Showing posts with label Gems Stone And Precious Stone. Show all posts
Showing posts with label Gems Stone And Precious Stone. Show all posts

Thursday, November 22, 2018

The Origin Of Precious Stone

Though the origin, formation, composition, characteristics and tests of each stone will be examined in detail when dealing with the stones seriatim, it is necessary to enquire into those particulars of origin which are common to all, in order thoroughly to understand why they differ from other non-metallic and metallic minerals.

At the very commencement we are faced with a subject on which mineralogists and geologists are by no means in full agreement, and there seems just ground for considerable divergence of opinion, according to the line of argument taken. It is a most remarkable fact that, precious as are certain stones, they do not (with a few exceptions) contain any of the rarer metals, such as platinum, gold, etc., or any of their compounds, but are composed entirely of the common elements and their derivatives, especially of those elements contained in the upper crust of the earth, and this notwithstanding the fact that gems are often found deep down in the earth.

This is very significant, and points to the conclusion that these stones were formed by the slow percolation of water from the surface through the deeper parts of the earth, carrying with it, in solution or suspension, the chemical constituents of the earth's upper crust; time and long-continued pressure, combined with heat or cold, or perhaps both in turn, doing the rest, as already mentioned.
The moisture falling in dew and rain becomes acidulated with carbonic acid, CO2 (carbon dioxide), from the combustion and decay of organic matter, vegetation, and other sources, and this moisture is capable of dissolving certain calcareous substances, which it takes deep into the earth, till the time comes when it enters perhaps a division-plane in some rock, or some such cavity, and is unable to get away.
The hollow becomes filled with water, which is slowly more and more charged with the salts brought down, till saturated; then super-saturated, so that the salts become precipitated, or perhaps crystallised out, maybe by the presence of more or other salts, or by a change in temperature.
These crystals then become packed hard by further supplies and pressure, till eventually, after the lapse of ages, a natural gem is found, exactly filling the cavity, and is a precious find in many cases.

If now we try to find its analogy in chemistry, and for a moment consider the curious behaviour of some well-known salts, under different conditions of temperature, what is taking place underground ceases to be mysterious and becomes readily intelligible.

Perhaps the best salt for the purpose, and one easy to obtain for experiment, is the sulphate of sodium—known also as Glauber's Salt.
It is in large, colourless prisms, which may soon be dissolved in about three parts of water, so long as the water does not exceed 60° F., and at this temperature a super-saturated solution may easily be made. But if the water is heated the salt then becomes more and more insoluble as the temperature increases, till it is completely insoluble.

If a super-saturated solution of this Glauber's Salt is made in a glass, at ordinary atmospheric temperature, and into this cold solution, without heating, is dropped a small crystal of the same salt, there will be caused a rise in temperature, and the whole will then crystallise out quite suddenly; the water will be absorbed, and the whole will solidify into a mass which exactly fits the inner contour of the vessel.

We have now formed what might be a precious stone, and no doubt would be, if continuous pressure could be applied to it for perhaps a few thousand years; at any rate, the formation of a natural jewel is not greatly different, and after being subjected for a period, extending to ages, to the washings of moisture, the contact of its containing bed (its later matrix), the action of the changes in the temperature of the earth in its vicinity, it emerges by volcanic eruption, earthquake, landslip and the like, or is discovered as a rare and valuable specimen of some simple compound of earth-crust and water, as simple as Glauber's Salt, or as the pure crystallized carbon.

It is also curious to note that in some cases the stones have not been caused by aqueous deposit in an already existing hollow, but the aqueous infusion has acted on a portion of the rock on which it rested, absorbing the rock, and, as it were, replacing it by its own substance. This is evidenced in cases where gems have been found encrusted on their matrix, which latter was being slowly transformed to the character of the jewel encrusted, or "scabbed" on it.

The character of the matrix is also in a great measure the cause of the variety of the stone, for it is obvious that the same salt-charged aqueous solution which undergoes change in and on ironstone would result in an entirely different product from that resting on or embedded in silica.

Following out the explanation of the aqueous solution, in which the earth-crust constituents are secreted, we find that the rarer and more precious metals do not generally enter into the composition of precious stones—which fact may advisedly be repeated.
It is, of course, to be expected that beryllium will be found in the emerald, since it is under the species beryl, and zirconium in zircon; but such instances are the exception, and we may well wonder at the actions of the infinite powers of nature, when we reflect that the rarest, costliest and most beautiful of all precious stones are the simplest in their constituents.

Thus we find the diamond standing unique amongst all gems in being composed of one element only—carbon—being pure crystallised carbon; a different form from graphite, it is true, but, nevertheless, pure carbon and nothing else. Therefore, from its chemical, as well as from its commercial aspect, the diamond stands alone as the most important of gems.

The next in simplicity, whilst being the most costly of all, is the ruby, and with this may be classed the blue sapphire, seeing that their chemical constituents are exactly the same, the difference being one of colour only. These have two elements, oxygen and aluminium, which important constituents appear also in other stones, but this example is sufficient to prove their simplicity of origin.

Another unique stone is the turquoise, in that it is the only rare gem essentially containing a great proportion of water, which renders it easily liable to destruction, as we shall see later. It is a combination of alumina, water, and phosphoric acid, and is also unique in being the only known valuable stone containing a phosphate.

Turning to the silica series, we again find a number of gems with two elements only, silica—an important constituent of the earth's crust—and oxygen—an important constituent of atmospheric air. In this group may be mentioned the opal, amethyst, agate, rock-crystal, and the like, as the best known examples, whilst oxygen appears also mostly in the form of oxides, in chrysoberyl, spinel, and the like.
This silica group is extremely interesting, for in it, with the exception of the tourmaline and a few others, the composition of the gems is very simple, and we find in this group such stones as the chrysolite, several varieties of topaz, the garnet, emerald, etc.

Malachite and similar stones are more ornamental than precious, though they come in the category of precious stones. These are the carbonate series, containing much carbonic acid, and, as may be expected, a considerable proportion of water in their composition, which water can, of course, be dispelled by the application of heat, but to the destruction of the stone.

From all this will be seen how strong is the theory of aqueous percolation, for, given time and pressure, water charged with earth-crust constituents appears to be the origin of the formation of all precious stones; and all the precious stones known have, when analysed, been found to be almost exclusively composed of upper-earth-crust constituents; the other compounds which certain stones contain may, in all cases, be traced to their matrix, or to their geological or mineralogical situation.

In contradistinction to this, the essentially underground liquids, with time and pressure, form metallic minerals and mineralise the rocks, instead of forming gems.

Thus we see that in a different class of minerals—compounds of metals with the sulphates, such as sulphuric acid and compounds; also those containing the metallic sulphides; in cases where the metalliferous ores or the metallic elements enter into composition with the halogens—bromine, chlorine, fluorine, and iodine—in all these, precious stones are comparatively common, but the stones of these groups are invariably those used for decorative or ornamental purposes, and true "gems" are entirely absent.

It would therefore appear that though metallic minerals, as already mentioned, are formed by the action of essentially underground chemically-charged water—combined with ages of time and long-continued pressure, rocks and earth being transformed into metalliferous ores by the same means—precious stones (or that portion of them ranking as jewels or gems) must on the contrary be wholly, or almost wholly, composed of upper-earth-crust materials, carried deep down by water, and subjected to the action of the same time and pressure; the simpler the compound, the more perfect and important the result, as seen in the diamond, the ruby, and the like.

Also see :

Sumber http://anekacarapraktis.blogspot.com

Saturday, November 3, 2018

3 Kerikil Permata Keberuntungan Di Tahun Kambing Kayu

Menurut penanggalan kalender Cina, pada tanggal 19 Pebruari 2015 telah memasuki Tahun Kambing Kayu. Tahun kambing Kayu ini nantinya akan berakhir pada tanggal 7 Pebruari 2016.
Dan bila merunut pada 12 Shio, maka Kambing yaitu tanda ke- 8 ( Delapan ) pada system Zodiak Cina.

Menurut kebudayaan Cina angka 8 merupakan salah satu angka yang akan sanggup membawa keberuntungan. Selain itu, angka 8 juga melambangkan perdamaian dan kemakmuran.

Dalam tinjauan sifat dan karakter, seseorang yang lahir pada tahun kambing kayu, umumnya merupakan seseorang yang berkepribadian baik, adil, murah dan baik hati serta peduli terhadap sesamanya.

Karena itulah di Cina ada sebuah pepatah yang sangat populer : “ Tiga kambing membawa harmoni dan kemakmuran”.

Menurut budaya Cina pula, meski setiap orang mempunyai “hoki” tersendiri, namun masing-masing tahun juga akan mempunyai dan membawa keberuntungan yang berbeda-beda.
Dalam hal ini akan besar lengan berkuasa terhadap segenap aspek dalam kehidupan, termasuk benda-benda.
Batu permata misalnya.

Meski watu permata juga dipercaya mempunyai sifat dan abjad tersendiri, di setiap tahun yang berbeda, maka efek, kecocokan dan keberuntungannya juga akan berbeda.

Untuk tahun 2015 ini, tahun kambing kayu, apa watu permata keberuntungannya ?

Nah, bagi anda yang kebetulan sebagai penggemar watu permata, ada baiknya menyimak.
Meski anda mempunyai kecenderungan untuk menyukai terhadap beberapa watu permata tertentu, untuk tahun 2015, anda mungkin “perlu menyesuaikan” watu permata apa yang cocok untuk tahun kambing kayu ini.

3 Batu permata keberuntungan untuk tahun kambing kayu 2015 yaitu

:

1. Batu Saphire


2. Batu Jade

3. Moonstone

Nah kini silahkan pilih watu keberuntungan di tahun kambing kayu ini yang anda sukai.

Lihat juga :

Sumber http://anekacarapraktis.blogspot.com

Wednesday, October 17, 2018

Imitations Stone And Some Of The Test Of Precious Stone

Imitations Stone And Some Of The Test Of Precious Stone

We now to discuss the manufacture and re-formation of precious stones, and also to consider a few of the tests which may be applied to all stones.

These are given here in order to save needless repetition; the tests which are specially applicable to individual stones will more properly be found under the description of the stone referred to, so that the present chapter will be devoted chiefly to generalities.

With regard to diamonds, the manufacture of these has not as yet been very successful. As will be seen on "the Origin of Precious Stones," it is generally admitted that these beautiful and valuable minerals are caused by chemically-charged water and occasionally, though not always, high temperature, but invariably beautified and brought to the condition in which they are obtained by the action of weight and pressure, extending unbroken through perhaps ages of time.

In these circumstances, science, though able to give chemical properties and pressure, cannot, of course, maintain these continuously for "ages," therefore the chemist must manufacture the jewels in such manner that he may soon see the results of his labours, and though real diamonds may be made, and with comparative ease, from boron in the amorphous or pure state along with aluminium, fused in a crucible at a high temperature, these diamonds are but microscopic, nor can a number of them be fused, or in any other way converted into a large single stone, so that imitation stones, to be of any service must be made of a good clear glass.

The glass for this purpose is usually composed of 53.70 per cent. of red lead, 38.48 per cent. of pure quartz in fine powder, preferably water-ground, and 7.82 per cent. of carbonate of potash, the whole coloured when necessary with metallic oxides of a similar nature to the constituents of the natural stones imitated. But for colourless diamonds, the glass requires no such addition to tint it.
From the formula given is made the material known as "strass," or "paste," and stones made of it are mostly exhibited under and amongst brilliant artificial lights.

The mere fact that they are sold cheaply is primâ facie proof that the stones are glass, for it is evident that a diamond, cannot be purchased for a few shillings and be genuine. So long as this is understood and the stone is sold for the few shillings, no harm is done; but to offer it as a genuine stone and at the price of a genuine stone, would amount to fraud, and be punishable accordingly.
Some of these "paste," or "white stones," as they are called in the trade, are cut and polished exactly like a diamond, and with such success as occasionally to deceive all but experts.
Such imitations are costly, though, of course, not approaching the value of the real stones; it being no uncommon thing for valuable jewels to be duplicated in paste, whilst the originals are kept in the strong room of a bank or safe-deposit.

In all cases, however, a hard file will abrade the surface of the false stone. The quartz is in the seventh degree of hardness, and an ordinary file is but a shade harder than this, so that almost all stones higher than No. 7 are unaffected by a file unless it is used roughly, so as to break a sharp edge.
In order to prepare artificial diamonds and other stones for the file and various tests, they are often what is called "converted" into "doublets" or "triplets."
These are made as follows: the body of the glass is of paste, and on the "table" , and perhaps on the broader facets, there will be placed a very thin slab of the real stone, attached by cement.
In the case of the diamond, the body is clear, but in the coloured imitations the paste portion is made somewhat lighter in shade than the real stone would be, the portion below the girdle being coloured chemically, or mounted in a coloured backing.
Such a stone will, of course, stand most tests, for the parts usually tested are genuine.

A stone of this nature is called a "doublet," and it is evident that when it is tested on the underside, it will prove too soft, therefore the "triplet" has been introduced.
This is exactly on the lines of the doublet, except that the collet and perhaps the pavilions are covered also, so that the girdle, which is generally encased by the mounting, is the only surface-portion of paste. In other cases the whole of the crown is genuine, whilst often both the upper and lower portions are solid and genuine, the saving being effected by using a paste centre at the girdle, covered by the mounting.

Such a stone as this last mentioned is often difficult to detect without using severe tests and desperate means, e.g.:—


(a) by its crystalline structure ;

(b) by the cleavage planes ;

(c) by the polariscope ;

(d) by the dichroscope ;

(e) by specific gravity ;

(f) cutting off the mounting, and examining the girdle;

(g) soaking the stone for a minute or so in a mixture and composed of hydrofluoric acid and ammonia; this will not answer for all stones, but is safe to use for the diamond and a few others. Should the jewel be glass, it will be etched, if not completely destroyed, but if genuine, no change will be apparent;

(h) soaking the diamond for a few minutes in warm or cold water, in alcohol, in chloroform, or in all these in turn, when, if a doublet, or triplet, it will tumble to pieces where joined together by the cement, which will have been dissolved. It is, however, seldom necessary to test so far, for an examination under the microscope, even with low power, is usually sufficient to detect in the glass the air-bubbles which are almost inseparable from glass-mixtures, though they do not detract from the physical properties of the glass. The higher powers of the same instrument will almost always define the junction and the layer or layers of cement, no matter how delicate a film may have been used. Any one of these tests is sufficient to isolate a false stone.

Some of the softer genuine stones may be fused together with splinters, dust, and cuttings of the same stones, and of this product is formed a larger stone, which, though manufactured, is essentially perfectly real, possessing exactly the same properties as a naturally formed stone.
Many such stones are obtained as large as an ordinary pin's head, and are much used commercially for cluster-work in rings, brooches, for watch-jewels, scarf-pins, and the like, and are capable of being cut and polished exactly like an original stone.
This is a means of using up to great advantage the lapidary's dust, and though these products are real stones, perhaps a little more enriched in colour chemically, they are much cheaper than a natural stone of the same size and weight.

Some spurious stones have their colour improved by heat, by being tinged on the outside, by being tinted throughout with a fixed colour and placed in a clear setting; others, again, have a setting of a different hue, so that the reflection of this shall give additional colour and fire to the stone.
For instance, glass diamonds are often set with the whole of the portion below the girdle hidden, this part of the stone being silvered like a mirror.
Others are set open, being held at the girdle only, the portion covered by the setting being silvered. Other glass imitations, such as the opal, have a tolerably good representation of the "fiery" opal given to them by the admixture, in the glass, of a little oxide of tin, which makes it somewhat opalescent, and in the setting is placed a backing of red, gold, copper, or fiery-coloured tinsel, whilst the glass itself, at the back, is painted very thinly with a paint composed of well washed and dried fish-scales, reduced to an impalpable powder, mixed with a little pure, refined mastic, or other colourless varnish.
This gives a good imitation of phosphorescence, as well as a slight pearliness, whilst the tinsel, seen through the paint and the curious milkiness of the glass, gives good "fire."

A knowledge of the colours natural to precious stones and to jewels generally is of great service in their rough classification for testing, even though some stones are found in a variety of colours.

An alphabetical list of the most useful is here appended, together with their average specific gravities and hardness.

Sumber http://anekacarapraktis.blogspot.com

Friday, October 12, 2018

The Crystalline Structure Of Precious Stone

Before proceeding to the study of precious stones as individual gems, certain physical properties common to all must be discussed, in order to bring the gems into separate classes, not only because of some chemical uniformity, but also because of the unity which exists between their physical formation and properties.

The first consideration, therefore, may advisedly be that of their crystals, since their crystalline structure forms a ready means for the classification of stones, and indeed for that of a multitudinous variety of substances.


It is one of the many marvellous phenomena of nature that mineral, as well as many vegetable and animal substances, on entering into a state of solidity, take upon themselves a definite form called a crystal.
These crystals build themselves round an axis or axes with wonderful regularity, and it has been found, speaking broadly, that the same substance gives the same crystal, no matter how its character may be altered by colour or other means.
Even when mixed with other crystallisable substances, the resulting crystals may partake of the two varieties and become a sort of composite, yet to the physicist they are read like an open book, and when separated by analysis they at once revert to their original form.
On this property the analyst depends largely for his results, for in such matters as food adulteration, etc., the microscope unerringly reveals impurities by means of the crystals alone, apart from other evidences.
It is most curious, too, to note that no matter how large a crystal may be, when reduced even to small size it will be found that the crystals are still of the same shape. If this process is taken still further, and the substance is ground to the finest impalpable powder, as fine as floating dust, when placed under the microscope each speck, though perhaps invisible to the naked eye, will be seen a perfect crystal, of the identical shape as that from which it came, one so large maybe that its planes and angles might have been measured and defined by rule and compass.
This shows how impossible it is to alter the shape of a crystal.
We may dissolve it, pour the solution into any shaped vessel or mould we desire, recrystallise it and obtain a solid sphere, triangle, square, or any other form; it is also possible, in many cases, to squeeze the crystal by pressure into a tablet, or any form we choose, but in each case we have merely altered the arrangement of the crystals, so as to produce a differently shaped mass, the crystals themselves remaining individually as before.
Such can be said to be one of the laws of crystals, and as it is found that every substance has its own form of crystal, a science, or branch of mineralogy, has arisen, called "crystallography," and out of the conglomeration of confused forms there have been evolved certain rules of comparison by which all known crystals may be classed in certain groups.

This is not so laborious a matter as would appear, for if we take a substance which crystallises in a cube we find it is possible to draw nine symmetrical planes, these being called "planes of symmetry," the intersections of one or more of which planes being called "axes of symmetry."
So that in the nine planes of symmetry of the cube we get three axes, each running through to the opposite side of the cube. One will be through the centre of a face to the opposite face; a second will be through the centre of one edge diagonally; the third will be found in a line running diagonally from one point to its opposite.
On turning the cube on these three axes—as, for example, a long needle running through a cube of soap—we shall find that four of the six identical faces of the cube are exposed to view during each revolution of the cube on the needle or axis.

These faces are not necessarily, or always, planes, or flat, strictly speaking, but are often more or less curved, according to the shape of the crystal, taking certain characteristic forms, such as the square, various forms of triangles, the rectangle, etc., and though the crystals may be a combination of several forms, all the faces of any particular form are similar.

All the crystals at present known exhibit differences in their planes, axes and lines of symmetry, and on careful comparison many of them are found to have some features in common; so that when they are sorted out it is seen that they are capable of being classified into thirty-three groups.

Many of these groups are analogous, so that on analysing them still further we find that all the known crystals may be classed in six separate systems according to their planes of symmetry, and all stones of the same class, no matter what their variety or complexity may be, show forms of the same group.


Beginning with the highest, we have—
(1) the cubic system, with nine planes of symmetry;
(2) the hexagonal, with seven planes;
(3) the tetragonal, with five planes;
(4) the rhombic, with three planes;
(5) the monoclinic, with one plane;
(6) the triclinic, with no plane of symmetry at all.
In the first, the cubic—called also the isometric, monometric, or regular—there are, as we have seen, three axes, all at right angles, all of them being equal.

The second, the hexagonal system—called also the rhombohedral—is different from the others in having four axes, three of them equal and in one plane and all at 120° to each other; the fourth axis is not always equal to these three. It may be, and often is, longer or shorter. It passes through the intersecting point of the three others, and is perpendicular or at right angles to them.

The third of the six systems enumerated above, the tetragonal—or the quadratic, square prismatic, dimetric, or pyramidal—system has three axes like the cubic, but, in this case, though they are all at right angles, two only of them are equal, the third, consequently, unequal.
The vertical or principal axis is often much longer or shorter in this group, but the other two are always equal and lie in the horizontal plane, at right angles to each other, and at right angles to the vertical axis.

The fourth system, the rhombic—or orthorhombic, or prismatic, or trimetric—has, like the tetragonal, three axes; but in this case, none of them are equal, though the two lateral axes are at right angles to each other, and to the vertical axis, which may vary in length, more so even than the other two.

The fifth, the monoclinic—or clinorhombic, monosymmetric, or oblique—system, has also three axes, all of them unequal. The two lateral axes are at right angles to each other, but the principal or vertical axis, which passes through the point of intersection of the two lateral axes, is only at right angles to one of them.

In the sixth and last system, the triclinic—or anorthic, or asymmetric—the axes are again three, but in this case, none of them are equal and none at right angles.

It is difficult to explain these various systems without drawings, and the foregoing may seem unnecessarily technical. It is, however, essential that these particulars should be clearly stated in order thoroughly to understand how stones, especially uncut stones, are classified.
These various groups must also be referred to when dealing with the action of light and other matters, for in one or other of them most stones are placed, notwithstanding great differences in hue and character; thus all stones exhibiting the same crystalline structure as the diamond are placed in the same group. Further, when the methods of testing come to be dealt with, it will be seen that these particulars of grouping form a certain means of testing stones and of distinguishing spurious from real.
For if a stone is offered as a real gem (the true stone being known to lie in the highest or cubic system), it follows that should examination prove the stone to be in the sixth system, then, no matter how coloured or cut, no matter how perfect the imitation, the test of its crystalline structure stamps it readily as false beyond all shadow of doubt—for as we have seen, no human means have as yet been forthcoming by which the crystals can be changed in form, only in arrangement, for a diamond crystal is a diamond crystal, be it in a large mass, like the brightest and largest gem so far discovered—the great Cullinan diamond—or the tiniest grain of microscopic diamond-dust, and so on with all precious stones.
So that in future references, to avoid repetition, these groups will be referred to as group 1, 2, and so on, as detailed here.
Also see :

Sumber http://anekacarapraktis.blogspot.com

Thursday, October 11, 2018

Cara Cepat Untuk Mempercantik Kerikil Bacan

Tidak perlu dibahas lagi bagaimana orang-orang pada ketika ini sudah begitu tergila-gila kepada kerikil akik. Mengingatkan kepada “demam” Anthurium yang sempat terjadi sebelumnya. Tua muda, laki-laki wanita, bahkan ibu rumah tanggapun kini sudah kepincut dengan kerikil akik.
Hal ini mungkin gara-gara “ulah” mantan presiden SBY yang menghadiahkan kerikil bacan kepada presiden Amerika, Barack Obama waktu lalu. Dan semenjak itu pula kerikil bacan, beserta kerikil akik lainnnya jadi meroket popularitasnya.

Salah satu keistimewaan kerikil bacan yakni warna hijaunya yang memang terasa adem. Dimana makin renta – konon – warna kerikil bacan juga akan ikut berubah.

Sebenarnya ada banyak cara untuk mempercantik kerikil bacan, yaitu untuk menjadkan warna hijaunya lebih cepat keluar dan lebih cepat menampilkan hijau. Salah satu caranya yakni sebagaimana trik yang dilakukan oleh para pedagang kerikil akik.

Penasaran dengan trik yang dilakukan oleh para pedagang kerikil akik untuk memoles kerikil bacan sampai tampak lebih elok ?
Berikut caranya :

Siapkan bahan-bahannya :
- Minyak zaitun
- Mangkuk kecil, untuk tempau minyak zaitun
- Batu bacan / boleh juga yang bakalan

Cara Cepat Untuk Mempercantik Batu Bacan

- Tuangkan minyak zaitun ke dalam mangkuk kecil secukupnya
- Masukkan kerikil bacan ke dalam minyak zaitun
- Pastikan biar keseluruhan permukaan kerikil bacan terendam oleh minyak zaitun
- Diamkan dalam beberapa jam
- Cara ini sanggup diulangi beberapa kali, keesokan harinya

Seperti diketahui meski terlihat padat dan rapat, pada permukaan kerikil bacan bahwasanya terdapat adanya pori-pori yang sangat halus.
Dengan merendamnya dalam minyak zaitun, maka minyak akan masuk ke dalam kerikil bacan melalui pori-porinya. Hal ini menjadikan kerikil bacan akan terlihat menyerupai berminyak dan warna hijaunya akan lebih terlihat cantik.
Yang ini tidak kalah menariknya :

Sumber http://anekacarapraktis.blogspot.com

Wednesday, October 10, 2018

6 Cara Untuk Mengkilapkan Watu Akik

Bagi para pemilik kerikil akik tentu ingin kerikil akik kesayangannya dapat tampil menawan. Jernih, bening mengkilap. Tentu sering terlihat seseorang yang sedikit sedikit menggosokkan tangannya ( yang sedang mengenakan akik ) kepada kain celananya atau kain bajunya.
Maksudnya, semoga kerikil akiknya lebih kelihatan mengkilap.

Sebuah kerikil akik memang mempunyai tingkat kejernihan tersendiri. Karena itulah tingkat kilapnya juga akan berbeda beda. Namun secara umum memang ada cara-cara untuk mengkilapkan sebuah kerikil akik.

Dari sekian banyak cara, ada 6 Cara Untuk Mengkilapkan Batu Akik yang dapat anda gunakan untuk kerikil akik kesayangan anda, sehingga dapat terlihat lebih bening mengkilap :

1. Mengkilapkan Batu Akik Dengan memakai kertas serbuk intan

Kertas serbuk intan ini biasanya di jual di toko-toko permata. Dan materi ini memang dipakai untuk mengkilapkan bermacam kerikil akik. Mulai dari kerikil akik yang biasa hingga kerikil akik yang berkelas, semacam kerikil ruby, sapphire, jamrud, giok, topaz dan lainnya.
Caranya juga gampang anda tinggal menggosokkan kertas serbuk intan ini secara perlahan dengan gosokan searah.

2. Mengkilapkan Batu Akik Dengan alumunium foil atau kertas bungkus rokok

Cara kedua dengan memakai aluminium foil atau kalau mau lebih hemat gunakan saja kertas aluminium bungkus rokok ( grenjeng ).
Caranya sama, gosok perlahan dalam satu arah.

3. Mengkilapkan Batu Akik Dengan memakai bambu hitam

Cari bambu hitam yang permukaannya halus, kemudian gosok-gosokan secara perlalahan pada kerikil akik anda. Secara tradisional para pengrajin kerikil akik sudah memakai materi ini.

4. Mengkilapkan Batu Akik Dengan memakai Bambu buluh

Bambu wuluh atau sering disebut dengan pring wulung merupakan jenis bambu yang berkulit kasar. Caranya sama ibarat diatas. Namun jikalau memakai bambu wulung ini sebaiknya hati-hati, alasannya yakni untuk jenis kerikil yang agak ringkih dapat menciptakan kerikil tergoda dan luntur

5. Mengkilapkan Batu Akik Dengan memakai kulit

Anda juga mengkilapkan kerikil akik anda dengan cara menggosoknya dengan kulit. Namun sebaiknya gunakan kulit yang halus atau yang sudah disamak.
Misalnya bekas dompet atau ikat pinggang. Namunjangan kenakan pada bab kulit yang berwarna / diwarnai.

6. Mengkilapkan Batu Akik Dengan memakai daun pisang kering

Cara terakhir yang juga murah meriah adalh dengan daun pisang yang telah kering. Ambil daun pisang kering ( jawa : klaras ) kemudian gunakan untuk menggosok kerikil akik anda secara telaten.

Cara-cara untuk mengkilapkan kerikil akik di atas hanya berlaku bagi kerikil akik yang telah berbentuk, setengah jadi atau telah jadi. Makara dalam hal ini anda menyempurnakan proses finishingnya saja.

Namun untuk kerikil akik yang masih bongkahan ( bakalan ) tentu saja butuh perlakukan yang berbeda. Sebaiknya lihat juga :

Sumber http://anekacarapraktis.blogspot.com