mhurhangee/patent-ind-claim-en huggingface dataset:
A method of generating a single-stranded DNA (ssDNA) molecule comprising: (a) providing a mixture comprising: (i) a nucleic acid molecule comprising: a 5' leader region comprising a lengthener region, a terminator region, and a forward primer region; a variable region positioned 3' of the leader region; and a tail region positioned 3' of the variable region and comprising a reverse primer region; and (ii) forward and reverse primers configured to amplify the nucleic acid molecule from the forward primer region and reverse primer region, respectively, wherein the forward primer comprises the terminator region and the lengthener region, and the forward and reverse primers in the mixture are at a ratio of at least about 1:5 (F/R) in favor of the reverse primers; and (b) performing asymmetric polymerase chain reaction (PCR) on the mixture in a) to favorably amplify the reverse strand of the nucleic acid molecule; thereby generating the ssDNA molecule. (a) providing a mixture comprising: (i) a nucleic acid molecule comprising: a 5' leader region comprising a lengthener region, a terminator region, and a forward primer region; a variable region positioned 3' of the leader region; and a tail region positioned 3' of the variable region and comprising a reverse primer region; and (ii) forward and reverse primers configured to amplify the nucleic acid molecule from the forward primer region and reverse primer region, respectively, wherein the forward primer comprises the terminator region and the lengthener region, and the forward and reverse primers in the mixture are at a ratio of at least about 1:5 (F/R) in favor of the reverse primers; and (i) a nucleic acid molecule comprising: a 5' leader region comprising a lengthener region, a terminator region, and a forward primer region; a variable region positioned 3' of the leader region; and a tail region positioned 3' of the variable region and comprising a reverse primer region; and a 5' leader region comprising a lengthener region, a terminator region, and a forward primer region; a variable region positioned 3' of the leader region; and a tail region positioned 3' of the variable region and comprising a reverse primer region; and (ii) forward and reverse primers configured to amplify the nucleic acid molecule from the forward primer region and reverse primer region, respectively, wherein the forward primer comprises the terminator region and the lengthener region, and the forward and reverse primers in the mixture are at a ratio of at least about 1:5 (F/R) in favor of the reverse primers; and (b) performing asymmetric polymerase chain reaction (PCR) on the mixture in a) to favorably amplify the reverse strand of the nucleic acid molecule; thereby generating the ssDNA molecule.
A textile assembly comprising a first textile, characterized in that the assembly further comprises a composite coating on the first textile, wherein the composite coating is made from a composite material comprising a polymer matrix and a particulate addition, wherein the particulate addition comprises: 1-100% silica aerogel particles by volume of the particulate addition, and 0-99% microspheres by volume of the particulate addition. 1-100% silica aerogel particles by volume of the particulate addition, and 0-99% microspheres by volume of the particulate addition.
A memory component , comprising: a first interface to receive, from a controller , an activate command, an access command, and associated address information, the activate command associated with a first bank address value and a row address value, the access command associated with a second bank address value and a column address value; a second interface to communicate, with the controller , data associated with the access command; error detection code (EDC) calculation circuitry to calculate a first EDC value based on the first bank address value and the row address value, and to calculate a second EDC value based on the second bank address value and the column address value, and to calculate a third EDC value based on data communicated via the second interface; circuitry to associate the second bank address value with stored activate command information, the stored activate command information to be based on the row address; code combination circuitry to calculate a fourth EDC value based on the first EDC value, the second EDC value, and the third EDC value; a third interface to transmit error detection information, the error detection information to include the fourth EDC value. a first interface to receive, from a controller , an activate command, an access command, and associated address information, the activate command associated with a first bank address value and a row address value, the access command associated with a second bank address value and a column address value; a second interface to communicate, with the controller , data associated with the access command; error detection code (EDC) calculation circuitry to calculate a first EDC value based on the first bank address value and the row address value, and to calculate a second EDC value based on the second bank address value and the column address value, and to calculate a third EDC value based on data communicated via the second interface; circuitry to associate the second bank address value with stored activate command information, the stored activate command information to be based on the row address; code combination circuitry to calculate a fourth EDC value based on the first EDC value, the second EDC value, and the third EDC value; a third interface to transmit error detection information, the error detection information to include the fourth EDC value.
Valve, in particular suction valve , in a high-pressure pump of a fuel injection system, which has a valve element which is movable between an open position and a closed position, with an actuating element which is at least indirectly in mechanical contact with the valve element and by means of which an actuating force can be transmitted to the valve element , wherein, in the region of the mechanical contact between valve element and actuating element , the mechanical contact between valve element and actuating element is interrupted in a zone in which cavitation can occur, wherein a mechanical contact between the two elements in the zone in which cavitation can occur is avoided by means of a trough-shaped recess on the actuating element and on the valve element , and wherein a trough-shaped recess is provided in each case in the actuating element and in the valve element , characterized in that the respective recesses are formed differently, in particular not congruently.
Plough having an elongate plough frame on which a plurality of ploughshares are arranged in succession in a row, for turning soil of an associated clod in a field by pulling the plough in a ploughing direction, characterised in that an application device for applying a bulk material is provided on the plough , wherein the application of the bulk material is carried out pneumatically and the application device is configured with an associated application pipe for each ploughshare , the mouth of each application pipe being located in the immediate vicinity of the respective associated ploughshare .
Method for reconstructing a picture from a datastream into which the picture is coded in units of slices into which the picture is partitioned, wherein the method comprises decoding the slices from the datastream in accordance with a slice order and the method is responsive to a syntax element portion within a current slice of the slices, so as to decode the current slice in accordance with one of at least two modes , wherein in accordance with a first of the at least two modes, the current slice is decoded from the datastream using context adaptive entropy decoding including a derivation of contexts across slice boundaries, a continuous update of symbol probabilities of the contexts and an initialization of the symbol probabilities depending on saved states of symbol probabilities of a previously decoded slice, and predictive decoding across the slice boundaries, and in accordance with a second of the at least two modes, the current slice is decoded from the datastream using context adaptive entropy decoding with restricting the derivation of the contexts so as to not cross the slice boundaries, a continuous update of symbol probabilities of the contexts and an initialization of the symbol probabilities independent on any previously decoded slice, and predictive decoding with restricting the predictive decoding so as to not cross the slice boundaries, wherein the picture is partitioned in coding blocks arranged in rows and columns and having a raster scan order defined among each other, and the method comprises associating each slice with a continuous subset of the coding blocks in the raster scan order so that the subsets follow each other along the raster scan order in accordance with the slice order, and wherein the method comprises saving symbol probabilities as obtained in context adaptive entropy decoding the previously decoded slice up to a second coding block in a row in accordance with the raster scan order , and, in initializing the symbol probabilities for the context adaptive entropy decoding of the current slice in accordance with the first mode, checking as to whether a first coding block of the continuous subset of coding blocks associated with the current slice is a first coding block in a row in accordance with the raster scan order, and, if so, initializing the symbol probabilities for the context adaptive entropy decoding of the current slice depending on the saved symbol probabilities as obtained in context adaptive entropy decoding the previously decoded slice up to a second coding block in a row in accordance with the raster scan order , and, if not, initializing the symbol probabilities for the context adaptive entropy decoding of the current slice depending on symbol probabilities as obtained in context adaptive entropy decoding the previously decoded slice up to the end of the previously decoded slice, wherein, in the first and second mode, the predictive decoding is restricted within tiles into which the picture is sub-divided.
A product removal apparatus comprising a gas supplier configured to supply a gas containing hydrogen halide, fluorine, chlorine, chlorine trifluoride, or fluorine radicals to a vacuum pump , characterized in that the product removal apparatus further comprises: a sensor configured to measure temperature of an inside of the vacuum pump , thickness of a film of a product in a flow path in the vacuum pump , vibration frequency of the vacuum pump , or any combination thereof; and a control device , wherein the control device configured to control the gas supplier so that supply of the gas to the vacuum pump is stopped depending on a rate of temperature increase calculated from the temperature measured by the sensor , depending on the thickness measured by the sensor , depending on the vibration frequency measured by the sensor , or depending on any combination thereof. a gas supplier configured to supply a gas containing hydrogen halide, fluorine, chlorine, chlorine trifluoride, or fluorine radicals to a vacuum pump , characterized in that the product removal apparatus further comprises: a sensor configured to measure temperature of an inside of the vacuum pump , thickness of a film of a product in a flow path in the vacuum pump , vibration frequency of the vacuum pump , or any combination thereof; and a control device , wherein the control device configured to control the gas supplier so that supply of the gas to the vacuum pump is stopped depending on a rate of temperature increase calculated from the temperature measured by the sensor , depending on the thickness measured by the sensor , depending on the vibration frequency measured by the sensor , or depending on any combination thereof. a sensor configured to measure temperature of an inside of the vacuum pump , thickness of a film of a product in a flow path in the vacuum pump , vibration frequency of the vacuum pump , or any combination thereof; and a control device , wherein the control device configured to control the gas supplier so that supply of the gas to the vacuum pump is stopped depending on a rate of temperature increase calculated from the temperature measured by the sensor , depending on the thickness measured by the sensor , depending on the vibration frequency measured by the sensor , or depending on any combination thereof.
A well barrier , comprising: an annular seal element ; an anti-extrusion backup having radially inward and radially outward portions ; and a biasing device that exerts a biasing force against the radially outward portion of the anti-extrusion backup , characterized in that the anti-extrusion backup retracts radially inward in response to the biasing force applied to the radially outward portion of the anti-extrusion backup . an annular seal element ; an anti-extrusion backup having radially inward and radially outward portions ; and a biasing device that exerts a biasing force against the radially outward portion of the anti-extrusion backup , characterized in that the anti-extrusion backup retracts radially inward in response to the biasing force applied to the radially outward portion of the anti-extrusion backup .
Process for the production of a fragmentation projectile (1-1") partially consisting of defined nearly form fitting segments (F A ,F B ;F1-F3) of medium to high density, having connecting spots between consecutive longitudinally and/or radially oriented segments (F A ,F B ;F1-F3), whereby said segments (F A ,F B ;F1-F3) and spots are produced by additive manufacturing (AM), so that the segments (F A ,F B ;F1-F3) are nearly form fitting and partly material fitting to keep together to form a compact projectile (1-1") until its impact on the target.
A method for uplink-based mobility at a user equipment, UE, comprising: identifying , while the UE is in a connected mode with a network, a radio resource configuration of the UE; selecting a dedicated set of resources for the UE or a common set of resources for a plurality of UEs based at least in part on the identified radio resource configuration; transmitting a pilot signal to the network using the selected set of resources; receiving a keep alive signal using the selected set of resources; and identifying a serving cell for the UE based at least in part on the keep alive signal received from the serving cell, the keep alive signal being received from the serving cell based at least in part on the pilot signal being transmitted to the serving cell. identifying , while the UE is in a connected mode with a network, a radio resource configuration of the UE; selecting a dedicated set of resources for the UE or a common set of resources for a plurality of UEs based at least in part on the identified radio resource configuration; transmitting a pilot signal to the network using the selected set of resources; receiving a keep alive signal using the selected set of resources; and identifying a serving cell for the UE based at least in part on the keep alive signal received from the serving cell, the keep alive signal being received from the serving cell based at least in part on the pilot signal being transmitted to the serving cell.
A combined counterweight hitching device mounted on a turntable tail framework , wherein the combined counterweight hitching device comprises a turntable tail framework bottom plate , a lifting oil cylinder , a lifting oil cylinder fixing seat and a hitching driving mechanism, the turntable tail framework bottom plate is fixed on the turntable tail framework , the lifting oil cylinder fixing seat is arranged on a upper surface of the turntable tail framework bottom plate characterised in that the lifting oil cylinder fixing seat is hinged with the turntable tail framework bottom plate , the lifting oil cylinder is fixed at one end of the lifting oil cylinder fixing seat, the one end being distal to a point on which the lifting oil cylinder fixing seat is hinged with the turntable tail framework bottom plate , a hitching platform is mounted at a piston rod end of the lifting oil cylinder , and the hitching driving mechanism is connected with the lifting oil cylinder fixing seat, and drives the lifting oil cylinder fixing seat to make the hitching platform enter a hitching platform groove on the counterweight to complete a hitching operation.
Use of a compound of formula I for protecting plants by means of stomatal closure.
A direction-selective interferometric optical filter for spectrometric devices, at least comprising an arrangement of two layered one-dimensional photonic structures , wherein each of the two structures contains a defect layer , wherein each photonic structure has a dispersion function f1 , f2 in energy-momentum-space (E, k x , k y ), wherein k x and k y represent the momentum components of transmitted photons of the photonic structures for a specific energy of the photons E in energy-momentum space (E, k x , k y ), wherein both photonic structures have opposite interfaces at a plane-parallel distance (D D ) from one another, the plane-parallel distance (D D ) being selected such that the two photonic structures are coherently decoupled, characterized in that the dispersion functions f1 , f2 of both photonic structures cross or intersect in energy-momentum space (E, k x , k y ) and produce an intersection (A) of light beams of waves on the surfaces of the dispersion functions f1 , f2 at a particular energy (E), wherein a light beam from the intersection (A) of waves contains waves selectively chosen through the filter at an angle, while other waves are reflected by the filter at other angles.
A supported polymerisation catalyst system comprising (a) a metallocene complex (b) a cocatalyst (c) a porous support, and (d) a polymerisable monomer characterised in that the porous support has been pretreated with (i) a trialkylaluminium compound and (ii) a hydroxy compound. (a) a metallocene complex (b) a cocatalyst (c) a porous support, and (d) a polymerisable monomer
A method of assembling together titanium parts and steel parts by diffusion welding, the method being characterized in that it comprises steps consisting in: ▪ interposing two thin metal layers between a titanium part and a steel part , the two metal layers comprising a thin layer or thin foil of niobium or vanadium, facing the titanium, and a thin layer or thin foil of copper, facing the steel; ▪ putting under vacuum the assembly comprising the two parts and the two interposed metal layers; and · subjecting said assembly to a hot isostatic compression, characterized in that the hot isostatic compression is followed by a controlled cooling and realized at a temperature comprised in the range 900°C to 950°C, and at a pressure comprised in the range 1000 bars to 1500 bars. ▪ interposing two thin metal layers between a titanium part and a steel part , the two metal layers comprising a thin layer or thin foil of niobium or vanadium, facing the titanium, and a thin layer or thin foil of copper, facing the steel; ▪ putting under vacuum the assembly comprising the two parts and the two interposed metal layers; and · subjecting said assembly to a hot isostatic compression,
An adapter for use in combination with a fuel cell having a closure formation, said adapter comprising: a fuel cell closure ring engageable upon the closure formation of the fuel cell, the fuel cell closure ring including a top edge, a bottom edge, and a sidewall therebetween having an inner sidewall surface and an outer sidewall surface , said inner sidewall surface defining a groove , having a primary recess in communication with said groove, and having a secondary recess in communication with said groove; and a metering valve having a body , a depending first leg with a radially extending foot formation configured for engaging said groove, and a first supplemental locking lug located on said first leg and configured and arranged for engaging said secondary recess. a fuel cell closure ring engageable upon the closure formation of the fuel cell, the fuel cell closure ring including a top edge, a bottom edge, and a sidewall therebetween having an inner sidewall surface and an outer sidewall surface , said inner sidewall surface defining a groove , having a primary recess in communication with said groove, and having a secondary recess in communication with said groove; and a metering valve having a body , a depending first leg with a radially extending foot formation configured for engaging said groove, and a first supplemental locking lug located on said first leg and configured and arranged for engaging said secondary recess.
A mixing method for the preparation of a cosmetic product using a manufacturing apparatus comprising a mixing machine comprising a support defining a receiving housing , the receiving housing comprising a first receiving location configured to receive a first deformable capsule and a second receiving location , configured to receive a second deformable capsule , the first and second capsules being intended to be fluidly linked to each other and containing respectively a first formulation and a second formulation, wherein the manufacturing apparatus comprises an actuation system configured to transmit a pressure force to the first and second capsules in order to move the content of the first capsule in the second capsule , and vice versa, the mixing machine comprising a heater element configured to heat at least one of the first and second capsules when the first and second capsules are received in the mixing machine , characterized in that the method comprises the following successive steps: - heating step (Em3) and/or kneading step (Em4, Em5, Em6) comprising, alternately or simultaneously, setting in motion of the actuation system and heating by means of the heater element , - step of maintaining the temperature (Er3) by means of the heater element at a withdrawal temperature (Tr), the withdrawal temperature (Tr) corresponding to a temperature (Er3) of the heater element being comprised between 55°C and 60°C or being such that the temperature of the content of the first capsule and/or of the second capsule is comprised between 35°C and 50°C. wherein the manufacturing apparatus comprises an actuation system configured to transmit a pressure force to the first and second capsules in order to move the content of the first capsule in the second capsule , and vice versa, the mixing machine comprising a heater element configured to heat at least one of the first and second capsules when the first and second capsules are received in the mixing machine , characterized in that the method comprises the following successive steps: - heating step (Em3) and/or kneading step (Em4, Em5, Em6) comprising, alternately or simultaneously, setting in motion of the actuation system and heating by means of the heater element , - step of maintaining the temperature (Er3) by means of the heater element at a withdrawal temperature (Tr), the withdrawal temperature (Tr) corresponding to a temperature (Er3) of the heater element being comprised between 55°C and 60°C or being such that the temperature of the content of the first capsule and/or of the second capsule is comprised between 35°C and 50°C. - heating step (Em3) and/or kneading step (Em4, Em5, Em6) comprising, alternately or simultaneously, setting in motion of the actuation system and heating by means of the heater element , - step of maintaining the temperature (Er3) by means of the heater element at a withdrawal temperature (Tr), the withdrawal temperature (Tr) corresponding to a temperature (Er3) of the heater element being comprised between 55°C and 60°C or being such that the temperature of the content of the first capsule and/or of the second capsule is comprised between 35°C and 50°C.
An antibody for use in a method of treating a fetal and neonatal alloimmune and/or autoimmune disorder, the method comprising administering the antibody to a pregnant subject, wherein the antibody comprises: a polypeptide having the amino acid sequence of SEQ ID NO: 19 and a polypeptide having the amino acid sequence of SEQ ID NO: 24.