Human GPR179 Gene, Full-length cDNA Clone in Lentivector, Endotoxin-free DNA
GPR179 (Probable G-protein coupled receptor 179) is a 7 transmembrane (7TM) receptor belonging to the family 3 (also known as family C) of the G-protein-coupled receptors (GPCRs). Structurally they are composed of 4 elements; an N-terminal signal peptide; a large hydrophilic extracellular agonist-binding region; a region containing 7TM domains; and a C-terminal cytoplasmic domain of variable length. Family 3 members include the metabotropic glutamate receptors (mGluRs), the extracellular calcium-sensing receptors (CASRs), the gamma-amino-butyric acid (GABA) type B receptors, and the vomeronasal type-2 receptors. These GPCRs regulate many important physiological processes and many of them are promising targets for drug development. GPR179 is an orphan receptor whose function remains unknown. It may be involved in vision for signal transduction through retinal depolarizing bipolar cells. GPR179 has an EGF-like calcium binding domain and a 7-TM domain in the N-terminal region of the protein. Mutations in this gene are associated with congenital stationary night blindness type 1E.
Gene Symbol: GPR179; CSNB1E; GPR158L, GPR158L1
NCBI Gene ID: 440435
Uniprot Entry: Q6PRD1
Construct Details: Full length human GPR179 gene is subcloned into the Lentiviral expression vector pLTC with an upstream CMV promoter and with or without a selection marker, which can be used for both transient and stable expression in mammalian cells. It can be co-transfected with the LentiPAK DNA mix (SKU# LP-001) into HEK293 cells to produce high titer lentiviral particles. Multiple choices of a stable antibiotic selection marker are available.
Vector Type: pLTC or pLTC-IRES-Marker (lentiviral expression vector containing a heterologous CMV promoter +/- a selection marker, see the vector map above)
Formulation: Supplied with 10 μg of endotoxin-free plasmid DNA at 200 ng/μl in sterile TE buffer (pH8.0)
Gene Insert Size: 7104 (bp)
Gene Insert Sequence:
ATGGGCACCAGGGGAGCGGTCATGCCCCCTCCTATGTGGGGGCTGCTGGGCTGCTGTTTTGTCTGTGCCT
GGGCTCTGGGGGGTCCACGGCCCATCCGCTCTCTGCCCCCTCTGTCTTCCCAAGTCAAGCCAGGATCTGT
ACCCATGCAGGTGCCCCTAGAGGGGGCCGAGGCCGCCCTCGCTTATCTCTACTCTGGAGATGCCCAGCAG
CTATCACAGGTGAATTGCAGTGAGCGCTATGAAGCGCGTGGGGCAGGAGCCATGCCAGGGCTCCCCCCAA
GCCTACAGGGGGCAGCGGGCACCCTTGCCCAGGCCGCCAATTTTCTCAACATGCTGCTGCAAGCCAACGA
CATCCGTGAGTCCAGTGTGGAGGAGGATGTGGAATGGTACCAGGCACTGGTCCGCAGCGTGGCCGAGGGG
GACCCAAGAGTGTACAGGGCTTTGCTGACCTTTAACCCTCCACCAGGGGCCAGCCACCTACAGCTGGCCC
TGCAGGCCACCCGGACTGGGGAGGAAACCATCCTGCAGGACTTGTCTGGGAACTGGGTGCAGGAGGAGAA
CCCTCCTGGGGACCTGGACACCCCTGCCCTGAAGAAGCGAGTGTTGACCAATGACCTAGGGAGCCTCGGC
AGCCCCAAGTGGCCGCAGGCAGATGGATATGTGGGGGACACGCAGCAGGTGAGGCTGTCTCCTCCTTTCC
TGGAATGCCAGGAGGGACGGCTCCGACCTGGATGGCTGATCACACTCTCTGCCACCTTCTATGGACTCAA
GCCAGACCTCAGCCCAGAAGTCAGGGGGCAGGTGCAGATGGACGTAGATCTCCAGAGTGTGGACATCAAT
CAGTGTGCAAGTGGCCCAGGCTGGTACTCTAACACACACCTGTGTGATCTCAACAGCACCCAGTGTGTCC
CCCTGGAGAGTCAGGGCTTTGTTCTTGGCCGCTACCTCTGCCGCTGCCGACCTGGATTCTACGGGGCAAG
CCCCTCTGGGGGGTTAGAGGAGAGTGACTTCCAGACTACCGGGCAATTCGGGTTCCCAGAAGGCAGATCT
GGGAGACTGCTGCAGTGTCTGCCATGTCCTGAGGGCTGCACCAGCTGCATGGATGCCACACCGTGCCTGG
TGGAAGAGGCCGCGGTGCTGCGGGCCGCTGTGCTGGCCTGCCAGGCCTGCTGCATGCTGGCCATCTTCCT
GAGCATGCTGGTCTCCTACCGCTGCCGCCGGAACAAGAGGATCTGGGCATCTGGAGTGGTCCTGCTGGAA
ACTGTCCTTTTTGGATTCCTGCTGCTTTACTTTCCTGTCTTCATCCTATACTTCAAGCCCAGTGTATTCC
GCTGCATCGCTCTTCGCTGGGTGCGGCTGCTGGGTTTTGCCATCGTCTACGGCACCATCATACTCAAGCT
TTACAGAGTGCTGCAGCTGTTTCTGTCTCGAACGGCCCAGCGGAGTGCCCTTCTGAGCAGCGGGCGGCTG
CTGCGGCACCTGGGGCTGCTCCTGCTACCTGTGCTGGGCTTCCTGGCTGTGTGGACCGTGGGCGCCCTGG
AGCGAGGCATCCAGCACGCACCTCTGGTGATCCGAGGCCACACTCCCAGTGGCCGCCATTTCTACCTCTG
TCACCACGACCGCTGGGACTACATCATGGTTGTGGCTGAGCTGCTGCTGCTGTGCTGGGGCAGCTTCCTC
TGCTACGCCACACGGGCTGTGCTCTCGGCCTTCCATGAGCCACGCTACATGGGCATCGCCCTGCACAATG
AGCTACTGCTTTCCGCTGCCTTCCACACAGCCAGGTTTGTGCTGGTTCCCTCTCTGCACCCGGACTGGAC
CCTCCTCCTCTTCTTCTTCCACACCCACAGCACAGTCACCACCACGCTGGCTCTGATCTTCATCCCTAAG
TTCTGGAAGCTGGGGGCTCCTCCCCGGGAGGAGATGGTGGATGAGGTGTGTGAGGACGAGCTGGACCTGC
AGCACTCAGGCTCCTACCTTGGCAGCAGCATCGCCTCAGCCTGGAGTGAGCACAGCCTGGACCCTGGAGA
CATTCGGGACGAGCTGAAGAAGCTCTATGCCCAGCTAGAGGTCCACAAAACCAAGGAAATGGCCGCAAAC
AACCCCCACCTGCCCAAGAAGCGAGGCAGCTCATGCCAGGGACTGGGCCGCTCCTTCATGAGGTACCTGG
CGGAATTCCCCGAGGCCCTGGCCAGGCAGCACTCCCGGGACTCAGGATCCCCAGGCCACGGCAGCCTGCC
CGGCTCCTCCCGCCGCCGGCTCCTCAGCTCCAGCCTCCAGGAACCCGAGGGGACACCAGCTCTGCACAAG
TCCCGCAGCACCTATGACCAGCGCAGGGAGCAGGACCCGCCTCTTCTTGACTCACTGCTGAGGAGGAAGC
TGGCCAAGAAGGCCTCTCGAACAGAGAGCCGGGAGTCGGTGGAGGGGCCCCCTGCCCTGGGCTTCAGGTC
AGCCAGCGCCCACAACCTGACGGTGGGAGAGAGGCTACCCAGAGCCCGGCCCGCCTCTCTGCAGAAGTCG
CTCAGTGTGGCCAGCTCCAGGGAAAAGGCCTTGCTCATGGCCAGCCAGGCCTACCTGGAGGAGACCTACC
GGCAAGCAAAGGAGCGGGAGGAGCGGAAGAAGGCCAAGGCAGCCATGGCCAGCCTGGTGCGGAGGCCATC
AGCCAGGAGGCTGGAGCGGCCTCGAGGGGCCCCCCTGTCAGCTCCACCTTCCCCTGCCAAGAGCAGCAGC
GTGGACAGCTCTCACACCTCTGGGAGGCTTCATGAGGAGGCTAGGAGAAGGCTGCCTCATCCACCCATCA
GGCACCAGGTTTCTACCCCCATCTTGGCCCTGTCTGGGGGCCTGGGAGAGCCAAGGATGCTATCTCCCAC
CTCCACCTTGGCTCCAGCTCTGCTGCCAGCTCTAGCTCCAACCCCAGCCCCTGCCCTGGCACCAGTCCCA
GTATCCCCACAAAGCCCCAACTTACTCACCTACATCTGCCCCTGGGAGAACGCAGAACTGCCAGCCAAGC
AAGAAAATGTGCCCCAGGAAGGCCCCTCAGGGCCAGAGCGAGGCCACCACTCCCCTGCCCCAGCTCGAGC
CAGGCTCTGGAGGGCCCTCTCTGTTGCAGTAGAGAAAAGCAGGGCTGGGGAGAATGAGATGGACGCAGAG
GATGCACATCACCAGAGGGAAGCTAATGATGTGGACGAAGACAGGCCCAAGATCTTCCCTAAATCCCACA
GCCTCAAGGCCCCTGTTCAGCAGGGTTCCATGCGCAGCCTGGGGCTGGCGATTAAAGCTCTGACCCGTTC
TCGGAGCACCTACAGAGAGAAGGAGAGTGTGGAGGAGAGTCCCGAGGGGCAGAACAGCGGGACTGCGGGA
GAGAGTATGGGGGCACCCTCCCGATCGCCCAGGCTAGGCCGGCCCAAGGCGGTGAGTAAGCAGGCCGCTC
TTATCCCCTCCGATGACAAGGAGTCCCTCCAGAACCAACAGAACGCTCACACCAGCAGGATGCTCCAAGT
CTGTCAACGGGAGGGCAGCAGGGAACAAGAAGACAGAGGCAGGAGGATGACCCAGGGTCTAGGGGAACGG
AAAGCTGAGAGAGCAGGTAAAACAGGGCTTGCCATGCTGAGGCAAGTTTCCAGGGACAAAAACATCAAGC
AATCAAAAGAAACCCCTGTCGGGTGGCAGGAACTGCCCAAAGCTGGCCTCCAGTCCCTGGGCAGCGCTGA
CCACAGGGTGGCAGAGGTATGCCCCTGGGAGGTCACTGAATCAGAAACGCGTCAGCCAGACAGTGGCAAC
AAGGCCGAAATCTGCCCCTGGGAGACGAGTGAAGGAGCCCCAGAGTCGAGGGCACTAAGACAAGACCCAG
GTGACTCCCAAAAAAAGAGAGGGGAGGCCCGGGGAAAATCAGAGCCCATAGATGTGGTTCCCATGATGCG
GAAAAAGCCAGAGAGGCTGGTGAGGGAGCAGGAAGCAGTGTGTCCCTGGGAGAGTGCCGATCGAGGAGGT
CTGTCCCCTGGGTCAGCTCCTCAGGACCCTGGCAGAATCAGAGACAAATCTGAGGCGGGGGACAGTGTGG
AGGCCAGGAAGGTGGAGAAGCCTGGGTGGGAAGCTGCTGGCCCAGAAGCTCATACCCCTGACATCACCAA
GGCAGAGCCGTGTCCCTGGGAGGCAAGTGAAGGAGGCGAGGATGGGAAACCAGCCCAAGAGGCAGTGAAG
GATCTCCCTCAGGAAAAGCAGAAAACCAGGAAAGCAACCTTTTGGAAAGAACAGAAACCGGGAGGAGACT
TGGAGTCTCTTTGTCCATGGGAGAGTACAGATTTCCGGGGCCCCTCAGCAGTCTCAATTCAGGCCCCAGG
AAGCTCAGAGTGTTCAGGGAGTTTGGGCAGTGGCATTGCTGAAGTGTGTCTGTGGGAGGCAGGAGATGCT
CCTGCTATCCAGAAAGCAGAGATCTGTCCCTGGGAGCTGGATGATAACGTGATGGGGCAGGAAATGCTGA
GTCTGGGGACAGGTAGAGAATCTCTTCAAGAAAAGGAAAAAGCCTCCAGAAAAGGAAGCTTTGGAGAGAT
GGGGGAACAAACTGTGAAAGCAGTGCAGAAATTAAGTCAACAGCAGGAGTCAGTTTGTCCCAGGGAGAGC
ACGGTCCCTGGGCACTCCAGCCCATGTCTAGACAATTCCTCATCCAAAGCTGGTAGCCAATTCCTATGCA
ATGGAGGAAGCAGAGCAACGCAGGTGTGTCCACAGGAAGATCTCAGGCCGGAGGCACAGGAAGCAACACC
TGCCAAAACAGAAATCTGTCCCTGGGAGGTAAATGAAAGAACAAGAGAGGAATGGACATCAGCACAGGTG
CCAAGAGGAGGAGAATCTCAAAAGGACAAGGAGAAAATGCCTGGAAAATCGGAAATCGAAGATGTCACAG
CTTGGGAAAAGCCTGAGGGGCAGATCCAAAAGCAAGAAGCGGTCGGCCCCTGGGAGAGTGTGGACCCTGG
CAGCTTCTCCCCACAACCACGTCCTCAAGACACAGAGAGACCCCAAACCCTTCTCCAGATGTCAGGCAGT
GTGGGAAGCAAAGCTGCCGACATTTGCCCTTTGGATGTGGAGGAAAACTTGACTGCTGGGAAGGCAGAAA
TCTGTCCCTGGGAGGTGGGTGCTGGAGCAGGGGAGGAAAGGGCTTTGGGAGCTGAGGCCATTAGGAAATC
TCCAAATGATACAGGCAAGGTTTCTGCAGATCTTGGACCCAGGGAGAGAGCTGTTACTGCTCCAGAGAAG
CCACAGAAGCCAACCCCAGAGTGGGAGGTGGCTTGTCCCTGGGGGAGTGTGGGTCCAGGGGCCTGTTCTC
AGCATCCAGGTACTCTAGATGCTGATGGACCAAAAGCTGGGTTCCAGGAACTGGATCATATGGGCTGCAG
GCCAGGTGAAGTGTGTCCCTGGGAAGCACAGGAAGCTGCTACCAGTGAAAAAGCCAAGATCTGTCCCTGG
GAGGTAAGTGAAGGAACTACTGGGAAGGGATTGGACCAAAAGGCAGGGAGTGAATCAGCAGAGCAGAGGG
AGAAAGCTCTAGAAAAGGGGAGACTCACTTCCCTGGGAGAAGACGTATCAAAAGGGATGGCAAAACTGTG
TCAACAACAGGAAACTATTTGTATTTGGGAGAACAAGGACTTGAGGGAATCCCCTGCTCAGGCCCCCAAG
ATCTCAGACTTGCCCAGCAGCATGAGTAGTGAAGTGGCAGAGGGACATTCCTTGGAAGCAACAGAGAAGG
GGGACCTGAGACAAGACCCAAAGACAGGTTCCTTCCCAGAACACATAACCCAAGAAAAAGCTCCAGCTGC
AGACACAGAAGAATTCACTACTGAAGATGGGGAAAAAACAAGCCATGAGCTACAATCCGTCTGTCCATGG
GAGACCACTGCCCCAGCAGATTCCGTCTCTCACCTAGACAGACAGCGCCCTGACCAACCTAAAGCTAGCT
CCCAGAGACTGGTCAGCACTGGGGGCAGGGCCGCTGACGTGTGCCCATGGGATGTTCCTGATGCAGGTGT
GTATAAATCTGACAGCAGTGCCAAGGCTGAGACCTGTCCCTGGGAAGTGACTGAAAGAATCCCTGTCAAA
GGGGTGTCAAGGCAGGATGGAAAAGGGGACTCTCAAGAAGAGAAAGGCAGAGCCCCAGAAAAATCAGAGC
CAAAAGGTGTGCCAGTTCAGAAAAAGCCAGAGATGGCAGACTTCAGGCAGCAGGAGGCTGTGTGTCCCTG
GGAGAGTCAAGATGGCAAGGGTCTGTCCCCACAGCCAGCCCCAGATGCTTCTGACAGAAGCAGAGGCAGT
TCTGAGGCAGCAGGCAGTGTGGAGACCAGGGTAGCGGAAGTGTGTCTGTGGGAAGTGGTAGAGGCTCCCT
CTGCCAAGAAAGCAGAGATCTGCCCTTGGGAGGCGGGTGGAGGAGCAGCAGAGGAAGGGGAACAGGAAAG
AGAATCACAAGGGCAAGGAGAGATGTTCCTTCAGAAGGCAGGACCTGGAGGGACGGAAGAACACTTCTCA
AAAGCAGCAGCAAAGCCCAGAGAGCAGGAGGCAGTCTGCCCTGGGGAAGGCACAGGCTCAGGAGGGCTCT
TGCCCCAGTCAGGTGCCCTGGACCCAGAACTCAAAGTCAGCCCCAAGGAAGCAGGCAGCATGGGAAGCAG
GATGGCAGAGCTGTGCCAATGGGAAATCACAGATCCAGAAGGAAATAAAATAAAGGGTACCATGGCAGAC
ATCTGTCCTGGGGAGGAAACTGGAGTCCCATCTGAGGAATCTGGCCTCCTGGCTTTAACAGCAACTCGGA
GAGAATTTTTCCCCACAGCTCCTGAAAAACCACTATGCCTTTTAGTCCATGGGCCTCTGGATCACTTCTT
TCCAGAAAGCAAAATCCCCTGCCCCAAGGTAAGCAGGCCAGCCAGTACTTTCACTCTAGAAGGTGTCAGA
GAACTACAAGGACCTTCAGGGCTTGAGCCAAGGACCAGCTTAGCCCCAGAGCCAAGTCTCCAGGAAGCTG
AGTCTCAGTCTTCGTCCTTAACTGAAGACTCAGGCCAAGTGGCTTTTGAAGCTCAGTATGAAGAATTCAC
CCCTCCCACTGTCTATCCTTGGGATTGGGAGTAA
Primers: Gene insert coding sequence can be confirmed by following primers:
(a) forward (or 5'-end) primer: 5’-CAAATGGGCGGTAGGCGTG-3’;
(b) reverse (or 3'-end) primer: 5’-CCAGGTTTCCGGGCCCTCAC-3’