what is a macrolodulated mass?
612804
macro-lobulated mass, I pressume you mean.\n\nThis is bad, it is likely cancer.  Tissue is the issue, no answer until they have a tissue diagnosis.  If he smokes, then it is likely very bad news.\n\nBiopsy is everything, but odds are not great.  Anything other than cancer is going to have a pretty good prognosis, and thus not worth discussing until the biopsy is done.
247359
Mass interacting with gravity
611971
Mass is a constant; weight varies by gravitational pull.
145847
# Large molecules in biological systems namely proteins, nucleic acids, and polysaccharides.\nwww.whatislife.com/glossary.htm\n\n# large single chemical entities such as pieces of DNA or RNA.\nwww.biologylessons.sdsu.edu/classes/lab3/glossary.html\n\n# A macromolecule is a molecule of high relative molecular mass, the structure of which essentially comprises the multiple repetition of units derived, actually or conceptually, from molecules of low relative molecular mass.\nen.wikipedia.org/wiki/Macromolecule\n\nA macromolecule is a molecule with a large molecular mass, but generally the use of the term is restricted to polymers and molecules which structurally include polymers. [1]\n\nMany examples come from biology and in particular biochemistry. These include proteins, starches, lipids and nucleic acids (such as DNA), which are sometimes called "biomacromolecules" or biopolymers. Synthetic examples include plastics. The integral domains of crystals and metals, while composed of very large numbers of atoms joined by molecule-like bonds, are rarely referred to as "macromolecules."\n\nThe term macromolecule is also sometimes used to refer to aggregates of two or more macromolecules held together by intermolecular forces rather than by chemical "bonds". This usage is common in particular when the individual macromolecules involved aggregate or "assemble" spontaneously and rarely exist in isolation. Such an aggregate is more properly called a macromolecular complex. In such a context, individual macromolecules are often referred to as subunits (see e.g. protein subunit).\n\nSubstances that are composed of macromolecules often have unusual physical properties. The properties of liquid crystals and such elastomers as rubber are examples. Although too small to see, individual pieces of DNA in solution can be broken in two simply by suctioning the solution through an ordinary straw. This is not true of smaller molecules. The 1964 edition of Linus Pauling's College Chemistry asserted that DNA in nature is never longer than about 5000 base pairs. This is because biochemists were inadvertently and with perfect consistency breaking their samples into pieces. In fact, the DNA of chromosomes can be tens of millions of base pairs long.\n\nAnother common macromolecular property that does not characterize smaller molecules is the need for assistance in dissolving into solution. Many require salts or particular ions to dissolve in water. Proteins will denature if the solute concentration of their solution is too high or too low.
752935
Mass is a fundamental quality. No matter where something is, it has the same mass. Weight, on the other hand, is the force that gravity exerts on the mass. Though in standard units we measure both in pounds, technically mass is measured in pounds mass, while weight is measured in pounds force. In SI units, mass is measured in grams, and weight in newtons.\n\nTo answer your question, weight will change with distance from the earth's center. Mass will not.
43865
The molecular mass (abbreviated MM) of a substance (less accurately called molecular weight and abbreviated as MW) is the mass of one molecule of that substance, relative to the unified atomic mass unit u (equal to 1/12 the mass of one atom of carbon-12). Due to this relativity, the molecular mass of a substance is commonly referred to as the relative molecular mass, and abbreviated to Mr.\n\nThe molecular mass can be calculated as the sum of the atomic masses of all the atoms of any one molecule. The molecular mass can also be measured directly using mass spectrometry. In mass spectrometry, the molecular mass of a small molecule (< ~200 atoms of a given element) is exact, that is, the sum of the most common isotopes of each element. Of larger molecules, it is average, or calculated using the elemental mass number or the periodic table, since there is likely to be a statistical distribution of atoms representing the isotopes throughout the molecule.\n\nThe molar mass of a substance is numerically equal to the molecular mass, but expressed in mass units per mole, usually as g/mol (grams per mole).\n\nExample: \nThe atomic mass of hydrogen is 1.00784 u and that of oxygen is 15.9994 u; therefore, the molecular mass of water with formula H2O is (2 × 1.00784 u) + 15.9994 u = 18.01508 u. Therefore, one mole of water weighs 18.01508 grams. However, the exact mass of hydrogen-1 (the most common isotope) is 1.00783, and the exact mass of oxygen-16 (the most common isotope) is 15.9949, so the mass of the most common single molecule of water is 18.0105 u. \nMolecular mass or molar mass are used in stoichiometry calculations.\n\nSince molecules are created by chemical reactions, not nuclear reactions, a molecule's molecular mass exactly equals the sum of the atomic masses of its constituent atoms.\n\nThe gram-molecular weight is the molecular weight of a chemical compound expressed in grams. Thus the molecular weight of calcium carbonate is 100 therefore the gram-molecular weight is 100 g. The Gram Molecular Weight is frequently used, particularly for calculating the concentration of solutions. Thus a molar solution will contain the gram molecular weight of a chemical dissolved to produce one litre of solution.\n\nHandy Little Calculator:\nhttp://www.chemie.fu-berlin.de/cgi-bin/molform
57362
Weight is a unit measure of gravitational force.
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The mass of the earth is 5,974,200,000,000,000,000,000,000 kg\nQuite heavy really.
888514
density=__g/ml   that means density equals __grams per millileter
1044460
There are many different ways of doing this:\n\nUsing some sort of scale that will tell you "this has a mass of 357 grams"\nUsing a balance - place the object you want to find the mass of on one side, place masses of known weight on the other until the two sides balance.\nIf you know the density, you can immerse it in a liquid, measure the volume of liquid that is displaced, and then find the mass based on that.
344825
density is mass divided by volume - so if you know the volume and the density, then you multiply them to get the mass  (which is synonomous with weight)
890055
Mass is measured in grams etc and is how heavy something is when no force is acting upon it.\n\nWeight is the amount of mass * gravity and should be measured in newtons.  \n\nYour mass can never change, but your weight can depending on how strong gravity is.  Eg on the moon gravity is about x5 weaker than earth, as a result you weigh x5 less than you do on earth.
968496
Density = mass/volume therefore mass = density * volume
781957
Approximately the mass of 2 billion solar masses.\n\np.s. Weight is a function of something in a gravitational field, what you really are asking about is mass.
300642
Density is defined as mass divided by its volume. If you want to know the volume, then divide the mass by its density; if you want to know the mass, just multiply the density by its volume.
951234
Grams are mass\nKiloliter is volume.\n\nYou can't convert 1 to the other.
772932
Mass is a measure of inertia and hence greater the mass greater is the inertia.\n The 10kg mass will have the greatest inertia....