mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: obtaining control-plane, C-plane, setup preference information by a base station in a heterogeneous network, HetNet, having a microwave macrocell and overlaying Millimeter Wave, mmWave, small cells (120, 130); determining a preferred C-plane setup by the base station based on the obtained C-plane setup preference information for a user equipment, UE, supporting dual connectivity with a macro base station, MBS, and a smallcell base station (120, 130), SBS; and performing C-plane setup update by the base station according to the preferred C-plane setup, characterized in that when the UE is stationary or settles down inside a coverage of the SBS (SBS1, SBS2) such that the UE has stationary to low mobility, a first C-plane setup (SCENARIO#A, #D) is applied for the UE, wherein anchor control signaling is provided by the SBS (SBS1, SBS2); and/or when the UE speeds up or an existing mmWave link with the SBS degrades such that the UE has medium to high mobility, a second C-plane setup (SCENARIO#E) is applied for the UE, wherein anchor control signaling is provided by the MBS; and/or when the UE slows down and an active mmWave link with the SBS (SBS1, SBS2) becomes operational, or the UE starts moving or the existing mmWave link with the SBS (SBS1, SBS2) degrades such that the UE has low to medium mobility, a third C-plane setup (SCENARIO#B, #C) is applied for the UE, wherein control signaling is provided by both the MBS and the SBS. obtaining control-plane, C-plane, setup preference information by a base station in a heterogeneous network, HetNet, having a microwave macrocell and overlaying Millimeter Wave, mmWave, small cells (120, 130); determining a preferred C-plane setup by the base station based on the obtained C-plane setup preference information for a user equipment, UE, supporting dual connectivity with a macro base station, MBS, and a smallcell base station (120, 130), SBS; and performing C-plane setup update by the base station according to the preferred C-plane setup, characterized in that when the UE is stationary or settles down inside a coverage of the SBS (SBS1, SBS2) such that the UE has stationary to low mobility, a first C-plane setup (SCENARIO#A, #D) is applied for the UE, wherein anchor control signaling is provided by the SBS (SBS1, SBS2); and/or when the UE speeds up or an existing mmWave link with the SBS degrades such that the UE has medium to high mobility, a second C-plane setup (SCENARIO#E) is applied for the UE, wherein anchor control signaling is provided by the MBS; and/or when the UE slows down and an active mmWave link with the SBS (SBS1, SBS2) becomes operational, or the UE starts moving or the existing mmWave link with the SBS (SBS1, SBS2) degrades such that the UE has low to medium mobility, a third C-plane setup (SCENARIO#B, #C) is applied for the UE, wherein control signaling is provided by both the MBS and the SBS.
An electrosurgical generator, comprising: a power supply configured to output direct current; a current source coupled to the power supply and configured to output a source current based on the direct current; a power converter coupled to the current source, the power converter including at least one power switching element operated at a switching waveform, the power converter configured to generate a converted waveform based on the source current; a controller coupled to the power converter and configured to modulate the switching waveform; and a snubber circuit coupled to the current source and the power converter, the snubber circuit configured to return a voltage at the at least one power switching element to zero after the power converter generates at least a portion of the converted waveform characterised in that the snubber circuit includes a snubber inductor, a snubber capacitor, and a snubber catch diode, all of which are interconnected in series. a power supply configured to output direct current; a current source coupled to the power supply and configured to output a source current based on the direct current; a power converter coupled to the current source, the power converter including at least one power switching element operated at a switching waveform, the power converter configured to generate a converted waveform based on the source current; a controller coupled to the power converter and configured to modulate the switching waveform; and a snubber circuit coupled to the current source and the power converter, the snubber circuit configured to return a voltage at the at least one power switching element to zero after the power converter generates at least a portion of the converted waveform characterised in that the snubber circuit includes a snubber inductor, a snubber capacitor, and a snubber catch diode, all of which are interconnected in series.
A method of enhanced numerical control plasma cutting of parts from a workpiece, comprising: generating, within a computer, a nest that optimally positions the parts to minimize waste of the workpiece; and generating, based upon the nest, an NC program to control an NC plasma cutting machine to cut the parts from the workpiece using one or both of edge starts and gap starts; wherein the NC program is capable of controlling a plasma cutting torch of the NC plasma cutting machine to cut the parts from the workpiece, wherein the parts are cut from the workpiece using a plasma cutting torch of the NC plasma cutting machine controlled by the NC program, characterized in that the ignition of the plasma arc of the plasma cutting torch takes place during lateral movement of the plasma cutting torch. generating, within a computer, a nest that optimally positions the parts to minimize waste of the workpiece; and generating, based upon the nest, an NC program to control an NC plasma cutting machine to cut the parts from the workpiece using one or both of edge starts and gap starts; wherein the NC program is capable of controlling a plasma cutting torch of the NC plasma cutting machine to cut the parts from the workpiece, wherein the parts are cut from the workpiece using a plasma cutting torch of the NC plasma cutting machine controlled by the NC program, characterized in that the ignition of the plasma arc of the plasma cutting torch takes place during lateral movement of the plasma cutting torch.
A multilayered composite material comprising as components: a plastics foil having a water vapor permeability of more than 1 mg/cm 2 h, measured according to German standard specification DIN 53333, optionally at least one bonding layer and a polyurethane layer with capillaries having an average diameter in the range from 0.005 to 0.05 mm passing through the entire thickness of the polyurethane layer, water vapor permeable plastics foils being selected from self-supporting films/sheets of fluorinated polymers and of chemically modified polyesters, wherein the polyurethane layer exhibits patterning which reproduces the patterning of a leather, of a nubuck leather, of a velvet surface or of a wood surface. a plastics foil having a water vapor permeability of more than 1 mg/cm 2 h, measured according to German standard specification DIN 53333, optionally at least one bonding layer and a polyurethane layer with capillaries having an average diameter in the range from 0.005 to 0.05 mm passing through the entire thickness of the polyurethane layer,
A radio control, for a work machine, having a remote control unit, which has a radio module (20.9) and a receiving housing, and which is associated with a keyboard, wherein the keyboard is part of a keyboard unit, which can be replaceably connected to the remote control unit, characterized in that the keyboard unit has a μ-controller, which is electrically connected with switches (43.1) of the keyboard and which contains machine-specific data, and that by means of the keyboard unit of the remote control unit the type of machine is impressed, and that a further μ-controller arranged in the receiving housing controls units, which are accommodated in the receiving housing, in particular, the radio module (20.9), a display and an energy supply.
Coated substrate with a coating deposited on a surface of the substrate, said coating comprising at least one metal boron carbide layer, characterized in that the metal boron carbide layer is a ternary compound exhibiting a polycrystalline structure formed of a single phase of hafnium, boron and carbon.
A method of producing an extrudate with integral foam insulation, comprising: feeding a first thermoplastic resin suitable for use in a structural component in the fenestration industry into a first extruder, feeding a second thermoplastic resin suitable for integrated insulation into a second extruder, outputting the first and second extruders to an extrusion die (22; 36-42) extruding the extrudate, wherein the extrusion die (22; 36-42) forms the structural extrusion (50, 52) formed of the first thermoplastic resin, suitable for use in the fenestration industry, containing at least one hollow interior portion, of a constant profile and extending to an indefinite length, and substantially fills the hollow portion of the structural extrusion (50, 52) with an integrated insulation formed of the second thermoplastic resin, and breaking up the integrated insulation into individual strands of the second thermoplastic resin by a plurality of individual outlets of the extrusion die (22; 36-42), each of the plurality of individual outlets having a die land between 1.27 and 5.08 mm, an exit orifice between 2.032 and 2.54 mm and being spaced between 2.032 and 2.54 mm apart and from a wall of the structural extrusion (50, 52), the second thermoplastic resin of the integrated insulation being foamed and further containing a plurality of air pockets running in the length of the extrudate, and the first thermoplastic resin and the second thermoplastic resin being compatible and recyclable together. feeding a first thermoplastic resin suitable for use in a structural component in the fenestration industry into a first extruder, feeding a second thermoplastic resin suitable for integrated insulation into a second extruder, outputting the first and second extruders to an extrusion die (22; 36-42) extruding the extrudate, wherein the extrusion die (22; 36-42) forms the structural extrusion (50, 52) formed of the first thermoplastic resin, suitable for use in the fenestration industry, containing at least one hollow interior portion, of a constant profile and extending to an indefinite length, and substantially fills the hollow portion of the structural extrusion (50, 52) with an integrated insulation formed of the second thermoplastic resin, and breaking up the integrated insulation into individual strands of the second thermoplastic resin by a plurality of individual outlets of the extrusion die (22; 36-42), each of the plurality of individual outlets having a die land between 1.27 and 5.08 mm, an exit orifice between 2.032 and 2.54 mm and being spaced between 2.032 and 2.54 mm apart and from a wall of the structural extrusion (50, 52), the second thermoplastic resin of the integrated insulation being foamed and further containing a plurality of air pockets running in the length of the extrudate, and the first thermoplastic resin and the second thermoplastic resin being compatible and recyclable together.
A cosmetic applicator having a bristle support that transitions into a wand which connects the bristle support to a handle, or transitions into a coupling section for connecting the bristle support to such a wand, wherein the bristle support carries a plurality of respective one-piece bristles, each of the bristles having the length, characterized in that the bristles are composed of two imaginary bristle halves (2, 3) that are axially symmetrical relative to each other and are offset relative to each other along an offset plane in which a symmetry axis - which refers to the imaginary non-offset state - lies, and are connected to each other in one piece by having been originally molded together, wherein each of the two bristle halves (2, 3) form a flat region of the bristle that lies in the offset plane and the two bristle halves transition into each other in integral fashion at the location in which they meet each other.
An earth working machine, for example a road milling machine, recycler, stabilizer, or surface miner, having a propelling unit and a machine frame carried by the propelling unit, the earth working machine comprising a milling drum for earth working, characterized in that the earth working machine comprises, on an underside of the machine frame facing toward the supporting substrate of the machine, a maintenance door that is movable between a raised operational readiness position and a lowered maintenance position and in that the maintenance door comprises, on its inner side that faces away from the supporting substrate in the operational readiness position, at least one functional configuration (56, 58) that assists a maintenance operation, wherein the functional configuration (56, 58) encompasses at least one storage compartment which is adapted to receive containers for receiving and furnishing in a transportable fashion one or more milling bits as replacement for milling bits already arranged on a milling drum.
A method comprising: determining (402; 506), by a telecommunication device, a location change status for the telecommunication device based on a surrounding environment of the telecommunication device; and managing, by the telecommunication device, utilization of a location sensor of the telecommunication device based at least on the location change status, wherein the surrounding environment includes a plurality of devices capable of communicating device identifiers characterized in that: determining the location change status comprises receiving the device identifiers of the devices, storing the device identifiers, and determining whether the stored device identifiers change during a time period. determining (402; 506), by a telecommunication device, a location change status for the telecommunication device based on a surrounding environment of the telecommunication device; and managing, by the telecommunication device, utilization of a location sensor of the telecommunication device based at least on the location change status, wherein the surrounding environment includes a plurality of devices capable of communicating device identifiers characterized in that: determining the location change status comprises receiving the device identifiers of the devices, storing the device identifiers, and determining whether the stored device identifiers change during a time period.
Calendering device comprising at least two calendering rolls (3, 4) forming a nip intended to accept a continuous ply of reinforcing threads which is interposed between two continuous sheets of rubber (6,7), characterized in that it comprises, upstream of the nip, turnup means able to turn the lateral selvedges (71, 72) of at least one sheet of rubber up onto themselves.
Valve of three-way type comprising - a first pathway and a second pathway, - a first flap, arranged in said first pathway and a second flap arranged in the second pathway, - control means common to the two flaps (5, 6), - a first actuation means (12, 15, 50) arranged to be controlled by the control means and drive said first flap from a first position to a second position with temporal phase shift such that, in a first stage, the first flap remains in said first position under the action of return means, - second actuation means, comprising a toothed crown ring and being arranged to be controlled by the common control means and drive the second flap such that, during said first stage, the control means pivot the second flap from a first position to a second position, the first actuation means (12, 15, 50) comprising a return driving means (34, 71) making it possible to return the first flap to its first position under the action of the control means in the case of a failure of said return means, - characterized in that the valve further comprises a sensor for detecting the position of the second flap, placed somewhere along the second pathway, whether on the second flap, on the axis of the second flap or on the toothed crown ring, such that it is able to detect an additional rotation of the toothed crown ring and trigger an alert signalling failure of the first pathway. - a first pathway and a second pathway, - a first flap, arranged in said first pathway and a second flap arranged in the second pathway, - control means common to the two flaps (5, 6), - a first actuation means (12, 15, 50) arranged to be controlled by the control means and drive said first flap from a first position to a second position with temporal phase shift such that, in a first stage, the first flap remains in said first position under the action of return means, - second actuation means, comprising a toothed crown ring and being arranged to be controlled by the common control means and drive the second flap such that, during said first stage, the control means pivot the second flap from a first position to a second position, - characterized in that the valve further comprises a sensor for detecting the position of the second flap, placed somewhere along the second pathway, whether on the second flap, on the axis of the second flap or on the toothed crown ring, such that it is able to detect an additional rotation of the toothed crown ring and trigger an alert signalling failure of the first pathway.
A method for configuring a set of configuration parameters at a cellular access point device, said cellular access point device storing a plurality of sets of values of configuration parameters, each set of values of configuration parameters being a different combination of Radio Frequency handover related parameters and being adapted to configure the handover behavior at said cellular access point device, and each set of values of configuration parameters being identified by an identifier, said method comprising, at said cellular access point device, the steps of: - receiving (S'2) an identifier from a cellular management system, said identifier corresponding to one of said sets of values of configuration parameters stored at said cellular access point device, said set of values of configuration parameters corresponding to an environment where said cellular access point device is located, and - assigning said set of values of configuration parameters corresponding to said identifier to the cellular access point device, (S'3) so that said cellular access point uses said values in operation, wherein a Radio Ressource Control protocol configuration includes protocol timers to control the handover behavior between cells. - receiving (S'2) an identifier from a cellular management system, said identifier corresponding to one of said sets of values of configuration parameters stored at said cellular access point device, said set of values of configuration parameters corresponding to an environment where said cellular access point device is located, and - assigning said set of values of configuration parameters corresponding to said identifier to the cellular access point device, (S'3) so that said cellular access point uses said values in operation, wherein a Radio Ressource Control protocol configuration includes protocol timers to control the handover behavior between cells.
A yellow light afterglow material, characterized in that said yellow light afterglow material uses trivalent Ce as luminescent ions, and B, Na, P as a defect center, wherein a temperature quenching effect arising in a LED device directly driven by DC at a high operating temperature can be compensated by a thermoluminescence effect, said thermoluminescence effect being produced by said yellow light afterglow material used in said LED device directly driven by DC, wherein said yellow light afterglow material comprises the following chemical formula: aY203• bAl2O3•cSiO2:mCe•nB•xNa•yP, wherein a,b,c,m,n,x,y are coefficients, and wherein 1 ≤a≤2, 2≤b≤3, 0.001 ≤c≤1, 0.0001 ≤m≤0.6, 0.0001≤n≤0.5, 0.0001 ≤x≤0.2, 0.0001≤y≤0.5.
The use of a compound of the formula 1.3 wherein R2k and R 2l are methyl; or of a stereoisomer thereof or of a mixture of stereoisomers thereof, as an aroma chemical. R2k and R 2l are methyl; or of a stereoisomer thereof or of a mixture of stereoisomers thereof, as an aroma chemical.
An initialization method for a master node of an Ethernet ring system, comprising the following steps: Step 1, a master node of an Ethernet ring protection domain being generated from nodes on a ring; Step 2, the master node detecting the link state of a primary port and a secondary port, wherein if the master node detects that no fault occurs on the link of the primary port and the secondary port, the master node records the state of the ring network as the initializing state and blocks the secondary port; if the master node detects a link fault occurring at the primary port and/or the secondary port, the master node blocks the port where the link fault occurs, marks the state of the ring network as fault, sends a ring network fault notification message, informing other transit nodes that the state of the ring network is fault; Step 3, the master node sending a link health check message to the ring network periodically; and Step 4, judging whether the master node receives the link health check message in a prescribed time period, wherein if yes, recording the state of the ring network as intact, continuing blocking the secondary port and sending a ring network restoration notification message to the ring network to inform other nodes that the state of the ring network is intact. Step 1, a master node of an Ethernet ring protection domain being generated from nodes on a ring; Step 2, the master node detecting the link state of a primary port and a secondary port, wherein if the master node detects that no fault occurs on the link of the primary port and the secondary port, the master node records the state of the ring network as the initializing state and blocks the secondary port; if the master node detects a link fault occurring at the primary port and/or the secondary port, the master node blocks the port where the link fault occurs, marks the state of the ring network as fault, sends a ring network fault notification message, informing other transit nodes that the state of the ring network is fault; Step 3, the master node sending a link health check message to the ring network periodically; and Step 4, judging whether the master node receives the link health check message in a prescribed time period, wherein if yes, recording the state of the ring network as intact, continuing blocking the secondary port and sending a ring network restoration notification message to the ring network to inform other nodes that the state of the ring network is intact.