we can see that the nucleosome alone allows for a __21__-fold compaction ratio.
ID: 82062 • Letter: W
Question
we can see that the nucleosome alone allows for a __21__-fold compaction ratio. The nucleosome structure is further compacted by histone __22__, which is not a part of the core particle. Instead, this histone __23__ (does what?) to cause the nucleosomal 10 nm fiber to condense into a higher-order structure referred to as the __24__ nm fiber. In the nucleus, chromosomes do not just float around freely: they are tethered to a proteinaceous structure called the __25__ at specific DNA regions called “SARs”, which stands for __26__. we can see that the nucleosome alone allows for a __21__-fold compaction ratio. The nucleosome structure is further compacted by histone __22__, which is not a part of the core particle. Instead, this histone __23__ (does what?) to cause the nucleosomal 10 nm fiber to condense into a higher-order structure referred to as the __24__ nm fiber. In the nucleus, chromosomes do not just float around freely: they are tethered to a proteinaceous structure called the __25__ at specific DNA regions called “SARs”, which stands for __26__. we can see that the nucleosome alone allows for a __21__-fold compaction ratio. The nucleosome structure is further compacted by histone __22__, which is not a part of the core particle. Instead, this histone __23__ (does what?) to cause the nucleosomal 10 nm fiber to condense into a higher-order structure referred to as the __24__ nm fiber. In the nucleus, chromosomes do not just float around freely: they are tethered to a proteinaceous structure called the __25__ at specific DNA regions called “SARs”, which stands for __26__.Explanation / Answer
21. 6 fold
22. H1 histone
23.binds nucleosome at entry and exit sites of DNA
24. 30 nm fiber
25. nuclear lamina
26. Scafold attachment regions
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