for moving the support member, characterized in that the motion mechanism further comprises: ∘ a fixed gear member arranged to be held in a fixed position when the support member is moved, ∘ a movable gear member meshing with the fixed gear member and being movable together with the support member, and ∘ a flexible drive for transmitting motion from the movable gear member to the release mechanism of the functional member.
A method of servicing a gas turbine engine, comprising: removing a component (60, 62, 64. 66) comprising a titanium alloy from the gas turbine engine after operating the gas turbine engine with the component in service; subjecting the component to heat treatment; re-installing the component into the gas turbine engine or installing the component into a different gas turbine engine, wherein the removing of the component (60, 62, 64, 66) from the gas turbine engine is performed in response to predetermined criteria of operating the gas turbine engine, characterized in that the titanium alloy includes soft grains oriented for slip and hard grains not oriented for slip, wherein prior to the heat treatment the titanium alloy includes dislocations at boundaries between the soft grains and the hard grains, the heat treatment annihilates the dislocations at the boundaries between the soft grains and the hard grains, and the heat treatment involves heating the component in a range of 600°F to 1300°F (320°C to 700°C) during 1 hour to 8 hours. removing a component (60, 62, 64. 66) comprising a titanium alloy from the gas turbine engine after operating the gas turbine engine with the component in service; subjecting the component to heat treatment; re-installing the component into the gas turbine engine or installing the component into a different gas turbine engine, wherein the removing of the component (60, 62, 64, 66) from the gas turbine engine is performed in response to predetermined criteria of operating the gas turbine engine, characterized in that the titanium alloy includes soft grains oriented for slip and hard grains not oriented for slip, wherein prior to the heat treatment the titanium alloy includes dislocations at boundaries between the soft grains and the hard grains, the heat treatment annihilates the dislocations at the boundaries between the soft grains and the hard grains, and the heat treatment involves heating the component in a range of 600°F to 1300°F (320°C to 700°C) during 1 hour to 8 hours.
Electrode support arm of a smelting metallurgical furnace, particularly an arc furnace, wherein the electrode support arm is provided with at least one measuring element for measuring a physical variable, characterised in that the measuring element is constructed for measuring the temperature and/or the mechanical elongation of the electrode support arm, wherein the measuring element comprises at least one optical waveguide which at least in a section extends along the length direction of the electrode support arm.
A cogeneration apparatus comprising a gas microturbine supplied by a combustion chamber of the "vortex" type to produce a combustion regime of the "flameless" type and with at least one heat recovery unit-exchanger for preheating compressed oxidizing air from a compressor of the microturbine, before the injection of this preheated air into the combustion chamber, the combustion chamber essentially comprising a cylindrical chamber including: - a central tube, such that the preheated air is introduced at a first end of the chamber in a first annular zone situated between the outer wall of the cylindrical chamber and the central tube; - at a second end of the chamber, oriented slits and fuel gas injection tubes at the central tube, said oriented slits and said fuel gas injection tubes being positioned so as on the one hand to cause the preheated air introduced via said slits inside the central tube to rotate quickly following a flow vortex parallel to the axis of the combustion chamber and, on the other hand, to ensure the close mixing of the preheated air, the fuel gas and the combustion gases inside the central tube at a primary and central combustion zone; - an annular outlet for the combustion gases situated at the central tube at the first end of the chamber and connected to a distributor of the turbine. - a central tube, such that the preheated air is introduced at a first end of the chamber in a first annular zone situated between the outer wall of the cylindrical chamber and the central tube; - at a second end of the chamber, oriented slits and fuel gas injection tubes at the central tube, said oriented slits and said fuel gas injection tubes being positioned so as on the one hand to cause the preheated air introduced via said slits inside the central tube to rotate quickly following a flow vortex parallel to the axis of the combustion chamber and, on the other hand, to ensure the close mixing of the preheated air, the fuel gas and the combustion gases inside the central tube at a primary and central combustion zone; - an annular outlet for the combustion gases situated at the central tube at the first end of the chamber and connected to a distributor of the turbine.
A radio access network sharing method, wherein when congestion occurs on a transport network: determining, by a receive end according to a fairness rule, whether data transmission from a transmit end to the receive end is fair, wherein the fairness rule is a transmission bandwidth occupation proportion preset among operators; and issuing, by the receive end, an instruction to the transmit end according to a result of the determining, so that the transmit end adjusts the data transmission to the receive end according to the instruction; characterized in that when the result of the determining, by the receive end according to the fairness rule, whether data transmission from the transmit end to the receive end is unfair, the issuing, by the receive end, an instruction to the transmit end according to a result of the determining comprises: sending, by the receive end, first feedback information to the transmit end, wherein the first feedback information comprises an operator identifier and a speeding down identifier; and the so that the transmit end adjusts the data transmission to the receive end according to the instruction comprises: so that the transmit end reduces, according to the operator identifier and the speeding down identifier, a data transmission rate of an operator corresponding to the operator identifier. determining, by a receive end according to a fairness rule, whether data transmission from a transmit end to the receive end is fair, wherein the fairness rule is a transmission bandwidth occupation proportion preset among operators; and issuing, by the receive end, an instruction to the transmit end according to a result of the determining, so that the transmit end adjusts the data transmission to the receive end according to the instruction; characterized in that when the result of the determining, by the receive end according to the fairness rule, whether data transmission from the transmit end to the receive end is unfair, the issuing, by the receive end, an instruction to the transmit end according to a result of the determining comprises: sending, by the receive end, first feedback information to the transmit end, wherein the first feedback information comprises an operator identifier and a speeding down identifier; and the so that the transmit end adjusts the data transmission to the receive end according to the instruction comprises: so that the transmit end reduces, according to the operator identifier and the speeding down identifier, a data transmission rate of an operator corresponding to the operator identifier.
Process comprising the process steps of: a) addition of diisobutene, b) addition of a compound comprising Pd, wherein the Pd is capable of forming a complex, c) addition of the ligand L1: d) addition of acetic acid, wherein the acetic acid is added in an amount in the range from 5 mol to 8 mol of acetic acid per mole of diisobutene, e) feeding in CO, f) heating the reaction mixture such that the diisobutene is converted to the compound P1: a) addition of diisobutene, b) addition of a compound comprising Pd, wherein the Pd is capable of forming a complex, c) addition of the ligand L1: d) addition of acetic acid, wherein the acetic acid is added in an amount in the range from 5 mol to 8 mol of acetic acid per mole of diisobutene, e) feeding in CO, f) heating the reaction mixture such that the diisobutene is converted to the compound P1:
A pharmaceutical composition comprising a perillyl alcohol fatty acid ester which is octadeca-9,12-dienoic acid 4-isopropenyl-cylcohex-1-enylmethyl ester, for use in treating a cancer in a mammal, wherein the pharmaceutical composition is administered by topical application.
A method for manufacturing a resistive memory device comprising at least one first electrode and one second electrode based on electrode materials, and a metal oxide layer inserted between said first and second electrodes (10, 20) in a so-called vertical direction (z), said device having at least one width L greater than or equal to 30 nm in a so-called horizontal direction of a plane (xy) perpendicular to the vertical direction (z), the method being characterised in that the at least one from among the first and second electrodes (10, 20) is formed so as to comprise an electrode interlayer based on a so-called divider material having an etching selectivity greater than or equal to 2:1, and preferably greater than or equal to 3:1, with respect to the electrode materials, the electrode materials being based on a transition metal, and the divider material being based on an aluminium alloy and of said transition metal or of another transition metal, the method further comprising, after formation of said at least one from among the first and second electrodes (10, 20) comprising the electrode interlayer: - an overetching configured to laterally consume, in the horizontal direction, the divider material, such that the electrode interlayer has a lateral removal strictly greater than 5 nm, and preferably greater than or equal to 10 nm, with respect to the at least one dimension by width L, said lateral removal being less than or equal to 1/6*L. - an overetching configured to laterally consume, in the horizontal direction, the divider material, such that the electrode interlayer has a lateral removal strictly greater than 5 nm, and preferably greater than or equal to 10 nm, with respect to the at least one dimension by width L, said lateral removal being less than or equal to 1/6*L.