If this do not come to pass, we must make the best of our state, join our chief towns with railways, put quays to our harbours, mills on our rivers, turbines on our coasts, and under restrictions and with guarantees set the steam engine to work at our flax, wool, and minerals.
The two great mechanical powers are fire and water. Ireland is nobly endowed with both.
We do not possess as ample fields of flaming coal as Britain; but even of that we have large quantities, which can be raised at about the same rate at which English coal can be landed on our coast.
The chief seats of flaming coal in Ireland are to the west of Lough Allen, in Connaught, and around Dungannon, in Tyrone. There is a small district of it in Antrim.
The stone coal, or anthracite, which, having little gas, does not blaze, and, having much sulphur, is disagreeable in a room, and has been thought unfit for smelting, is found—first, in the Kilkenny district, between the Nore and Barrow; secondly, from Freshford to Cashel; and thirdly, in the great Munster coal country, cropping up in every barony of Clare, Limerick, Cork, and Kerry. By the use of vapour with it, the anthracite appears to be freed from all its defects as a smelting and engine coal, and being a much more pure and powerful fuel than the flaming coal, there seems no reason to doubt that in it we have a manufacturing power that would supply us for generations.
Our bogs have not been done justice to. The use of turf in a damp state turns it into an inferior fuel. Dried under cover, or broken up and dried under pressure, it is more economical, because far more efficient. It is used now in the Shannon steamers, and its use is increasing in mills. For some purposes it is peculiarly good—thus, for the finer ironworks, turf and turf-charcoal are even better than wood, and Dr. Kane shows that the precious Baltic iron, for which from £15 to £35 per ton is given, could be equalled by Irish iron smelted by Irish turf for six guineas per ton.
Dr. Kane proves that the cost of fuel, even if greater in Ireland, by no means precludes us from competing with England; he does so by showing that the cost of fuel in English factories is only from 1 to 1½ per cent., while in Ireland it would be only 2½ to 3½ per cent., a difference greatly overbalanced by our cheaper labour—labour being over 33 per cent. of the whole expense of a factory.
Here is the analysis of the cost of producing cotton in England in 1830:—
| Cotton wool | £ 8,244,693 | or per cent. | 26.27 |
| Wages | 10,419,000 | " | 33.16 |
| Interest on capital | 3,400,000 | " | 10.84 |
| Coals | 339,680 | " | 1.08 |
|
Rent, taxes, insurance, other charges, and profit | 8,935,320 | " | 28.65 |
| £31,338,693 | 100.00 |
In water-power we are still better off. Dr. Kane calculates the rain which falls on Ireland in a year at over 100 billion cubic yards; and of this he supposes two-thirds to pass off in evaporation, leaving one-third, equal to nearly a million and a half of horse-power, to reach the sea. His calculations of the water-power of the Shannon and other rivers are most interesting. The elements, of course, are the observed fall of rain by the gauge in the district, and the area of the catchment (or drainage) basins of each river and its tributaries. The chief objection to water-power is its irregularity. To remedy this he proposes to do what has increased the water-power on the Bann five-fold, and has made the wealth of Greenock—namely, to make mill-lakes by damming up valleys, and thus controlling and equalising the supply of water, and letting none go waste. His calculations of the relative merits of undershot, overshot, breast, and turbine wheels are most valuable, especially of the last, which is a late and successful French contrivance, acting by pressure. He proposes to use the turbine in coast mills, the tide being the motive-power; and, strange as it sounds, the experiments seem to decide in favour of this plan.