mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communications for a relay node, i.e. a base station without a direct backhaul link to a core network (102-b, 102-c; 220; 322, 324, 326), comprising: receiving a configuration for a first radio channel (151; 360, 364, 368, 372) with a first priority and a first priority ID, and receiving a configuration for a second radio channel (152; 362, 366, 370, 374) with a second, different priority and a second priority ID; receiving a configuration for a third radio channel (153; 340) with a first mapping to the first priority, and receiving a configuration for a fourth radio channel (154; 342) with a second mapping to the second priority; forwarding packets from the third radio channel to the first radio channel based on the first mapping and inserting the first priority ID into a header in the packets from the third radio channel; and forwarding packets from the fourth radio channel to the second radio channel based on the second mapping, and inserting the second priority ID into a header in the packets from the fourth radio channel. receiving a configuration for a first radio channel (151; 360, 364, 368, 372) with a first priority and a first priority ID, and receiving a configuration for a second radio channel (152; 362, 366, 370, 374) with a second, different priority and a second priority ID; receiving a configuration for a third radio channel (153; 340) with a first mapping to the first priority, and receiving a configuration for a fourth radio channel (154; 342) with a second mapping to the second priority; forwarding packets from the third radio channel to the first radio channel based on the first mapping and inserting the first priority ID into a header in the packets from the third radio channel; and forwarding packets from the fourth radio channel to the second radio channel based on the second mapping, and inserting the second priority ID into a header in the packets from the fourth radio channel.
A method performed by a user equipment, UE, performing device-to-device, D2D, communication, the D2D communication being performed via a D2D communication link between the UE and a further UE, within a Long Term Evolution, LTE, network, the method comprising: • receiving a D2D buffer status report, BSR, request message from a base station, wherein the D2D BSR request message contains a Media Access Control, MAC, subheader, and the MAC subheader contains reserved bits, wherein at least one bit among the reserved bits is a polling bit used for polling a D2D BSR from the UE; • in response to the reception of the D2D BSR request message, generating the D2D BSR for the D2D communication link between the UE and the further UE, the D2D BSR providing information related to an amount of D2D data available for transmission, and the D2D BSR comprises a D2D BSR logical channel identifier, LCID; • transmitting the D2D BSR in a control element to the base station; • receiving a resource allocation for the D2D link from the base station; and • transmitting D2D data over the allocated resource. • receiving a D2D buffer status report, BSR, request message from a base station, wherein the D2D BSR request message contains a Media Access Control, MAC, subheader, and the MAC subheader contains reserved bits, wherein at least one bit among the reserved bits is a polling bit used for polling a D2D BSR from the UE; • in response to the reception of the D2D BSR request message, generating the D2D BSR for the D2D communication link between the UE and the further UE, the D2D BSR providing information related to an amount of D2D data available for transmission, and the D2D BSR comprises a D2D BSR logical channel identifier, LCID; • transmitting the D2D BSR in a control element to the base station; • receiving a resource allocation for the D2D link from the base station; and • transmitting D2D data over the allocated resource.
A method of forming a film on a substrate, comprising: positioning a substrate within a processing chamber; heating the substrate to a temperature within a range from 550 degrees Celsius to 750 degrees Celsius; introducing process gases into the processing chamber, the process gases comprising a silicon source, a phosphorus source including phosphine, and a carrier gas, wherein the silicon source is introduced at a gas flow rate between 300 sccm to 400 sccm, the phosphorus source is introduced at a gas flow rate between 2 sccm to 30 sccm, and the carrier gas is introduced at a gas flow rate of 3 to 30 standard liter per minute; and depositing a substantially carbon-free epitaxial layer on the substrate, the substantially carbon-free epitaxial layer having a phosphorus concentration of 1×10 21 atoms per cubic centimeter or greater, wherein the substantially carbon-free epitaxial layer is deposited at a chamber pressure of 39996.7 Pa (300 Torr) or greater. positioning a substrate within a processing chamber; heating the substrate to a temperature within a range from 550 degrees Celsius to 750 degrees Celsius; introducing process gases into the processing chamber, the process gases comprising a silicon source, a phosphorus source including phosphine, and a carrier gas, wherein the silicon source is introduced at a gas flow rate between 300 sccm to 400 sccm, the phosphorus source is introduced at a gas flow rate between 2 sccm to 30 sccm, and the carrier gas is introduced at a gas flow rate of 3 to 30 standard liter per minute; and depositing a substantially carbon-free epitaxial layer on the substrate, the substantially carbon-free epitaxial layer having a phosphorus concentration of 1×10 21 atoms per cubic centimeter or greater, wherein the substantially carbon-free epitaxial layer is deposited at a chamber pressure of 39996.7 Pa (300 Torr) or greater.
A loading system comprising: an adjunct loading member comprising a supporting member ; at least one adjunct material configured to be transferred from the adjunct loading member to a jaw of first and second jaws of an end effector , the first and second jaws being configured to clamp tissue therebetween, wherein the supporting member is configured to releasably retain the adjunct material, and at least a portion of the adjunct loading member is configured to crack, break, deform or otherwise change configuration upon the application of load thereto, to thereby release the adjunct material; and an adhesive depot having an adhesive configured to transition from a non-flowable state to a flowable state upon the application of heat, when the adjunct material is released from the adjunct loading member and transferred to the jaw, to retain the adjunct material on the jaw, wherein the adhesive depot comprises a plurality of reservoirs formed in the supporting member and each releasably holding the adhesive in the non-flowable state in which the adhesive is substantially non-liquid such that the adhesive can transition under the application of at least one of heat and force to the flowable state in which the adhesive is at least partially liquid; and the adjunct material having structures therein configured to receive the adhesive transitioning to the flowable state when the adhesive material is released from a respective one of the plurality of reservoirs and through the structures to a jaw-facing surface of the adjunct material to thereby retain the adjunct material on the jaw. an adjunct loading member comprising a supporting member ; at least one adjunct material configured to be transferred from the adjunct loading member to a jaw of first and second jaws of an end effector , the first and second jaws being configured to clamp tissue therebetween, wherein the supporting member is configured to releasably retain the adjunct material, and at least a portion of the adjunct loading member is configured to crack, break, deform or otherwise change configuration upon the application of load thereto, to thereby release the adjunct material; and an adhesive depot having an adhesive configured to transition from a non-flowable state to a flowable state upon the application of heat, when the adjunct material is released from the adjunct loading member and transferred to the jaw, to retain the adjunct material on the jaw, wherein the adhesive depot comprises a plurality of reservoirs formed in the supporting member and each releasably holding the adhesive in the non-flowable state in which the adhesive is substantially non-liquid such that the adhesive can transition under the application of at least one of heat and force to the flowable state in which the adhesive is at least partially liquid; and the adjunct material having structures therein configured to receive the adhesive transitioning to the flowable state when the adhesive material is released from a respective one of the plurality of reservoirs and through the structures to a jaw-facing surface of the adjunct material to thereby retain the adjunct material on the jaw.
A method for producing L-lysine, comprising the steps of: substituting the initiation codon of a polynucleotide encoding the aspartate kinase (LysC) in a microorganism with ATG; culturing the microorganism; and recovering L-lysine from the cultured microorganism or the culture broth; wherein the microorganism is Corynebacterium sp. substituting the initiation codon of a polynucleotide encoding the aspartate kinase (LysC) in a microorganism with ATG; culturing the microorganism; and recovering L-lysine from the cultured microorganism or the culture broth; wherein the microorganism is Corynebacterium sp.
Vibration absorber for damping vibrations in wind turbines, which has at least one pendulum device, and comprises an absorber mass which (i) is fastened to a suspension structure such that it can swing freely, or (ii) is connected to a running device which is curved substantially concavely or circularly at least in its central region, and on which the absorber mass is movable back and forth together with a driven rotating, rotationally symmetrical rotational mass component by means of a roller-operated or wheel-operated running gear , characterized in that the vibration absorber has an electromagnetic braking apparatus which comprises a leaf spring device , at one end of which an electromagnet is attached such that, when current flows through the electromagnet, said electromagnet is pulled toward the absorber mass or toward the rotational mass component connected to the absorber mass until contact is made so that the movement of the absorber mass or of the rotational mass component is braked or stopped, and the electromagnet, when free of current, returns to its initial position by being held in a spring-loaded manner or solely by means of its weight when the absorber mass or the rotational mass component is released, the electromagnetic braking apparatus being operated by controlled power management in such a way that it causes the stopping or braking, and restarting, of the absorber mass or a variable frequency-dependent damping of the movement of the absorber masses, and thus of the undesired vibrations. (i) is fastened to a suspension structure such that it can swing freely, or (ii) is connected to a running device which is curved substantially concavely or circularly at least in its central region, and on which the absorber mass is movable back and forth together with a driven rotating, rotationally symmetrical rotational mass component by means of a roller-operated or wheel-operated running gear ,
A travel route selection system for an electric truck equipped, as a driving source, with a motor that is driven by electric power supplied from a battery, the travel route selection system comprising: a map information acquisition unit that is configured to acquire (S1) map information including transport route information on a plurality of transport routes which are selection candidates; an electric power consumption estimation unit for estimating (S3) electric power consumption on each of the plurality of transportation routes; an optimal route selection unit that is configured to select an optimal route based on fundamental information including information on the amount of electric power consumption of each of the plurality of transport routes; characterized by an electric power consumption map storage unit adapted to store a drive-time electric power consumption map used to estimate electric power consumption of the electric truck running on a predetermined route at a predetermined average vehicle speed without stopping; and an average vehicle speed estimation unit for estimating (S2) an average vehicle speed during running on each of the plurality of transportation routes by counting out stoppage time by subtracting the stoppage time from the travel time, wherein estimating electric power consumption on each of the plurality of transportation routes is based on the average vehicle speed estimated by the average vehicle speed estimation unit as well as on the electric power consumption map. a map information acquisition unit that is configured to acquire (S1) map information including transport route information on a plurality of transport routes which are selection candidates; an electric power consumption estimation unit for estimating (S3) electric power consumption on each of the plurality of transportation routes; an optimal route selection unit that is configured to select an optimal route based on fundamental information including information on the amount of electric power consumption of each of the plurality of transport routes; characterized by an electric power consumption map storage unit adapted to store a drive-time electric power consumption map used to estimate electric power consumption of the electric truck running on a predetermined route at a predetermined average vehicle speed without stopping; and an average vehicle speed estimation unit for estimating (S2) an average vehicle speed during running on each of the plurality of transportation routes by counting out stoppage time by subtracting the stoppage time from the travel time,
A method performed by a communication device for handling communication in a communication network comprising at least a first wireless communication network and a second wireless communication network , wherein the communication device is served by a first radio network node in the second wireless communication network ; the method characterized in comprising identifying a cell of a second radio network node in the first radio access network of the first wireless communication network triggering performing a preparation signaling, as a user plane message, via the first radio network node and transparently through the second wireless communication network , with a first network node of the first wireless communication network for preparing the first network node and the second radio network node in a first radio access network of the first communication network with a pre-configuration for serving the communication device , wherein the preparation signaling comprises radio access network and core network data of the communication device and further handover preparation signalling and/or resume preparation signalling, the radio access network data comprising the identified cell of a second radio network node in the first radio access network of the first wireless communication network intended for the second radio network node and information identifying the second radio network node intended for the first network node .
A nucleic acid molecule encoding a chimeric protein for use in treating allergy, wherein the nucleic acid molecule comprises, fused in frame in sequential order: a nucleic acid sequence encoding a signal sequence; a nucleic acid sequence encoding a lumenal domain of a human lysosomal associated membrane protein (LAMP); a nucleic acid sequence encoding an allergen protein, wherein the nucleic acid sequence does not include a naturally-occurring signal sequence of the allergen protein; a nucleic acid sequence encoding a transmembrane domain of a human LAMP; and a nucleic acid sequence encoding a targeting domain of a human LAMP, wherein the human LAMP is selected from human LAMP-1, human LAMP-2, human CD63/LAMP-3, or human DC-LAMP. a nucleic acid sequence encoding a signal sequence; a nucleic acid sequence encoding a lumenal domain of a human lysosomal associated membrane protein (LAMP); a nucleic acid sequence encoding an allergen protein, wherein the nucleic acid sequence does not include a naturally-occurring signal sequence of the allergen protein; a nucleic acid sequence encoding a transmembrane domain of a human LAMP; and a nucleic acid sequence encoding a targeting domain of a human LAMP,
Combined separator and distribution device for solids-loaded liquids, with a separator and distributor chamber that is connected to a feeding tube for the solids-loaded liquid with a first end and is further provided with a plurality of liquid outlets , and in which a motor-driven screw conveyor is arranged, the screw conveying solids contained in the solids-loaded liquid in a direction away from its end on the feed side and towards an opposite end of the separator and distributor chamber that serves as a solids outlet, wherein the separator and distributor chamber has a radially inward area forming a separator chamber and having arranged therein the screw conveyor , and a radially outward area separated therefrom by means of a grid or screen assembly and serving as a distributor chamber , and wherein the outlets are arranged on the circumference of the distributor chamber , characterised in that the separator and distributor chamber is oriented vertically and in that the feeding tube opens into the lower end of the separator chamber and the solids outlet is located on the upper end of the separator chamber .
A method of preparing egg white for bulk chromatographic processing, the method comprising the steps of: adding an acidic buffer comprising an acidic agent to a pool of egg white, the acidic buffer being from about 0.5 wt% to about 5 wt% per kilogram of the egg white, mixing the acidic buffer and the egg white to form a mixed egg white having a pH from about 5 to about 6.5, and allowing the mixed egg white to settle such that the egg white separates into top, middle and bottom layers. adding an acidic buffer comprising an acidic agent to a pool of egg white, the acidic buffer being from about 0.5 wt% to about 5 wt% per kilogram of the egg white, mixing the acidic buffer and the egg white to form a mixed egg white having a pH from about 5 to about 6.5, and allowing the mixed egg white to settle such that the egg white separates into top, middle and bottom layers.
A surgical buttress loading assembly comprising: a surgical buttress applicator (200, 300, 300', 300",400, 400', 500, 600, 700, 800) including: an anvil buttress loading unit (200a, 300a, 300a', 300a", 400a, 400a', 500a, 600a, 700a, 800a) defining a buttress cavity and a strap cavity (213a, 313a, 313a', 313a", 413a, 513a, 613a, 713, 813a) therein; and a cartridge buttress loading unit defining a buttress cavity and a strap cavity therein; an anvil buttress including: a tubular body disposed within the buttress cavity of the anvil buttress loading unit; and a strap extending from the tubular body and positioned within the strap cavity of the anvil buttress loading unit; a cartridge buttress including: a tubular body disposed within the buttress cavity of the cartridge buttress loading unit; and a strap extending from the tubular body and positioned within the strap cavity of the cartridge buttress loading unit; a first clip secured to the strap of the anvil buttress; and a second clip secured to the strap of the cartridge buttress, wherein the first and second clips are releasably secured to the respective anvil and cartridge buttress loading units. a surgical buttress applicator (200, 300, 300', 300",400, 400', 500, 600, 700, 800) including: an anvil buttress loading unit (200a, 300a, 300a', 300a", 400a, 400a', 500a, 600a, 700a, 800a) defining a buttress cavity and a strap cavity (213a, 313a, 313a', 313a", 413a, 513a, 613a, 713, 813a) therein; and a cartridge buttress loading unit defining a buttress cavity and a strap cavity therein; an anvil buttress loading unit (200a, 300a, 300a', 300a", 400a, 400a', 500a, 600a, 700a, 800a) defining a buttress cavity and a strap cavity (213a, 313a, 313a', 313a", 413a, 513a, 613a, 713, 813a) therein; and a cartridge buttress loading unit defining a buttress cavity and a strap cavity therein; an anvil buttress including: a tubular body disposed within the buttress cavity of the anvil buttress loading unit; and a strap extending from the tubular body and positioned within the strap cavity of the anvil buttress loading unit; a tubular body disposed within the buttress cavity of the anvil buttress loading unit; and a strap extending from the tubular body and positioned within the strap cavity of the anvil buttress loading unit; a cartridge buttress including: a tubular body disposed within the buttress cavity of the cartridge buttress loading unit; and a strap extending from the tubular body and positioned within the strap cavity of the cartridge buttress loading unit; a tubular body disposed within the buttress cavity of the cartridge buttress loading unit; and a strap extending from the tubular body and positioned within the strap cavity of the cartridge buttress loading unit; a first clip secured to the strap of the anvil buttress; and a second clip secured to the strap of the cartridge buttress, wherein the first and second clips are releasably secured to the respective anvil and cartridge buttress loading units.
A connection structure comprising two conductors and a copper connection electrically connecting the conductors, the connection being made mainly of copper, having a plurality of voids, and containing an organosilicon compound in the voids, wherein the organosilicon compound has a moiety represented by formula : wherein R 1 and R 2 each represent a divalent hydrocarbon linking group.
Apparatus for predicting a predetermined block of a picture using a plurality of reference samples (17a,c), configured to form a sample value vector out of the plurality of reference samples (17a,c), derive from the sample value vector a further vector onto which the sample value vector is mapped by a predetermined invertible linear transform , compute a matrix-vector product between the further vector and a predetermined prediction matrix so as to obtain a prediction vector , and predict samples of the predetermined block on the basis of the prediction vector , wherein the predetermined invertible linear transform is defined such that a predetermined component of the further vector becomes a, and each of other components of the further vector , except the predetermined component , equal a corresponding component of the sample value vector minus a, wherein a is a predetermined value . form a sample value vector out of the plurality of reference samples (17a,c), derive from the sample value vector a further vector onto which the sample value vector is mapped by a predetermined invertible linear transform , compute a matrix-vector product between the further vector and a predetermined prediction matrix so as to obtain a prediction vector , and predict samples of the predetermined block on the basis of the prediction vector , wherein the predetermined invertible linear transform is defined such that a predetermined component of the further vector becomes a, and each of other components of the further vector , except the predetermined component , equal a corresponding component of the sample value vector minus a, wherein a is a predetermined value .