mhurhangee/patent-ind-claim-en huggingface dataset:
A communication method, comprising: receiving, by a terminal device, first indication information sent by a network device, the first indication information indicating a service type of a target service; determining, by the terminal device, a Discontinuous Reception, DRX, parameter corresponding to the target service from a plurality of preconfigured DRX parameters according to the service type of the target service and correspondences between service types and DRX parameters, wherein information of the service type of the target service comprises at least one of: a Quality of Service Flow Identifier, QoS-Flow-ID, of data of the target service, or a Data Radio Bearer, DRB, carrying data of the target service, and wherein the plurality of preconfigured DRX parameters are configured by the network device for the terminal device through configuration signaling; executing , by the terminal device, the target service in a DRX manner according to the DRX parameter corresponding to the target service. receiving, by a terminal device, first indication information sent by a network device, the first indication information indicating a service type of a target service; determining, by the terminal device, a Discontinuous Reception, DRX, parameter corresponding to the target service from a plurality of preconfigured DRX parameters according to the service type of the target service and correspondences between service types and DRX parameters, wherein information of the service type of the target service comprises at least one of: a Quality of Service Flow Identifier, QoS-Flow-ID, of data of the target service, or a Data Radio Bearer, DRB, carrying data of the target service, and wherein the plurality of preconfigured DRX parameters are configured by the network device for the terminal device through configuration signaling; executing , by the terminal device, the target service in a DRX manner according to the DRX parameter corresponding to the target service.
A system for performing an endoscopic surgical procedure in a surgical cavity, comprising: a) a gas delivery device having a pump for delivering pressurized gas to a gas delivery lumen extending therefrom and having an insufflator for delivering insufflation gas to an insufflation lumen extending therefrom; and b) a gaseous sealing module characterized in that the gaseous sealing module communicates with a distal end of the gas delivery lumen , external to the gas delivery device , and is configured to generate a gaseous seal within a gas sealed lumen extending therefrom; and in that the system further comprises: c) a gas sealed sleeve having a proximal end portion communicating with a distal end portion of the gas sealed lumen ; and d) a tubular access port configured for coaxial installation within the gas sealed sleeve and having a valve sealed proximal housing providing sealed instrument access to the surgical cavity and communicating with a distal end of the insufflation lumen , wherein an annular channel is formed between an inner surface of the gas sealed sleeve and an outer surface of the tubular access port so that the gas sealed lumen is in communication with the surgical cavity to maintain a stable pressure and facilitate smoke evacuation within the surgical cavity. a) a gas delivery device having a pump for delivering pressurized gas to a gas delivery lumen extending therefrom and having an insufflator for delivering insufflation gas to an insufflation lumen extending therefrom; and b) a gaseous sealing module characterized in that the gaseous sealing module communicates with a distal end of the gas delivery lumen , external to the gas delivery device , and is configured to generate a gaseous seal within a gas sealed lumen extending therefrom; and in that the system further comprises: in that the gaseous sealing module communicates with a distal end of the gas delivery lumen , external to the gas delivery device , and is configured to generate a gaseous seal within a gas sealed lumen extending therefrom; and in that the system further comprises: c) a gas sealed sleeve having a proximal end portion communicating with a distal end portion of the gas sealed lumen ; and d) a tubular access port configured for coaxial installation within the gas sealed sleeve and having a valve sealed proximal housing providing sealed instrument access to the surgical cavity and communicating with a distal end of the insufflation lumen , wherein an annular channel is formed between an inner surface of the gas sealed sleeve and an outer surface of the tubular access port so that the gas sealed lumen is in communication with the surgical cavity to maintain a stable pressure and facilitate smoke evacuation within the surgical cavity.
A machine tool for lapping surface machining of ceramic and/or stone materials, comprising at least one head configured to rotate about a first axis (x) substantially parallel to a surface to be machined, and mounted on a support configured to rotate about a second axis (z) perpendicular to the first axis (x) and to the surface to be machined, a tool-holder cylinder (100; 300) designed to be attached to the at least one head so as to rotate about the first axis (x), and having an axis of central symmetry coinciding with the first axis (x), an upper surface (120; 320), a lower surface (130; 330), and a side surface (160; 360) parallel to the first axis (X), the machine tool being characterised in that there are aplurality of seats (111; 311) formed on the side surface (160; 360) of the tool-holder cylinder, which are designed to house fickert abrasive tools for lapping operations, wherein the seats (111; 311) house the abrasive tools by means of a dovetail coupling and have a first tapering which extends perpendicularly and away from the first axis (x), and a second tapering parallel to the first axis (x). at least one head configured to rotate about a first axis (x) substantially parallel to a surface to be machined, and mounted on a support configured to rotate about a second axis (z) perpendicular to the first axis (x) and to the surface to be machined, a tool-holder cylinder (100; 300) designed to be attached to the at least one head so as to rotate about the first axis (x), and having an axis of central symmetry coinciding with the first axis (x), an upper surface (120; 320), a lower surface (130; 330), and a side surface (160; 360) parallel to the first axis (X), the machine tool being characterised in that there are aplurality of seats (111; 311) formed on the side surface (160; 360) of the tool-holder cylinder, which are designed to house fickert abrasive tools for lapping operations, wherein the seats (111; 311) house the abrasive tools by means of a dovetail coupling and have a first tapering which extends perpendicularly and away from the first axis (x), and a second tapering parallel to the first axis (x).
A positive airway pressure device for generating a supply of pressurized gas to be provided to a patient for treatment, the positive airway pressure device comprising: an outer casing ; a blower including a housing having an inlet along an inlet side thereof and an outlet along an outlet side thereof, the inlet and the outlet being co-axially aligned, wherein the blower is configured to draw a supply of gas into the housing through the inlet and provide a pressurized flow of gas at the outlet ; and a support system provided between the blower and the outer casing , wherein the support system includes an annular seal provided to an outer surface of the housing and adapted to engage the outer casing to support the blower within the outer casing and separate the inlet side of the blower from the outlet side of the blower , characterised in that the support system further comprises multiple feet provided to a bottom of the blower and adapted to engage a base of the outer casing and the support system is constructed of an elastomeric material without using springs. an outer casing ; a blower including a housing having an inlet along an inlet side thereof and an outlet along an outlet side thereof, the inlet and the outlet being co-axially aligned, wherein the blower is configured to draw a supply of gas into the housing through the inlet and provide a pressurized flow of gas at the outlet ; and a support system provided between the blower and the outer casing , wherein the support system includes an annular seal provided to an outer surface of the housing and adapted to engage the outer casing to support the blower within the outer casing and separate the inlet side of the blower from the outlet side of the blower , characterised in that the support system further comprises multiple feet provided to a bottom of the blower and adapted to engage a base of the outer casing and the support system is constructed of an elastomeric material without using springs.
A lower structure of a vehicle, comprising: an underbody including a framework member extending in a longitudinal direction of the vehicle; a front suspension member positioned below a front portion of the underbody and mounted on the framework member of the underbody ; and a spacer provided between the underbody and the front suspension member and having a front end surface opposed to a rear wall surface of the front suspension member , characterised in that the rear wall surface of the front suspension member abuts against the front end surface during a frontal collision. an underbody including a framework member extending in a longitudinal direction of the vehicle; a front suspension member positioned below a front portion of the underbody and mounted on the framework member of the underbody ; and a spacer provided between the underbody and the front suspension member and having a front end surface opposed to a rear wall surface of the front suspension member , characterised in that the rear wall surface of the front suspension member abuts against the front end surface during a frontal collision.
An LED strobe notification device configured to generate an output with a fixed pulse width having a humanly perceptible pulse duration and a fixed peak intensity, wherein the device comprises a LED strobe element and a LED controller configured to receive a candela selection among a plurality of candela settings, characterized in that a highest candela setting corresponds to a continuous output within the duration of the pulse and other candela settings are obtained by flickering the pulse with a frequency higher than humanly perceptible and with different duty cycles for different candela settings, wherein in response to receiving a command to activate the LED strobe element, the LED controller is further configured to control the LED strobe element to generate the output at the selected candela setting.
An image processing method, comprising: in response to detecting that a camera component is turned on, controlling the camera component to collect a speckle image of an object that is illuminated with laser speckles; detecting a current temperature of the camera component; acquiring a reference image with reference depth information based on the current temperature and a preset correspondence between reference images and specified temperatures, wherein the reference images are speckle images which have been collected when calibrating the camera component, wherein acquiring a reference image includes acquiring a difference between the current temperature and each specified temperature, and acquiring the reference image corresponding to the specified temperature with the smallest difference; and calculating based on the speckle image and the acquired reference image to acquire a depth image. in response to detecting that a camera component is turned on, controlling the camera component to collect a speckle image of an object that is illuminated with laser speckles; detecting a current temperature of the camera component; acquiring a reference image with reference depth information based on the current temperature and a preset correspondence between reference images and specified temperatures, wherein the reference images are speckle images which have been collected when calibrating the camera component, wherein acquiring a reference image includes acquiring a difference between the current temperature and each specified temperature, and acquiring the reference image corresponding to the specified temperature with the smallest difference; and calculating based on the speckle image and the acquired reference image to acquire a depth image.
Circuit breaker - comprising a vacuum interrupter which is accommodated in a pole shell and has a fixed contact and a moving contact, - comprising a drive rod , which is of electrically insulating design, for introducing a drive movement from a switch drive into the moving contact in order to open and/or close the contact system of the vacuum interrupter , - comprising a guide and/or centring means which is provided radially between the drive rod and the pole shell and is designed to automatically axially orient the drive rod in the pole shell , - wherein the guide and/or centring means is connected to the drive rod , characterized in that the guide and/or centring means is a constituent part of the drive rod , wherein the guide and/or centring means has a dimension which is larger than a main body of the drive rod along a longitudinal axis of the drive rod , wherein the guide and/or centring means is an annular flange which is arranged on the drive rod , and wherein the guide and/or centring means is an insulating rib which is arranged on the drive rod . - comprising a vacuum interrupter which is accommodated in a pole shell and has a fixed contact and a moving contact, - comprising a drive rod , which is of electrically insulating design, for introducing a drive movement from a switch drive into the moving contact in order to open and/or close the contact system of the vacuum interrupter , - comprising a guide and/or centring means which is provided radially between the drive rod and the pole shell and is designed to automatically axially orient the drive rod in the pole shell , - wherein the guide and/or centring means is connected to the drive rod ,
A ground support equipment system for use on an aircraft , comprising: a plurality of ground support equipment modules mountable to associated aircraft components of an aircraft parked on ground for protecting the associated aircraft components from environmental conditions, in particular rain, wind, snow, frost, sand, and/or salt conditions; at least one common interconnection device for rendering mounting of the plurality of ground support equipment modules to the associated aircraft components discernible for a pilot of the aircraft ; and a plurality of connecting means that connects the plurality of ground support equipment modules to the at least one common interconnection device , characterized in that the plurality of connecting means comprises at least one physical wire , and wherein the at least one common interconnection device comprises a suitable wire fixation that is adapted for being provided at a door handle of a cockpit access door of the aircraft for attaching the at least one physical wire . a plurality of ground support equipment modules mountable to associated aircraft components of an aircraft parked on ground for protecting the associated aircraft components from environmental conditions, in particular rain, wind, snow, frost, sand, and/or salt conditions; at least one common interconnection device for rendering mounting of the plurality of ground support equipment modules to the associated aircraft components discernible for a pilot of the aircraft ; and a plurality of connecting means that connects the plurality of ground support equipment modules to the at least one common interconnection device , characterized in that the plurality of connecting means comprises at least one physical wire , and wherein the at least one common interconnection device comprises a suitable wire fixation that is adapted for being provided at a door handle of a cockpit access door of the aircraft for attaching the at least one physical wire .
Core system , having a substantially rectangular cross section, for the production of a fibre composite component, having four core elements which are coupled to one another and are displaceable relative to one another, wherein one of the four core elements is configured as a main core element which has a substantially rectangular cross section, and wherein the further core elements have a face that is oblique to a displacement direction (V), wherein the four core elements each have at least one external face which is part of a shell face of the entire core system , wherein the four core elements each by way of two contact faces bear on a neighbouring core element , wherein the cross-sectional area of the core system is variable by the displacement of the core elements.
A device for implanting at a native heart valve of a heart of a patient, the device comprising a first set of one or more coils and a second set of one or more coils , and a central axis extending through the first set of coils and the second set of coils , the central axis defining an axial direction; wherein the device is configured to assume an axially expanded state wherein the first set of coils is positioned on a first axial side of the second set of coils in the axial direction, such that the first set of coils is configured to be positioned on one of the atrial side and the ventricular side of the native heart valve and the second set of coils is configured to be positioned on the other one of the atrial side and the ventricular side of the native heart valve; and wherein the device is configured to assume an axially compressed state wherein at least one coil of the first set of coils is positioned on a second axial side of at least one coil of the second set of coils opposite to the first axial side in the axial direction such that the at least one coil of the first set of coils is positioned radially inward relative to the at least one coil of the second set of coils so as to capture and radially compress native leaflets of the native heart valve between the first and second set of coils . wherein the device is configured to assume an axially expanded state wherein the first set of coils is positioned on a first axial side of the second set of coils in the axial direction, such that the first set of coils is configured to be positioned on one of the atrial side and the ventricular side of the native heart valve and the second set of coils is configured to be positioned on the other one of the atrial side and the ventricular side of the native heart valve; and wherein the device is configured to assume an axially compressed state wherein at least one coil of the first set of coils is positioned on a second axial side of at least one coil of the second set of coils opposite to the first axial side in the axial direction such that the at least one coil of the first set of coils is positioned radially inward relative to the at least one coil of the second set of coils so as to capture and radially compress native leaflets of the native heart valve between the first and second set of coils .
Measurement device for the detection and/or measurement of fluid-borne particles in a fluid particle, the measurement device comprising: a fluid source for producing a flow of fluid particles along a fluid flow path, a laser source positioned for emitting a laser beam of laser light in a measurement volume of the fluid flow path and adapted to emit a laser light having a wavelength of 200 to 450 nm; an elastically scattered light detecting means for detecting a presence of a fluid particle in the fluid flow path through detection and measurement of laser beam light elastically scattered on different angles by said fluid particle, and a Raman and fluorescence detecting means for detecting a Raman scattering signal emitted by the fluid particle and a fluorescence signal emitted by a fluid-borne particle upon excitation by said laser beam when emitting a laser light having a wavelength of 200 to 450 nm, characterized in that the device is adapted to use the Raman scattering signal for correcting eventual errors taken in the group comprising fluid particle position in a laser beam, nonhomogeneous laser beam intensity, or any other factors influencing light collection efficiency, and the fluorescence emission is for determining the quantity of fluid-borne particles present inside a fluid particle. a fluid source for producing a flow of fluid particles along a fluid flow path, a laser source positioned for emitting a laser beam of laser light in a measurement volume of the fluid flow path and adapted to emit a laser light having a wavelength of 200 to 450 nm; an elastically scattered light detecting means for detecting a presence of a fluid particle in the fluid flow path through detection and measurement of laser beam light elastically scattered on different angles by said fluid particle, and a Raman and fluorescence detecting means for detecting a Raman scattering signal emitted by the fluid particle and a fluorescence signal emitted by a fluid-borne particle upon excitation by said laser beam when emitting a laser light having a wavelength of 200 to 450 nm, characterized in that the device is adapted to use the Raman scattering signal for correcting eventual errors taken in the group comprising fluid particle position in a laser beam, nonhomogeneous laser beam intensity, or any other factors influencing light collection efficiency, and the fluorescence emission is for determining the quantity of fluid-borne particles present inside a fluid particle.