mhurhangee/ep-ind-claims huggingface dataset:
A method for bandwidth-dependent file transferring, the method comprising: receiving, by a client, from a server, a web page code, wherein the web page code contains codes that, when executed by the client, query for or request a value of a current bandwidth, wherein the value of the current bandwidth includes a client bandwidth value obtained in a previous file transfer, and wherein the web page code comprises corresponding relationships between a plurality of quality levels and various ranges of values of bandwidth; selecting, by the client, one quality level of the plurality of quality levels for a next file to be requested according to the value of the current bandwidth, wherein the one quality level is selected using the relationships between the plurality of quality levels and the various ranges of values of bandwidth, and the selected quality level corresponds to a range which comprises the value of the current bandwidth; sending by the client, to the server, the request for reading the next file, wherein the next file can be sent, by the server, at the plurality of quality levels, and wherein the request for reading the next file specifies the selected quality level; and receiving, at the client, from the server, the next file at the selected quality level. receiving, by a client, from a server, a web page code, wherein the web page code contains codes that, when executed by the client, query for or request a value of a current bandwidth, wherein the value of the current bandwidth includes a client bandwidth value obtained in a previous file transfer, and wherein the web page code comprises corresponding relationships between a plurality of quality levels and various ranges of values of bandwidth; selecting, by the client, one quality level of the plurality of quality levels for a next file to be requested according to the value of the current bandwidth, wherein the one quality level is selected using the relationships between the plurality of quality levels and the various ranges of values of bandwidth, and the selected quality level corresponds to a range which comprises the value of the current bandwidth; sending by the client, to the server, the request for reading the next file, wherein the next file can be sent, by the server, at the plurality of quality levels, and wherein the request for reading the next file specifies the selected quality level; and receiving, at the client, from the server, the next file at the selected quality level.
An image processing method comprising obtaining a processed image for use in a template matching process to detect an object, wherein the template matching process involves use of a template image derived from a CT image, the object having different shapes when viewed in different image acquisition directions, the processed image being obtained by: obtaining an input image, wherein the input image is generated using X-ray radiation; enhancing the object in the input image, wherein the object comprises a marker or tissue structure; and after the input image is enhanced, applying a low-pass filter using a processor to obtain said processed image; wherein the act of enhancing the object is performed to enhance the object relative to surrounding objects or relative to an object boundary, and wherein the act of enhancing comprises using a rolling ball filter; wherein the low-pass filter comprises filter parameters that correspond with CT imaging parameters of the CT image so that the processed image has a resolution that corresponds with a resolution of the template image. obtaining an input image, wherein the input image is generated using X-ray radiation; enhancing the object in the input image, wherein the object comprises a marker or tissue structure; and after the input image is enhanced, applying a low-pass filter using a processor to obtain said processed image; wherein the act of enhancing the object is performed to enhance the object relative to surrounding objects or relative to an object boundary, and wherein the act of enhancing comprises using a rolling ball filter; wherein the low-pass filter comprises filter parameters that correspond with CT imaging parameters of the CT image so that the processed image has a resolution that corresponds with a resolution of the template image.
A method for subspace selection, comprising: receiving, by a user equipment, a reference signal from a base station in a downlink channel (step 202); and transmitting, by the UE, a linear combination index to the base station, wherein the linear combination index identifies a combination of beams selected from a set of beams in accordance with the RS (step 210), wherein the number of bits of the linear combination index is equal to ceiling log 2 N M, and N is a number of codewords in a codebook of beams and M is a number of beams in the combination of beams. receiving, by a user equipment, a reference signal from a base station in a downlink channel (step 202); and transmitting, by the UE, a linear combination index to the base station, wherein the linear combination index identifies a combination of beams selected from a set of beams in accordance with the RS (step 210), wherein the number of bits of the linear combination index is equal to ceiling log 2 N M, and N is a number of codewords in a codebook of beams and M is a number of beams in the combination of beams.
A method for ultrasonic double-wave measurement of a pre-tightening force and temperature of a solid material, characterized by comprising the following steps: S01: obtaining a temperature T 0 and pre-tightening force F 0 of a solid material in a first state, and a first mode wave time-of-flight T S0 and a second mode wave time-of-flight T L0 of an ultrasonic double-wave in this state; S02: measuring a first mode wave time T S and a second mode wave time T L of the ultrasonic double-wave of the solid material in an unknown state; S03: obtaining a first mode wave temperature influence coefficient K TS and a second mode wave temperature influence coefficient K TL of the solid material, and a first mode wave pre-tightening force influence coefficient K FS and a second mode wave pre-tightening force influence coefficient K FL in the solid material to be measured having the same specification and geometric shape; and S04: obtaining a relative change relationship of ultrasonic double-wave time-of-flight according to the first-order Taylor approximation as: T S − T S 0 / T S 0 = K TS ⋅ T − T 0 + K FS ⋅ F − F 0 T L − T L 0 / T L 0 = K TL ⋅ T − T 0 + K TL ⋅ F − F 0 wherein, F is the measured pre-tightening force, and T is the measured temperature; jointly solving the measured pre-tightening force F by means of formulas and: F = K TL T S − T S 0 / T S 0 − K TS T L − T L 0 / T L 0 K TL K FS − K TS K FL + F 0; and solving the measured temperature T: T = K FL T S − T S 0 / T S 0 − K FS T L − T L 0 / T L 0 K TS K FL − K TL K FS + T 0. S01: obtaining a temperature T 0 and pre-tightening force F 0 of a solid material in a first state, and a first mode wave time-of-flight T S0 and a second mode wave time-of-flight T L0 of an ultrasonic double-wave in this state; S02: measuring a first mode wave time T S and a second mode wave time T L of the ultrasonic double-wave of the solid material in an unknown state; S03: obtaining a first mode wave temperature influence coefficient K TS and a second mode wave temperature influence coefficient K TL of the solid material, and a first mode wave pre-tightening force influence coefficient K FS and a second mode wave pre-tightening force influence coefficient K FL in the solid material to be measured having the same specification and geometric shape; and S04: obtaining a relative change relationship of ultrasonic double-wave time-of-flight according to the first-order Taylor approximation as: T S − T S 0 / T S 0 = K TS ⋅ T − T 0 + K FS ⋅ F − F 0 T L − T L 0 / T L 0 = K TL ⋅ T − T 0 + K TL ⋅ F − F 0 wherein, F is the measured pre-tightening force, and T is the measured temperature; jointly solving the measured pre-tightening force F by means of formulas and: F = K TL T S − T S 0 / T S 0 − K TS T L − T L 0 / T L 0 K TL K FS − K TS K FL + F 0; and solving the measured temperature T: T = K FL T S − T S 0 / T S 0 − K FS T L − T L 0 / T L 0 K TS K FL − K TL K FS + T 0.
Modular ceramic and/or metal powder press arrangement for pressing a moulded part from a powdery and/or granular material along a main pressing direction (x), having - at least one female die, - at least one transverse adjustment drive module, which is configured to adjust a transverse ram in a transverse adjustment direction (y), and - a holding device - with an inner die holder for the female die and - with at least one such transverse adjustment drive module which is attached in at least one outer transverse adjustment drive module holder, characterized in that - the holding device has at least one circumferential supporting section at an angle of greater than 30° relative to the main pressing direction (x), and - such a transverse adjustment drive module is supported on the supporting element in the transverse adjustment direction (y) or at an angle of less than 60° relative to the transverse adjustment direction (y). - at least one female die, - at least one transverse adjustment drive module, which is configured to adjust a transverse ram in a transverse adjustment direction (y), and - a holding device - with an inner die holder for the female die and - with at least one such transverse adjustment drive module which is attached in at least one outer transverse adjustment drive module holder, characterized in that - the holding device has at least one circumferential supporting section at an angle of greater than 30° relative to the main pressing direction (x), and - such a transverse adjustment drive module is supported on the supporting element in the transverse adjustment direction (y) or at an angle of less than 60° relative to the transverse adjustment direction (y).
An actuating device for moving a movable cowl of a thrust reverser, comprising: - a casing, - an actuator comprising a first element and a second element mounted movable in translation relative to the first element, one of the first element and the second element being a screw, and the other being a nut suitable for cooperating with the screw, so that a rotation of the first element relative to the second element causes a translation of the second element relative to the first element, - a locking device comprising a locking part movable between a locked position in which the locking part prevents the rotation of the first element, and an unlocked position in which the locking part allows the rotation of the first element, and characterized in that it comprises: - a lock inhibitor device comprising a support fixedly mounted relative to the casing, a housing formed in the support and a ball movable in the housing between a stowed position in which the ball allows a motion of the locking part between the locked position and the unlocked position, and an inhibiting position in which the ball protrudes out of the housing to prevent the return of the locking part to the locked position. - a casing, - an actuator comprising a first element and a second element mounted movable in translation relative to the first element, one of the first element and the second element being a screw, and the other being a nut suitable for cooperating with the screw, so that a rotation of the first element relative to the second element causes a translation of the second element relative to the first element, - a locking device comprising a locking part movable between a locked position in which the locking part prevents the rotation of the first element, and an unlocked position in which the locking part allows the rotation of the first element, and - a lock inhibitor device comprising a support fixedly mounted relative to the casing, a housing formed in the support and a ball movable in the housing between a stowed position in which the ball allows a motion of the locking part between the locked position and the unlocked position, and an inhibiting position in which the ball protrudes out of the housing to prevent the return of the locking part to the locked position.
40-O-(2-hydroxyethyl)-rapamycin for use in the prevention, delay of progression or treatment of breast cancer, wherein 40-O-(2-hydroxyethyl)-rapamycin is administered in combination with letrozole.
A fuel assembly, comprising: a lower fuel support member; an upper fuel support member; a cylindrical channel box which has an upper end attached to the upper fuel support member, and extends toward the lower fuel support member; a plurality of first fuel rods (1-4, 12), each of which has a lower end supported to the lower fuel support member and an upper end supported to the upper fuel support member, and contains a nuclear fuel material but does not contain a burnable poison; a plurality of second fuel rods (G1, G2), each of which has a lower end supported to the lower fuel support member and an upper end supported to the upper fuel support member, and contains the nuclear fuel material and the burnable poison, and a plurality of third fuel rods (13; P1, P2), each of which has a lower end supported to the lower fuel support member and an upper end not supported to the upper fuel support member, has a length in an axial direction shorter than the first fuel rod and the second fuel rod, and contains the nuclear fuel material but does not contain the burnable poison, wherein the plurality of first fuel rods, the plurality of second fuel rods, and the plurality of third fuel rods are disposed on an inner side of the channel box, characterised in that two third fuel rods (13; P2) are brought to be adjacent, and disposed in an outermost periphery which is adjacent to an inner surface of the channel box in a horizontal cross-sectional view of the fuel assembly, and wherein a second fuel rod is disposed to be adjacent to at least one of two adjacent third fuel rods. a lower fuel support member; an upper fuel support member; a cylindrical channel box which has an upper end attached to the upper fuel support member, and extends toward the lower fuel support member; a plurality of first fuel rods (1-4, 12), each of which has a lower end supported to the lower fuel support member and an upper end supported to the upper fuel support member, and contains a nuclear fuel material but does not contain a burnable poison; a plurality of second fuel rods (G1, G2), each of which has a lower end supported to the lower fuel support member and an upper end supported to the upper fuel support member, and contains the nuclear fuel material and the burnable poison, and a plurality of third fuel rods (13; P1, P2), each of which has a lower end supported to the lower fuel support member and an upper end not supported to the upper fuel support member, has a length in an axial direction shorter than the first fuel rod and the second fuel rod, and contains the nuclear fuel material but does not contain the burnable poison, wherein the plurality of first fuel rods, the plurality of second fuel rods, and the plurality of third fuel rods are disposed on an inner side of the channel box, characterised in that two third fuel rods (13; P2) are brought to be adjacent, and disposed in an outermost periphery which is adjacent to an inner surface of the channel box in a horizontal cross-sectional view of the fuel assembly, and wherein a second fuel rod is disposed to be adjacent to at least one of two adjacent third fuel rods.
A coating method using a plasma shock wave, the method comprising the steps of: covering an area of a surface of a mixed layer with a transparent liquid, the mixed layer being formed on a surface of a substance to be coated, the mixed layer being obtained by blending powders into resin and subsequently hardening the resin, the substance to be coated comprising aluminum, the resin comprising epoxy resin, the powders comprising ceramics powders; irradiating a pulse laser to the surface of the mixed layer to generate a plasma, wherein an irradiance condition of the pulse laser is that the pulse energy is from 10 to 80 mJ and the laser is narrowed down to 0.4 to 1 mm by a lens; striking the powders on the surface of the substance by using a shock wave of the plasma; and forming the coat of the powders on the surface of the substance, wherein the coat has a thickness of 5 to 10 μm. covering an area of a surface of a mixed layer with a transparent liquid, the mixed layer being formed on a surface of a substance to be coated, the mixed layer being obtained by blending powders into resin and subsequently hardening the resin, the substance to be coated comprising aluminum, the resin comprising epoxy resin, the powders comprising ceramics powders; irradiating a pulse laser to the surface of the mixed layer to generate a plasma, wherein an irradiance condition of the pulse laser is that the pulse energy is from 10 to 80 mJ and the laser is narrowed down to 0.4 to 1 mm by a lens; striking the powders on the surface of the substance by using a shock wave of the plasma; and forming the coat of the powders on the surface of the substance, wherein the coat has a thickness of 5 to 10 μm.
A bias charging member comprising: a) a conductive core, and b) an outer surface layer disposed on the conductive core, the outer surface layer comprising a hydroxyl terminated poly(oxetane) based fluorinated polyether and an aminoplast resin. a) a conductive core, and b) an outer surface layer disposed on the conductive core, the outer surface layer comprising a hydroxyl terminated poly(oxetane) based fluorinated polyether and an aminoplast resin.
Pigments based on multicoated flake-form substrates, characterised in that optionally an SiO 2 layer, a colourless coating having a refractive index n < 1.8, where layer is not chemically identical with layer, a colourless coating having a refractive index n ≥ 1.8, where layer has thicknesses of 1-15 nm, a colourless coating having a refractive index n ≥ 1.8, where layer is not chemically identical with layer, a colourless coating having a refractive index n ≥ 1.8 and optionally an outer protective layer, are on the substrate. optionally an SiO 2 layer, a colourless coating having a refractive index n < 1.8, where layer is not chemically identical with layer, a colourless coating having a refractive index n ≥ 1.8, where layer has thicknesses of 1-15 nm, a colourless coating having a refractive index n ≥ 1.8, where layer is not chemically identical with layer, a colourless coating having a refractive index n ≥ 1.8 and optionally an outer protective layer,
A load driving circuit comprising: a first terminal (Vcc) connected to a power supply; a second terminal (out) connected to a load; a switching element connected between the first terminal (Vcc) and the second terminal (out); a first comparator configured to compare a voltage of the second terminal (out) with a first reference voltage that is lower than an input voltage inputted to the first terminal (Vcc) to detect a load open state where the switching element is off and the load is not connected to the second terminal (out); a clamp circuit configured to clamp the voltage of the second terminal (out) to a clamp voltage that is higher than the first reference voltage and lower than the input voltage, in the load open state; a second comparator configured to compare the voltage of the second terminal (out) with a second reference voltage that is lower than the input voltage and higher than the clamp voltage to detect a power fault state where the switching element is off and the second terminal (out) is connected to the power supply; characterized in that the load driving circuit further comprises a capacitor having one end connected to the second terminal (out) and another end connected to a third terminal (amp); a bootstrap circuit configured to generate a constant voltage based on a voltage of the power supply at the first terminal (Vcc), and to feed a charging current to the third terminal (amp) at the constant voltage; and a clamp voltage rise suppressing circuit (16, 17) configured to suppress a rise in the clamp voltage of the clamp circuit based on a load open state detection signal outputted from the first comparator when the first comparator detects the load open state. a first terminal (Vcc) connected to a power supply; a second terminal (out) connected to a load; a switching element connected between the first terminal (Vcc) and the second terminal (out); a first comparator configured to compare a voltage of the second terminal (out) with a first reference voltage that is lower than an input voltage inputted to the first terminal (Vcc) to detect a load open state where the switching element is off and the load is not connected to the second terminal (out); a clamp circuit configured to clamp the voltage of the second terminal (out) to a clamp voltage that is higher than the first reference voltage and lower than the input voltage, in the load open state; a second comparator configured to compare the voltage of the second terminal (out) with a second reference voltage that is lower than the input voltage and higher than the clamp voltage to detect a power fault state where the switching element is off and the second terminal (out) is connected to the power supply; characterized in that the load driving circuit further comprises a capacitor having one end connected to the second terminal (out) and another end connected to a third terminal (amp); a bootstrap circuit configured to generate a constant voltage based on a voltage of the power supply at the first terminal (Vcc), and to feed a charging current to the third terminal (amp) at the constant voltage; and
A method for partial discharge measurement of at least one medium voltage cable (2.1, 2.2) of a medium voltage network, the method comprising the following steps: (a) Determining a limit value for a fault probability of the at least one medium voltage cable (2.1, 2.2), (b) Providing at least one parameter indicative of a technical condition of the at least one medium voltage cable (2.1, 2.2), (c) Determining a fault probability of the at least one medium voltage cable (2.1, 2.2) based on the at least one provided parameter, and (d) Partial discharge measurement of the at least one medium voltage cable (2.1, 2.2), provided that the determined fault probability is above the specified limit value. (a) Determining a limit value for a fault probability of the at least one medium voltage cable (2.1, 2.2), (b) Providing at least one parameter indicative of a technical condition of the at least one medium voltage cable (2.1, 2.2), (c) Determining a fault probability of the at least one medium voltage cable (2.1, 2.2) based on the at least one provided parameter, and (d) Partial discharge measurement of the at least one medium voltage cable (2.1, 2.2), provided that the determined fault probability is above the specified limit value.