Aug 2026· Nature Biomedical Engineering· 0 citations· 43 references
Medicine
TL;DR
This work presents CRISPRLungo, a computational pipeline specifically designed for long-read amplicon sequencing of gene edited samples that incorporates unique molecular identifier-based error correction and statistical filtering to distinguish true editing events from background noise, enabling robust detection of small indels and structural variants.
Abstract
Long-read sequencing can characterize complex genome editing-induced DNA sequence changes such as large deletions, insertions and inversions that are difficult to detect using short-read sequencing. However, PCR amplification and sequencing errors complicate accurate variant detection, and existing analysis tools are not optimized for gene editing specific allelic outcomes. Here we present CRISPRLungo, a computational pipeline specifically designed for long-read amplicon sequencing of gene edited samples. CRISPRLungo incorporates unique molecular identifier-based error correction and statistical filtering to distinguish true editing events from background noise, enabling robust detection of small indels and structural variants. Through systematic benchmarking using simulated datasets, we demonstrate that CRISPRLungo outperforms existing approaches in both accuracy and read recovery. CRISPRLungo supports both Oxford Nanopore and PacBio platforms and identifies previously undetected structural variant edits such as inversions in published CRISPR datasets. To demonstrate allele-specific edit quantification, we applied CRISPRLungo to analyse edited primary cells from a patient harbouring compound heterozygous SBDS mutations, accurately quantifying SBDS editing outcomes despite contaminating reads from the homologous SBDSP1 pseudogene. To maximize accessibility, we developed a fully client-side web application requiring no installation, making advanced long-read analysis accessible to researchers regardless of computational expertise. CRISPRLungo is freely available at https://github.com/pinellolab/CRISPRLungo with a user-friendly web interface available at https://pinellolab.github.io/CRISPRLungo .
A practical framework for isoform-level analysis in single-cell CRISPR screens is provided, identifying current capabilities and limitations, and providing a practical framework for isoform-level analysis in perturbation studies scale.
This work compares the performance of multiple KRAB domain systems, develops an updated CRISPRi-specific on-target scoring scheme, and quantitatively characterize off-target effects associated with seed-sequence patterns.
Smriti Srikanth, Fengyi Zheng, Laura M Drepanos et al.· Cell Genomics· 0 citations
This work compared the performance of long-read sequencing against short-read sequencing and microarrays, identified two novel non-synonymous variants, including a unique InDel detected exclusively by long-read sequencing, and demonstrated superior detection power, particularly for InDels.
Hyung Jun Kim, Sung Min Kim, Kyungheon Yoon et al.· bioRxiv· 0 citations
ExCAVATE-HT (EXtracting Common Allelic VAriants for Targeted Editing in High-Throughput) a bioinformatic tool that mines population variant data to generate CRISPR libraries targeting genomic loci for allele-specific editing is introduced.
Akshita G Saxena, Grace D. Ramey, John A. Capra et al.· bioRxiv· 0 citations
CRISPR knockout (CRISPRko) and CRISPR interference (CRISPRi) are two workhorse technologies for loss-of-function studies, yet direct comparisons between the two are scant relative to their widespread adoption. Here, we establish benchmarking libraries for Cas9-based CRISPRko and CRISPRi screens using Perturb-seq as the...
Laura M Drepanos, Berta Escude Velasco, Abigail J Chase et al.· bioRxiv· 1 citation
This review highlights recent progress in long-read sequencing and gene-editing technologies, discusses their complementary roles in rare disease research, and explores the translational opportunities and ethical challenges of combining these technologies to advance precision medicine.
Anshida Konamveettil Abdul Latheef, Mohammad Ali, O. Farahat et al.· Frontiers in Medicine· 0 citations
Zero-knowledge proofs can verify computing results without rerunning workloads or exposing sensitive data. Magnetar helps bring them into the mainstream with support for standard programming languages, major speed gains, and quantum-resistant security. The post Proof-based general-purpose computing with Magnetar appeared first on Microsoft Research.