• Home
  • /
  • Course
  • /
  • CRISPR-Cas Genome Editing: Workflow, Tools and Techniques

CRISPR-Cas Genome Editing: Workflow, Tools and Techniques

USD $59.00 USD $249.00Price range: USD $59.00 through USD $249.00

Aim: The workshop aims to provide participants with a comprehensive overview of CRISPR-Cas gene editing technology and its applications. The workshop will cover the basics of CRISPR-Cas, including how it works, different types of CRISPR-Cas systems, and its potential impact on various fields, such as basic research, translational research, and gene therapy.

Aim

CRISPR-Cas Genome Editing: Workflow, Tools and Techniques trains participants to understand and plan end-to-end CRISPR genome editing experiments—from target selection and guide design to delivery, screening, validation, and responsible reporting. You’ll learn practical workflows, tool-driven decision-making, experimental controls, and off-target awareness—so you can design credible editing strategies for research and translational pipelines.

Program Objectives

  • Understand CRISPR Systems: Cas9/Cas12 basics, PAM rules, and repair pathways (NHEJ vs HDR) at a practical level.
  • Plan Editing Workflows: Knockout, knock-in, base editing, and CRISPRi/a (overview + use-case mapping).
  • Design Guides Correctly: gRNA design logic, on-target scoring, off-target risk reduction, and controls.
  • Choose Delivery Methods: Plasmid, RNP, viral delivery concepts; cell-type constraints and trade-offs.
  • Screen & Validate Edits: PCR, sequencing, genotyping approaches, and functional validation strategy.
  • Use Tools Efficiently: Introduce key software/web tools for design, QC, and analysis.
  • Work Safely & Ethically: Biosafety awareness, documentation, and responsible communication.
  • Hands-on Application: Build a complete CRISPR experimental design package as a capstone.

Program Structure

Module 1: CRISPR-Cas Basics (What You Need for Real Work)

  • CRISPR overview: guide RNA + nuclease + target DNA concept.
  • Cas systems: Cas9 vs Cas12; PAM recognition and cut patterns (high-level).
  • Repair pathways: NHEJ vs HDR; why outcomes vary by cell type and timing.
  • Editing readouts: indels, frameshifts, precise edits, mosaicism (conceptual).

Module 2: Defining the Editing Goal & Experimental Strategy

  • Choosing approach: knockout vs knock-in vs base editing vs CRISPRi/a.
  • Target selection: gene regions, isoforms, essentiality, and experiment constraints.
  • Controls planning: non-targeting controls, positive controls, mock delivery.
  • Reference sequences and annotation hygiene (transcripts, exons, variants).

Module 3: gRNA Design Workflow (Scoring, Filters, Off-Targets)

  • Guide design principles: PAM availability, GC%, seed region, secondary structures (intro).
  • On-target scoring and common heuristics for robust guide selection.
  • Off-target concepts: mismatch tolerance, genome context, repetitive regions.
  • Practical use of design tools (overview): choosing guides and documenting decisions.

Module 4: Donor Design & HDR Planning (When You Need Precision)

  • When HDR is necessary: tags, point mutations, insertions (conceptual).
  • Donor options: ssODN vs plasmid donors; homology arms basics.
  • Protecting edits: silent PAM disruption, re-cut prevention (intro).
  • Enhancing HDR (conceptual): timing, cell cycle considerations, trade-offs.

Module 5: Delivery Methods & Practical Constraints

  • Delivery options: plasmids, mRNA, RNP complexes—pros/cons.
  • Viral delivery overview: AAV/lenti concepts and when they’re used (high-level).
  • Cell type constraints: primary cells vs cell lines; viability and efficiency trade-offs.
  • Optimization mindset: dose, toxicity, timing, and controls.

Module 6: Screening & Genotyping (From Cells to Answers)

  • Early screening: PCR assays, restriction digest concepts, T7E1-style logic (intro).
  • Sanger vs NGS: what each can confirm and what they can’t.
  • Clonal isolation vs bulk editing: when each makes sense.
  • Quantifying editing outcomes: indel percentage, allele distribution (conceptual).

Module 7: Off-Target Assessment & Functional Validation

  • Off-target validation strategies: predicted sites, sequencing checks (high-level).
  • Functional validation: phenotype, protein expression, pathway assays (planning level).
  • Common pitfalls: false positives, clonal artifacts, compensation effects.
  • Documentation: reporting assumptions, limitations, and reproducibility notes.

Module 8: Workflow Automation, Data Handling & Responsible Reporting

  • Organizing CRISPR projects: sample naming, metadata, storage, versioning.
  • Tools overview: guide design, primer design, alignment/variant interpretation (workflow view).
  • Writing Methods that replicate: parameters, sequences, and decision log requirements.
  • Ethics and scope: research vs clinical claims; safety and compliance awareness.

Final Project

  • Select a target gene and an editing goal (KO, KI, base edit, or CRISPRi/a).
  • Prepare a complete workflow: target rationale, guide selection, delivery plan, controls, and timelines.
  • Design a screening + validation plan (genotyping + functional readouts).
  • Deliverables: CRISPR design dossier + guide table + workflow diagram + validation checklist.

Participant Eligibility

  • UG/PG students and researchers in Biotechnology, Genetics, Molecular Biology, Bioinformatics
  • PhD scholars/postdocs planning gene editing experiments
  • Industry professionals in biotech R&D and molecular platforms
  • Anyone with basic molecular biology knowledge aiming to learn CRISPR workflows

Program Outcomes

  • Workflow Competence: Ability to plan end-to-end CRISPR experiments with clear controls and documentation.
  • Guide Design Confidence: Ability to choose guides and justify selection with on/off-target reasoning.
  • Delivery & Screening Readiness: Ability to select delivery methods and build a realistic screening plan.
  • Validation Mindset: Ability to plan genotyping and functional validation responsibly.
  • Portfolio Deliverable: A complete CRISPR experimental design dossier you can showcase.

Program Deliverables

  • Access to e-LMS: Full access to lectures, worksheets, and tool links.
  • CRISPR Toolkit Pack: Target selection sheet, gRNA scoring table, HDR donor template, controls checklist.
  • Validation Templates: Genotyping workflow template, sequencing checklist, results reporting outline.
  • Case Studies: Knockout/knock-in/base-edit examples and design trade-offs.
  • Hands-on Project Support: Guided feedback on capstone design and troubleshooting logic.
  • Final Assessment: Certification after assignments + capstone submission.
  • e-Certification and e-Marksheet: Digital credentials provided upon successful completion.

Future Career Prospects

  • Genome Editing Research Associate
  • Molecular Biology / Cell Engineering Associate
  • CRISPR Platform Support Specialist (R&D)
  • Biotech R&D Associate (Gene Therapy / Synthetic Biology)
  • Bioinformatics Associate (CRISPR Design & Validation Support)

Job Opportunities

  • Biotech & Pharma R&D: Gene editing workflows, cell engineering, assay development support.
  • Gene Therapy & Cell Therapy Companies: Editing design, validation, and process development support.
  • Academic & Research Institutes: CRISPR research projects, functional genomics labs, core facilities.
  • CROs & Core Facilities: Editing services, genotyping pipelines, and documentation/reporting.
  • Synthetic Biology Startups: Rapid design-build-test cycles, automation, and validation workflows.
Category

E-LMS, E-LMS+Video, E-LMS+Video+Live Lectures

Reviews

There are no reviews yet.

Be the first to review “CRISPR-Cas Genome Editing: Workflow, Tools and Techniques”

Your email address will not be published. Required fields are marked *

Certificate Image

What You’ll Gain

  • Full access to e-LMS
  • Publication opportunity
  • Self-assessment & final exam
  • e-Certificate

All Live Workshops

AI for Ecosystem Intelligence, Biodiversity Monitoring & Restoration Planning
Blockchain for Supply Chain: Smart Contract Development & Security Auditing
Agri-Tech Analytics: NDVI Time-Series Analysis from Satellite Imagery

Feedbacks

Analysis of Drug like Small Molecule using ChemmineR: A Cheminformatics Toolkit for R

Information about different platforms drugs surching can be done in less time. Sir you explained More really well.
Urmi Chouhan : 07/22/2024 at 11:52 am

NanoBioTech Workshop: Integrating Biosensors and Nanotechnology for Advanced Diagnostics, NanoBioTech Program: Integrating Biosensors and Nanotechnology for Advanced Diagnostics

The deep knowledge and experience in the field of biosensors was extremely valuable. The More explanations were clear and understandable, which made it very easy to understand complex topics.
The examples of practical applications of biosensors in various industries were especially valuable. It helped to see how theory is translated into practice.
I am very pleased to have participated in this training and I believe that the knowledge I have gained will have real application in my work.

Małgorzata Sypniewska : 06/14/2024 at 3:54 pm

NanoBioTech Workshop: Integrating Biosensors and Nanotechnology for Advanced Diagnostics

He was kind and humble to answer all the questions.


Rajkumar Rengaraj : 02/14/2024 at 7:44 pm

Medical Applications of Graphene

Nice concept eagerly waiting for many more seasons if possible 3D 4D organ printing.


Aditi Chakraborty : 09/02/2024 at 1:40 pm

NanoBioTech Workshop: Integrating Biosensors and Nanotechnology for Advanced Diagnostics

Thank you very much


Mihaela Badea : 04/08/2024 at 12:18 pm

Prediction of Protein Structure Using AlphaFold: An Artificial Intelligence (AI) Program

Thank you very much, but it would be better if you could show more examples.


Qingyin Pu : 07/01/2024 at 2:18 pm

I would appreciate it if you could be mindful of the scheduling.


Sowon CHOI : 01/30/2025 at 3:33 pm

This was a good workshop some of the recommended apps are not compatible with MAC based computers. More would recommend to update the recommendations.
Shahid Karim : 10/09/2024 at 3:14 pm