mhurhangee/ep-ind-claims huggingface dataset:
A SRAM, comprising SRAM cells (200; 210; 220; 230; 240; 250; 260; 270) arranged in rows and in columns, electrically-conductive tracks (WL, WL', BL L, BL R) extending along the rows and the columns including word lines, first bit lines (BL L), and second bit lines (BL R) and a circuit for providing signals of variable amplitudes on the conductive tracks, each memory cell comprising in a stack of layers transistors including at least first and second access transistors (MA L, MA R) connected to one of the word lines, the first access transistor (MA L) coupling one of the first bit lines (BL L) and a first storage node (N L) and the second access transistor (MA R) coupling one of the second bit lines (BL R) and a second storage node (N R), and a flip-flop comprising a first conduction transistor (MD L, MR L) coupling the first storage node to a source of a first reference potential (Vdd, Vss) and having its gate coupled to the second storage node and a second conduction transistor (MD R, MR R) coupling the second storage node to the source of the first reference potential and having its gate coupled to the first storage node, the transistors being distributed into a first plurality of transistors located at a first level (N SUP) of the stack and a second plurality of transistors located at least a second level (N INF) of the stack, characterized in that the memory cell comprises an electrically-conductive portion of the second level connected to an inner node of the memory cell or to one of the word lines, first bit lines, and second bit lines and located opposite a channel area of a transistor of the first plurality of transistors and separated from said channel area via an insulating area provided or electrically-connected to a semiconductor portion containing said channel area to allow a coupling between the electrically-conductive portion and said channel area, said inner node corresponding to one or the other of the first and second storage nodes.
A method for checking tyre pressure in real time, more especially on a motor vehicle, wherein the pressure values determined by means of a pressure sensor provided in the tyre are transmitted by radio at short transmitting intervals to a monitoring unit installed in the vehicle by an electronic wheel unit without the use of a trigger transmitter fixed to the vehicle, at least when the vehicle is not moving, only when these values are outside a predetermined normal range, whereas the electronic wheel unit, when the vehicle is not moving, emits at least one signal suitable for system monitoring at specific time intervals and, using the same time frame or an integral fraction or multiple thereof, carries out a measurement of the tyre pressure, characterised in that the signal suitable for the system monitoring is emitted with a short transmitting period in the order of magnitude of 25 μs to 500 μs.
A method for detecting growth of individual microorganism cells in a sample comprising: (a) contacting the sample with a biosensor comprising at least one detection surface and a detection module; (b) concentrating the individual microorganism cells onto the at least one detection surface such that each individual cell is at a discrete site that is spatially separated; (c) subjecting the individual microorganism cells to growth conditions for a first period of time in the presence or absence of one or more antimicrobial agents; and (d) detecting growth of the individual microorganism cell or cells on the at least one detection surface as an indication of their viability. (a) contacting the sample with a biosensor comprising at least one detection surface and a detection module; (b) concentrating the individual microorganism cells onto the at least one detection surface such that each individual cell is at a discrete site that is spatially separated; (c) subjecting the individual microorganism cells to growth conditions for a first period of time in the presence or absence of one or more antimicrobial agents; and (d) detecting growth of the individual microorganism cell or cells on the at least one detection surface as an indication of their viability.
A pneumatic tire provided with an electronic component at a position to the outer side of the carcass in the tire axial direction, wherein E*(50°C) at 50°C and E*(150°C) at 150°C of the rubber member for a tire having the largest E*(50°C) at 50°C, among rubber members for a tire located inward in the tire axial direction from a position where the electronic component is provided, satisfy the following formula, wherein the values of E* are measured using a viscoelastic spectrometer at an initial strain of 10%, an amplitude of ± 2.0%, and a frequency of 10Hz in tensile deformation mode: E * 150 ° C / E * 50 ° C ≧ 0.90
An electrosurgical device for the electrothermal treatment of biological tissue, having an instrument that can be penetrated into biological tissue and that has a body with a first electrode and at least one second electrode arranged at a proximal distance from the first electrode, which can be supplied with a radio frequency test voltage (U T) and with a radio frequency treatment voltage (U HF), wherein the test voltage (U T) is significantly lower than the treatment voltage (U HF) and therefore has no or only a very low physiological effect, wherein the treatment voltage (U HF) is suitable for the thermal destruction of the biological tissue, having an apparatus comprising an electrosurgical generator that is configured to supply the electrodes (19, 20) of the instrument with the test voltage (U T) and to detect the resulting current (i) thereby, having a control device that is configured to detect from the test voltage (U T) and the current (i) a first parameter that is dependent on the effective impedance (Imp) between the electrodes (19, 20) and a second parameter that is dependent on the phase angle (phi) between the test voltage (U T) and the current (i), wherein the control device is further configured to determine whether a) a first change in the first parameter exceeds a first threshold value and b) a second change in the second parameter exceeds a second threshold value. having an instrument that can be penetrated into biological tissue and that has a body with a first electrode and at least one second electrode arranged at a proximal distance from the first electrode, which can be supplied with a radio frequency test voltage (U T) and with a radio frequency treatment voltage (U HF), wherein the test voltage (U T) is significantly lower than the treatment voltage (U HF) and therefore has no or only a very low physiological effect, wherein the treatment voltage (U HF) is suitable for the thermal destruction of the biological tissue, having an apparatus comprising an electrosurgical generator that is configured to supply the electrodes (19, 20) of the instrument with the test voltage (U T) and to detect the resulting current (i) thereby, having a control device that is configured to detect from the test voltage (U T) and the current (i) a first parameter that is dependent on the effective impedance (Imp) between the electrodes (19, 20) and a second parameter that is dependent on the phase angle (phi) between the test voltage (U T) and the current (i), wherein the control device is further configured to determine whether a) a first change in the first parameter exceeds a first threshold value and b) a second change in the second parameter exceeds a second threshold value. a) a first change in the first parameter exceeds a first threshold value and b) a second change in the second parameter exceeds a second threshold value.
A heat exchange system, comprising: four compressors (C1 - C4) for changing a heat amount of a fluid, the first, second, third and fourth compressors being connected in series in this order so as to form one flow passage; and a multilayer heat exchanger, characterised in that the multilayer heat exchanger comprises: four stacked heat exchange units (U1 - U4), the first heat exchange unit performing a heat exchange of the fluid fed out from the first compressor, the second heat exchange unit performing a heat exchange of the fluid fed out from the second compressor, the third heat exchange unit performing a heat exchange of the fluid fed out from the third compressor, the fourth heat exchange unit performing a heat exchange of the fluid fed out from the fourth compressor, wherein each of the heat exchange units (U1 - U4) has a structure in which a plurality of flow passage plates (P1 - P4) is stacked, each of the flow passage plates (P1-P4) has concave grooves formed on a surface as flow passages of the fluid, and heat exchange units (U1 to U4) are stacked in order of the first heat exchange unit, the third heat exchange unit, the fourth heat exchange unit, and the second heat exchange unit from the upper side to the lower side of the multilayer heat exchanger.
A computer-implemented method for transforming a first sequence of video frames of a first dynamic scene captured by a camera at regular time intervals to a second sequence of video frames depicting a second dynamic scene, the method comprising: (a) defining a global spatial coordinate system relative to one of the video frames in said first sequence; (b) if the camera is a moving camera, compensating for movement of the camera by aligning all the frames in the first sequence to said global spatial coordinate system so as to produce an aligned first sequence of frames; (c) representing the aligned first sequence of frames as a space-time volume; characterised by: (d) sweeping the space-time volume with an evolving time front surface producing a sequence of time front surfaces that intersect multiple frames in the first sequence; (e) as each successive time front surface sweeps the space-time volume, copying points in all of said multiple frames in the first sequence intersected by said time front surface to a corresponding successive frame in the second sequence; and (f) repeating (d) and (e) so as to generate multiple frames of said second sequence such that frames of the second sequence include pixels taken from different frames of the first sequence. (a) defining a global spatial coordinate system relative to one of the video frames in said first sequence; (b) if the camera is a moving camera, compensating for movement of the camera by aligning all the frames in the first sequence to said global spatial coordinate system so as to produce an aligned first sequence of frames; (c) representing the aligned first sequence of frames as a space-time volume; (d) sweeping the space-time volume with an evolving time front surface producing a sequence of time front surfaces that intersect multiple frames in the first sequence; (e) as each successive time front surface sweeps the space-time volume, copying points in all of said multiple frames in the first sequence intersected by said time front surface to a corresponding successive frame in the second sequence; and (f) repeating (d) and (e) so as to generate multiple frames of said second sequence such that frames of the second sequence include pixels taken from different frames of the first sequence.
A method of installing a blade in a wind turbine comprising a tower, a nacelle positioned on top of the tower and a rotor hub positioned on the nacelle, the rotor hub comprising a guiding element, the method comprising the steps of: providing a blade holder for holding a blade, wherein the blade holder comprises a stabilization beam; providing lifting equipment for lifting the blade holder; attaching the blade holder to the blade, wherein the blade comprises a blade mount for mounting the blade to the rotor hub; connecting the lifting equipment to the blade holder; hoisting the blade holder with the blade towards the rotor hub with the lifting equipment; arranging the stabilization beam near the guiding element; bringing the guiding element and the stabilization beam into contact with each other; attaching the blade mount to the rotor hub. providing a blade holder for holding a blade, wherein the blade holder comprises a stabilization beam; providing lifting equipment for lifting the blade holder; attaching the blade holder to the blade, wherein the blade comprises a blade mount for mounting the blade to the rotor hub; connecting the lifting equipment to the blade holder; hoisting the blade holder with the blade towards the rotor hub with the lifting equipment; arranging the stabilization beam near the guiding element; bringing the guiding element and the stabilization beam into contact with each other; attaching the blade mount to the rotor hub.
A printing device comprising: a media feeding mechanism configured to feed print media through a print area of the printing device, the print media including a plurality of labels separated by a plurality of gaps; a printing mechanism configured to print on the labels of the print media; and a label stop sensing device configured to sense the gaps between the labels on the print media, the label stop sensing device further configured to provide a control signal for controlling the media feeding mechanism and the printing mechanism, wherein the label stop sensing device includes a memory device, and a sensor configured to sense the print media fed through the print area of the printing device and to output time domain signals; characterised in that the memory device is configured to store a first table including signal magnitude values in the time domain of the time domain signals output by the sensor, and a second table including reoccurring frequencies with associated magnitudes and phase values in the frequency domain, and the label stop sensing device comprises a gap detection module configured to receive the time domain signals output by the sensor and perform a Fast Fourier Transform, FFT, to obtain frequency domain signals, wherein the label stop sensing device is configured to detect the locations of the gaps by detecting if the signal magnitude values stored in the first table exceed a predetermined threshold value and if the signal magnitude values correlate to information in the second table. a media feeding mechanism configured to feed print media through a print area of the printing device, the print media including a plurality of labels separated by a plurality of gaps; a printing mechanism configured to print on the labels of the print media; and a label stop sensing device configured to sense the gaps between the labels on the print media, the label stop sensing device further configured to provide a control signal for controlling the media feeding mechanism and the printing mechanism, wherein the label stop sensing device includes a memory device, and a sensor configured to sense the print media fed through the print area of the printing device and to output time domain signals; characterised in that the memory device is configured to store a first table including signal magnitude values in the time domain of the time domain signals output by the sensor, and a second table including reoccurring frequencies with associated magnitudes and phase values in the frequency domain, and the label stop sensing device comprises a gap detection module configured to receive the time domain signals output by the sensor and perform a Fast Fourier Transform, FFT, to obtain frequency domain signals, wherein the label stop sensing device is configured to detect the locations of the gaps by detecting if the signal magnitude values stored in the first table exceed a predetermined threshold value and if the signal magnitude values correlate to information in the second table.
A vehicle side-airbag device comprising: an inflator that is provided at a vehicle seat and is operated to generate gas in cases in which a side face collision of the vehicle is detected or predicted; a side-airbag that is provided at a side portion of a seatback of the vehicle seat, that inflates and deploys between a seated occupant and a vehicle body side portion due to gas generated by the inflator being supplied inside the side-airbag, and that is partitioned in an inflated and deployed state, into a shoulder bag section extending from a side of a shoulder of the seated occupant toward a vehicle front and a main bag section positioned at a side of a chest and abdomen of the seated occupant, the main bag section being further partitioned into a front bag section and a rear bag section aligned in a row along a vehicle front-rear direction; characterized by an inner tube provided at the side-airbag so as to be positioned at a vehicle rear side of the rear bag section in the inflated and deployed state, with the inflator provided inside the inner tube that is in communication with the shoulder bag section interior and the rear bag section interior, wherein a vehicle width direction dimension of the shoulder bag section is set smaller than that of the main bag section in the inflated and deployed state, such that a vehicle width direction inner side face at an upper end side of the main bag section forms an upper arm-push-up face that is sloped or curved so as to rise on progression toward a vehicle width direction outer side. an inflator that is provided at a vehicle seat and is operated to generate gas in cases in which a side face collision of the vehicle is detected or predicted; a side-airbag that is provided at a side portion of a seatback of the vehicle seat, that inflates and deploys between a seated occupant and a vehicle body side portion due to gas generated by the inflator being supplied inside the side-airbag, and that is partitioned in an inflated and deployed state, into a shoulder bag section extending from a side of a shoulder of the seated occupant toward a vehicle front and a main bag section positioned at a side of a chest and abdomen of the seated occupant, the main bag section being further partitioned into a front bag section and a rear bag section aligned in a row along a vehicle front-rear direction; characterized by an inner tube provided at the side-airbag so as to be positioned at a vehicle rear side of the rear bag section in the inflated and deployed state, with the inflator provided inside the inner tube that is in communication with the shoulder bag section interior and the rear bag section interior, wherein a vehicle width direction dimension of the shoulder bag section is set smaller than that of the main bag section in the inflated and deployed state, such that a vehicle width direction inner side face at an upper end side of the main bag section forms an upper arm-push-up face that is sloped or curved so as to rise on progression toward a vehicle width direction outer side.
A dusting machine of the type used in agriculture for distributing powder products, comprising: - a rotary powder tank, apt to produce a mixing of the powder introduced therein; - means for extracting powder from said tank; - means for controlling the dose of powder dispensed to the outside, apt to determine the dose dispensed and/or to be dispensed on the basis of the extraction speed of said extracting means and of the advancing speed of a vehicle carrying the dusting machine; and - means for conveying the powder to the outside, arranged downstream of said extracting means, which conveying means is of pneumatic type and comprises means for generating a carrier flow, preferably of air, for conveying the powder to outside diffusion, characterised in that the overall arrangement is such that said means for generating a carrier flow is arranged in a first environment of the machine separated from a second environment of the machine in which the carrier flow contacts the powder to entrain it. - a rotary powder tank, apt to produce a mixing of the powder introduced therein; - means for extracting powder from said tank; - means for controlling the dose of powder dispensed to the outside, apt to determine the dose dispensed and/or to be dispensed on the basis of the extraction speed of said extracting means and of the advancing speed of a vehicle carrying the dusting machine; and - means for conveying the powder to the outside, arranged downstream of said extracting means, which conveying means is of pneumatic type and comprises means for generating a carrier flow, preferably of air, for conveying the powder to outside diffusion, characterised in that the overall arrangement is such that said means for generating a carrier flow is arranged in a first environment of the machine separated from a second environment of the machine in which the carrier flow contacts the powder to entrain it.
A method for controlling a spark-ignition engine of the supercharged type, associated with at least one circuit for partial recirculation of exhaust gases to the engine intake, said engine being mounted on a motor vehicle, said method being implemented when a driver of the vehicle releases the accelerator pedal of the vehicle, and comprising steps during which; a throttle body for regulating the flow of gases into the engine is almost completely closed; a valve for regulating the flow of exhaust gases recycled at the engine intake is closed; and, fuel injection to the engine is cut off, CHARACTERIZED IN THAT it comprises, successively: - A step during which the accelerator pedal is released; - A step during which said valve for regulating the flow of exhaust gases is closed, and the throttle body is not closed; - A step during which fuel injection is cut off in at least one cylinder of the engine; - A step of almost completely closing the throttle body, after a predetermined time following closure of the recycled gas flow valve; and, - A step of cutting off fuel injection to cylinders which may still have been supplied with fuel before the throttle body was closed. - A step during which the accelerator pedal is released; - A step during which said valve for regulating the flow of exhaust gases is closed, and the throttle body is not closed; - A step during which fuel injection is cut off in at least one cylinder of the engine; - A step of almost completely closing the throttle body, after a predetermined time following closure of the recycled gas flow valve; and, - A step of cutting off fuel injection to cylinders which may still have been supplied with fuel before the throttle body was closed.
A method for machining a tooth edge formed between a tooth flank and an end face of a workpiece toothing, by means of a tool toothing, wherein the toothings (3, 13) rotate about their respective toothing rotational axes (C, B) in mutual rolling coupling, wherein the two toothing rotational axes (C, B) are substantially parallel to each other; characterized in that the machining is carried out over a plurality of workpiece rotations, wherein a first relative movement between the workpiece toothing and the tool toothing, parallel to the workpiece rotational axis, is carried out, and, by means of a second relative movement, which is in particular varied according to the movement state of the first relative movement, the position of the envelope of the tool tooth rolling positions is shifted relative to the engagement position of said envelope with the tooth flank of the workpiece toothing in the plane (X-Y) orthogonal to the workpiece rotational axis, transversely to the profile of the workpiece toothing.
A method of preparing a hydroformylation catalyst solution for storage, the catalyst solution comprising: A. A transition metal in combination with one or more bisphosphite ligands, B. A concentration of acidic species indicated as H 3 PO 3 equivalents, and C. Water, the method comprising the step of mixing the catalyst solution with an aqueous buffer solution comprising one or more materials that will neutralize and/or absorb at least 50 percent of the acidic species, and in which the catalyst solution is stored under a blanket of syngas or in which the catalyst solution is stored under a blanket of an inert gas or in which the catalyst solution is stored under a blanket of syngas in combination with one or more inert gases. A. A transition metal in combination with one or more bisphosphite ligands, B. A concentration of acidic species indicated as H 3 PO 3 equivalents, and C. Water,