Making NGS Work for Analytical Development and QC
August 25, 2026
Justyna Lisowska
For years, next-generation sequencing (NGS) has been used to generate data for research and discovery. Today, its role is expanding into a GxP-ready technology that supports analytical development, manufacturing, and quality control (QC), helping characterize biotherapeutic products and ensure control throughout their lifecycle.
The use of NGS in these settings is increasingly supported by regulatory agencies, which recognize it as a robust, broad, and sensitive approach for addressing the complexity of modern modalities.1 By consolidating information that would otherwise require multiple assays, NGS enables a more comprehensive end-to-end workflow. For Analytical R&D teams, developing NGS assays is becoming essential to enable rapid, sensitive, and specific quality assessment while meeting evolving regulatory expectations. However, realizing this potential requires more than sequencing capacity alone; it depends on translating complex, high-throughput data into actionable analytical insights. Many teams still rely on fragmented bioinformatics pipelines or external services to process, analyze, and interpret NGS data, making the process time- and resource-intensive, difficult to scale, and challenging to transfer into manufacturing and QC.
Genedata Selector® helps overcome this bottleneck by enabling fast, in-house, and user-friendly NGS analysis and interpretation of both short- and long-read sequencing data, turning outputs into confident quality decisions at scale.
Moving From Flexible Method Design to Standardized QC
The role of analytical development is to design, validate, and apply methods that evaluate the quality of a drug product These methods are used to characterize key product attributes such as identity, integrity, purity, potency, safety, biosafety, and other critical quality attributes (CQAs)2,3 This differs from QC workflows, where the focus shifts from flexible method exploration and optimization to standardized, validated, and routine execution. To transfer an assay into regulated testing, workflows must be well documented, consistent, and robust.
Discover NGS Use for QC & CQAs
Expanding the Role of NGS in Analytical Development
NGS is increasingly being applied to modern biotherapeutics and other complex therapeutic modalities, including cell and gene therapies, viral vectors, mRNA therapeutics, and engineered cell lines. This is because it provides a holistic and high-resolution view of a therapeutic substance or product. Rather than relying on multiple separate assays to assess individual product attributes, NGS can serve as a Multi-Attribute Method, supporting the assessment of the product identity, sequence integrity, genetic stability, biosafety, and adventitious agent detection within a single assay.
Explore NGS as a Multi-Attribute Method
Applied across multiple analytical use cases, NGS helps teams generate deeper molecular insights earlier in development and support decisions around characterization, comparability, and control strategy. NGS is also increasingly recognized in regulatory frameworks as a scalable, sensitive, and transferable methodology for safety.4 The revised ICH Q5A(R2) guideline explicitly recognizes NGS as a complementary technology for viral safety evaluation and virus detection.5,6 NGS can also be used in a broader biopharmaceutical quality assessment in GMP environments, provided assays are implemented as fully validated, traceable, fit-for-purpose workflows spanning sample preparation, sequencing, bioinformatics, data analysis, and reporting.7 Because NGS generates large volumes of electronic data, compliance with FDA 21 CFR Part 11 is critical.8
Explore Current NGS Regulations
Turning NGS Data Analysis into a Scalable, Accessible Workflow
Implementing NGS in analytical development is not simply a matter of adding sequencing capacity; it requires both extensive wet-lab data generation and a robust bioinformatic analysis pipeline. Once sequencing data is generated, teams must manage large, complex datasets and establish reliable and replicable methods to ingest, analyze, interpret, and report findings. Without platform infrastructure, NGS-based approaches often rely on disconnected tools, siloed data, fragmented scripts, and repetitive manual handling steps that depend on advanced bioinformatics expertise or outsourced support. This can slow timelines, introduce inconsistencies, and limit traceability, making advanced methodologies difficult to standardize, scale, and transfer into QC. In addition, regulated, fit-to-purpose NGS methods must deliver reproducible results across sites, instruments, teams, and operators while meeting expectations for sensitivity, specificity, robustness, and limit of detection. Therefore, beyond assay fitness for purpose, organizations must address end-to-end workflow validation, including bioinformatics pipeline control, data integrity, and audit trails, to ensure regulatory readiness.5 Successful implementation requires not only strong technical performance but also efficient technology transfer and coordination across analytical development, bioinformatics, QA, QC, IT, regulatory affairs, and manufacturing.
Making NGS Adoption in Analytical Development Possible
To address these challenges, analytical development teams need a scalable software environment that supports end-to-end, in-house NGS data analysis; standardizes assay execution; manages samples and data; and preserves traceability from sample data registration through reporting. Genedata Selector provides these capabilities within a single enterprise platform, combining out-of-the-box, standardized NGS workflows with the flexibility required for complex analytical development use cases (e.g., CQA characterization, or genetic stability assessment). By automating data-related tasks, Genedata Selector reduces reliance on scarce bioinformatics resources, broadens access to NGS across the organization, and supports GMP-ready, consistent, and traceable operations.
Benefits for Analytical Experts
- Provides centralized data storage and a single point of data access,
- Ensures in-house data analysis, reducing reliance on external support,
- Generates reliable and reproducible results with customized step-by-step workflows (called playbooks),
- Yields interpretable, actionable results faster, accelerating timelines,
- Reduces FTEs necessary for routine analysis, enabling bioinformaticians to focus on higher-value strategic tasks.
Benefits for Leadership Teams
- Builds scalable, automated in-house NGS capabilities that democratize data analysis within the organization,
- Improves ROI and timeline efficiency through assay automation, standardized execution, sample tracking, and centralized data management.
- Supports technology transfer from analytical development into QC and manufacturing environments by providing reproducible workflows,
- Strengthens regulatory readiness with traceable data, controlled execution, and validated analytical methods designed to support GMP.

Embedding GMP Readiness into NGS Workflows from Day One
For NGS to move successfully from analytical development into QC and manufacturing, compliance and GMP readiness must be built in from the start. Assay design, method selection, workflow execution, and the data generated during development need to support reproducibility, traceability, and transferability across environments.
Incorporating Computerized System Validation (CSV), standardized workflows, controlled execution, audit trails, data integrity controls, and comprehensive, inspection-ready documentation during analytical development can reduce rework during validation and facilitate technology transfer across teams, sites, and operators. With GMP-compliant NGS software, organizations can meet regulatory expectations from day one, building workflows that are not only scientifically robust but also ready to scale into QC and manufacturing.
Learn How to Validate NGS in GMP
Building Scalable, In-House NGS Capabilities
Establishing innovative, yet validation-ready, NGS methods to improve the quality of products is one of the main focuses of Analytical R&D Groups. Therefore, the ability to easily analyze and interpret sequencing data for reliable, yet faster decision-making is a strategic capability. Genedata Selector helps organizations reduce the cost and delays associated with fragmented tools, repeated manual handovers, and outsourced analysis by enabling scalable NGS workflows within a standardized, traceable, and user-friendly in-house environment. Consequently, scientific teams not only generate decision-ready results faster and use internal expertise more effectively but also build a repeatable framework that prepares for QC and manufacturing use in the future. In this way, Genedata Selector supports greater operational performance and more sustainable, enterprise-wise NGS adoption.
FAQs
- Why is NGS useful in analytical development?
- Why is NGS considered a multi-attribute approach for analytical development?
- Which analytical development assays are supported by Genedata Selector?
- Can NGS be used in GMP and regulated biopharma environments?
- Why is it beneficial for biopharma companies to bring NGS capabilities in-house?
- Do scientists need bioinformatics expertise to analyze NGS data?
Why is NGS useful in analytical development?
NGS is an ideal tool for use in analytical development because it provides highly sensitive, high-resolution information of complex biotherapeutic products, which helps teams characterize them, assess product and process-related risks, and support method development, comparability, and control strategy decisions. As regulatory interest in NGS grows, it is becoming an important tool for building more robust, scalable, and QC-ready analytical workflows.
Why is NGS considered a multi-attribute approach for analytical development?
NGS is considered a multi-attribute approach because it can assess several product critical quality attributes within a single workflow, including identity, sequence integrity, genetic stability, biosafety, and adventitious agent detection. This allows analytical teams to gain a more comprehensive molecular view of complex biotherapeutics without relying on multiple separate assays.
Which analytical development assays are supported by Genedata Selector?
Genedata Selector supports NGS-based analytical development assays across short- and long-read sequencing workflows, including applications such as identity testing, sequence integrity analysis, genetic stability assessment, biosafety testing, and adventitious agent detection. It helps teams standardize analysis, manage data, interpret results, and generate traceable outputs suitable for regulated environments.
Can NGS be used in GMP and regulated biopharma environments?
Yes. NGS can be used in GMP and regulated biopharma environments when instruments, assays, software, bioinformatics pipelines, and reporting workflows are appropriately validated and controlled. Regulatory expectations increasingly emphasize reproducibility, sensitivity, specificity, data integrity, auditability, and complete documentation across the full NGS workflow.
Why is it beneficial for biopharma companies to bring NGS capabilities in-house?
Bringing NGS capabilities in-house helps biopharma companies reduce dependence on external service providers, shorten turnaround times, improve control over data and workflows, and retain critical knowledge internally. It also enables teams to standardize methods, preserve traceability, scale analytical capacity, and prepare assays more efficiently for transfer into QC and manufacturing.
Do scientists need bioinformatics expertise to analyze NGS data?
Not always. While advanced bioinformatics expertise is essential for developing and validating complex pipelines, routine NGS data analysis can be made accessible to analytical development scientists through guided workflows, standardized playbooks, automation, and controlled data interpretation within an enterprise software environment like Genedata Selector.
References
- Report of the fourth conference on next-generation sequencing (NGS) for adventitious virus detection in biologics for humans and animals: Validation and implementation of NGS, Khan A.S., at al. Biologicals. 2025 Nov: 92:101859. doi: 10.1016/j.biologicals.2025.101859.
- Improved harmonization of critical characterization assays across cell therapies. Karanu F., et al., Regen Med. 2020 May;15(5):1661-1678. doi: 10.2217/rme-2020-0003.
- Insights on Successful Gene Therapy Manufacturing and Commercialization. Sargent B., Glover C., Barlow J.F., Hitchcock T., Cell Culture Dish 2020, Dec.
- Safety Assessment of Genome Editing in Human Gene Therapy Products Using Next-Generation Sequencing. FDA. 2026
- EPC adopts cutting-edge HTS chapter to enhance viral contaminant detection in biological products. European Directorate for the Quality of Medicines & HealthCare (EDQM).2025
- ICH. International Council for Harmonisation of Technical Requirements for Pharmaceuticals for Human Use ICH: Q5A Guideline on Viral Safety Evaluation of Biotechnology Products Derived from Cell Lines of Human or Animal Origin: Training Materials Module 0-3 0-3; 2025.
- Use of Public Human Genetic Variant Databases to Support Clinical Validity for Genetic and Genomic-Based In Vitro Diagnostics. Guidance for Stakeholders and Food and Drug Administration Staff. FDA 2018
- Electronic Records; Electronic Signatures (21 CFR Part 11). FDA 2003