mhurhangee/ep-ind-claims huggingface dataset:
Machine for manufacturing a reinforced net (1, 10) that has hexagonal meshes comprising a plurality of permanently deformable wires (2, 2', 3, 3') and at least one reinforcing element, the machine comprising a mechanism for the reciprocal coiling of first wires (2, 2') and second wires (3, 3') in twos, which mechanism is provided with passages for the reinforcing elements, and a feed system for: - the first wires (2, 2'), fed in from a plurality of containers (90, 90') that are mounted on board the machine and provided internally with a predetermined length of said first wires (2, 2'), - part of the second wires, fed in alternately with the first wires so as to be interwoven therewith in twos in the coiling mechanism, and - the reinforcing elements, fed into the machine, characterised in that, for each reinforcing element, a reel is provided for feeding one of the remaining said second wires, the reel being rotatable around the reinforcing element. - the first wires (2, 2'), fed in from a plurality of containers (90, 90') that are mounted on board the machine and provided internally with a predetermined length of said first wires (2, 2'), - part of the second wires, fed in alternately with the first wires so as to be interwoven therewith in twos in the coiling mechanism, and - the reinforcing elements, fed into the machine,
A flow synthesis process for producing a compound of the Formula I and its pharmaceutically acceptable salts, the process comprising the steps of: a) reacting L-menthyl glyoxalate with 1,4-dithiane-2,5-diol in a dehydration reaction to form a reaction product comprising a compound of the Formula Ia b) reacting the reaction product of step (a) with an acetylation reagent to form a reaction product comprising a compound of the Formula Ib c) reacting the reaction product of step (b) with pyridine triflate and a compound of the Formula Ic in a glycosylation reaction to from a reaction product comprising a compound of the Formula Id d) reacting the reaction product of step (c) with a reducing agent to form the compound of Formula I, wherein R is selected from H or F, and wherein steps (a) to (b) and (c) to (d) are continuous flow synthesis steps, such that the compound of Formula Ib is the only intermediate isolated in the process. a) reacting L-menthyl glyoxalate with 1,4-dithiane-2,5-diol in a dehydration reaction to form a reaction product comprising a compound of the Formula Ia b) reacting the reaction product of step (a) with an acetylation reagent to form a reaction product comprising a compound of the Formula Ib c) reacting the reaction product of step (b) with pyridine triflate and a compound of the Formula Ic in a glycosylation reaction to from a reaction product comprising a compound of the Formula Id d) reacting the reaction product of step (c) with a reducing agent to form the compound of Formula I, wherein R is selected from H or F, and wherein steps (a) to (b) and (c) to (d) are continuous flow synthesis steps, such that the compound of Formula Ib is the only intermediate isolated in the process.
Flap fitting for a wall unit for movement control of a furniture part movably received on a furniture carcass, wherein the flap fitting comprises guide means acting between the furniture carcass and the furniture part and by means of which the furniture part can be brought out of a closed state relative to the furniture carcass, in which the furniture assumes a position in which it can be moved up to a front side of the furniture, can be brought into an open state of the furniture part relative to the furniture carcass and can be moved back again into the closed state, wherein the guide means are designed to move the furniture part during an opening operation out of the closed state in such a way that, in a first movement phase of the opening operation, a horizontal distance between the furniture part and the front side of the furniture carcass increases, and in a second movement phase of the opening operation, the furniture part is pivoted about an axis by a single-axis pivoting movement, characterized in that the second movement phase with the pivoting movement at least partially overlaps the movement of the first movement phase.
Procedure for the incident light inspection of at least two opposite upper panel edges of a panel which moves in one movement direction, whereby a first panel edge of the panel initially illuminates in a first lighting direction (L1, L1') which runs at an angle to a top view of the upper panel side to the first panel edge to be examined of the panel and then, after the lighting direction (L1, L1') has been changed, a further panel edge of the panel illuminates in a second lighting direction (L2, L2') which runs at an angle to the top view of the upper panel side to the further panel edge to be examined of the panel, and in each case a brightness contrast on the panel surfaces (3, 4) adjacent to the respective panel edge is generated for purposes of the inspection of the at least two opposite upper panel edges (11, 12), and whereby the brightness contrast of the at least two opposite upper panel edges (11, 12) is used for measuring the panel or as a measure for assessing the quality of the at least two opposite upper panel edges (11, 12).
A Method for marking of a target structure comprising the steps of: a) providing a compound V comprising at least one dihydroxy or trihydroxyphenyl group, b) providing an agent for converting the dihydroxy or trihydroxyphenyl group into a quinone group, c) providing a biological target structure, d) oxidizing the dihydroxy or trihydroxyphenyl group of the compound V into the quinone group and e) contacting the compound V with the biological target structure for marking the same, so that a covalent bond can be formed, characterized in that in step a) the compound V comprises a specific recognition sequence for the biological target structure that in step b) the agent is an enzyme, preferably an oxido reductase, and that in step e) the compound V is applied in a concentration, so that the maximum concentration of dihydroxy, trihydroxyphenyl groups and quinone groups, which were introduced by the compound V, is ≤ 500μM, preferably ≤ 300μM, more preferably ≤ 100μM. a) providing a compound V comprising at least one dihydroxy or trihydroxyphenyl group, b) providing an agent for converting the dihydroxy or trihydroxyphenyl group into a quinone group, c) providing a biological target structure, d) oxidizing the dihydroxy or trihydroxyphenyl group of the compound V into the quinone group and e) contacting the compound V with the biological target structure for marking the same, so that a covalent bond can be formed,
A surgical instrument, comprising: a handle assembly; a source of pneumatic power removably attachable to a primary portion of the handle assembly; a pneumatically powered drive system operably supported by said surgical instrument and configured to be fluidically coupled to the source of pneumatic power; and a lockout system associated with the handle assembly; characterized by the lockout system being configured to count the number of times said removable attached source of pneumatic power has been detached from said primary portion of the handle assembly and to block reconnection of the source of pneumatic power to the primary portion of the handle assembly after the source of pneumatic power has been disconnected from the primary portion of the handle assembly and the pneumatically powered drive system a predetermined number of times. a handle assembly; a source of pneumatic power removably attachable to a primary portion of the handle assembly; a pneumatically powered drive system operably supported by said surgical instrument and configured to be fluidically coupled to the source of pneumatic power; and a lockout system associated with the handle assembly; characterized by the lockout system being configured to count the number of times said removable attached source of pneumatic power has been detached from said primary portion of the handle assembly and to block reconnection of the source of pneumatic power to the primary portion of the handle assembly after the source of pneumatic power has been disconnected from the primary portion of the handle assembly and the pneumatically powered drive system a predetermined number of times.
An ultrasound transducer comprising: a substrate; and a lower electrode layer, a lower insulating layer, an upper insulating layer, and an upper electrode layer laminated in order on the substrate, wherein the lower insulating layer and the upper insulating layer are arranged to be opposed to each other via an air gap section, are different in at least one of a material and thickness, and satisfy Equation 1 below: 1 K ⁢ 1 ∫ 0 T ⁢ 1 x × ρ ⁢ 1 x d x = 1 K ⁢ 2 ⁢ ∫ 0 T ⁢ 2 ⁢ y × ρ ⁢ 2 y d y where, K1 represents a relative dielectric constant of the lower insulating layer, K2 represents a relative dielectric constant of the upper insulating layer, T1 represents layer thickness of the lower insulating layer, T2 represents layer thickness of the upper insulating layer, ρ1(x) represents a charge density distribution in the lower insulating layer, wherein x represents a distance from the lower electrode layer, and p2(y) represents a charge density distribution in the upper insulating layer, wherein y represents a distance from the upper electrode layer, and wherein the lower insulating layer and the upper insulating layer are each made of silicon oxide, silicon nitride, hafnium nitride, hafnium oxynitride, or polyimide.
A fuel rail comprising: an elongated tube including an inlet and a plurality of outlets, the elongated tube defining a fuel passageway for directing fuel toward the plurality of outlets; and a plurality of baffles secured to an inner surface of the elongated tube to divide the fuel passageway into a plurality of chambers such that each outlet is positioned in one of the plurality of chambers, the plurality of baffles restricting fluid flow between adjacent chambers, wherein a majority of the plurality of outlets are located essentially at an acoustic node of each corresponding chamber to reduce noise generated by the fuel rail. an elongated tube including an inlet and a plurality of outlets, the elongated tube defining a fuel passageway for directing fuel toward the plurality of outlets; and a plurality of baffles secured to an inner surface of the elongated tube to divide the fuel passageway into a plurality of chambers such that each outlet is positioned in one of the plurality of chambers, the plurality of baffles restricting fluid flow between adjacent chambers, wherein a majority of the plurality of outlets are located essentially at an acoustic node of each corresponding chamber to reduce noise generated by the fuel rail.
A processor implemented method, the method comprising: obtaining a query fingerprint image through a fingerprint sensor; obtaining a processed fingerprint image by performing image processing on the obtained query fingerprint image, comprising generating the processed fingerprint image with less noise than the query fingerprint image by performing filtering on the query fingerprint image; obtaining a blended fingerprint image by blending the query fingerprint image and the processed fingerprint image, comprising: determining (510, 520) a blending ratio between the query fingerprint image and the processed fingerprint image; and generating (515, 525) the blended fingerprint image by blending the query fingerprint image and the processed fingerprint image based on the determined blending ratio performing fingerprint verification based on the blended fingerprint image and a registered fingerprint image. obtaining a query fingerprint image through a fingerprint sensor; obtaining a processed fingerprint image by performing image processing on the obtained query fingerprint image, comprising generating the processed fingerprint image with less noise than the query fingerprint image by performing filtering on the query fingerprint image; obtaining a blended fingerprint image by blending the query fingerprint image and the processed fingerprint image, comprising: determining (510, 520) a blending ratio between the query fingerprint image and the processed fingerprint image; and generating (515, 525) the blended fingerprint image by blending the query fingerprint image and the processed fingerprint image based on the determined blending ratio determining (510, 520) a blending ratio between the query fingerprint image and the processed fingerprint image; and generating (515, 525) the blended fingerprint image by blending the query fingerprint image and the processed fingerprint image based on the determined blending ratio performing fingerprint verification based on the blended fingerprint image and a registered fingerprint image.
An electric motor with an electromagnetically actuatable brake, wherein the motor has cooling channels, wherein the brake has a coil former, therefore magnetic body, in which there is received a coil able to be supplied with electric current, characterised in that the motor is liquid-cooled, the cooling channels open into a distribution channel, arranged in a housing part of the motor, and a conduit opens into the distribution channel and is guided through a bore of the coil former, wherein an intermediate part radially surrounds an armature plate of the brake and a brake lining carrier of the brake in a housing-forming manner and has an axially through-passing bore through which the conduit is guided, wherein the bore is oriented coaxially with the bore passing though the coil former, through which the conduit is likewise guided, wherein the conduit is inserted into a cut-out of the housing part and is sealed with respect to the housing part by means of seals.
System for the customization of user settings for a target instrument, comprising: a configuration module running on a first platform, said configuration module configured to present various configuration options for the target instrument; a representation module running on the first platform, said representation module being communicably coupled to said configuration module, said representation module including a firmware duplicate including at least a portion of firmware of the target instrument; wherein said representation module is configured to transform the firmware duplicate into a virtual interface representing a physical interface of the target instrument; and a configurator interface configured to display the virtual interface and the configuration options; wherein said system is configured to generate a customized set of user settings for the target instrument running on a second platform using the firmware duplicate included in the representation module running on the first platform and using configuration settings as set up through the configurator interface. a configuration module running on a first platform, said configuration module configured to present various configuration options for the target instrument; a representation module running on the first platform, said representation module being communicably coupled to said configuration module, said representation module including a firmware duplicate including at least a portion of firmware of the target instrument; wherein said representation module is configured to transform the firmware duplicate into a virtual interface representing a physical interface of the target instrument; and a configurator interface configured to display the virtual interface and the configuration options; wherein said system is configured to generate a customized set of user settings for the target instrument running on a second platform using the firmware duplicate included in the representation module running on the first platform and using configuration settings as set up through the configurator interface.
A method comprising: receiving sensor data configured to describe a geographic position of a portable device; accessing a list of events of interest (A, B, C, D, E; 401; 472) from a memory (201; 301), each event having associated position data and time data; comparing the geographic position of the mobile device to position data for an event in the list of events of interest; comparing a current time to time data for the event; calculating a frustum (130; 430) representing a view of a camera of the portable device; comparing an overlap of the frustum and a position of the event to a threshold level of overlap, wherein the position is represented by the position data and is a position area or a position volume of the event; selecting the event (401; 472) from the list of events of interest if the portable device is within a predetermined distance range of the event position, the current time is within a predetermined time range of the event time, and the overlap of the frustum and the position of the event is greater than the threshold level of overlap; and generating a command for the camera of the portable device to capture an image of the selected event. receiving sensor data configured to describe a geographic position of a portable device; accessing a list of events of interest (A, B, C, D, E; 401; 472) from a memory (201; 301), each event having associated position data and time data; comparing the geographic position of the mobile device to position data for an event in the list of events of interest; comparing a current time to time data for the event; calculating a frustum (130; 430) representing a view of a camera of the portable device; comparing an overlap of the frustum and a position of the event to a threshold level of overlap, wherein the position is represented by the position data and is a position area or a position volume of the event; selecting the event (401; 472) from the list of events of interest if the portable device is within a predetermined distance range of the event position, the current time is within a predetermined time range of the event time, and the overlap of the frustum and the position of the event is greater than the threshold level of overlap; and generating a command for the camera of the portable device to capture an image of the selected event.
A method for initializing a rotation angle detection device, wherein the rotation angle detection device includes a driving gear configured to be rotated integrally with a rotary body, a first driven gear and a second driven gear coupled to the driving gear and configured to be rotated in cooperation with the driving gear, a first sensor configured to detect rotation of the first driven gear and generate a first sensor output, and a second sensor configured to detect rotation of the second driven gear and generate a second sensor output, the first driven gear and the second driven gear differ from each other in the number of teeth, and the rotation angle detection device is configured to calculate a rotation angle (θ) of the rotary body based on the first sensor output and the second sensor output, the method comprising: adjusting a zero point of the first sensor output so that a rotation reference of the first driven gear coincides with a reference of the first sensor output; adjusting a zero point of the second sensor output so that a rotation reference of the second driven gear coincides with a reference of the second sensor output; calculating a cycle number (i) of at least one of the first driven gear and the second driven gear based on the first sensor output and the second sensor output; measuring a deviation amount (mod_i) occurring in the calculation of the cycle number (i), wherein the measuring of the deviation amount (mod_i) is performed by comparing the cycle number (i) relative to an absolute rotation angle (θ) of the driving gear calculated when the driving gear is actually rotated with its true value; and correcting the zero point of at least one of the first sensor output and the second sensor output to offset the deviation amount (mod_i) so that the deviation amount (mod_i) is included in a specified range. adjusting a zero point of the first sensor output so that a rotation reference of the first driven gear coincides with a reference of the first sensor output; adjusting a zero point of the second sensor output so that a rotation reference of the second driven gear coincides with a reference of the second sensor output; calculating a cycle number (i) of at least one of the first driven gear and the second driven gear based on the first sensor output and the second sensor output; measuring a deviation amount (mod_i) occurring in the calculation of the cycle number (i), wherein the measuring of the deviation amount (mod_i) is performed by comparing the cycle number (i) relative to an absolute rotation angle (θ) of the driving gear calculated when the driving gear is actually rotated with its true value; and correcting the zero point of at least one of the first sensor output and the second sensor output to offset the deviation amount (mod_i) so that the deviation amount (mod_i) is included in a specified range.
A lubricant composition comprising: a random or block copolymer first polyalkylene glycol based on ethylene oxide and propylene oxide, wherein at least 30 percent by weight of the polyalkylene glycol is ethylene oxide units; from 5 to 50 wt% of a random copolymer second polyalkylene glycol based on propylene oxide and butylene oxide, wherein the second polyalkylene glycol comprises between 50 and 75 wt% butylene oxide units; and from 0.25 to 1.5 wt% of at least one corrosion inhibitor selected from the group of sarcosines, amine phosphates, and calcium dinonylnaphthalenesulfonate/carboxylates. a random or block copolymer first polyalkylene glycol based on ethylene oxide and propylene oxide, wherein at least 30 percent by weight of the polyalkylene glycol is ethylene oxide units; from 5 to 50 wt% of a random copolymer second polyalkylene glycol based on propylene oxide and butylene oxide, wherein the second polyalkylene glycol comprises between 50 and 75 wt% butylene oxide units; and from 0.25 to 1.5 wt% of at least one corrosion inhibitor selected from the group of sarcosines, amine phosphates, and calcium dinonylnaphthalenesulfonate/carboxylates.
Jet regulator having a jet regulator housing having a housing circumferential wall, in the housing interior of which a flow straightener is provided, said flow straightener having at least one first insert part (8, 9) that is insertable into the housing interior, said insert part (8, 9) having a grid structure which is formed from a set of radially oriented webs (13, 13') which intersect or are in contact with a set of concentrically encircling webs at intersection points or contact points, and having at least one aeration opening which passes through the housing circumferential wall of the jet regulator, characterized in that the radially oriented webs (13, 13') have free web ends which protrude beyond the outer encircling web of the grid structure and end at a distance from the housing circumferential wall of the jet regulator housing, in that at least one web-free drain opening is provided on the first insert part between the free web ends of the radially oriented webs (13, 13') thereof and the housing circumferential wall of the jet regulator housing, and in that the at least one drain opening is arranged beneath the at least one aeration opening in the flow direction.