mhurhangee/ep-ind-claims huggingface dataset:
A battery cover (1, 101) comprising: a main body to be assembled to a battery; an opening/closing part provided on the main body via a hinge, the opening/closing part being openable and closable; a flexible rib provided on the opening/closing part to be deflectable, the flexible rib having a locking projection; an abutting rib provided on the main body, the abutting rib having a locking recess to be engaged with the locking projection in a state where the opening/closing part is opened with respect to the main body; a contact portion that abuts on the locking projection and deflects the flexible rib at a time when the opening/closing part is opened with respect to the main body, the contact portion being provided on the abutting rib; and a flat portion that abuts on the locking projection first at the time when the opening/closing part is opened with respect to the main body, and extends in a direction orthogonal to a direction of force input at a time of abutting on the locking projection, the flat portion being provided on the contact portion. a main body to be assembled to a battery; an opening/closing part provided on the main body via a hinge, the opening/closing part being openable and closable; a flexible rib provided on the opening/closing part to be deflectable, the flexible rib having a locking projection; an abutting rib provided on the main body, the abutting rib having a locking recess to be engaged with the locking projection in a state where the opening/closing part is opened with respect to the main body; a contact portion that abuts on the locking projection and deflects the flexible rib at a time when the opening/closing part is opened with respect to the main body, the contact portion being provided on the abutting rib; and a flat portion that abuts on the locking projection first at the time when the opening/closing part is opened with respect to the main body, and extends in a direction orthogonal to a direction of force input at a time of abutting on the locking projection, the flat portion being provided on the contact portion.
A system for providing a range speed response pattern to a learning system as an image, the system comprising; a radar sensor; and an electronic controller configured to, receive, from the radar sensor, a radar signal, obtain a beat signal of the radar signal, apply a fast Fourier transform to the beat signal to generate a transform, apply a power spectral density periodogram to the beat signal to generate an estimate, filter the transform with the estimate to generate a filtered transform, store the filtered transform in a column of a matrix, apply the power spectral density periodogram to each row of the matrix, generate the range speed response pattern from the matrix, generate a signal to control the motion of a vehicle based on the range speed response pattern, and control at least one selected from a group of a steering apparatus, an engine, and a braking system of the vehicle. a radar sensor; and an electronic controller configured to, receive, from the radar sensor, a radar signal, obtain a beat signal of the radar signal, apply a fast Fourier transform to the beat signal to generate a transform, apply a power spectral density periodogram to the beat signal to generate an estimate, filter the transform with the estimate to generate a filtered transform, store the filtered transform in a column of a matrix, apply the power spectral density periodogram to each row of the matrix, generate the range speed response pattern from the matrix, generate a signal to control the motion of a vehicle based on the range speed response pattern, and control at least one selected from a group of a steering apparatus, an engine, and a braking system of the vehicle.
A command handling method, comprising: receiving multiple voice instructions sent by a voice parsing server, wherein the multiple voice instructions are generated after the voice parsing server parses source voice commands that are from different voice control devices; separately determining whether any two voice instructions in the multiple voice instructions are similar instructions, wherein the similar instructions are voice instructions corresponding to source voice commands that are obtained by the different voice control devices by collecting same voice information; and discarding, when two voice instructions that are similar instructions exist in the multiple voice instructions, one voice instruction in the two similar voice instructions. receiving multiple voice instructions sent by a voice parsing server, wherein the multiple voice instructions are generated after the voice parsing server parses source voice commands that are from different voice control devices; separately determining whether any two voice instructions in the multiple voice instructions are similar instructions, wherein the similar instructions are voice instructions corresponding to source voice commands that are obtained by the different voice control devices by collecting same voice information; and discarding, when two voice instructions that are similar instructions exist in the multiple voice instructions, one voice instruction in the two similar voice instructions.
A control device for a vehicle having a motor mounted, inverter supplying electric power to said motor being mounted on said vehicle, the control device comprising: a detecting unit detecting an atmospheric pressure; and a control unit controlling said motor, said control unit setting a maximum value of a voltage that is to be supplied to said motor and said inverter so as to be reduced in accordance with a reduction in said detected atmospheric pressure by setting a resistance value of a gate resistance provided between a switching element and a driving circuitry of said inverter so as to be increased with said reduction in said detected atmospheric pressure, and controlling said motor based on said set maximum value. a detecting unit detecting an atmospheric pressure; and a control unit controlling said motor, said control unit setting a maximum value of a voltage that is to be supplied to said motor and said inverter so as to be reduced in accordance with a reduction in said detected atmospheric pressure by setting a resistance value of a gate resistance provided between a switching element and a driving circuitry of said inverter so as to be increased with said reduction in said detected atmospheric pressure, and controlling said motor based on said set maximum value. setting a maximum value of a voltage that is to be supplied to said motor and said inverter so as to be reduced in accordance with a reduction in said detected atmospheric pressure by setting a resistance value of a gate resistance provided between a switching element and a driving circuitry of said inverter so as to be increased with said reduction in said detected atmospheric pressure, and controlling said motor based on said set maximum value.
Connector part (10, 10a, 10b) for a connector unit, wherein the connector unit comprises a male part and a female part, the connector part comprising at least one volume compensating arrangement (18, 18a, 18b) with at least a first flexible layer (20, 20a; 20b; 22, 24, 24') and at least a first chamber (26, 26a, 26b), wherein the at least first flexible layer (20, 20a; 20b; 22, 24, 24') at least partially encases the at least first chamber (26, 26a, 26b), wherein the at least first flexible layer (20, 20a; 20b; 22, 24, 24') comprises at least one thermoplastic material, characterised in that a surface of the at least first flexible layer (20, 20a; 20b; 22, 24, 24') that faces the at least first chamber comprises at least one coating.
A method of inserting pilot symbols into Orthogonal Frequency Division Multiplexing, OFDM, frames at an OFDM base station having at least one transmitting antenna (37, 42, 140, 142), the OFDM base station having an adjacent OFDM base station having at least one transmitting antenna, the OFDM frames having a time domain and a frequency domain, each OFDM frame comprising a plurality of OFDM symbols in the time domain and a plurality of sub-carriers in the frequency domain, the method comprising the steps of: for each transmitting antenna of the OFDM base station, inserting scattered pilot symbols (126, 128) in a scattered pattern spread over the OFDM frame, wherein pilot symbols in the pattern are spaced in the time domain and the frequency domain, wherein the scattered pattern is cyclically offset in frequency and time from an identical scattered pattern of the adjacent OFDM base station. for each transmitting antenna of the OFDM base station, inserting scattered pilot symbols (126, 128) in a scattered pattern spread over the OFDM frame, wherein pilot symbols in the pattern are spaced in the time domain and the frequency domain, wherein the scattered pattern is cyclically offset in frequency and time from an identical scattered pattern of the adjacent OFDM base station.
System for applying a construction material, the system comprising a moving device, a first component, a second component, and a mixer for mixing the first component and the second component, wherein the mixer has a drum with at least one inlet and an outlet, a drive, a stirring shaft for mixing a mix, said stirring shaft being arranged in the drum and coupled to the drive, and a conveying device which is arranged in the drum and which is arranged on one and the same axis as the stirring shaft, wherein the mixer is arranged on the moving device and can be moved thereby, wherein the first component and the second component can be fed to the mixer to produce the construction material, and wherein the construction material produced from the components (32, 33) can be applied via the outlet of the mixer, wherein the first component is a pumpable concrete, and wherein the second component is a pumpable substance which contains a concrete admixture, wherein the concrete admixture is a solidification accelerator and/or a hardening accelerator, characterized in that the moving device is designed to be movable in the manner of a 3D printer such that structures can be constructed from the construction material using the system. a moving device, a first component, a second component, and a mixer for mixing the first component and the second component, wherein the mixer has a drum with at least one inlet and an outlet, a drive, a stirring shaft for mixing a mix, said stirring shaft being arranged in the drum and coupled to the drive, and a conveying device which is arranged in the drum and which is arranged on one and the same axis as the stirring shaft, wherein the mixer is arranged on the moving device and can be moved thereby, a drum with at least one inlet and an outlet, a drive, a stirring shaft for mixing a mix, said stirring shaft being arranged in the drum and coupled to the drive, and a conveying device which is arranged in the drum and which is arranged on one and the same axis as the stirring shaft, wherein the mixer is arranged on the moving device and can be moved thereby, wherein the first component and the second component can be fed to the mixer to produce the construction material, and wherein the construction material produced from the components (32, 33) can be applied via the outlet of the mixer, wherein the first component is a pumpable concrete, and
A communication device comprising an upper housing and a lower housing connected to each other, a master Printed Circuit Board for realizing a communication function, a speaker and a keypad assembly, the master PCB being arranged on the lower housing, wherein the upper housing comprises a front housing and a front cover, the keypad assembly is arranged between the front housing and the front cover; the speaker is arranged under the front housing, the keypad assembly is connected to the master PCB by a flexible circuit board passing through the front housing; a voice spreading hole connecting to a front cavity of the speaker is correspondingly arranged on the front cover, the keypad assembly and the front housing; the joints among the front housing, the keypad assembly, the front cover and the speaker are sealed; characterized in that the keypad assembly comprises a keypad and a keypad PCB, a waterproof layer (401, 402) is provided between the keypad and the keypad PCB, and adhesive is provided between the keypad, the keypad PCB and the waterproof layer (401, 402) to seal; and the waterproof layer (401, 402) includes an adhesive film and a mesh fabric, the adhesive film is adhered to the keypad PCB and the mesh fabric is provided between the adhesive film and the keypad.
- System for mechanizing the manual control of at least one control member the operation of which controls the operation of a mechanical equipment of a rail vehicle, the or each control member being movably mounted on the rail vehicle and comprising a grasping part by which the control member is operated, the mechanization system comprising a device for actuating the control member(s), which comprises on the one hand means for detachable connection to the rail vehicle, the mechanization system being characterized by the fact that the actuating device comprises on the other hand means for detachable connection to the grasping part of the control member(s), the actuating device being able to move the means for detachable connection to the grasping part of the or each control member with respect to the means for detachable connection to the rail vehicle, so as to operate, in use, the or each control member by moving the grasping part thereof.
A composition comprising - an ester of a fatty acid and dextrin - a mixture of branched and linear saturated C15-C19 alkanes - a UV-filter of the formula wherein the amount of branched saturated C15-C19 alkane in said mixture of branched and linear saturated C15-C19 alkanes is more than 80 % by weight, preferably more that 90 % by weight, most preferred more than 92 % by weight. - an ester of a fatty acid and dextrin - a mixture of branched and linear saturated C15-C19 alkanes - a UV-filter of the formula
A rotor blade of a wind turbine, the rotor blade comprising: a blade root and a blade tip; a leading edge and a trailing edge; a suction side and a pressure side; and at least one spar cap configured on an internal surface of either or both of the pressure or suction sides (34, 36), characterized in that the spar cap is constructed from a plurality of layers of a first composite material and a plurality of layers of a second conductive material contacting the layers of first composite material, the conductive material being a different material than the first composite material, wherein the conductive material is configured with the first composite material so as to create an equipotential spar cap, and wherein the spar cap further comprises alternating layers of the first composite material and the conductive material. a blade root and a blade tip; a leading edge and a trailing edge; a suction side and a pressure side; and at least one spar cap configured on an internal surface of either or both of the pressure or suction sides (34, 36), characterized in that the spar cap is constructed from a plurality of layers of a first composite material and a plurality of layers of a second conductive material contacting the layers of first composite material, the conductive material being a different material than the first composite material, wherein the conductive material is configured with the first composite material so as to create an equipotential spar cap, and wherein the spar cap further comprises alternating layers of the first composite material and the conductive material.
A method of identifying tumor epitopes in a cancer patient, comprising sequencing at least a portion of the cancer patient's RNA or DNA in both a healthy tissue and a cancer tissue, to produce a healthy tissue RNA or DNA sequence and a cancer tissue RNA or DNA sequence, comparing the healthy tissue RNA or DNA sequence and the cancer tissue RNA or DNA sequence and identifying differences between the healthy tissue RNA or DNA sequence and the cancer tissue RNA or DNA sequence to produce a difference DNA marker set, analyzing the difference DNA marker set to produce a tumor-specific epitope set, wherein the tumor-specific epitope set comprises one or more tumor-specific epitopes, providing a numerical value called the Differential Agretopic Index for each epitope in the tumor-specific epitope set, wherein the Differential Agretopic Index is calculated by subtracting a numerical score for a normal epitope from a numerical score for the tumor-specific epitope, wherein the numerical scores are produced using a predictive algorithm that determines the binding of epitope peptides to MHC molecules, and ranking the tumor specific-epitope set by the Differential Agretopic Index for each epitope in the set.
An apparatus for controlling the stimulation of neural tissue comprising: a neural stimulator (1602, 1604); a plurality of electrodes (10, 1601) driven by the neural stimulator and suitable to stimulate neural tissue; a meter device connected to the plurality of electrodes and capable of measuring the individual impedance of each of the plurality of electrodes; a calculating device for calculating an average impedance of the individual impedances; a calculating device for calculating a difference between the average impedance and the individual impedance for each of the plurality of electrodes; data storage for storing multiple impedances measurements over time for each electrode; a circuit for determining bad electrodes based on the difference between the average and the individual impedance for each of the plurality of electrodes; a neural stimulator controller for initiating and controlling the meter device, the calculating devices, the data storage and the circuits automatically; and a circuit for disabling the bad electrodes. a neural stimulator (1602, 1604); a plurality of electrodes (10, 1601) driven by the neural stimulator and suitable to stimulate neural tissue; a meter device connected to the plurality of electrodes and capable of measuring the individual impedance of each of the plurality of electrodes; a calculating device for calculating an average impedance of the individual impedances; a calculating device for calculating a difference between the average impedance and the individual impedance for each of the plurality of electrodes; data storage for storing multiple impedances measurements over time for each electrode; a circuit for determining bad electrodes based on the difference between the average and the individual impedance for each of the plurality of electrodes; a neural stimulator controller for initiating and controlling the meter device, the calculating devices, the data storage and the circuits automatically; and a circuit for disabling the bad electrodes.
Waveguide assembly, including: an elongated waveguide element; and a connector body, the connector body being connected to an end of the elongated waveguide element; the connector body having a substantially planar bottom surface and an opposing top surface and being made from a single piece of partially metallized dielectric, wherein the connector body is fully metallized with exception of the bottom surface; the connector body having a waveguide coupling element adjacent to the elongated waveguide element, the waveguide coupling element being a solid part of the connector body; and further an arrangement of electromagnetic band gap elements adjacent to the waveguide coupling element, wherein the electromagnetic band gap elements are recesses, the recesses extending in the connector body from the top surface towards the bottom surface. an elongated waveguide element; and a connector body, the connector body being connected to an end of the elongated waveguide element; the connector body having a substantially planar bottom surface and an opposing top surface and being made from a single piece of partially metallized dielectric, wherein the connector body is fully metallized with exception of the bottom surface; the connector body having a waveguide coupling element adjacent to the elongated waveguide element, the waveguide coupling element being a solid part of the connector body; and further an arrangement of electromagnetic band gap elements adjacent to the waveguide coupling element, wherein the electromagnetic band gap elements are recesses, the recesses extending in the connector body from the top surface towards the bottom surface.
Anchor with a measuring device that is fixedly attached to the anchor for measuring the displacement (U1-U3) of the soil with respect to the anchor, wherein the measuring device is provided with a light source and an optical sensor, wherein the light source when operational emits a light beam illuminating a part of the soil opposite the measuring device, wherein the soil reflects at least a part of the light of the light beam in the direction of the measuring device, wherein the optical sensor comprises a light-sensitive sensor surface divided into segments, which surface per segment converts the light incident at the location of the segments into an electric signal which according to a predetermined ratio corresponds with the intensity of the incident light, wherein the measuring device is operationally connected to a calculation and data processing unit that converts the signals into a reproduction divided into segments, wherein the calculation and data processing unit is provided with a storage medium for storing reproductions at least at two consecutive moments in time and an electric circuit for recognising patterns in each of the stored reproductions, comparing the recognised patterns of two consecutive reproductions and on the basis of the comparison determining the displacement (X1,Y1) of the pattern between the two consecutive moments in time.
Method for the autonomous operation of a vehicle on a route ahead, wherein the autonomous operation of the vehicle is authorised only if, for a predetermined route length of the route ahead, a predetermined condition or a group of predetermined conditions is fulfilled, characterised in that the predetermined condition or the group of predetermined conditions comprises at least one of the following conditions: - there is a structural separation on at least one side of a current carriageway of the vehicle, - there are no crests or dips substantially restricting the range of environment detection devices, - there is no tunnel. - there is a structural separation on at least one side of a current carriageway of the vehicle, - there are no crests or dips substantially restricting the range of environment detection devices, - there is no tunnel.