mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing tower tube section, comprising: forming a first tubular section and a second tubular section ; joining the first tubular section and the second tubular section; forming a first notch on the first tubular section and a second notch on the second tubular section, wherein an opening is formed by the first notch and the second notch, wherein a height of the first notch is less than a height of the first tubular section, and a height of the second notch is less than a height of the second tubular section; and forming a door frame , wherein the door frame is embedded in the opening and is welded to the first tubular section and the second tubular section, and providing a door opening to the door frame, characterised in that the forming the door frame comprises: forming a first tube by rolling a steel plate; performing a re-rounding process on the first tube; and cutting the first tube along a longitudinal direction of the first tube to form at least one door frame, forming a joint section on a periphery of a body of the door frame after the door frame is formed, wherein a thickness (t1) of the joint section is less than a thickness of the body of the door frame and is greater than a thickness (t2) of the first tubular section and the second tubular section. forming a first tubular section and a second tubular section ; joining the first tubular section and the second tubular section; forming a first notch on the first tubular section and a second notch on the second tubular section, wherein an opening is formed by the first notch and the second notch, wherein a height of the first notch is less than a height of the first tubular section, and a height of the second notch is less than a height of the second tubular section; and forming a door frame , wherein the door frame is embedded in the opening and is welded to the first tubular section and the second tubular section, and providing a door opening to the door frame, characterised in that the forming the door frame comprises: forming a first tube by rolling a steel plate; performing a re-rounding process on the first tube; and cutting the first tube along a longitudinal direction of the first tube to form at least one door frame, forming a joint section on a periphery of a body of the door frame after the door frame is formed, wherein a thickness (t1) of the joint section is less than a thickness of the body of the door frame and is greater than a thickness (t2) of the first tubular section and the second tubular section. forming a first tube by rolling a steel plate; performing a re-rounding process on the first tube; and cutting the first tube along a longitudinal direction of the first tube to form at least one door frame, forming a joint section on a periphery of a body of the door frame after the door frame is formed, wherein a thickness (t1) of the joint section is less than a thickness of the body of the door frame and is greater than a thickness (t2) of the first tubular section and the second tubular section.
A rupture apparatus comprising: a housing defining a housing bore with a bore inlet and a bore outlet; a carriage carrying a rupturable component ; at least one seal between an outer surface of the carriage and an inner surface of the housing bore ; wherein the carriage is moveable in the housing bore between a rupturable position, an open position and a closed position, such that the carriage is moveable into any of said positions without changing the rupture state of the rupturable component. a housing defining a housing bore with a bore inlet and a bore outlet; a carriage carrying a rupturable component ; at least one seal between an outer surface of the carriage and an inner surface of the housing bore ; wherein the carriage is moveable in the housing bore between a rupturable position, an open position and a closed position, such that the carriage is moveable into any of said positions without changing the rupture state of the rupturable component.
Device for tensioning and tightening a screw fastened to a component , comprising an engagement element connectable to the screw , a support element configured to support the device against the component and to translationally guide the engagement element , a connecting element connectable to a nut engaged with the screw and a screwing unit for rotationally actuating the connecting element relative to the screw , wherein the screwing unit comprises a spring element which is configured to exert an actuating torque for rotating the connecting element about a longitudinal axis of the screw , and wherein a first end of the spring element is structurally coupled to the connecting element in a torque-transmitting manner, characterized in that a second end of the spring element is structurally coupled to the engagement element in a torque-transmitting manner.
A network node , comprising: A bus switching element ; a network adapter , a computational accelerator and a host , all coupled to communicate with each other via the bus switching element, wherein: the network adapter is configured to communicate with remote nodes over a communication network ; the host is configured to establish a Remote Direct Memory Access, RDMA, link between the computational accelerator and a RDMA endpoint by creating a Queue Pair, QP, to be used by the computational accelerator for communication with the RDMA endpoint via the RDMA link; and the computational accelerator is configured to exchange data, via the network adapter, between a memory of the computational accelerator and a memory of the RDMA endpoint. A bus switching element ; a network adapter , a computational accelerator and a host , all coupled to communicate with each other via the bus switching element, wherein: the network adapter is configured to communicate with remote nodes over a communication network ; the host is configured to establish a Remote Direct Memory Access, RDMA, link between the computational accelerator and a RDMA endpoint by creating a Queue Pair, QP, to be used by the computational accelerator for communication with the RDMA endpoint via the RDMA link; and the computational accelerator is configured to exchange data, via the network adapter, between a memory of the computational accelerator and a memory of the RDMA endpoint. the network adapter is configured to communicate with remote nodes over a communication network ; the host is configured to establish a Remote Direct Memory Access, RDMA, link between the computational accelerator and a RDMA endpoint by creating a Queue Pair, QP, to be used by the computational accelerator for communication with the RDMA endpoint via the RDMA link; and the computational accelerator is configured to exchange data, via the network adapter, between a memory of the computational accelerator and a memory of the RDMA endpoint.
A method for determining passage of a portable wireless transceiver device along a constrained path , comprising: acquiring (S102) at least three time of flight, ToF, measurements , the at least three ToF measurements being measured between a portable wireless transceiver device and a single network node , wherein the network node is mounted proximate a constrained path ; and determining (S106) whether the portable wireless transceiver device has passed the network node along the constrained path or not by identifying a local minimum of the at least three ToF measurements, wherein the local minimum of the at least three ToF measurements is not corresponding to an end-point ToF measurement and is used as an indication that the portable wireless device is passing the network node along the constrained path . acquiring (S102) at least three time of flight, ToF, measurements , the at least three ToF measurements being measured between a portable wireless transceiver device and a single network node , wherein the network node is mounted proximate a constrained path ; and determining (S106) whether the portable wireless transceiver device has passed the network node along the constrained path or not by identifying a local minimum of the at least three ToF measurements, wherein the local minimum of the at least three ToF measurements is not corresponding to an end-point ToF measurement and is used as an indication that the portable wireless device is passing the network node along the constrained path .
A fusion protein comprising (i) a GITR ligand (GITRL) cytokine or a receptor binding domain thereof, and (ii) a collectin trimerization domain comprising surfactant protein-D or the neck and carbohydrate binding domain of surfactant protein-D, wherein (i) comprises amino acids 52-177 of SEQ ID NO:18 and wherein (ii) is located C-terminally of (i). (i) a GITR ligand (GITRL) cytokine or a receptor binding domain thereof, and (ii) a collectin trimerization domain comprising surfactant protein-D or the neck and carbohydrate binding domain of surfactant protein-D,
A controller for controlling behavior of a motorcycle , the controller comprising an execution section that is arranged to initiate (S115) a control mode to make the motorcycle perform an automatic cruise deceleration operation, characterized in that said controller comprises further an acquisition section that is arranged to acquire (S117) a change rate of a state amount that is related to posture of the motorcycle during turning travel; and in said control mode of the execution section , the automatic deceleration (S125)that is a deceleration of the motorcycle generated by the automatic cruise deceleration operation is controlled in accordance with said change rate. an execution section that is arranged to initiate (S115) a control mode to make the motorcycle perform an automatic cruise deceleration operation, characterized in that said controller comprises further an acquisition section that is arranged to acquire (S117) a change rate of a state amount that is related to posture of the motorcycle during turning travel; and in said control mode of the execution section , the automatic deceleration (S125)that is a deceleration of the motorcycle generated by the automatic cruise deceleration operation is controlled in accordance with said change rate.
A method of determining a distance estimate between a mobile device and a wireless transceiver of a wireless communication system, the wireless transceiver communicating with the mobile device on a multi-carrier signal, the method comprising: receiving the multi-carrier signal including a plurality of carrier signals generated using synchronized clocks; and determining the distance estimate between the mobile device and the wireless transceiver using the plurality of carrier signals, wherein the method further comprises: selecting one of the carrier signals as a reference carrier signal; shifting a waveform of each of at least one of the non-reference carrier signals according to a frequency difference relative to the reference carrier signal; and combining a waveform of the reference carrier signal and the waveform of the at least one shifted non-reference carrier signal to generate a composite signal; wherein the distance estimate between the mobile device and the wireless transceiver is determined using the composite signal. receiving the multi-carrier signal including a plurality of carrier signals generated using synchronized clocks; and determining the distance estimate between the mobile device and the wireless transceiver using the plurality of carrier signals, wherein the method further comprises: selecting one of the carrier signals as a reference carrier signal; shifting a waveform of each of at least one of the non-reference carrier signals according to a frequency difference relative to the reference carrier signal; and combining a waveform of the reference carrier signal and the waveform of the at least one shifted non-reference carrier signal to generate a composite signal; wherein the distance estimate between the mobile device and the wireless transceiver is determined using the composite signal. selecting one of the carrier signals as a reference carrier signal; shifting a waveform of each of at least one of the non-reference carrier signals according to a frequency difference relative to the reference carrier signal; and combining a waveform of the reference carrier signal and the waveform of the at least one shifted non-reference carrier signal to generate a composite signal; wherein the distance estimate between the mobile device and the wireless transceiver is determined using the composite signal.
A method for sending a request of a Machine-to-Machine, M2M, application, characterized in that , the method comprising: after receiving a request sent by an M2M application, searching , by the local CSE, a request type configuration table locally stored for a bearer network corresponding to a request type according to the value of the request type in the request, and detecting whether the bearer network has been connected to the target CSE; wherein the step of detecting whether the bearer network has been connected to the target CSE comprises: when it is detected by the local CSE that the bearer network has been connected to the target CSE, sending, by the local CSE, the request of the M2M application to the target CSE through the bearer network; and when it is detected by the local CSE that the bearer network is not connected to the target CSE, reading the value of the delay time for request sending in the request, trying to connect the bearer network according to the value of the delay time for request sending, and sending the request of the M2M application to the target CSE after successful connection; wherein each request type corresponding to one or more bearer network types in the request type configuration table. after receiving a request sent by an M2M application, searching , by the local CSE, a request type configuration table locally stored for a bearer network corresponding to a request type according to the value of the request type in the request, and detecting whether the bearer network has been connected to the target CSE; wherein the step of detecting whether the bearer network has been connected to the target CSE comprises: when it is detected by the local CSE that the bearer network has been connected to the target CSE, sending, by the local CSE, the request of the M2M application to the target CSE through the bearer network; and when it is detected by the local CSE that the bearer network is not connected to the target CSE, reading the value of the delay time for request sending in the request, trying to connect the bearer network according to the value of the delay time for request sending, and sending the request of the M2M application to the target CSE after successful connection; when it is detected by the local CSE that the bearer network has been connected to the target CSE, sending, by the local CSE, the request of the M2M application to the target CSE through the bearer network; and when it is detected by the local CSE that the bearer network is not connected to the target CSE, reading the value of the delay time for request sending in the request, trying to connect the bearer network according to the value of the delay time for request sending, and sending the request of the M2M application to the target CSE after successful connection; wherein each request type corresponding to one or more bearer network types in the request type configuration table.
Backpack for fall protection comprising an airbag and a release module , which comprises a control unit and a gas cartridge , wherein the backpack is configured such that the airbag , in a standby state, is deflated and stowed in a storage space of the backpack , the airbag is automatically inflated, in response to the control unit detecting a fall of a user of the backpack , by releasing gas from the gas cartridge into the airbag , and the airbag , in an inflated state, protects a cervical spine and/or a chest region and/or a shoulder region of the user, wherein upon inflation at least a first airbag portion of the airbag is released from the storage space , while remaining fixed to the inside of the storage space , wherein, in the standby state, at least part of the first airbag portion , is stowed in the storage space within shoulder straps of the backpack , and wherein the first airbag portion is fixed to the inside of the storage space using a plurality of fixing means, which are distributed along the length of a first storage portion of the storage space where the first airbag portion is stowed. the airbag , in a standby state, is deflated and stowed in a storage space of the backpack , the airbag is automatically inflated, in response to the control unit detecting a fall of a user of the backpack , by releasing gas from the gas cartridge into the airbag , and the airbag , in an inflated state, protects a cervical spine and/or a chest region and/or a shoulder region of the user, wherein upon inflation at least a first airbag portion of the airbag is released from the storage space , while remaining fixed to the inside of the storage space , wherein, in the standby state, at least part of the first airbag portion , is stowed in the storage space within shoulder straps of the backpack , and wherein the first airbag portion is fixed to the inside of the storage space using a plurality of fixing means, which are distributed along the length of a first storage portion of the storage space where the first airbag portion is stowed.
A variant polypeptide having fumarate reductase activity, which has modified NADP(H)-dependent activity and/or modified NAD(H)-dependent activity as compared with a reference polypeptide having fumarate reductase activity and comprising the fumarate reductase of SEQ ID NO: 33, wherein the variant polypeptide comprises an amino acid sequence which, when aligned with the fumarate reductase comprising the sequence set out in SEQ ID NO: 33, comprises at least one substitution of an amino acid residue corresponding to any of amino acids 1042, 1071, 1072, 1082 or 1083 said positions being defined with reference to SEQ ID NO: 33, and wherein the variant polypeptide has at least 80% sequence identity with SEQ ID NO: 33. 1042, 1071, 1072, 1082 or 1083 said positions being defined with reference to SEQ ID NO: 33, and
A composition comprising a genetically converted yeast, wherein said genetically converted yeast expresses one or more modified enzymes having one or more designed mutations, said one or more enzymes comprising HMG-CoA reductase, wherein said HMG-CoA reductase has increased activity or expression, wherein said one or more designed mutations are at defined positions within said enzyme, wherein said yeast produces increased quantities of squalene as compared to the native yeast, and wherein the yeast is a Yarrowia lipolytica strain selected from the group consisting of ATCC 90812, ATCC MYA-2613, or Yeastern polg.
Device for storing parts , comprising at least two spacer plates comprising stations intended to each receive one of said parts , and each comprising two sides each provided with a plurality of impressions , said device comprising differently shaped and sized wedging elements that are able to be located in said impressions and to cooperate with the parts so as to stably position each one of said parts in a station of the plate , characterized in that the wedging elements are fixed on either side of at least one superposed plate .
A method for processing speech-based commands in a voice recognition device, VRD, network comprising a plurality of VRDs , the method comprising, by each of the plurality of VRDs: generating a set of characteristics associated with a speech event that has been detected locally, the set of characteristics including spoken content recognized from the speech event; transmitting the set of characteristics and associated metadata to the other VRDs of the network, wherein the metadata is associated with characteristics of the spoken content; receiving, from each of the other VRDs of the network, a second set of characteristics associated with the speech event detected by that VRD, the second set of characteristics including second spoken content recognized from the speech event by that VRD; and determining , based on a comparison between the set of characteristics and the second set of characteristics, that an action responsive to the speech event should be performed locally by a determined one of the VRDs of the network, wherein said determining comprises determining that the spoken content substantially matches the second spoken content; wherein the method further comprises performing the action locally by the determined one of the VRDs of the network. generating a set of characteristics associated with a speech event that has been detected locally, the set of characteristics including spoken content recognized from the speech event; transmitting the set of characteristics and associated metadata to the other VRDs of the network, wherein the metadata is associated with characteristics of the spoken content; receiving, from each of the other VRDs of the network, a second set of characteristics associated with the speech event detected by that VRD, the second set of characteristics including second spoken content recognized from the speech event by that VRD; and determining , based on a comparison between the set of characteristics and the second set of characteristics, that an action responsive to the speech event should be performed locally by a determined one of the VRDs of the network, wherein said determining comprises determining that the spoken content substantially matches the second spoken content; wherein the method further comprises performing the action locally by the determined one of the VRDs of the network.
A method for managing power quality events in an electrical system, comprising: processing electrical measurement data from or derived from energy-related signals captured by at least one intelligent electronic device lED to identify at least one power quality event associated with one or more loads monitored by the at least one IED, wherein the at least one lED and the one or more loads are installed at respective locations in the electrical system; determining at least one means for mitigating or eliminating an impact of the at least one identified power quality event on the electrical system characterized in that said determining is based, at least in part, on an evaluation of a dynamic tolerance curve associated with one or more loads in the electrical system and characteristics of mitigating techniques and apparatuses, wherein the dynamic tolerance curve associated with the one or more loads characterizes response of the one or more loads to the at least one identified power quality event, and the impact of the at least one identified power quality event on the electrical system; and the method further comprises indicating a best means for mitigating or eliminating the impact from the at least one means for mitigating or eliminating the impact. processing electrical measurement data from or derived from energy-related signals captured by at least one intelligent electronic device lED to identify at least one power quality event associated with one or more loads monitored by the at least one IED, wherein the at least one lED and the one or more loads are installed at respective locations in the electrical system; determining at least one means for mitigating or eliminating an impact of the at least one identified power quality event on the electrical system characterized in that said determining is based, at least in part, on an evaluation of a dynamic tolerance curve associated with one or more loads in the electrical system and characteristics of mitigating techniques and apparatuses, wherein the dynamic tolerance curve associated with the one or more loads characterizes response of the one or more loads to the at least one identified power quality event, and the impact of the at least one identified power quality event on the electrical system; and the method further comprises indicating a best means for mitigating or eliminating the impact from the at least one means for mitigating or eliminating the impact.