mhurhangee/patent-ind-claim-en huggingface dataset:
A method, performed in a client configured to wirelessly connect at least one small cell radio base station to a core network , of establishing one wireless backhaul connection between one small cell radio base station and the core network, the method characterized by the steps of: - receiving (S10), at the client, from the small cell radio base station, at least one Dynamic Host Configuration Protocol, DHCP, message triggering the establishment of the wireless backhaul connection between the small cell radio base station and the core network, wherein the DHCP message is an IPv4 DHCPDISCOVER message comprising a Vendor Class Identifier, VCI, or an IPv6 SolicitDHCP message comprising a DHCP Unique Identifier, DUID; - deriving (S11), at the client, from the VCI or DUID, base station property information of the small cell radio base station, wherein the base station property information comprises an access point name, APN, an indication of radio access technology, RAT, of the small cell RBS, and/or an equipment identifier of the small cell RBS; and - sending (S12), from the client, to a core network node via a wireless connection, a connectivity request message, including the derived base station property information thereby enabling a selection of a packet data network gateway and/or a configuration for the small cell radio base station in the establishment of the wireless backhaul connection. - receiving (S10), at the client, from the small cell radio base station, at least one Dynamic Host Configuration Protocol, DHCP, message triggering the establishment of the wireless backhaul connection between the small cell radio base station and the core network, wherein the DHCP message is an IPv4 DHCPDISCOVER message comprising a Vendor Class Identifier, VCI, or an IPv6 SolicitDHCP message comprising a DHCP Unique Identifier, DUID; - deriving (S11), at the client, from the VCI or DUID, base station property information of the small cell radio base station, wherein the base station property information comprises an access point name, APN, an indication of radio access technology, RAT, of the small cell RBS, and/or an equipment identifier of the small cell RBS; and - sending (S12), from the client, to a core network node via a wireless connection, a connectivity request message, including the derived base station property information thereby enabling a selection of a packet data network gateway and/or a configuration for the small cell radio base station in the establishment of the wireless backhaul connection.
A method performed by a device, the method comprising: receiving a channel state information request requesting the device to feedback channel state information; determining whether the channel state information request corresponds to regular latency based operation or reduced latency based operation; deriving channel state information based on a first reference resource when the channel state information request corresponds to regular latency based operation; deriving channel state information based on a second reference resource when the channel state information request corresponds to reduced latency based operation, where the reduced latency based operation has a latency less than the regular latency based operation; and reporting the derived channel state information to a network; the method characterized by : wherein deriving channel state information based on the first reference resource comprises deriving channel state information based on a restriction to a first subset of precoders belonging to a set of precoders, and wherein deriving channel state information based on the second reference resource comprises deriving channel state information based on a restriction to a second subset of precoders belonging to the set of precoders, where the second subset of precoders is different from the first subset of precoders. receiving a channel state information request requesting the device to feedback channel state information; determining whether the channel state information request corresponds to regular latency based operation or reduced latency based operation; deriving channel state information based on a first reference resource when the channel state information request corresponds to regular latency based operation; deriving channel state information based on a second reference resource when the channel state information request corresponds to reduced latency based operation, where the reduced latency based operation has a latency less than the regular latency based operation; and reporting the derived channel state information to a network; wherein deriving channel state information based on the first reference resource comprises deriving channel state information based on a restriction to a first subset of precoders belonging to a set of precoders, and wherein deriving channel state information based on the second reference resource comprises deriving channel state information based on a restriction to a second subset of precoders belonging to the set of precoders, where the second subset of precoders is different from the first subset of precoders.
An ultrasound imaging system comprising: an ultrasound transducer assembly comprising a plurality of apertures that are configured to transmit signals toward and receive signals from a region of interest (ROI) of a subject ; a tracking sensor disposed within the subject and configured to move within the ROI, the sensor being responsive to signals transmitted by the apertures; and at least one processor in communication with the ultrasound transducer assembly and the tracking sensor, wherein the processor is configured to: generate a first image of a first portion of the ROI from signals received from at least one activated aperture; identify a position of the tracking sensor using tracking data from the tracking sensor that is generated in response to at least one signal transmitted by the at least one activated aperture; and generate a second image of a second portion of the ROI from signals received from at least one other aperture activated based on the identified position, wherein the second portion of the ROI is different from the first portion of the ROI. an ultrasound transducer assembly comprising a plurality of apertures that are configured to transmit signals toward and receive signals from a region of interest (ROI) of a subject ; a tracking sensor disposed within the subject and configured to move within the ROI, the sensor being responsive to signals transmitted by the apertures; and at least one processor in communication with the ultrasound transducer assembly and the tracking sensor, wherein the processor is configured to: generate a first image of a first portion of the ROI from signals received from at least one activated aperture; identify a position of the tracking sensor using tracking data from the tracking sensor that is generated in response to at least one signal transmitted by the at least one activated aperture; and generate a second image of a second portion of the ROI from signals received from at least one other aperture activated based on the identified position, wherein the second portion of the ROI is different from the first portion of the ROI. generate a first image of a first portion of the ROI from signals received from at least one activated aperture; identify a position of the tracking sensor using tracking data from the tracking sensor that is generated in response to at least one signal transmitted by the at least one activated aperture; and generate a second image of a second portion of the ROI from signals received from at least one other aperture activated based on the identified position, wherein the second portion of the ROI is different from the first portion of the ROI.
A pressure probe comprising: an airfoil made of a metal and configured for use in a gas turbine engine, the airfoil having no camber and configured to have a zero angle of attack with an airstream during operation and extending from a base to a tapered portion to a linear portion along a primary axis (A X ), the airfoil having a constant cross-section in the linear portion ; a plurality of kiels monolithically formed with the airfoil and each correspondingly oriented to face in an expected airstream direction (A) during operation; and a plurality of interior passages each operatively connected to a different one of the plurality of kiels and passing through both the airfoil and the base ; characterised in that : the interior passages have equal passage lengths. an airfoil made of a metal and configured for use in a gas turbine engine, the airfoil having no camber and configured to have a zero angle of attack with an airstream during operation and extending from a base to a tapered portion to a linear portion along a primary axis (A X ), the airfoil having a constant cross-section in the linear portion ; a plurality of kiels monolithically formed with the airfoil and each correspondingly oriented to face in an expected airstream direction (A) during operation; and a plurality of interior passages each operatively connected to a different one of the plurality of kiels and passing through both the airfoil and the base ; characterised in that : the interior passages have equal passage lengths.
Gas generator for a safety system, comprising: - at least one pyrotechnic material arranged to produce gases, - a first part , - a second part , - a third part , - and a fourth part separate from the preceding parts, the first part and the second part being friction welded to the third part , characterized in that the fourth part comprises: - a first interface for positioning together with the first part , - a second interface for positioning together with the second part , so as to temporarily block at least one degree of freedom between the first and the second part to allow a simultaneous friction welding operation of the first and the second part on the third part . - at least one pyrotechnic material arranged to produce gases, - a first part , - a second part , - a third part , - and a fourth part separate from the preceding parts, the first part and the second part being friction welded to the third part , - a first interface for positioning together with the first part , - a second interface for positioning together with the second part ,
A state detection apparatus comprising: a communication circuit configured to transmit information to an external apparatus; a control circuit configured to operate the communication circuit at a first timing; a battery configured to supply electric power to the communication circuit and the control circuit ; and a first explosion-proof barrier connected between a contact circuit and the control circuit , characterized in that the control circuit is configured to apply a test signal, generated based on a voltage outputted by the battery , to the contact circuit via the first explosion-proof barrier at a second timing that arrives at a shorter interval than the first timing, acquire, from the first explosion-proof barrier , a detection signal indicating that a current has flowed in the contact circuit due to application of the test signal to the contact circuit , and regardless of the first timing, operate the communication circuit at a timing at which the detection signal is acquired to transmit to the external apparatus that a state of a device connected to the contact circuit is an abnormal state. a communication circuit configured to transmit information to an external apparatus; a control circuit configured to operate the communication circuit at a first timing; a battery configured to supply electric power to the communication circuit and the control circuit ; and a first explosion-proof barrier connected between a contact circuit and the control circuit , characterized in that the control circuit is configured to apply a test signal, generated based on a voltage outputted by the battery , to the contact circuit via the first explosion-proof barrier at a second timing that arrives at a shorter interval than the first timing, acquire, from the first explosion-proof barrier , a detection signal indicating that a current has flowed in the contact circuit due to application of the test signal to the contact circuit , and regardless of the first timing, operate the communication circuit at a timing at which the detection signal is acquired to transmit to the external apparatus that a state of a device connected to the contact circuit is an abnormal state. apply a test signal, generated based on a voltage outputted by the battery , to the contact circuit via the first explosion-proof barrier at a second timing that arrives at a shorter interval than the first timing, acquire, from the first explosion-proof barrier , a detection signal indicating that a current has flowed in the contact circuit due to application of the test signal to the contact circuit , and regardless of the first timing, operate the communication circuit at a timing at which the detection signal is acquired to transmit to the external apparatus that a state of a device connected to the contact circuit is an abnormal state.
Hollow-cylindrical coreless winding for an electric motor, comprising a plurality of single coils (2.1, 2.2, 2.3) which are arranged to be distributed across the circumference of the winding , wherein each single coil (2.1, 2.2, 2.3) comprises a plurality of turns which are spirally wound around a winding axis that is perpendicular to an axis of the winding , and wherein successive single coils (2.1, 2.2, 2.3) overlap in a roof tile manner, vherein the winding comprises at least two phase windings , wherein each of the phase windings consists of several ones of the single coils (2.1, 2.2, 2.3), wherein the phase windings are furthermore offset with respect to each other in the circumferential direction of the hollow-cylindrical winding , so that the single coils (2.1) of a first phase winding are arranged, in the circumferential direction of the hollow-cylindrical winding , between the single coils (2.2) of a second phase winding , wherein the single coils (2.1, 2.2, 2.3) comprise a first section and a second section , wherein between the first section and the second section , a radial offset is provided with respect to the axis of the hollow-cylindrical winding , and wherein the overlap in a roof tile manner is achieved by the second section of a single coil (2.1, 2.2, 2.3) coming to lie on the first section of an adjacent single coil (2.1, 2.2, 2.3) of the hollow-cylindrical winding , wherein one half of each of the turns of the single coils extends in the first section 13 and the other half in the second section 14, and wherein the overlap in a roof tile manner is achieved by the second section of a single coil coming to lie on the first section of an adjacent single coil, characterized in that each of the phase windings is wound from a continuous wire .
A positioning unit for positioning an optical unit, which comprises at least one optical element, in an optical path of a microscope between a microscope lens and in front of an eye to be examined, the positioning unit comprising a connection device by means of which the positioning unit can be coupled to the microscope, and the positioning unit comprising a positioning device by means of which the optical element can be moved relative to the microscope in a longitudinal direction of the optical path, the positioning device comprising an adjusting mechanism by means of which a position of the optical element can be adjusted in the longitudinal direction of the optical path, the adjusting mechanism being formed by a threaded rod , a guiding rod and a holding element which is connected to the threaded rod and to the guiding rod, the positioning unit being predominantly made of metal, characterized in that at least the positioning device is free of aluminum, components of the positioning unit which form a sliding surface combination and are movable relative to one another having a material combination of titanium/steel or of titanium/ceramics.
An applicator for applying microneedles to skin comprising: a resistive portion configured to apply resistance against movement of a microneedle sheet having the plurality of microneedles formed along a main surface of the sheet ; and a bending portion configured to bend the microneedle sheet passed through the resistive portion to raise the microneedles from the main surface, characterized in that the diameter of the bending portion is 0.1 to 4 mm, and the height of each microneedle is 10 to 1000 μm. a resistive portion configured to apply resistance against movement of a microneedle sheet having the plurality of microneedles formed along a main surface of the sheet ; and a bending portion configured to bend the microneedle sheet passed through the resistive portion to raise the microneedles from the main surface, characterized in that the diameter of the bending portion is 0.1 to 4 mm, and the height of each microneedle is 10 to 1000 μm.
A method for modifying the rheology of a polymer, comprising: extruding a molten polymer and a composition consisting of at least one organic peroxide, at least one emulsifier, and water in emulsion form; and removing volatile organic compounds and water from the molten polymer, wherein the polymer comprises a polyolefin, and wherein removing the organic volatile compounds and water is performed by establishing a predetermined vacuum in at least one extruder venting zone. extruding a molten polymer and a composition consisting of at least one organic peroxide, at least one emulsifier, and water in emulsion form; and removing volatile organic compounds and water from the molten polymer, wherein the polymer comprises a polyolefin, and wherein removing the organic volatile compounds and water is performed by establishing a predetermined vacuum in at least one extruder venting zone.
Apparatus for detecting a shift of a radiation beam energy output from a radiation beam source from a photon beam to an electron beam, comprising: first beam energy sensor at a first distance from the radiation beam source along the radiation beam axis; a second beam energy sensor located at a second distance from the radiation beam source along the radiation beam axis; wherein each of the first and second beam sensors comprises a first electrode region configured, in use, to sample a central region of a radiation beam including the beam axis, and a second electrode region at least partially surrounding the first electrode region and configured, in use, to sample a peripheral region surrounding but not including the central region; a comparator operable to compare the outputs of the first and second beam energy sensors ; and an energy absorbing layer located between the first and second sensors , and positioned such that radiation passing through the first sensor also passes through the energy absorbing layer before entering the second sensor , characterized in that the energy absorbing layer is capable of absorbing at least 1% and no more than 10% of the energy of the radiation beam passing from the first sensor to the second sensor . first beam energy sensor at a first distance from the radiation beam source along the radiation beam axis; a second beam energy sensor located at a second distance from the radiation beam source along the radiation beam axis; wherein each of the first and second beam sensors comprises a first electrode region configured, in use, to sample a central region of a radiation beam including the beam axis, and a second electrode region at least partially surrounding the first electrode region and configured, in use, to sample a peripheral region surrounding but not including the central region; a comparator operable to compare the outputs of the first and second beam energy sensors ; and an energy absorbing layer located between the first and second sensors , and positioned such that radiation passing through the first sensor also passes through the energy absorbing layer before entering the second sensor , characterized in that the energy absorbing layer is capable of absorbing at least 1% and no more than 10% of the energy of the radiation beam passing from the first sensor to the second sensor .
Annual calendar mechanism for a watch movement, comprising a calendar ring provided with an internal toothing , a 24h finger arranged to perform a 360° rotation every 24h and a release device arranged to actuate in rotation, in a dragging manner, the calendar ring in order to effect the passage from an indication of one day to an indication of the next day of the current month or the next month in a quasi-instantaneous manner, the release device comprising a rotary release member comprising at least one release finger (24; 24a, 24b), a rotary drive member in direct or indirect engagement with the internal toothing of the calendar ring and connected to the rotary release member , and a release lever comprising a first beak arranged to cooperate with the 24h finger , and a second beak arranged to cooperate with the rotary release member so that the release lever can be brought, each 24h, from an engaged position, in which the release member is locked against rotation by the said lever , to a released position, in which the rotary release member is rotated under the action of the torque transmitted by the rotary drive member in order to rotate the calendar ring , the annual calendar mechanism further comprising a month cam and a month lever arranged to cooperate respectively with the month cam , the release device and at least one actuating element (16 ; 16a, 16b), connected to the calendar ring , in order to effect the transition from the indication of the last day of the months of 30 and 31 days to the indication of the 1st day of the following month.
Clutch servo assembly , comprising: - a pneumatic body , - an actuator connected to the pneumatic body , - a pneumatic pilot valve associated with the pneumatic body and configured to selectively supply pressurized air to the pneumatic body , - an actuator rod movable within the actuator and at least partially within the pneumatic body , wherein the pneumatic body is in fluid communication with the atmosphere, wherein the pneumatic body is configured to allow bidirectional flow of air into and out of the pneumatic body , characterized in that the pneumatic body includes at least one exhaust conduit for resisting flow of air into the pneumatic body without completely closing the at least one exhaust conduit . - a pneumatic body , - an actuator connected to the pneumatic body , - a pneumatic pilot valve associated with the pneumatic body and configured to selectively supply pressurized air to the pneumatic body , - an actuator rod movable within the actuator and at least partially within the pneumatic body , wherein the pneumatic body is in fluid communication with the atmosphere, wherein the pneumatic body is configured to allow bidirectional flow of air into and out of the pneumatic body , characterized in that the pneumatic body includes at least one exhaust conduit for resisting flow of air into the pneumatic body without completely closing the at least one exhaust conduit . wherein the pneumatic body is in fluid communication with the atmosphere, wherein the pneumatic body is configured to allow bidirectional flow of air into and out of the pneumatic body , characterized in that the pneumatic body includes at least one exhaust conduit for resisting flow of air into the pneumatic body without completely closing the at least one exhaust conduit .