mhurhangee/ep-ind-claims huggingface dataset:
Method performed by a processing device in a system of a plurality of processing devices communicatively connected via a peer-to-peer overlay network; wherein each of the processing devices is configured to connect to the peer-to-peer overlay network as a peer node or as a client node; wherein a peer node is configured to route messages to and/or from nodes other than those to which it is directly connected and a client node does not have routing or storage responsibilities, and wherein a client node is connectable to the peer-to-peer overlay network via a peer node; the method comprising - forming one of the nodes of a cluster; - performing a cluster head role connecting the cluster to the peer-to-peer overlay network, the processing device thereby acting as a peer, while the other cluster nodes are attached to the cluster head as clients, - being the cluster head, enabling the other cluster nodes to sleep, that is, to be in an energy-conserving state, - being the cluster head, transferring the cluster head role to another node (721, 751) of the cluster according to a cluster head handover process, characterized in that each of the cluster nodes is associated with a private node identity (261; 762; 782) and a public node identity (262; 761; 772; 781); the public node identity being employed during the creation of a new cluster, in which the cluster only has one node, this node being the cluster head; said public node identity of the cluster head subsequently identifying the cluster within the overlay network, that is, said public node identity becoming the cluster node identity, and the private node identity identifying the node to other nodes in the cluster, wherein when a node joins the overlay network for creation of a new cluster, there is created a cluster table containing an entry, indexed with the private node identity (762; 201) of the joining node, wherein when a subsequent node joins the cluster, the cluster table is updated (1005, 1006) with a further entry indexed with the private node identity (772, 221) of the subsequent node, when the cluster head handover process is initiated, the subsequent cluster node according to the further entry in the cluster table is joining the overlay network as a peer cluster head; the handover process moreover involving the subsequent cluster node getting a routing table from the previous cluster head, as well as connecting to all the neighbour nodes of the previous cluster head in the overlay network, wherein the subsequent cluster head employs the same public node identity as the old cluster head. - forming one of the nodes of a cluster; - performing a cluster head role connecting the cluster to the peer-to-peer overlay network, the processing device thereby acting as a peer, while the other cluster nodes are attached to the cluster head as clients, - being the cluster head, enabling the other cluster nodes to sleep, that is, to be in an energy-conserving state, - being the cluster head, transferring the cluster head role to another node (721, 751) of the cluster according to a cluster head handover process,
A fuel cell constructed and arranged for use with a combustion tool including a cylinder head frame, said fuel cell comprising: an outer shell having a closed lower end and an open upper end; a closure crimped over said upper end and defining an opening for accommodating a reciprocating valve stem; characterized by an adapter frictionally engaging said closure and including a flange extending radially beyond said outer shell and being configured for supporting said fuel cell in a part of said cylinder head frame solely by suspension from said part. an outer shell having a closed lower end and an open upper end; a closure crimped over said upper end and defining an opening for accommodating a reciprocating valve stem; characterized by an adapter frictionally engaging said closure and including a flange extending radially beyond said outer shell and being configured for supporting said fuel cell in a part of said cylinder head frame solely by suspension from said part.
A polypeptide comprising at least two fused domains, wherein a) a first domain comprises a polypeptide comprising amino acid residues 1 to 171 according to SEQ ID NO: 1 or according to SEQ ID NO: 2, or a functional homologue thereof, and wherein a second domain comprises a polypeptide comprising amino acid residues 180 to 413 according to SEQ ID NO: 1 or amino acid residues 180 to 208 according to SEQ ID NO: 2, or a functional homologue thereof or b) a first domain comprises a polypeptide comprising amino acid residues 1 to 192 according to SEQ ID NO: 3 or according to SEQ ID NO: 4, or a functional homologue thereof, and wherein a second domain comprises a polypeptide comprising amino acid residues 198 to 438 according to SEQ ID NO: 3 or amino acid residues 198 to 230 according to SEQ ID NO: 4, or a functional homologue thereof or c) a first domain comprises a polypeptide comprising amino acid residues 1 to 174 according to SEQ ID NO: 5 or according to SEQ ID NO: 6, or a functional homologue thereof, and wherein a second domain comprises a polypeptide comprising amino acid residues 183 to 439 according to SEQ ID NO: 5 or amino acid residues 183 to 215 according to SEQ ID NO: 6, or a functional homologue thereof and wherein said functional homologues of said polypeptides of a, b and c are at least 20% different, preferably 15% different, more preferably 10% different, more preferably 9% different, more preferably 8% different, more preferably 7% different, more preferably 6% different, more preferably 5% different, more preferably 4% different, more preferably 3% different, more preferably 2% different or most preferably 1% different from their previously mentioned sequences and encode NEC (derived-) polypeptides that are capable of heterodimerization. a) a first domain comprises a polypeptide comprising amino acid residues 1 to 171 according to SEQ ID NO: 1 or according to SEQ ID NO: 2, or a functional homologue thereof, and wherein a second domain comprises a polypeptide comprising amino acid residues 180 to 413 according to SEQ ID NO: 1 or amino acid residues 180 to 208 according to SEQ ID NO: 2, or a functional homologue thereof or b) a first domain comprises a polypeptide comprising amino acid residues 1 to 192 according to SEQ ID NO: 3 or according to SEQ ID NO: 4, or a functional homologue thereof, and wherein a second domain comprises a polypeptide comprising amino acid residues 198 to 438 according to SEQ ID NO: 3 or amino acid residues 198 to 230 according to SEQ ID NO: 4, or a functional homologue thereof or c) a first domain comprises a polypeptide comprising amino acid residues 1 to 174 according to SEQ ID NO: 5 or according to SEQ ID NO: 6, or a functional homologue thereof, and wherein a second domain comprises a polypeptide comprising amino acid residues 183 to 439 according to SEQ ID NO: 5 or amino acid residues 183 to 215 according to SEQ ID NO: 6, or a functional homologue thereof
A surgical imaging control device comprising: circuitry configured to change an imaging viewpoint of a surgical imaging device in order to maintain a substantially constant distance between a focal point of an object and the surgical imaging device that images the object, based on a first instruction of a user and position information acquired by an acquisition unit implemented by circuitry configured to acquire position information indicating a position of the focal point of the object.
An enzyme-powered nanomotor, comprising: - a particle with a surface; - a said enzyme; and - a heterologous molecule which is different from the enzyme; characterized in that the enzyme and the heterologous molecule are discontinuously attached over the whole surface of the particle. - a particle with a surface; - a said enzyme; and - a heterologous molecule which is different from the enzyme;
A computer-readable medium having stored computer-executable instructions that, when executed by a computer comprising a central processing unit that includes a cache with cache metadata, cause the computer to perform steps comprising: access the cache metadata from a bounded transactional memory application; when performing a transactional read from the bounded transactional memory application, software sets a cache line metadata transaction-read bit; when performing a transactional write from the bounded transactional memory application, software sets a cache line metadata transaction-write bit, configured as a speculative-write bit, and performs a conditional store; at commit time, test whether any lines marked with the cache line metadata transaction-read bit or the cache line metadata transaction-write bit were evicted or invalidated; clear all speculative-write bits if no lines marked with the cache line metadata transaction-read bit or the cache line metadata transaction-write bit were evicted or invalidated, wherein the speculative-write bits are cleared by a flash clear, wherein the flash clear of the speculative-write bits commits the speculatively written data; and at commit time, if any lines marked with the cache line metadata transaction-read bit or the cache line metadata transaction-write bit were evicted or invalidated, discard all speculatively written lines and call a cache metadata invalidate instruction. access the cache metadata from a bounded transactional memory application; when performing a transactional read from the bounded transactional memory application, software sets a cache line metadata transaction-read bit; when performing a transactional write from the bounded transactional memory application, software sets a cache line metadata transaction-write bit, configured as a speculative-write bit, and performs a conditional store; at commit time, test whether any lines marked with the cache line metadata transaction-read bit or the cache line metadata transaction-write bit were evicted or invalidated; clear all speculative-write bits if no lines marked with the cache line metadata transaction-read bit or the cache line metadata transaction-write bit were evicted or invalidated, wherein the speculative-write bits are cleared by a flash clear, wherein the flash clear of the speculative-write bits commits the speculatively written data; and at commit time, if any lines marked with the cache line metadata transaction-read bit or the cache line metadata transaction-write bit were evicted or invalidated, discard all speculatively written lines and call a cache metadata invalidate instruction.
A biodegradable hydrogel with controlled lifetime obtainable by crosslinking α,ω-itaconyl terminated [(polylactide-co-polyglycolide)-b-polyethyleneglycol-b-(polylactide-co-polyglycolide)] block copolymer having the formula I: wherein degree of polymerization x is in the range from 22 to 35; 2y independently is in the range from 19 to 41; 2z independently is in the range from 7 to 18; and degree of substitution 2a (ITA substituting -OH groups at the ends of the starting copolymer) is in the range from 0.35 to 2 using a blue light and catalyzed by a mixture of camphoroquinone and a tertiary amine without the presence of any crosslinking agent, wherein blue light is radiation with the wavelength in the range from 430 to 490 nm.
A process for the manufacture of a solid object having a surface comprising a layered coating of cationic and anionic polymer wherein the outer coating layer comprises an anticoagulant entity, comprising the steps of: i) treating a surface of the solid object with a cationic polymer; ii) treating the surface with an anionic polymer; iii) optionally repeating steps i) and ii) one or more times; iv) treating the surface with a cationic polymer; and v) treating the outermost layer of cationic polymer with an anticoagulant entity, thereby to covalently attach the anticoagulant entity to the outermost layer of cationic polymer; wherein, the anionic polymer is characterized by having (a) a total molecular weight of 650 kDa-10,000 kDa; and (b) a sulfur content between 10% and 25% by weight of the anionic polymer; the anionic polymer is dextran sulfate; the anticoagulant entity is a heparin moiety; and wherein, step ii) is carried out at a salt concentration of 0.25 M-5.0 M. i) treating a surface of the solid object with a cationic polymer; ii) treating the surface with an anionic polymer; iii) optionally repeating steps i) and ii) one or more times; iv) treating the surface with a cationic polymer; and v) treating the outermost layer of cationic polymer with an anticoagulant entity, thereby to covalently attach the anticoagulant entity to the outermost layer of cationic polymer; the anionic polymer is characterized by having (a) a total molecular weight of 650 kDa-10,000 kDa; and (b) a sulfur content between 10% and 25% by weight of the anionic polymer; the anionic polymer is dextran sulfate; the anticoagulant entity is a heparin moiety; and wherein, step ii) is carried out at a salt concentration of 0.25 M-5.0 M.
A bond wire transformer comprising a plurality of primary bond wires; and a plurality of secondary bond wire, each secondary bond wire being spaced apart from and oriented relative to a corresponding primary bond wire so as to achieve a desired mutual inductance between the corresponding primary and secondary bond wires, thereby providing magnetic coupling between the primary and secondary bond wires, wherein the primary bond wires are coupled electrically in parallel and the secondary bond wires are coupled electrically in parallel.
An integrated circuit protected against electrostatic discharges comprising a doped substrate of a first conductivity type and having a surface, at least one input-output pad and a terminal adapted to be connected to a source of a reference potential and further comprising a protection structure comprising: a thyristor (Thy) forward-connected between the pad and the terminal, the thyristor comprising a first resistor between its cathode gate and the terminal; and between the thyristor and the pad, at least one Zener diode, the anode of the Zener diode being connected to the cathode gate of the thyristor and the cathode of the Zener diode being connected to the pad via at least one second resistor, the junction of the Zener diode being different from the junctions of the PNPN structure of the thyristor; and a first doped semiconductor region of a second conductivity type opposite to the first conductivity type and extending in the substrate from the surface, the first region comprising a first portion extending along a first direction parallel to the surface and continued at each end by a second portion extending along a second direction parallel to the surface and perpendicular to the first direction, the thyristor (Thy) comprising a first transistor and a second transistor, the first portion of the first region forming the base of the first transistor and the cathode of the Zener diode being formed in the second portion of the first region. a thyristor (Thy) forward-connected between the pad and the terminal, the thyristor comprising a first resistor between its cathode gate and the terminal; and between the thyristor and the pad, at least one Zener diode, the anode of the Zener diode being connected to the cathode gate of the thyristor and the cathode of the Zener diode being connected to the pad via at least one second resistor, the junction of the Zener diode being different from the junctions of the PNPN structure of the thyristor; and a first doped semiconductor region of a second conductivity type opposite to the first conductivity type and extending in the substrate from the surface, the first region comprising a first portion extending along a first direction parallel to the surface and continued at each end by a second portion extending along a second direction parallel to the surface and perpendicular to the first direction, the thyristor (Thy) comprising a first transistor and a second transistor, the first portion of the first region forming the base of the first transistor and the cathode of the Zener diode being formed in the second portion of the first region.
A radar module comprising: an antenna substrate; a patch conductor (2a, 2b, 2c, 2d, 3) formed on a first surface of the antenna substrate; a feeding terminal (4a, 4b, 4c, 4d, 5) formed on the first surface of the antenna substrate; a feeding line (6a, 6b, 6c, 6d, 7) formed on the first surface of the antenna substrate to connect the patch conductor (2a, 2b, 2c, 2d, 3) and the feeding terminal (4a, 4b, 4c, 4d, 5); a ground conductor formed on a second surface of the antenna substrate to be opposed to the patch conductor (2a, 2b, 2c, 2d, 3); a coupling slot (12a, 12b, 12c, 12d, 13) formed in the ground conductor and located to correspond to the position of the feeding terminal (4a, 4b, 4c, 4d, 5); and a circuit board located on the ground conductor opposite to the antenna substrate; an edge of the ground conductor has a shape being provided in a repeated manner, each shape comprising a tapered tip end, which is angled to intersect with an antenna polarization plane (Pa), and a circuit component (11a, 11b, 11c, 11d, 11e) is mounted on the surface of the circuit board opposite to the ground conductor to supply electric power in a form of a transmission wave to the feeding terminal (4a, 4b, 4c, 4d, 5) through the circuit board and the coupling slot (12a, 12b, 12c, 12d, 13). an antenna substrate; a patch conductor (2a, 2b, 2c, 2d, 3) formed on a first surface of the antenna substrate; a feeding terminal (4a, 4b, 4c, 4d, 5) formed on the first surface of the antenna substrate; a feeding line (6a, 6b, 6c, 6d, 7) formed on the first surface of the antenna substrate to connect the patch conductor (2a, 2b, 2c, 2d, 3) and the feeding terminal (4a, 4b, 4c, 4d, 5); a ground conductor formed on a second surface of the antenna substrate to be opposed to the patch conductor (2a, 2b, 2c, 2d, 3); a coupling slot (12a, 12b, 12c, 12d, 13) formed in the ground conductor and located to correspond to the position of the feeding terminal (4a, 4b, 4c, 4d, 5); and a circuit board located on the ground conductor opposite to the antenna substrate; an edge of the ground conductor has a shape being provided in a repeated manner, each shape comprising a tapered tip end, which is angled to intersect with an antenna polarization plane (Pa), and a circuit component (11a, 11b, 11c, 11d, 11e) is mounted on the surface of the circuit board opposite to the ground conductor to supply electric power in a form of a transmission wave to the feeding terminal (4a, 4b, 4c, 4d, 5) through the circuit board and the coupling slot (12a, 12b, 12c, 12d, 13).
A gas turbine engine (100; 200; 400), comprising: a turbine nozzle coupled to a combustor (280; 380), the turbine nozzle comprising a nozzle choke area (286; 386); a high pressure turbine (290; 390), wherein the turbine nozzle is forward of the high pressure turbine (290; 390); and a modulated bleed valve in communication with a controller, wherein: the modulated bleed valve is disposed aft of the nozzle choke area (286; 386); the modulated bleed valve is configured to assume, in response to a command by the controller, at least one of an open configuration, a partially open configuration ranging between 0% open and 100% open, or a closed configuration, and when in at least one of the open configuration or the partially open configuration, the modulated bleed valve allows a bleed airflow through the turbine nozzle aft of the nozzle choke area (286; 386) and reroutes the bleed airflow forward of the modulated bleed valve to join a nozzle airflow (225; 325) at a point aft of the nozzle choke area (286; 386) and forward of the high pressure turbine (290; 390); and the bleed airflow is configured to cool the turbine nozzle and rotate a high pressure turbine (290; 390). a turbine nozzle coupled to a combustor (280; 380), the turbine nozzle comprising a nozzle choke area (286; 386); a high pressure turbine (290; 390), wherein the turbine nozzle is forward of the high pressure turbine (290; 390); and a modulated bleed valve in communication with a controller, wherein: the modulated bleed valve is disposed aft of the nozzle choke area (286; 386); the modulated bleed valve is configured to assume, in response to a command by the controller, at least one of an open configuration, a partially open configuration ranging between 0% open and 100% open, or a closed configuration, and when in at least one of the open configuration or the partially open configuration, the modulated bleed valve allows a bleed airflow through the turbine nozzle aft of the nozzle choke area (286; 386) and reroutes the bleed airflow forward of the modulated bleed valve to join a nozzle airflow (225; 325) at a point aft of the nozzle choke area (286; 386) and forward of the high pressure turbine (290; 390); and the bleed airflow is configured to cool the turbine nozzle and rotate a high pressure turbine (290; 390). the modulated bleed valve is disposed aft of the nozzle choke area (286; 386); the modulated bleed valve is configured to assume, in response to a command by the controller, at least one of an open configuration, a partially open configuration ranging between 0% open and 100% open, or a closed configuration, and when in at least one of the open configuration or the partially open configuration, the modulated bleed valve allows a bleed airflow through the turbine nozzle aft of the nozzle choke area (286; 386) and reroutes the bleed airflow forward of the modulated bleed valve to join a nozzle airflow (225; 325) at a point aft of the nozzle choke area (286; 386) and forward of the high pressure turbine (290; 390); and the bleed airflow is configured to cool the turbine nozzle and rotate a high pressure turbine (290; 390).