mhurhangee/ep-ind-claims huggingface dataset:
An electronic device comprising: a communicator comprising communication circuitry; and a processor configured to: control the communicator to perform communication with an external device based on identifying that a strength of a signal received from the external device is equal to or greater than a predetermined threshold value, convert the electronic device to a low power mode, characterised in based on identifying, after converting the electronic device to the low power mode, that a strength of a signal received from the external device is within a first range, control the electronic device to perform a secure pairing operation. a communicator comprising communication circuitry; and a processor configured to: control the communicator to perform communication with an external device based on identifying that a strength of a signal received from the external device is equal to or greater than a predetermined threshold value, convert the electronic device to a low power mode, characterised in based on identifying, after converting the electronic device to the low power mode, that a strength of a signal received from the external device is within a first range, control the electronic device to perform a secure pairing operation. control the communicator to perform communication with an external device based on identifying that a strength of a signal received from the external device is equal to or greater than a predetermined threshold value, convert the electronic device to a low power mode, characterised in based on identifying, after converting the electronic device to the low power mode, that a strength of a signal received from the external device is within a first range, control the electronic device to perform a secure pairing operation.
Recombinant human α1-antitiypsin (rhAAT) comprising N-linked glycans, characterized in that: (a) at least 10% of said N-linked glycans are tetra-antennary glycans; and (b) the degree of capping with sialic acid on said N-linked glycans (Z/A) is at least 50%, wherein at least 50% of the total sialylation on said N-linked glycans is α-2,3-sialylation. (a) at least 10% of said N-linked glycans are tetra-antennary glycans; and (b) the degree of capping with sialic acid on said N-linked glycans (Z/A) is at least 50%, wherein at least 50% of the total sialylation on said N-linked glycans is α-2,3-sialylation.
A non-aqueous electrolyte for a lithium ion battery, comprising a non-aqueous organic solvent, a lithium salt, and a spiro compound represented by Structural Formula 1, wherein, X represents an oxygen atom, a carboxylate ester, a sulfite ester, a sulfate ester, a carbonate ester, a substituted or unsubstituted phosphate ester, and a substituted or unsubstituted borate ester; and R 1, R 2, R 3 and R 4 are each independently selected from substituted or unsubstituted C1-C5 hydrocarbylene group. wherein, X represents an oxygen atom, a carboxylate ester, a sulfite ester, a sulfate ester, a carbonate ester, a substituted or unsubstituted phosphate ester, and a substituted or unsubstituted borate ester; and R 1, R 2, R 3 and R 4 are each independently selected from substituted or unsubstituted C1-C5 hydrocarbylene group.
An in vitro method to develop monoclonal antibodies, said method comprising the steps of: (a) enrichment of source material by capturing of specific cells on which surface the antibodies are exposed on the antigen loaded plastic surfaces wherein the capturing includes a capturing media comprising 0.5% w/v BSA and 0.1% w/v NaN3 (b) amplification of VH and VL coding cDNAs; (c) construction of combinatorial VH-VL library mammalian expression plasmid DNA format; and (d) identification of the proper specific antigen binding VH-VL combinations after antibody expression in mammalian cells. (a) enrichment of source material by capturing of specific cells on which surface the antibodies are exposed on the antigen loaded plastic surfaces wherein the capturing includes a capturing media comprising 0.5% w/v BSA and 0.1% w/v NaN3 (b) amplification of VH and VL coding cDNAs; (c) construction of combinatorial VH-VL library mammalian expression plasmid DNA format; and (d) identification of the proper specific antigen binding VH-VL combinations after antibody expression in mammalian cells.
Starting element for the transmission of a torque from a drive-side rotational input of the starting element to an output hub, comprising: a hydrodynamic torque converter with a converter cover which is connected via a flexible plate to a drive unit, a turbine wheel which is coupled to the output hub fixedly so as to rotate with it, comprising a turbine shell with turbine blades which are arranged therein, a maximum extent of the turbine shell counter to an axial direction which runs from the flexible plate in the direction of the turbine shell ending at a first axial position; a pump impeller which lies opposite the turbine wheel in the axial direction; and a stator which is arranged between the turbine wheel and the pump impeller and is coupled via a stator flange to a freewheel which adjoins the output hub in an axial direction, a centre of the freewheel, which centre is fixed by way of a centre point of an axial extent of the freewheel, being situated at a second axial position; characterized in that a difference between the first axial position and the second axial position is greater than 0 mm, with the result that the first axial position lies in the axial direction with regard to the flexible plate as a reference point behind the second axial position.
A method of adapting antenna pilot transmission power of an antenna provided in a multiple input multiple output (MIMO) wireless communication network; said pilot transmittable at all times comprising: a common pilot having a first transmission power; a scheduled pilot transmittable when said antenna is transmitting user data, said scheduled pilot having a second transmission power; said method comprising: determining whether said antenna is transmitting user data; and when said antenna is transmitting user data adapting a power of said common pilot signal in dependence upon whether said scheduled pilot signal is transmitted by said antenna. a common pilot having a first transmission power; a scheduled pilot transmittable when said antenna is transmitting user data, said scheduled pilot having a second transmission power; said method comprising: determining whether said antenna is transmitting user data; and when said antenna is transmitting user data adapting a power of said common pilot signal in dependence upon whether said scheduled pilot signal is transmitted by said antenna. determining whether said antenna is transmitting user data; and when said antenna is transmitting user data adapting a power of said common pilot signal in dependence upon whether said scheduled pilot signal is transmitted by said antenna.
Installation arrangement with a barge and a jack-up rig which floats in a first position on the sea and has a hull which is slotted vertically with respect to the surface of the sea and has a slot width which is greater than a width (B B) of the barge so that the barge can move into a slot, wherein the jack-up rig has supporting legs (9a, 9b, 9c, 9d) which can move to and fro along a height relative to the hull and can be set down on the seabed, and the hull can be lifted, together with the barge which has moved in, out of the water into a raised position by means of a lifting mechanism along the support legs (9a, 9b, 9c, 9d) which have been set down on the seabed, characterised in that the slot extends along the entire longitudinal extent of the barge which has moved in, over the entire height of the hull, and that securing means (13a, 13b) are arranged on the barge and on the slot and said securing means interact and secure the barge in the raised position in a fixed position on the jack-up rig.
A spark plug having an insulator containing an Al component, in terms of oxides, 89 mass% or more and a Ti component, in terms of oxides, more than 0 mass% and 0.2 mass% or less, wherein the insulator is formed of an alumina-based sintered material which contains, in a grain boundary phase present between alumina crystal grains, a first crystal phase containing at least one species selected from among an La component, an Nd component, a Pr component, a Y component, an Er component, a Yb component, and an Lu component, and a second crystal phase containing at least one species of Group 2 element components, the Group included in the periodic table defined by Recommendations 1990, IUPAC, an Al component, and an Si component.
A distance sensing method comprising: the following steps obtaining a number of pulses that corresponds to a motor of a warning device turning one revolution, wherein the warning device further comprises a camera and at least one wheel (3a, 3b); calculating a moving distance achieved by each pulse according to the number of pulses and an outer circumference of the at least one wheel (3a, 3b); counting a total number of pulses that the warning device receives from start to finish of an actual movement; and calculating a first moving distance of the warning device according to the total number of pulses and the moving distance corresponding to each pulse; wherein the distance sensing method further comprises: obtaining a first image of a predetermined object (200, 201) that the camera of the warning device captures at a start location; obtaining a second image of the predetermined object (200, 201) that the camera of the warning device captures at an end location; and adjusting the first moving distance of the warning device according to the first image and the second image. obtaining a number of pulses that corresponds to a motor of a warning device turning one revolution, wherein the warning device further comprises a camera and at least one wheel (3a, 3b); calculating a moving distance achieved by each pulse according to the number of pulses and an outer circumference of the at least one wheel (3a, 3b); counting a total number of pulses that the warning device receives from start to finish of an actual movement; and calculating a first moving distance of the warning device according to the total number of pulses and the moving distance corresponding to each pulse; wherein the distance sensing method further comprises: obtaining a first image of a predetermined object (200, 201) that the camera of the warning device captures at a start location; obtaining a second image of the predetermined object (200, 201) that the camera of the warning device captures at an end location; and adjusting the first moving distance of the warning device according to the first image and the second image. obtaining a first image of a predetermined object (200, 201) that the camera of the warning device captures at a start location; obtaining a second image of the predetermined object (200, 201) that the camera of the warning device captures at an end location; and adjusting the first moving distance of the warning device according to the first image and the second image.
A crosslinked polymer composition comprising a crosslinked polyolefin, wherein the polyolefin is an unsaturated LDPE copolymer of ethylene with one or more polyunsaturated comonomer(s) and optionally with one or more other comonomer(s), wherein the crosslinked polymer composition has an electrical conductivity of 45 fS/m or less, when measured according to DC conductivity method as described under "Determination Methods".
A method of processing a rolled aluminum alloy product in an F temper, comprising: solutionizing a rolled aluminum alloy product in an F temper at a solutionizing temperature of at least 400 °C; deforming the rolled aluminum alloy product at a temperature of from 125 °C to 500 °C and quenching the rolled aluminum alloy product to produce a W temper rolled aluminum alloy product, wherein quenching the rolled aluminum alloy product is performed after deforming the rolled aluminum alloy product; naturally aging the W temper rolled aluminum alloy product comprising aging the W temper rolled aluminum alloy product at room temperature for 1 day up to 12 months to produce an intermediate aged rolled aluminum alloy product; and artificially aging the intermediate aged rolled aluminum alloy product for a period of time up to 8 hours, wherein artificially aging the intermediate aged rolled aluminum alloy product comprises a multiple-step aging procedure, wherein the multiple-step aging procedure comprises at least a first aging step and at least a second aging step, wherein the first aging step includes heating the intermediate aged rolled aluminum alloy product to a first aging temperature and maintaining the intermediate aged rolled aluminum alloy product at the first aging temperature for 30 min to 2 hours, and following the first aging step, the temperature of the intermediate aged rolled aluminum alloy product is increased to a second aging temperature and maintained at the second aging temperature for 30 min to 7.5 hours. solutionizing a rolled aluminum alloy product in an F temper at a solutionizing temperature of at least 400 °C; deforming the rolled aluminum alloy product at a temperature of from 125 °C to 500 °C and quenching the rolled aluminum alloy product to produce a W temper rolled aluminum alloy product, wherein quenching the rolled aluminum alloy product is performed after deforming the rolled aluminum alloy product; naturally aging the W temper rolled aluminum alloy product comprising aging the W temper rolled aluminum alloy product at room temperature for 1 day up to 12 months to produce an intermediate aged rolled aluminum alloy product; and artificially aging the intermediate aged rolled aluminum alloy product for a period of time up to 8 hours, wherein artificially aging the intermediate aged rolled aluminum alloy product comprises a multiple-step aging procedure, wherein the multiple-step aging procedure comprises at least a first aging step and at least a second aging step, wherein the first aging step includes heating the intermediate aged rolled aluminum alloy product to a first aging temperature and maintaining the intermediate aged rolled aluminum alloy product at the first aging temperature for 30 min to 2 hours, and following the first aging step, the temperature of the intermediate aged rolled aluminum alloy product is increased to a second aging temperature and maintained at the second aging temperature for 30 min to 7.5 hours.
A device, comprising: a conduit suitable for being utilized for vacuum flow; and a valve assembly fluidly coupled with the conduit, comprising: a valve body (52, 152) defining an opening (54, 154), a valve member (56, 156) movable with respect to the valve body (52, 152), and a shape memory member (58, 158) characterized in that an obstruction element is positioned within the opening (54, 154) such that the shape memory member (58, 108, 158) is prevented from closing the valve opening (54, 154) upon the shape memory member reaching a transition temperature, wherein the shape memory member is configured to operate to actuate the valve member (56, 156) to close the opening upon the obstruction element being removed and the shape memory member (58, 158) reaching the transition temperature, rendering the device non-functional for further use. a conduit suitable for being utilized for vacuum flow; and a valve assembly fluidly coupled with the conduit, comprising: a valve body (52, 152) defining an opening (54, 154), a valve member (56, 156) movable with respect to the valve body (52, 152), and a shape memory member (58, 158) characterized in that an obstruction element is positioned within the opening (54, 154) such that the shape memory member (58, 108, 158) is prevented from closing the valve opening (54, 154) upon the shape memory member reaching a transition temperature, wherein the shape memory member is configured to operate to actuate the valve member (56, 156) to close the opening upon the obstruction element being removed and the shape memory member (58, 158) reaching the transition temperature, rendering the device non-functional for further use. a valve body (52, 152) defining an opening (54, 154), a valve member (56, 156) movable with respect to the valve body (52, 152), and a shape memory member (58, 158) characterized in that an obstruction element is positioned within the opening (54, 154) such that the shape memory member (58, 108, 158) is prevented from closing the valve opening (54, 154) upon the shape memory member reaching a transition temperature, wherein the shape memory member is configured to operate to actuate the valve member (56, 156) to close the opening upon the obstruction element being removed and the shape memory member (58, 158) reaching the transition temperature, rendering the device non-functional for further use.
An apparatus for fast and homogeneously heating a liquid product to a heating temperature by means of resistive heating, the apparatus comprising at least two vertically mounted, longitudinal, heating chambers (10, 20, 30) that are arranged in series in a vertical arrangement, each chamber having a lower end and an upper end and an inlet (11, 21, 31) for liquid at one end and an outlet (12, 22, 32) for liquid at the other end, wherein each heating chamber (10, 20, 30) defines a longitudinal flow path for liquid between its inlet (11, 21, 31) and its outlet (12, 22, 32) and the arrangement of the at least two heating chambers (10, 20, 30) in series defines a vertical liquid flow path through the at least two heating chambers (10, 20, 30), wherein each heating chamber is provided with a first electrode (13, 23, 33) at its lower end and a second electrode (14, 24, 34) at its upper end and the first (13, 23, 33) and second electrode (14, 24, 34) of each chamber (10, 20, 30) are separated by an electrical insulator (15, 25, 35), and the second electrode (14, 24) of a preceding chamber (10, 20) is the first electrode (23, 33) of the next chamber (20, 30) in series and together form a connecting electrode (36, 37), wherein the electrodes are arranged such that liquid flowing through the vertical liquid flow path through the at least two heating chambers (10, 20, 30) during normal operation of the apparatus, is in contact with the first (13, 23, 33) and with the second (14, 24, 34) electrode of each heating chamber (10, 20, 30), wherein the first electrode of the lowest heating chamber of the vertical arrangement and the second electrode of the upper heating chamber of the vertical arrangement are electrically grounded, characterized in that each connecting electrode (36, 37) is electrically connected to a direct current power source to apply an electrical charge to each connecting electrode (36, 37), wherein the connection to the DC power source is in such configuration that the polarity of the electrical charge of each connecting electrode (36, 37) is, in use, continuously reversed at a frequency of at least 500 Hz and the electrical charge of adjacent connecting electrodes is opposite.
A method of reducing bias in multicast replication, the method comprising: receiving a packet (packet 1, packet 2, packet 3) at a network device; determining a multicast group from the packet; obtaining at least two or more destinations corresponding to the multicast group; replicating the packet for the at least two or more destinations; and forwarding the replicated packet to the at least two or more destinations in a randomized sequence, wherein the at least two or more destinations are one or more egress ports of the network device, wherein obtaining the at least two or more destinations comprises indexing a multicast group number that identifies the multicast group into a lookup table to obtain a port bitmap that corresponds to the multicast group, wherein the port bitmap is a listing of ports of the network device belonging to the multicast group, and wherein forwarding the replicated packet to the at least two or more destinations in a randomized sequence comprises: randomly selecting an initial destination in the port bitmap, wherein the port bitmap is a circularized bit vector; and forwarding the replicated packet to according to the port bitmap, starting at the initial destination until the replicated packet has been forwarded to each port in the port bitmap. receiving a packet (packet 1, packet 2, packet 3) at a network device; determining a multicast group from the packet; obtaining at least two or more destinations corresponding to the multicast group; replicating the packet for the at least two or more destinations; and forwarding the replicated packet to the at least two or more destinations in a randomized sequence, wherein the at least two or more destinations are one or more egress ports of the network device, wherein obtaining the at least two or more destinations comprises indexing a multicast group number that identifies the multicast group into a lookup table to obtain a port bitmap that corresponds to the multicast group, wherein the port bitmap is a listing of ports of the network device belonging to the multicast group, and wherein forwarding the replicated packet to the at least two or more destinations in a randomized sequence comprises: randomly selecting an initial destination in the port bitmap, wherein the port bitmap is a circularized bit vector; and forwarding the replicated packet to according to the port bitmap, starting at the initial destination until the replicated packet has been forwarded to each port in the port bitmap. randomly selecting an initial destination in the port bitmap, wherein the port bitmap is a circularized bit vector; and forwarding the replicated packet to according to the port bitmap, starting at the initial destination until the replicated packet has been forwarded to each port in the port bitmap.
A method for producing a biodegradable and bioabsorbable polymer having a metal catalyst content of less than 1 ppm in terms of a metal comprising the steps of: copolymerizing lactide and ε-caprolactone at a molar ratio ranging from 40/60 to 60/40 in the presence of the metal catalyst to produce a copolymer; and washing the copolymer with a mixed solvent comprising acetic acid and isopropanol at a volume ratio ranging from 25/75 to 45/55 at less than 40°C, and drying the copolymer. copolymerizing lactide and ε-caprolactone at a molar ratio ranging from 40/60 to 60/40 in the presence of the metal catalyst to produce a copolymer; and washing the copolymer with a mixed solvent comprising acetic acid and isopropanol at a volume ratio ranging from 25/75 to 45/55 at less than 40°C, and drying the copolymer.