which liquids are called heavy liquid and they must be easily available in chemical market?
960147
I'm not sure which ones are easily avaliable in the market, but heavy liquids are those that contain heavy metal elements in their molecular compunds, like iron or copper. I'm sorry I couldn't answer your question completely, but I hope that helps somewhat.
967854
If we're talking about deuterium oxide, you can use a variant of distilling.  Deuterium oxide is slightly heavier than regular water (20 - 22 atomic mass units vs. 18 amu).  It has a slightly higher boiling point as well.  By taking a container of water and carefully adjusting the temperature, you can gradually remove the regular water from the container and increase the proportion of deuterium oxide remaining.
761249
For this kind of information, wikipedia is the ideal start. Additionally, visit a library and check any chemical dictionary or encyclopedia. While the language may appear strange, the information you want will be recognizable with some patience.
216864
A suitable liquid for the globule has been found to comprise mineral oil, paraffin, carbon tetrachloride and a dye or dyes.
329767
You might be looking for information on alchemy, not chemistry.  The two fields of study are very seperate these days.  Of course, modern scientits could turn lead into gold by nuclear fusion, or turn heavier elements into gold by fission- neither process seems practical.
280156
solid\nliquid\ngas\nplasma
62318
Chemical companies sell it.  check out this:\nhttp://www.sigmaaldrich.com/catalog/search/ProductDetail/SIAL/215457\nAldrich sells 99.9995% pure mercury.  That's as good as it's going to get.
966603
well, sodium chloride is soluble, so you won't be getting any solid product from it, but calcium carbonate is insoluble, so it would be solid. Calcium carbonate is what your looking for.
1125305
what kind of lab? physics lab? chem lab? biology lab? ...? be more specific please. \n\nOh Chem lab.  Easy for me. I'm a chemist, ordering stuffs everyday.  Go to http://www.vwr.com\nHere are a few: Volumetric flask, pipette, graduate cylinder, test tubes ... Bunsen burner, FTIR, AA, UV, HPLC, GC ... can't list all here :)
1017786
If you mean polysesquisiloxane ( a cosmetic silicone ) try Dow Corning or Wacker for industrial quantities. If you are after small quantities, try \n\n www.soaperschoice.com
1056326
it comes in a liquid ,and it is called booze
291020
The density of water at standard conditions is a little less than 1 kg/L.  As you can see on the linked page, all milks come in a little denser than that.  So, for the same volume of liquid, the milk will be heavier.  \nHere's a little factoid, since cream is fattier than milk - and oil is lighter than water- cream is lighter than milk.  And heavy vs. light cream represents the amount of fat in each.  In other words, heavy cream is "lighter" than light cream.  Isn't that wierd.
800864
Dear Little Giggl:  I think the answer to your question is VELOCITY, but it is NOT viscosity - which is the RESISTANCE property in liquid, that prevents quick flowing.\n\nFlow dynamics is said to be measured according to density and pressure which help determine velocity measurement of liquid.\n\nThank you for the question. . .it helped me to learn something.
441066
You could try a search on Google using "liquid lasers."\n\nSolid state, semiconductor, and gas lasers are more common than liquid lasers.\n\nMost liquid lasers are made with an organic dye - a kind of phosphorescent material suspended in a liquid.  Commercially available liquid lasers are usually called dye lasers, but not all dye lasers are liquid.\n\nFrequently liquid dye lasers are excited by a flashlamp.\n\nThe advantage of a liquid dye laser is that the output wavelength is "tunable," that is, you can select over a broad range what the output wavelength will be.\n\nI'll give a link in Sources to a recent article co-written by a friend of mine, Dave Titterton, who is a world renown expert in this field.  Go to link and click on the article called "From flashlamp-pumped Liquid Lasers to Diode-Pumped Solid-State Dye Lasers."
388432
The separation of normal paraffins from isoparaffins is done commercially for a number of reasons. In the lighter hydrocarbon range, isoparaffins are often more desirable because of their higher octane values and their superior gasoline alkylation characteristics. In the heavier range, normal paraffins are typically the desired product because of the benefits derived from their linearity in the production of plasticizers, linear alkylbenzene sul-fonates, detergent alcohols, and ethoxylates.\n\nThe specific application of the UOP* Molex* process to the separation of normal paraffins from isoparaffins. Although not limited in its application to a particular processing mode or carbon number, the Molex process is most often used in the recovery of normal paraffins for plasticizer and detergent-range applications. Typical carbon numbers are C6 to C10 for plasticizers, C10 to C14 for linear alkylbenzenes, and C10 to C18 + for detergent alcohols.\n\nThe UOP Molex process is an established, commercially proven method for the liquid-phase adsorptive separation of normal paraffins from isoparaffins and cycloparaffins using the UOP Sorbex* separations technology (see Chap. 10.3), which uses zeolitic adsorbents. Isothermal liquid-phase operation facilitates the processing of heavy and broad-range feedstocks. Vapor-phase operations, in addition to having considerable heating and cooling requirements, require large variations of temperature or pressure or both through the adsorption-desorption cycle to make an effective separation. Vapor-phase operations also tend to leave a certain residual level of coke on the adsorbent, which must then be regenerated on a cyclic basis. Operation in the liquid phase allows for uninterrupted continuous operation over many years without regenerations.\n\nRefer to Chap. 10.3 for details of the operation of this separations technology. Figure 10.7.1 illustrates the general design characteristics of such units.
1044414
Other substances that have a solid less dense than their liquid include the elements bismuth, gallium, and germanium.  Bismuth has a liquid density of 10.05g/cm^3, and a solid density of only 9.78g/cm^3.  Gallium has a liquid density of 6.095g/cm^3, but a solid density of 5.91g/cm^3.  Finally, germanium has a liquid density of 5.60g/cm^3 and a solid density of 5.323g/cm^3.\n\nJust for comparison, water has a liquid density of about 1.0g/cm^3 and a solid density of 0.917g/cm^3.\n\nI think I have heard of other materials that also posses this unusual property, but I can't remember them off the top of my head.  I hope this has been helpful.
560206
Production\n\nOn Earth, semiheavy water, HDO, occurs naturally in regular water at a proportion of about 1 molecule in 3200. This means that 1 in 6400 hydrogen atoms is deuterium (see VSMOW), which is 1 part in 3200 by weight (hydrogen weight). The HDO may be separated from regular water by distillation or electrolysis and also by various chemical exchange processes, all of which exploit a kinetic isotope effect. In short, the difference in mass between the two hydrogen isotopes translates into a difference in the zero-point energy and thus into a slight difference in the speed at which the reaction proceeds. Once HDO becomes a significant fraction of the water, heavy water will become more prevalent as water molecules trade hydrogen atoms very frequently. To produce pure heavy water by distillation or electrolysis requires a large cascade of stills or electrolysis chambers, and consumes large amounts of power, so the chemical methods are generally preferred. The most important chemical method is the Girdler Sulfide process.