AIMS - to research, publish and promote the industrial history of the London Borough of Greenwich
Monday, 23 February 2015
GIHS Meeting -GLIAS had been there before
Last week's GIHS meeting was entertained by the speaker, John Kennedy Melling, on the Noakesoscope. That, it turns out, was an ingenious sort of magic lantern, showing moving pictures, invented by one of the Noakes, Greenwich based forage merchants.
One of the mysteries is what happened to the machine - which Mr. Melling had hoped to acquire on the death of the last Noakes, but which went to a descendant and hasn't been seen since 1961! Where is it??
Mr. Melling told us a lot about some of the family - there was a famous conjurer who lived in my road in Blackheath. He told us how a boat used to tour the canals giving shows by various similar bits of equipment - and --
We have been pointed in the direction of the following item from the Greater London Archaeology Society's Newsletter No.75 - please see
"ALL DONE BY MIRRORS
On the evening of 20th February [1981] last a party of 29 GLIAS people attended the Magic Lantern Theatre aboard the narrow boat "Phantasmagoria", then moored on the Regent's Canal at Delamere Terrace. 22 people were packed into the rather cramped auditorium, whilst seven were accommodated behind the screen and able to witness some of the "Showman's Magic". Hand painted glass slides depicting scenes 3" in diameter were back-projected onto a screen 4' in diameter located amidships, the slides being magnified 15 times, compared with the 50 times magnification of the original Victorian shows. The action varied from the simple two position 'flips' of an acrobatic circus equestrian and a 'skipping' child, through dissolving scenes such as 'Day and Night' and the 'Four Seasons', to the very impressive 'Storm at Sea' accompanied by the crash of thunder and the flash of lightning. This sequence depicts an old favourite of mines Eddystone Lighthouse (Smeaton's of course). Then followed a mesmerising sequence of chromotropes turning and twisting, coming and going and changing colour. The show ended with Anita hand cranking a 1905 Moliere cinematograph and showing an especially printed reel of the first films of the Lumière brothers. (The original films were all of one minute's duration.)
Doug and Anita Dean, who run this marvellous theatre, are at present on their summer holiday tour, but will be back in September, I believe, to prepare for their next season at Delamere Terrace (October to May). I look forward to seeing their 'second show' which includes a Victorian 'Journey into Outer Space'.
NB I'd never heard of chromotropes either!
Tom Smith
Let us know if you were among the party??
Author of the piece Tom Smith was a GLIAS member for several years and was GLIAS Sales Officer. He was a Widnes man who spent much of his life in the Royal Artillery, and after leaving the Army he settled in Woolwich. Before he retired he worked as a clerical officer with the Post Office
Friday, 20 February 2015
The Greenwich ropeworks and a wretch
Enderby Wharf and Rope
The Enderby family are known for their rope walk on the Greenwich Peninsula - the line of which could be seen until obliterated by current development. It lay at right angles to the Thames and parallel to Bendish Sluice - also now obliterated by the Barratt development.
The rope walk on the site however was in existence before the Enderby family came to the site and dated from some time after 1800. It was in the hands of a James Littlewood by 1808, and this was described as a “rope house, rope walk, houses and wharf’.
The following is extracts from a court case heard in the Court of Exchquer in the June 1824 and is taken from an account in the morning Chronicle. It concerns 'The King v. Robert Binns" Binns was the landlord of a the Seven Stars in Whitechapel and he had received a quantity of spirits without a permit and in cans or bladders.
Once out of gaol he "turned his attention to a private still in Kentish-town, and passed by the name of Smith". Since that had been discovered by the Excise he set up another still at Leytonstone, and then one at Camberwell, changing his name again to Cross, and when this was discovered he opened yet another still in Bethnal-Green.
The Enderby family are known for their rope walk on the Greenwich Peninsula - the line of which could be seen until obliterated by current development. It lay at right angles to the Thames and parallel to Bendish Sluice - also now obliterated by the Barratt development.
The rope walk on the site however was in existence before the Enderby family came to the site and dated from some time after 1800. It was in the hands of a James Littlewood by 1808, and this was described as a “rope house, rope walk, houses and wharf’.
The following is extracts from a court case heard in the Court of Exchquer in the June 1824 and is taken from an account in the morning Chronicle. It concerns 'The King v. Robert Binns" Binns was the landlord of a the Seven Stars in Whitechapel and he had received a quantity of spirits without a permit and in cans or bladders.
Thomas Phipps, a
Surveyor of Excise, gave evidence that he had discovered a private still in
Kentish Town managed by 'a person who gave his name as
Smith. He was taken to the Magistrates Court and
fined 30/-.
The next witness was James Littlewood was admitted that he also used the name of Smith and within the past three or four months had
manufactured three or four hundred gallons of spirits.
Littlewood went on "he had been rather
unfortunate in business; he became a bankrupt in 1817, ..... having borrowed of his friends £40 he took the rope
walk which had occasioned his bankruptcy and where he should have succeeded,
had not a conspiracy been formed to take it out of his hands". he went on that he has "made over the rope-walk to a person named Young, but
received nothing for it, only a promise of his situation as foreman, with a
salary of £250 per annum".
It then emerged that he had later been charged with stealing some hemp from Mr. Young, but he sais this was not so. He was however sacked because of it and took out a charge against Mr. Young to recover the possession of property. This was tried at Maidstone, but was defeated because there was no written
agreement. However during the proceedings he ended up in the Horsemonger Lane Jail for running an illicit still, and for selling spirits in the prison. Once out of gaol he "turned his attention to a private still in Kentish-town, and passed by the name of Smith". Since that had been discovered by the Excise he set up another still at Leytonstone, and then one at Camberwell, changing his name again to Cross, and when this was discovered he opened yet another still in Bethnal-Green.
Since then he had been in the Fleet Prison because of debts contracted
at the Greenwich ropeworks.
Following evidence from some other parties - the Foreman of the Jury stood up and
said, “My Lord, we are unanimous" and said, about Littlewood "we cannot believe such a wretch on his
oath.”
- the case ended with no verdict.
Monday, 16 February 2015
Part one of Part two on the Atlantic Cable
Back on 19th December we published a page about the history of the Atlantic Cable - it was the second half of an article which had appeared in Part 46 of Wonders of World Engineering in 1938. BUT NOW Part 45 has emerged (with thanks) - so here is the first half of the article ..................
The pioneers of submarine
telegraphy had to contend with unprecedented conditions, and it was only after
repeated failures that cable communications were
established between the Old World and the New.
Cooke and Wheatstone in 1837 built the first practical electric telegraph beside the Great Western Railway from London to West Drayton (Middlesex). They extended it later to Slough, in Buckinghamshire. The simple wire suspended from porcelain insulators was useless for underwater purposes, and for many years electricians had been experimenting with means to convey electric current along a sub aqueous cable. As far back as 1811, Schilling and Sommering had made a trial with a wire cable which was sheathed in rubber.
In 1838 Dr. William O'Shaughnessy (afterwards Sir William O'Shaughnessy Brooke, F.R.S.) conducted an interesting experiment for the East India Company, laying an underwater cable across the River Hooghly at Calcutta. Against the action of the water, he covered his wire with pitch; then he enclosed it within a split cane, finally wrapping tarred yarn round the outside. This system was reinvented, independently, by Wheatstone, sometime later, and he described it in the course of a proposal for a Dover-Calais telegraph, made before the House of Commons.
In 1842 Professor Morse succeeded in transmitting electric current beneath and across New York Harbour. He surrounded his wire with tarred hemp and gave it an outer sheathing of rubber. Three years later came another interesting American experiment. Ezra Cornell laid an electric cable across the Hudson River between New York and Fort Lee. He used two copper wires, enclosed in cotton and insulated with rubber, the whole being contained in a lead pipe. As an experiment, it worked well for a while, but in the following year the cable was damaged beyond repair by drifting ice. In that year, 1846, Charles West succeeded in transmitting telegraph messages to a ship in Portsmouth Harbour through a rubber insulated wire which he paid out by hand. These beginnings may be said to represent the genesis of underwater telegraphy.
The late 'forties saw an important contribution to the science of submarine telegraphy, namely, the application of gutta-percha as an insulating material. Werner von Siemens invented a machine for applying gutta-percha to wire. In 1849 mines were fired in the harbour at Kiel, Germany, by detonators connected with an electric cable enclosed in gutta-percha. Almost at the same time, C. V. Walker, then Electrical Engineer to the South Eastern Railway, laid a two-mile gutta-percha-covered wire through the English Channel to Folkestone, the seaward extremity being on board the cable ship Princess Clementine. The shoreward end was connected up with the railway telegraph, and telegrams were exchanged between Walker in the ship and the telegraph office in London, eighty-three miles away.
A decided fillip to submarine telegraphy was given during 1850-51 by T. R. Crampton's completion of the Dover-Calais cable. Crampton was primarily a railway engineer, being the originator of the Crampton type of locomotive, extensively built in the 'forties and 'fifties. In electrical engineering, too, Crampton was equally resourceful and enterprising. The necessary capital amounted to £15,000, and of this, Crampton himself raised half. In the early 'fifties such an enterprise as this was a speculation of speculations.
The steamship was yet quite young when the first Atlantic crossings took place. Trunk railways were being built over long distances only ten years after Stephenson had built the Rocket. Ten years again separated the first flight across the Channel and the first flight across the Atlantic.
The shortest distance between the British Isles and Newfoundland is rather less than 2,000 miles. Soundings and surveys had been taking place over some time, and connecting lines had already been laid on land at both ends of the potential Atlantic cable, when in 1856 the Atlantic Telegraph Company was formed.
Charles Bright was appointed Engineer-in-Chief, with Wildman White- house as Electrician. Bright was almost at once made the target for all the wild and wonderful theories concocted by wiseacres on both sides of the Atlantic. Everybody gave him advice, most of which was bad and even fantastic. Self- styled inventors and "experts" were present in great force. Charles Bright, however, was proof against any wild-cat schemes, though their promoters must have worried him and wasted his time a good deal. He plotted the course of the cable between Valentia Harbour, in the south-west of Ireland, and Trinity Bay, Newfoundland. The distance between these two points is 1,640 sea miles, and Bright 'reckoned that 2,500 miles of cable would be sufficient to cover this gap, allowing for all inequalities of the sea floor. The bed of the Atlantic abounds in banks and huge deeps, beginning, in a westerly direction, with an enormous submarine cliff some distance beyond the west of Ireland.
The far-sighted engineer urged the adoption of a heavy cable, weighing 392 lb. per sea mile, with insulation of the same weight. The company, however, was in a hurry to get the work done and overruled him, so that he had to content himself with a 107 lb. per mile cable with 261 lb. gutta-percha insulation. In the course of ............
The rest of this article is a few pages back on the blog on 19th December entitled 'How it was achieved - information between Europe and America
THE FIRST
ATLANTIC CABLE
The pioneers of submarine
telegraphy had to contend with unprecedented conditions, and it was only after
repeated failures that cable communications were
established between the Old World and the New.
The experiments which led to
the laying of the first
submarine cables and the trials and
accidents which
beset those responsible
for them form one of
the finest chapters in the history of engineering. The early telegraph engineers had to work in the dark. There had been nobody whose previous
experience could teach them, and
when they made mistakes they were faced
with inevitable
and often unmitigated
failure.
Cooke and Wheatstone in 1837 built the first practical electric telegraph beside the Great Western Railway from London to West Drayton (Middlesex). They extended it later to Slough, in Buckinghamshire. The simple wire suspended from porcelain insulators was useless for underwater purposes, and for many years electricians had been experimenting with means to convey electric current along a sub aqueous cable. As far back as 1811, Schilling and Sommering had made a trial with a wire cable which was sheathed in rubber.
In 1838 Dr. William O'Shaughnessy (afterwards Sir William O'Shaughnessy Brooke, F.R.S.) conducted an interesting experiment for the East India Company, laying an underwater cable across the River Hooghly at Calcutta. Against the action of the water, he covered his wire with pitch; then he enclosed it within a split cane, finally wrapping tarred yarn round the outside. This system was reinvented, independently, by Wheatstone, sometime later, and he described it in the course of a proposal for a Dover-Calais telegraph, made before the House of Commons.
In 1842 Professor Morse succeeded in transmitting electric current beneath and across New York Harbour. He surrounded his wire with tarred hemp and gave it an outer sheathing of rubber. Three years later came another interesting American experiment. Ezra Cornell laid an electric cable across the Hudson River between New York and Fort Lee. He used two copper wires, enclosed in cotton and insulated with rubber, the whole being contained in a lead pipe. As an experiment, it worked well for a while, but in the following year the cable was damaged beyond repair by drifting ice. In that year, 1846, Charles West succeeded in transmitting telegraph messages to a ship in Portsmouth Harbour through a rubber insulated wire which he paid out by hand. These beginnings may be said to represent the genesis of underwater telegraphy.
The late 'forties saw an important contribution to the science of submarine telegraphy, namely, the application of gutta-percha as an insulating material. Werner von Siemens invented a machine for applying gutta-percha to wire. In 1849 mines were fired in the harbour at Kiel, Germany, by detonators connected with an electric cable enclosed in gutta-percha. Almost at the same time, C. V. Walker, then Electrical Engineer to the South Eastern Railway, laid a two-mile gutta-percha-covered wire through the English Channel to Folkestone, the seaward extremity being on board the cable ship Princess Clementine. The shoreward end was connected up with the railway telegraph, and telegrams were exchanged between Walker in the ship and the telegraph office in London, eighty-three miles away.
A decided fillip to submarine telegraphy was given during 1850-51 by T. R. Crampton's completion of the Dover-Calais cable. Crampton was primarily a railway engineer, being the originator of the Crampton type of locomotive, extensively built in the 'forties and 'fifties. In electrical engineering, too, Crampton was equally resourceful and enterprising. The necessary capital amounted to £15,000, and of this, Crampton himself raised half. In the early 'fifties such an enterprise as this was a speculation of speculations.
Wild-Cat Schemes
THE Crampton cable consisted of four copper wires, each covered with a double layer of gutta-percha, the interstices between the' four being filled up with tarred Russian hemp. These four insulated wires formed the core of the cable. They were armoured on the outside by ten No. 1 gauge galvanized wires wound round the central bundle in a spiral. This was a great advance on previous cables, and became a prototype that stood the test of years. It was one thing to lay a telegraph cable across a harbour or a river, or even across the English Channel. To bridge the ocean in the same way was quite another matter. Yet it is a continual peculiarity of modern engineering that the first successful applications of anything on a small scale are almost immediately followed by similar applications on a large scale.
The steamship was yet quite young when the first Atlantic crossings took place. Trunk railways were being built over long distances only ten years after Stephenson had built the Rocket. Ten years again separated the first flight across the Channel and the first flight across the Atlantic.
The shortest distance between the British Isles and Newfoundland is rather less than 2,000 miles. Soundings and surveys had been taking place over some time, and connecting lines had already been laid on land at both ends of the potential Atlantic cable, when in 1856 the Atlantic Telegraph Company was formed.
Charles Bright was appointed Engineer-in-Chief, with Wildman White- house as Electrician. Bright was almost at once made the target for all the wild and wonderful theories concocted by wiseacres on both sides of the Atlantic. Everybody gave him advice, most of which was bad and even fantastic. Self- styled inventors and "experts" were present in great force. Charles Bright, however, was proof against any wild-cat schemes, though their promoters must have worried him and wasted his time a good deal. He plotted the course of the cable between Valentia Harbour, in the south-west of Ireland, and Trinity Bay, Newfoundland. The distance between these two points is 1,640 sea miles, and Bright 'reckoned that 2,500 miles of cable would be sufficient to cover this gap, allowing for all inequalities of the sea floor. The bed of the Atlantic abounds in banks and huge deeps, beginning, in a westerly direction, with an enormous submarine cliff some distance beyond the west of Ireland.
The far-sighted engineer urged the adoption of a heavy cable, weighing 392 lb. per sea mile, with insulation of the same weight. The company, however, was in a hurry to get the work done and overruled him, so that he had to content himself with a 107 lb. per mile cable with 261 lb. gutta-percha insulation. In the course of ............
The rest of this article is a few pages back on the blog on 19th December entitled 'How it was achieved - information between Europe and America
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