Issue:May 2026
SPECIAL FEATURE - PFS & Parenteral Manufacturing: Rapid Growth of Injectables Places Unprecedented Demands on Parenteral Manufacturing
The global prefilled syringes market (PFS) is poised for substantial growth, with an estimated valuation of $10 billion in 2026, expected to reach $19.3 billion by 2033, driven by rising demand for biologic drugs, increasing prevalence of chronic diseases, and the growing adoption of self-administered drug delivery systems.1 While conventional PFS dominate the sector, there is growing interest in dual-chamber PFS – freeze-dried drugs and diluents in separate chambers – necessitated by precise and convenient medication administration. In addition, the growth of the biopharmaceutical sector, particularly in biologics and biosimilars are fueling the need for specialized delivery systems such as dual-chamber prefilled syringes, which ensure the stability and proper administration of complex medications to treat chronic diseases. Thus, a market valued at approximately $199 million in 2026 could reach $334 million by 2033.2
As the market swells, so too do CDMO expansions to accommodate the growth in parenteral manufacturing. Over the last year, several CDMOs are proceeding with capacity additions to existing locations and building new sites. This annual Drug Development & Delivery report highlights many of these CDMOs as well as innovations in the PFS sector.
Aptar Pharma: Closure Performance for GLP-1 & Sensitive Biologics
The injectable market’s center of gravity has shifted. Where formulation complexity was once the primary design constraint, today’s drug developers must contend with the full system: a high-concentration biologic sensitive to primary packaging contact, a subcutaneous self-injection that demands predictable gliding forces for autoinjector integration, a vaccine formulation that cannot tolerate cold-chain excursions. Primary packaging components sit at the intersection of all of it.
“Highly sensitive drugs are shaping today’s injectable landscape across the entire lifecycle, from formulation to patient administration,” says Olivier Simon, Global Business Development Director at Aptar Pharma. “That’s the environment for which Aptar Pharma designs.”
Aptar Pharma’s answer is PremiumCoat® – a coated closure platform spanning plungers for prefilled syringes, plungers for cartridges, and stoppers for vials, unified by a single rubber formulation (6720GC Bromobutyl) and a consistent ETFE film. The material consistency is deliberate: where separate qualification programs would otherwise be required for each container type, a common platform lets developers transfer learning across formats rather than rebuilding it from scratch, he explains. With cartridge formats for large-volume subcutaneous delivery added recently to the portfolio and cross-platform compatibility data continuing to accumulate, PremiumCoat is designed to grow with the pipeline it serves – across biologics, vaccines, and self-administered injectables.
Mr. Simon presented performance data at the 2026 PDA Parenteral Packaging Conference. Force profile studies on the 1mL long plunger – conducted across three syringe platforms, three batches, and accelerated stability conditions out to 12 months at 40°C – demonstrated stable, low break-loose and gliding forces with minimal inter-syringe variability. Viscosity testing extended this further: at diverse and realistic CP values, injection forces remained within ranges considered achievable for patients with rheumatoid arthritis, a relevant benchmark for immunology and other high-concentration biologic indications, he explained at the conference. Machinability testing across vacuum and vent tube stoppering equipment from three machine makers confirmed ETFE film integrity post-insertion – a practical consideration that frequently surfaces late in fill-finish development.
“The question we keep coming back to is how closure design enables consistent delivery performance across the drug-device-patient ecosystem,” says Mr. Simon. “That framing keeps us focused on what actually matters to our customers, not just the component in isolation, but how it performs in the system.”
BD Pharmaceutical Systems: Advancing Development with Reduced Risk
BD Pharmaceutical Systems provides primary drug containers and delivery solutions for injectable and parenteral drugs, as well as advanced drug delivery systems and services (ZebraSci) to support end-to-end system needs. With a focus on glass prefillable syringes (PFS) and integrated systems, the PFS portfolio is designed to support drug development from early clinical phases through commercial scale while reducing risk across the drug life cycle, explains Mehdi Megdoud, Global Marketing Director, Prefillable Syrings, BD.
The key needs BD Pharmaceutical Systems aims to address are: drug-container compatibility for sensitive biologics; injectability challenges linked to higher viscosity and larger volumes; reliability, quality, and supply resilience at commercial scale; and combination product readiness, including autoinjector and delivery device compatibility. To support biologics/biosimilars, vaccines, and self-administered chronic therapies, BD offers:
- BD Hypak™ for Biotech and BD Neopak™ Glass Prefillable Syringes designed for compatibility with sensitive formulations;
- BD Neopak XSi™ Glass Prefillable Syringe, featuring a proprietary cross linked silicone coating to reduce sub-visible particles without introducing new chemistry; and
- BD Neopak XtraFlow™ Glass Prefillable Syringe developed to improve flow performance for higher viscosity drugs and larger volumes by reducing pressure drop during injection.
“These container solutions are complemented by technical documentation, stack up analysis, and early development support to de-risk regulatory and scale up phases,” he says.
Raising the bar for PFS solutions are cell and gene therapies and antibody drug conjugates by introducing higher drug sensitivity to surfaces and particulates, smaller batch sizes with very high value per dose, and increased formulation complexity, including viscosity and stability constraints, explains Mr. Megdoud. As a result, this is driving demand for enhanced glass surface control and coatings to mitigate particulate and compatibility risks, precision manufacturing and tighter specifications, and early, collaborative container-closure evaluation during development.
“As a result, PFS are no longer viewed as commodity components but as critical elements of the overall drug product design,” he says.
BD frequently partners with pharmaceutical companies facing challenges related to injectability of high viscosity biologics in larger volumes. In one representative collaboration, a pharma partner experienced long injection times and high injection forces when progressing a viscous biologic into a PFS-based combination product. BD supported the program through early technical engagement, including injectability testing, and container–device compatibility assessments, Mr. Megdoud explains. The program leveraged BD Neopak XtraFlow Glass Prefillable Syringe, designed to improve flow performance while maintaining compatibility with autoinjector platforms.
He says: “This approach helped our partner advance development with reduced technical risk, improved patient usability targets, providing greater confidence ahead of scale-up.”
Bora Pharmaceuticals: PFS for Rare & Orphan Diseases
As demand grows for more complex, innovative therapies, the pressure to deliver them safely and efficiently is driving new expectations for drug delivery systems, like prefilled syringes (PFS). In fact, PFS have become a critical part of how these therapies reach patients.
Bora Pharmaceuticals’ facility in Baltimore, MD, specializes in PFS products for a variety of therapeutic areas, including for rare and orphan diseases. Shipping products to more than 40 countries, the 87,000-sq. ft. site provides full service, end-to-end, aseptic sterile fill/finish capabilities with full analytical services of micro, sterility, QC analytical and environmental monitoring, including method optimization.
The facility specializes in lyophilization. “Complex therapeutics, particularly biologics, require high standards and extreme care to match client and patient
standards,” says Aeliya Jafri, Senior Manager of Commercial Operations and Drug Product, Bora Pharmaceuticals. “By fully integrating its advanced lyophilizer into the fill line, Bora reduces human contact with products during the manufacturing process to provide stringent quality control and improve product yield. As a result, lyophilized parenterals are stabilized for distribution, leading to increased success during the conversion to packaging.”
Lyophilization and parenteral manufacturing is particularly important for the rare and orphan drug needs for pharma clients and patients. Given the niche category that these therapies fall under, the Baltimore facility has experience with global regulators, ensuring operations are compliant with Annex 1 requirements, including PUPSIT implementation, as required for EU distribution.
With tech transfer capabilities for process and lyophilization, including cycle development, Bora continues to invest in its Baltimore facility. The site is expanding a commercial-scale lyophilization process that will offer parenteral manufacturing capabilities. In addition, the facility is installing its next phase of isolator technology, building off its Groninger Flex Pro 50 isolator filling line.
“For CDMOs and their clients, the most vital aspect of drug delivery is strong, collaborative partnerships,” says Ms. Jafri. “In order to optimize product formulation and PFS design, process development engineers and operational excellence teams collaborate with customers to strengthen drug effectiveness while streamlining end-to-end manufacturing.”
Recently, Bora’s expert team further refined its aseptic fill-finish process for a lyophilized product, launching a full engineering run to evaluate process parameters, she explains. The site installed high-speed cameras to analyze needle positioning, fill speed, and dispense timing prior to lyophilization. “This process improved system efficiency and product yield,” she says.
Credence MedSystems: A Leaner Approach to Injection Systems
Autoinjectors have played an important role in the evolution of injectable drug delivery. Understanding the factors driving their implementation gives guidance to assess their future role, especially as the mass adoption of certain therapies creates intense pressure on the sustainability initiatives taking root in the industry.
They were originally developed to meet a specific and urgent need: rapid self-administration of antidotes in military settings, allowing for urgent drug delivery under extreme stress. This transition into civilian healthcare began with the emergency treatment of anaphylaxis, and then evolved again for use for self-injection treatment for migraines and for autoimmune diseases such as multiple sclerosis, where patients often experience dexterity issues. In these cases, ease of use was not just a convenience, but a necessity. Today, the landscape has changed again. In areas such as metabolic disease and GLP-1 therapies, many patients do not face the same urgency, physical limitations, or barriers to self-injection as they once did. This raises an important question: can we continue to justify the widespread use of single-use autoinjectors in all therapy areas?
“The scale of the challenge is significant,” says Sian Eden, Commercial Director, Credence MedSystems. “Hundreds of millions of autoinjectors are produced annually, primarily designed as disposable single-use devices. As sustainability becomes a central priority for the pharmaceutical industry, this model warrants re-evaluation. If we revisit the original purpose of autoinjectors – providing safe, simple, and effective drug delivery – we can ask: is there a way to deliver these same user benefits with a fraction of the material?”
The Credence Companion® Safety Syringe System offers an alternative to what has become the status quo, she says. Designed to integrate needle safety directly into the syringe, it eliminates the need for bulky add-on mechanisms that increase material use, weight, and volume. At the same time, it delivers some of the features associated with autoinjectors: clear end-of-dose feedback with a ‘click,’ needlestick protection, visibility of the drug, and ease of use in home settings. Beyond the user experience, the sustainability and operational efficiency advantages are substantial. Reduced material, lower weight and smaller device size translate into lower manufacturing impact, more efficient transport, and decreased packaging requirements. “These efficiencies are particularly valuable in cold chain logistics, where space and weight directly influence cost and environmental footprint,” says Ms. Eden. “The result is not only a more sustainable solution, but also a lower total cost of ownership.”
For therapy areas that still benefit from assisted delivery, Companion enables reusable and manual injector platforms that leverage its inherent safety and usability features, providing an additional pathway that retains user-centric design while further reducing waste.
“While autoinjectors remain vital in certain contexts, their universal application is no longer to be presumed. By challenging assumptions and embracing smarter design, the industry can benefit from ‘Innovation Without Change’ – preserving what patients need while significantly reducing environmental impact,” she says. “It’s no longer a question of whether we can afford to change. The questions are how and when.”
LATITUDE Pharmaceuticals: Integrated Model Moves from Formulation to Clinical Production
LATITUDE Pharmaceuticals operates as a formulation-focused CDMO with an emphasis on injectable/parenteral drug formulation. It provides end-to-end services spanning preformulation, formulation development, analytical testing, and GLP/GMP manufacturing of sterile injectables for both preclinical and early clinical-stage programs. These include a range of parenteral formats such as intravenous, subcutaneous, and intramuscular injection, as well as advanced systems, including lipid nanoparticles, liposomes, and nanoemulsions.
LATITUDE uses an integrated development-to-manufacturing model, which allows clients to move from formulation design to clinical trial material production under cGMP, accelerating timelines and reducing technical risk, explains Matthew Singer, PhD, Vice President, Business Development, LATITUDE Pharmaceuticals. The company also offers proprietary drug delivery platforms (i.e. PG Depot, nanoemulsions, and ClearSol™ solubilization technology) that enhance parenteral drug performance.
“These services address critical unmet needs in the injectables/parenteral market,” he says. “Many drug candidates – especially biologics and poorly soluble small molecules – face challenges such as low solubility, instability, poor bioavailability, injection-site toxicity, and difficulty achieving controlled release. LATITUDE’s services and technologies help overcome these barriers by improving solubility, stabilizing formulations, enabling sustained or targeted delivery, and ensuring sterility and regulatory compliance.”
The most prevalent injectable drug products today are biologics, including RNA- and protein/peptide-based therapies. These are commonly delivered via syringe (prefilled or from a vial), autoinjectors, and increasingly wearable or on-body delivery systems. LATITUDE Pharmaceuticals supports these products through a range of specialized services and technologies, such as formulation development for complex injectables (e.g., high-concentration biologics), particle engineering, and deaggregation and stabilization strategies to improve shelf life and delivery performance. LATITUDE also provides fill-finish support, analytical testing, and process development tailored to parenteral dosage forms. On the technology side, LATITUDE leverages advanced delivery systems such as long-acting injectables, nanoparticle formulations, and solubility-enhancing platforms.
To address the growing filling and packaging of parenteral drugs, LATITUDE Pharmaceuticals is optimizing its existing footprint to increase productivity and flexibility rather than building new sites. This has included repurposing underutilized R&D areas into GMP-compliant manufacturing space, such as the addition of two negative-pressure suites to support specialized and higher-containment processes and an EMA-compliant cleanroom.
Dr. Singer says: “This strategy reflects LATITUDE’s deliberate choice to remain a small, agile CDMO. A lean structure allows LATITUDE to adapt quickly to its pharma and biotech clients’ rapidly changing priorities, scale projects efficiently, and provide more responsive, customized support.”
Lifecore Injectables CDMO: Pushing the Limits for Viscous Formulations
Sterile filtration can be challenging due to low throughput and potential concentration changes stemming from solution viscosity, retention, or adsorption. The inherent difficulty in filtration of relatively large molecular weight polymers or highly concentrated biologics combined with the complexity of filling of the viscous solutions may force developers to consider alternative terminal sterilization methods, which can sometimes result in undesirable product attribute changes.
“Lifecore Injectables CDMO provides a unique service for the injectables market related to sterile filtration and aseptic filling of viscous formulations (>50 centipoise) to eliminate terminal sterilization,” says Sheida Jamalzadeh, PhD, Sr. Process Engineer, Lifecore.
Lifecore’s sterile filtration solution uses a proprietary designed, validated, high-pressure sterile filtration (HPSF) system that adheres to sterile filtration guidance. Dr. Jamalzadeh says: “This solution has earned Lifecore recognition as a CDMO with a differentiated ability to handle complex, highly viscous formulations. The system has been validated in various applications up to 100,000 centipoise.”
Recent products with complicated formulations have caused Lifecore to develop, expand, and validate the range of the HPSF system. A customer approached with a project that required Lifecore to expand the capabilities of the HPSF system for a solution of >200,000 centipoise. “We’re currently working on a complex formulation that incorporates large concentrations of Lifecore’s hyaluronic acid (HA), driving the formulation’s viscosity to the range of >200,000 centipoise,” she says. “We’ve successfully developed a process to overcome filtration issues at this increased viscosity, and it is currently under validation. We’ve also overcome additional product flow and holdup challenges with other specialized equipment.”
In addition, while HPSF has traditionally been used to address high-viscosity challenges, it has also proven effective for lower-viscosity formulations with specific chemistries and solution attributes that lead to filter clogging under conventional filtration processing conditions. “At lower operating pressures, the material exhibited gel formation upon contact with the filter, resulting in system clogging,” says Dr. Jamalzadeh. “Implementation of the HPSF design effectively mitigated this issue.”
Lubrizol: Stabilizing Solubility of Injectable Drugs
Injectable and parenteral dosage forms play a key role in treating acute and chronic conditions, and are particularly prevalent in oncology. A 2022 Dupont review found that 27.5% of parenteral active pharmaceutical ingredients (APIs) were for oncological therapeutics. Yet, up to 90% of promising APIs in development have poor aqueous solubility – including many of those intended for parenteral delivery. Low solubility negatively impacts dissolution, absorption, and pharmacokinetics, in turn compromising bioavailability and increasing formulation complexity. Existing excipients or manufacturing techniques can struggle to resolve all of these challenges, increasing the risk that much-needed therapeutics fail to reach the market.
“Where drugs for parenteral dosage forms are concerned, the range of suitable approved excipients is limited,” says Matt Finkelhor, Commercial Manager, Global Novel Polymers, Lubrizol. “The formulation challenges and strict safety requirements associated with injectables have limited successful commercialization of novel excipients over the last three decades. Yet, many existing excipients fail to improve solubility sufficiently for today’s challenging “brick-dust” APIs, while some may cause unwanted side effects for patients.”
For many oncology drugs, the dosage regimen is determined not only by the toxicity of the API but also by that of the excipient. Lubrizol developed its novel Apisolex™ polymer excipient to stabilize and enhance the solubility of BCS Class II and IV APIs for injectable drug formulations, opening up access to new and improved parenteral drugs, says Mr. Finkelhor. This is especially relevant in oncology, where intravenous delivery ensures higher bioavailability and lower patient variability compared to oral delivery. “In addition to improving solubility by 102- to 105-fold for APIs, Apisolex polymer supports high drug loading of up to 40%,” he says. “Together, these characteristics enable greater API delivery in a smaller dose volume, potentially reducing either treatment time or dosing frequency to align with the demand for more patient-centric therapeutic regimens.”
Apisolex polymer excipient is based on sarcosine, a non-toxic, non-immunogenic, biocompatible, and biodegradable amino acid. The solubilization mechanism is based on micelle formation. The excipient may be used with standard processing techniques to streamline and speed up manufacturing processes. As a patented technology, it can be used to formulate new APIs and reformulate existing ones to enhance their therapeutic effect and deliver improved patient outcomes, says Mr. Finkelhor.
Mitsubishi Gas Chemical Co.: Gas Barrier of Multi-Layer Plastic Vials Are 20x Better Than COP
MGC supplies multilayer plastic vials with high gas barrier that addresses the issue of container closure integrity (CCI) and pH shift for cell and gene therapy (CGT) products stored and transported in harsh conditions.
Traditional glass and plastic materials for syringes and vials are filled with problems, says Tomohiro Suzuki, Associate General Manager, OXYCAPT Team Leader, MGC. “Glass suffers from a range of issues – such as high-breakability and poor PH stability – while plastic has an insufficient oxygen barrier and UV barrier,” he says. The US FDA and pharmaceutical companies have searched for solutions. Competitors have launched advanced material products, but their oxygen barriers and drug stability have been met with criticism.
This led to the creation of OXYCAPT™, which features the benefits of glass and plastic in a three-tiered, multilayer, material. OXYCAPT features a water vapor barrier and drug contact layer made from COP (Cyclo Olefin Polymer) and an oxygen and carbon dioxide barrier layer with a high gas barrier polymer. “With low extractables, low protein absorption, and low breakability, all components come together to produce the best high gas barrier material on the market,” says Suzuki. “The OXYCAPT-P Vial has high oxygen and CO2 barrier property, which is about 20 times better than COP. Through UV absorption, OXYCAPT protects drugs better than COP and Glass Type I by cutting off UV light below 300nm.”
Noxilizer: Providing a Preferred Option for Terminal Sterilization of PFS
Noxilizer is a commercial manufacturer of NO2 sterilization, which is becoming the preferred choice for biologic combination products such as prefilled syringes that cannot tolerate traditional sterilization methods, says Christopher Thatcher, President and CEO, Noxilizer.
When sterilizing syringes and autoinjectors, high temperature can lead to denaturation or degradation of biologics. Pressure changes can force the plunger to move, allowing microbes and sterilant to contaminate the drug product, known as ingress.
Mr. Thatcher says that NO2 provides many benefits over other sterilization methods, including an ultra-low temperature process (10°C-30°C) that maintains drug integrity; minimal vacuum option to prevent stopper movement and contamination of the drug product; surface sterilization with low to no residuals to enable use of polymer syringes/car tridges/vials; short cycle times (6-12 hours including aeration time) to support supply chain efficiency; flexible critical process parameters for custom cycles; and a system that is simple and safe to bring in house to reduce manufacturing time and supply chain risk.
He points to a study that compared ethylene oxide (EO) gas, vaporized hydrogen peroxide (VHP), and NO2 gas sterilization. “As with other studies, this study found that for the EO- or VHP-sterilized syringes, the ingress of EO and hydrogen peroxide (H2O2) molecules were detected in the filled WFI,” he says.
Additionally, EO-adducted or oxidized HSA molecules were observed in the HSA-filled syringes. In contrast, the NO2-sterilized syringes exhibited immeasurable ingress of NO2 and protein degradation was not detected in HSA-filled syringes.
“This is important for any company delivering biologics in a PFS,” he says. “We encourage companies who are at the early stage of developing a biologic product to be delivered in a prefilled syringe to identify a partner with a technology best suited to preserving product integrity in PFS, and then to work with their partner from early design through expose and return and feasibility studies to validation, regulatory filing, and ultimately commercialization. This can help minimize the surprises and support your project’s success.”
PCI: Seamless Support from Clinic to Commercialization
PCI is a CDMO providing integrated end-to-end sterile injectable drug and drug device development, manufacturing, combination product assembly, testing and advanced packaging solutions. PCI supports most complex parenteral therapies, from small-scale orphan drugs to large-volume small molecule and biologics in vials, prefilled syringes, autoinjectors, pens, and on-body injectors.
“Our solutions support biopharma companies in optimizing dosing and providing convenient, easy-to-use patient-centric therapies to patients,” says Dawn Manley, Director Global Technical Sales, PCI.
In the area of pharma development, PCI provides First-in-Human early-phase studies through to commercialization and beyond, providing scalable formulation, process, and analytical support. New Centers of Excellence in Bedford, NH, and León, Spain, support high potent and non-potent small molecules and biologics across vials, syringes, and cartridges, with expertise in lyophilization, IND readiness, drug-device combinations, long-acting injectables, and ophthalmic development.
PCI’s sterile fill-finish capabilities span early clinical to global commercial supply, delivering aseptic manufacturing, lyophilization, and scalable vial, syringe, and cartridge filling across North America and Europe. “With Annex 1-compliant technologies, scientific expertise, together with co-located pharmaceutical development laboratories, PCI delivers flexible, modality-agnostic sterile development and commercialization solutions,” she says. “And, to meet the increased need for isolator-based syringe and cartridge filling, we are adding additional high-speed prefilled syringe and cartridge capabilities in North America and Europe to support batch sizes up to 200,000 complemented by fully automated visual inspection systems.”
Device agnostic final assembly and packaging of drug-device combinations includes prefilled syringes, needle safety devices, pens, autoinjectors, and on-body injectors, with automated assembly, functional testing to ISO standards, and scalability from clinical to high-speed commercial lines processing 3-300ppm.
Patient-centric secondary packaging, labeling and kitting, cold chain storage and distribution, and late-stage customization support worldwide launches and lifecycle management for injectable and combination products.
“Combined, these investments reinforce PCI’s status as an integrated CDMO for injectable solutions, providing seamless support from clinical trial supply through commercial launch, supported throughout by global capacity, technical expertise, and deep scientific knowledge,” says Ms. Manley.
SCHOTT Pharma: Supporting Glass & Polymer Platforms for Sensitive Biologics
Ready-to-use (RTU) primary packaging is becoming increasingly important across parenteral development and commercial supply, with prefilled syringes (PFS) leading adoption as an integrated drug containment and delivery solution. By simplifying preparation and reducing in-process handling, PFS solutions can improve operational efficiency in clinical settings and support smooth and standardized workflows in fill-and-finish processing. These advantages translate into opportunities to reduce complexity and total cost across the product lifecycle. At the same time, PFS formats align with the continued shift toward self-injection and homecare applications, where usability and reliable performance are critical.
“In today’s market, vaccines and biologics remain key drivers of PFS demand, alongside chronic therapies that increasingly rely on device-assisted self-injection,” says Michelle Roos, Global Product Manager Polymer Solutions, SCHOTT Pharma.
For glass PFS, SCHOTT Pharma offers platforms such as syriQ® (for vaccines) and syriQ BioPure® (for sensitive biologics). The syriQ BioPure platform is manufactured from FIOLAX® Type I Borosilicate Glass and engineered to address biologic-specific risks such as drug container interactions while supporting consistent functionality and compatibility with autoinjectors and safety systems.
For polymer PFS, SCHOTT Pharma’s SCHOTT TOPPAC® platform uses Cyclic Olefin Copolymer (COC) to enable robust handling, precise dimensions, and design flexibility for advanced IV connectivity and device integration. Injection molding enables stable, repeatable quality within tight specifications. Cross-linked siliconization is intended to support low particle levels and controlled silicone behavior, helping address the needs of sensitive biologics, explains Ms. Roos. The platform is also designed to maintain container closure integrity during cold-chain handling and storage, and it is available in standardized nest-and-tub configurations that support efficient processing on established fill-and-finish lines.
Emerging advanced therapies – such as cell and gene therapies (CGTs) and antibody drug conjugates (ADCs) – are increasing the technical demands placed on primary containers and are accelerating the shift toward ready-to-use formats where appropriate. CGTs, in particular, often depend on tightly controlled cold-chain logistics at ultra-low or even cryogenic temperatures, which elevates requirements for mechanical robustness and reliable container closure integrity under extreme conditions.
In parallel, ADCs’ complex and potent formulations can increase sensitivity to factors such as light exposure and drug container interactions, underscoring the need for packaging systems that protect stability and performance throughout the product lifecycle. Against this backdrop, SCHOTT Pharma supports development programs with complementary PFS platforms: glass syringes engineered for sensitive biologics (e.g., syriQ BioPure) and polymer PFS options designed for deep-cold storage and transport, where temperature resilience is a critical constraint, says Sven Pohle, Global Product Manager Glass Syringes, SCHOTT Pharma.
As injectable products and delivery systems become more integrated, successful PFS platforms increasingly depend on partnership across the full ecosystem: pharma companies, primary packaging and device suppliers, fill-and-finish equipment vendors, and CDMOs.
“SCHOTT Pharma actively builds strong, long-term collaborations to align container design, components, and processability early, thereby reducing downstream rework,” says Mr. Pohle. “For pharma companies, early involvement of key partners helps confirm drug stability with the right container choice while also establishing a supply chain and industrialization pathway that supports fast time-to- market and scalable capacity from clinical to commercial.”
Simtra BioPharma Solutions: Advancing Parenteral Manufacturing in a More Complex Injectable Landscape
The rapid growth of injectable therapeutics – particularly biologics and highly potent molecules – is placing unprecedented demands on parenteral manufacturing and primary packaging systems. At Simtra BioPharma Solutions, the focus is on providing advanced sterile fill-finish and packaging services that help pharmaceutical innovators safely and efficiently bring complex injectable products to market while maintaining quality and patient safety.
Monoclonal antibodies, long-acting injectables, antibody-drug conjugates (ADCs), and targeted therapies now represent a significant portion of the development pipeline. These molecules often have challenging characteristics, including high viscosity, sensitivity to shear, and limited stability windows. “Simtra offers flexible manufacturing platforms capable of filling multiple container formats – including vials and prefilled syringes – across clinical and commercial scales,” says Greg Sacha, PhD, Global Senior Scientist, Simtra BioPharma Solutions. “Our technologies are designed to deliver precise dosing, minimize product loss, and support stringent particulate and sterility requirements.”
Like many CDMOs serving the injectable market, Simtra is planning and executing significant capacity expansions to support sustained growth in parenteral drug manufacturing through the end of the decade. These investments include additional high-speed isolator sterile filling lines, expanded visual inspection capabilities, and enhanced secondary packaging operations. The goal is to provide customers with end-to-end services – from clinical supply through commercial launch – while maintaining flexibility to accommodate evolving product requirements, says Sacha.
Strong partnerships are essential when addressing the technical challenges associated with advanced parenteral products. In one collaboration, a pharmaceutical partner faced issues related to syringe functionality and variability during administration. “By working closely across development, testing, and packaging teams, Simtra helped identify the root causes through performance testing and process optimization,” he says. “The result was a more robust PFS configuration that improved dose delivery consistency and improved the patient experience.”
Singota Solutions: Supporting the Evolving Complexity of the Parenteral Market
Singota Solutions provides integrated contract development and manufacturing services for sterile injectable drug products, with a focus on bridging early-phase development through clinical and commercial supply. Within the parenteral market, Singota addresses a persistent gap between formulation development, fill/finish readiness, and regulatory-compliant manufacturing, says Tim Wilson, Manager, Business Development & Marketing. “By combining formulation development, analytical support, aseptic processing, and cold-chain logistics under one operational framework, Singota reduces technology transfer friction and accelerates timelines for complex injectable programs,” he says. “This is particularly relevant for emerging modalities where traditional, linear development models introduce risk and delay.”
Today’s parenteral landscape is dominated by biologics, including monoclonal antibodies, peptides, and increasingly complex large molecules requiring precise handling and stability control. These products demand robust formulation strategies, low-shear processing, and stringent particulate and sterility assurance. Singota supports these needs through capabilities in preformulation, formulation optimization, aseptic fill/finish, and analytical characterization. In addition, Singota operates specialized environments for temperature-controlled storage and distribution, as well as transportation simulation studies to ensure product integrity across the supply chain – an increasingly critical requirement for regulatory submissions.
Cell and gene therapies (CGTs) and antibody-drug conjugates (ADCs) are materially reshaping the prefilled syringe (PFS) and broader parenteral market. These modalities introduce heightened sensitivity to shear stress, temperature excursions, and container-closure interactions. As a result, there is a growing need for customized fill strategies, low-volume precision dosing, and enhanced compatibility studies between drug products and delivery systems. For PFS in particular, challenges around viscosity, aggregation, and extractables/leachables are more pronounced.
“Singota’s approach emphasizes early integration of formulation and container considerations, ensuring that device compatibility and manufacturability are addressed in parallel rather than sequentially,” says Mr. Wilson.
To meet increasing demand, Singota continues to invest in expanding its sterile manufacturing footprint, capabilities, and supporting infrastructure. These expansions are designed to support commercial readiness and operations, enhance aseptic fill/finish capacity, increase flexibility for small-batch and personalized medicines, and strengthen cold-chain and GMP storage capabilities. The goal is to enable Singota to support a diverse pipeline, ranging from traditional biologics to next-generation therapies.
A representative partnership highlights this integrated model. A biotech client developing a temperature-sensitive biologic for clinical trials faced challenges related to formulation stability and shipping validation for regulatory submission. He explains that Singota collaborated closely with the client to optimize the formulation for improved stability under real-world conditions, while simultaneously executing transportation simulation studies to generate data supporting distribution robustness and product stability. The resulting dataset enabled a defensible regulatory package aligned with expectations from agencies such as FDA and EMA.
“By aligning development, manufacturing, and distribution considerations early, the program avoided delays and reduced downstream risk,” says Mr. Wilson.
Terumo: Integrated Development Derisks Global Launch of a PFS
Sustained growth in biologics, complex injectables and combination products is continuing to place pressure on parenteral filling, assembly, and packaging capacity, while also increasing the technical complexity of development and commercialization programs. In response, Terumo has further strengthened its integrated CDMO model to address these evolving requirements across the full lifecycle of parenteral drug products, from early development through to commercial supply.
“Rather than concentrating on individual outsourced steps, this model brings together formulation optimization or stabilizing, primary container selection and design, sterile fill and finish, device integration and final packaging within a single, coordinated technical and quality framework,” says Michele Guasti, Global Product Manager, Terumo Europe.
This integrated approach supports earlier identification and mitigation of risks related to drug-container and drug-device interactions, enables more efficient technology transfer between development and manufacturing stages, and facilitates smoother scale-up to commercial volumes. He says: “As regulatory expectations for combination products continue to increase, cross functional teams with expertise spanning drug product development, device engineering, process development and quality play a central role in ensuring alignment between technical design decisions and regulatory strategy, while also helping customers reduce supply chain complexity and timelines to market.”
A practical illustration of this approach was provided during the development and global launch of a biosimilar antibody delivered via a prefilled syringe (PFS) combined with both a safety device and an autoinjector for self administration. The pharmaceutical company faced multiple, interrelated challenges, including selection of an appropriate primary container, and ensuring reliable functional performance when the syringe was integrated with secondary delivery devices, Mr. Guasti explains. Terumo conducted comprehensive compatibility and performance assessments in parallel to evaluate the behaviors of the syringe when combined with commercially available safety devices and autoinjectors. These studies included analysis of critical functional parameters, such as break-loose and glide force, robustness during handling and transport, and consistency of dose delivery across defined storage conditions and throughout shelf life.
Device assembly processes were developed and validated under controlled conditions, with particular attention to process robustness, human factors considerations and the documentation requirements associated with regulated combination products. “By coordinating formulation optimization or stabilizing, container selection, device compatibility testing, fill-finish activities, and assembly within a single development program, potential technical and regulatory issues could be identified and addressed earlier than would typically be possible had a fragmented outsourcing model been selected,” he says. “This integrated development strategy helped to de-risk the pharmaceutical company’s program and supported a successful multi-region launch across Europe, the United States and Japan, supplying both hospital-based and home-use settings.”
References
- Prefilled Syringes Market to Reach US$193 Billion by 2033, Persistence Market Research Pvt Ltd., April 20, 2026, https://www.einnews.com/pr_news/906876742/prefilled-syringes-market-to-reach-us-19-3-billion-by-2033-expanding-at-9-8-cagr-persistence-market-research,
- Dual Chamber Prefilled Syringes Market Size and Forecast – 2026 to 2033, Coherent Market Insights, March 27, 2026, https://www.coherentmarketinsights.com/industry-reports/dual-chamber-prefilled-syringes-market.
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