mhurhangee/patent-ind-claim-en huggingface dataset:
A pulse wave analyzer comprising: a pulse wave acquirer which is configured to acquire a pulse wave of a subject, said pulse wave being configured by a plurality of continuous unit pulse waves; an electrocardiogram acquirer which is configured to acquire an electrocardiogram of the subject; a respiration information acquirer which is configured to acquire respiration information of the subject; and an analyzing section which includes: a setting section which is configured to set a selection criterion based on the pulse wave or the electrocardiogram, and the respiration information; and a selecting section which is configured to select unit pulse waves of said pulse wave based on the selection criterion, wherein the analyzing section is configured to calculate a respiratory variation from the unit pulse waves which are selected by the selection section, and the selection criterion is a threshold relating to an amplitude of the pulse wave. a pulse wave acquirer which is configured to acquire a pulse wave of a subject, said pulse wave being configured by a plurality of continuous unit pulse waves; an electrocardiogram acquirer which is configured to acquire an electrocardiogram of the subject; a respiration information acquirer which is configured to acquire respiration information of the subject; and an analyzing section which includes: a setting section which is configured to set a selection criterion based on the pulse wave or the electrocardiogram, and the respiration information; and a selecting section which is configured to select unit pulse waves of said pulse wave based on the selection criterion, a setting section which is configured to set a selection criterion based on the pulse wave or the electrocardiogram, and the respiration information; and a selecting section which is configured to select unit pulse waves of said pulse wave based on the selection criterion, wherein the analyzing section is configured to calculate a respiratory variation from the unit pulse waves which are selected by the selection section, and the selection criterion is a threshold relating to an amplitude of the pulse wave.
A method for communication between a handheld device and first and second touch-enabled computing devices each associated with a digitizer system, wherein a first detection method of the handheld device used by the first touch-enabled computing device is different from a second detection method of the handheld device used by the second touch-enabled computing device, the method comprising: generating a first signal type and a second signal type in the handheld device, wherein the first signal type and the second signal type are different in at least one of frequency or modulation and wherein the first signal type and the second signal type are defined to include the same information related to the handheld device; and transmitting both the first signal type and the second signal type in a same transmission cycle of the handheld device, wherein the first signal type is configured to be compatible with the first detection method of the first touch enabled computing device and the second signal type is configured to be compatible with the second detection method of the second touch enabled computing device. generating a first signal type and a second signal type in the handheld device, wherein the first signal type and the second signal type are different in at least one of frequency or modulation and wherein the first signal type and the second signal type are defined to include the same information related to the handheld device; and transmitting both the first signal type and the second signal type in a same transmission cycle of the handheld device, wherein the first signal type is configured to be compatible with the first detection method of the first touch enabled computing device and the second signal type is configured to be compatible with the second detection method of the second touch enabled computing device.
A method for diagnosing the likelihood of Alzheimer's disease (AD) in a tested individual, comprising: (i) measuring the levels of gamma-delta (γδ) T-cells and at least one cell type of myeloid derived suppressor cells (MDSCs) in a peripheral blood sample obtained from said individual; and (ii) comparing the levels measured in (i) with reference levels representing range levels of γδ T-cells and said at least one cell type of MDSCs, respectively, in blood samples of age-matched controls, thus obtaining a profile expressing the levels measured in (i) relative to said reference levels, respectively, wherein an increase in the level of γδ T-cells; and no change in the level of each one of said at least one cell type of MDSCs indicate that said individual has a higher likelihood of having AD than said age-matched controls. (i) measuring the levels of gamma-delta (γδ) T-cells and at least one cell type of myeloid derived suppressor cells (MDSCs) in a peripheral blood sample obtained from said individual; and (ii) comparing the levels measured in (i) with reference levels representing range levels of γδ T-cells and said at least one cell type of MDSCs, respectively, in blood samples of age-matched controls, thus obtaining a profile expressing the levels measured in (i) relative to said reference levels, respectively,
A limb positioning system for positioning and maintaining immobilized a limb (L) of a patient in a desired position with respect to a surgical table (T) during orthopedic surgery, said system comprising: - a pivoting member having a longitudinal portion extending along a corresponding longitudinal axis, said pivoting member being configured such that, when the system is in a normal use configuration, said longitudinal axis is parallel to the surgical table (T); - a support member configured to support the limb of the patient; said support member comprises a support hooking part connected to said longitudinal portion and movable along said longitudinal portion; - a clutch connected to the pivoting member having an open configuration and a locked configuration, wherein, in the open configuration, the clutch enables pivoting of the pivoting member around a rotation axis (A R ) that is parallel to the longitudinal axis (A L ), distinct from the longitudinal axis, and wherein, in the locked configuration, the clutch allows immobilization of the pivoting member in the desired position; - at least one fixation member configured to maintain the system in position with respect to the surgical table (T), wherein the support member comprises a hanging element formed of an annular part movably connected to the longitudinal portion through the support hooking part , the annular part being configured to surround the limb and to hang the limb from the longitudinal portion of the pivoting member . - a pivoting member having a longitudinal portion extending along a corresponding longitudinal axis, said pivoting member being configured such that, when the system is in a normal use configuration, said longitudinal axis is parallel to the surgical table (T); - a support member configured to support the limb of the patient; said support member comprises a support hooking part connected to said longitudinal portion and movable along said longitudinal portion; - a clutch connected to the pivoting member having an open configuration and a locked configuration, wherein, in the open configuration, the clutch enables pivoting of the pivoting member around a rotation axis (A R ) that is parallel to the longitudinal axis (A L ), distinct from the longitudinal axis, and wherein, in the locked configuration, the clutch allows immobilization of the pivoting member in the desired position; - at least one fixation member configured to maintain the system in position with respect to the surgical table (T), wherein the support member comprises a hanging element formed of an annular part movably connected to the longitudinal portion through the support hooking part , the annular part being configured to surround the limb and to hang the limb from the longitudinal portion of the pivoting member .
A thrust-reverser assembly for a jet engine , wherein the thrust-reverser assembly defines a forward-thrust configuration and a reverse-thrust configuration , the assembly comprising: a bullnose fairing that defines a portion of a reverser duct ; and an active flow-control device located to energize a boundary layer fluid flow within a boundary layer adjacent to the bullnose fairing to resist separation of the boundary layer from the bullnose fairing when the thrust-reverser assembly is in the reverse-thrust configuration, wherein the active flow-control device is configured to inject a flow-control fluid stream into the boundary layer - through an injection orifice that is located at a cordwise location along the length of the bullnose fairing or - through a plurality of injection orifices that are located in a spaced apart manner around a radius of curvature of the bullnose fairing . a bullnose fairing that defines a portion of a reverser duct ; and an active flow-control device located to energize a boundary layer fluid flow within a boundary layer adjacent to the bullnose fairing to resist separation of the boundary layer from the bullnose fairing when the thrust-reverser assembly is in the reverse-thrust configuration, wherein the active flow-control device is configured to inject a flow-control fluid stream into the boundary layer - through an injection orifice that is located at a cordwise location along the length of the bullnose fairing or - through a plurality of injection orifices that are located in a spaced apart manner around a radius of curvature of the bullnose fairing . - through an injection orifice that is located at a cordwise location along the length of the bullnose fairing or - through a plurality of injection orifices that are located in a spaced apart manner around a radius of curvature of the bullnose fairing .
An access point switching method, wherein the method is applied to a machine-to-machine M2M communication system, the M2M system comprises an M2M platform, an application entity AE, and an M2M gateway, the M2M platform is an access point for the AE before the AE performs access point switching, the M2M gateway is an access point for the AE after the AE performs access point switching, the M2M platform is an access point for the M2M gateway, and the method comprises: receiving , by the M2M platform, an access point switching request message sent by the AE, wherein the access point switching request message carries a common services entity CSE identifier of the M2M gateway; sending , by the M2M platform, a resource creation request message to the M2M gateway, wherein the resource creation request message is used to request the M2M gateway to create a connection resource of the AE, and the resource creation request message carries an identifier of the AE; receiving , by the M2M platform, a response message indicating that resource creation succeeds that is sent by the M2M gateway, wherein the response message indicating that resource creation succeeds carries access information allocated by the M2M gateway to the AE; sending , by the M2M platform, an access point switching response message to the AE, wherein the access point switching response message carries the access information allocated by the M2M gateway to the AE; and recording, by the M2M platform, the CSE identifier of the M2M gateway and the access information allocated by the M2M gateway to the AE. receiving , by the M2M platform, an access point switching request message sent by the AE, wherein the access point switching request message carries a common services entity CSE identifier of the M2M gateway; sending , by the M2M platform, a resource creation request message to the M2M gateway, wherein the resource creation request message is used to request the M2M gateway to create a connection resource of the AE, and the resource creation request message carries an identifier of the AE; receiving , by the M2M platform, a response message indicating that resource creation succeeds that is sent by the M2M gateway, wherein the response message indicating that resource creation succeeds carries access information allocated by the M2M gateway to the AE; sending , by the M2M platform, an access point switching response message to the AE, wherein the access point switching response message carries the access information allocated by the M2M gateway to the AE; and recording, by the M2M platform, the CSE identifier of the M2M gateway and the access information allocated by the M2M gateway to the AE.
A propulsion system for being mounted on an aircraft comprising a main body , said propulsion system comprising: - a first rotating propulsive member and a second rotating propulsive member , for being mounted on either side of said main body , - a transmission box , connected to the first rotating propulsive member via a first mechanical shaft and to the second rotating propulsive member via a second mechanical shaft , - a single gas generator comprising a compressor , a combustion chamber and a turbine , the gas generator being connected to said transmission box in order to rotatably drive the first rotating propulsive member and the second rotating propulsive member , characterized in that the system comprises - a single auxiliary turbomachine , configured to rotatably drive the first rotating propulsive member and the second rotating propulsive member independently of the gas generator . - a first rotating propulsive member and a second rotating propulsive member , for being mounted on either side of said main body , - a transmission box , connected to the first rotating propulsive member via a first mechanical shaft and to the second rotating propulsive member via a second mechanical shaft , - a single gas generator comprising a compressor , a combustion chamber and a turbine , the gas generator being connected to said transmission box in order to rotatably drive the first rotating propulsive member and the second rotating propulsive member , characterized in that the system comprises - a single auxiliary turbomachine , configured to rotatably drive the first rotating propulsive member and the second rotating propulsive member independently of the gas generator .
Vibration excitator, comprising: a main body ; a stinger which is adapted to move relative to the main body , in a particular working direction; an actuator coupled to the main body and the stinger ; wherein the stinger has a first end that is coupled to the main body , and an opposite second end that is intended for attachment to an object (V) to be examined; characterized in that the second stinger end has a head end face , as well as a recessed sensor accommodation chamber arranged in the head end face ; wherein a sensor is arranged in the accommodation chamber ; wherein the vibration excitator is provided with elastic means which are adapted to couple the sensor to the accommodation chamber ; and wherein the sensor is otherwise free from contact with the walls and the bottom of the accommodation chamber . a main body ; a stinger which is adapted to move relative to the main body , in a particular working direction; an actuator coupled to the main body and the stinger ; wherein the stinger has a first end that is coupled to the main body , and an opposite second end that is intended for attachment to an object (V) to be examined;
A fault detection circuit for a N-to-1 Dickson topology hybrid DC-DC power converter having at least (N-1) level-setting capacitors, an input terminal for receiving an input voltage, a ground terminal, and a switching node connected to an inductor, and operational according to an operating cycle comprising first, second and third states; the fault detection circuit comprising: a first measuring circuit configured to measure a first voltage, V SW1 , at the switching node in the first state in which first and second sets of the level-setting capacitors are being respectively charged and discharged; a first calculation circuit configured to calculate a first error voltage as a difference between the first voltage in one operating cycle (V SW1 [n-1]) and in a next subsequent operating cycle (V SW1 [n]); a first fault circuit configured to provide a first fault output indicative of a fault in response to an absolute value of the first error voltage exceeding a short-circuit-trip level; a second measuring circuit configured to measure a second voltage, V SW2 , at the switching node in the second state in which the first and second sets of the level-setting capacitors are being respectively discharged and charged; a second calculation circuit configured to calculate a second error voltage as a difference between the second voltage in one operating cycle (V SW2 [n-1]) and in a next subsequent operating cycle (V SW2 [n]); and a second fault circuit configured to provide a second fault output indicative of a fault in response to an absolute value of the second error voltage exceeding the short-circuit-trip level. a first measuring circuit configured to measure a first voltage, V SW1 , at the switching node in the first state in which first and second sets of the level-setting capacitors are being respectively charged and discharged; a first calculation circuit configured to calculate a first error voltage as a difference between the first voltage in one operating cycle (V SW1 [n-1]) and in a next subsequent operating cycle (V SW1 [n]); a first fault circuit configured to provide a first fault output indicative of a fault in response to an absolute value of the first error voltage exceeding a short-circuit-trip level; a second measuring circuit configured to measure a second voltage, V SW2 , at the switching node in the second state in which the first and second sets of the level-setting capacitors are being respectively discharged and charged; a second calculation circuit configured to calculate a second error voltage as a difference between the second voltage in one operating cycle (V SW2 [n-1]) and in a next subsequent operating cycle (V SW2 [n]); and a second fault circuit configured to provide a second fault output indicative of a fault in response to an absolute value of the second error voltage exceeding the short-circuit-trip level.
A method of inhibiting a sightline between a charged particle source and an input to a charged particle analyzer , comprising: applying a predetermined voltage to a hollow body defining a first end , a second end and a first axis extending from the first end to the second end along a centerline of the hollow body , the predetermined voltage establishing an electromagnetic field within the body for directing a flow of charged particles through the hollow body along a desired flow path from an incident aperture spaced from the first axis to an exit aperture spaced from and reflected about the first axis ; applying a first electrode voltage to a first electrode assembly disposed relative to the first end of the hollow body ; and applying a second electrode voltage to a second electrode assembly disposed relative to the second end of the hollow body ; wherein the first electrode assembly comprises a first electrode defining a second axis substantially parallel to the first axis and substantially centered on the incident aperture ; and the second electrode assembly comprises a second electrode defining a third axis substantially parallel to the first axis and substantially centered on the exit aperture , characterised in that : the hollow body has an aspect ratio, defined as length divided by diameter of the first end , the second end , or both ends, of between 1.3 and 1.6, and the first electrode and the second electrode comprise grounded screens. applying a predetermined voltage to a hollow body defining a first end , a second end and a first axis extending from the first end to the second end along a centerline of the hollow body , the predetermined voltage establishing an electromagnetic field within the body for directing a flow of charged particles through the hollow body along a desired flow path from an incident aperture spaced from the first axis to an exit aperture spaced from and reflected about the first axis ; applying a first electrode voltage to a first electrode assembly disposed relative to the first end of the hollow body ; and applying a second electrode voltage to a second electrode assembly disposed relative to the second end of the hollow body ; wherein the first electrode assembly comprises a first electrode defining a second axis substantially parallel to the first axis and substantially centered on the incident aperture ; and the second electrode assembly comprises a second electrode defining a third axis substantially parallel to the first axis and substantially centered on the exit aperture , characterised in that : the hollow body has an aspect ratio, defined as length divided by diameter of the first end , the second end , or both ends, of between 1.3 and 1.6, and the first electrode and the second electrode comprise grounded screens.
A process of dyeing a textile, comprising the step of preparing a composition containing carbon particles and applying said composition to textiles, characterized in that at least part of said carbon particles are 2D nanoparticles and/or 2D microparticles having dimensions of 0.01 to 80 micrometers, measured as disclosed in the description, to provide an undercoating for the application of a dye, said process further comprising the step of dyeing said textile with at least one additional dye which is different from said 2D nanoparticles and 2D microparticles.
A propeller motor apparatus , comprising: a base ; a stator including a plurality of electromagnetic coils ; a rotor forming a cavity that substantially encompass the plurality of electromagnetic coils, the rotor adjustable during operation of the propeller motor between: a contracted position in which the rotor has a first diameter (Diameter 1 ), and an expanded position in which the rotor has a second diameter (Diameter 2 ) that is larger than the first diameter; a heating coil coupled to a surface of the rotor and configured to heat the rotor; and wherein the rotor transitions from the first diameter to the second diameter when heated. a base ; a stator including a plurality of electromagnetic coils ; a rotor forming a cavity that substantially encompass the plurality of electromagnetic coils, the rotor adjustable during operation of the propeller motor between: a contracted position in which the rotor has a first diameter (Diameter 1 ), and an expanded position in which the rotor has a second diameter (Diameter 2 ) that is larger than the first diameter; a contracted position in which the rotor has a first diameter (Diameter 1 ), and an expanded position in which the rotor has a second diameter (Diameter 2 ) that is larger than the first diameter; a heating coil coupled to a surface of the rotor and configured to heat the rotor; and wherein the rotor transitions from the first diameter to the second diameter when heated.