Pernod Ricard Pacific

August 24, 2008 6:20 am

Pernod Ricard Pacific, formerly the Orlando Wyndham Group, is a large Australian wine, spirits, and beverage company. It is a wholly owned subsidiary of the world’s second largest wine and spirits producer Pernod Ricard, and distributes many of their key brands within Australia.

In 1989 Pernod Ricard purchased Orlando Wines, and then a year later, in 1990, the Hunter Valley winery Wyndham Estate. The same year the Orlando Wyndham Group was formed by the drawing together of the two companies. In 2005 Pernod Ricard took over Allied Domecq and the New Zealand business unit Allied Domecq NZ was integrated into the company which was subsequently renamed to Pernod Ricard Pacific.


Wineries

Currently Pernod Ricard Pacific owns various wineries including:

  • Orlando Wines, Barossa Valley, South Australia
  • Wyndham Estate, Hunter Valley, New South Wales
  • Richmond Grove, Barossa Valley, South Australia
  • Poet’s Corner, Mudgee, New South Wales
  • Wickham Hill, Griffith, New South Wales
  • Morris Wines, Rutherglen, Victoria
  • Russet Ridge, Naracoorte, South Australia
  • Framingham Wine Company, Renwick, New Zealand


Brands

Pernod Ricard Pacific produces and/or distributes products under many brands, including:


Wine

  • Jacob’s Creek
  • Wyndham Estate
  • Richmond Grove
  • Poet’s Corner
  • Mumm
  • Montana
  • Framingham
  • Morris
  • Carrington
  • Trilogy
  • Coolabah


Ready to Drink

  • West Coast Cooler
  • Wild Turkey and Cola
  • Two Dogs
  • Maison


Spirits

  • Ballentines
  • Chivas Regal
  • Kahlua
  • Malibu
  • Wild Turkey
  • Beefeater Gin
  • Havana Club
  • Jameson
  • Martell
  • Ricard


External links

  • Pernod Ricard Pacific website
  • Pernod Ricard website
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Pierre Brejoux

August 20, 2008 8:20 pm

Pierre Brejoux was Inspector General of the Appellation d’Origine Controlee Board, which controls the production of top French wines. he served as an expert wine taster in the Paris Wine Tasting of 1976. In the blind tasting, California wines won both the red and white wine categories. After the tasting, there were many calls for him to resign his position as Inspector General because so many people and groups were highly displeased with the results. He is also the author of several books on French wine.


See also

  • List of wine personalities


Source

  • Taber, George M. Judgment of Paris: California vs France and the Historic 1976 Paris Tasting that Revolutionized Wine. NY: Scribner, 2005.
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Sugar Island

August 14, 2008 8:55 pm

Sugar Island may refer to

  • Sugar Island (Michigan), in the St. Marys River between Michigan and Ontario
  • Sugar Island (Ohio), one of the Bass Islands in Lake Erie
  • Sugar Island (Ontario), in the Thousand Islands region of the St. Lawrence River.
  • Sugar Island (Maine) largest island of Moosehead Lake.
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Gel battery

August 13, 2008 7:10 pm

A gel battery (also known as a “gel cell”) is a rechargeable valve regulated lead-acid battery with a gelified electrolyte. Unlike a traditional wet-cell lead-acid battery, these batteries do not need to be kept upright (though they cannot be charged inverted). In addition, gel batteries virtually eliminate the electrolyte evaporation, spillage (and subsequent corrosion issues) common to the wet-cell battery, and boast greater resistance to extreme temperatures, shock, and vibration. As a result, they are primarily used in automobiles, boats, aircraft, and other motorized vehicles. These batteries are often colloquially referred to as sealed lead-acid (SLA) batteries due to their non-leaking containers, but they are not completely sealed; the valve regulation system allows for gas to be expelled. Chemically they are the same as wet (non sealed) batteries except that the antimony in the lead plates is replaced by calcium. This preserves the mechanical characteristics but renders the construction far less prone to gassing. The battery type is often referred to as a Lead-Calcium battery.

At high currents, electrolysis of water occurs, expelling Hydrogen and Oxygen gas through the battery’s valves. Care must be taken to prevent short circuits and rapid charging. Charging with a constant voltage (called the float charge voltage; 2.26 V per cell for a lead-acid chemistry) can cause a rapid initial current, so therefore it is suggested to begin with a constant current, using constant voltage only for the final portion of the charging. However, the float charge voltage should not be exceeded by much for typical usage, so the switch between the two modes typically occurs when the float voltage is needed to sustain the charging current through the battery’s internal resistance (as per Ohm’s Law). The easiest way to implement this is to use a constant voltage device with a current limiter.


See also

  • Rechargeable battery
  • Lead-acid battery
  • Absorbent glass mat
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English relative clauses

August 4, 2008 2:10 pm

This article is focused mainly on usage of English relative clauses. For theoretical background on the subject, see the main article on relative clauses.

The relative pronouns in English include who, whom, whose, which, and that. (Note: Not all modern syntacticians agree that that is a relative pronoun.) What is a compound relative, including both the antecedent and the relative, and is equivalent to that which; for example, “I did what he desired” means the same as, “I did that which he desired.”

In some contexts, there may be a choice between two or more of these forms. The choice of relative pronoun may carry additional meaning or draw a number of distinctions.

Contents


Variables in the basic relative clause


Human or non-human

In their choice of relative pronoun, English-speakers will often distinguish between an antecedent that is a human — who(m) — and an antecedent which is a non-human — which. In this regard, English is unique among the Germanic languages; this distinction may be due to French influence, and is clearly related to the distinction between the interrogative words who(m) and which and that between the (s)he pronouns and it(s). Note that whose, while sometimes reserved for human antecedents, is commonly found also with nonhuman ones; and that that, while reserved for nonhuman antecedents by some writers, is also often found with human ones.


Restrictive or non-restrictive

Restrictiveness is more clearly marked in English than in most languages: prosody (in speaking) and punctuation (in writing) serve this purpose. An English non-restrictive relative clause is preceded by a pause in speech or a comma in writing, whereas a restrictive clause normally is not. Compare the following sentences, which have two quite different meanings, and correspondingly two clearly distinguished intonation patterns, depending on whether the commas are inserted:

(1) The builder, who erects very fine houses, will make a large profit.
(2) The builder who erects very fine houses will make a large profit.

The first example, with commas, and with three short intonation curves, contains a non-restrictive relative clause. It refers to a specific builder, and assumes we know which builder is intended. It tells us firstly about his houses, then about his profits. The second example uses a restrictive relative clause. Without the commas, and with a single intonation curve, the sentence states that any builder who builds such houses will make profits.

For non-human antecedents, a distinction is also sometimes drawn between that (restrictive) and which (non-restrictive); see “That and which” below.

Restrictive relative clauses are also called defining relative clauses, or identifying relative clauses. Similarly, non-restrictive relative clauses are called non-defining or non-identifying relative clauses. For more information see restrictive clause and the relevant subsection of relative clause.


Grammatical case

In the Germanic languages, the case of a relative pronoun is generally marked in its form. In English, this survives only in who, which has a possessive case form whose and an objective case form whom. But the form whom is in decline and is now often restricted to formal use.

Since which and that have no possessive forms, whose is now also used for the possessive form of these, or periphrasis is sometimes employed:

There is an old house in our street, whose roof Jack fixed.
There is an old house in our street, the roof of which Jack fixed.


The zero relative pronoun

English, unlike most other Germanic languages, has a zero relative pronoun. It is an alternative to that in a restrictive relative clause, except that it cannot be the subject of the clause’s main verb.

Jack built the house that I was born in.
Jack built the house Ø I was born in.

Relative clauses headed by zeros are frequently called contact clauses in TEFL contexts.


Use with preposition

Traditionally, following the pattern of Germanic, a preposition in a relative clause appears together with the relative pronoun. In this case the pronoun must be either whom or which; never that, and since this is now formal usage, it would be unusual to use who.

Jack is the boy with whom Jenny fell in love.
Jack built the house in which I grew up.

An innovation of English among the Germanic languages, however, is the option of leaving the preposition where it would be if the clause were an independent clause. Though John Dryden raised in 1672 the possibility that this preposition-stranding should not be considered correct (from a prescriptive standpoint), it was already in widespread use by that time, and is now the preferred usage of most English speakers, especially in colloquial situations. Therefore, although a traditional grammarian might insist upon the sentence, “Jack is the boy with whom Jenny fell in love”, any of the following might be heard instead:

Jack is the boy whom Jenny fell in love with.
Jack is the boy who Jenny fell in love with.
Jack is the boy that Jenny fell in love with.
Jack is the boy Jenny fell in love with.


That and which

The distinction between the relative pronouns that and which, which are both used to introduce relative clauses with non-human antecedents, is a frequent point of dispute.

Of the two, only which is at all common in non-restrictive clauses.Pullum, Geoffrey K. Language Log: An ivory-billed relative clause, Language Log. 1 December 2005. Problems arise in restrictive clauses, where traditionally either that or which could be used. This is still the case in normal speech and in British English, but in formal American English it is generally recommended to use only that for restrictive clauses.New Hart’s Rules (Oxford University Press: 2005), p.68.

This latter rule was recommended in 1926 by H.W. Fowler, who observed that “Some there are who follow this principle now; but it would be idle to pretend that it is the practice either of most or of the best writers.”Zwicky, Arnold, Don’t do this at home, kiddies!, Language Log. 3 May 2005 (retrieved 2006-07-25).


Summary

The most common distribution of the forms is therefore as follows (though variations may be heard).

Restrictive Nonrestrictive
Human Nonhuman Human Nonhuman
Subject who, that which, that who which
Object who, whom, that, Ø which, that, Ø who, whom which
After preposition whom which whom which
Possessive whose, of whom whose, of which whose, of whom whose, of which


Special types and variants


Nominal relative clauses

English allows what is called a fused or nominal relative clause — a relative clause that does not modify an external noun phrase, and instead has a nominal function fused into it. For example:

What he did is clearly impossible, but I saw him do it.

Here, what he did has the sense of that which he did, i.e. the thing that he did, and functions as the subject of the verb is. Nominal relative clauses are inherently restrictive.

English has a number of fused relative pronouns, such as what, whatever, and whoever, but all can introduce other kinds of clauses as well; what can also introduce interrogative content clauses (”I don’t know what he did”), for example, and both whatever and whoever can introduce adverbials (”Whatever he did, he doesn’t deserve this”).


Adverbial relative clauses

Much as a relative clause can modify a noun phrase, it can modify an entire clause. This makes sense when examined from a sentence-combination standpoint:

He designed a beautiful house. I plan to build it.He designed a beautiful house, which I plan to build. (modifying a noun phrase)
He designed a beautiful house. I think that’s very impressive.He designed a beautiful house, which I think is very impressive. (modifying an entire clause). However, note the ambiguity of the second example.

Such a relative clause is called an adverbial relative clause. Only non-restrictive relative clauses can be used adverbially.


Gapless relative clauses

A relatively common phenomenon in speech, though generally seen as ungrammatical or bad style, is a sentence like the following:

  • Portman, who I wonder if she’ll ever better her role in Leon, is good here also, […][1]
  • The second message comes from a person who I don’t know if the military is the right thing for them because they […][2]

Here the speaker appears to change in mid-track: having begun to utter a relative clause he realises that the pronoun can be neither its subject nor object, and attempts a repair “on the hoof”. These sentences could be turned into standard relative clauses by omitting the intruding verbs of speech (Portman, who will never better […]; a person for whom the military is not […]), or the need for the relative could be eliminated by beginning with this verb (I wonder if Portman will […]; I don’t know if the military is […]). In writing, most people would choose one of these alternatives, but in speech the hybrid is not unusual. Leech et al. (1985) refer to these phenomena as “pushdown elements”.


See also

  • English grammar


References

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Inrush current

July 27, 2008 3:05 am

Inrush current or input surge current refers to the maximum, instantaneous input current drawn by an electrical device when first turned on. For example, incandescent light bulbs have high inrush currents until their filaments warm up and their resistance increases. Alternating current electric motors and transformers may draw several times their normal full-load current when first energized, for a few cycles of the input waveform. Power converters also feature high inrush currents relative to their steady state currents. This is typically the charging current of the input capacitance. The selection of overcurrent protection devices such as fuses and circuit breakers is made more complicated when high inrush currents must be tolerated. The overcurrent protection must react quickly to overload or short circuit but must not interrupt the circuit when the (usually harmless) inrush current flows.


Transformers

When a transformer is first energized a transient current much larger than the rated transformer current can flow for several cycles. This is caused because the transformer will always have some residual flux density and when the transformer is reenergized the incoming flux will add to the already existing flux which will cause the transformer to move into saturation.


Protection

Inrush current can be reduced by Inrush Current Limiters: NTC Thermistors are among the most common design options used in switching power supplies, motor drives and audio equipment to prevent damage caused by inrush current. A thermistor is a thermally-sensitive resistor with a resistance that changes significantly and predictably as a result of temperature changes. The resistance of an NTC thermistor decreases as its temperature increases.

As the inrush current limiter self-heats, the current begins to flow through it. Its resistance begins to drop and a relatively small current flow charges the input capacitors. After the capacitors in the power supply become charged, the self heated inrush current limiter offers little resistance in the circuit. So low that the voltage drop is an insignificant factor with respect to the total voltage drop of the circuit.


References

  • http://www.beta-dyne.com/resources/glossary.html
  • Inrush Current Frequently Asked Questions
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SIMM

July 25, 2008 4:55 pm

A SIMM, or single in-line memory module, is a type of memory module used for random access memory in older personal computers. It differs from a DIMM (the most predominant form of memory module today) in that the contacts on a SIMM are redundant on both sides of the module.

Most early PC motherboards (8088 based PCs and XTs) used socketed DIP chips. With the introduction of 286 based PC/ATs, which could use larger amounts of memory, memory modules evolved to save motherboard space and to ease memory expansion. Instead of plugging in 8 or 9 single DRAM DIP chips, only one additional memory module was needed to increase the memory of the computer. A few 286-based computers used (often non-standard) memory modules like SIPP memory (single in-line pin package). SIPP’s 30 pins often bent or broke during installation, which is why they were quickly replaced by SIMMs which used contact plates rather than pins.

SIMMs were invented and pattented by WANG Laboratories. One of Wang’s scientists, James Clayton, invented what was to become the basic memory module, now known as a SIMM (single in-line memory module) in 1983.
The first SIMMs appeared on the PS/2 in the mid 1980s, having been first proposed by Skip Coppola while at IBM. They solved several problems at the time, including shrinking motherboard real estate (they took up much less board space than socketed chips) as well as the effects of rapidly advancing memory capacities (a motherboard would quickly become obsolete based on its sockets for a particular RAM chip capacity) This also allowed the manufacturer (IBM at this time) to source RAM chips from different vendors and in different packaging, yet still allow them to be interchangeable through this intermediate form (the SIMM).

The first variant of SIMMs has 30 pins and provides 8 bits of data (9 bits in parity versions). They were used in 286, 386 and 486 systems.

The second variant of SIMMs has 72 pins and provides 32 bits of data (36 bits in parity versions). These appeared on 486, Pentium, Pentium Pro and even some Pentium II systems. By the mid 90s, 72-pin SIMMs had replaced 30-pin SIMMs.

The Macintosh IIfx requires non-standard 64-pin SIMMs.

Due to the differing data bus widths of the memory modules and some processors, sometimes several modules must be installed in identical pairs or in identical groups of four to fill a memory bank. For instance, a 286 or 386SX systems (data bus width of 16 bits) would require two 30-pin SIMMs for a memory bank. On 386DX or 486 systems (data bus width of 32 bits), either four 30-pin SIMMs or one 72-pin SIMM are required for one memory bank. On Pentium systems (data bus width of 64 bits), two 72-pin SIMMs are required.

The earliest SIMM sockets were conventional push-type sockets. These were soon replaced by ZIF (Zero Insertion Force) sockets in which the SIMM was inserted and rotated until it locked into place. To install a SIMM, the module must be placed in the socket at an angle, then rotated (angled) into position. To remove one, the two metal or plastic clips at each end must be pulled to the side, then the SIMM must be tilted back and pulled out. The earlier sockets used plastic retainer clips which were found to break, so steel clips replaced them.

RAM technologies used on SIMMs include EDO and FPM.

SIMM is standardised under JEDEC JESD-21C standard.

Contents


Standard sizes available

30-pin SIMM: 256KB, 1 MB, 4 MB, 16 MB

72-pin SIMM: 1 MB, 2 MB, 4 MB, 8 MB, 16 MB, 32 MB, 64 MB,


Pinouts

30-pin SIMM Memory Module
Pin # Nomenclature Signal Description
1 VCC +5VDC
2 CAS Column Address Strobe
3 DQ1 Data 0
4 A0 Address 0
5 A1 Address 1
6 DQ2 Data 1
7 A2 Address 2
8 A3 Address 3
9 VSS Ground
10 DQ3 Data 2
11 A4 Address 4
12 A5 Address 5
13 DQ4 Data 3
14 A6 Address 6
15 A7 Address 7
16 DQ5 Data 4
17 A8 Address 8
18 A9 Address 9
19 A10 Address 10
20 DQ6 Data 5
21 W Write Enable
22 VSS Ground
23 DQ7 Data 6
24 NC No Internal Connection
25 DQ8 Data 7
26 NC No Internal Connection
27 RAS Row Address Strobe
28 NC No Internal Connection
29 NC No Internal Connection
30 VCC +5VDC
72-pin ECC SIMM Memory Module
Pin # Non-Parity Parity Signal Description
1 VSS VSS Ground
2 DQ0 DQ0 Data 0
3 DQ1 DQ1 Data 1
4 DQ2 DQ2 Data 2
5 DQ3 DQ3 Data 3
6 DQ4 DQ4 Data 4
7 DQ5 DQ5 Data 5
8 DQ6 DQ6 Data 6
9 DQ7 DQ7 Data 7
10 VCC VCC +5 VDC
11 PD1 PD1 Presence Detect 1
12 A0 A0 Address 0
13 A1 A1 Address 1
14 A2 A2 Address 2
15 A3 A3 Address 3
16 A4 A4 Address 4
17 A5 A5 Address 5
18 A6 A6 Address 6
19 A10 A10 Address 10
20 n/c PQ8 Data 8 (Parity 1)
21 DQ9 DQ9 Data 9
22 DQ10 DQ10 Data 10
23 DQ11 DQ11 Data 11
24 DQ12 DQ12 Data 12
25 DQ13 DQ13 Data 13
26 DQ14 DQ14 Data 14
27 DQ15 DQ15 Data 15
28 A7 A7 Address 7
29 A11 A11 Address 11
30 VCC VCC +5 VDC
31 A8 A8 Address 8
32 A9 A9 Address 9
33 /RAS3 RAS3 Row Address Strobe 3
34 /RAS2 RAS2 Row Address Strobe 2
35 DQ16 DQ16 Data 16
36 n/c PQ17 Data 17 (Parity 2)
37 DQ18 DQ18 Data 18
38 DQ19 DQ19 Data 19
39 VSS VSS Ground
40 /CAS0 CAS0 Column Address Strobe 0
41 /CAS2 CAS2 Column Address Strobe 2
42 /CAS3 CAS3 Column Address Strobe 3
43 /CAS1 CAS1 Column Address Strobe 1
44 /RAS0 RAS0 Row Address Strobe 0
45 /RAS1 RAS1 Row Address Strobe 1
46 A12 A12 Address 12
47 /WE WE Read/Write
48 A13 A13 Address 13
49 DQ20 DQ20 Data 20
50 DQ21 DQ21 Data 21
51 DQ22 DQ22 Data 22
52 DQ23 DQ23 Data 23
53 DQ24 DQ24 Data 24
54 DQ25 DQ25 Data 25
55 n/c PQ26 Data 26 (Parity 3)
56 DQ27 DQ27 Data 27
57 DQ28 DQ28 Data 28
58 DQ29 DQ29 Data 29
59 DQ31 DQ31 Data 31
60 DQ30 DQ30 Data 30
61 VCC VCC +5 VDC
62 DQ32 DQ32 Data 32
63 DQ33 DQ33 Data 33
64 DQ34 DQ34 Data 34
65 n/c PQ35 Data 35 (Parity 4)
66 PD2 PD2 Presence Detect 2
67 PD3 PD3 Presence Detect 3
68 PD4 PD4 Presence Detect 4
69 PD5 PD5 Presence Detect 1
70 PD6 PD6 Presence Detect 6
71 PD7 PD7 Presence Detect 7
72 VSS VSS Ground


See also

  • Dual in-line package (DIP)
  • Single in-line package (SIP)
  • Zig-zag in-line package (ZIP)
  • Dual in-line memory module (DIMM)


External links

  • General SIMM Installation Guide
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20s

July 24, 2008 10:35 am

Note: Sometimes the ‘20s is used as shorthand for the 1920s, the 1820s, or other such decades in various centuries


Events and Trends


Significant people

  • Tiberius, Roman Emperor (14–37)
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Goldenrod (color)

July 23, 2008 6:05 am

Goldenrod is a color that resembles the goldenrod plant. A crayon with this name and color, although a lighter version, was created in 1958.


Goldenrod

Displayed at right is the color goldenrod.


Dark Goldenrod

Dark goldenrod is a color that resembles the color Goldenrod, but is darker. The lighter form of Goldenrod is sometimes known as Flax, but is slightly different in color from flax.


See also

  • List of colors
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Gerolsteiner Brunnen

July 19, 2008 7:10 am

Gerolsteiner Brunnen GmbH & Co. KG (Gerolsteiner) is a leading German mineral water firm with its seat in Gerolstein / Eifel. It is well-known for its Gerolsteiner Sprudel brand, a bottled, naturally carbonated mineral water. Gerolsteiner is also the chief sponsor of a cycling team, Team Gerolsteiner.


History

On January 1, 1888, the mine manager Wilhelm Castendyck founded the firm Gerolsteiner Sprudel as a GmbH in Gerolstein. In the same year, the first well was drilled. In November 1888, the water became a sort of official water of the city and became popular because of its high amount of natural carbonic acid. In 1889 its star and lion symbol was trademarked. Already in 1895, the water had been exported to Australia. In 1928, the company began to export to the United States.

The Gerolsteiner factory was completely destroyed in a bombing raid during Christmas 1944. In 1946 the filling machines were repaired and the full building and installation were rebuilt by 1948.

In 1986, it introduced a brand with a lower amount of carbonic acid to meet changing tastes.


References

  • 111 Jahre Gerolsteiner Brunnen, HG: Gerolsteiner Brunnen GmbH & CO


External links

  • Official Website
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