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GenScript corporation liver-optimized egfp sequence
Comparative analyses of reporter gene sequences following codon optimization. ( A and B ) Heatmap display of DNA sequence similarity between codon-optimized <t>Egfp</t> (A) or FLuc (B) reporter gene sequences through DL models, wild-type/original sequences, and codon-optimized by the GenScript (GS) tool. ( C and D ) Histograms of CAI values, GC content, and CpG dinucleotides for codon-optimized FLuc (C) or Egfp (D) sequences. ( E and F ) Heatmap of codon preferences between optimized FLuc (E) or Egfp (F).
Liver Optimized Egfp Sequence, supplied by GenScript corporation, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/result/liver-optimized egfp sequence/product/GenScript corporation
Average 90 stars, based on 1 article reviews
liver-optimized egfp sequence - by Bioz Stars, 2026-04
90/100 stars

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1) Product Images from "A deep learning model trained on expressed transcripts across different tissue types reveals cell-type codon-optimization preferences"

Article Title: A deep learning model trained on expressed transcripts across different tissue types reveals cell-type codon-optimization preferences

Journal: Nucleic Acids Research

doi: 10.1093/nar/gkaf233

Comparative analyses of reporter gene sequences following codon optimization. ( A and B ) Heatmap display of DNA sequence similarity between codon-optimized Egfp (A) or FLuc (B) reporter gene sequences through DL models, wild-type/original sequences, and codon-optimized by the GenScript (GS) tool. ( C and D ) Histograms of CAI values, GC content, and CpG dinucleotides for codon-optimized FLuc (C) or Egfp (D) sequences. ( E and F ) Heatmap of codon preferences between optimized FLuc (E) or Egfp (F).
Figure Legend Snippet: Comparative analyses of reporter gene sequences following codon optimization. ( A and B ) Heatmap display of DNA sequence similarity between codon-optimized Egfp (A) or FLuc (B) reporter gene sequences through DL models, wild-type/original sequences, and codon-optimized by the GenScript (GS) tool. ( C and D ) Histograms of CAI values, GC content, and CpG dinucleotides for codon-optimized FLuc (C) or Egfp (D) sequences. ( E and F ) Heatmap of codon preferences between optimized FLuc (E) or Egfp (F).

Techniques Used: Sequencing

Quantification of codon-optimized reporter genes. ( A–D ) Histograms showing relative luciferase activity from Neuro-2a (neuroblasts) (A), AML12 (hepatocytes) (B), C2C12 (myoblasts) (C), and differentiated C2C12 (dC2C12, myotubes) (D) transfected with the wild-type FLuc construct, codon-optimized constructs obtained from DL models trained with brain, liver, and muscle genes, or optimized by the GenScript (GS) algorithm. Values represent normalized luciferase activities scaled to wild-type levels set to 100. ( E ) Representative epifluorescence microscopy images of transfected cells (scale bar: 10 μm). Neuro-2a (top row), AML12 (middle row), or C2C12 (bottom row) cells were transfected with the original Egfp construct, DL-based codon-optimized constructs, or optimized by the GenScript algorithm. ( F – H ) Cells were subjected to flow cytometry analyses and evaluated for MFI. Histograms showing the detection of EGFP fluorescence for Neuro2a (F), AML12 (G), and C2C12 (H). n = 3; >10 000 events counted. All histograms show mean values ± SD; * P < 0.05, ** P < 0.01, *** P < 0.001.
Figure Legend Snippet: Quantification of codon-optimized reporter genes. ( A–D ) Histograms showing relative luciferase activity from Neuro-2a (neuroblasts) (A), AML12 (hepatocytes) (B), C2C12 (myoblasts) (C), and differentiated C2C12 (dC2C12, myotubes) (D) transfected with the wild-type FLuc construct, codon-optimized constructs obtained from DL models trained with brain, liver, and muscle genes, or optimized by the GenScript (GS) algorithm. Values represent normalized luciferase activities scaled to wild-type levels set to 100. ( E ) Representative epifluorescence microscopy images of transfected cells (scale bar: 10 μm). Neuro-2a (top row), AML12 (middle row), or C2C12 (bottom row) cells were transfected with the original Egfp construct, DL-based codon-optimized constructs, or optimized by the GenScript algorithm. ( F – H ) Cells were subjected to flow cytometry analyses and evaluated for MFI. Histograms showing the detection of EGFP fluorescence for Neuro2a (F), AML12 (G), and C2C12 (H). n = 3; >10 000 events counted. All histograms show mean values ± SD; * P < 0.05, ** P < 0.01, *** P < 0.001.

Techniques Used: Luciferase, Activity Assay, Transfection, Construct, Epifluorescence Microscopy, Flow Cytometry, Fluorescence



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GenScript corporation liver-optimized egfp sequence
Comparative analyses of reporter gene sequences following codon optimization. ( A and B ) Heatmap display of DNA sequence similarity between codon-optimized <t>Egfp</t> (A) or FLuc (B) reporter gene sequences through DL models, wild-type/original sequences, and codon-optimized by the GenScript (GS) tool. ( C and D ) Histograms of CAI values, GC content, and CpG dinucleotides for codon-optimized FLuc (C) or Egfp (D) sequences. ( E and F ) Heatmap of codon preferences between optimized FLuc (E) or Egfp (F).
Liver Optimized Egfp Sequence, supplied by GenScript corporation, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/result/liver-optimized egfp sequence/product/GenScript corporation
Average 90 stars, based on 1 article reviews
liver-optimized egfp sequence - by Bioz Stars, 2026-04
90/100 stars
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Comparative analyses of reporter gene sequences following codon optimization. ( A and B ) Heatmap display of DNA sequence similarity between codon-optimized Egfp (A) or FLuc (B) reporter gene sequences through DL models, wild-type/original sequences, and codon-optimized by the GenScript (GS) tool. ( C and D ) Histograms of CAI values, GC content, and CpG dinucleotides for codon-optimized FLuc (C) or Egfp (D) sequences. ( E and F ) Heatmap of codon preferences between optimized FLuc (E) or Egfp (F).

Journal: Nucleic Acids Research

Article Title: A deep learning model trained on expressed transcripts across different tissue types reveals cell-type codon-optimization preferences

doi: 10.1093/nar/gkaf233

Figure Lengend Snippet: Comparative analyses of reporter gene sequences following codon optimization. ( A and B ) Heatmap display of DNA sequence similarity between codon-optimized Egfp (A) or FLuc (B) reporter gene sequences through DL models, wild-type/original sequences, and codon-optimized by the GenScript (GS) tool. ( C and D ) Histograms of CAI values, GC content, and CpG dinucleotides for codon-optimized FLuc (C) or Egfp (D) sequences. ( E and F ) Heatmap of codon preferences between optimized FLuc (E) or Egfp (F).

Article Snippet: Similarly, the expression conferred by the liver-optimized Egfp sequence in AML12s was higher than the expression levels generated by the original or GenScript-optimized sequences (Fig. ).

Techniques: Sequencing

Quantification of codon-optimized reporter genes. ( A–D ) Histograms showing relative luciferase activity from Neuro-2a (neuroblasts) (A), AML12 (hepatocytes) (B), C2C12 (myoblasts) (C), and differentiated C2C12 (dC2C12, myotubes) (D) transfected with the wild-type FLuc construct, codon-optimized constructs obtained from DL models trained with brain, liver, and muscle genes, or optimized by the GenScript (GS) algorithm. Values represent normalized luciferase activities scaled to wild-type levels set to 100. ( E ) Representative epifluorescence microscopy images of transfected cells (scale bar: 10 μm). Neuro-2a (top row), AML12 (middle row), or C2C12 (bottom row) cells were transfected with the original Egfp construct, DL-based codon-optimized constructs, or optimized by the GenScript algorithm. ( F – H ) Cells were subjected to flow cytometry analyses and evaluated for MFI. Histograms showing the detection of EGFP fluorescence for Neuro2a (F), AML12 (G), and C2C12 (H). n = 3; >10 000 events counted. All histograms show mean values ± SD; * P < 0.05, ** P < 0.01, *** P < 0.001.

Journal: Nucleic Acids Research

Article Title: A deep learning model trained on expressed transcripts across different tissue types reveals cell-type codon-optimization preferences

doi: 10.1093/nar/gkaf233

Figure Lengend Snippet: Quantification of codon-optimized reporter genes. ( A–D ) Histograms showing relative luciferase activity from Neuro-2a (neuroblasts) (A), AML12 (hepatocytes) (B), C2C12 (myoblasts) (C), and differentiated C2C12 (dC2C12, myotubes) (D) transfected with the wild-type FLuc construct, codon-optimized constructs obtained from DL models trained with brain, liver, and muscle genes, or optimized by the GenScript (GS) algorithm. Values represent normalized luciferase activities scaled to wild-type levels set to 100. ( E ) Representative epifluorescence microscopy images of transfected cells (scale bar: 10 μm). Neuro-2a (top row), AML12 (middle row), or C2C12 (bottom row) cells were transfected with the original Egfp construct, DL-based codon-optimized constructs, or optimized by the GenScript algorithm. ( F – H ) Cells were subjected to flow cytometry analyses and evaluated for MFI. Histograms showing the detection of EGFP fluorescence for Neuro2a (F), AML12 (G), and C2C12 (H). n = 3; >10 000 events counted. All histograms show mean values ± SD; * P < 0.05, ** P < 0.01, *** P < 0.001.

Article Snippet: Similarly, the expression conferred by the liver-optimized Egfp sequence in AML12s was higher than the expression levels generated by the original or GenScript-optimized sequences (Fig. ).

Techniques: Luciferase, Activity Assay, Transfection, Construct, Epifluorescence Microscopy, Flow Cytometry, Fluorescence