1. Identify the gene from which the query sequence originates (Name of gene)
2. Provide the FULL protein sequence encoded by the gene.
3. Are different splice variants known for this gene?
4. What human disease has been connected to this gene?
5. Calculate molecular weight (kiloDalton, kD) and calculated pI (the pH where the
protein carries no net electrical charge) of the protein.
6. Provide the reference (in proper reference form: Author; Year; Title; Journal
Name; Volume; Page Numbers) for a recent publication involving the identified
gene. This reference should NOT be a web page reference.
7. Are there homologues for the identified gene in other systems? Identify one
homologue in a invertebrate system (if there is none, provide a vertebrate
homologue).
8. What is the function (e. g. transcriptional regulation, transmembrane signaling,
kinase, protease etc.) of the protein(s) encoded by the gene.
9. Generate a FULL protein sequence alignment for one of the identified putative
protein products with at least one similar invertebrate protein (if there is none, use a
vertebrate homologue).
10. Generate a secondary structure prediction for one identified protein.

The sky is blue because gases and other particles in Earth's atmosphere scatter sunlight in all directions, which makes blue light scatter the most is its wavelength. The wavelength of blue light is shorter and smaller. This is the reason we see blue sky.

Explanation:

The light emitted by the sun is white light which constitute of all the rainbow colors. The light that is visible to our eyes depends on its wavelength. The light travels in a straight path until and unless it is hindered by some object or particles.

So, when white light from the Sun enters the atmosphere of the Earth, blue and violet light, which are smaller and shorter in wavelength, remains unscattered in the sky. Since blue is the color to which our eyes are mosts sensitive, the sky appears blue to the sky.

this protocol describes a detailed procedure for intracellular flow cytometry staining.

transcription is a process in which information is rewritten. it is something our cells must do, in a more specialized and narrowly defined way. in biology, transcription is the process of copying out the dna sequence of a gene in the similar alphabet of rna. it needs to happen in the nucleus because that's where the dna is. dna is always inside the nucleus unless the cell is dividing.

transcription is the first step in gene expression, which involves copying a gene's dna sequence to make an rna molecule. transcription is performed by rna polymerases. it has three stages: initiation, elongation, and termination. rna molecules must be processed after transcription in eukaryotes.

explanation:

long version:

the protein synthesis consists two processes which are, transcription and translation. transcription takes place in the nucleus. it uses dna as a template to make an rna molecule. rna then leaves the nucleus and goes to a ribosome in the cytoplasm, where translation occurs. transcription is the first part of the central dogma of molecular biology: dna → rna. it is the transfer of genetic instructions in dna to messenger rna (mrna). during transcription, a strand of mrna is made that is complementary to a strand of dna.  

these three stages are:

  initiation: in which   is the beginning of transcription.occuring when the enzyme rna polymerase binds to a region of a gene called the promoter. this signals the dna to unwind so the enzyme can ‘‘read’’ the bases in one of the dna strands. the enzyme is now ready to make a strand of mrna with a complementary sequence of bases.

    elongation: in which is the addition of nucleotides to the mrna strand. rna polymerase reads the unwound dna strand and builds the mrna molecule, using complementary base pairs. there is a brief time during this process when the newly formed rna is bound to the unwound dna. during this process, an adenine (a) in the dna binds to an uracil (u) in the rna.

    termination: in which is the ending of transcription, and occurs when rna polymerase crosses a stop (termination) sequence in the gene. the mrna strand is complete, and it detaches from dna.