mhurhangee/ep-ind-claims huggingface dataset:
A method for automatic camera capture configuration during operation of an autonomous machine comprising: capturing image data of a scene using one or more cameras configured with at least one initial camera capture parameter that comprises one or more of exposure time, gain, and active lighting intensity; the method being characterised by the following steps: comparing pixel intensities of the image to a pixel intensity threshold to determine if the image data is well-exposed; generating irradiance image data based on applying the image data of the scene to a calibrated irradiance map to estimate scene brightness; generating simulated image data based on the estimate of image data that would be captured in view of the estimated scene brightness if a different test camera capture parameter was used to capture the image data instead of the at least one initial camera capture parameter; determining a simulated pixel intensity based on the simulated image data; and generating at least one updated camera capture parameter based on the different test camera capture parameter in response to determining that the simulated pixel intensity is well-exposed. comparing pixel intensities of the image to a pixel intensity threshold to determine if the image data is well-exposed; generating irradiance image data based on applying the image data of the scene to a calibrated irradiance map to estimate scene brightness; generating simulated image data based on the estimate of image data that would be captured in view of the estimated scene brightness if a different test camera capture parameter was used to capture the image data instead of the at least one initial camera capture parameter; determining a simulated pixel intensity based on the simulated image data; and generating at least one updated camera capture parameter based on the different test camera capture parameter in response to determining that the simulated pixel intensity is well-exposed.
An acoustic antenna element for receiving and/or transmitting low-frequency underwater waves, comprising an acoustic panel formed by at least one acoustic sensor housed in a flexible casing, said acoustic panel being generally rectangular and being mounted against a curved support by means of a mounting device comprising a clamping device that comprises at least two clamps (7, 107), the ends of which are mounted on said support, characterised in that the respective clamps (7, 107) comprise at least one link (7, 110) between their two ends, and in that the clamping device comprises means for adjusting the tension of said links (7, 110) between their two respective ends, the clamps (7, 107) being arranged so that the support is curved between the two respective ends of said links and so that the panel is clamped against the support by means of said links (7, 110) when tensioned.
A power conversion system, for a modular electromagnetic device provided with a plurality of modules having reversible operation, operable either as generator or as electric motor, wherein the power conversion system comprises a modular structure comprising: a plurality of converters, each designed to be connected to an assignable number of said modules; and control means (20; 21), designed to configure said power conversion system, statically and/or dynamically during its operation, by defining the assignment between said converters and a respective number of said modules, and/or the operation as generator, or as electric motor, of said modules, wherein said control means (20; 21) include a respective local control unit for each converter of the plurality of converters, characterized in that the local control unit is configured to allow selective activation or deactivation of the operation of one or more of associated modules and/or the respective converter, even in real time, based on the determination of at least one operating parameter of said modules, and to control operation as generator or electric motor of said associated modules, independently and autonomously from the other converters and respective modules, thereby at least one first converter is configurable by said control means (20; 21) to be assigned to a respective number of first modules, operating as electric generators; and at least one second converter is simultaneously configurable by said control means (20; 21) to be assigned to a respective number of second modules, different from said first modules, operating as electric motors. a plurality of converters, each designed to be connected to an assignable number of said modules; and control means (20; 21), designed to configure said power conversion system, statically and/or dynamically during its operation, by defining the assignment between said converters and a respective number of said modules, and/or the operation as generator, or as electric motor, of said modules, wherein said control means (20; 21) include a respective local control unit for each converter of the plurality of converters, characterized in that the local control unit is configured to allow selective activation or deactivation of the operation of one or more of associated modules and/or the respective converter, even in real time, based on the determination of at least one operating parameter of said modules, and to control operation as generator or electric motor of said associated modules, independently and autonomously from the other converters and respective modules, thereby at least one first converter is configurable by said control means (20; 21) to be assigned to a respective number of first modules, operating as electric generators; and at least one second converter is simultaneously configurable by said control means (20; 21) to be assigned to a respective number of second modules, different from said first modules, operating as electric motors.
A translatable active side air curtain assembly for a motor vehicle, comprising a wind guide element, a rotating shaft, a blade, and a driving mechanism, wherein the blade is provided with a rack mechanism (32, 33) and the rotating shaft is provided with a gear mechanism (21, 22) engaged with the rack mechanism (32, 33), the blade being mounted on the wind guide element through the rotating shaft, wherein the driving mechanism is connected to the rotating shaft and can drive the rotating shaft to rotate so as to drive the blade to translate between an open position and a closed position, and characterized in that in that the wind guide element is provided with a top part and a base part that are opposite to each other, and the rotating shaft is pivotably mounted between the top part and the base part. the blade is provided with a rack mechanism (32, 33) and the rotating shaft is provided with a gear mechanism (21, 22) engaged with the rack mechanism (32, 33), the blade being mounted on the wind guide element through the rotating shaft, wherein the driving mechanism is connected to the rotating shaft and can drive the rotating shaft to rotate so as to drive the blade to translate between an open position and a closed position, and characterized in that in that the wind guide element is provided with a top part and a base part that are opposite to each other, and the rotating shaft is pivotably mounted between the top part and the base part.
Impregnated fibrous pad for caring for the skin comprising a fibrous substrate, comprising cotton fibres, impregnated with a lotion to be applied to the skin, the substrate being a nonwoven entangled by jets of water, characterized in that the said nonwoven substrate exhibits a basis weight of between 100 and 180 g/m 2, preferably between 150 and 180 g/m 2, exhibiting the ability to restore, under pressure, at least 250 g of lotion per m 2 of substrate, the dry substrate having a debonding force of at least 2.5 N and a thickness of at least 1.8 mm.
A method of receiving a broadcast signal from a transmitter, the method comprising: receiving the broadcast signal including a signal frame, wherein the signal frame includes preamble, and wherein the preamble includes control information indicating whether at the transmitter a frequency interleaving is enabled or not; Orthogonal Frequency Division Multiplexing, OFDM, demodulating the received broadcast signal to provide demodulated data; selectively performing frequency deinterleaving on the demodulated data in the signal frame based on the control information, wherein the frequency interleaving is performed using a frequency deinterleaver; de-mapping Physical Layer Pipe, PLP, data in the signal frame; decoding the de-mapped PLP data; and outputting a data stream comprising the decoded PLP data, wherein when the control information has a first value, the frequency deinterleaver is enabled and when the control information has a second value, the frequency deinterleaver is disabled and no frequency deinterleaving is performed. receiving the broadcast signal including a signal frame, wherein the signal frame includes preamble, and wherein the preamble includes control information indicating whether at the transmitter a frequency interleaving is enabled or not; Orthogonal Frequency Division Multiplexing, OFDM, demodulating the received broadcast signal to provide demodulated data; selectively performing frequency deinterleaving on the demodulated data in the signal frame based on the control information, wherein the frequency interleaving is performed using a frequency deinterleaver; de-mapping Physical Layer Pipe, PLP, data in the signal frame; decoding the de-mapped PLP data; and outputting a data stream comprising the decoded PLP data, wherein when the control information has a first value, the frequency deinterleaver is enabled and when the control information has a second value, the frequency deinterleaver is disabled and no frequency deinterleaving is performed. Orthogonal Frequency Division Multiplexing, OFDM, demodulating the received broadcast signal to provide demodulated data; selectively performing frequency deinterleaving on the demodulated data in the signal frame based on the control information, wherein the frequency interleaving is performed using a frequency deinterleaver; de-mapping Physical Layer Pipe, PLP, data in the signal frame; decoding the de-mapped PLP data; and outputting a data stream comprising the decoded PLP data, wherein when the control information has a first value, the frequency deinterleaver is enabled and when the control information has a second value, the frequency deinterleaver is disabled and no frequency deinterleaving is performed.
Medical imaging device, comprising a user interface device for displaying information relevant to an imaging process to a user and receiving user input relevant to an imaging process and at least one component controllable according to a user command entered using the user interface device, wherein the user interface device comprises at least one pair of mixed reality smartglasses, wherein the smartglasses have a control unit configured to project graphical elements (42, 43, 45) into the field of view of a user wearing the smartglasses, characterized in that the smartglasses comprises a holding means for at least one vision-related surgery or imaging accessory, wherein the smartglasses comprise at least one sensor configured to measure accessory sensor data describing the presence and/or position and/or type of an accessory, wherein the control unit is configured to control the display of graphical elements (42, 43, 45) depending on the accessory sensor data.
A positive electrode material for use in a secondary battery, the positive electrode material comprising: a first active material selected from the group consisting of a lithium vanadium fluorophosphate represented by following the Formula and a lithium vanadium fluorophosphate derivative represented by the following Formula: Li 1+x VPO 4 F Formula, wherein, in Formula, 0≤x≤0.15, Li 1+x V 1-y M y PO 4 F z Formula, wherein, in Formula, 0≤x≤0.15; 0<y≤0.5; 0.8≤z≤1.2; and M is one or more selected from the group consisting of Ti, Al, Mg, Mn, Fe, Co, Y, Cr, Cu, Ni, and Zr; and a second active material, wherein a weight ratio of the first active material to the second active material is r: (1-r), wherein 0.6≤r≤0.9; and the second active material is represented by: - the Formula or - the Formula or - a blend of the Formula with the Formula or - a blend of the Formula with the Formula, Formula being Li w (Ni x Mn y Co z M t)O 2, wherein, in Formula, 0.9≤w≤1.1; x>0; y>0; z>0; t≥0; M is one or more selected from the group consisting of Al, B, Mg, Si, Ca, Ti, V, Cr, Fe, Cu, Zn, Y, Zr, Nb, W, Mo, Sr, Ce, Ga, and Ta; and optionally x+y+z+t=1, Formula being Li w (Ni x Co y Al z M t)O 2, wherein, in Formula, 0.9≤w≤1.1; x>0; y>0; z>0; t≥0; M is one or more selected from the group consisting of B, Mg, Si, Ca, Ti, V, Cr, Mn, Fe, Cu, Zn, Y, Zr, Nb, W, Mo, Sr, Ce, Ga, and Ta; and optionally x+y+z+t=1, Formula being Li 1+x Fe y Mn z X b PO 4, wherein, in the Formula, X is at least one transition metal selected from the group consisting of Ni, V, Y, Mg, Ca, Ba, Al, Sc, and Nd; 0≤x≤0.15; y>0; z>0; b≥0; and optionally y+z+b=1. a first active material selected from the group consisting of a lithium vanadium fluorophosphate represented by following the Formula and a lithium vanadium fluorophosphate derivative represented by the following Formula: Li 1+x VPO 4 F Formula, wherein, in Formula, 0≤x≤0.15, Li 1+x V 1-y M y PO 4 F z Formula, wherein, in Formula, 0≤x≤0.15; 0<y≤0.5; 0.8≤z≤1.2; and M is one or more selected from the group consisting of Ti, Al, Mg, Mn, Fe, Co, Y, Cr, Cu, Ni, and Zr; and a second active material, wherein a weight ratio of the first active material to the second active material is r: (1-r), wherein 0.6≤r≤0.9; and - the Formula or - the Formula or - a blend of the Formula with the Formula or - a blend of the Formula with the Formula, Formula being Li w (Ni x Mn y Co z M t)O 2, wherein, in Formula, 0.9≤w≤1.1; x>0; y>0; z>0; t≥0; M is one or more selected from the group consisting of Al, B, Mg, Si, Ca, Ti, V, Cr, Fe, Cu, Zn, Y, Zr, Nb, W, Mo, Sr, Ce, Ga, and Ta; and optionally x+y+z+t=1, Formula being Li w (Ni x Co y Al z M t)O 2, wherein, in Formula, 0.9≤w≤1.1; x>0; y>0; z>0; t≥0; M is one or more selected from the group consisting of B, Mg, Si, Ca, Ti, V, Cr, Mn, Fe, Cu, Zn, Y, Zr, Nb, W, Mo, Sr, Ce, Ga, and Ta; and optionally x+y+z+t=1, Formula being Li 1+x Fe y Mn z X b PO 4, wherein, in the Formula, X is at least one transition metal selected from the group consisting of Ni, V, Y, Mg, Ca, Ba, Al, Sc, and Nd; 0≤x≤0.15; y>0; z>0; b≥0; and optionally y+z+b=1.
Method for adjusting the clamping force applied by a parking brake, which clamping force is generated at least partially by an electromechanical brake device with an electrical actuator and, if necessary, additionally by a hydraulic brake device, wherein in the event of activation of the hydraulic brake device a hydraulic pressure is active at a brake piston in a supporting fashion, which brake piston is adjusted by an electrical actuator, and the total clamping force is composed of the electromechanical clamping force and the hydraulic clamping force, characterized in that when the hydraulic clamping force is made available a boosting pressure (p U) to be generated in the hydraulic brake device is increased at the deactivation time by a constant absolute pressure value (Δp) compared to a deactivation pressure (p t,off) corresponding to the hydraulic clamping force.
Connector for securing floating double skin pipework to a structure, the connector comprising means for securing to the structure, and also an external body forming an outer channel and an internal tube forming an inner channel around the longitudinal axis of the connector, the connector being characterized in that said means for securing to the structure comprise a fixed connection backed up by a sliding connection along the longitudinal axis of the connector, the connector comprising at least one bore (89, 90) for producing the fixed connection.
An apparatus for manufacturing plastic bags from at least two layers of plastic film (30, 40) with a welding tool for welding together the at least two layers of plastic film (30, 40) at an edge, wherein the welding tool has a lower tool plate and an upper tool plate, characterized in that the lower tool plate is driven by means of a crank and a servomotor, and wherein the servomotor is connected with a measuring device for detecting the power consumption.
A light emitting diode comprising: an n-layer, a p-layer, a light emitting layer between the n-layer and the p-layer, an n-pad for coupling to the n-layer, wherein contact between the n-layer and the n-pad is along the perimeter of the n-layer, a p-pad for coupling to the p-layer, and a p-contact that couples the p-pad to the p-layer to facilitate current injection through the p-layer, wherein the p-pad is coupled to the p-layer via the p-contact through a partially reflective guard layer that inhibits migration of the p-contact material, which partially reflective guard layer fills the area adjacent to the p-contact, characterized in that the p-contact is configured to inhibit current injection through the p-layer in at least one current-inhibiting region of the p-contact at a periphery of the p-contact. an n-layer, a p-layer, a light emitting layer between the n-layer and the p-layer, an n-pad for coupling to the n-layer, wherein contact between the n-layer and the n-pad is along the perimeter of the n-layer, a p-pad for coupling to the p-layer, and a p-contact that couples the p-pad to the p-layer to facilitate current injection through the p-layer, wherein the p-pad is coupled to the p-layer via the p-contact through a partially reflective guard layer that inhibits migration of the p-contact material, which partially reflective guard layer fills the area adjacent to the p-contact, characterized in that the p-contact is configured to inhibit current injection through the p-layer in at least one current-inhibiting region of the p-contact at a periphery of the p-contact.
A device for detecting a hazardous condition in an area, comprising: a housing defining a chamber; and at least one smoke sensing device (30, 42) for detecting the presence of smoke in the chamber, characterised by further comprising: an extremely-high frequency detector including at least one extremely-high frequency transmitter and at least one extremely-high frequency receiver, wherein the at least one extremely-high frequency transmitter is configured to generate a frequency between 180 GHz and 190 GHz for detecting if water is present in the air adjacent the device; wherein the device is configured to determine if an alarm should be triggered to indicate a hazardous condition based on the extremely-high frequency detector and the at least one smoke sensing device (30, 42). a housing defining a chamber; and at least one smoke sensing device (30, 42) for detecting the presence of smoke in the chamber, characterised by further comprising: an extremely-high frequency detector including at least one extremely-high frequency transmitter and at least one extremely-high frequency receiver, wherein the at least one extremely-high frequency transmitter is configured to generate a frequency between 180 GHz and 190 GHz for detecting if water is present in the air adjacent the device; wherein the device is configured to determine if an alarm should be triggered to indicate a hazardous condition based on the extremely-high frequency detector and the at least one smoke sensing device (30, 42). an extremely-high frequency detector including at least one extremely-high frequency transmitter and at least one extremely-high frequency receiver, wherein the at least one extremely-high frequency transmitter is configured to generate a frequency between 180 GHz and 190 GHz for detecting if water is present in the air adjacent the device; wherein the device is configured to determine if an alarm should be triggered to indicate a hazardous condition based on the extremely-high frequency detector and the at least one smoke sensing device (30, 42).
Automated system for folding garments, comprising: - acquisition means of at least one image of a garment to be folded; - at least one processing unit operatively connected to said acquisition means and comprising determination means (2, 3, 4) configured to process said at least one acquired image and to determine at least one picking point of at least one edge of said garment and at least one deposition point of said picked edge in a folded position; - at least one robotic arm provided with at least one picking member and operatively connected to said processing unit; - driving means of said robotic arm configured to drive said picking member depending on said at least one picking point and on said at least one deposition point; characterized in that said determination means (2, 3, 4) are configured to determine at least one movement trajectory of said picked edge, said driving means being configured to drive said picking member between said at least one picking point and said at least one deposition point following said movement trajectory. - acquisition means of at least one image of a garment to be folded; - at least one processing unit operatively connected to said acquisition means and comprising determination means (2, 3, 4) configured to process said at least one acquired image and to determine at least one picking point of at least one edge of said garment and at least one deposition point of said picked edge in a folded position; - at least one robotic arm provided with at least one picking member and operatively connected to said processing unit; - driving means of said robotic arm configured to drive said picking member depending on said at least one picking point and on said at least one deposition point;
Suction appliance (10; 170) for cleaning purposes, in particular, for cleaning floors, which comprises the following: - a dirt collecting container with a suction inlet and a suction outlet on which a filter is held, - a suction unit for acting upon the dirt collecting container with negative pressure, - a suction chamber between the suction unit and the filter with an external air inlet, via which external air can flow into the suction chamber to act upon the filter on the clean-space side, - a valve device (64; 116; 128; 138; 188) with a valve seat (66; 132) forming the external air inlet, and a valve body (68; 186) movable relative to the valve seat (66; 132), the valve body (68; 186) in a closed position abutting sealingly on the valve seat (66; 132) and in an open position releasing the valve seat (66; 132), and - an actuating member (76; 172), actuation of which causes the valve body (68; 186) to be transferred from the closed position to the open position, characterized in that the suction appliance (10; 170) comprises an energy storage device (108; 118; 136; 140), to which energy that is to be stored can be supplied by actuating the actuating member (76; 172), and from which stored energy can be released for transferring the valve body (68; 186) from the closed position to the open position, and in that the energy storage device (108; 118; 136; 140) comprises at least one elastically deformable energy storage member (106; 126; 134; 148; 154), wherein the at least one energy storage member (106; 126; 134; 148; 154) is configured as a spring (98; 156). - a dirt collecting container with a suction inlet and a suction outlet on which a filter is held, - a suction unit for acting upon the dirt collecting container with negative pressure, - a suction chamber between the suction unit and the filter with an external air inlet, via which external air can flow into the suction chamber to act upon the filter on the clean-space side, - a valve device (64; 116; 128; 138; 188) with a valve seat (66; 132) forming the external air inlet, and a valve body (68; 186) movable relative to the valve seat (66; 132), the valve body (68; 186) in a closed position abutting sealingly on the valve seat (66; 132) and in an open position releasing the valve seat (66; 132), and - an actuating member (76; 172), actuation of which causes the valve body (68; 186) to be transferred from the closed position to the open position,