mhurhangee/ep-ind-claims huggingface dataset:
A method of forming a coated cutting member or a coated wear part, comprising the steps of: (a) Obtaining a substrate fabricated from a selected material and having an appropriate geometry; (b) Placing the substrate in a chemical vapor deposition reaction chamber; and (c) Depositing a titanium based hard material coating layer, namely, TiCN, TiC, or TiN modified by the inclusion of at least one alloying element selected from the list of chromium, vanadium and silicon, having a general formula of (Ti 100-a-b-c Cr a V b Si c)C x N y O z, where x+y+z = 1 and a+b+c > 0, by chemical vapor deposition, wherein at least 70% of the metal content is Ti, wherein the total alloying element content is between 0.1% and 30% of the total metal content, and wherein at least 0.1% of the metal content of the titanium based hard material coating layer is selected from the list of chromium and silicon, characterized in that the titanium based hard material coating layer is deposited at a temperature in the range of 720°C to 1100°C. (a) Obtaining a substrate fabricated from a selected material and having an appropriate geometry; (b) Placing the substrate in a chemical vapor deposition reaction chamber; and (c) Depositing a titanium based hard material coating layer, namely, TiCN, TiC, or TiN modified by the inclusion of at least one alloying element selected from the list of chromium, vanadium and silicon, having a general formula of (Ti 100-a-b-c Cr a V b Si c)C x N y O z, where x+y+z = 1 and a+b+c > 0, by chemical vapor deposition,
A test condition data generation apparatus configured to receive in real time data from an actual running data acquisition apparatus adapted to acquire actual running data that is data related to running states inside and outside of a vehicle in running on a road, the test condition data generation apparatus is further adapted to generate in real time, from the actual running data, test condition data indicating a test condition necessary to reproduce a part or all of the running states indicated by the actual running data in a test apparatus specified from among multiple types of test apparatuses each of which comprises a dynamometer (32; 34; 37) and performs in parallel to an actual run of the vehicle a drive test or an operation test of a vehicle or a part of the vehicle in accordance with a set test condition, characterized in that the test condition data generation apparatus comprises a simulation preference order setting part adapted to specify an actual running data content to be preferentially simulated among contents of actual running data, a test apparatus specifying part adapted to specify one or more of the dynamometers (32; 34; 37) by receiving input, and a test condition data generation part adapted to generate the test condition data from the actual running data content specified in the simulation preference order setting part, and to transmit the test condition data to one or more of the dynamometers (32; 34; 37) specified in the test apparatus specifying part.
A vacuum cleaner comprising: a cleaner main body comprising a suction motor arranged to generate a suction force; a suction unit arranged to communicate with the cleaner main body and receive air and dust; a battery arranged to supply power to the suction motor; a battery management system "BMS" arranged to detect a status of the battery; and a controller arranged to control an operation of the suction motor, wherein the controller is arranged to stop the suction motor if a voltage of the battery detected by the BMS reaches a reference voltage, and wherein the controller is arranged to change the reference voltage from a first voltage to a second voltage if a condition is satisfied, characterized in that the condition is that the number of times of usage of the battery exceeds a reference number, that an accumulated usage time of the battery exceeds a reference accumulated time, that a voltage reduction rate is greater than a reference reduction rate during discharging of the battery, that a voltage increase rate is less than a reference increase rate during charging of the battery, that a charging time during which a predetermined amount of current charges the battery is greater than a reference charging time during charging of the battery, or that an available usage time of the battery is less than or equal to a reference usage time; and optionally wherein the controller is arranged to determine whether the condition is satisfied and wherein the second voltage is lower than the first voltage. a cleaner main body comprising a suction motor arranged to generate a suction force; a suction unit arranged to communicate with the cleaner main body and receive air and dust; a battery arranged to supply power to the suction motor; a battery management system "BMS" arranged to detect a status of the battery; and a controller arranged to control an operation of the suction motor, wherein the controller is arranged to stop the suction motor if a voltage of the battery detected by the BMS reaches a reference voltage, and wherein the controller is arranged to change the reference voltage from a first voltage to a second voltage if a condition is satisfied, characterized in that the condition is that the number of times of usage of the battery exceeds a reference number, that an accumulated usage time of the battery exceeds a reference accumulated time, that a voltage reduction rate is greater than a reference reduction rate during discharging of the battery, that a voltage increase rate is less than a reference increase rate during charging of the battery, that a charging time during which a predetermined amount of current charges the battery is greater than a reference charging time during charging of the battery, or that an available usage time of the battery is less than or equal to a reference usage time; and optionally wherein the controller is arranged to determine whether the condition is satisfied and wherein the second voltage is lower than the first voltage.
A fixation system for controlling the alignment of adjacent vertebra after spinal surgery, which system comprises aligned fixation rods (40,42,52,56); a mount for installation on each of said vertebra and for holding a fixation rod; and a sleeve (44,50) for receiving the juxtaposed ends of the rods in alignment between the mounts, wherein: at least one of the rods is movable in the sleeve relative to the other to allow controlled movement of adjacent vertebra, and the rods (40,42,52,56) and sleeve (44,50) have matching curvatures selected to achieve a predetermined geometric figuration as they move relative to one another, CHARACTERISED IN THAT: the at least one of the rods comprises a longitudinal groove extending axially on the surface of the at least one of the rods, the groove terminating short of the end of the at least one of the rods; and the sleeve (44,50) is configured to receive an inwardly directed screw through the wall of the sleeve (44,50) such that the screw extends into the longitudinal groove to restrict said movement of the at least one of the rods to retain a minimum end length thereof in the sleeve and to inhibit rotation of the at least one of the rods relative to the sleeve (44,50). the at least one of the rods comprises a longitudinal groove extending axially on the surface of the at least one of the rods, the groove terminating short of the end of the at least one of the rods; and the sleeve (44,50) is configured to receive an inwardly directed screw through the wall of the sleeve (44,50) such that the screw extends into the longitudinal groove to restrict said movement of the at least one of the rods to retain a minimum end length thereof in the sleeve and to inhibit rotation of the at least one of the rods relative to the sleeve (44,50).
A method of analysing a particle within an image, the method comprising: (a) determining a border of the particle, the border being a ring generated by border pixels; (b) determining a plurality of bins generated by moving successively inward and/ or outward from the border; (c) calculating an average V value for each bin by identifying a V value for each pixel within the respective bin and calculating the average, wherein said V value is the V in the Hue Saturation Value color space. (a) determining a border of the particle, the border being a ring generated by border pixels; (b) determining a plurality of bins generated by moving successively inward and/ or outward from the border; (c) calculating an average V value for each bin by identifying a V value for each pixel within the respective bin and calculating the average, wherein said V value is the V in the Hue Saturation Value color space.
A printhead comprising: a main body; and a stack of plates attached to the main body, that form a row of jetting channels configured to jet droplets of a print fluid; wherein the main body includes: a supply manifold configured to provide a fluid path for the print fluid to the row of jetting channels; wherein the supply manifold comprises a primary manifold duct and a secondary manifold duct that extend in parallel in alignment with the row of jetting channels; a fluid diversion plate disposed between the primary manifold duct and the secondary manifold duct and that fluidly isolates the primary manifold duct from the secondary manifold duct at the end sections of the primary manifold duct; wherein the print fluid is supplied at each end section of the primary manifold duct and the secondary manifold duct is fluidly coupled to the row of jetting channels; characterised in that the fluid diversion plate includes a plurality of orifices in a row aligned with the primary manifold duct and the secondary manifold duct, positioned toward the midsection of the length of the primary manifold duct, that fluidly couple the primary manifold duct to the secondary manifold duct; wherein the main body comprises one or more heaters embedded in the main body proximate to primary manifold duct; wherein the plurality of orifices increase in size from orifices at either end of the plurality of orifices to a centre orifice. a main body; and a stack of plates attached to the main body, that form a row of jetting channels configured to jet droplets of a print fluid; wherein the main body includes: a supply manifold configured to provide a fluid path for the print fluid to the row of jetting channels; wherein the supply manifold comprises a primary manifold duct and a secondary manifold duct that extend in parallel in alignment with the row of jetting channels; a fluid diversion plate disposed between the primary manifold duct and the secondary manifold duct and that fluidly isolates the primary manifold duct from the secondary manifold duct at the end sections of the primary manifold duct; wherein the print fluid is supplied at each end section of the primary manifold duct and the secondary manifold duct is fluidly coupled to the row of jetting channels; characterised in that the fluid diversion plate includes a plurality of orifices in a row aligned with the primary manifold duct and the secondary manifold duct, positioned toward the midsection of the length of the primary manifold duct, that fluidly couple the primary manifold duct to the secondary manifold duct; wherein the main body comprises one or more heaters embedded in the main body proximate to primary manifold duct; wherein the plurality of orifices increase in size from orifices at either end of the plurality of orifices to a centre orifice.
A robotic system for manipulating anatomy of a patient during a surgical procedure with the anatomy being secured by a limb holder and having a characteristic, said robotic system comprising: a force-applying device configured to apply force to the anatomy secured by the limb holder to generate a response by the anatomy relating to an extent to which the anatomy moves relative to the limb holder; a response-measuring device configured to measure the response of the anatomy relating to the extent to which the anatomy moves relative to the limb holder when force is applied to the anatomy; a controller configured to calculate the characteristic of the anatomy based on the generated response, the characteristic including data representing the extent to which the anatomy moves relative to the limb holder; an instrument configured to manipulate the anatomy; and wherein said controller is configured to autonomously control said instrument in relation to the anatomy based on the calculated characteristic. a force-applying device configured to apply force to the anatomy secured by the limb holder to generate a response by the anatomy relating to an extent to which the anatomy moves relative to the limb holder; a response-measuring device configured to measure the response of the anatomy relating to the extent to which the anatomy moves relative to the limb holder when force is applied to the anatomy; a controller configured to calculate the characteristic of the anatomy based on the generated response, the characteristic including data representing the extent to which the anatomy moves relative to the limb holder; an instrument configured to manipulate the anatomy; and wherein said controller is configured to autonomously control said instrument in relation to the anatomy based on the calculated characteristic.
A set of targeting constructs, comprising a first construct comprising, in this order, a first region of homology with a target genome of a microorganism, a recognition site for an endonuclease, and a first part of a selection marker, and a second construct comprising, in this order, a second part of the selection marker, a copy of the endonuclease recognition site, and a second region of homology with the target genome of the microorganism, whereby the first and second regions of homology with the target genome each comprises at least 20 base pairs (bp); a fragment of the first part of the selection marker overlaps with a fragment that is present in the second part of the selection marker, allowing recombination between the first and second part of the selection marker, said fragment preferably comprising between 50 and 600 bp; a coding sequence that encodes the endonuclease and which is coupled to an inducible promoter is present on the first or second construct; and a part of the first region of homology with the target genome on the first construct is duplicated between the copy of the endonuclease recognition site and the second region of homology with the target genome on the second construct; or a part of the second region of homology with the target genome on the second construct is duplicated between first region of homology with the target genome and the endonuclease recognition site on the first construct, said duplicated region comprising between 20 and 200 bp.
A dual-phase ferritic-martensitic stainless steel consisting of, by weight: 11.5% to 12% chromium; 0.8% to 1.5% manganese; 0.75% to 1.5% nickel; ≤ 0.5% silicon; ≤ 0.2% molybdenum; ≤ 0.0025% boron; ≤ 0.25% copper; ≤ 0.025% carbon; ≤ 0.01% sulfur; ≤ 0.03% nitrogen; wherein the total concentration of carbon + nitrogen + sulfur + phosphorus ≤ 0.1 %; balance iron and incidental impurities; wherein the steel has a Brinell hardness of 300 HB or greater and a Charpy V-notch impact energy at -40°C such that CVN (ft-lb) + (0.4 x HB) is about 160 or greater. 11.5% to 12% chromium; 0.8% to 1.5% manganese; 0.75% to 1.5% nickel; ≤ 0.5% silicon; ≤ 0.2% molybdenum; ≤ 0.0025% boron; ≤ 0.25% copper; ≤ 0.025% carbon; ≤ 0.01% sulfur; ≤ 0.03% nitrogen; wherein the total concentration of carbon + nitrogen + sulfur + phosphorus ≤ 0.1 %; balance iron and incidental impurities; wherein the steel has a Brinell hardness of 300 HB or greater and a Charpy V-notch impact energy at -40°C such that CVN (ft-lb) + (0.4 x HB) is about 160 or greater.
A fuel injection pump driven by an engine comprising: a pump body; and a hydraulic head, characterized in that a plug is attached to shut a through hole formed in the side face of the hydraulic head, a channel member is attached to the plug, whereby the channel member is attached to an outside of the hydraulic head, the channel member is connected with a branch passage branched off from a water passage of a cooling water for the engine, the cooling water flows through the channel member via the branch passage, whereby the channel member includes a fixing portion and a channel portion; whereby the fixing portion includes a thread portion having a tube shape opening one end, and is, in the opening end formed with the female thread corresponding to the male thread of the plug and a path which communicates inside and outside of the hydraulic head with each other is provided; whereby the channel member is fixed to the hydraulic head by threading the fixing portion to the plug in a state that the channel portion and O-ring are sandwiched with respect to the plug; whereby the channel portion covers the fixing portion, and thus faces the plug, thereby forming sealed internal space; whereby at the outer periphery of the channel portion, an inlet and an outlet are formed; whereby through the inlet and outlet, fluid such as water or oil can flow into the inside space of the channel member; and while the engine is operated, the heat of the cooling water introduced into in the channel member is transferred to the hydraulic head via the plug attached to the outside thereof, whereby a temperature of the hydraulic head is increased to not less than a dew point.
A system for registering image data to a subject, comprising: a base configured to be attached to the subject; an imageable body configured to be attached to the base and having a plurality of physical imageable portions (140a-140d) positioned at fixed and known locations relative to the base; a tracking device configured to be attached to the base at a fixed and known location relative to the base, the fixed and known location of the tracking device defining a plurality of virtual fiducial points (160a-160d) associated with the tracking device that have locations corresponding to locations of the plurality of physical imageable portions; and a processor that executes a program to: determine a location of each physical imageable portion in an image space of image data of the imageable body; determine a location of each virtual fiducial point determined relative to a tracked location of the tracking device in subject space; and registering the image space to the subject space. a base configured to be attached to the subject; an imageable body configured to be attached to the base and having a plurality of physical imageable portions (140a-140d) positioned at fixed and known locations relative to the base; a tracking device configured to be attached to the base at a fixed and known location relative to the base, the fixed and known location of the tracking device defining a plurality of virtual fiducial points (160a-160d) associated with the tracking device that have locations corresponding to locations of the plurality of physical imageable portions; and a processor that executes a program to: determine a location of each physical imageable portion in an image space of image data of the imageable body; determine a location of each virtual fiducial point determined relative to a tracked location of the tracking device in subject space; and registering the image space to the subject space. determine a location of each physical imageable portion in an image space of image data of the imageable body; determine a location of each virtual fiducial point determined relative to a tracked location of the tracking device in subject space; and registering the image space to the subject space.
Compounds selected from the group No. Name "A3" 3-[4-(1-hydroxy-1-methyl-ethyl)-phenyl]-2H-isoquinolin-1-one "A5" 6-fluoro-3-[4-(1-hydroxy-1-methyl-ethyl)-phenyl]-2H-isoquinolin-1-one "A6" 7-fluoro-3-[4-(1-hydroxy-1-methyl-ethyl)-phenyl]-2H-isoquinolin-1-one "A7" 3-[4-(1-hydroxy-1-methyl-ethyl)-phenyl]-7-methyl-2H-isoquinolin-1-one "A8" 3-(4-hydroxymethyl-phenyl)-2H-isoquinolin-1-one "A16" 7-fluoro-3-{4-[1-(2-hydroxy-ethoxy)-1-methyl-ethyl]-phenyl}-2H-isoquinolin-1-one "A20" 3-[4-(1-amino-1-methyl-ethyl)phenyl]-7-fluoro-2H-isoquinolin-1-one "A23" 3-[4-(1-hydroxy-1-methyl-ethyl)phenyl]-2H-2,6-naphthyridin-1-one "A24" 3-[4-(1-hydroxy-1-methyl-ethyl)phenyl]-2H-2,7-naphthyridin-1-one "A25" 7-chloro-3-[4-(1-hydroxy-1-methyl-ethyl)phenyl]-2H-isoquinolin-1-one "A26" 3-[4-(1-hydroxy-1-methyl-ethyl)phenyl]-5-methoxy-2H-isoquinolin-1-one "A27" 8-fluoro-3-[4-(1 -hydroxy-1-methyl-ethyl)phenyl]-2H-isoquinolin-1-one "A28" 5-fluoro-3-[4-(1-hydroxy-1-methyl-ethyl)phenyl]-2H-isoquinolin-1-one "A33" 5,7-difluoro-3-[4-(1-hydroxy-1-methyl-ethyl)-phenyl]-2H-isoquinolin-1-one and pharmaceutically acceptable solvates, salts, tautomers and stereoisomers thereof, including mixtures thereof in all ratios.
A label peeling unit fitted to a paper sheet conveying device for conveying a continuous label strip in which labels are adhered removably on a mount sheet, and used for peeling the labels, the label peeling unit comprising: an attachment body attached to a case of the paper sheet conveying device; a movable body being movable while engaging with the attachment body, the movable body being urged by a spring, whereby it stops in a closed state or in an open state with respect to the attachment body; a label peeling body, fitted to the movable body and contacted by the mount sheet of the continuous label strip conveyed by the paper sheet conveying device so that the mount sheet is bent, to thereby peel a portion of a label from the mount sheet; and a mount sheet conveying roller, attached to the movable body freely rotatably, and rotating while being in contact with a platen roller of the paper sheet conveying device via the mount sheet, so as to thereby convey the mount sheet and discharge it outside, characterised in that the label peeling body is attached to the movable body freely rotatably, and is urged by a torsion spring in an opposite direction to a travelling direction of the mount sheet. an attachment body attached to a case of the paper sheet conveying device; a movable body being movable while engaging with the attachment body, the movable body being urged by a spring, whereby it stops in a closed state or in an open state with respect to the attachment body; a label peeling body, fitted to the movable body and contacted by the mount sheet of the continuous label strip conveyed by the paper sheet conveying device so that the mount sheet is bent, to thereby peel a portion of a label from the mount sheet; and a mount sheet conveying roller, attached to the movable body freely rotatably, and rotating while being in contact with a platen roller of the paper sheet conveying device via the mount sheet, so as to thereby convey the mount sheet and discharge it outside,