Materials on the Testing of Building Stones of Western Siberia: Based on Data from the Mechanical Laboratory of the Tomsk Technological Institute

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Submitted 1922 | SovietRxiv: ru-192201.07327 | Translated from Russian

Abstract Generated abstract

This paper presents results from more than fifteen years of mechanical testing of Western Siberian building stones at the Mechanical Laboratory of the Tomsk Technological Institute, motivated by the growing need for reliable local stone materials for railways, roads, paving, and other construction. It describes the preparation and testing of quarry samples, including determinations of unit weight, water saturation, crushing resistance, frost weathering resistance, and, in most cases, petrographic classification. The compiled tables and map cover stones from deposits between the Ob, Tomsk, Semipalatinsk, and Krasnoyarsk regions, grouped as intrusive, effusive, metamorphic, and sedimentary rocks. The study emphasizes the wide variability of mechanical properties even within similar rock names and concludes that practical suitability depends on direct testing rather than mineralogical designation alone.

Full Text

Prof. I. I. Bobarykov.

Materials on the Testing of Building Stones of Western Siberia

(Based on data from the Mechanical Laboratory of the Tomsk Technological Institute.)

Siberia, over its enormous extent, possesses significant reserves of various mineral riches. It is quite understandable that, when investigating natural resources for practical purposes, attention is directed first of all to ore deposits. Among non-ore deposits, seams of coal and, in part, graphite are subjected to especially careful prospecting. Non-ore deposits in the form of various building stones attract the attention of geologists, who do not pursue definite material aims here. It is therefore quite natural that information, for example, on coal reserves is expressed in definite—or, as far as possible, definite—figures; there are detailed descriptions of seams, maps, and other materials that provide a basis for discussing the question from the standpoint of the possibility of exploitation, both technically and economically.

As for deposits of building stone, no such data exist. Life, having put forward requirements for this material, resolves the question by feel. In the construction of artificial routes of communication, where stone building materials are required in especially large quantities, they are sought in the nearest places, and, on the basis of tests of the mechanical properties of stone samples, the stone is then quarried in the deposits found and deemed suitable. The results of tests of building stones are sometimes published, and in this way a certain body of numerical material is compiled which, supplementing the data of geological investigations, will in the future make it possible to proceed to the preparation of a more precise characterization of building stones as a construction material.

As indicated above, the use of stone material may be very diverse in purpose: rubble, facing stone, ballast material, cornice and stair slabs, paving stone, sidewalk stone, road-metal stone, and so forth. As to the quantity and consumption of the material, one may judge at least from the following data: for the ballast of a single-track line, per…

one verst requires about 1,500 cubic meters of stone. For macadamizing a wheeled road 7 meters wide, 1,200 cubic meters of crushed stone are needed. For repairing an existing highway, 60 cubic meters per year are needed per 1 verst of roadway. In Siberia, with the very insignificant length of railway lines, with the almost complete absence of highways, as well as of pavements and sidewalks, great work lies ahead in the future in developing and improving means of communication. Without this work it is, of course, unthinkable to speak of the development of local industry on a proper scale. At the same time, in view of the severity of the climate and, consequently, the impossibility in many places of using asphalt paving of streets, the question of developing stone deposits and investigating them becomes very interesting.

It should also be noted here that, in addition to the use of stones as building material, many varieties of them are of interest in technology, for example, for the manufacture of millstones, grindstones, whetstones, rollers for grinding paint, etc.

It is curious to note here that various stone (building, paving, millstone, etc.) is an item of import from abroad. For example, for the period 1901–1913 we have the following table:¹)

TABLE 1.

Year Thousand poods Thousand rubles Year Thousand poods Thousand rubles
1901 11311 2440 1908 12564 2151
1902 11014 2440 1909 13571 2573
1903 12027 2598 1910 14977 3052
1904 11128 2737 1911 16107 3609
1905 11813 2599 1912 21160 3628
1906 11639 2336 1913 30670 4900
1907 11109 2225

From this Table 1 it is evident that the import of stone material, being fairly constant in the period 1901–7, began to grow very rapidly from 1908 and by 1913 had increased by 144%.

What has been set forth above convinces us that interest in stone building material must increase, and that thorough investigations of it are highly desirable.

The Mechanical Laboratory at the Tomsk Technological Institute, over a period of more than 15 years of its activity (1904–1920), carried out a series of tests of stone samples that were supplied by various institutions, principally—

¹) Review of foreign trade.

together with the railways; thus, stones for the Siberian Railway were tested here during the construction of the second track and during the reconstruction of mountain sections; samples of stones from the construction of the Altai, Achinsk–Minusinsk, and Kolchugino railways were also delivered here, as well as from the line of the South Siberian Main Line.

Thanks to this, the Laboratory accumulated a fairly considerable body of material on samples of stones from quarries scattered over the area from Novo-Nikolaevsk to Krasnoyarsk and from Tomsk to Semipalatinsk.

Although, unfortunately, the institutions interested in the testing of stone did not always deliver the number of samples that the Laboratory considered necessary, I nevertheless think it useful to publish the results obtained, in view of what has been said above. This is all the more so because, along with determining the mechanical properties of the stones, a petrographic determination of the rock was almost always carried out1 in the geological cabinet of the Institute.

As was already indicated above, the material subjected to investigation in the Mechanical Laboratory was delivered by various institutions and persons. In most cases the samples were prepared in the quarries and arrived at the Laboratory already in cubic form. Sometimes, however, the suppliers brought pieces of considerable size with the request that samples be prepared by the Laboratory’s own means. The latter has a stone-cutting saw made by the Amsler works. Here the samples were given an approximate cubic form and were finished by hand on cast-iron plates. Usually the samples delivered ready-made had to be corrected in the Laboratory by straightening the right angles. The work was always carried out without blows or shocks, in order to avoid producing fine cracks. The number of samples in the various deliveries was on average 5–6 pieces; only recently, at the insistence of the Laboratory, have 7 samples begun to be delivered in each lot, of which one serves for the petrographic determination of the rock. Stone material, as is known, has an essential drawback—possible heterogeneity; therefore, in order to derive reliable average figures, it is desirable, during testing, to have at minimum three samples for each type of test. But, unfortunately, it is far from always possible to find sympathy in this respect on the part of the supplier, and it was not infrequently necessary to be limited to a smaller number of figures, which makes it difficult to characterize the given material.

As can be seen from the testing tables, sometimes, among three figures obtained when crushing samples of one and the same rock, one figure differs sharply from the other two. In some cases a careful inspection established the presence of a crack that had existed even before the beginning of the test; but sometimes no suitable explanation for the decrease in resistance could be found, and then one had especially to regret the small number of specimens subjected to testing.

Very often, in the delivered specimens, the direction of the bedding was not at all apparent. If the number of specimens was sufficient and the bedding was apparent, the test was conducted in two directions: parallel to the bedding and perpendicular to it.

For each of the delivered batches there were determined the weight of a cubic unit, the degree of saturation of the rock with water, the temporary resistance to crushing, and the resistance to weathering.

The first two operations—the determination of the weight of a cubic unit of stone and of its degree of saturation with water—were carried out simultaneously on two specimens. The latter were dried in a double-walled cabinet until the loss of weight ceased; then the dry stone was immersed in distilled water at a temperature of 15–20°C, first to a depth of 1 cm, and then, after 24–30 hours, completely. The weighing of the saturated stones was carried out until the increase in weight was no more than 0.5%; at this point it was stopped. If the quantity of water absorbed by the stone was \(a\) grams, and the weight of the dry stone was \(Q\) grams, then the degree of saturation with water, in percent, will obviously be equal to

\[ g=\frac{100a}{Q}\%. \]

These figures are given in column 4 of Table A. Since the porosity \(\eta\) of the stone is proportional to the degree of its saturation, the former quantity can be obtained from the latter. Indeed, the degree of porosity referred to the volume of the stone \(V\) will be equal to \(\eta=100a:V\). But the weight of the stone \(Q=V\Delta\), if \(\Delta\) is the weight of a cubic unit; and consequently we shall have

\[ \eta=g\Delta\%. \]

The value \(\Delta\)—the weight of a cubic unit of stone—is given in column 5 of Table A. These data are expressed in grams per 1 cubic centimeter. The volume of the stone is determined by the weight \(v\) of the water displaced by it, and \(\Delta\) is obtained as the quotient of dividing \(Q\) by \(v\), i.e. (both quantities, of course, being taken in grams).

\[ \Delta = \frac{Q}{v} \]

To obtain the values of \(v\), the Laboratory used Jolly’s apparatus, immersing stones that had previously been saturated with water. In its results this method is not inferior to the more painstaking method of finding the volume of a stone by coating the dried specimen with a layer of paraffin. The possible error in both cases is approximately the same. Determinations of the specific gravity of stone with the aid of material ground into powder were not made, since in practice this datum is of much less importance than the value \(\Delta\). To a certain degree of error, the specific gravity can be computed when the value \(a\) is known.

The crushing test for finding the value \(k_2\)—the temporary resistance—was carried out on one of the Laboratory’s machines, most often on Amsler’s 60-ton press. In rare cases, when this machine proved insufficiently powerful, Olsen’s 100-ton machine was used.

For testing, the specimens were dressed on a cast-iron plate in order to obtain correct dihedral angles. The stone was always clamped between cardboard pads—a precaution that is not superfluous, since obtaining absolutely plane pressure surfaces is a difficult and very costly task. The load was applied sufficiently slowly and at approximately the same rate—about half an hour for each specimen. With the exception of special experiments that were sometimes required, the observer usually recorded the maximum load \(P_2\); if the cross-section was \(F\), then the temporary resistance was obtained as the quotient

\[ k_2 = \frac{P_2}{F}. \]

These data are given in columns 7–11 of the tables. As for the stress at which the first crack appeared in the stone being tested, these figures are not given in the tables: first, because they were not recorded in all tests; and second, because, with rare exceptions, the so-called load of the first crack corresponds to reality. To catch, on the colored and often rather dark surface of the stone, the moment at which this crack appears is extremely difficult; usually it is detected by sound, but this indicator is not exact, since very often the first crack forms without any sound at all. Furthermore, the value of the load of the first crack can be of any value only on the condition of entirely precise deter-

of the given pressure surfaces, which, as was already mentioned above, is by no means easy to achieve.

In all those cases when no separate tests of stones in the saturated state were made, the specimens that had been subjected to the weathering test were usually not dried, but were crushed in the wet state.

The values of temporary resistance are shown in kilograms per square centimeter (columns 7–9) and in poods per square inch (column 10). The latter was done for the convenience of those readers who are less accustomed to the measures of the decimal system. Column 11 gives average figures, representing simply the arithmetical means of the experimental data, separately for dry and saturated stone; in addition, the figures of the arithmetical means for each rock are indicated in italics, jointly for dry and saturated specimens.

The weathering test was carried out by freezing in a refrigerator box with double walls. The temperature was maintained at about \(-15^\circ\mathrm{C}\). Stones saturated with water were placed in the refrigerator, where they remained for four hours, after which they were removed and immersed for two hours in distilled water. After thawing, the stone was carefully examined over its surface and by touch. If no appearance of cracks, delaminations, etc., was observed, the freezing operation was repeated further, up to 25 times. Column 12 of the table indicates the number of freezings to which the stone was subjected, and column 13 the results of this repeated freezing, which, if the stone did not withstand the test, manifested themselves most often in the chipping of the vertices of trihedral angles, then of the ribs of the cube and, finally, of its faces.

This usually concluded the determination of the mechanical qualities of the stone being tested. In separate cases, when special requirements were made, various additional tests and determinations were performed. Thus, for example, there were cases of finding temporary resistances to shearing and to bending; loss by abrasion; impact tests; determination of the solid residue in the water in which the stones had been kept after being taken out of the refrigerator. But all these tests, being comparatively few in number, cannot be of general interest, and therefore are not included in Tables A.

As was indicated above, one of the specimens from each batch served for petrographic determination, for which purpose it was sent to the head of the Geological Cabinet of the Institute.

Tables A—on the crushing resistance of stones—were compiled not according to the time of testing, but according to the following classification.

Nos. 1–32 Even-grained, deep-seated (igneous).
Nos. 33–39 Porphyritic (effusive).
Nos. 40–42 Metamorphic.
Nos. 43— Sedimentary.

As for the numbering, the upper number denotes the serial number; the lower number, the number under which the test is recorded in the Laboratory test book.

On the appended map the locations of the deposits are indicated approximately, since very often no information was given as to on which side of the railway line the quarry was located.

Stone building material, in its natural state, is distinguished by an astonishing diversity of rocks, composition, and structure. At a cursory glance at the tables of results of tests of mechanical properties, what strikes the eye is the complete absence of any dependence between such factors as temporary crushing resistance, specific gravity, degree of porosity, resistance to weathering, etc. The observed circumstance is not confined to the results obtained in the Mechanical Laboratory of the Tomsk Institute, but represents a general phenomenon2.

Table B presents a summary of average figures, and the data are arranged in decreasing order of temporary resistance for intrusive, effusive, metamorphic, and sedimentary rocks. Siberian trap gives a resistance of 2116 klg/cm² (No. 21) and 740 klg/cm² (No. 28). Quartz sandstone gives 1360 klg/cm² (No. 111) and 430 klg/cm² (No. 109), etc. Such diversity is always observed and may be explained either by the fact that samples from one and the same quarry were taken from different beds, in which case pieces already subjected to weathering may be encountered, or, when obtained from different quarries, by the influence of composition and structure. The influence of the latter factor is quite obvious, for, all other conditions being equal, a fine-grained structure offers greater resistance. The significance of mineralogical composition is almost not manifested. On the contrary, the influence of the latter factor appears in tests for abrasion. In terms of resistance to weathering, the degree of saturation undoubtedly plays a significant role, corresponding to the degree of porosity; in addition, of course, this includes the influence of chemical composition, the degree of solubility in water.

Studying the presented test tables, one may observe that very often a significant resistance to crushing coincides with a high specific gravity.

Of course, here too it is observed that in individual cases the opposite phenomenon occurs. To verify the circumstance noted, I compiled a summary in Table 2, containing data on temporary resistance and specific gravities, with arithmetic means selected between the limits 2,1—2,2, 2,2—2,3, etc.

TABLE 2.

Specific gravity range Specific gravity, average Temporary resistance
2,9—3 2,94 1315 kg/cm²
2,8—2,9 2,83 1043 „
2,7—2,8 2,74 955 „
2,6—2,7 2,65 915 „
2,5—2,6 2,55 960 „
2,4—2,5 2,45 865 „
2,3—2,4 2,37 709 „
2,0—2,3 2,18 496 „

Curve A B in Diagram 1 definitely shows a decline in the average figures of temporary resistance together with curve CD (the line of specific gravities). It is true that a certain deviation corresponds to the specific gravity 2,5—2,6.

In view of this, I made an analogous calculation for several results (test data of the Laboratory of the Central Siberian Railway, tests in the Warsaw District of Lines of Communication, data of the Munich Laboratory¹). The results of the calculation are given in the Table.

Central Siberian Railway (2): specific gravity Central Siberian Railway (2): temp. resistance Warsaw District (3): specific gravity Warsaw District (3): temp. resistance Munich Laboratory (4): specific gravity Munich Laboratory (4): temp. resistance
2,97 1704 kg/cm² 3,09 2946 kg/cm² 3,00 2902 kg/cm²
2,73 1683 „ 2,64 1935 „ 2,73 2309 „
2,68 1650 „ 2,50 1783 „ 2,65 1976 „
2,57 1245 „ 2,19 616 „ 2,56 1850 „
2,47 1050 „ 2,34 1280 „
2,29 994 „ 2,07 318 „
1,96 438 „ 1,72 70 „

In Diagrams 2—4 these relationships are graphically represented, fully confirming the idea that specific gravity is a known indicator for the magnitude of temporary—

¹ Mitteilungen a. d. mechanisch-technisch. Laboratorium. München.

resistance. If the stones tested in the Mechanical Laboratory are arranged according to the structural criterion, namely:⁵

  1. Igneous rocks.
    a) normal granite,
    b) the same, formation under increasing pressure.
    c) cataclastic.
    d) destruction of orthoclase into clay.
    e) porphyritic.
    f) almost all constituent parts are destroyed.

  2. Sedimentary rocks,—distinguished by cement content: the smallest quantity is evaluated by grade (5) and the greatest by grade (2), then obtaining average figures for the 1st group (igneous rocks) is difficult, since the number of specimens in the groups is very different. One may perhaps compare groups 1 a and 1 d.

Group Specific gravity Temporary resistance
1 a. 2.73 1100 klg/cm²
1 d. 2.71 1025 klg/cm²

For sedimentary rocks we obtain the following figures.

Class Specific gravity Temporary resistance
V 2.56 927 klg/cm²
IV 2.39 628 klg/cm²
III 2.44 790 klg/cm²
II 2.63 891 klg/cm²

The assumption that, with increasing cement content, resistance decreases is not borne out. The dependence stated between specific gravity and temporary resistance is also confirmed under this grouping.

Of course, no definite conclusions can be drawn from these data, but there is reason to believe that, in testing building stones, it is highly desirable to carry out a more detailed elucidation and, necessarily, in parallel with the testing of mechanical properties, to make a detailed petrographic determination, and moreover with quantitative data. In all cases when the geologist’s prediction does not coincide with the results of the mechanical analysis, an immediate investigation of the phenomenon and clarification of its causes are necessary.

DESCRIPTION OF THE STONES TESTED.

No. 1. Ticket No. 130. Hornblende granite.
Of hypidiomorphic structure, consisting essentially of orthoclase, mostly kaolinized quartz, more often idiomorphic with respect to orthoclase; ordinary hornblende, titanite, magnetite.

⁵ The proposal and classification were made by instructor of the Institute of Engineers B. L. Stepanov.

No. 2. Golaya Sopka. Normal granite.
Of hypidiomorphic-granular structure, composed essentially of orthoclase, microcline, small mica flakes, and magnetite.

No. 3. Charyshskii. Normal granite.
A hypidiomorphic-granular mixture of cloudy orthoclase, non-hematitized, idiomorphic plagioclase in subordinate quantity, quartz with ordinary extinction (cataclase), and here and there dark-colored small mica flakes, biotite.

No. 4. R. Zhernovka. Normal granite.
With a hypidiomorphic-granular structure, consisting of orthoclase, decomposing into pelite, plagioclase, and (Q) quartz; of the dark-colored elements, very scanty mica-biotite.

No. 5. Bekovskii. Normal granite.
Of hypidiomorphic-granular structure, consisting of orthoclase, microcline, plagioclase, (b) mica—biotitic, quartz. Products of decomposition: pelite, sericite.

No. 6. Krasnorech. works. Biotite-hornblende granite.
Dirty pink, coarse-grained. Composition: quartz, feldspar (orthoclase and plagioclase), biotite, green hornblende, magnetite, titanite.

No. 7. Vladimirskii. Biotite-hornblende granite.
Gray-pink, medium-grained; composition: quartz, feldspar (plagioclase and orthoclase), hornblende, biotite, magnetite, titanite.

No. 8. Zhernovskaya quarry. Pink granite.
Medium-grained, biotitic (poor in mica). Composition: smoky-gray quartz, pink orthoclase, less plagioclase, a little biotite and magnetite, here and there titanite.

No. 9. Olginskii. Biotite-hornblende granite.
Fine-grained gray. Composition: quartz, feldspar (orthoclase and plagioclase), biotite, hornblende, magnetite, titanite.

No. 10. On the Ob River near Novonikolaevsk. Gray granite.

No. 11. Picket No. 342. Diabase.
Of ophitic structure, consisting of basic plagioclase passing into uralite, and grains of magnetite. Here and there epidote coatings.

No. 12. Bazaikha Mountain. Syenite.
Consisting essentially of orthoclase, perthite, microcline, microcline-microperthite, very scanty quartz; secondary constituents—biotite, hornblende, ilmenite. Products of decomposition: chiefly pelite, chlorite. The structure is hypidiomorphic-granular.

No. 13. Picket No. 130. Hornblende syenite.
A hypidiomorphic-granular mixture of orthoclase and acid plagioclase—both non-hematitized—a little xenomorphic quartz; ordinary hornblende; as inclusions—titanite, apatite, grains of magnetite.

No. 14. Picket No. 115. Pyroxene syenite.
Of hypidiomorphic-granular structure, consisting essentially of orthoclase and striated plagioclase; both feldspars are non-hematitized; ordinary augite; little quartz and grains of green hornblende.

No. 15. N.-Nikolaevskii. Granodiorite.
Consists essentially of orthoclase in fairly fresh Carlsbad twins, zonal plagioclase (medium), idiomorphic with respect to orthoclase; quartz, idiomorphic with respect to orthoclase; secondary biotite, with sometimes large zircon in it and ilmenite near it. The whole mixture is hypidiomorphic-granular, fresh.

No. 16. N.-Nikolaevsk. Granodiorite.
Hypidiomorphic-granular, consisting essentially of excellent idiomorphic zonal plagioclase (medium), scanty orthoclase, abundant biotite with locally incipient chloritization in it, and a variable small quantity of ( ) quartz.

No. 17. Piket No. 382. Granodiorite.
Hypidiomorphic-granular structure, consisting essentially of orthoclase (cloudy), zonal plagioclase (medium), grains of quartz, irregular flakes of mica; grains of magnetite in the form of inclusions, and some chlorite.

No. 18. Piket 883. Granodiorite.
Hypidiomorphic-granular, consisting essentially of cloudy orthoclase, medium plagioclase (altered, with sericite in the center and pelitized along the periphery), scant quartz; fresh and chloritized biotite.

No. 19. Mal. Arveshtaevskoe. Granodiorite.
Hypidiomorphic-granular structure, consisting essentially of pinkish (slightly) orthoclase, white plagioclase, quartz, hornblende, titanite. Under the microscope the feldspars (orthoclase and medium plagioclase) are pelitized, the quartz is idiomorphic with respect to the feldspars; green hornblende is present in insignificant quantity. Envelope-shaped golden titanite in grains, ilmenite and magnetite.

No. 20. Uk. Siberian trap.
A type of olivine gabbro, black-green, coarse-grained, with a gabbro structure; feldspar (plagioclase), diallage, hypersthene, olivine, titaniferous iron ore.

No. 21. Zavorki. Trap.
A pilotaxitic groundmass of laths of plagioclase, crystals of augite and magnetite. Large crystals of olivine, mostly altered to serpentine, with grains and veinlets (ore) of magnetite.

No. 22. Garnovskii I. Fine-grained granite.
Xenomorphic-granular structure, with very cataclastic orthoclase and quartz (undulatory extinction and mortar structure). Some areas reveal pegmatitic intergrowth (compressed).

No. 23. Loktevskii. Fine-grained granite.
Xenomorphic-granular structure, consisting essentially of somewhat pelitized microcline, orthoclase, plagioclase sericitized in the centers of some individuals, and quartz.

No. 24. Ust’-Inskii. Gneiss-like aplite.
Xenomorphic-granular structure, consisting essentially of quartz, plagioclase, less abundant orthoclase, a little biotite mica, products of alteration—pelite, sericite, chlorite (very little).

No. 25. Kiprino. Spessartite.
A fine-grained grayish rock, vein rock, of xenomorphic-granular structure, consisting essentially of very scant orthoclase, decomposed to sericite, plagioclase (often medium), green hornblende; a little quartz; magnetite, titanite as accessories.

No. 26. Shchek. Gneiss-like aplite.
Xenomorphic-granular structure, consisting essentially of abundant microcline, microcline-microperthite, oligoclase-albite, xenoblastic flakes of biotite and muscovite, sometimes in parallel intergrowth, quartz identical with No. 37. Golaya Sopka.

No. 27. Golaya Sopka. Aplite.
Xenomorphic-granular structure, consisting essentially of microcline, albite-oligoclase, microperthite, quartz, and secondary small micas.

No. 28. Berezovskii. Siberian trap.
Dark green, fine-grained, of ophitic structure; composition: feldspar (plagioclase), hypersthene, augite, olivine, titaniferous iron ore.

No. 29. Porog. Siberian trap.
Dark green, fine-grained, of ophitic structure. Composition: feldspar

(plagioclase), hypersthene, olivine, titaniferous iron ore. A little chlorite and serpentine.

No. 30. No. 3, 2586 versts. Siberian trap.

A type of olivine diabase, dark green, fine-grained, of ophitic structure. Composition: plagioclase, olivine, augite, serpentine, a little hypersthene, diallage, orthoclase, quartz, titaniferous iron ore.

No. 31. At the 2579th verst. Siberian trap.

A type of augite norite, dark green, fine-grained, of ophitic structure. Composition: augite, hypersthene, plagioclase, less olivine, titaniferous iron ore, chlorite, serpentine.

No. 32. At the 2583rd verst. Siberian trap.

A type of olivine gabbro, dark green, of ophitic structure. Composition: plagioclase, diallage, olivine, augite, hypersthene, titaniferous iron ore.

No. 33. At the 2586th verst. Siberian trap.

A type of olivine diabase, dark green, fine-grained, of ophitic structure. Composition: plagioclase, olivine, augite, serpentine, a little hypersthene and diallage, titaniferous iron ore.

No. 34. Peschany. Granite-porphyry.

Consists essentially of orthoclase (rather good), quartz, here and there in pegmatitic intergrowth; the secondary component is biotite. The full-crystalline groundmass includes porphyritic segregations of orthoclase and quartz.

No. 35. Ulunsky. Augite porphyrite.

With intersertal structure; consists of laths of plagioclase, grains of augite, and a little magnetite.

No. 36. Kamenny Klyuch. Augite porphyrite.

Pilotaxitic groundmass of plagioclase, augite, and a little magnetite, with large phenocrysts of augite.

No. 37. Golaya Sopka. Monzonite porphyry.

The rock is identical with No. 38 (Ryaboy), only finer-grained.

No. 38. Ryaboy. Monzonite porphyry.

Of porphyritic structure, consisting essentially of idiomorphic plagioclase, microperthite, a little microcline; augite, ilmenite, here and there chlorite. A feature of the rock is the sharp idiomorphism of plagioclase relative to orthoclase and microcline and the extreme inconstancy of composition, changing over a small space.

No. 39. Kazennaya Mazulskaya dacha. Diabase porphyry.

Of ophitic structure; consisting essentially of large porphyritic plagioclases, basic, in a groundmass of medium plagioclase, xenomorphic augite, magnetite and products of their decomposition: pelitized areas, uralite.

No. 40. Stroit. No. 5. Plagioclase basalt.

A greenish-black rock, fine-grained, of porphyritic structure, with phenocrysts of plagioclase, an intersentral groundmass consisting of plagioclase laths, grains of augite, and a little glass.

No. 41. Nov. Firsova. Epidotized felsite porphyry.

Of porphyritic structure, with a dense groundmass consisting of orthoclase, plagioclase, and quartz. The segregations are feldspars, scanty quartz, epidote.

No. 42. At the village of Mazul. Epidotized mylonitic augite porphyry.

No. 43. Gornovsky II. Crushed quartz-biotite diorite.

Consists essentially of cloudy zonal plagioclase (medium), hornblende, here and there epidotized, biotite; ilmenite is a noticeable admixture. In places there occur areas of pseudospherulitic structure.

No. 44. Stroit. stone No. 2. Crystalline limestone.

Represents an aggregate, fairly homogeneous in grain size, of grains of calcite spar and at the same time free of impurities. Marble.

No. 45. Stroit. 3rd section No. 46. Crystalline limestone. Marble.
No. 46. Pokrovsky. Pseudo-oolitic limestone.
With recrystallized calcite and quartz of a “cement structure.”
No. 47. Bazhir. Dolomitized limestone.
No. 48. Kosoi vzvoz. Dolomitized limestone.
No. 49. Bazhir. Dense limestone.
No. 50. Naimadan. Dense limestone.
No. 51. Chernorechensky. Dense limestone.
Consists of scanty grains of calcite scattered in a dense gray mass of metamorphosed limestone.
No. 52. Fyrkalsky. Dense limestone.
No. 53. Cherdakovo. Dense limestone.
With a scanty clayey coating in some parts.
No. 54. Kholmogoe. Marly limestone.
No. 55. Kosoi vzvoz. Marly limestone.
No. 56. Shadrinsky. Marly limestone.
Consists essentially of a mixture of clay with calcium carbonate in approximately equal quantity. A rock identical with No. 57.
No. 57. Urunsky. Marly limestone.
Represents an almost equivalent mixture of clay with calcium carbonate.
No. 58. Picket No. 322. Marly limestone.
Consists of grains of calcite cemented by a mixture of clay and calcium carbonate.

No. 59. Chertova gorka.
Quartz–feldspar sandstone with clayey-quartz cement (4—5). Grauvakka.

No. 60. Innokentyevsky. Feldspathic quartz sandstone.
Consists of grains of quartz, orthoclase, and plagioclase, cemented by a limonite-clayey substance. The grains and cement are approximately in equivalent quantity. (3).

No. 61. Bolshoi Ulus. Feldspathic-quartz sandstone.
With clayey-quartz (secondary) limonite-epidote cement. A rock crushed with an equivalent quantity of grains and cement (3).

No. 62. Topki. Feldspathic-quartz sandstone.
With clayey cement, with predominance of grains over cement (4).

No. 63. Shalaisky. Feldspathic-quartz sandstone.
With limonite-clayey cement, of which there is very little (4—5). Grain size \(1/6—1/10\) mm.

No. 64. Gora Ural. Quartz sandstone.
With epidote-limonite-clayey cement, with predominance of grains over cement (4).

No. 65. Topki. Quartz sandstone.
With limonite-clayey cement, with noticeable predominance of grains over cement (4).

No. 66. Osinovaya griva. Feldspathic-quartz sandstone.
With the most insignificant amount of cement (5), i.e., the grains, touching one another, form the so-called mosaic structure.

No. 67. Picket No. 678. Calcareous-quartz sandstone.
Medium-grained, with calcareous-clayey cement, with predominance of grains over cement (4).

No. 68. Picket No. 532. Quartz-feldspathic-calcite sandstone.
With calcareous-clayey cement (4—5).

No. 69. Mazurovsky. Feldspar-quartz sandstone.
With limonite-clayey cement (4).

No. 70. Poperechnoye. Feldspar-quartz sandstone.
With clayey cement. The grains are represented by quartz, albite-oligoclase, kaolinized; sporadic magnetite. The grain size is coarse; the quantity predominates over the cement (4).

No. 71. Kamysh. upper. Feldspar-quartz granite-like sandstone.
Composed of irregular grains of quartz, feldspar (plagioclase), clay, and iron oxides as cement, of which there is little (4).

No. 72. Along the Uya River. Feldspar-quartz calcitic sandstone.
With epidote-clayey-limonite-calcareous cement (4).

No. 73. Plotnikovo. Feldspar-quartz sandstone.
With limonite-calcitic-clayey cement. There are epidote formations. In both size and quantity the grains are equivalent to the cement (3).

No. 74. Koltsovsky. Feldspar-quartz sandstone.
With limonite-calcitic cement, with predominance of cement (2) over grains.

No. 75. Picket No. 325. Feldspar-calcareous sandstone.
With calcareous-clayey cement (3).

No. 76. Cherny Yus. Feldspar-quartz-calcareous sandstone.
With iron ore, consisting essentially of grains of quartz—gray, yellowish-brown—with a mass of inclusions; of plagioclase, CaCO₃, and grains of magnetite, partly already decomposing, owing to which the rock is colored brown.

No. 77. Tulunsky. Feldspar-calcareous-quartz sandstone.
With epidote-calcareous-limonite-clayey cement (3).

No. 78. Soksinsky Far Quarry. Feldspar-quartz sandstone.
With limonite-clayey (minor)-calcareous (predominantly) cement. Cement and grains occur in equivalent quantities (3).

No. 79. Soksinsky Near Quarry. Quartz-calcitic-feldspar sandstone.

With epidote-limonite-clayey-calcareous cement. Shiny flakes of mica are scattered here and there. The rock is fine-grained. The quantity of grains and cement is almost equivalent. (3).

No. 80. Nalobino. Feldspar-quartz sandstone.
Almost exclusively quartz grains (5). Size \(1/5\)—\(1/4\) mm.

No. 81. Sosnovsky Quarry. Quartz-calcitic-feldspar sandstone.
With epidote-limonite-clayey-calcareous cement and with scattered individuals of biotite. The rock is fine-grained. The quantity of grains and cement is equivalent. (3).

No. 82. B. Yus. Calcitic-feldspar-quartz sandstone.
With limonite-clayey calcareous cement. Cement and grains are quantitatively equivalent (3).

No. 83. Quarry No. 4. Quartz-feldspar sandstone.
Gray, fine-grained. Under the microscope it reveals an even-grained aggregate of quartz grains, a subordinate quantity of feldspar grains (predominantly albite), and rare scales of chloritized or bleached biotite. The individuals of quartz and feldspar have jagged outlines and are separated by large intervals filled with fine-grained quartz cement.

No. 84. Babiensky. Marly sandstone.
Consisting of grains of quartz and calcite with clayey-calcareous cement, with a noticeable predominance of cement (2).

No. 85. Picket No. 410. Quartz-calcitic-calcareous sandstone.
Consisting essentially of grains of quartz and calcite, cemented by carbonic lime, with predominance of cement (2).

No. 86. Picket No. 502. Calcareous-limonite-quartz sandstone.
With a clayey-quartz, calcareous-limonite-epidote cement. The quantity of grains and cement is equivalent. (3).

No. 87. Picket No. 224. Calcareous-quartz sandstone.
With clayey-calcareous cement. In places colored by iron. The grains are angular; the cement is spatially equivalent. (3).

No. 88. Picket No. 599. Calcareous-quartz sandstone.
Consisting of grains of quartz (many), calcite (few), bound by limonite-clayey-calcareous cement. Cement and grains are approximately in equal amounts (3).

No. 89. Shipino. Calcite-quartz sandstone.

No. 90. Shipino. Quartz-calcareous-clayey sandstone.
With clayey epidote-calcite cement; the cement noticeably predominates (2).
Consists of small grains of quartz with calcareous-clayey cement predominating over the grains (2).

No. 91. Shir. Log. Clayey-calcareous sandstone.
Consists of the smallest grains of quartz and very thin flakes of sericite, cemented by a clayey-calcareous mass. (2—3).

No. 92. Gogolevskaya Mountain. Calcareous-quartz sandstone.
Consists essentially of quartz grains with clayey-calcareous cement, with approximately equivalent quantities of grains and cement (3).

No. 93. Calcareous-quartz sandstone.

No. 94. 18 versts from Tulun Station. Calcareous sandstone.
Light gray, fine-grained. Composition: angular and rounded grains of quartz, occasional feldspar, and a few grains of calcite, which play the role of cement. Calcite constitutes \(1/2\)—\(2/3\) of the rock, which may be called quartz limestone.

No. 95. Rapid No. 7 on the B. Ii. Light-gray calcareous sandstone.

No. 96. Utai Kurgan. Calcareous sandstone.
Brownish-yellow, fine-grained. Composition: angular and rounded grains of quartz, some feldspar and calcite. Quite a lot of calcareous-clayey cement. Effervesces strongly with acid.

No. 97. Sheberta. Calcareous sandstone.
Brownish-gray, fine-grained. Composition: angular and rounded grains of quartz, less feldspar (orthoclase, plagioclase, microcline), some biotite, epidote; calcareous cement up to 50%. Effervesces strongly with acid.

No. 98. Kurgan. Calcareous sandstone.
Gray-yellow, fine-grained. Composition: angular and rounded grains of quartz, some feldspar, much calcite; in places a more quartzose cement, in places calcareous, in places clayey-calcareous.

No. 99. Porog. Calcareous sandstone.
Light gray, fine-grained. Composition: angular and rounded grains of quartz, some feldspar (altogether about 60%), much calcareous-clayey cement (about 33%). Effervesces strongly with acid.

No. 100. Utai. Calcareous sandstone.
Light brown, fine-grained. Composition: angular and rounded grains of quartz, rarely feldspar, and many grains of calcite, which play the role of cement (about \(1/3\) of the whole mass).

No. 101. On the Rybnoi River. Calcareous-clayey sandstone.
Light greenish-gray, fine-grained. Consists of angular and rounded grains of quartz, considerably less feldspar, still less hornblende, garnet, small fragments of granite and felsite; quartz is colorless or light gray, sometimes dark smoky; the cement is calcareous-clayey, and there is rather much of it.

No. 102. At the 2386th verst. Quartz-clayey sandstone.
Light brownish-yellow, very fine-grained; consists chiefly of angular and rounded quartz grains; the cement is clayey, and there is very little of it.

No. 103. Kopev’s borrow pit, old workings. Calcareous-quartz sandstone.
Consisting essentially of quartz grains, set almost directly against a weak line enveloping the limestone, and of a comparatively small quantity of calcite. (5).

No. 104. Tulun. Calcareous sandstone.
Light gray, fine-grained. Composition: angular and rounded quartz grains, here and there feldspar, much calcareous-clayey cement. It effervesces strongly from acid.

No. 105. Sopka. Quartz-limonite-clayey sandstone.
With calcareous-clayey-ferruginous cement, with an approximately equivalent quantity of grains and cement. (3).

No. 106. Chashi. Quartz-limonite-clayey sandstone.
With calcareous-limonite-clayey cement, with approximately equal development of grains and cement. (3).

No. 107. Porog. Quartz-clayey sandstone.
In which the quartz grains have equal development with the clayey cement, which sporadically includes the very finest quartz grains. (3).

No. 108. Picket No. 611. Quartz sandstone.
With calcareous-clayey cement, with the cement predominating over the grains (2).

No. 109. Nikolsky. Quartz sandstone.
With calcareous cement. The grains are rounded, with marked predominance over the cement (4).

No. 110. Taly 2nd. Quartz sandstone.

No. 111. Taly 1st. Quartz sandstone.

No. 112. Ukhvatsky picket No. 1. Quartz sandstone.

No. 113. Kharlovsky. Light-gray quartzite.

No. 114. Nikolsky. Quartz sandstone.

No. 115. Koleso, 2587th verst. Quartz sandstone.
Ochre-yellow, fine-grained. Composition: rounded quartz grains, less altered feldspar, a little white mica; cement is almost absent, unless one counts the ochreous coatings and smears on the quartz grains.

No. 117. Nazarovsky.
Quartz-feldspar conglomerate with calcareous cement, largely recrystallized into calcite. Some parts are quartzite. The cement predominates over the grains. (2). The rock is metamorphic.

No. 118. Stroit. No. 3. Calcareous-quartz conglomerate.
Consisting of rolled grains of quartz, CaCO₃, cemented by clayey-ferruginous cement.

No. 122. Karasora. Quartzite-like sandstone.
A gray, quartzite-like, evenly fine-grained rock, microscopically appearing as a remarkably pure aggregate of gray, glassy quartz grains.

Microscope. A very evenly grained aggregate of more or less rounded isometric quartz grains with an insignificant quantity of brown-ferruginous cement, filling the fine narrow spaces (interstices) between the quartz grains. The latter are here and there cut by fine, rare cracks.

No. 123. Leucocratic biotite granite. (Cf. porphyritic).
Rather large (up to 6 mm) crystals of yellowish feldspar and very rare small accumulations of dark-brown biotite stand out among the more fine-grained—

a clayey mixture, which appears to consist of grains of yellowish feldspar with abundant small fragments of quartz.

Microscope. Abundant large individuals of microperthite, partly more or less idiomorphic, partly irregular, but always with finely indented edges and very often with a narrow border of micropegmatitic intergrowths of quartz; rather rare idiomorphic, but still more strongly indented, quartz segregations. The main mass is an isometric, rather fine-grained aggregate of idiomorphic grains of quartz and xenomorphic grains of orthoclase.

No. 124. Aplite-like biotite granite.

A rather fine-grained mixture of brownish-yellow feldspar crystallites, more often small, less often somewhat larger smoky grains of quartz, and rare black flakes of biotite.

Microscope. An irregularly isometric mixture of microperthite and quartz with scanty albite and biotite. In places the principal components have larger dimensions, with distinct idiomorphism of quartz relative to orthoclase; in the greater part of the thin section there is observed a somewhat less coarse-grained aggregate with equally irregular outlines of both minerals; some areas consist of a micropegmatitic mixture.

No. 125. Aplite-like biotite granite.

A light pinkish-yellowish rock of aplite-like structure, with various crystallites of feldspar, grains of quartz, and flakes of biotite.

Microscope. Small isometric grains, with toothed outlines, of microcline-microperthite, and more scanty quartz, in the main part of the thin section directly adjoin one another; in places they stand out somewhat porphyritically amid the same, but more fine-grained, mixture. Everywhere there are separate small flakes of biotite with ragged edges.

No. 126. Fine-grained biotite granite.

A gray fine-grained rock, representing a hypidiomorphic mixture of grayish crystals of plagioclase, flakes of biotite, and less abundant grains of quartz.

Microscope. A substantially panidiomorphic aggregate of slightly serrated and often somewhat bent short columns of plagioclase, with a subordinate quantity of xenomorphic, cloudy-extinguishing quartz and small flakes of biotite, either isolated or clustered in small groups. Within this aggregate, here and there, somewhat larger, thick-columnar crystals of plagioclase and less regular individuals of cryptoperthitic microclinoperthite stand out.

No. 127. Fine-grained graywacke sandstone.

A dense dark-gray rock with a fine-grained fracture; abundant small dirty-pinkish feldspar crystallites are distinguishable.

Microscope. Small irregular grains of quartz, plagioclase, calcite, and scanty flakes of bleached biotite are rather abundantly scattered in a fine-grained clayey-quartz cement, covered with rare small spots and cut by equally rare thin discontinuous veinlets of limonite.

No. 128. Fine-grained graywacke sandstone.

Entirely similar to No. 5, but contains rare thin veinlets of finely crystalline calcite.

Microscope. Essentially the same as in thin section No. 56, but the cement is present in smaller quantity and is noticeably more abundantly impregnated with limonite.

Table of tests

No. in order No. of sample Year of testing Name and location of quarry Type of stone Saturation by weight, % Weight, cubic unit Cross-sectional area, cm²
1 38 1914 Picket No. 130 of the Achinsk–Minusinsk Railway, on the left side. Hornblende granite. 0,41 2,69 50,8
1 38 1914 Picket No. 130 of the Achinsk–Minusinsk Railway, on the left side. Hornblende granite. 0,41 2,69 62,5
1 38 1914 Picket No. 130 of the Achinsk–Minusinsk Railway, on the left side. Hornblende granite. — — 52,5
1 38 1914 Picket No. 130 of the Achinsk–Minusinsk Railway, on the left side. Hornblende granite. — — 49,6
1 38 1914 Picket No. 130 of the Achinsk–Minusinsk Railway, on the left side. Hornblende granite. — — 49,2
1 38 1914 Picket No. 130 of the Achinsk–Minusinsk Railway, on the left side. Hornblende granite. — — 49,1
2 90 1914 Golaya Sopka. Normal granite. 0,56 2,70 60,8
2 90 1914 Golaya Sopka. Normal granite. 0,57 2,60 50,3
2 90 1914 Golaya Sopka. Normal granite. — — 58,5
2 90 1914 Golaya Sopka. Normal granite. — — 62,1
2 90 1914 Golaya Sopka. Normal granite. — — 60,8
2 90 1914 Golaya Sopka. Normal granite. — — 61,6
3 43 1911 Charyshsky. Normal granite. 0,82 2,52 48,0
3 43 1911 Charyshsky. Normal granite. 0,76 2,59 49,4
3 43 1911 Charyshsky. Normal granite. — — 49,7
3 43 1911 Charyshsky. Normal granite. — — 50,5
3 43 1911 Charyshsky. Normal granite. — — 47,6
4 87 1914 Zhernovka River. Normal granite. 0,31 2,57 51,2
4 87 1914 Zhernovka River. Normal granite. 0,42 2,58 53,2
4 87 1914 Zhernovka River. Normal granite. — — 51,9
4 87 1914 Zhernovka River. Normal granite. — — 54,3
4 87 1914 Zhernovka River. Normal granite. — — 51,6
4 87 1914 Zhernovka River. Normal granite. — — 51,3
5 88 1914 Bekovsky. Normal granite. 6,15 2,61 55,5
5 88 1914 Bekovsky. Normal granite. 5,44 2,77 54,0
5 88 1914 Bekovsky. Normal granite. — — 51,7
5 88 1914 Bekovsky. Normal granite. — — 54,8
5 88 1914 Bekovsky. Normal granite. — — 54,0
5 88 1914 Bekovsky. Normal granite. — — 52,0
6 175 1908 State-owned quarry, Krasnorechensky Plant. Biotite-hornblende granite, coarse-grained, dirty pink. 0,39 2,55 —
6 175 1908 State-owned quarry, Krasnorechensky Plant. Biotite-hornblende granite, coarse-grained, dirty pink. 0,41 2,54 —
6 175 1908 State-owned quarry, Krasnorechensky Plant. Biotite-hornblende granite, coarse-grained, dirty pink. — — —
6 175 1908 State-owned quarry, Krasnorechensky Plant. Biotite-hornblende granite, coarse-grained, dirty pink. — — —
6 175 1908 State-owned quarry, Krasnorechensky Plant. Biotite-hornblende granite, coarse-grained, dirty pink. — — —
6 175 1908 State-owned quarry, Krasnorechensky Plant. Biotite-hornblende granite, coarse-grained, dirty pink. — — —
7 176 1908 Vladimirsky. Biotite-hornblende, medium-grained, gray-pink. 0,31 2,58 —
7 176 1908 Vladimirsky. Biotite-hornblende, medium-grained, gray-pink. 0,36 2,56 —
7 176 1908 Vladimirsky. Biotite-hornblende, medium-grained, gray-pink. — — —
7 176 1908 Vladimirsky. Biotite-hornblende, medium-grained, gray-pink. — — —
7 176 1908 Vladimirsky. Biotite-hornblende, medium-grained, gray-pink. — — —

building stones.

TEMPORARY RESISTANCE. In dry condition, kg/cm² TEMPORARY RESISTANCE. In saturated condition, kg/cm² TEMPORARY RESISTANCE. After freezing, kg/cm² Same, in poods (inches) FREEZING TESTS. Average in kg/cm² FREEZING TESTS. Number of freezings FREEZING TESTS. Results By whom supplied; remarks
— — 1231 485 — 25 Withstood. Achinsk-Minusinsk Railway.
— — 1279 504 — — Withstood. Achinsk-Minusinsk Railway.
— — 1079 425 1196 — Withstood. Achinsk-Minusinsk Railway.
1300.0 — — 512 — — Withstood. Achinsk-Minusinsk Railway.
1300.0 — — 512 — — Withstood. Achinsk-Minusinsk Railway.
1300.0 — — 512 1300 — Withstood. Achinsk-Minusinsk Railway.
— — — — 1248 — Withstood. Achinsk-Minusinsk Railway.
— — 759 302 — 25 Withstood. Altai Railway.
— — 604 208 — — Withstood. Altai Railway.
— — 573 236 587 — Withstood. Altai Railway.
797 — — 314 — — Withstood. Altai Railway.
657 — — 259 — — Withstood. Altai Railway.
665 — — 262 706 — Withstood. Altai Railway.
— — — — 681 — Withstood. Altai Railway.
— — 910 358 — 25 Withstood. Same.
— — 872 344 — — Withstood. Same.
— — 845 333 876 — Withstood. Same.
812 — — 320 — — Withstood. Same.
1335 — — 526 1047 — Withstood. Same.
— — — — 965 — Withstood. Same.
— — 1083 370 — 25 Withstood. Same.
— — 1190 421 954 — Withstood. Same.
— — — 427 — — Withstood. Same.
— — — 457 1096 — Withstood. Same.
830 — — 327 — — Withstood. Same.
984 — — 387 907 — Withstood. Same.
— — — — 989 — Withstood. Same.
— — 677 259 — 25 After 25 freezings, they began to crumble at the edges. Same.
— — 627 247 — — After 25 freezings, they began to crumble at the edges. Same.
— — 379 149 560 — After 25 freezings, they began to crumble at the edges. Same.
647 — — 255 — — After 25 freezings, they began to crumble at the edges. Same.
646 — — 254 — — After 25 freezings, they began to crumble at the edges. Same.
519 — — 203 604 — After 25 freezings, they began to crumble at the edges. Same.
— — — — 582 — After 25 freezings, they began to crumble at the edges. Same.
— 1300 — 512 — 25 Withstood. Siberian, for the reconstruction of mountain sections.
— 1340 — 525 1320 — Withstood. Siberian, for the reconstruction of mountain sections.
— — 912 359 — — Withstood. Siberian, for the reconstruction of mountain sections.
— — 1044 441 978 — Withstood. Siberian, for the reconstruction of mountain sections.
1340 — — 528 — — Withstood. Siberian, for the reconstruction of mountain sections.
1204 — — 474 1272 — Withstood. Siberian, for the reconstruction of mountain sections.
— — — — 1190 — Withstood. Siberian, for the reconstruction of mountain sections.
— 913 — 500 — 25 Withstood. Same.
— 860 — 338 887 — Withstood. Same.
— — 1140 449 — — Withstood. Same.
— — 1088 429 1114 — Withstood. Same.
1090 — — 489 — — Withstood. Same.
1160 — — 457 1125 — Withstood. Same.
— — — — 1045 — Withstood. Same.
No. of sample Time tested Name and location of quarry Kind of rock Saturation by weight, % Weight of 1 cubic cm Cross-sectional area, cm²
8
158
1908 Zhernovskaya state stone quarry at the Uyarsk siding of the Siberian Railway. Biotite granite, medium-grained, pink. 0.40
0.43
—
—
2.57
2.58
—
—
47.3
51.1
46.9
49.8
9
193
1908 Olginsky, from Shchuchastka, for the reconstruction of mining sections of the Siberian Railway. Biotite–hornblende granite, fine-grained, gray. 0.25
0.24
—
—
2.79
2.80
—
—
50.7
49.0
48.2
48.3
10
100
1907 On the Ob River near N. Nikolaevsk. Gray granite. —
—
—
—
—
—
—
—
32.9
33.3
25.1
37.8
11
81 н.
1914 Quarry at picket 342. Diabase. 0.10
0.12
—
—
—
—
2.94
3.02
—
—
—
—
27.2
28.0
26.4
26.7
26.4
26.5
12
117
1908 Bazaiha Mountains, Tokmak, 7 versts from Yenisei station of the Siberian Railway. Syenite. 0.93
0.89
0.94
—
—
2.50
2.50
2.18
—
—
49.7
47.4
48.5
50.8
50.0
13
68
1914 Picket No. 130, Achinsk–Minusinsk Railway. Hornblende syenite. 0.54
0.51
—
—
—
—
2.72
2.64
—
—
—
—
26.0
52.6
52.6
52.4
52.2
54.5
14
69
1914 Picket No. 115, Achinsk–Minusinsk Railway. Pyroxene syenite. 0.91
0.50
—
—
—
—
2.64
2.75
—
—
—
—
53.2
54.8
54.0
54.8
55.3
53.4
15
23
1911 Not indicated. Granodiorite. 1.25
1.03
2.52
—
26.5
26.4
Temporary resistance: in dry form, 13 kg/cm² Temporary resistance: in saturated form, kg/cm² Temporary resistance: after freezing, kg/cm² Temporary resistance: same in poods (dyn.) Freezing test: average in kg/cm² Freezing test: number of freezings Freezing test: results By whom supplied; remarks
[[unclear]] — 1270 500 — 25 Withstood. Same.
— — 1203 433 1237 —
107 — — 424 — —
1081 — — 426 1072 —
1148
— — 1518 598 — 25 Withstood. Same.
— — 1531 603 1539 —
1578 — — 621 — —
1201 — — 472 1890 —
1457
1305 — — — — 25 Withstood Excise Administration. Shear resistance 134 kg per sq. centimeter and bending 33.6 kg per sq. centimeter.
1335 — — — — —
1577 — — — — —
1197 — — — — —
1355
— — 991 591 — 25 Withstood. Achinsk–Minusinsk Railway.
— — 1268 500 1269 —
— — 1249 492 1269 —
1643 — — 647 — —
1531 — — 603 — —
120 — — 475 1460 —
1315
— 830 — 327 — 25 Withstood. Siberian, for the reconstruction of mountain sections.
— — 818 322 — —
— — 754 297 710 —
930 — — 366 — —
880 — — 347 905 —
827
— — 719 283 — 20 After the 20th freezing, chipping of corners is observed. Achinsk–Minusinsk Railway.
— — 752 296 — —
— — 858 338 776 —
863 — — 340 — —
971 — — 383 — —
656 — — 258 830 —
805
— — 650 256 — 12 After 12 freezings slight crumbling is observed. Same.
— — 739 291 — —
— — 787 310 725 —
502 — — 198 — —
581 — — 229 — —
569 — — 242 551 —
638
1075 — — 423 — 12 One specimen after the 12th freezing split into 2 parts. After 2 freezings crumbling is observed. Siberian, for construction of the 2nd track.
834 — — 329 — —
376
Nos. in order Year of testing Name and location of the quarry Kind of stone Saturation by weight, % Unit weight Cross-sectional area, cm²
16 / 89 1914 N. Nikolaevsky. Granodiorite. 0.73 2.65 49.0
16 / 89 1914 N. Nikolaevsky. Granodiorite. 0.62 2.60 47.7
16 / 89 1914 N. Nikolaevsky. Granodiorite. — — 48.3
16 / 89 1914 N. Nikolaevsky. Granodiorite. — — 50.3
16 / 89 1914 N. Nikolaevsky. Granodiorite. — — 56.6
16 / 89 1914 N. Nikolaevsky. Granodiorite. — — 51.1
17 / 60 1913 Picket No. 382 of the Achinsk–Minusinsk Railway, on the left side of the line. Granodiorite. 0.82 2.59 40.3
17 / 60 1913 Picket No. 382 of the Achinsk–Minusinsk Railway, on the left side of the line. Granodiorite. 0.91 2.58 39.7
17 / 60 1913 Picket No. 382 of the Achinsk–Minusinsk Railway, on the left side of the line. Granodiorite. — — 39.0
17 / 60 1913 Picket No. 382 of the Achinsk–Minusinsk Railway, on the left side of the line. Granodiorite. — — 39.0
17 / 60 1913 Picket No. 382 of the Achinsk–Minusinsk Railway, on the left side of the line. Granodiorite. — — 39.3
17 / 60 1913 Picket No. 382 of the Achinsk–Minusinsk Railway, on the left side of the line. Granodiorite. — — 38.8
18 / 74 1914 Picket No. 883 of the Achinsk–Minusinsk Railway. Granodiorite. 0.50 2.58 26.3
18 / 74 1914 Picket No. 883 of the Achinsk–Minusinsk Railway. Granodiorite. 0.31 2.58 27.3
18 / 74 1914 Picket No. 883 of the Achinsk–Minusinsk Railway. Granodiorite. — — 27.0
18 / 74 1914 Picket No. 883 of the Achinsk–Minusinsk Railway. Granodiorite. — — 27.6
18 / 74 1914 Picket No. 883 of the Achinsk–Minusinsk Railway. Granodiorite. — — 27.6
18 / 74 1914 Picket No. 883 of the Achinsk–Minusinsk Railway. Granodiorite. — — 27.5
19 / 109 1915 At the Malyi Arventalsky ulus. Granodiorite. 0.59 2.54 41.5
19 / 109 1915 At the Malyi Arventalsky ulus. Granodiorite. 0.52 2.52 45.3
19 / 109 1915 At the Malyi Arventalsky ulus. Granodiorite. — — 45.6
19 / 109 1915 At the Malyi Arventalsky ulus. Granodiorite. — — 44.4
19 / 109 1915 At the Malyi Arventalsky ulus. Granodiorite. — — 44.8
19 / 109 1915 At the Malyi Arventalsky ulus. Granodiorite. — — 35.8
20 / 127 1908 Outcrop in the vicinity of the town of Nizhne-Udinsk. Siberian trap, coarse-grained, black-earth-colored. 0.20 — 49.8
20 / 127 1908 Outcrop in the vicinity of the town of Nizhne-Udinsk. Siberian trap, coarse-grained, black-earth-colored. 0.20 — 47.2
20 / 127 1908 Outcrop in the vicinity of the town of Nizhne-Udinsk. Siberian trap, coarse-grained, black-earth-colored. — — 49.7
20 / 127 1908 Outcrop in the vicinity of the town of Nizhne-Udinsk. Siberian trap, coarse-grained, black-earth-colored. — — 51.5
21 / 537 1913 Kar. Zavorka. Trap. 0.13 2.77 27.5
21 / 537 1913 Kar. Zavorka. Trap. 0.15 2.77 24.3
21 / 537 1913 Kar. Zavorka. Trap. — — 24.3
21 / 537 1913 Kar. Zavorka. Trap. — — 23.1
21 / 537 1913 Kar. Zavorka. Trap. — — 22.9
21 / 537 1913 Kar. Zavorka. Trap. — — 24.8
22 / 48 1913 Gornovsky I near the village of Gornovsky. Fine-grained granite. 0.80 2.54 52.1
22 / 48 1913 Gornovsky I near the village of Gornovsky. Fine-grained granite. 1.08 2.54 50.7
22 / 48 1913 Gornovsky I near the village of Gornovsky. Fine-grained granite. — — 51.5
22 / 48 1913 Gornovsky I near the village of Gornovsky. Fine-grained granite. — — 51.5
22 / 48 1913 Gornovsky I near the village of Gornovsky. Fine-grained granite. — — 51.9
23 / 42 1908 Loktevsky. Fine-grained granite. 0.75 2.59 50.9
23 / 42 1908 Loktevsky. Fine-grained granite. 0.55 — 50.8
23 / 42 1908 Loktevsky. Fine-grained granite. — — 50.0
23 / 42 1908 Loktevsky. Fine-grained granite. — — 50.0
23 / 42 1908 Loktevsky. Fine-grained granite. — — 51.1
Temporary resistance: in dry state, kg/cm² Temporary resistance: in saturated state, kg/cm² Temporary resistance: after freezing, kg/cm² Temporary resistance: same, in poods (inch) Tested for freezing: average, kg/cm² Tested for freezing: number of freezings Tested for freezing: results By whom supplied; remarks
— — 645 254 — 25 Withstood. Altai Railway.
— — 645 254 — —
— — 811 369 — —
1020 — 866 341 774 —
981 — — 402 — —
998 — — 393 379 —
876
— 732 732 288 — 25 Withstood. Achinsk–Minusinsk Railway.
— — 854 336 — —
— — 917 361 834 —
774 — — 405 — —
145 — — 472 — —
162 — — 417 1095 —
965
— — 1219 480 — 25 After 25 freezings, slight crumbling is observed. Same.
— — 1211 477 — —
— — 1146 452 1192 —
1440 — — 567 — —
1306 — — 515 — —
1389 — — 547 1378 —
1284
— — 808 318 — 11 Began to swell. Achinsk–Minusinsk Railway.
— — 1016 400 — 14
— — 922 363 915 —
1216 — — 479 — —
782 — — 608 — —
634 — — 246 374 —
895
— — — 261 — 25 Withstood. Siberian, for the reconstruction of mountain sections.
— — 662 282 639 —
819 — 716 323 — —
872 — — 266 748 —
713
— — 2165 853 — 25 Withstood. Achinsk–Minusinsk Railway.
— — 1255 492 — —
— — 2355 988 1924 —
190 — — 741 — —
258 — — 1016 — —
245 — — 975 2308 —
2116
— — 789 297 — 25 Withstood. Altai Railway.
— — 976 385 — —
— — 982 387 904 —
1194 — — 470 — —
1216 — — 479 1205 —
1550
— — 1259 496 — 25 Withstood. Same.
— — 1133 446 — —
— — 1270 500 1221 —
1278 — — 503 — —
1234 — — 486 1252 —
1267
No. in order Time of test Name and location of the quarry Type of stone Saturation by weight, % Weight per cubic unit Cross-sectional area, cm²
24
42
1913 Ust-Insky. Gneiss-like aplite. 0.76
0.73
—
—
—
2.62
2.62
—
—
—
511
520
518
504
511
25
78 n.
1914 Kiprino Quarry. Silesarite. 0.34
0.55
—
—
—
2.89
2.69
—
—
—
265
268
278
274
269
26
87
1914 Shchek. Gneiss-like aplite. 0.21
0.42
—
—
—
—
2.62
2.60
—
—
—
—
582
648
591
613
629
668
27
91
1914 Golaya Sopka. Aplite. 0.37
0.37
—
—
—
—
2.60
2.65
—
—
—
—
544
555
612
575
624
612
28
128
1908 Berezovsky, about 2557 versts of the Siberian Railway. Siberian trapp, fine-grained, dark green. 0.21
0.19
—
—
—
—
—
—
507
500
494
515
29
151
1908 Porog. Siberian trapp, fine-grained, dark green. 9.60
9.30
—
—
2.03
—
—
—
462
582
498
512
30
160
1908 No. 3, about the 2586th verst of the Siberian Railway. Siberian trapp of the olivine-diabase type, dark green, fine-grained. 0.15
0.23
—
—
2.90
2.98
—
—
490
443
494
486
31
161
1908 No. 1, opposite the 2579th verst of the Siberian Railway, sazhen to the left of the line. Siberian trapp, of the augite-olivine type, dark green, fine-grained. 0.20
0.15
—
—
3.00
2.90
—
—
494
502
488
478
Temporary resistance: in dry state, kg/cm² Temporary resistance: in saturated state, kg/cm² Temporary resistance: after freezing, kg/cm² Temporary resistance: same, in poods (per sq. inch) Freezing test: average, kg/cm² Freezing test: number of freezings Results Delivered by; remarks
— — 1233 485 — 25 Withstood. Altai Railway
— — 1221 481 — — Withstood. Altai Railway
— — 1225 483 1227 — Withstood. Altai Railway
933 — — 367 — — Withstood. Altai Railway
123 — — 485 1083 — Withstood. Altai Railway
— — — — 1155 — Withstood. Altai Railway
— — 1398 550 — 25 Withstood. Kolchugino Railway
— — 764 301 — — Withstood. Kolchugino Railway
— — 812 320 900 — Withstood. Kolchugino Railway
1458 — — 574 — — Withstood. Kolchugino Railway
1098 — — 432 1277 — Withstood. Kolchugino Railway
— — — — 1105 — Withstood. Kolchugino Railway
— — 965 380 — 8 After the 8th freezing began to crumble at the corners. Same.
— — 973 383 — — After the 8th freezing began to crumble at the corners. Same.
— — 634 250 857 — After the 8th freezing began to crumble at the corners. Same.
648 — — 253 — — After the 8th freezing began to crumble at the corners. Same.
760 — — 295 — — After the 8th freezing began to crumble at the corners. Same.
434 — — 171 609 — After the 8th freezing began to crumble at the corners. Same.
— — — — 733 — After the 8th freezing began to crumble at the corners. Same.
— — 993 391 — 25 Withstood. Same.
— — 1056 416 — — Withstood. Same.
— — 1037 408 1029 — Withstood. Same.
1044 — — 411 — — Withstood. Same.
946 — — 372 — — Withstood. Same.
1029 — — 405 1006 — Withstood. Same.
— — — — 1018 — Withstood. Same.
— — 532 210 — 25 Withstood. Siberian Railway, for reconstruction of mountain sections.
— — 736 290 634 — Withstood. Siberian Railway, for reconstruction of mountain sections.
634 — — 250 — — Withstood. Siberian Railway, for reconstruction of mountain sections.
1050 — — 416 845 — Withstood. Siberian Railway, for reconstruction of mountain sections.
— — — — 740 — Withstood. Siberian Railway, for reconstruction of mountain sections.
— — 512 202 — 5 After five freezings, crumbling of the corners. Same.
— — 180 73 — — After five freezings, crumbling of the corners. Same.
311 — — 122 — — After five freezings, crumbling of the corners. Same.
713 — — 281 — — After five freezings, crumbling of the corners. Same.
— — 1245 491 — 25 Withstood. Same.
— — 1122 441 1184 — Withstood. Same.
1478 — — 582 — — Withstood. Same.
1646 — — 678 1562 — Withstood. Same.
— — — — 1373 — Withstood. Same.
— — 1520 598 — 25 Withstood. Same.
— — 1225 482 1373 — Withstood. Same.
1271 — — 500 — — Withstood. Same.
1694 — — 667 1483 — Withstood. Same.
— — — — 1428 — Withstood. Same.
No. in order Time of testing Name and location of the quarry Stone type Saturation by weight, % Weight of cubic unit Cross-sectional area, cm²
32
163
1908 No. 2 at the 2583rd verst of the Siberian Railway, picket 78, 150 sazhens to the left of the line. Siberian trapp of the olivine gabbro type, fine-grained, dark green 0,14
0,16
—
—
2,97
2,97
—
—
49,2
50,2
51,0
51,0
33
180
1908 No. 5 at the 2586th verst of the Siberian Railway, 250 sazhens to the left of the line. Siberian trapp of the olivine diabase type, fine-grained, dark green. 0,11
0,12
—
—
2,91
2,98
—
—
—
—
—
—
34
45
1913 Village of Peschanoye. Granite porphyry. 0,67
0,48
—
—
—
2.60
2,60
—
—
—
52,2
52,9
51,9
49,4
49,7
35
46
1913 Uluyskii. Augite porphyrite. 0,05
0,10
—
—
—
2,78
2,85
—
—
—
50,7
51,2
49,4
53,7
47,0
36
49
1913 Stone Spring at picket No. 254 of the Achinsk–Minusinsk Railway. Augite porphyrite. 0,267
0,237
—
—
—
—
2,77
2,80
—
—
—
—
50,3
51,8
27,9
27,8
27,1
27,6
37
49
1913 Golaya Sopka. Menconite porphyrite. 0,22
0,12
—
—
—
—
2,97
2,89
—
—
—
—
50,3
50,5
27,6
27,8
26,8
27,2
38
49
1913 Ryaboi at the headwaters of the Kamenka River. Menconite porphyrite. 0,78
0,57
—
—
—
—
2,58
2,61
—
—
—
—
56,4
55,5
[[unclear: 54?]]
54,9
40,9
41,2
39
47
1913 Kazennaya Mazulskaya dacha. Diabase porphyrite. 0,12
0,15
—
—
—
—
2,78
2,75
—
—
—
—
53,3
51,5
52,5
50,4
65,5
26,1
TEMPORARY RESISTANCE
In dry state, 13 kg/cm²
In saturated state, kg/cm² After freezing, kg/cm² Same in poods (inches) TESTED FOR FREEZING
Average in kg/cm²
Number of freezings Results By whom supplied; remarks
— — 1360 535 — 25 Withstood. Same.
— — 1006 396 1133 —
1400 — — 551 — —
1694 — — 633 1504 —
1319
— — 1157 456 — 25 Withstood. Same.
— — 1064 419 1111 —
1640 — — 645 — —
1216 — — 479 1428 —
1269
— — 893 351 — 25 Withstood. Altai Railway.
— — [[unclear: 10?3]] 403 — —
— — 1030 406 982 —
1160 — — 457 — —
1257 — — 495 1200 —
1072
— — 761 300 — 25 Withstood. Achinsk–Minusinsk Railway.
— — 757 299 — —
— — 831 327 783 —
87 — — 345 — —
130 — — 512 1088 —
811
— — 1209 473 — 25 Withstood. Same.
— — 943 372 — —
— — 1212 477 1118 —
1055 — — 416 — —
880 — — 327 — —
116 — — 458 1016 —
1067
— — 358 341 — 25 Withstood. Same. In the first stone old cracks were observed; average of two.
— — 1266 499 — —
— — 962 379 1114 —
834 — — 328 — —
1178 — — 464 — —
1469 — — 575 1234 —
1240
— — 596 235 — 25 Withstood. Average of five. Achinsk–Minusinsk Railway.
— — 514 202 — —
— — 574 226 561 —
459 — — 181 — —
494 — — 194 — —
533 — — 131 422 —
495
— — 812 320 — 25 Withstood. Same.
— — 862 340 — —
— — 690 272 788 —
718 — — 233 — —
584 — — 230 — —
698 — — 275 667 —
727
No. in order Time of test Name and location of the quarry Type of stone Saturation by weight, % Unit cubic weight Area of cross section, cm²
40 1914 From the quarry of the 3rd section of the Achinsk–Minusinsk Railway, station Kamen No. 5 Plagioclase basalt. 0.08 2.84 36.9
80 1914 From the quarry of the 3rd section of the Achinsk–Minusinsk Railway, station Kamen No. 5 Plagioclase basalt. 0.08 2.87 36.9
40 1914 From the quarry of the 3rd section of the Achinsk–Minusinsk Railway, station Kamen No. 5 Plagioclase basalt. — — 37.8
80 1914 From the quarry of the 3rd section of the Achinsk–Minusinsk Railway, station Kamen No. 5 Plagioclase basalt. — — 37.8
40 1914 From the quarry of the 3rd section of the Achinsk–Minusinsk Railway, station Kamen No. 5 Plagioclase basalt. — — 37.5
80 1914 From the quarry of the 3rd section of the Achinsk–Minusinsk Railway, station Kamen No. 5 Plagioclase basalt. — — 37.5
41 1914 Novo-Firsovsky. Epidotized limonitic felsitic porphyry. 0.76 2.68 59.7
75 1914 Novo-Firsovsky. Epidotized limonitic felsitic porphyry. 0.99 2.70 65.6
41 1914 Novo-Firsovsky. Epidotized limonitic felsitic porphyry. — — 67.2
75 1914 Novo-Firsovsky. Epidotized limonitic felsitic porphyry. — — —
41 1914 Novo-Firsovsky. Epidotized limonitic felsitic porphyry. — — 62.4
75 1914 Novo-Firsovsky. Epidotized limonitic felsitic porphyry. — — 66.4
42 1913 Near the village of Mazul. Epidotized limonitic augitic syenite. 0.19 2.96 50.7
48 1913 Near the village of Mazul. Epidotized limonitic augitic syenite. 0.18 2.98 52.5
42 1913 Near the village of Mazul. Epidotized limonitic augitic syenite. — — 51.8
48 1913 Near the village of Mazul. Epidotized limonitic augitic syenite. — — 50.6
42 1913 Near the village of Mazul. Epidotized limonitic augitic syenite. — — 50.7
48 1913 Near the village of Mazul. Epidotized limonitic augitic syenite. — — 51.5
43 1913 Gornovsky II, near the village of Gornovskoye, Fused quartz-biotite diorite. 8.976 2.60 51.5
45 1913 Gornovsky II, near the village of Gornovskoye, Fused quartz-biotite diorite. 8.876 2.62 51.5
43 1913 Gornovsky II, near the village of Gornovskoye, Fused quartz-biotite diorite. — — 50.5
45 1913 Gornovsky II, near the village of Gornovskoye, Fused quartz-biotite diorite. — — 31.7
43 1913 Gornovsky II, near the village of Gornovskoye, Fused quartz-biotite diorite. — — 51.1
44 1914 Quarry not indicated. Building stone No. 2131. Crystalline limestone. 0.41 2.73 37.0
79 1914 Quarry not indicated. Building stone No. 2131. Crystalline limestone. 0.59 2.67 36.4
44 1914 Quarry not indicated. Building stone No. 2131. Crystalline limestone. — — 37.8
79 1914 Quarry not indicated. Building stone No. 2131. Crystalline limestone. — — 35.7
44 1914 Quarry not indicated. Building stone No. 2131. Crystalline limestone. — — 37.1
79 1914 Quarry not indicated. Building stone No. 2131. Crystalline limestone. — — 38.0
45 1914 Quarry not indicated. Building stone from the 3rd section of the Achinsk–Minusinsk Railway. Crystalline limestone. 0.037 2.72 26.5
82 1914 Quarry not indicated. Building stone from the 3rd section of the Achinsk–Minusinsk Railway. Crystalline limestone. 0.022 2.67 26.5
45 1914 Quarry not indicated. Building stone from the 3rd section of the Achinsk–Minusinsk Railway. Crystalline limestone. — — 27.8
82 1914 Quarry not indicated. Building stone from the 3rd section of the Achinsk–Minusinsk Railway. Crystalline limestone. — — 26.9
45 1914 Quarry not indicated. Building stone from the 3rd section of the Achinsk–Minusinsk Railway. Crystalline limestone. — — 26.4
82 1914 Quarry not indicated. Building stone from the 3rd section of the Achinsk–Minusinsk Railway. Crystalline limestone. — — 25.8
46 1913 Pokrovsky. Pseudoolitic limestone. 0.26 2.73 51.1
47 1913 Pokrovsky. Pseudoolitic limestone. 0.34 2.73 51.8
46 1913 Pokrovsky. Pseudoolitic limestone. — — 50.1
47 1913 Pokrovsky. Pseudoolitic limestone. — — 49.7
46 1913 Pokrovsky. Pseudoolitic limestone. — — 50.1
47 1913 Pokrovsky. Pseudoolitic limestone. — — 51.5
TEMPORARY RESISTANCE. In dry state, kg/cm² TEMPORARY RESISTANCE. In saturated state, kg/cm² TEMPORARY RESISTANCE. After freezing, kg/cm² Same in poods (sq. inch) TESTED FOR FREEZING. Average in kg/cm² TESTED FOR FREEZING. Number of freezes TESTED FOR FREEZING. Results By whom delivered; remarks
— — 1301 513 — 25 Withstood. Same.
— — 1016 400 — —
— — 1348 531 1222 —
140 — — 555 — —
1125 — — 443 — —
143 — — 567 1324 —
1275
— — 486 191 — 25 After 25 freezings, slight crumbling of the corners. Altai Railway.
— — 476 188 — —
— — 413 163 458 —
42 — — 165 — —
613 — — 242 — —
614 — — 163 482 —
470
— — 927 365 — 25 Withstood. Achinsk–Minusinsk Railway.
— — 940 370 — —
— — 1177 464 1015 —
454 — — 455 — —
1262 — — 497 — —
1243 — — 490 1252 —
1110
— — 1085 427 — 25 Withstood. Altai Railway.
— — 767 302 — —
— — 830 327 894 —
1243 — — 489 — —
1254 — — 494 1248 —
1036
— — 503 198 — 25 Withstood. Achinsk–Minusinsk Railway.
— — 632 249 — —
— — 529 208 555 —
873 — — 343 — —
788 — — 314 — —
964 — — 380 974 —
715
— — 475 187 — 15 After 15 freezings, crumbling is observed on the corners and edges. Same.
— — 513 202 — —
— — 487 193 492 —
650 — — 256 — —
595 — — 234 — —
854 — — 329 693 —
593
— — 671 264 — 25 Withstood. Same.
— — 752 296 — —
— — 535 211 653 —
86 — — 260 — —
550 — — 217 — —
594 — — 234 602 —
627
No. in order Time of testing Name and location of the quarry Type of stone Saturation by weight, % Weight per cubic unit Area of transverse section, cm²
47
46
1906 Bazhir, 5 versts from Zalari station, on both banks of the Zalari River. Dolomitized limestone. 3,60
—
—
—
46,6
47,9
48
46
1906 Kosoy vzvoz, 5 versts from Zalari station. Dolomitized limestone. 5,40
—
—
—
67,3
57,4
49
48
1906 Bazhir. Dense limestone. 3,20
9,70
4,50
1,90
—
—
—
—
—
—
—
—
—
—
48,9
49,1
40,8
48,3
43,8
49,4
41,0
50
46
1906 Naimadan on the Zalari River, 15 versts below Zalari station. Dense limestone. 2,50
—
—
—
48,0
41,6
51
42
1913 Chernorechensky. Dense limestone. 0,168
0,210
—
—
—
2,71
—
—
—
—
49,6
49,0
51,1
49,4
50,4
52
59
1914 Fyrkalsk II. Dense limestone. 0,37
0,42
—
—
—
—
2,69
2,60
—
—
—
—
28,9
28,1
28,1
28,2
28,8
28,6
53
86
1914 Cherpakovsky, at the 61st verst of the Achinsk–Minusinsk Railway. Dense limestone. 0,31
0,28
—
—
—
—
2,67
2,59
—
—
—
—
50,6
45,8
51,9
52,1
53,4
49,3
54
46
1906 Kholmogoy on the Zalari River, 18 versts from Zalari station. Marly limestone. 5,10
—
—
—
48,6
39,5
55
46
1906 Kosoy vzvoz, 8 versts above Zalari station, on the left bank. Marly limestone. 3,40
—
—
—
45,7
46,4
56
42
1913 Shadrinsky. Marly limestone. 0,106
0,110
—
—
—
2,72
—
—
—
—
49,7
50,8
49,5
49,0
50,4
Temporary resistance. In dry state, 13 kg/cm² Temporary resistance. In saturated state, kg/cm² Tested for freezing. After freezing, kg/cm² Tested for freezing. Same in poods (inch) Tested for freezing. Average in kg/cm² Tested for freezing. Number of freezings Tested for freezing. Results By whom delivered, notes
— — 816 322 816 — — Siberian Railway, for construction of the 2nd track.
940 — — 370 940 — — Siberian Railway, for construction of the 2nd track.
878 Siberian Railway, for construction of the 2nd track.
— — 438 173 438 — — Same.
723 — — 285 723 — — Same.
581 Same.
— — 553 218 — 25 After freezing, cracks in 2 stones; the remaining ones withstood it. Same.
— — 255 100 — — After freezing, cracks in 2 stones; the remaining ones withstood it. Average of three.
— — 700 276 — — After freezing, cracks in 2 stones; the remaining ones withstood it. Average of three.
— — 581 229 611 — After freezing, cracks in 2 stones; the remaining ones withstood it. Average of three.
1190 — — 658 — — After freezing, cracks in 2 stones; the remaining ones withstood it. Average of three.
288 — — 125 — — After freezing, cracks in 2 stones; the remaining ones withstood it. Average of three.
890 — — 350 1040 — After freezing, cracks in 2 stones; the remaining ones withstood it. Average of three.
826 Average of three.
— — 832 328 832 25 Withstood it. Average of two.
421 — — 166 421 — Withstood it. Average of two.
626 Average of two.
— — 561 221 — 25 Withstood it. Altai Railway.
— — 771 303 — — Withstood it. Altai Railway.
— — 660 273 664 — Withstood it. Altai Railway.
831 — — 327 — — Withstood it. Altai Railway.
674 — — 266 753 — Withstood it. Altai Railway.
699 Altai Railway.
— — 1021 402 — 25 Withstood it. Achinsk–Minusinsk Railway.
— — 498 196 — — Withstood it. Achinsk–Minusinsk Railway.
— — 648 296 734 — Withstood it. Achinsk–Minusinsk Railway.
1124 — — 443 — — Withstood it. Achinsk–Minusinsk Railway.
1448 — — 571 — — Withstood it. Achinsk–Minusinsk Railway.
1145 — — 451 1239 — Withstood it. Achinsk–Minusinsk Railway.
1182 Achinsk–Minusinsk Railway.
— — 475 187 — 8 After eight freezings, crumbling began. Average of four, Achinsk–Minusinsk Railway.
— — 529 208 507 — After eight freezings, crumbling began. Average of four, Achinsk–Minusinsk Railway.
634 — — 250 — — After eight freezings, crumbling began. Average of four, Achinsk–Minusinsk Railway.
478 — — 181 506 — After eight freezings, crumbling began. Average of four, Achinsk–Minusinsk Railway.
— 393 — 155 — — After eight freezings, crumbling began. Average of four, Achinsk–Minusinsk Railway.
— 463 — 183 488 — After eight freezings, crumbling began. Average of four, Achinsk–Minusinsk Railway.
480 Average of four, Achinsk–Minusinsk Railway.
408 — — 161 408 — — Siberian Railway, for construction of the 2nd track.
— — 836 329 836 — — Siberian Railway, for construction of the 2nd track.
607 Siberian Railway, for construction of the 2nd track.
814 — — 321 814 — — Same.
— — 960 378 960 — — Same.
887 Same.
— — 765 301 — 25 Withstood it. Altai Railway.
— — 788 310 — — Withstood it. Altai Railway.
— — 715 281 756 — Withstood it. Altai Railway.
875 — — 345 — — Withstood it. Altai Railway.
813 — — 320 846 — Withstood it. Altai Railway.
791 Altai Railway.
No. in order Time of testing Name and location of the quarry Type of stone Saturation by weight, % Weight of cubic unit Area of transverse section, cm²
57
42
1913 Urgunsky. Marl limestone. 0,18
0,13
—
—
—
2,77
—
—
—
—
50,0
49,4
49,4
49,0
49,4
58
54
1913 Picket No. 322, Achinsk–Minusinsk Railway. Marl limestone. 0,67
0,63
—
—
—
—
2,59
2,62
—
—
—
—
54,1
53,6
52,6
52,2
52,6
53,4
59
51
1906 Chertovaya Gorka on the bank of the Ushaika River, three versts above Tomsk. Gray greywacke, shale-quartz sandstone. 0,20
—
—
—
—
—
—
—
—
—
51,5
54,3
36,5
35,9
53,5
60
17
1911 Innokentievsky, 1363 versts from Innokentievskaya Station, Siberian Railway. Feldspar-quartz sandstone. 7,24
7,42
7,66
—
—
—
—
—
—
—
—
2,15
2,21
2,14
—
—
—
—
—
—
—
—
42,0
47,3
47,6
46,2
47,1
51,8
53,9
48,3
47,6
50,0
49,3
61
34
1913 B. Ulus, opposite the 22nd verst of the Kolchugino Railway, on the bank of the Iskitina River, 7 versts from the line. Feldspar-quartz sandstone. 1,24
—
—
2,46
—
—
26,3
26,8
29,4
62
85
1914 Topki. Feldspar-quartz sandstone. 2,00
2,00
—
—
2,47
2,40
—
—
55,8
57,4
58,3
51,5
63
36
1913 Village of Shalai, opposite the 16th verst, on the bank of the [[unclear: abbreviation]] Iskitina River. Same. 2,16
2,06
2,45
2,39
39,0
40,3
64
111
1907 The Ural River at the 2405th verst of the Siberian Railway. Same. 5,85
5,41
—
—
2,08
—
—
—
42,9
45,3
47,9
47,7
TEMPORARY RESISTANCE. In dry state, 13 kg/cm² TEMPORARY RESISTANCE. In saturated state, kg/cm² TEMPORARY RESISTANCE. After freezing, kg/cm² TEMPORARY RESISTANCE. Same in poods (per sq. inch) TESTED FOR FREEZING. Average in kg/cm² TESTED FOR FREEZING. Number of freezings TESTED FOR FREEZING. Results By whom delivered; remarks
— — 843 331 — 25 Withstood. Same.
— — 924 364 — —
— — 986 388 918 —
837 — — 330 — —
979 — — 386 908 —
914
— — 872 343 — 25 Withstood. Achinsk–Minusinsk Railway.
— — 1122 442 — —
— — 1136 447 1043 —
915 — — 360 — —
787 — — 310 — —
1189 — — 472 967 —
1105
— — 1592 627 — 25 Withstood. Private quarry.
— — 1882 742 1737 —
— 1136 — 448 — —
— 1112 — 438 1124 —
1806 — — 712 1806 —
1506
— — 210 83 — 18 After 3 freezings crumbling began. After 18 freezings it fell apart. Revision by Count Medem.
— — 312 123 — —
— — 311 123 274 —
— 95 — 38 — —
— 108 — 43 — —
— 164 — 65 — —
— 155 — 61 131 —
248 — — 98 — —
217 — — 86 — — Average of seven.
312 — — 123 — —
342 — — 135 282 —
250
— — 1440 567 1440 25 Withstood. Kolchugino Railway.
1140 — — 449 — —
1660 — — 654 1400 —
1413
— — 597 235 — 25 Withstood. Same.
— — 434 172 502 —
817 — — 322 — —
984 — — 387 900 —
701
— — 980 386 980 — — Same.
1050 — — 414 1050 —
1015
— — 455 179 — — — Siberian Railway, for construction of the 2nd track
— — 516 204 487 —
396 — — 156 — —
377 — — 149 377 —
432
No. by order Time of test Name and location of the quarry Rock Saturation by weight, % Weight of cub. unit Cross-sectional area, cm²
65
58
1913 Topki, opposite the 102nd verst of the Kolchugino Railway, on the Mazurovka River, 2 versts along the highway. Same. 9,89
8,54
2,04
2,18
27,4
29,9
66
57
1913 Osinovaya Griva, opposite the 96th verst of the Kolchugino Railway, on the Mal. Kurchugan River, 2–3 versts from the village of Osinovaya Griva. Same. 3,19
2,99
—
—
—
2,49
2,48
—
—
—
20,7
36,0
71,4
57,6
3,6
67
70
1914 Picket No. 678 of the Achinsk–Minusinsk Railway. Same. 1,36
1,38
—
—
—
—
2,61
2,45
—
—
—
—
26,3
27,0
26,0
26,2
26,5
26,2
68
83
1914 At picket No. 532 of the Altai Railway. Quartz–feldspar–calcite sandstone. 1,30
1,20
—
—
—
2,53
2,51
—
—
—
52,6
52,8
51,8
52,8
53,3
69
94
1914 Mazurovsky, on the Mazurovka River, at the 105th verst of the Kolchugino Railway, two versts from the line. Feldspar–quartz sandstone. 0,64
0,61
—
—
—
—
2,70
2,65
—
—
—
—
58,9
57,8
58,1
59,7
59,3
58,2
70
73
1914 Near the village of Poperechnoye, opposite the bank of the Iskitim River, 2 versts from the village. Feldspar–quartz sandstone. 1,40
2,10
—
—
—
—
2,51
2,38
—
—
—
—
49,7
48,7
51,8
49,7
52,6
49,0
71
94
1914 Kamyshansky Verkhny, on the Kamyshnaya River, at the 14th verst of the Kolchugino Railway, 42 versts from the line. Feldspar–quartz granitoid sandstone 1,58
2,15
—
—
—
2,62
2,51
—
—
—
59,2
59,9
62,7
59,8
63,9
72
60
1906 Rapids on the Iya River, 18 versts from Tulun Station of the Siberian Railway. Feldspar–quartz–calcite sandstone 5,30
7,70
—
—
—
—
—
—
—
—
49,8
48,5
44,7
47,2
47,1
TEMPORARY RESISTANCE. In dry state, kg/cm² TEMPORARY RESISTANCE. In saturated state, kg/cm² TEMPORARY RESISTANCE. After freezing, kg/cm² TEMPORARY RESISTANCE. Same in poods (inches) FREEZING TESTS. Average in kg/cm² FREEZING TESTS. Number of freezings FREEZING TESTS. Results By whom delivered; notes
— — 237 93 237 11 After 11 freezings it splits into layers and cracks are observed. Kolchuginsk Railway.
271 — — 68 271 — After 11 freezings it splits into layers and cracks are observed. Kolchuginsk Railway.
— 217 — 85 217 25 After 25 freezings, slight crumbling. Same.
— — 628 247 — — After 25 freezings, slight crumbling. Same.
392 — — 154 — — After 25 freezings, slight crumbling. Same.
329 — — 130 361 — After 25 freezings, slight crumbling. Same.
— — 656 258 642 — After 25 freezings, slight crumbling. Same.
— — 602 237 — 20 After 10 freezings, slight crumbling. Achinsk–Minusinsk Railway.
— — 827 376 — — After 10 freezings, slight crumbling. Achinsk–Minusinsk Railway.
— — 719 283 716 — After 10 freezings, slight crumbling. Achinsk–Minusinsk Railway.
1078 — — 425 — — After 10 freezings, slight crumbling. Achinsk–Minusinsk Railway.
1041 — — 410 993 — After 10 freezings, slight crumbling. Achinsk–Minusinsk Railway.
860 — — 339 855 — After 10 freezings, slight crumbling. Achinsk–Minusinsk Railway.
— — 622 261 — 25 Withstood. Altai Railway.
— — 568 224 595 — Withstood. Altai Railway.
841 — — 331 — — Withstood. Altai Railway.
678 — — 267 — — Withstood. Altai Railway.
629 — — 248 716 — Withstood. Altai Railway.
— — — — 667 — Withstood. Altai Railway.
— — 629 366 — 25 Withstood. Kolchuginsk Railway.
— — 966 381 — — Withstood. Kolchuginsk Railway.
— — 1003 395 966 — Withstood. Kolchuginsk Railway.
309 — — 319 — — Withstood. Kolchuginsk Railway.
1001 — — 394 — — Withstood. Kolchuginsk Railway.
905 — — 376 922 — Withstood. Kolchuginsk Railway.
— — — — 944 — Withstood. Kolchuginsk Railway.
— — 1030 406 — 25 Withstood. Kolchuginsk Railway.
— — 624 246 — — Withstood. Kolchuginsk Railway.
— — 494 195 716 — Withstood. Kolchuginsk Railway.
643 — — 254 — — Withstood. Kolchuginsk Railway.
765 — — 301 — — Withstood. Kolchuginsk Railway.
1285 — — 506 398 — Withstood. Kolchuginsk Railway.
— — — — 807 — Withstood. Kolchuginsk Railway.
— — 502 198 — 25 Withstood; 1 of the stones subjected to freezing, after 20 freezings, split in half and crumbled; the others were not affected. Same.
— — 713 282 609 — Withstood; 1 of the stones subjected to freezing, after 20 freezings, split in half and crumbled; the others were not affected. Same.
708 — — 278 — — Withstood; 1 of the stones subjected to freezing, after 20 freezings, split in half and crumbled; the others were not affected. Same.
931 — — 366 — — Withstood; 1 of the stones subjected to freezing, after 20 freezings, split in half and crumbled; the others were not affected. Same.
639 — — 356 847 — Withstood; 1 of the stones subjected to freezing, after 20 freezings, split in half and crumbled; the others were not affected. Same.
— — — — 447 — Withstood; 1 of the stones subjected to freezing, after 20 freezings, split in half and crumbled; the others were not affected. Same.
— — 349 138 — 25 Withstood. Siberian Railway, for construction of the 2nd track.
— — 578 228 464 — Withstood. Siberian Railway, for construction of the 2nd track.
582 — — 2?9 — — Withstood. Siberian Railway, for construction of the 2nd track.
443 — — 175 — — Withstood. Siberian Railway, for construction of the 2nd track.
425 — — 167 483 — Withstood. Siberian Railway, for construction of the 2nd track.
— — — — 477 — Withstood. Siberian Railway, for construction of the 2nd track.
Nos. in order Time of testing Name and location of the quarry Stone type Saturation by weight, % Weight of a cubic unit Cross-sectional area, cm²
73/39 1913 Quarry near the village of Plotnikova, opposite verst 136 of the Kolchugino Railway Feldspar-quartz sandstone. 5,53 2,41 31,4
73/39 1913 Quarry near the village of Plotnikova, opposite verst 136 of the Kolchugino Railway Feldspar-quartz sandstone. 9,19 2,35 30,3
73/39 1913 Quarry near the village of Plotnikova, opposite verst 136 of the Kolchugino Railway Feldspar-quartz sandstone. — — 32,5
73/39 1913 Quarry near the village of Plotnikova, opposite verst 136 of the Kolchugino Railway Feldspar-quartz sandstone. — — 23,0
74/84 1914 Koltsovsky. Same. 0,85 2,63 51,6
74/84 1914 Koltsovsky. Same. 1,40 2,56 51,0
74/84 1914 Koltsovsky. Same. — — 51,7
74/84 1914 Koltsovsky. Same. — — 50,1
74/84 1914 Koltsovsky. Same. — — 51,4
74/84 1914 Koltsovsky. Same. — — 53,1
75/64 1914 At picket No. 375 of the Achinsk-Minusinsk Railway Quartz-feldspar-limestone sandstone with iron ore. 1,29 2,54 38,8
75/64 1914 At picket No. 375 of the Achinsk-Minusinsk Railway Quartz-feldspar-limestone sandstone with iron ore. 1,38 2,54 39,4
75/64 1914 At picket No. 375 of the Achinsk-Minusinsk Railway Quartz-feldspar-limestone sandstone with iron ore. — — 38,4
75/64 1914 At picket No. 375 of the Achinsk-Minusinsk Railway Quartz-feldspar-limestone sandstone with iron ore. — — 39,8
75/64 1914 At picket No. 375 of the Achinsk-Minusinsk Railway Quartz-feldspar-limestone sandstone with iron ore. — — 40,4
75/64 1914 At picket No. 375 of the Achinsk-Minusinsk Railway Quartz-feldspar-limestone sandstone with iron ore. — — 39,5
76/61 1914 Chernyi Uyus. Quartz-feldspar-limestone sandstone. 0,82 2,59 52,2
76/61 1914 Chernyi Uyus. Quartz-feldspar-limestone sandstone. 0,91 2,58 54,8
76/61 1914 Chernyi Uyus. Quartz-feldspar-limestone sandstone. — — 52,3
76/61 1914 Chernyi Uyus. Quartz-feldspar-limestone sandstone. — — 55,4
76/61 1914 Chernyi Uyus. Quartz-feldspar-limestone sandstone. — — 53,6
76/61 1914 Chernyi Uyus. Quartz-feldspar-limestone sandstone. — — 54,4
77/219 1901 Tulunsky, near Tulun station of the Siberian Railway Feldspar-quartz-limestone sandstone. 7,28 2,17 40,6
77/219 1901 Tulunsky, near Tulun station of the Siberian Railway Feldspar-quartz-limestone sandstone. 6,60 2,15 43,9
77/219 1901 Tulunsky, near Tulun station of the Siberian Railway Feldspar-quartz-limestone sandstone. — — 40,9
77/219 1901 Tulunsky, near Tulun station of the Siberian Railway Feldspar-quartz-limestone sandstone. — — 41,1
78/114 1915 Soksensky, distant. Feldspar quartz sandstone. 0,96 2,52 48,4
78/114 1915 Soksensky, distant. Feldspar quartz sandstone. 0,82 2,56 47,8
78/114 1915 Soksensky, distant. Feldspar quartz sandstone. — — 50,4
78/114 1915 Soksensky, distant. Feldspar quartz sandstone. — — 50,6
78/114 1915 Soksensky, distant. Feldspar quartz sandstone. — — 50,7
78/114 1915 Soksensky, distant. Feldspar quartz sandstone. — — 50,0
79/114 1915 Soksensky, near. Quartz-calcite-pokewood-feldspar sandstone. 2,55 2,42 50,8
79/114 1915 Soksensky, near. Quartz-calcite-pokewood-feldspar sandstone. 2,74 2,48 49,4
79/114 1915 Soksensky, near. Quartz-calcite-pokewood-feldspar sandstone. — — 51,1
79/114 1915 Soksensky, near. Quartz-calcite-pokewood-feldspar sandstone. — — 48,2
79/114 1915 Soksensky, near. Quartz-calcite-pokewood-feldspar sandstone. — — 47,5
79/114 1915 Soksensky, near. Quartz-calcite-pokewood-feldspar sandstone. — — 45,0
80/147 1808 Nalobino quarry. Feldspar-quartz sandstone. 0,31 — —
80/147 1808 Nalobino quarry. Feldspar-quartz sandstone. 0,31 — —
80/147 1808 Nalobino quarry. Feldspar-quartz sandstone. — — —
80/147 1808 Nalobino quarry. Feldspar-quartz sandstone. — — —
Temporary resistance. In dry state, 13 kg/cm² Temporary resistance. In saturated state, kg/cm² Temporary resistance. After freezing, kg/cm² Temporary resistance. Likewise in poods (in.) Freezing tests. Average in kg/cm² Freezing tests. Number of freezings Freezing tests. Results By whom delivered; remarks
—
—
618
439
—
—
—
—
481
407
—
—
190
160
243
173
—
444
—
529
486
25
—
—
—
After 20 freezings it flakes on the surface. Siberian Railway, for construction of the 2nd track.
—
—
—
125
928
994
—
—
—
—
—
—
1133
910
893
—
—
—
446
359
352
496
365
391
—
—
969
—
—
1060
1019
25
—
—
—
—
—
Withstood. Achinsk–Minusinsk Railway.
—
—
—
931
1136
113
—
—
—
—
—
—
710
792
711
—
—
—
280
217
288
367
448
446
—
—
744
—
—
1067
906
25
—
—
—
—
—
Withstood. Same.
—
—
—
985
600
735
—
—
—
—
—
—
736
729
615
—
—
—
290
237
242
388
236
290
—
—
962
—
—
771
733
25
—
—
—
—
—
Withstood. Same.
—
—
385
477
—
—
—
—
628
670
—
—
247
225
152
194
—
599
—
467
508
25
—
—
—
Withstood. Siberian Railway.
—
—
715
648
—
—
816
73
—
—
—
—
—
—
—
—
645
610
213
226
282
256
254
240
—
595
—
682
—
628
761
25
—
—
—
—
—
Withstood. Achinsk–Minusinsk Railway.
—
—
740
849
—
—
737
717
—
—
—
—
—
—
—
—
480
607
290
283
292
335
181
230
—
723
—
795
—
544
638
25
—
—
—
—
—
Withstood. Siberian Railway.
—
—
1232
1510
—
—
—
—
960
1439
—
—
378
567
485
595
—
1200
—
1271
1288
25
—
—
—
Withstood. Siberian Railway, for reconstruction of mountain sections.
Nos. in order Time of test Name and location of quarry Kind of stone Saturation by weight, % Weight of cub. unit Area of cross-section, cm²
81
114
1915 Sosnovsky quarry. Quartz-calcite-feldspathic sandstone. 2.16
2.67
—
—
—
—
2.28
2.50
—
—
—
—
51.5
50.1
49.6
52.9
48.9
52.5
82
115
1915 B. Yus. Calcite-feldspathic-quartz sandstone. 4.42
1.77
—
—
—
—
2.22
2.48
—
—
—
—
53.6
56.4
56.4
56.8
57.0
55.5
83
33
1913 No. 1 not specified. Quartz-feldspathic gray sandstone. 0.8
—
—
—
—
—
0.52
—
—
—
—
—
50.0
49.0
49.8
49.5
50.1
49.2
84
122
1908 Babienka rapids. Marly sandstone. 3.46
5.75
—
—
—
—
—
—
49.2
49.0
50.2
47.6
85
63
1914 Picket No. 4.0, Achinsk–Minusinsk Railway. Quartz-calcite limestone sandstone. 0.71
0.73
—
—
—
—
2.65
2.68
—
—
—
—
38.1
37.8
37.5
38.1
38.7
38.4
86
65
1914 Picket No. 502 of the same road. Calcareous-limonitic quartz sandstone. 1.29
1.38
—
—
—
—
2.54
2.54
—
—
—
—
38.8
39.4
38.4
39.8
40.1
39.5
87
88
1914 Picket No. 244 of the same road. Calcareous quartz sandstone. 0.65
0.80
—
2.59
2.57
—
26.8
26.7
26.1
88
66
1914 Picket No. 599 of the same road. Same. 0.18
0.82
—
—
—
—
2.61
2.55
—
—
—
—
26.3
27.0
26.0
26.2
26.5
26.2
TEMPORARY RESISTANCE. In dry state, 13° kg/cm² In saturated state, kg/cm² After freezing, kg/cm² Same in poods (inches) FREEZING TESTS. Average, kg/cm² Number of freezings Results By whom delivered; remarks
— — — 317 — 25 Withstood. Same.
— — — 212 672 —
702 — — 277 — —
836 — — 329 789 —
— — 685 270 — —
— — 528 206 607 —
683
— — — 203 — 25 Withstood. Same.
— — — 302 641 —
520 — — 205 — —
413 — — 163 467 —
— — 483 190 — —
— — 691 272 588 —
578
1280 — — 504 — 25 Withstood. Kolchugino Railway: parallel to bedding; perpendicular to bedding; parallel to bedding; perpendicular to bedding; parallel to bedding; perpendicular to bedding.
1755 — — 691 1518 —
— — — 451 — —
— — — 550 1270 —
— — 795 707 — —
— — 330 721 1813 —
1533
— — 478 189 — 25 Withstood. Siberian Railway, for reconstruction of mountain sections.
— — 628 253 553 —
645 — — 254 — —
767 — — 302 706 —
630
— — 745 293 — 25 Withstood. Achinsk–Minusinsk Railway.
— — 1269 500 — —
— — 938 370 984 —
865 — — 341 — —
1241 — — 489 — —
1033 — — 407 1646 —
1015
— — 710 280 — 25 Withstood. Same.
— — 792 312 — —
— — 731 288 746 —
931 — — 367 — —
1136 — — 448 — —
1133 — — 446 1067 —
906
— — 766 302 — 25 Withstood. Same.
— — 855 337 — —
— — [[unclear: 6 1]] 237 718 —
718
— — 1167 237 — 25 After 10 freezings, crumbling begins. Same.
— — 880 326 — —
— — 1094 283 716 —
1078 — — 425 — —
1041 — — 410 — —
860 — — 339 993 —
855
No. in order Time of testing Name and location of the quarry Rock type Saturation by weight, % Weight of cub. unit Area of transverse section, cm²
89 / 77 1914 Shishino, 50 sazhens from the Kolchugino railway line, 4 versts from Shishino station. Calcareous-quartz sandstone. 5,30 2,61 45,0
89 / 77 1914 Shishino, 50 sazhens from the Kolchugino railway line, 4 versts from Shishino station. Calcareous-quartz sandstone. 7,70 2,55 44,6
89 / 77 1914 Shishino, 50 sazhens from the Kolchugino railway line, 4 versts from Shishino station. Calcareous-quartz sandstone. — — 46,2
89 / 77 1914 Shishino, 50 sazhens from the Kolchugino railway line, 4 versts from Shishino station. Calcareous-quartz sandstone. — — 44,5
89 / 77 1914 Shishino, 50 sazhens from the Kolchugino railway line, 4 versts from Shishino station. Calcareous-quartz sandstone. — — 45,6
89 / 77 1914 Shishino, 50 sazhens from the Kolchugino railway line, 4 versts from Shishino station. Calcareous-quartz sandstone. — — 41,2
90 / 93 1914 Shishino, on the same road. Quartz-calcareous clayey yellow sandstone. 0,21 2,85 43,2
90 / 93 1914 Shishino, on the same road. Quartz-calcareous clayey yellow sandstone. 0,37 2,63 45,6
90 / 93 1914 Shishino, on the same road. Quartz-calcareous clayey yellow sandstone. — — 42,6
90 / 93 1914 Shishino, on the same road. Quartz-calcareous clayey yellow sandstone. — — 43,4
90 / 93 1914 Shishino, on the same road. Quartz-calcareous clayey yellow sandstone. — — 42,4
90 / 93 1914 Shishino, on the same road. Quartz-calcareous clayey yellow sandstone. — — 40,9
91 / 76 1914 Shirokii Log, by the village of Simonozoi, 2 versts downstream along the Kamenka River. Clayey-calcareous sandstone. 0,59 2,65 37,3
91 / 76 1914 Shirokii Log, by the village of Simonozoi, 2 versts downstream along the Kamenka River. Clayey-calcareous sandstone. 0,21 2,68 38,9
91 / 76 1914 Shirokii Log, by the village of Simonozoi, 2 versts downstream along the Kamenka River. Clayey-calcareous sandstone. — — 36,0
91 / 76 1914 Shirokii Log, by the village of Simonozoi, 2 versts downstream along the Kamenka River. Clayey-calcareous sandstone. — — 45,1
91 / 76 1914 Shirokii Log, by the village of Simonozoi, 2 versts downstream along the Kamenka River. Clayey-calcareous sandstone. — — 44,5
91 / 76 1914 Shirokii Log, by the village of Simonozoi, 2 versts downstream along the Kamenka River. Clayey-calcareous sandstone. — — 46,7
92 / 202 1908 Gogolevskaya Mountain. Calcareous-quartz sandstone. 2,01 2,47 47,4
92 / 202 1908 Gogolevskaya Mountain. Calcareous-quartz sandstone. 1,65 2,49 41,5
92 / 202 1908 Gogolevskaya Mountain. Calcareous-quartz sandstone. — — 50,4
92 / 202 1908 Gogolevskaya Mountain. Calcareous-quartz sandstone. — — 50,3
92 / 202 1908 Gogolevskaya Mountain. Calcareous-quartz sandstone. — — 40,5
92 / 202 1908 Gogolevskaya Mountain. Calcareous-quartz sandstone. — — 43,5
93 / 199 1908 Tulun, near Tulun station of the Siberian Railway. Same. 7,80 2,26 49,6
93 / 199 1908 Tulun, near Tulun station of the Siberian Railway. Same. 10,0 2,55 49,0
93 / 199 1908 Tulun, near Tulun station of the Siberian Railway. Same. — — 49,7
93 / 199 1908 Tulun, near Tulun station of the Siberian Railway. Same. — — 49,5
93 / 199 1908 Tulun, near Tulun station of the Siberian Railway. Same. — — 48,3
93 / 199 1908 Tulun, near Tulun station of the Siberian Railway. Same. — — 48,7
94 / 178 1908 Rapid No. 6, 18 versts from Tulun station, Siberian Railway. Same. 6,10 2,26 49,6
94 / 178 1908 Rapid No. 6, 18 versts from Tulun station, Siberian Railway. Same. 5,10 2,24 49,0
94 / 178 1908 Rapid No. 6, 18 versts from Tulun station, Siberian Railway. Same. — — —
94 / 178 1908 Rapid No. 6, 18 versts from Tulun station, Siberian Railway. Same. — — —
95 / 48 1906 Rapid No. 7 on the Iya River, 18 versts from Tulun station, Siberian Railway. Calcareous sandstone, light gray. 5,30 — 49,8
95 / 48 1906 Rapid No. 7 on the Iya River, 18 versts from Tulun station, Siberian Railway. Calcareous sandstone, light gray. 7,70 — 48,5
95 / 48 1906 Rapid No. 7 on the Iya River, 18 versts from Tulun station, Siberian Railway. Calcareous sandstone, light gray. — — 44,7
95 / 48 1906 Rapid No. 7 on the Iya River, 18 versts from Tulun station, Siberian Railway. Calcareous sandstone, light gray. — — 47,2
95 / 48 1906 Rapid No. 7 on the Iya River, 18 versts from Tulun station, Siberian Railway. Calcareous sandstone, light gray. — — 47,1
96 / 127 1908 Utai Kurgan in the area of the town of N. Udinsk. Same, brown-yellow. 3,50 2,39 51,2
96 / 127 1908 Utai Kurgan in the area of the town of N. Udinsk. Same, brown-yellow. 1,80 2,45 51,7
96 / 127 1908 Utai Kurgan in the area of the town of N. Udinsk. Same, brown-yellow. — — 48,3
96 / 127 1908 Utai Kurgan in the area of the town of N. Udinsk. Same, brown-yellow. — — 48,4
TEMPORARY RESISTANCE. In dry condition, over 13 kg/cm² TEMPORARY RESISTANCE. In saturated condition, kg/cm² TEMPORARY RESISTANCE. After freezing, kg/cm² TEMPORARY RESISTANCE. The same in poods (double) FREEZING TESTS. Average, kg/cm² FREEZING TESTS. Number of freezings FREEZING TESTS. Results By whom supplied; remarks
— — 1167 460 — 25 Withstood. Kolchugino Railway.
— — 880 347 — —
— — 1094 431 1047 —
1062 — — 416 — —
1330 — — 544 — —
910 — — 362 1121 —
1084
— — 1236 487 — 25 Withstood. Ditto. In the third stone a crack appeared.
— — 1022 409 — —
— — — — 1269 —
783 — — 308 — —
755 — — 298 — —
1081 — — 426 873 —
977
— — 1081 426 — 25 Withstood. Kolchugino Railway.
— — 1088 429 — —
— — 736 290 982 —
561 — — 221 — —
511 — — 204 — —
403 — — 161 495 —
739
— — 936 368 — 25 Withstood. Siberian Railway, for the reconstruction of the mountain sections.
— — 1014 397 873 —
— 663 — 261 — —
— 598 — 235 631 —
858 — — 338 — —
920 — — 362 — —
814
— 719 — 283 — 25 Withstood. Ditto.
— 506 — 199 612 —
553 — — 218 — —
618 — — 244 586 —
— — 636 250 — —
— — 595 234 616 —
605
— — 811 320 — 25 Withstood. Ditto.
— — 738 291 775 —
728 — — 287 — —
797 — — 314 763 —
769
— — 349 138 — 25 Withstood. Ditto, for the construction of the 2nd track.
— — 578 228 464 —
582 — — 229 — —
443 — — 175 — —
425 — — 167 463 —
464
— — 506 199 — 6 After 6 freezings, crumbling. Ditto, for reconstruction in the mountain sections.
— — 341 180 424 —
847 — — 118 — —
767 — — 167 362 —
393
Nos. in order Time of testing Name and location of the quarry Kind of stone Saturation by weight, % Weight of cubic unit Area of cross-section, cm²
97
142
1908 Sheberta in the area of the town of N. Udinsk. Same, brownish-gray. 1,19
4,07
—
—
2,55
2,25
—
—
47,7
50,8
49,7
49,1
98
142
1908 Kurgan. Same, grayish-yellow. 3,73
2,33
—
—
2,31
2,42
—
—
48,6
50,8
47,2
49,1
99
155
1908 Porog. Same, light gray. 0,80
1,42
—
—
2,97
2,87
—
—
46,8
46,1
47,9
47,8
100
165
1908 Utai, 2 versts from the Utai siding of the Siberian Railway, to the right of the line. Calcareous sandstone, light brown. 4,33
4,66
—
—
2,20
2,60
—
—
42,8
50,1
44,9
48,3
101
126
1908 Along the Rybnaia River near the village of Rybnoe. Calcareous-clayey sandstone, light greenish-gray. 0,82
0,81
—
—
—
—
2,72
2,52
—
—
—
—
25,1
26,1
27,3
27,3
26,7
27,4
102
184
1908 Tiiskii at the 2368th verst of the Siberian Railway. Quartz-clayey sandstone, light brown. 5,75
5,00
—
—
—
—
2,21
—
—
—
—
—
57,8
54,9
54,4
57,8
58,2
56,3
103
100
1914 At the zaimka of the Kon’evskii elder. Calcareous-quartz sandstone. 2,40
2,50
—
—
—
—
2,39
2,36
—
—
—
—
58,5
58,8
54,1
57,7
57,8
58,1
104
128
1908 Tulunskii in the district of N. Udinsk. Calcareous sandstone, light gray. 4,14
3,65
—
—
—
—
—
—
51,6
50,6
50,7
53,5
105
64
1914 Sopka by the Belyi Ukos River. Quartz-limonite clayey. 0,69
0,81
—
—
—
—
2,69
2,61
—
—
—
—
53,0
51,4
50,6
51,8
52,2
52,1
TEMPORARY RESISTANCE In dry state, kg/cm² In saturated state, kg/cm² After freezing, kg/cm² Same, in poods (inches) FREEZING TESTS Average, kg/cm² Number of freezings Results By whom remarks were supplied
— — 896 353 — 23 Withstood. Ditto.
— — 430 169 663 — Withstood. Ditto.
724 — — 285 — — Withstood. Ditto.
891 — — 351 808 — Withstood. Ditto.
— — — — 735 — Withstood. Ditto.
— — 520 205 — — — Ditto.
— — 468 184 494 — — Ditto.
547 — — 215 — — — Ditto.
387 — — 152 467 — — Ditto.
— — — — 481 — — Ditto.
— — 1065 420 — 25 Withstood. Ditto.
— — 1277 503 1171 — Withstood. Ditto.
1274 — — 505 — — Withstood. Ditto.
1088 — — 427 1180 — Withstood. Ditto.
— — — — 1175 — Withstood. Ditto.
— — 493 194 — 10 After 7 freezings the corners crumbled. Ditto.
— — 565 222 529 — After 7 freezings the corners crumbled. Ditto.
613 — — 241 — — After 7 freezings the corners crumbled. Ditto.
585 — — 231 599 — After 7 freezings the corners crumbled. Ditto.
— — — — 564 — After 7 freezings the corners crumbled. Ditto.
— — 789 311 — 25 Withstood. Likewise, scratching along the layer; perpendicular to the layer.
— — 1198 472 994 — Withstood. Likewise, scratching along the layer; perpendicular to the layer.
1354 — — 533 — — Withstood. Likewise, scratching along the layer; perpendicular to the layer.
1421 — — 560 — — Withstood. Likewise, scratching along the layer; perpendicular to the layer.
1261 — — 496 — — Withstood. Likewise, scratching along the layer; perpendicular to the layer.
1022 — — 402 1265 — Withstood. Likewise, parallel to the layer.
— — — — 1178 — Withstood. Likewise, parallel to the layer.
— — 528 208 — 25 Withstood. —
— — 606 288 567 — Withstood. —
— 19 — 204 — — Withstood. —
— 381 — 150 450 — Withstood. —
807 — — 318 — — Withstood. —
818 — — 322 820 — Withstood. —
— — — — 612 — Withstood. —
— — 570 225 — 25 Withstood. Achinsk–Minusinsk Railway.
— — 496 195 — — Withstood. Achinsk–Minusinsk Railway.
— — 435 171 500 — Withstood. Achinsk–Minusinsk Railway.
648 — — 252 — — Withstood. Achinsk–Minusinsk Railway.
926 — — 365 — — Withstood. Achinsk–Minusinsk Railway.
760 — — 299 776 — Withstood. Achinsk–Minusinsk Railway.
— — — — 638 — Withstood. Achinsk–Minusinsk Railway.
— — 562 221 — — — Siberian Railway, for the reconstruction of mountain sections.
— — 504 199 525 — — Siberian Railway, for the reconstruction of mountain sections.
579 — — 228 — — — Siberian Railway, for the reconstruction of mountain sections.
532 — — 210 556 — — Siberian Railway, for the reconstruction of mountain sections.
— — — — 540 — — Siberian Railway, for the reconstruction of mountain sections.
— — 843 348 — 25 Withstood. Achinsk–Minusinsk Railway.
— — 984 388 — — Withstood. Achinsk–Minusinsk Railway.
— — 1225 483 1017 — Withstood. Achinsk–Minusinsk Railway.
922 — — 363 — — Withstood. Achinsk–Minusinsk Railway.
1245 — — 491 — — Withstood. Achinsk–Minusinsk Railway.
1248 — — 492 1138 — Withstood. Achinsk–Minusinsk Railway.
— — — — 1078 — Withstood. Achinsk–Minusinsk Railway.
Nos. in order Time of test Name and location of the quarry Stone type Saturation by weight, % Weight of a cubic unit Cross-sectional area, cm²
106
72
1914 Chashi, along the course of the Kamenka River, 4½ versts from the Kolchugino railway line, near the village of Chashi. Same. 0,58
0,20
—
—
—
2,97
2,67
—
—
—
51,1
47,3
51,5
50,1
49,7
107
202
1908 Rapid on the Ie River, 18 versts from Tulun station of the Siberian Railway. Quartz-clayey sandstone. 10,60
10,66
—
—
—
—
2,01
2,01
—
—
—
—
52,3
49,4
46,5
49,8
51,1
51,7
108
66
1914 Picket No. 611, Achinsk–Minusinsk Railway. Quartz sandstone. 1,74
1,60
—
—
—
—
2,54
2,58
—
—
—
—
37,0
37,2
38,1
37,9
38,1
38,9
109
16
1907 Nikolsky, along the Nikolsky brook, 35 versts from the line, 2495 versts of the Siberian Railway. Same. 2,26
2,39
—
—
—
2,34
—
—
—
—
36,8
43,2
—
39,8
38,4
110
14
1907 Taldy 2nd, at the confluence of the Taldago brook into the Ilokhovaya River, 3 versts from the line of the Siberian Railway, 2490 versts. Same. 1,45
1,41
—
—
—
2,40
2,47
—
—
—
48,7
48,4
49,1
50,8
—
111
15
1907 Taldy 1st, likewise 3½ from the line, 2489 versts. Same. 1,14
1,02
—
—
—
2,49
2,49
—
—
—
48,2
48,4
48,8
44,8
—
112
206
1906 Ukhvatsky picket No. 100, near Taishet station. Same. 1,01
1,15
—
—
2,50
2,50
—
—
37,8
38,3
37,8
36,4
113
124
1908 Kharlovsky. Light-gray quartzite. 1,06
0,86
—
—
2,60
—
—
—
32,5
27,0
26,5
26,4
TEMPORARY RESISTANCE
In dry state, kg/cm²
TEMPORARY RESISTANCE
In saturated state, kg/cm²
TEMPORARY RESISTANCE
After freezing, kg/cm²
TEMPORARY RESISTANCE
Same in poods (inch)
FREEZING TESTS
Average, kg/cm²
FREEZING TESTS
Number of freezings
FREEZING TESTS
Results
By whom supplied — remarks
— — 919 362 — 25 After 12 freezings, crumbling of the corners is observed. Kolchugino Railway.
— — 1333 525 — — After 12 freezings, crumbling of the corners is observed. Kolchugino Railway.
— — 1243 490 1165 — After 12 freezings, crumbling of the corners is observed. Kolchugino Railway.
1278 — — 504 — — After 12 freezings, crumbling of the corners is observed. Kolchugino Railway.
1064 — — 42 1182 — After 12 freezings, crumbling of the corners is observed. Kolchugino Railway.
— — — — 1172 — After 12 freezings, crumbling of the corners is observed. Kolchugino Railway.
— 187 187 74 — — — Siberian Railway, for reconstruction of mountain sections.
— 322 — 127 255 — — Siberian Railway, for reconstruction of mountain sections.
428 — — 168 — — — Siberian Railway, for reconstruction of mountain sections.
436 — — 171 432 — — Siberian Railway, for reconstruction of mountain sections.
— — 248 98 — — — Siberian Railway, for reconstruction of mountain sections.
— — 468 183 367 — — Siberian Railway, for reconstruction of mountain sections.
— — — — 345 — — Siberian Railway, for reconstruction of mountain sections.
— — 534 210 — 25 After 6 freezings, crumbling began. Achinsk–Minusinsk Railway.
— — 575 227 — — After 6 freezings, crumbling began. Achinsk–Minusinsk Railway.
— — 635 250 561 — After 6 freezings, crumbling began. Achinsk–Minusinsk Railway.
764 — — 301 — — After 6 freezings, crumbling began. Achinsk–Minusinsk Railway.
663 — — 261 — — After 6 freezings, crumbling began. Achinsk–Minusinsk Railway.
75 — — 298 728 — After 6 freezings, crumbling began. Achinsk–Minusinsk Railway.
— — — — 655 — After 6 freezings, crumbling began. Achinsk–Minusinsk Railway.
— — 394 155 — — — Siberian, for reconstruction of the 2nd Track.
— — 390 154 392 — — Siberian, for reconstruction of the 2nd Track.
448 — — 192 — — — Siberian, for reconstruction of the 2nd Track.
552 — — 217 — — — Siberian, for reconstruction of the 2nd Track.
394 — — 155 465 — — Siberian, for reconstruction of the 2nd Track.
— — — — 436 — — Siberian, for reconstruction of the 2nd Track.
— — 1230 485 — — — Same.
— — 1000 394 1135 — — Same.
1360 — — 536 — — — Same.
1550 — — 611 — — — Same.
1410 — — 556 1440 — — Same.
— — — — 1310 — — Same.
— — 1160 457 — — — Same.
— — 1240 489 1200 — — Same.
1490 — — 587 — — — Same.
1690 — — 666 — — — Same.
1220 — — 481 1467 — — Same.
— — — — 1360 — — Same.
— — 1769 704 — 25 After 20 freezings, crumbling of the corners is observed. Same.
— — 1931 771 1865 — After 20 freezings, crumbling of the corners is observed. Same.
1952 — — 771 — — After 20 freezings, crumbling of the corners is observed. Same.
2063 — — 813 2010 — After 20 freezings, crumbling of the corners is observed. Same.
— — — — 1938 — After 20 freezings, crumbling of the corners is observed. Same.
— — 1973 778 — 25 Withstood. Same, for reconstruction of mountain sections.
— — 2105 830 2039 — Withstood. Same, for reconstruction of mountain sections.
1715 — — 676 — — Withstood. Same, for reconstruction of mountain sections.
1725 — — 679 1719 — Withstood. Same, for reconstruction of mountain sections.
— — — — 1879 — Withstood. Same, for reconstruction of mountain sections.
No. in order Time of tests Name and location of the quarry Stone type Saturation by weight, % Weight of cubic unit Area of transverse section, cm²
114 1908 Nikolsky. Quartz sandstone. 1.42 — 49.3
118 1908 Nikolsky. Quartz sandstone. 1.82 — —
118 1908 Nikolsky. Quartz sandstone. — — 50.7
118 1908 Nikolsky. Quartz sandstone. — — 41.8
115 1908 Koleso at the 2857th verst of the Siberian Railway, 3 versts from the line. Quartz sandstone, ochre-yellow. 4.99 2.33 48.0
159 1908 Koleso at the 2857th verst of the Siberian Railway, 3 versts from the line. Quartz sandstone, ochre-yellow. 2.25 2.33 49.8
159 1908 Koleso at the 2857th verst of the Siberian Railway, 3 versts from the line. Quartz sandstone, ochre-yellow. — — 49.2
159 1908 Koleso at the 2857th verst of the Siberian Railway, 3 versts from the line. Quartz sandstone, ochre-yellow. — — 49.3
116 1909 Not indicated, near the line of the Siberian Railway. Sandstone. — — 98.0
234 1909 Not indicated, near the line of the Siberian Railway. Sandstone. — — 97.5
234 1909 Not indicated, near the line of the Siberian Railway. Sandstone. — — 100.0
234 1909 Not indicated, near the line of the Siberian Railway. Sandstone. — — 96.0
234 1909 Not indicated, near the line of the Siberian Railway. Sandstone. — — —
117 1913 Nazarovsky. Quartz-feldspar conglomerate. 0.78 2.58 56.4
49 1913 Nazarovsky. Quartz-feldspar conglomerate. 0.57 2.61 55.5
49 1913 Nazarovsky. Quartz-feldspar conglomerate. — — 54.0
49 1913 Nazarovsky. Quartz-feldspar conglomerate. — — 55.9
49 1913 Nazarovsky. Quartz-feldspar conglomerate. — — 40.9
49 1913 Nazarovsky. Quartz-feldspar conglomerate. — — 41.2
118 1914 Building stone No. 3. Limestone-quartz conglomerate. 0.41 2.73 37.0
79 1914 Building stone No. 3. Limestone-quartz conglomerate. 0.59 2.61 36.4
79 1914 Building stone No. 3. Limestone-quartz conglomerate. — — 37.8
79 1914 Building stone No. 3. Limestone-quartz conglomerate. — — 33.7
79 1914 Building stone No. 3. Limestone-quartz conglomerate. — — 37.1
79 1914 Building stone No. 3. Limestone-quartz conglomerate. — — 38.0
119 1918 Ozerkovsky, on the South Siberian Railway, up the Irtysh from the town of Semipalatinsk, 13 versts. Granite-diorite. 0.63 2.68 44.3
265 1918 Ozerkovsky, on the South Siberian Railway, up the Irtysh from the town of Semipalatinsk, 13 versts. Granite-diorite. 0.48 2.67 47.0
265 1918 Ozerkovsky, on the South Siberian Railway, up the Irtysh from the town of Semipalatinsk, 13 versts. Granite-diorite. 0.69 2.69 47.6
265 1918 Ozerkovsky, on the South Siberian Railway, up the Irtysh from the town of Semipalatinsk, 13 versts. Granite-diorite. — — 44.7
265 1918 Ozerkovsky, on the South Siberian Railway, up the Irtysh from the town of Semipalatinsk, 13 versts. Granite-diorite. — — 47.6
265 1918 Ozerkovsky, on the South Siberian Railway, up the Irtysh from the town of Semipalatinsk, 13 versts. Granite-diorite. — — 46.7
265 1918 Ozerkovsky, on the South Siberian Railway, up the Irtysh from the town of Semipalatinsk, 13 versts. Granite-diorite. — — 47.2
265 1918 Ozerkovsky, on the South Siberian Railway, up the Irtysh from the town of Semipalatinsk, 13 versts. Granite-diorite. — — 47.0
120 1918 Dozonsky, also 80 versts down the Irtysh River from the town of Semipalatinsk. Biotite granite. 0.43 2.59 32.4
265 1918 Dozonsky, also 80 versts down the Irtysh River from the town of Semipalatinsk. Biotite granite. 0.44 2.60 35.4
265 1918 Dozonsky, also 80 versts down the Irtysh River from the town of Semipalatinsk. Biotite granite. 0.44 2.63 34.7
265 1918 Dozonsky, also 80 versts down the Irtysh River from the town of Semipalatinsk. Biotite granite. — — 35.5
265 1918 Dozonsky, also 80 versts down the Irtysh River from the town of Semipalatinsk. Biotite granite. — — 36.5
265 1918 Dozonsky, also 80 versts down the Irtysh River from the town of Semipalatinsk. Biotite granite. — — 32.8
265 1918 Dozonsky, also 80 versts down the Irtysh River from the town of Semipalatinsk. Biotite granite. — — 33.7
265 1918 Dozonsky, also 80 versts down the Irtysh River from the town of Semipalatinsk. Biotite granite. — — 35.5
265 1918 Dozonsky, also 80 versts down the Irtysh River from the town of Semipalatinsk. Biotite granite. — — 34.4
Temporary resistance: in dry state, 13 kg/cm² Temporary resistance: in saturated state, kg/cm² Temporary resistance: after freezing, kg/cm² Temporary resistance: same in poods (breaking) Freezing tests: average, kg/cm² Freezing tests: number of freezings Results Delivered by; remarks
— — 403 159 — — — Same, perpendicular to the bedding; parallel to the bedding.
— — 985 362 694 —
844 — — 333 — —
847 — — 338 846 —
770
— — 653 257 — — — —
— — 899 354 776 —
866 — — 341 — —
625 — — 246 746 —
761
714 — — 281 — — Not subjected. Same.
615 — — 242 — —
490 — — 193 606 —
— 700 — 279 — —
— 607 — 239 654 —
625
— — 596 235 — 25 Withstood. Achinsk–Minusinsk Ry.
— — 514 202 — —
— — 574 226 561 —
456 — — 181 — —
494 — — 234 — —
333 — — 131 429 —
455
— — 503 1980 — 25 Withstood. Same.
— — 632 2490 — —
— — 529 2080 556 —
871 — — 3430 — —
488 — — 3100 — —
964 — — 3800 874 —
735
— 503 — 2356 — 25 Withstood. Society of the South-Siberian Railway.
— 632 — 2560 — —
— 529 — 2052 5896 —
— — 910 3580 — —
— — 836 3290 — —
— — 946 3725 8973 —
— — — 2530 — —
642 — — 4078 8875 —
1035 — — — 7744 —
— 1170 — 4660 — 25 Withstood. Same.
— 1440 — 5674 — —
— 1420 — 5595 13433 —
— — 1580 6225 — —
— — 918 3617 — —
— — 1890 7447 1462 —
1630 — — 6422 — —
1250 — — 4925 — —
1280 — — 5043 1420 —
14027
No. by order Time of testing Name and location of the quarry Stone type Saturation by weight, % Unit weight Cross-sectional area, cm²
121
128
1918 Mouth of the Kalmanchi, 65 versts east of Alei station, Altai Railway. Biotite granite. 0,72
0,75
0,70
—
—
—
—
—
—
2,61
2,61
2,60
—
—
—
—
—
—
31,7
31,4
31,2
30,8
31,2
30,8
31,2
30,7
31,0
122
265
1918 Kara-Sor. Same. Quartzite-like sandstone. 2,37
0,83
—
—
—
—
—
—
2,45
2,75
2,26
—
—
—
—
—
313
266
309
305
268
260
237
314
123
265
1918 Quarry No. 36 near Ekibastuz station. Leucocratic biotite granite. 0,60
0,58
—
—
—
2,58
2,60
—
—
—
31,7
32,0
31,8
30,2
31,7
124
265
1918 Quarry No. 37. Same. Aplite-like biotite granite. 0,55
0,47
—
2,69
2,63
—
35,8
32,7
30,4
125
269
1918 Quarry No. 67 Gornovsky, 45 versts from Belaya Rechka station, east of the Altai Railway line. Fine-grained biotite diorite. 0,39
0,35
—
—
—
—
—
2,54
2,75
—
—
—
—
—
34,2
36,0
36,0
35,5
35,4
34,2
—
126
269
1918 Quarry No. 68. Same. Fine-grained biotite diorite. 0,54
0,59
—
—
—
—
—
—
—
2,72
2,65
—
—
—
—
—
—
—
34,2
33,9
33,9
33,6
35,4
33,9
27,0
20,9
33,4
127
128
1918 No. 56.
No. 57.
Semipalatinsk, on the bank of the Irtysh River.
Fine-grained. —
—
—
—
—
—
—
—
—
—
—
TEMPORARY RESISTANCE, kg/cm²: in dry state TEMPORARY RESISTANCE, kg/cm²: in saturated state TEMPORARY RESISTANCE, kg/cm²: after freezing TEMPORARY RESISTANCE, same in poods (in²) FREEZING TESTS: average in kg/cm² FREEZING TESTS: number of freezings Results By whom remarks were submitted
— 1025 — 3999 — — Withstood. Same.
— 160 — 4570 — — Withstood. Same.
— 708 — 7860 9643 — Withstood. Same.
— — 1005 3990 — — Withstood. Same.
— — 716 2782 — — Withstood. Same.
— — 916 3609 8756 — Withstood. Same.
— — — 4117 — — Withstood. Same.
852 — — 3978 — — Withstood. Same.
1140 — — 4492 10966 — Withstood. Same.
— — — — 9768 — Withstood. Same.
— 927 — 3652 — 25 Withstood. Same.
— 2050 — 8077 — — Withstood. Same.
— 808 — 3184 12608 — Withstood. Same.
— — 404 1592 — — Withstood. Same.
— — 1385 5457 — — Withstood. Same.
— — 1325 5221 10330 — Withstood. Same.
916 — — 3609 — — Withstood. Same.
1395 — — 5496 11555 — Withstood. Same.
— — — — 11498 — Withstood. Same.
— 1100 — 4334 — 25 Withstood. On the Southern Siberian Railway.
— 1095 — 4314 10975 — Withstood. On the Southern Siberian Railway.
— — 1275 5024 — — Withstood. On the Southern Siberian Railway.
— — 1235 4866 12550 — Withstood. On the Southern Siberian Railway.
990 — — 3901 9800 — Withstood. On the Southern Siberian Railway.
— — — — 11142 — Withstood. On the Southern Siberian Railway.
— — 1280 5043 — 25 Withstood. Same.
— — 1635 6442 14575 — Withstood. Same.
1020 — — 4019 1020 — Withstood. Same.
— — — — 12380 — Withstood. Same.
— 6072 — 6809 — 25 Withstood. Same.
— 1777 — 6999 — — Withstood. Same.
— 1777 — 6999 17203 — Withstood. Same.
— — 18060 7120 — — Withstood. Same.
— — 18080 7120 1080 — Withstood. Same.
1700 — — 680 — — Withstood. Same.
1700 — — 680 1700 — Withstood. Same.
— — — — 17428 — Withstood. Same.
— 1408 140 5614 — 25 Withstood. Same.
— 1529 — 6022 — — Withstood. Same.
— 1591 — 6266 15093 — Withstood. Same.
— — 1371 5183 — — Withstood. Same.
— — 1529 6022 — — Withstood. Same.
— — 1273 50?3 13910 — Withstood. Same.
1800 — — 7039 — — Withstood. Same.
1999 — — 7859 — — Withstood. Same.
1587 — — 6250 17940 — Withstood. Same.
— — — — 15848 — Withstood. Same.
— — — — — — Withstood. Same. Tests were not carried out, since the stone did not withstand processing under the saw.

TABLE B.

No. Rock Specific weight Temporary resistance Weathering
A. Intrusive.
21 Trap 2,77 2116 puds/cm² withstood
125 Biotite diorite 2,61 1743 puds/cm² ditto
126 Same 2,69 1564 puds/cm² ditto
22 Fine-grained granite 2,54 1550 puds/cm² ditto
9 Biotite-hornblende granite 2,80 1457 puds/cm² ditto
31 Siberian trap 2,95 1428 puds/cm² ditto
30 Same 2,94 1373 puds/cm² ditto
10 Ob granite — 1355 puds/cm² ditto
32 Siberian trap 2,97 1319 puds/cm² ditto
11 Diabase 2,98 1305 puds/cm² ditto
13 Granodiorite 2,58 1284 puds/cm² ditto
33 Siberian trap 2,95 1269 puds/cm² ditto
1 Hornblende granite 2,69 1248 puds/cm² ditto
124 Aplite-biotite granite 2,61 1288 puds/cm² did not withstand
6 Biotite granite 2,59 1190 puds/cm² withstood
24 Gneiss-like aplite 2,62 1155 puds/cm² ditto
8 Hornblende granite 2,58 1148 puds/cm² ditto
123 Biotite granite 2,59 1114 puds/cm² ditto
7 Same 2,57 1045 puds/cm² ditto
25 Slesarite 2,79 1105 puds/cm² did not withstand
27 Aplite 2,63 1018 puds/cm² withstood
4 Normal granite 2,55 999 puds/cm² ditto
17 Granodiorite 2,59 965 puds/cm² ditto
3 Normal granite 2,56 955 puds/cm² ditto
19 Granodiorite 2,53 895 puds/cm² ditto
16 Same 2,63 876 puds/cm² ditto
12 Syenite 2,50 837 puds/cm² ditto
13 Hornblende aplite 2,68 805 puds/cm² did not withstand
28 Siberian trap — 740 puds/cm² withstood
26 Gneiss-like aplite 2,61 733 puds/cm² ditto
20 Siberian trap — 718 puds/cm² ditto
2 Normal granite 2,65 631 puds/cm² did not withstand
14 Pyroxene syenite 2,71 638 puds/cm² ditto
5 Normal granite 2,65 562 puds/cm² ditto
15 Granodiorite 2,62 376 puds/cm² ditto
B. Effusive.
37 Monzonite porphyrite 2,93 1240 puds/cm² withstood
34 Granite-porphyry 2,60 1172 puds/cm² ditto
36 Augite porphyry 2,52 1067 puds/cm² ditto
35 Same 2,82 811 puds/cm² ditto
39 Diabase porphyrites 2,77 727 puds/cm² ditto
38 Monzonite porphyrite 2,60 497 puds/cm² ditto
C. Metamorphic.
40 Plagioclase basalt 2,86 1275 puds/cm² withstood
41 Felsite porphyry 2,69 470 puds/cm² did not withstand
43 Compressed quartz-biotite diorite 2,61 1031 puds/cm² withstood

Map for Professor Bobarykov’s article:

“Materials on the testing of building stones of Western Siberia.”

Scale: 1 English inch = 40 versts.

Legend:

○ — deep-seated rock.
● — effusive rock.
△ — limestone.
▼ — sandstone.
* — conglomerates.

Diagram No. 1.

Diagram No. 2.

Diagram No. 3.

Diagram No. 4.

Visible map labels include: Mariinsk, Bogotol, Achinsk, Krasnoyarsk, Kuznetsk, Minusinsk.

Visible river and locality labels include, among others: r. Tom, r. Chulym, r. Uryup, r. Kemchug, r. Yenisei, r. Abakan, r. Tuba, r. Uba, r. Biryusa, r. Kan, r. Kiya, r. Kondoma, r. Mrassu, r. Belyi Iyus, r. Chernyi Iyus, Lake Shira, Lake Bele, Lake Itkul, Lake Chany, Lake Ubinskoe.

Diagram axis labels visible on the page:

  • kg per sq. cm
  • Temporary resistance
  • Specific gravity

Point labels visible on diagrams: A, B, C, D.

  1. The final determinations were made by Professors V. A. Obruchev, P. P. Gudkov, and Assoc. Prof. B. L. Stepanov. ↩

  2. For example: Data of the Mechanical Laboratory of the Central Siberian Railway, 1896; summaries of data of the Mechanical Laboratory of the Ministry of Ways of Communication, 1886–1896; Study of stone materials in the Warsaw District of Ways of Communication, 1906, etc. ↩

Submission history

Materials on the Testing of Building Stones of Western Siberia: Based on Data from the Mechanical Laboratory of the Tomsk Technological Institute