mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: obtaining keys of an authentication process of a first network during an initial access of a user equipment towards a second network and/or during a handover process of a user equipment from the first network to the second network, wherein the keys of the authentication process of the first network are produced based on a random value used in the authentication process of the first network; and producing a set of associated keys for an authentication process to be performed in the second network based on the keys of the authentication process of the first network and identities of network entities of the second network. obtaining keys of an authentication process of a first network during an initial access of a user equipment towards a second network and/or during a handover process of a user equipment from the first network to the second network, wherein the keys of the authentication process of the first network are produced based on a random value used in the authentication process of the first network; and producing a set of associated keys for an authentication process to be performed in the second network based on the keys of the authentication process of the first network and identities of network entities of the second network.
A communication device , comprising: a millimeter wave (mm-wave) antenna array means having antenna elements ; a first transceiving means (150.1), selectively couplable to the antenna elements , for driving a first selected antenna element (132.1) of the antenna elements to transmit a first beam (302.1) from the selected first antenna element (132.1), and wherein the first transceiving means (150.1) is configured to operate at least along a line-of-sight path; a second transceiving means (150.2), selectively couplable to the antenna elements , for driving a second selected antenna element (132.2) of the antenna elements to transmit a second beam (302.2) from the selected second antenna element (132.2); and a mm-wave lensing means for steering the first beam (302.1) and the second beam (302.2) as the first and second beams (302.1, 302.2) pass through the mm-wave lensing means , characterized in that the second transceiving means (150.2) is configured to sequentially select different antenna elements to determine alternate angles of arrival, and the first transceiving means (150.1) is configured to decouple from the first antenna element (132.1) and couple to a different antenna element , based on the determined alternate angles of arrival, in response to a decrease in link quality associated with the first antenna element (132.1). a millimeter wave (mm-wave) antenna array means having antenna elements ; a first transceiving means (150.1), selectively couplable to the antenna elements , for driving a first selected antenna element (132.1) of the antenna elements to transmit a first beam (302.1) from the selected first antenna element (132.1), and wherein the first transceiving means (150.1) is configured to operate at least along a line-of-sight path; a second transceiving means (150.2), selectively couplable to the antenna elements , for driving a second selected antenna element (132.2) of the antenna elements to transmit a second beam (302.2) from the selected second antenna element (132.2); and a mm-wave lensing means for steering the first beam (302.1) and the second beam (302.2) as the first and second beams (302.1, 302.2) pass through the mm-wave lensing means , characterized in that the second transceiving means (150.2) is configured to sequentially select different antenna elements to determine alternate angles of arrival, and the first transceiving means (150.1) is configured to decouple from the first antenna element (132.1) and couple to a different antenna element , based on the determined alternate angles of arrival, in response to a decrease in link quality associated with the first antenna element (132.1).
A user-wearable device comprising: a frame configured to mount on a user; a display attached to the frame , the display configured to direct virtual images to an eye of the user; a light source configured to provide polarized light to the eye of the user, wherein the polarized light is configured to reflect from the eye of the user; and a light analyzer configured to determine a polarization angle rotation of the reflected light from the eye of the user such that a glucose level of the user can be determined based at least in part on the polarization angle rotation of the reflected light , one or more sensors including one or more eye tracking sensors; processing electronics configured to determine the glucose level of the user based at least in part on the polarization angle rotation of the reflected light ; wherein the user-wearable device is configured to not determine the glucose level of the user by determining with the one or more eye tracking sensors, that the polarized light did not transmit to the eye of the user, or did not transmit to a target area of the eye of the user, or did not transmit to the same area of the eye of the user. a frame configured to mount on a user; a display attached to the frame , the display configured to direct virtual images to an eye of the user; a light source configured to provide polarized light to the eye of the user, wherein the polarized light is configured to reflect from the eye of the user; and a light analyzer configured to determine a polarization angle rotation of the reflected light from the eye of the user such that a glucose level of the user can be determined based at least in part on the polarization angle rotation of the reflected light , one or more sensors including one or more eye tracking sensors; processing electronics configured to determine the glucose level of the user based at least in part on the polarization angle rotation of the reflected light ; wherein the user-wearable device is configured to not determine the glucose level of the user by determining with the one or more eye tracking sensors, that the polarized light did not transmit to the eye of the user, or did not transmit to a target area of the eye of the user, or did not transmit to the same area of the eye of the user.
A can component having a matrix barcode formed thereon, the matrix barcode consisting essentially of laser-formed dots made by a through-hole in a coating on a panel region of the can component and being readable by a handheld wireless communication device; characterised in that : the matrix barcode is an inverse barcode such that the coating is dark and the dots are through holes in the coating to a light or clear undercoating or bare metal; and in that the coating outside of the matrix barcode forms a quiet space consisting of a plain border at least two modules wide. the matrix barcode is an inverse barcode such that the coating is dark and the dots are through holes in the coating to a light or clear undercoating or bare metal; and in that the coating outside of the matrix barcode forms a quiet space consisting of a plain border at least two modules wide.
An ultrasonic welding installation comprising an ultrasonic vibration unit having a sonotrode and a converter , wherein the sonotrode and the converter are arranged in mutually adjacent relationship along a longitudinal axis and are coordinated in such a way that the ultrasonic vibration unit is caused to resonate with an ultrasonic vibration in the direction of the longitudinal axis with a wavelength λ, wherein there can be provided an amplitude transformer arranged between the sonotrode and the converter, wherein there is provided a holder for holding the ultrasonic vibration unit, wherein the holder has a clamping device which is reciprocable between an opened position in which the ultrasonic vibration unit can be removed from the holder and a closed position in which the clamping device comes into contact with the ultrasonic vibration unit and exerts a force on same so that the ultrasonic vibration unit is held, characterised in that the clamping device is in the form of a sleeve having an inner and an outer surface, wherein the inner surface is of a configuration corresponding to an outer surface of a portion of the ultrasonic vibration unit, wherein the sleeve has a slot which connects the outer surface of the sleeve to the inner surface of the sleeve so that the sleeve has two mutually opposite slot walls which define the slot, wherein there is provided a tightening device with which the slot walls can be moved towards each other whereby the clamping device is moved into the closed position and the space enclosed by the inner surface is reduced and the ultrasonic vibration unit is clamped within the sleeve.
A two-pull, automatic reset, latch system comprising: a release system including an electric motor adapted to effectuate unlatching during a power scenario; a release lever pivotally engaged to a stationary structure and about a first axis , wherein manual actuation of the release lever during the power scenario does not couple the release lever to the release system , and a second, successive, manual actuation of the release lever during a no-power scenario causes coupling of the release lever to the release system to effectuate manual unlatching; a coupling lever pivotally engaged to the release lever and about a second axis , wherein the coupling lever is in contact with the release system when coupled; an override link pivotally engaged to the release lever about a third axis ; and a reset lever rotationally engaged to the stationary structure about a fourth axis and adapted to electrically reset the system via the electric motor to a home position after manual actuation of the release lever and during the power scenario while the release lever remains decoupled from the release system ; wherein the coupling lever is in contact with the reset lever during an initial first manual actuation of the release lever thereby blocking the coupling lever from coupling the release lever with the release system . a release system including an electric motor adapted to effectuate unlatching during a power scenario; a release lever pivotally engaged to a stationary structure and about a first axis , wherein manual actuation of the release lever during the power scenario does not couple the release lever to the release system , and a second, successive, manual actuation of the release lever during a no-power scenario causes coupling of the release lever to the release system to effectuate manual unlatching; a coupling lever pivotally engaged to the release lever and about a second axis , wherein the coupling lever is in contact with the release system when coupled; an override link pivotally engaged to the release lever about a third axis ; and a reset lever rotationally engaged to the stationary structure about a fourth axis and adapted to electrically reset the system via the electric motor to a home position after manual actuation of the release lever and during the power scenario while the release lever remains decoupled from the release system ; wherein the coupling lever is in contact with the reset lever during an initial first manual actuation of the release lever thereby blocking the coupling lever from coupling the release lever with the release system .
A communication method of a user equipment, UE , in a wireless communication system, the method comprising: determining whether uplink transmission in a subframe n+1 is to be overlapped in a time domain between data reception by the UE in a subframe n and data transmission by the UE in the subframe n+1 of a serving cell, the data reception for device-to-device, D2D, communication and the data transmission for uplink transmission to the serving cell; and dropping the data reception in the subframe n, if it is determined that the uplink transmission in the subframe n+1 is to be overlapped, wherein the determining whether the uplink transmission in a subframe n+1 is to be overlapped comprises, if the data reception is reception of a D2D discovery signal, and a time of a D2D transmission gap is less than a summation of a switch time from reception to transmission for the data transmission in the subframe n+1 and a timing advance for the transmission in the subframe n+1, determining that the uplink transmission in the subframe n+1 is to be overlapped, or if the data reception is reception of D2D data, and a transmission start time in the subframe n+1 is less than {a reception start time for reception of D2D data in the subframe n + a length of the subframe n - a D2D transmission gap time + a switch time from reception to transmission for the data transmission in the subframe n+1}, determining that the uplink transmission in the subframe n+1 is to be overlapped. determining whether uplink transmission in a subframe n+1 is to be overlapped in a time domain between data reception by the UE in a subframe n and data transmission by the UE in the subframe n+1 of a serving cell, the data reception for device-to-device, D2D, communication and the data transmission for uplink transmission to the serving cell; and dropping the data reception in the subframe n, if it is determined that the uplink transmission in the subframe n+1 is to be overlapped, wherein the determining whether the uplink transmission in a subframe n+1 is to be overlapped comprises, if the data reception is reception of a D2D discovery signal, and a time of a D2D transmission gap is less than a summation of a switch time from reception to transmission for the data transmission in the subframe n+1 and a timing advance for the transmission in the subframe n+1, determining that the uplink transmission in the subframe n+1 is to be overlapped, or if the data reception is reception of D2D data, and a transmission start time in the subframe n+1 is less than {a reception start time for reception of D2D data in the subframe n + a length of the subframe n - a D2D transmission gap time + a switch time from reception to transmission for the data transmission in the subframe n+1}, determining that the uplink transmission in the subframe n+1 is to be overlapped.
An aircraft configured to collect environment information on a surface of the earth or a surface layer of the earth, the aircraft comprising: a receiver configured to receive an electromagnetic wave (E2) obtained from a sensor element , which is scattered in a target region where the environment information is collected, of which at least one of reflection properties, transmission properties, absorption properties, or luminescence properties with respect to an electromagnetic wave (E1) with a specific wavelength, or light emitting properties, changes in accordance with an environment; a recorder configured to record a reception result of the receiver ; characterised in that the aircraft further comprises a scattering device configured to scatter the sensor element in the target region. a receiver configured to receive an electromagnetic wave (E2) obtained from a sensor element , which is scattered in a target region where the environment information is collected, of which at least one of reflection properties, transmission properties, absorption properties, or luminescence properties with respect to an electromagnetic wave (E1) with a specific wavelength, or light emitting properties, changes in accordance with an environment; a recorder configured to record a reception result of the receiver ; characterised in that the aircraft further comprises a scattering device configured to scatter the sensor element in the target region.
Vidofludimus for use in a method of treating a coronavirus infection in a subject in need thereof.
A method of providing protection against malware, the method comprising: executing an agent program on a remote computer connected to a network , the agent program being configured to communicate with a base computer via the network , the agent program including a firewall arranged to block communications between the remote computer and entities on the network in accordance with predetermined rules, the agent program being further configured to impersonate the kernel of the operating system when monitoring objects running on the remote computer , said monitoring being to determine whether the objects are malware; and configuring the firewall in accordance with rules received from the base computer . executing an agent program on a remote computer connected to a network , the agent program being configured to communicate with a base computer via the network , the agent program including a firewall arranged to block communications between the remote computer and entities on the network in accordance with predetermined rules, the agent program being further configured to impersonate the kernel of the operating system when monitoring objects running on the remote computer , said monitoring being to determine whether the objects are malware; and configuring the firewall in accordance with rules received from the base computer .
A method implemented by a user equipment, UE, , the method comprising: obtaining a first initialization value that is calculated based on: one of a first and a second parameter; and a scrambling code ID; and mapping the first initialization value to a first Code Division Multiplexing, CDM, group based on the scrambling code ID; obtaining a second initialization value that is calculated based on: the other of the first and second parameters; and an inverse of the scrambling code ID; and mapping the second initialization value to a second CDM group based on the scrambling code ID, wherein the first and second parameters are received in a Radio Resource Control, RRC, message from the network node, and wherein the scrambling code ID is received in Downlink Control information, DCI, from the network node. obtaining a first initialization value that is calculated based on: one of a first and a second parameter; and a scrambling code ID; and one of a first and a second parameter; and a scrambling code ID; and mapping the first initialization value to a first Code Division Multiplexing, CDM, group based on the scrambling code ID; obtaining a second initialization value that is calculated based on: the other of the first and second parameters; and an inverse of the scrambling code ID; and the other of the first and second parameters; and an inverse of the scrambling code ID; and mapping the second initialization value to a second CDM group based on the scrambling code ID, wherein the first and second parameters are received in a Radio Resource Control, RRC, message from the network node, and wherein the scrambling code ID is received in Downlink Control information, DCI, from the network node.
A substantially rigid compression paddle for use with an x-ray breast imaging system, the compression paddle comprising: - a front wall configured to be adjacent and face a chest wall of a patient during imaging; - a rear wall disposed opposite the front wall; - a bottom wall configured to extend away from the patient's chest wall and to be adjacent a length of a top of a compressed breast; - side walls opposing one another; wherein the compression paddle has generally rounded corners about the front wall to the bottom wall and generally rounded corners about the front wall to the side walls, characterized in that a middle portion of the bottom wall has a thickness greater than portions of the bottom wall closer to the side walls. - a front wall configured to be adjacent and face a chest wall of a patient during imaging; - a rear wall disposed opposite the front wall; - a bottom wall configured to extend away from the patient's chest wall and to be adjacent a length of a top of a compressed breast; - side walls opposing one another;
A shoe-type device , comprising: a vibrator configured to generate a vibration; a pressure sensor under the vibrator , the pressure sensor configured to measure a measured pressure; and a controller configured to control an intensity of the vibration generated by the vibrator based on the measured pressure. a vibrator configured to generate a vibration; a pressure sensor under the vibrator , the pressure sensor configured to measure a measured pressure; and a controller configured to control an intensity of the vibration generated by the vibrator based on the measured pressure.
Method for connecting a saddle (S) to a seat post , wherein: - said saddle (S) is provided with a casing (S1) partially or completely made of a plastic material, in turn provided with an underside housing (S2) that is tubular with a circular cross section, - said seat post comprises a substantially linear tubular body with one end suited to be inserted and locked in the frame of a bicycle and the opposite end having a tubular wall with a circular cross section corresponding to said underside housing (S2) and suited to be coupled with said underside housing (S2) provided in the saddle (S) from below, said coupling end being shaped so that it can be engaged in said underside housing (S2) in said casing (S1), said coupling end of the seat post comprising a discontinuous portion formed by at least one notch and/or a projection , with at least one surface not parallel to the longitudinal axis (X) of the seat post , which is suited to interfere with the tubular wall (S5) of said tubular housing (S2) provided in the casing (S1) to prevent the axial sliding of the seat post, at least in the direction of extraction from the housing (S2), characterized in that after the hot insertion of said coupling end in said housing (S2) in the casing (S1) when this is still hot after extraction from the mould, the plastic material with which the casing (S1) is made cools down and interferes with said non axial surface of said discontinuous portion , locking the seat post and preventing it from successively slipping out, and wherein during the axial hot insertion of the seat post in said tubular housing (S2), said projection in general protruding from the outside of said wall of the coupling end cuts the wall (S5) of the housing (S2) and interferes with it after the cooling stage, thus preventing the seat post from successively slipping out. - said saddle (S) is provided with a casing (S1) partially or completely made of a plastic material, in turn provided with an underside housing (S2) that is tubular with a circular cross section, - said seat post comprises a substantially linear tubular body with one end suited to be inserted and locked in the frame of a bicycle and the opposite end having a tubular wall with a circular cross section corresponding to said underside housing (S2) and suited to be coupled with said underside housing (S2) provided in the saddle (S) from below,