
Wellington Philosophical Society.
First Meeting: 13th June, 1888.
W. M. Maskell, F.R.M.S., President, in the chair.
New Members.—T. D. McDougal, W. B. Hudson, and A. Boardman.
Inaugural address by the President, W. M. Maskell, F.R.M.S.
Abstract.
The President, after thanking the Society for the honour done to him by his election, proceeded to deliver the annual address. He began by congratulating the members of the New Zealand Institute upon the appearance of the twentieth volume of “Transactions,” and therefore upon the completion of twenty years of good and solid work for the benefit of the colony—work undertaken without any view to emolument or reward, and solely with the intention of disseminating useful information. At the same time he recognised that there was some foundation for the complaint often made that the “Transactions” contained almost too much of the purely natural and physical sciences. This may have been inevitable in the past; but perhaps the time may have arrived when an extension of work might be brought about, and he hoped to be able to suggest some plan during the year for encouraging young men to take up other lines of study, and to publish their results. Little or no assistance could be hoped for from the Colonial Legislature, which was now cutting everything down to the lowest limit, and which evinced no disposition to liberality towards learning. The vexatious restrictions to which respectable citizens were subjected if they desired to make good use of the library which the colony had given to Parliament, were an evidence that the Legislature could not be in the least relied upon to help the Institute, even though it was demonstrable that the “Transactions” were capable of being directly profitable from an educational point of view. Still, perhaps a good deal of difficulty undoubtedly arose from the character of the young men of New Zealand, who certainly did not seem to show much inclination to intellectual pursuits. Athletics and, perhaps, practical business seemed to absorb their entire attention; and if some addicted themselves at all to study this was probably in the great majority of cases only with an eye to the positions and the salaries to be gained by it. Finis scientiæ opes: the test of knowledge is the money to be made from it. Such seemed to be the philosophy of young New Zealand.
Passing to the scientific portion of his address, the President drew attention chiefly to the branch of study which he had himself followed—microscopical investigation. He began with the seeming paradox that, whilst the microscope since its invention has taught us very much, it had also taught us very little. In the improvement of mechanical appliances and adaptations the advance of the microscope had been most wonderful, and an illustration of this was afforded by the comparison of a microscope by a modern maker, exhibited on the table, with the model of a microscope

made and used by A. Leeuwenhoek, one of the most celebrated of the early discoverers, about the year A.D. 1700. This model, which would be placed in the Colonial Museum, showed that the original instrument was of extreme roughness, having only a single lens fixed in a metal plate, to which a small apparatus was attached at the back for holding an object. The improved mechanism of the modern microscope was indeed wonderful, and probably left little more to be effected. Still, this was but a question of degree and of mechanical skill: as regards the deductions from the teaching of the microscope, we are no further advanced now than the observers of Leeuwenhoek's time.
The two great problems, What is life? and How have the variations of organic beings been brought about? are not solved by the microscope—which, indeed, in revealing to us innumerable wonders of fact, has not lent itself to the advancement of modern scientific theory. The prevalent tendency of modern thought is in the direction of discovering a physical, a material basis of life; and all the energies of many accepted leaders nowadays are bent towards this end. But they receive no aid from the microscope, which, as it every day leads them further on in the domain of facts, only does so to show still the same impassable gulfs preventing the desired solution of the problem. And as regards the second question—of the variations of organisms—the microscope seems to provide even a positive bar against modern theories. For these rest fundamentally on a few assumptions, one of which is that in organic nature simplicity of construction implies inferiority, and therefore priority: the simplest organisms are taken as necessarily inferior, and therefore precedent, to the more complex. An instance of the fallacy of this assumption is afforded by the microscopic animal, hydra (common about Wellington and elsewhere), an animal of almost the last degree of simplicity, and on that account placed in modern systems in a very “low” order of beings. It could be shown that the marvellous properties and powers of the hydra formed a direct contradiction to the fundamental assumption above mentioned of the evolutionary theory. On the whole, the microscope, whilst it has taught us, and will continue to teach us, ever more and more in the domain of fact, has in the domain of speculation left us no further advanced than the early observers two centuries ago—even no further advanced than the philosophers of ancient Greece.
The President exhibited under the microscope a specimen of the hydra.
Papers.—1. “On a New Species of Kiwi (Apteryx bulleri),” by R. Bowdler Sharp, F.L.S., F.Z.S., Honorary Member N.Z. Institute (Ornithological Department, British Museum); communicated by Sir Walter Buller. (Transactions, p. 224.)
2. “On the Varieties of a Common Moth (Declana floccosa),” by G. V. Hudson. (Transactions, p. 190.)
Second Meeting: 27th June, 1888.
W. M. Maskell, F.R.M.S., President, in the chair.
Papers.—1. “On Rabbit-disease in the Wairarapa,” by Coleman Phillips. (Transactions, p. 429.)
Mr. John F. McClean, M.R.C.V.S., by permission of the meeting, said that he objected to the wholesale introduction of “rabbit-fluke” as a means of eradicating the pest, on the ground of its being the same

hydatid that caused the disease “sturdy” or “gid” in sheep, and quoted Dr. Cobbold to that effect. That the disease “sturdy” in sheep did prevail in the Wairarapa he was convinced, from inquiries he had made among sheep-owners in that district; though in nearly all cases, from a want of knowledge of the subject, it had not been identified as “sturdy,” but mistaken for “ergot”-poisoning. As a matter of fact, ergot, he said, had little or no action on sheep except during the period of gestation; but in healthy ruminants, when obtained or administered continuously for a considerable period; it would most likely cause sloughing of the hoofs; this, with the exception of general falling-off in condition, being usually the first observable symptom of ergot-poisoning. All the symptoms that had been described to him as due to ergot-poisoning were, as a matter of fact, identical with the symptoms of “sturdy.” Again, as a rabbit-destructor, how did the disease act? In the rabbit we find the hydatid lodged in the connective tissue of the skin and muscles; it grows to the size, perhaps, of an orange, and is said to displace the vital organs to such an extent as to cause death. But this is a very slow process: it takes weeks for the hydatid to grow to even an appreciable size, and does not during this period interfere with the reproductive powers of the rabbit; and when it has grown to a size sufficiently large to cause the displacement of a vital organ, this is not sufficient to cause death. We all know how even men can and do live with their vital organs in all sorts of strange positions, and bunny does not seem less able to do so; in fact, this displacement in the rabbit being so very gradual gives nature a chance of accommodating itself to its altered circumstances. He said he would be inclined to attribute the improvement in the rabbit-pest in the Wairarapa to the shooting, poisoning, and turning-out of the rabbit's natural enemies, which Mr. Coleman Phillips said had taken place, though he would certainly grant that rabbit-fluke, existing as widely as Mr. Phillips had represented it, would necessarily cause a certain mortality; but he believed this mortality would be extremely small, considering the nature of the pest we have to deal with, and urged that the disease had been propagated at far too great a risk to the sheep in the district.
Mr. Coleman Phillips, in reply to Mr. McClean, remarked that he did not believe at all that the bladder-worm of the rabbit gave the sheep in the Wairarapa sturdy, or gid. There were not many cases of sturdy, or gid, in the colony. It was a rare complaint amongst sheep, but in the Wairarapa a few sheep had become apparently sturdied from eating ergot. Mr. McClean said the runholders were wrong in thinking that ergot was the cause of this; but Mr. Phillips thought that the runholders were right. He, however, desired to thank Mr. McClean for calling attention to the matter, as he was equally desirous of and interested in keeping diseases away from sheep. Professor Thomas had quoted from Rose in his report, and that gentleman drew from that authority a conclusion quite different from that of Mr. McClean. Bladdery rabbits were not harmful to sheep; and as to human beings, the Norfolk warreners have been in the habit for years past of pricking the bladders, and then sending the rabbits to market in the ordinary way. There were very few cases of hydatid heard of in England, where bladdery rabbits must often be eaten.
3.“Two Suggestions for the Consideration of the Governors of the New Zealand Institute,” by A. de. B. Brandon.
Abstract.
The writer, in calling attention to the many ways in which the measurements of small objects were recorded, stated that fractions (both vulgar and decimal) of an inch, lines, millimetres, and micro-millimetres were used by different writers, and suggested that the Governors of the Institute, in order to lessen the labours of a student, should insist on the adoption of one system of measurement in papers submitted for publication

in the “Transactions.” The writer also pointed out the incongruity sometimes caused by the use of personal surnames as the specific description of certain animals of small size, and suggested that proper names should not be used indiscriminately in the naming of new genera and species, but that good reason should be assigned for such use, and the approval of the Governors first obtained; and he further proposed that the Governors should publish a few elementary rules for the formation of the possessive case when proper names were latinised.
Mr. Hulke was glad that Mr. Brandon had brought the matter of measurement forward. It was most important that there should be a uniform system, and it ought to be that formerly introduced by the French, but now used in America and all continental States—namely, the metric system. We should teach it in our schools, to prepare for its general use fifty years hence.
Captain Hewett agreed that the decimal system should be uniformly adopted.
The President agreed entirely with the author's views on this subject. He suggested that Mr. Brandon should bring the matter before the Governors of the Institute, in the form of a definite resolution for their consideration.
The President drew attention to a valuable series of works, giving the latest information on the Hessian fly, which had been presented to the library.
Third Meeting: 25th July, 1888.
W. M. Maskell, F.R.M.S., President, in the chair.
New Member.—T. H. Robinson.
Papers.—1. “On the Limestones and other Rocks of the Rimutaka and Tararua Mountains,” by A. McKay, F.G.S.
Abstract.
Mr. McKay said that several years ago Mr. J. C. Crawford endeavoured to draw attention to the existence of valuable building-stones in the immediate vicinity of Wellington; and he believed that Mr. Crawford partly opened up a quarry on his property forming the Miramar Peninsula. Attention was at the same time drawn to some rocks on the range north-west of the Botanic Gardens, which were subsequently examined by Mr. Cox, late Assistant Geologist. All of these rocks proved too hard to dress easily, and they had consequently not come into general use. In the month of October last, the speaker said, samples of a comparatively soft sandstone were brought to the Colonial Museum from the western slopes of the Tararua Mountains. Shortly afterwards he examined the rocks of the range forming the water-parting between the Ruamahanga and Manawatu basins, with special reference to the occurrence of limestone five miles south of Eketahuna, and close to the main line of road to Masterton. These limestones formed a bed 10ft. to 12ft. thick, and were sufficiently hard to take a good polish. They varied in colours, being red, green, or grey, and were usually veined with white calc-spar veins; but, unfortunately, at the outcrop, and apparently throughout, the stone was so much jointed that no blocks more than 2ft. 6in. appeared likely to be obtained. Later in the season, Mr. McKay said, he explored the eastern slopes of the Tararua Ranges between the Waingawa and Tauherenikau Valleys, and along the gorge of the Waiohine River. A great part of the high vertical walls of rock forming the Waiohine Gorge was formed of calcareous diabasic ash. The rocks appeared to be an altered volcanic ash, and would be very beautiful if cut and polished. In some parts of the Waiohine Gorge the more cal-

careous rocks of a mixed white and green colour would quarry in large blocks, and take excellent polish. They were, however, so situate that at the present time they could hardly be worked with profit. The line of calcareous rocks crossed the Tauherenikau and stretched along the Rimutaka Range to the railway-line at the foot of the steep incline on the west side of the “Summit,” but he could not say how far it was traceable as a calcareous band following the range south. On the western side of the range limestones of like character occurred, and amongst the specimens on the table was one obtained from the Otaki Valley, and presented by Mr. Wallace. The distance of the outcrop was about nine miles from the railway-line. The existence of calcareous rocks in the Makara Valley had been known for some time, on Mr. Thomas Robinson's land. Further to the north-west, in the adjoining property, there was a body of rock forming a thick bed, of which about 50 per cent. is carbonate of lime. This, too, appeared to have been of volcanic or tufaceous rock. He had obtained samples, but they had proved excessively hard. If this stratum had been softer it might have proved valuable stone, as it was capable of being quarried in blocks of any size up to 7ft. in length and breadth. The stone was capable of receiving a very high polish, and the more beautiful parts of the stratum might pay for working despite the drawback of hardness. On the sea-coast, at Red Point, about a mile to the east of Sinclair Head, some very beautiful specimens of red and green slates had been obtained. The red slates were overlain by a considerable amount of grey and reddish quartzite, the bands being curiously contorted, and the quartzite was overlain by some 25ft. to 30ft. of a hard, brown, jasperoid rock, veined yellow and white, which, though very hard, was very beautiful when polished. Over this last was a mixture of serpentine, hæmatite, and granular limestone or calc-spar, which was not too hard to cut and polish; and, as the sample before the meeting would show, it was a very beautiful rock. The total thickness of these rocks, including the quartzite, was about 300ft., and they were so situate and exposed that they could be quarried with comparative freedom, and at small expense. Were the means of transit to Wellington other than over a heavy and rugged beach to the mouth of Happy Valley, Mr. McKay said that there could be little doubt but that the red and green slate might be worked and placed upon the market at once; but, however beautiful the jasper rock might be, to work it would require the use of expensive machinery.
Mr. Brandon considered the discovery of this marble most important, and he hoped it would prove a profitable industry for Wellington. It was a pity the rock was so hard; but, no doubt, with improved machinery this could be overcome. Judging from the samples on the table, if the stone could be procured at a reasonable cost, we could compete against the world in producing mantelpieces, &c.
Mr. Park would like to know if the slates were quite oxidized and anhydrous. He pointed out that if this was the case the discovery would prove of great value to Wellington, where building-stones were much wanted.
Mr. Robinson said that the specimens of marble referred to, from Makara, were obtained from the surface, where they had been long exposed to the atmosphere: the rock under the surface would probably not be so hard.
Mr. McKay, in reply, said that the rocks were composed of material completely oxidized, and that in the quarry this was shown by the absence of stains along the joints. He quoted the analysis, which showed that the rocks only contained a little more than 1 per cent, of water. He also read extracts showing that some of the marbles closely resembled the mixed characters of the verde antico of the Italians, and the African breccia marbles.

2. "On the Natural History of Three Species of Micro-lepidoptera," by G. V. Hudson. (Transactions, p. 189.)
3. " On the Mole-cricket in New Zealand (Gryllotalpa vulgaris)," by T. W. Kirk, F.R.M.S. (Transactions, p. 233.)
Mr. Hudson remarked that the mole-cricket had been the subject of many interesting memoirs on the anatomy of insects, and its arrival would therefore be interesting to entomologists. He did not think it was likely to do as much harm as the author thought.
Mr. Brandon said it was a pity this insect should have been introduced, and he thought information should be circulated as to the best means of getting rid of it.
The President remarked that from an entomological point of view the occurrence here of these mole-crickets was interesting. As for their hurtful propensities, opinions seemed to be divided; but it should always be remembered that comparisons between New Zealand and England were not always correct, on account of the difference of climate. He, however, took the opportunity of saying that experience in this country seemed to point to the fact that imported animals, probably both useful and noxious, unless fostered in some special way, after greatly increasing for some time, appeared to decrease. As instances of this, in connection with useful animals, might be taken the pheasants and partridges, which in some parts of the colony—for example, North Canterbury and Amuri— after growing into such numbers that they might be seen in every paddock, were now becoming rare, if not very rare. Doubtless poachers, cats, fires, rats, &c, had something to do with this; but he thought they did not account for all of it. Nor could it be said that these birds were not adapted to the country, else why had they increased so largely ? In like manner, he was informed, one of our worst insect-enemies, Icerya purchasi, is supposed to be doing much less damage than formerly, if it is not, indeed, dying out altogether. It may be that some law obtains whereby new importations, good or bad, useful or noxious, flourish with excessive fertility for a while, and then are apt to die out. Perhaps this would be the case even with the rabbit; perhaps also these mole-crickets would come under the same law.
Mr. Park did not think there was any great danger to be apprehended from the rapid spread of the mole-cricket, which, according to Mr. Kirk's own statement, had only increased at the rate of 100 per cent, in seven years. He thought there was nothing in this to alarm farmers or gardeners.
Mr. Kirk, in reply, said that the farmers and market-gardeners had a much more lively interest in the mole-cricket than entomologists had, as they would be direct losers should the insect increase rapidly, while the scientists' interest was purely intellectual. He had not stated that the insect had only increased at the rate of 100 per cent.; he merely said that only three specimens had fallen into his hands: but he had not looked for them, and probably, now attention had been directed to the subject, we should find that many other persons had observed the creature without knowing what it was.
4. " On the Supposed Occurrence of Two Sets of Green-sand-beds at Waihao Forks, South Canterbury," by Alexander McKay, F.G.S.
Abstract.
This paper dealt chiefly with certain mistakes and misapprehensions contained in previous papers on the geology of the Waihao Valley, and explained some matters complained of in Professor Hutton's last paper on this subject. In vol. xix. of " Transactions of the New Zealand In

stitute " Professor Hutton sought to show that the Waihao Forks green-sands do not underlie the limestones of the Oamaru system at that place; and Mr. McKay, in reply, endeavoured to prove that they do. In vol. xx., "Trans. N.Z. Inst.," Professor Hutton admits there is a greensan'd under the limestone, but contends that it is not the greensand equivalent to that at the Waihao Forks, which, as appears, he still regards as younger than the Waihao limestone. Mr. McKay also admits the occurrence of two distinct deposits or bands of greensand, but he maintains that both have a position inferior to the Waihao limestone.
Mr. Park said there was really no geology in this paper ; it was merely an explanation of some personal differences between the author and Professor Hutton. He deplored the fact that personalities should find their way into scientific discussions, and thought it would be wise to exclude such papers from publication.
5. Mr. James Wallace gave an interesting account of the recent discovery of manganese upon property near the Wellington-Manawatu Railway Company's line. He stated that a quantity had been sent home for a professional opinion as to its real value. He stated that upon analysis in the Colonial Laboratory the ores yielded, in the case of the oxide, 75 per cent., and of the carbonate, 84 per cent, of manganese.
Mr. McKay considered this an important discovery: it occurred in very large blocks, and would no doubt prove of commercial value.
Mr. Hughes, who had also visited the locality and seen the deposit, spoke highly of it. He had sent samples to England for expert opinion.
Fourth Meeting: 22nd August, 1888.
W. M. Maskell, F.R.M.S., President, in the chair.
New Member.—A. B. Keyworth.
Papers.—1. " On the Oil-bearing Strata of the North Island," by J. Park, F.G.S.
Abstract.
Mr. Park said that the oil-strata of this island belonged to two formations—one of pleistocene and the other of cretaceous age. The former included the petroleum springs at Taranaki, and the latter the oil-rocks at the east coast of Wellington and Poverty Bay. The geological conditions and the surface-evidences of oil at these places were discussed at considerable length. On the east coast of Wellington the strongest gas-spring was that at Blairlogie, the flow of gas being about equal to the discharge of an inch pipe. The oil-strata, consisting of slaty shales and crumbling marly clays, were everywhere much shattered and contorted. The gas-spring at Langdale was unlike any other in the district. The gas was sulphuretted hydrogen, and the water accompanying the gas belonged to the sulphurous or hepatic class of mineral waters, which possess valuable medicinal properties. The gas-springs at Ika, Aohanga, and Akitio were feeble compared with that at Blairlogie. Passing on to Poverty Bay, Mr. Park said that the first report on the district was made by Sir James Hector in 1873. Gas-springs were numerous throughout the whole district, and ab places oil oozed from the rocks and collected on the surface of lagoons and pools. The author quoted from the reports of Sir James Hector and Mr. McKay to show the character of the oil-strata, which consist of grey contorted sandstones and dark-grey shaly marls. The strata are everywhere much disturbed and broken. At Taranaki the oil-strata consist of volcanic agglomerates and tufaceous sandstones,

containing beds of lignite. The true source of the oil is still undetermined, but is probably, as suggested by Sir James Hector in 1866, the coal-seams which are supposed to underlie Mount Egmont. Before proceeding to discuss the prospects of oil at the places just reviewed, Mr. Park briefly described the geological conditions usually attending the production of oil in other parts of the globe. Mineral oil, he said, was obtained from two sources—namely, from bituminous shales by distillation, and as a natural product from certain oil-strata. Reference was then made to the oil industry in Scotland, which continued to hold its own against the natural oils of America and Baku. Petroleum was found associated with shales (or coals) and sandstones. The former yield the oil, while the latter serve as reservoirs to collect the oil. The author then went on to consider the prospects of payable oil in the three districts already described.
Prospects on East Coast of Wellington.—He did not think the indications sufficient to warrant the assumption that payable oil would be found in this district, his reasons for this belief being as follows: (1.) That the shales contained too small a proportion of carbonaceous matter to yield oil by distillation. (2.) That the strata are too much shattered to afford the pressure necessary to condense the volatile gases.
Prospects at Poverty Bay.—The author said that, after a careful consideration of the surface-evidences, he was of the opinion that payable oil would not be found at the places where boring was at present being conducted, his reasons being the same as in the case of the east coast of Wellington. He said the Awanui shale could not be regarded as the source of the oil, as it was always at or near the surface. The dark-grey shales were no doubt the true source, but they contained only 1 or 2 per cent. of carbon, while the oil-shales of Pennsylvania contained from 10 to 20 per cent. As regards his second objection, he said the strata were too much shattered and tilted to afford the pressure to condense the volatile hydrocarbons, and to prevent leakage on the surface. Ample surface-manifestations were not considered a good indication of payable oil. He thought further explorations might discover places in the oil-belt where the geological conditions were more favourable for the accumulation of oil.
Prospects of Payable Oil in Taranaki.—With regard to the prospects here, Mr. Park said it was difficult to form an opinion, as there was some doubt as to the true source of the oil. It was probably the coal-seams underlying Mount Egmont; and this hypothesis was supported by the occurrence of fragments of the purest graphite among the débris on the flanks of Mount Egmont. This graphite was no doubt a coal or lignite altered by volcanic agencies. The bores put down at Taranaki were too shallow; and the question of payable oil could only be determined by further explorations.
Distillation of Oil-shale.—This was an important industry in Scotland, and he did not see why it should not become the same here. Professor Black had shown that the Orepuki shale is superior to the celebrated torbanite, as it yields forty-two gallons of crude oil and other valuable products to the ton of shale, against forty gallons returned by the latter. To insure the success of this industry it would be necessary to manufacture our own sulphuric acid and alkalies. In the so-called refractory sulphides on our goldfields, and the native-sulphur deposit at White Island, we had an abundance of the raw material. The production of the alkalies would follow as a natural consequence. Mr. Park said our bituminous shales were a valuable asset, which would no doubt yield large returns when the proper time came for their development.
Mr. McKay asked the writer of this paper whether he had noticed the presence of petroleum in the east coast district of Wellington: he said that, so far as described, gas-springs only seemed to occur. Mr. McKay

referred to the existence of a mineral spring on Sutherland's station on the Pahaoa River, which yielded inflammable gas, freely escaping from, the older rooks of the district, and which had not been included by Mr. Park as gas-bearing. He thought that possibly the Blairlogie gas-spring might have its source in the same rocks. He thought the author had under-estimated the so-called oil-bearing belt at Poverty Bay at four to five miles, his idea being that in some places it was not far short of twenty-five miles in breadth.
Mr. Higginson pointed out that the distillation of oil from shale had been abandoned in Scotland, owing to the flooding of the market with oil from the Black Sea ports. He did not think it would pay to distil the oil in New Zealand. From what he observed he thought the prospects at Poverty Bay appeared good. Of course, it was now a question of quantity. The raw material was now in great favour for use in all kinds of steam-engines, and very startling results had been published. It would revolutionise the manufacture of small engines.
Mr. T. W. Kirk did not think there was much chance of the hopeful anticipations regarding oil-production in New Zealand indulged in by the author ever being realised—at any rate, for a great many years. In 1886 the export from Baku alone was over 370,000,000 gallons; America, added 28,000,000 barrels of forty-two gallons each; and the supply from these places was still increasing: so that our being able to compete with the foreign article was unlikely.
Count Jouffroy d'Abbans hoped that when the Government sent the New Zealand minerals they had promised to the Paris Exhibition, they would include specimens of the New Zealand petroleum and shales, so that they might be tested by the experts who would no doubt be present to report on such products.
Mr. A. S. Paterson (advocate, Edinburgh) regretted that, having just arrived in the colony, he was not a member of the Society, but hoped he might be allowed to answer some of the difficulties referred to in the discussion. Permission having been granted, Mr. Paterson stated that, having been lately in contact with the shale enterprise in Scotland, he was in a position to assure the Society that since the opening of the Baku wells, and, still earlier, the introduction into Scotland of American natural oils, the working of shale had enormously increased. This was due to the fact that shale was no longer distilled merely for the oil it contained, but was treated by a new process for ammonia and other products previously regarded as by-products of little or no value. At Burntisland, Straition, and other places in the vicinity of the Firth of Forth, large works had sprung up, and gave large returns, in some instances 30 per cent. being earned. There had been difficulties with the workmen at Dalmeny and elsewhere, resulting in strikes of a disastrous character; but these were no indication of any loss of trade. It was a curious fact that for many years this valuable shale had been lying in strata exposed to public view in road and other cuttings in the vicinity of Edinburgh and elsewhere, but only within the last eight or ten years had its full value been discovered. He was not in a position to say that the New Zealand shale would give the same return when similarly treated; and, indeed, one specimen he had seen appeared to differ—at least, outwardly—from the best Scotch shale. He concluded by thanking those present for having heard him.
Mr. Gordon said that, with regard to Mr. Park's paper on the mineral oil in the Poverty Bay district, the author held out very little chance of success at the place where boring operations are now being carried on; but the reasons assigned did not appear sufficient to warrant this conclusion. Before we can tell definitely where petroleum is likely to be found we must understand its origin, and that is a subject on which scientists do not agree. We are pretty certain it is formed by the decomposition of

organic substances, but this need not be confined to the palæozoic rocks. A popular impression exists that the only rocks in our geological scale which contain carbonaceous remains are those of the carbuniferous age; but Professor Peckham thinks it is very probable that carburetted-hydrogen gas and petroleum are derived from microscopic animals. When examining the oil-bearing strata in the Poverty Bay district lately, the question that occurred to him was whether the porous sands which contain the gas and oil were sufficiently thick to form reservoirs. There is no doubt as to the porosity of the seams on examining the strata in the gorge of the Waipaoa River: there are alternate bands of very porous sandstone, full of fissures and cracks, lying in almost a horizontal position among the calcareous marl. If thick porous beds of sandstone or limestone occur lying in the same manner where the oil is found they would form a large reservoir for the oil; therefore, before we can determine whether there is likely to be a good supply of oil obtained at the place where the present operations are carried on by the South Pacific Company, far more information is required to form data from which to give an opinion on the subject. He then read an extract from a paper read by Charles A. Ashburner before the American Institute of Mining, Engineers: “In all geological ages prior to the carboniferous there did not exist sufficient land-vegetation to form extensive coal-beds; but the fossil remains of water-plants amply attest the fact that there was buried in the rocks below the carboniferous a great abundance of vegetable forms. Even in the Laurentian rocks of Canada, far below where I believe it is possible to find natural gas, there is a large accumulation of carbonaceous material in the form of graphite, which is now universally conceded to have been derived from the remains of vegetation. These plants belonged to the lower forms of vegetable life, as the animal remains of which many of our limestones are composed belonged to the lower forms of animal life. The latter are no doubt the source of the large amount of both oil and gas derived from the limestone beds. According to researches made by Professor Peckham in Southern California, the petroleum and gas there are very probably derived from microscopic animals.”
In reply to Mr. McKay's questions, Mr. Park said that the gas-spring at Blairlogie occurred in the cretaceous rocks. As to the gas-spring at the Pahaoa River, the gas was sulphuretted hydrogen, which was inflammable, but no indication of oil. As to the average width of the oil-belt, he said that, although over twenty miles in some places, it was only a few chains at others. Five miles was a fair average. Mr. Park thanked Mr. Paterson for his valuable information regarding the shale industry in Scotland. He believed the shales of New Zealand would in time be turned to profitable account. In reply to Mr. Gordon, he said that petroleum occurred in rocks of all ages, from the silurian epoch up to the present time. The origin of the oil was not so important as the discovery of the strata which yielded it.
2.“On a Curious Feature in a Marsh Plant (Glossostima), by C. W. Lee. (Transations, p. 108.)
3.“On the Production of Artificial Chromes for Ornamental Purposes,” by W. Skey. (Transactions, p. 359.)
Fifth Meeting: 12th September, 1888.
W. M. Maskell, F.R.M.S., President, in the chair.
Papers.—1. “The Late Earthquake (1st September, 1888), and its Bearing on the Architecture of Wellington,” by W. M. Maskell, F.R.M.S.

Abstract.
The author, after alluding to the fact that the comparative immunity from destructive earthquakes enjoyed by the colony since 1855 had caused a general feeling of security, pointed out that no spot on the face of the earth is absolutely safe from earthquakes. When it was remembered that the most violent of all our New Zealand shakes happened in the neighbourhood of Wellington only about thirty-three years ago, and that a large portion of the Te Aro district in this city could probably not have been built over if that convulsion had not raised it several feet, one was inclined to wonder sometimes at the apathetic coolness of the inhabitants, and especially of the professional and municipal authorities. He was surprised to find that in the building by-laws of the City Council there was not, with one small exception relating to chimneys (which seemed to be a dead-letter), a word to indicate that any danger to life or property is to be feared from earthquakes. The Council seemed to have had a thorough dread of fires, but none of earthquakes. The City Surveyor had power to pull down chimneys built previously to the passing of the by law if they caused “reasonable danger of fire,” or from being built contrary to the provisions of the law; but no mention was made of earthquakes. All sorts of “architectural projections” were permitted on the outside of buildings, if approved by the City Surveyor, provided only they were placed high enough above the street. Professor Milne, of Japan, probably the highest living authority on the subject, had laid down the following principal rules to be kept in view in building stone or brick buildings in an earthquake country: (1.) So arrange the openings in a wall that for horizontal stresses the wall shall be of equal strength for all sections at right angles. (The meaning of this he took to be that it is better in buildings of several stories not to have the windows all arranged in regular vertical lines.) (2.) Avoid heavy-topped roofs and chimneys. (3.) Let archways curve into their abutments (“archways” here seeming to include window openings). (4.) Place lintels over flat arches of brick or stone. (Seemingly, Professor Milne's suggestion was that these lintels should be of iron or timber.) Professor Milne also suggested that “to build high houses would be to erect structures for the first earthquake to make sport of.” On the other hand, although there seemed to be nothing positively asserted as to foundations and solidity, it would appear that heavy solid buildings on deep foundations had less safety than light buildings on loose foundations. Criticizing some of the principal brick and stone buildings of Wellington in the light of the principles thus laid down, Mr. Maskell found that almost all these points appear to be neglected in at least the greater part of them. For example, in the Post-office, a building which looked as if designed to show how many windows could be arranged in the least space, the openings were placed in numerous vertical rows, their arches springing sharply from their abutments, and there was a heavy cornice running on the top of the somewhat thin walls. The large building of the National Mutual Insurance Company had also a heavy cornice, numbers of external ornamental projections, windows in vertical rows, and with arches not curved to the abutments. A building now in course of erection near the wharf had the brick partitions between the windows seemingly designed only to resist vertical pressure, and with little strength horizontally. The stupendous ugliness of the new Government Printing Office was such that perhaps even an earthquake might disdain to touch it: here again were vertical rows of windows with sharp-cornered arches, heavy pediment on each side. He understood, also, that this was a heavy, solid buildings, standing on very deep and strong foundations. Messrs. Harcourt's warehouse had the usual kind of windows, and would seem to the uninstructed eye to be dangerously lofty. In street buildings the openings, mostly very large on the ground floors for shop-windows, had above them several others, generally so arranged as to give a weak appearance to the fronts. And in many cases imitation

vases, globes, groups of figures, and other ornamental devices were placed along the edges of the roofs. It should be recollected that in cases where, as in the Post-office, a building is nearly all windows and openings, the iron rods and bands used to tie brickwork together cannot possibly run continuously in the external walls. On the whole, an inspection of the brick and stone buildings in the town of Wellington leads the lay mind rather to the impression that architects—at least, up to the present—have laid less stress upon safety from earthquakes than on their ideas of artistic effect. The matter of chimneys interested not only the dwellers in brick houses, but also those in wooden houses. Past experience of earthquakes clearly set forth that, as wooden houses swing at different intervals from those of their brick chimneys, if these last are in contact with the timbers of the house they are very liable to be simply knocked down. Yet probably there was not one house in a thousand in Wellington where the chimney was not built closely touching the woodwork of the roof. In conclusion, Mr. Maskell said that in the face of past history scientific pundits might demonstrate quite to their own satisfaction that a destructive shake is not at all likely to occur in New Zealand, just as some people can show to a moral certainty that the world will come to an end in some particular year. Still, it did seem not quite satisfactory that the by-laws of the Wellington Corporation should contain no kind of provision against earthquakes, and that a glance at the buildings in our streets should show that the points mentioned by high authority as desirable should not have been taken into consideration.
Mr. A. McKay, Assistant Geologist, in discussing the paper, said that Wellington was more concerned in the recent shocks in the Amuri district than most people supposed. He referred to the late earthquakes as in some way connected with the great lines of fault that run parallel with the Kaikoura Mountains, and thought that further movements along some of them may have been the cause of the late disturbance. He mentioned that the principal fault-line was prolonged across Cook Strait into the North Island, and in the South Island extended to the south-west far beyond the boundaries of the Amuri district. It was not certain that our city might not be visited next, for most surely we stood on the same fracture-line, and it was only a question of place whether we had the violence of a shock at one time, and there was a lighter one in the South, or vice versâ. The line of fracture passed from Tinakori Road to the mouth of Happy Valley, was next seen across the Strait at Lake Grassmere, on the Flaxbourne Estate, where it was traced for about sixty miles, to the Hanmer district. It passed within one and a half miles of the residence of Mr. Low, which suffered so seriously in the late convulsion, and at no great distance from Mr. Rutherford's station. The downthrow in the Kaikoura district was not less than 10,000ft., but between Karori and the city it was only 500ft. All this displacement had taken place in comparatively modern times, geologically speaking—perhaps within 500,000 years—and the movement was certainly not likely to cease for a considerable period—perhaps another 500,000 years.
Mr. T. W. Kirk said that the best thanks of the Society were due to Mr. Maskell for having drawn attention to this subject. If the city had really the slightest claim to the title sometimes given it by persons from other parts of the colony—viz., the “city of wind and earthquakes”—then the paper should possess special interest for the citizens, and he was surprised there was not a much larger attendance: the absence of architects was particularly noticeable. The author stated that there had not been, for more than thirty years, until the present month, any earthquakes in New Zealand of sufficient violence to do damage to property. He would like to ask Mr. Maskell if he did not think the earthquakes “which accompanied the Tarawera, eruption of sufficient violence. He thought it would have been as well if the candidates for seats at the City Council had been present, for after Mr. Maskell's paper

was made public they would most likely be asked to give their opinions on the architecture of Wellington. It seemed to him that a great deal more was made of the elevation of Te Aro flat than was necessary. Old residents had told him that the flat was originally a swamp, impassable except in a few places, and separated from the harbour by a bar; and that one winter there was an unusual accumulation of water in the swamp, with the result that it swept the bar away. From that time the flat ceased to be a swamp of any great extent, and subsequently drainage arrangements were carried out. The earthquake no doubt assisted in the alteration, but he thought it was the accident of the carrying-away of the bar that had most to do with rendering Te Aro flat available for building purposes.
Mr. H. P. Higginson thought that most of the defects in architecture pointed out by Mr. Maskell were the faults of the property-owners rather than of the architects. They insisted upon having structures of a certain class, and getting as much show as possible for their money. The immunity of Wellington from damage was probably due to the fact that the brickwork put up here was of a more substantial character than that in most other parts of the colony, particularly strong cement being used. Where the effects of earthquakes were felt most severely they were generally due in the main to bad workmanship.
Mr. Natusch (architect) said that, since reference had been made to the absence of architects, perhaps he might be permitted, although not a member of the Society, to say a few words upon the subject. Permission having been given, he said that when he arrived here some two years ago he naturally made it a point to ascertain what special provisions were made against earthquakes. He was astonished to find none; and, moreover, in course of conversation with Wellington men they said, “We have plenty of shocks—mere tremors; but there has not been a severe shock since 1855, when Te Aro was raised;” and it seemed to be generally taken for granted that serious earthquakes need not be anticipated. However, this hardly seemed reasonable to him; and, after considering the subject, he came to the conclusion that no more effectual “earthquake-proof” building could be devised than on the principle of framing. That is to say: Erect the frame of the building with wood, or with light T or angle-iron if preferred, very much in the same way as wooden houses are now erected; but on the outside of the framing secure thin slabs of concrete, with joints somewhat similar to those of rusticated boarding. Thus, in the event of a severe shock, the framing itself would sway more or less as the frames of wooden buildings do, and the slabs, having loose although weatertight joints, would also move with the frame. And he ventured to say that, except with a very severe shock (such a shock as would demolish the town), no damage would be done, and even if any of the slabs should be broken or cracked, they could be unscrewed and replaced with new at a trifling expense. Two or three people to whom he mentioned this were aghast at the idea of ugly buildings being put up with slabs of concrete. At first sight such an idea was quite pardonable even to the average architect or builder. But, in reality, architectural effects in any style, from the simple and pleasing Gothic to the most elaborate Roman or Grecian designs, might be produced. So much for the exterior. The interior could be finished with thinner slabs of the same material for walls, and the ceilings could be either plastered in the ordinary way, or formed with the patent steel webbing and plaster, which, in the event of a severe shock of earthquake, might when old hang down as old scrim does, but would not fall, as the ordinary plastered ceilings would do under similar circumstances. It would be seen, therefore, that buildings might easily be made to all intents and purposes “earthquake-proof.” The fears of the City Council as to the advisability of permitting the use of wood framings should give way before the fact that fire could not possibly touch the wood, because it would be encased

with the non-inflammable concrete on both sides. Well, it had been said, “But surely such a method of construction would be precluded by the expense.” But no; for one of the great beauties of this method was that it was more economical than building with brick or stone or solid concrete. His only objection to the method was the weight of the concrete. Happily this objection had been overcome in a highly satisfactory manner by Mr. Donaldson. A friend of Mr. Lascelles, the patentee of the system of building with concrete slabs in England—adopted, by the way, principally upon the score of economy, earthquakes not being usual in England—Mr. Donaldson, upon arriving here, set to work to improve upon Lascelles's system of manufacturing the concrete. By using pumice-sand with the best Portland cement, a concrete is produced which is of a much better natural colour, and, what is of greater importance, much lighter in weight than those made in the ordinary way. According to the proportion of cement used different degrees of hardness can be obtained, from that equal to Oamaru stone to granite. Thus, then, no obstacle so far as material, method of construction, and expense would stand in the way of this method for erecting both earthquake- and fire-proof buildings being adopted. What obstacle remained, then? Really none. But, as Mr. Higginson pointed out, architects are very much handicapped. In the first place, the City Council's by-laws merely provide against fire, by compelling the use of brick and stone, or solid concrete walls erected an the ordinary way, in the business quarters of the town; and he considered that the Council should be asked to permit the method of building in the manner pointed out. In the second place, those intending to build, were afraid to go out of the beaten track, and architects were afraid to push home to their clients any such vital changes.
Mr. Donaldson also asked permission to speak, and said the problem of building houses sufficiently fire-proof, wind-proof, damp-proof, and earthquake-proof requires very careful consideration. In the first place, heavy materials such as stone and brick are more easily overturned than wooden, structures, because if thrown slightly out of the perpendicular by an earthquake-shock their weight tends directly to bring them down, whereas a wooden structure with a properly-joined framework would bear a very considerable oscillation without any great effect being produced. But the objections to wooden buildings are,—
| (1.) |
They are dangerous in case of fire. |
| (2.) |
They are not wind- or vermin-proof. |
| (3.) |
They rapidly deteriorate after being up a few years, and are too expensive to keep in repair. |
The question therefore naturally arises: Can houses be erected with the tensile strength of a wooden framework, with a light yet strong material for the walls, proof against earthquake-shocks, as near as possible fire-proof, at the same time to exclude damp and wind, and offer great resistance to wear and tear? The method of construction used in iron-ship building answers all these requirements; but to build houses of thick plates of iron fastened on an iron framework would be very expensive, and the iron plates, being rapid conductors of heat and cold, would make such houses very uncomfortable. With a view to meet the requirements of the case, he had patented a concrete slab, made of a mixture of strong cement, pumice-sand, and sometimes gas-coke. This meets all the requirements. Samples of this material he exhibited. It has the following advantages:—
| (1.) |
Unlike ordinary concrete, it is homogeneous, can be cut with a chisel or saw, can bear holes being drilled in it, and is perfectly uniform in strength. |
| (2.) |
It is firerfool; The slabs can be heated to a red heat without injury. |
| (3.) |
These slabs are made generally 1in. to 1½in. thick, and can be fastened to the studs in an ordinary wooden framework by |

|
2½in. screws passing, through holes bored in the slabs. These holes are so made that the heads of the screws are sunk below the surface of the slab, and are then covered over with the patent concrete material used as a plaster. (If these slabs are used on the outside and the inside of the studs, leaving an air-space between, and also on the floors and ceilings, a perfect fireproof structure is obtained, the timber framework being completely protected from fire by the slabs.) |
|
| (4.) |
The natural colour of these slabs is somewhat lighter than Bath or Oamaru stone. They can be supplied, however, of any colour, and the most elaborate ornamentation can be moulded on them. |
| (5.) |
Besides being wind- and weather-proof to a more perfect extent than either wooden, stone, or briek buildings, and being also earthquake- and fire-proof, these houses have the advantage that, should damage from any cause be done to a wall, no effect is produced on the slabs above or in the neighbourhood. Each slab is supported quite independently of every other slab. Damage is, however, very unlikely, as the slabs are strong and tough. |
Mr. C. T. Richardson pointed out that the old hospital, whice was now removed, was built somewhat after the plan advocated by Mr. Donaldson—namely, with what was called brick “nogging,” a kind of framework built in with brick. Upon the fact being brought before the City Council they had provided that any one could build in the city after the same style.
Mr. Natusch: That only applies to No. 2 Building District, not to No. 1.
Mr. Brandon said that the City Councillors were not all architeets or builders, and they had to frame their by-laws in a negative form. Of the two great dangers which they had to face, fire seemed more imminent than earthquakes, so they prohibited the erection of wooden buildings in the more populous parts of the city. They did not consider that it was necessary to detail the several points to be observed in the construction of buildings, so they left that part to the owners and architects. If the Council had endeavoured to frame by-laws to guide people in erecting structures warranted to resist earthquakes they would probably have laid themselves open to a great deal more criticism than they are now subjected to. As to the Post-office and Government Printing-office, the Government did not consider themselves bound in any way by the City by-laws, and would have gone on in their own sweet way in spite of the most earthquake-resisting regulations. Mr. Kirk had thrown some doubt on the raising of the ground at Te Aro on the occasion of the earthquake of 1855; but he believed he was right in saying that on the eastern coast of the province the beach was undoubtedly raised some 12ft., enabling settlers to ride round the coast where they had formerly been obliged to climb over hills, while Te Aro flat was elevated 4ft. or 5ft. In conclusion, he could only regret that, according to Mr. McKay's account, we had still 9,500ft. to slip down.
The President was sorry that there were not more persons present who were acquainted with the technical part of the subject. Of course, his only knowledge of the subject was that of an ordinary layman. As to the elevation of Te Aro, it would be excessively uncomfortable for the residents if they had to go down again, even 4ft., and there was nothing that he knew of to show that the land would not go down in the next earthquake in the same way as it rose thirty-three years ago. He was very glad that last week's shake occurred at Amuri: if it had happened in Wellington it would have knocked down about half the buildings in the city. Professor Hutton had consoled the people of Christchurch with the assurance that the centre of the late shakes was so distant as to

render their city quite safe; but Mr. McKay had shown that Wellington was by no means so far from the fissure, but was, on the contrary, very much on the line of it. His only object had been to call attention to the fact that the buildings in Wellington were not put up with a view to resisting earthquakes. Some people might say that it was not necessary to keep this end in view, and if they thought so they were entitled to their opinions. He was glad to find that no serious objection had been taken to the views he had offered. Every one present seemed to agree that our buildings were not erected in such a manner as to provide against severe shakes; therefore, if those shakes came, the people of Wellington would only have themselves to thank.
2. “On the Extent and Duration of Workable Coal in New Zealand,” by James Park, F.G.S. (Transactions, p. 325.)
Mr. Higginson asked on what data Mr. Park's estimate of the amount of coal in each field was founded, and whether he had taken into account the depth to which the coal might be worked, and the probability of there being two or more seams of coal in the same field. He pointed out that a consideration of these facts would greatly affect the estimated amount.
Mr. Park, in reply, said that his estimate was based upon the surveys made by the different geological workers who had examined and reported on the various coalfields, which only included such areas as were known to contain coal.
Mr. McKay did not think that Mr. Higginson's most important question had been answered—namely, as to the number of seams that might be present in particular coalfields.
Mr. Park further said that he had stated in his paper that there was usually but one seam near the base of the series; and that otherwise his estimate of the amount of coal had been based on what might be worked level-free.
Sixth Meeting: 3rd October, 1888.
W. M. Maskell, F.R.M.S., President, in the chair.
New Members.—Robert Donaldson, C. Y. O'Connor, Perceval Earle, Robert Caldwell.
Papers.—1. “On the Fallacy of the Electro-capillary Theory,” by W. Skey. (Transactions, p. 363.)
2. “Further Notes on New Zealand Desmidieæ, with Descriptions of New Species,” by W. M. Maskell, F.R.M.S. (Transactions, p. 3.)
3. “On the Occurrence of Native Lead at Collingwood, and its Association with Gold,” by W. Skey. (Transactions, p. 367.)
4. “On Earthquakes and Architecture,” by T. Turnbull, F.R.I.B.A., M.I.G.A., and A.C.A.
Abstract.
In opening, Mr. Turnbull explained that as Mr. Maskell had, in his paper on the same subject read at a previous meeting, with only one exception, criticized buildings of which he had been the architect, he felt

it was his bounden duty to those who had employed him to vindicate the faith he had in the stability of brick buildings, and to show as far as he could those gentlemen, as well as others, that their confidence in the foundations of our city was not misplaced; and also to prove that modern science had in architecture acquired sufficient knowledge of construction to be able to erect buildings capable of withstanding earthquakes even of a severer nature than they were ever likely to experience here. The subject was an important one, as, without sufficient confidence in the lasting stability of the buildings, those who made our cities would never attempt to erect any of a permanent character. Thus the progress of architecture would be checked, and the best index of our civilisation impaired. From this point of view the subject was not only an important but an interesting one. As Mr. Maskell had quoted Professor Milne, of Japan, as probably the best living authority, which from the tenor of his paper he (Mr. Maskell) evidently believed, Mr. Turnbull said he would refer to portions of the Professor's work on the effect of earthquakes on buildings, for the purpose of showing that he was not as infallible as Mr. Maskell would have them believe. When he (Mr. Turnbull) had read several chapters in that book he had come to the conclusion that the Professor, with all his talent, knew little or nothing of architectural construction, as he used words and phrases that were unknown in practice; and nowhere did he give any specific information as to the mode of construction, or the qualities of the material used in the buildings injured, but contented himself with stating whether of brick or stone, and often not so much. He then quoted the Professor's works at some length, and endeavoured to show that he was not so much an authority as Mr. Maskell would have them believe he was. He referred especially to one statement made by the Professor, “that a civil engineer, writing about the New Zealand earthquake of 1855, when all the brick buildings in Wellington were overthrown, says that it was most violent on the sides of the hill, and least so in the centre of the plains.” The Professor had quoted this from the report of the British Association of 1858. Now, they all knew this sweeping assertion to be wide of the truth; and they might well ask, What about the rest of the Professor's quotations? Seeing this assertion had been made from such a source, and repeated in such a book as the Professor's, he had made inquiries concerning the earthquakes of much-abused Wellington; and he mentioned Messrs. T. McKenzie and J. Plimmer in particular. There had only been three earthquakes of any consequence since 1840—namely, in 1840, 1848, and 1855. The earthquake of 1848 was of a much more severe character than the one in 1840, and many of the brick buildings in the city were shattered. Mr. Fitzherbert's free and bonded store in Farish Street collapsed, but was subsequently restored by Mr. Plimmer without taking off a slate. The front wall of the Colonial Hospital, in Pipitea Street, was partly thrown out. A new brick building on Mount Cook had to be stopped in consequence of the shake. Hickson's store, which was also damaged, is still standing at the corner of Old Custom-house and Cornhill Streets. The Wesley Church, in Manners Street, was also thrown down. These were all the brick buildings injured. It was worthy of note that no wooden buildings were injured. The brick buildings were built then of a mortar composed of shell-lime and clay from Barrett's Point, which with age was reduced to a powder. Old intelligent pioneers assured him that, if the buildings had been constructed then as they are now, little or no damage would have been done. A sensational report of this earthquake was drawn up by Mr. Eyre, Lieutenant-Governor, which had a most alarming effect, and greatly retarded colonisation for a long time. With respect to the shook of 1855, he had been assured that no brick buildings were totally wrecked, though some few were injured—in fact, buildings erected before that time were standing yet. Since Mr. Maskell had read his paper the author had visited them, and found them

in good order, and answering the purposes for which they were erected. As to the question whether it was possible to erect brick buildings in New Zealand, and in Wellington in particular, capable of resisting earthquakes even of a severer nature than any they had hitherto experienced, he said he had no hesitation in saying that it was, and that buildings of such a character were erected. As Mr. Maskell had referred to several of the buildings erected under his (Mr. Turnbull's) care, he desired to say something respecting them. Concerning Messrs. W. and G. Turnbull's building on the reclaimed land, he stated that he had suggested floating foundations, as they were not costly, had stood the earthquakes well in San Francisco, and the filled-in earthwork between the rock below and the foundations of the building would act as a cushion, and deaden the stroke of an earthquake should one occur. This foundation consisted of cross-planking and a double row of beams all bolted together. The motive for this system of foundation was that when a shake occurred the heavy beams and planking would carry the superstructure along with the oscillations of the earthquake. When this building was in course of erection an earthquake occurred. This was at a time when our Solons were in session; and many of them rushed down to the reclaimed land expecting to see the buildings in ruins, and he supposed they were somewhat disgusted to see the mechanics at work as if nothing had happened, so little knowledge had they of the strength and tenacity of brick buildings. He mentioned this to show that even the siftings of the New Zealand population had little faith at that time in the stability of brick structures in Wellington. He entered into the question of cements, and the most suitable, in his opinion, to be used here, recommending “béton aggloméré.” Referring to the qualities of New Zealand timbers, he said they had little or no fibre, and broke short without warning. Some of the varieties were never seasoned, and the most useful and best shrunk the end-way, to the disgust of the architect and builder. Mr. Maskell said that the National Mutual Association buildings had a heavy cornice to their projections, and that the arches did not curve into the abutments. He said the same of the Post-office. Now, in each of those buildings the cornices projected just 6in. less than, according to the best authorities, they should do in order to produce true architectural beauty. He noted this to show that he had erred on Mr. Maskell's side—if error it was. In his opinion, however, the line of 6in. more could have been touched with perfect safety, as the roof behind was infinitely more than a counterbalancing weight, as was shown by the naked walls of the Post-office having stood for the last eighteen months without floor or roof, and after being exposed to extreme heat. So far as the arches were concerned, they all curved to the abutments, for the reason that there was nowhere else to butt them to. For the safety of the building now he could not answer; but before it was destroyed by fire he would have stood in any part of it during the severest shakes he had felt here or on the west coast of America, and have had perfect confidence in his safety. He denied Mr. Maskell's assertion that buildings were not put up in Wellington to resist earthquakes. Here, as elsewhere, money entered largely into the qualities of a building; and, speaking personally, he used to the utmost every precaution that the money at his disposal would allow him, and he was sure that his contemporaries would do the same for their own sakes; therefore it was neither just nor fair to an honourable profession to make such an assertion—not even by a gentleman who confessed that he knew nothing about it. He agreed with Mr. Maskell that the Corporation by-laws ought to be more explicit. There was not one word about the quality of the brick or of the mortar, or how they were to be laid together, and other important matters. Clearly, their City Fathers had paid more attention to the fire-insurance agents than to earthquake-agitation. He thought it was time that the city should have a Building Inspector who

knew something about building-construction. He suggested that on the reclaimed land floating foundations should be used as a protection against earthquakes. The bricks should be hard and square, and well wetted, and the mortar should be composed of what is called “béton aggloméré” in France. Hoop-iron should be built in the walls at short heights, and the buildings girt with bond-irons instead of wall-plates. The joists should be a fifth of their depth in thickness, and supplied with wrought-iron anchors. Mr. Maskell had told them that he had taken opportunities of looking at some of the brick buildings in the city, and had found that the greater part of the theories of Professor Milne had been neglected. He hoped that he (Mr. Maskell) would now admit that in these visits his looking was only superficial, that he only saw regular openings one over the other, instead of scattered ones, that the arches were not curved into the abutments, and that there were some projections which did not please him. He hoped that, after having heard the foregoing general description of the construction of the buildings under consideration, Mr. Maskell would see that the wrought-iron built within the walls, and the iron-bound connection that the floor and roof had with the walls, formed such a tower of strength as even Professor Milne never dreamt of. All his (Milne's) theories were mostly on the face, and no part of the framework. This system had been followed in the building he (Mr. Maskell) had criticized. It was a mode of construction that had proved eminently efficient in San Francisco and along that coast, and was in use with the architects there, a body of gentlemen represented by every nation in Europe, as well as America, and who had begun the study of earthquake-proof construction long years before the name of John Milne was known to the scientific world, who were still continuing the study, and on this subject were, in his opinion, the best authorities on the face of the earth. In conclusion, he hoped there was nothing in Mr. Maskell's paper or Professor Milne's book that would eliminate the faith they had in their adopted country, and that they would continue to hope that they would experience no more severe tremors of the earth in the future than they had in the past.
Mr. Donaldson asked the author whether the wooden buildings stood the shakes experienced in 1848 and 1855 better than those of brick or stone.
The President regretted that Mr. Turnbull had made the question a personal one. He (Mr. Maskell) had carefully avoided that; and his only object in presenting the paper was to draw public attention to an important matter. He did not desire to defend Professor Milne, who could stand up for himself; but if he was allowed he would differ from Mr. Turnbull's opinion of that gentleman. As far as his (Mr. Maskell's) reading went—and it was not that of a few days—no name stood so high as that of Professor Milne upon such matters. He combated Mr. Turnbull's arguments at some length, and pointed out that the effects and results of earthquakes were incomprehensible. Earthquakes seemed to knock buildings down or leave them alone just as they liked. A number of buildings on one side of a street might be knocked down, while others on the opposite side would be uninjured. He considered that Mr. Turnbull had given up the whole question—just as an architect who had written to a newspaper in reply to his (Mr. Maskell's) paper had done—by expressing the opinion that we were not likely to again experience destructive earthquakes. Those who thought that were perfectly welcome to their opinions. He did not believe that destructive earthquakes might not at any time occur in New Zealand; and he explained that the whole of his paper was based on the supposition that what had happened before would probably happen again. He quoted some notes on the shock of 1848, written by Mr. W. Fitzherbert, who stated that “the earth in some parts was moved in waves averaging about 12in. in height.” He would like to know how their brick buildings would fare under those

circumstances. Mr. Fitzherbert had further stated that in the brick buildings which were thrown down the mortar used seemed to make very little difference. In many cases it was bad; but where good cement had been used the only difference noted was that the bricks, instead of falling singly, came down in blocks of eight or ten together. This would probably not be much more satisfactory to the inmates than a rain of single bricks. Mr. Maskell also quoted from some notes on the same earthquake given by Mr. H. S. Chapman (afterwards Judge Chapman), in an article in the Westminster Review, détailing the damage done. In this article Mr. Chapman expressed the view that brick buildings in Wellington might be safe enough if of one story only, or well tied together by bonding-timbers, but not otherwise. Mr. Maskell expressed his belief that, if the recent shock experienced in Canterbury had occurred here, one-half the large buildings of brick and stone would have been very much injured, if they had not fallen down. Further, as a proof that men of eminence did not think the earthquake of 1848 a light matter, and considered great precautions necessary for the future, he quoted from a letter written in 1888 to the Institute of British Architects by Mr. E. Roberts, who was attached to the Royal Engineers in Wellington in 1848. Mr. Roberts after that built a new gaol on Mount Cook, and took the precaution of constructing it with specially large bricks built in a perfect cage of iron bars placed 5ft. apart, and running up from the foundation to the roof. This gaol is of no great height. Surely in structures such as we have now, of three or more stories, much greater precautions than those of Mr. Roberts should be adopted.
Mr. Turnbull, in reply, said that he did not mean to make the question a personal one. He explained that the Roman cement referred to was not equal to our present cement. He could not say much as to now the wooden buildings had stood during the severe shocks.
A collection of minerals from Richmond Hill, Collingwood, presented to the Museum by Mr. H. P. Washbourne, was exhibited. They comprised some beautiful specimens of tourmaline, steatite, tremolite, amphibole, and iron-pyrites.
Seventh Meeting: 17th October, 1888.
W. M. Maskell, F.R.M.S., President, in the chair.
Papers.—1. “Notes on the Decrease of the Pheasant in the More Settled Parts of the West Coast of the North Island,” by E. N. Liffiton. (Transactions, p. 225.)
Mr. Higginson considered that the want of sufficient grain-food was one of the chief causes of the decrease.
Major Campbell said that in parts of the North where there were few wekas the pheasants increased, but as the small birds increased the pheasants seemed to disappear.
Mr. Coleman Phillips attributed the decrease of the pheasants to the large quantities of poisoned grain that had been spread. There were great numbers of hawks in the Wairarapa district, especially where the rabbits were, and these hawks kept the pheasants away. The pheasants would increase when the rabbits were cleared off.
Mr. Park said he was able to fully corroborate all the author had said with regard to the decrease of pheasants and the corresponding increase of wekas in the Wanganui district. Both lived under the same cover; and as the weka had developed a proclivity for pheasants' eggs it was quite obvious that the native game must ultimately drive out the

imported bird. He thought the author was quite justified in his conclusion that the weka was largely concerned in the decrease of the pheasant.
Mr. McKay would merely remark that in the Bay of Islands district, where there were no wekas, plenty of dogs, and hawks were very rare, the pheasant had almost disappeared, although once plentiful.
The President said there appeared, as he had contended on a former occasion, to be some kind of law by which birds or beasts introduced from other countries became exceedingly numerous for a time and then died away. An important question raised now was, whether such birds or beasts must not be preserved more strictly if they are intended to increase, instead of following the usual New Zealand principle of letting a thing “slide” after you had once obtained it.
2. “On the Takahe (Notonis mantelli) in West Otago,” by J. Park, F.G.S. (Transactions, p. 226.)
The Hon. Mr. Mantell said that the western shores of Lake Te Anau were known to the primeval Maoris as “The Land of the Takahe.” This bird was plentiful there in 1851, but the natives set a high value upon it, and were unwilling to procure specimens for Europeans.
Mr. McKay said that it was true, as described by Mr. Park, that the supposed bird was hunted by torchlight two successive nights at the camp on Cascade Creek, and several hours each night were devoted to this purpose; but the bird was never seen. For the first time he now became aware that the bird had been seen by Mr. Park. At the time, he (Mr. McKay) was under the impression that all three supposed it to be the moa, and such it was suggested it might be by both Dr. Hector and Dr. Buller at the first meeting of the Society after the return of the expedition.
In reply to Mr. McKay, Mr. Park said he could not be mistaken, as he had taken notes of the occurrences at the time. At Cascade Creek Mr. McKay devoted very little time to hunting the strange bird, only assisting for a few minutes at the decoy-fire on the evening of the 22nd January. He did not join the camp at the Forks until the beginning of February, and was absent when the incidents narrated took place. In arriving at the conclusion that the strange bird was the Notornis Mr. Park said he was largely guided by the opinion of Mr. Buchanan, who was an accomplished naturalist. Some time after this Dr. Hector suggested it might be the Aptornis.
3. “The Knowledge of Cattle among the Ancient Polynesians,” by E. Tregear, F.R.G.S. (Transactions, p. 447.)
Mr. Coleman Phillips, whilst congratulating Mr. Tregear upon the research which his paper displayed, took exception to its heading. He had attended this meeting of the Society especially to hear what Mr. Tregear had to say upon “The Knowledge of Cattle among the Ancient Polynesians.” That was the heading of the paper. What he had heard was really very little else than a philological paper. Mr. Tregear's paper was actually a following of the root “ak” (from “yak,” the cow of the Oxus people, the generally-accepted early home of the Aryan race) through the different languages of the earth. In his opinion the paper this evening should have been so called. It was scarcely fair, either to the subject or to Mr. Tregear himself—the able author of the paper—to name it otherwise. A considerable amount of doubt was expressed concerning all Mr. Tregear's philological investigations, owing to the fact that he endeavoured to confine them strictly to New Zealand or Polynesia. In Polynesia. Mr. Phillips knew almost for a certainty that the present race of people there knew nothing whatever about cattle. He remembered in 1872 taking a ride of about twelve miles along the eastern

coast of Viti Levu, in Fiji, upon the first horse sent down to a plantation there in which, he was then interested. The marvel of the natives, who had never seen a horse, and their screams of astonishment as he cantered past the villages, were most amusing. The missionaries had told them of a bull and of a cow. Some of them may have seen these animals. But he only knew that the children ran screaming away, with the cry of “Bullumakau! Bullumakau!” They joined the names of bull and cow together, and so dubbed the horse. This fairly showed the state of knowledge of the present race of Polynesia upon the subject of cattle. As to the ancient race, Mr. Phillips pointed out that the languages of the present Polynesian might not have been used at all by the ancient race—that race of stone-builders which left behind the cyclopean remains still existing in the Carolines, the gigantic images of stone men still seen in Easter Island, the monoliths and trinoliths of Tonga, the remains of aqueducts in New Caledonia, &c. The present race of Polynesians knew positively nothing about these ancient stone-builders. Mr. Tregear's use of the word “ancient” was therefore scarcely warranted. He quite recognised the value of Mr. Tregear's work, and encouraged him to proceed in it; but he would prefer Mr. Tregear to treat it as a linguistic study.
In answer to Mr. Phillips, Mr. Tregear said he had little to say to Mr. Phillips's argument. As to the Polynesians being a stone-building people, although in Hawaii they had temples of stone, &c., yet in New Zealand there had never been one stone put on another in prehistoric times—a proof that before the separation they had not been a stone-using people. As to Mr. Phillips being qualified to speak about ancient Polynesians because he had spent some time in Fiji, Fiji was inhabited by a Melanesian people of different origin from that of the Maori, and Fiji was not a Polynesian island at all.
4. “On the Ancient Moa-hunters at Waingongoro,” by Colonel McDonnell; communicated by J. Park. (Transactions, p. 438.)
The President said that this was a question that had caused a great deal of argument. Sir Julius von Haast, Mr. Colenso, and others had taken one side (arguing that the moa was extinct before the Maoris came to New Zealand); while Mr. Mantell, Sir James Hector, and others had taken the other. He expressed surprise that Mr. Colenso should found a theory on the circumstance that there were no traditions or legends to prove otherwise, and questioned whether these traditions were of any value at all. Certainly he thought the testimony of a man who had actually seen and eaten the moa was worth ten thousand legends and traditions.
Mr. Tregear said that, although not prepared that night to speak on this question at length, a paper of his on “The Maori and the Moa” had been read before the Anthropological Society of London in May this year, and to prepare for this he had read up every available authority. His conclusions were that the Maori had never seen the moa; that his knowledge of the subject (if he had any knowledge) was traditional, and gathered from some older race inhabiting the islands when the Maori arrived, and absorbed by him. The negative evidence was very strong; the absence of any distinct notice of the huge birds in hunting-legends, and in descriptions of food-supplies, was very noticeable. The moa spoken of in the vague and fragmentary allusions to be found might have been any bird, large or small. In reply to Mr. Maskell, he would state that the comparison of native legends to worthless fairy-tales was unfortunate, because some of the most valuable evidence of the remote lives of our ancestors was being gathered together by comparative mythologists from fairy-tales, and it had been found that even nursery rhymes had

passed from mouth to mouth unaltered for ages. Literature corrupted tradition; and the semi-religious manner in which old songs and charms were handed down from priest to priest and from father to son gave them a value for accuracy beside which our current gossiping way of telling narratives or of compiling history was loose and valueless. Only those who knew and loved the investigations were competent to understand their value.
Mr. Park read an extract from a paper by the Rev. R. Taylor, which he said had a direct bearing on Colonel McDonnell's paper, and confirmed the incidents described by that author. Mr. Taylor describes how he visited Waingongoro in 1843, and again in 1866 in company with Sir George Grey, when he collected burnt moa-bones and obsidian-flakes, which were plentiful in the old Maori ovens at that place. Mr. Park said that the late Sir Julius von Haast always held the opinion that the moa was exterminated by an aboriginal race of Polynesian origin that inhabited New Zealand before the arrival of the Maoris. This theory, however, was based on two assumptions which had yet to be substantiated—first, that such a race did at one time occupy New Zealand; and, second, that the Maoris did not kill and eat moas. Mr. McKay, who assisted in the exploration of Sumner Cave, near Christchurch, went a little further and expressed the opinion that the extermination of the moa was the first work of the Maoris on their arrival in this country. In view of the researches of Mr. Mantell and Mr. Taylor, Mr. Park thought Mr. McKay might have gone further. It seemed now to be beyond dispute that the moa lived down into what might be called historical times.
The further discussion of this paper was adjourned.
Eithth Meeting: 14th November, 1888.
W. M. Maskell, F.R.M.S., President, in the chair.
Papers.—1. Adjourned discussion of Colonel McDonnell's paper on “Moa-hunting.”
Mr. Tregear, speaking from some notes he had prepared, said he did not wish to impugn for a moment the good faith of Colonel McDonnell, who had doubtless presented the evidence as supplied to him, but he protested against such evidence being published as reliable. The first discoverers of moa-remains, Messrs. Colenso, Mantell, and Taylor, had been not only keen lovers of science but accomplished linguists; and they had exhausted every variety of research in trying to get reliable evidence from the oldest Maoris forty years ago, with the result that Mr. Colenso, in his learned paper on the subject, stated that if the Maoris had ever known the moa it must have been in very ancient days. He came to this conclusion from the absence of allusion to the great bird in combats of deities and heroes with monsters; from the absence of mention in hunting-stories and lists of food-supplies; from the absence of moa-feathers on garments (while cloaks of kiwi- and albatross-feathers and of dogs' tails were prized); and from the mythical character given to the bird, as being found on a mountain guarded by huge lizards, &c. The old leading chiefs to whom he (Mr. Colenso) wrote said that “neither they nor their forefathers had ever known the moa.” The speaker said that they were too apt to consider the New Zealand Maori as a unique animal: he was only a member of the Polynesian nation; and, as everywhere in Polynesia the word “moa” is used for the domestic fowl, it was probable that the Maori also once knew the fowl as “moa.” The compound words containing moa were plainly, in Polynesia, references to the cock, as “cou-

rageous,” “polygamous,” &c.; and, as many of these compound words were also used by Maoris, it is probable that they had no reference whatever to the Dinornis.; certainly the Tongan, Tahitian, Samoan, &c., words did not apply to the Dinornis. Nor did the scanty allusions in New Zealand song and proverb ever mention any attribute (such as huge size, &c.) of the bird—it might have been any bird. He believed that the pictures and descriptions of the bird sent (as reconstructed by Professor Owen) to every Maori tribe had been fitted to old traditions of a lost bird. Certainly it was monstrous that, when every effort had been made to get reliable evidence thirty years ago, a story should now be brought forward asserting that Kawaua Paipai (who only died four years ago) and his tribe hunted the moa in droves at Rangatapu. He (Mr. Tregear) had interviewed that day a number of old Maoris—one a centenarian—who had known Kawaua Paipai all their lives, and who had lived in Taranaki Province; and they laughed to scorn the idea of moas being “battued” on the Waimate Plains and they not having heard of such an occurrence. It was much easier to tell an untruth than to hunt moas in modern days.
Sir James Hector was astonished at this fruitless discussion being revived. Mr. Tregear had not gone back far enough in our “Transactions,” or he would have found Mr. Colenso's reports of earlier date than 1878 referred to. In 1840 Mr. Colenso relates that he himself had gone out with a party of natives expecting to capture a live moa. He would also have found the reference to Polack's account of the large struthious bird called the “moa,” gathered from native tradition long before any bones had been described. The manner in which the moa-bones were found associated with remains of human occupation throughout New Zealand afforded clear evidence that these huge birds had been eaten and exterminated by a race that could not be distinguished by any habits of life from the Maoris of a few years ago. The determination of the epoch of the first appearance and the date of the final disappearance of the moa was more a question for a geologist than a philologist. The paucity of reference to the moa and its true nature in the early collected vocabularies was due to the circumstance that those who questioned the Maoris had no conception of the existence of such an extraordinary bird, while to the Maoris it was such common information that they never thought of mentioning it. Bishop Hadfield had explained this to him. But there were many allusions and traditions that referred to the moa. Certainly it was more rational to hold that the word “moa,” as used by the Maoris, referred to the large birds that were so abundant than to a domestic fowl, of the existence of which in New Zealand until of late years there was not a scrap of evidence. He would remind the Society that in 1876, in this room, he had exhibited a feather with an after-plume, exactly agreeing with the feathers found on the moa's neck at Clyde, in Otago, and which feather he had taken off an ancient taiaha in the British Museum collection. As to direct evidence, he could only say that the great chief Rewi told him that his grandfather had killed moas.
Mr. Higginson said that he had seen in the York Museum the moa's neck and skin referred to, and its state of preservation did not give the impression that it was of very ancient date. The last recorded occurrence of the dodo in Mauritius was in 1680, and yet few or none of its bones were found until he himself collected some in 1865; and until this latter date the existence of the dodo was almost doubted.
Mr. McKay said that Mr. Tregear had in effect said that the Maoris had no knowledge whatever of the moa. It must, however, be admitted that, in as far as the tools and implements of the moa-hunters could be put in evidence, they proved distinctly that the moa-hunter was identical with the Maori. The excavations in Moa-bone Cave, Sumner, showed this clearly. The antiquity of any particular deposit might or

might not be in favour of Mr. Tregear's contention, but the point raised in Colonel McDonnell's paper—namely, the probable survival of the moa to a very recent date—might be safely affirmed and supported by a variety of evidence. Bearing on this, Mr. McKay said that some years ago he had collected from a moa's nest discovered by him in the western district of Nelson, and which from its position was under conditions most unfavourable for preservation of the remains found, these being scarcely protected from the direct action of the weather, and not more than 2in. under the surface, being covered by a thin layer of leaves and decayed vegetable matter; yet the bones of a moa-chick were found in this nest, together with bones of small birds, lizards, and rats; and it could not well be that these had resisted destruction from time immemorial.
Major Gudgeon stated that it was quite certain that Kawaua Paipai did point out the ovens referred to and dig up the bones. The reason why the Maoris did not speak much about the moa was that the existence of the bird was looked upon as so much a matter of fact, and it was so common. There was very little tradition on the subject. In speaking of the forest at Te Wairoa, Hawke's Bay, a native had explained to him that it had been burned by firing the scrub in order to capture the moa; that the bird was easily frightened, and that the Maoris of old used to fire the fern and scrub round the birds, who would huddle together and fall an easy prey.
The President said it appeared to him that every discussion on this subject, especially perhaps the present one, added more and more weight to his argument that one direct statement of fact, one positive testimony, was worth a thousand negative theories drawn from absence of legends. The contention of Mr. Colenso, Mr. Tregear, and their friends simply amounted to saying to Maoris, “You lie when you tell us that you or your grandfather ever saw a moa, because other Maoris say nothing about those birds.” Weaker logic could probably not be found anywhere.
2. “On some Gall-producing Insects in New Zealand,” by W. M. Maskell, F.R.M.S. (Transactions, p. 253.)
3. “Notes on the Lasioptera cerealis,” by G. V. Hudson.
Abstract.
Mr. Hudson said that, in view of the extensive crops of rye which he understood were grown in the southern parts of New Zealand, he felt it his duty to bring before the Society a very serious insect-enemy to rye, which, although he believed it had not at present arrived in the colony, yet might reasonably be expected to appear at any moment. When he pointed out that this insect bears exactly the same relation to rye as the Hessian fly does to wheat and barley, its serious character would be at once understood, especially when we reflected that whole tracts of country in Russia are completely devastated by its attacks. It therefore behoved all farmers and others in charge of rye-crops to be on the lookout for any kind of disease in the plants during the coming summer. Any specimens which might be sent to him he would be very pleased to examine and report on, as he had descriptions of the insect and its mode of attack in his possession.
Sir J. Hector said, in reference to this subject he might state that Mr. Koebele, of the United States Agricultural Department, who had been specially sent to Australia to obtain the natural remedy for the Icerya purchasi, or wattle-blight, had been successful in securing the particular ichneumon-fly near Adelaide, and that he (Sir J. Hector) had arranged for a shipment being made to New Zealand at an early date. The society would remember that the Icerya purchasi was the remarkable Coccid described by our President some years ago, and which had proved

so destructive in Nelson and in most parts of the North Island except the Wellington District.
4. “Notes on Te Karamea Bluff,” by Captain G. Mair.
Abstract.
Te Karamea Bluff is about a mile and a half south of Motuokura or Bare Island, and south of Cape Kidnappers some ten miles. It projects into the sea about 120 yards, and is joined to the mainland by a razor-back ridge of white marl, some 20ft. or 30ft. high and half the thickness. The highest part of the bluff is close on 100ft. It is formed of crumbling stone of every conceivable colour, red and chrome predominating. The whole mass appears to be resting on and slipping to seaward from a layer of marl. No other similar formation exists in the district, except in a small valley running parallel to the coast about a quarter of a mile west of the bluff, where there is a mound of the same material, about the size of a large haystack, cropping out on the hill-side. This place was formerly a refuge for the native tribes during war-time, as it is almost inaccessible. About 1828–30 a war-party of Ngatihoatua, from the Thames, under Takurua, who was afterwards killed at Kaipaki by Te Waharoa, laid siege to Te Karamea. The besieged were unable to lay in a store of food and water, and sustained themselves for a considerable time by occasionally lowering the most venturesome of their number into the sea at the outer end, who would collect limpets and seaweed from the rocks, and be drawn up the cliffs by ropes. Eventually they became so emaciated from want of food that the pa was taken, and a great massacre took place. The spot is now very sacred in the estimation of the natives living in the district. They had a whaling-station near by a few years ago, and a good boat-landing exists on the north or east side, according to the wind.
Mr. McKay said he was pleased that the paper had been read, more especially as it was evident the writer was unaware that a discussion on the true position of the red rocks had taken place; and yet the paper and sketch made it quite clear that these overlie the marl and greensand-beds of the isthmus and mainland. The evidence given in the paper was thus in agreement with what he himself reported in 1875, and again in 1886, and in no sense bore out the contention put forward by Professor Hutton that the rocks of Red Island—Te Karamea Bluff—are of palæozoic age, and are referable to the Rimutaka series.
5. “Remarks on Earthquakes in the Amuri District, South Island,” by Alexander McKay, F.G.S.
Abstract.
The author commenced by stating that, for twelve months previous to the end of August last, booming noises, proceeding from the ground, had been heard in the district surrounding the Hanmer Plains, and that towards the end of that month earthquakes began to be experienced; these premonitions were followed by the great shock of the 1st September, which did nearly all the damage that happened to buildings, and opened most of the fissures that are yet to be seen. This was followed by the shock of the 28th September, and, after a like period, by that of the 23rd October, and those of the 26th and 28th of the same month; there being just about a lunar month between the first and second and the second and last series of shocks. Mr. McKay then described the effects the earthquakes had produced, and gave a detailed account descriptive of the fissures opened at many places along the Waiau-ua and Hope Valleys, more especially those seen near the mouth of Gorge Creek near Hopefield, at Hopefield, and at and near Glynn Wye. The present ruined condition of the buildings at Glynn Wye was described, and the manner in which the fences

had been broken and shifted 8 feet 6 inches to the east of the line in which they originally stood. Next it was shown that the evidences consisting of slips and earth-rents are confined to a narrow belt of country extending S.S.W. from the east corner of the Hanmer Plain to the Upper Hope Valley, abreast of and about six miles to the north of Lake Sumner, in the Hurunui Valley. Beyond this point to the westward the line of dislocation was not examined. All these rents and fractures lie along a line of previous earthquake disturbance, the old fractures indicating this being traceable on the surface where the line does not run along river-beds, liable to be flooded and leave the surface shingles rearranged. The eastern continuation of this line of old fractures caused by earthquakes was described as extending to the eastern base of Mount Fyffe, near Kaikoura. Glynn Wye was described as being the point on this line at which the most violent disturbance of the surface took place; while Westport, 60 miles to the north, Christchurch, 65 miles to the south, and Kaikoura on the east coast and Hokitika on the west coast, were the limits to which the earthquake extended as a shock violent enough to do damage to buildings, &c. Mr. McKay said that, while not touching the question what the primal cause of earthquakes may be, he felt sure that the Amuri earthquakes, in as far as they were expressed at the surface and had been studied by him, were due to crushing movements along the old earthquake-line; and he went on to show that in the northern part of the South Island, and, indeed, throughout the islands of New Zealand, there are many old faults, showing a great vertical displacement, running coincident with earthquake-rents opened but recently, though not for the first time. The whole of the northern part of the South Island, it was stated, was being elevated, and a series of parallel fractures gave relief to the resulting strain, which relief, at the moment of its happening, produced the earthquake.
Sir James Hector considered that this paper, as a simply-told narrative of the observed facts, would become classical in the literature of earthquakes, and he complimented the author on its excellence. He did not quite agree with all the author's deductions, however. The mere linear extension of fault-lines did not determine a liability to earthquakes. There must be a lateral stress or condition of strain in some part of the fault-line. As he had pointed out last year, a violent concussion might originate from a slickenside surface in a fault. He quite agreed that in this particular case there was nothing to connect this shock with volcanic action, present, past, or future. It seemed to be a localised fault-movement, no doubt produced by the jar of a wide-spreading earthquake-shock of the ordinary mild character.
Mr. McKay, in reply, stated that we could only deal with what was open to observation. The facts went to prove that from some point not far from Glynn Wye the force of the shock diminished in all directions; and practically there or thereabouts the centre of the disturbance must be placed. As to the influence of the great faults, it mattered little whether the earthquake produced the faults or the faultings were the cause of the earthquake—both were effects of a greater movement behind either or both; but, as the faults and earthquake-rents were in this district on the same lines, the earthquakes were always most severe in the near vicinity of those lines. Mr. McKay said he spoke not of the numerous lesser faults that are to be found all over the country, but of the five or six greater faults whose movements have stamped with peculiarity the physical features of the whole district.
Sir James Hector exhibited a specimen of Alumite from Australia, with the alum obtained from it. He explained that it had been discovered by Mr. J. H. Cox, late Assistant-Geologist.

Ninth Meeting: 9th January, 1889.
W. M. Maskell, F.R.M.S., President, in the chair.
New Members.—H. Taperell, W. Herbert, H. W. Robinson, and George Denton.
Papers.—1. “A Note in reference to a Paper which appeared in Vol. xx. of the ‘Transactions,’ on ‘Gravitation,’” by T. Wakelin, M.A.
Abstract.
Lord Grimthorpe says that he copied the figures as for an iron jar from a well-known paper by Baily, P.R.H.S., who gave 6·8in. as height of mercury for glass jar. He subsequently worked out Baily's paper, and found a great mistake, which he says he has corrected in the new edition of the “Encyclopædia Britannica.” This, however, is a mistake: the figures 6·8in. are uncorrected. The height should be 8½in. to 9in.
2. “On Sanitary Sewerage,” by H. P. Higginson, M.Inst.C.E. (Transactions, p. 369.)
Mr. Maxwell considered that one of the chief merits of this scheme over others that had been proposed was that it would obviate the necessity of having contour-sewers at great depth, passing through private property, and causing great inconvenience and expense; and another advantage was that the ejectors could be placed in duplicate.
Sir J. Hector had always favoured this scheme. It dealt with what was absolutely necessary, and nothing more. There were, comparatively speaking, no gases given off as in the old system, and the drains were self-cleansing, and did not require to wait for a flood to wash them out. The perfect tightness of the drains was also a great recommendation, and the ease with which they could be laid without going to any great depth. It was a pity more information as to comparative cost had not been given. He had explained this system to the engineers in Melbourne, where it seemed unknown, and in which city the drainage was very imperfect.
Mr. Hughes did not think the cost of this system would be so much less as at first appeared, as there would have to be a separate system for surface-drainage. He was doubtful whether the houses would be entirely free from the return gas, as stated.
The Hon. R. Pharazyn did not think gas would escape. The separate drains for rain would not be expensive. This system seemed to have great advantages over, and to do away with many objections to, old drainage-plans. There would be no difficulty in procuring information as to the cost of establishing such a system in Wellington. The thanks of the public were due to Mr. Higginson for this practical paper.
Mr. Richardson thought it would be a good plan to try this scheme on a small scale before finally deciding as to its merits. He thought it would answer admirably.
Mr. Higginson, in reply to Mr. Maxwell, stated that the “Shone” system, applied to Wellington, would avoid the annoyance and expense attendant upon interference with private properties, as the sewers could be constructed entirely upon the street-lines. Mr. Clark's high-level contour-sewer, which for the greater part of its length passed through private land, would entail a heavy outlay for compensation.
In answer to Sir James Hector, the author said it was now accepted as a fact that the “separate” system enabled the size of the sewers to be properly proportioned, and avoided the necessity for constructing huge brick sewers in order to carry off an exceptional rainfall, the result being that in dry weather the flowing contents were represented by a

mere trickle along the invert of the sewer. This state of things resulted in the accumulation of deposit, owing to the velocity being insufficient. The outfall-main being under pressure, any leak is easily detected, and quite as easily repaired, owing to its being laid but little below the surface of the ground. The cost of applying the system to Wellington had purposely not been dealt with in the paper, as sufficient data from which to frame a reliable detail-estimate were not available. It might, however, be stated that, from such information as could be gathered from Mr. Clark's published report and other sources, and allowing for the reticulation of the whole forty-two miles of streets with properly-constructed sewers, laid on a concrete bed, provided with man-holes, lamp-holes, automatic flush-tanks, also for the whole of the necessary machinery, cast-iron mains, &c., the cost would not exceed £80,000, or 32s. per head for the 50,000 persons provided for; while the cost of Mr. Clark's scheme amounted to £145,000, or 41s. 5d. per head for the 70,000 persons provided for.
In reply to Mr. Hughes, Mr. Higginson agreed that to a certain extent the “separate” system necessitated duplicate sewers, but considered that over a large area of the suburbs it was possible to carry off the rainfall by the side-channels and short lengths of pipes into the nearest natural watercourses. In many cases the watercourses had been converted into sewers, but it was now proposed to re-convert them to their original use. It should also be remembered that the existing drains and sewers would be devoted to this purpose entirely, and that for the sewage a complete system of independent sewers is provided for in the estimate quoted. It would be impossible for sewer-gas to become generated between the dwellings and the ejectors, provided the sewers were laid to self-cleansing gradients. The area served by each ejector would contain no sewers more than 20 or 30 chains in length, so that, with a velocity given to the sewage of but 2ft, per second, only from 11 to 16 minutes would elapse before it had passed from the dwelling into the ejector, and become a thing of the past. It would therefore be seen that, unless a defect and stoppage existed in the sewers, there would not be time for gas to become generated. The system had been in constant use in Southampton and Warrington since 1884, where the officers in charge expressed to the author, when visiting the works, their entire approval. The town of Eastbourne was also drained upon this system in 1884, and, in a report published for the German Embassy by the Chairman of the Drainage Committee, that gentleman stated that they “have every reason to be satisfied with the works already executed on this system.” A Select Committee of the House of Commons adopted the system in 1886 for the drainage of the Houses of Parliament, Westminster, where it had completely remedied the evils that previously existed.
In reply to Mr. Richardson, the author of the paper hoped that before long the system would be adopted on a small scale for the drainage of Pitone, when it would be possible to see the ejectors in action. As explained in the paper, the system could be adapted to suit the present requirements of a town, increasing the number of ejector-stations and main outfall-pipes so soon as the increased population warranted the expenditure.
In reply to the President, Mr. Higginson stated that he regretted he had omitted to mention that the air made use of in the ejectors was compressed by an ordinary air-compressing machine, driven by any suitable power available, and placed in the locality best adapted to meet the requirements of the particular case. This compressed air was conveyed by a line of small pipes to the different ejector-stations. It is usual to have only one compressing-station, the loss by friction in a long length of pipes being insignificant. In the proposed scheme for Wellington, the air-compressing station would be at the Corporation Yards, where either steam- or water-power would be available.

3. “On the Disappearance of Young Trout from our Streams,” by W. Ferguson; communicated by T. W. Kirk. (Transactions, p. 235.)
4. “Note on a Rock Specimen collected by the Rev. W. S. Green near the Summit of Mount Cook,” by Professor T. G. Bonney, F.R.S.; communicated by Professor Hutton. (Transactions, p. 334.)
Handsome and interesting specimens of Graptolites, which are interesting forms of great antiquity; also ores of copper and antimony from Nelson, and Alexandra, in Otago, collected by Mr. James Park, of the Geological Survey, were exhibited by the Director.
Annual Meeting: 18th February, 1889.
W. M. Maskell, F.R.M.S., President, in the chair.
1. The Annual Report and Balance-sheet were read and adopted.
Abstract
Ten general meetings had been held, at which thirty-one papers were read on the following subjects: Eight on geology, nine on zoology, one on botany, three on chemistry, and ten on miscellaneous subjects. A conversazione was held in the Museum on the occasion of the departure from the colony for a time of Mr. W. T. L. Travers, F.L.S. Thirteen new members had been elected during the year. The balance-sheet showed that the receipts, including the balance brought forward for the year, amounted to £206 18s. 2d., and the expenditure to £156 7s. 2d., leaving a balance in hand of £50 11s. The report and balance-sheet were adopted.
The report contained a proposal made by the President, with the view to the greater encouragement of research in the different departments of the Society's work, and it had been resolved to submit the following scheme for the approval of members: That the Society offer bronze medals, to be given annually for the best papers in the following groups: (1) Natural science (botany or zoology or geology of the New Zealand zoological sub-region), one medal; (2) physics, chemistry, and technical science, one medal; (3) history, archæology, and anthropology, one medal; (4) literature and philology, one medal; (5) philosophy; (6) art. That the Board of Governors of the New Zealand Institute be asked to appoint a judge in any group in each year for the papers competing in that group; that only those papers be submitted to the judges which shall have been read during the year at a meeting of the Society; that the writers of the papers must be members of the Society at the time the papers are read; that each writer must declare when sending in his paper if he wishes to compete; that the judges should be empowered to declare that in their opinion no paper of the year is sufficiently meritorious for a medal; that for the foregoing object the Society set apart annually £20 only of its income as a prize fund; that the medals be presented by the President at the first meeting of the Society ensuing after the receipt of the judge's awards; and that the Governors of the New Zealand Institute be requested to announce specially in the “Transactions” the names of the successful writers, though not necessarily to print the papers.
The scheme was, after discussion, adopted.

Mr. W. T. L. Travers moved a vote of thanks to the retiring President, Mr. Maskell, and in so doing referred to the great interest that gentleman had taken in the Society, and to the able manner in which he had carried out the duties of President. He also referred to Mr. Maskell's valuable contributions to the “Transactions”—especially to his work on the insect-pests now so numerous in the colony.
Mr. Maskell, in replying, referred to the visit to this colony of Mr. Albert Koebele, the German naturalist who had been despatched to the colonies by the American Government to investigate the presence of a parasite which feeds on the Icerya purchasi, and said he felt convinced that it was a matter of great importance to the colonies, as it certainly was one of most vital importance to the United States, where the ravages of the pests were enormous. Some years ago the blight was very prevalent in the Auckland, Napier, and Nelson districts, but it had never appeared in Wellington. In later years, however, he said, the natural enemies of the destructive blight had so rapidly increased as to render the pest now practically a thing of the past. He (the speaker), had been, the first, about twelve years ago, to philosophically describe the pest. About six years ago a large valley near the Grafton Road, in Auckland, was literally a living mass of it, it being found by millions on every tree, shrub, and even gorse-bush; but lately he tried to get specimens in this valley, and was unable to get even half a dozen. This was in some respects also the case with the Napier district, and it he said, might be hailed with joy by growers of fruit. The blight was still prevalent in Nelson, but he had made arrangements to have some of the ladybirds—the insect which had taken to eating the Icerya—caught in Napier and forwarded to Nelson in order to stop the ravages of the blight in that quarter. He was sorry that the German naturalist he had mentioned could not be present at the meeting, but he had to leave Wellington yesterday for Napier, where he intended catching some hundreds of thousands of the ladybird-larvæ for transportation to America, and be in time for the American steamer leaving Auckland shortly. The facts which this gentleman had ascertained on the subject were exceedingly gratifying to the colonies and America, and, as the blight is gradually being got down, the fruit-growers may hope in a very short time to be able to grow their fruit free from this destructive insect.
Election of Officers for 1889.—President—Alfred de B. Brandon, B.A.; Vice-Presidents—Charles Hulke, F.C.S., Alexander McKay, F.G.S.; Council—Sir James Hector, Messrs. Govett, Travers, Tregear, Higginson, Maskell, and Hon. R. Pharazyn; Secretary and Treasurer—R. B. Gore; Auditor—T. King.
General Meeting.
New Members.—J. Duthie and C. H. Izard.
Papers.—1. “On the Electro-magnetism of Atmospheric Oxygen; its Causes, and some of its Effects,” by the Hon. Robert Hart, M.L.C.
2. Notes on some New Zealand Birds,” by T. W. Kirk, F.R.M.S. (Transactions, p. 230.)
