mhurhangee/ep-ind-claims huggingface dataset:
Method for deconvolving image data (D(r)), wherein image data (O(r)) of an object are captured with a number n of confocal beam paths and a number n of detector elements; the image data (O(r)) are converted into resultant image data (D(r)) by means of a point spread function (EH(r)); and the resultant image data (D(r)) are deconvolved again in the frequency domain using a deconvolution function, wherein the deconvolution function necessitates the formation of at least a number n of sum terms and contains a Wiener parameter w as correction variable, and the deconvolution function has the form O ω = ∑ i n D i ω ⋅ EH i * ω w + ∑ i n EH i ω 2 where O(w) = an object spectrum, D(w) = an image spectrum, EH* (ω)= an optical transfer function (complex conjugate), EH i (ω)= an optical transfer function, n = a number of detector elements and i = a running index from 1 to n; characterized in that the results of the sum terms ( ∑ i n D i ω ⋅ EH i * ω) and ( ∑ i n EH i ω 2) are stored in retrievable fashion; the Wiener parameter w is modified at least once proceeding from its original value and the deconvolution is carried out by means of the deconvolution function with the modified Wiener parameter w and the stored results of the sum terms, wherein the number n of confocal beam paths - n ≥ 2, is equal to the number n of detector elements, and the image data of each confocal beam path are captured individually by means of respectively one detector element. wherein image data (O(r)) of an object are captured with a number n of confocal beam paths and a number n of detector elements; the image data (O(r)) are converted into resultant image data (D(r)) by means of a point spread function (EH(r)); and the resultant image data (D(r)) are deconvolved again in the frequency domain using a deconvolution function, wherein the deconvolution function necessitates the formation of at least a number n of sum terms and contains a Wiener parameter w as correction variable, necessitates the formation of at least a number n of sum terms and contains a Wiener parameter w as correction variable, and the deconvolution function has the form O ω = ∑ i n D i ω ⋅ EH i * ω w + ∑ i n EH i ω 2 where O(w) = an object spectrum, D(w) = an image spectrum, EH* (ω)= an optical transfer function (complex conjugate), EH i (ω)= an optical transfer function, n = a number of detector elements and i = a running index from 1 to n; characterized in that the results of the sum terms ( ∑ i n D i ω ⋅ EH i * ω) and ( ∑ i n EH i ω 2) are stored in retrievable fashion; the Wiener parameter w is modified at least once proceeding from its original value and the deconvolution is carried out by means of the deconvolution function with the modified Wiener parameter w and the stored results of the sum terms, wherein the number n of confocal beam paths - n ≥ 2, - n ≥ 2, is equal to the number n of detector elements, and the image data of each confocal beam path are captured individually by means of respectively one detector element.
A grease composition comprising a fully formulated grease base and an amount of additive ranging from 0.1 to 5 wt% based on the total weight of the grease composition comprising a metal-free, oil soluble phosphorous-containing, sulfurized amine salt sufficient to provide a fretting wear weight loss of less than 20 milligrams, according to industry standard ASTM D-4170-97; wherein the metal-free, phosphorous-containing salt is selected from: (a) oil-soluble amine salts of monohydrocarbyl monothiophosphoric acids; or (b) oil-soluble amine salts of dihydrocarbyl monothiophosphoric acids; or (c) combinations of (a) and (b). (a) oil-soluble amine salts of monohydrocarbyl monothiophosphoric acids; or (b) oil-soluble amine salts of dihydrocarbyl monothiophosphoric acids; or (c) combinations of (a) and (b).
Measuring device for the detection of alternating electromagnetic or magnetic fields with an electromagnetic oscillating circuit with a pick-up coil which is adapted for the detection of the alternating fields and which does not have a high Q factor, a preferably tunable capacitance and a filter coil, wherein pick-up coil, capacitance and filter coil are parts of the same oscillating circuit, with a low-loss transfer line connecting the pick-up coil to the filter coil and the capacitance, so that the assembly is arranged to conduct the signal picked up by the pick-up coil via the transfer line to the filter coil, wherein the assembly is adapted to conduct the signal conducted to the filter coil to a differential amplifier, characterized in that the capacitance and the filter coil have a high Q factor greater than 100, advantageously greater than 200, particularly preferably greater than 500 and/or the oscillating circuit has a high Q factor greater than 100, advantageously greater than 200, particularly preferably greater than 500 and wherein the Q factor of the filter coil and the Q factor of the capacitance exceed the Q factor of the pick-up coil, namely by at least twice, wherein the filter coil of the oscillating circuit comprises a grounded center tap
A teaching method of teaching a position of a control point on a working route through which the control point set on a robot arm passes when the robot arm performs work and a posture of the robot arm using three-dimensional data of a working object, comprising: a first step of setting in a robot control apparatus or a teaching apparatus a predetermined first work point on the working route based on the three-dimensional data; and a second step of associating by the robot control apparatus or the teaching apparatus a data coordinate system as a first coordinate system (ΣC) set for the first work point with a distal end coordinate system as a second coordinate system (ΣB) set for the robot arm when the control point is located at the first work point, wherein characterised in that at the second step, one first coordinate system is selected from a plurality of candidates of the first coordinate system (ΣC) at the first work point based on a value of a sum of inner products of unit vectors x1, y1, z1 representing XYZ directions of a first rotation matrix and of unit vectors x2, y2, z2 representing XYZ directions of a second rotation matrix, wherein the first rotation matrix rotates a robot base coordinate system (ΣA) to the distal end coordinate system (ΣB) and the second rotation matrix rotates the base coordinate system (ΣA) to the data coordinate system (ΣC), wherein the value of the sum of inner products is a degree of deviation of the candidate of the first coordinate system (ΣC) from the second coordinate system (ΣB), and wherein the selected coordinate system is set as a first correction coordinate system for the first work point. a first step of setting in a robot control apparatus or a teaching apparatus a predetermined first work point on the working route based on the three-dimensional data; and a second step of associating by the robot control apparatus or the teaching apparatus a data coordinate system as a first coordinate system (ΣC) set for the first work point with a distal end coordinate system as a second coordinate system (ΣB) set for the robot arm when the control point is located at the first work point, wherein characterised in that at the second step, one first coordinate system is selected from a plurality of candidates of the first coordinate system (ΣC) at the first work point based on a value of a sum of inner products of unit vectors x1, y1, z1 representing XYZ directions of a first rotation matrix and of unit vectors x2, y2, z2 representing XYZ directions of a second rotation matrix, wherein the first rotation matrix rotates a robot base coordinate system (ΣA) to the distal end coordinate system (ΣB) and the second rotation matrix rotates the base coordinate system (ΣA) to the data coordinate system (ΣC), wherein the value of the sum of inner products is a degree of deviation of the candidate of the first coordinate system (ΣC) from the second coordinate system (ΣB), and wherein the selected coordinate system is set as a first correction coordinate system for the first work point.
A method for preparing and packaging a pasta filata cheese, comprising a step of substantially dry packaging, i.e. without preserving liquid, and heat packaging of said pasta filata cheese.
Gas hob comprising a main gas line arrangement with a main gas line, a connecting piece, a sealing washer arranged between a flange of the main gas line and a flange of the connecting piece, and a union nut for connecting the main gas line to the connecting piece, wherein a frictional engagement between the flange of the connecting piece and the sealing washer differs from a frictional engagement between the sealing washer and the flange of the main gas line such that upon application of a torque (M 14) to the connecting piece the sealing washer slides on the flange of the main gas line such that the torque (M 14) is transmitted to a reduced extent to the flange of the main gas line, and wherein the connecting piece has an external thread, into which the union nut engages positively.
A bimodal linear medium density polyethylene composition comprising a lower molecular weight polyethylene component and a higher molecular weight polyethylene component, wherein each of the LMW and HMW polyethylene components comprises ethylene-derived monomeric units and (C 3 -C 20)alpha-olefin-derived comonomeric units; and wherein the bimodal linear medium density polyethylene composition is characterized by each of limitations (a) to (e): (a) a resolved bimodality showing in a chromatogram of gel permeation chromatography of the bimodal linear medium density polyethylene composition, wherein the chromatogram shows a peak representing the HMW polyethylene component, a peak representing the LMW polyethylene component, and a resolved bimodal molecular weight distribution characterized by a local minimum in a range of Log(molecular weight) ("Log ") 1.5 to 5.0 between the peak representing the HMW polyethylene component and the peak representing the LMW polyethylene component, measured according to Bimodality Test Method as described herein; (b) a molecular mass dispersity (M w /M n), Ð M, from 5 to 30.1, measured according to Gel Permeation Chromatography Test Method as described herein; (c) no measurable amount of long chain branching per 1,000 carbon atoms ("LCB Index"), measured according to LCB Test Method as described herein; (d) a density from 0.930 to 0.950 gram per cubic centimeter (g/cm 3), measured according to ASTM D792-13 Method B; and (e) a molecular mass dispersity (M w /M n), Ð M, of the LMW polyethylene components of from > 2.0 to < 3.0, measured according to the GPC Test Method as described herein after deconvoluting the LMW and HMW polyethylene components of the bimodal linear medium density polyethylene composition according to Deconvoluting Test Method as described herein.
An aircraft comprising a pylon and a gas turbine engine attached to the pylon by a mounting system; the mounting system comprising a first frame of three elongate members arranged in a triangle and a second frame of three elongate members arranged in a triangle; the first frame is arranged such that a core of the gas turbine engine is positioned extending through the area defined between the three elongate members of the first frame, the first frame forming at least part of a load bearing connection between the pylon and gas turbine engine, the first frame consisting of two portions (62, 64), each portion respectively corresponding to each side of the gas turbine engine as attached to the pylon at a location of the first frame, the triangle formed by the first frame being symmetrical about a first vertical plane separating the two portions of the first frame and the two portions of the gas turbine engine; the second frame is arranged such that the core of the gas turbine engine is positioned extending through the area defined between the three elongate members of the second frame, the second frame forming at least part of a load bearing connection between the pylon and gas turbine engine, the second frame consisting of two portions (62, 64), each portion respectively corresponding to each side of the gas turbine engine as attached to the pylon at a location of the second frame, the triangle formed by the second frame being symmetrical about a second vertical plane separating the two portions of the second frame and the two portions of the gas turbine engine; wherein the gas turbine engine is attached to the mounting system such that both the first frame and second frame are positioned axially forward of a radially extending projection of a first turbine stage in the core of the gas turbine engine and the first frame and the second frame are axially separated and orientated parallel to each other.
An apparatus, comprising: a device including at least one memory adapted to store run-time data for the device, and at least one processor that is adapted to execute processor-executable code that, in response to execution, enables the device to perform actions, including: storing proof structures that store layers of cryptographic proof for transactions for smart contracts, wherein details of the transactions are stored on blockchains separate from the proof structures, wherein the proof structures are proof structures for the transactions, wherein the proof structures include a plurality of signatures, wherein the plurality of signatures includes at least one enclave signature from a first enclave (371, 372, 470), and wherein the first enclave is a secure execution environment; receiving a proof request that is associated with at least a first transaction of the transactions; retrieving a first proof structure of the proof structures that corresponds to the first transaction; obtaining a plurality of public keys associated with the first proof structure; using the plurality of public keys to validate the first proof structure; and in response to the validation of the first proof structure, responding to the proof request with at least an indication of the validity of the first transaction. storing proof structures that store layers of cryptographic proof for transactions for smart contracts, wherein details of the transactions are stored on blockchains separate from the proof structures, wherein the proof structures are proof structures for the transactions, wherein the proof structures include a plurality of signatures, wherein the plurality of signatures includes at least one enclave signature from a first enclave (371, 372, 470), and wherein the first enclave is a secure execution environment; receiving a proof request that is associated with at least a first transaction of the transactions; retrieving a first proof structure of the proof structures that corresponds to the first transaction; obtaining a plurality of public keys associated with the first proof structure; using the plurality of public keys to validate the first proof structure; and in response to the validation of the first proof structure, responding to the proof request with at least an indication of the validity of the first transaction.
A compound for use in the treatment or prevention of a retinal dystrophy, wherein the compound is a 13-polycarbon-alkyl-17-alkyl-17β-hydroxygon-4-en-3-one, or a pharmaceutically acceptable salt thereof.
Polymethylpentene conjugate fiber having a sea-island structure comprising polymethylpentene based resin as sea component and thermoplastic resin as island component, wherein the thermoplastic resin of the island component comprises one or more compounds selected from the group consisting of polyester, polyamide, thermoplastic polyacrylonitrile and thermoplastic polyurethane, the content ratio (by weight) of the sea component to the island component is 40/60 to 90/10, the dispersion diameter of the island domains in a fiber cross section is 0.001 to 2 μm, wherein the dispersion diameter is measure as described herein, the coefficient of variation CV of the dispersion diameter of the island domains in a fiber cross section is 1 to 50%, the polymethylpentene based resin has a melting point of 200 to 250°C, and the number of island domains in a fiber cross section is 8 or more.
An elastic wheel for railway vehicles, formed by a tread and a wheel center, defining a housing for the insertion of an elastomer that is compressed by a retaining ring which is attached to the wheel center by means of attachment screws, and in which the elastomer is formed by a plurality of V-shaped elastic blocks, wherein the housing defined between the tread, the wheel center and the retaining ring, in which the elastic blocks are compressed, has two oblique walls (2.1, 3.1), said oblique walls (2.1, 3.1) end in respective inclined sections (2.2, 3.2) on which the vertices of the V-shaped elastic blocks are supported, said inclined sections (2.2, 3.2) forming an angle (β) of between 2° and 10° with respect to the axis of the wheel, characterized in that the two oblique walls (2.1, 3.1) belong to the wheel center and to the ring, respectively, and form an angle (α) of between 48° and 52° with respect to the axis of the wheel.
Sealing sleeve from a sealing material, which is suitable for a sealing arrangement, wherein the sealing arrangement comprises a first pipe and a second pipe which in the flow direction thereof are disposed substantially adjacent to one another and conjointly form a line, wherein the first pipe has a first end side and the second pipe has a second end side, wherein the first end side encloses the second end side by way of a radial spacing, wherein the sealing sleeve, while being radially elastically pre-loaded, can be disposed in a sealing manner in the gap formed by the spacing and in the process contacts the internal circumference of the first pipe and the external circumference of the second pipe in a sealing manner, wherein the first end side has a periphery which extends in the manner of a band in the radial direction towards the outside, and wherein the sealing sleeve on the one end side has an axial detent for the second end side, which axial detent extends substantially radially towards the inside, and has an internal diameter, characterized in that the sealing sleeve on the other end side, on the side that faces axially away from the axial detent, comprises a clamp-shaped holding claw which can encompass the periphery in a form-fitting manner, in that the sealing sleeve in the axial direction between the holding claw and the axial detent has a substantially hollow-cylindrical casing, and in that the casing on one end side has the holding claw and on the other end side has the axial detent.
A radiator comprising: a generally circular hat-shaped or ring shaped reflection member having a concave reflective surface generated from revolution, or in other manner, of quadratic or other equations; a radiation source powered by an energy source and embedded in a tubular casing the radiation source having an at least partial ring shape, is positioned at or near the center point or focal zone of the corresponding segment of the reflection member so that a point on the radiation source facing the reflection member is positioned at or near the centre point or focal zone of the corresponding segment of the concave reflective surface of the reflection member and the infrared radiation emitted from such point on the radiation source is directed or reflected away from the concave reflective surface characterized in that it is further directed or reflected mainly or substantially within a ring-shaped irradiation zone; and in that the radial cross-section of the tubular casing comprises a generally circular, triangular, rectangular, polygonal or elliptical shape, or hybrids and/or combinations whereof corresponding to the shape of the reflection member to maximize the efficient use of irradiation substantially within the irradiation zone whilst reducing or minimizing the effect of radiation outside the irradiation zone. a generally circular hat-shaped or ring shaped reflection member having a concave reflective surface generated from revolution, or in other manner, of quadratic or other equations; a radiation source powered by an energy source and embedded in a tubular casing the radiation source having an at least partial ring shape, is positioned at or near the center point or focal zone of the corresponding segment of the reflection member so that a point on the radiation source facing the reflection member is positioned at or near the centre point or focal zone of the corresponding segment of the concave reflective surface of the reflection member and the infrared radiation emitted from such point on the radiation source is directed or reflected away from the concave reflective surface characterized in that it is further directed or reflected mainly or substantially within a ring-shaped irradiation zone; and in that the radial cross-section of the tubular casing comprises a generally circular, triangular, rectangular, polygonal or elliptical shape, or hybrids and/or combinations whereof corresponding to the shape of the reflection member to maximize the efficient use of irradiation substantially within the irradiation zone whilst reducing or minimizing the effect of radiation outside the irradiation zone.
A surgical fastening mechanism for releasably locking an implantable tether, said mechanism comprising: a housing having a central channel therethrough, the housing also having a first side surface having an entry aperture, a second side surface having an exit aperture and a side channel extending therebetween; a roller element (60;71) having a sidewall with an aperture (60a;60b) therethrough, the roller element slidably disposed at least partially in the central channel such that the entry and exit apertures (53, 57) are at least partially aligned with the roller aperture (60a;60b) so as to permit passage of the tether therethrough, wherein rotation of the roller element (60;71) in a first direction winds the tether therearound thereby creating a friction interface between the roller element (60;71), the housing and the tether; and a locking mechanism operably connected with either the housing or the roller element thereby forming a friction fit between the roller element and the housing, the locking mechanism adapted to prevent rotation of the roller (60;71) in the central channel and adapted to prevent release of the tether from roller (60;71). a housing having a central channel therethrough, the housing also having a first side surface having an entry aperture, a second side surface having an exit aperture and a side channel extending therebetween; a roller element (60;71) having a sidewall with an aperture (60a;60b) therethrough, the roller element slidably disposed at least partially in the central channel such that the entry and exit apertures (53, 57) are at least partially aligned with the roller aperture (60a;60b) so as to permit passage of the tether therethrough, wherein rotation of the roller element (60;71) in a first direction winds the tether therearound thereby creating a friction interface between the roller element (60;71), the housing and the tether; and a locking mechanism operably connected with either the housing or the roller element thereby forming a friction fit between the roller element and the housing, the locking mechanism adapted to prevent rotation of the roller (60;71) in the central channel and adapted to prevent release of the tether from roller (60;71).