mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a nitrile compound represented by the formula comprising the following step 1 and step 2B: step 1: a step of subjecting a compound represented by the formula to the Willgerodt reaction in the presence of an additive as necessary to give a compound represented by the formula and hydrolyzing and thereafter neutralizing the obtained compound to give a carboxylic acid compound represented by the formula step 2B: a step of reacting the carboxylic acid compound represented by the formula , obtained in the aforementioned step 1, with thionyl chloride and sulfamide in the presence of a catalyst as necessary in an organic solvent to give a nitrile compound represented by the aforementioned formula , wherein the amount of thionyl chloride is 1 mol to 3 mol and the amount of sulfamide is 1 mol to 3 mol, per 1 mol of the carboxylic acid compound represented by the formula , and the amount of sulfamide is 5% to 15% larger than the amount of thionyl chloride. step 1: a step of subjecting a compound represented by the formula to the Willgerodt reaction in the presence of an additive as necessary to give a compound represented by the formula and hydrolyzing and thereafter neutralizing the obtained compound to give a carboxylic acid compound represented by the formula step 2B: a step of reacting the carboxylic acid compound represented by the formula , obtained in the aforementioned step 1, with thionyl chloride and sulfamide in the presence of a catalyst as necessary in an organic solvent to give a nitrile compound represented by the aforementioned formula , wherein the amount of thionyl chloride is 1 mol to 3 mol and the amount of sulfamide is 1 mol to 3 mol, per 1 mol of the carboxylic acid compound represented by the formula , and the amount of sulfamide is 5% to 15% larger than the amount of thionyl chloride.
An aircraft windshield comprising: a plurality of sheets joined together to provide a laminated window having a vision area, the window having a moisture seal on the peripheral and marginal edge portions of the sheets ; a moisture sensor positioned between the sheets and/or between the sheets and the moisture seal , wherein the moisture sensor comprises a dielectric member comprising a dielectric material between a first electrode and a second electrode , wherein the dielectric material is a dielectric material that increases in electrical impedance as the moisture absorbed by the dielectric material increases, the dielectric member being in electrical contact with the first and second electrodes and maintaining the first and the second electrodes spaced from one another and out of surface contact with one another, and sensor electronics operatively connected to the electrodes of the sensor to measure an electrical property of the sensor to determine an amount of moisture absorbed by the dielectric material , wherein said sensor electronics are configured to apply alternating electrical current to the first and the second electrodes and measure the complex impedance (ohms) of the dielectric material for determining the amount of moisture within the laminated windshield in the area of the moisture sensor . a plurality of sheets joined together to provide a laminated window having a vision area, the window having a moisture seal on the peripheral and marginal edge portions of the sheets ; a moisture sensor positioned between the sheets and/or between the sheets and the moisture seal , wherein the moisture sensor comprises a dielectric member comprising a dielectric material between a first electrode and a second electrode , wherein the dielectric material is a dielectric material that increases in electrical impedance as the moisture absorbed by the dielectric material increases, the dielectric member being in electrical contact with the first and second electrodes and maintaining the first and the second electrodes spaced from one another and out of surface contact with one another, and sensor electronics operatively connected to the electrodes of the sensor to measure an electrical property of the sensor to determine an amount of moisture absorbed by the dielectric material , wherein said sensor electronics are configured to apply alternating electrical current to the first and the second electrodes and measure the complex impedance (ohms) of the dielectric material for determining the amount of moisture within the laminated windshield in the area of the moisture sensor .
A method performed by a terminal device, the method comprising: obtaining (S101) a first configuration indicating Type 1 common search space, C-SS, for a first physical downlink control channel, PDCCH; transmitting (S102) a message A for requesting a random access, RA, wherein the message A includes a random access channel, RACH, preamble and a physical uplink shared channel, PUSCH; monitoring (S103) the first PDCCH, based on the Type 1 C-SS; receiving (S104) a message B on a physical downlink shared channel, PDSCH, based on information in the first PDCCH obtained during the monitoring; obtaining (S105) a second different configuration for a second physical downlink control channel, PDCCH; monitoring (S106) the second PDCCH, based on the second different configuration; and receiving (S107) a random access response, RAR on a physical downlink shared channel, PDSCH, based on information in the second PDCCH, when the first PDCCH is not obtained and the second PDCCH is obtained during the monitoring; wherein the RAR is for a four-step random access procedure. obtaining (S101) a first configuration indicating Type 1 common search space, C-SS, for a first physical downlink control channel, PDCCH; transmitting (S102) a message A for requesting a random access, RA, wherein the message A includes a random access channel, RACH, preamble and a physical uplink shared channel, PUSCH; monitoring (S103) the first PDCCH, based on the Type 1 C-SS; receiving (S104) a message B on a physical downlink shared channel, PDSCH, based on information in the first PDCCH obtained during the monitoring; obtaining (S105) a second different configuration for a second physical downlink control channel, PDCCH; monitoring (S106) the second PDCCH, based on the second different configuration; and receiving (S107) a random access response, RAR on a physical downlink shared channel, PDSCH, based on information in the second PDCCH, when the first PDCCH is not obtained and the second PDCCH is obtained during the monitoring; wherein the RAR is for a four-step random access procedure.
A method of quantifying a polynucleotide analyte present in a fluid blood sample that dried to produce a dried blood spot (DBS), the method comprising the steps of: (a) performing a nucleic acid amplification reaction using the DBS as a source of templates to produce amplification products and obtain a measured result, the measured result indicating a concentration or an amount of the polynucleotide analyte; and (b) multiplying the measured result by a correction factor to obtain a corrected result, wherein the correction factor is the solution to an equation that specifies the correction factor as a function of the measured result, and wherein the equation comprises a non-linear equation, thereby quantifying the polynucleotide analyte present in the fluid blood sample. (a) performing a nucleic acid amplification reaction using the DBS as a source of templates to produce amplification products and obtain a measured result, the measured result indicating a concentration or an amount of the polynucleotide analyte; and (b) multiplying the measured result by a correction factor to obtain a corrected result, wherein the correction factor is the solution to an equation that specifies the correction factor as a function of the measured result, and wherein the equation comprises a non-linear equation, thereby quantifying the polynucleotide analyte present in the fluid blood sample.
A telescopic assembly comprising a spring unit , preferably a gas spring, arranged in a cylinder , a piston rod being connected at one end to said spring unit and having a free end projecting out of the cylinder at one end thereof, and a locking device having a first end connected to said free end , a second end slidably riding on said cylinder , and stop means (20; 21) positioned at least at or near its second end, said second end of said locking device being positioned at or near said one end of said cylinder in an extended position of the telescopic assembly , the locking device comprising a force element urging said stop means (20; 21) against said said one end of said cylinder , wherein said locking device further comprises a control device for releasing said locking device , said control device comprising a release element arranged in such a way as to be movable between a first position in which said release element is inactive and a second position in which said release element counteracts the effect of said force element thus allowing said spring unit to be compressed, character- ized in that said control device further comprises an operating device for operating said release element , and that said operating device comprises a contact surface adapted for being brought into contact with said release element when said operating device is operated such as to cause said release element to move between said first position and said second position.
A method for manufacturing an intermittent bonding type optical fiber ribbon in which a plurality of coated optical fibers (1, 1a - 1h) are arranged in parallel to each other and intermittent connection portions intermittently connecting adjacent coated optical fibers (1, 1a - 1h) to each other in a length direction are formed by pulsed laser light, the method comprising: a step of forming the coated optical fibers (1, 1a - 1h) into a ribbon by using a resin composition which does not contain a laser light absorbing component which absorbs the laser light; a step of forming laser light absorbing portions by applying a resin composition containing a laser light absorbing component which absorbs the laser light to portions at which non-connection portions between adjacent coated optical fibers (1, 1a - 1h) are to be formed, and a step of forming the non-connection portions between adjacent coated optical fibers (1, 1a - 1h) by irradiating, with pulsed laser light, the laser light absorbing portions to intermittently form the non-connection portions at which the adjacent coated optical fibers (1, 1a - 1h) are not connected to each other in the length direction, wherein the laser light absorbing portions are cut in a direction orthogonal to the length direction thereby forming the non-connection portion which is a portion at which the adjacent coated optical fibers are not connected to each other in the length direction. a step of forming the coated optical fibers (1, 1a - 1h) into a ribbon by using a resin composition which does not contain a laser light absorbing component which absorbs the laser light; a step of forming laser light absorbing portions by applying a resin composition containing a laser light absorbing component which absorbs the laser light to portions at which non-connection portions between adjacent coated optical fibers (1, 1a - 1h) are to be formed, and a step of forming the non-connection portions between adjacent coated optical fibers (1, 1a - 1h) by irradiating, with pulsed laser light, the laser light absorbing portions to intermittently form the non-connection portions at which the adjacent coated optical fibers (1, 1a - 1h) are not connected to each other in the length direction, wherein the laser light absorbing portions are cut in a direction orthogonal to the length direction thereby forming the non-connection portion which is a portion at which the adjacent coated optical fibers are not connected to each other in the length direction.
A power consumption control method, wherein the method comprises: detecting (S101), by a terminal device, a screen state and data traffic of the terminal device; and switching (S102) the terminal device from a normal working mode to a low power mode when the screen state is a screen-off state and the data traffic is less than or equal to a preset traffic threshold; wherein in the low power mode, the terminal device does not receive downlink data, and a current in a radio frequency path of the terminal device drops to a preset current, the preset current being less than a current value of the radio frequency path in the normal working mode, characterized in that in the low power mode, the terminal device turns off radio frequency of the radio frequency path after completing receiving of downlink control information, DCI, within each transmission time interval, TTI, and before a DCI parsing (S604) is completed, wherein the DCI is used to indicate whether downlink data needs to be received, wherein when a result of the DCI parsing indicates that no downlink data needs to be transmitted, the terminal device remains in the low power mode, and when a result of the DCI parsing indicates that downlink data needs to be transmitted, the terminal device switches (S605) from the low power mode back to the normal working mode to receive the downlink data. detecting (S101), by a terminal device, a screen state and data traffic of the terminal device; and switching (S102) the terminal device from a normal working mode to a low power mode when the screen state is a screen-off state and the data traffic is less than or equal to a preset traffic threshold; wherein in the low power mode, the terminal device does not receive downlink data, and a current in a radio frequency path of the terminal device drops to a preset current, the preset current being less than a current value of the radio frequency path in the normal working mode, characterized in that in the low power mode, the terminal device turns off radio frequency of the radio frequency path after completing receiving of downlink control information, DCI, within each transmission time interval, TTI, and before a DCI parsing (S604) is completed, wherein the DCI is used to indicate whether downlink data needs to be received, wherein when a result of the DCI parsing indicates that no downlink data needs to be transmitted, the terminal device remains in the low power mode, and when a result of the DCI parsing indicates that downlink data needs to be transmitted, the terminal device switches (S605) from the low power mode back to the normal working mode to receive the downlink data.
A resource configuration method, comprising: configuring , by a base station, M channel quality measurement processes for a user equipment UE in N time units in a time unit set, wherein each channel quality measurement process is corresponding to one piece of reference signal configuration information, the reference signal configuration information is used by the UE to perform channel quality measurement based on a configured reference signal, the M channel quality measurement processes comprise L types of channel quality measurement processes, each type of channel quality measurement process comprises a maximum of N channel quality measurement processes, and L<=M<=L*N, characterized in that the time unit set is notified by the base station to the UE by using a control channel.
A protection device for a door leaf for a vehicle , the protection device having the following features: a main body that has a fastening side for fastening the main body to the door leaf and a sealing side opposite the fastening side and comprises a first outer portion and a second outer portion , the first outer portion and the second outer portion extending between the sealing side and the fastening side ; a plunger that is arranged on the sealing side ; a switching device , the switching device having a first switching element that is connected to the plunger and a second switching element that is connected to the main body , the first switching element and the second switching element making contact as a result of a switching movement; and a suspension bracket that movably connects the plunger to the main body , the suspension bracket having a first web that is designed to connect the plunger to the first outer portion , the suspension bracket having a second web that is designed to connect the plunger to the second outer portion , and the suspension bracket being designed to effect the switching movement of the plunger in the direction of the fastening side in response to an external force acting on a free end of the plunger , characterised in that the suspension bracket is designed to deflect a compressive force created by the application of force on the outer side of the first outer portion into a movement force acting in a direction of extension of the plunger in order to cause an evasive movement of the plunger away from the fastening side . a main body that has a fastening side for fastening the main body to the door leaf and a sealing side opposite the fastening side and comprises a first outer portion and a second outer portion , the first outer portion and the second outer portion extending between the sealing side and the fastening side ; a plunger that is arranged on the sealing side ; a switching device , the switching device having a first switching element that is connected to the plunger and a second switching element that is connected to the main body , the first switching element and the second switching element making contact as a result of a switching movement; and a suspension bracket that movably connects the plunger to the main body , the suspension bracket having a first web that is designed to connect the plunger to the first outer portion , the suspension bracket having a second web that is designed to connect the plunger to the second outer portion , and the suspension bracket being designed to effect the switching movement of the plunger in the direction of the fastening side in response to an external force acting on a free end of the plunger ,
Multi-layer floor equipment, suitable for sports and leisure activities, said multi-layer floor equipment comprising: - a bottom, backing layer , - at least one interlayer mattress , made of an elastomer material and delimiting at least one sealed chamber intended to be filled with a fluid, - a top layer , suitable for aesthetic and/or technical cladding of said multi-layer floor equipment , said backing layer forming an interface between the floor (S) and the overlying layers , said interlayer mattress including a peripheral strip that is attached to the backing layer , said surface of the interlayer mattress being lower than the surface of the backing layer and than the surface of the top layer , said multi-layer floor equipment also comprises at least one elastic layer , solid and made of an elastomeric material. - a bottom, backing layer , - at least one interlayer mattress , made of an elastomer material and delimiting at least one sealed chamber intended to be filled with a fluid, - a top layer , suitable for aesthetic and/or technical cladding of said multi-layer floor equipment , said backing layer forming an interface between the floor (S) and the overlying layers , said interlayer mattress including a peripheral strip that is attached to the backing layer , said surface of the interlayer mattress being lower than the surface of the backing layer and than the surface of the top layer , said multi-layer floor equipment also comprises at least one elastic layer , solid and made of an elastomeric material.
An injection molding machine comprising: a movable part ; a drive part that moves the movable part ; and a control unit that is configured to control the drive part , characterized in that the control unit is configured - to create, in a velocity versus time diagram, speed patterns in polygonal lines wherein inclinations prepared in advance are used when changing speed; - to gradually reduce acceleration of the movable part , to then not make the acceleration into zero, and to subsequently gradually increase the acceleration, during the acceleration of increasing the speed of the movable part in a predetermined direction. a movable part ; a drive part that moves the movable part ; and a control unit that is configured to control the drive part , characterized in that the control unit is configured - to create, in a velocity versus time diagram, speed patterns in polygonal lines wherein inclinations prepared in advance are used when changing speed; - to gradually reduce acceleration of the movable part , to then not make the acceleration into zero, and to subsequently gradually increase the acceleration, during the acceleration of increasing the speed of the movable part in a predetermined direction. - to create, in a velocity versus time diagram, speed patterns in polygonal lines wherein inclinations prepared in advance are used when changing speed; - to gradually reduce acceleration of the movable part , to then not make the acceleration into zero, and to subsequently gradually increase the acceleration, during the acceleration of increasing the speed of the movable part in a predetermined direction.
A rolling bearing with an outer ring having an outer ring raceway surface on an inner peripheral surface, an inner ring having an inner ring raceway surface on an outer peripheral surface, a plurality of balls rotatably disposed between the outer ring raceway surface and the inner ring raceway surface, and a retainer for rolling bearings disposed between the outer ring and the inner ring , the retainer being of a rolling element guide type, having a plurality of pockets that are disposed at a predetermined interval in a circumferential direction and configured to hold a plurality of rolling elements respectively, wherein the pocket of the retainer has, in a neutral position where a revolution axis of the rolling element coincides with a rotation axis of the retainer , a straight surface that is parallel to a straight line (L) connecting a center of the rolling element and the rotation axis, and a tapered surface that connects the straight surface on an inner diameter side of the straight surface, the tapered surface extending and being inclined toward the straight line (L) as moving radially away from the straight surface , wherein the tapered surface comes into surface contact with the rolling element when the rolling element and the retainer move relative to each other along the straight line (L), wherein a connection point between the straight surface and the tapered surface is on an inner diameter side of an intersection portion between an extension plane (F) of a rolling element equatorial plane and a wall surface of the pocket , the extension plane (F) passing through the center of the rolling element and being perpendicular to the straight line (L), and wherein, in a two-dimensional cross section passing through centers of the plurality of rolling elements , an angle between a first line and the extension plane (F) of the rolling element equatorial plane is smaller than an angle between a second line and the extension plane (F) of the rolling element equatorial plane, the first line connecting a contact point, which is formed when the rolling element and the retainer move relative to each other along the straight line (L) and the tapered surface and the rolling element are in contact with each other, and the center of the rolling element , and the second line connecting an intersection of a shoulder maximum outer diameter of the inner ring and a contour of the rolling element and the center of the rolling element , characterized in that in the two-dimensional cross section passing through centers of the plurality of rolling elements , a distance (ΔP) between the rolling element and the wall surface of the pocket in the extension plane (F) of the rolling element equatorial plane in the neutral position is smaller than a shortest distance (ΔT) between the tapered surface and the rolling element in a direction perpendicular to the straight line (L).