mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: receiving a data aggregator discovery, DAD, message at a particular node in a directed acyclic graph, DAG, of a computer network, the DAD message initiated by a data aggregator identified in the DAD message, the DAD message comprising a recorded route taken from the data aggregator to the particular node as well as a total path cost for the particular node to reach a root node of the DAG through the recorded route and via the data aggregator; determining a path cost increase, PCI, associated with use of the data aggregator based on the total path cost within the DAD message as compared to a DAG-based path cost for the particular node to reach the root node via the DAG; and redirecting traffic from the particular node to the data aggregator in response to the PCI being below a configured threshold, the traffic redirected as source-routed traffic according to the recorded route in the DAD message. receiving a data aggregator discovery, DAD, message at a particular node in a directed acyclic graph, DAG, of a computer network, the DAD message initiated by a data aggregator identified in the DAD message, the DAD message comprising a recorded route taken from the data aggregator to the particular node as well as a total path cost for the particular node to reach a root node of the DAG through the recorded route and via the data aggregator; determining a path cost increase, PCI, associated with use of the data aggregator based on the total path cost within the DAD message as compared to a DAG-based path cost for the particular node to reach the root node via the DAG; and redirecting traffic from the particular node to the data aggregator in response to the PCI being below a configured threshold, the traffic redirected as source-routed traffic according to the recorded route in the DAD message.
A method for fabricating a multi-point sensing assembly with multiple measuring points for sensing temperature, comprising: - positioning, e.g. inserting, at least one elongated member (11, 12, 13, 14), and at least one pre-formed fitting (71, 72, 73, 74), e.g. ceramic block, into an inner cavity of a sleeve member, e. g. a tube, wherein the at least one elongated member (11, 12, 13, 14) is a temperature probe for determining a temperature and has a rod like form in which at least one sensor element is arranged, preferably at the tip of the elongated member (11, 12, 13, 14), and characterized in that the at least one elongated member (11, 12, 13, 14, 26) has a metallic outer sheath, which is filled with an insulating material in which said sensor element, and preferably connection wires of said sensor element, is embedded; - shattering said pre-formed fitting (71, 72, 73, 74) positioned within said cavity e.g. by deforming said sleeve member. - positioning, e.g. inserting, at least one elongated member (11, 12, 13, 14), and at least one pre-formed fitting (71, 72, 73, 74), e.g. ceramic block, into an inner cavity of a sleeve member, e. g. a tube, wherein the at least one elongated member (11, 12, 13, 14) is a temperature probe for determining a temperature and has a rod like form in which at least one sensor element is arranged, preferably at the tip of the elongated member (11, 12, 13, 14), and characterized in that the at least one elongated member (11, 12, 13, 14, 26) has a metallic outer sheath, which is filled with an insulating material in which said sensor element, and preferably connection wires of said sensor element, is embedded; - shattering said pre-formed fitting (71, 72, 73, 74) positioned within said cavity e.g. by deforming said sleeve member.
A firing furnace (20, 40, 50) comprising a power source (10, 30) including a first terminal (101, 301) and a second terminal (102, 302), a casing, a firing chamber (22, 43, 53) disposed in the casing, a plurality of heaters (11, 12, 23, 31, 32, 54) disposed in the casing and connected in series with the power source (10, 30), and a power supply position-switching device, wherein the plurality of heaters (11, 12, 23, 31, 32, 54) include a first heater (11, 31) connected to the first terminal of the power source (101, 301) and a second heater (12, 32) connected to the second terminal of the power source (102, 302), the first heater (11, 31) having a first terminal (111, 311) and a second terminal (112, 312), the second heater (12, 32) having a third terminal (121, 321) and a fourth terminal (122, 322), and the power supply position-switching device is a device to switch between a first state in which the first terminal of the power source (101, 301) is connected with the first termina of the first heater (111, 311); the second terminal of the power source (102, 302) is connected with the third terminal of the second heater (121, 321); and the second terminal of the first heater (112, 312) is connected with the fourth terminal of the second heater (122, 322), and a second state in which the first terminal of the power source (101, 301) is connected with the second terminal of the first heater (112, 312); the second terminal of the power source (102, 302) is connected with the fourth terminal of the second heater (122, 322); and the first terminal of the first heater (111, 311) is connected with the third terminal of the second heater (121, 321).
A method, comprising: providing a feed stream to a vaporizer, the feed stream comprising MEG and water; vaporizing (302, 304) the MEG by thermal contact with a heating medium in the vaporizer to form a vaporized MEG stream, wherein the heating medium is immiscible with MEG; increasing a pressure of at least a portion of the vaporized MEG stream using a pressurizing unit to form a pressurized MEG vapor stream having a dew point temperature greater than the temperature of the heating medium; withdrawing a portion of the heating medium from the vaporizer and routing the withdrawn portion to a thermal section; increasing (308, 312) a temperature of the withdrawn heating medium in the thermal section by thermally contacting the heating medium with the pressurized vapor stream to form a recycled heating medium, wherein the thermal section includes a heater configured to achieve a target temperature of the recycled heating medium; routing the recycled heating medium from the thermal section back to the vaporizer; measuring a temperature of the recycled heating medium returned to the vaporizer or measuring energy consumption of the pressurizing unit and the heater; and adjusting operation of the pressurizing unit and/or the heater to maintain the recycled heating medium temperature and reduce overall energy consumption. providing a feed stream to a vaporizer, the feed stream comprising MEG and water; vaporizing (302, 304) the MEG by thermal contact with a heating medium in the vaporizer to form a vaporized MEG stream, wherein the heating medium is immiscible with MEG; increasing a pressure of at least a portion of the vaporized MEG stream using a pressurizing unit to form a pressurized MEG vapor stream having a dew point temperature greater than the temperature of the heating medium; withdrawing a portion of the heating medium from the vaporizer and routing the withdrawn portion to a thermal section; increasing (308, 312) a temperature of the withdrawn heating medium in the thermal section by thermally contacting the heating medium with the pressurized vapor stream to form a recycled heating medium, wherein the thermal section includes a heater configured to achieve a target temperature of the recycled heating medium; routing the recycled heating medium from the thermal section back to the vaporizer; measuring a temperature of the recycled heating medium returned to the vaporizer or measuring energy consumption of the pressurizing unit and the heater; and adjusting operation of the pressurizing unit and/or the heater to maintain the recycled heating medium temperature and reduce overall energy consumption.
An organic electroluminescence device comprising at least an anode, an emitting layer, an electron-transporting region and a cathode in sequential order, wherein the electron-transporting region is adjacent to the cathode, the emitting layer contains a host and a dopant which gives fluorescent emission of which the main peak wavelength is 550 nm or less; the electron affinity Ad of the dopant is equal to or larger than the electron affinity Ah of the host; the triplet energy E T d of the dopant is larger than the triplet energy E T h of the host; and a blocking layer, which is a layer having a triplet energy blocking function different from the function of a hole-blocking layer or a carrier-blocking layer, is provided within the electron-transporting region such that it is adjacent to the emitting layer, the triplet energy E T b of the blocking layer is larger than E T h, and the triplet energy blocking layer comprises an aromatic hydrocarbon compound.
A positioning structure for a worm wheel which is configured to mesh with a worm spindle and comprises: a body including plural accommodating grooves defined around an outer periphery thereof; and a plurality of rolling assemblies, each rolling assembly including a rolling ball placed thereon and extending out of the outer periphery of the body, and said each rolling assembly also including a magnetic attracting element mounted therein adjacent to the rolling ball; wherein the body also includes plural recesses, and each recess forms on a bottom face of each accommodating groove and communicating with said each accommodating groove; characterized in that said each rolling assembly further includes a holder disposed in said each accommodating groove and configured to place the rolling ball and to mount the magnetic attracting element, wherein a width of the holder is less than a width of said each accommodating groove so as to form a gap between the holder and said each accommodating groove; the positioning structure further comprises at least one attaching material, and each of the at least one attaching material is filled in the gap between the holder and said each accommodating groove, wherein said each rolling assembly is adjustably moved to a fixing position of said each accommodating groove by using said each recess, and said each attaching material locates the holder in said each accommodating groove. a body including plural accommodating grooves defined around an outer periphery thereof; and a plurality of rolling assemblies, each rolling assembly including a rolling ball placed thereon and extending out of the outer periphery of the body, and said each rolling assembly also including a magnetic attracting element mounted therein adjacent to the rolling ball; wherein the body also includes plural recesses, and each recess forms on a bottom face of each accommodating groove and communicating with said each accommodating groove; characterized in that said each rolling assembly further includes a holder disposed in said each accommodating groove and configured to place the rolling ball and to mount the magnetic attracting element, wherein a width of the holder is less than a width of said each accommodating groove so as to form a gap between the holder and said each accommodating groove; the positioning structure further comprises at least one attaching material, and each of the at least one attaching material is filled in the gap between the holder and said each accommodating groove, wherein said each rolling assembly is adjustably moved to a fixing position of said each accommodating groove by using said each recess, and said each attaching material locates the holder in said each accommodating groove.
A method for the stacking in layers of timber packages that uses a transfer arrangement consisting of several individual carrier planes (5, 6, 7) that are mobile one after the other around a cyclic path and which, for the transfer of one layer (20, 21, 22) at a time from an input transporter to a stacking table that can be raised and lowered, can be arranged in direct association with the delivery end of the input transporter such that the carrier planes (5, 6, 7) in turn form a direct continuation of the input transporter in order to receive layers (20, 21, 22) fed from this transporter by being caused to lift from below a complete layer (20, 21, 22) from the input transporter and displacing the layer (20, 21, 22) in over the stacking table, after which the carrier planes (5, 6, 7) are withdrawn from the stacking table while the layer (20, 21, 22) of timber is scraped off from the carrier plane (5, 6, 7) through interaction with a counterpiece arranged at the stacking table such that the layer (20, 21, 22) is laid directly onto the carrier arms of the stacking table or, when a layer (20, 21, 22) has previously been laid onto these arms, onto the uppermost layer (20, 21, 22) of timber whereby the stacking table is arranged to move downwards in steps with the growth of the timber package to a corresponding degree until the package has been completely formed, characterised in that the transfer arrangement uses a first, a second and a third carrier plane (5, 6, 7), which are independently displaceable and arranged to move relative to each other in the cycle such that a pair of two consecutive carrier planes (5, 6) are located at the same time in a position above the stacking table and that the carrier plane of the said pair (5, 6) that has arrived at the stacking table most recently is retained in its position above the stacking table to interact in a retaining manner through contact with the upper surface of a layer supported by the carrier plane of the pair that arrived at the stacking table first while the said carrier plane of the pair (5, 6) that arrived at the stacking table first is withdrawn from the stacking table and the layer is being scraped off.
An oven comprising - an inner case which defines a chamber for cooking/baking food, - a heater unit which is arranged to heat the chamber, - a door for accessing the chamber, - an outer case which encloses the inner case, - a user interface and electrical components for controlling the oven, - a control panel which is arranged above the door, wherein the user interface is mounted to the control panel, - a ventilation unit for expelling radiant heat to an outside, wherein the ventilation unit is arranged inside the outer case and on an upper side of the inner case, - a heat protective shield which is arranged through an air gap above the ventilation unit, wherein the heat protective shield has a size and shape configured to screen the user interface and electrical components from the radiant heat emanated from the hot air inside the ventilation unit and the chamber during operation, wherein the heat protective shield comprises a mounting plate and wherein the electrical components are attached onto an upper surface of the mounting plate which is averted from ventilation unit, characterized in that the heat protective shield further comprises a mounting bracket, wherein the mounting bracket is attached across the opposing side walls of the outer case so as to reinforce an upper wall of the outer case from below, wherein the mounting bracket comprises a vertical partition plate which physically divides a region above the ventilation unit into two sub regions (17a, 17b), wherein the partition plate extends perpendicular to the opposing side walls of the outer case. - an inner case which defines a chamber for cooking/baking food, - a heater unit which is arranged to heat the chamber, - a door for accessing the chamber, - an outer case which encloses the inner case, - a user interface and electrical components for controlling the oven, - a control panel which is arranged above the door, wherein the user interface is mounted to the control panel, - a ventilation unit for expelling radiant heat to an outside, wherein the ventilation unit is arranged inside the outer case and on an upper side of the inner case, - a heat protective shield which is arranged through an air gap above the ventilation unit, wherein the heat protective shield has a size and shape configured to screen the user interface and electrical components from the radiant heat emanated from the hot air inside the ventilation unit and the chamber during operation, wherein the heat protective shield comprises a mounting plate and wherein the electrical components are attached onto an upper surface of the mounting plate which is averted from ventilation unit, characterized in that the heat protective shield further comprises a mounting bracket, wherein the mounting bracket is attached across the opposing side walls of the outer case so as to reinforce an upper wall of the outer case from below, wherein the mounting bracket comprises a vertical partition plate which physically divides a region above the ventilation unit into two sub regions (17a, 17b), wherein the partition plate extends perpendicular to the opposing side walls of the outer case.
A wireless access point, comprising: a processing module configured to operate in conjunction with a memory and to receive coordination data from an access point controller; and a wireless transceiver, coupled to the processing module, configured to provide coordinated multipoint communications with at least one remote device of a plurality of remote devices (STA1, STA2) via a wireless local area network protocol, wherein the coordinated multipoint communications are coordinated with at least one other wireless access point (AP2, AP3) in accordance with coordination data, wherein the coordination data specifies the synchronized back-off time for said access points, wherein the coordinated multipoint communications include transmission of a plurality of simultaneous data frames (700, 702) by the wireless access points (AP1, AP2. AP3), wherein the simultaneous data frames (700, 702) are synchronized to include at least one non-beamformed transmission during a non-beamformed portion and a plurality of simultaneous beamformed transmissions during a beamformed portion; and the wireless access point is adapted to transmit control data (704, 904) to be used by the at least one of the remote devices (STA1, STA2). a processing module configured to operate in conjunction with a memory and to receive coordination data from an access point controller; and a wireless transceiver, coupled to the processing module, configured to provide coordinated multipoint communications with at least one remote device of a plurality of remote devices (STA1, STA2) via a wireless local area network protocol, wherein the coordinated multipoint communications are coordinated with at least one other wireless access point (AP2, AP3) in accordance with coordination data, wherein the coordination data specifies the synchronized back-off time for said access points, wherein the coordinated multipoint communications include transmission of a plurality of simultaneous data frames (700, 702) by the wireless access points (AP1, AP2. AP3), wherein the simultaneous data frames (700, 702) are synchronized to include at least one non-beamformed transmission during a non-beamformed portion and a plurality of simultaneous beamformed transmissions during a beamformed portion; and the wireless access point is adapted to transmit control data (704, 904) to be used by the at least one of the remote devices (STA1, STA2).
A base station, when programmed for carrying out a method for sharing load, comprising: means for obtaining a current load value of the base station; means for selecting a sharing base station from middle base stations that belong to a mobility management entity, MME, connected to the base station, if the current load value of the base station exceeds a preset load threshold value; means for transmitting information of a load to be shared to the selected sharing base station, for the load to be shared with the sharing base station without switching a user equipment, UE, to a cell served by the sharing base station; and means for sharing the load to be shared to the sharing base station according to baseband resource prepared based on the information of the load to be shared, characterized in that the information of the load to be shared comprises context information of the UE corresponding to the load to be shared, terminal ID in the MME and service ID. means for obtaining a current load value of the base station; means for selecting a sharing base station from middle base stations that belong to a mobility management entity, MME, connected to the base station, if the current load value of the base station exceeds a preset load threshold value; means for transmitting information of a load to be shared to the selected sharing base station, for the load to be shared with the sharing base station without switching a user equipment, UE, to a cell served by the sharing base station; and means for sharing the load to be shared to the sharing base station according to baseband resource prepared based on the information of the load to be shared,
A method of forming a metal single crystal turbine component with internal passageways comprising: forming a polycrystalline metal turbine component with internal passageways by an additive manufacturing process; filling the internal passageways with a core ceramic slurry; treating the ceramic slurry to form a ceramic core; encasing the metal component in a ceramic shell; treating the ceramic shell to form a ceramic mold; placing the ceramic mold in a furnace and melting the metal turbine component; directionally solidifying the melt to form a metal single crystal turbine; and cooling the mold, removing the outer shell and inner ceramic core to reveal a finished metal single crystal turbine component with internal passageways; wherein the metal single crystal turbine component is formed using a starter seed or grain selector in conjunction with directional solidification. forming a polycrystalline metal turbine component with internal passageways by an additive manufacturing process; filling the internal passageways with a core ceramic slurry; treating the ceramic slurry to form a ceramic core; encasing the metal component in a ceramic shell; treating the ceramic shell to form a ceramic mold; placing the ceramic mold in a furnace and melting the metal turbine component; directionally solidifying the melt to form a metal single crystal turbine; and cooling the mold, removing the outer shell and inner ceramic core to reveal a finished metal single crystal turbine component with internal passageways; wherein the metal single crystal turbine component is formed using a starter seed or grain selector in conjunction with directional solidification.