mhurhangee/ep-ind-claims huggingface dataset:
The use of a solder alloy in a fitting type connection terminal, wherein the fitting type connection terminal comprises an electronic component; the electronic component comprises a metal substrate obtained by Ni-plating a surface of a metal substrate and a plating film that is formed of the solder alloy in a joint area of the metal substrate; the solder alloy is a solder alloy for plating for an electric contact that establishes electric continuity by mechanical joining, the solder alloy comprising Sn and Ni, wherein a Ni content is not less than 0.40 wt% and not greater than 0.6 wt%, and a balance is Sn.
A method performed by a mobile device comprising: - one of producing and obtaining at least one set of fingerprint information, wherein the at least one set of fingerprint information comprises identification information for identifying at least one of a radio node (3-1, 3-2, 3-3) and a cell as observed by a device at at least one position of the device; - performing at least one check at least with the at least one set of fingerprint information to determine if the at last one set of fingerprint information contains at least one error, wherein a check of the at least one check comprises checking if a change of second-type identification information of one of a radio node (3-1, 3-2, 3-3) and a cell that has identical first-type identification information in a plurality of sets of fingerprint information including the at least one set of fingerprint information occurs within this plurality of sets of fingerprint information, such a change being considered as an error; wherein the first-type identification information is one of a system-wide identification information and a local identification information, and wherein the second-type identification information is the other one of the system- wide identification information and the local identification information and - controlling a process for at least one of collecting and providing fingerprint information based at least on a result of the at least one check. - one of producing and obtaining at least one set of fingerprint information, wherein the at least one set of fingerprint information comprises identification information for identifying at least one of a radio node (3-1, 3-2, 3-3) and a cell as observed by a device at at least one position of the device; - performing at least one check at least with the at least one set of fingerprint information to determine if the at last one set of fingerprint information contains at least one error, wherein a check of the at least one check comprises checking if a change of second-type identification information of one of a radio node (3-1, 3-2, 3-3) and a cell that has identical first-type identification information in a plurality of sets of fingerprint information including the at least one set of fingerprint information occurs within this plurality of sets of fingerprint information, such a change being considered as an error; wherein the first-type identification information is one of a system-wide identification information and a local identification information, and wherein the second-type identification information is the other one of the system- wide identification information and the local identification information and - controlling a process for at least one of collecting and providing fingerprint information based at least on a result of the at least one check.
A delivery system for an implantable vaso-occluding device, comprising: an advancing member having a distal end and an opposite proximal end, the distal end defining a distal surface; a non-planar heating chamber disposed proximate to the distal surface of the advancing member; said delivery system being characterized in that said non-planar heating chamber has an interior surface facing away from the distal surface of the advancing member and an opposite exterior surface facing the distal surface of the advancing member; said delivery system being further characterized in that it comprises a detachment fiber made from a polymeric material and having a closed distal end protruding from the interior surface of the non-planar heating chamber; and at least one heating element disposed on the interior surface of the non-planar heating chamber; the at least one heating element producing heat sufficient to sever the detachment fiber. an advancing member having a distal end and an opposite proximal end, the distal end defining a distal surface; a non-planar heating chamber disposed proximate to the distal surface of the advancing member; said delivery system being characterized in that said non-planar heating chamber has an interior surface facing away from the distal surface of the advancing member and an opposite exterior surface facing the distal surface of the advancing member; said delivery system being further characterized in that it comprises a detachment fiber made from a polymeric material and having a closed distal end protruding from the interior surface of the non-planar heating chamber; and at least one heating element disposed on the interior surface of the non-planar heating chamber; the at least one heating element producing heat sufficient to sever the detachment fiber.
A subscriber station, SS, for use in a communication system, the SS comprising: a receiver for receiving, from a base station, BS, a transmission request message for channel quality information, CQI, of an allocation region desired to be received by the BS from among the plurality of allocation regions, wherein the transmission request message includes information on a request for reporting, by the SS, a Carrier-to-Interference and Noise Ratio, CINR, measurement corresponding to the allocation region having a frequency reuse factor K, which is designated to the SS by the BS; a channel quality measurer for measuring channel quality for the allocation region corresponding to the frequency reuse factor K, when the transmission request message is detected; and a CQI generation/transmission unit for transmitting CQI corresponding to the measured channel quality for the allocation region to the BS. a receiver for receiving, from a base station, BS, a transmission request message for channel quality information, CQI, of an allocation region desired to be received by the BS from among the plurality of allocation regions, wherein the transmission request message includes information on a request for reporting, by the SS, a Carrier-to-Interference and Noise Ratio, CINR, measurement corresponding to the allocation region having a frequency reuse factor K, which is designated to the SS by the BS; a channel quality measurer for measuring channel quality for the allocation region corresponding to the frequency reuse factor K, when the transmission request message is detected; and a CQI generation/transmission unit for transmitting CQI corresponding to the measured channel quality for the allocation region to the BS.
Method for producing a ceramic molding comprising the steps of: a) producing a green body comprising ceramic material, binders and an organic pore former; b) heating the green body to a temperature equal to or above the sublimation temperature of the pore former; c) firing the green body to form a ceramic molding; characterized in that the organic pore former is selected from the group consisting of dicarboxylic acids of which the sublimation temperature is at least 80K below the decomposition temperature. a) producing a green body comprising ceramic material, binders and an organic pore former; b) heating the green body to a temperature equal to or above the sublimation temperature of the pore former; c) firing the green body to form a ceramic molding;
A system comprising a remote host, a programmable logic controller and a plurality of subsystems for providing a uniform restoration of interrupted data transmissions between the remote host and the programmable logic controller which is adapted to acquire process data from the plurality of remote subsystems, the programmable logic controller thereby defining an integrated node, characterized in that the integrated node is configured to perform the steps of: detecting a time of a communication failure and a time of a corresponding communication recovery in a communications link between the integrated node and the remote host, each of the integrated node and the remote host being time-synchronized according to a uniform time source; and restoring time-stamped process data to the remote host computer responsive to the time of the communication failure and the time of the corresponding communication recovery. detecting a time of a communication failure and a time of a corresponding communication recovery in a communications link between the integrated node and the remote host, each of the integrated node and the remote host being time-synchronized according to a uniform time source; and restoring time-stamped process data to the remote host computer responsive to the time of the communication failure and the time of the corresponding communication recovery.
A method for measurement, being performed by a user equipment, UE, (135; 330; 405) in a mobile communication system supporting carrier aggregation, the method comprising: determining, when a carrier is in an activated state, a first measurement interval and a first measurement period based on a discontinuous reception, DRX, interval, wherein said activated state is a state in which the UE receives or transmits data to/from an evolved NodeB, eNB, on the carrier; wherein information on the DRX interval is received from said eNB; determining, when said carrier is in a deactivated state, a second measurement period based on information on a second measurement interval, wherein said deactivated state is a state in which the UE neither transmits nor receives data to/from the eNB on the carrier, the information being received from said eNB; and wherein the second measurement period is determined by multiplying the second measurement interval by a predefined value greater than 1, wherein each of said first and second measurement intervals controls how frequently the UE is to perform a measurement on the carrier and each of said first and second measurement periods controls how frequently the UE is to calculate a measurement result representative of the measurements performed at the time intervals in said measurement period. determining, when a carrier is in an activated state, a first measurement interval and a first measurement period based on a discontinuous reception, DRX, interval, wherein said activated state is a state in which the UE receives or transmits data to/from an evolved NodeB, eNB, on the carrier; wherein information on the DRX interval is received from said eNB; determining, when said carrier is in a deactivated state, a second measurement period based on information on a second measurement interval, wherein said deactivated state is a state in which the UE neither transmits nor receives data to/from the eNB on the carrier, the information being received from said eNB; and wherein the second measurement period is determined by multiplying the second measurement interval by a predefined value greater than 1, wherein each of said first and second measurement intervals controls how frequently the UE is to perform a measurement on the carrier and each of said first and second measurement periods controls how frequently the UE is to calculate a measurement result representative of the measurements performed at the time intervals in said measurement period.
A method for processing an Internet Protocol version 6, IPv6, packet, the method comprises: receiving, by an access node, an IPv6 packet from a terminal, wherein the IPv6 packet is one of: a Router Solicitation, RS, message; a RouterAdvertisement, RA, message; a Neighbor Solicitation, NS, message; Neighbor Advertisement, NA, message; and a Multicast Listener Discovery, MLD, message; characterized in that, the method further comprises: adding, by the access node, an IPv6 extension header to the IPv6 packet; wherein the IPv6 extension header carries an access loop identification, a Next Header, and the length of the IPv6 extension header; and the Next Header indicates information of a next extension header; and forwarding, by the access node, the IPv6 packet added with the IPv6 extension header to an IP edge node. receiving, by an access node, an IPv6 packet from a terminal, wherein the IPv6 packet is one of: a Router Solicitation, RS, message; a RouterAdvertisement, RA, message; a Neighbor Solicitation, NS, message; Neighbor Advertisement, NA, message; and a Multicast Listener Discovery, MLD, message; characterized in that, the method further comprises: adding, by the access node, an IPv6 extension header to the IPv6 packet; wherein the IPv6 extension header carries an access loop identification, a Next Header, and the length of the IPv6 extension header; and the Next Header indicates information of a next extension header; and forwarding, by the access node, the IPv6 packet added with the IPv6 extension header to an IP edge node. adding, by the access node, an IPv6 extension header to the IPv6 packet; wherein the IPv6 extension header carries an access loop identification, a Next Header, and the length of the IPv6 extension header; and the Next Header indicates information of a next extension header; and forwarding, by the access node, the IPv6 packet added with the IPv6 extension header to an IP edge node.
A fixing heater for an image forming apparatus of an electro-photography type, comprising: a substrate; and a carboneous thin film heating element layer provided on the substrate and consisting of amorphous carbon and carbon powder, said amorphous carbon acting as an electrical conduction inhibiting material relative to the carbon powder, said carbon powder being uniformly dispersed in the amorphous carbon, said carboneous heating element layer having an intrinsic resistance value adjusted by adjusting a ratio of the amorphous carbon to the carbon powder a substrate; and a carboneous thin film heating element layer provided on the substrate and consisting of amorphous carbon and carbon powder, said amorphous carbon acting as an electrical conduction inhibiting material relative to the carbon powder, said carbon powder being uniformly dispersed in the amorphous carbon, said carboneous heating element layer having an intrinsic resistance value adjusted by adjusting a ratio of the amorphous carbon to the carbon powder
A METHOD OF REMOVAL OF HYDROCARBONS AND SALTS FROM ROCK SAMPLES FROM OIL SYSTEMS, characterized in that it comprises the following steps: (a) adding a rock sample to a properly identified compartment; (b) immersing the assembly from step (a) in a nanofluid at a temperature between 40 and 80 °C; (c) subjecting the assembly immersed in step (b) to an ultrasound system with transducers positioned on the external wall of the experimental unit, three times, for 15 minutes each, for two days; (d) removing the nanofluid, immersing the sample in water in two steps and submitting the same to the ultrasound system for 15 minutes, repeating this procedure twice; (e) drying the sample from step (d) in an oven. (a) adding a rock sample to a properly identified compartment; (b) immersing the assembly from step (a) in a nanofluid at a temperature between 40 and 80 °C; (c) subjecting the assembly immersed in step (b) to an ultrasound system with transducers positioned on the external wall of the experimental unit, three times, for 15 minutes each, for two days; (d) removing the nanofluid, immersing the sample in water in two steps and submitting the same to the ultrasound system for 15 minutes, repeating this procedure twice; (e) drying the sample from step (d) in an oven.
Anti-human tenascin monocloncal antibody, whose light and heavy chain variable region sequences are SEQ ID 3 and SEQ ID 4 respectively and its conjugates, said conjugates being capable of binding to an antigenic epitope within the A -D region of human tenascin.
A resource reservation method, comprising: receiving, by a target node, a resource reservation request message, wherein a desired resource reservation value and additional accuracy information of the desired resource reservation value are carried in the message; and reserving, by the target node, bandwidth resources for a source node according to the additional accuracy information and the desired resource reservation value; characterized in that, wherein when the additional accuracy information is a data type and a data unit of the desired resource reservation value, the reserving the bandwidth resources for the source node according to the additional accuracy information and the desired resource reservation value comprises: judging whether the data type of the desired resource reservation value is a float type or an integer type, wherein when the data type is the float type, the desired resource reservation value and the data unit are combined, and the combined value is converted into a resource reservation value for the source node, and when the data type is the integer type, the desired resource reservation value and the data unit are combined into a resource reservation value for the source node. receiving, by a target node, a resource reservation request message, wherein a desired resource reservation value and additional accuracy information of the desired resource reservation value are carried in the message; and reserving, by the target node, bandwidth resources for a source node according to the additional accuracy information and the desired resource reservation value; characterized in that, wherein when the additional accuracy information is a data type and a data unit of the desired resource reservation value, the reserving the bandwidth resources for the source node according to the additional accuracy information and the desired resource reservation value comprises: judging whether the data type of the desired resource reservation value is a float type or an integer type, wherein when the data type is the float type, the desired resource reservation value and the data unit are combined, and the combined value is converted into a resource reservation value for the source node, and when the data type is the integer type, the desired resource reservation value and the data unit are combined into a resource reservation value for the source node.
Household oven with a cooking appliance accessory part (10 - 18, 62) for arrangement in a cooking chamber of a cooking appliance with a base body made of metal and with a coating (24, 78) made of a coating material, wherein the coating material is glass-like and contains silicate and is attached to the base body made of metal from a liquid phase, wherein the thickness of the coating material is between 0.5 μm and 10 μm, characterised in that the coating material contains metal alkoxides, with titanium, aluminium or zircon as the metal, which form networks between silicon centres of the coating material.
A rotary valve comprising: a valve housing; a manifold mounted to the valve housing; a rotary actuator rotatably mounted within the valve housing, with the rotary actuator having an end comprising electrically conductive silicon carbide diamond (ScD) and the end having a first engagement surface; and a valve seat that is coupled to the manifold, the valve seat having a second engagement surface that sealingly engages the first engagement surface; wherein the end of the rotary actuator is brazed to a support structure of the rotary actuator at a temperature greater than 700 degrees Celsius and less than 1200 degrees Celsius. a valve housing; a manifold mounted to the valve housing; a rotary actuator rotatably mounted within the valve housing, with the rotary actuator having an end comprising electrically conductive silicon carbide diamond (ScD) and the end having a first engagement surface; and a valve seat that is coupled to the manifold, the valve seat having a second engagement surface that sealingly engages the first engagement surface; wherein the end of the rotary actuator is brazed to a support structure of the rotary actuator at a temperature greater than 700 degrees Celsius and less than 1200 degrees Celsius.
A process of preparing a solid crystalline form Compound I Form VII: comprising the following steps: (a) reacting with Compound G: to produce Compound D: (b) reacting Compound D: with a first reagent to produce Compound E: (c) reacting Compound E: with a chlorination agent to produce Compound F: and (d) reacting Compound F: with methylamine, thereby providing Compound I; and (e) precipitating solid crystalline form Compound I Form VII from a solution comprising Compound I and ethanol, t-butylmethylether (MTBE), or a mixture thereof, wherein the solid crystalline form Compound I Form VII has: (i) three or more characteristic XRPD peaks, in terms of 2-theta, at 7.2, 10.3, 11.2, 12.0, 13.8, 13.9, 15.2, 15.6, 16.5, 17.3, 20.7, 20.9, 21.6, and 22.5 degrees, wherein each peak is ±0.2 degrees θ, as determined on a diffractometer using a Cu-K α radiation tube; or (ii) six or more characteristic XRPD peaks, in terms of 2-theta, at 7.2, 10.3, 11.2, 12.0, 13.8, 13.9, 15.2, 15.6, 16.5, 17.3, 20.7, 20.9, 21.6, and 22.5 degrees, wherein each peak is ±0.2 degrees θ, as determined on a diffractometer using a Cu-K a radiation tube. (a) reacting with Compound G: to produce Compound D: (b) reacting Compound D: with a first reagent to produce Compound E: (c) reacting Compound E: with a chlorination agent to produce Compound F: and (d) reacting Compound F: with methylamine, thereby providing Compound I; and (e) precipitating solid crystalline form Compound I Form VII from a solution comprising Compound I and ethanol, t-butylmethylether (MTBE), or a mixture thereof, wherein the solid crystalline form Compound I Form VII has: (i) three or more characteristic XRPD peaks, in terms of 2-theta, at 7.2, 10.3, 11.2, 12.0, 13.8, 13.9, 15.2, 15.6, 16.5, 17.3, 20.7, 20.9, 21.6, and 22.5 degrees, wherein each peak is ±0.2 degrees θ, as determined on a diffractometer using a Cu-K α radiation tube; or (ii) six or more characteristic XRPD peaks, in terms of 2-theta, at 7.2, 10.3, 11.2, 12.0, 13.8, 13.9, 15.2, 15.6, 16.5, 17.3, 20.7, 20.9, 21.6, and 22.5 degrees, wherein each peak is ±0.2 degrees θ, as determined on a diffractometer using a Cu-K a radiation tube. (i) three or more characteristic XRPD peaks, in terms of 2-theta, at 7.2, 10.3, 11.2, 12.0, 13.8, 13.9, 15.2, 15.6, 16.5, 17.3, 20.7, 20.9, 21.6, and 22.5 degrees, wherein each peak is ±0.2 degrees θ, as determined on a diffractometer using a Cu-K α radiation tube; or (ii) six or more characteristic XRPD peaks, in terms of 2-theta, at 7.2, 10.3, 11.2, 12.0, 13.8, 13.9, 15.2, 15.6, 16.5, 17.3, 20.7, 20.9, 21.6, and 22.5 degrees, wherein each peak is ±0.2 degrees θ, as determined on a diffractometer using a Cu-K a radiation tube.
A battery charging system in a bus, comprising an electric power source adapted to delivering a charging voltage to at least one battery with one or more resistance-causing units (R 1 -R 11, R L1 -R L3) connected to the system, and a regulator adapted to continuously receiving a value which represents a charging voltage (V d) desired at the time and a value which represents a battery voltage (V bat) at the time for the at least one battery, and to using these values as a basis for continuously calculating a charging voltage (V calc) delivered from the electric power source and required for achieving said desired charging voltage (V d), which regulator is adapted to generating a control signal which contains the control command to the electric power source to deliver the calculated charging voltage (V calc), and is situated in a control unit, characterised in that the value which represents the battery voltage (V bat) at the time for the at least one battery is calculated on the basis of the voltage of the control unit.