mhurhangee/patent-ind-claim-en huggingface dataset:
A method for processing transparent materials comprising the steps of: generating a Gauss-Bessel intensity profile laser beam in an optical system, localizing the Gauss-Bessel intensity profile laser beam in a workpiece , wherein the material of the workpiece is transparent to the Gauss-Bessel intensity profile laser beam, to form a damage region in the workpiece, the damage region extending a distance in the direction of propagation of the laser beam, performing controlled displacement of the workpiece and the laser beam with respect to each other to create additional adjacent damage regions in a predefined trajectory in order to form a cutting and/or breaking plane of the workpiece , characterised in that: the generating a Gauss-Bessel intensity profile laser beam comprises generating an asymmetric Gauss-Bessel intensity profile laser beam by placing an optical element (3, 3', 3") in the optical path of the beam, wherein asymmetry of the asymmetric Gauss-Bessel intensity profile laser beam is set by selecting appropriate material of the optical element (3, 3', 3") and/or parameters of the optical element (3, 3', 3") and/or position of the optical element (3, 3', 3") in the optical laser beam path in order to form an elongated shape of the Gauss-Bessel intensity profile laser beam in the plane perpendicular to the direction of propagation of the laser beam, the elongated shape having a longer axis and a shorter axis, the Gauss-Bessel intensity profile laser beam inducing a correspondingly elongated damage region in the workpiece , and wherein the controlled displacement of the workpiece and the asymmetric Gauss-Bessel intensity profile laser beam relative to each other is performed in such a manner that a plurality of the induced elongated shape damage regions are arranged in the workpiece longitudinally one after other along the predefined trajectory of the cutting and/or breaking plane. generating a Gauss-Bessel intensity profile laser beam in an optical system, localizing the Gauss-Bessel intensity profile laser beam in a workpiece , wherein the material of the workpiece is transparent to the Gauss-Bessel intensity profile laser beam, to form a damage region in the workpiece, the damage region extending a distance in the direction of propagation of the laser beam, performing controlled displacement of the workpiece and the laser beam with respect to each other to create additional adjacent damage regions in a predefined trajectory in order to form a cutting and/or breaking plane of the workpiece ,
A method for obtaining skeletal muscle derived cells (SMDCs), the method comprises the steps of: (a) cooling of a sample obtained from skeletal muscle tissue in a buffer; (b) processing of the sample and cooling the processed sample, wherein the cooling is conducted at a temperature in the range of 1 to 16°C for a time in the range of 2 to 48 hours; (c) resuspending the sample of step (b) in medium with serum comprising at least one enzyme and heating up to 25-38°C for 1 to 20 hours; pelleting the sample and (d) resuspending the pellet of the sample of step (c) to provide a suspension of single cells from the sample of step (c), thereby obtaining SMDCs. (a) cooling of a sample obtained from skeletal muscle tissue in a buffer; (b) processing of the sample and cooling the processed sample, wherein the cooling is conducted at a temperature in the range of 1 to 16°C for a time in the range of 2 to 48 hours; (c) resuspending the sample of step (b) in medium with serum comprising at least one enzyme and heating up to 25-38°C for 1 to 20 hours; pelleting the sample and (d) resuspending the pellet of the sample of step (c) to provide a suspension of single cells from the sample of step (c), thereby obtaining SMDCs.
Method for handling material in a pneumatic pipe transfer system, in which material, such as waste material, is input from an input aperture of an input point , such as from the input aperture of a refuse chute or of some other input point, and is conducted along a feeder channel with a shaper device arranged in connection with the input point, in which case the material to be handled is conducted into the shaper device and/or through it by the aid of at least partly gravity and/or the suction and/or a pressure difference of the pneumatic pipe transport system, characterized in that in the method the material is handled with one rotatable handling member in the shaper device , which the one rotatable handling member is rotated around an axis of rotation when handling material and which one rotatable handling member comprises an aperture , which is arranged eccentrically with respect to the axis of rotation of the one rotatable handling member, in that the one rotatable handling member arranges the material to be infed into the proximity of an output aperture and shapes the material, together with at least an edge of the output aperture of the shaper device and/or a wall of an output channel , when the one rotatable handling member is rotated with a drive device , wherein the material (w) is made to be fed in with the shaper device typically e.g. one unit, such as a batch of material packed into a bag, at a time, wherein the one rotatable handling member is ring-like, comprising the aperture from a first side , an inlet side, of the one rotatable handling member, to an other side , an outlet side.
A method of wireless communication, comprising: receiving , by an apparatus, an indication of block acknowledgment, BA, parameters; determining , by the apparatus, a size of a bitmap field based on the indication of the BA parameters; receiving a plurality of packets from a wireless device, wherein determining the size of the bitmap field is based at least in part on a lowest sequence number of the received plurality of packets that are unacknowledged by the apparatus and a largest sequence number of correctly received packets, and wherein the size of the bitmap field is determined to be greater than or equal to the value of the largest sequence number of correctly received packets minus the value of the lowest sequence number of the received plurality of packets that are unacknowledged by the apparatus plus one; generating , by the apparatus, a block acknowledgement, BA, frame comprising the bitmap field and an indication of the determined size of the bitmap field; and outputting the BA frame for transmission. receiving , by an apparatus, an indication of block acknowledgment, BA, parameters; determining , by the apparatus, a size of a bitmap field based on the indication of the BA parameters; receiving a plurality of packets from a wireless device, wherein determining the size of the bitmap field is based at least in part on a lowest sequence number of the received plurality of packets that are unacknowledged by the apparatus and a largest sequence number of correctly received packets, and wherein the size of the bitmap field is determined to be greater than or equal to the value of the largest sequence number of correctly received packets minus the value of the lowest sequence number of the received plurality of packets that are unacknowledged by the apparatus plus one; generating , by the apparatus, a block acknowledgement, BA, frame comprising the bitmap field and an indication of the determined size of the bitmap field; and outputting the BA frame for transmission.
Fiber optic module for installation within a patch panel , the fiber optic module comprising a first outer wall with a first rail profile on its outside surface, a second outer wall with a second rail profile on its outside surface, and at least one optical connector , wherein the first outer wall and the second outer wall run parallel to each other, and wherein the at least one optical connector is arranged between the first outer wall and the second outer wall , wherein the first rail profile and the second rail profile are complementary to each other such that the fiber optic module may be coupled to an adjacent fiber optic module , wherein the first rail profile of the fiber optic module may be coupled to the second rail profile of the adjacent fiber optic module , wherein the fiber optic module comprises at least one snap-in locking device for fixing the fiber optic module to the adjacent fiber optic module when the fiber optic modules are coupled to each other, characterized in that the snap-in locking device comprises a) a spring-loaded locking arm which protrudes from the first outer wall in extension of the longitudinal axis of the first outer wall , and a spring-loaded locking arm which protrudes from the second outer wall in extension of the longitudinal axis of the second outer wall ; and/or b) a latching cavity in one of the two rail profiles and an associated latch spring in the other rail profile . wherein the fiber optic module comprises at least one snap-in locking device for fixing the fiber optic module to the adjacent fiber optic module when the fiber optic modules are coupled to each other, characterized in that the snap-in locking device comprises a) a spring-loaded locking arm which protrudes from the first outer wall in extension of the longitudinal axis of the first outer wall , and a spring-loaded locking arm which protrudes from the second outer wall in extension of the longitudinal axis of the second outer wall ; and/or b) a latching cavity in one of the two rail profiles and an associated latch spring in the other rail profile . a) a spring-loaded locking arm which protrudes from the first outer wall in extension of the longitudinal axis of the first outer wall , and a spring-loaded locking arm which protrudes from the second outer wall in extension of the longitudinal axis of the second outer wall ; and/or b) a latching cavity in one of the two rail profiles and an associated latch spring in the other rail profile .
A CVD or PVD coating device with a housing and a gas inlet organ that is secured to the housing and has a gas outlet surface exhibiting gas outlet openings , with a retaining device secured to an upper section of the housing , to which the gas inlet organ is secured at a plurality of suspension points , wherein the temperature of the retaining device can be stabilized by means of an actively temperature controllable temperature control device , characterized in that the temperature control device is arranged between the gas inlet organ and retaining device as an actively cooled heat shield.
A method for the preparation of an edible allulose caramel comprising the steps of (a) providing an allulose composition, wherein the total content of saccharides including the content of allulose is at least 50 wt.-% relative to the total weight of the allulose composition; and wherein the allulose composition comprises an acid and/or a base; and (b) caramelizing at least a portion of the allulose that is contained in said allulose composition, wherein step (b) is performed until the obtained caramel has a EBC color intensity of at least 50. (a) providing an allulose composition, wherein the total content of saccharides including the content of allulose is at least 50 wt.-% relative to the total weight of the allulose composition; and wherein the allulose composition comprises an acid and/or a base; and (b) caramelizing at least a portion of the allulose that is contained in said allulose composition, wherein step (b) is performed until the obtained caramel has a EBC color intensity of at least 50.
Method for performing a wind direction measurement for a wind turbine , the method comprising: measuring plural samples of a relative wind direction (α) representing a difference angle between a real wind direction and an orientation of a measurement equipment , in particular a direction orthogonal to a rotor blade plane , to obtain plural measured relative wind directions (α'); deriving a measured relative wind direction change based on the measured relative wind directions (α'); measuring plural samples of a performance parameter indicating a performance of the wind turbine; deriving a performance change based on the plural samples of the performance parameter; determining a correlation value between the measured relative wind direction change and the performance change; measuring further plural samples of the relative wind direction; and correcting the further measured relative wind directions based on the correlation value, to obtain corrected further measured relative wind directions (α"). measuring plural samples of a relative wind direction (α) representing a difference angle between a real wind direction and an orientation of a measurement equipment , in particular a direction orthogonal to a rotor blade plane , to obtain plural measured relative wind directions (α'); deriving a measured relative wind direction change based on the measured relative wind directions (α'); measuring plural samples of a performance parameter indicating a performance of the wind turbine; deriving a performance change based on the plural samples of the performance parameter; determining a correlation value between the measured relative wind direction change and the performance change; measuring further plural samples of the relative wind direction; and correcting the further measured relative wind directions based on the correlation value, to obtain corrected further measured relative wind directions (α").
A method performed by a terminal in a communication system, the method comprising: receiving, from a base station, configuration information including a first power headroom report, PHR, configuration including a first prohibit timer and a second PHR configuration including a threshold and a second prohibit timer; identifying whether a PHR is triggered based on the configuration information; and transmitting , to the base station, the PHR in case that a power management maximum power reduction, P-MPR, value that is applied to meet a required value is greater than or equal to the threshold and the second prohibit timer is not running, wherein a field included in the PHR indicates the P-MPR value in case that a P field included in the PHR is set to 1, and wherein a length of the field is 2 bits. receiving, from a base station, configuration information including a first power headroom report, PHR, configuration including a first prohibit timer and a second PHR configuration including a threshold and a second prohibit timer; identifying whether a PHR is triggered based on the configuration information; and transmitting , to the base station, the PHR in case that a power management maximum power reduction, P-MPR, value that is applied to meet a required value is greater than or equal to the threshold and the second prohibit timer is not running, wherein a field included in the PHR indicates the P-MPR value in case that a P field included in the PHR is set to 1, and wherein a length of the field is 2 bits.
A method for utilising a managed pressure drilling valve in a managed pressure drilling operation, the method comprising calibrating the valve by: (i) opening the managed pressure drilling valve at least in part to a valve opening position; (ii) flowing a gas through the managed pressure drilling valve; (iii) measuring a velocity of the gas flow at an inlet of the managed pressure drilling valve; (iv) measuring a pressure drop of the gas flow across the managed pressure drilling valve; (v) calculating a discharge coefficient corresponding to the valve opening position from the measured velocity, the measured pressure drop, and a density of the gas flow at the inlet of the managed pressure drilling valve, the discharge coefficient being in accordance with a formula: C D = ΔP 1 2 ρU 2 where C D is the discharge coefficient, ΔP is the pressure drop across the valve, ρ is the density of the fluid at the inlet of the valve and U is the velocity of the fluid at the inlet of the valve; and (vi) repeating steps (i) through (v) for one or more additional valve opening positions; and using the calibrated valve to control a flow of drilling fluid in a managed pressure drilling operation to control the bottom hole pressure, the gas flowing through the valve in step (ii) and the drilling fluid being different materials. (i) opening the managed pressure drilling valve at least in part to a valve opening position; (ii) flowing a gas through the managed pressure drilling valve; (iii) measuring a velocity of the gas flow at an inlet of the managed pressure drilling valve; (iv) measuring a pressure drop of the gas flow across the managed pressure drilling valve; (v) calculating a discharge coefficient corresponding to the valve opening position from the measured velocity, the measured pressure drop, and a density of the gas flow at the inlet of the managed pressure drilling valve, the discharge coefficient being in accordance with a formula: C D = ΔP 1 2 ρU 2 where C D is the discharge coefficient, ΔP is the pressure drop across the valve, ρ is the density of the fluid at the inlet of the valve and U is the velocity of the fluid at the inlet of the valve; and (vi) repeating steps (i) through (v) for one or more additional valve opening positions; and using the calibrated valve to control a flow of drilling fluid in a managed pressure drilling operation to control the bottom hole pressure, the gas flowing through the valve in step (ii) and the drilling fluid being different materials.
A computer-implemented method for querying data from data sources , the method comprising: (a) receiving a first query request; (b) generating a first query statement corresponding to the first query request, the first query statement identifying: (i) at least one first data source; (ii) at least one first target field; (iii) first query parameters; and (iv) a plurality of nested operations having associated attributes; (c) executing the first query statement by: (v) accessing the at least one first data source using the first query parameters; (vi) retrieving data from a given field in the at least one first data source in accordance with at least one of the nested operations; and (vii) transforming retrieved data into at least one target result in accordance with remaining ones of the nested operations; and (d) generating a first query result by populating the at least one target field with the at least one target result, wherein generating the first query statement comprises using recursive data transformation steps to define the steps of (v) accessing, (vi) retrieving, and (vii) transforming, in order to obtain the at least one target result, wherein generating the first query result further comprises displaying returned values for each one of the recursive data transformation steps in order to find a bug in the querying data from data sources, wherein executing the first query statement further comprises filtering at least one of retrieved data and transformed data, and wherein filtering comprises automatically determining whether the filtering is applied to the retrieved data or the transformed data. (a) receiving a first query request; (b) generating a first query statement corresponding to the first query request, the first query statement identifying: (i) at least one first data source; (ii) at least one first target field; (iii) first query parameters; and (iv) a plurality of nested operations having associated attributes; (i) at least one first data source; (ii) at least one first target field; (iii) first query parameters; and (iv) a plurality of nested operations having associated attributes; (c) executing the first query statement by: (v) accessing the at least one first data source using the first query parameters; (vi) retrieving data from a given field in the at least one first data source in accordance with at least one of the nested operations; and (vii) transforming retrieved data into at least one target result in accordance with remaining ones of the nested operations; and (v) accessing the at least one first data source using the first query parameters; (vi) retrieving data from a given field in the at least one first data source in accordance with at least one of the nested operations; and (vii) transforming retrieved data into at least one target result in accordance with remaining ones of the nested operations; and (d) generating a first query result by populating the at least one target field with the at least one target result,
A method for coloring an optical element in a non-uniform linear pattern, the method comprising: (a) preparing at least one colorant composition comprising at least one photochromic material; (b) depositing the colorant composition on at least one surface of the optical element in a controlled predetermined pattern using an inkjet printing apparatus so as to provide a linearly gradient color pattern on the optical element upon exposure of the optical element to actinic radiation; and (c) drying the colorant composition on the surface of the optical element, wherein the method further comprises leveling the colorant composition during the depositing step (b) or immediately thereafter, but prior to the drying step (c). (a) preparing at least one colorant composition comprising at least one photochromic material; (b) depositing the colorant composition on at least one surface of the optical element in a controlled predetermined pattern using an inkjet printing apparatus so as to provide a linearly gradient color pattern on the optical element upon exposure of the optical element to actinic radiation; and (c) drying the colorant composition on the surface of the optical element, wherein the method further comprises leveling the colorant composition during the depositing step (b) or immediately thereafter, but prior to the drying step (c).
Device for coating a surface , preferably a narrow surface, of a preferably plate-shaped or bar-shaped workpiece with a preferably strip-shaped cover material , comprising at least one adhesive strip coating device by which the workpiece surface can be pre-coated with at least one adhesive strip , and at least one cover material coating device by which the workpiece surface that has been pre-coated with the at least one adhesive strip can be coated with the cover material , wherein the at least one adhesive strip coating device comprises at least one preferably drivable conveying roller by which the at least one adhesive strip can be conveyed in the direction of the workpiece surface , and/or comprises at least one contact pressure roller by which the at least one adhesive strip can be pressed, preferably for the first time, against the workpiece surface , characterized in that - the at least one conveying roller is formed such that its position relative to the at least one adhesive strip is adjustable, wherein the position of the at least one conveying roller is adjustable such that contact with the at least one adhesive strip can be broken as soon as a region of the at least one adhesive strip adheres to the workpiece surface , and/or - the at least one contact pressure roller is formed such that its position relative to the at least one adhesive strip and/or the workpiece surface is adjustable, wherein the position of the at least one contact pressure roller is adjustable such that contact can be made with the at least one adhesive strip as or immediately after a region of the at least one adhesive strip first adheres to the workpiece surface . - the at least one conveying roller is formed such that its position relative to the at least one adhesive strip is adjustable, wherein the position of the at least one conveying roller is adjustable such that contact with the at least one adhesive strip can be broken as soon as a region of the at least one adhesive strip adheres to the workpiece surface , and/or - the at least one contact pressure roller is formed such that its position relative to the at least one adhesive strip and/or the workpiece surface is adjustable, wherein the position of the at least one contact pressure roller is adjustable such that contact can be made with the at least one adhesive strip as or immediately after a region of the at least one adhesive strip first adheres to the workpiece surface .