mhurhangee/patent-ind-claim-en huggingface dataset:
A process for the synthesis of linear paraffinic hydrocarbons from a feed comprising carbon monoxide and dihydrogen in the presence of a catalyst comprising a mesoporous oxide matrix and a content by weight of the element cobalt in the range 0.5% to 60%, expressed as the % by weight of metal with respect to the total weight of said catalyst, said catalyst being prepared in accordance with a preparation process comprising at least the steps of: a) mixing, in an aqueous or hydro-organic solvent, at least one molecular precursor comprising cobalt and at least one colloidal precursor of said mesoporous oxide matrix comprising at least one element X selected from the group constituted by silicon, aluminium, titanium, zirconium, cerium and mixtures thereof, said molecular precursor comprising cobalt being dissolved in said aqueous or hydro-organic solvent; b) spray drying the mixture obtained in step a) in order to result in the formation of spherical liquid droplets; c) drying said spherical droplets in order to obtain solid particles at a temperature in the range 10°C to 300°C; d) activation of said solid particles by means of a reduction treatment in a manner such as to form nanoparticles of cobalt with an oxidation state of 0. a) mixing, in an aqueous or hydro-organic solvent, at least one molecular precursor comprising cobalt and at least one colloidal precursor of said mesoporous oxide matrix comprising at least one element X selected from the group constituted by silicon, aluminium, titanium, zirconium, cerium and mixtures thereof, said molecular precursor comprising cobalt being dissolved in said aqueous or hydro-organic solvent; b) spray drying the mixture obtained in step a) in order to result in the formation of spherical liquid droplets; c) drying said spherical droplets in order to obtain solid particles at a temperature in the range 10°C to 300°C; d) activation of said solid particles by means of a reduction treatment in a manner such as to form nanoparticles of cobalt with an oxidation state of 0.
Silica particles having a d BET calculated from a specific surface area by a BET method of 1 nm or more and 100 nm or less and a ratio (d DLS /d BET ) of a d DLS measured by a dynamic light scattering method to the d BET of 1.2 or less, wherein a coefficient of variation in a particle diameter measured using a transmission electron microscope at a magnification of 200,000 is 12% or less.
A polar code transmission method, comprising: Performing , by a transmit end, polar code encoding on at least one of to-be-encoded bit sequences U to generate an encoded sequence, wherein a length of U is N; and scrambling and interleaving , by the transmit end, the encoded sequence by using a scrambling sequence Sx and an interleaving matrix Px; wherein a mother code length is N, and the length of U is the same as the mother code length; and if a bit at an (N/2) th location in U is an information bit, and a bit at an (N/4) th location in U is a fixed bit, bits at a first location to an (N/2) th location in Sx are set to 1; or if a bit at an (N/4) th location in U is a fixed bit, and S X = S U · G N , wherein G N is a N×N generator matrix of a polar code, and Su is a 1×N vector, a bit that is in Su and that corresponds to a first information bit location in U is set to 1; or if S X = S U · G N , and G N · P x · G N = T u , wherein G N is a N×N generator matrix of a polar code, Su is a 1×N vector, and T u is a N×N transformation matrix, column vectors that are in T u and that correspond to information bit locations in U constitute an information bit transformation matrix, and a bit that is in Su and that corresponds to a location of a row in Tu is set to 1, wherein the row has a largest row weight in an M×M upper triangular matrix in the information bit transformation matrix, and M is a positive integer greater than or equal to 2. Performing , by a transmit end, polar code encoding on at least one of to-be-encoded bit sequences U to generate an encoded sequence, wherein a length of U is N; and scrambling and interleaving , by the transmit end, the encoded sequence by using a scrambling sequence Sx and an interleaving matrix Px; wherein a mother code length is N, and the length of U is the same as the mother code length; and if a bit at an (N/2) th location in U is an information bit, and a bit at an (N/4) th location in U is a fixed bit, bits at a first location to an (N/2) th location in Sx are set to 1; or if a bit at an (N/4) th location in U is a fixed bit, and S X = S U · G N , wherein G N is a N×N generator matrix of a polar code, and Su is a 1×N vector, a bit that is in Su and that corresponds to a first information bit location in U is set to 1; or if S X = S U · G N , and G N · P x · G N = T u , wherein G N is a N×N generator matrix of a polar code, Su is a 1×N vector, and T u is a N×N transformation matrix, column vectors that are in T u and that correspond to information bit locations in U constitute an information bit transformation matrix, and a bit that is in Su and that corresponds to a location of a row in Tu is set to 1, wherein the row has a largest row weight in an M×M upper triangular matrix in the information bit transformation matrix, and M is a positive integer greater than or equal to 2.
A front for a digital display panel , said front comprising ventilation devices , a lower tube , an upper tube and lateral uprights (23-24) configured in order to support a plurality of modules provided with a matrix array of light emitting diodes, said lower tube comprising: - a lower wall , an upper wall , a front wall , and a rear wall having a shoulder such that a surface of said upper wall is larger than a surface of said lower wall , - said surface of said upper wall comprising: ∘ a first zone disposed facing said lateral front wall and configured for attaching said modules , and ∘ a second zone disposed facing said lateral rear wall and onto which said ventilation devices are attached, supplied with air via the air contained in the lower tube , - a plurality of vents being formed in said upper wall at the level of the second zone in a manner such that the ventilation devices can suck in and propel the air from said lower tube towards said modules , said lower tube being in ventilating communication with the exterior of said front . - a lower wall , an upper wall , a front wall , and a rear wall having a shoulder such that a surface of said upper wall is larger than a surface of said lower wall , - said surface of said upper wall comprising: ∘ a first zone disposed facing said lateral front wall and configured for attaching said modules , and ∘ a second zone disposed facing said lateral rear wall and onto which said ventilation devices are attached, supplied with air via the air contained in the lower tube , ∘ a first zone disposed facing said lateral front wall and configured for attaching said modules , and ∘ a second zone disposed facing said lateral rear wall and onto which said ventilation devices are attached, supplied with air via the air contained in the lower tube , - a plurality of vents being formed in said upper wall at the level of the second zone in a manner such that the ventilation devices can suck in and propel the air from said lower tube towards said modules , said lower tube being in ventilating communication with the exterior of said front .
A gas turbine power generation system in which a pressurizing unit , a rotation control unit , a diaphragm coupling , a radial bearing , a turbine , and a generator are disposed to line up sequentially on a same shaft, characterized in that the gas turbine power generation system comprises a thrust bearing provided between the turbine and the generator , wherein the turbine is configured such that a working medium flows from the diaphragm coupling side toward the rotation control unit side. a thrust bearing provided between the turbine and the generator , wherein the turbine is configured such that a working medium flows from the diaphragm coupling side toward the rotation control unit side.
A method comprising: receiving a network signal value assigned from one or more access points in response to a request to employ carrier aggregation, selectively producing an additional maximum power reduction of one or more first uplinks of a plurality of uplink and downlink signals among two or more aggregated radio bands based upon the network signal value and a plurality of dynamic additional maximum power reduction parameters, wherein the dynamic additional maximum power reduction parameters selectively reduce power of the one or more first uplinks of the plurality of uplink and downlink signals depending upon an operation mode of one or more second links of the plurality of uplink and downlink signals, wherein (i) the plurality of uplink signals employs frequency division duplexing and the plurality of downlink signals employs time division duplexing or (ii) the plurality of uplink and downlink signals employs time division duplexing and the one or more first uplinks and the one or more second links are adapted for one or more non-aligned configurations within a frame, and wherein the operation mode of the one or more second links is either an uplink operation mode or a downlink operation mode. receiving a network signal value assigned from one or more access points in response to a request to employ carrier aggregation, selectively producing an additional maximum power reduction of one or more first uplinks of a plurality of uplink and downlink signals among two or more aggregated radio bands based upon the network signal value and a plurality of dynamic additional maximum power reduction parameters, wherein the dynamic additional maximum power reduction parameters selectively reduce power of the one or more first uplinks of the plurality of uplink and downlink signals depending upon an operation mode of one or more second links of the plurality of uplink and downlink signals, wherein (i) the plurality of uplink signals employs frequency division duplexing and the plurality of downlink signals employs time division duplexing or (ii) the plurality of uplink and downlink signals employs time division duplexing and the one or more first uplinks and the one or more second links are adapted for one or more non-aligned configurations within a frame, and (i) the plurality of uplink signals employs frequency division duplexing and the plurality of downlink signals employs time division duplexing or (ii) the plurality of uplink and downlink signals employs time division duplexing and the one or more first uplinks and the one or more second links are adapted for one or more non-aligned configurations within a frame, and wherein the operation mode of the one or more second links is either an uplink operation mode or a downlink operation mode.
Method for detecting vulnerabilities of at least one virtual production server of a first system corresponding to a virtual or cloud computer system , said method comprising the following steps: - providing a second system for analysing the vulnerabilities of said at least one virtual production server of the first system , said second system being outside said first system ; - connecting the second system with the first system ; - the second system calling an infrastructure of programming interfaces, called API, in the first system to create a clone or a disk copy of said at least one virtual production server in the first system, by using cloning functions of said API; - connecting the second system to said clone or said disk copy in the first system; - said second system analysing the vulnerabilities of said clone or of said disk copy in the first system; - said second system erasing said clone or said disk copy in the first system; - said second system generating a report of analysis of the vulnerabilities of the clone or of the disk copy in the first system; - said second system deducing the vulnerabilities in said at least one virtual production server from the analysis of the vuh1erabilities of the clone or of the disk copy in the first system; - using the report of analysis of the vulnerabilities to fix the vulnerabilities of the virtual production server . - providing a second system for analysing the vulnerabilities of said at least one virtual production server of the first system , said second system being outside said first system ; - connecting the second system with the first system ; - the second system calling an infrastructure of programming interfaces, called API, in the first system to create a clone or a disk copy of said at least one virtual production server in the first system, by using cloning functions of said API; - connecting the second system to said clone or said disk copy in the first system; - said second system analysing the vulnerabilities of said clone or of said disk copy in the first system; - said second system erasing said clone or said disk copy in the first system; - said second system generating a report of analysis of the vulnerabilities of the clone or of the disk copy in the first system; - said second system deducing the vulnerabilities in said at least one virtual production server from the analysis of the vuh1erabilities of the clone or of the disk copy in the first system; - using the report of analysis of the vulnerabilities to fix the vulnerabilities of the virtual production server .
A method for forging a gear (G) including pushing a material (M) into a molding space of a teeth profile die from one side of the teeth profile die for molding external teeth by a punch , and after the pushing, discharging a gear (G) having the external teeth formed thereon from another side of the teeth profile die by the punch , the method comprising: providing a material outer diameter constraint die for constraining an outer diameter of a previous material (M) before the material (M) is pushed into the molding space of the teeth profile die on the one side of the teeth profile die ; and setting an inner diameter size of the material outer diameter constraint die to be smaller than a large diameter size of the gear (G) set in the teeth profile die ; characterized in that a teeth profile shape of the teeth profile die is carved on an inner peripheral surface of the material outer diameter constraint die at an outer side in a radial direction than the inner diameter size of the material outer diameter constraint die . providing a material outer diameter constraint die for constraining an outer diameter of a previous material (M) before the material (M) is pushed into the molding space of the teeth profile die on the one side of the teeth profile die ; and setting an inner diameter size of the material outer diameter constraint die to be smaller than a large diameter size of the gear (G) set in the teeth profile die ; characterized in that a teeth profile shape of the teeth profile die is carved on an inner peripheral surface of the material outer diameter constraint die at an outer side in a radial direction than the inner diameter size of the material outer diameter constraint die .
A foot controller for a dental unit chair for controlling a treatment tool provided in the dental unit chair , the foot controller comprising: an air valve configured to control a flow rate of air supplied to the treatment tool; a cam block configured to be installed under a rod provided in the air valve and having an inclined surface ; a pedal unit configured to be disposed at a location spaced apart from the cam block by a predetermined distance and rotatable left and right by an external force and movable up and down; and a connection part configured to connect the cam block and the pedal unit so that the cam block moves in conjunction with movement of the pedal unit , wherein the air valve and the cam block are disposed so that a distance between the inclined surface and the rod is changed by the left and right rotation of the connection part according to the left and right rotation of the pedal unit , wherein the air valve and the cam block are disposed so that the rod is pressed or unpressed by the up and down movement of the connection part according to the up and down movement of the pedal unit , wherein the degree of pressing of the rod varies according to a location at which the pedal unit moves downward in the range of the left and right rotation of the pedal unit , and wherein the air valve controls the amount of air supplied to the treatment tool as the degree of pressing of the rod varies. an air valve configured to control a flow rate of air supplied to the treatment tool; a cam block configured to be installed under a rod provided in the air valve and having an inclined surface ; a pedal unit configured to be disposed at a location spaced apart from the cam block by a predetermined distance and rotatable left and right by an external force and movable up and down; and a connection part configured to connect the cam block and the pedal unit so that the cam block moves in conjunction with movement of the pedal unit , wherein the air valve and the cam block are disposed so that a distance between the inclined surface and the rod is changed by the left and right rotation of the connection part according to the left and right rotation of the pedal unit , wherein the air valve and the cam block are disposed so that the rod is pressed or unpressed by the up and down movement of the connection part according to the up and down movement of the pedal unit , wherein the degree of pressing of the rod varies according to a location at which the pedal unit moves downward in the range of the left and right rotation of the pedal unit , and wherein the air valve controls the amount of air supplied to the treatment tool as the degree of pressing of the rod varies.
An FPGA cloud host development method applied to a development management platform , wherein the FPGA cloud host is a cloud host including a Field Programmable Gate Array, FPGA, and wherein the development management platform is a network-side or cloud management platform, the method comprising: sending , in response to a development request triggered by a development device , a template constraint file to the development device ; detecting , in response to a design file uploaded by the development device , validity of an actual constraint file included in the design file, the actual constraint file corresponding to the FPGA of the FPGA cloud host; synthesis processing the design file in response to detecting that the actual constraint file is valid; and writing a burner file obtained from the synthesis processing into the FPGA, wherein the detecting validity of the actual constraint file included in the design file comprises: determining that the actual constraint file is valid in response to determining that a result of comparison between the template constraint file stored locally and the actual constraint file indicates that the template constraint file is consistent with the actual constraint file, the template constraint file corresponding to the FPGA. sending , in response to a development request triggered by a development device , a template constraint file to the development device ; detecting , in response to a design file uploaded by the development device , validity of an actual constraint file included in the design file, the actual constraint file corresponding to the FPGA of the FPGA cloud host; synthesis processing the design file in response to detecting that the actual constraint file is valid; and writing a burner file obtained from the synthesis processing into the FPGA,
A display device for a vehicle mounted in an indoor space of a vehicle and configured to change an area of a display, the display device comprising: a first frame of which one end is coupled to an interior member of the vehicle ; a second frame of which one end is coupled to an opposite end of the first frame , the second frame being configured to be rotatable about the one end of the second frame with respect to the first frame ; and a flexible display disposed on one surface of the first frame and one surface of the second frame , the flexible display being configured to be foldable in a direction in which the one surface of the first frame and the one surface of the second frame overlap each other; characterized by an elastic part configured to apply tension to the flexible display in a direction oriented toward an inside of the interior member when the flexible display is unfolded. a first frame of which one end is coupled to an interior member of the vehicle ; a second frame of which one end is coupled to an opposite end of the first frame , the second frame being configured to be rotatable about the one end of the second frame with respect to the first frame ; and a flexible display disposed on one surface of the first frame and one surface of the second frame , the flexible display being configured to be foldable in a direction in which the one surface of the first frame and the one surface of the second frame overlap each other; characterized by an elastic part configured to apply tension to the flexible display in a direction oriented toward an inside of the interior member when the flexible display is unfolded.
Modular element adapted to replace a portion of the façade of a building in correspondence with at least one floor (A, B, C, D) of the building, said modular element comprising an air conditioning unit and a channeling system, wherein the channeling system is configured to receive a fluid from an external fluid source, and comprises at least one first channel entering the air conditioning unit , and wherein the air conditioning unit comprises: - a mechanical ventilation element configured to generate an air inflow into the building and an air outflow from the building, and to exchange heat therebetween; - a hot and/or cold air diffusion element configured to heat and/or cool said air inflow using the fluid circulating in the first channel and to input said air inflow into the interior environment of the building; - an electronic control element configured to control the hot and/or cold air diffusion element and the mechanical ventilation element ; and wherein said modular element being characterized in that: - the channeling system comprises at least one second channel connectable to an internal diffusion element of the building, and configured to transport the fluid from the external source to the internal diffusion element of the building. wherein the channeling system is configured to receive a fluid from an external fluid source, and comprises at least one first channel entering the air conditioning unit , and wherein the air conditioning unit comprises: - a mechanical ventilation element configured to generate an air inflow into the building and an air outflow from the building, and to exchange heat therebetween; - a hot and/or cold air diffusion element configured to heat and/or cool said air inflow using the fluid circulating in the first channel and to input said air inflow into the interior environment of the building; - an electronic control element configured to control the hot and/or cold air diffusion element and the mechanical ventilation element ; - a mechanical ventilation element configured to generate an air inflow into the building and an air outflow from the building, and to exchange heat therebetween; - a hot and/or cold air diffusion element configured to heat and/or cool said air inflow using the fluid circulating in the first channel and to input said air inflow into the interior environment of the building; - an electronic control element configured to control the hot and/or cold air diffusion element and the mechanical ventilation element ; and wherein said modular element being characterized in that: - the channeling system comprises at least one second channel connectable to an internal diffusion element of the building, and configured to transport the fluid from the external source to the internal diffusion element of the building. - the channeling system comprises at least one second channel connectable to an internal diffusion element of the building, and configured to transport the fluid from the external source to the internal diffusion element of the building.