mhurhangee/patent-ind-claim-en huggingface dataset:
A method for the in-depth optical functionalization of a sample made of semiconductor material, comprising: - the emission of a laser beam formed by pulses of effective durations between 1 ps and 100 ns, having a wavelength in the transparency spectral band of the material; - the focusing of the laser beam in depth in the sample, according to a predetermined pattern , the light intensity per pulse in a focal volume of the laser beam being adapted to generate a multiphoton absorption; - the measuring of the real part of the refractive index of the sample at each point of the pattern; - the controlling of the number of pulses received per pattern point as a function of said measurement of the real part of the refractive index so as to obtain, at each pattern point, a progressive modification of the real part of the refractive index of the material until a relative variation of the real part of the refractive index is greater than 10 -3 in absolute value. - the emission of a laser beam formed by pulses of effective durations between 1 ps and 100 ns, having a wavelength in the transparency spectral band of the material; - the focusing of the laser beam in depth in the sample, according to a predetermined pattern , the light intensity per pulse in a focal volume of the laser beam being adapted to generate a multiphoton absorption; - the measuring of the real part of the refractive index of the sample at each point of the pattern; - the controlling of the number of pulses received per pattern point as a function of said measurement of the real part of the refractive index so as to obtain, at each pattern point, a progressive modification of the real part of the refractive index of the material until a relative variation of the real part of the refractive index is greater than 10 -3 in absolute value.
A method for preparing a rebaudioside I composition, comprising: a. contacting a starting composition comprising rebaudioside A with a biocatalyst capable of converting rebaudioside A to rebaudioside I to provide a composition comprising rebaudioside I, wherein the biocatalyst is a UDP-glycosyltransferase (UGT) which is a UGT76G1 variant selected from the group consisting of UGT76G1-R1-F12 comprising the point mutations Q266E, P272A, R334K, G348P and L379G, UGT76G1-R2-B9 comprising UGT76G1-R1-F12 comprising additional point mutations S42A, F46I and I407V, and UGT76G1-R3-G3 comprising UGT76G1-R2-B9 comprising additional point mutations I46L, K303G and K393R. a. contacting a starting composition comprising rebaudioside A with a biocatalyst capable of converting rebaudioside A to rebaudioside I to provide a composition comprising rebaudioside I, wherein the biocatalyst is a UDP-glycosyltransferase (UGT) which is a UGT76G1 variant selected from the group consisting of UGT76G1-R1-F12 comprising the point mutations Q266E, P272A, R334K, G348P and L379G, UGT76G1-R2-B9 comprising UGT76G1-R1-F12 comprising additional point mutations S42A, F46I and I407V, and UGT76G1-R3-G3 comprising UGT76G1-R2-B9 comprising additional point mutations I46L, K303G and K393R.
A substrate comprising a combination of one or more peptide or peptides and one or more protein or proteins, wherein said combination of peptide(s) and protein(s) being immobilized on said substrate, said one or more peptide or peptides is/are pFlaB-mV, a synthetic fusion peptide comprising 14 amino acids of the 41 kDa flagellin antigen (FlaB) and 20 amino acids of the modified VIsE sequence, according to SEQ ID NO: 2, and said one or more protein or proteins is/are selected from OspC-type I having SEQ ID NO:6 and OspC-type B having SEQ ID NO:5.
An integrated expander and motor-compressor assembly comprising: - one housing ; - at least two transmission shafts , each supported in the housing by at least two radial bearings ; - a flexible coupling device connecting the transmission shafts; - an electric motor mounted on a first transmission shaft; - an expander cantilevered at a free end of a second transmission shaft; and - at least one compression section mounted between the two radial bearings on the second transmission shaft and having a high pressure part and a low pressure part fluidly coupled to the high pressure part so that a gas coming out of the low pressure part is compressed in the high pressure part, characterized in that the integrated expander and motor-compressor assembly comprises: a gas diffuser positioned between the expander and a first radial bearing of the second transmission shaft, the first radial bearing being the closest bearing to the expander, and a first duct connected between the gas diffuser and the first radial bearing and connected to an inlet of the low pressure part, wherein the gas diffuser is configured to diffuse gas directed to the expander and to the first radial bearing , wherein the gas diffuser is configured to be fed with a part of the gas entering the high pressure part, wherein the first duct being configured to draw up a part of the diffused gas. - one housing ; - at least two transmission shafts , each supported in the housing by at least two radial bearings ; - a flexible coupling device connecting the transmission shafts; - an electric motor mounted on a first transmission shaft; - an expander cantilevered at a free end of a second transmission shaft; and - at least one compression section mounted between the two radial bearings on the second transmission shaft and having a high pressure part and a low pressure part fluidly coupled to the high pressure part so that a gas coming out of the low pressure part is compressed in the high pressure part, a gas diffuser positioned between the expander and a first radial bearing of the second transmission shaft, the first radial bearing being the closest bearing to the expander, and a first duct connected between the gas diffuser and the first radial bearing and connected to an inlet of the low pressure part, wherein the gas diffuser is configured to diffuse gas directed to the expander and to the first radial bearing , wherein the gas diffuser is configured to be fed with a part of the gas entering the high pressure part, wherein the first duct being configured to draw up a part of the diffused gas.
Drive device for a vehicle, in particular industrial trucks or comparable vehicles, comprising at least one transmission case with at least one gear stage for driving at least one running wheel , a flange connection for a vehicle chassis attachment, and a flange connection for a drive motor , wherein the at least one gear stage consists of a planetary gear , a reduced planetary gear, an eccentric gearing, or a Wolfrom gear, characterized in that the drive motor is arranged at an angle of 15 to 25 degrees, preferably 20 to 23 degrees, particularly preferred 21 degrees, with respect to the vertical, and the flange connection is designed for a vehicle chassis attachment such that the transmission case is connected to the chassis of the vehicle via a flange suspension .
An electric motor control method capable of selecting a current vector control or a voltage phase control as a control mode for controlling an operation of the electric motor according to an operating state of the electric motor , the method comprising: when the voltage phase control is selected as the control mode, stopping a part of processing in the current vector control, and continuously executing other processing r in the current vector control, the other processing including integral calculation except for the part of processing in the current vector control; and when the control mode is switched from the voltage phase control to the current vector control, starting the part of processing by using at least one control value obtained by continuing the other processing, wherein: the part of processing includes initialization processing of setting an initial value of a control variable in the current vector control by using the at least one control value obtained by continuing the other processing during selection of the voltage phase control, and/or the other processing includes command value calculation processing of generating a voltage command value to be supplied to the electric motor. when the voltage phase control is selected as the control mode, stopping a part of processing in the current vector control, and continuously executing other processing r in the current vector control, the other processing including integral calculation except for the part of processing in the current vector control; and when the control mode is switched from the voltage phase control to the current vector control, starting the part of processing by using at least one control value obtained by continuing the other processing, wherein: the part of processing includes initialization processing of setting an initial value of a control variable in the current vector control by using the at least one control value obtained by continuing the other processing during selection of the voltage phase control, and/or the other processing includes command value calculation processing of generating a voltage command value to be supplied to the electric motor. the part of processing includes initialization processing of setting an initial value of a control variable in the current vector control by using the at least one control value obtained by continuing the other processing during selection of the voltage phase control, and/or the other processing includes command value calculation processing of generating a voltage command value to be supplied to the electric motor.
A filter bag for use within a tank of a water purification system, the filter bag comprising: a media bag having a porous portion to allow water to flow therethrough, the media bag further having at least an elastomeric portion; and a deionizing resin disposed within the media bag, characterized in that the media bag has sufficient resiliency to maintain the deionizing resin in a compressed state within the filter media even after the deionizing resin has been at least partially depleted by water flowing therethrough and the media bag maintains compressive forces on the deionizing resin within the media bag even after the deionizing resin has experienced a reduction in volume of up to 20%, wherein the media bag comprises an outer wall panel having an open end and an end closed by a bottom panel via an internal seam, wherein the outer wall panel and the bottom panel are formed of a porous and elastomeric material, wherein the open end comprises a closure , and wherein the closure comprises one or more of zip-ties, knots, metal clips, welded seams, sewn seams, zippers, additional panels sewn thereto, and/or hook-and-loop type fasteners. a media bag having a porous portion to allow water to flow therethrough, the media bag further having at least an elastomeric portion; and a deionizing resin disposed within the media bag, characterized in that the media bag has sufficient resiliency to maintain the deionizing resin in a compressed state within the filter media even after the deionizing resin has been at least partially depleted by water flowing therethrough and the media bag maintains compressive forces on the deionizing resin within the media bag even after the deionizing resin has experienced a reduction in volume of up to 20%, wherein the media bag comprises an outer wall panel having an open end and an end closed by a bottom panel via an internal seam, wherein the outer wall panel and the bottom panel are formed of a porous and elastomeric material, wherein the open end comprises a closure , and wherein the closure comprises one or more of zip-ties, knots, metal clips, welded seams, sewn seams, zippers, additional panels sewn thereto, and/or hook-and-loop type fasteners.
A method of enhancing the visibility of blood vessels in a colour image captured by an image capturing device of a medical device based on a received user input resulting in a first value of a user parameter, said colour image having a plurality of colour channels and having a plurality of pixels, wherein said method comprises for at least some of said plurality of pixels the steps of: (a) processing data obtained from a first colour channel together with data obtained from a second colour channel to determine a value of a first parameter indicative of the intensity in the red spectrum relative to the total intensity of said pixel; and (b) using said value of said first parameter and the first value of the user parameter to alter said pixel so as to generate a pixel of an enhanced image, the first value of the user parameter has at least three possible values, and wherein the strength of the alteration is dependent on both the value of said first parameter and the first value of said user parameter, wherein a high value of the first parameter indicates a high intensity in the red spectrum relative to the total intensity of said pixel and a low value of the first parameter indicates a low intensity in the red spectrum relative to the total intensity of said pixel, and wherein values of the first parameter that are among the 50% highest of all possible values results in alterations that are more significant than the alterations that results from values of the first parameter that are among the 50% lowest of all possible values. (a) processing data obtained from a first colour channel together with data obtained from a second colour channel to determine a value of a first parameter indicative of the intensity in the red spectrum relative to the total intensity of said pixel; and (b) using said value of said first parameter and the first value of the user parameter to alter said pixel so as to generate a pixel of an enhanced image, the first value of the user parameter has at least three possible values, and wherein the strength of the alteration is dependent on both the value of said first parameter and the first value of said user parameter, wherein a high value of the first parameter indicates a high intensity in the red spectrum relative to the total intensity of said pixel and a low value of the first parameter indicates a low intensity in the red spectrum relative to the total intensity of said pixel, and wherein values of the first parameter that are among the 50% highest of all possible values results in alterations that are more significant than the alterations that results from values of the first parameter that are among the 50% lowest of all possible values.
A suture anchor , comprising: a generally elongated anchor body extending from a proximal end to a distal end along a longitudinal axis , wherein a distal portion of the anchor body is tapered; an eyelet formed through the anchor body , extending transverse to the longitudinal axis , and dimensioned to receive a suture; a plurality of first channels formed within the outer surface of the anchor body and extending longitudinally along at least a portion of the anchor body ; and a plurality of circumferentially spaced ribs defined between the first channels and extending longitudinally along at least a portion of the anchor body length, wherein a distal end of each rib terminates within the tapered distal portion of the anchor body , characterised in that a height of at least two of the plurality of ribs is different. a generally elongated anchor body extending from a proximal end to a distal end along a longitudinal axis , wherein a distal portion of the anchor body is tapered; an eyelet formed through the anchor body , extending transverse to the longitudinal axis , and dimensioned to receive a suture; a plurality of first channels formed within the outer surface of the anchor body and extending longitudinally along at least a portion of the anchor body ; and a plurality of circumferentially spaced ribs defined between the first channels and extending longitudinally along at least a portion of the anchor body length, wherein a distal end of each rib terminates within the tapered distal portion of the anchor body , characterised in that a height of at least two of the plurality of ribs is different.
Device for determining the position of a moving object having a monitoring system and a transponder attached to the moving object , comprising an infrared receiver and an ultrasound transmitter , wherein the monitoring system comprises an analysis unit and at least two sensor units (2, 2. 1, 2.2), which are connected to the analysis unit and comprise an infrared transmitter and an ultrasound receiver , wherein the analysis unit transmits a start signal (S-TC) to the sensor units (2, 2.1, 2.2), at least one of the sensor units (2, 2.1, 2.2) transmits an infrared trigger signal (IR-TC) which triggers the transmission of an ultrasound signal (US) by the ultrasound transmitter at the transponder , the ultrasound signal (US) is received by the ultrasound receivers of the sensor units (2, 2.1, 2.2) and a corresponding stop signal (S-US) is transmitted from each of these to the analysis unit and the position of the moving object is determined by the analysis unit by means of travel time determination of the ultrasound signal (US) between the start signal (S-TC) and the corresponding stop signals (S-US), the infrared trigger signal comprising an object identification number (IDx), and the transponder is designed to compare the object identification number (IDx) received by the infrared trigger signal (IR-TC) with an own object identification number, and wherein the transponder is designed to transmit the ultrasound signal (US) only when the object identification number (IDx) matches, and wherein the analysis unit comprises at least one control unit , a computing unit , a visualization unit and a radio receiver , wherein the at least one control unit is connected to the computing unit , the computing unit is connected to the visualization unit and the radio receiver is connected to the computing unit , and wherein the transponder comprises a radio transmitter for transmitting the object identification number (IDx), wherein the radio transmitter is wirelessly connected to the radio receiver .
A method comprising the steps of: - providing an ink-jet printing device; - providing print support means delimited by a print surface ; - printing a calibration element on the print support means using the ink-jet printing device, by moving the print support means and the ink-jet printing device with respect to one another along an advancement direction (F), - using a measurement device, carrying out a plurality of partial measurements of respective parts of the calibration element printed on the print support means ; - calibrating the ink-jet printing device by processing information obtained during the partial measurements, characterized in that the calibration element has dimensions larger than the dimensions of the maximum image acquisition area of the measurement device and in that in order to calibrate the ink-jet printing device there is provided reconstructing the calibration element by combining information obtained from the partial measurements of said parts of the calibration element which has been printed on the print support means (100; 200; 300; 400), the partial measurements being carried out by positioning the measurement device on a region of the print surface and acquiring the image of one of said parts of the calibration element, moving the measurement device at another region of the print surface and acquiring the image of the corresponding part of the calibration element, and so on until the entire calibration element has been measured. - providing an ink-jet printing device; - providing print support means delimited by a print surface ; - printing a calibration element on the print support means using the ink-jet printing device, by moving the print support means and the ink-jet printing device with respect to one another along an advancement direction (F), - using a measurement device, carrying out a plurality of partial measurements of respective parts of the calibration element printed on the print support means ; - calibrating the ink-jet printing device by processing information obtained during the partial measurements,
Actuator which is configured to convert an electronic signal into mechanical movement, having a release function to resolve a dysfunction such as a jamming, comprising a means to supply an increased electrical voltage to the actuator if the release function is activated, characterised in that the actuator has a translationally movable piston , as well as a displacement sensor for detecting the position of the piston and for generating a sensor signal, wherein the increased voltage is supplied depending on the sensor signal.
Cord comprising a single layer made up of N helically wound metal filamentary elements having an outer diameter D, each metal filamentary element of the layer describing, when the cord extends in a substantially rectilinear direction, a helical path about a main axis (A) substantially parallel to the substantially rectilinear direction, such that, in a section plane substantially perpendicular to the main axis (A), the distance between the centre of each metal filamentary element of the layer and the main axis (A) is equal to half the helix diameter Dh and is substantially constant and identical for all the metal filamentary elements of the layer , the metal filamentary elements defining an internal enclosure of the cord of diameter Dv, each metal filamentary element having a diameter Df and a helix radius of curvature Rf defined by Rf=P/(π x Sin ), where P is the pitch of each metal filamentary element expressed in millimetres and α is the helix angle of each metal filamentary element , characterized in that , with Dh, D, Dv, Df and Rf being expressed in millimetres: 0.10 ≤ Jr ≤ 0.25 9 ≤ Rf / Df ≤ 30 , and 1.60 ≤ Dv / Df ≤ 3 ,20 . where Jr=N/(π*(D-Df)) x (Dh x Sin(π/N) - (Df / Cos(α x π/180))), a is the helix angle, expressed in degrees, of each metal filamentary element and Dv=Dh-Df.
A method of reading and writing to a plurality of bits in a spin-torque magnetoresistive memory array , the method comprising: destructively reading the bits in the plurality of bits in the spin-torque magnetoresistive memory array, each bit having a first or a second state, wherein destructively reading includes: sampling the bits in the spin-torque magnetoresistive memory array ; setting the bits to the first state in the spin-torque memory array ; resampling the bits in the spin-torque magnetoresistive memory array to evaluate states of the bits to determine, for each bit, whether the bit has the first state or the second state; and storing a value of each of the bits in one of a plurality of latches, the value being either the first state or the second state; after destructively reading the bits, providing first write-back current pulses for bits having a value corresponding to the second state in the plurality of latches; while providing the first write-back current pulses, simultaneously aborting, in response to a write operation to a portion of the plurality of bits, write-back current pulses for bits in the portion of the plurality of bits; and thereafter, providing second write-back current pulses for bits having the second state only for the portion of the plurality of the bits. sampling the bits in the spin-torque magnetoresistive memory array ; setting the bits to the first state in the spin-torque memory array ; resampling the bits in the spin-torque magnetoresistive memory array to evaluate states of the bits to determine, for each bit, whether the bit has the first state or the second state; and storing a value of each of the bits in one of a plurality of latches, the value being either the first state or the second state; after destructively reading the bits, providing first write-back current pulses for bits having a value corresponding to the second state in the plurality of latches; while providing the first write-back current pulses, simultaneously aborting, in response to a write operation to a portion of the plurality of bits, write-back current pulses for bits in the portion of the plurality of bits; and thereafter, providing second write-back current pulses for bits having the second state only for the portion of the plurality of the bits.