mhurhangee/patent-ind-claim-en huggingface dataset:
A handle assembly of a hand-held electromechanical surgical device, the handle assembly comprising: a power pack including: a core assembly having a plurality of motors and a plurality of drive shafts operably coupled to a respective one of the plurality of motors, a processor connected to and configured to control each motor; and a battery electrically connected to the processor and each motor; and an inner housing encasing at least the plurality of motors, the processor and the battery; an outer shell housing including distal and proximal half-sections which when joined define a cavity configured to selectively receive the power pack therein, the distal half-section having a connecting portion for coupling to an adapter assembly ; and a barrier plate assembly disposed between the connecting portion of the distal half-section of the outer shell housing and the inner housing of the power pack, wherein a rotation of each drive shaft by the respective motor is transmitted through the inner housing and the outer shell housing via the barrier plate assembly; characterised in that the barrier plate assembly further includes at least one rotatable coupling shaft and a plate supporting the at least one coupling shaft, the at least one rotatable coupling shaft having a proximal end configured to receive rotative forces from a respective one of the plurality of drive shafts , and a distal end projecting from the handle assembly extending through the distal half-section of the outer shell housing . a core assembly having a plurality of motors and a plurality of drive shafts operably coupled to a respective one of the plurality of motors, a processor connected to and configured to control each motor; and a battery electrically connected to the processor and each motor; and an inner housing encasing at least the plurality of motors, the processor and the battery; an outer shell housing including distal and proximal half-sections which when joined define a cavity configured to selectively receive the power pack therein, the distal half-section having a connecting portion for coupling to an adapter assembly ; and a barrier plate assembly disposed between the connecting portion of the distal half-section of the outer shell housing and the inner housing of the power pack, wherein a rotation of each drive shaft by the respective motor is transmitted through the inner housing and the outer shell housing via the barrier plate assembly; characterised in that the barrier plate assembly further includes at least one rotatable coupling shaft and a plate supporting the at least one coupling shaft, the at least one rotatable coupling shaft having a proximal end configured to receive rotative forces from a respective one of the plurality of drive shafts , and a distal end projecting from the handle assembly extending through the distal half-section of the outer shell housing .
A flying object system comprising: a flying object having an image capturing device , an exterior body on which a capture-dependent image depending on an image captured by the image capturing device is projected, and a flying device that causes the exterior body to fly; and a controller that outputs a signal for projecting the capture-dependent image on the exterior body , characterized in that the flying object further has an azimuth detector that detects an azimuth of the flying object , wherein from azimuth information of the flying object detected by the azimuth detector , the controller determines an image-capturing azimuth in which the capture-dependent image is captured, and based on a positional relationship between the flying object and a plurality of projectors of a projection device , the controller is configured to cause any one of the plurality of projectors whose azimuth relative to the flying object corresponds to the image-capturing azimuth to project the capture-dependent image. a flying object having an image capturing device , an exterior body on which a capture-dependent image depending on an image captured by the image capturing device is projected, and a flying device that causes the exterior body to fly; and a controller that outputs a signal for projecting the capture-dependent image on the exterior body , characterized in that the flying object further has an azimuth detector that detects an azimuth of the flying object , wherein from azimuth information of the flying object detected by the azimuth detector , the controller determines an image-capturing azimuth in which the capture-dependent image is captured, and based on a positional relationship between the flying object and a plurality of projectors of a projection device , the controller is configured to cause any one of the plurality of projectors whose azimuth relative to the flying object corresponds to the image-capturing azimuth to project the capture-dependent image.
A transmitter communication device configured for communication with a receiver communication device in a wireless communication network , wherein the transmitter communication device comprises: a processor configured to provide basic synchronization information by generating a communication frame comprising at least a first signal and a second signal for synchronizing the receiver communication device and characterized in that the processor is further configured to provide additional synchronization information on the basis of the first and the second signal by: - arranging at least the first signal and the second signal in a pre-defined configuration in the communication frame , namely by the combination of positions of the first and second signal within the communication frame; and - selecting the first and the second signal from a set of pre-defined synchronization signals that differ in a generating code. a processor configured to provide basic synchronization information by generating a communication frame comprising at least a first signal and a second signal for synchronizing the receiver communication device and characterized in that the processor is further configured to provide additional synchronization information on the basis of the first and the second signal by: - arranging at least the first signal and the second signal in a pre-defined configuration in the communication frame , - arranging at least the first signal and the second signal in a pre-defined configuration in the communication frame , namely by the combination of positions of the first and second signal within the communication frame; and - selecting the first and the second signal from a set of pre-defined synchronization signals that differ in a generating code. - selecting the first and the second signal from a set of pre-defined synchronization signals that differ in a generating code.
A fuel injector , comprising: an injector body including a manifold and an inlet , the manifold configured for receiving fuel and the inlet configured for receiving air; a plurality of fuel vanes located within the injector body and positioned in a direction that is generally parallel with a longitudinal axis of the injector body to orient the air flowing from the inlet , the plurality of fuel vanes being fluidly connected to the manifold; a plurality of fuel pegs fluidly connected to the manifold and arranged within the plurality of fuel vanes and fluidly connected thereto, the plurality of fuel pegs each being spaced at a distance that is about equal between each of the plurality of fuel pegs; characterised in that the plurality of fuel vanes are fluidly connected to one another to create a hexagram configuration, wherein the hexagram configuration includes two equilateral triangles that intersect one another at a plurality of vertices , the plurality of vertices each being spaced at a distance that is about equal between each adjacent vertice. an injector body including a manifold and an inlet , the manifold configured for receiving fuel and the inlet configured for receiving air; a plurality of fuel vanes located within the injector body and positioned in a direction that is generally parallel with a longitudinal axis of the injector body to orient the air flowing from the inlet , the plurality of fuel vanes being fluidly connected to the manifold; a plurality of fuel pegs fluidly connected to the manifold and arranged within the plurality of fuel vanes and fluidly connected thereto, the plurality of fuel pegs each being spaced at a distance that is about equal between each of the plurality of fuel pegs; characterised in that the plurality of fuel vanes are fluidly connected to one another to create a hexagram configuration, wherein the hexagram configuration includes two equilateral triangles that intersect one another at a plurality of vertices , the plurality of vertices each being spaced at a distance that is about equal between each adjacent vertice.
An interface joint for interconnecting an electrosurgical generator and an electrosurgical instrument, the interface joint comprising: a housing made of electrically insulating material, the housing having: a first inlet for receiving radiofrequency (RF) electromagnetic (EM) energy and/or microwave frequency EM energy from the electrosurgical generator, a second inlet for receiving fluid , and an outlet ; a flexible shaft for connecting the housing to the electrosurgical instrument, the flexible shaft extending through the outlet and having a longitudinal passage therein, which provides a fluid flow path that is in fluid communication with the second inlet, and which conveys a coaxial transmission line that is connected to the first inlet; an actuation mechanism operably connected to the electrosurgical instrument to control deployment of a fluid delivery structure, the actuation mechanism comprising: an actuation rod extending out of the housing through the outlet, an actuator arm pivotably mounted on the housing, the actuator arm having a first portion that protrudes from the housing, and a second portion operably connected to the actuation rod. a housing made of electrically insulating material, the housing having: a first inlet for receiving radiofrequency (RF) electromagnetic (EM) energy and/or microwave frequency EM energy from the electrosurgical generator, a second inlet for receiving fluid , and an outlet ; a first inlet for receiving radiofrequency (RF) electromagnetic (EM) energy and/or microwave frequency EM energy from the electrosurgical generator, a second inlet for receiving fluid , and an outlet ; a flexible shaft for connecting the housing to the electrosurgical instrument, the flexible shaft extending through the outlet and having a longitudinal passage therein, which provides a fluid flow path that is in fluid communication with the second inlet, and which conveys a coaxial transmission line that is connected to the first inlet; an actuation mechanism operably connected to the electrosurgical instrument to control deployment of a fluid delivery structure, the actuation mechanism comprising: an actuation rod extending out of the housing through the outlet, an actuator arm pivotably mounted on the housing, the actuator arm having a first portion that protrudes from the housing, and a second portion operably connected to the actuation rod. an actuation rod extending out of the housing through the outlet, an actuator arm pivotably mounted on the housing, the actuator arm having a first portion that protrudes from the housing, and a second portion operably connected to the actuation rod.
Device for increasing the field of view of a camera of an image processing system, comprising a camera , which has an image sensor and a lens , the device containing at least one beam splitter , which is designed in such a way that some of the light detected by the lens is transmitted through the beam splitter and some of the light detected by the lens is reflected at the beam splitter, so that a first partial area of the field of view is imaged onto the image sensor via the lens and at least a second partial area of the field of view is imaged onto the image sensor by means of at least a first mirror and the lens , at least one filter element being arranged in the optical path of each partial area in order to simultaneously detect the partial areas in the wavelength division multiplex, or at least one switchable aperture being arranged in order to detect the partial areas sequentially, characterized in that the camera contains a line sensor and the second partial area of the field of view is disposed adjacent to the first partial area of the field of view , the optical paths running approximately parallel and impinging approximately at the same angle on an object to be detected. at least one filter element being arranged in the optical path of each partial area in order to simultaneously detect the partial areas in the wavelength division multiplex, or at least one switchable aperture being arranged in order to detect the partial areas sequentially, characterized in that the camera contains a line sensor and the second partial area of the field of view is disposed adjacent to the first partial area of the field of view , the optical paths running approximately parallel and impinging approximately at the same angle on an object to be detected.
A surgical device for clipping tissue, comprising: a housing comprising a motor configured to output rotary motions; a shaft extending from said housing; an end effector extending from said shaft, comprising: a first jaw rotatably coupled to said shaft; a second jaw rotatably coupled to said shaft; and a clip receiving chamber; a crimping drive configured to move said first jaw and said second jaw toward each other during a crimping stroke, and wherein said crimping drive is operably responsive to said rotary motions; a clip magazine comprising a plurality of clips, wherein said plurality of clips are in a storage configuration when in said clip magazine; a reciprocating firing drive configured to move a said clip from said clip magazine to a forming position in said end effector during a clip feed stroke in response to said rotary motions, wherein a said clip in said forming position is in a forming configuration, and wherein said forming configuration is the same as said storage configuration; and characterized by a magnet positioned in the end effector configured to be detected by a sensor; and a motor controller configured to control said reciprocating firing drive independent of said crimping drive, wherein said motor controller is configured to automatically actuate said motor to perform said clip feed stroke upon said surgical device being inserted into a treatment area based on the position of the magnet relative to the sensor. a housing comprising a motor configured to output rotary motions; a shaft extending from said housing; an end effector extending from said shaft, comprising: a first jaw rotatably coupled to said shaft; a second jaw rotatably coupled to said shaft; and a clip receiving chamber; a first jaw rotatably coupled to said shaft; a second jaw rotatably coupled to said shaft; and a clip receiving chamber; a crimping drive configured to move said first jaw and said second jaw toward each other during a crimping stroke, and wherein said crimping drive is operably responsive to said rotary motions; a clip magazine comprising a plurality of clips, wherein said plurality of clips are in a storage configuration when in said clip magazine; a reciprocating firing drive configured to move a said clip from said clip magazine to a forming position in said end effector during a clip feed stroke in response to said rotary motions, wherein a said clip in said forming position is in a forming configuration, and wherein said forming configuration is the same as said storage configuration; and characterized by a magnet positioned in the end effector configured to be detected by a sensor; and a motor controller configured to control said reciprocating firing drive independent of said crimping drive, wherein said motor controller is configured to automatically actuate said motor to perform said clip feed stroke upon said surgical device being inserted into a treatment area based on the position of the magnet relative to the sensor.
An ozone generator apparatus comprising - an ozone generator unit comprising ∘ a high voltage electrode unit ; ∘ a first and second dielectric element ; ∘ a first and second earth electrode ; wherein said high voltage electrode unit is located between said first and said second dielectric element - wherein said generator unit is configured to be operated at an operational frequency range between 30 and 40 kHz; characterised in that the apparatus further comprises: - a low frequency, high voltage AC power supply, being a transformer assembly, configured to provide between 50 and 800 Watts at a frequency between 30 and 40 kHz to the ozone generator unit. - an ozone generator unit comprising ∘ a high voltage electrode unit ; ∘ a first and second dielectric element ; ∘ a first and second earth electrode ; ∘ a high voltage electrode unit ; ∘ a first and second dielectric element ; ∘ a first and second earth electrode ; wherein said high voltage electrode unit is located between said first and said second dielectric element - wherein said generator unit is configured to be operated at an operational frequency range between 30 and 40 kHz; - wherein said generator unit is configured to be operated at an operational frequency range between 30 and 40 kHz; characterised in that the apparatus further comprises: - a low frequency, high voltage AC power supply, being a transformer assembly, configured to provide between 50 and 800 Watts at a frequency between 30 and 40 kHz to the ozone generator unit. - a low frequency, high voltage AC power supply, being a transformer assembly, configured to provide between 50 and 800 Watts at a frequency between 30 and 40 kHz to the ozone generator unit.
Structural suspension of radial turret bearing wheels in a turret bearing , comprising: a rail support structure mounted on a turret bearing support structure , a circular rail mounted to the rail support structure, a plurality of radial wheels running on the mainly vertical inner side of the rail , a mainly vertical flexible shaft , for each radial wheel being supported by an upper and lower support with a part of the shaft protruding like a cantilever with the radial wheel mounted close to the outer end, wherein the inner side of the rail is a frustum with the shortest radius at the top and an aperture of 2γ, wherein the outer mainly planar contacting surface of the wheel has an angle θ relative to the rotational axis of the wheel, and is overlaid with a convex curvature across the contacting surface , wherein the axis of the wheel is tilting an angle A relative to the unloaded condition of the axis, when the shaft is under maximum load, wherein the angle E between γ and the tangent of the curvature across the contacting surface is less than zero at the top of the contacting surface for conditions without load and larger than A at the bottom of the contacting surface for conditions with maximum load, and wherein the flexibility and length of the shafts, the clearance (CL1,CL2) between the wheels and the inner side of rail, and the positions of the upper and lower shaft supports are chosen such that the sector distributing the radial load on the rail increases as the radial load increases. characterised in that the distance between the radial wheel and the inner side of the rail is adjusted by: the shaft comprising at least two lockable rotational positions, an upper shaft portion of the shaft having a centerline offset relative to the rotational axis of the shaft , wherein the at least two lockable positions are provided by the lower shaft support comprising a shape that mates with a similar shape on the lower end of the shaft in at least two angular positions. a rail support structure mounted on a turret bearing support structure , a circular rail mounted to the rail support structure, a plurality of radial wheels running on the mainly vertical inner side of the rail , a mainly vertical flexible shaft , for each radial wheel being supported by an upper and lower support with a part of the shaft protruding like a cantilever with the radial wheel mounted close to the outer end, the shaft comprising at least two lockable rotational positions, an upper shaft portion of the shaft having a centerline offset relative to the rotational axis of the shaft , wherein the at least two lockable positions are provided by the lower shaft support comprising a shape that mates with a similar shape on the lower end of the shaft in at least two angular positions.
A memory module comprising: a data (DQ) buffer component; a plurality of device sites coupled to the DQ buffer component; and a command and address, CA, buffer component , wherein the command and address (CA) buffer component comprises: a primary interface comprising a first pin to receive a local chip select, CS, signal from the memory controller and a second pin to receive a distant CS signal from another memory module; and a secondary interface to select a first set of one or more of the plurality of device sites, wherein each of the plurality of device sites comprises at least one of a single memory die, when the local CS signal is received on the first pin or a second set of one or more of the plurality of device sites when the distant CS signal is received on the second pin , wherein the CA buffer component is configured to retransmit the local CS signal (801, CSO#) received on the first pin as a distant CS signal (803, CS_COPY#) on the second pin to the another memory module . a data (DQ) buffer component; a plurality of device sites coupled to the DQ buffer component; and a command and address, CA, buffer component , wherein the command and address (CA) buffer component comprises: a primary interface comprising a first pin to receive a local chip select, CS, signal from the memory controller and a second pin to receive a distant CS signal from another memory module; and a secondary interface to select a first set of one or more of the plurality of device sites, wherein each of the plurality of device sites comprises at least one of a single memory die, when the local CS signal is received on the first pin or a second set of one or more of the plurality of device sites when the distant CS signal is received on the second pin , a primary interface comprising a first pin to receive a local chip select, CS, signal from the memory controller and a second pin to receive a distant CS signal from another memory module; and a secondary interface to select a first set of one or more of the plurality of device sites, wherein each of the plurality of device sites comprises at least one of a single memory die, when the local CS signal is received on the first pin or a second set of one or more of the plurality of device sites when the distant CS signal is received on the second pin ,
Method for joining a first timepiece component , made of a base material, and a second timepiece component , characterised in that it comprises the following steps: a) depositing a multilayer metallic coating on at least a part of the first timepiece component , the multilayer metallic coating comprising a first layer in contact with the first timepiece component and made of a first metallic material and, on the first layer , a second layer made of a second metallic material different from the first metallic material, and b) brazing the second timepiece component to said at least a part of the first timepiece component . a) depositing a multilayer metallic coating on at least a part of the first timepiece component , the multilayer metallic coating comprising a first layer in contact with the first timepiece component and made of a first metallic material and, on the first layer , a second layer made of a second metallic material different from the first metallic material, and b) brazing the second timepiece component to said at least a part of the first timepiece component .