living space chemistry is more important than any decarations for your mental and health conditions
Dr.M D Vaidya’s ‘equations’ for healthy living.
(DR.M D Vaidya, BAMS, MD, MBA, PhD, DPCh)
It is proved through 25 years research experience that all your mental and body balancing can be manageable with the control of 9( nine ) factors.
All you need to do is to regulate the nine factors around you.
There many ancient principles and systems are available in ‘Vastusastra’ and other sciences. But as per the changes of modernization and shortage of living place, the energy waves around you are mostly not balancing with your personal body constitution. Here all the traditional sciences are suppressing in many ways.
1. You need light of planets. If you are not getting it properly, that will affect you in many ways.
2. You need to hear positive sounds out of 1432 sounds from the nature, and that sounds are making your mood as positive to you. If it is not getting properly, you will feel discomfort.

3. Magnetic field. You are staying near many waves of different magnetic paths, that you are not able to identify what is positive and negative with you. That will disturb your personal energy field and your health and creative mind will be imbalanced.
4. The aroma you are breathing. The breathing aroma should be your positive inhalation which leads you in your positive creativity and smooth breath with apt energy management system.
5. Color of your sand or food path f living place. As per the actions of the indicating color of the ruling planet you need regulate your earth color and base color as positive to you by many means. Because most of the mood alternating factors are color of platforms..
6. Underground water flow. The most influential part of a human mind is the magnetic action of under ground water flow, this water flow is different in each place and it will affect as per the conditions of Geographical Situations.

7. Positioning of interior articles. Most of the interior decoration, now a days done with out the consideration of material energy of each and every material. The matter is that each and every material have different capacity to accept and consume sounds and light. If any of the metallic and non metallic decerative piece placed in a wrong place will affect through emitting negative energy . This negative energy will act each and every factor in different wave and activity. So placing any interior article should be based on energy calculations.
8. Core energy. This core energy is a ruling energy as per ones own constitutional factor and it will lead to health.

9. Universal energy- universal energy is based on your birth time and planetical position. We can regulate the planetical energy through adjusting and regulating the total internal energy when and where required.
What is required?
Dr.Vaidya was developed many scientific methodology to analyse all these energy and practically he implemented this theory in Universal Level.
As part of that he branched out many thing like
1. Aroma Therapy.
2. Sound Therapy.
3. Magnetic Therapy.
4. Color Therapy.
5. Helios therapy.
6. Breath Therapy.
7. Water and Mud Therapy.
As the part of this developmental innovation it is proved that all these 7 factors can implement with in home and office and it will lead to prosperity and healthy living.
It will give you
1. Stable mind.
2. Self compromise with situation.
3. Energy management with human mind and body.
4. Self confidence.
5. Creative energy and intellectual developments.
6. Creativity in education.
7. Prosperity and well being through apt placing of ideas in suitable energy reflective place.
8. Luck and growth.
9. Leadership quality and public acceptance.
This is a life long investment for you and your family members, associates and workers in your firm. Good mind can create a good personality and no relation will spoil in such a positive place because you are with in a protected area. It is a guaranteed International Science developed by a group under the leadership of Dr. M D Vaidya. Dr.Vaidya, after taking PG in medicine , turned to Life Science Equations and innovated decoding of energy factors in a human body. It is an advanced science with MAYA- SOOTHRA of ancient Indian Science. Do authentic and be healthy.
Luster: Luster refers to the quantity and quality of light that returns to the eye under normal lighting conditions. In other words, what does it look like?! Minerals are divided into two general luster categories, metallic and nonmetallic. Metallic luster is used for opaque material with a look of metal, either dull like a nail or bright and shiny like a polished gold ring. Pyrite, marcasite, and hematite are examples of minerals with metallic luster and used in jewelry. Marcasite is the mineral name associated with a particular style of jewelry, but in fact this material used as the gem is actually pyrite. Submetallic luster is intermediate and found in minerals such as sphalerite. Nonmetallic luster, used in transparent or translucent material, can be divided into many categories, from adamantine to pearly, with categories ultimately related to the gem’s refractive index.
Adamantine is the highest nonmetallic luster category, represented by the brilliant luster of diamond. Subadamantine is next lower on the scale and found in high refractive index gems such as zircon and garnet. Vitreous, or glassy, is the most common luster in minerals, with quartz and tourmaline as gem examples. Subvitreous is next lower on the scale. Waxy is a descriptive term which can resemble candle wax and is common to chalcedony and turquoise. Waxy luster can have a feel to it as well. Dull or earthy is a term used with metallic or nonmetallic material. It is found in most gems before they are polished and may have a tactile property. Resinous refers to the shiny luster of resin, with amber as an obvious example. Silky is a luster common to satin spar gypsum and tiger’s-eye. It is caused by the reflection of light from a parallel, fibrous texture. Pearly is a luster that produces a kind of shimmering glow and is found in pearl, mother-of-pearl, and moonstone.Light Transmission
Many gems transmit light and are called transparent or translucent, depending upon how much light passes through. Gems that do not transmit light, even when viewing a thin slice, are truly opaque, such as hematite and pyrite. The transmission of light is dependent upon the amount of light reflectance and absorption. If an object can be seen distinctly through a gem it is termed transparent. If the object is indistinct, the gem is semitransparent. Light passing through, but not enough to distinguish an object, is termed translucent or semitranslucent.
Color
Nature of Light
Color, or the lack of, is a major factor in the beauty of gem materials. Although color is a constant property, minerals, such as quartz and beryl, can come in a wide range of different colors. There are several explanations for the cause of color and some will be briefly introduced.
Particle or quantum theory and wave theory are both used to explain light and color, visual and optical properties of minerals. Quantum theory regards light as particles or bundles of energy called quanta or photons, whereas wave theory regards light as transmitted energy through electromagnetic waves.
Chromophores
Electrons, negatively charged particles, exist at different energy levels within an atom. The electrons at the highest levels are in the outer orbitals, which can be completely or partially filled with electrons. Radiant energy (photons) of light can enter a crystal and elevate an electron to a higher orbital, if it is a partially filled energy level, and be absorbed in the process (Hurlbut & Kammerling, 1991, p. 70). This selective absorption of wavelengths, and electron oscillation between orbital levels, can cause color and fluorescence.
Different oxidation states of elements can also influence absorption. Ferrous iron (Fe2+) creates green, but ferric iron (Fe3+), found in a similar crystal structural site, can produce the yellow. Oxidation state is the reason heat-induced gem enhancement can intensify a color or create more desirable colors (Hurlbut & Kammerling, 1991, p. 70).
Idiochromatic Minerals
Idiochromatic, or “self-colored” minerals, owe their color to chromophores, or elements, that are essential or major constituents in the chemical formula (Scovil, 1996, p. 60).
Examples of Idiochromatic Minerals Mineral Color Formula (coloring agent bold-faced) malachite green Cu2CO3(OH)2 dioptase green Cu6(Si6O18) 6H2O Azurite blue Cu3 (CO3) 2(OH)2 Cuprite red Cu2O Sulfur yellow S Rhodochrosite pink MnCO3 Rhodonite pink MnSiO3 Vanadinite orangy-red Pb5(VO4) 3Cl Allochromatic Minerals
Allochromatic minerals, or “other-colored” minerals, are colored by ways other than simply the constituents of the chemical composition. In many gem minerals, the major element in the chemical composition is colorless in a pure state. If these gems occur in a variety of colors, then it is the result of the substitution of one major element for another, impurities, or defects within the crystal structure (Scovil, 1996, p. 60).
An example of major element, or chromophore, substitution is seen in nephrite jade, which is white in a pure state. Green or even black nephrite jade is more common than white and occurs when iron replaces the magnesium in the crystal structure; some substitution creates green and if the substitution is extensive, black. An example of allochromatic coloration with trace amounts of impurities, or chromophores such as iron, chromium, and manganese, is in beryl, 3BeO Al2O3 6SiO2:
Beryl Color Reason Emerald deep green chromium, Cr3+ Aquamarine light blue Iron, Fe2+>Fe3+ Heliodor yellow Iron, Fe2+>Fe3+ Morganite pink Manganese, Mn2+ Bixbite red Manganese, Mn2+ Pseudochromatic
Pseudochromatic, or “false color” minerals owe their color to the physical crystal structure (Scovil, 1996, p. 60). Pseudochromatic mineral examples include opal and labradorite. Opal is amorphous, or lacking in crystal structure, made up of silica spheres roughly arranged in a hexagonal pattern, with 4-20% (or more!) water content. The water and air trapped between the silica spheres act to break up the white light into component colors, allowing for spectral colors, when in fact the “white” opal is colorless (black opal and fire opal have dark body colors). The feldspar, labradorite, is colored by a phenomenon called labradorescence, which is the break up of white light into spectral colors as a result of polysynthetic twinning (alternating microscopically thin layers or lamellae).
Color Centers
Color centers or F centers cause color in minerals when there is a crystal structure defect or imperfection. The defect can be due to excess or deficient ions of an element in the chemical formula, substitutional impurities, or mechanical deformation within the crystal structure (Hurlbut and Kammerling, 1991, p. 71).
Color Caused by Inclusions
Minerals can be colored by the presence of inclusions, minerals incorporated into minerals. Small particles of copper can produce the orangy sparkle in sunstone, a type of labradorite feldspar, whereas iron oxide inclusions (hematite or goethite) also produce the orangy sparkle in the oligoclase feldspar sunstone. A white mineral called cristobalite can be included in black natural glass and is called snowflake obsidian. Quartz can be colored by impurities, crystal structural defects, or inclusions:
Quartz/Chalcedony Color Reason amethyst quartz purple iron as (FeO4)4- color centers smoky quartz or cairngorm brown or black Al3+ > Si4+ plus H+, eject one of a pair of electrons from O2-, (AlO4)4- color center rose quartz pink Titanium, Ti4+ citrine quartz yellow or orange iron milky quartz white minute fluid inclusions greenish-blue chalcedony greenish-blue chrysocolla inclusions chrysoprase chalcedony yellowish-green nickel carnelian chalcedony orange hematite or iron hydroxide, goethite aventurine quartz green fuchsite (chrome bearing muscovite mica) included in colorless quartzite moss agate chalcedony colorless and dark green chlorite and black manganese oxide inclusions jasper green or red green or red clay mineral inclusions fire agate chalcedony brown with iridescence iron oxide inclusions bloodstone green with orange spots dark green chalcedony with iron oxide or hematite inclusions prase chalcedony green hornblende or chlorite inclusions plasma green actinolite inclusions Variation in Color
Several minerals are bi-colored or vary in color within a single crystal. Watermelon tourmaline can have concentric coloration with green surrounding red or have a zonal arrangement with one color at either end. Quartz is bi-colored with yellow citrine and purple amethyst called ametrine. Topaz and fluorite can also have multi-colored bands within a single crystal.
Some gems have variation of a single color, such as shades of purple bands in quartz and straight or hexagonal color banding in blue sapphire (synthetic sapphire produced by flame fusion can have curved color banding). Malachite and rhodochrosite are identified by their characteristic color banding; malachite is different shades of green, while rhodochrosite is pink and called the “bacon strip effect” (Hurlbut and Kammerling, 1991, p. 73).
Color Alteration/Enhancements
Color caused by artificial enhancements and heating will be covered under gem creation and enhancement, later in the course.
Optical Phenomena
Color due to special optical phenomena are seen in visible light and can be instructive in identification. These phenomena are discussed below.
Adularescence
Adularescence is the milky or bluish sheen or opalescence, which is best seen in gems cut in cabochon. Moonstone’s adularescence is formed by thin lamellae resulting from exsolution (Hurlbut and Kammerling, 1991, p. 74).Interference and Diffraction Colors
Iridescence is an interference of light reflected from the interior or surface of a gem that can produce a spectrum of colors at different angles. This effect is similar to the look of an oil-water mixture or soap bubbles. The interference colors can be from light diffracted from thin films of liquid or gas, closely spaced fractures, twinning, or exsolution lamellae, and cleavage planes. Iridescence in fire agate is caused by thin films of iron oxide and flame obsidian’s iridescence is from internal fractures. Play-of-Colors is displayed when closely packed, uniform, silica spheres have water and air trapped between the spheres. When light passes through the colorless opal and into the water/air which fill the voids, some wavelengths are diffracted out of the stone in pure spectral color bands, called a play-of-colors. Schumann (1997) referred to this phenomenon as opalization (p. 46). Labradorescence or schiller is found in the feldspars, such as labradorite, spectrolite (trade name for labradorite from Finland), larvikite, and moonstone. Blue and green effects are most common, but the entire spectrum can be seen at times.
Color Change
Under different lighting conditions, such as incandescent to natural light, some gems will change colors. This is termed the alexandrite effect because it was first observed in the chromium colored variety of chrysoberyl called alexandrite, which can change from red to green. Other minerals, corundum, spinel, tourmaline, and garnet, can exhibit this unusual optical phenomenon. Synthetic alexandrite, synthetic corundum, and lab created glass can also produce distinct color changes.Chatoyancy
Chatoyancy, or descriptively called the cat’s eye effect, is a silky sheen produced by the reflection of light by parallel fibers or needlelike inclusions or cavities. When the mineral is cut en cabochon, perpendicular to the fibrous direction, it displays a band of light which resembles the slit eye of a cat. This effect is seen in satin spar gypsum, tiger’s eye, tourmaline, beryl, diopside, and chrysoberyl. When the “cat’s eye” term is used alone, it refers to chrysoberyl; all other gems exhibiting this phenomenon must have the mineral designation associated with the term (Schumann, 1997, p. 45).
Asterism
When needlelike inclusions are parallel to each other, but in a hexagonal pattern or a triple chatoyancy, it is termed asterism or a star effect. Four- and twelve-rayed stars can exist, but most are six-rayed. When brightly illuminated, the cabochon cut (perpendicular to the long axis direction) hexagonal minerals, such as corundum or quartz, can produce rays 60 degrees apart. Star rubies and sapphires produce asterism because of exsolution and acicular rutile.
Add comment May 6, 2008