Author: claimsbot

1. A device for video decoding, comprising:
a pipeline scheduler selectively scheduling among multiple decoding syntaxes and controlling an inner part of one of the decoding syntaxes;
a decoding core, comprising a look ahead parsing detector with analysis conditions, if the analysis conditions are met, one more symbol is decoded during one period;
a segmented context memory, making the pipeline scheduler read and write in a memory at the same time; and
a cache context register, previously reading a context data, and cooperating with the segmented context memory to manage a context memory.
2. The device for video decoding of claim 1, wherein the pipeline scheduler combines with a binarization controller.
3. The device for video decoding of claim 1, wherein a plurality of actions of the pipeline scheduler in the same period of time comprise reading memory, decoding symbol and writing memory.
4. The device for video decoding of claim 1, wherein the decoding core comprises at least one decoding engine.
5. The device for video decoding of claim 4, wherein the decoding engine is a decode-decision.
6. The device for video decoding of claim 5, wherein the decode-decision comprises a condition.
7. The device for video decoding of claim 6, wherein the condition is a codiRange greater than 256.
8. The device for video decoding of claim 6, wherein the condition is the codiRange equal to 256.
9. The device for video decoding of claim 6, wherein the condition is the codiRange greater than a codiOffset.
10. The device for video decoding of claim 6, wherein the condition is the codiRange equal to the codiOffset.
11. The device for video decoding of claim 6, wherein the condition is satisfied, the decode-decision decodes one more symbol during one period.
12. The device for video decoding of claim 4, wherein the decoding engine is a decode-bypass.
13. The device for video decoding of claim 4, wherein the decoding engine is a decode-terminal.
14. The device for video decoding of claim 4, wherein the decoding core decodes symbols, at least one decoding engine could be shut down.
15. The device for video decoding of claim 4, wherein the decoding core decodes symbols, opens only one decoding engine.
16. The device for video decoding of claim 1, wherein the decoding core comprises a logic gate.
17. The device for video decoding of claim 16, wherein the logic gate is an OR logic gate.

The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.

1. An interrupter unit for an electrical circuit breaker for power supply networks, in particular high-voltage circuit breaker, wherein the circuit breaker has a central axis, a first contact system with an insulation nozzle for arc blowing, a second contact system, and a circuit breaker drive which drives the first contact system and also drives the second contact system via an auxiliary gear, wherein the auxiliary gear has holding means and guiding means for a toothed rack drive, wherein the auxiliary gear comprises a monoblock in which the holding means and guiding means for the toothed rack drive are integrated.
2. The interrupter unit as claimed in claim 1, wherein
a) the monoblock has in its holding means a bearing for at least one gearwheel, andor
b) the monoblock has in its guiding means a guide slide bearing and a sliding contact for the arcing contact piece that is driven by the auxiliary gear, andor
c) the monoblock is electrically conductively connected to the external nominal current contact in order to draw current from the arcing contact piece.
3. The interrupter unit as claimed in claim 1, wherein
a) the monoblock forms a single assembly unit, which may be inserted into the circuit breaker as a single unit, andor
b) the monoblock is constructed as a single-piece unit and, in particular, is a single-piece cast part.
4. The interrupter unit as claimed in claim 1, wherein
a) a single mounting fixture is present for attaching the monoblock to the circuit breaker, and
b) in particular that the monoblock has exactly one mounting flange, which is attachable to exactly one mating flange on the circuit breaker.
5. The interrupter unit as claimed in claim 1, wherein
a) a pusher guide slide bearing is recessed in the arcing contact piece that is driven by the auxiliary gear, andor
b) a fixed guide slide bearing is recessed in the guiding means of the monoblock for guiding the arcing contact piece that is driven by the auxiliary gear.
6. The interrupter unit as claimed in claim 1, wherein the toothed rack drive has exactly one gearwheel, exactly one first toothed rack for driving the gearwheel, and exactly one second toothed rack for moving the second arcing contact piece.
7. The interrupter unit as claimed in claim 1, wherein
a) the insulation nozzle is movable and serves to transmit force from the circuit breaker drive to the auxiliary gear, and
b) the first toothed rack is attached to the insulation nozzle.
8. The interrupter unit as claimed in claim 7, wherein
a) the first toothed rack can be screwed into the insulation nozzle with adjustable axial distance between its cogging and the insulation nozzle, andor
b) the first toothed rack has no adjusting screws for adjusting the length of the first toothed rack.
9. The interrupter unit as claimed in claim 1, wherein
a) a limit stop is provided for the arcing contact piece that is driven by the auxiliary gear, and
b) in particular that the limit stop may be realized by a shoulder in the arcing contact piece, and an opposing shoulder that cooperates therewith is realized on the monoblock.
10. An electrical circuit breaker for a power supply network, characterised by an interrupter unit as claimed in claim 1.
11. The electrical circuit breaker as claimed in claim 10, wherein the circuit breaker
a) is a gas-blast circuit breaker and, in particular, a self-blast circuit breaker; andor
b) is a high-voltage circuit breaker or a high-current circuit breaker, andor
c) is life tank circuit breaker, an encapsulated breaker for a dead tank breaker or for a gas-insulated switchgear assembly, or a hybrid circuit breaker.
12. A method for assembling a circuit breaker with an interrupter unit as claimed in claim 1, wherein the insulation nozzle is pre-assembled with the driving toothed rack in the circuit breaker, comprising the steps of:
a) inserting the arcing contact piece that is driven by the auxiliary gear into the monoblock as far as the limit stop,
b) inserting the monoblock into the circuit breaker until the mounting fixtures come in touch with one another, and
c) using the mounting fixture to secure the monoblock inside the circuit breaker.
13. The interrupter unit as claimed in claim 5, wherein the toothed rack drive has exactly one gearwheel, exactly one first toothed rack for driving the gearwheel, and exactly one second toothed rack for moving the second arcing contact piece.
14. The interrupter unit as claimed in claim 6, wherein
a) the insulation nozzle is movable and serves to transmit force from the circuit breaker drive to the auxiliary gear, and
b) the first toothed rack is attached to the insulation nozzle.
15. The interrupter unit as claimed in claim 8, wherein
a) a limit stop is provided for the arcing contact piece that is driven by the auxiliary gear, and
b) in particular that the limit stop may be realized by a shoulder in the arcing contact piece, and an opposing shoulder that cooperates therewith is realized on the monoblock.
16. An electrical circuit breaker for a power supply network, characterised by an interrupter unit as claimed in claim 9.
17. A method for assembling a circuit breaker with an interrupter unit as claimed in claim 9, wherein the insulation nozzle is pre-assembled with the driving toothed rack in the circuit breaker, comprising the steps of:
a) inserting the arcing contact piece that is driven by the auxiliary gear into the monoblock as far as the limit stop,
b) inserting the monoblock into the circuit breaker until the mounting fixtures come in touch with one another, and
c) using the mounting fixture to secure the monoblock inside the circuit breaker.

1. A method, comprising:
providing an inner annular mold ring of a seal mold assembly;
providing an outer annular mold ring of the seal mold assembly;
positioning the outer annular mold ring radially outside of the inner annular mold ring;
positioning an elastomeric material preform and a mold sleeve between the inner and outer annular mold rings, wherein the mold sleeve comprises a radially inward or radially outward facing profile having a protrusion that faces a volume defined between the inner and outer annular mold rings;
allowing the elastomeric material preform to partially cure; and
removing the partially cured elastomeric material preform from the seal mold assembly.
2. The method of claim 1, comprising positioning a flexible, non-metallic mold sleeve between the inner and outer annular mold rings.
3. The method of claim 1, comprising positioning the mold sleeve comprising polytetrafluoroethylene between the inner and outer annular mold rings.
4. The method of claim 1, comprising positioning the mold sleeve comprising glass-filled polytetrafluoroethylene between the inner and outer annular mold rings.
5. The method of claim 1, comprising positioning the mold sleeve comprising a synthetic polymer between the inner and outer annular mold rings.
6. The method of claim 1, comprising positioning the mold sleeve comprising polyetheretherketone between the inner and outer annular mold rings.
7. The method of claim 1, comprising positioning an inner mold sleeve between the inner and outer annular mold rings in an inner annular cavity of the inner annular mold ring configured to receive the inner mold sleeve, and positioning an outer mold sleeve between the inner and outer annular mold rings in an outer annular cavity of the outer annular mold ring configured to receive the outer mold sleeve.
8. The method of claim 7, wherein the inner mold sleeve comprises a radially outward facing profile having a first protrusion that faces the volume defined between the inner and outer annular mold rings when the inner mold sleeve is positioned in the inner annular cavity of the inner annular mold ring, and the outer mold sleeve comprises a radially inward facing profile having a second protrusion that faces the volume defined between the inner and outer annular mold rings when the outer mold sleeve is positioned in the outer annular cavity of the outer annular mold ring.
9. The method of claim 1, comprising providing top and bottom metal end caps, and positioning the bottom metal end cap between the inner and outer annular mold rings at a bottom axial end of the inner and outer annular mold rings before positioning the elastomeric material preform and the mold sleeve into the volume defined between the inner and outer annular mold rings, and positioning the top metal end cap between the inner and outer annular mold rings at a top axial end of the inner and outer annular mold rings before allowing the elastomeric material preform to partially cure.
10. The method of claim 1, wherein removing the partially cured elastomeric material from the seal mold assembly comprises sliding, stretching, or contorting the mold sleeve such that the partially cured elastomeric material preform is not disturbed.
11. The method of claim 1, wherein removing the partially cured elastomeric material from the seal mold assembly comprises splitting each of the inner and outer annular mold rings into top and bottom axial halves.
12. A seal mold assembly, comprising:
an inner annular mold ring;
an outer annular mold ring; and
a mold sleeve configured to be disposed between the inner and outer annular mold rings in an annular cavity configured to receive the mold sleeve, wherein the mold sleeve comprises a radially inward or radially outward facing profile having a protrusion that extends into a volume defined between the inner and outer annular mold rings when the mold sleeve is disposed between the inner and outer annular mold rings in the annular cavity.
13. The seal mold assembly of claim 12, wherein the mold sleeve comprises a flexible, non-metallic mold sleeve.
14. The seal mold assembly of claim 12, wherein the mold sleeve is configured to be stretched or contorted to facilitate the mold sleeve being disposed between the inner and outer annular mold rings in the annular cavity.
15. The seal mold assembly of claim 12, wherein the mold sleeve comprises polytetrafluoroethylene, glass-filled polytetrafluoroethylene, a synthetic polymer, or polyetheretherketone.
16. The seal mold assembly of claim 12, comprising an inner mold sleeve configured to be disposed between the inner and outer annular mold rings in an inner annular cavity of the inner annular mold ring that is configured to receive the inner mold sleeve, and an outer mold sleeve configured to be disposed between the inner and outer annular mold rings in an outer annular cavity of the outer annular mold ring that is configured to receive the outer mold sleeve.
17. The seal mold assembly of claim 16, wherein the inner mold sleeve comprises a radially outward facing profile having a first protrusion that extends into a volume defined between the inner and outer annular mold rings when the inner mold sleeve is disposed in the inner annular cavity of the inner annular mold ring, and the outer mold sleeve comprises a radially inward facing profile having a second protrusion that extends into the volume defined between the inner and outer annular mold rings when the outer mold sleeve is disposed in the outer annular cavity of the outer annular mold ring.
18. A method, comprising:
providing an inner annular mold ring of a seal mold assembly;
providing an outer annular mold ring of the seal mold assembly;
positioning the outer annular mold ring radially outside of the inner annular mold ring;
positioning an inner mold sleeve between the inner and outer annular mold rings in an inner annular cavity of the inner annular mold ring configured to receive the inner mold sleeve, wherein the inner mold sleeve comprises a radially outward facing profile having a first protrusion that extends into a volume defined between the inner and outer annular mold rings when the inner mold sleeve is positioned in the inner annular cavity of the inner annular mold ring, and wherein the inner mold sleeve comprises polytetrafluoroethylene, glass-filled polytetrafluoroethylene, a synthetic polymer, nylon, or polyetheretherketone;
positioning an outer mold sleeve between the inner and outer annular mold rings in an outer annular cavity of the outer annular mold ring configured to receive the outer mold sleeve, wherein the outer mold sleeve comprises a radially inward facing profile having a second protrusion that extends into the volume defined between the inner and outer annular mold rings when the outer mold sleeve is positioned in the outer annular cavity of the outer annular mold ring, and wherein the outer mold sleeve comprises polytetrafluoroethylene, glass-filled polytetrafluoroethylene, a synthetic polymer, nylon, or polyetheretherketone;
positioning an elastomeric material preform in the volume defined between the inner and outer annular mold rings;
allowing the elastomeric material to partially cure; and
removing the partially cured elastomeric material preform from the seal mold assembly.
19. The method of claim 18, comprising providing top and bottom metal end caps, positioning the bottom metal end cap between the inner and outer annular mold rings at a bottom axial end of the inner and outer annular mold rings before positioning the elastomeric material in the volume defined between the inner and outer annular mold rings, and positioning the top metal end cap between the inner and outer annular mold rings at a top axial end of the inner and outer annular mold rings before allowing the elastomeric material to partially cure.
20. The method of claim 18, wherein removing the partially cured elastomeric material from the seal mold assembly comprises sliding, stretching, or contorting the inner and outer mold sleeves such that the partially cured elastomeric material preform is not disturbed.

The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.

1. A circuit device comprising:
a first serial interface that receives a serial signal transmitted from a controller at a first communication speed;
a transmission data input terminal that receives transmission data transmitted from the controller at a second communication speed slower than the first communication speed; and
a transmission circuit that outputs a transmission signal based on the serial signal and the transmission data.
2. The circuit device according to claim 1, further comprising an oscillation circuit that generates an oscillation clock signal for generating a transmission clock signal for the transmission signal,
wherein the first serial interface receives the serial signal in an oscillation activation period of the oscillation circuit.
3. The circuit device according to claim 2,
wherein the oscillation circuit includes a capacitance circuit for oscillation, and
the capacitance circuit for oscillation has capacitance smaller than capacitance in normal operation in the oscillation activation period.
4. The circuit device according to claim 2,
wherein the oscillation circuit includes a buffer, and
the buffer has current supply performance greater than current supply performance in normal operation in the oscillation activation period.
5. The circuit device according to claim 3,
wherein the oscillation circuit includes a buffer, and
the buffer has current supply performance greater than current supply performance in normal operation in the oscillation activation period.
6. The circuit device according to claim 2,
wherein the oscillation circuit includes an oscillation piece and causes the oscillation piece to oscillate.
7. The circuit device according to claim 6,
wherein the oscillation piece and the oscillation circuit are accommodated in a single package.
8. The circuit device according to claim 1, further comprising a second serial interface that receives the transmission data via the input terminal.
9. The circuit device according to claim 2, further comprising a second serial interface that receives the transmission data via the input terminal.
10. The circuit device according to claim 8,
wherein when the first serial interface receives from the controller a transmission start instruction to start transmitting the transmission data,
the second serial interface receives the transmission data.
11. The circuit device according to claim 10,
wherein the first serial interface receives a transmission command from the controller to detect the transmission start instruction.
12. The circuit device according to claim 8,
wherein the second serial interface receives the transmission data in a synchronous mode or an asynchronous mode.
13. The circuit device according to claim 1,
wherein the transmission circuit receives transmission action setting information for generating the transmission signal in the form of the serial signal and includes
a transmission waveform generator that generates a transmission waveform based on the transmission action setting information and the transmission data, and
a power amplifier that outputs the generated transmission waveform in the form of the transmission signal.
14. The circuit device according to claim 1,
wherein the circuit device receives transmission action setting information for generating the transmission signal in the form of the serial signal and further comprises a setting register to which the transmission action setting information is written.
15. The circuit device according to claim 1,
wherein the circuit device receives transmission action setting information for generating the transmission signal in the form of the serial signal, and
at least one of the frequency of a transmission clock signal for the transmission signal and a modulation method used to generate the transmission signal is set based on the transmission action setting information.
16. A transmission module comprising:
the circuit device according to claim 1; and
the controller,
wherein the controller has an output terminal connected to the input terminal.
17. An electronic apparatus comprising the circuit device according to claim 1.
18. A moving object comprising the circuit device according to claim 1.