mhurhangee/patent-ind-claim-en huggingface dataset:
A surgical tool comprising: an elongated shaft having a proximal end and distal end; a surgical end effector at the distal end of the shaft, the surgical end effector comprising a plurality of end effector components each associated with a unique mechanical degree of freedom, the plurality of end effector components comprising a first end effector component and a second end effector component; and a drive mechanism at the proximal end of the shaft; and the drive mechanism comprising a first motor interface and a transmission , the transmission comprising a shift mechanism movable between a first state and a second state, in the first state the first motor interface being coupled via the transmission to drive the first end effector component without driving the second end effector component, and in the second state the first motor interface being coupled via the transmission to drive the second end effector component without driving the first end effector component; and characterized in that the shift mechanism includes a rotatable camshaft comprising a plurality of camshaft lobes that comprise at least a pair of lobes, one lobe being in an engaging position and the other lobe being in a disengaging position for powering and locking a respective end effector component in each of the first state and the second state, and wherein a first position of the rotatable camshaft corresponds to the first state and a second position of the rotatable camshaft corresponds to the second state. an elongated shaft having a proximal end and distal end; a surgical end effector at the distal end of the shaft, the surgical end effector comprising a plurality of end effector components each associated with a unique mechanical degree of freedom, the plurality of end effector components comprising a first end effector component and a second end effector component; and a drive mechanism at the proximal end of the shaft; and the drive mechanism comprising a first motor interface and a transmission , the transmission comprising a shift mechanism movable between a first state and a second state, in the first state the first motor interface being coupled via the transmission to drive the first end effector component without driving the second end effector component, and in the second state the first motor interface being coupled via the transmission to drive the second end effector component without driving the first end effector component; and characterized in that the shift mechanism includes a rotatable camshaft comprising a plurality of camshaft lobes that comprise at least a pair of lobes, one lobe being in an engaging position and the other lobe being in a disengaging position for powering and locking a respective end effector component in each of the first state and the second state, and wherein a first position of the rotatable camshaft corresponds to the first state and a second position of the rotatable camshaft corresponds to the second state.
A vehicle propulsion control handle, especially for underwater vehicles, fitted with a handpiece having a lever and a knob and with a board having a microprocessor and an encoder, wherein: the lower end of its handpiece is connected in a detachable manner to an offset of the upper surface of the base and to a lower inner offset , mounted thereon, of the profile lever arranged on a slot of the handpiece , wherein the profile lever is provided above the offset with an inner offset with a spring mounted thereon whose other end is adjacent to the inner surface of the handpiece , and characterized in that said profile lever is provided with an upper offset with magnet M1 fitted loosely to a pin in the slot of the handpiece , inside the upper end of said handpiece, and in that there there is provided the lower end of the housing with an outer ring-shaped offset and a bottom whose lower surface has two offsets separated by a slot such that an upper offset for the lever is provided in said slot; in said housing , there is set an electronic board permanently connected to an encoder and to at least one Hall sensor (H2, H3), arranged on the upper surface of the board , and the Hall sensor (H1) arranged on the lower surface of said board such that electrical wires are led out of said board through a pass-through hole in the offset of the housing ; next to each of the Hall sensors (H2, H3), in the side surface of the housing , there is provided at least one socket for a bistable slide function switch with a magnet (M2, M3), from top side, the electronic board is covered with a sleeve-shaped lid having on its upper face blind holes for springs with metal balls mounted thereon, wherein, on said lid , there is mounted a sleeve-shaped knob with an upper bottom , connected to the lid in a detachable manner, whose inner surface has an offset for the upper end of the profile encoder and blind holes for said metal balls of the springs .
A binaural hearing aid system comprising a plurality of microphones for provision of a respective plurality of microphone audio signals in response to sound received at the plurality of microphones , a signal separation unit with a beamformer configured to provide an estimate of a target signal and an estimate of a noise signal based on the plurality of microphone audio signals , wherein the beamformer comprises adaptive filters each of which is configured to filter a respective one of the plurality of microphone audio signals , characterized in that the beamformer has an adder with a plurality of inputs each of which is connected to an output of a respective one of the adaptive filters and an output for provision of the sum of the outputs of the adaptive filters , and wherein the output is connected to an input of each of the adaptive filters for provision of the sum of the outputs of the adaptive filters as an error function to each of the adaptive filters , whereby each of the adaptive filters is configured to adapt the filter coefficients to minimize the sum of the outputs of the adaptive filters for provision of the estimate of the target signal , and wherein the beamformer comprises a subtractor configured for subtraction of the estimate of the target signal from one of the plurality of microphone audio signals for provision of the estimate of the noise signal . a plurality of inputs each of which is connected to an output of a respective one of the adaptive filters and an output for provision of the sum of the outputs of the adaptive filters , and wherein the output is connected to an input of each of the adaptive filters for provision of the sum of the outputs of the adaptive filters as an error function to each of the adaptive filters , whereby each of the adaptive filters is configured to adapt the filter coefficients to minimize the sum of the outputs of the adaptive filters for provision of the estimate of the target signal , and wherein the beamformer comprises a subtractor configured for subtraction of the estimate of the target signal from one of the plurality of microphone audio signals for provision of the estimate of the noise signal .
A method performed by a service communication proxy, SCP, entity in a wireless communication system, the method comprising: transmitting, to a network repository function, NRF, entity , a network function, NF, discovery request message including first information associated with a target SCP entity; and in response to the NF discovery request message, receiving, from the NRF entity , an NF discovery response message including second information associated with the target SCP entity based on the first information, wherein the first information includes a type of NF for the target SCP entity, the type of NF being set to an SCP, and wherein the first information includes at least one of NF set information associated with an NF entity served by the target SCP entity or a network slice related identifier associated with the target SCP entity. transmitting, to a network repository function, NRF, entity , a network function, NF, discovery request message including first information associated with a target SCP entity; and in response to the NF discovery request message, receiving, from the NRF entity , an NF discovery response message including second information associated with the target SCP entity based on the first information, wherein the first information includes a type of NF for the target SCP entity, the type of NF being set to an SCP, and wherein the first information includes at least one of NF set information associated with an NF entity served by the target SCP entity or a network slice related identifier associated with the target SCP entity.
A system for detecting material accumulation relative to disk gang assemblies of agricultural implements , the system including an implement frame and a disk gang assembly supported relative to the implement frame , the disk gang assembly including a toolbar coupled to the implement frame and a plurality of disks supported by the toolbar , a load sensor configured to provide data indicative of an applied load through the disk gang assembly ; and a computing system communicatively coupled to the load sensor , the computing system being configured to: monitor the load applied through the disk gang assembly based on the data provided by the load sensor ; compare the monitored load to a load threshold selected for the disk gang assembly wherein the load threshold comprises a maximum load threshold; determine that the disk gang assembly is in a plugged state when the monitored load exceeds the maximum load threshold; initiate a control action when it is determined that the disk gang assembly is in the plugged state; and characterized in that the computing system is further configured to select the load threshold based at least in part on a ground speed of the agricultural implement and a penetration depth of the plurality of disks of the disk gang assembly . a load sensor configured to provide data indicative of an applied load through the disk gang assembly ; and a computing system communicatively coupled to the load sensor , the computing system being configured to: monitor the load applied through the disk gang assembly based on the data provided by the load sensor ; compare the monitored load to a load threshold selected for the disk gang assembly wherein the load threshold comprises a maximum load threshold; determine that the disk gang assembly is in a plugged state when the monitored load exceeds the maximum load threshold; initiate a control action when it is determined that the disk gang assembly is in the plugged state; and characterized in that the computing system is further configured to select the load threshold based at least in part on a ground speed of the agricultural implement and a penetration depth of the plurality of disks of the disk gang assembly . monitor the load applied through the disk gang assembly based on the data provided by the load sensor ; compare the monitored load to a load threshold selected for the disk gang assembly wherein the load threshold comprises a maximum load threshold; determine that the disk gang assembly is in a plugged state when the monitored load exceeds the maximum load threshold; initiate a control action when it is determined that the disk gang assembly is in the plugged state; and characterized in that the computing system is further configured to select the load threshold based at least in part on a ground speed of the agricultural implement and a penetration depth of the plurality of disks of the disk gang assembly .
A cherry blossom pink decorative member comprising a base and a decorative coating formed on the base, wherein the decorative coating is formed by layering an undercoat layer and a finishing layer from the base side, the undercoat layer is a carbonitride layer composed of a carbonitride of a metal containing Ti and at least one selected from Nb and Ta, and the finishing layer is a Au alloy layer composed of an alloy containing Au, a metal having a silver color, and Cu; and wherein the metal having a silver color is at least one selected from Pd, Pt, and Rh. the decorative coating is formed by layering an undercoat layer and a finishing layer from the base side, the undercoat layer is a carbonitride layer composed of a carbonitride of a metal containing Ti and at least one selected from Nb and Ta, and the finishing layer is a Au alloy layer composed of an alloy containing Au, a metal having a silver color, and Cu; and wherein the metal having a silver color is at least one selected from Pd, Pt, and Rh.
Method for monitoring a solenoid valve having a control coil for controlling an air pressure in a brake cylinder of an electropneumatic brake , wherein the solenoid valve has a supply voltage side , at which the control coil takes up an electric supply current, and a reference potential side , at which the control coil delivers the electric supply current, said method comprising: - applying a test signal on one side of the solenoid valve ; - tapping a measurement signal (62 to 64) on the other side of the solenoid valve , and - determining the state of the solenoid valve based on a juxtaposition of the test signal and of the measurement signal (62 to 66), characterized in that the test signal is dependent on the control of the air pressure in the brake cylinder . - applying a test signal on one side of the solenoid valve ; - tapping a measurement signal (62 to 64) on the other side of the solenoid valve , and - determining the state of the solenoid valve based on a juxtaposition of the test signal and of the measurement signal (62 to 66), characterized in that the test signal is dependent on the control of the air pressure in the brake cylinder .
A nasal cannula comprising a manifold part , at least one nasal prong or a pair of nasal prongs, a port located on the manifold part of the nasal cannula , wherein the port is configured for interfacing with a medicament delivery device to dispense medicament into a flow of fluid being delivered by the nasal cannula to a user, wherein a path through the port is aligned with a flow path through the nasal prong of the nasal cannula , such that the medicament is delivered to a user through the at least one nasal prong or a pair of nasal prongs in use, wherein the manifold part comprises a depression to act as a keyway to receive a corresponding key of the medicament delivery device , in use, or the manifold part comprises a protrusion to act as a key to be received in a corresponding keyway of the medicament delivery device , in use, to correctly orientate the medicament delivery device to the nasal cannula . a manifold part , at least one nasal prong or a pair of nasal prongs, a port located on the manifold part of the nasal cannula , wherein the port is configured for interfacing with a medicament delivery device to dispense medicament into a flow of fluid being delivered by the nasal cannula to a user, wherein a path through the port is aligned with a flow path through the nasal prong of the nasal cannula , such that the medicament is delivered to a user through the at least one nasal prong or a pair of nasal prongs in use, wherein the manifold part comprises a depression to act as a keyway to receive a corresponding key of the medicament delivery device , in use, or the manifold part comprises a protrusion to act as a key to be received in a corresponding keyway of the medicament delivery device , in use, to correctly orientate the medicament delivery device to the nasal cannula .
A method at a user equipment for registering with a third network node using an internet protocol, IP, multimedia subsystem, IMS, the third network node being a serving call session control function, S-CSCF, the method comprising: creating a tunnel between the user equipment and a first network node; sending , using the tunnel, a first public identity (Public User ID2) associated with the user equipment to the first network node; receiving configuration information from the first network node with a second private user identifier (Private ID2) and a second public user identifier (Public User ID3), the second private user identifier (Private ID2) and second public user identifier (Public User ID3) being associated with a second network node, wherein the configuration information contains validity areas and wherein the validity area is defined based on a Public Land Mobile Network, PLMN, identity or a geographic bounding area the user equipment falls within; and registering with the third network node using the second private user identifier (Private ID2) and the second public user identifier (Public User ID3) based on a comparison between the PLMN identity in the validity areas and a PLMN identity of the network that the user equipment is registered on; wherein the receiving configuration information is subsequent to providing a configuration request to the first network node, including the PLMN identity of the network that the user equipment is registered on. creating a tunnel between the user equipment and a first network node; sending , using the tunnel, a first public identity (Public User ID2) associated with the user equipment to the first network node; receiving configuration information from the first network node with a second private user identifier (Private ID2) and a second public user identifier (Public User ID3), the second private user identifier (Private ID2) and second public user identifier (Public User ID3) being associated with a second network node, wherein the configuration information contains validity areas and wherein the validity area is defined based on a Public Land Mobile Network, PLMN, identity or a geographic bounding area the user equipment falls within; and registering with the third network node using the second private user identifier (Private ID2) and the second public user identifier (Public User ID3) based on a comparison between the PLMN identity in the validity areas and a PLMN identity of the network that the user equipment is registered on; wherein the receiving configuration information is subsequent to providing a configuration request to the first network node, including the PLMN identity of the network that the user equipment is registered on.
A gas turbine engine for an aircraft comprising: an engine core comprising a turbine , a compressor , and a core shaft connecting the turbine to the compressor; a fan located upstream of the engine core; a gearbox that receives an input from the core shaft and outputs drive to the fan so as to drive the fan at a lower rotational speed than the core shaft; and an annular splitter at which the flow is divided between a core flow (A) that flows through the engine core, and a bypass flow (B) that flows along a bypass duct , characterised in that a fan root to tip pressure ratio, defined as the ratio of the mean total pressure of the flow at the fan exit that subsequently flows through the engine core (P 102 ) to the mean total pressure of the flow at the fan exit that subsequently flows through the bypass duct (P 104 ), is no greater than 0.9 at cruise conditions. an engine core comprising a turbine , a compressor , and a core shaft connecting the turbine to the compressor; a fan located upstream of the engine core; a gearbox that receives an input from the core shaft and outputs drive to the fan so as to drive the fan at a lower rotational speed than the core shaft; and an annular splitter at which the flow is divided between a core flow (A) that flows through the engine core, and a bypass flow (B) that flows along a bypass duct , characterised in that a fan root to tip pressure ratio, defined as the ratio of the mean total pressure of the flow at the fan exit that subsequently flows through the engine core (P 102 ) to the mean total pressure of the flow at the fan exit that subsequently flows through the bypass duct (P 104 ), is no greater than 0.9 at cruise conditions.
A system for thermal ablation of tissue and temperature monitoring of said tissue, the system comprising: an insertion device configured to be inserted into said tissue; a radio-frequency source configured to transmit ablative radio-frequency energy into said tissue, via the insertion device, to generate heat within said tissue; a pulse generator configured to pulse the radio-frequency source to provide a non-ablative radio-frequency pulse at a pre-determined pulse rate, via the insertion device, and generate a thermoacoustic signal in said tissue, wherein the ablative radio-frequency energy and the non-ablative radio-frequency pulse are emitted simultaneously from a tip of the insertion device; a thermoacoustic transducer configured to receive the thermoacoustic signal; and a processor configured to utilize the thermoacoustic signal to calculate a temperature of said tissue, wherein the processor utilizes a thermoacoustic signal portion that is independent of the ablative energy, and wherein the processor is further configured to determine a depth of the insertion device within the tissue from a surface and associate the calculated temperature with the determined depth. an insertion device configured to be inserted into said tissue; a radio-frequency source configured to transmit ablative radio-frequency energy into said tissue, via the insertion device, to generate heat within said tissue; a pulse generator configured to pulse the radio-frequency source to provide a non-ablative radio-frequency pulse at a pre-determined pulse rate, via the insertion device, and generate a thermoacoustic signal in said tissue, wherein the ablative radio-frequency energy and the non-ablative radio-frequency pulse are emitted simultaneously from a tip of the insertion device; a thermoacoustic transducer configured to receive the thermoacoustic signal; and a processor configured to utilize the thermoacoustic signal to calculate a temperature of said tissue, wherein the processor utilizes a thermoacoustic signal portion that is independent of the ablative energy, and wherein the processor is further configured to determine a depth of the insertion device within the tissue from a surface and associate the calculated temperature with the determined depth.