1461188620-5c546601-0661-4322-9601-feda709c3a69

1. A conduit for conducting gasified liquid, said conduit having a flow restrictor arranged in in-line relation therewith, and said restrictor comprising an at least one aperture adapted to pass said gasified liquid flowing through said conduit and across a pressure drop from a higher-pressure upstream side of said aperture to a lower-pressure downstream side of said aperture, and wherein said aperture is operable to moderate the rate of change in pressure over a transitional pressure drop to mitigate the formation of localized pressures below a critical pressure at which off-gassing from the carbonated liquid results in substantial foam formation.
2. The conduit according to claim 1, comprising a plurality of apertures arranged in series along the path of the gasified liquid flow, and wherein sequential downstream pressure drops are produced between successive pairs of apertures to respective intermediate pressures that are lower than the pressure upstream of the first aperture in said series and higher than the pressure downstream of the last aperture in said series.
3. The conduit according to claim 2, wherein at least one of said apertures is venturi-shaped.
4. The conduit according to claim 2, wherein said apertures comprise at least two static apertures.
5. The conduit according to claim 1, wherein the aperture is shaped as a venturi.
6. The conduit according to claim 1, wherein the gasified liquid is selected from one of the group consisting of: a carbonated liquid; or, a nitrogenated liquid; or a combination carbonated and nitrogenated liquid.
7. The conduit according to claim 1, comprising a liquid dispense conduit.
8. The conduit according to claims 3 or 5, wherein said liquid is a beverage.
9. The conduit according to claim 8, wherein said beverage is beer.
10. The conduit according to claims 3 or 5, wherein said venturi has a back angle of less than 24 degrees.
11. The conduit according to claim 10, wherein said back angle is about 20 degrees or less.
12. The conduit according to claim 11, wherein said back angle is about 15 degrees or less.
13. The conduit according to claim 3 or 5 which comprises a formed tube having an integral stricture arranged there along to form the venturi
14. The conduit according to claim 1 which is a pliable tube, which is compressible in situ to form an aperture by the application of external force.
15. The conduit according to claim 14, wherein said application of external force is a clamping action.
16. The conduit according to claim 15, wherein said clamping action applies external force along a tube contacting face of a cam or wedge shaped body, to produce a correspondingly shaped aperture within said tube.
17. The conduit according to claim 1, in which inlet end and the outlet ends thereof are substantially the same internal diameter
18. The conduit according to claim 17 wherein the inlet end is adapted to engage a keg valve.
19. The conduit according to claim 17 wherein the outlet end is a nozzle through which the beer is dispensed into a beverage container.
20. The conduit according to claim 1, comprising a flexible tubing that is compressed by a valve to constrict flow between substantially free flowing dispense and shut-off conditions.
21. The combination of a pre-formed tubular cartridge according to claim 13 and a tap adapter for use in dispensing an alcohol beverage from a keg having a self-contained bag filled with an alcohol beverage, the keg having a neck and a valve assembly mounted to the neck of the keg where the valve assembly has a first valve through which beverage is dispensed from the keg and one of the keg and valve assembly has a second valve through which pressurized air is feed into the keg against an outside wall of the bag; the tap adapter comprising: a hollow arm adapted for releasably mounting in sealed relation with the valve assembly in fluid flow communication with the first valve, the hollow arm having a first end portion and a second end portion remote therefrom, the first end portion adapted to connect to the first valve to open the valve, and wherein the hollow arm supports said insertable tubular cartridge comprising a tube through which the beverage flows; a tap connected to the remote end of the hollow arm, the tap being operable between a closed position shutting off flow of beverage through the tube supported within said hollow arm and an open position permitting beverage to flow through tube within the hollow arm and out the tap; an air line passageway adapted to be connected to the second valve in sealed fluid flow communication therewith; and, a pump connected to the air line passageway for supplying pressurized air to the second valve.
22. The combination of claim 21 wherein the air line passageway has a first end portion that connects to and opens the second valve, and has a second end portion connected to the pump.
23. The combination of claim 21 wherein the air line passageway has an air valve adapted for connection to the pump.
24. The combination of claim 21 wherein the valve assembly has a valve neck portion that extends beyond the neck portion of the keg, and the adapter has a base portion for supporting the hollow arm, the base portion comprising a neck- adapted to releasably engage the valve neck and an annular flange portion adapted to abut the keg.
25. The combination of claim 24 wherein the base portion has spring locking members that engage the valve neck and are movable to release the adapter from the valve assembly.
26. The combination of claim 21 wherein the tap has a cam member that rotates to close fluid flow through the hollow arm of the adapter.
27. The combination of claim 21 wherein the hollow arm is separable to receive a tubular cartridge for interconnecting the tap with the first valve and through which the beverage is dispensed.
28. The combination of claim 27 wherein the hollow arm is pivotally connected adjacent the first end portion to permit for separation of the hollow arm into an upper arm portion and a lower arm portion.
29. The combination of claim 28 wherein the lower arm portion is adapted to receive the cartridge in snap fit relation therewith.
30. The combination of claim 29 wherein the tap has a cam member that rotates to close fluid flow through the tubular arm by pinching the tube closed.
31. The combination of claim 21 wherein the pump is manually operated.
32. The combination of claim 21 wherein said venture has a back angle of less than 24 degrees.
33. A tap adapter for use in dispensing an alcohol beverage from a container, the tap adapter comprising:
a dispensing tube providing a beverage flow passageway for dispensing beverage from the container, and the dispensing tube having a flexible wall portion; and, a flow restricting actuator adapted to engage the flexible wall portion of the dispensing tube to partially collapse the flexible wall portion and restrict flow of beverage along the beverage flow passageway, said beverage flow passageway downstream of flexible wall portion increasing in diameter and only gradually.
34. The tap adapter of claim 33 further comprising an arm member having an elongated guide channel and the dispensing tube extending along the elongated guide channel.
35. The tap adapter of claim 34 wherein the arm member supports the flow restricting actuator.
36. The tap adapter of claim 35 wherein the flow restriction actuator has a protrusion adapted to be brought into engagement with the flexible wall portion.
37. The tap adapter of claim 33 wherein the tap adapter has a tap with a cam member that rotates to pinch against the flexible wall portion to close the passageway.
38. The tap adapter of claim 35 wherein the protrusion extends inwardly from an internal wall of the arm member.
39. The tap adapter of claim 35 wherein the protrusion extends inwardly from and integrally of the elongated guide channel.
40. The tap adapter of claim 39 wherein the protrusion extends inwardly from the guide channel by a variable amount to control partial collapsing of the passageway and thereby control flow of beverage through the passageway.
41. The tap adapter of claim 33 wherein the flow restricting actuator variably engages the flexible wall portion to control the partial collapse of the flexible wall portion and thereby control flow restriction through the passageway.
42. The tap adapter of claim 33, further including a second flow restricting actuator adapted to engage the flexible wall portion.
43. The tap adapter of claim 33 wherein the flow restricting actuator is adapted to engage the flexible wall portion at a first position of engagement restricting flow of beverage along the beverage flow passageway and at a second position of engagement closing the flow passageway.
44. A tap adapter for use in dispensing an alcohol beverage from a keg containing the alcohol beverage, the keg having a neck and a valve assembly mounted to the neck of the keg, the valve assembly having a first valve through which beverage is dispensed from the keg, the tap adapter comprising:
a hollow arm adapted for releasably mounting in sealed relation with the valve assembly;
a dispensing tube supported in the hollow arm, the dispensing tube having a passageway through which the beverage flows from the valve assembly, the passageway having a first end portion adapted for connection with the first valve for receiving the beverage, the passageway having a second end portion from which the beverage is dispensed, and the dispensing tube having a flexible wall portion intermediate of the first and second end portions;
a flow restricting actuator adapted to engage the flexible wall portion of the dispensing tube to partially collapse the flexible wall portion and restrict flow of beverage through the passageway; and,
a tap connected to the hollow arm remotely of the valve assembly, the tap being operable between a closed position shutting off flow of beverage through the passageway and an open position permitting beverage to flow through the passageway and out the second end portion.
45. The tap adapter of claim 44 wherein the tap forms an integral part of the hollow arm of the adapter.
46. The tap adapter of claim 44 further comprising a base portion having spring locking members that engage the valve neck and are movable to release the adapter from the valve assembly.
47. The tap adapter of claim 44 wherein the tap has a cam member that rotates to pinch against the flexible wall portion to close the passageway.
48. The tap adapter of claim 44 wherein the hollow arm is separable into an upper arm portion and a lower arm portion movable between an open position for receiving the dispensing tube and a closed position for positively locating the dispensing tube in the hollow arm.
49. The tap adapter of claim 48 wherein:
the lower arm portion has an entry port for receiving the first end portion of the passageway in sealing relation with the first valve, and the lower arm portion has a lower elongated guide channel for receiving the dispensing tube; and
the upper arm portion has an upper elongated guide channel that cooperates with the lower elongated guide channel to positively locate the dispensing tube in the hollow arm when the upper and lower arm are closed.
50. The tap adapter of claim 49 wherein the flow restricting actuator comprises a protrusion in at least one of the lower and upper elongated guide channels that is adapted to collapse the passageway upon closure of the upper and lower arms.
51. The tap adapter of claim 50 wherein the upper and lower guide channels each comprise channel walls and at least one of the channel walls carries said protrusion.
52. The tap adapter of claim 48 wherein the lower and upper arm portions are pivotally connected adjacent the first end portion of the dispensing tube.
53. The tap adapter of claim 52 wherein the tap is supported from the upper arm portion.
54. The tap adapter of claim 44 wherein the flow restricting actuator variably engages the flexible wall portion to control the partial collapse of the flexible wall portion and thereby control flow restriction through the passageway.
55. The tap adapter of claim 44, further including a second flow restricting actuator adapted to engage the flexible wall portion.
56. The tap adapter of claim 44 wherein the flow restricting actuator is adapted to engage the flexible wall portion at a first position of engagement restricting flow of beverage along the beverage flow passageway and at a second position of engagement closing the flow passageway.
57. The tap adapter of claim 1 wherein said increase in diameter in such that the interior wall of the dispensing tube downstream of said collapsed flexible wall portion has an angle of not more than 24 degrees to the longitudinal axis of the tube.

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

What is claimed is:

1. A semiconductor memory device comprising:
a comparison circuit for comparing a plurality of data that have been simultaneously read from a memory cell array in a test process for checking for the existence of defective cells to determine whether a defective cell exists in the memory cell array; and supplying the determination result as a determination signal;
an address buffer circuit for splitting an external address signal into row addresses and column addresses and supplying the result as output, and further, upon input of a determination signal from said comparison circuit, latching the row address and column address that are being supplied as output at that time and supplying said latched row address and column address as a capacitor fuse address for cutting capacitor fuses; and
a capacitor fuse block that is composed of a plurality of capacitor fuses for cutting each of said capacitor fuse elements based on capacitor fuse addresses that have been latched by said address buffer circuit.
2. A semiconductor memory device according to claim 1, wherein said comparison circuit, as a test for checking for the existence of defective cells, performs an IO compression test for detecting the existence of defective cells by comparing data that have been read from memory cells within the simultaneous remedy range in which a one-bit remedy is performed.
3. A defective cell remedy method for detecting and remedying defective cells in a memory cell array, comprising steps of:
determining the existence of defective cells in a memory cell array by comparing data, which have been read from a memory cell array in a test process for checking for the existence of defective cells, with predetermined data to determine whether the data are identical;
when a defective cell has been detected in said test process, latching the row address and column address that are being supplied as output from an address buffer circuit at the time said defective cell was detected and taking said row address and column address as a capacitor fuse address for cutting a capacitor fuse; and
cutting each of a plurality of capacitor fuses for storing the address of said defective cell based on said capacitor fuse address.
4. A defective cell remedy method according to claim 3, wherein said test for checking for the existence of defective cells is an IO compression test for detecting the existence of defective cells by comparing data that have been read from memory cells within a simultaneous remedy range for performing a one-bit remedy.

1461188609-bfdf9595-adb4-4671-aa94-536846ca66d6

1. A network system for transmitting a signal having a framing protocol comprising:
a common card and a plurality of line cards across a backplane having a plurality of lines in parallel connecting the common card and the plurality of lines cards in parallel communication, said framing protocol allowing each of said plurality of lines cards to be optimally configured and including:
(a) a super frame for transmission between the common card and the plurality of line cards;
(b) said super frame having at least one control frame, said control frame including a global parameters field and a line card field, said global parameters field including configuration information to configure one or more aspects of each of said plurality of line cards in the same manner, said line card field including configuration information to individually configure one or more aspects of each of said plurality of line cards to allow each of said plurality of line cards to operate optimally
wherein said framing protocol is not transmitted outside the network electronic equipment shelf and is transparent to equipment connected to the network electronic equipment shelf.
2. The framing protocol as set forth in claim 1, wherein:
(a) said global field parameters includes at least one of the following:
(i) number of bauds per frame
(ii) number of frames in a super frame;
(iii) ratio of downstream frames to upstream frames;
(iv) training seed and PAM level for equalization frame;
(v) guardband sizes; and
(vi) number of expansion bits in prefix time slot;

where upstream refers to flow from one or more of said plurality of line cards to said common card.
3. The framing protocol as set forth in claim 2, wherein:
(a) said global parameters field is expandable.
4. The framing protocol as set forth in claim 1, wherein:
(a) said global field parameters includes each of the following parameters:
(i) number of bauds per frame;
(ii) number of frames in a super frame;
(iii) ratio of downstream frames to upstream frames;
(iv) training seed and PAM level for equalization frame;
(v) guardband sizes; and
(vi) number of expansion bits in prefix time slot;

where upstream refers to flow from one or more of said plurality of line cards to said common card.
5. A framing protocol as set forth in claim 1, wherein:
(a) control frame includes an equalization seed and said super frame includes an equalization frame, said equalization seed is a multi-bit seed used to start scrambling in said equalization frame, said equalization frame is used to train receivers of said plurality of line cards.
6. The framing protocol as set forth in claim 1, wherein:
(a) said card config field includes sets of configurations of at least one of the following:
(i) number of bits per symbol per wire during a payload transmission;
(ii) T parameter for Reed Solomon codeword;
(iii) Interleaving on or off; and,
(iv) trellis coding on or off
where the card config select field is used to indicate which card config set to use on specific line cards to optimize performance.
7. The framing protocol as set forth in claim 1, wherein:
(a) said card config field includes sets of configurations of each of the following:
(i) number of bits per symbol per wire during a payload transmission;
(ii) T parameter for Reed Solomon codeword;
(iii) Interleaving on or off;
(iv) trellis coding on or off;
where the card config select field is used to indicate which card config set to use on specific line cards to optimize performance.
8. In a legacy shelf for transmitting a signal having a framing protocol comprising:
a common card and a plurality of line cards across a backplane having at least six lines in parallel connecting the common card and the plurality of lines cards in parallel communication, said framing protocol allowing each of said plurality of line cards to be optimally configured and including:
(a) a super frame generated by said common card for transmission between a common card and a plurality of line cards across at least five of the six parallel connecting lines;
and, (b) said super frame having at least one control frame, said control frame including a global parameters field and a line card field, said global parameters field including configuration information to configure one or more aspects of each of said plurality of line cards in the same manner, said line card field including configuration information to individually configure one or more aspects of each of said plurality of line cards to allow each of said plurality of line cards to operate optimally
wherein said framing protocol is not transmitted outside the network electronic equipment shelf and is transparent to equipment connected to the network electronic equipment shelf.
9. In a network electronic equipment shelf for transmitting a signal having a framing protocol comprising:
a common card and a plurality of line cards across a backplane bus having a plurality of lines in parallel connecting the common card and the plurality of lines cards in parallel communication, said framing protocol allowing each of said plurality of line cards to be optimally configured and including:
(a) a super frame for transmission between a common card and a plurality of line cards;
(b) said super frame having at least one control frame, said control frame including a global parameters field and a line card field, said global parameters field including configuration information to configure one or more aspects of each of said plurality of line cards in the same manner, said line card field including configuration information to individually configure one or more aspects of each of said plurality of line cards to allow each of said plurality of line cards to operate optimally, and
(c) a line frame to be transmitted over each of said plurality of lines, said line frame having a prefix time slot identifying which line card of said plurality of line cards is to receive a signal over which one of said plurality of lines;
wherein said framing protocol is not transmitted outside the network electronic equipment shelf and is transparent to equipment connected to the network electronic equipment shelf.
10. The framing protocol of claim 9 including six upstream line frames and five downstream line frames.
11. The framing protocol of claim 9 including six, independent upstream line frames and five, independent downstream line frames.
12. The framing protocol of claim 9, wherein the line frame to be transmitted over each of said plurality of lines is independent of each of the other line frames to be transmitted over each of said plurality of lines.

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 optical output controller comprising:
a wavelength conversion device operable to change the wavelength of pumped laser light;
a heatingcooling unit operable to control the temperature of the wavelength conversion device;
a temperature detector operable to detect the temperature of the wavelength conversion device;
a temperature controller operable to control the heatingcooling unit such that the detected temperature corresponds to a target temperature;
an optical output detector operable to detect the optical output from the wavelength conversion device;
an optical-output maximization controller operable to determine a temperature at which the optical output is maximized according to the optical output detected by the optical output detector and the detected temperature detected by the temperature detector and, further, operable to output the temperature difference between the determined temperature and the detected temperature; and
an adder operable to add the temperature difference outputted from the optical-output maximization controller to the target temperature,
wherein the temperature difference is added to the target temperature to correct the target temperature value for maximizing the optical output.
2. The optical output controller according to claim 1, wherein the optical-output maximization controller includes:
a temperature-characteristic identification unit operable to calculate a temperature characteristic of the wavelength conversion device and operable to output a temperature at which the optical output from the wavelength conversion device is maximized; and
a difference detector operable to calculate the difference between the detected temperature and the temperature outputted from the temperature-characteristic identification unit.
3. The optical output controller according to claim 1, wherein the optical-output maximization controller calculates a temperature characteristic of the wavelength conversion device from the detected temperature and the detected optical output and determines a temperature at which the optical output from the wavelength conversion device is maximized.
4. The optical output controller according to claim 1, wherein the optical output controller controls a laser light source.
5. An optical output control method for a wavelength conversion device, comprising:
(a) setting an optimum temperature at which the optical output from the wavelength conversion device is maximized at the state where the wavelength conversion device was designed, as a target temperature Tm* for use in controlling the temperature of the wavelength conversion device;
(b) detecting the temperature T1 of the wavelength conversion device;
(c) detecting the optical output P1 from the wavelength conversion device;
(d) setting the optimum temperature Tm* of the wavelength conversion device at the time of design, as a temporarily-set optimum temperature Ttmp;
(e) calculating the optical output Ptmp at the detected temperature using the detected temperature T1, the temporarily-set optimum temperature Ttmp and a maximum optical output Pm*;
(f) determining whether or not the absolute value of the difference between the calculated optical output Ptmp and the detected optical output P1 falls within a predetermined range \u0394P;
(g) determining which of the detected optical output P1 and the calculated optical output Ptmp is larger than the other one, if the step (f) results in the determination that the absolute value does not fall within the predetermined range \u0394P;
(h) if the step (g) results in P1\u2212Ptmp>0, substituting the difference (Ttmp\u2212\u0394T) resulted from the subtraction of a predetermined temperature \u0394T from the temporary optimum temperature Ttmp, as a new Ttmp, for the temporary optimum temperature Ttmp, and, then, returning to the step (e);
(i) if the step (g) results in P1\u2212Ptmp<0, substituting the summation (Ttmp+\u0394T) resulted from the addition of a predetermined temperature \u0394T to the temporary optimum temperature Ttmp, as a new Ttmp, for the temporary optimum temperature Ttmp, and, then, returning to the step (e);
(j) outputting the temporary optimum temperature Ttmp at this time as an optimum temperature Tm, if the step (f) results in the determination that the absolute value falls within the predetermined range \u0394P;
(k) calculating the temperature difference \u0394Tm between the optimum temperature Tm and the optimum temperature Tm* at the time of design; and
(l) adding the temperature difference \u0394Tm to the target temperature Tm* and controlling the temperature of the wavelength conversion device such that the wavelength conversion device becomes the updated target temperature (Tm*+\u0394Tm).