mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing a porous glass preform for an optical fiber comprising: depositing glass particles on an outer periphery of a target rod while a burner for synthesizing glass particles and the target rod that is rotating are relatively reciprocated, the glass particles being synthesized by a glass making feedstock gas and a combustion gas being supplied to the burner , wherein V and r are gradually reduced when a glass particle deposition layer of a portion satisfying a relation 0.5 L ≤ R ≤ 0.8 L is synthesized; where a final outer diameter of the manufactured porous glass preform for an optical fiber is L [mm], an outer diameter of a glass particle deposition body in the middle of the manufacture is R [mm], a rotating speed of the target rod is r [rpm], and a relative moving speed between the target rod and the burner is V [mm/min.], characterized in that a variation in sweeping pitch P [mm] expressed as V/r is caused to be within a range of a central value ± 10%. depositing glass particles on an outer periphery of a target rod while a burner for synthesizing glass particles and the target rod that is rotating are relatively reciprocated, the glass particles being synthesized by a glass making feedstock gas and a combustion gas being supplied to the burner , wherein V and r are gradually reduced when a glass particle deposition layer of a portion satisfying a relation 0.5 L ≤ R ≤ 0.8 L is synthesized; where a final outer diameter of the manufactured porous glass preform for an optical fiber is L [mm], an outer diameter of a glass particle deposition body in the middle of the manufacture is R [mm], a rotating speed of the target rod is r [rpm], and a relative moving speed between the target rod and the burner is V [mm/min.], characterized in that a variation in sweeping pitch P [mm] expressed as V/r is caused to be within a range of a central value ± 10%.
A wireless telecommunications system comprising: a controller element ; a first base station and a second base station ; and a terminal device operable to communicate with the first base station over a first radio path and to communicate with the second base station over a second radio path; wherein the controller element is configured to select one of the first base station and the second base station to act as a serving base station for the terminal device on the basis of at least one measurement report indicating measurements of beacon signalling transmitted by the terminal device, wherein the measurements provide an indication of radio channel conditions associated with the first radio path and the second radio path; and wherein communications between the terminal device and one of the base stations are made via a relay node such that the corresponding radio path is a relayed radio path comprising a first relayed radio path element between the terminal device and the relay node and a second relayed radio path element between the relay node and the corresponding base station, and wherein the measurements of beacon signalling for the relayed radio path are measurements made by the relay node of radio channel conditions associated with the first relayed radio path element. a controller element ; a first base station and a second base station ; and a terminal device operable to communicate with the first base station over a first radio path and to communicate with the second base station over a second radio path; wherein the controller element is configured to select one of the first base station and the second base station to act as a serving base station for the terminal device on the basis of at least one measurement report indicating measurements of beacon signalling transmitted by the terminal device, wherein the measurements provide an indication of radio channel conditions associated with the first radio path and the second radio path; and wherein communications between the terminal device and one of the base stations are made via a relay node such that the corresponding radio path is a relayed radio path comprising a first relayed radio path element between the terminal device and the relay node and a second relayed radio path element between the relay node and the corresponding base station, and wherein the measurements of beacon signalling for the relayed radio path are measurements made by the relay node of radio channel conditions associated with the first relayed radio path element.
A polypeptide comprising a first fragment and a second fragment, wherein (i) the first fragment is a Clostridium difficile toxin A repeating domain fragment; (ii) the second fragment is a Clostridium difficile_ toxin B repeating domain fragment; (iii) the first fragment has a first proximal end; (iv) the second fragment has a second proximal end; and wherein the first fragment and the second fragment are adjacent to one another and wherein the polypeptide elicits antibodies that neutralize toxin A and toxin B and wherein the first proximal end is not within amino acids 1878-1940, 2012-2074, 2146-2208, 2258-2322, 2394-2456, 2507-2569 or 2598-2660 of toxin A and the second proximal end is within amino acids 1834-1926 or 1927-2057 of toxin B but not within amino acids 1881-1942 or 2012-2057 of toxin B. (i) the first fragment is a Clostridium difficile toxin A repeating domain fragment; (ii) the second fragment is a Clostridium difficile_ toxin B repeating domain fragment; (iii) the first fragment has a first proximal end; (iv) the second fragment has a second proximal end; and wherein the first fragment and the second fragment are adjacent to one another and wherein the polypeptide elicits antibodies that neutralize toxin A and toxin B and wherein the first proximal end is not within amino acids 1878-1940, 2012-2074, 2146-2208, 2258-2322, 2394-2456, 2507-2569 or 2598-2660 of toxin A and the second proximal end is within amino acids 1834-1926 or 1927-2057 of toxin B but not within amino acids 1881-1942 or 2012-2057 of toxin B. wherein the first fragment and the second fragment are adjacent to one another and wherein the polypeptide elicits antibodies that neutralize toxin A and toxin B and wherein the first proximal end is not within amino acids 1878-1940, 2012-2074, 2146-2208, 2258-2322, 2394-2456, 2507-2569 or 2598-2660 of toxin A and the second proximal end is within amino acids 1834-1926 or 1927-2057 of toxin B but not within amino acids 1881-1942 or 2012-2057 of toxin B.
An electric power steering apparatus, comprising: a torque sensor configured to detect a steering torque of a driver; a motor configured to assist in a steering force of the driver; a rotation angle estimation unit configured to estimate a rotation angle of the motor to output an estimated angle; a correction signal calculation unit configured to calculate a correction signal (θt) based on the steering torque; characterized in that it further comprises a frequency separation unit configured to separate the estimated angle into a first frequency component (θ1) and a second frequency component (θ2); an estimated angle correction unit configured to calculate, as a control angle, a value obtained by adding a second-frequency-component corrected signal, which is obtained by correcting the second frequency component based on the correction signal, to the first frequency component; and an electric power supply unit configured to supply electric power to the motor based on the control angle. a torque sensor configured to detect a steering torque of a driver; a motor configured to assist in a steering force of the driver; a rotation angle estimation unit configured to estimate a rotation angle of the motor to output an estimated angle; a correction signal calculation unit configured to calculate a correction signal (θt) based on the steering torque; characterized in that it further comprises a frequency separation unit configured to separate the estimated angle into a first frequency component (θ1) and a second frequency component (θ2); an estimated angle correction unit configured to calculate, as a control angle, a value obtained by adding a second-frequency-component corrected signal, which is obtained by correcting the second frequency component based on the correction signal, to the first frequency component; and an electric power supply unit configured to supply electric power to the motor based on the control angle.
A foldable articulated arm comprising at least a first rod and a second rod connected together, each of which is configured for connection to the stem of a parasol , at least a third rod , connected to the second rod , and a fourth rod connected to the third rod ; a first flexible element connects the first rod with the third rod and a second flexible element connects the fourth rod with the second rod ; the first, second, third and fourth rods and the first and second flexible elements being a single piece; the second flexible element comprises a first portion and a second portion , said second portion being slidably constrained to the third rod ; the articulated arm is characterised in that the first portion is slidably constrained to the second rod .
A flame retardant composition comprising a (poly)phosphate, wherein a content of the (poly)phosphate is 50% by weight or more with respect to 100% by weight of the flame retardant composition, and wherein F and N satisfy 8.0 × 10 -4 ≤ F/N ≤ 20.0 and F ≤ 21.0, assuming that F (ppm) is a content of elemental iron and N (ppm) is a content of elemental sodium in the flame retardant composition as measured in accordance with the following procedure, (Procedure) the flame retardant composition is used as a sample and mixed with a 1 M nitric acid aqueous solution, and the mixture is stirred at room temperature of 25°C for 24 hours and then passed through a membrane filter to prepare a measurement solution, and the contents of elemental iron and elemental sodium are measured for the obtained measurement solution by using ICP emission spectroscopic analysis. wherein a content of the (poly)phosphate is 50% by weight or more with respect to 100% by weight of the flame retardant composition, and wherein F and N satisfy 8.0 × 10 -4 ≤ F/N ≤ 20.0 and F ≤ 21.0, assuming that F (ppm) is a content of elemental iron and N (ppm) is a content of elemental sodium in the flame retardant composition as measured in accordance with the following procedure, (Procedure) the flame retardant composition is used as a sample and mixed with a 1 M nitric acid aqueous solution, and the mixture is stirred at room temperature of 25°C for 24 hours and then passed through a membrane filter to prepare a measurement solution, and the contents of elemental iron and elemental sodium are measured for the obtained measurement solution by using ICP emission spectroscopic analysis.
A transparent laminate structure, comprising: a front section having a strike face, wherein the strike face is formed of an impact resistant layer, a polymer backing layer, and an interlayer being made of transparent adhesives, wherein the polymer backing layer is bonded to the impact resistant layer by the interlayer; wherein the interlayer comprises a first interlayer and a second interlayer bonded to one another, the first interlayer being bonded to the impact resistant layer, the second interlayer being bonded to the backing layer, wherein the first interlayer has a modulus of elasticity that is higher than a modulus of elasticity of the second interlayer; a rear section having a forward face comprising a polymer layer; and a middle section securing the front and rear sections to one another with a gap between the front and rear sections, characterized in that the first interlayer has a Shore A hardness of 90 or higher and the second interlayer has a Shore A hardness of 79 or less. a front section having a strike face, wherein the strike face is formed of an impact resistant layer, a polymer backing layer, and an interlayer being made of transparent adhesives, wherein the polymer backing layer is bonded to the impact resistant layer by the interlayer; wherein the interlayer comprises a first interlayer and a second interlayer bonded to one another, the first interlayer being bonded to the impact resistant layer, the second interlayer being bonded to the backing layer, wherein the first interlayer has a modulus of elasticity that is higher than a modulus of elasticity of the second interlayer; a rear section having a forward face comprising a polymer layer; and a middle section securing the front and rear sections to one another with a gap between the front and rear sections, characterized in that the first interlayer has a Shore A hardness of 90 or higher and the second interlayer has a Shore A hardness of 79 or less.
A method for wireless communication at a user equipment , comprising: receiving , from a base station and while being outside of a radio resource control, RRC, connected state, an indication of a length of downlink symbols used to transmit a physical downlink shared channel, PDSCH, that carries broadcast information, the length being from a starting downlink symbol index to an ending downlink symbol index, wherein the indication of the length of downlink symbols used to transmit the PDSCH is received before a RRC configuration procedure between the UE and the base station; and decoding the PDSCH based at least in part on the indication. receiving , from a base station and while being outside of a radio resource control, RRC, connected state, an indication of a length of downlink symbols used to transmit a physical downlink shared channel, PDSCH, that carries broadcast information, the length being from a starting downlink symbol index to an ending downlink symbol index, wherein the indication of the length of downlink symbols used to transmit the PDSCH is received before a RRC configuration procedure between the UE and the base station; and decoding the PDSCH based at least in part on the indication.
A hair styling device , comprising: a two-dimensional array of elements to bring hair at a styling temperature, wherein the elements produce optical radiation energy; and characterized by : sensors to obtain an areal light absorption measurement opposed to the two-dimensional array of elements, and a control unit for individually controlling the elements in dependence of the measurement. sensors to obtain an areal light absorption measurement opposed to the two-dimensional array of elements, and a control unit for individually controlling the elements in dependence of the measurement.
Rinsing arm for a device for transmitting a torque from a driven shaft of a dishwasher to the rinsing arm, wherein the rinsing arm can be fixed to the drivable shaft and is rotatable about an axis of rotation, characterized in that the rinsing arm comprises an accommodation area for accommodating at least one part of a head element of the drivable shaft and a flexural spring , which extends at least partially through this accommodation area and has a longitudinal extension (x) which runs perpendicular to the axis of rotation, and the rinsing arm comprises an accommodation side , on which and/or into which the drivable shaft can be inserted and/or fixed, and an upper side , wherein the flexural spring is designed and arranged such that the flexural spring has a maximum extension up to a first position in an axial direction parallel to the axis of rotation in the direction towards the associated drivable shaft , on which the rinsing arm can be fixed, if no external force is exerted on the flexural spring , and wherein the flexural spring is designed such that the flexural spring can be deformed by the effects of a force so that the flexural spring only has a maximum extension up to a second position in an axial direction parallel to the axis of rotation in a direction towards an associated drivable shaft , on which the rinsing arm can be fixed, wherein the second predetermined position lies closer to the upper side of the rinsing arm than the first position when measured in the direction of the axis of rotation. the rinsing arm comprises an accommodation area for accommodating at least one part of a head element of the drivable shaft and a flexural spring , which extends at least partially through this accommodation area and has a longitudinal extension (x) which runs perpendicular to the axis of rotation, and the rinsing arm comprises an accommodation side , on which and/or into which the drivable shaft can be inserted and/or fixed, and an upper side , wherein the flexural spring is designed and arranged such that the flexural spring has a maximum extension up to a first position in an axial direction parallel to the axis of rotation in the direction towards the associated drivable shaft , on which the rinsing arm can be fixed, if no external force is exerted on the flexural spring , and wherein the flexural spring is designed such that the flexural spring can be deformed by the effects of a force so that the flexural spring only has a maximum extension up to a second position in an axial direction parallel to the axis of rotation in a direction towards an associated drivable shaft , on which the rinsing arm can be fixed, wherein the second predetermined position lies closer to the upper side of the rinsing arm than the first position when measured in the direction of the axis of rotation.
A method comprising: initiating detection of fluids at a first measurement zone of a microfluidic system; detecting a first fluid and second fluids at the first measurement zone and forming a first signal corresponding to the first fluid and second signals corresponding to the second fluids, wherein the first fluid is a sample fluid and the second fluids are wash fluids; transmitting a first pattern of signals to a control system, the first pattern of signals comprising an average time period between the first signal and the second signals and: a) an intensity of the first signal; b) a duration of the first signal; and/or c) a first position of the first signal in time relative to a second position of the first signal in time; comparing at least the first pattern of signals to a pre-programmed control pattern of signals or values; and determining whether to modulate fluid flow in the microfluidic system based at least in part on the first pattern of signals, wherein determining whether to modulate fluid flow in the microfluidic system comprises determining whether to stop an analysis being conducted in the microfluidic system. initiating detection of fluids at a first measurement zone of a microfluidic system; detecting a first fluid and second fluids at the first measurement zone and forming a first signal corresponding to the first fluid and second signals corresponding to the second fluids, wherein the first fluid is a sample fluid and the second fluids are wash fluids; transmitting a first pattern of signals to a control system, the first pattern of signals comprising an average time period between the first signal and the second signals and: a) an intensity of the first signal; b) a duration of the first signal; and/or c) a first position of the first signal in time relative to a second position of the first signal in time; a) an intensity of the first signal; b) a duration of the first signal; and/or c) a first position of the first signal in time relative to a second position of the first signal in time; comparing at least the first pattern of signals to a pre-programmed control pattern of signals or values; and determining whether to modulate fluid flow in the microfluidic system based at least in part on the first pattern of signals, wherein determining whether to modulate fluid flow in the microfluidic system comprises determining whether to stop an analysis being conducted in the microfluidic system.
A foaming adhesive system for mixing an adhesive and air to produce foamed adhesive, the foaming adhesive system comprising: a supply storage tank containing adhesive therewithin; a pump connected to the supply storage tank via a first connecting conduit and configured to output the adhesive received from the supply storage tank to a second connecting conduit ; an air supply storage containing air therewithin, the air supply storage connected to the second conduit to inject the air into the adhesive via an air injection port ; and a static mixer connected to the second connecting conduit for receiving a mixture of the adhesive and air, the static mixer configured to homogeneously mix the mixture to produce foamed adhesive a pulsation dampener applied immediately downstream of the pump to minimize pulsations and pressure fluctuations an adhesive flow meter located between the pump and the static mixer for measuring the flow rate and mass of the adhesive flowing through the second connecting conduit a product reserve tank to store the foamed adhesive first and second pressure transducers located between the pump and the adhesive flow meter , and the static mixer and the product reserve tank , respectively. a supply storage tank containing adhesive therewithin; a pump connected to the supply storage tank via a first connecting conduit and configured to output the adhesive received from the supply storage tank to a second connecting conduit ; an air supply storage containing air therewithin, the air supply storage connected to the second conduit to inject the air into the adhesive via an air injection port ; and a static mixer connected to the second connecting conduit for receiving a mixture of the adhesive and air, the static mixer configured to homogeneously mix the mixture to produce foamed adhesive a pulsation dampener applied immediately downstream of the pump to minimize pulsations and pressure fluctuations an adhesive flow meter located between the pump and the static mixer for measuring the flow rate and mass of the adhesive flowing through the second connecting conduit a product reserve tank to store the foamed adhesive first and second pressure transducers located between the pump and the adhesive flow meter , and the static mixer and the product reserve tank , respectively.