mhurhangee/patent-ind-claim-en huggingface dataset:
The use of a substrate with at least one optical waveguide structure integrated thereon, which is accommodated monolithically in or on the substrate , was originally produced on the substrate, is inseparably connected to the substrate and contains a plurality of transparent dielectric layers with different refractive indexes, for the optical inspection of a moving textile material , wherein a scanning region for optically scanning the textile material is provided on the substrate . is accommodated monolithically in or on the substrate , was originally produced on the substrate, is inseparably connected to the substrate and contains a plurality of transparent dielectric layers with different refractive indexes,
A signal receiver comprising: an input for receiving an input signal comprising multiple symbols; a sequence estimator configured to receive the input signal and form an estimate of a most likely content of the input signal; a first feed-forward equaliser for receiving the estimate or a signal derived therefrom and filtering it to form a first equaliser output, the first feed-forward equaliser being configured so that its central tap is effectively zero; a second feed-forward equaliser for receiving the input signal and filtering it to form a second equaliser output; a summation unit configured to sum the first and second equaliser outputs to form a sum signal, the receiver being configured so that the summation unit sums the first and second equaliser outputs in synchronisation with respect to their dependence on the input signal; and a symbol estimator configured to estimate a symbol stream in dependence on the sum signal. an input for receiving an input signal comprising multiple symbols; a sequence estimator configured to receive the input signal and form an estimate of a most likely content of the input signal; a first feed-forward equaliser for receiving the estimate or a signal derived therefrom and filtering it to form a first equaliser output, the first feed-forward equaliser being configured so that its central tap is effectively zero; a second feed-forward equaliser for receiving the input signal and filtering it to form a second equaliser output; a summation unit configured to sum the first and second equaliser outputs to form a sum signal, the receiver being configured so that the summation unit sums the first and second equaliser outputs in synchronisation with respect to their dependence on the input signal; and a symbol estimator configured to estimate a symbol stream in dependence on the sum signal.
A display assembly , comprising: a bottom frame comprising a bottom plate and a side wall extending from the bottom plate ; a display panel comprising a top surface and a bottom surface , the bottom surface of the display panel being disposed on one surface of the bottom plate of the bottom frame far away from the side wall ; a cover plate comprising a rear surface , a front surface and a side surface , the side surface being connected between the rear surface and the front surface , the rear surface of the cover plate being attached to the top surface of the display panel ; a side frame having an inner surface , the inner surface of the side frame being disposed opposite to the side surface of the display panel and a connecting member comprising an extension portion protruding from the inner surface of the side frame and disposed between the cover plate and the display panel . characterised in that the side frame is secured to the side wall of the bottom frame and in that the connecting member further comprises an embedded portion , the extension portion extending from the embedded portion , the embedded portion being embedded in the side frame . a bottom frame comprising a bottom plate and a side wall extending from the bottom plate ; a display panel comprising a top surface and a bottom surface , the bottom surface of the display panel being disposed on one surface of the bottom plate of the bottom frame far away from the side wall ; a cover plate comprising a rear surface , a front surface and a side surface , the side surface being connected between the rear surface and the front surface , the rear surface of the cover plate being attached to the top surface of the display panel ; a side frame having an inner surface , the inner surface of the side frame being disposed opposite to the side surface of the display panel and a connecting member comprising an extension portion protruding from the inner surface of the side frame and disposed between the cover plate and the display panel . characterised in that the side frame is secured to the side wall of the bottom frame and in that the connecting member further comprises an embedded portion , the extension portion extending from the embedded portion , the embedded portion being embedded in the side frame .
A valve comprising: a valve body having a first port and a second port ; a poppet movable within the valve body , wherein the poppet comprises: (i) a first conical surface having a first angle and a second conical surface having a second angle, such that the first angle is greater than the second angle, (ii) an exterior cylindrical surface , and (iii) an annular groove ; and a seal disposed in the annular groove of the poppet , wherein the poppet is movable between at least (i) a seated position in which the seal contacts an interior surface of the valve body to block fluid flow from the first port to the second port , and (ii) a partially-unseated position in which the poppet moves to form a flow area zone around the seal allowing fluid flow from the first port to the second port , wherein the exterior cylindrical surface of the poppet forms a diametrical clearance restriction with the interior surface of the valve body downstream from the flow area zone , wherein the first conical surface is configured to direct fluid toward the interior surface of the valve body , away from the seal , characterised in that the diametrical clearance restriction generates back-pressure around the seal to reduce velocity of fluid around the seal , wherein the interior surface of the valve body comprises an interior inclined surface , wherein the first conical surface of the poppet connects with the second conical surface at a seat contact line configured to contact the interior inclined surface of the valve body when the poppet is in the seated position to form a metal-to-metal seal. a valve body having a first port and a second port ; a poppet movable within the valve body , wherein the poppet comprises: (i) a first conical surface having a first angle and a second conical surface having a second angle, such that the first angle is greater than the second angle, (ii) an exterior cylindrical surface , and (iii) an annular groove ; and a seal disposed in the annular groove of the poppet , wherein the poppet is movable between at least (i) a seated position in which the seal contacts an interior surface of the valve body to block fluid flow from the first port to the second port , and (ii) a partially-unseated position in which the poppet moves to form a flow area zone around the seal allowing fluid flow from the first port to the second port , wherein the exterior cylindrical surface of the poppet forms a diametrical clearance restriction with the interior surface of the valve body downstream from the flow area zone , wherein the first conical surface is configured to direct fluid toward the interior surface of the valve body , away from the seal , characterised in that the diametrical clearance restriction generates back-pressure around the seal to reduce velocity of fluid around the seal , wherein the interior surface of the valve body comprises an interior inclined surface , wherein the first conical surface of the poppet connects with the second conical surface at a seat contact line configured to contact the interior inclined surface of the valve body when the poppet is in the seated position to form a metal-to-metal seal.
A user equipment comprising: a receiver configured to receive a physical downlink control channel, PDCCH, wherein if a first possible starting position in a subframe of a downlink transmission and a second possible starting position in the subframe of the downlink transmission are indicated by higher layer , for a secondary cell with a frame structure type 3, the PDCCH is mapped based on one of the first possible starting position and the second possible starting position in the subframe; if the downlink transmission starts in the second possible starting position in the subframe, the PDCCH is mapped based on the second possible starting position in the subframe; if the downlink transmission starts in the first possible starting position in the subframe, the PDCCH is mapped based on the first possible starting position in the subframe; the first possible starting position is a first OFDM symbol in the subframe; and the second possible starting position is an eighth OFDM symbol in the subframe. a receiver configured to receive a physical downlink control channel, PDCCH, wherein if a first possible starting position in a subframe of a downlink transmission and a second possible starting position in the subframe of the downlink transmission are indicated by higher layer , for a secondary cell with a frame structure type 3, the PDCCH is mapped based on one of the first possible starting position and the second possible starting position in the subframe; if the downlink transmission starts in the second possible starting position in the subframe, the PDCCH is mapped based on the second possible starting position in the subframe; if the downlink transmission starts in the first possible starting position in the subframe, the PDCCH is mapped based on the first possible starting position in the subframe; the first possible starting position is a first OFDM symbol in the subframe; and the second possible starting position is an eighth OFDM symbol in the subframe.
An expedited message retransmission method for a computer system, comprising: maintaining, in a storage medium of the computer system, a master journal of sequenced messages generated from a plurality of messages written by applications or processes during operations of the computer system, at least one subset of said applications or processes requiring access to said sequenced messages to function properly; determining an estimated demand for access to said sequenced messages by said at least one subset of applications or processes that may experience failovers; generating, based on said estimated demand, one or more journal copies and/or one or more journal segments by duplicating content of said master journal, each said journal copy or journal segment being independently accessible by a single application or process at any given moment; and allocating said one or more journal copies and/or said one or more journal segments, upon demand, to some of said at least one subset of said applications or processes that have experienced failovers, such that multiple applications or processes can simultaneously access the content of said master journal, thereby expediting access to said sequenced messages in said master journal by said some applications or processes in their recovery from said failovers. maintaining, in a storage medium of the computer system, a master journal of sequenced messages generated from a plurality of messages written by applications or processes during operations of the computer system, at least one subset of said applications or processes requiring access to said sequenced messages to function properly; determining an estimated demand for access to said sequenced messages by said at least one subset of applications or processes that may experience failovers; generating, based on said estimated demand, one or more journal copies and/or one or more journal segments by duplicating content of said master journal, each said journal copy or journal segment being independently accessible by a single application or process at any given moment; and allocating said one or more journal copies and/or said one or more journal segments, upon demand, to some of said at least one subset of said applications or processes that have experienced failovers, such that multiple applications or processes can simultaneously access the content of said master journal, thereby expediting access to said sequenced messages in said master journal by said some applications or processes in their recovery from said failovers.
A vehicle comprising • a front axle carrier for fastening front wheel suspensions, • a rear axle carrier for fastening rear wheel suspensions, and • a load-bearing first longitudinal structure designed as a rigid pressure tank for holding a fuel for the vehicle, • wherein the pressure tank connects the front axle carrier to the rear axle carrier in a load-bearing manner, and • wherein the connection between the pressure tank and front axle carrier and between the pressure tank and rear axle carrier is formed in each case merely by longitudinal-direction fixed bearings that do not enable length compensation in the vehicle longitudinal direction . • a front axle carrier for fastening front wheel suspensions, • a rear axle carrier for fastening rear wheel suspensions, and • a load-bearing first longitudinal structure designed as a rigid pressure tank for holding a fuel for the vehicle, • wherein the pressure tank connects the front axle carrier to the rear axle carrier in a load-bearing manner, and • wherein the connection between the pressure tank and front axle carrier and between the pressure tank and rear axle carrier is formed in each case merely by longitudinal-direction fixed bearings that do not enable length compensation in the vehicle longitudinal direction .
A robotic system comprising: an input device operated by a first person (O); a manipulator adapted to hold and manipulate a tool , the manipulator having one or more activatable indicators disposed so as to be sensed by a second person (A); a first display disposed so as to be viewable by the second person (A); and a processor adapted to command operation of the manipulator to manipulate the tool in response to an input received from the input device ; characterized by the processor further adapted to: control activation of the one or more activatable indicators so as to provide a first one of a plurality of identifiable signals, wherein each of the plurality of identifiable signals is indicatable by a different activation of the one or more activatable indicators ; and cause information to be displayed on the first display so as to be viewable by the second person (A), wherein the information is regarding the first one of the plurality of identifiable signals. an input device operated by a first person (O); a manipulator adapted to hold and manipulate a tool , the manipulator having one or more activatable indicators disposed so as to be sensed by a second person (A); a first display disposed so as to be viewable by the second person (A); and a processor adapted to command operation of the manipulator to manipulate the tool in response to an input received from the input device ; control activation of the one or more activatable indicators so as to provide a first one of a plurality of identifiable signals, wherein each of the plurality of identifiable signals is indicatable by a different activation of the one or more activatable indicators ; and cause information to be displayed on the first display so as to be viewable by the second person (A), wherein the information is regarding the first one of the plurality of identifiable signals.
A method for processing interference, comprising: measuring , according to a first demodulation reference signal, DMRS, pilot symbol carried by a first subcarrier used by an uplink user equipment, an interference channel matrix of an uplink interference channel from the uplink user equipment to a device-to-device, D2D, receiving end, wherein the first subcarrier is a subcarrier shared by a D2D transmitting end and the uplink user equipment, wherein the first DMRS pilot symbol is selected from a first DMRS pilot sequence which is used by the uplink user equipment, and the first DMRS pilot sequence is estimated by the D2D receiving end by comparing first K symbols of existing and known DMRS sequences with different lengths with the first K symbols of the first DMRS pilot sequence which is actually received by the D2D receiving end; calculating a null space matrix of the uplink interference channel according to the interference channel matrix; and processing , by using the null space matrix, a signal which comes from a D2D transmitting end and received by the D2D receiving end via the first subcarrier, to eliminate an interference signal, which comes from the uplink user equipment, in the signal. measuring , according to a first demodulation reference signal, DMRS, pilot symbol carried by a first subcarrier used by an uplink user equipment, an interference channel matrix of an uplink interference channel from the uplink user equipment to a device-to-device, D2D, receiving end, wherein the first subcarrier is a subcarrier shared by a D2D transmitting end and the uplink user equipment, wherein the first DMRS pilot symbol is selected from a first DMRS pilot sequence which is used by the uplink user equipment, and the first DMRS pilot sequence is estimated by the D2D receiving end by comparing first K symbols of existing and known DMRS sequences with different lengths with the first K symbols of the first DMRS pilot sequence which is actually received by the D2D receiving end; calculating a null space matrix of the uplink interference channel according to the interference channel matrix; and processing , by using the null space matrix, a signal which comes from a D2D transmitting end and received by the D2D receiving end via the first subcarrier, to eliminate an interference signal, which comes from the uplink user equipment, in the signal.
A device suitable for ensuring the discharge from a room of air to be extracted, which comprises a dual-flow ventilation box , characterized in that the box includes a blower fan designed to suction fresh air, an extraction fan designed to suction air to be extracted, a heat exchanger provided with an inlet for air to be extracted and an outlet for air to be extracted and an orientation valve suitable for pivoting between an orientation position allowing the passage of the suctioned air to be extracted toward the heat exchanger and a closed position of the passage toward the inlet for air to be extracted of the heat exchanger and the outlet for air to the outside, in that the extraction fan is arranged between the extraction opening of said box and the heat exchanger , such that the outlet to the outside is a direct outlet to the outside, separate from the heat exchanger , and is arranged between the extraction fan and the heat exchanger, the orientation valve is arranged between the extraction fan and the heat exchanger , and in that , in case of fire, the orientation valve is in its closed position of the passage toward the inlet for air to be extracted from the exchanger, to ensure the discharge of the hot fumes through the outlet directly to the outside, without them coming into contact with the heat exchanger .
An aircraft component comprising: a backing member ; a porous sheet spaced apart from the backing member to define a cavity (28; 28A, 28B) between the backing member and the porous sheet (24; 32); and a cellular structure (26; 26A, 26B) disposed between the backing member and the porous sheet , the cellular structure (26; 26A, 26B) being attached to the backing member and/or the porous sheet by one or more non-adhesive connections, characterised in that the aircraft component further comprises: a connection member secured to the backing member or to the porous sheet , wherein the connection member includes a slot , and a wall of the cellular structure (26;26A,26B) is frictionally retained in the slot of the connection member . a backing member ; a porous sheet spaced apart from the backing member to define a cavity (28; 28A, 28B) between the backing member and the porous sheet (24; 32); and a cellular structure (26; 26A, 26B) disposed between the backing member and the porous sheet , the cellular structure (26; 26A, 26B) being attached to the backing member and/or the porous sheet by one or more non-adhesive connections, characterised in that the aircraft component further comprises: a connection member secured to the backing member or to the porous sheet , wherein the connection member includes a slot , and a wall of the cellular structure (26;26A,26B) is frictionally retained in the slot of the connection member .
A security apparatus comprising: a core circuit configured to perform a security function using an authentication key; and a power management circuit configured to, when event information indicating that the security apparatus is in a security-vulnerable state is received, apply at least one electrical shock of overvoltage and overcurrent to the security apparatus to cause a physical damage to the security apparatus such that the core circuit does not perform the security function normally, characterized in that when the event information is received, the power management circuit is configured to apply the electrical shock to a power supply path to the core circuit such that the core circuit does not perform the security function normally. a core circuit configured to perform a security function using an authentication key; and a power management circuit configured to, when event information indicating that the security apparatus is in a security-vulnerable state is received, apply at least one electrical shock of overvoltage and overcurrent to the security apparatus to cause a physical damage to the security apparatus such that the core circuit does not perform the security function normally, characterized in that when the event information is received, the power management circuit is configured to apply the electrical shock to a power supply path to the core circuit such that the core circuit does not perform the security function normally.
Arc-quenching apparatus for an electromechanical protective switching device , - comprising a quenching chamber region in which a predefined number (n) of arc splitters can be arranged at a distance from one another and parallel to one another in a stacking direction (R), - comprising at least one arc splitter stack which is arranged in the quenching chamber region and has a predefined number (m) of arc splitters which are arranged parallel to one another and are held at a distance from one another in the stacking direction (R) by means of a holding device , - wherein the number (m) of arc splitters which form an arc splitter stack is smaller than the number (n) of arc splitters which can be arranged in the quenching chamber region , so that at least one further, individual arc splitter or one further arc splitter stack can be arranged above and/or below the at least one arc splitter stack , characterized in that the arc-quenching apparatus has at least two different arc splitter stacks with a different number of arc splitters , wherein the arc splitter stacks can be arranged alternately or jointly in the quenching chamber region . - comprising a quenching chamber region in which a predefined number (n) of arc splitters can be arranged at a distance from one another and parallel to one another in a stacking direction (R), - comprising at least one arc splitter stack which is arranged in the quenching chamber region and has a predefined number (m) of arc splitters which are arranged parallel to one another and are held at a distance from one another in the stacking direction (R) by means of a holding device , - wherein the number (m) of arc splitters which form an arc splitter stack is smaller than the number (n) of arc splitters which can be arranged in the quenching chamber region , so that at least one further, individual arc splitter or one further arc splitter stack can be arranged above and/or below the at least one arc splitter stack ,