The answer to 0.666666666 is equaled to 2/3 as a simplified fraction in thirds but if we wanted to know it in 30s it will equal 20/30.
20
Well, isn't that a happy little question! Let's see, to find out how many 30s are in 1000, we simply divide 1000 by 30. When we do that, we find that there are 33 and a third 30s in 1000. Isn't that just a lovely little math problem?
Exactly 20 of them
3/15 = 1/5 this is because the Common Divisor is 3... i.e. both the nominator & denominator are divisible by 3 : 3/3=1 & 15/3 = 5 In this instance 3 is the Lowest Common Divisor but 3/15 is also equal to 6/30s & 12/60s too...
ribosomes are not cells, they are organelles that produce and synthesize proteins. get it straight!
Ribosomes are not membrane bound, they are free cytoplasmic organelles responsible for the translation of cytoplasmic mRNA's. When a ribosome begins to synthesize proteins that are needed in some organelles, the ribosome making this protein can become "membrane-bound". In eukaryotic cells this happens in a region of the endoplasmic reticulum (ER) called the "rough ER". The newly produced polypeptide chains are inserted directly into the ER by the ribosome and are then transported to their destinations. Ribosome in eukaryotes are called 80S ribosomes and consist of a small 40S subunit and a larger 60S subunit. Prokaryotes have 70S ribosomes consisting of a 30S and 50S subunits. Hope this helps.
The 30S and 50S are two subunits that form a ribosome in prokaryotes. The 30 and 50 denote the individual size of each part, and the 'S' stands for Svedberg unit.
70S refers to the rate of sedimentation of the ribosome in a centrifuge. You can almost think of it as a unit of size. The "S" is a unit of measurement called the Svedberg unit. Ribosomes contain two subunits. In prokaryotes, these subunits are 50S (large) and 30S (small). The total ribosome with both subunits is 70S in prokaryotes. (Notice that 30 + 50 = 80 and not 70. Remember this is not size and the rate of sedimentation is less when the subunits are bound then when they are separated.) Eukaryotic cells have 80S ribosomes: 60S (large) and 40S (small) subunits.
70s ribosomes are prokaryotic ribosomes found in bacteria and some organelles like mitochondria and chloroplasts. They consist of a small 30s subunit and a large 50s subunit, which together form a functional ribosome for protein synthesis.
Kanamycin targets bacterial ribosomes by inhibiting protein synthesis, leading to the disruption of bacterial growth and ultimately cell death.
The sites A, P, and E are part of the ribosome, the cellular machinery responsible for protein synthesis. The A site binds incoming aminoacyl-tRNA, the P site holds the growing polypeptide chain, and the E site exits the empty tRNA after its amino acid is transferred to the growing chain.
Ribosomes in prokaryotic cells are identified as small and numerous granules present in the cytoplasm. They are responsible for protein synthesis by translating messenger RNA into proteins. Prokaryotic ribosomes are comprised of a small 30S subunit and a large 50S subunit, with a total size of 70S.
Both prokaryotic and eukaryotic cells have ribosomes, but prokaryotic ribosomes are smaller and consist of a 30S and 50S subunit (70S total), while eukaryotic ribosomes are larger and consist of a 40S and 60S subunit (80S total).
Prokaryotes have 70S ribosomes, each consisting of a small (30S) and a large (50S) subunit.
Streptomycin kills bacterial cells by binding to the bacterial ribosome and causing misreading of the genetic code during protein synthesis. This leads to the production of faulty proteins, disrupting essential cellular processes and ultimately killing the bacteria.
Eukaryotes have larger ribosomes compared to prokaryotes. Prokaryotic ribosomes are smaller and composed of a 30S and 50S subunit, while eukaryotic ribosomes are larger and made of a 40S and 60S subunit.