Single-Use Bioreactor Cell Culture Systems Market Accelerating Flexible Biomanufacturing, Faster Scale-Up, and Next-Gen Biologics Capacity by 2032

Single-Use Bioreactor Cell Culture Systems Market Accelerating Flexible Biomanufacturing, Faster Scale-Up, and Next-Gen Biologics Capacity by 2032

Single-Use Bioreactor Cell Culture Systems Market is Segmented by Product Type (Stirred-Tank Single-Use Bioreactor Systems, Wave-Induced and Rocking Single-Use Bioreactors, Single-Use Bioreactor Bags and Assemblies, Single-Use Sensors and Control Systems, Perfusion and Intensification Accessories), by Workflow Scale (Process Development and Seed Train, Clinical and Pilot Manufacturing, Commercial Manufacturing), by Cell Culture Mode (Fed-Batch, Perfusion, Continuous and Intensified Processing), by Application, by End User, and by Region - Share, Trends, and Forecast to 2032
ID: 1498 No. of Pages: 355 Date: March 2026 Author: Umesh

Market Overview

The Single-Use Bioreactor Cell Culture Systems Market is moving from a flexibility-led niche into a core upstream manufacturing category for biologics, vaccines, and advanced therapies. In 2025, the U.S. agency responsible for human drugs approved 46 novel drugs, while the biologics regulator continues to maintain current lists of licensed cell and gene therapy products and 2025 biologics license approvals. At the same time, peer-reviewed reviews continue to identify the core reasons for single-use adoption as lower cross-contamination risk, less cleaning and sterilization, faster turnaround, and higher facility flexibility. Those forces are pushing single-use cell culture systems deeper into mainstream biomanufacturing strategy.

The Single-Use Bioreactor Cell Culture Systems Market is estimated at US$ 5.12 billion in 2025 and is projected to reach US$ 11.82 billion by 2032, reflecting a CAGR of 12.69% during 2026-2032.

The growth case is reinforced by the fact that single-use platforms now address much more than bench work. Thermo Fisher markets DynaDrive from 5 L to 5,000 L, HyPerforma from 50 L to 2,000 L, and rocker systems from 10 L to 50 L. Sartorius positions Biostat STR and Flexsafe STR as a 50 L to 2,000 L upstream platform for process development through commercial manufacturing. Cytiva positions Xcellerex single-use bioreactors from 10 L to 2,000 L and iCELLis as an automated fixed-bed single-use bioreactor platform for adherent-cell applications. This widening volume and modality coverage is one reason regulators have also placed greater emphasis on innovative and advanced manufacturing pathways.

Executive Market Snapshot

The figures below are internal analyst estimates based on the current approval environment, manufacturing-policy backdrop, and vendor activity shaping this market definition.

Metric

Value

Market Size 2025

US$ 5.12 billion

Market Size 2032

US$ 11.82 billion

CAGR 2026-2032

12.69%

Largest Product Segment

Stirred-Tank Single-Use Bioreactor Systems

Fastest Growing Segment

Perfusion and Intensification Accessories

Largest Region

North America

Highest Strategic Growth Focus

Asia-Pacific

Core Demand Driver

Flexible, contamination-aware, faster biologics manufacturing

 

Analyst Perspective

The market’s center of gravity has shifted from “disposable equipment adoption” to “upstream manufacturing architecture.” That change matters. Earlier adoption was driven mainly by speed and lower facility complexity for clinical production. The current wave is being driven by broader commercial logic: more diversified biologics portfolios, higher pressure to regionalize manufacturing support, stronger demand for faster tech transfer, and rising need to support both fed-batch and intensified cell culture in the same manufacturing network. The fact that Thermo Fisher, Sartorius, and Cytiva all now support scaled single-use cell culture platforms across process development to manufacturing shows that buyers are no longer treating single-use as a temporary bridge. They are treating it as permanent upstream infrastructure.

The most attractive demand pockets are no longer limited to conventional monoclonal antibody production. Japan’s regulatory presentations show biologics expanding within new drug approvals and note that ADCs and bispecifics are becoming more important. Merck has already commercialized a single-use reactor specifically for ADC manufacturing, and Sartorius has launched a next-generation platform aimed at improving efficiency in cell therapy production. This means the addressable opportunity is widening across suspension cell culture, adherent systems, perfusion workflows, and modality-specific upstream requirements.

Market Dynamics

Drivers

The Continued Strength of Biologics and Advanced-Therapy Development

The U.S. approved 46 novel drugs in 2025, while the biologics regulator also maintained current lists of biologics license approvals and licensed cell and gene therapy products. That approval activity matters because it sustains both early-stage process development demand and later-stage scale-up demand for upstream systems that can move quickly between seed train, pilot, and commercial operations.

The Regulatory and Institutional Push Toward Innovative Manufacturing

The advanced-manufacturing designation guidance finalized at the end of 2025 explicitly facilitates development of drugs using designated advanced manufacturing technologies, while the biologics center’s advanced technologies program continues to fund research on innovative monitoring and control techniques for biological-product manufacturing. In practice, that creates a more supportive environment for modular, digitally enabled, and intensified single-use cell culture systems.

Regional Biomanufacturing Buildout

Thermo Fisher’s December 2025 Asia expansion added a new bioprocess design center in Hyderabad and expanded existing centers in Incheon and Singapore, explicitly to support biologics, vaccines, and cell and gene therapies. Cytiva expanded its Fast Trak process-development and validation-services facility in India in February 2026, and European and Asian policy actions are increasingly treating biotechnology and biomanufacturing as strategic capabilities. Those moves expand the installed and pre-installed base for single-use upstream platforms.

Restraints

Operational Qualification And Lifecycle Complexity

Peer-reviewed reviews still point to integrity testing, transport, disposal, and broader implementation limits as unresolved issues in single-use adoption. The technology lowers cleaning and contamination burdens, but it does not remove the need for validation, material qualification, process characterization, and supply assurance.

Economics Remain Product- and Facility-Specific

Single-use systems have pushed far deeper into manufacturing than they had a decade ago, but vendor portfolios still show defined ranges and specific operating windows. Thermo Fisher, Sartorius, and Cytiva all market broad but bounded volume ranges, and that reality supports continued coexistence of single-use, hybrid, and stainless strategies depending on molecule type, campaign structure, and annual demand.

Sustainability Scrutiny

One of the strongest long-term debates in single-use bioprocessing remains the tradeoff between eliminating cleaning water and generating polymer waste. The literature increasingly treats sustainability as an optimization challenge rather than a settled advantage, which means buyers are weighing operational gains against waste handling, sourcing, and circularity expectations more carefully than before.

Market Segmentation Analysis

By Product Type

Stirred-Tank Single-Use Bioreactor Systems remain the largest segment and are estimated at US$ 1.84 billion in 2025, representing 35.94% of total market revenue. Their dominance reflects broad suitability for mammalian suspension culture, familiar scale-up logic, and vendor depth across development and manufacturing. Thermo Fisher’s DynaDrive and HyPerforma ranges, Sartorius’ Biostat STR family, and Cytiva’s Xcellerex platform all reinforce the centrality of stirred-tank systems in commercial single-use cell culture.

Single-Use Bioreactor Bags and Assemblies are estimated at US$ 1.10 billion, while Wave-Induced and Rocking Single-Use Bioreactors account for US$ 0.96 billion and remain important in seed train, sensitive cell lines, and process development. Single-Use Sensors and Control Systems contribute US$ 0.62 billion. The fastest-growing category is Perfusion and Intensification Accessories, currently US$ 0.60 billion, because the market is shifting toward higher cell density, longer runs, and intensified operations. Sartorius now explicitly markets Biostat STR with integrated Repligen ATF technology for intensified processes, which captures the direction of commercial demand.

By Workflow Scale

Commercial Manufacturing is the largest segment at US$ 2.07 billion in 2025, or 40.43% of the market. That reflects the steady expansion of single-use systems into late-stage and commercial biologics manufacturing. Clinical and Pilot Manufacturing follows at US$ 1.76 billion, while Process Development and Seed Train contributes US$ 1.29 billion. The split is important because it shows the market is no longer anchored mainly in early-stage flexibility. It is increasingly monetized in scale-up and routine manufacturing environments.

By Cell Culture Mode

Fed-Batch remains the largest at US$ 2.54 billion in 2025, representing 49.61% of total demand, because it remains the dominant manufacturing mode for many commercial biologics. Perfusion has reached US$ 1.62 billion and is the fastest-growing mode, supported by process intensification and higher productivity requirements. Continuous and Intensified Processing accounts for US$ 0.96 billion and is still smaller, but strategically important as advanced-manufacturing frameworks mature.

By Application

Monoclonal Antibodies and Recombinant Proteins lead with US$ 2.12 billion in 2025, or 41.41% of total market value. Cell and Gene Therapy contributes US$ 1.03 billion and is the fastest-growing application because of approved therapy momentum and the need for agile closed-system manufacturing. Vaccines account for US$ 0.83 billion, ADCs and Novel Biologics US$ 0.67 billion, and Biosimilars US$ 0.47 billion. Japan’s PMDA discussion of growing biologics importance, ADCs, and bispecifics, alongside Merck’s ADC-focused reactor launch, supports the view that newer biologic modalities are materially expanding upstream requirements.

By End User

Biopharmaceutical Companies remain the largest group with US$ 2.56 billion in 2025, or 50.00% of total demand. CDMOs and CMOs follow at US$ 1.92 billion and are gaining share as outsourced development and manufacturing continue to support biologics, cell therapy, and regional manufacturing models. Academic and Translational Institutes account for US$ 0.64 billion. The user mix is increasingly important because supplier strategies now need to serve very different buyer types: internal commercial biologics teams, outsourced platform builders, and translational groups developing future modalities.

Regional Analysis

North America

North America is the largest regional market and is estimated at US$ 2.12 billion in 2025, representing 41.41% of global revenue. The region leads because it combines high approval activity, advanced-manufacturing facilitation, strong vendor presence, and dense commercial biologics capacity. The U.S. biologics center continues to support advanced manufacturing through grants, contracts, and regulatory dialogue, while the advanced-manufacturing designation program gives innovators a clearer pathway for novel production approaches.

The United States is estimated at US$ 1.87 billion in 2025. Growth is supported by commercial biologics pipelines, cell and gene therapy activity, and mature vendor ecosystems spanning Thermo Fisher, Merck’s North American life-science business, Cytiva, and others. The country’s advantage is not only demand volume. It is also the combination of regulatory engagement, process-development infrastructure, and commercial manufacturing depth that supports single-use adoption across the product lifecycle.

Europe

Europe is estimated at US$ 1.54 billion in 2025, or 30.08% of global demand. The region’s position is being strengthened by policy and industrial support rather than only by mature biopharma demand. In December 2025, the European Commission proposed a biotech act with targeted support for high-impact projects to boost biomanufacturing and measures to speed clinical trial approvals and cut costs. That gives the region a more explicit industrial-policy framework around biotech and biomanufacturing than it had before.

Germany is estimated at US$ 0.45 billion in 2025. Germany benefits from a dense innovation base, with more than 30 biotechnology clusters connecting academic and industrial players in drug development. That cluster structure supports process-development demand, translational bioprocessing activity, and expansion of manufacturing-related technology adoption. In this market, Germany is especially important as a process-development and scale-up ecosystem rather than only as a finished-goods market.

France is estimated at US$ 0.31 billion in 2025. France’s support for biotherapies and bioproduction remains unusually explicit. The national acceleration strategy for biotherapies and bioproduction of innovative therapies was launched to make France a leader in the field, with EUR 800 million earmarked specifically for biotherapies and bioproduction within a broader health-innovation program. That policy backdrop supports upstream-capacity building, translational manufacturing, and stronger demand for flexible single-use systems.

Asia-Pacific

Asia-Pacific is estimated at US$ 1.46 billion in 2025, equal to 28.52% of global market value, and is expected to be the fastest-growing region during the forecast period. The region combines expanding biologics and advanced-therapy activity with explicit government support for biomanufacturing and strong supplier investment in local process-development infrastructure. Thermo Fisher’s 2025 Asia expansion across India, Korea, and Singapore is a clear commercial example of how vendors are positioning for that growth.

Japan is estimated at US$ 0.28 billion in 2025. Japan’s market is supported by regulatory focus on new modalities and by industrial policy aimed at building domestic manufacturing bases in biopharmaceuticals, regenerative medicine, cell therapy, and gene therapy. PMDA presentations also note the expanding role of biologics in approvals and continued development of new modalities, which favors flexible upstream systems that can support evolving product classes.

China is the largest Asia-Pacific country market and is estimated at US$ 0.72 billion in 2025. The country’s April 2025 plan for digital-intelligent transformation of the pharmaceutical industry calls for significant progress by 2027 and essentially full coverage among large-scale pharmaceutical enterprises by 2030. The plan explicitly aims to integrate AI and next-generation information technologies into pharmaceutical production chains and to develop high-performance products and facilities. That policy direction supports demand for modern, automated, and scalable single-use upstream systems.

South Korea is estimated at US$ 0.16 billion in 2025. Korea’s profile is strengthened by both export momentum and capability building. Official communication reported biohealth exports reaching a record USD 27.9 billion in 2025, and the country’s WHO-linked Global Training Hub for Biomanufacturing continues to expand practical training in cell-based vaccine and biopharmaceutical manufacturing at GMP-certified facilities. That combination supports both domestic capability and wider market maturity around upstream bioprocessing technologies.

Competitive Landscape

The competitive landscape is concentrated around global upstream-bioprocess leaders, but competition is no longer based only on vessel geometry or bag supply. The strongest vendors now compete on platform breadth, volume coverage, process intensification, automation, local support, and the ability to serve newer modalities such as cell therapy, ADCs, and adherent-cell manufacturing. Thermo Fisher, Sartorius, Cytiva, and Merck each illustrate a different path to leadership: broad volume-range systems, integrated intensified platforms, modality-specific single-use coverage, and portfolio extension into specialized upstream and bioprocessing solutions.

Key Company Profiles

Thermo Fisher Scientific

Thermo Fisher is one of the broadest players in this market. Its bioreactor lineup spans DynaDrive single-use bioreactors from 5 L to 5,000 L, HyPerforma from 50 L to 2,000 L, and rocker systems from 10 L to 50 L. That range gives the company a strong position from process development through commercial manufacturing. Its December 2025 expansion of bioprocess design centers in Hyderabad, Incheon, and Singapore reinforces a strategy built around localized customer support, single-use process design, and regional biomanufacturing enablement.

Sartorius

Sartorius remains a core competitor because it has one of the most coherent single-use upstream portfolios in the sector. Its single-use bioreactor range spans from 15 mL to 2,000 L, and Biostat STR Generation 3 is marketed as a state-of-the-art single-use platform for development and commercial manufacturing, including integrated ATF technology for intensified processes. In March 2026, Sartorius launched the Eveo Cell Therapy Platform, extending its strategy toward higher-efficiency cell therapy production and making the company even more relevant in advanced-therapy manufacturing.

Cytiva

Cytiva’s strength lies in modality breadth. Its Xcellerex platform covers 10 L to 2,000 L for suspension-cell bioprocessing, while iCELLis provides an automated fixed-bed single-use platform for adherent cells. That gives Cytiva a stronger position than many peers in viral vectors, vaccines, and selected cell-therapy workflows. In February 2026, the company expanded its Fast Trak process-development and validation-services facility in India, adding more regional support for customers scaling biologics and related products.

Merck

Merck remains strategically important because it combines upstream bioprocessing strength with targeted innovation in newer biologic modalities. In 2024 it launched the first scalable single-use mixer designed specifically for ADC manufacturing, and the company says the Mobius ADC Reactor helps biopharmaceutical companies produce therapies faster and more safely while maintaining quality. In October 2025, Merck also signed a deal to acquire the chromatography business of JSR Life Sciences, reinforcing a broader strategy to deepen its bioprocessing footprint across the manufacturing value chain.

Recent Developments

  • Sartorius’ March 16, 2026 launch of the Eveo Cell Therapy Platform. This matters because it signals continued convergence between single-use upstream technology and cell-therapy-specific manufacturing workflows, where scalability and analytical bottlenecks remain central commercial issues.
  • Cytiva’s February 24, 2026 expansion of its Fast Trak process-development and validation-services facility in India. The significance is that suppliers are investing not only in products but in localized process-development infrastructure, which helps accelerate adoption of single-use platforms in high-growth regional markets.
  • Thermo Fisher’s December 2, 2025 expansion of its bioprocess design centers across Asia, including a new Hyderabad site and expanded capabilities in Incheon and Singapore. This directly strengthens the market by bringing more single-use and hybrid process-design support closer to customers developing biologics, vaccines, and cell and gene therapies.
  • Merck’s October 15, 2025 agreement to acquire the chromatography business of JSR Life Sciences. While not limited to bioreactors, the deal materially broadens Merck’s bioprocessing reach and reflects continued supplier consolidation around integrated biomanufacturing platforms.

Strategic Outlook

The strategic outlook for the Single-Use Bioreactor Cell Culture Systems Market remains strong through 2032. The market is being supported by a durable combination of biologics approvals, cell and gene therapy development, regulatory support for advanced manufacturing, and vendor investment in regional bioprocess infrastructure. Single-use systems are increasingly favored where manufacturers need faster tech transfer, lower cleaning burdens, lower contamination risk, and more flexible capacity deployment across changing product mixes.

North America should remain the largest revenue pool because of its approval activity and mature commercial manufacturing base. Europe should stay strategically important because biomanufacturing is now being explicitly supported through biotech policy. Asia-Pacific is likely to post the fastest growth because supplier infrastructure, state support, and biologics manufacturing ambition are all rising at the same time.

Table of Contents

1. Introduction

1.1 Market Definition & Scope

1.2 Research Assumptions & Abbreviations

1.3 Research Methodology

1.4 Report Scope & Market Segmentation

2. Executive Summary

2.1 Market Snapshot

2.2 Market Absolute $ Opportunity & Y-o-Y Growth Analysis, 2022–2032

2.3 Market Size & Forecast by Segmentation

2.3.1 Market Size by Product Type

2.3.2 Market Size by Workflow Scale

2.3.3 Market Size by Cell Culture Mode

2.3.4 Market Size by Application

2.3.5 Market Size by End User

2.4 Regional Market Share & BPS Analysis

2.5 Growth Scenarios – Conservative, Base Case & Optimistic

2.6 CxO Perspective on Flexible Biomanufacturing

3. Market Overview

3.1 Market Dynamics

3.1.1 Drivers

3.1.2 Restraints

3.1.3 Opportunities

3.1.4 Key Trends

3.2 PESTLE Analysis

3.3 Porter’s Five Forces Analysis

3.4 Industry Supply Chain

3.4.1 Raw Material & Polymer Suppliers

3.4.2 Bioreactor System Manufacturers

3.4.3 Bioprocess Technology Providers

3.4.4 CDMOs & Biopharma End Users

3.5 Industry Lifecycle

3.6 Parent Market Overview (Bioprocessing Equipment Market)

3.7 Market Risk Assessment

4. Biopharmaceutical Manufacturing Trends

4.1 Growth in Biologics Production

4.1.1 Monoclonal Antibodies Demand

4.1.2 Vaccine Manufacturing Expansion

4.1.3 Cell & Gene Therapy Growth

4.2 Shift Toward Single-Use Technologies

4.2.1 Flexibility & Reduced Contamination Risk

4.2.2 Faster Time-to-Market

4.3 Process Intensification Trends

4.3.1 Perfusion-Based Manufacturing

4.3.2 Continuous Bioprocessing

5. Cost of Goods (COGs) Analysis (Premium Section)

5.1 Cost Structure in Biomanufacturing

5.1.1 Capital Expenditure (CapEx)

5.1.2 Operational Expenditure (OpEx)

5.2 Cost Comparison

5.2.1 Single-Use vs Stainless Steel Systems

5.2.2 Cost per Batch Production

5.3 Consumables Cost Analysis

5.3.1 Single-Use Bags & Assemblies

5.3.2 Sensors & Control Components

5.4 Cost per Gram of Biologic Produced

6. Scale-Up & Manufacturing Economics (Premium Section)

6.1 Scale-Up Challenges

6.1.1 Process Consistency

6.1.2 Technology Transfer

6.2 Economics by Workflow Scale

6.2.1 Process Development Costs

6.2.2 Clinical Manufacturing Costs

6.2.3 Commercial Production Costs

6.3 Facility Design Considerations

6.3.1 Modular Biomanufacturing

6.3.2 Flexible Facilities

7. ROI Analysis for Single-Use Bioreactor Adoption (Premium Section)

7.1 ROI Framework & Methodology

7.2 Investment Components

7.2.1 Equipment & Consumables Costs

7.2.2 Facility Setup Costs

7.2.3 Workforce Training Costs

7.3 Financial Benefits

7.3.1 Reduced Cleaning & Validation Costs

7.3.2 Faster Production Cycles

7.3.3 Lower Contamination Risk

7.4 ROI Scenarios

7.4.1 Biopharma Companies

7.4.2 CDMOs & CMOs

7.4.3 Cell & Gene Therapy Developers

7.5 Payback Period Analysis

8. Bioprocess Performance & Technology Benchmarking (Premium Section)

8.1 Productivity Benchmarking

8.1.1 Yield per Batch

8.1.2 Cell Density Optimization

8.2 Process Mode Benchmarking

8.2.1 Fed-Batch vs Perfusion

8.2.2 Continuous Processing Efficiency

8.3 Equipment Benchmarking

8.3.1 Stirred-Tank vs Wave Bioreactors

8.3.2 Automation & Control Systems

8.4 Quality & Compliance Metrics

8.4.1 GMP Compliance

8.4.2 Process Consistency

9. Single-Use Bioreactor Cell Culture Systems Market Segmentation - By Product Type (2022–2032), Value (USD Billion)

9.1 Stirred-Tank Systems

9.2 Wave-Induced/Rocking Systems

9.3 Single-Use Bags & Assemblies

9.4 Sensors & Control Systems

9.5 Perfusion & Intensification Accessories

10. Single-Use Bioreactor Cell Culture Systems Market Segmentation - by Workflow Scale (2022–2032), Value (USD Billion)

10.1 Process Development & Seed Train

10.2 Clinical & Pilot Manufacturing

10.3 Commercial Manufacturing

11. Single-Use Bioreactor Cell Culture Systems Market Segmentation - by Cell Culture Mode (2022–2032), Value (USD Billion)

11.1 Fed-Batch

11.2 Perfusion

11.3 Continuous Processing

12. Single-Use Bioreactor Cell Culture Systems Market Segmentation - by Application (2022–2032), Value (USD Billion)

12.1 Monoclonal Antibodies & Recombinant Proteins

12.2 Vaccines

12.3 Cell & Gene Therapy

12.4 ADCs & Novel Biologics

12.5 Biosimilars

13. Single-Use Bioreactor Cell Culture Systems Market Segmentation - by End User (2022–2032), Value (USD Billion)

13.1 Biopharmaceutical Companies

13.2 CDMOs & CMOs

13.3 Academic & Translational Institutes

14. Single-Use Bioreactor Cell Culture Systems Market Segmentation - by Regional Analysis (Forecast to 2032)

14.1 Introduction

14.2 North America

14.2.1 United States

14.2.2 Canada

14.2.3 Mexico

14.3 Europe

14.3.1 Germany

14.3.2 United Kingdom

14.3.3 France

14.3.4 Italy

14.3.5 Spain

14.3.6 Rest of Europe

14.4 Asia-Pacific

14.4.1 China

14.4.2 Japan

14.4.3 India

14.4.4 South Korea

14.4.5 Rest of Asia-Pacific

14.5 South America

14.5.1 Brazil

14.5.2 Argentina

14.5.3 Rest of South America

14.6 Middle East & Africa

14.6.1 GCC Countries

14.6.1.1 Saudi Arabia

14.6.1.2 UAE

14.6.1.3 Rest of GCC

14.6.2 South Africa

14.6.3 Rest of Middle East & Africa

15. Competitive Landscape

15.1 Key Player Positioning

15.2 Strategic Developments

15.3 Market Share Analysis

15.4 Product & Process Benchmarking

15.5 Innovation Landscape

15.6 Key Company Profiles

15.6.1 Sartorius

15.6.2 Cytiva

15.6.3 Merck

15.6.4 Thermo Fisher Scientific

15.6.5 ABEC

15.6.6 PBS Biotech

15.6.7 Getinge

15.6.8 Eppendorf

15.6.9 Repligen

15.6.10 Danaher

16. Analyst Recommendations

16.1 Opportunity Map

16.2 High-Growth Segment Prioritization

16.3 Market Entry & Expansion Strategy

16.4 Analyst Viewpoint & Strategic Recommendations

 

17. Assumptions

18. Disclaimer

19. Appendix

Segmentation

By Product Type

  • Stirred-Tank Single-Use Bioreactor Systems
  • Wave-Induced and Rocking Single-Use Bioreactors
  • Single-Use Bioreactor Bags and Assemblies
  • Single-Use Sensors and Control Systems
  • Perfusion and Intensification Accessories
 

By Workflow Scale

  • Process Development and Seed Train
  • Clinical and Pilot Manufacturing
  • Commercial Manufacturing
 

By Cell Culture Mode

  • Fed-Batch
  • Perfusion
  • Continuous and Intensified Processing
 

By Application

  • Monoclonal Antibodies and Recombinant Proteins
  • Vaccines
  • Cell and Gene Therapy
  • ADCs and Novel Biologics
  • Biosimilars
 

By End User

  • Biopharmaceutical Companies
  • CDMOs and CMOs
  • Academic and Translational Institutes

 

Key Players

  • Sartorius
  • Cytiva
  • Merck
  • Thermo Fisher Scientific
  • ABEC
  • PBS Biotech
  • Getinge
  • Eppendorf
  • Repligen
  • Danaher

Frequently Asked Questions About This Report