mhurhangee/ep-ind-claims huggingface dataset:
A method for continuously manufacturing a stretchable sheet with a thread-shaped elastic body fixed between a pair of belt-shaped sheets in a state of being stretched in a direction intersecting with a conveyance direction of the belt-shaped sheets, comprising: a supply process of continuously feeding the thread-shaped elastic body and introducing the fed thread-shaped elastic body to elastic body winding means; a conveyance process of continuously winding the thread-shaped elastic body to a thread-conveying longitudinal structure using the elastic body winding means and conveying the wound thread-shaped elastic body in a longitudinal direction of the thread-conveying longitudinal structure; and an integration process of fixing the conveyed thread-shaped elastic body as sandwiching between the sheets, wherein, in the supply process, the thread-shaped elastic body is introduced to the elastic body winding means while adjusting a speed of the thread-shaped elastic body to be higher than a winding speed to the thread-conveying longitudinal structure with speed adjusting means which is arranged at the upstream side of the elastic body winding means. a supply process of continuously feeding the thread-shaped elastic body and introducing the fed thread-shaped elastic body to elastic body winding means; a conveyance process of continuously winding the thread-shaped elastic body to a thread-conveying longitudinal structure using the elastic body winding means and conveying the wound thread-shaped elastic body in a longitudinal direction of the thread-conveying longitudinal structure; and an integration process of fixing the conveyed thread-shaped elastic body as sandwiching between the sheets, wherein, in the supply process, the thread-shaped elastic body is introduced to the elastic body winding means while adjusting a speed of the thread-shaped elastic body to be higher than a winding speed to the thread-conveying longitudinal structure with speed adjusting means which is arranged at the upstream side of the elastic body winding means.
A cellular solid material comprising at least 50 wt% cellulose nanofibers and 0.2 - 40 wt% of a surfactant as calculated on the total weight of the cellular solid material, wherein: a) the surfactant is non-ionic and has a hydrophilic-lipophilic balance value of at least 8; b) the material has a density of less than 500 kg/m 3; and c) at least 50% of the cells of the material have a diameter of at least 10 μm. a) the surfactant is non-ionic and has a hydrophilic-lipophilic balance value of at least 8; b) the material has a density of less than 500 kg/m 3; and c) at least 50% of the cells of the material have a diameter of at least 10 μm.
A method for optimizing object code for power savings during execution on a computing device, comprising: receiving compiled binary object code in a computing device's system software; analyzing the received compiled binary object code in a dynamic binary translator operating at the machine layer to identify code segments that can be optimized for power savings; sensing a connection to a different power source; performing in the dynamic binary translator an instruction-sequence to instruction-sequence translation of the received compiled binary object code to generate power optimized object code in response to sensing the connection to a different power source; and executing the power optimized object code on a processor of the computing device. receiving compiled binary object code in a computing device's system software; analyzing the received compiled binary object code in a dynamic binary translator operating at the machine layer to identify code segments that can be optimized for power savings; sensing a connection to a different power source; performing in the dynamic binary translator an instruction-sequence to instruction-sequence translation of the received compiled binary object code to generate power optimized object code in response to sensing the connection to a different power source; and executing the power optimized object code on a processor of the computing device.
A method for controlling a fan heater, characterized in that, the method comprises: sampling an indoor temperature at a preset interval; comparing the sampled indoor temperature with a preset temperature to obtain a temperature control signal, wherein the operation of comparing the sampled indoor temperature with a preset temperature to obtain a temperature control signal comprises: obtaining a difference value by subtracting the sampled indoor temperature from the preset temperature value; and converting the difference value into the temperature control signal; and adjusting a power of a heater and a rotate speed of a fan according to the temperature control signal, characterized in that the operation of "adjusting a power of a heater and a rotate speed of a fan according to the temperature control signal" comprises: controlling the fan to rotate at a low speed and controlling the heater to heat at a high power, in response to a determination that the difference value is between a first preset difference value and a second preset difference value. sampling an indoor temperature at a preset interval; comparing the sampled indoor temperature with a preset temperature to obtain a temperature control signal, wherein the operation of comparing the sampled indoor temperature with a preset temperature to obtain a temperature control signal comprises: obtaining a difference value by subtracting the sampled indoor temperature from the preset temperature value; and converting the difference value into the temperature control signal; and adjusting a power of a heater and a rotate speed of a fan according to the temperature control signal, characterized in that the operation of "adjusting a power of a heater and a rotate speed of a fan according to the temperature control signal" comprises: controlling the fan to rotate at a low speed and controlling the heater to heat at a high power, in response to a determination that the difference value is between a first preset difference value and a second preset difference value.
An arm rest for a vehicle seat, said arm rest comprising a pivotable lid and an arm rest compartment having an opening, said opening having a first and a second end (4a, 4b), said lid having a forward end and a rearward end, reference to said forward or rearward end of said arm rest being meant with respect to a vehicle seat associated with said arm rest, said lid being displaceable between an opened position and a closed position, wherein said lid is pivotally arranged so that when being in said opened position, said forward end of said lid is arranged proximal of said opening of said arm rest compartment and said rearward end of said lid is arranged distal to said opening of said arm rest compartment with respect to a vertical axis (x), such that said forward end of said lid is pointing downwards and said rearward end of said lid pointing upwards, wherein said lid is pivotally arranged to said arm rest compartment via a hinge arm, said hinge arm having a first and a second end (5a, 5b), and wherein said forward end of said lid is enabled to slide adjacent to, or in the proximity of, said opening of said arm rest compartment, when displacing said lid from said closed position to said open position, during which displacement said rearward end of said lid is vertically displaced with respect to said vertical axis (x) in an upwardly direction.
A method for monitoring performance of a seed planter planting seeds using a metering system including a seed meter and a seed meter drive, the method comprising: generating metering system motion signals representative of a speed of the seed meter drive; characterized in that the method further comprises: measuring a rotational metric of a seed disc of the seed meter during an averaging period based on a first set of the metering system motion signals during the averaging period; measuring the rotational metric during a measuring period based on a second set of the metering system motion signals during the measuring period; and calculating a stability metric based on a deviation between the value of the rotational metric during the measuring period and the value of the rotational metric during the averaging period. generating metering system motion signals representative of a speed of the seed meter drive; characterized in that the method further comprises: measuring a rotational metric of a seed disc of the seed meter during an averaging period based on a first set of the metering system motion signals during the averaging period; measuring the rotational metric during a measuring period based on a second set of the metering system motion signals during the measuring period; and calculating a stability metric based on a deviation between the value of the rotational metric during the measuring period and the value of the rotational metric during the averaging period. measuring a rotational metric of a seed disc of the seed meter during an averaging period based on a first set of the metering system motion signals during the averaging period; measuring the rotational metric during a measuring period based on a second set of the metering system motion signals during the measuring period; and calculating a stability metric based on a deviation between the value of the rotational metric during the measuring period and the value of the rotational metric during the averaging period.
A method of operating a transport interface for at least one local Fibre Channel/FICON port, said method comprising: receiving at the transport interface Fibre Channel/FICON data from the at least one local Fibre Channel/FICON port; inserting a special latency instruction message into the Fibre Channel/FICON data comprising a control character field, a special control character field, and a latency sequence number, wherein said control character field indicates that said special control character field contains a special control character; encapsulating said Fibre Channel/FICON data in a generic framing procedure, GFP, client data frame; sending said GFP client data frame over a SONET/SDH transport network to a remote Fibre Channel/FICON port; starting a timer concurrently with said sending of said GFP client data frame for timing a return of said special latency instruction message over said SONET/SDH transport network to produce a round trip time; calculating a number of buffers needed for receiving GFP client data frames from said remote Fibre Channel/FICON port in order to maximise throughput over said SONET/SDH network and reduce latency based on said round trip time; and allocating said number of buffers in said transport interface. receiving at the transport interface Fibre Channel/FICON data from the at least one local Fibre Channel/FICON port; inserting a special latency instruction message into the Fibre Channel/FICON data comprising a control character field, a special control character field, and a latency sequence number, wherein said control character field indicates that said special control character field contains a special control character; encapsulating said Fibre Channel/FICON data in a generic framing procedure, GFP, client data frame; sending said GFP client data frame over a SONET/SDH transport network to a remote Fibre Channel/FICON port; starting a timer concurrently with said sending of said GFP client data frame for timing a return of said special latency instruction message over said SONET/SDH transport network to produce a round trip time; calculating a number of buffers needed for receiving GFP client data frames from said remote Fibre Channel/FICON port in order to maximise throughput over said SONET/SDH network and reduce latency based on said round trip time; and allocating said number of buffers in said transport interface.
Converter station for transmitting electrical power, having a converter, which has a DC-voltage connection and an AC-voltage connection, and at least one transformer (6, 7), which is connected to the AC-voltage connection, wherein the converter is connected to a wind farm via an AC-voltage grid, and the converter station is arranged in a manner distributed on at least two support structures (18, 19, 20) which are erected independently of one another, wherein the converter has a plurality of partial converters series-connected or parallel-connected on the DC-voltage side, wherein the partial converters are held at least partially on different support structures (18, 19, 20), wherein each partial converter is connected on the AC-voltage side to a partial transformer, characterized in that said partial converter and said partial transformer are arranged in a common partial encapsulation housing filled with insulating material and the insulating material has improved insulation properties with respect to atmospheric air, wherein the partial converters are at least partially partial diode rectifiers, the current valves of which have a series circuit composed of diodes.
A bone fixation device comprising: an expandable member capable of moving from a deflated state to an inflated state by infusing at least one light sensitive liquid into the expandable member, the light sensitive liquid being configured to cure within the expandable member to harden the expandable member; and two or more clamps configured to engage a rib bone and receive the expandable member such that the two or more clamps secure the expandable member to the rib bone, the inflation of the expandable member with the at least one light sensitive liquid configured to be adjustable to conform to a shape of the rib bone, characterised in that the bone fixation device further comprising a ring member extending outwardly from each of the two or more clamps, the ring member configured to have an opening that is sized to receive the expandable member therein. an expandable member capable of moving from a deflated state to an inflated state by infusing at least one light sensitive liquid into the expandable member, the light sensitive liquid being configured to cure within the expandable member to harden the expandable member; and two or more clamps configured to engage a rib bone and receive the expandable member such that the two or more clamps secure the expandable member to the rib bone, the inflation of the expandable member with the at least one light sensitive liquid configured to be adjustable to conform to a shape of the rib bone, characterised in that the bone fixation device further comprising a ring member extending outwardly from each of the two or more clamps, the ring member configured to have an opening that is sized to receive the expandable member therein.
Plug connection element for a supporting structure, in particular a scaffold, comprising a connection element body with a connection area for connection to a first scaffold element and a plug connection area for realizing a plug connection with a second scaffold element to be coupled to the first scaffold element, wherein the connection area comprises an essentially U-shaped linking section with two U-legs (28, 30) and a connection section connecting the two U-legs (28, 30), wherein the linking section is to be positioned so that it grips over the first scaffold element with its two U-legs (28, 30) in a height direction, characterised by a distance element adjustable with respect to the connection element body for defining a relative positioning of said connection element body with respect to the first scaffold element in the height direction, wherein the distance element is formed rod-like and is slidable inside the connection element body in the direction of a distance element longitudinal axis and comprises a support area for a support with respect to the first scaffold element.
An electrolyte complex for a lithium-sulfur battery, the electrolyte complex comprising two kinds of phase-separated solid electrolytes in the form of a layered structure, these being a first solid electrolyte capable of being positioned to the positive electrode side and a second solid electrolyte capable of being positioned to the negative electrode side; wherein the first solid electrolyte comprises an organic solvent having a dielectric constant of 30 or more, a lithium salt, a polymer formed by polymerization of a crosslinkable monomer, and an inorganic particle; and wherein the second solid electrolyte comprises an organic solvent having a dielectric constant of 20 or less, a lithium salt, a polymer formed by polymerization of a crosslinkable monomer, and an inorganic particle. wherein the first solid electrolyte comprises an organic solvent having a dielectric constant of 30 or more, a lithium salt, a polymer formed by polymerization of a crosslinkable monomer, and an inorganic particle; and wherein the second solid electrolyte comprises an organic solvent having a dielectric constant of 20 or less, a lithium salt, a polymer formed by polymerization of a crosslinkable monomer, and an inorganic particle.
An unmanned aerial vehicle, UAV, comprising: a propulsion system (112, 114); a global navigation satellite system, GNSS, sensor; a camera; and a controller including logic that, in response to execution by the controller, causes the UAV to: in response to detecting a loss of tracking by the GNSS sensor: determine an estimated location of the UAV on a map based on a location image captured by the camera; determine a route to a destination using tracking parameters embedded in the map, wherein the map is divided into a plurality of sections (472, 474, 476) and each tracking parameter indicates an ease of determining a location of the UAV using one or more images captured by the camera with respect to a respective section; and control the propulsion system to cause the UAV to follow the route to the destination. a propulsion system (112, 114); a global navigation satellite system, GNSS, sensor; a camera; and a controller including logic that, in response to execution by the controller, causes the UAV to: in response to detecting a loss of tracking by the GNSS sensor: determine an estimated location of the UAV on a map based on a location image captured by the camera; determine a route to a destination using tracking parameters embedded in the map, wherein the map is divided into a plurality of sections (472, 474, 476) and each tracking parameter indicates an ease of determining a location of the UAV using one or more images captured by the camera with respect to a respective section; and control the propulsion system to cause the UAV to follow the route to the destination. determine an estimated location of the UAV on a map based on a location image captured by the camera; determine a route to a destination using tracking parameters embedded in the map, wherein the map is divided into a plurality of sections (472, 474, 476) and each tracking parameter indicates an ease of determining a location of the UAV using one or more images captured by the camera with respect to a respective section; and control the propulsion system to cause the UAV to follow the route to the destination.
A personal care product system comprising: a stand; a first stand permanent docking magnet positioned within the stand; a stand inductive charging coil positioned within the stand; a handle removably mounted to the stand; a rechargeable battery positioned within the handle; a first handle permanent docking magnet positioned within the handle configured to generate an attraction force sufficient to hold the handle to the stand when placed in proximity to the first stand permanent docking magnet; a handle inductive charging coil positioned within the handle, wherein the stand inductive charging coil is configured to generate a magnetic field that penetrates the handle inductive charging coil to charge the rechargeable battery; and characterised in that the system further comprises a handle flux guiding member in close proximity to a surface of the first handle permanent docking magnet. a stand; a first stand permanent docking magnet positioned within the stand; a stand inductive charging coil positioned within the stand; a handle removably mounted to the stand; a rechargeable battery positioned within the handle; a first handle permanent docking magnet positioned within the handle configured to generate an attraction force sufficient to hold the handle to the stand when placed in proximity to the first stand permanent docking magnet; a handle inductive charging coil positioned within the handle, wherein the stand inductive charging coil is configured to generate a magnetic field that penetrates the handle inductive charging coil to charge the rechargeable battery; and characterised in that the system further comprises a handle flux guiding member in close proximity to a surface of the first handle permanent docking magnet.
A method for operating a transport network interface to determine status of a Fibre-Channel link between first and second Fibre-Channel ports (102, 104) that communicate over a transport network via said transport network interface, said method comprising: at the transport network interface (108, 110), monitoring Fibre-Channel link establishment FLOGI/PLOGI frames communicated between said first Fibre-Channel port and said second Fibre-Channel port; and at the transport network interface (108, 110), based on said Fibre-Channel link establishment FLOGI/PLOGI frames, determining said Fibre-Channel link status between said first Fibre-Channel port and said second Fibre-Channel port and port types of said first and second Fibre-Channel ports (102, 104). at the transport network interface (108, 110), monitoring Fibre-Channel link establishment FLOGI/PLOGI frames communicated between said first Fibre-Channel port and said second Fibre-Channel port; and at the transport network interface (108, 110), based on said Fibre-Channel link establishment FLOGI/PLOGI frames, determining said Fibre-Channel link status between said first Fibre-Channel port and said second Fibre-Channel port and port types of said first and second Fibre-Channel ports (102, 104).
A cold runner block in a vertically operating injection molding machine for processing elastomer materials with an upper fixed molding platen and a molding platen arranged thereunder which is movable relative to the fixed molding platen, between which a molding tool having a plurality of mold cavities is arranged and wherein the cold runner block is arranged between the fixed molding platen and the molding tool, the cold runner block containing a distribution plate having the cold runners and containing a nozzle plate with nozzles each assigned to one of the plurality of mold cavities, characterized in that the distribution plate formed from a plurality of distribution strips is arranged on a retaining plate, which can be fastened to the fixed, feed-side molding platen, in such a way that each distribution strip is connected by means of two bolts to the retaining plate in that the head of each bolt facing away from the distribution strip forms a retaining element which is T-shaped in section, the retaining element being displaceably guided in the direction transverse to the distribution strip's longitudinal axis in guide rails which are formed in the retaining plate and are designed in section to complement the bolt head.
A human monoclonal anti-interleukin-17F (IL-17F) antibody, or an antigen-binding fragment thereof, wherein the antibody recognizes a conformational epitope on IL-17F and is capable of neutralizing the biological activity of IL-17F, and the antibody or antigen binding fragment thereof comprises in its variable heavy chain and variable light chain the VH and VL chain amino acid sequence of SEQ ID NO: 15 and 17, respectively, or SEQ ID NO: 23 and 25, respectively.