A typical living cell is specified for regular functioning in a body. Similarly, there are genes in DNA that encrypt protein molecules. It’s quite a complex procedure when a gene converts to particular proteins to perform functions afterwards. It consists of two significant steps, such as:
- Transcription
- Translation
There are different translation tools available that help a DNA translate its coding directly to proteins. One such tool is an EXPASY Translate Tool which permits a nucleotide to create a protein sequence.
We have provided different protein sequencing using this tool below, so let’s check them out!
Results of Expasy Translation
Sus scrofa gap junction protein alpha 1 (GJA1), mRNA
>NM_001244212.1 Sus scrofa gap junction protein alpha 1 (GJA1), mRNA
Translate Tool – Results of translation
Open reading frames are highlighted in red. Please select one of the following frames – in the next page, you will be able to select your initiator and retrieve your amino acid sequence:
5’3′ Frame 1
T R Y Q H F S F I R G K E Stop G K Y Q T A A D F Stop T L N R Q V Stop V P E L A F S F Y F I L Stop G V
5’3′ Frame 2
R G I S T F L S L G G R S E E S T K Q Q Q T F K L Stop I D R S E C L N L L F H F T S S S E A C
5’3′ Frame 3
E V S A L F F H Stop G E G V R K V P N S S R L L N F K Stop T G L S A Stop T C F F I L L H P L R R A
3’5′ Frame 1
G T P Q R Met K Stop N E K A S S G T Q T C L F K V Stop K S A A V W Y F P H S F P L Met K E K C Stop Y L
3’5′ Frame 2
A R L R G Stop S K Met K K Q V Q A L R P V Y L K F K S L L L F G T F L T P S P Stop Stop K K S A D T S
3’5′ Frame 3
H A S E D E V K Stop K S K F R H S D L S I Stop S L K V C C C L V L S S L L P P N E R K V L I P
DNA to Protein Translation
Protein Sequence
Frame 1
I L L L G T A V E S A W G D E Q S A F R C N T Q Q P G C E N V C Y D K S F P I S H V R F W V L Q I I 50
F V S V P T L L Y L A H V F Y V M R K E * S R * K * R S L S T A L R S T A R * K C E G
Total length= 93
Map
1 A U C C U G C U C U U G G G C A C A G C U G U U G A G U C A G C C U G G G G U G A U G A G C A G U C U G C C U U U C G U 60
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U A G G A C G A G A A C C C G U G U C G A C A A C U C A G U C G G A C C C C A C U A C U C G U C A G A C G G A A A G C A
I L L L G T A V E S A W G D E Q S A F R
S C S W A Q L L S Q P G V M S S L P F V
P A L G H S C * V S L G * * A V C L S L
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D Q E Q A C S N L * G P T I L L R G K T
G A R P C L Q Q T L R P H H A T Q R E N
R S K P V A T S D A Q P S S C D A K R Q 61 U G U A A C A C U C A G C A A C C C G G U U G U G A A A A U G U C U G C U A U G A C A A A U C C U U C C C C A U C U C U 120
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A C A U U G U G A G U C G U U G G G C C A A C A C U U U U A C A G A C G A U A C U G U U U A G G A A G G G G U A G A G A
C N T Q Q P G C E N V C Y D K S F P I S
V T L S N P V V K M S A M T N P S P S L
* H S A T R L * K C L L * Q I L P H L S
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T V S L L G T T F I D A I V F G E G D R
Y C E A V R N H F H R S H C I R G W R E
L V * C G P Q S F T Q * S L D K G M E * 121 C A C G U G C G U U U C U G G G U C C U G C A G A U C A U A U U U G U G U C U G U U C C U A C A C U C U U G U A C C U G 180
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G U G C A C G C A A A G A C C C A G G A C G U C U A G U A U A A A C A C A G A C A A G G A U G U G A G A A C A U G G A C
H V R F W V L Q I I F V S V P T L L Y L
T C V S G S C R S Y L C L F L H S C T W
R A F L G P A D H I C V C S Y T L V P G
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V H T E P D Q L D Y K H R N R C E Q V Q
R A N R P G A S * I Q T Q E * V R T G P
T R K Q T R C I M N T D T G V S K Y R A 181 G C U C A U G U G U U C U A C G U G A U G C G A A A G G A A U A A A G C A G A U A G A A A U A A A G A A G U U U A A G U 240
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C G A G U A C A C A A G A U G C A C U A C G C U U U C C U U A U U U C G U C U A U C U U U A U U U C U U C A A A U U C A
A H V F Y V M R K E * S R * K * R S L S
L M C S T * C E R N K A D R N K E V * V
S C V L R D A K G I K Q I E I K K F K Y
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S M H E V H H S L F L A S L F L S T * T
E H T R R S A F P I F C I S I F F N L Y
* T N * T I R F S Y L L Y F Y L L K L V 241 A C G G C A U U G A G G A G C A C G G C A A G G U G A A A A U G C G A G G G G G 280
—————————————-
U G C C G U A A C U C C U C G U G C C G U U C C A C U U U U A C G C U C C C C C
T A L R S T A R * K C E G
R H * G A R Q G E N A R G
G I E E H G K V K M R G
—————————————-
R C Q P A R C P S F A L P
P M S S C P L T F I R P P
A N L L V A L H F
MBOSS TRANSEQ
Sus scrofa gap junction protein alpha 1 (GJA1), mRNA
>NM_001244212.1 Sus scrofa gap junction protein alpha 1 (GJA1), mRNA
A C G A G G T A T C A G C A C T T T T C T T T C A T T A G G G G G A A G G A G T G A G G A A A G T A C C A A A C A G C A G C A G A C T T T T
A A A C T T T A A A T A G A C A G G T C T G A G T G C C T G A A C T T G C T T T T T C A T T T T A C T T C A T C C T C T G A G G C G T G C C
T A C T T C A C T T C T T T T A A G G G A A A G A G T A G T G T C C G G G C A A C A T G G G T G A C T G G A G T G C C T T A G G C A A A C T
C C T T G A C A A G G T T C A A G C C T A T T C C A C C G C T GG A G G G A A G G T G T G G C T G T C A G T C C T T T T C A T T T T C C G A
A T C C T G C T C T T G G G C A C A G C T G T T G A G T C A G C C T G G G G T G A T G A G C A G T C T G C C T T T C G T T G T A A C A C T C
A G C A A C C C G G T T G T G A A A A T G T C T G C T A T G A C A A A T C C T T C C C C A T C T C T C A C G T G C G T T T C T G G G T C C T
G C A G A T C A T A T T T G T G T C T G T T C C T A C A C T C T T G T A C C T G G C T C A T G T G T T C T A C G T G A T G C G A A A G G A A
G A G A A A C T G A A C A A G A A A G A G G A G G A A C T C A A A G T T G C C C A A A C T G A C G G T G T C A A C G T G G A G A T G C A C T
T A A A G C A G A T A G A A A T A A A G A A G T T T A A G T A C G G C A T T G A G G A G C A C G G C A A G G T G A A A A T G C G A G G G G G
C T T G C T G C G A A C C T A C A T C A T C A G T A T C C T C T T C A A G T C T G T C T T C G A G G T G G C C T T C T T G C T G A T C C A A
T G G T A C A T C T A T G G A T T C A G C C T G A G T G C T G T T T A C A C T T G C A A A A G A G A T C C C T G C C C G C A C C A G G T G G
A C T G T T T C C T C T C T C G T C C C A C G G A G A A A A C C A T C T T C A T C A T C T T C A T G C T G G T C G T A T C C T T G G T G T C
T C T C G C C T T G A A C A T C A T C G A A C T C T T C T A T G T C T T C T T C A A G G G T G T T A A G G A T C G T G T G A A G G G A A A G
A G T G A T C C T T A C C A C G C C A C C A C C G G T C C A C T G A G C C C C T C C A A A G A C T G T G G A T C T C C A A A A T A C G C T T
A T T T C A A T G G C T G C T C C T C A C C A A C T G C T C C G C T C T C A C C C A T G T C C C C T C C C G G A T A C A A G C T G G T T A C
C G G A G A C A G A A A C A A T T C T T C C T G C C G C A A T T A C A A C A A A C A A G C G A G T G A G C A A A A C T G G G C T A A T T A C
A G T G C C G A G C A G A A T C G A A T G G G G C A G G C A G G A A G C A C C A T C T C T A A C T C C C A T G C AC A G C C T T T T G A T T
T C C C C G A T G A C A A C C A G A A T T C T A A A A A A C T C G A T G C T G G C C A T G A A C T C C A G C C T C T A G C C A T T G T G G A
C C A G C G G C C T T C C A G C A G A G C C A G C A G T C G C G C C A G C A G C C G A C C T C G G C C T G A T G A C C T G G A G A T C T A G
A G C C A A T C T T G A G A A C A T C A A G A T T C C A C T C A G T T G T G G A G A A G A A A A A G G T G C T A T A G A A A G T G C A C C T
T A G G T G T T C A T T T T T T T T C C A G T G G A G G T G G T A C T C A A C A G C C T T G T C A C A A G G C T T A G A A A A C A C A A A G
A C A T T A G A A T A C C T G G T T C A T A G G G G G T G T T A G G G A T A G G T G G G T G G A G A G G G A G G G G A T G A G G G A G G T A
C A G G T T G G T A T T T A A T G T A G T T G A C T T A A A G A A C T T A A G T T C T A A A T A A C A G T T G C A T T A G G T G A T CT A T
A G G T A A G G G C T T T T T C T C C T C C C C A T A C C C T T A A G A A T A G C T C T G T G T A T G T G A A A G A G T G G G T G A T G T T
T T T G G C T A A A T A C T T T T T T C A T T T T A C C A A G A A A C T G A A A T A A C T T T G G C C A G G A G A A A A T A C T T C C T G A
A C A T T T T A T T T C T C T T T T T C A A G A A A A A G A C A G A G G A T T T T C C T T G A G T C C C T G C T A A A A C A T T C C A T T G
T T A A A A T T T G C A C T T T G A A G G T A A G C T T T T T A G G C C T G A C C C T C C A G G T G T C A A T G G A C T T G T G C T A C T A
T A T T T T T T A A T C T T G G T A T C A G T T A A A A G T T C A G A C A A G G C C C A C A G A A A A A G A T G T T C C A A G C A T T T G C
A A A T C T C A G C C G G T T A C A C A A A C C T T C T T T T T T A C A T C C A C T T G C T T A T A T T A T T A C C A T C A C T T T A C G T
C A T T C C T C A A C T A C T A T C A C A T C C A T T T A A T G A T T T C T G T A A A C A T T T T T T A A A C A G T T A G G A T G T C A C T
T A A C A T T T T T T G A G T T A G A G T C A G G G A A G C A A G C C A T G CT C A A T A T T T A A C A A T C A C T T G T A T G T A T A T G
T T T G T G G A A G AG T G T G T T T T A T T T G T C A T G T A T T G G T A C A A G C A GA T G C A G T A T A A A C T C A C A A A C A C A G
A T T T G A A A A T A A T G C A C A C A G T G T T C A A A T T T G A A C T T T T C T C A T G G A T T T C A T G G T A TG G G C CA A C A T G
G T G T T T A C A T T A T A T A A T T C C T G C T G T G C A A G T A A A G C A C A C T T T T T T T T C C C T A A A A T T T T T T T T C C C C
A T G T A T C C T A T T A T G G A T A C T A G T T T T G T T A A T T A T G A T T C T T T T T TT T C T C T T T T C T T T T T T T T T A G A A
T A T A G C A G T T A A T G C T A T T G C T G A A A T G A A T G A T T T T T T T T T C T G A A A T A T A A T C A T T G A T G C T T G A A T G
A T A G A A T T T T A GT A C T G T A A A C A G G C T T T A G T A A T T A A T G T G A G A G A C T T A G A A G A A A T G C T T A G A A T G G
A C T A T T G A G T G T G C C T A A A T G A A T T C T G C A G T A A C T G G T A T T C T T G G T T T T G T G C T A C T T A A T A C A C A T T
A A T T C A G A A A C T G T A T T C T G T T A T G A G T T T G A C A G T C T T T T G G A G C A A C C A A C A A C T T T G A T G T T T GC A C
T A A G A T T T T A T T T G G A A TG C A A G A G A G G T T G A A A GA G C T T T C A G T A G T A C A C A T G T A A C T A A T T T A T T T G
A A A T C T G T C C T A A A G A A A T C T A C C A G T T T G T T C A A A T G C C T T T T T A A A A T T C A T C A C A G A T A A T T A G T G A
A A A C G C A G A G T A T C G T A C T T T T C T T C T T G CA T G T C A A CA A C A T A A A CA G T T T T G T A C A A T G A G A A A T A C T
A A T T T G T T T G A C A T T C C A T A T T A A A C T A C T G T C A T G T T C A G C T T C A T T G C A T G T A A T G T A G A C T A G T C C A
T C A G A T C A T G T G T T T C T G G A G A G T G T T C T T T A T T C A A T A A A G T T T T A A T T T A G T A T A A A G A G A G C C T C T A
A A A A A A A A A A A A A A A A A
The Biomadam Content Team develops and manages educational and informational articles published on Biomadam. Content is prepared using standard reference materials and follows internal editorial guidelines to ensure clarity and consistency.
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