Team:ASIJ Tokyo/Improve

IMPROVE


BBa_K525998 T7 Promoter
BBa_K892008 osmY
BBa_1223006 His tag
BBa_B0010 Transcriptional Terminator
BBa_B0012 Transcriptional Terminator
BBa_B0015 Double Transcriptional Terminator
BBa_J23100 GFP Promoter
BBa_E0040 GFP Reporter

Improved Parts

Part Name Long Description
BBa_K2562000 SERPINA1 gene coding for Alpha-1-antitrypsin The SERPINA1 gene coding for the Alpha-1 Antitrypsin protein is derived from Homo sapiens. In studying the point mutation E342K, or the replacement of glutamic acid with lysine, this coding sequence can be used as a control, as it remains unmutated.
BBa_K2562001 E342K point mutation in SERPINA1 gen The SERPINA1 gene coding for the Alpha-1 Antitrypsin protein is derived from Homo sapiens. The coding sequence has a point mutation at E342K, a replacement of glutamic acid for lysine. The mutation accounts for Alpha-1 antitrypsin deficiency, in which the lack of Alpha-1 antitrypsin leads to a defective lung and liver.
BBa_K2562002 E342K point mutation corrected through CRISPR technology in the SERPINA1 gene The SERPINA1 gene coding for the Alpha-1 Antitrypsin protein is derived from Homo sapiens. We used CRISPR technology to cut out the faulty mutation and replace the E342K point mutation with its correct amino acid in the SERPINA1 gene.
BBa_K2562003 SERPINA1 secretion using an OsmY tag, a GFP reporter system, and a double terminator The SERPINA1 gene coding for the Alpha-1 Antitrypsin protein is derived from Homo sapiens. Secretion was optimized through the use of an OsmY tag and reported through GFP fluorescence.
BBa_K2562004 Secretion of SERPINA1 with E342K point mutation using an OsmY tag, a GFP reporter system, and a double terminator The SERPINA1 gene coding for the Alpha-1 Antitrypsin protein is derived from Homo sapiens.The SERPINA1 coding sequence has a point mutation at E342K, a replacement of glutamic acid for lysine. The mutation accounts for Alpha-1 antitrypsin deficiency, in which the lack of Alpha-1 antitrypsin leads to a defective lung and liver. Its secretion was optimized through an OsmY tag and reported through GFP fluorescence.
BBa_K2562005 Secretion of CRISPR corrected E342K mutation in SERPINA1 using an OsmY tag, a GFP reporter system, and a double terminator The SERPINA1 gene coding for the Alpha-1 Antitrypsin protein is derived from Homo sapiens. The coding sequence has a point mutation at E342K, a replacement of glutamic acid for lysine. We used CRISPR technology to cut out the faulty mutation and replace the E342K point mutation with its correct amino acid in the SERPINA1 gene. Secretion was optimized through the use of an OsmY tag and reported through GFP fluorescence.
BBa_K2562006 SERPINA1 secretion using an OsmY tag, His tag, a GFP reporter system, and single terminator The SERPINA1 gene coding for the Alpha-1 Antitrypsin protein is derived from Homo sapiens. Secretion was optimized through the use of an OsmY tag and a His tag and reported through GFP fluorescence. Recommended: For protein purification, nickel lined chromatography tubes were used for this because of the His tag.
BBa_K2562007 Secretion of SERPINA1 with E342K point mutation using an OsmY tag, His tag, a GFP reporter system, and single terminator The SERPINA1 gene coding for the Alpha-1 Antitrypsin protein is derived from Homo sapiens.The SERPINA1 coding sequence has a point mutation at E342K, a replacement of glutamic acid for lysine. The mutation accounts for Alpha-1 antitrypsin deficiency, in which the lack of Alpha-1 antitrypsin leads to a defective lung and liver. Its secretion was optimized through an OsmY tag and a His tag, and it was reported with GFP fluorescence. Recommended: For protein purification, nickel lined chromatography tubes were used for this because of the His tag.
BBa_K2562008 Secretion of CRISPR corrected E342K mutation in SERPINA1 using an OsmY tag, His tag, a GFP reporter system, and a single terminator The SERPINA1 gene coding for the Alpha-1 Antitrypsin protein is derived from Homo sapiens. The coding sequence has a point mutation at E342K, a replacement of glutamic acid for lysine. We used CRISPR technology to cut out the faulty mutation and replace the E342K point mutation with its correct amino acid in the SERPINA1 gene. Secretion was optimized through the use of an OsmY tag and His tag, and it was reported with GFP fluorescence. Recommended: For protein purification, nickel lined chromatography tubes were used for this because of the His tag.