mhurhangee/patent-ind-claim-en huggingface dataset:
A host system communicating with a device , the host system comprising: a connector having a structure connectable to the device in both a first direction and a second direction, and comprising a plurality of pins disposed thereon; a connection direction detector configured to detect if the device is connected to the host system in the first direction or in the second direction by detecting a signal from at least one first pin of the plurality of pins; and a setting controller configured to receive, from the device , setting information (Info_S) related to a configuration supported by the device and control a configuration operation on the device based on direction information (Info_D) from the connection direction detector , wherein the host system is configured to perform control such that a function module having a unique function included in the device is selectively enabled based on the setting information (Info_S) and the direction information (Info_D), and wherein the function module is a communication module configured to perform wireless communication with another external system, or an access authority control module configured to control access authority to a nonvolatile memory device included in the device . a connector having a structure connectable to the device in both a first direction and a second direction, and comprising a plurality of pins disposed thereon; a connection direction detector configured to detect if the device is connected to the host system in the first direction or in the second direction by detecting a signal from at least one first pin of the plurality of pins; and a setting controller configured to receive, from the device , setting information (Info_S) related to a configuration supported by the device and control a configuration operation on the device based on direction information (Info_D) from the connection direction detector , wherein the host system is configured to perform control such that a function module having a unique function included in the device is selectively enabled based on the setting information (Info_S) and the direction information (Info_D), and wherein the function module is a communication module configured to perform wireless communication with another external system, or an access authority control module configured to control access authority to a nonvolatile memory device included in the device .
A control method for a vehicle frame that is configured to be connected with a power driving assembly and that is provided with a manipulation assembly and a controller for controlling the power driving assembly, the control method comprises: after the vehicle frame is connected with the power driving assembly and a communication connection is established between the controller and the power driving assembly, detecting , by the controller, a manipulation instruction from the manipulation assembly; and in response to detecting the manipulation instruction from the manipulation assembly and determining that the manipulation instruction corresponds to the power driving assembly, generating , by the controller according to the manipulation instruction, a control instruction for controlling the power driving assembly, and sending , by the controller, the control instruction to the power driving assembly; characterized in that the method is for the vehicle frame that is of a frame structure in bridge connection to the front and rear of a vehicle, and is in detachable connection with the power driving assembly which has a self-balancing system; when the power driving assembly is connected with the vehicle frame, the controller is in wired connection or wireless connection with the power driving assembly, the self-balancing system of the power driving assembly does not operate, and the vehicle is used as a kart; when the power driving assembly is disconnected from the vehicle frame, the self-balancing system of the power driving assembly operates, and the power driving assembly is used as a self-balancing scooter. after the vehicle frame is connected with the power driving assembly and a communication connection is established between the controller and the power driving assembly, detecting , by the controller, a manipulation instruction from the manipulation assembly; and in response to detecting the manipulation instruction from the manipulation assembly and determining that the manipulation instruction corresponds to the power driving assembly, generating , by the controller according to the manipulation instruction, a control instruction for controlling the power driving assembly, and sending , by the controller, the control instruction to the power driving assembly; characterized in that the method is for the vehicle frame that is of a frame structure in bridge connection to the front and rear of a vehicle, and is in detachable connection with the power driving assembly which has a self-balancing system; when the power driving assembly is connected with the vehicle frame, the controller is in wired connection or wireless connection with the power driving assembly, the self-balancing system of the power driving assembly does not operate, and the vehicle is used as a kart; when the power driving assembly is disconnected from the vehicle frame, the self-balancing system of the power driving assembly operates, and the power driving assembly is used as a self-balancing scooter.
A gas turbine engine comprising: a shaft defining an axis of rotation (A); a turbine section comprising: an inner rotor directly driving the shaft , the inner rotor including an inner set of blades ; and an outer rotor having an outer set of blades interspersed with the inner set of blades , the outer rotor configured to rotate in an opposite direction about the axis of rotation (A) from the inner rotor ; and a gear system engaged to the outer rotor wherein the gear system is positioned upstream of the inner set of blades , wherein the gear system is mounted to a mid-turbine frame structure , and includes a ring gear engaged to the outer rotor , a plurality of star gears in meshing engagement with the ring gear , and a sun gear in meshing engagement with the star gears , wherein the star gears are supported within a carrier that is mounted to the mid-turbine frame structure and the sun gear is fixed for rotation with the shaft about the axis of rotation (A); and characterised by a first bearing positioned radially between the carrier and the shaft to support the shaft for rotation relative to the carrier and mid-turbine frame structure . a shaft defining an axis of rotation (A); a turbine section comprising: an inner rotor directly driving the shaft , the inner rotor including an inner set of blades ; and an outer rotor having an outer set of blades interspersed with the inner set of blades , the outer rotor configured to rotate in an opposite direction about the axis of rotation (A) from the inner rotor ; and an inner rotor directly driving the shaft , the inner rotor including an inner set of blades ; and an outer rotor having an outer set of blades interspersed with the inner set of blades , the outer rotor configured to rotate in an opposite direction about the axis of rotation (A) from the inner rotor ; and a gear system engaged to the outer rotor wherein the gear system is positioned upstream of the inner set of blades , wherein the gear system is mounted to a mid-turbine frame structure , and includes a ring gear engaged to the outer rotor , a plurality of star gears in meshing engagement with the ring gear , and a sun gear in meshing engagement with the star gears , wherein the star gears are supported within a carrier that is mounted to the mid-turbine frame structure and the sun gear is fixed for rotation with the shaft about the axis of rotation (A); and characterised by a first bearing positioned radially between the carrier and the shaft to support the shaft for rotation relative to the carrier and mid-turbine frame structure .
System for monitoring a tyre internal pressure, having a sensor device , wherein the sensor device is provided for detecting a tyre internal pressure, a central control unit , a telematics device , wherein the telematics device is provided for processing and transmitting information, and an evaluation device , wherein the telematics device is configured to receive signals from a global navigation satellite system and is configured to exchange data and signals with the evaluation device , wherein the position data relating to the sensor device can be determined by means of the telematics device on the basis of the signals, and wherein the evaluation device is configured to assign a unique target pressure value range to the position data relating to the sensor device , characterized in that the system has a computer cloud , wherein the computer cloud is configured to exchange data and signals with the telematics device , wherein the computer cloud is also configured to process and analyse the data and signals, and wherein the computer cloud is configured to transmit the data or the processed data to a further device .
A turbine engine comprising: a first fan; a second fan spaced axially from the first fan; a turbine-driven fan shaft ; and an epicyclic gear train coupled to be driven by the turbine-driven fan shaft and coupled to drive the first fan and the second fan, the epicyclic gear train including a carrier supporting star gears that mesh with a sun gear , and a ring gear surrounding and meshing with the star gears, the star gears being supported on respective journal bearings, and characterized by the aft fan being rotatable through the epicyclic gear train at a first speed and the forward fan being rotatable through the epicyclic gear train at a second speed that is lower than the first speed, and further wherein the epicyclic gear train has a gear reduction ratio according to the equation (NR +Ns)/Ns such that the first and second fans have a rotational speed relationship according to the equation ω Second-Stage = ω First-Stage [(NR +Ns)/Ns], where ω First-Stage is a rotational speed of the first fan, ω Second-Stage is a rotational speed of the second fan, NR is the number of teeth on the ring gear and NS is the number of teeth on the sun gear . a first fan; a second fan spaced axially from the first fan; a turbine-driven fan shaft ; and an epicyclic gear train coupled to be driven by the turbine-driven fan shaft and coupled to drive the first fan and the second fan, the epicyclic gear train including a carrier supporting star gears that mesh with a sun gear , and a ring gear surrounding and meshing with the star gears, the star gears being supported on respective journal bearings, and characterized by the aft fan being rotatable through the epicyclic gear train at a first speed and the forward fan being rotatable through the epicyclic gear train at a second speed that is lower than the first speed, and further wherein the epicyclic gear train has a gear reduction ratio according to the equation (NR +Ns)/Ns such that the first and second fans have a rotational speed relationship according to the equation ω Second-Stage = ω First-Stage [(NR +Ns)/Ns], where ω First-Stage is a rotational speed of the first fan, ω Second-Stage is a rotational speed of the second fan, NR is the number of teeth on the ring gear and NS is the number of teeth on the sun gear .
A shoe sole member partially or entirely formed by a crosslinked foam, wherein the crosslinked foam has been formed by crosslinking and foaming a polymer composition and satisfies formulas and below that are determined by measuring a spin-spin relaxation time at 23°C by pulsed NMR utilizing the procedure and equipment as described in the description, and formula below that is determined in dynamic viscoelasticity measurement by measuring a complex elastic modulus under conditions of a frequency of 1 Hz, a distortion of 0.025%, a rate of temperature increase of 2°C/min: F S / T 2 ⁢ S ≥ 10 0.10 ≤ F M ⋅ T 2 ⁢ M + F L ⋅ T 2 ⁢ L ≤ 0.30 where "Fs" in formula above represents a content ratio of S phase having a spin-spin relaxation time of less than 0.02 ms in the crosslinked foam, and "T 2S " represents the spin-spin relaxation time of S phase, "F M " in formula above represents a content ratio of M phase having a spin-spin relaxation time of 0.02 ms or more and less than 0.1 ms in the crosslinked foam, and "T 2M " represents the spin-spin relaxation time of M phase, "F L " in formula above represents a content ratio of L phase having a spin-spin relaxation time of 0.1 ms or more in the crosslinked foam, and "T 2L " represents the spin-spin relaxation time of L phase, unit of F S /T 2S is "1/ms", and unit of F M ·T 2M + F L ·T 2L is "ms"; and E * 80 ° C / E * 23 ° C ≥ 0.1 where "E* (80°C)" in formula above represents a complex elastic modulus at 80°C, and "E* (23°C)" in formula above represents a complex elastic modulus at 23°C. where "Fs" in formula above represents a content ratio of S phase having a spin-spin relaxation time of less than 0.02 ms in the crosslinked foam, and "T 2S " represents the spin-spin relaxation time of S phase, "F M " in formula above represents a content ratio of M phase having a spin-spin relaxation time of 0.02 ms or more and less than 0.1 ms in the crosslinked foam, and "T 2M " represents the spin-spin relaxation time of M phase, "F L " in formula above represents a content ratio of L phase having a spin-spin relaxation time of 0.1 ms or more in the crosslinked foam, and "T 2L " represents the spin-spin relaxation time of L phase, unit of F S /T 2S is "1/ms", and unit of F M ·T 2M + F L ·T 2L is "ms"; and E * 80 ° C / E * 23 ° C ≥ 0.1 where "E* (80°C)" in formula above represents a complex elastic modulus at 80°C, and "E* (23°C)" in formula above represents a complex elastic modulus at 23°C. where "E* (80°C)" in formula above represents a complex elastic modulus at 80°C, and "E* (23°C)" in formula above represents a complex elastic modulus at 23°C.
A method for automatic inspection of through-holes of a component , comprising: - obtaining a thermographic image of the component generated by passing a medium through the through-holes and capturing infra-red radiation emitted from the component while the medium is flowing through the through-holes , - fitting the thermographic image on a digital image obtained from geometrical data of the component , characterized in that the fitted thermographic image is masked using a digital image mask to extract regions corresponding to the through-holes in the thermographic image , the digital image mask being computed based on a determination of positions of through-holes on said digital image to obtain a masked thermographic image , and - evaluating the masked thermographic image to determine an irregularity or blockage in one or more of said through-holes . - obtaining a thermographic image of the component generated by passing a medium through the through-holes and capturing infra-red radiation emitted from the component while the medium is flowing through the through-holes , - fitting the thermographic image on a digital image obtained from geometrical data of the component , - evaluating the masked thermographic image to determine an irregularity or blockage in one or more of said through-holes .
Crossmember , in particular front crossmember, for a motor vehicle, in particular a utility vehicle, comprising: a first chord , in particular an upper chord; a second chord , in particular a lower chord; a first shackle receiver for the releasable connection of an attachment to the crossmember ; and a second shackle receiver for the releasable connection of an attachment to the crossmember ; wherein the first shackle receiver and the second shackle receiver are integrated in one piece in the first chord and/or the second chord in an integral manner, characterized in that the first shackle receiver and the second shackle receiver extend starting from the first chord and/or the second chord . a first chord , in particular an upper chord; a second chord , in particular a lower chord; a first shackle receiver for the releasable connection of an attachment to the crossmember ; and a second shackle receiver for the releasable connection of an attachment to the crossmember ; wherein the first shackle receiver and the second shackle receiver are integrated in one piece in the first chord and/or the second chord in an integral manner, characterized in that the first shackle receiver and the second shackle receiver extend starting from the first chord and/or the second chord .
A calibrated measurement device for continuously, non-invasively, and directly measuring blood pressure, the calibrated measurement device comprising: a strap ; a rigid support mounted to the strap ; a blood-flow control balloon coupled to the rigid support , the blood-flow control balloon having an inflated state in which a controlled amount of pressure isolates a spatio-temporal signal from an artery without compromising venous and lymphatic circulation or flow in other arteries of a limb containing the artery; a sensor array positioned between the blood-flow control balloon and a skin surface to non-invasively monitor blood pressure, the sensor array detecting changes in the artery size and shape during a heartbeat cycle, when the blood-flow control balloon is in the inflated state, the changes corresponding to spatio-temporal signals from the artery; and characterized by the strap containing a strap control balloon for tightness adjustment of the strap , the strap control balloon being separate from the blood-flow control balloon , and a strap force sensor for tuning the mounting contact between the sensor array and the skin surface . a strap ; a rigid support mounted to the strap ; a blood-flow control balloon coupled to the rigid support , the blood-flow control balloon having an inflated state in which a controlled amount of pressure isolates a spatio-temporal signal from an artery without compromising venous and lymphatic circulation or flow in other arteries of a limb containing the artery; a sensor array positioned between the blood-flow control balloon and a skin surface to non-invasively monitor blood pressure, the sensor array detecting changes in the artery size and shape during a heartbeat cycle, when the blood-flow control balloon is in the inflated state, the changes corresponding to spatio-temporal signals from the artery; and characterized by the strap containing a strap control balloon for tightness adjustment of the strap , the strap control balloon being separate from the blood-flow control balloon , and a strap force sensor for tuning the mounting contact between the sensor array and the skin surface .
A variant of a parent polypeptide having alpha-amylase activity, wherein said variant is a fusion polypeptide which has an improved wash performance at a low temperature from 5°C to 40°C relative to the wash performance of the polypeptide set forth in SEQ ID NO: 15, wherein the wash performance is measured as defined in example 3, and wherein said variant has alpha-amylase activity and wherein said parent polypeptide comprises an A and a B domain comprising the amino acid sequence of SEQ ID NO: 10, and a C domain comprising the amino acid sequence of SEQ ID NO: 11 and wherein said variant consists of said parent polypeptide with deletion of positions H1, G182 and D183 and substitutions selected from the group consisting of: - N54S+V56T+G109A+R116H+A174S+N195F+V206L+K391A+G476K, - N54S+V56T+K72R+G109A+F113Q+R116Q+W167F+Q172G+A174S+G184T+N195F+ V206L+K391A+P473R+G476K, - N54S+V56T+G109A+F113Q+R116Q+Q172N+A174S+N195F+V206L+A265G+K391A+P473R+ G476K, - N54S+V56T+K72R+G109A+G133Q+W167F+Q172R+A174S+N195F+V206L+K391A+G476K, - N54S+V56T+K72R+G109A+R116H+T134E+W167F+Q172G+L173V+A174S++N195F+V206L+ G255A+K391A+G476K, and - N54S+V56T+K72R+G109A+R116H+T134E+W167F+Q172G+L173V+A174S+N195F+V206L+G255A+ K391A+Q395P+T444Q+P473R+G476K, wherein the numbering is according to SEQ ID NO: 13. - N54S+V56T+G109A+R116H+A174S+N195F+V206L+K391A+G476K, - N54S+V56T+K72R+G109A+F113Q+R116Q+W167F+Q172G+A174S+G184T+N195F+ V206L+K391A+P473R+G476K, - N54S+V56T+G109A+F113Q+R116Q+Q172N+A174S+N195F+V206L+A265G+K391A+P473R+ G476K, - N54S+V56T+K72R+G109A+G133Q+W167F+Q172R+A174S+N195F+V206L+K391A+G476K, - N54S+V56T+K72R+G109A+R116H+T134E+W167F+Q172G+L173V+A174S++N195F+V206L+ G255A+K391A+G476K, and - N54S+V56T+K72R+G109A+R116H+T134E+W167F+Q172G+L173V+A174S+N195F+V206L+G255A+ K391A+Q395P+T444Q+P473R+G476K, wherein the numbering is according to SEQ ID NO: 13.
A method of determining, by a base station , an initialization value of a sequence in a wireless communication system, the method comprising: generating a sequence of a channel state information-reference signal, CSI-RS, based on a pseudo-random sequence; and transmitting, to a user equipment, UE , the sequence on resource elements, REs, wherein an initialization value of the pseudo-random sequence is determined by: c init = 2 10 × 14 n s + l + 1 2 N ID + 1 + N ID mod 2 31 + 1 , wherein n s indicates a slot number within a radio frame, wherein l is an OFDM symbol number within a slot, and wherein N ID is a scrambling identifier, ID. generating a sequence of a channel state information-reference signal, CSI-RS, based on a pseudo-random sequence; and transmitting, to a user equipment, UE , the sequence on resource elements, REs, wherein an initialization value of the pseudo-random sequence is determined by: c init = 2 10 × 14 n s + l + 1 2 N ID + 1 + N ID mod 2 31 + 1 , wherein n s indicates a slot number within a radio frame, wherein l is an OFDM symbol number within a slot, and wherein N ID is a scrambling identifier, ID.
A culture module comprising: a) one or more valves disposed within a pressure manifold , said pressure manifold comprising an engaging face , said engaging face comprising engaging locations for engaging a plurality of microfluidic perfusion devices, said engaging locations comprising a spring shuttle for sensing the presence of a microfluidic perfusion device and one or more valve seals, and b) a microfluidic perfusion device engaged with said pressure manifold, such that the presence of said microfluidic perfusion device causes the spring shuttle to be depressed, which opens one or more of said valves disposed within the pressure manifold thereby enabling the application of pressure or fluid flow to said microfluidic perfusion device. a) one or more valves disposed within a pressure manifold , said pressure manifold comprising an engaging face , said engaging face comprising engaging locations for engaging a plurality of microfluidic perfusion devices, said engaging locations comprising a spring shuttle for sensing the presence of a microfluidic perfusion device and one or more valve seals, and b) a microfluidic perfusion device engaged with said pressure manifold, such that the presence of said microfluidic perfusion device causes the spring shuttle to be depressed, which opens one or more of said valves disposed within the pressure manifold thereby enabling the application of pressure or fluid flow to said microfluidic perfusion device.