mhurhangee/patent-ind-claim-en huggingface dataset:
A directional multi-band antenna , the antenna comprising: - an optical unit comprising an optical sensor; - an RF unit comprising an RF sensor; - a substantially planar optical lens , the optical lens comprising surface relief elements for beam forming, the lens being arranged to focus optical signal beams, incident along a first optical axis, onto the optical sensor, the optical lens being substantially transparent to RF signals, - an RF beam manipulation device arranged to receive RF signals incident along the first optical axis and focus such RF signals onto the RF sensor , wherein the RF beam manipulation device is a substantially planar RF lens comprising surface relief elements for beam forming, wherein the RF beam manipulation device is substantially transparent to optical signals, wherein the surface relief elements of the RF lens form a stepped-element array, such that it has a diffracting effect on the received RF signals, characterized in that each element of the stepped-element array offers a flat boundary normal to the first optical axis, such that it does not substantially refract the received optical signal beams. - an optical unit comprising an optical sensor; - an RF unit comprising an RF sensor; - a substantially planar optical lens , the optical lens comprising surface relief elements for beam forming, the lens being arranged to focus optical signal beams, incident along a first optical axis, onto the optical sensor, the optical lens being substantially transparent to RF signals, - an RF beam manipulation device arranged to receive RF signals incident along the first optical axis and focus such RF signals onto the RF sensor ,
Solenoid device for a solenoid valve with a solenoid coil (S) having a housing and with a driving unit for the solenoid coil (S), wherein the driving unit is arranged within the housing of the solenoid coil (S) and characterized in that the driving unit comprises a high side switch driver circuit and a first transistor (Tl), wherein the first transistor (Tl) is adapted to apply a first potential to the solenoid coil (S) when activated by the high side switch driver circuit , wherein the driving unit comprises a free wheeling diode driver circuit and a second transistor (T2), wherein the second transistor (T2) is adapted to apply a second potential to the solenoid coil (S) when activated by the free wheeling diode driver circuit , wherein the driving unit comprises a low side switch driver circuit and a third transistor (T3), wherein the third transistor (T3) is adapted to apply a third potential to the solenoid coil (S) when activated by the low side switch driver circuit , wherein the first (T1), second (T2) and third transistor (T3) are connected in series.
A method comprising: receiving data and compressing the data to generate compressed data prior to storage of the compressed data in non-volatile memory , wherein the compressed data comprises a compressed version of the data, common meta information, and final meta information, wherein the compressed version of the data is broken into chunks and each chunk is accompanied by common meta information, and the last chunk is additionally accompanied by the final meta information, wherein the common meta information comprises one or more padding bits, the size of the compressed data, an offset, and a compression token, wherein the final meta information comprises a compressed Cyclical Redundancy Code (CRC) and Logical Block Addressing (LBA) information, wherein the compression token is a negative LBA value, and stored in a same space as the Logical Block Addressing (LBA) information, and wherein the compression token indicates whether a corresponding portion of data is compressed, wherein absence of the compression token indicates that the corresponding portion of the data is uncompressed, and wherein decompression of the compressed data is performed at least partially based on a value of the compression token or absence of the compression token; the method further comprising decompressing the compressed data by a plurality of decompression logic, wherein for each detected offset a further decompression logic will operate in parallel, with each offset being the first valid symbol to be decompressed. receiving data and compressing the data to generate compressed data prior to storage of the compressed data in non-volatile memory , wherein the compressed data comprises a compressed version of the data, common meta information, and final meta information, wherein the compressed version of the data is broken into chunks and each chunk is accompanied by common meta information, and the last chunk is additionally accompanied by the final meta information, wherein the common meta information comprises one or more padding bits, the size of the compressed data, an offset, and a compression token, wherein the final meta information comprises a compressed Cyclical Redundancy Code (CRC) and Logical Block Addressing (LBA) information, wherein the compression token is a negative LBA value, and stored in a same space as the Logical Block Addressing (LBA) information, and wherein the compression token indicates whether a corresponding portion of data is compressed, wherein absence of the compression token indicates that the corresponding portion of the data is uncompressed, and wherein decompression of the compressed data is performed at least partially based on a value of the compression token or absence of the compression token; the method further comprising decompressing the compressed data by a plurality of decompression logic, wherein for each detected offset a further decompression logic will operate in parallel, with each offset being the first valid symbol to be decompressed.
An interrogation system for a medical device comprising: a memory storing a diagnostic algorithm; a processor configured to run the diagnostic algorithm; and a communication module configured to facilitate data transfer between the interrogating system and the medical device , wherein the diagnostic algorithm is configured to reach a diagnostic conclusion based on data from the medical device , wherein the diagnostic algorithm is configured to iteratively interrogate the medical device for the data from the medical device until the diagnostic algorithm reaches the diagnostic conclusion, each iterative interrogation requesting additional data as compared to prior iterations, wherein the communication module is configured to receive the additional data from the medical device in response to each iterative interrogation, and wherein the diagnostic algorithm is further configured to store an indication of the diagnostic conclusion within the memory. a memory storing a diagnostic algorithm; a processor configured to run the diagnostic algorithm; and a communication module configured to facilitate data transfer between the interrogating system and the medical device , wherein the diagnostic algorithm is configured to reach a diagnostic conclusion based on data from the medical device , wherein the diagnostic algorithm is configured to iteratively interrogate the medical device for the data from the medical device until the diagnostic algorithm reaches the diagnostic conclusion, each iterative interrogation requesting additional data as compared to prior iterations, wherein the communication module is configured to receive the additional data from the medical device in response to each iterative interrogation, and wherein the diagnostic algorithm is further configured to store an indication of the diagnostic conclusion within the memory.
A steel cord for rubber reinforcement, said steel cord comprising a core strand and at least three outer strands twisted around said core strand, said core strand comprising at least one first core filament and multiple first outer filaments twisted around said at least one first core filament , each said outer strand comprising a number of second filaments , at least one of said multiple first outer filaments is preformed prior to being twisted into said core strand, characterized in that all of said a number of second steel filaments are straight prior to being twisted to form said outer strand.
Composite element , comprising a core element , at least one cover layer attached to at least one outer surface of said core element , said at least one cover layer being formed of a veneer element , and at least one adhesive layer , by means of which the at least one cover layer is connected to the at least one outer surface of the core element , wherein the core element is formed from a non-combustible material, and the at least one veneer element is provided at least in regions on its outer surface with at least one transparent lacquer layer , characterized in that the veneer element consists of exactly one layer of veneer or the veneer element is formed from two, three or more layers of veneer, in each case two adjacent layers of veneer being bonded to one another with an adhesive layer, and wherein the lacquer or lacquer system forming the at least one lacquer layer is provided with one or more flame retardants, wherein the layer thickness of the at least one lacquer layer is in a range from 250 - 1000 μm, for example from 250 - 900μm, preferably 300 - 800μm, in particular 500 - 800μm. a core element , at least one cover layer attached to at least one outer surface of said core element , said at least one cover layer being formed of a veneer element , and at least one adhesive layer , by means of which the at least one cover layer is connected to the at least one outer surface of the core element , wherein the core element is formed from a non-combustible material, and the at least one veneer element is provided at least in regions on its outer surface with at least one transparent lacquer layer , characterized in that the veneer element consists of exactly one layer of veneer or the veneer element is formed from two, three or more layers of veneer, in each case two adjacent layers of veneer being bonded to one another with an adhesive layer, and wherein the lacquer or lacquer system forming the at least one lacquer layer is provided with one or more flame retardants, wherein the layer thickness of the at least one lacquer layer is in a range from 250 - 1000 μm, for example from 250 - 900μm, preferably 300 - 800μm, in particular 500 - 800μm.
Flap device for an internal combustion engine, comprising - a flow channel housing which delimits a flow channel with at least one inlet opening and one first outlet opening - a flap module which can be inserted into the flow duct housing through an opening and at least • a flap shaft rotatably beared in the flow channel housing , • a flap body arranged on the flap shaft for regulating a throughflow cross section of the flow channel • a bearing element arranged in the opening , through which the flap shaft extends, and • an actuating lever which is connected in a rotationally fixed manner to the flap shaft at an end of the flap shaft projecting out of the flow channel housing and which has a coupling member for coupling to an actuating drive device and/or an actuating transmission , characterized in that at least one limiter for limiting a rotary movement of the actuating lever is arranged on the adjusting lever , and a separate cover closing the opening is arranged on the flow channel housing , on which cover at least one stop element cooperating functionally with the limiter is arranged, wherein the limiter is configured as a projection oriented in the axial direction of the flap shaft and a recess is configured on the cover , which recess is delimited by a circumferential wall , which is configured as the stop element for the limiter projecting into the recess , the bearing element being arranged in the opening of the flow channel housing and forming a closure of the flow channel with respect to the surroundings. - a flow channel housing which delimits a flow channel with at least one inlet opening and one first outlet opening - a flap module which can be inserted into the flow duct housing through an opening and at least • a flap shaft rotatably beared in the flow channel housing , • a flap body arranged on the flap shaft for regulating a throughflow cross section of the flow channel • a bearing element arranged in the opening , through which the flap shaft extends, and • an actuating lever which is connected in a rotationally fixed manner to the flap shaft at an end of the flap shaft projecting out of the flow channel housing and which has a coupling member for coupling to an actuating drive device and/or an actuating transmission , • a flap shaft rotatably beared in the flow channel housing , • a flap body arranged on the flap shaft for regulating a throughflow cross section of the flow channel • a bearing element arranged in the opening , through which the flap shaft extends, and • an actuating lever which is connected in a rotationally fixed manner to the flap shaft at an end of the flap shaft projecting out of the flow channel housing and which has a coupling member for coupling to an actuating drive device and/or an actuating transmission ,
A high-strength sheet comprising: C: 0.15% by mass to 0.35% by mass, total of Si and Al: 0.5% by mass to 3.0% by mass, Mn: 1.0% by mass to 4.0% by mass, P: 0.05% by mass or less, and S: 0.01% by mass or less, with the balance being Fe and inevitable impurities, wherein the steel structure satisfies that: a ferrite fraction is 5 volume% or less, the total fraction of tempered martensite and tempered bainite is 60 volume% or more, the amount of retained austenite is 10 volume% or more, MA has an average size of 1.0 μm or less, a half-width of the concentration distribution of Mn in the carbon-concentrated region that is equal to the amount of retained austenite is 0.3% by mass or more, and a scattering intensity at the q value of 1 nm -1 in X-ray small angle scattering is 1.0 cm -1 or less; wherein the scattering intensity and the half-width of the concentration distribution of Mn in the carbon-concentrated region are determined as disclosed in the description. C: 0.15% by mass to 0.35% by mass, total of Si and Al: 0.5% by mass to 3.0% by mass, Mn: 1.0% by mass to 4.0% by mass, P: 0.05% by mass or less, and S: 0.01% by mass or less, with the balance being Fe and inevitable impurities, wherein the steel structure satisfies that: a ferrite fraction is 5 volume% or less, the total fraction of tempered martensite and tempered bainite is 60 volume% or more, the amount of retained austenite is 10 volume% or more, MA has an average size of 1.0 μm or less, a half-width of the concentration distribution of Mn in the carbon-concentrated region that is equal to the amount of retained austenite is 0.3% by mass or more, and a scattering intensity at the q value of 1 nm -1 in X-ray small angle scattering is 1.0 cm -1 or less; a ferrite fraction is 5 volume% or less, the total fraction of tempered martensite and tempered bainite is 60 volume% or more, the amount of retained austenite is 10 volume% or more, MA has an average size of 1.0 μm or less, a half-width of the concentration distribution of Mn in the carbon-concentrated region that is equal to the amount of retained austenite is 0.3% by mass or more, and a scattering intensity at the q value of 1 nm -1 in X-ray small angle scattering is 1.0 cm -1 or less; wherein the scattering intensity and the half-width of the concentration distribution of Mn in the carbon-concentrated region are determined as disclosed in the description.
A sensing device for sensing a physical quantity of a fluid, comprising: - a Mineral Insulated cable with an outer metallic jacket , conductors surrounded by the outer metallic jacket and Magnesium Oxide insulation ; - a sensing element configured for sensing the physical quantity and coupled to a sensing end of the Mineral Insulated cable; - a sealing flange element coupled to the outer metallic jacket of the mineral insulated cable; wherein the sensing device further comprises a tube-like element surrounding at least a part of the Mineral Insulated cable between the sealing flange element and the sensing end of the Mineral Insulated cable, the sensing element being located exterior the tube-like element, and a major part of the inner surface of the tube-like element is at a predefined distance from the outer surface of the Mineral Insulated cable forming an air gap between the mineral insulated cable and the tube-like element, such that the tube-like element and air gap functions as a thermal isolator between the fluid and the outer metallic jacket, wherein a small part of the inner surface of an end section of the tube-like closest to the sensing end of the Mineral Insulated cable is pressed by a radially crimp process to the outer surface of the Mineral Insulated cable by means of three or more dimples . - a Mineral Insulated cable with an outer metallic jacket , conductors surrounded by the outer metallic jacket and Magnesium Oxide insulation ; - a sensing element configured for sensing the physical quantity and coupled to a sensing end of the Mineral Insulated cable; - a sealing flange element coupled to the outer metallic jacket of the mineral insulated cable;
A check valve (10;10a) comprising: a housing ; a flap ; a hinge that allows the flap to rotate relative to the housing between a fully open position and a closed position; and at least one post disposed at or near the periphery of the housing supporting the hinge and extending axially relative to the housing from the housing ; characterised by further comprising: at least one tubular bumper (26;26a) movable with the flap and configured to contact the at least one post when the flap pivots to the fully open position; wherein the at least one tubular bumper (26;26a) has a cylindrical tubular shape; and the at least one tubular bumper (26;26a) is configured to flex upon impact with the at least one post . a housing ; a flap ; a hinge that allows the flap to rotate relative to the housing between a fully open position and a closed position; and at least one post disposed at or near the periphery of the housing supporting the hinge and extending axially relative to the housing from the housing ; characterised by further comprising: at least one tubular bumper (26;26a) movable with the flap and configured to contact the at least one post when the flap pivots to the fully open position; wherein the at least one tubular bumper (26;26a) has a cylindrical tubular shape; and the at least one tubular bumper (26;26a) is configured to flex upon impact with the at least one post .
A drawing apparatus comprising: a first control unit that receives a plurality of image data (II, I2) including a subject from a plurality of cameras , and outputs drawing data obtained by applying coordinate conversion, performed by referring to Look Up Table - LUT-data , to the image data; a memory 202 that stores each of the plurality of image data as a frame image; and a second control unit that derives determination distances (d) from optical centers of each of the plurality of image data with regard to a position of the subject, selects one of the plurality of image data as selection image data on the basis of the determination distances and by referring to camera characteristics including lens distortion data of the plurality of cameras, wherein when there is an area where the image-quality is high even though the determination distance (d) is long, the determination distance (d) corresponding to the area is multiplied by a constant which is less than "1", and rewrites the LUT data so that the selection image data are selected for drawing; wherein an optical center of the plurality of image data corresponds to a position of an image center in each of the frame images, and with regard to the subject, the determination distance (d) is a distance from the position of the image center to the position of the subject in each of the frame images. a first control unit that receives a plurality of image data (II, I2) including a subject from a plurality of cameras , and outputs drawing data obtained by applying coordinate conversion, performed by referring to Look Up Table - LUT-data , to the image data; a memory 202 that stores each of the plurality of image data as a frame image; and a second control unit that derives determination distances (d) from optical centers of each of the plurality of image data with regard to a position of the subject, selects one of the plurality of image data as selection image data on the basis of the determination distances and by referring to camera characteristics including lens distortion data of the plurality of cameras, wherein when there is an area where the image-quality is high even though the determination distance (d) is long, the determination distance (d) corresponding to the area is multiplied by a constant which is less than "1", and rewrites the LUT data so that the selection image data are selected for drawing; wherein an optical center of the plurality of image data corresponds to a position of an image center in each of the frame images, and with regard to the subject, the determination distance (d) is a distance from the position of the image center to the position of the subject in each of the frame images.
A method of operating a subsea production system , the system comprising an electric subsea tree connected to a subsea well , a production tubing in the well , and an electrically operable electric downhole safety valve , the electric subsea tree comprises a through-going bore forming part of a fluid line in the subsea production system down to a position at or close to the electric downhole safety valve , characterized in that the method comprises, in case of malfunction in operation of the electric downhole safety valve , the steps of: - installing a hydraulically operable insert hydraulic downhole safety valve into the well for positioning within the production tubing ; - connecting the insert hydraulic downhole safety valve to the fluid line at a point of setting in the subsea well , for operation of the insert hydraulic downhole safety valve ; - operating the insert hydraulic downhole safety valve from a position outside the subsea tree by using the fluid line which extends from an input port at a position outside of the electric subsea tree to the point of setting in the subsea well via the through-going bore . - installing a hydraulically operable insert hydraulic downhole safety valve into the well for positioning within the production tubing ; - connecting the insert hydraulic downhole safety valve to the fluid line at a point of setting in the subsea well , for operation of the insert hydraulic downhole safety valve ; - operating the insert hydraulic downhole safety valve from a position outside the subsea tree by using the fluid line which extends from an input port at a position outside of the electric subsea tree to the point of setting in the subsea well via the through-going bore .
A fragrance composition comprising three or more of the following fragrance compounds making up from 5% by weight to 50% by weight of the fragrance composition: ambroxide, bornyl acetate L, citral, citronellal, citronellol, 3-(4-Isopropylphenyl)-2-methylpropanal, 2,4-Di(tert-butyl)-cyclohexan-1-one, Dihydromyrcene, Dihydromyrcenyl acetate, myrcenyl acetate, 1-(1,2,3,4,5,6,7,8-Octahydro-2,3,8,8,-tetramethyl-2-naphthyl)ethan-1-one, 2,5,5-Trimethyl-1,3,4,4a,6,7-hexahydronaphthalen-2-ol, (1,7,7-Trimethylbicyclo[2.2.1]hept-2-yl)-cyclohexanol, 2-tert-Butylcyclohexyl acetate, 1-Cyclooct-4-enyl methyl carbonate.