Method ringing
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Method ringing (also known as scientific ringing) is a form of
change ringing Change ringing is the art of ringing a set of tuned bells in a tightly controlled manner to produce precise variations in their successive striking sequences, known as "changes". This can be by method ringing in which the ringers commit to memor ...
in which the ringers commit to memory the rules for generating each change of sequence, and pairs of
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are affected. This creates a form of bell music which is continually changing, but which cannot be discerned as a conventional
melody A melody (from Greek μελῳδία, ''melōidía'', "singing, chanting"), also tune, voice or line, is a linear succession of musical tones that the listener perceives as a single entity. In its most literal sense, a melody is a combina ...
. It is a way of sounding continually changing mathematical
permutations In mathematics, a permutation of a set is, loosely speaking, an arrangement of its members into a sequence or linear order, or if the set is already ordered, a rearrangement of its elements. The word "permutation" also refers to the act or p ...
. It is distinct from call changes, where the ringers are instructed how to generate each new change by calls from a conductor, and normally only two adjacent bells swap their position at each change. In method ringing, the ringers are guided from permutation to permutation by following the rules of a ''method.'' Ringers typically learn a particular method by studying its "blue line", a diagram which shows its structure. The underlying
mathematical Mathematics is an area of knowledge that includes the topics of numbers, formulas and related structures, shapes and the spaces in which they are contained, and quantities and their changes. These topics are represented in modern mathematics ...
basis of method ringing is intimately linked to
group theory In abstract algebra, group theory studies the algebraic structures known as groups. The concept of a group is central to abstract algebra: other well-known algebraic structures, such as rings, fields, and vector spaces, can all be seen ...
. The basic building block of method ringing is plain hunt. The first method, Grandsire, was designed around 1650, probably by Robert Roan who became master of the College Youths change ringing society in 1652. Details of the method on five bells appeared in print in 1668 in ''Tintinnalogia'' ( Fabian Stedman with Richard Duckworth) and ''Campanalogia'' (1677 – written solely by Stedman), which are the first two publications on the subject. The practice originated in
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and remains most popular there today; in addition to bells in church towers, it is also often performed on handbells.


Fundamentals


Plain hunt

In method ringing, plain hunt is the simplest form of generating changing permutations in a continuous fashion, and is a fundamental building-block of change ringing methods. It consists of a plain undeviating course of a bell between the first and last places in the striking order, with two strikes in the first and last position to enable a turn-around. Thus each bell moves one position at each succeeding change, unless they reach the first or last position, when they remain there for two changes then proceed to the other end of the sequence. This simple rule can be extended to any number of bells.


Grandsire

Plain hunting is limited to a small number of possible different changes, which is numerically equal to twice the number of bells that are hunting. However, by introducing deviations from the plain hunt, by causing some of the bells to change their relationship to the others, change ringing "methods" were developed. These allow a large range of possible different changes to be rung; even to the extent of the full factorial sequence of changes. Grandsire, the oldest change ringing method, is based on a simple deviation to the plain hunt when the treble (bell No.1) is first in the sequence or it is said to "lead". The treble is known as the "hunt bell" because it hunts continuously without ever deviating from the path. The diagram for the plain course is shown here. The Grandsire variation on the plain hunt on odd numbers adds a second hunt bell, which is "coursing" the treble: that is, the second hunt bell takes its place at the front of the change immediately after the treble. The single deviation away from hunting for the rest of the bells now takes place as the two hunt bells change places at the front of the lead. Furthermore, because there are two hunt bells, not the second bell but the third remains in place: 13254 – Treble leads 12345 21354 – The second hunt bell, No.2 in this case, leads after the treble. It is coursing it. 23145 This forces a dodge on the other bells in 4/5 positions. After this the bells immediately return to the plain hunt pattern until the next treble lead. This rule can now be extended to any number of odd bells in changes, making Grandsire an easily extendable method. The hunt bell is changed many times during such ringing to enable the full factorial number of changes to be achieved.


Plain Bob

"Plain Bob" is one of the oldest change ringing and simplest of these, first named "Grandsire Bob". The deviations when a plain course is extended with "calls" are much simpler than those in Grandsire. A "plain course" of plain bob minor is shown in diagrammatic form, which has the characteristics; #all bells plain hunt, until the treble bell is first, when depending where they are in the pattern, they; #perform "Dodges" in the 3–4 position #or perform dodges in the 5–6 positions, #or sit for two blows if they are just above the treble, then go first again. The red bell track shows the order of "works", which are deviations from the plain hunt. #3/4 down dodge #5/6 down dodge #5/6 up dodge #3/4 up dodge #make 2nds place. And then it repeats. Each bells starts at a different place in this cyclical order. A dodge means just that; two bells dodge round each other, thus changing their relationship to the treble, and giving rise to different changes. The plain bob pattern can be extended beyond the constraints of the plain course, to the full unique 720 changes possible ( this is factorial 6 on 6 bells, which is 1×2×3×4×5×6 = 720 changes). To do this, at set points in the sequences one of the ringers, called the "conductor" calls out commands such as "bob" or "single", which introduce further variations. The conductor follows a "composition" which they have to commit to memory. This enables the other ringers to produce large numbers of unique changes without memorising huge quantities of data, without any written prompts. Ringers can also ring different methods, with different "works" – so there is a huge variety of ways of ringing method changes.


Key points


Numbering the bells

The highest bell in pitch is known as the ''treble'' and the lowest the ''tenor''. The majority of bell towers have the ring of bells (or ropes) going clockwise from the treble. For convenience, the bells are referred to by number, with the treble being number 1 and the other bells numbered by their pitch (2, 3, 4, etc.) sequentially down the scale. The bells are usually tuned to a
diatonic Diatonic and chromatic are terms in music theory that are most often used to characterize scales, and are also applied to musical instruments, intervals, chords, notes, musical styles, and kinds of harmony. They are very often used as a ...
major scale, with the tenor bell being the tonic (or key) note of the scale.


Ringing rounds and changes

The simplest way to use a set of bells is ringing ''rounds'', which is sounding the bells repeatedly in sequence from treble to tenor: 1, 2, 3, etc.. (Musicians will recognise this as a portion of a descending scale.) Ringers typically start with rounds and then begin to vary the bells' order, moving on to a series of distinct ''rows''. Each row (or ''change'') is a specific permutation of the bells (for example 123456 or 531246)—that is to say, it includes each bell rung once and only once, the difference from row to row being the order in which the bells follow one another. Plain hunt is the simplest way of creating bell permutations, or changes.


Obtaining the maximum unique changes

Since permutations are involved, it is natural that for some people the ultimate theoretical goal of change ringing is to ring the bells in every possible permutation; this is called an ''extent'' (in the past this was sometimes referred to as a ''full peal''). For a method on n bells, there are n! (read
factorial In mathematics, the factorial of a non-negative denoted is the product of all positive integers less than or equal The factorial also equals the product of n with the next smaller factorial: \begin n! &= n \times (n-1) \times (n-2) \ ...
) possible permutations, a number which quickly grows as n increases. For example, while on six bells there are 720 permutations, on 8 bells there are 40,320; furthermore, 10! = 3,628,800, and 12! = 479,001,600.


Key rules of valid method ringing


"Truth" of a ringing method

Estimating two seconds for each change (a reasonable pace), we find that while an extent on 6 bells can be accomplished in half an hour, a full peal on 8 bells should take nearly twenty-two and a half hours and one on 12 bells would take over thirty years! Naturally, then, except in towers with only a few bells, ringers typically can only ring a subset of the available permutations. But the key stricture of an extent, uniqueness (any row may only be rung once), is considered essential. This is called ''truth''; to repeat any row would make the performance ''false''.


Allowable position changes

Another key limitation keeps a given bell from moving up or back more than a single place from row to row; if it rings (for instance) fourth in one row, in the next row it can only ring third, fourth, or fifth. Thus from row to row each bell either keeps its place or swaps places with one of its neighbours. This rule has its origins in the physical reality of tower bells: a bell, swinging through a complete revolution with every row, has considerable
inertia Inertia is the idea that an object will continue its current motion until some force causes its speed or direction to change. The term is properly understood as shorthand for "the principle of inertia" as described by Newton in his first law ...
and the ringer has only a limited ability to accelerate or decelerate its cycle.


Start and finish with "rounds".

A third key rule mandates ''rounds'' as the start and end of all ringing. So to summarize: any performance must start out from rounds, visit a number of other rows (whether all possible permutations or just a subset thereof) but only once each, and then return safely to rounds, all the while making only small neighbour-swaps from row to row. These rules dramatically limit the options open to a method-maker. For example, consider a tower with four bells. An extent includes 4 ! = 24 changes and there are, naturally, 24! possible orders in which to ring each change once, which is about 6.2 × 1023. But once we limit ourselves to neighbour-swaps and to starting and ending with rounds, only 10,792 possible extents remain.


Reason for methods

It is to navigate this complex terrain that various ''methods'' have been developed; they allow the ringers to plot their course ahead of time without needing to memorize it all (an impossible task) or to read it off a numbingly repetitive list of numbers. Instead, by combining a pattern short and simple enough for ringers to memorize with a few regular breaking points where simple variations can be introduced, a robust
algorithm In mathematics and computer science, an algorithm () is a finite sequence of rigorous instructions, typically used to solve a class of specific problems or to perform a computation. Algorithms are used as specifications for performing ...
is formed. This is the essence of method ringing.


Lead

A lead is part of the plain course. It commences when the method starts and lasts until the treble gets back to the same place. In the diagram of ''Plain Bob Minor'' shown, the lead starts when the treble rings in second place and lasts until the treble has rung twice at lead. It is common practice in diagrams to draw a line under the lead end to assist in understanding the method. Most methods have a plain course consisting of a number of leads where the pattern is the same, but different bells are in differing places. In the diagram given, the number 4 bell rings the same pattern as the number 2, but one lead earlier. In ''principles'' (where the treble does the same work as other bells and is affected by calls) the definition of a lead can become more complex.


Calls and compositions

To obtain more changes than available in the plain course, a ''conductor'' makes a ''call'' directing the ringers to make a slight variation in the course. (The most common calls are called ''bobs'' and ''singles''.) These variations usually last only one change, but cause two or more ringers to swap their paths, whereupon they continue with the normal pattern. By introducing such calls appropriately, repetition can be avoided, with the peal remaining ''true'' over a large number of changes. For example, an extent in a minor method is 720 (6!) changes, so would require 12 repetitions of the plain course shown. To know when to make calls and which ones to make, a conductor follows a plan called a ''composition'' which he or someone else devised; if properly constructed it will ensure a true performance of the desired length. Today
computers A computer is a machine that can be programmed to carry out sequences of arithmetic or logical operations (computation) automatically. Modern digital electronic computers can perform generic sets of operations known as programs. These prog ...
make checking a composition's truth easy; but the process once involved a mix of mathematics and laborious row-by-row checking. Probably the greatest composer of the 20th century was Albert J Pitman, who composed over a hundred peals between 1910 and 1965, entirely by hand. None of his compositions was then, nor since, discovered to be false.


Place Notation (shorthand)

As well as writing out the changes longhand (as in the accompanying illustration of Plain Bob Minor) there is a shorthand called ''Place Notation''. For each row in which all bells change place, such as the first change, use an "x" or a "-". In rows where one or more bells stay in place write down the ''place numbers'' which do not change, so that the second row is written "16". Plain Bob Minor is therefore x16x16x16x16x16x12. Many methods are symmetrical, and so only the first half lead is given, along with possibly the lead end. Plain Bob Minor is thus: x16x16x16 le:12. Where two changes consisting of numbers follow each other, use a dot to separate them. Plain Bob Doubles (i.e. on 5 bells) is: 5.1.5.1.5 le:125, or if written at full length 5.1.5.1.5.1.5.1.5.125.


Method names

Methods are generally referred to by an official name assigned to them by the
Central Council of Church Bell Ringers The Central Council of Church Bell Ringers (CCCBR) is an organisation founded in 1891 which represents ringers of church bells in the English style. It acts as a co-ordinating body for education, publicity and codifying change ringing rules, al ...
; such names have three standard parts: the method's name proper, its ''class'', and its ''stage''. The name proper is the method's personal name. The oldest methods have long-established names; but new methods are constantly being devised and rung, and the Central Council generally allows each to be named by the band which first rings a peal in it. Most often these methods end up with a place name, such as the band's village; but people's names and still more fanciful inventions are not uncommon. The ''class'' describes the method, putting it in some established category of methods that work in similar ways. Methods in the simplest category omit this second name and use a simple two-part name. The ''stage'' indicates the number of bells, using unique terminology: As can be seen, there are different naming systems for even- and odd-bell stages. The odd-bell stage names refer to the number of possible swaps that can be made from row to row; in ''caters'' and ''cinques'' can be seen the
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numbers ''quatre'' and ''cinq'' while the stage name for three-bell ringing is indeed "singles". Higher odd-bell stages follow the same pattern (''sextuples'', ''septuples'', etc.) while higher even-bell stages have more prosaic names: ''fourteen'', ''sixteen'', etc.). Note that the names refer to the number of bells being permuted, which is not necessarily the same as the number being rung: for it is typical to ring triples methods not on seven bells but on eight, with the tenor ''covering'': only the seven highest bells permute; the eighth and lowest bell is simply rung last in every row. So likewise with caters, usually rung on ten bells, and other higher odd-bell stages. Put together, this system gives method names sound that is evocative, musical, and quaint: ''Kent Treble Bob Major'', ''Grandsire Caters'', ''Erin Triples'', ''Chartres Delight Royal'', ''Percy's Tea Strainer Treble Place Major'', ''Titanic Cinques'' and so forth.


"Performances"

A short composition, lasting perhaps only a few hundred changes, is called a ''touch'', which got its name from the 16th-century expression a "touch" of music, meaning "a brief piece of instrumental music".; However many ringers look forward to the greater challenge of a ''quarter peal'' (about 1,250 changes) or a '' peal'' (about 5,000 changes), which is referred to as a "Performance". This number derives from the great 17th-century quest to ring a full extent on seven bells; 7
factorial In mathematics, the factorial of a non-negative denoted is the product of all positive integers less than or equal The factorial also equals the product of n with the next smaller factorial: \begin n! &= n \times (n-1) \times (n-2) \ ...
is 5,040. Sturdier bellframes and more clearly understood methods make the task easier today, but a peal still needs about 3 hours of labour and concentration. Most ringers follow the definition of a peal as regulated by the Central Council. This requires a minimum of only 5,000 changes where major or a higher stage is being rung, but demands at least the full 5,040 changes on lower stages. For triples, this ensures at least a full extent; for lower stages a full extent falls well short of the goal and ringers must complete several full extents to reach 5,040 (working out mathematically to at least 7 extents on six bells, at least 42 on five, or at least 210 on four; three-bell peals are not recognised by the Central Council).In addition to several consecutive full extents, when attempting a peal on six or fewer bells the central council also permits "round blocks of two or more extents in which each of the possible rows at that stage occurs the same number of times" To qualify as a peal, the ringing must meet a number of other key criteria. Among other things, each bell must be rung continuously by the same person; a ringing band cannot swap in a person to give ringers an occasional break. Likewise the ringing must be done entirely from memory; ringers cannot consult the method's blue line nor can the conductor (who must be one of the ringers) have a written reminder of the composition. More commonly rung is the quarter peal, typically consisting of 1,260 changes and typically taking 45 minutes to ring. Half peals are more rarely rung, but have been known. One example is in Buckfast Abbey in Devon, where there are two half peal boards.


See also

* Campanology *
Change ringing Change ringing is the art of ringing a set of tuned bells in a tightly controlled manner to produce precise variations in their successive striking sequences, known as "changes". This can be by method ringing in which the ringers commit to memor ...
* Change ringing software *
Siteswap Siteswap, also called quantum juggling or the Cambridge notation, is a numeric juggling notation used to describe or represent juggling patterns. The term may also be used to describe siteswap patterns, possible patterns transcribed using sit ...


Notes


References


The Framework for Method Ringing
official definitions by the Central Council of Church Bell Ringers on what constitutes methods and peals


External links


Change-ringing resources: an online compendium of almost everything you need to know

Bellboard - online update on current change ringing performances.The methods committee of the Central Council
with links to their online listing of all named methods

{{Bells Campanology English culture Permutations