mhurhangee/ep-ind-claims huggingface dataset:
An on-line status diagnosis device for electric power utilities, which comprises a degradation detection sensor configured to provide a degradation detection signal as an electrical analog signal by detecting a degradation status of the electric power utilities, a data acquisition unit configured to acquire and provide degradation detection data based on the degradation detection signal, and a communication unit configured to transmit the degradation detection data from the data acquisition unit to the outside of the on-line status diagnosis device, the data acquisition unit comprises: an analog-digital converter configured to acquire degradation detection data as digital data by converting the degradation detection signal from the degradation detection sensor into a digital signal; characterized in that the data acquisition unit further comprises a microcomputer configured to determine a degree of risk by comparing the degradation detection data with at least one predetermined risk determination reference value, if the degree of risk is high, output a control signal to the analog-digital converter to increase a sampling rate that is a number of sampling times of detection data per unit time in the analog-digital converter and also output the degradation detection data to quicken a report rate that is a time required to transmit data of a predetermined number, and if the degree of risk is low, output a control signal to the analog-digital converter to decrease the sampling rate of the analog-digital converter and also output the degradation detection data to decrease the report rate. an analog-digital converter configured to acquire degradation detection data as digital data by converting the degradation detection signal from the degradation detection sensor into a digital signal; characterized in that the data acquisition unit further comprises a microcomputer configured to determine a degree of risk by comparing the degradation detection data with at least one predetermined risk determination reference value, if the degree of risk is high, output a control signal to the analog-digital converter to increase a sampling rate that is a number of sampling times of detection data per unit time in the analog-digital converter and also output the degradation detection data to quicken a report rate that is a time required to transmit data of a predetermined number, and if the degree of risk is low, output a control signal to the analog-digital converter to decrease the sampling rate of the analog-digital converter and also output the degradation detection data to decrease the report rate.
A method of mapping a virtual environment, comprising the steps of: obtaining a first sequence of video images output by a videogame title; obtaining a corresponding sequence of in-game virtual camera positions at which the video images were created; obtaining a corresponding sequence of depth buffer values for a depth buffer used by the videogame whilst creating the video images; for each of a plurality of video images and corresponding depth buffer values of the obtained sequences, obtaining mapping points corresponding to a selected predetermined set of depth values corresponding to a predetermined set of positions within a respective video image; wherein for each pair of depth values and video image positions, a mapping point has a distance from the virtual camera position based upon the depth value, and a position based upon the relative positions of the virtual camera and the respective video image position, thereby obtaining a map dataset of mapping points corresponding to the first sequence of video images; and generating a graphical representation of some or all of the mapping points of the map dataset, for output by the videogame. obtaining a first sequence of video images output by a videogame title; obtaining a corresponding sequence of in-game virtual camera positions at which the video images were created; obtaining a corresponding sequence of depth buffer values for a depth buffer used by the videogame whilst creating the video images; for each of a plurality of video images and corresponding depth buffer values of the obtained sequences, obtaining mapping points corresponding to a selected predetermined set of depth values corresponding to a predetermined set of positions within a respective video image; wherein for each pair of depth values and video image positions, a mapping point has a distance from the virtual camera position based upon the depth value, and a position based upon the relative positions of the virtual camera and the respective video image position, thereby obtaining a map dataset of mapping points corresponding to the first sequence of video images; and generating a graphical representation of some or all of the mapping points of the map dataset, for output by the videogame. for each pair of depth values and video image positions, a mapping point has a distance from the virtual camera position based upon the depth value, and a position based upon the relative positions of the virtual camera and the respective video image position, thereby obtaining a map dataset of mapping points corresponding to the first sequence of video images; and generating a graphical representation of some or all of the mapping points of the map dataset, for output by the videogame.
A reinforcement structure comprising: (a) a base reinforcement structure, including: (i) a plurality of ribs; (ii) a first surface having a first portion; (iii) a second surface substantially free of the plurality of ribs and including a second portion; (b) an expandable adhesive material located on the first portion; and (c) a sealant material located along an edge of the second surface, wherein the first portion is in a plane that is substantially perpendicular to a plane of the second portion; and wherein the expandable adhesive material is free of direct contact with the sealant material in a green state. (a) a base reinforcement structure, including: (i) a plurality of ribs; (ii) a first surface having a first portion; (iii) a second surface substantially free of the plurality of ribs and including a second portion; (i) a plurality of ribs; (ii) a first surface having a first portion; (iii) a second surface substantially free of the plurality of ribs and including a second portion; (b) an expandable adhesive material located on the first portion; and (c) a sealant material located along an edge of the second surface,
A heat pump device comprising: a compressor having a compression mechanism for compressing a refrigerant; a motor that is configured to actuate the compression mechanism of the compressor; a three-phase inverter that is configured to parallel-connect three serial connection parts each being constructed of two switching elements (16a, 16d; 16b, 16e; 16c, 16f) on a positive voltage side and a negative voltage side; and an inverter control unit that is configured to generate six drive signals corresponding to the respective switching elements of the three-phase inverter, and is further configured to output the generated drive signals to the corresponding switching elements of the three-phase inverter to cause the three-phase inverter to generate a high-frequency AC voltage, characterized in that when the drive signals are generated, the inverter control unit is configured to switch on/off states of switching elements constituting one of the serial connection parts from a state of a zero vector in which all of the switching elements on any one of the positive voltage side and the negative voltage side of the three serial connection parts are turned on and all of switching elements on the other of the positive voltage side and the negative voltage side are turned off, to shift to a state of a real vector other than the zero vector, and, from the real vector, is configured to simultaneously switch on/off states of switching elements constituting two of the serial connection parts, to shift to a state of the zero vector. a compressor having a compression mechanism for compressing a refrigerant; a motor that is configured to actuate the compression mechanism of the compressor; a three-phase inverter that is configured to parallel-connect three serial connection parts each being constructed of two switching elements (16a, 16d; 16b, 16e; 16c, 16f) on a positive voltage side and a negative voltage side; and an inverter control unit that is configured to generate six drive signals corresponding to the respective switching elements of the three-phase inverter, and is further configured to output the generated drive signals to the corresponding switching elements of the three-phase inverter to cause the three-phase inverter to generate a high-frequency AC voltage, characterized in that when the drive signals are generated, the inverter control unit is configured to switch on/off states of switching elements constituting one of the serial connection parts from a state of a zero vector in which all of the switching elements on any one of the positive voltage side and the negative voltage side of the three serial connection parts are turned on and all of switching elements on the other of the positive voltage side and the negative voltage side are turned off, to shift to a state of a real vector other than the zero vector, and, from the real vector, is configured to simultaneously switch on/off states of switching elements constituting two of the serial connection parts, to shift to a state of the zero vector.
A mounting frame for an electronics and instrumentation enclosure for supporting components and parts to be mounted into the electronics and instrumentation enclosure, the mounting frame comprising two elongated parallel supports (14, 15) that form two sides of the mounting frame and are interconnected by an elongated piece, and four elongated corner parts (1 to 4) fastened to the ends (5 to 8) of the elongated supports (14, 15) by fastening means (17 to 20) so that each end is provided with one corner part and the corner parts are perpendicular to a plane defined by the elongated supports (14, 15), the corner parts (1 to 4) being positioned in relation to one another so that they are at the corners of a rectangle, which rectangle has been obtained by joining the corner parts with four straight lines, wherein the fastening means (17 to 20) comprise a locking tongue formed to the ends (5 to 8) of the elongated supports (14, 15), each opposite end of both elongated supports (14, 15) having a locking tongue formed as one piece with the elongated support (14, 15), and a through-hole for mounting arranged to the corner part (1 to 4) for receiving the locking tongue, the corner parts (1 to 4) comprising a plural number of such mounting holes at a distance from one another in a longitudinal direction of the corner parts; wherein locking tongue is inside the mounting hole without clearance when the longitudinal direction of the corner part (1 to 4) is perpendicular to the plane defined by the supports (14, 15); and wherein the locking tongue comprises a support surface directed towards the corner parts (1 to 4), characterized in that the locking tongue extends away upward or downward from the plane defined by the elongated supports (14, 15) being at an angle (α) of 70 to 100 degrees to the plane defined by the elongated supports (14, 15), and has a length that is greater than the height of the mounting hole, said length being the height of the locking tongue when the locking tongue extends upward or the length of the locking tongue when the locking tongue extends downward.
A computer-readable medium, characterised in comprising instructions that, when executed, cause a device configured for a wireless communication system to implement the method as follows: generating a superset Z of quasi-orthogonal sets of sequences, and using the superset Z of quasi-orthogonal sets of sequences in the cellular wireless communication system, wherein: Z = S ∪ h = 0 L − 1 T h, S is a first set comprising a plurality of quasi-orthogonal sets of sequences, and T h is a second set of quasi-orthogonal sets of sequences, Z is a superset as the union of said first set S and L number of second sets T h, and T h is generated by symbol-by-symbol multiplication of each sequence in said first set S with signature sequences { w h ( k)}, wherein h = 0,···, L -1, L is a positive integer larger than or equal to one, and each second set T h has the same number of quasi-orthogonal sets of sequences and the same length of sequences as said first set; wherein said first set S is a quasi-orthogonal set of quadratic polynomial phase sequences s m, l 2 k such that: s m, l 2 k = e − j 2 π N P m 2 k e − j 2 π N lk, where P m 2 k = mk 2, m, l, k = 0, 1,···, N -1, and N is a positive integer; and quasi-orthogonal sequences s n, m, l Q k in each second set T h, n = 0, 1,···, N Q -2 -1, are given by: s n, m, l Q k = w n k s m, l 2 k, where l, k = 0, 1,···, N -1, w n k = e − j 2 π N P n Q k, P n Q k = ∑ q = 0 Q − 3 n q k q + 3 and n = ∑ q = 0 Q − 3 n q N q = 0, 1,···, N Q -2 -1. generating a superset Z of quasi-orthogonal sets of sequences, and using the superset Z of quasi-orthogonal sets of sequences in the cellular wireless communication system, wherein: Z = S ∪ h = 0 L − 1 T h, S is a first set comprising a plurality of quasi-orthogonal sets of sequences, and T h is a second set of quasi-orthogonal sets of sequences, Z is a superset as the union of said first set S and L number of second sets T h, and T h is generated by symbol-by-symbol multiplication of each sequence in said first set S with signature sequences { w h ( k)}, wherein h = 0,···, L -1, L is a positive integer larger than or equal to one, and each second set T h has the same number of quasi-orthogonal sets of sequences and the same length of sequences as said first set; wherein said first set S is a quasi-orthogonal set of quadratic polynomial phase sequences s m, l 2 k such that: s m, l 2 k = e − j 2 π N P m 2 k e − j 2 π N lk, where P m 2 k = mk 2, m, l, k = 0, 1,···, N -1, and N is a positive integer; and quasi-orthogonal sequences s n, m, l Q k in each second set T h, n = 0, 1,···, N Q -2 -1, are given by: s n, m, l Q k = w n k s m, l 2 k, where l, k = 0, 1,···, N -1, w n k = e − j 2 π N P n Q k, P n Q k = ∑ q = 0 Q − 3 n q k q + 3 and n = ∑ q = 0 Q − 3 n q N q = 0, 1,···, N Q -2 -1.
Milling body comprising a prosthesis base blank (1, 21) for producing a prosthesis base for a dental prosthesis with a subtractive CAM method, wherein the prosthesis base blank (1, 21) is preformed and consists of a plastic material, characterised in that the prosthesis base blank (1, 21) is embedded in a wax bed so that the wax bed mechanically holds the prosthesis base blank (1, 21) and the milling body comprises a circumferential mould made of plastic material which delimits the milling body along a circumference, the wax bed being arranged between the prosthesis base blank (1, 21) and the circumferential mould.
Computer-implemented method for determining a control trajectory sample for controlling a robotic device, comprising the steps of: - performing (S1-S8) an information theoretic model predictive control applying a control trajectory sample prior (u*) in time steps to obtain a control trajectory sample for a given time horizon ( t f); - determining the control trajectory sample prior (u*) depending on a data-driven trajectory prediction model which is trained to output a control trajectory sample as the control trajectory sample prior (u*) based on an actual state of the robotic device, wherein the control trajectory sample prior (u*) is obtained by a modelled control trajectory sample obtained by the trajectory prediction model and the control trajectory sample obtained in the last time step, wherein the control trajectory sample prior (u*) is obtained by the sum of the modelled control trajectory sample obtained by the trajectory prediction model and the control trajectory sample obtained in the last time step, each weighted according to their trajectory costs according to a given cost function, characterized in that the modelled control trajectory sample is only considered if the trajectory costs of the modelled control trajectory sample are higher than the trajectory costs of the control trajectory sample obtained in the last time step. - performing (S1-S8) an information theoretic model predictive control applying a control trajectory sample prior (u*) in time steps to obtain a control trajectory sample for a given time horizon ( t f); - determining the control trajectory sample prior (u*) depending on a data-driven trajectory prediction model which is trained to output a control trajectory sample as the control trajectory sample prior (u*) based on an actual state of the robotic device, wherein the control trajectory sample prior (u*) is obtained by a modelled control trajectory sample obtained by the trajectory prediction model and the control trajectory sample obtained in the last time step, wherein the control trajectory sample prior (u*) is obtained by the sum of the modelled control trajectory sample obtained by the trajectory prediction model and the control trajectory sample obtained in the last time step, each weighted according to their trajectory costs according to a given cost function,
A mobile terminal, comprising: a wireless communication processor configured to provide wireless communication; a microphone; a front camera; a low-power image sensor located between the microphone and the front camera and configured to detect a subject based on a black and white image sensed by the low-power image sensor, wherein a field of view range of the low-power image sensor is wider than that of the front camera; and a controller configured to: control the microphone to be in an inactivate state, and in response to detecting a face image included in the black and white image sensed by the low-power image sensor, switch the microphone from the inactive state to an active state and execute a voice recognition function to receive voice information from the subject. a wireless communication processor configured to provide wireless communication; a microphone; a front camera; a low-power image sensor located between the microphone and the front camera and configured to detect a subject based on a black and white image sensed by the low-power image sensor, wherein a field of view range of the low-power image sensor is wider than that of the front camera; and a controller configured to: control the microphone to be in an inactivate state, and in response to detecting a face image included in the black and white image sensed by the low-power image sensor, switch the microphone from the inactive state to an active state and execute a voice recognition function to receive voice information from the subject. control the microphone to be in an inactivate state, and in response to detecting a face image included in the black and white image sensed by the low-power image sensor, switch the microphone from the inactive state to an active state and execute a voice recognition function to receive voice information from the subject.
A circulator with at least three ports (p 1, p 2, p 3), an input port (p 1) for receiving a radiofrequency signal to be transmitted to a port (p 2), called antenna port, intended to be connected to a transmit-receive antenna, an output port (p 3) capable of being connected to a receiver device or a load, characterised in that it comprises: - a first and a second microswitch (MEMS1, MEMS2) with electrostatic actuation of the capacitor type formed on the same substrate and each comprising two armatures, the first of which is a flexible membrane and the second of which comprises at least one zone of a signal line, the two armatures being separated by a void or a gas thickness, the activation of a microswitch (MEMS1, MEMS2) allowing a microwave frequency signal to be transmitted between its signal line zone and its membrane by lowering said membrane towards said zone; - a main line, of the coplanar type, comprising two branches and connecting said antenna port (p 2) to said output port (p 3); - a secondary line, of the coplanar type, comprising two branches and connecting said input port (p 1) to a ground element; said secondary line crossing said main line by means of the first microswitch (MEMS1) so that the signal line zone of said microswitch (MEMS1) connects the two branches of said main line and so that the membrane of said microswitch (MEMS1) connects the two branches of said secondary signal; said main line being connected to ground planes (PM1, PM2) by means of the second microswitch (MEMS2) so that the signal line zone of said microswitch (MEMS2) is connected to said main line and so that the membrane of said microswitch (MEMS2) is connected to said ground planes (PM1, PM2), said microswitch (MEMS2) being located in the direction of said output port (p 3), at a distance from the first microswitch (MEMS1) that is equal to a quarter of the wavelength ( λ /4) of the microwave frequency signal circulating in said circulator; said ground element being located at a distance from the first microswitch (MEMS1) that is equal to a quarter of said wavelength; said microswitches (MEMS1, MEMS2) being activated when the power of the signal on said input port (p 1) generates a voltage (Veq) between their membrane and their signal line that is greater than a given voltage (Vp). - a first and a second microswitch (MEMS1, MEMS2) with electrostatic actuation of the capacitor type formed on the same substrate and each comprising two armatures, the first of which is a flexible membrane and the second of which comprises at least one zone of a signal line, the two armatures being separated by a void or a gas thickness, the activation of a microswitch (MEMS1, MEMS2) allowing a microwave frequency signal to be transmitted between its signal line zone and its membrane by lowering said membrane towards said zone; - a main line, of the coplanar type, comprising two branches and connecting said antenna port (p 2) to said output port (p 3); - a secondary line, of the coplanar type, comprising two branches and connecting said input port (p 1) to a ground element;