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Pmj179

Manufactured by Addgene

The PMJ179 is a laboratory equipment product. It functions as a core component in various experimental setups. The device specifications and technical details are available upon request.

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3 protocols using pmj179

1

Enhancer Targeting via Multi-sgRNA Lentiviral System

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In order to target enhancer region efficiently which long around 1
kb, we used three sgRNA in one vector system (Adamson et al., 2016 (link)). In order to select cells infected both
sgRNA targeting PVT1 and enhancer, lentiviral vector
backbone was modified by replacing Puromycin-mCherry cassette to Hygromycin
resistance gene. Three sgRNAs were designed for each enhancer and cloned
into pMJ114 (bovine U6, Addgene, Cat#85995), pMJ117 (human U6,
Addgene, Cat#85997) or pMJ179 (mouse U6, Addgene, Cat#85996)
individually. Then, U6 promoter and sgRNA sequences were amplified by PCR
and combined into lentiviral vector using NEBuilder Hifi DNA Assembly Master
Mix, which digested with XbaI and XhoI. Cells infected lentivirus containing
sgRNA targeting PVT1 or LacZ (control)
first followed by Puromycin selection for 4 days as described above. Then,
cells were re-plated by 1:8 ratio to 6 well plate and infected with
lentivirus harboring three sgRNAs targeting each enhancer and selected with
Hygromycin for 8 days. After one day recovery without antibiotics, RNAs were
extracted and used for qRT-PCR. Sequences of sgRNAs and primers are listed
in Table S1.
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2

Barcoded Polycistronic sgRNA Vector Construction

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A single sgRNA lentiviral vector harboring an hU6-sgRNA cassette and an SFFV-mNeonGreen-P2A-ZsGreen1 (referred to as GFP thereafter) cassette was constructed by a standard molecular cloning technique. Annealed sgRNA oligos were inserted into the vector digested by BsmBI. Polycistronic vectors were generated by inserting bU6-sgRNA and mU6-sgRNA cassettes derived from pMJ114 (bovine U6) and pMJ179 (mouse U6) (Addgene: 85995 and 85996) into the single sgRNA vector as previously described (30 (link)). A set of 20-nucleotide barcode sequences were then inserted, resulting in a collection of barcoded polycistronic sgRNA vectors.
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3

Cloning and Expression of RAB34 Constructs

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Gibson assembly, Gateway cloning, and standard molecular biology were used for DNA cloning. Human RAB34 cDNA was obtained from GE Healthcare (MHS6278-202807876) and cloned into Gateway pENTR plasmid pDONR221 (Invitrogen); RAB34 mutants were prepared by site-directed mutagenesis of pENTR-Rab34. Plasmids for tetracycline-inducible expression of LAP-Rab34 (LAP consists of GFP, TEV protease site, and S-tag) were constructed by modification of pCW-Cas9 (Addgene #50661, gift from Eric Lander and David Sabatini). Stable expression of fluorescently tagged ciliary and centriolar proteins was achieved by modification of pCW-Cas9 using cDNAs for the PGK promoter, ARL13B (Addgene #40879, gift from Tamara Caspary), EHD1 (gift from Chris Westlake), Rab8 (gift from Maxence Nachury), and Centrin2 (gift from Tim Stearns), miRFP-670 (Addgene #79987, gift from Vladislav Verkhusha), and mScarlet-I (Addgene #85044, gift from Dorus Gadella). Plasmids for CRISPR-based knockout were constructed using pMCB320 (Addgene #89359, gift from Michael Bassik) and pMJ179 (Addgene #89556, gift from Jonathan Weissman); see Key Resources Table for sgRNA sequences. Plasmids for transient transfection of RAB34 were made by Gateway cloning using pEF5-FRT-LAP-DEST55 (link),56 (link); for bacterial protein expression, RAB34 variants were cloned into pGEX-6P1 (GE Healthcare).
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