mhurhangee/patent-ind-claim-en huggingface dataset:
An exit row table for an aircraft, comprising: a table surface deployable between a retracted position and a deployed position; an arm having a first end and a second end, the arm supporting the table surface at the first end; a support connected to the arm at the second end, the support connecting the arm to a structure interior to the aircraft; a sensor within the aircraft to detect if a seat adjacent to the table surface is occupied; and a retraction mechanism responsive to a signal provided by the sensor and to a flight mode of the aircraft meeting predetermined criteria, the retraction mechanism being configured to: cause automatic retraction of the table surface to the retracted position upon the sensor detecting that the seat is not occupied and cause automatic retraction of the table surface to the retracted position upon the aircraft flight mode meeting the predetermined criteria.. a table surface deployable between a retracted position and a deployed position; an arm having a first end and a second end, the arm supporting the table surface at the first end; a support connected to the arm at the second end, the support connecting the arm to a structure interior to the aircraft; a sensor within the aircraft to detect if a seat adjacent to the table surface is occupied; and a retraction mechanism responsive to a signal provided by the sensor and to a flight mode of the aircraft meeting predetermined criteria, the retraction mechanism being configured to: cause automatic retraction of the table surface to the retracted position upon the sensor detecting that the seat is not occupied and cause automatic retraction of the table surface to the retracted position upon the aircraft flight mode meeting the predetermined criteria.. cause automatic retraction of the table surface to the retracted position upon the sensor detecting that the seat is not occupied and cause automatic retraction of the table surface to the retracted position upon the aircraft flight mode meeting the predetermined criteria..
A host device performing network diagnostics on an image forming apparatus , the host device comprising: a communicator configured to receive, from the image forming apparatus , diagnostic raw data used for the network diagnostics on the image forming apparatus , and receive a diagnostic policy from a policy-providing server outside the image forming apparatus , the diagnostic policy being a criterion of the network diagnostics; a memory storing computer-executable instructions; at least one processor configured to execute the computer-executable instructions to generate a network diagnostics result of the image forming apparatus based on the diagnostic raw data and the diagnostic policy; and an input/output unit configured to output the network diagnostics result. a communicator configured to receive, from the image forming apparatus , diagnostic raw data used for the network diagnostics on the image forming apparatus , and receive a diagnostic policy from a policy-providing server outside the image forming apparatus , the diagnostic policy being a criterion of the network diagnostics; a memory storing computer-executable instructions; at least one processor configured to execute the computer-executable instructions to generate a network diagnostics result of the image forming apparatus based on the diagnostic raw data and the diagnostic policy; and an input/output unit configured to output the network diagnostics result.
Method for forming a profiled, consolidated nonwoven-fabric product, comprising the following steps: - forming a profiled fibre cluster or a profiled nonwoven-fabric intermediate product which is a profiled fibre cluster; - feeding and depositing a covering nonwoven fabric onto the profiled fibre cluster from above to form a profiled nonwoven fabric and consolidating the profiled nonwoven fabric in a consolidating device to form the profiled, consolidated nonwoven-fabric product , or feeding and depositing a covering nonwoven fabric onto the profiled nonwoven-fabric intermediate product from above to form a profiled nonwoven fabric and consolidating the profiled nonwoven fabric in a consolidating device to form the profiled, consolidated nonwoven-fabric product; characterized in that , to form the profiled nonwoven fabric , a base nonwoven fabric , on which the profiled fibre cluster or the nonwoven-fabric intermediate product is deposited, is fed such that the profiled nonwoven fabric comprises a sandwich of base nonwoven fabric , profiled fibre cluster or nonwoven-fabric intermediate product , and covering nonwoven fabric , and the profiled fibre cluster is formed by a feeding device having multiple feeding segments horizontally next to one another, or the profiled nonwoven-fabric intermediate product is formed by a feeding device having multiple feeding segments horizontally next to one another. - forming a profiled fibre cluster or a profiled nonwoven-fabric intermediate product which is a profiled fibre cluster; - feeding and depositing a covering nonwoven fabric onto the profiled fibre cluster from above to form a profiled nonwoven fabric and consolidating the profiled nonwoven fabric in a consolidating device to form the profiled, consolidated nonwoven-fabric product , or feeding and depositing a covering nonwoven fabric onto the profiled nonwoven-fabric intermediate product from above to form a profiled nonwoven fabric and consolidating the profiled nonwoven fabric in a consolidating device to form the profiled, consolidated nonwoven-fabric product; to form the profiled nonwoven fabric , a base nonwoven fabric , on which the profiled fibre cluster or the nonwoven-fabric intermediate product is deposited, is fed such that the profiled nonwoven fabric comprises a sandwich of base nonwoven fabric , profiled fibre cluster or nonwoven-fabric intermediate product , and covering nonwoven fabric , and the profiled fibre cluster is formed by a feeding device having multiple feeding segments horizontally next to one another, or the profiled nonwoven-fabric intermediate product is formed by a feeding device having multiple feeding segments horizontally next to one another.
A method for making a conductive pre-impregnated composite sheet , said method comprising: joining a nanomaterial composite sheet , a fiber-reinforcing sheet , and a resin film to form a combined sheet in which said nanomaterial composite sheet is located between said resin film and said fiber-reinforcing sheet , wherein: said nanomaterial composite sheet is electrically conductive and comprises: a nonwoven carbon fiber veil having a first surface and a second surface, opposite said first surface; a conductive nanomaterial structure coupled to said first surface of said nonwoven carbon fiber veil , said conductive nanomaterial structure being opaque to a first electromagnetic radiation having a frequency greater than 100 MHz; and a metallic coating coupled to said second surface of said nonwoven carbon fiber veil, said metallic coating being opaque to a second electromagnetic radiation having a frequency less than 100 MHz; heating said combined sheet ; compacting said combined sheet ; cooling said combined sheet ; and forming said conductive pre-impregnated composite sheet . said nanomaterial composite sheet is electrically conductive and comprises: a nonwoven carbon fiber veil having a first surface and a second surface, opposite said first surface; a conductive nanomaterial structure coupled to said first surface of said nonwoven carbon fiber veil , said conductive nanomaterial structure being opaque to a first electromagnetic radiation having a frequency greater than 100 MHz; and a metallic coating coupled to said second surface of said nonwoven carbon fiber veil, said metallic coating being opaque to a second electromagnetic radiation having a frequency less than 100 MHz; heating said combined sheet ; compacting said combined sheet ; cooling said combined sheet ; and forming said conductive pre-impregnated composite sheet .
A dispenser for dispensing sheet material , comprising: a body having four side walls , a base , an opening in a top of the body , a lid for covering the opening in use and enabling access to the opening for refilling, wherein the lid has a dispensing opening therein to enable sheet material to be dispensed therefrom, wherein at least one of the side walls is a double-walled side wall comprising an inner wall and an outer wall , a space being defined between the inner wall and the outer wall , and wherein at least part of the inner wall is pivotable around a pivot axis to the inside of the body , characterised in that the inner wall is hinged to the body in such a manner that the inner wall can be tilted away from the outer wall via hinges provided on the body . a body having four side walls , a base , an opening in a top of the body , a lid for covering the opening in use and enabling access to the opening for refilling, wherein the lid has a dispensing opening therein to enable sheet material to be dispensed therefrom, wherein at least one of the side walls is a double-walled side wall comprising an inner wall and an outer wall , a space being defined between the inner wall and the outer wall , and wherein at least part of the inner wall is pivotable around a pivot axis to the inside of the body , characterised in that the inner wall is hinged to the body in such a manner that the inner wall can be tilted away from the outer wall via hinges provided on the body .
A robotic system comprising: a robotic element having an electrically rechargeable power source ; a propulsion unit and a control unit for autonomous propelled movement of the robotic element over an area ; a circuit loop comprising a plurality of wire segments , including one or more boundary wire segments defining the boundary of an area within which said robotic element is permitted to move; a charging station with which the robotic element can dock for charging of said power source ; and a base station having first connections with the charging station for the supply of charging power and second connections with the circuit loop for the supply of a positioning voltage signal to said boundary wire segments ; wherein the base station comprises at least one user-actuable control ; and characterised in that: the base station is configured to provide a "manual return to charging station" control signal in response to appropriate user actuation of said at least one control with said boundary wire segments transmitting a wireless control signal corresponding to said "manual return to charging station" control signal and with the robotic element being configured such that, during autonomous movement over said area and on receipt of said "manual return to charging station" wireless control signal, it ceases autonomous movement and moves directly to said charging station .
Mobility scooter for individual mobility of a person , comprising a chassis , two front wheels aside the chassis and at least one rear wheel that are rotatable connected with the chassis and of which at least the front wheels are steered with respect to the chassis by means of a powered front steering mechanism, a seat for the person on the chassis, and a footrest on the chassis that extends in the forward driving direction between the seat and the front wheels, wherein the seat comprises a seat base , a backrest and two armrests , wherein at least one of the group of the at least one of the armrests and the seat base has a driving position and a boarding position, wherein the at least one of the armrests is hingeable (B1, B2) with respect to the backrest to swing between an arm supporting position in its driving position and an outspread position in its boarding position, and wherein the seat base is rotatable (C1, C2) with respect to the chassis around a vertical axis to swing between a forward position in its driving position and an oblique position in its boarding position, wherein the mobility scooter comprises an electronic controller assembly that is configured to drive the rotation of the wheels (20-23) and to power at least the front steering mechanism, wherein the mobility scooter has a driving mode and a boarding mode, wherein in the driving mode the seat base and the armrests are in their driving position, and wherein in the boarding mode at least one of the group of the seat base and the at least one of the armrests is in its boarding position, characterized in that the electronic controller assembly is configured to steer the front wheels in the boarding mode into the sideward steering direction (D1, D2) that is opposite to the side to which the seat base or the armrest is swung in its boarding position.
A microwave antenna for detecting obstacles in a targeting zone in a railway, comprising: a radar transceiver ; a waveguide attached to the radar transceiver ; a reflector element ; a pivot bar fastened to the waveguide and the reflector element , the pivot bar configured to stabilize and fasten together the waveguide and the reflector element in accordance with predetermined relative positions and angles thereof; characterised in that the microwave antenna further comprises a plurality of threaded fasteners configured to adjust the orientation of the pivot bar and the reflector element to adjust the targeting zone, and the pivot bar is mounted between the plurality of threaded fasteners . a radar transceiver ; a waveguide attached to the radar transceiver ; a reflector element ; a pivot bar fastened to the waveguide and the reflector element , the pivot bar configured to stabilize and fasten together the waveguide and the reflector element in accordance with predetermined relative positions and angles thereof; characterised in that the microwave antenna further comprises a plurality of threaded fasteners configured to adjust the orientation of the pivot bar and the reflector element to adjust the targeting zone, and the pivot bar is mounted between the plurality of threaded fasteners .
An apparatus , which is a base station , or is comprised in a base station , the apparatus comprising: means for determining (S1) types of radio access technologies supported by the apparatus , wherein the apparatus supports at least two types of radio access technologies; means for providing (S2) inputs to machine learning models, wherein the machine learning models comprise a corresponding machine learning model to each type of radio access technology, and for each type of radio access technology parameters associated with that type of radio access technology are provided as an input to the corresponding machine learning model; and means for obtaining (S3), for each type of the radio access technologies, a power consumption estimate provided by the corresponding machine learning model. means for determining (S1) types of radio access technologies supported by the apparatus , wherein the apparatus supports at least two types of radio access technologies; means for providing (S2) inputs to machine learning models, wherein the machine learning models comprise a corresponding machine learning model to each type of radio access technology, and for each type of radio access technology parameters associated with that type of radio access technology are provided as an input to the corresponding machine learning model; and means for obtaining (S3), for each type of the radio access technologies, a power consumption estimate provided by the corresponding machine learning model.
A method, comprising: determining, by a first device and based on an identifier of the first device or an identifier of a second device, whether the first device is eligible to send a message to the second device with a first strength of encryption that is higher than a second strength of encryption; in accordance with a determination that the first device is eligible to send the message to the second device with the first strength of encryption, sending, by the first device, the message with the first strength of encryption via a first network; and in accordance with a determination that the first device is not eligible to send the message to the second device with the first strength of encryption, sending, by the first device, the message with the second strength of encryption via a second network that differs from the first network. determining, by a first device and based on an identifier of the first device or an identifier of a second device, whether the first device is eligible to send a message to the second device with a first strength of encryption that is higher than a second strength of encryption; in accordance with a determination that the first device is eligible to send the message to the second device with the first strength of encryption, sending, by the first device, the message with the first strength of encryption via a first network; and in accordance with a determination that the first device is not eligible to send the message to the second device with the first strength of encryption, sending, by the first device, the message with the second strength of encryption via a second network that differs from the first network.
A hybrid docking station comprising: a data interface configured to receive data, virtualized video data and native video data from a computing device , wherein the data interface comprises a wired or wireless interface; an output video interface configured to provide video data to a display ; a virtual video processor ; a detector configured to detect the native video data over the data interface and when the native video data is not detected, activate the virtual video processor; wherein the virtual video processor is configured to: when the native video data is absent from the data interface, activate, power on, by a signal from the detector , and receive virtualized video data from the data interface and provide the virtualized video data into a video output configured to be received by the output video interface; and a signal router configured to determine which output to provide to the output video interface based on the presence of the native video, wherein: when the native video is present the signal router is configured to pass through the native video data to the output video interface, and when the native video is absent the signal router is configured to route the virtualized video data to the virtual video processor to be converted into the output video interface. a data interface configured to receive data, virtualized video data and native video data from a computing device , wherein the data interface comprises a wired or wireless interface; an output video interface configured to provide video data to a display ; a virtual video processor ; a detector configured to detect the native video data over the data interface and when the native video data is not detected, activate the virtual video processor; wherein the virtual video processor is configured to: when the native video data is absent from the data interface, activate, power on, by a signal from the detector , and receive virtualized video data from the data interface and provide the virtualized video data into a video output configured to be received by the output video interface; and a signal router configured to determine which output to provide to the output video interface based on the presence of the native video, wherein: when the native video is present the signal router is configured to pass through the native video data to the output video interface, and when the native video is absent the signal router is configured to route the virtualized video data to the virtual video processor to be converted into the output video interface. when the native video is present the signal router is configured to pass through the native video data to the output video interface, and when the native video is absent the signal router is configured to route the virtualized video data to the virtual video processor to be converted into the output video interface.
A peptide which binds to an amino-terminal truncated Aβ-peptide, the exposed glutamine acid residue of which is present at position 3 in cyclized pyroglutamate form, characterized by a peptide which consists exclusively or at least up to 60% of D-enantiomeric amino acids, characterized by a structure according to one of the sequences having the SEQ ID No:1, SEQ ID No:2, SEQ ID No:3 or SEQ ID No:4.
A computer-implemented method of producing a filtered reconstructed frame, comprising: applying, using a deblocking filter, first filter parameters to a reconstructed frame to produce a first filtered frame, wherein the first filter parameters are defined based on adaptive quantization field data associated with the reconstructed frame, wherein the adaptive quantization field data includes values indicative of quantization levels used to encode different areas of the reconstructed frame; using a psychovisual model to determine that a number of blocking artifacts within the first filtered frame exceeds a maximum number of visually perceptible blocking artifacts allowed within the first filtered frame; responsive to determining that the number of blocking artifacts exceeds the number of visually perceptible blocking artifacts, adjusting the first filter parameters to produce second filter parameters, wherein the adjusting includes increasing or decreasing at least one value of the adaptive quantization field data; applying, using the deblocking filter, the second filter parameters to the first filtered frame to produce a second filtered frame; and outputting or storing the second filtered frame. applying, using a deblocking filter, first filter parameters to a reconstructed frame to produce a first filtered frame, wherein the first filter parameters are defined based on adaptive quantization field data associated with the reconstructed frame, wherein the adaptive quantization field data includes values indicative of quantization levels used to encode different areas of the reconstructed frame; using a psychovisual model to determine that a number of blocking artifacts within the first filtered frame exceeds a maximum number of visually perceptible blocking artifacts allowed within the first filtered frame; responsive to determining that the number of blocking artifacts exceeds the number of visually perceptible blocking artifacts, adjusting the first filter parameters to produce second filter parameters, wherein the adjusting includes increasing or decreasing at least one value of the adaptive quantization field data; applying, using the deblocking filter, the second filter parameters to the first filtered frame to produce a second filtered frame; and outputting or storing the second filtered frame.