by Paul Crozier | Jun 22, | HiTech Health Latest News
Research Ireland has launched the RINN national research network, a landmark €460 million investment aimed at strengthening Ireland’s research ecosystem and accelerating innovation across strategic sectors including Advanced Therapies, AI, Quantum Technologies, Energy, Semiconductors, Pharma & Biopharma, and Medical Devices.
A key pillar is RINN Advanced Therapies, a national integrated research centre focused on developing, manufacturing, and clinically translating personalised advanced cellular immune therapeutics (ACITs). These next-generation cell and immune-based medicines are expected to play a growing role in treating cancer, autoimmune disease, and other complex conditions. HiTech Health welcomes this significant announcement and looks forward to seeing the continued growth of the ecosystem.
A National Ecosystem For Cell Therapy Innovation
RINN Advanced Therapies brings together a broad consortium of Irish universities, hospitals, research institutes, and national bodies to create an all-island innovation ecosystem. Partners include Trinity College Dublin, University of Galway, UCC, Maynooth University, TU Dublin, RCSI, along with translational partners such as NIBRT and key health system stakeholders.
The centre aims to bridge gaps across the advanced therapies pipeline by connecting discovery, biomanufacturing, regulatory science, and clinical delivery into a coordinated framework.
From Discovery to Patient Impact
The programme focuses on accelerating translation of cell and immune-based treatments into clinical use by integrating:
- Advanced cell therapy design and engineering
- Biomanufacturing and scale-up of personalised therapies
- Clinical translation and patient-centred delivery models
- Regulatory and quality frameworks for novel biologics
This approach aims to enable more personalised therapies with improved outcomes, particularly in oncology and immune-mediated diseases.
Positioning Ireland globally
Advanced therapies are one of the fastest-growing areas in biopharma, driven by progress in cell and gene therapy, immunotherapy, and precision medicine. RINN Advanced Therapies strengthens Ireland’s position by linking research excellence with industrial capability. By aligning academia, healthcare, and biomanufacturing, the network will support a sustainable innovation pipeline that advances both scientific leadership and patient impact.
Looking ahead
Over the coming years, RINN Advanced Therapies will act as a national platform for collaboration, training, and innovation, supporting the next generation of researchers and clinicians while accelerating delivery of transformative therapies. As part of the wider RINN network, it marks a significant step toward a more coordinated, impact-driven research system focused on translating discovery into real health outcomes.
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by Paul Crozier | May 25, | HiTech Health Latest News
Artificial Intelligence (AI) is rapidly becoming an important tool across the pharmaceutical and biotechnology sectors, with applications ranging from process monitoring and predictive analytics to deviation detection and classification. As AI adoption accelerates by life sciences companies, regulators are increasingly focused on ensuring AI technologies are implemented in a controlled, effective, and GMP-compliant manner.
The European Commission has recently issued a draft version of EU GMP Annex 22, a new guideline specifically addressing the use of AI in GMP-regulated manufacturing environments. The proposed annex is intended to complement existing requirements under Annex 11 for computerised systems and introduces a risk-based framework for AI deployment in pharmaceutical manufacturing.
The draft guidance applies to AI and machine learning (AI/ML) systems used in critical GMP applications that may impact patient safety, product quality, or data integrity. The current draft guideline focuses on ‘static’ AI models; models that do not adapt their performance during use by incorporating new data. The draft Annex 22 states that ‘dynamic’ models that continuously learn and adapt during use are outside its scope and should not be used in critical GMP applications.
Several key themes emerge throughout Annex 22:
- Clearly defining the intended use of AI models
- Robust validation and acceptance criteria
- Independence and quality of test datasets
- Explainability and transparency of AI outputs
- Human oversight and governance
- Ongoing monitoring and lifecycle management
The guidance also highlights the importance of cross-functional collaboration between quality, manufacturing, IT, process SMEs, and data scientists throughout the AI lifecycle.
For companies operating in the cell and gene therapy sector, these developments are particularly significant. Advanced therapy manufacturing generates large and complex datasets, making AI an increasingly attractive tool for process optimisation, analytics, and operational efficiency. However, the regulatory expectations surrounding validation, data governance, and explainability will require careful consideration as AI adoption expands.
While Annex 22 remains in draft form, it provides a strong indication of the future regulatory direction for AI within GMP manufacturing environments. Organisations that begin establishing appropriate governance frameworks, validation strategies, and quality oversight processes today will be better positioned for future compliance and successful implementation of AI-enabled technologies.
HiTech Health is a leading provider of QP services in the EU and the UK. Our QP team have extensive knowledge of pharmaceuticals, biologics and Advanced Therapeutic Medicinal Products (ATMPs) including cell and gene therapies. We can help with all quality and compliance activities from your overall quality management system through quality audits and QMS remediation support.
Contact our team today and schedule a call to learn more about our services for the EU and UK markets.
References:
https://health.ec.europa.eu/document/download/5f38a92d-bb8e-4264-8898-ea076e926db6_en?filename=mp_vol4_chap4_annex22_consultation_guideline_en.pdf
by Paul Crozier | Apr 22, | HiTech Health Latest News
The success of a cell therapy extends well beyond development and GMP manufacturing. It also depends on the ability to deliver the product safely, reliably, and under tightly controlled conditions. Unlike traditional pharmaceuticals, cell therapies are highly sensitive, patient-specific, and of very high value. As a result, cold chain logistics is not just a supporting function, it is fundamental to maintaining cell viability and ensuring successful patient outcomes.
In this article, HiTech Health explores the key risks associated with cell therapy logistics and outlines considerations for managing these risks from manufacturing facility to patient.
The Unique Challenge of Cell Therapy Logistics
Cell therapies present a level of logistical complexity far beyond conventional medicines. These products are typically cryopreserved at ultra-low temperatures (≤ -150°C), often time-sensitive, and, in many cases, patient-specific, requiring full traceability at every stage. Cell therapies are also frequently transported across international borders, adding further regulatory, customs and operational complexity. Any deviation in temperature, delays in transit, or breakdown in chain of identity can compromise product integrity and ultimately impact patient outcomes.
Managing Risk in the Cold Chain
One of the most critical risks with shipping cell therapies is temperature excursion. Maintaining ultra-low temperatures throughout transit is essential, as even brief deviations can affect cell viability and potency. This risk is often heightened by delays at customs, the use of inexperienced transportation providers, or inadequately qualified shipping lanes or equipment. Mitigation strategies include the use of validated cryoshippers with proven hold times, pre-qualified shipping lanes, and continuous temperature monitoring with real-time visibility.
Equally important is maintaining a robust chain of identity and custody, particularly for autologous therapies. Any mismatch between patient and product is unacceptable. This risk can be effectively managed through digital tracking systems, secure labelling solutions such as barcoding or RFID, and comprehensive documentation across the entire supply chain.
Operational variability also introduces risk. Cell therapies typically move through multiple stakeholders, including manufacturing sites, storage depots, and clinical sites. Each handoff creates potential for error. Standardised handling procedures, well-trained logistics partners, and clear communication pathways are essential to ensure consistency and control. Teams should also consider implementing documentation checklists to prevent delays in exportation and importation processes.
Regulatory compliance adds another layer of complexity. International shipments must navigate differing import/export and customs requirements. Early planning, accurate documentation, and collaboration with experienced partners are key to avoiding delays and ensuring compliance, so that patients can receive their treatments in a timely manner. For therapies supplied in the EU and UK markets, having a Manufacturer’s/Importer’s Authorisation (MIA) holder and an experienced Qualified Person (QP) team is critical to reviewing the cold chain from a quality and compliance perspective.
Building a Resilient Cold Chain Strategy
A robust cold chain strategy requires a proactive, end-to-end approach. This includes qualifying shipping routes under real-world conditions, conducting thorough risk assessments, and implementing contingency plans for potential disruptions such as delays or equipment failures.
Efficient cold chain logistics is not simply about transporting a cell therapy, it is about protecting the integrity of a potentially life-saving treatment at every stage of its journey. By understanding the unique risks involved and implementing effective mitigation strategies, developers can improve reliability, reduce failure rates, and ensure that high quality therapies reach patients on time for their treatment.
HiTech Health has extensive experience supporting developers in implementing robust supply chains for cell therapies, with an in-house team of GDP-trained supply chain personnel. The company also holds MIAs in both the EU and UK to support clinical trials and commercial launches.
Contact our team today and schedule a call to learn more about how we can support your cell therapy logistics requirements.
by Paul Crozier | Jan 22, | HiTech Health Latest News
By 2025, the global advanced therapy medicinal products (ATMP) sector, encompassing cell therapies, gene therapies, and genetically modified cell-based medicines, has progressed from early scientific success to clinical and commercial reality. Following a decade of rapid innovation, the ATMP sector is now characterised by a growing number of approved therapies, expanding therapeutic indications, and increasing global competition. The patient benefits of ATMPs are undeniable with a year-on-year growth in the number of patients who are benefitting from advanced therapies globally. Patients who previously had no treatment options are now being offered renewed hope through new innovative ATMPs. At the same time, the sector has faced commercial hurdles in 2025 including manufacturing and supply chain challenges, pricing and reimbursement scrutiny, and a renewed emphasis on demonstrating sustainable clinical and economic value at scale.
In 2025, 20 of the 30 largest biopharma companies by market cap are now investing in the development and commercialisation of ATMPs. Research conducted by Citeline reported ATMP sector funding of $11.1 Billion in 2025. The ATMP sector comprised approximately 18% of the value of all biotech venture financing in 2025, an increase in the reported 15% value report in 2024.
The Race to the Clinic: Asia Pacific Region Surpasses North America
In the past year, the Asia-Pacific region overtook North America for the first time in the number of ATMP clinical trials, signalling a significant shift in the global advanced therapy landscape. There were an estimated 916 clinical trials ongoing in North America in 2025, with 890 of these in the United States, while the Asia-Pacific region conducted approximately 990 trials, 716 of them in China. This growth in the Asia-Pacific region reflects the region’s growing focus on accelerating the translation of novel therapies from lab to clinic, supported by evolving government policies that are driving faster initiation of in-human studies. The trend highlights a broader intensifying competition to bring breakthrough ATMPs to patients worldwide.
Source data: www.alliancerm.org
FDA and EMA Approvals in 2025
Over the past year, both the U.S. Food and Drug Administration (FDA) and the European Medicines Agency (EMA) granted several significant approvals for ATMPs. In total, the FDA approved six ATMPs, while the EMA approved four. A major milestone in 2025 was the approval of Fondazione Telethon’s etuvetidigene autotemcel (Waskyra) for Wiskott–Aldrich syndrome (WAS) by both the FDA and EMA. Waskyra is the first gene therapy approved for this rare disease, and Fondazione Telethon became the first non-profit organisation to achieve gene therapy approval. The tables below provide details on these newly authorised ATMPs.
ATMPs that were approved by the FDA in 2025
ATMPs that were approved by the EMA in 2025
Mesoblast’s Ryoncil became commercially available in the US in March 2025
At the end of 2024, Melbourne-based biotech Mesoblast secured FDA approval for Ryoncil, the first mesenchymal stromal cell (MSC) therapy to be approved by the FDA for any indication. Ryoncil is now an approved treatment for children aged two months and older, including adolescents, with steroid-refractory acute graft-versus-host disease (SRaGvHD), a life-threatening condition associated with high mortality. The therapy became commercially available in the US on 28th March 2025. Sales of Ryoncil reached US$13.2 million in the second quarter of 2025, increased to US$21.9 million in the third quarter (a 66% quarter-on-quarter increase), and rose further to US$35.1 million in the fourth quarter (approximately 60% growth over the previous quarter). This accelerating commercial performance reflects the growing number of patients benefiting from this MSC-based therapy.
Significant Growth in Outpatient CAR-T Treatment
Among the positive developments has been the continued expansion of ATMP treatment access in outpatient settings. Outpatient CAR-T treatment has experienced significant growth in recent years, reflecting increasing understanding and clinical education on CAR-T administration, increased safety profiles, improved toxicity management and adapting healthcare infrastructure. Continuous improvements by developers and healthcare teams have made it possible to safely transition appropriate patients from inpatient to outpatient settings. Standardised monitoring protocols, remote symptom tracking, and rapid-response care pathways have increased clinician confidence in outpatient delivery while reducing hospital length of stay and overall treatment costs. This trend has enhanced patient convenience and quality of life, eased capacity constraints in hospitals, and positioned outpatient CAR-T therapy as an increasingly viable treatment option for some patients.
Source data: Guidehouse Analysis of McKesson Compile Patient Ready Data (US)
European Commission Proposes Biotech Act to Strengthen EU Health Biotechnology
The European Commission published its proposal for a European Biotech Act in December 2025, as outlined in its 2024–2029 Political Guidelines. The Act seeks to create a supportive framework to accelerate the development of biotechnology products from research to market, while maintaining high safety and ethical standards. It represents a potential important milestone for ATMPs in Europe by seeking to better align regulation, investment, and patient access.
The Act combines regulatory improvements, targeted incentives, and funding measures to boost clinical trial activity, support ATMP centres of excellence, and enhance intellectual property protection, including a 12-month extension of supplementary protection certificates. It also aims to address Europe’s long-standing challenges in translating scientific excellence into commercial success, particularly in health biotechnology, where complex legislation and funding gaps had led to many developers focusing on other markets such as North America
Here are three main takeaways from the recently adopted Act:
- The Biotech Act seeks to address structural barriers limiting Europe’s ability to commercialise biotech innovation, including funding constraints and a declining share of global clinical trials.
- It introduces coordinated measures across seven core pillars, including strategic project designations, fast-track permitting, additional funding, and extended SPCs for qualifying biotech and ATMP products.
- The Act streamlines existing EU regulatory frameworks (including CTR, ATMP, and SoHO) through accelerated timelines, risk-based requirements, and regulatory sandboxes, aiming to reduce time to market while preserving high safety standards.
In parallel with the Biotech Act proposal, the Commission and the European Investment Bank Group announced BioTechEU, an initiative to mobilise €10 billion in public-private investment for the biotech and life sciences sectors in the next year.
ATMP Companies are Adapting Fast
To address the challenges within the ATMP sector, companies are increasingly required to adapt quickly and operate with greater agility in a rapidly evolving landscape. A growing number of developers are focusing on delivering best-in-class advanced therapies for indications with high unmet need and significant patient populations, including Parkinson’s disease, Multiple myeloma, Huntington’s disease, and others. This shift reflects both scientific progress and a broader commitment to addressing diseases where conventional treatment options remain limited.
In the early days of the ATMP sector, access to treatment was constrained by significant operational and infrastructure barriers, including a limited number of specialised treatment centres, Today, the sector is actively working to dismantle these barriers and expand patient access. For example, Carvykti, a personalised CAR-T cell therapy for adults with relapsed or refractory multiple myeloma, is now administered in an outpatient setting approximately 50% of the time. Developers are collaborating closely with regulatory agencies to enhance safety profiles and refine clinical trial designs in response to regulatory feedback, supporting more efficient and patient-centric development pathways. Heading into 2026, a significant number of regulatory decisions and submissions are planned for first half of the year and global clinical trials are gaining momentum.
HiTech Health is a leading European CDMO and service provider for ATMPs. We deliver end-to-end solutions from preclinical development through to GMP manufacturing and global patient supply. If you require support with the development and manufacturing of an ATMP, then contact us today.
Author: Paul Crozier – January 2026
References:
www.alliancerm.org/resources/?_resource_type=cell-gene-therapy-sector-data
https://alliancerm.org/wp-content/uploads/2026/01/SOTI-2026-Industry-Update.pdf
www.citeline.com/en/resources/q3-2025-gene-cell-and-rna-therapy-report
https://www.eesc.europa.eu/en/our-work/opinions-information-reports/opinions/biotech-act
https://www.businessnewsaustralia.com/articles/mesoblast-shares-hit-five-year-high-as-ryoncil-quarterly-sales-surge-60-per-cent-to-52m.html
https://ashpublications.org/blood/article-abstract/146/16/1897/546856/Remestemcel-L-rknd-Ryoncil-the-first-approved?redirectedFrom=fulltext
by Paul Crozier | Jan 14, | HiTech Health Latest News
In the European Union (EU), the release of medicinal products for commercial supply is a highly regulated activity. Central to this release process is the Qualified Person (QP), a legally defined role under EU pharmaceutical legislation. The QP is responsible for ensuring that every batch supplied to the market meets the required standards of quality, safety, and compliance.
What Is a Qualified Person?
A Qualified Person is an individual named on a Manufacturer’s / Importer’s Authorisation (MIA) who meets specific education, training, and experience requirements to fulfil the role. The QP acts as the final accountable authority for batch certification prior to commercial distribution within the EU.
Key Responsibilities in Commercial Batch Release
Prior to certifying batches for market supply, the QP has to ensure:
- The medicinal product has been manufactured and tested in accordance with EU GMP and the approved Marketing Authorisation (MA).
- All manufacturing, testing, and packaging steps have been completed and documented in line with GMP requirements.
- Any deviations, changes, or out-of-specification results have been appropriately investigated and resolved.
- For imported products, manufacturing and quality controls conducted outside the EU are equivalent to EU GMP requirements.
Why the QP Role Matters?
The QP function is a critical component of the EU pharmaceutical regulatory system. It provides regulators and patients with assurance that medicinal products released to the market consistently meet EU standards, regardless of where they are manufactured. The role of the QP carries legal responsibility, with individual accountability to EU competent authorities for each certified batch. This responsibility underpins the assurance that product quality and patient safety consistently meet the highest regulatory standards.
For companies supplying medicinal products in the EU, access to an experienced QP team will help ensure timely and uninterrupted commercial supply. HiTech Health is a leading provider of QP services in the EU and also the UK. Our QP team have extensive knowledge of pharmaceuticals, biologics and Advanced Therapeutic Medicinal Products (ATMPs) including cell and gene therapies. We can help with all quality and compliance activities from your overall quality management system through quality audits and QMS remediation support.
Contact our team today and schedule a call to learn more about our QP services for the EU and UK markets.
by jgao | Sep 25, | HiTech Health Latest News
UK researchers said on Wednesday they have slowed the progression of the fatal neural condition Huntington’s disease for the first time with a groundbreaking new gene therapy.
Huntington’s disease causes nerve cells in the brain to decay over time. The disease affects a person’s movements, thinking ability and mental health. Huntington’s disease is rare and it’s often passed down through a changed gene from a parent. Medicines are presently available to help manage the symptoms of Huntington’s disease. However, these current medicines can’t prevent the physical, mental and behavioural decline caused by the disease.
The new study tested a new gene therapy, AMT-130, which is delivered through an injection directly into the brain. Researchers said that AMT-130 works by permanently introducing new functional DNA into a patient’s cells. Some of the patients who took part in early-stage clinical trials at University College London (UCL) saw the rate at which their condition developed reduced by 75 per cent after three years, according to uniQure, a gene therapy company based in the Netherlands and the United States. The new treatment is a type of gene therapy given during 12 to 18 hours of delicate brain surgery.
Read more here: https://www.bbc.com/news/articles/cevz13xkxpro
