mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving, by a user equipment from a serving base station associated with a source cell, a reconfiguration message that includes a target cell configuration for a target cell, a configuration of a conditional handover execution condition, and information that indicates that the user equipment should immediately decode and process the target cell configuration upon receiving the reconfiguration message; immediately decoding and processing, by the user equipment, the target cell configuration upon receiving the reconfiguration message, without waiting for the conditional handover execution condition to be fulfilled; detecting, by the user equipment, fulfillment of the conditional handover execution condition with respect to the target cell; and performing, by the user equipment, synchronization and a random access procedure with respect to the target cell, in response to detecting the fulfillment of the conditional handover execution condition. receiving, by a user equipment from a serving base station associated with a source cell, a reconfiguration message that includes a target cell configuration for a target cell, a configuration of a conditional handover execution condition, and information that indicates that the user equipment should immediately decode and process the target cell configuration upon receiving the reconfiguration message; immediately decoding and processing, by the user equipment, the target cell configuration upon receiving the reconfiguration message, without waiting for the conditional handover execution condition to be fulfilled; detecting, by the user equipment, fulfillment of the conditional handover execution condition with respect to the target cell; and performing, by the user equipment, synchronization and a random access procedure with respect to the target cell, in response to detecting the fulfillment of the conditional handover execution condition.
A method for protecting and de-identifying healthcare data, the method comprising the steps of: using a keyed hash function to convert a portion of personally identifiable information into a first output of fixed length; using a second hash function to convert the first output into an anonymous linking code of fixed length; appending the anonymous linking code to the healthcare data; and removing personally identifiable information from the healthcare data. using a keyed hash function to convert a portion of personally identifiable information into a first output of fixed length; using a second hash function to convert the first output into an anonymous linking code of fixed length; appending the anonymous linking code to the healthcare data; and removing personally identifiable information from the healthcare data.
A mobile wireless communications device comprising: a portable housing; a display carried by the portable housing; a plurality of antennas (34a', 34b') carried by said portable housing; a respective capacitive proximity sensor (35a', 35b') corresponding to each of said plurality of antennas, carried by said portable housing, and configured to sense proximity of a human user immediately adjacent thereto, at least one of said respective capacitive proximity sensors being on said display; a wireless transmitter carried by said portable housing and coupled to said plurality of antennas; and a controller carried by said portable housing and coupled to said wireless transmitter, said display, and said respective capacitive proximity sensors, and configured to cooperate with said wireless transmitter to adjust transmitted power output at each of said plurality of antennas to a reduced power level based upon sensing the human user immediately adjacent the respective capacitive proximity sensor. a portable housing; a display carried by the portable housing; a plurality of antennas (34a', 34b') carried by said portable housing; a respective capacitive proximity sensor (35a', 35b') corresponding to each of said plurality of antennas, carried by said portable housing, and configured to sense proximity of a human user immediately adjacent thereto, at least one of said respective capacitive proximity sensors being on said display; a wireless transmitter carried by said portable housing and coupled to said plurality of antennas; and a controller carried by said portable housing and coupled to said wireless transmitter, said display, and said respective capacitive proximity sensors, and configured to cooperate with said wireless transmitter to adjust transmitted power output at each of said plurality of antennas to a reduced power level based upon sensing the human user immediately adjacent the respective capacitive proximity sensor.
A heat exchanger comprising: a refrigerant tube through which a refrigerant flows; a heat-exchange fin into which the refrigerant tube is inserted; a plurality of tube treatment parts (130, 135, 138) disposed on a surface of the refrigerant tube and formed by processing the surface of the refrigerant tube; and a plurality of fin treatment parts (140, 145, 148) disposed on a surface of the heat-exchange fin, characterised in that the plurality of fin treatment parts comprises: a first fin treatment part disposed on a surface of the heat-exchange fin, the first fin treatment part being formed by processing a surface of the heat exchange fin and comprising a fine unevenness having a size in micrometer (μm) unit; a second fin treatment part disposed on a surface of the first fin treatment part, the second fin treatment part being formed by processing a surface of the first fin treatment part and comprising a metal layer having a size formed in a nanometer (nm) unit; and a third fin treatment part, disposed on a surface of the second fin treatment part, the third fin treatment part being formed by processing the surface of the second fin treatment part and comprising a hydrophobic high-molecular layer. a refrigerant tube through which a refrigerant flows; a heat-exchange fin into which the refrigerant tube is inserted; a plurality of tube treatment parts (130, 135, 138) disposed on a surface of the refrigerant tube and formed by processing the surface of the refrigerant tube; and a plurality of fin treatment parts (140, 145, 148) disposed on a surface of the heat-exchange fin, characterised in that the plurality of fin treatment parts comprises: a first fin treatment part disposed on a surface of the heat-exchange fin, the first fin treatment part being formed by processing a surface of the heat exchange fin and comprising a fine unevenness having a size in micrometer (μm) unit; a second fin treatment part disposed on a surface of the first fin treatment part, the second fin treatment part being formed by processing a surface of the first fin treatment part and comprising a metal layer having a size formed in a nanometer (nm) unit; and a third fin treatment part, disposed on a surface of the second fin treatment part, the third fin treatment part being formed by processing the surface of the second fin treatment part and comprising a hydrophobic high-molecular layer. a first fin treatment part disposed on a surface of the heat-exchange fin, the first fin treatment part being formed by processing a surface of the heat exchange fin and comprising a fine unevenness having a size in micrometer (μm) unit; a second fin treatment part disposed on a surface of the first fin treatment part, the second fin treatment part being formed by processing a surface of the first fin treatment part and comprising a metal layer having a size formed in a nanometer (nm) unit; and a third fin treatment part, disposed on a surface of the second fin treatment part, the third fin treatment part being formed by processing the surface of the second fin treatment part and comprising a hydrophobic high-molecular layer.
An anti-KIR antibody and an anti-PD-1 antibody for use in treating cancer, wherein the anti-KIR antibody binds to KIR2DL1, KIR2DL2 and/or KIR2DL3 receptors and potentiates NK cell activity by reducing, neutralizing and/or reversing inhibition of NK cell cytotoxicity mediated by KIR2DL1, KIR2DL2 and/or KIR2DL3 receptors, and wherein the anti-PD-1 antibody blocks the inhibitory activity of PD-1. wherein the anti-KIR antibody binds to KIR2DL1, KIR2DL2 and/or KIR2DL3 receptors and potentiates NK cell activity by reducing, neutralizing and/or reversing inhibition of NK cell cytotoxicity mediated by KIR2DL1, KIR2DL2 and/or KIR2DL3 receptors, and wherein the anti-PD-1 antibody blocks the inhibitory activity of PD-1.
A process comprising: transferring, by positive displacement with a positive displacement pump, discrete flow segments from the liquid-enriched exit flow port of a gas-liquid separator (150, 280) between an inlet and an outlet such that said flow segments are not in simultaneous communication at both the inlet and the outlet; and transferring said flow segments at a rate typically unaffected by the presence of positive or negative pressure gradients between said inlet and outlet, thereby providing deterministic drainage rates from said gas-liquid separator (150, 280). transferring, by positive displacement with a positive displacement pump, discrete flow segments from the liquid-enriched exit flow port of a gas-liquid separator (150, 280) between an inlet and an outlet such that said flow segments are not in simultaneous communication at both the inlet and the outlet; and transferring said flow segments at a rate typically unaffected by the presence of positive or negative pressure gradients between said inlet and outlet, thereby providing deterministic drainage rates from said gas-liquid separator (150, 280).
A method of forming an MRAM device, comprising: forming a first insulating layer over a substrate (8, 10, 11) and over at least two parallel spaced sacrificial regions formed over said substrate, wherein the first insulating layer comprises insulating parallel sidewalls formed on vertical sides of said at least two spaced sacrificial regions and a bottom insulating layer extending between said insulating sidewalls; removing said at least two sacrificial regions and the portion of said first insulating layer formed thereover to leave freestanding insulating sidewalls over the substrate to define a protective region bounded by said sidewalls, wherein said freestanding insulating sidewalls are interconnected along their length by the bottom insulating layer between said freestanding insulating sidewalls, said freestanding insulating sidewalls and said bottom insulating layer each formed of said first insulating layer, said sidewalls being formed above the uppermost level of said substrate; forming a first magnetic layer (M1, 22) within said sidewalls and said protective region; and forming a second magnetic layer (M2, 30) over a region of said first magnetic layer. forming a first insulating layer over a substrate (8, 10, 11) and over at least two parallel spaced sacrificial regions formed over said substrate, wherein the first insulating layer comprises insulating parallel sidewalls formed on vertical sides of said at least two spaced sacrificial regions and a bottom insulating layer extending between said insulating sidewalls; removing said at least two sacrificial regions and the portion of said first insulating layer formed thereover to leave freestanding insulating sidewalls over the substrate to define a protective region bounded by said sidewalls, wherein said freestanding insulating sidewalls are interconnected along their length by the bottom insulating layer between said freestanding insulating sidewalls, said freestanding insulating sidewalls and said bottom insulating layer each formed of said first insulating layer, said sidewalls being formed above the uppermost level of said substrate; forming a first magnetic layer (M1, 22) within said sidewalls and said protective region; and forming a second magnetic layer (M2, 30) over a region of said first magnetic layer.
Pair of capsules assembled together and respectively comprising two different phases to be mixed in order to obtain a personalised cosmetic product, comprising: two pouches (11, 21) respectively containing the two different phases and respectively included in the two capsules (1, 2) and interconnected by a communication channel comprising at least one portion of narrow cross-section relative to the two pouches (11, 21), this portion of narrow cross-section of the communication channel comprising two right-angle bends (13, 33 and 23, 33), ➢ the first right-angle bend (13, 33) being formed by a segment of the communication channel and a male connector fitting into a female connector, ➢ the second right-angle bend (23, 33) being formed by the male connector fitting into the female connector and a segment of the communication channel. ➢ the first right-angle bend (13, 33) being formed by a segment of the communication channel and a male connector fitting into a female connector, ➢ the second right-angle bend (23, 33) being formed by the male connector fitting into the female connector and a segment of the communication channel.
An affinity support comprising a support, a plurality of spacers each directly bound at a binding position to the support via a covalent bond, and a plurality of affinity substances that trap to an objective to be trapped, each bound directly to one of the spacers via a covalent bond, characterized in that the plurality of affinity substances are immunoglobulins, immunoglobulin F(ab') fragments, or immunoglobulin F(ab) fragments, the objective to be trapped by the plurality of affinity substances is a multimer comprising a plurality of affinity site, and the affinity support traps the objective to be trapped by cooperative binding, characterized in that the length of each spacer is 1 to 20 nm and the interval between the binding position of any spacer on the support and the binding position of the nearest other spacer is 1 to 1000 angstrom (Å).
A combination therapy pad comprising: a first layer; a second layer operatively coupled to the first layer; a fiber-optic array disposed between the first layer and the second layer; a third layer operatively coupled to the first layer, the third layer having a vacuum tube in fluid communication with a vacuum source and an oxygen tube in fluid communication with an oxygen source; and wherein the third layer provides at least one of vacuum therapy and oxygen treatment to a wound area; and characterized in that: the first layer comprises a first central gap; the second layer comprises a second central gap substantially aligned with the first central gap; and at least a portion of the fiber-optic array is disposed in the first central gap and the second central gap. a first layer; a second layer operatively coupled to the first layer; a fiber-optic array disposed between the first layer and the second layer; a third layer operatively coupled to the first layer, the third layer having a vacuum tube in fluid communication with a vacuum source and an oxygen tube in fluid communication with an oxygen source; and wherein the third layer provides at least one of vacuum therapy and oxygen treatment to a wound area; and characterized in that: the first layer comprises a first central gap; the second layer comprises a second central gap substantially aligned with the first central gap; and at least a portion of the fiber-optic array is disposed in the first central gap and the second central gap. the first layer comprises a first central gap; the second layer comprises a second central gap substantially aligned with the first central gap; and at least a portion of the fiber-optic array is disposed in the first central gap and the second central gap.
A method for treating freshly harvested olives to substantially retain the quality of oil contained therewithin for enabling production of high quality olive oil from said treated olives at a prolonged time after harvest, the method comprising: washing the freshly harvested olives in a washing liquid; heating the olives to a temperature in the range of 40 to 80°C to achieve enzymatic inactivation; rapidly cooling the heated olives to a temperature in the range of 0 to -10°C; removing excess liquid from skin of olives; vacuum packaging a predetermined quantity of olives; and storing the packed olives at a refrigerating temperature. washing the freshly harvested olives in a washing liquid; heating the olives to a temperature in the range of 40 to 80°C to achieve enzymatic inactivation; rapidly cooling the heated olives to a temperature in the range of 0 to -10°C; removing excess liquid from skin of olives; vacuum packaging a predetermined quantity of olives; and storing the packed olives at a refrigerating temperature.
A transmitter (12, 70) for wirelessly controlling a plurality of different remote electronic systems, comprising: a memory within a vehicle configured to store a plurality of different control data messages, each control data message configured to control a different remote electronic system; a transmitter circuit (54, 76) mounted within the vehicle; and a control circuit (30, 72) mounted within the vehicle and configured to command the transmitter circuit (54, 76) to transmit a plurality of different wireless control signals in response to a single event, each wireless control signal of the plurality of different wireless control signals containing a different control data message, characterized in that: the control circuit (30, 72) is configured to: receive navigation data from a navigation source (48, 50, 52) of the vehicle, and to determine a proximity between the transmitter (12, 70) and the plurality of different remote electronic systems, wherein the single event comprises the control circuit (30, 72) determining that the transmitter (12, 70) is within a predetermined proximity of the plurality of different remote electronic systems based on the received navigation data. a memory within a vehicle configured to store a plurality of different control data messages, each control data message configured to control a different remote electronic system; a transmitter circuit (54, 76) mounted within the vehicle; and a control circuit (30, 72) mounted within the vehicle and configured to command the transmitter circuit (54, 76) to transmit a plurality of different wireless control signals in response to a single event, each wireless control signal of the plurality of different wireless control signals containing a different control data message, characterized in that: the control circuit (30, 72) is configured to: receive navigation data from a navigation source (48, 50, 52) of the vehicle, and to determine a proximity between the transmitter (12, 70) and the plurality of different remote electronic systems, wherein the single event comprises the control circuit (30, 72) determining that the transmitter (12, 70) is within a predetermined proximity of the plurality of different remote electronic systems based on the received navigation data. the control circuit (30, 72) is configured to: receive navigation data from a navigation source (48, 50, 52) of the vehicle, and to determine a proximity between the transmitter (12, 70) and the plurality of different remote electronic systems, wherein the single event comprises the control circuit (30, 72) determining that the transmitter (12, 70) is within a predetermined proximity of the plurality of different remote electronic systems based on the received navigation data. receive navigation data from a navigation source (48, 50, 52) of the vehicle, and to determine a proximity between the transmitter (12, 70) and the plurality of different remote electronic systems, wherein the single event comprises the control circuit (30, 72) determining that the transmitter (12, 70) is within a predetermined proximity of the plurality of different remote electronic systems based on the received navigation data.
A polyethylene resin composition comprising: 60 wt% to 90 wt% of an ethylene homopolymer having a melt index of 700 g/10 minutes to 1500 g/10 minutes, as measured at 190°C under a load of 2.16 kg; and 10 wt% to 40 wt% of ethylene or an α-olefin copolymer having 3 to 20 carbon atoms, the polyethylene resin composition having a melt index in the range of 0.6 g to 2.0 g/10 minutes, as measured at 190°C under a load of 2.16 kg, environmental stress crack resistance (ESCR) of 1,000 hours or more, a spiral flow length of 70 cm or greater, and a flexural modulus of 9,000 kgf/cm2 or greater, wherein a ratio (C/D) of a melt index of the polyethylene resin composition, as measured at 190°C under a load of 21.6 kg, to a melt index of the polyethylene resin composition, as measured at 190°C under a load of 2.16 kg, is in the range of 120 to 200. 60 wt% to 90 wt% of an ethylene homopolymer having a melt index of 700 g/10 minutes to 1500 g/10 minutes, as measured at 190°C under a load of 2.16 kg; and 10 wt% to 40 wt% of ethylene or an α-olefin copolymer having 3 to 20 carbon atoms, the polyethylene resin composition having a melt index in the range of 0.6 g to 2.0 g/10 minutes, as measured at 190°C under a load of 2.16 kg, environmental stress crack resistance (ESCR) of 1,000 hours or more, a spiral flow length of 70 cm or greater, and a flexural modulus of 9,000 kgf/cm2 or greater, wherein a ratio (C/D) of a melt index of the polyethylene resin composition, as measured at 190°C under a load of 21.6 kg, to a melt index of the polyethylene resin composition, as measured at 190°C under a load of 2.16 kg, is in the range of 120 to 200.
Remote control for generating output signals apt for controlling electronic devices (2,22,32;40,50,70), wherein said remote control includes a sound transducer, a speech recognition unit for recognizing voice commands (5,25), and a control signal generating and receiving unit for generating control signals corresponding to said voice commands (5,25), for controlling said electronic devices (2,22,32;40,50,70). wherein said remote control further includes a memory for storing information (7,27,37) relative to available multimedia content (8,28,38) of said electronic devices (2,22,32;40,50,70), wherein the information (7,27,37) relative to the available multimedia content (8,28,38) enables the remote control to access the available content (8,28,38) depending on the received voice command (5, 25) and to call up the available multimedia content (8,28,38) by generating the control signal, wherein said remote control comprises a receiving unit for retrieving information (7,27,37) relative to said available multimedia content (8,28,38) from said electronic devices (2,22,32;40,50,70) for storing in said memory, and wherein said remote control periodically and automatically connects to said electronic devices (2,22,32,40,50,70) and downloads and updates the information (7,27,37) relative to said available multimedia content (8,28,38) in said memory, wherein said remote control, as a consequence of a certain voice command (5,25), locates in its memory where the available multimedia content (8,28,38) relative to said certain voice command (5,25) is stored in said electronic devices (2,22,32;40,50,70) and displays on a display unit of said remote control and/or on the display means of said one or more electronic devices (2,22,32;40,50,70) which contents are available for subsequent selection relative to said certain command (5,25), said electronic devices (2,22,32;40,50,70) comprise at least a first and a second electronic device (2,22,32;40,50,70) of different types, such as television sets, audio systems, set-top-boxes, blue-ray disk readers, and the available multimedia content (8,28,38) corresponds to said different types of electronic devices (2,22,32;40,50,70), wherein said receiving unit retrieves information (7,27,37) relative to said available multimedia content (8,28,38) both from an EPG of said first electronic device (2,22,32;40,50,70) and from said available multimedia content (8,28,38) stored in an internal memory of said second electronic device (2,22,32;40,50,70).