FSU | Florida Institute for Pediatric Rare Diseases

CRISPR/CAS9

VIRAL VECTOR & GENE EDITING CORE

CRISPR/CAS9 Gene-Editing Tools

Overview

CRISPR (Clustered Regularly Interspaced Short Palindromic Repeats) is a powerful tool that enables scientists to manipulate the genome with ease. Over the past decade, scientists have expanded the CRISPR/Cas arsenal to include many different types of genetic manipulations, including gene knock-outs, knock-ins, point mutations, base changes, and small and large insertions and deletions. For more information on the wide range of CRISPR technologies, please email us viral.core@med.fsu.edu

The advanced CRISPR/Cas tools will support your research as follows;

  • Loss-of-function studies aimed to generate complete and permanent loss of gene expression or function (knock-out)
  • Introduce a fragment-of-interest into a specific genomic locus (knock-in)
  • Create a specific mutant allele of a gene (point mutant)
  • Increase or decrease expression of a target gene (epigenome editing)

Vectors Available for CRISPR/CAS9 Expression

  1. pBK109- short version derived from pLentiCRISPR/v2 ready-for-gRNA-cloning (BsmBI) 
  2. pBK301- short version of pLentiCRISPR/v2 with 2 Sp1 binding sites upstream of U6p- gRNA cloning site BsmBI 
  3. pBK175- short version of pLentiCRISPR/v2 with 4 Sp1 binding sites upstream of U6p- gRNA cloning site BsmBI 
  4. pBK110- pLentiCRISPR/v2 Luciferase-gRNA 
  5. pBK104- pLentiCRISPR/v2 GABA a2-subunit-gRNA 
  6. pBK83- pLentiCRISPR/v2 HDAC1-1 –gRNA 
  7. pBK84-pLentiCRISPR/v2 HDAC1-2 –gRNA 
  8. pBK85-pLentiCRISPR/v2 HDAC1-3 – gRNA 
  9. pBK86-pLentiCRISPR/v2 GFP1 – gRNA 
  10. pBK87-pLentiCRISPR/v2 GFP2 – gRNA 
  11. pBK88-pLentiCRISPR/v2 GFP3 – gRNA 
  12. pBK189- pLentiCRISPR/v2 with GFP-gRNA 
  13. pBK198- short version of pLentiCRISPR/v2 with 2 Sp1 binding sites with GFP-gRNA 
  14. pBK180- rtTA3 Blasticidin third generation rtTA3 can be used for tet-Cas9 system (next plasmid) 
  15. pBK185- tet- inducible Cas9- all-in-one short- with BsmBI for cloning sgRNA 
  16. pBK195- tet- inducible Cas9- all-in-one short- with GFP-gRNA 
  17. pCW-Cas9 Tet ON Plasmid #50661; Addgene- https://www.addgene.org/50661/
  18. pBK109easy -GFP pLenti-SpCas9gRNA with GFP all-in-one 
  19. pBK97- SpCas9 nickase- all-in-one lentiviral backbone; titer-optimized backbone; ready for gRNA cloning BsmBI 
  20. pBK456- dCas9- all-in-one lentiviral backbone; titer-optimized backbone; ready for gRNA cloning BsmBI 
  21. pBK109easy -GFP pLenti-SpCas9gRNA with GFP all-in-one 
  22. pBK109BL- short version of pLentiCRISPR/v2 gRNA cloning site BsmBI with blasticidin 
  23. pBK114- pLenti-Cas9-GFP 
  24. pLentiCRISPR/v2 Plasmid #52961; Addgene- https://www.addgene.org/52961/ 
  25. pLenti-multi-CRISPR; Plasmid #85402; Addgene- https://www.addgene.org/85402/ 
  26. LentiCRISPRv2-mCherry; Plasmid # 99154; Addgene- http://www.addgene.org/99154/ 
  27. pLenti-pU6-sgRNA Ef1alpha-Puro-T2A-BFP Plasmid #84832; Addgene- http://www.addgene.org/84832/ 
  28. pLenti-sgRNA; Plasmid #71409; Addgene- http://www.addgene.org/71409/ 
  29. pLenti-CRISPR.EFS.tRFP; Plasmid #57819; Addgene- http://www.addgene.org/57819/ 
  30. lentiCas9-Venus; Plasmid # 70267; Addgene- http://www.addgene.org/70267/ 
  31. pL-CRISPR.EFS.GFP Plasmid #57818; Addgene- https://www.addgene.org/57818/ 
  32. lentiCas9-Blast Plasmid #52962; Addgene- https://www.addgene.org/52962/ 
  33. lentiCas9-Puro Plasmid #52963; Addgene-http://www.addgene.org/52963/ 
  34. lentiCas9-EGFP; Plasmid #63592; Addgene- https://www.addgene.org/63592/ 
  35. lentiCas9n(D10A)-Blast; Plasmid #63593; Addgene- http://www.addgene.org/63593 
  36. lenti-dCAS-VP64-Blast; Plasmid #61425; Addgene- http://www.addgene.org/61425/ 
  37. pHAGE TRE dCas9-VP64; Plasmid #50916; Addgene- http://www.addgene.org/50916/ 
  38. lenti-TRE-KRAB-dCas9-IRES-BFP; Plasmid #85449; Addgene- http://www.addgene.org/85449/ 
  39. plenti- hUbC-dCas9 VP64-T2A-GFP; Plasmid #53192; Addgene- http://www.addgene.org/53192/ 
  40. pKLV-U6gRNA(BbsI)-PGKpuro2ABFP; Plasmid #50946; Addgene- http://www.addgene.org/50946/ 
  41. plentiSAMv2; Plasmid #75112; Addgene- http://www.addgene.org/75112/ 
  42. pHR-SFFV-KRAB-dCas9-P2A-mCherry; Plasmid #60954; Addgene- http://www.addgene.org/60954/ 
  43. pLV-dCas9-KRAB-PGK-Hyg- Plasmid #83890; Addgene- http://www.addgene.org/83890/ 
  44. pLV hU6-sgRNA hUbC-dCas9-KRAB-T2a-GFP; Plasmid #71237; Addgene- http://www.addgene.org/71237/ 
  45. pHAGE EF1α dCas9-KRAB; Plasmid #50919; Addgene- http://www.addgene.org/50919/ 
  46. lenti sgRNA-MS2-Zeo; Plasmid #61427; Addgene- http://www.addgene.org/61427/ 
  47. lenti sgRNAMS2- puro optimized backbone; Plasmid #73797; Addgene- http://www.addgene.org/73797/ 
  48. pHAGE-TO-nmdCas9-3XGFP; Plasmid #64109; Addgene- http://www.addgene.org/64109/ 
  49. pLV-dCas9-p300-P2A-Puro; Plasmid #83889; Addgene- http://www.addgene.org/83889/ 
  50. Lenti_sgRNA-EFS-GFP; Plasmid #65656; Addgene- http://www.addgene.org/65656/ 
  51. Lenti-AsCpf1-Blast; Plasmid #84750; Addgene- http://www.addgene.org/84750/ 
  52. LentiCRISPRv2Cre; Plasmid #82415; Addgene- http://www.addgene.org/82415/ 
  53. Exp_v-pcDNA3.1-hAsCpf1; Plasmid #69982; Addgene- https://www.addgene.org/69982/ 
  54. Exp_v-pSimpleII-U6- gRNA cloning site BsmBI-NLS-NmCas9-HA-NLS plasmid # 47868; Addgene https://www.addgene.org/47868/ 
  55. Exp_v-pSaCas9_GFP; Plasmid # 64709; Addgene- https://www.addgene.org/64709/ 
  56. Exp_v-Csy4-T2A-Cas9-NLS; Plasmid # 53371; Addgene- https://www.addgene.org/53371/ 
  57. Exp_v-ppcDNA3.1-hFnCpf1; Plasmid #69976; Addgene- https://www.addgene.org/69976/ 
  58. Exp_v-eSpCas9(1.1)- Plasmid #71814; Addgene-https://www.addgene.org/71814/ 
  59. Exp_v-SpCas9-HF1 (high fidelity Cas9); Plasmid #72247; Addgene- https://www.addgene.org/72247/
  1. AAV-CMV::NLS-SaCas9-NLS-3xHA-bGHpA;U6::BsaI-sgRNA Plasmid # 61591; Addgene- https://www.addgene.org/61591/ 
  2. BK- pAAV-EFS-NC- SpCas9-NLS-Poly(A) 
  3. BK- pAAV-CMV-SpCas9- NLS-Poly(A) 
  4. BK- pAAV-hSyn -SpCas9- NLS-Poly(A) 
  5. BK- pAAV- -SpCas9- NLS-Poly(A) 
  6. pAAV- nEF promoter- Cas9; Plasmid #87115; Addgene- http://www.addgene.org/87115/ 
  7. pAAV-pMecp2-SpCas9 Plasmid #60957 http://www.addgene.org/60957/ 
  8. pX602-AAV-TBG::NLS-SaCas9-NLS-HA-OLLAS-bGHpA;U6::BsaI-sgRNA Plasmid #61593; Addgene- http://www.addgene.org/61593/ 
  9. pX601-AAV-CMV::NLS-SaCas9-NLS-3xHA-bGHpA;U6::BsaI-sgRNA; Plasmid #61591; Addgene- http://www.addgene.org/61591/ 
  10. AAV-NFS-NC: NLS-SaCas9-NLS-3xHA-bGHpA;U6::BsaI-sgRNA 
  11. AAV-Syn: NLS-SaCas9-NLS-3xHA-bGHpA;U6::BsaI-sgRNA 
  12. pX600-AAV-CMV::NLS-SaCas9-NLS-3xHA-bGHpA; Plasmid #61592; Addgene- http://www.addgene.org/61592/ 
  13. pJEP12-AAV-H1/TO(dox-regulated)-L-sgRNA(Empty)-CMV-TetR-P2A-eGFP-KASH-pA; Plasmid #82704; Addgene- http://www.addgene.org/82704/ 
  14. pX603-AAV-CMV::NLS-dSaCas9(D10A,N580A)-NLS-3xHA-bGHpA; Plasmid #61594; Addgene-http://www.addgene.org/61594/ 
  15. AAV-NFS-NC:NLS-dSaCas9(D10A,N580A)-NLS-3xHA-bGHpA 
  16. AAV-Syn:NLS-dSaCas9(D10A,N580A)-NLS-3xHA-bGHpA 
  17. AAV-MeCp2:NLS-dSaCas9(D10A,N580A)-NLS-3xHA-bGHpA 
  18. AAV-NFS-NC:NLS-dSaCas9(D10A,N580A)-NLS-3xHA-bGHpA 
  19. AAV-NFS-NC:NLS-dSaCas9Nickase-NLS-3xHA-bGHpA 
  20. AAV-CMV:NLS-dSaCas9Nickase-NLS-3xHA-bGHpA 
  21. AAV-CAG:NLS-dSaCas9Nickase NLS-3xHA-bGHpA 
  22. AAV:ITR-U6-sgRNA(backbone)-hSyn-Cre-2A-EGFP-KASH-WPRE-shortPA-ITR; Plasmid #60231; Addgene- http://www.addgene.org/60231/ 
  23. AAV:ITR-U6-sgRNA(backbone)-pEFS-Rluc-2A-Cre-WPRE-hGHpA-ITR; Plasmid #60226; Addgene-http://www.addgene.org/60226/ 
  24. AAV:ITR-U6-sgRNA(Kras)-U6-sgRNA(p53)-U6-sgRNA(Lkb1)-pEFS-Rluc-2A-Cre-shortPA-KrasG12D_HDRdonor-ITR (AAV-KPL); Plasmid #60224; http://www.addgene.org/60224/ 
  25. BK- pAAV-TRE – SpCas9-NLS-Poly(A) 
  26. BK- pAAV-TRE- SaCas9-NLS-Poly(A) 
  27. BK- pAAV-TRE – dSpCas9-NLS-Poly(A) 
  28. BK- pAAV-TRE – dSaCas9-NLS-Poly(A) 
  29. BK- pAAV-TRE – SpCas9Nickase-NLS-Poly(A) 
  30. BK- pAAV-TRE – SaCas9Nickase-NLS-Poly(A)

CRISPR/CAS9-Based Gene Editing

The IPRD Viral Vector and Gene Editing Cores deliver advanced solutions for biomedical research and therapeutic development. Our expertise in CRISPR/Cas technologies, viral vector engineering, and customized cell and animal model generation empowers investigators to accelerate discovery and translational applications.

We offer a comprehensive portfolio of services that includes the design and production of CRISPR/Cas vectors, generation of genetically engineered cell lines, and customized editing strategies using the latest technologies such as base editing, prime editing, and epigenome editing. Our team is here to partner with you—whether you are developing basic research tools, building disease models, or pursuing therapeutic targets.

  1. Gene Knockout Cell Line Services

Our core provides fully customizable CRISPR/Cas9-based knockout services in a wide range of mammalian cell lines, including difficult-to-transfect and tumor-derived lines. We deliver functionally validated, long-term stable KO models to researchers at Florida State University and to institutions and companies worldwide.

Our platform includes:

  • High-throughput gRNA screening and optimized RNP delivery
  • Single- and multi-gene knockout strategies
  • Targeted fragment deletions
  • End-to-end support from gRNA design to functional validation

Standard workflow:

  • Host Cell Characterization
    Includes clonability assays, antibiotic resistance profiling, and optimization of transfection/transduction.
  • gRNA Design & KO Vector Construction
    Guides are designed to target conserved exons or critical functional domains of the gene-of-interest.
  • Transfection & Transduction
    Using optimized techniques and house-developed lentiviral and adeno-associated vectors.
  • Clone Screening
    Selection via antibiotic resistance or FACS; expansion of monoclonal or polyclonal populations.
  • Validation
    Characterization via Western blotting, qPCR, ELISA, or reporter assays.
  1. Specialized Gene Editing Services

Multiplexed Knockouts
Generate cell lines with multiple gene deletions using pooled or sequential editing strategies.

Disease Modeling
Create precise genetic alterations to model rare or common human diseases in vitro.

Custom CRISPR Libraries
Design and produce small- to large-scale gRNA libraries for functional genomics studies.

Nuclease Activity Validation
Quantify and optimize CRISPR nuclease performance using a range of molecular and cellular assays.

  1. Base Editing and Prime Editing

We offer advanced genome editing platforms based on base editors and prime editors—technologies that allow precise, single-nucleotide changes without introducing double-stranded breaks.

Base Editing

Our cytidine and adenine base editors enable targeted C-to-T or A-to-G conversions with minimal off-target effects. These editors are delivered using viral vectors customized for your cell type and application.

  • Editing window: 6–10 nucleotides
  • Delivery via AAV, lentivirus, or electroporation
  • Applications: point mutation correction, functional SNP studies, regulatory region targeting

Prime Editing

We design and deliver pegRNA constructs that enable precise insertions, deletions, or substitutions.

  • pegRNA components: spacer, scaffold, reverse transcription template (RTT), primer binding site (PBS)
  • nCas9-reverse transcriptase system enables templated DNA repair
  • Suitable for applications requiring programmable, high-fidelity edits

With over 15 years of experience in guide RNA design, viral delivery, and construct engineering, we support projects across a wide range of biological systems.

  1. Epigenome Editing

Epigenetic modifications enable control of gene expression without altering the underlying DNA sequence. We offer full-service epigenome editing platforms using dCas9-based tools fused to:

  • DNA methyltransferases and demethylases
  • Histone acetyltransferases and deacetylases

Workflow includes:

  1. Target Identification – Defining loci relevant to gene regulation or disease
  2. Tool Construction – Building custom dCas9 fusion proteins
  3. Vector Development – Cloning into expression vectors for delivery
  4. Delivery – Viral, electroporation, or nanoparticle-based methods
  5. Selection & Expansion – Isolation of modified clones
  6. Validation – ChIP, bisulfite sequencing, and gene expression profiling
  1. Vector and Construct Resources

We maintain an extensive collection of >3,000 in-house optimized CRISPR/Cas constructs for gene knockout, base editing, and more. These are:

Our design and production workflows are supported by 10 patent applications and numerous peer-reviewed publications and funded grants.

Let’s Collaborate
We welcome collaborations with academic, government, and industry partners. Whether your goal is to explore gene function, build disease models, or develop precision therapeutics, our core is ready to support your success.

Contact us today to discuss your project needs and receive a customized consultation.

How to Order

To connect with the IPRD Viral Vector & Gene Editing Core and place an order, simply email your request to viral.core@med.fsu.edu