mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless network based communication method, comprising: detecting , by a terminal device, first Downlink Control Information, DCI, sent by a network device; detecting , by the terminal device, second DCI sent by the network device, comprising: detecting, by the terminal device, the second DCI on parts of frequency domain resources of a system bandwidth, wherein the parts of frequency domain resources are frequency domain resources indicated by the first DCI, wherein the second DCI comprises Channel State Information, CSI, reporting trigger information and/or Sounding Reference Signal, SRS, transmission trigger information wherein the CSI and/or SRS transmission trigger information are used when the terminal device sends target data; and sending , by the terminal device, the target data according to a combination of control information in the first DCI and control information in the second DCI. detecting , by a terminal device, first Downlink Control Information, DCI, sent by a network device; detecting , by the terminal device, second DCI sent by the network device, comprising: detecting, by the terminal device, the second DCI on parts of frequency domain resources of a system bandwidth, wherein the parts of frequency domain resources are frequency domain resources indicated by the first DCI, wherein the second DCI comprises Channel State Information, CSI, reporting trigger information and/or Sounding Reference Signal, SRS, transmission trigger information wherein the CSI and/or SRS transmission trigger information are used when the terminal device sends target data; and sending , by the terminal device, the target data according to a combination of control information in the first DCI and control information in the second DCI.
Dome for a hearing aid device , which is insertable into an auditory canal, said dome having an inner part and an umbrella-shaped part with at least one opening , wherein an earwax guard with at least one protective element is disposed inside the opening , characterized in that that the inner part is integrally formed in one piece with the umbrella-shaped part , that the protective element is flexibly turnable in and counter to an direction of insertion of the dome into the auditory canal, and that a cleaning element movable in and counter to the direction of insertion of the dome is materially bonded to the umbrella-shaped part .
An offloading policy negotiation method, comprising: sending , by a first device, an offloading policy to a second device, wherein the offloading policy comprises a default access indication; receiving and storing , by the first device, an acknowledged offloading policy for the offloading policy from the second device, and transmitting a data flow based on the acknowledged offloading policy; wherein the first device is a user equipment, UE, and the second device is a core network device; wherein the acknowledged offloading policy is a modified default access indication which is modified according to at least one of indication information sent by the UE, or local configuration information; or, the acknowledged offloading policy is the unmodified default access indication, wherein a specified access technology in the modified default access indication or the unmodified default access indication is usable for transmitting a data flow, by the first device, when no corresponding routing rule that matches the data flow is found in all locally stored routing rules. sending , by a first device, an offloading policy to a second device, wherein the offloading policy comprises a default access indication; receiving and storing , by the first device, an acknowledged offloading policy for the offloading policy from the second device, and transmitting a data flow based on the acknowledged offloading policy; wherein the first device is a user equipment, UE, and the second device is a core network device; wherein the acknowledged offloading policy is a modified default access indication which is modified according to at least one of indication information sent by the UE, or local configuration information; or, the acknowledged offloading policy is the unmodified default access indication, wherein a specified access technology in the modified default access indication or the unmodified default access indication is usable for transmitting a data flow, by the first device, when no corresponding routing rule that matches the data flow is found in all locally stored routing rules.
A stator comprising: a stator core having a plurality of slots formed in a circumferential direction (C); a plurality of coil bundles respectively inserted into the plurality of slots; connection coils each having one side joined to one of the plurality of coil bundles , and the other side joined to another of the plurality of coil bundles ; and a plurality of layers being respectively formed in the plurality of slots in a radial direction of the stator core , wherein the plurality of coil bundles each comprises a plurality of hairpins each comprising a crown portion protruding toward one side in an axial direction (A) of the stator core , and a leg portion protruding toward the other side in the axial direction (A), characterized in that , an odd number of the plurality of layers are respectively formed in the plurality of slots, wherein the connection coil comprises: a first extension region extending in a first direction; a second extension region extending in a second direction and having one end portion connected to one end portion of the first extension region ; a first joint region connected to the other end portion of the first extension region and joined to a leg portion extended from a hairpin of the plurality of hairpins ; and a second joint region connected to the other end portion of the second extension region and joined to a leg portion extended from another hairpin of the plurality of hairpins , and wherein the first extension region and the first joint region have a shape symmetric to the second extension region and the second joint region . a stator core having a plurality of slots formed in a circumferential direction (C); a plurality of coil bundles respectively inserted into the plurality of slots; connection coils each having one side joined to one of the plurality of coil bundles , and the other side joined to another of the plurality of coil bundles ; and a plurality of layers being respectively formed in the plurality of slots in a radial direction of the stator core , wherein the plurality of coil bundles each comprises a plurality of hairpins each comprising a crown portion protruding toward one side in an axial direction (A) of the stator core , and a leg portion protruding toward the other side in the axial direction (A), a first extension region extending in a first direction; a second extension region extending in a second direction and having one end portion connected to one end portion of the first extension region ; a first joint region connected to the other end portion of the first extension region and joined to a leg portion extended from a hairpin of the plurality of hairpins ; and a second joint region connected to the other end portion of the second extension region and joined to a leg portion extended from another hairpin of the plurality of hairpins , and wherein the first extension region and the first joint region have a shape symmetric to the second extension region and the second joint region .
A method for information feedback, comprising: receiving, by a terminal , downlink control information, DCI, scheduling preset information from a network device ; receiving (S202), by the terminal , the preset information from the network device according to the DCI, the preset information comprising one or more pieces of point-to-multipoint, PTM, transmission information and one or more pieces of unicast transmission information; and feeding back (S203), by the terminal , hybrid automatic repeat request, HARQ, response information of the one or more pieces of PTM transmission information and HARQ response information of the one or more pieces of unicast transmission information to the network device by using a same uplink, UL, time-frequency resource, when the same UL time-frequency resource is used for the HARQ response information of the one or more pieces of PTM transmission information and the HARQ response information of the one or more pieces of unicast transmission information. receiving, by a terminal , downlink control information, DCI, scheduling preset information from a network device ; receiving (S202), by the terminal , the preset information from the network device according to the DCI, the preset information comprising one or more pieces of point-to-multipoint, PTM, transmission information and one or more pieces of unicast transmission information; and feeding back (S203), by the terminal , hybrid automatic repeat request, HARQ, response information of the one or more pieces of PTM transmission information and HARQ response information of the one or more pieces of unicast transmission information to the network device by using a same uplink, UL, time-frequency resource, when the same UL time-frequency resource is used for the HARQ response information of the one or more pieces of PTM transmission information and the HARQ response information of the one or more pieces of unicast transmission information.
A firearm system comprising: a receiver complex including a receiver coupled to a forward receiver; a feed port positioned between the receiver and the forward receiver; a plurality of independently moveable firing pins ; a striker coil assembly positioned proximate the receiver, the striker coil assembly including a plurality of electromagnetically moveable strikers and at least one striker coil , each electromagnetically movable striker extending at least partially through said coil and being positioned to strike one of the independently moveable firing pins when the striker is actuated, said at least one striker coil being configured to be powered by at least one current pulse from a power source of the firearm system , the at least striker coil being configured to electromagnetically actuate at least one striker of the plurality of electromagnetically moveable strikers ; and a single barrel coupled to the forward receiver forming a breech, said single barrel comprising a barrel body including multiple bores through which a projectile can enter. a receiver complex including a receiver coupled to a forward receiver; a feed port positioned between the receiver and the forward receiver; a plurality of independently moveable firing pins ; a striker coil assembly positioned proximate the receiver, the striker coil assembly including a plurality of electromagnetically moveable strikers and at least one striker coil , each electromagnetically movable striker extending at least partially through said coil and being positioned to strike one of the independently moveable firing pins when the striker is actuated, said at least one striker coil being configured to be powered by at least one current pulse from a power source of the firearm system , the at least striker coil being configured to electromagnetically actuate at least one striker of the plurality of electromagnetically moveable strikers ; and a single barrel coupled to the forward receiver forming a breech, said single barrel comprising a barrel body including multiple bores through which a projectile can enter.
A method, comprising: providing at least one semiconductor chip coupled to a planar substrate , providing at least one rectilinear wire antenna extending along an antenna axis (X100) transverse to the planar substrate , the at least one rectilinear wire antenna electrically coupled to the at least one semiconductor chip , bonding the at least one rectilinear wire antenna to the planar substrate , wherein the at least one rectilinear wire antenna protrudes from the planar substrate , providing a mass of encapsulation material for the at least one semiconductor chip coupled to the planar substrate , characterized in that the method comprises forming (LB) in the mass of encapsulation material at least one cavity extending to the planar substrate along said antenna axis (X100), and bonding the at least one rectilinear wire antenna to the planar substrate at the bottom of the at the least one cavity , wherein the rectilinear wire antenna extends in said at least one cavity formed (LB) in the mass of encapsulation material . providing at least one semiconductor chip coupled to a planar substrate , providing at least one rectilinear wire antenna extending along an antenna axis (X100) transverse to the planar substrate , the at least one rectilinear wire antenna electrically coupled to the at least one semiconductor chip , bonding the at least one rectilinear wire antenna to the planar substrate , wherein the at least one rectilinear wire antenna protrudes from the planar substrate , providing a mass of encapsulation material for the at least one semiconductor chip coupled to the planar substrate , characterized in that the method comprises forming (LB) in the mass of encapsulation material at least one cavity extending to the planar substrate along said antenna axis (X100), and bonding the at least one rectilinear wire antenna to the planar substrate at the bottom of the at the least one cavity , wherein the rectilinear wire antenna extends in said at least one cavity formed (LB) in the mass of encapsulation material .
An apparatus comprising: a magnetic apparatus that defines an actuation volume that is large enough to accommodate a sample, the magnetic apparatus including a magnet that is configured to create a magnetic field having a magnitude B in the sample when supplied with a DC current, the magnetic field magnitude B being greater than 0.5 Tesla or in a range of 1-20 Tesla; at least one biological construct within the sample, the biological construct configured to change its status in response to a change in temperature of a magnetocaloric actuator; and at least one magnetocaloric actuator coupled with the biological construct , wherein each magnetocaloric actuator is a particle having a size on the order of about 1-100μm; wherein each magnetocaloric actuator is configured such that a change in magnitude B of the created magnetic field in the sample causes the temperature of the magnetocaloric actuator to change, which causes a change in the status of the biological construct . a magnetic apparatus that defines an actuation volume that is large enough to accommodate a sample, the magnetic apparatus including a magnet that is configured to create a magnetic field having a magnitude B in the sample when supplied with a DC current, the magnetic field magnitude B being greater than 0.5 Tesla or in a range of 1-20 Tesla; at least one biological construct within the sample, the biological construct configured to change its status in response to a change in temperature of a magnetocaloric actuator; and at least one magnetocaloric actuator coupled with the biological construct , wherein each magnetocaloric actuator is a particle having a size on the order of about 1-100μm; wherein each magnetocaloric actuator is configured such that a change in magnitude B of the created magnetic field in the sample causes the temperature of the magnetocaloric actuator to change, which causes a change in the status of the biological construct .
A method for a discontinuous reception, DRX, operation, the method performed by a user equipment , UE, for which a plurality of cells is configured in a wireless communication system, the method comprising: performing a physical downlink control channel, PDCCH, monitoring in on-duration; receiving bandwidth part, BWP, configuration information, wherein the BWP configuration information indicates a specific BWP; receiving a PDCCH based on the PDCCH monitoring, wherein the PDCCH includes secondary cell, SCell, dormancy information; and transmitting acknowledgement/negative-acknowledgement, ACK/NACK, information for the PDCCH including the SCell dormancy information, wherein the SCell dormancy information includes a bit, which corresponds to a secondary cell group, having a value for dormancy or a value for non-dormancy, and wherein the bit having the value for the non-dormancy informs an activation of the specific BWP, which is provided based on the BWP configuration information, based on a current active BWP being a dormant BWP. performing a physical downlink control channel, PDCCH, monitoring in on-duration; receiving bandwidth part, BWP, configuration information, wherein the BWP configuration information indicates a specific BWP; receiving a PDCCH based on the PDCCH monitoring, wherein the PDCCH includes secondary cell, SCell, dormancy information; and transmitting acknowledgement/negative-acknowledgement, ACK/NACK, information for the PDCCH including the SCell dormancy information, wherein the SCell dormancy information includes a bit, which corresponds to a secondary cell group, having a value for dormancy or a value for non-dormancy, and wherein the bit having the value for the non-dormancy informs an activation of the specific BWP, which is provided based on the BWP configuration information, based on a current active BWP being a dormant BWP.
A lighting device for fixing to a mobile apparatus comprising - a luminous element and - a retaining element , characterized in that - the luminous element is fixed to a first end section of a first bistable element and the retaining element is fixed to a second end section of the first bistable element opposing the first one, wherein - the first bistable element is rolled out in a first stable state such that the luminous element is maximally spaced from the retaining element , - the first bistable element is rolled up in a second stable state, and - the lighting device is clampable to the mobile apparatus by spring force of the first bistable element , wherein - the luminous element and/or the retaining element are each fixed to the respective end section of the first bistable element with an elastic spring element , wherein the lighting device has a bracket-like shape in cross-section with the first bistable element in its first stable state and the spring elements in their relaxed state. - a luminous element and - a retaining element , characterized in that - the luminous element is fixed to a first end section of a first bistable element and the retaining element is fixed to a second end section of the first bistable element opposing the first one, wherein - the first bistable element is rolled out in a first stable state such that the luminous element is maximally spaced from the retaining element , - the first bistable element is rolled up in a second stable state, and - the lighting device is clampable to the mobile apparatus by spring force of the first bistable element , wherein - the luminous element and/or the retaining element are each fixed to the respective end section of the first bistable element with an elastic spring element , wherein the lighting device has a bracket-like shape in cross-section with the first bistable element in its first stable state and the spring elements in their relaxed state.
A method for bonding a first substrate with a second substrate at contact surfaces of the substrates with the following steps, in particular in the following sequence: - mounting of the first substrate on a first mounting surface of a first substrate holder and mounting of the second substrate on a second mounting surface of a second substrate holder , wherein the substrate holders are arranged in a chamber , - contacting of the contact surfaces at a bond initiation surface , wherein a ring-shaped contacting takes place, - bonding of the first substrate with the second substrate from the bond initiation surface to the centre of the substrates . - mounting of the first substrate on a first mounting surface of a first substrate holder and mounting of the second substrate on a second mounting surface of a second substrate holder , wherein the substrate holders are arranged in a chamber , - contacting of the contact surfaces at a bond initiation surface , wherein a ring-shaped contacting takes place, - bonding of the first substrate with the second substrate from the bond initiation surface to the centre of the substrates .
Ultrasonic sensor having - a membrane (2; 2'; 2"; 2"'; 2""") which has a first section (2-1; 2-1'; 2-1""") for emitting and/or receiving ultrasonic signals; - an adhesive layer ; - electrical connections ; - at least one piezo oscillator, as an electromechanical transducer , which is coupled to the membrane (2; 2'; 2"; 2"'; 2""" ) with the aid of the adhesive layer , and - a control unit , wherein a control signal can be applied to the piezo oscillator via the electrical connections and via the control unit , wherein the membrane (2; 2'; 2"; 2"'; 2""" ) has at least one second section (2-2; 2-2'; 2-2""", 2-3""", 2-4""") for emitting and/or receiving ultrasonic signals; wherein the membrane (2; 2'; 2"; 2"'; 2""") has different resonant properties in the first and second sections (2-1, 2-2; 2-1', 2-2'; 2-1""", 2-2""", 2-3""", 2-4"""), which resonant properties result in a first resonant frequency and a second resonant frequency; characterized in that the ultrasonic sensor is configured to operate the ultrasonic sensor at the first resonant frequency and at the second resonant frequency at the same time by applying the control signal which comprises at least the first and the second resonant frequency. - a membrane (2; 2'; 2"; 2"'; 2""") which has a first section (2-1; 2-1'; 2-1""") for emitting and/or receiving ultrasonic signals; - an adhesive layer ; - electrical connections ; - at least one piezo oscillator, as an electromechanical transducer , which is coupled to the membrane (2; 2'; 2"; 2"'; 2""" ) with the aid of the adhesive layer , and - a control unit , wherein a control signal can be applied to the piezo oscillator via the electrical connections and via the control unit ,