mhurhangee/ep-ind-claims huggingface dataset:
An image processing apparatus, comprising: a processor coupled to a memory, configured to: perform a resolution analysis of resolution in two perpendicular directions of an image which is taken from a subject having a Siemens star, and determine filter data containing an adjusted weight coefficient by: adjusting an initial value of a weight coefficient in one of the two directions, whichever has lower resolution, based on a result of the resolution analysis of the image corrected by filtering in accordance with a blurring function of the image, correcting the image by filtering on the image by using the adjusted weight coefficient, and determining (S106, S107) the adjusted weight coefficient to be contained in the filter data based on a result of the resolution analysis of the corrected image, wherein the processor is configured to determine the adjusted weight coefficient to be contained in the filter data so that a difference in resolution between the two directions is minimized. perform a resolution analysis of resolution in two perpendicular directions of an image which is taken from a subject having a Siemens star, and determine filter data containing an adjusted weight coefficient by: adjusting an initial value of a weight coefficient in one of the two directions, whichever has lower resolution, based on a result of the resolution analysis of the image corrected by filtering in accordance with a blurring function of the image, correcting the image by filtering on the image by using the adjusted weight coefficient, and determining (S106, S107) the adjusted weight coefficient to be contained in the filter data based on a result of the resolution analysis of the corrected image, wherein the processor is configured to determine the adjusted weight coefficient to be contained in the filter data so that a difference in resolution between the two directions is minimized. adjusting an initial value of a weight coefficient in one of the two directions, whichever has lower resolution, based on a result of the resolution analysis of the image corrected by filtering in accordance with a blurring function of the image, correcting the image by filtering on the image by using the adjusted weight coefficient, and determining (S106, S107) the adjusted weight coefficient to be contained in the filter data based on a result of the resolution analysis of the corrected image, wherein the processor is configured to determine the adjusted weight coefficient to be contained in the filter data so that a difference in resolution between the two directions is minimized.
A method for manufacturing a press formed product comprising: when a metal sheet is press formed to manufacture a product having a product shape of a hat-shaped cross-section, in which a top plate part and a flange part are continuous in a width direction through a side wall part and the top plate part and the flange part curve convexly or concavely toward the top plate part along a longitudinal direction, a first step of manufacturing an intermediate component by press forming into a component shape having a hat-shaped cross-section, in which a curve of each of the top plate part and the flange part along the longitudinal direction has a second curvature radius smaller than a curvature radius in the product shape; characterized by a second step of press forming the curve of the intermediate component along the longitudinal direction to have a larger curvature radius than the product shape. when a metal sheet is press formed to manufacture a product having a product shape of a hat-shaped cross-section, in which a top plate part and a flange part are continuous in a width direction through a side wall part and the top plate part and the flange part curve convexly or concavely toward the top plate part along a longitudinal direction, a first step of manufacturing an intermediate component by press forming into a component shape having a hat-shaped cross-section, in which a curve of each of the top plate part and the flange part along the longitudinal direction has a second curvature radius smaller than a curvature radius in the product shape; characterized by a second step of press forming the curve of the intermediate component along the longitudinal direction to have a larger curvature radius than the product shape.
A sensor unit (14, 14a, 14b) for a radiation detector, the sensor unit (14, 14a, 14b) comprising: - a conversion element (22, 22a, 22b) comprising a plurality of imaging pixels (26, 26b, 28, 28b, 60), each imaging pixel (26, 26b, 28, 28b, 60) being configured to directly convert radiation into an electrical charge, each imaging pixel (26, 26b, 28, 28b, 60) comprising a charge collection electrode (30, 30b), and the imaging pixels (26, 26b, 28, 28b, 60) comprising first imaging pixels (26, 26b) and second imaging pixels (28, 28b); and - a readout substrate comprising a plurality of readout pixels arranged in a grid, each readout pixel being connected to an associated imaging pixel (26, 26b, 28, 28b, 60) by means of an interconnection at a connection position on the charge collection electrode (30, 30b); wherein the second imaging pixels (28, 28b) are shifted in a shifting direction relative to the first imaging pixels (26, 26b); and wherein the connection positions in relation to the charge collection electrodes (30, 30b) are different between the first imaging pixels (26, 26b) and the second imaging pixels (28, 28b); wherein each readout pixel comprises readout pixel electronics with at least one electronic component specific for an associated readout pixel; and wherein for each readout pixel, the readout pixel electronics is configured to process or interpret signals generated by the radiation incident on the conversion element (22, 22a, 22b). - a conversion element (22, 22a, 22b) comprising a plurality of imaging pixels (26, 26b, 28, 28b, 60), each imaging pixel (26, 26b, 28, 28b, 60) being configured to directly convert radiation into an electrical charge, each imaging pixel (26, 26b, 28, 28b, 60) comprising a charge collection electrode (30, 30b), and the imaging pixels (26, 26b, 28, 28b, 60) comprising first imaging pixels (26, 26b) and second imaging pixels (28, 28b); and - a readout substrate comprising a plurality of readout pixels arranged in a grid, each readout pixel being connected to an associated imaging pixel (26, 26b, 28, 28b, 60) by means of an interconnection at a connection position on the charge collection electrode (30, 30b); wherein the second imaging pixels (28, 28b) are shifted in a shifting direction relative to the first imaging pixels (26, 26b); and wherein the connection positions in relation to the charge collection electrodes (30, 30b) are different between the first imaging pixels (26, 26b) and the second imaging pixels (28, 28b); wherein each readout pixel comprises readout pixel electronics with at least one electronic component specific for an associated readout pixel; and wherein for each readout pixel, the readout pixel electronics is configured to process or interpret signals generated by the radiation incident on the conversion element (22, 22a, 22b).
A packing method, where goods dropped from above are packed from a cylinder into a bag with a tube shape, comprising: collecting the goods in a chute with a funnel shape arranged above the cylinder; lowering the chute while keeping a lower end discharge opening of the chute open;and reversing direction of movement of the chute and thereby raising the chute which is lowered, characterized in that: the lowering the chute lowers with acceleration into the cylinder, in a state where a gate configured to open and close the lower end discharge opening in the chute is open, the chute in which the goods are accommodated; and the goods collected in the chute are discharged into the bag with a tube shape while being accelerated. collecting the goods in a chute with a funnel shape arranged above the cylinder; lowering the chute while keeping a lower end discharge opening of the chute open;and reversing direction of movement of the chute and thereby raising the chute which is lowered, characterized in that: the lowering the chute lowers with acceleration into the cylinder, in a state where a gate configured to open and close the lower end discharge opening in the chute is open, the chute in which the goods are accommodated; and the goods collected in the chute are discharged into the bag with a tube shape while being accelerated. the lowering the chute lowers with acceleration into the cylinder, in a state where a gate configured to open and close the lower end discharge opening in the chute is open, the chute in which the goods are accommodated; and the goods collected in the chute are discharged into the bag with a tube shape while being accelerated.
A process for the preparation of a compound according to formula, optionally in the form of one of its pure stereoisomers, in particular an enantiomer or diastereomer, a racemate or in form of a mixture of its stereoisomers, in particular enantiomers and/or diastereomers in any mixing ratio, or a physiologically acceptable acid addition salt thereof, wherein R 1, R 2 and R 3 are independently of another selected from the group consisting of H and a C 1-4 -aliphatic residue which is a saturated or unsaturated, linear or branched acyclic and unsubstituted hydrocarbon bearing 1, 2, 3 or 4 carbon atoms and encompasses a C 1-4 -alkyl group, a C 2-4 -alkenyl group as well as a C 2-4 -alkynyl group, which process comprises in its alternative A the steps of (a-I) hydrogenation of a compound according to formula (A-I-a) wherein R 1, R 2 and R 3 in each case have the above defined meanings, to a compound according to formula (A-II), wherein R 1, R 2 and R 3 have the above defined meanings, ( a-II) reduction of the compound according to formula (A-II) to the compound according to formula, and ( a-III) optionally converting the compound according to formula into a physiologically acceptable acid addition salt thereof. (a-I) hydrogenation of a compound according to formula (A-I-a) wherein R 1, R 2 and R 3 in each case have the above defined meanings, to a compound according to formula (A-II), wherein R 1, R 2 and R 3 have the above defined meanings, ( a-II) reduction of the compound according to formula (A-II) to the compound according to formula, and ( a-III) optionally converting the compound according to formula into a physiologically acceptable acid addition salt thereof.
A method of updating one or more process corrections (780a,780b,780c) for a lithographic process on a substrate, wherein each process correction out of said one or more process corrections is associated with a different group of previous pre-exposure metrology data as measured on processed substrates, and wherein the previous pre-exposure metrology data is grouped in accordance with a characteristic of a performance parameter included in corresponding previous post-exposure metrology data measured on said processed substrates, said method comprising: obtaining post-exposure metrology data describing the performance parameter for said substrate; and updating a process correction, out of the one or more process corrections, corresponding to a group of the previous pre-exposure metrology data associated with a characteristic of the performance parameter included in the post-exposure metrology data based on parameters obtained by modelling of the post-exposure metrology data. wherein each process correction out of said one or more process corrections is associated with a different group of previous pre-exposure metrology data as measured on processed substrates, and wherein the previous pre-exposure metrology data is grouped in accordance with a characteristic of a performance parameter included in corresponding previous post-exposure metrology data measured on said processed substrates, said method comprising: obtaining post-exposure metrology data describing the performance parameter for said substrate; and updating a process correction, out of the one or more process corrections, corresponding to a group of the previous pre-exposure metrology data associated with a characteristic of the performance parameter included in the post-exposure metrology data based on parameters obtained by modelling of the post-exposure metrology data. obtaining post-exposure metrology data describing the performance parameter for said substrate; and updating a process correction, out of the one or more process corrections, corresponding to a group of the previous pre-exposure metrology data associated with a characteristic of the performance parameter included in the post-exposure metrology data based on parameters obtained by modelling of the post-exposure metrology data.
A secondary battery comprising: an electrode assembly comprising an electrode tab; a case comprising a pouch-shaped portion accommodating the electrode assembly and a terrace portion; and a lead tab forming a coupling portion inside the terrace portion of the case together with the electrode tab, the lead tab drawn out to an outside of the case, wherein the coupling portion comprises a first bent portion including a bent end of the electrode tab, and a second bent portion including a bent end of the lead tab coupled to the bent end of the electrode tab, and wherein the first and second bent portions are each bent in a U-shaped configuration and include arms extending substantially parallel to a floor of the terrace portion when viewed in cross-section, wherein the U-shaped first and second bent portions are meshed with each other and are coupled to each other. an electrode assembly comprising an electrode tab; a case comprising a pouch-shaped portion accommodating the electrode assembly and a terrace portion; and a lead tab forming a coupling portion inside the terrace portion of the case together with the electrode tab, the lead tab drawn out to an outside of the case, wherein the coupling portion comprises a first bent portion including a bent end of the electrode tab, and a second bent portion including a bent end of the lead tab coupled to the bent end of the electrode tab, and wherein the first and second bent portions are each bent in a U-shaped configuration and include arms extending substantially parallel to a floor of the terrace portion when viewed in cross-section, wherein the U-shaped first and second bent portions are meshed with each other and are coupled to each other.
Rotor structure including a plurality of wheels, a main axial tie rod passing through the plurality of wheels and two shafts (4, 5) each attached to one extremity of the main tie rod, the main tie rod and the bore of an end wheel in contact with one of the shafts delimit a chamber to receive a hydraulic fluid, the main tie rod, the hydraulic chamber and said end wheel forming an internal hydraulic tension device to preload the main tie rod, the end wheel including first access means (14, 19a) leading both to the outside of the rotor (1, 20) and into the hydraulic chamber, characterized in that the main tie rod is a central tie rod and in that the access means (14, 19a) are symmetrical in relation to the axial axis of the structure of the rotor (2, 20).
A method, comprising: in response to initiating (2, 14, 40, 65), by a user, a request for wireless communication of a wireless device using a first software-defined radio SDR, determining (4, 15, 41, 67), by a verification module in the wireless device, whether the requested wireless communication is allowed; enabling (6, 22, 46, 70), by the verification module, the requested wireless communication when the requested wireless communication is within predetermined allowed criteria; in response to initiating (14, 40, 65), by the user, a request for simultaneous wireless communication of the wireless device using a second SDR, determining (15, 41, 67), by the verification module whether the requested simultaneous wireless communication is allowed; and enabling (22, 46, 68, 70), by the verification module, the requested simultaneous wireless communication when the first SDR and the second SDR do not operate in the same band. in response to initiating (2, 14, 40, 65), by a user, a request for wireless communication of a wireless device using a first software-defined radio SDR, determining (4, 15, 41, 67), by a verification module in the wireless device, whether the requested wireless communication is allowed; enabling (6, 22, 46, 70), by the verification module, the requested wireless communication when the requested wireless communication is within predetermined allowed criteria; in response to initiating (14, 40, 65), by the user, a request for simultaneous wireless communication of the wireless device using a second SDR, determining (15, 41, 67), by the verification module whether the requested simultaneous wireless communication is allowed; and enabling (22, 46, 68, 70), by the verification module, the requested simultaneous wireless communication when the first SDR and the second SDR do not operate in the same band.
Electrosurgical device for treating, e.g. cutting or coagulating, a biological tissue, comprising an electrosurgical instrument for generating a noble gas plasma and an electrosurgical generator, wherein the electrosurgical generator comprises: - a generator part, which supplies an RF treatment current (I actual) with an RF voltage adjusted in accordance with a voltage control signal (U setpoint) in such a way that electric energy is guidable to the biological tissue by means of the instrument; - a measuring apparatus for detecting the RF treatment current and the RF voltage for generating a corresponding current signal (i(t)) and a corresponding voltage signal (u(t)); - a conversion apparatus, to which the current signal (i(t)) and the voltage signal (u(t)) are supplied and which is embodied in such a way that an active current signal corresponding to the active component of the RF treatment current (I actual) is formed from the current signal (i(t)) and the voltage signal (u(t)); characterized in that the electrosurgical device furthermore has a closed-loop control apparatus, which is embodied to compare the active current signal with a pre-adjustable setpoint value (I setpoint) and generate the voltage control signal (U setpoint) on the basis of the comparison in such a way that the active component of the RF treatment current is adjustable in accordance with the setpoint value in order to ensure safe ignition of the noble gas plasma which is independent of the distance to the biological tissue. - a generator part, which supplies an RF treatment current (I actual) with an RF voltage adjusted in accordance with a voltage control signal (U setpoint) in such a way that electric energy is guidable to the biological tissue by means of the instrument; - a measuring apparatus for detecting the RF treatment current and the RF voltage for generating a corresponding current signal (i(t)) and a corresponding voltage signal (u(t)); - a conversion apparatus, to which the current signal (i(t)) and the voltage signal (u(t)) are supplied and which is embodied in such a way that an active current signal corresponding to the active component of the RF treatment current (I actual) is formed from the current signal (i(t)) and the voltage signal (u(t));
Method for applying an agrochemical mixture to a working area of a field using a vehicle moving on the field, comprising spreading a fertilizer on the working area using a fertilizer spreading device mounted on the vehicle, spreading a fertilizer additive on the working area using a field spreader, mounted on the vehicle separately from the fertilizer spreading device, and applying a predetermined quantity of fertilizer and fertilizer additive, respectively, to the field, wherein the vehicle's geographical position is determined, electromagnetic radiation emitted from plants on the working area of the field is detected, said detected electromagnetic radiation is analyzed to obtain a nitrogen status value for each segment of the field, the ratio of fertilizer additive to fertilizer is calculated for each segment of the field as a function of the obtained nitrogen status value for the respective segment, and the predetermined quantity of fertilizer and fertilizer additive, respectively, is applied to the field depending on the determined position on the field, wherein the calculated ratio of fertilizer additive to fertilizer is applied to each segment of the field. spreading a fertilizer on the working area using a fertilizer spreading device mounted on the vehicle, spreading a fertilizer additive on the working area using a field spreader, mounted on the vehicle separately from the fertilizer spreading device, and applying a predetermined quantity of fertilizer and fertilizer additive, respectively, to the field, wherein the vehicle's geographical position is determined, electromagnetic radiation emitted from plants on the working area of the field is detected, said detected electromagnetic radiation is analyzed to obtain a nitrogen status value for each segment of the field, the ratio of fertilizer additive to fertilizer is calculated for each segment of the field as a function of the obtained nitrogen status value for the respective segment, and the predetermined quantity of fertilizer and fertilizer additive, respectively, is applied to the field depending on the determined position on the field, wherein the calculated ratio of fertilizer additive to fertilizer is applied to each segment of the field.