mhurhangee/patent-ind-claim-en huggingface dataset:
A turning method for a workpiece (W) rotatable about a rotation axis (A), the turning method comprising: driving a first movement apparatus for moving a turning tool in a radial direction of the rotation axis (A) to locate a cutting edge of the turning tool at a first radial position in the radial direction; driving a second movement apparatus for moving the turning tool in parallel with the rotation axis (A), performing turning on the workpiece (W), and then moving the turning tool in a reverse direction to retract the turning tool from the workpiece (W); measuring a processed dimension of the workpiece (W), and calculating an error between the processed dimension that has been measured and a target dimension; characterised in that the turning method further comprises : driving a third movement apparatus for moving the turning tool relative to the first movement apparatus in the radial direction of the rotation axis (A) to locate the cutting edge of the turning tool at a second radial position so as to correct the error; and driving the second movement apparatus to move the turning tool in parallel with the rotation axis (A), and performing turning on the workpiece (W). driving a first movement apparatus for moving a turning tool in a radial direction of the rotation axis (A) to locate a cutting edge of the turning tool at a first radial position in the radial direction; driving a second movement apparatus for moving the turning tool in parallel with the rotation axis (A), performing turning on the workpiece (W), and then moving the turning tool in a reverse direction to retract the turning tool from the workpiece (W); measuring a processed dimension of the workpiece (W), and calculating an error between the processed dimension that has been measured and a target dimension; characterised in that the turning method further comprises : driving a third movement apparatus for moving the turning tool relative to the first movement apparatus in the radial direction of the rotation axis (A) to locate the cutting edge of the turning tool at a second radial position so as to correct the error; and driving the second movement apparatus to move the turning tool in parallel with the rotation axis (A), and performing turning on the workpiece (W). driving a third movement apparatus for moving the turning tool relative to the first movement apparatus in the radial direction of the rotation axis (A) to locate the cutting edge of the turning tool at a second radial position so as to correct the error; and driving the second movement apparatus to move the turning tool in parallel with the rotation axis (A), and performing turning on the workpiece (W).
A machine to process components of wood or the like comprising a base extending in a first direction ; a locking unit , which is mounted on the base to lock at least one component on a support surface (P); an overhead crane , which extends above the base in a second direction that is transverse to the first direction , is delimited, in the first direction , by two lateral sides , and is provided with an operating head , which is mounted between the lateral sides to process the components ; each lateral side at least partially extending at a given distance from the support surface (P) to define a passageway section for the component under the lateral side ; and, for each lateral side , a respective protection device , which is configured to at least partially close the relative passageway section , and comprises at least one flexible strip , which projects from the lateral side towards the support surface (P); and, wherein each protection device comprises, furthermore, a shutter , which is mobile, relative to the respective lateral side , in a third direction , which is substantially orthogonal to the support surface (P), between a raised rest position, in which the shutter substantially remains on the outside of the relative passageway section , and a lowered operating position, in which the shutter projects from the relative lateral side towards the support surface (P) to close part of the passageway section ; each flexible strip being mobile, relative to the respective lateral side , between a lowered operating position, in which the flexible strip extends on the inside of the passageway section , and a raised rest position, in which the flexible strip extends on the outside of the passageway section ; each flexible strip having a height, measured parallel to the third direction , that is at least equal to the height of the passageway section , which is measured parallel to the third direction , as well; characterized by the flexible strips of the two protection devices being mounted between the two shutters in the first direction ; and each shutter having a height, measured parallel to the third direction , that is smaller than the height of the passageway section , which is measured parallel to the third direction , as well.
A method for determining a time domain resource mapped by a reference signal, comprising: determining (S101), by user equipment based on configuration information, a time domain resource mapped by a reference signal and/or a subcarrier spacing of the reference signal, wherein the configuration information comprises predefined first configuration information and/or second configuration information sent by a base station, wherein the method further comprises: determining, by the user equipment based on an attribute of a time domain resource unit, a manner of mapping the reference signal to the time domain resource, wherein the manner comprises: determining, by the user equipment based on the predefined first configuration information and/or the second configuration information sent by the base station, the time domain resource mapped by the reference signal; and the attribute of the time domain resource unit comprises at least one of the following: an index of the time domain resource unit, a set number of the time domain resource unit, and a type of the time domain resource unit, wherein the determining, by the user equipment based on an attribute of a time domain resource unit, a manner of mapping the reference signal to the time domain resource comprises: determining, by the user equipment based on predefined third configuration information and/or fourth configuration information sent by the base station, the manner of mapping the reference signal corresponding to the attribute of the time domain resource unit to the time domain resource.
A carbonated beverage filled into a container, wherein in the beverage a content of RebA is 250 ppm or less, a content of RebM is 486 ppm or less, (RebM/RebA) is 2.5 or more in mass ratio, a total content of RebA and RebM is 1.0 to 11.5 in Brix in terms of sucrose, caffeine content is 1 to 200 ppm, and the gas pressure of carbon dioxide gas is 211 kPa (2.15 kgf/cm 2 ) or more.
A method for locating targets transmitting ADS-B squitters with a secondary radar with an antenna having a radiation pattern forming a sum channel, designated SUM, a radiation pattern forming a difference channel, designated DIFF, and a pattern forming a control channel, designated CONT, the secondary radar having a predefined interrogation coverage , characterised in that said targets are located through the following steps: - detecting ADS-B squitters received over said CONT channel , over said SUM channel and over said DIFF channel ; - measuring at least the power of said squitters and their azimuth with respect to said radar ; the location of a target transmitting ADS-B squitters being computed by exploiting at least the detection of a single ADS-B squitter from the latitudinal and longitudinal position of said radar and of the azimuthal measurement of said ADS-B squitter with respect to said radar, said position being computed from the detections over the SUM channel and over the DIFF channel, a position cell, designated the CPR cell , coded in said squitter being selected by said azimuthal measurement. - detecting ADS-B squitters received over said CONT channel , over said SUM channel and over said DIFF channel ; - measuring at least the power of said squitters and their azimuth with respect to said radar ;
An arrangement comprising a gate-valve attaching structure and a plurality of gate valves for firmly attaching the plurality of gate valves adjacent to each other between a first chamber and a second chamber each having a plurality of chamber openings , characterized in that each gate valve includes a hollow valve housing having a pair of gate openings , a valve body moving in the valve housing to establish or interrupt communication between the pair of gate openings , and a valve drive unit operating the valve body , wherein the valve housing has a pair of side wall faces having the gate openings and facing away from each other and a pair of side end faces coupling opposite side ends of the side wall faces and facing away from each other, and is fixed to both the first chamber and the second chamber such that the pair of gate openings are connected to the chamber openings of the first and second chambers and the pair of side wall faces are airtightly pressed against the first and second chambers , wherein the side end faces , facing each other, of the valve housings of the adjacent gate valves define a fixing space having an axis (L2) extending along the side ends of the side wall faces , the fixing space has a first end and a second end in a direction along the axis (L2), the first and second ends serve as openings, the side end faces facing each other include a pair of protruding walls extending along the axis and protruding from the respective side end faces into the fixing space , and the fixing space accommodates a valve fixing mechanism for fixing the gate valves to the second chamber , and wherein the valve fixing mechanism includes a support member fixed to the second chamber in middle part of the fixing space in the direction along the axis (L2), a pair of lever members each including fulcrum part in pressure contact with a supporting portion , facing toward the second chamber , of the support member , load part in contact with the pair of protruding walls to exert a pressing force on the second chamber , and effort part to which a force directed toward the second chamber is applied, and a pair of fixing operation members applying the force to the effort part of each lever member and pressing the pair of protruding walls against the second chamber , and the pair of lever members are arranged on both sides of the support member in the direction along the axis such that the effort parts of the lever members are located closer to the openings at the first and second ends than the load parts .
A wavelength conversion device (WC, WC1) comprising: a wavelength conversion element having a phosphor plate configured to convert a wavelength of incident light (L2) upon a light incident surface (S1) to generate wavelength-converted light (L3, L31), and emit the wavelength-converted light (L3, L31) from a light emission surface (S2); an antenna array constituted of a plurality of optical antennas that are metal projections periodically arranged on said light emission surface (S2) of said phosphor plate ; and a recessed structure including at least one recess (R1, R2) provided in said light emission surface (S2) of said phosphor plate ; wherein said optical antennas are arranged with a period (P) corresponding to a wavelength of the wavelength-converted light (L3, L31) in said phosphor plate . a wavelength conversion element having a phosphor plate configured to convert a wavelength of incident light (L2) upon a light incident surface (S1) to generate wavelength-converted light (L3, L31), and emit the wavelength-converted light (L3, L31) from a light emission surface (S2); an antenna array constituted of a plurality of optical antennas that are metal projections periodically arranged on said light emission surface (S2) of said phosphor plate ; and a recessed structure including at least one recess (R1, R2) provided in said light emission surface (S2) of said phosphor plate ; wherein said optical antennas are arranged with a period (P) corresponding to a wavelength of the wavelength-converted light (L3, L31) in said phosphor plate .
An aerosol composition comprising: • One or more non-silicone non-ionic film forming polymer(s), • One or more anionic film forming polymer(s), and/or its/their salt(s), and/or their mixtures, • One or more organic and/or inorganic particulate being insoluble in organic solvents having a boiling point in the range of 50°C to 120°C under atmospheric conditions, • One or more organic solvent(s) having a boiling point in the range of 50°C to 120°C under atmospheric conditions, • One or more propellant(s), wherein the composition comprises less than 5% by weight of water, preferably less than 1% by weight of water, calculated to the total of the composition, more preferably it is anhydrous. • One or more non-silicone non-ionic film forming polymer(s), • One or more anionic film forming polymer(s), and/or its/their salt(s), and/or their mixtures, • One or more organic and/or inorganic particulate being insoluble in organic solvents having a boiling point in the range of 50°C to 120°C under atmospheric conditions, • One or more organic solvent(s) having a boiling point in the range of 50°C to 120°C under atmospheric conditions, • One or more propellant(s),
A method, comprising: obtaining , by a terminal, indication information from a base station; and determining , by the terminal, a maximum number of multi-input multi-output (MIMO) layers according to the indication information and a band combination of the terminal, wherein the band combination indicates part of an access capability of the terminal, and the access capability comprises a terminal category of the terminal, and the access capability is provided by the terminal to the base station, and the band combination is a combination of frequency bands which indicates the MIMO capability of the terminal in different frequency bands and the MIMO capability is a maximum number of MIMO layers supported by the terminal; wherein if the band combination comprises a frequency band that appears at least two times in the band combination, the determining comprises: determining, by the terminal, the maximum number of the MIMO layers according to the indication information and according to a maximum value of the maximum numbers of MIMO layers supported by the terminal that are indicated by the frequency band. obtaining , by a terminal, indication information from a base station; and determining , by the terminal, a maximum number of multi-input multi-output (MIMO) layers according to the indication information and a band combination of the terminal, wherein the band combination indicates part of an access capability of the terminal, and the access capability comprises a terminal category of the terminal, and the access capability is provided by the terminal to the base station, and the band combination is a combination of frequency bands which indicates the MIMO capability of the terminal in different frequency bands and the MIMO capability is a maximum number of MIMO layers supported by the terminal; wherein if the band combination comprises a frequency band that appears at least two times in the band combination, the determining comprises: determining, by the terminal, the maximum number of the MIMO layers according to the indication information and according to a maximum value of the maximum numbers of MIMO layers supported by the terminal that are indicated by the frequency band.
Pane with thermal radiation reflecting coating for separating an interior from an external environment, comprising at least one substrate and at least one thermal radiation reflecting coating at least on the surface of the substrate that is intended to be turned toward the interior in the installed position of the pane, wherein - the pane has transmittance in the visible spectral range of less than 5%, and - the coating , proceeding from the substrate , comprises at least: - an adhesive layer that contains at least one material with a refractive index of less than 1.8, - a functional layer that contains at least one transparent, electrically conductive oxide, - an optically high-refractive-index layer that contains at least one material with a refractive index greater than or equal to 1.8, and - an optically low-refractive-index layer that contains at least one material with a refractive index of less than 1.8. - the pane has transmittance in the visible spectral range of less than 5%, and - the coating , proceeding from the substrate , comprises at least: - an adhesive layer that contains at least one material with a refractive index of less than 1.8, - a functional layer that contains at least one transparent, electrically conductive oxide, - an optically high-refractive-index layer that contains at least one material with a refractive index greater than or equal to 1.8, and - an optically low-refractive-index layer that contains at least one material with a refractive index of less than 1.8.
A polycarbonate resin, comprising a structural unit represented by a general formula (I) below: (where R's independently represent a halogen atom, an alkyl group having 1 to 9 carbon atoms, an aryl group having 6 to 12 carbon atoms, an alkenyl group having 2 to 5 carbon atoms, an alkoxy group having 1 to 5 carbon atoms, or an aralkyl group having 7 to 17 carbon atoms; n's independently indicate the number of R's which substitute on a corresponding benzene ring and independently represent an integer of 0 to 4; Y represents an alkylene group having 1 to 4 carbon atoms; and p represents an integer of 0 to 4).
A substrate arrangement comprising a substrate and an epitaxial layer , the substrate having a surface configured to receive, by epitaxy, the epitaxial layer of semiconducting material, the substrate comprising a laminate having a handle layer and a seed layer , the seed layer having a crystal orientation arranged to receive the epitaxial layer and the handle layer having a crystal orientation different to the seed layer; wherein the seed layer comprises a surface oriented Silicon layer and the epitaxial layer comprises a surface orientated Gallium Nitride layer and the handle layer is of Silicon and wherein 0° twist and 0° tilt corresponds to a crystal alignment with the seed layer, wherein a unit cell of silicon comprises an x-axis, a y-axis and a z-axis that are aligned to the principle axes of the unit cell; and wherein the z-axis direction is defined as perpendicular to the surface and, for the surface oriented seed layer, the seed layer has a crystal orientation corresponding to a 45° twist in the x-y plane aligned with the x and y axes and 54.7° tilt in the x-z plane aligned with the x and z axes of a unit cell, characterized in that the handle layer is, relative to the seed layer, twisted by an angle between 40° and 80° and tilted by an angle of between 45° and 65°.
Method for decommissioning a block, zone or section of a railway track, which railway track is part of a railway system controlled by train traffic control, and comprises a security logic for monitoring track occupancy, said method comprising: simulating the presence of a train within the security logic by providing simulation data to the logic via an input, characterized by the security logic being adapted to retain distinction according to an origin of received data indicating the presence of a train on the railway track in the further processing of said data, said origin of the data being the simulation of the presence of a train or a presence of a physical train. simulating the presence of a train within the security logic by providing simulation data to the logic via an input, characterized by the security logic being adapted to retain distinction according to an origin of received data indicating the presence of a train on the railway track in the further processing of said data, said origin of the data being the simulation of the presence of a train or a presence of a physical train.
An operating room cable assembly for an electrical stimulation system, the operating room cable assembly comprising: a lead connector comprising a housing , a lead lumen extending inwardly from a first opening in the housing and configured and arranged to receive a portion of a lead or lead extension , and a contact assembly disposed within the housing and configured and arranged to move relative to the housing , wherein the contact assembly is configured and arranged to move to a load position and is biased to return to a lock position from the load position, wherein the contact assembly comprises a plurality of contacts , wherein the contacts of the contact assembly are configured and arranged to engage a portion of any lead or lead extension within the lead lumen when the contact assembly is in the lock position and to disengage from the portion of the lead or lead extension within the lead lumen when the contact assembly is in the load position. a lead connector comprising a housing , a lead lumen extending inwardly from a first opening in the housing and configured and arranged to receive a portion of a lead or lead extension , and a contact assembly disposed within the housing and configured and arranged to move relative to the housing , wherein the contact assembly is configured and arranged to move to a load position and is biased to return to a lock position from the load position, a housing , a lead lumen extending inwardly from a first opening in the housing and configured and arranged to receive a portion of a lead or lead extension , and a contact assembly disposed within the housing and configured and arranged to move relative to the housing , wherein the contact assembly is configured and arranged to move to a load position and is biased to return to a lock position from the load position, wherein the contact assembly comprises a plurality of contacts , wherein the contacts of the contact assembly are configured and arranged to engage a portion of any lead or lead extension within the lead lumen when the contact assembly is in the lock position and to disengage from the portion of the lead or lead extension within the lead lumen when the contact assembly is in the load position.