Hemoglobin and hair are both proteins, but they have different structures. Explain?
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Short answer: different DNA coding eventually leads to a different protein being made, with a different structure.\n\nexplanation:\n\nDNA codes for the proteins we and all living organisms make. Different nucleotide sequences in the DNA will lead to different proteins being synthesized.\n\nThis is the process of protein synthesis in short:\nDNA --> mRNA --> tRNA --> amino acid chain --> protein.\n\nDNA- doesn’t leave nucleus. it is transcribed to mRNA. \n\nmRNA- messenger RNA directs which sequence of amino acids in translation.\n\nrRNA- ribosomal RNA, the location of the protein synthesis.\n\ntRNA- transport RNA; this has an ANTICODON that will match up to the CODON (group of three nucleotides); adds an amino acid to the amino acid chain. the amino acid it adds on is specified by the codon. for example, if the codon read GUA [I hope you're familliar with the whole ATGC DNA stuff...], then the anticodon, which is complimentary to the codon, would read CAU, and also carry the amino acid (in this case, valine). DNA is usually very long, so many codons will match up with many anticodons on the tRNA, which will then "drop off", or add another amino acid to the chain.\nThe order of the amino acids will affect the way that amino acid chain bonds to itself-- it will twist (or whatever it does) in a certain way, which will affect its shape.\nShape affects the function of the protein.\n\nThe reason that hemoglobin and hair have different structures is because they are composed of the same amino acids (there are only about 20 amino acids), BUT the amino acids are in a different order, which was specified earlier by the DNA.
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To understand hairs,we should see the formation of hairs first.These are the dead cell proteins formed in capilarry forms like bio-nanomaterials and carry the unwanted inorganic or surplus salts and radicals out of our body to finish their reentry in system or to throw them out.These are more at soft skin places as it is easy for them to protude there and at hard skin they cannot come out and take shapes of dead skin/hard skin.
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A protein that has been in a solution that had a high or low PH level will cause the H-H bonds to break between the R-Groups, extreme heat will also cause this it is called denaturation.  This also occures in a DNA strand.  So basically it is an unfolded protein.
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Do you mean what element? Iron is found at the center of a heme group. Or perhaps you are looking for the the porphyrin molecule, which is what surrounds the iron in heme.
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Each cell in the human body contains thousands of different proteins, the most abundant and diverse class of biomolecules. Proteins are, in fact, present in the cells of all living organisms, though each different species contains a slight to major variation in the number and type of the biomolecules so that there are literally millions of different proteins that exist in the biological world. Proteins play a major role both in cellular structure and function, some being involved in such activities as transport, catalysis, storage, contraction, and protection, while others form critical parts of the cytoskeleton. The types of protein differ from cell to cell, but all have the same basic structure with respect to the constituent amino acids that make up the backbone. Most proteins are biological macromolecules that range in molecular weight from about 6,000 to several million Daltons. They are all polymers that are composed of covalently linked amino acids. The number, chemical nature, and sequential order of amino acids in a protein chain determine the distinctive structure and characteristic chemical behavior of each protein.\n\nAs for order of quantities:\n ~25% of the proteins found in the body are classified as collagens. Followed by keratins, the muscle proteins actin and myosin then hemoglobin.
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Hair color, eye color, and also skin color are determined by special proteins called pigments.  The pigments in your hair, eyes, and skin are encoded in your genes, which is was these traits are said to be genetic.  All molecules absorb some wavelengths of light and reflect others.  Pigments are typically complex molecules that reflect certain wavelengths in the visible spectrum and absorb others.  Different people have different color pigments because there are minor changes in the DNA sequences that code for the pigments which result in minor changes in the molecules themselves, which in turn change the wavelenghts of light that are reflected and absorbed.  If someone has blue eyes, it is because the pigments in their eyes reflect a lot of wavelenghts of blue light, and absorb most other colors.
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DNA is a substance just like RNA and protein are. In a cell's nucleus DNA is "transcribed" into RNA (another substance), RNA (not DNA) is then "translated" into protein.
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The second one works really well, but not with all proteins.  I think the second one can look at several proteins at once too.  It's better suited for complex mixtures.
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hydrogen peroxide in hair bleadh H2O2 acts as a proton donor and acid the hair must act as a base and create a neutral solution
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Hair is an interesting biological structure. What we usually think of as 'hair' is really just the part we see... that's the hair shaft, which contains pigment (a chemical that gives color to things). There is also a hair follicle, which is a multi-cellular structure inside the skin of our scalp that creates the hair strand (making it grow), and also is responsible for the pigmentation. Some of the cells in the follicle make the chemical melanin, which is a skin and hair pigment in many species on our planet. \n\nHair turns grey when the pigment cells in the hair follicle stop making melanin. When this happens due to aging, it's mostly under the control of the genes we inherit. Long periods of constant stress may also contribute, but a big shock won't turn hair grey overnight.
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Very important. The only difference between life giving water (H2-O) and acid used to dye hair blond, Hydrogen-Peroxide (H-O) is the proper ratio of Hydrogen to Oxygen.  There are hundreds of cases like that.
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hair, because hair does not live once out of the follicle.
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Ferritin is an iron storage protein found mainly in liver. It's released in blood, where it can be dosed, giving information on iron body storage. Higher than normal values can be seen in haemochromatosis.
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Picture a string of beads- the beads are different sizes and shapes. \n\nNow, "proteins" are basically like a string of beads that could be a very long string or a short string. AND instead of beads, there are amino acids- with different shapes and sizes. \n\nBut these strings don't lie flat. Depending upon the amino acids and other factors, the protein strings bend and fold in certain ways. So the string may become more like a ball or other strange shapes; this affects the way the protein works and interacts with other protein or chemicals. \n\nHope that mental picture helps answer your question...
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YES , OUR BLOOD CONTAIN Hemoglobin or haemoglobin (frequently abbreviated as Hb) is the iron-containing oxygen-transport metalloprotein in the red cells of the blood in mammals and other animals. Hemoglobin transports oxygen from the lungs to the rest of the body, such as to the muscles, where it releases the oxygen load. IRON IS A CONDUCTOR OF ELECTRICITY
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haemoglobin - red blood cells\nmyoglobin - muscle cells
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The primary function of hemoglobin (Hb) is to transport oxygen. Since oxygen is not very soluble in water (the major constituent of blood), an oxygen transport protein must be used to allow oxygen to be 'soluble'. Hemoglobin (Hb) is the oxygen transport protein used in the blood of vertebrates. Below is a wireframe diagram of a hemoglobin molecule. It is composed of 4 polypeptide chains (represented in this diagram by different colors. Each chain contains one heme group (colored orange), each of which contains one iron ion (not shown). The iron is the site of oxygen binding; each iron can bind one O2 molecule thus each hemoglobin molecule is capable of binding a total to four (4) O2 molecules.