mhurhangee/patent-ind-claim-en huggingface dataset:
Tracker for a surveying apparatus for tracking a target, comprising a first imaging region having a plurality of pixels on an image sensor arrangement for taking a first image of a scene including the target; a second imaging region having a plurality of pixels on the image sensor arrangement for taking a second image of a scene including the target; a control unit configured to receive a timing signal, the timing signal indicating a time duration during which an illumination unit illuminating the target in the scene is switched on and off, control the first imaging region to take the first image of the scene when the timing signal indicates that the illumination unit is switched on, and control the second imaging region to take the second image when the timing signal indicates that the illumination unit is switched off; and a read out unit configured to read out, after taking the first and the second image, the first image from the first imaging region and the second image from the second imaging region and to obtain a difference image by determining a difference between the pixel values of the pixels of the first imaging region and the second imaging region so as to identify the target in the difference image. a first imaging region having a plurality of pixels on an image sensor arrangement for taking a first image of a scene including the target; a second imaging region having a plurality of pixels on the image sensor arrangement for taking a second image of a scene including the target; a control unit configured to receive a timing signal, the timing signal indicating a time duration during which an illumination unit illuminating the target in the scene is switched on and off, control the first imaging region to take the first image of the scene when the timing signal indicates that the illumination unit is switched on, and control the second imaging region to take the second image when the timing signal indicates that the illumination unit is switched off; and receive a timing signal, the timing signal indicating a time duration during which an illumination unit illuminating the target in the scene is switched on and off, control the first imaging region to take the first image of the scene when the timing signal indicates that the illumination unit is switched on, and control the second imaging region to take the second image when the timing signal indicates that the illumination unit is switched off; and a read out unit configured to read out, after taking the first and the second image, the first image from the first imaging region and the second image from the second imaging region and to obtain a difference image by determining a difference between the pixel values of the pixels of the first imaging region and the second imaging region so as to identify the target in the difference image.
A light emitter package comprising: a submount comprising an anode and a cathode , wherein a gap (G) is disposed between the anode and the cathode ; a plurality of light emitter diode chips disposed over the submount , wherein each of the light emitter diode chips is electrically connected to the anode and the cathode ; and characterized in that a reflective solder mask material disposed only in the gap (G) for increasing an amount of light emitted by the light emitter package , wherein a light emitter chip of the plurality of light emitter chips is wirebonded to at least a portion of the anode. a submount comprising an anode and a cathode , wherein a gap (G) is disposed between the anode and the cathode ; a plurality of light emitter diode chips disposed over the submount , wherein each of the light emitter diode chips is electrically connected to the anode and the cathode ; and characterized in that a reflective solder mask material disposed only in the gap (G) for increasing an amount of light emitted by the light emitter package , wherein a light emitter chip of the plurality of light emitter chips is wirebonded to at least a portion of the anode.
A refrigerator comprising: a cabinet provided with a storage compartment ; a door configured to open and close the storage compartment ; a case provided at the rear of the storage compartment and having a discharge port , air being discharged into the storage compartment through the discharge port ; wherein the case is provided with an introduction port , through which air is supplied from the storage compartment to the case , an evaporator provided in the case to perform heat exchange with air to supply cooled air; a fan installed at the discharge port and configured to generate an air flow for discharging the air heat-exchanged with the evaporator to the storage compartment ; a differential pressure sensor provided with a first conduit having one end positioned at a portion through which air is drawn to the fan , and a second conduit having one end positioned at a portion through which air is discharged from the fan ; and wherein the differential pressure sensor is configured to measure a difference in pressure between the portion through which air is introduced into the fan and the portion through which air is discharged from the fan , and a controller configured to defrost the evaporator when the pressure difference sensed by the differential pressure sensor is greater than a set pressure, ; wherein the one end of the first conduit and the one end of the second conduit are above the evaporator . a cabinet provided with a storage compartment ; a door configured to open and close the storage compartment ; a case provided at the rear of the storage compartment and having a discharge port , air being discharged into the storage compartment through the discharge port ; wherein the case is provided with an introduction port , through which air is supplied from the storage compartment to the case , an evaporator provided in the case to perform heat exchange with air to supply cooled air; a fan installed at the discharge port and configured to generate an air flow for discharging the air heat-exchanged with the evaporator to the storage compartment ; a differential pressure sensor provided with a first conduit having one end positioned at a portion through which air is drawn to the fan , and a second conduit having one end positioned at a portion through which air is discharged from the fan ; and wherein the differential pressure sensor is configured to measure a difference in pressure between the portion through which air is introduced into the fan and the portion through which air is discharged from the fan , and a controller configured to defrost the evaporator when the pressure difference sensed by the differential pressure sensor is greater than a set pressure, ; wherein the one end of the first conduit and the one end of the second conduit are above the evaporator .
A work vehicle comprising: a traveling body ; a boom supported by the traveling body ; and a camera supported by the boom , the work vehicle being configured such that a swivelling operation of the boom is instructed by a remote operation terminal , wherein the remote operation terminal includes an image display , the work vehicle being characterized by further comprising: a control apparatus capable of recognizing an angle, the angle being formed by a supporting direction of the camera by the boom and a position direction of the remote operation terminal relative to the camera , wherein an image rotated based on the angle and cut into a circular shape is displayed on the image display provided in the remote operation terminal . a traveling body ; a boom supported by the traveling body ; and a camera supported by the boom , the work vehicle being configured such that a swivelling operation of the boom is instructed by a remote operation terminal , wherein the remote operation terminal includes an image display , the work vehicle being characterized by further comprising: a control apparatus capable of recognizing an angle, the angle being formed by a supporting direction of the camera by the boom and a position direction of the remote operation terminal relative to the camera , wherein an image rotated based on the angle and cut into a circular shape is displayed on the image display provided in the remote operation terminal .
A depth stop for use with a drilling tool for forming a hole of predetermined depth and orientation in a host material, said depth stop comprising: an interface connectable to the shank of a surgical drilling tool , said interface having a partially tubular shape defining an interior region , said interface extending axially between top and bottom ends thereof, said interface including a cap flange adjacent said top end, a tapered skirt extending axially from said cap flange toward said bottom end, said skirt having a relief in the form of a neck or undercut disposed directly adjacent said cap flange ; a tubular key having an inner diameter and an outer diameter, said key extending between an upper end and a lower end, a stop ring formed at said lower end, and said inner diameter of said key being sized for interference fit surrounding the widest diameter of said tapered skirt and clearance fit surrounding said relief of said skirt . an interface connectable to the shank of a surgical drilling tool , said interface having a partially tubular shape defining an interior region , said interface extending axially between top and bottom ends thereof, said interface including a cap flange adjacent said top end, a tapered skirt extending axially from said cap flange toward said bottom end, said skirt having a relief in the form of a neck or undercut disposed directly adjacent said cap flange ; a tubular key having an inner diameter and an outer diameter, said key extending between an upper end and a lower end, a stop ring formed at said lower end, and said inner diameter of said key being sized for interference fit surrounding the widest diameter of said tapered skirt and clearance fit surrounding said relief of said skirt .
A method for transmitting retransmission data using hybrid automatic repeat request, HARQ, by a base station in a wireless communication system, the method comprising: determining whether there is a radio resource for transmitting the retransmission data; configuring a downlink control information, DCI, format including a retransmission indicator field when the radio resource exists, the retransmission indicator field indicating whether the retransmission data is general retransmission data which is retransmitted after receiving an ACK/NACK signal for initial transmission data or opportunistic retransmission data which is retransmitted before receiving the ACK/NACK signal for the initial transmission data; when the retransmission data is opportunistic retransmission data, receiving index information of the radio resource in which a maximum power value of the retransmission data is limited and information on the maximum power value of the retransmission data from another base station adjacent to the base station; and transmitting the retransmission data through the radio resource on the basis of the DCI format and the received information, wherein the retransmission data is opportunistic retransmission data. determining whether there is a radio resource for transmitting the retransmission data; configuring a downlink control information, DCI, format including a retransmission indicator field when the radio resource exists, the retransmission indicator field indicating whether the retransmission data is general retransmission data which is retransmitted after receiving an ACK/NACK signal for initial transmission data or opportunistic retransmission data which is retransmitted before receiving the ACK/NACK signal for the initial transmission data; when the retransmission data is opportunistic retransmission data, receiving index information of the radio resource in which a maximum power value of the retransmission data is limited and information on the maximum power value of the retransmission data from another base station adjacent to the base station; and transmitting the retransmission data through the radio resource on the basis of the DCI format and the received information, wherein the retransmission data is opportunistic retransmission data.
An electrolyte comprising at least one lithium salt, at least one non-aqueous solvent and a ionic liquid comprising a compound of Formula 1: M 2 S y /M 2 (S m ) y where M is an organic cation, m is an integer from 1 to 16 and y is the integer indicating the stoichiometry necessary to neutralize the positive charge of 2M; wherein the compound of Formula 1: M 2 S y /M 2 (S m ) y contains a molar ratio of sulfide M 2 S y and added elemental sulfur from 1:1.01 to 1:15.
A carbon fiber package (P) in which a slit carbon fiber bundle , which has been split into sub-bundles by partial slitting, is traverse-wound on a bobbin (B2), wherein the slit carbon fiber bundle has been prepared by partially slitting a single-sided coated carbon fiber bundle comprising a flat carbon fiber bundle and a resin film formed on one surface of the flat carbon fiber bundle; characterized in that a width (W) of the slit carbon fiber bundle on the bobbin is less than a sum of widths (Ws) of the sub-bundles. wherein the slit carbon fiber bundle has been prepared by partially slitting a single-sided coated carbon fiber bundle comprising a flat carbon fiber bundle and a resin film formed on one surface of the flat carbon fiber bundle; characterized in that a width (W) of the slit carbon fiber bundle on the bobbin is less than a sum of widths (Ws) of the sub-bundles.
A method for preparing a positive electrode active material comprising: preparing a lithium composite transition metal oxide represented by Formula 1 below, and washing the lithium composite transition metal oxide with a cleaning liquid comprising cleaning water and a surfactant, [Formula 1] Li a [Ni b CO c M 1 d M 2 e ]O 2 , wherein M 1 is one or more selected from the group consisting of Mn and Al, M 2 is one or more selected from the group consisting of Zr, B, W, Mg, Ce, Hf, Ta, La, Ti, Sr, Ba, F, P, and S, 0.9≤a≤1.1, 0.6≤b<1, 0<c≤0.3, 0<d≤0.3, and 0≤e≤0.1; and wherein the cleaning liquid contains the cleaning water in an amount of no less than 50 parts by weight and less than 400 parts by weight based on 100 parts by weight of the lithium composite transition metal oxide. preparing a lithium composite transition metal oxide represented by Formula 1 below, and washing the lithium composite transition metal oxide with a cleaning liquid comprising cleaning water and a surfactant, [Formula 1] Li a [Ni b CO c M 1 d M 2 e ]O 2 , wherein M 1 is one or more selected from the group consisting of Mn and Al, M 2 is one or more selected from the group consisting of Zr, B, W, Mg, Ce, Hf, Ta, La, Ti, Sr, Ba, F, P, and S, 0.9≤a≤1.1, 0.6≤b<1, 0<c≤0.3, 0<d≤0.3, and 0≤e≤0.1; and wherein the cleaning liquid contains the cleaning water in an amount of no less than 50 parts by weight and less than 400 parts by weight based on 100 parts by weight of the lithium composite transition metal oxide. wherein M 1 is one or more selected from the group consisting of Mn and Al, M 2 is one or more selected from the group consisting of Zr, B, W, Mg, Ce, Hf, Ta, La, Ti, Sr, Ba, F, P, and S, 0.9≤a≤1.1, 0.6≤b<1, 0<c≤0.3, 0<d≤0.3, and 0≤e≤0.1; and wherein the cleaning liquid contains the cleaning water in an amount of no less than 50 parts by weight and less than 400 parts by weight based on 100 parts by weight of the lithium composite transition metal oxide.
A food preparation device comprising: - a tunnel cavity having a prep portion ; - a conveyor belt extending through a length of the tunnel cavity ; - a cooking controller operably coupled to the prep portion to selectively distribute power to at least a radio frequency (RF) capacitive heating source and a cold air source in the prep portion ; and - an interface panel , wherein the RF capacitive heating source comprises a ground plate and an anode plate , characterized in that the food preparation device also comprises a cooking portion , wherein the prep portion and the cooking portion are positioned in a linear series in the tunnel cavity , the prep portion comprising a first RF capacitve heating source and the cold air source , the cooking portion comprising a second RF capacitive heating source and a heat source , the cooking controller also being operably coupled to the cooking portion to distribute power to the second RF capacitive heating source and the heat source ; the food preparation device further comprising a proximity sensor to sense a distance between the ground plate and the anode plate . - a tunnel cavity having a prep portion ; - a conveyor belt extending through a length of the tunnel cavity ; - a cooking controller operably coupled to the prep portion to selectively distribute power to at least a radio frequency (RF) capacitive heating source and a cold air source in the prep portion ; and - an interface panel , wherein the RF capacitive heating source comprises a ground plate and an anode plate , characterized in that the food preparation device also comprises a cooking portion , wherein the prep portion and the cooking portion are positioned in a linear series in the tunnel cavity , the prep portion comprising a first RF capacitve heating source and the cold air source , the cooking portion comprising a second RF capacitive heating source and a heat source , the cooking controller also being operably coupled to the cooking portion to distribute power to the second RF capacitive heating source and the heat source ; the food preparation device further comprising a proximity sensor to sense a distance between the ground plate and the anode plate .
An operating interface with the following features: a touch-sensitive display element and at least one sensor which are designed to display information on the display element to a user in order to register a touch of the display element with a touch element by the user and in order to register a presence of the touch element in a detection area , wherein the detection area is adjacent to a side of the display element facing toward the user; and a control circuit which is designed to control the display element in such a way that the latter presents information on the display element facilitating operation of the operating interface if the touch element is located in the detection area during a predefined time period without a touch of the display element having been registered during said time period, wherein the control circuit is designed to control the display element in such a way that the display of the information facilitating the operation comprises a visual highlighting of at least one virtual operating element presented on the display element. a touch-sensitive display element and at least one sensor which are designed to display information on the display element to a user in order to register a touch of the display element with a touch element by the user and in order to register a presence of the touch element in a detection area , wherein the detection area is adjacent to a side of the display element facing toward the user; and a control circuit which is designed to control the display element in such a way that the latter presents information on the display element facilitating operation of the operating interface if the touch element is located in the detection area during a predefined time period without a touch of the display element having been registered during said time period, wherein the control circuit is designed to control the display element in such a way that the display of the information facilitating the operation comprises a visual highlighting of at least one virtual operating element presented on the display element.
A thermally stable electrospun barrier comprising: at least two independent fiber populations; a major fiber component of said barrier comprising at least one thermally unstable fiber population; a minor fiber component of said barrier comprising at least one thermally stable fiber population; wherein the major and minor fiber components of said barrier are co-mingled and distributed throughout the electrospun barrier; wherein each fiber population is not a composite fiber wherein the individual fiber comprises nonstable and stabilizing elements and is dispensed from a spinneret separate from the spinneret of another fiber population; wherein said electrospun barrier does not decrease in size more than 10% at temperatures of 30 °C to 60 °C; wherein the electrospun barrier forms at least a portion of an implantable material; and wherein the electrospun barrier exhibits limited macroscopic changes in physical and mechanical properties when exposed to thermal or mechanical stress. at least two independent fiber populations; a major fiber component of said barrier comprising at least one thermally unstable fiber population; a minor fiber component of said barrier comprising at least one thermally stable fiber population; wherein the major and minor fiber components of said barrier are co-mingled and distributed throughout the electrospun barrier; wherein each fiber population is not a composite fiber wherein the individual fiber comprises nonstable and stabilizing elements and is dispensed from a spinneret separate from the spinneret of another fiber population; wherein said electrospun barrier does not decrease in size more than 10% at temperatures of 30 °C to 60 °C; wherein the electrospun barrier forms at least a portion of an implantable material; and wherein the electrospun barrier exhibits limited macroscopic changes in physical and mechanical properties when exposed to thermal or mechanical stress.