mhurhangee/patent-ind-claim-en huggingface dataset:
A system for body tissue ablation, the system comprising: a generator , configured to generate an ablation signal and to provide the ablation signal to an ablation probe that is in contact with tissue; an irrigation module , configured to deliver irrigation fluid to the ablation probe , for applying the irrigation fluid in a vicinity of the tissue while the ablation signal is applied to the tissue; and a processor , configured to: receive from the ablation probe signals indicative of an estimated instantaneous contact force that is exerted by the ablation probe against the tissue; characterized in that the processor is further configured to: control the irrigation module to adapt a flow rate of the irrigation fluid responsively to the estimated instantaneous contact force by commanding the irrigation module to increase or decrease the flow rate responsively to a respective estimated increase or decrease in the instantaneous contact force; and wherein if the instantaneous contact force increases, the processor is configured to direct the irrigation module to increase the flow rate so that a rate of heat removal by irrigation matches an increase in deposited heat due to an increase in instantaneous contact force. a generator , configured to generate an ablation signal and to provide the ablation signal to an ablation probe that is in contact with tissue; an irrigation module , configured to deliver irrigation fluid to the ablation probe , for applying the irrigation fluid in a vicinity of the tissue while the ablation signal is applied to the tissue; and a processor , configured to: receive from the ablation probe signals indicative of an estimated instantaneous contact force that is exerted by the ablation probe against the tissue; characterized in that the processor is further configured to: control the irrigation module to adapt a flow rate of the irrigation fluid responsively to the estimated instantaneous contact force by commanding the irrigation module to increase or decrease the flow rate responsively to a respective estimated increase or decrease in the instantaneous contact force; and wherein if the instantaneous contact force increases, the processor is configured to direct the irrigation module to increase the flow rate so that a rate of heat removal by irrigation matches an increase in deposited heat due to an increase in instantaneous contact force. control the irrigation module to adapt a flow rate of the irrigation fluid responsively to the estimated instantaneous contact force by commanding the irrigation module to increase or decrease the flow rate responsively to a respective estimated increase or decrease in the instantaneous contact force; and wherein if the instantaneous contact force increases, the processor is configured to direct the irrigation module to increase the flow rate so that a rate of heat removal by irrigation matches an increase in deposited heat due to an increase in instantaneous contact force.
A carrier ring for an encoder , wherein the carrier ring comprises suspension means with resilient members , characterized in that the carrier ring is radially divided and is demountable in at least two sections such that the carrier ring is attachable around a shaft, and wherein the inner periphery of the carrier ring comprises protrusions which are adjustable in the direction (R1) towards the central axis (C) of the ring and are intended as contact surfaces towards the shaft, wherein the resilient members provide adjustability of the carrier ring when mounted on the shaft. characterized in that the carrier ring is radially divided and is demountable in at least two sections such that the carrier ring is attachable around a shaft, and wherein the inner periphery of the carrier ring comprises protrusions which are adjustable in the direction (R1) towards the central axis (C) of the ring and are intended as contact surfaces towards the shaft, wherein the resilient members provide adjustability of the carrier ring when mounted on the shaft.
An oil monitoring system , comprising: at least one oil sensing unit to provide at least one oil condition signal from at least one location within a rotary meter to be monitored, at least one location comprising a magnetic meter housing or a thrust housing, and the at least one oil condition signal representing a quality indicative of meter health; one or more alarm signaling interfaces ; and a main control unit configured to be coupled to at least one oil condition sensing unit and the one or more alarm signaling interfaces ; wherein the main control unit is configured to: detect a condition of oil at the at least one location using the at least one oil condition sensing unit , wherein the condition comprises any one or more of: oil level loss due to seepage into a metering chamber, colour, aeration, contamination, and another quality indicative of meter health; and control at least one of the one or more alarm signaling interfaces to provide an alarm in response to the condition of oil detected. at least one oil sensing unit to provide at least one oil condition signal from at least one location within a rotary meter to be monitored, at least one location comprising a magnetic meter housing or a thrust housing, and the at least one oil condition signal representing a quality indicative of meter health; one or more alarm signaling interfaces ; and a main control unit configured to be coupled to at least one oil condition sensing unit and the one or more alarm signaling interfaces ; wherein the main control unit is configured to: detect a condition of oil at the at least one location using the at least one oil condition sensing unit , wherein the condition comprises any one or more of: oil level loss due to seepage into a metering chamber, colour, aeration, contamination, and another quality indicative of meter health; and control at least one of the one or more alarm signaling interfaces to provide an alarm in response to the condition of oil detected. detect a condition of oil at the at least one location using the at least one oil condition sensing unit , wherein the condition comprises any one or more of: oil level loss due to seepage into a metering chamber, colour, aeration, contamination, and another quality indicative of meter health; and control at least one of the one or more alarm signaling interfaces to provide an alarm in response to the condition of oil detected.
A computer-implemented method for monitoring usage of a cutting element of a hair cutting device, the method comprising: receiving pressure data indicative of a pressure applied by a cutting element of a hair cutting device on a surface at intervals during a cutting event; storing the received pressure data in a storage device; estimating , based on pressure data stored in the storage device in relation to the cutting event and on pressure data stored in the storage device in relation to one or more previous cutting events, a level of wear of the cutting element wherein estimating a level of wear of the cutting element comprises: determining, based on a summation or numerical integration of the stored pressure data relating to the cutting event and the stored pressure data relating to the one or more previous cutting events, a total pressure applied by the cutting element to the surface since a defined start point; and estimating the level of wear based on the calculated summed or integrated pressure data.; and providing an indication of the estimated level of wear for presentation to a recipient. receiving pressure data indicative of a pressure applied by a cutting element of a hair cutting device on a surface at intervals during a cutting event; storing the received pressure data in a storage device; estimating , based on pressure data stored in the storage device in relation to the cutting event and on pressure data stored in the storage device in relation to one or more previous cutting events, a level of wear of the cutting element wherein estimating a level of wear of the cutting element comprises: determining, based on a summation or numerical integration of the stored pressure data relating to the cutting event and the stored pressure data relating to the one or more previous cutting events, a total pressure applied by the cutting element to the surface since a defined start point; and estimating the level of wear based on the calculated summed or integrated pressure data.; and providing an indication of the estimated level of wear for presentation to a recipient. determining, based on a summation or numerical integration of the stored pressure data relating to the cutting event and the stored pressure data relating to the one or more previous cutting events, a total pressure applied by the cutting element to the surface since a defined start point; and estimating the level of wear based on the calculated summed or integrated pressure data.; and providing an indication of the estimated level of wear for presentation to a recipient.
An oxygen generator comprising - a composition for generating oxygen comprising an oxygen source, an ionic liquid and a metal oxide compound and - an acidic compound for decelerating or stopping oxygen production, or if the ionic liquid is an acidic compound or contains an acidic compound, - optionally, a composition for generating oxygen comprising an oxygen source, an ionic liquid, a metal oxide compound and a basic compound, and - a further acidic compound for decelerating or stopping the oxygen production, wherein - the oxygen source comprises a peroxide compound, - the ionic liquid is in the liquid state at least in a temperature range from -10°C to +50°C and - the metal oxide compound is an oxide of a single metal or of two or more different metals, said metal(s) being selected from the metals of groups 2 to 14 of the periodic table of the elements. - a composition for generating oxygen comprising an oxygen source, an ionic liquid and a metal oxide compound and - an acidic compound for decelerating or stopping oxygen production, or if the ionic liquid is an acidic compound or contains an acidic compound, - optionally, a composition for generating oxygen comprising an oxygen source, an ionic liquid, a metal oxide compound and a basic compound, and - a further acidic compound for decelerating or stopping the oxygen production, wherein - the oxygen source comprises a peroxide compound, - the ionic liquid is in the liquid state at least in a temperature range from -10°C to +50°C and - the metal oxide compound is an oxide of a single metal or of two or more different metals, said metal(s) being selected from the metals of groups 2 to 14 of the periodic table of the elements.
An array substrate, comprising a base substrate, a plurality of scan lines (Ga, 21) and a plurality of data lines (Dr, 4) that are provided on the base substrate and intersect with each other, and a plurality of sub-pixel regions arranged evenly, each of which comprises one thin film transistor, wherein, sub-pixel regions in two adjacent rows are configured as one pixel row group, so that a plurality of pixel row groups are arranged longitudinally, and there are provided a first and a second scan lines (Ga, 21) between every two adjacent pixel row groups, each of the first and the second scan lines (Ga, 21) is electrically connected to gate electrodes of thin film transistors within one of sub-pixel regions of the two rows of sub-pixel regions that are adjacent to them, respectively, and the first and the second scan line (Ga, 21) overlap in partial and are insulated from each other; each of the sub-pixel regions further includes a pixel electrode ; the first scan line (Ga, 21) and the gate electrodes of thin film transistors connected to the first scan line (Ga, 21) are located in a same layer; the second scan line comprises at least one overlapping section , at least one non-overlapping section and a plurality of extension sections ; the overlapping section is a portion of the second scan line that overlaps the first scan line (Ga, 21), and the overlapping section and a data line (Dr, 4) or the overlapping section and the pixel electrode are located in a same layer; the non-overlapping section is a portion of the second scan line that does not overlap the first scan line (Ga, 21), and is electrically connected to a gate electrode of a thin film transistor corresponding to the second scan line, and the non-overlapping section and the gate electrode of the thin film transistor corresponding to the second scan line are located in a same layer; each of the plurality of extension sections is a portion that extends from one overlapping section to overlap with one non-overlapping section adjacent to the overlapping section ; a width of the overlapping section is same as a width of the first scan line (Ga, 21); and the overlapping section and the non-overlapping section of the second scan line are electrically connected so as to provide a continuous scan line capable of transmitting signals.
Method for manufacturing a composite inner panel for a motor vehicle, and in particular a dashboard panel for a motor vehicle with an airbag device, said composite part comprising a panel-shaped main body and a secondary body connected to one of the faces of said panel , said method involving manufacturing the main body and the secondary body separately, the main body being obtained by thermoforming or thermocompression of a section of plate or sheet material based on thermoplastic material, then assembling the two bodies (2 and 3) together by welding with no filler material, notably by vibration, in the respective assembly zones brought into mutual contact under pressure, said method being characterized in that it involves making the main body and the secondary body using different thermoplastic materials that are not very or not at all compatible with one another, in that it involves providing and arranging, at least in the or each assembly zone of the section of material intended to form the main body , an interface layer based on or incorporating a thermoplastic material compatible with the material of the secondary body , in that it involves connecting said or each interface layer to the main body during a pre-assembly phase during the thermoforming or thermocompression operation of the section of material, and in that the welding operation is parameterized and configured, notably in terms of temperature, pressure and duration, to create a material join following plasticizing between the or each interface layer and the related assembly zone of the secondary body in contact therewith. said method being characterized in that it involves making the main body and the secondary body using different thermoplastic materials that are not very or not at all compatible with one another, in that it involves providing and arranging, at least in the or each assembly zone of the section of material intended to form the main body , an interface layer based on or incorporating a thermoplastic material compatible with the material of the secondary body , in that it involves connecting said or each interface layer to the main body during a pre-assembly phase during the thermoforming or thermocompression operation of the section of material, and in that the welding operation is parameterized and configured, notably in terms of temperature, pressure and duration, to create a material join following plasticizing between the or each interface layer and the related assembly zone of the secondary body in contact therewith.
An image sensor comprising: - a pixel sensor comprising: - a photo detector circuit arranged to apply a photo current to a capacitive node during a photo detection time interval ; - a front-end circuit comprising an input transistor having a gate that is coupled to the capacitive node, the input transistor further comprising a source and a drain; - the image sensor comprising a switchable biasing arrangement adapted to put the input transistor in a disabled state during the photo detection time interval, and to put the input transistor in an enabled state after the photo detection time interval, causing the front-end circuit to provide an output signal that is representative of a voltage on the capacitive node after the photo detection time interval, characterized in that in the disabled state, the input transistor is biased so that, when the photo detection time interval starts, the source and the drain of the input transistor are at a voltage that corresponds to a reset voltage that is forced upon the capacitive node before the photo detection time interval starts. - a pixel sensor comprising: - a photo detector circuit arranged to apply a photo current to a capacitive node during a photo detection time interval ; - a front-end circuit comprising an input transistor having a gate that is coupled to the capacitive node, the input transistor further comprising a source and a drain; - a photo detector circuit arranged to apply a photo current to a capacitive node during a photo detection time interval ; - a front-end circuit comprising an input transistor having a gate that is coupled to the capacitive node, the input transistor further comprising a source and a drain; - the image sensor comprising a switchable biasing arrangement adapted to put the input transistor in a disabled state during the photo detection time interval, and to put the input transistor in an enabled state after the photo detection time interval, causing the front-end circuit to provide an output signal that is representative of a voltage on the capacitive node after the photo detection time interval, characterized in that in the disabled state, the input transistor is biased so that, when the photo detection time interval starts, the source and the drain of the input transistor are at a voltage that corresponds to a reset voltage that is forced upon the capacitive node before the photo detection time interval starts.
Apparatus for commissioning on goods carriers, in particular pallets , having a commissioning shaft , a feed device for feeding an unladen goods carrier, a lowering device for incrementally lowering the goods carrier in accordance with a loading height of the goods carrier, and having a strapping apparatus for strapping a load-goods layer made up of load goods on the goods carrier during commissioning, characterized in that the wall of the commissioning shaft is a peripheral wall and is interrupted by a horizontal slot at the point of the frame of the strapper .
Intermediate plate for a multiple-disc clutch , in particular two-disc clutch, for coupling a drive shaft of a motor vehicle engine to at least one gear mechanism input shaft of a motor vehicle gear mechanism, in particular for a double clutch , having an annular body for pressing with frictionally locking action between a counter-plate which is able to be coupled to the drive shaft and a pressure plate which is axially displaceable relative to the counter-plate , characterized in that provision is made of a contact link which is formed in one piece with the annular body and which serves for travel-transmitted coupling of the annular body to the pressure plate , wherein the contact link has a contact body , formed by plastic deformation of a part of the contact link and protruding in an axial direction, for axial abutment against a restoring spring , which restoring spring is connected to a pressure plate which follows in an axial direction in relation to the intermediate plate , or to a further intermediate plate, and which is designed in particular as a leaf spring.
A positive electrode precursor for a nonaqueous lithium electric storage element, wherein "positive electrode precursor" is defined as referring to the state of the positive electrode before an alkali metal doping step to a negative electrode in said nonaqueous lithium electric storage element, said positive electrode precursor having a current collector and a positive electrode active material layer disposed on the current collector, wherein the positive electrode active material layer comprises all of a carbon material, lithium transition metal oxide, and an alkali metal compound, a weight proportion A 1 of the carbon material in the positive electrode active material layer accounts for 15% by weight or greater and 65% by weight or less, a weight proportion A 2 of the lithium transition metal oxide in the positive electrode active material layer accounts for 5% by weight or greater and 35% by weight or less, a weight proportion A 3 of the alkali metal compound in the positive electrode active material layer accounts for 10% by weight or greater and 50% by weight or less, A 2 /A 1 is 0.10 or greater and 2.00 or less, A 1 /A 3 is 0.50 or greater and 3.00 or less, and the positive electrode active material layer has a peel strength of 0.02 N/cm or greater and 3.00 N/cm or less, and the alkali metal compound is one or more selected from the group consisting of lithium carbonate, sodium carbonate, and potassium carbonate. said positive electrode precursor having a current collector and a positive electrode active material layer disposed on the current collector, wherein the positive electrode active material layer comprises all of a carbon material, lithium transition metal oxide, and an alkali metal compound, a weight proportion A 1 of the carbon material in the positive electrode active material layer accounts for 15% by weight or greater and 65% by weight or less, a weight proportion A 2 of the lithium transition metal oxide in the positive electrode active material layer accounts for 5% by weight or greater and 35% by weight or less, a weight proportion A 3 of the alkali metal compound in the positive electrode active material layer accounts for 10% by weight or greater and 50% by weight or less, A 2 /A 1 is 0.10 or greater and 2.00 or less, A 1 /A 3 is 0.50 or greater and 3.00 or less, and the positive electrode active material layer has a peel strength of 0.02 N/cm or greater and 3.00 N/cm or less, and the alkali metal compound is one or more selected from the group consisting of lithium carbonate, sodium carbonate, and potassium carbonate.
A computer implemented method comprising: receiving a video including a plurality of frames, the video captured by a physical camera at a first point of view, wherein the video includes depth information corresponding to the plurality of frames; detecting a face within the video, wherein the face is within a foreground portion of the plurality of frames; determining the foreground portion of the plurality of frames based on one or more depth values of the depth information corresponding to the plurality of frames; characterized by positioning a virtual camera at a second point of view, wherein the second point of view is different from the first point of view; obtaining a projection matrix of the foreground portion, which is based on the virtual camera, such that the projection matrix corresponds to the second point of view; and generating a modified video that includes a modified foreground portion based on the projection matrix by applying the projection matrix to re-project the foreground portion and correct a face pose. receiving a video including a plurality of frames, the video captured by a physical camera at a first point of view, wherein the video includes depth information corresponding to the plurality of frames; detecting a face within the video, wherein the face is within a foreground portion of the plurality of frames; determining the foreground portion of the plurality of frames based on one or more depth values of the depth information corresponding to the plurality of frames; characterized by positioning a virtual camera at a second point of view, wherein the second point of view is different from the first point of view; obtaining a projection matrix of the foreground portion, which is based on the virtual camera, such that the projection matrix corresponds to the second point of view; and generating a modified video that includes a modified foreground portion based on the projection matrix by applying the projection matrix to re-project the foreground portion and correct a face pose.