Partek Flow vs Pepkio: Bioinformatics Software vs Service Comparison
Deciding between Partek Flow and Pepkio comes down to whether your laboratory prefers investing in self-service graphical software or delegating analytical execution to a full-service bioinformatics CRO. Partek Flow (now part of Illumina) is a web-based graphical user interface (GUI) software platform that enables wet-lab scientists to process next-generation sequencing (NGS) and single-cell data without coding. However, it requires a dedicated Linux server or cloud instance, annual subscription licensing, and hands-on researcher labor to configure statistical contrasts, evaluate quality control (QC), and interpret outputs. In contrast, Pepkio operates as a full-service bioinformatics partner where experienced bioinformaticians handle complete data processing, custom statistical modeling, publication-ready figures, and manuscript Methods drafting. For research teams evaluating Partek Flow vs Pepkio, Partek Flow fits core facilities and labs with high recurring standard sample volume, while Pepkio benefits researchers seeking fast, publication-ready results without managing hardware or complex statistical edge cases.
Pepkio Editorial (Editor)
Updated
Quick Comparison Table
| Aspect | Pepkio (Outsourced Service) | Partek Flow (In-House GUI Software) |
|---|---|---|
| Analysis types | Bulk RNA-seq analysis, single-cell omics, spatial transcriptomics, epigenomics, and custom non-model assemblies | Bulk RNA-seq, scRNA-seq, spatial transcriptomics, DNA-seq variant calling, ChIP-seq/ATAC-seq, microarrays |
| Bioinformatics skills needed | Zero coding or statistical setup required | Zero coding required for GUI; moderate-to-high statistical domain knowledge needed for experimental contrasts |
| Infrastructure needed | None; all compute and high-performance storage managed by service provider | Dedicated 64-bit Linux server or HPC/cloud node (min 48 GB RAM, 4 CPU cores, 100 GB root, >2 TB storage); browser client |
| Time to first result | Turnkey delivery in 1–3 weeks without internal labor | 15–30 minutes to launch pipeline after server setup; 5–20 hours of hands-on researcher effort to optimize and analyze |
| Customisation flexibility | High; bespoke scripts, custom pipeline logic, non-standard reference indexing, and tailored statistical models | Moderate; constrained by built-in graphical node algorithms and GUI options |
| Reproducibility tooling | Written Methods text, parameter logs, data matrices; optional Nextflow/Snakemake workflows or Docker containers | Visual Directed Acyclic Graph (DAG), automated step-by-step audit trails, and exportable project pipeline templates |
| Delivered code | Custom open-source R or Python scripts delivered upon request | No standalone open-source code; visual workflows remain locked within Partek Flow platform |
| Publication figure support | Publication-ready figure panels, vector graphics, and figure legends included | Interactive visual charts, heatmaps, and UMAP plots exportable as PNG, SVG, or PDF; manual formatting required |
| Reviewer-response support | Direct scientist-to-scientist support for revised contrasts, additional analyses, and response drafting | Self-service; researcher must manually adjust GUI parameters and re-run pipelines in-house |
| Monetary cost | Flat pay-per-project service fee; no ongoing software or hardware maintenance fees | Quote-based annual subscription plus Linux server, cloud compute, and IT maintenance costs |
| Personnel-time cost | Minimal lab effort (initial scoping consultation and data transfer) | 5–20 hours of hands-on researcher time per project, plus ongoing system administrator maintenance |
| Technical support | Direct communication with assigned bioinformaticians to troubleshoot data anomalies | Vendor commercial technical support (email, phone, ticketing) and local system administrator for server bugs |
| Best suited for | Labs needing rapid publishable results, complex experimental designs, non-model organisms, or lacking compute setup | Core facilities and wet labs wanting independent point-and-click visual exploration on recurring standard datasets |
What Partek Flow Is
Partek Flow is an enterprise web-based graphical user interface (GUI) bioinformatics software platform designed to process, analyze, and visualize high-throughput sequencing and microarray data without requiring command-line or programming experience.
Acquired by Illumina in 2023, the platform caters to bench scientists, core facility directors, and clinical researchers. It covers major omics workflows, including bulk RNA-seq, single-cell multiomics (scRNA-seq, scATAC-seq, CITE-seq), spatial transcriptomics (10x Visium, Xenium, CosMx, MERSCOPE), DNA-seq variant calling, epigenomics (ChIP-seq, ATAC-seq, WGBS methylation), and microarrays.
Under the hood, Partek Flow wraps standard open-source tools and native engines into a node-based visual workflow canvas. Integrated algorithms include STAR, Bowtie2, BWA-MEM, and Minimap2 for alignment; DESeq2, limma-voom, and Partek Gene Set Analysis (GSA) for differential expression; Seurat anchors, Harmony, and Scanpy-interoperable routines for single-cell processing; and MACS2 and FreeBayes for peak and variant calling. Users interact via web browsers (Chrome, Firefox, Safari, Edge) connected to a central server. Partek Flow is deployed via Docker container on 64-bit Linux host servers or cloud instances and licensed under an annual commercial subscription.
What Pepkio Offers
Pepkio provides a full-service bioinformatics model (CRO) where research teams delegate data processing, statistical modeling, and visualization to expert bioinformaticians.
Rather than licensing software or maintaining computational infrastructure, researchers provide raw sequencing data alongside experimental metadata. Pepkio handles the end-to-end analytical workflow, returning processed count and variant matrices, publication-ready figure panels, written Materials & Methods text, and parameter documentation.
This service-based approach eliminates software setup, server maintenance, cloud compute management, and the need for bench scientists to configure complex statistical parameters. Pepkio also provides scientist-to-scientist support during manuscript revision, addressing peer reviewer feedback and performing requested re-analyses. Custom open-source R or Python scripts, as well as optional Nextflow or Snakemake workflows and Docker container environments, are delivered upon request.
Partek Flow vs Pepkio: Head-to-Head Comparison
How do setup and infrastructure requirements compare?
Partek Flow requires initial server deployment and system administration before biologists can begin visual analysis, whereas Pepkio requires zero technical setup.
Deploying Partek Flow is a multi-step administrative task. A system administrator installs the daemon on a 64-bit Linux server (Ubuntu, RHEL, CentOS) or Docker container, configures storage permissions, downloads genome reference indices (such as hg38 or mm10), and manages licensing. Once provisioned, a bench biologist needs 15 to 30 minutes to create a project, import raw data, connect visual pipeline nodes, and launch an execution. While end users do not write code, they must understand biological experimental design and statistical contrast selection to set up nodes correctly.
Pepkio eliminates infrastructure setup entirely. Researchers consult with bioinformaticians to define experimental contrasts and analytical goals, transfer raw data files, and receive finalized results without installing software or managing servers.
How do analytical flexibility and customization compare?
Pepkio supports unconstrained custom pipeline development and statistical modeling for complex edge cases, while Partek Flow focuses on standard pipelines wrapped within its visual GUI canvas.
Partek Flow includes pre-packaged algorithms accessible through graphical nodes. It handles standard human and mouse datasets efficiently, such as standard bulk RNA-seq or 10x single-cell workflows. However, customizing parameters beyond built-in options—such as analyzing non-model organisms without standard reference assemblies, handling non-standard GTF annotations, or modeling complex multi-factor nested batch effects—requires manual workarounds within fixed GUI boundaries.
Pepkio provides custom analytical tailoring. Experienced bioinformaticians write custom scripts, build bespoke reference indices, execute de novo transcript assembly, and design tailored statistical linear models specifically for non-standard experimental layouts or unique biological questions.
How do delivery timelines and researcher labor compare?
Compute execution in Partek Flow takes hours on high-performance servers, but total researcher time to evaluate plots and generate manuscript figures spans 1 to 3 weeks. Pepkio delivers turnkey results within 1 to 3 weeks without consuming lab personnel hours.
Partek Flow executes computational steps rapidly on high-RAM Linux host servers (for example, STAR alignment loads human reference genome indices into ~32 GB RAM). However, the biologist must dedicate 5 to 20 hours of hands-on labor per project to build workflow diagrams, evaluate QC metrics, fine-tune UMAP cluster resolutions, set statistical thresholds, and assemble charts into publication panels.
Pepkio operates on a turnkey delivery schedule of 1 to 3 weeks total. The service team executes processing, statistical testing, pathway enrichment, and figure formatting, delivering finalized results without pulling bench scientists away from wet-lab experiments.
How do reproducibility and workflow exports compare?
Partek Flow provides automated internal graphical provenance tracking within its software environment, while Pepkio delivers external written methods, parameter documentation, and optional open-source code scripts.
Partek Flow excels at internal auditing. The platform automatically generates an interactive visual Directed Acyclic Graph (DAG) for every project, logging tool versions, input file lineages, parameter choices, user IDs, and timestamps. Graphical pipelines can be saved as internal template files. However, Partek Flow does not export workflows as standalone open-source R, Python, Nextflow, or WDL scripts; the execution logic remains within the proprietary platform.
Pepkio delivers publication-ready Materials & Methods text tailored for journal submission, alongside parameter records and count or variant data matrices. Upon request, Pepkio provides complete open-source workflow scripts, while Nextflow or Snakemake pipeline files and Conda or Docker environments can also be included as optional deliverables.
What is the true cost of each option?
Partek Flow incurs annual software subscription licensing, compute hardware overhead, and researcher salary hours; Pepkio charges a flat, project-based service fee.
Partek Flow software licensing operates on an annual subscription model per lab group or enterprise site. Public academic records indicate shared group licenses typically cost around $3,000 to $5,000+ per lab group annually, while full server instance licenses scale higher. Specialized modules, such as the Single Cell Toolkit, require additional licensing add-ons. Labs must also cover Linux server hardware or cloud compute costs (high-RAM cloud instances, S3 storage), IT administration, and 5 to 20 hours of researcher labor per project.
Pepkio operates on a pay-per-project CRO service fee. Research groups avoid annual software subscription renewals, server maintenance overhead, cloud compute charges, and internal personnel time allocation.
How do peer-review support and manuscript preparation compare?
Pepkio includes publication-ready figure panel formatting, manuscript Methods drafting, and reviewer-response assistance, whereas Partek Flow outputs visual charts that researchers must format themselves.
Partek Flow generates interactive visual outputs—such as heatmaps, 2D and 3D UMAP plots, volcano plots, and violin plots—exportable as PNG, SVG, EPS, or PDF files. Researchers must independently assemble these graphics into manuscript figure panels, write the Materials & Methods section, and re-run GUI workflows if reviewers request revised analyses.
Pepkio provides complete publication support. Deliverables include publication-ready vector figure panels, figure legends, and manuscript Methods text. If peer reviewers request additional statistical contrasts or altered normalization parameters, Pepkio performs the re-analysis and assists in drafting responses to reviewer comments.
When to Choose Pepkio
Outsourcing analysis to Pepkio is ideal for research teams that need immediate, publishable bioinformatics results without investing in software subscriptions, server hardware, or dedicated analytical training:
- Tight Publication Deadlines: When manuscript submissions or grant renewals require rapid, publication-ready figure panels and written Methods text.
- Complex Edge Cases: For non-model organism datasets, custom GTF/GFF annotations, single-cell multiomics integration, or intricate multi-factor batch correction.
- Lack of Dedicated Bioinformaticians: When wet-lab biologists prefer focusing on bench experiments rather than spending 5 to 20 hours configuring GUI nodes and statistical parameters.
- Project-Based Budgets: When grant funding is allocated for specific project deliverables rather than multi-year software licensing and server infrastructure upkeep.
- Reviewer Response Assistance: When labs want expert bioinformatician support to address reviewer critiques, execute revised statistical contrasts, and update manuscript figures.
When to Choose Partek Flow
Running Partek Flow in-house is best suited for core facilities and multi-lab departments with high recurring data volumes that want wet-lab researchers to independently explore datasets via an intuitive point-and-click interface:
- Core Facilities & Multi-Lab Groups: Core facilities providing self-service analytical software to bench scientists across multiple research groups.
- High-Volume Standard Datasets: Labs processing standard human or mouse bulk RNA-seq and scRNA-seq datasets on a continuous, high-volume basis.
- Preference for Direct Visual Exploration: Biologists who enjoy interactively tuning heatmaps, clustering resolutions, and UMAP scatter plots in real time.
- Existing Linux Server Infrastructure: Institutions that already maintain 64 GB+ RAM Linux servers, Docker container environments, and dedicated system administrator support.
Trade-Offs Summary
-
Partek Flow (In-House GUI Software):
- Pros: Interactive point-and-click GUI; rich visual exploration capabilities; automated DAG provenance tracking; accessible to non-programmer biologists; vendor documentation and technical support.
- Cons: Quote-based annual subscription licensing (~$3,000–$5,000+ academic lab/year); requires 48 GB+ RAM Linux server infrastructure; proprietary vendor lock-in (cannot export open-source scripts); requires 5–20 researcher hours per project; no manuscript writing support.
-
Pepkio (Outsourced Bioinformatics Service):
- Pros: Zero software licensing or infrastructure required; turnkey delivery in 1–3 weeks; handles complex edge cases and non-model organisms; includes publication-grade figures, written Methods, and reviewer support; delivers open-source scripts upon request with optional Nextflow/Snakemake pipelines.
- Cons: Flat service fee per project; less direct real-time interactive parameter tweaking by bench scientists during initial data exploration.
Frequently Asked Questions
Can I obtain reproducible code when using Pepkio?
Yes. Unlike proprietary GUI platforms, Pepkio provides complete workflow documentation and custom open-source scripts upon request. Nextflow or Snakemake pipeline files and Docker container environments can also be delivered as optional deliverables, ensuring full analytical transparency.
How long does it take to learn Partek Flow for RNA-seq analysis?
Once a system administrator provisions the server, a wet-lab biologist can launch a standard RNA-seq pipeline within 15 to 30 minutes using the node-based GUI. However, mastering statistical contrast setup, batch correction, and parameter interpretation typically requires several days of hands-on practice.
What happens if a manuscript reviewer requests revised statistical contrasts?
If you use Pepkio, the service team performs requested re-analyses, updates figure panels, and drafts response text for the reviewers. If you use Partek Flow, your lab must re-open the project in the software, adjust normalization nodes, re-run execution steps, and re-export updated figures manually.
Does Partek Flow run locally on a Mac or Windows laptop?
No. Partek Flow uses a client-server architecture requiring a dedicated 64-bit Linux server, HPC cluster node, or cloud instance (AWS/Azure). Local Mac or Windows laptops function strictly as web browser thin clients.
What are the host server hardware requirements for Partek Flow?
The host Linux server requires at least a 64-bit CPU (quad-core minimum; 16 cores recommended for STAR alignment), 48 GB RAM (64–128+ GB for single-cell multiomics), 100 GB root storage, and >2 TB high-speed storage. Splice-aware aligners like STAR require ~32 GB RAM just to load the human genome reference index.
Can Partek Flow export pipelines as open-source R scripts or Nextflow workflows?
No. While Partek Flow tracks provenance via an interactive visual DAG and allows saving template pipeline files inside its system, it does not export standalone open-source R code, Python scripts, or Nextflow pipelines.
How is Partek Flow software licensed?
Partek Flow uses a quote-based annual subscription model per lab group or enterprise site. Public academic records indicate shared group licenses often range between $3,000 and $5,000+ per year, with specialized modules like the Single Cell Toolkit billed as add-ons.
Which option is better suited for non-model organism datasets?
Outsourcing to Pepkio is typically better for non-model organisms. Building custom reference indices, handling incomplete GTF annotations, and performing de novo transcript assembly are easier for experienced bioinformaticians using custom pipelines than forcing non-standard datasets through fixed GUI nodes.
Which underlying algorithms are integrated into Partek Flow?
Partek Flow integrates standard open-source tools into its visual canvas, including STAR, Bowtie2, and BWA for alignment; DESeq2, limma-voom, and Partek GSA for differential expression; Seurat anchors and Harmony for single-cell integration; and MACS2 for peak calling.
How much researcher labor is required for an analysis in Partek Flow?
While computational pipeline execution takes hours on a Linux server, a researcher typically spends 5 to 20 hours hands-on per project importing data, configuring contrasts, inspecting QC plots, fine-tuning cluster resolutions, and formatting output figures.
How do Partek Flow and Pepkio compare for single-cell RNA-seq?
Partek Flow offers an interactive Single Cell Toolkit with visual UMAP, t-SNE, and cell-type profiling nodes. Pepkio provides end-to-end scRNA-seq processing, custom doublet filtering, cell-type annotation, trajectory modeling, and publication-ready composite panels without requiring high-RAM local infrastructure.
Bottom Line
The choice between Partek Flow and Pepkio rests on whether your team wants to maintain software and execute analyses internally or delegate processing to dedicated experts.
Partek Flow is a strong visual software platform for academic core facilities and wet-lab teams with recurring sequencing datasets who want independent point-and-click control over standard NGS and single-cell workflows. However, it requires annual software subscription fees, high-RAM Linux server infrastructure, IT maintenance, and ongoing researcher hours. Pepkio bioinformatics provides a turnkey CRO alternative, delivering publishable figures, written Methods, and reviewer support without hardware overhead or software lock-in. For labs evaluating Partek Flow vs Pepkio, Pepkio is the practical choice when speed, complex edge cases, and publication readiness take precedence over self-service software operation.
Want expert help applying this? Learn about our bioinformatics CRO.