mhurhangee/ep-ind-claims huggingface dataset:
A method of discovering network nodes and management information distributed in different strongly connected components, SCCs, (21, 22) in a traffic network, said method comprising the steps of: receiving a request for network management information at an application level in a first network node in a first SCC; determining if the first network node does not have any neighboring nodes at the application level or is part of a cycle; utilizing a functional overlay layer to identify and select a set of neighboring nodes to receive the request, wherein at least one of the selected neighboring nodes is in a second SCC; and if the receiving node has no neighbors at the application-level or is part of a cycle the method comprises sending the request to the selected neighboring nodes at the overlay layer. receiving a request for network management information at an application level in a first network node in a first SCC; determining if the first network node does not have any neighboring nodes at the application level or is part of a cycle; utilizing a functional overlay layer to identify and select a set of neighboring nodes to receive the request, wherein at least one of the selected neighboring nodes is in a second SCC; and if the receiving node has no neighbors at the application-level or is part of a cycle the method comprises sending the request to the selected neighboring nodes at the overlay layer.
Propelling system for acceleration of projectiles based on nitrocellulose, containing a crystalline energy carrier on nitramine base in concentrations from 0 - 35% and an inert plasticizer, which is extruded through a die with multiple perforations, characterized in that the number of axial perforations is 4, wherein the grain structure has a cubic or a cylindrical shape and the axial perforations have a round cross-section with diameters between 0.03 - 0.3 mm, preferably between 0.05 - 0.2 mm, and wherein the diameters of the perforations are of similar size.
Method for manufacturing a hollow glass article defining a container comprising an opening, a bottom opposite said opening and at least one side wall delimited by an external face and an internal face, the glass being in a malleable state, said method comprising: - providing at least one mould and a punch displaceable between a passive position outside said at least one mould and an active position inside said at least one mould, the punch comprising at least one marking portion provided with at least one raised and/or recessed pattern, - in the active position of the punch on the inside of said at least one mould, actuating means radially displace said at least one raised and/or recessed pattern from a retracted position to a projected position applied against the internal face of the side wall to imprint onto said internal face said at least one raised and/or recessed pattern, then radially displace said at least one raised and/or recessed pattern from the projected position to the retracted position and - the punch is displaced from the active position to the interior of said at least one mould to a passive position outside of said at least one mould. - providing at least one mould and a punch displaceable between a passive position outside said at least one mould and an active position inside said at least one mould, the punch comprising at least one marking portion provided with at least one raised and/or recessed pattern, - in the active position of the punch on the inside of said at least one mould, actuating means radially displace said at least one raised and/or recessed pattern from a retracted position to a projected position applied against the internal face of the side wall to imprint onto said internal face said at least one raised and/or recessed pattern, then radially displace said at least one raised and/or recessed pattern from the projected position to the retracted position and - the punch is displaced from the active position to the interior of said at least one mould to a passive position outside of said at least one mould.
A data processing apparatus comprising: a frequency interleaver that includes an interleaver memory for writing and reading data, and an address producing portion configured to produce a write address and a read address, and that writes the data to the interleaver memory in accordance with the write address and reads out the data from the interleaver memory in accordance with the read address, thereby carrying out frequency interleave, wherein the address producing portion includes a first pseudo random number generating portion configured to produce a first random bit stream, a second pseudo random number generating portion configured to produce a second random bit stream, and a bit producing portion configured to alternately produce a bit as 0 and a bit as 1 as an additional bit, characterised in that the address producing portion further includes a calculating portion configured to produce the write address or the read address by obtaining an exclusive-OR combination between the first random bit stream supplemented by the additional bit as most significant bit and the second random bit stream, or an exclusive-OR combination between the first random bit stream and the second random bit stream and supplementing the result of the exclusive-OR combination by the additional bit as most significant bit. a frequency interleaver that includes an interleaver memory for writing and reading data, and an address producing portion configured to produce a write address and a read address, and that writes the data to the interleaver memory in accordance with the write address and reads out the data from the interleaver memory in accordance with the read address, thereby carrying out frequency interleave, wherein the address producing portion includes a first pseudo random number generating portion configured to produce a first random bit stream, a second pseudo random number generating portion configured to produce a second random bit stream, and a bit producing portion configured to alternately produce a bit as 0 and a bit as 1 as an additional bit, a first pseudo random number generating portion configured to produce a first random bit stream, a second pseudo random number generating portion configured to produce a second random bit stream, and a bit producing portion configured to alternately produce a bit as 0 and a bit as 1 as an additional bit, a calculating portion configured to produce the write address or the read address by obtaining an exclusive-OR combination between the first random bit stream supplemented by the additional bit as most significant bit and the second random bit stream, or an exclusive-OR combination between the first random bit stream and the second random bit stream and supplementing the result of the exclusive-OR combination by the additional bit as most significant bit.
A wireless power transmitter having full and half-bridge inverter topologies for transferring wireless power to a low or medium wireless power receiver, the wireless power transmitter configured to: apply a power signal by controlling a driving frequency to the half-bridge inverter to control an amount of power to be transferred; receive a control error packet including a control error value from a wireless power receiver which is used to adjust the amount of power to be transferred; change the inverter topology from the half-bridge into the full-bridge after receiving the control error packet when the wireless power receiver is a medium wireless power receiver; and apply a power signal by controlling at least one of the driving frequency or a duty cycle to the full-bridge inverter to control an amount of power to be transferred. apply a power signal by controlling a driving frequency to the half-bridge inverter to control an amount of power to be transferred; receive a control error packet including a control error value from a wireless power receiver which is used to adjust the amount of power to be transferred; change the inverter topology from the half-bridge into the full-bridge after receiving the control error packet when the wireless power receiver is a medium wireless power receiver; and apply a power signal by controlling at least one of the driving frequency or a duty cycle to the full-bridge inverter to control an amount of power to be transferred.
A method for scheduling a service on a microwave link, comprising: receiving a radio transport unit that carries at least one radio data unit, RDU,, wherein the RDU carries service type information, priority information and a service label; and scheduling the RDU according to the priority information of the RDU, wherein scheduling comprises: determining a service type of the RDU according to the service type information of the RDU; discarding a RDU of a lower priority according to the priority information and the service type when available bandwidth of the microwave link is insufficient, wherein discarding a RDU of lower priority comprises discarding a payload part and retaining an overhead of the RDU; when the service type of the RDU of the lower priority is a Time Division Multiplexing, TDM, service, recording a service label of the RDU on which discarding processing is performed, so that a RDU that carries the service label is continued to be discarded when it is required to perform further discarding processing. receiving a radio transport unit that carries at least one radio data unit, RDU,, wherein the RDU carries service type information, priority information and a service label; and scheduling the RDU according to the priority information of the RDU, wherein scheduling comprises: determining a service type of the RDU according to the service type information of the RDU; discarding a RDU of a lower priority according to the priority information and the service type when available bandwidth of the microwave link is insufficient, wherein discarding a RDU of lower priority comprises discarding a payload part and retaining an overhead of the RDU; when the service type of the RDU of the lower priority is a Time Division Multiplexing, TDM, service, recording a service label of the RDU on which discarding processing is performed, so that a RDU that carries the service label is continued to be discarded when it is required to perform further discarding processing. determining a service type of the RDU according to the service type information of the RDU; discarding a RDU of a lower priority according to the priority information and the service type when available bandwidth of the microwave link is insufficient, wherein discarding a RDU of lower priority comprises discarding a payload part and retaining an overhead of the RDU; when the service type of the RDU of the lower priority is a Time Division Multiplexing, TDM, service, recording a service label of the RDU on which discarding processing is performed, so that a RDU that carries the service label is continued to be discarded when it is required to perform further discarding processing.
A battery module, comprising: first and second plates (110, 120) opposite each other; first and second frames (130, 140) respectively connecting tops and bottoms of the first and second plates (110, 120) to define a casing, the first frame being connected to the second frame and having a shape corresponding to the second frame; and a plurality of battery cells stacked in the casing, each battery cell including: a first surface with a terminal portion (12, 13) including negative and positive electrode terminals, the first surface of each battery cell facing the first plate, a second surface opposite the first surface, and a pair of third surfaces spaced part from each other, each third surface connecting the first and second surfaces (11, 14) and being parallel to the second frame, wherein the plurality of battery cells is stacked on top of each other to define a plurality of cell arrays (A, B) in the casing, adjacent cell arrays (A, B) being parallel to each other and wherein the battery module further comprises a support member between the adjacent cell arrays (A, B), the support member contacting the first and second frames (130, 140) and being formed of a non-conductive material. first and second plates (110, 120) opposite each other; first and second frames (130, 140) respectively connecting tops and bottoms of the first and second plates (110, 120) to define a casing, the first frame being connected to the second frame and having a shape corresponding to the second frame; and a plurality of battery cells stacked in the casing, each battery cell including: a first surface with a terminal portion (12, 13) including negative and positive electrode terminals, the first surface of each battery cell facing the first plate, a second surface opposite the first surface, and a pair of third surfaces spaced part from each other, each third surface connecting the first and second surfaces (11, 14) and being parallel to the second frame, wherein the plurality of battery cells is stacked on top of each other to define a plurality of cell arrays (A, B) in the casing, adjacent cell arrays (A, B) being parallel to each other and a first surface with a terminal portion (12, 13) including negative and positive electrode terminals, the first surface of each battery cell facing the first plate, a second surface opposite the first surface, and a pair of third surfaces spaced part from each other, each third surface connecting the first and second surfaces (11, 14) and being parallel to the second frame, wherein the plurality of battery cells is stacked on top of each other to define a plurality of cell arrays (A, B) in the casing, adjacent cell arrays (A, B) being parallel to each other and wherein the battery module further comprises a support member between the adjacent cell arrays (A, B), the support member contacting the first and second frames (130, 140) and being formed of a non-conductive material.
A human abzyme being a human antibody κ light chain against rabies virus and having a variable domain consisting of a polypeptide represented by the amino acid sequence shown in SEQ ID NO: 35.
A riser section comprising a main tube element extended by a male connector element and by a female connector element, wherein a locking ring is mounted on said male connector element, and wherein said riser section further comprises at least one auxiliary tube element, said male and female connector elements extending main tube element by increasing the section and the thickness of said main tube element so as to form flanges (23, 24) for passage of said auxiliary tube element, characterized in that said locking ring is arranged between said main tube element and said auxiliary tube element, the inner surface of said locking ring comprises a first series of studs, the outer surface of said female connector element comprises a second series of studs, said male connector element comprises a third series of studs on the outer face thereof and the inner surface of said locking ring comprises a fourth series of studs suited to cooperate with said third series of studs.
A vehicle battery mounting structure comprising: an energy absorption member that is provided at a vehicle body lower side of a floor panel, said energy absorption member including a first side wall portion sloping toward a vehicle body upper outside at a vehicle width direction inside of the energy absorption member, as viewed from a vehicle body longitudinal direction; and a battery frame made of resin that is disposed at the vehicle width direction inside of the first side wall portion, the battery frame being configured to support a battery and including a second side wall portion sloping toward the vehicle body upper outside at the vehicle width direction outside of the battery frame, as viewed from the vehicle body longitudinal direction; characterised in that the second side wall portion faces the first side wall portion across a gap in the vehicle width direction. an energy absorption member that is provided at a vehicle body lower side of a floor panel, said energy absorption member including a first side wall portion sloping toward a vehicle body upper outside at a vehicle width direction inside of the energy absorption member, as viewed from a vehicle body longitudinal direction; and a battery frame made of resin that is disposed at the vehicle width direction inside of the first side wall portion, the battery frame being configured to support a battery and including a second side wall portion sloping toward the vehicle body upper outside at the vehicle width direction outside of the battery frame, as viewed from the vehicle body longitudinal direction; characterised in that the second side wall portion faces the first side wall portion across a gap in the vehicle width direction.
A method of diagnosing whether a subject has lung cancer, comprising measuring the level of miR gene products in a test lung tissue sample from said subject, wherein an alteration in the level of the miR gene products in the test sample, relative to the level of corresponding miR gene products in a control sample, is indicative of the subject having lung cancer, wherein the miR gene products comprise a group of miR gene products, said group consisting of miR-21, miR-191, miR-155, miR-210, miR-126* and miR-224; and wherein the level of the miR-21, miR-191, miR-155 and miR-210 gene products in the test sample are greater than the level of the corresponding miR gene product in the control sample, and wherein the level of the miR-126* and miR-224 gene products in the test sample are less than the level of the corresponding miR gene product in the control sample.
A computer system comprising: a cloud platform including a plurality of nodes, each node including a processor configured to run virtual machines, wherein the cloud platform includes a fault condition injection engine configured to generate fault conditions on selected nodes of the plurality of nodes; and a user interface system configured to receive user input of fault condition experimentation parameters from a user for a target virtual machine associated with the user; wherein the cloud platform allocates a set of nodes of the plurality of nodes for a controlled sandbox environment configured to run the target virtual machine of the user; wherein the fault condition injection engine generates fault conditions on the allocated set of nodes based on the fault condition experimentation parameters, the fault condition injection engine comprising agents that operate directly on the allocated set of nodes to generate the fault conditions, and wherein the allocated set of nodes are in a hardware plane, the target virtual machine is in a virtual machine plane, the virtual machines' utilization of the hardware resources of the allocated set of nodes in the hardware plane is controlled by a hypervisor plane, and the target virtual machine may not directly access the allocated set of nodes. a cloud platform including a plurality of nodes, each node including a processor configured to run virtual machines, wherein the cloud platform includes a fault condition injection engine configured to generate fault conditions on selected nodes of the plurality of nodes; and a user interface system configured to receive user input of fault condition experimentation parameters from a user for a target virtual machine associated with the user; wherein the cloud platform allocates a set of nodes of the plurality of nodes for a controlled sandbox environment configured to run the target virtual machine of the user; wherein the fault condition injection engine generates fault conditions on the allocated set of nodes based on the fault condition experimentation parameters, the fault condition injection engine comprising agents that operate directly on the allocated set of nodes to generate the fault conditions, and wherein the allocated set of nodes are in a hardware plane, the target virtual machine is in a virtual machine plane, the virtual machines' utilization of the hardware resources of the allocated set of nodes in the hardware plane is controlled by a hypervisor plane, and the target virtual machine may not directly access the allocated set of nodes.
A method of obtaining a sample of a fluid from a formation surrounding a wellbore, comprising: pumping a fluid received by a first probe from the formation into a sample chamber; and collecting fluid received by a second probe from the formation into a fluid collection chamber having an internal pressure less than the pressure of the formation; the method characterised in: causing the fluid collection chamber to receive the fluid from the second probe under pressure by flowing an incompressible fluid from the fluid collection chamber into a force application device via a flow control device. pumping a fluid received by a first probe from the formation into a sample chamber; and collecting fluid received by a second probe from the formation into a fluid collection chamber having an internal pressure less than the pressure of the formation; the method characterised in: causing the fluid collection chamber to receive the fluid from the second probe under pressure by flowing an incompressible fluid from the fluid collection chamber into a force application device via a flow control device.
A card wire (110, 210, 310, 710) comprising an elongated rib portion and teeth said teeth are having a front portion and a back portion, said teeth are hanging over towards their front portion, said front portion and said back portion are merging at the tip of the tooth, said front portion comprises at least three sections, a first section (120, 220, 720) extends from the tip of the tooth in the direction of the rib portion, a second section (230, 250, 730, 750, 770) extends below the first section (120, 220, 720) in the direction of the rib portion, said second section (230, 250, 730, 750, 770) comprises a straight part and a curved segment, said straight part is having a minimum length of 0.10 mm and said straight part is having an angle (α) between 10 and 30 degrees relative to the length direction of the card wire (110, 210, 310, 710), and said straight part is followed in the direction of the rib portion by said curved segment wherein said curved segment is having a radius of at least 0.18 mm, and said front portion comprises a third section (126, 260, 760) from the end of said second section (230, 250, 730, 750, 770) in the direction of the rib portion.