mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a rolling mill roll by laser cladding a reusable steel axe substrate having a rotational symmetry axis with a metal coating external layer, said metal coating external layer having a work tool steel composition, comprising the steps of: - rotating the reusable substrate around its axis of rotational symmetry; - effecting a laser cladding on the rotating substrate, by forming a melt pool on the surface of the rotating substrate by means of a laser beam and affixing the coating layer by feeding a powder material into the laser-induced melt pool; - submitting the coated substrate to a thermal treatment made of a tempering treatment comprising a heating up to a temperature in the range 500-650°C followed by a holding at this temperature during a time comprised between 2 and 5 hours, in order to soften martensite and precipitate carbides; wherein the composition for said metal coating external layer is consisting of 0.5-3.5% C, 2-18% Cr, 0.5-7% Mo, 0.5-8% V, 0.2-5% W, 0-5% Nb, 0-1% Ti, 0.5-1% Mn, 0.2-3% Si and 0-3% Ni, the rest being Fe and inevitable impurities; wherein a preheating of the substrate is performed, thanks to a coating head combining induction heating with laser cladding process; wherein the cladding rate is in the range from 2.35 kg/h to 18 kg/h; and wherein said external coating layer is made of multiple added coated sublayers and has a total thickness comprised between 1 and 30 mm, the thickness of each single external coating sublayer being comprised between 0.1 and 2.5 mm. - rotating the reusable substrate around its axis of rotational symmetry; - effecting a laser cladding on the rotating substrate, by forming a melt pool on the surface of the rotating substrate by means of a laser beam and affixing the coating layer by feeding a powder material into the laser-induced melt pool; - submitting the coated substrate to a thermal treatment made of a tempering treatment comprising a heating up to a temperature in the range 500-650°C followed by a holding at this temperature during a time comprised between 2 and 5 hours, in order to soften martensite and precipitate carbides; wherein the composition for said metal coating external layer is consisting of 0.5-3.5% C, 2-18% Cr, 0.5-7% Mo, 0.5-8% V, 0.2-5% W, 0-5% Nb, 0-1% Ti, 0.5-1% Mn, 0.2-3% Si and 0-3% Ni, the rest being Fe and inevitable impurities; wherein a preheating of the substrate is performed, thanks to a coating head combining induction heating with laser cladding process; wherein the cladding rate is in the range from 2.35 kg/h to 18 kg/h; and wherein said external coating layer is made of multiple added coated sublayers and has a total thickness comprised between 1 and 30 mm, the thickness of each single external coating sublayer being comprised between 0.1 and 2.5 mm.
An exhaust gas controlling catalyst, comprising: a powder carrier that is composed of zirconia particles and ceria particles which contact the zirconia particles, of which a mean particle size is smaller than a mean particle size of the zirconia particles; and an active metal that is supported on the powder carrier in a dispersed manner, wherein the mean particle size of the ceria particles is 1 to 9 nm and the percentage of the ceria particles to the zirconia particles is 5 to 30% by weight, and wherein the ceria particles and the zirconia particles are present without forming a solid solution, and the ceria particles are supported on the surfaces of the zirconia particles in a dispersed manner, characterized in that the mean particle size of the zirconia particles is 5 to 50 nm, and the active metal is Cu. a powder carrier that is composed of zirconia particles and ceria particles which contact the zirconia particles, of which a mean particle size is smaller than a mean particle size of the zirconia particles; and an active metal that is supported on the powder carrier in a dispersed manner,
A method comprising: storing, in a register, a first encoded pointer to a first memory location, wherein first context information is stored in first bits of the first encoded pointer and a slice of a linear address of the first memory location is stored in second bits of the first encoded pointer; executing a first memory access instruction, the executing including: decoding the first encoded pointer to obtain the linear address of the first memory location, obtaining a physical address of the first memory location, and accessing encrypted data at the first memory location; deriving a first tweak based at least in part on the first encoded pointer; generating a keystream based on the first tweak and a key; and decrypting the encrypted data based on the keystream, wherein the keystream is generated at least partly in parallel with accessing the encrypted data. storing, in a register, a first encoded pointer to a first memory location, wherein first context information is stored in first bits of the first encoded pointer and a slice of a linear address of the first memory location is stored in second bits of the first encoded pointer; executing a first memory access instruction, the executing including: decoding the first encoded pointer to obtain the linear address of the first memory location, obtaining a physical address of the first memory location, and accessing encrypted data at the first memory location; decoding the first encoded pointer to obtain the linear address of the first memory location, obtaining a physical address of the first memory location, and accessing encrypted data at the first memory location; deriving a first tweak based at least in part on the first encoded pointer; generating a keystream based on the first tweak and a key; and decrypting the encrypted data based on the keystream, wherein the keystream is generated at least partly in parallel with accessing the encrypted data.
A composition of one or more active ingredients of plant origin or synthetic analogue(s) or extract(s) of plant origin containing said ingredient(s), in aqueous solution, said composition comprising: - from 5 to 30 % of one or more active ingredients of plant origin or synthetic analogue(s) selected from eugenol, thymol, carvacrol, pyrethrins, pyrethroids and mixtures thereof or extract(s) of plant origin containing said ingredient(s), such that the extract of plant origin is an essential oil selected from clove oil, thyme oil and pyrethrum extracts, - from 15 to 40 % of lecithin, - from 10 to 55 of alcohol, - from 10 to 35% of one or more sugars, - water, such that the active ingredient(s) of plant origin or synthetic analogue(s) or extract(s) of plant origin containing said ingredient(s) are encapsulated by the lecithin. - from 5 to 30 % of one or more active ingredients of plant origin or synthetic analogue(s) selected from eugenol, thymol, carvacrol, pyrethrins, pyrethroids and mixtures thereof or extract(s) of plant origin containing said ingredient(s), such that the extract of plant origin is an essential oil selected from clove oil, thyme oil and pyrethrum extracts, - from 15 to 40 % of lecithin, - from 10 to 55 of alcohol, - from 10 to 35% of one or more sugars, - water,
A method of encoding video data in an encoding process, the method comprising: determining a coding mode used to encode a current block of video data, wherein the coding mode is one of a lossy coding mode or a lossless coding mode; determining a color-space transform process dependent on the coding mode used to encode the video data; applying a YCoCg color-space transform process to a residual block for the current block when the coding mode is determined to be the lossy coding mode; applying a YCoCg-R color-space transform process to the residual block when the coding mode is determined to be the lossless coding mode; applying a YCoCg-R color-space inverse transform process in a decoding loop of the encoding process, independent of whether the coding mode is the lossy coding mode or the lossless coding mode; and when the coding mode is determined to be the lossy coding mode, modifying a Co component and a Cg component of the YCoCg matrix with a 1-bit left shift before applying the color-space inverse transform process in the decoding loop of the encoding process. determining a coding mode used to encode a current block of video data, wherein the coding mode is one of a lossy coding mode or a lossless coding mode; determining a color-space transform process dependent on the coding mode used to encode the video data; applying a YCoCg color-space transform process to a residual block for the current block when the coding mode is determined to be the lossy coding mode; applying a YCoCg-R color-space transform process to the residual block when the coding mode is determined to be the lossless coding mode; applying a YCoCg-R color-space inverse transform process in a decoding loop of the encoding process, independent of whether the coding mode is the lossy coding mode or the lossless coding mode; and when the coding mode is determined to be the lossy coding mode, modifying a Co component and a Cg component of the YCoCg matrix with a 1-bit left shift before applying the color-space inverse transform process in the decoding loop of the encoding process.
Planetary axle for a planetary gearbox, characterised in that the planetary axle between a clamping area for clamping in a planetary carrier side and a bearing seat area for receiving a planetary bearing has a link area, wherein the centroidal axis of the link area is embodied eccentrically with respect to the centroidal axis of the bearing seat area and/or to the centroidal axis of the clamping area.
A delivery system comprising: an implant having a proximal end portion and an expansion member; a delivery wire having (i) a detachment zone proximal to the proximal end portion, and (ii) a distal section distal to the proximal end portion; and a catheter, wherein at least a portion of the delivery wire is within the catheter, characterised in that the expansion member comprises a compression spring and is located between the proximal end portion and the distal section of the delivery wire, the expansion member being biased to move the distal section of the delivery wire distally away from the proximal end portion. an implant having a proximal end portion and an expansion member; a delivery wire having (i) a detachment zone proximal to the proximal end portion, and (ii) a distal section distal to the proximal end portion; and a catheter, wherein at least a portion of the delivery wire is within the catheter, characterised in that the expansion member comprises a compression spring and is located between the proximal end portion and the distal section of the delivery wire, the expansion member being biased to move the distal section of the delivery wire distally away from the proximal end portion.
An in vitro method of diagnosis of chronic myelomonocytic leukemia (CMML) in a subject, said method comprising the steps of: a) Detecting by flow cytometry a monocyte population in a blood or plasma sample from said subject; b) Quantifying by flow cytometry the CD14+/CD16 - monocytes in said blood or plasma sample; c) Comparing the value of step b) to a reference value; and d) Diagnosing CMML based on said comparison. a) Detecting by flow cytometry a monocyte population in a blood or plasma sample from said subject; b) Quantifying by flow cytometry the CD14+/CD16 - monocytes in said blood or plasma sample; c) Comparing the value of step b) to a reference value; and d) Diagnosing CMML based on said comparison.
Method for checking a lightning conductor of a lightning protection system comprised by a rotor blade of a wind turbine, wherein the wind turbine comprises a device for checking the lightning conductor and the rotor blade comprising the lightning conductor, wherein the device for checking the at least one lightning conductor is designed and/or configured to carry out and/or to execute the method, and wherein the device is a time domain reflectometry device and comprises at least one pulse generator for introducing a pulse and a measuring device for determining the pulse response, the method comprising: - determining, by the measuring device, a pulse response information indicative of a pulse response, wherein the pulse response information is determined based on an pulse introduced into the lightning conductor characterized by an electromagnetic wave, wherein the pulse response information represents at least a waveform and a propagation time determined on the basis of the reflection of the pulse after it has been introduced; - determining, by the device, an evaluation information based on the determined pulse response information, wherein the pulse response information is analyzed at least with regard to the represented waveform and the runtime of the introduced and reflected electromagnetic wave, wherein the evaluation information is indicative of whether the lightning conductor is functional or not; and - outputting or causing an output, by the device, of the determined evaluation information; wherein determining the evaluation information comprises a comparison of the waveform and/or propagation time represented by the pulse response information with at least one reference information indicative of a pulse response information of an undamaged lightning conductor, and a further measuring of the lightning conductor to ensure that the lightning conductor is undamaged. - determining, by the measuring device, a pulse response information indicative of a pulse response, wherein the pulse response information is determined based on an pulse introduced into the lightning conductor characterized by an electromagnetic wave, wherein the pulse response information represents at least a waveform and a propagation time determined on the basis of the reflection of the pulse after it has been introduced; - determining, by the device, an evaluation information based on the determined pulse response information, wherein the pulse response information is analyzed at least with regard to the represented waveform and the runtime of the introduced and reflected electromagnetic wave, wherein the evaluation information is indicative of whether the lightning conductor is functional or not; and - outputting or causing an output, by the device, of the determined evaluation information; wherein determining the evaluation information comprises a comparison of the waveform and/or propagation time represented by the pulse response information with at least one reference information indicative of a pulse response information of an undamaged lightning conductor, and a further measuring of the lightning conductor to ensure that the lightning conductor is undamaged.
A multi-flow turbine for an exhaust gas turbocharger, comprising a turbine housing, wherein the turbine housing has a first volute and a second volute which are separated from one another by a separating wall, a connection opening which is provided in the separating wall, and the corresponding flow channels of the first volute and the second volute are connected to one another via said connection opening, a connection valve having a housing; and a valve body which is arranged in the housing to be displaceable along a first axis (Al), wherein the valve body has a closure part which is designed to close the connection opening between the first volute and the second volute of the multi-flow turbine, characterized in that a first groove, arranged approximately parallel to a second axis which runs approximately perpendicular to the first axis (Al), is provided in a first wall of the connection opening and is configured according to a side surface of the closure part and accommodates an edge area of the closure part in a closed position of the connection valve.
Brake cylinder, having a brake cylinder housing with a housing upper part and a housing lower part and a diaphragm, wherein the housing upper part has fluid-line connections (5, 6), and the housing lower part has securing means (10, 11) for securing to a brake, characterized in that the housing upper part, the housing lower part and the diaphragm are clamped together positively at a joint by a clamping ring on the housing upper side and a clamping ring on the housing lower side.
A toolholder (21, 121, 221, 321) for a rotating tool, comprising: a body (23, 123, 223, 323) that is rotatable about an axis of rotation in a cutting direction, the body (23, 123, 223, 323) having a first surface (25, 125, 225, 341) that faces a workpiece; wherein the body (23, 123, 223, 323) includes a shaft portion (39, 139, 239, 339) and a head portion (37, 137, 237, 337) at an end of the shaft portion (39, 139, 239, 339), the first surface (25, 125, 225, 341) being disposed on the head portion (37, 137, 237, 337), the head portion (37, 137, 237, 337) including a top surface (35, 135, 235, 335), a bottom surface (25, 125, 225, 325), and an edge surface (41, 141, 241, 341) between the top surface (35, 135, 235, 335) and the bottom surface (25, 125, 225, 325), at least one through hole (27, 127, 227, 327) having a first end (29, 129, 229, 329) at the first surface (25, 125, 225, 341) and a second end (31, 131, 231, 331) at a surface (33, 133, 233, 333) of the body (23, 123, 223, 323) above the first surface (25, 125, 225, 341), wherein a central axis of the at least one through hole (27, 127, 227, 327) intersects a plane extending through the axis of rotation and tangent to the second end (31, 131, 231, 331) of the at least one through hole (27, 127, 227, 327), and wherein the at least one through hole has a different size at the first end than at the second end, characterized in that the second end (31, 131, 231, 331) of the at least one through hole (27, 127, 227, 327) is disposed on the top surface (35, 135, 235, 335) of the head portion (37, 137, 237, 337). a body (23, 123, 223, 323) that is rotatable about an axis of rotation in a cutting direction, the body (23, 123, 223, 323) having a first surface (25, 125, 225, 341) that faces a workpiece; wherein the body (23, 123, 223, 323) includes a shaft portion (39, 139, 239, 339) and a head portion (37, 137, 237, 337) at an end of the shaft portion (39, 139, 239, 339), the first surface (25, 125, 225, 341) being disposed on the head portion (37, 137, 237, 337), the head portion (37, 137, 237, 337) including a top surface (35, 135, 235, 335), a bottom surface (25, 125, 225, 325), and an edge surface (41, 141, 241, 341) between the top surface (35, 135, 235, 335) and the bottom surface (25, 125, 225, 325), at least one through hole (27, 127, 227, 327) having a first end (29, 129, 229, 329) at the first surface (25, 125, 225, 341) and a second end (31, 131, 231, 331) at a surface (33, 133, 233, 333) of the body (23, 123, 223, 323) above the first surface (25, 125, 225, 341), wherein a central axis of the at least one through hole (27, 127, 227, 327) intersects a plane extending through the axis of rotation and tangent to the second end (31, 131, 231, 331) of the at least one through hole (27, 127, 227, 327), and wherein the at least one through hole has a different size at the first end than at the second end, characterized in that the second end (31, 131, 231, 331) of the at least one through hole (27, 127, 227, 327) is disposed on the top surface (35, 135, 235, 335) of the head portion (37, 137, 237, 337).
A well screen (101, 401, 800) comprising: a base pipe (103, 403, 803); a filter layer (105,405, 805) arranged around the base pipe (103, 403, 803); and a discrete mesh outer standoff layer (107, 407, 807) arranged around the filter layer (105, 405, 805) in a first spiral wrap comprising a first succession of loops, said outer standoff layer spirally wrapped around the filter layer (105, 405, 805) at an angle, from a direction normal to a longitudinal axis of the well screen, between 10° and 40°; such that a trailing edge of a next one of the first succession of loops is in contact, or in overlap, with a leading edge of a previous one of the first succession of loops; and to produce a compressive force on the filter layer (105, 405, 805) radially towards the base pipe (103, 403, 803), wherein the compressive force provides enhanced rigidity to the filter layer, to resist hoop stress. a base pipe (103, 403, 803); a filter layer (105,405, 805) arranged around the base pipe (103, 403, 803); and a discrete mesh outer standoff layer (107, 407, 807) arranged around the filter layer (105, 405, 805) in a first spiral wrap comprising a first succession of loops, said outer standoff layer spirally wrapped around the filter layer (105, 405, 805) at an angle, from a direction normal to a longitudinal axis of the well screen, between 10° and 40°; such that a trailing edge of a next one of the first succession of loops is in contact, or in overlap, with a leading edge of a previous one of the first succession of loops; and to produce a compressive force on the filter layer (105, 405, 805) radially towards the base pipe (103, 403, 803), wherein the compressive force provides enhanced rigidity to the filter layer, to resist hoop stress.
A method, comprising: receiving information indicative of an amplitude of an audio output signal; predicting a voltage of a power supply of a signal path having an audio input for receiving an audio input signal and an audio output for generating the audio output signal based on the audio input signal; predicting from the information indicative of the amplitude of the audio output signal and the predicted voltage whether the audio output signal will exceed an available supply voltage generated by the power supply; and responsive to determining the audio output signal will exceed the available supply voltage generated by the power supply, attenuating the audio input signal or a derivative thereof to reduce the amplitude of the audio output signal such that the audio output signal does not exceed the available supply voltage of the power supply. receiving information indicative of an amplitude of an audio output signal; predicting a voltage of a power supply of a signal path having an audio input for receiving an audio input signal and an audio output for generating the audio output signal based on the audio input signal; predicting from the information indicative of the amplitude of the audio output signal and the predicted voltage whether the audio output signal will exceed an available supply voltage generated by the power supply; and responsive to determining the audio output signal will exceed the available supply voltage generated by the power supply, attenuating the audio input signal or a derivative thereof to reduce the amplitude of the audio output signal such that the audio output signal does not exceed the available supply voltage of the power supply.