mhurhangee/patent-ind-claim-en huggingface dataset:
A binding wire inserting device for inserting a binding wire in a bundle of an elongated workpiece that has been wound multiple times around a drum at an intermediate winding point in the bundle, the binding wire inserting device comprising: a wire holder swingably supported on the drum, the wire holder being configured to releasably hold the binding wire in a state in which a leading end of the binding wire is protruded from the wire holder and to swing between a first swing position and a second swing position, wherein, in the first swing position, the wire holder holds the binding wire such that the leading end of the binding wire is placed on one side of the intermediate winding point, and wherein, in the second swing position, the wire holder holds the binding wire such that the leading end of the binding wire is placed on the other side of the intermediate winding point. a wire holder swingably supported on the drum, the wire holder being configured to releasably hold the binding wire in a state in which a leading end of the binding wire is protruded from the wire holder and to swing between a first swing position and a second swing position, wherein, in the first swing position, the wire holder holds the binding wire such that the leading end of the binding wire is placed on one side of the intermediate winding point, and wherein, in the second swing position, the wire holder holds the binding wire such that the leading end of the binding wire is placed on the other side of the intermediate winding point.
A method for scheduling a transmission of packets within a network 1.1 using a common periodic time window, CPTW, having a congestion protected section, CPS, partitioned into time slots, S, including time slots dedicated to packets being sensitive to a delay variation; 1.2 the common periodic time window, CPTW being a global periodic time window known to each node with the network; and 1.3 wherein the congestion protected section, CPS, of said common periodic time window, CPTW, comprises a congestion protected synchronization section, CPSS, partitioned for each node of the network into downlink and uplink time slots dedicated to transmit synchronization packets used for time and/or frequency synchronization of said nodes; wherein 1.4 the time slots dedicated to packets being sensitive to a delay variation are the downlink and uplink time slots dedicated to transmit synchronization packets used for time and/or frequency synchronization of said nodes. 1.1 using a common periodic time window, CPTW, having a congestion protected section, CPS, partitioned into time slots, S, including time slots dedicated to packets being sensitive to a delay variation; 1.2 the common periodic time window, CPTW being a global periodic time window known to each node with the network; and 1.3 wherein the congestion protected section, CPS, of said common periodic time window, CPTW, comprises a congestion protected synchronization section, CPSS, partitioned for each node of the network into downlink and uplink time slots dedicated to transmit synchronization packets used for time and/or frequency synchronization of said nodes; wherein 1.4 the time slots dedicated to packets being sensitive to a delay variation are the downlink and uplink time slots dedicated to transmit synchronization packets used for time and/or frequency synchronization of said nodes.
A method of estimating available path capacity of a data transfer path that transfers data between a sending node and a receiving node of a data communication system , the method comprising: sending from the sending node one or more setting packets , wherein the one or more setting packets is/are used to set a traffic shaping node arranged in the data transfer path in a steady state where each packet is rate limited according to an average rate of the traffic shaping node; transmitting , from the traffic shaping node , probe packets received from the sending node , towards the receiving node where each packet is rate limited according to the average rate for the traffic shaping node ; providing , in a receiving node or in a node communicating with the receiving node , in response to traversal of the data transfer path by the probe packets , and during the real-time operation of the data transfer path , measured data for use in estimating the available path capacity of the data transfer path ; and estimating , in a receiving node or in a node communicating with the receiving node , the available path capacity of the data transfer path using the measured data from the probe packets . sending from the sending node one or more setting packets , wherein the one or more setting packets is/are used to set a traffic shaping node arranged in the data transfer path in a steady state where each packet is rate limited according to an average rate of the traffic shaping node; transmitting , from the traffic shaping node , probe packets received from the sending node , towards the receiving node where each packet is rate limited according to the average rate for the traffic shaping node ; providing , in a receiving node or in a node communicating with the receiving node , in response to traversal of the data transfer path by the probe packets , and during the real-time operation of the data transfer path , measured data for use in estimating the available path capacity of the data transfer path ; and estimating , in a receiving node or in a node communicating with the receiving node , the available path capacity of the data transfer path using the measured data from the probe packets .
A method comprising: employing a processor to virtually slice a CAD representation of a hollow 3D object into a plurality of virtual printed layers and: detecting gaps and shell weak spots between sliced layers; analyzing the gaps and shell weak spots between sliced layers to detect the size of the gaps and shell weak spots between the sliced layers, wherein the size of the gap and shell weak spots is determined by determining a spatial relation between an analyzed layer and at least one neighbor layer ; generating, based on the size of the detected gaps and shell weak spots, an inner support segment geometry that follows the geometry of the 3D object, wherein the inner support segment is configured to form an integral part of the object inner structure whereby removal of the inner support segment is not required after the 3D object printing is completed. employing a processor to virtually slice a CAD representation of a hollow 3D object into a plurality of virtual printed layers and: detecting gaps and shell weak spots between sliced layers; detecting gaps and shell weak spots between sliced layers; analyzing the gaps and shell weak spots between sliced layers to detect the size of the gaps and shell weak spots between the sliced layers, wherein the size of the gap and shell weak spots is determined by determining a spatial relation between an analyzed layer and at least one neighbor layer ; generating, based on the size of the detected gaps and shell weak spots, an inner support segment geometry that follows the geometry of the 3D object, wherein the inner support segment is configured to form an integral part of the object inner structure whereby removal of the inner support segment is not required after the 3D object printing is completed.
A data sending method, comprising: respectively receiving , by a forwarding device by using a first flexible Ethernet group, FlexE group, and in multiple timeslots comprised in a first timeslot set, multiple first encoded data blocks generated by a physical coding sublayer, PCS, wherein the multiple first encoded data blocks are in a one-to-one correspondence with the multiple timeslots in the first timeslot set; determining , by the forwarding device according to the multiple timeslots comprised in the first timeslot set and the first FlexE group, a second FlexE group and multiple timeslots comprised in a second timeslot set; and respectively sending , by the forwarding device, the multiple first encoded data blocks by using the second FlexE group and in the multiple timeslots comprised in the second timeslot set, wherein the multiple first encoded data blocks are in a one-to-one correspondence with the multiple timeslots comprised in the second timeslot set. respectively receiving , by a forwarding device by using a first flexible Ethernet group, FlexE group, and in multiple timeslots comprised in a first timeslot set, multiple first encoded data blocks generated by a physical coding sublayer, PCS, wherein the multiple first encoded data blocks are in a one-to-one correspondence with the multiple timeslots in the first timeslot set; determining , by the forwarding device according to the multiple timeslots comprised in the first timeslot set and the first FlexE group, a second FlexE group and multiple timeslots comprised in a second timeslot set; and respectively sending , by the forwarding device, the multiple first encoded data blocks by using the second FlexE group and in the multiple timeslots comprised in the second timeslot set, wherein the multiple first encoded data blocks are in a one-to-one correspondence with the multiple timeslots comprised in the second timeslot set.
A method for wireless communications at a user equipment, UE, comprising: transmitting , to a base station, an indication of a capability of the UE to perform a first beam refinement procedure in response to a data transmission and using a plurality of receive beams; selecting a first receive beam from the plurality of receive beams based at least in part on performing a first instance of a second beam refinement procedure using the plurality of receive beams; receiving the data transmission from the base station using the plurality of receive beams comprising the first receive beam before a second instance of the second beam refinement procedure; and performing the first beam refinement procedure based at least in part on receiving the data transmission. transmitting , to a base station, an indication of a capability of the UE to perform a first beam refinement procedure in response to a data transmission and using a plurality of receive beams; selecting a first receive beam from the plurality of receive beams based at least in part on performing a first instance of a second beam refinement procedure using the plurality of receive beams; receiving the data transmission from the base station using the plurality of receive beams comprising the first receive beam before a second instance of the second beam refinement procedure; and performing the first beam refinement procedure based at least in part on receiving the data transmission.
A vane for a gas turbine engine , the vane comprising: an airfoil; and a root portion disposed on a side of the airfoil and including a platform , the platform having a vane forward rail and an extension extending from the platform , the extension defining portions of an outer diameter platform cavity and an airfoil leading edge cavity ; wherein the extension extends from the platform such that an upper portion of each of the outer diameter platform cavity and the airfoil leading edge cavity is spaced equidistant from the platform , and such that the outer diameter platform cavity and the airfoil leading edge cavity are oriented substantially parallel with one another; characterized in that : the vane forward rail further defines a first inlet and a first channel for fluidly connecting a core air flow path and the outer diameter platform cavity , the vane forward rail further defining a second inlet and a second channel for fluidly connecting the core air flow path and the airfoil leading edge cavity ; and the first channel has a first central axis and the second channel has a second central axis, the first channel and the second channel being arranged with one another such that the first central axis and the second central axis are oriented parallel with one another. an airfoil; and a root portion disposed on a side of the airfoil and including a platform , the platform having a vane forward rail and an extension extending from the platform , the extension defining portions of an outer diameter platform cavity and an airfoil leading edge cavity ; wherein the extension extends from the platform such that an upper portion of each of the outer diameter platform cavity and the airfoil leading edge cavity is spaced equidistant from the platform , and such that the outer diameter platform cavity and the airfoil leading edge cavity are oriented substantially parallel with one another; characterized in that : the vane forward rail further defines a first inlet and a first channel for fluidly connecting a core air flow path and the outer diameter platform cavity , the vane forward rail further defining a second inlet and a second channel for fluidly connecting the core air flow path and the airfoil leading edge cavity ; and the first channel has a first central axis and the second channel has a second central axis, the first channel and the second channel being arranged with one another such that the first central axis and the second central axis are oriented parallel with one another. the vane forward rail further defines a first inlet and a first channel for fluidly connecting a core air flow path and the outer diameter platform cavity , the vane forward rail further defining a second inlet and a second channel for fluidly connecting the core air flow path and the airfoil leading edge cavity ; and the first channel has a first central axis and the second channel has a second central axis, the first channel and the second channel being arranged with one another such that the first central axis and the second central axis are oriented parallel with one another.
A laundry treatment apparatus, comprising: a laundry drying device provided with a water accumulation tank ; a first drain pipe and a second drain pipe , an inlet of the first drain pipe being in communication with the water accumulation tank ; a drain pump , a water outlet of the drain pump being in fluid communication with the second drain pipe , and a water inlet of the drain pump being in fluid communication with the water accumulation tank ; characterised in that the first drain pipe is in a normally open state, and the water accumulation tank is configured to always discharge water through the first drain pipe as long as a water level in the water accumulation tank is higher than a height of the inlet of the first drain pipe ; and wherein the laundry treatment apparatus further comprises a controller configured to control the drain pump to be opened when a water level in the water accumulation tank is higher than a first preset water level, so that water in the water accumulation tank is discharged from the water accumulation tank through the first drain pipe and the second drain pipe , wherein the first preset water level is higher than a height of the inlet of the first drain pipe . a laundry drying device provided with a water accumulation tank ; a first drain pipe and a second drain pipe , an inlet of the first drain pipe being in communication with the water accumulation tank ; a drain pump , a water outlet of the drain pump being in fluid communication with the second drain pipe , and a water inlet of the drain pump being in fluid communication with the water accumulation tank ; characterised in that the first drain pipe is in a normally open state, and the water accumulation tank is configured to always discharge water through the first drain pipe as long as a water level in the water accumulation tank is higher than a height of the inlet of the first drain pipe ; and wherein the laundry treatment apparatus further comprises a controller configured to control the drain pump to be opened when a water level in the water accumulation tank is higher than a first preset water level, so that water in the water accumulation tank is discharged from the water accumulation tank through the first drain pipe and the second drain pipe , wherein the first preset water level is higher than a height of the inlet of the first drain pipe .
Method for the formation of at least partially relaxed strained material islands on a target substrate, comprising the subsequently performed steps of transferring a strained material layer from a seed substrate to an intermediate substrate comprising depositing a compliant layer being a low-viscosity layer on the strained material layer and bonding the compliant layer to the intermediate substrate ; forming strained material islands from the strained material layer by patterning the strained material layer such that the strained material islands are separated by interspaces that extend down to the intermediate substrate such that substantially no material of the compliant layer remains on the bottom of the interspaces; at least partially relaxing the strained material islands by a first heat treatment resulting in a plastical deformation and reflow of the compliant layer ; and transferring the at least partially relaxed strained material islands to a target substrate .
A method for deduplicating data, the method comprising: analyzing file metadata structures (F1, F2, F3) of a file system, wherein each of the file metadata structures (F1, F2, F3) is a tree data structure comprising at least a root node and one or more leaf nodes, and wherein each of the file metadata structures (F1, F2, F3) is comprised of a plurality of metadata elements (401-407, 411-417, 412-427) that are nodes of the tree data structure; identifying a metadata element that is duplicated as two or more instances of the metadata element among the analyzed file metadata structures (F1, F2, F3); and deduplicating the identified metadata element that is duplicated among the file metadata structures (F1, F2, F3) by: determining a reference count associated with each instance of said two or more instances of the identified metadata element, each reference count indicating a number of one or more other metadata elements that reference a respective instance; identifying an instance of the two or more instances having a highest reference count; and modifying a parent metadata element of each instance of the two or more instances not having the highest reference count to reference the instance identified as having the highest reference count. analyzing file metadata structures (F1, F2, F3) of a file system, wherein each of the file metadata structures (F1, F2, F3) is a tree data structure comprising at least a root node and one or more leaf nodes, and wherein each of the file metadata structures (F1, F2, F3) is comprised of a plurality of metadata elements (401-407, 411-417, 412-427) that are nodes of the tree data structure; identifying a metadata element that is duplicated as two or more instances of the metadata element among the analyzed file metadata structures (F1, F2, F3); and deduplicating the identified metadata element that is duplicated among the file metadata structures (F1, F2, F3) by: determining a reference count associated with each instance of said two or more instances of the identified metadata element, each reference count indicating a number of one or more other metadata elements that reference a respective instance; identifying an instance of the two or more instances having a highest reference count; and modifying a parent metadata element of each instance of the two or more instances not having the highest reference count to reference the instance identified as having the highest reference count. determining a reference count associated with each instance of said two or more instances of the identified metadata element, each reference count indicating a number of one or more other metadata elements that reference a respective instance; identifying an instance of the two or more instances having a highest reference count; and modifying a parent metadata element of each instance of the two or more instances not having the highest reference count to reference the instance identified as having the highest reference count.
A mobile station comprising a mobile terminal , a transferable subscriber identity module , and an application interface , i.e., a SIM Application Toolkit , between the mobile terminal and the subscriber identity module, the subscriber identity module comprising means for storing data, characterized in that the subscriber identity module comprises means for inquiring selected property data, i.e., properties of the mobile terminal on the basis of the functionalities of the interface between the mobile terminal and the subscriber identity module and, the IMEI code of the mobile terminal, from the mobile terminal over the application interface, the means being arranged to be activated in response to the connecting of the subscriber identity module and the mobile terminal, i.e., automatically each time the mobile terminal is switched on; means for comparing the inquired property data, i.e., properties of the mobile terminal on the basis of the functionalities of the interface between the mobile terminal and the subscriber identity module and, the IMEI code of the mobile terminal with the data stored in the subscriber identity module; means for transmitting a message concerning the selected property data to a predetermined server and for updating the data stored in the subscriber identity module in response to the inquired property data, i.e. either the properties of the mobile terminal on the basis of the functionalities of the interface between the mobile terminal and the subscriber identity module or the IMEI code of the mobile terminal, being different from the stored property data.
A surface modification device, configured to supply substitution gas to a discharge area (E1, E2, E3) that is formed between a discharge electrode, which has a length in a width direction of a base material and includes one or more electrode members , and a counter electrode facing the discharge electrode, in order for a surface of the base material to be treated by discharge energy, the surface modification device comprising: a substitution gas passage that allows substitution gas to be injected toward the discharge area (E1, E2, E3) along the discharge electrode ; a cover member that includes an insulating material located along the discharge electrode and maintaining a facing gap from the discharge electrode a gas curtain passage of a slit shape that is formed by the facing gap between the cover member and the discharge electrode ; and a support member that is held between the electrode member and the cover member and has a gas guide hole formed therein to communicate with the gas curtain passage , wherein the cover member is mounted either any one or both of an upstream side and a downstream side of the discharge electrode with respect to a moving direction of the base material entering the discharge area formed between the discharge electrode and the counter electrode , and the gas curtain passage is supplied with curtain gas through the gas guide hole . a substitution gas passage that allows substitution gas to be injected toward the discharge area (E1, E2, E3) along the discharge electrode ; a cover member that includes an insulating material located along the discharge electrode and maintaining a facing gap from the discharge electrode a gas curtain passage of a slit shape that is formed by the facing gap between the cover member and the discharge electrode ; and a support member that is held between the electrode member and the cover member and has a gas guide hole formed therein to communicate with the gas curtain passage , wherein the cover member is mounted either any one or both of an upstream side and a downstream side of the discharge electrode with respect to a moving direction of the base material entering the discharge area formed between the discharge electrode and the counter electrode , and the gas curtain passage is supplied with curtain gas through the gas guide hole .