mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless communication method carried out by a user equipment, the wireless communication method comprising: receiving, from a base station, periodically broadcast system information comprising sidelink indication information, receiving, from the base station, sidelink transmission resource configuration information, wherein the step of receiving, from the base station, the sidelink transmission resource configuration information comprises establishing a connection with the base station and receiving, from the base station, the sidelink transmission resource configuration information when determining the periodically broadcast system information does not have sidelink transmission resource configuration information, wherein the sidelink indication information comprises at least one of an indication of whether sidelink transmissions are enabled for RRC_IDLE/INACTIVE UE, an indication of whether a sidelink transmission resource pool is provided in on-demand system information, an indication of whether sidelink radio bearer configuration is provided in on-demand system information, a sidelink transmission resource pool or a sidelink exceptional transmission resource pool. receiving, from a base station, periodically broadcast system information comprising sidelink indication information, receiving, from the base station, sidelink transmission resource configuration information, wherein the step of receiving, from the base station, the sidelink transmission resource configuration information comprises establishing a connection with the base station and receiving, from the base station, the sidelink transmission resource configuration information when determining the periodically broadcast system information does not have sidelink transmission resource configuration information, wherein the sidelink indication information comprises at least one of an indication of whether sidelink transmissions are enabled for RRC_IDLE/INACTIVE UE, an indication of whether a sidelink transmission resource pool is provided in on-demand system information, an indication of whether sidelink radio bearer configuration is provided in on-demand system information, a sidelink transmission resource pool or a sidelink exceptional transmission resource pool.
A field-effect transistor comprising: a gate electrode ; a source electrode and a drain electrode ; an active layer , which is formed between the source electrode and the drain electrode ; and a gate insulating layer , which is formed between the gate electrode and the active layer, wherein the active layer includes two kinds of oxide layers including layer A and layer B, and characterized in that the active layer is an ABA stacked structure of three layers that are the layer A, the layer B, and the layer A stacked in this order, wherein the layer B includes a substitution dopant, wherein layer A is MgIn 2 O 4 and layer B is ZnGa 2 O 4 :2at%Sn. a gate electrode ; a source electrode and a drain electrode ; an active layer , which is formed between the source electrode and the drain electrode ; and a gate insulating layer , which is formed between the gate electrode and the active layer, wherein the active layer includes two kinds of oxide layers including layer A and layer B, and characterized in that the active layer is an ABA stacked structure of three layers that are the layer A, the layer B, and the layer A stacked in this order, wherein the layer B includes a substitution dopant, wherein layer A is MgIn 2 O 4 and layer B is ZnGa 2 O 4 :2at%Sn.
A keyless entry apparatus comprising a vehicle-side device that is provided on a vehicle and transmits a signal at a first frequency, and a portable device that is able to be carried by a user and transmits a signal at a second frequency, the portable device transmitting a signal of data based on a reception intensity of a measurement signal transmitted from the vehicle-side device , and the vehicle-side device performing predetermined control of the vehicle on the basis of the data based on the reception intensity of the measurement signal transmitted from the portable device , wherein the vehicle-side device transmits a start-up signal to the portable device , the portable device transmits a request signal to the vehicle-side device in each predetermined time when receiving the start-up signal, and the vehicle-side device transmits the measurement signal to the portable device each time the vehicle-side device receives the request signal, characterised in that the vehicle-side device transmits a second start-up signal as the start-up signal to the portable device in a predetermined time period, the portable device acquires noise component data based on the signal intensity of the signal received in an OFF time in which the portable device does not communicate with the vehicle-side device when the portable device is started up by the second start-up signal, the keyless entry apparatus determines whether a signal intensity included in the noise component data is equal to or greater than a predetermined threshold value, and transmits the request signal in each predetermined time when the signal intensity included in the noise component data is equal to or greater than the predetermined threshold value, the portable device acquires the noise component data in an OFF time in which the portable device does not communicate with the vehicle-side device after the transmission of the request signal, and the keyless entry apparatus continues to transmit the request signal in each predetermined time when a signal intensity of the noise component data is equal to or greater than a predetermined threshold value, and stops the transmission of the request signal in each predetermined time when the signal intensity of the noise component data is smaller than the predetermined threshold value.
A unit pixel structure, comprising: a semiconductive stack having a front side and a back side opposite the front side, the semiconductive stack comprising: a first doped layer ; a second doped layer disposed over the first doped layer ; a third doped layer disposed over the second doped layer ; and a fourth doped layer disposed over the third doped layer ; a sensor well region formed within the fourth doped layer ; a floating diffusion region formed within the fourth doped layer and separate from the sensor well region ; a first gate structure disposed over the semiconductive stack and positioned between the sensor well region and the floating diffusion region ; and a second gate structure arranged around the floating diffusion region and extending through the third doped layer , wherein the second gate structure comprises a gate electrode and a gate insulating layer surrounding the gate electrode; and wherein a doping concentration of the third doped layer is heavier than the fourth doped layer ; wherein the third doped layer is arranged between the floating diffusion region and the first photodiode so as to build a potential hump between the floating diffusion region and the first photodiode, wherein the first doped layer, the third doped layer, and the fourth doped layer are of a first dopant type and wherein the second layer is of a second dopant type, and wherein the third doped layer is entirely p-type or entirely n-type. a semiconductive stack having a front side and a back side opposite the front side, the semiconductive stack comprising: a first doped layer ; a second doped layer disposed over the first doped layer ; a third doped layer disposed over the second doped layer ; and a fourth doped layer disposed over the third doped layer ; a first doped layer ; a second doped layer disposed over the first doped layer ; a third doped layer disposed over the second doped layer ; and a fourth doped layer disposed over the third doped layer ; a sensor well region formed within the fourth doped layer ; a floating diffusion region formed within the fourth doped layer and separate from the sensor well region ; a first gate structure disposed over the semiconductive stack and positioned between the sensor well region and the floating diffusion region ; and a second gate structure arranged around the floating diffusion region and extending through the third doped layer , wherein the second gate structure comprises a gate electrode and a gate insulating layer surrounding the gate electrode; and wherein a doping concentration of the third doped layer is heavier than the fourth doped layer ; wherein the third doped layer is arranged between the floating diffusion region and the first photodiode so as to build a potential hump between the floating diffusion region and the first photodiode, wherein the first doped layer, the third doped layer, and the fourth doped layer are of a first dopant type and wherein the second layer is of a second dopant type, and wherein the third doped layer is entirely p-type or entirely n-type.
An apparatus comprising: a first optical amplifier (160 ja ) located in a first optical path configured to transmit optical signals in a first direction; a second optical amplifier (160 jb ) located in a second optical path configured to transmit optical signals in a second direction, the second direction being opposite to the first direction; and an optical circuit connected to optically couple the first optical path and the second optical path; and wherein the optical circuit comprises a first optical pathway configured to direct light from an output (362 a ) of the first optical amplifier (160 ja ) to an input (358 b ) of the second optical amplifier (160 jb ); and characterized in that the optical circuit further comprises a second optical pathway configured to direct light from an input (358 a ) of the first optical amplifier (160 ja ) to the input (358 b ) of the second optical amplifier (160 jb ) in the second direction. a first optical amplifier (160 ja ) located in a first optical path configured to transmit optical signals in a first direction; a second optical amplifier (160 jb ) located in a second optical path configured to transmit optical signals in a second direction, the second direction being opposite to the first direction; and an optical circuit connected to optically couple the first optical path and the second optical path; and wherein the optical circuit comprises a first optical pathway configured to direct light from an output (362 a ) of the first optical amplifier (160 ja ) to an input (358 b ) of the second optical amplifier (160 jb ); and characterized in that the optical circuit further comprises a second optical pathway configured to direct light from an input (358 a ) of the first optical amplifier (160 ja ) to the input (358 b ) of the second optical amplifier (160 jb ) in the second direction.
A motor vehicle door handle system , having a first door handle assembly and a second door handle assembly , which in an assembled state is arranged lying opposite relative to the first door handle assembly , wherein the first door handle assembly has a first carrier housing , which can be fastened to a first vehicle door, a first hand grip element , which is mounted on the first carrier housing so that it can rotate around a first rotational axis and can be moved between a resting position and an operating position, and a first driving device fastened to the first carrier housing for moving the first hand grip element , wherein the second door handle assembly has a second carrier housing , which can be fastened to a second vehicle door lying opposite the first vehicle door, a second hand grip element , which is mounted on the second carrier housing so that it can rotate around a second rotational axis and can be moved between a resting position and an operating position, and a second driving device fastened to the second carrier housing for moving the second hand grip element , and wherein the first carrier housing is symmetrically identical in design to the second carrier housing , wherein the first driving device and the second driving device are structurally identical in design, characterized in that the first driving device is inversely fastened to the first carrier housing by comparison to the second driving device , so that the direction of movement of the two driving devices remains identical.
A method for interconnecting a vehicle and a machine, comprising: acquiring , by a mobile terminal corresponding to the machine, device information used for a wireless direct connection; wherein the device information includes a network port and a network address of a WIFI peer-to-peer, P2P, module of the mobile terminal; sending , via a near field communication, NFC, module, the device information to a NFC module of a vehicle-mounted terminal, so that the vehicle-mounted terminal acquires the device information and controls a WIFI P2P module of the vehicle-mounted terminal to send a connection request to the mobile terminal based on the device information; receiving , by the WIFI P2P module of the mobile terminal, the connection request based on the device information, and establishing a wireless direct connection with the vehicle-mounted terminal sending the connection request, acquiring to-be-transmitted data, in response to establishing the wireless direct connection with the vehicle-mounted terminal; creating a data channel corresponding to the to-be-transmitted data; sending the to-be-transmitted data based on the data channel. acquiring , by a mobile terminal corresponding to the machine, device information used for a wireless direct connection; wherein the device information includes a network port and a network address of a WIFI peer-to-peer, P2P, module of the mobile terminal; sending , via a near field communication, NFC, module, the device information to a NFC module of a vehicle-mounted terminal, so that the vehicle-mounted terminal acquires the device information and controls a WIFI P2P module of the vehicle-mounted terminal to send a connection request to the mobile terminal based on the device information; receiving , by the WIFI P2P module of the mobile terminal, the connection request based on the device information, and establishing a wireless direct connection with the vehicle-mounted terminal sending the connection request, acquiring to-be-transmitted data, in response to establishing the wireless direct connection with the vehicle-mounted terminal; creating a data channel corresponding to the to-be-transmitted data; sending the to-be-transmitted data based on the data channel.
A process for the manufacture of the pallet block with the density within the range of 600-750 kg/m3 comprising a particulate material glued with a binding material, said binding material being in the form of an urea-formaldehyde resin and melamine-formaldehyde resin mixture (MUF), wherein the particulate material contains a chipboard waste in amounts of 70 to 90% by weight and a MDF or HDF waste in amounts of 10 to 30% by weight, which comprises the steps of: (a) preparing chips from the source material, (b) charging the chips prepared in the step (a) and secondary comminution thereof, (c) drying the chips of the step (b), (d) sieving the chips prepared in the step (c), (e) buffering the chips of the step (d) and metering thereof, (f) gluing chips with the urea-formaldehyde resin and melamine-formaldehyde resin mixture (MUF), (g) compression molding of the glued chips into the form of strips, the strips being cut lengthwise to the shapes of the blocks, (h) conditioning and storage of the blocks prepared in the step (g), wherein for the manufacture of the chips in the step (a) the material of the chipboard waste and HDF or MDF board waste is used as a source material, the chipboard content being from 70 to 90%, and the content of the MDF or HDF board waste being from 10 to 30% by weight, wherein chipboard and HDF/MDF waste comprise already hardened bonding agent, such as the set melamine resin. (a) preparing chips from the source material, (b) charging the chips prepared in the step (a) and secondary comminution thereof, (c) drying the chips of the step (b), (d) sieving the chips prepared in the step (c), (e) buffering the chips of the step (d) and metering thereof, (f) gluing chips with the urea-formaldehyde resin and melamine-formaldehyde resin mixture (MUF), (g) compression molding of the glued chips into the form of strips, the strips being cut lengthwise to the shapes of the blocks, (h) conditioning and storage of the blocks prepared in the step (g), wherein for the manufacture of the chips in the step (a) the material of the chipboard waste and HDF or MDF board waste is used as a source material, the chipboard content being from 70 to 90%, and the content of the MDF or HDF board waste being from 10 to 30% by weight, wherein chipboard and HDF/MDF waste comprise already hardened bonding agent, such as the set melamine resin.
Seating furniture chassis comprising a base body and a plurality of electrically conductive cables , wherein the cables are fastened to the base body , wherein each of the cables has at a first end an individual connector which is electrically connectable to a peripheral electrical device, wherein the seating furniture chassis comprises a central connector , wherein the central connector is connectable to a central electrical device, wherein each of the cables is electrically connected at a second end to the central connector , wherein the seating furniture chassis comprises a back part, wherein the back part is fastenable to the base body , wherein the seating furniture chassis comprises the central electrical device and the central electrical device is arranged on the back part, characterised in that the central connector is a plug or a socket.
Lawn mower , in particular autonomous lawn mower , having at least a chassis , a motor for driving a cutting apparatus , and a height adjustment apparatus for moving the cutting apparatus and the motor relative to the chassis , at least for setting a working height (h) of the cutting apparatus relative to the chassis , in particular for setting a cutting height (s) of a cutting tool of the cutting apparatus , the height adjustment apparatus having an, in particular, hollow-cylindrical rotational body and a sliding seat which, in particular, surrounds the rotational body , which rotational body and sliding seat have corresponding threads , with the result that a linear displacement of the sliding seat takes place by way of a rotation of the rotational body , at least one of the threads having at least two thread portions , characterized in that the one thread portion , in particular an elastically movable thread portion , preferably a thread portion which can be moved elastically radially with respect to the thread axis, comprises means which increase a thread tooth width (b1) of the one thread portion with respect to the further thread portion and/or reduce a thread turn width (g1) of the one thread portion and/or bring about an offset (a1) of a flank and/or an offset of a pitch (P1) of the one thread portion relative to the further thread portion in relation to its helix .
A photonics system including: an optical die , comprising: - a transmit photonics module configured to emit light; - a receive photonics module ; - a transmit waveguide coupled to the transmit photonics module ; and - a receive waveguide , coupled to the receive photonics module , characterized by further including: - a first optical switch integrated with the transmit waveguide ; - a diagnostics waveguide optically coupled to the first optical switch , wherein the diagnostics waveguide is an on-die optical loopback waveguide ; - a second optical switch integrated with the receive waveguide and optically coupled to the diagnostics waveguide ; and - at least one tap optically coupled to the diagnostics waveguide . an optical die , comprising: - a transmit photonics module configured to emit light; - a receive photonics module ; - a transmit waveguide coupled to the transmit photonics module ; and - a receive waveguide , coupled to the receive photonics module , - a transmit photonics module configured to emit light; - a receive photonics module ; - a transmit waveguide coupled to the transmit photonics module ; and - a receive waveguide , coupled to the receive photonics module , characterized by further including: - a first optical switch integrated with the transmit waveguide ; - a diagnostics waveguide optically coupled to the first optical switch , wherein the diagnostics waveguide is an on-die optical loopback waveguide ; - a second optical switch integrated with the receive waveguide and optically coupled to the diagnostics waveguide ; and - at least one tap optically coupled to the diagnostics waveguide . - a first optical switch integrated with the transmit waveguide ; - a diagnostics waveguide optically coupled to the first optical switch , wherein the diagnostics waveguide is an on-die optical loopback waveguide ; - a second optical switch integrated with the receive waveguide and optically coupled to the diagnostics waveguide ; and - at least one tap optically coupled to the diagnostics waveguide .
A hairpin heat exchanger having a first straight section, a second straight section and a bent section linking the first straight section and the second straight section, characterized in that each straight section comprises a part of a first cylindrical shell or internal cylindrical shell and of a second cylindrical shell or external cylindrical shell , said first cylindrical shell being located inside said second cylindrical shell , both forming an intershell space enclosing a bundle of parallel U-bent tubes having each a first and a second straight part respectively located in said first and second straight section of the exchanger and a 180°-bent part located in said bent section of the exchanger, wherein, in use, a first fluid to be heated and vaporized is flowing, said external cylindrical shell being provided respectively at one end with an inlet and at another end with an outlet for a second fluid which is a hot thermal fluid, so that, in use, said second fluid is flowing in the intershell space and cooling down by exchanging heat with the first fluid flowing in the straight tubes , said intershell space enclosing also baffles to guide the second fluid, wherein the bundle of parallel U-bent tubes is extended out of the exchanger and connected, via bent tubes , respectively beyond an end of the internal shell and of the external shell at the first straight section to a first header distributing the first fluid to the bundle of straight tubes and beyond an end of the internal shell and of the external shell at the second straight section to a second header collecting the first fluid under the form of liquid, vapor or a mixture liquid /vapor from the bundle of straight tubes .
A hold-open device for a fire-rated door, with a housing and with several electro-chemical energy accumulators for energy supply to the hold-open device , characterized in that the hold-open device comprises at least two accumulator groups , wherein each accumulator group comprises at least one of the electro-chemical energy accumulators and an integration element for integrating the at least one electro-chemical energy accumulator into the rest of the hold-open device , wherein the entire lithium content of the electro-chemical energy accumulators of each accumulator group is less than 2 g. with a housing and with several electro-chemical energy accumulators for energy supply to the hold-open device , characterized in that the hold-open device comprises at least two accumulator groups , wherein each accumulator group comprises at least one of the electro-chemical energy accumulators and an integration element for integrating the at least one electro-chemical energy accumulator into the rest of the hold-open device , wherein the entire lithium content of the electro-chemical energy accumulators of each accumulator group is less than 2 g.