Trending Towards Safety: Hazardous Medicine Management in the EU

Introduction

Oncology pharmacists and nurses face significant challenges today. Increased workloads and the harmful effects of cytotoxic medications have heightened the risks and stresses faced by these healthcare workers. In response, there’s a growing focus on improving safety and working conditions, with innovative safety protocols being implemented across Europe. Some changes stem from top-down legislation, while others arise from grassroots movements. This article examines the increasing challenges faced by oncology staff and delves into safety discussions within the industry. It explores recent advancements in HMP safety measures, with a focus on the implementation of Closed System Transfer Devices (CSTDs). Lastly, it highlights significant progress in adopting safer practices and CSTD implementation across Europe.

Growing Safety Concerns in Oncology

Several recent clinical studies have raised increasing concerns about the safety of oncology healthcare workers, leading to positive changes in protective legislation. In the EU, 12.7 million pharmacists, nurses, and related personnel involved in the medicine lifecycle potentially face exposure to Hazardous Medicinal Products (HMPs).1 

In 2022, the European Trade Union Institute (ETUI) updated its list of HMPs, highlighting the dangers of cytotoxics, mutagenic, and reprotoxic substances (CMR). Drawing on the NIOSH regulations from the United States—recognized as a leader in safety—the ETUI used these guidelines to formulate its own recommendations. This has significant implications for oncology staff who handle these medications. Starting April 5th 2024, all EU Member States must adopt the legal requirements and prevention measures of CMRD 2022 for HMPs with CMR potential. This mandates using closed systems such as closed system transfer devices for the safe manufacture and use of HMPs throughout their lifecycle.

A 2023 report by the European Commission investigates options for protecting workers from exposure to HMPs. The report emphasizes the importance of conducting a risk assessment and considering technical measures, including the use of closed system drug-transfer devices (CSTDs), to enhance safety.2 

Retention and Hiring Challenges in Oncology 

Retaining and hiring oncology staff has become a significant challenge across many European countries. Several factors may contribute to this issue: increased workloads, high levels of burnout and repetitive strain injuries (RSIs), and an increasing awareness of exposure risks, especially among younger healthcare workers. Oncology staff are susceptible to RSIs due to several factors: extended hours preparing and administering medications, lack of ergonomic equipment, and insufficient breaks.3

Recent studies highlighting the dangers of handling hazardous drugs have caused hesitation among potential future healthcare workers, discouraging them from entering the field of oncology due to inadequate safety measures. These contributing factors can create a vicious cycle, leading to higher turnover and increasing the workload on those who remain.4,5

A Growing Awareness Among Nurses

Retention and Hiring Challenges in Oncology

It’s not only regulatory bodies who are taking action; healthcare workers are also advocating for better and safer working conditions. Growing awareness of exposure risks is driving grassroots demand for better safety protocols, particularly the use of CSTDs.  

European Oncology Nursing Society (EONS) compiled anonymous online survey data on occupational safety, as reported by European cancer nurses. Research indicates that cancer care nurses are at high risk for exposure to hazardous drugs. The European Cancer Nursing Index (ECNI) 2022 survey revealed significant concerns about occupational safety, especially for pregnant or breastfeeding nurses. Key findings include a lack of specific guidelines (18.3%) and reports that 20% of nurses continue handling hazardous drugs during pregnancy and breastfeeding. Considering the well documented reproductive risks relating to occupational exposure to hazardous cancer drugs, this cannot be considered anything other than alarming and unacceptable.6 

This is likely why EONS has, for the first time, formally recognized the risks oncology nurses face when handling cytotoxic medications and has recommended the use of CSTDs. A safety webinar from 2020 tentatively recommends the use of Closed System Drug Transfer Devices (CSTDs).7 In contrast, four years later they clearly state “the need to be better protected from serious workplace related medical risks, and occupational exposure to hazardous cancer should be minimized at all costs”. They recommend specific actions to reduce the risk of occupational exposure, such as utilizing CSTDs and systematically conducting wipe tests on work surfaces. This shift in urgency and language demonstrates a heightened awareness of the growing movement towards CSTD adoption. EONS recognizes that, although it may incur additional costs, prioritizing the safety of their staff is paramount.8  

Leading the Way in Oncology

These advancements and increasing awareness of safety measures have sparked discussions within the industry. The United States mandates the nationwide use of CSTDs in the USP 800 guidelines, and Europe is following suit. The European landscape reveals varying levels of CSTD adoption, with countries like Belgium and Spain meeting ISOPP standard, while others lag behind with government regulation. In Germany and the Netherlands, guidelines exist from scientists or national associations but lack government support. These measures are increasingly recognized as crucial for protecting healthcare workers.  

CSTDs have been proven to reduce exposure to HMPs and should be used throughout the life cycle of HMPs. CSTDs prevent leakage and spillage, with the most effective designs featuring a closed back mechanical barrier so no vapor escapes from the syringe. The EAHP published a 2022 report based on a survey of chief pharmacists across Europe focusing on protecting workers from HMP exposure. The report indicates that the majority believe combining CSTDs with BSCs and isolators is the most effective way to protect workers from exposure to HMPs.1 Even in countries that do not have legislation mandating the use of CSTDs, the benefits are significant enough that many institutions are voluntarily adopting them.

EQUASHIELD closed back CSTD
EQUASHIELD Closed Back CSTD

Belgium Pioneers CSTDs

In 1998 a groundbreaking study by Paul Sessink came out about contamination and the exposure dangers they pose to oncology teams. This study marked the start of a dialogue regarding the risks associated with handling hazardous drugs, thanks to the efforts of Johan von Broucker in Belgium, who brought it to public awareness. As a prominent opinion leader, he passionately advocated for the implementation of CSTDs in hospitals. In 1998, Belgium became the second country, following Sweden, to adopt Closed System Transfer Devices (CSTDs). In just one year, the Belgian team astonishingly achieved a remarkable 40% market share.

Today, CSTDs are integrated into oncology units nationwide, serving both pharmacists and nurses in their vital roles. Although Belgium does not have specific regulations requiring the use of CSTD; its adoption has been driven by market demands and corporate influence. The implementation has been relatively straightforward due to lower bureaucratic hurdles. Thanks to enhanced safety measures, oncology teams are motivated, resulting in better staff retention and more successful hiring outcomes compared to other European countries. Belgium’s proactive implementation of CSTDs in healthcare settings highlights the crucial role of key opinion leaders and market demand in enhancing occupational safety.

Irish 2024 Joint Summit

Ireland began implementing CSTDs in oncology units starting in 2010. Over the last decade they have expanded from one hospital to an impressive 90% of hospitals. CSTDs are initially used during the compounding process by pharmacists, ensuring that by the time the medication reaches the nurses, it remains uncontaminated. This collaboration between pharmacy and nursing exemplifies how both fields work together to protect the entire healthcare team throughout the lifecycle of HMDs. However, significant improvements in safety measures are still needed; for instance, not all HMDs are administered using CSTDs.

A summit on preventing occupational exposure to hazardous medicinal products was held in Dublin in January 2024. Attendees spanned the entire spectrum of the Irish healthcare and social care community, including professionals, frontline staff, government agencies, regulators, trade unions, policymakers, academics, and occupational health. They all attended with the goal of updating regulations to protect healthcare workers from occupational exposure. Presentations by experts and active discussions highlighted the importance of safety measures for professionals in the Irish healthcare sector. 

Conclusion

There are numerous challenges faced by oncology healthcare teams, from increased workload and burnout to safety concerns. In recent years, there has been a growing movement towards enforcing stricter safety protocols through legislative changes. Change is not just driven from top down; both pharmacists and nurses are eager to adopt safer practices. The momentum towards safer practices in oncology is clear. Ultimately, this will lead to better health outcomes for oncology pharmacists and nurses.  

CAR-T Cell Therapy and Gene Therapy: A Revolution in Cancer Treatment 

The ongoing battle against cancer has seen a paradigm shift with the advent of CAR-T cell therapy, a revolutionary approach that utilizes the patient’s own immune system to fight cancer. This innovative treatment, coupled with gene therapy, is transforming the landscape of cancer care. 

Unveiling CAR-T Cell Therapy

Chimeric Antigen Receptor T-cell (CAR-T) technique was designed to augment the body’s natural defenses by equipping T cells, the soldiers of the immune system, with engineered receptors known as CARs. These receptors enable the T cells to recognize and attack specific cancer cells, thereby providing a targeted approach to cancer treatment. 

CAR-T cell therapy has proven to be a game-changer in treating certain types of blood cancers, such as B-cell acute lymphoblastic leukemia and diffuse large B-cell lymphoma, that had previously shown resistance to conventional treatments1

Manufacturing Process of CAR-T Cell Therapy 

The production of CAR-T cells involves several intricate steps, each requiring meticulous precision to ensure the utmost safety and efficacy of the final product. The process commences with the collection of T cells from the patient’s blood through a procedure called leukapheresis, where a specialized machine separates the desired cells.  

These collected cells, which play a crucial role in the immune system, are then transported to a laboratory, where they undergo a series of genetic modifications to express Chimeric Antigen Receptors (CARs) on their surface. This genetic engineering process involves precisely inserting the CAR gene into the T cells, allowing them to recognize and target specific cancer cells. Subsequently, the modified cells are cultured and expanded in the lab, undergoing rigorous quality control checks to ensure their purity, potency, and safety.  

Once these quality standards are met, the final product, consisting of the genetically modified CAR-T cells, is prepared for infusion back into the patient, where they can potentially combat the cancer cells with enhanced specificity and effectiveness. 

Contamination Risks in Cell Therapy Manufacturing: Safeguarding Patients and Preserving Quality 

Contamination can occur at various stages of cell therapy manufacturing, such as during genetic modification, cell expansion, or product formulation. Even a small presence of external contaminants, such as microorganisms or particles, can undermine the therapeutic value of the treatment and pose significant risks to patients. 

Complications arising from contamination may evade standard quality control measures, leading to the release of a contaminated batch. If administered to patients, this could result in adverse effects, reduced treatment effectiveness, or even serious harm. Moreover, such incidents could have far-reaching consequences for the manufacturer, including financial burdens, legal challenges, damage to reputation, and ethical concerns. 

Role of Closed System Devices 

CSTDs play an important role in the manufacturing and quality control processes of CAR-T cell therapy, improving sterility, decreasing batch failure rates and improving overall process efficiency. These devices prevent the introduction of contaminants into the system and restrict the escape of hazardous drugs or vapors, ensuring a safe and controlled working environment2

Throughout the therapy manufacturing process, from transportation to quality control, air removal, and sampling, Closed System Transfer Devices (CSTDs) play a role in reducing contamination risks. Let’s take a closer look at how these devices effectively safeguard the integrity of the therapy. CSTDs offer a controlled environment for testing and analysis. By maintaining a closed system, these devices minimize the chances of external contaminants infiltrating the samples, thereby ensuring accurate and reliable results. This is particularly crucial as even the slightest contamination can skew test outcomes and lead to erroneous conclusions. 

By incorporating Closed System Transfer Devices (CSTDs), CAR-T companies can significantly reduce the potential for contamination throughout the manufacturing process of CAR-T cell therapy. These devices serve as a reliable defense mechanism, contributing to the safety, effectiveness, and integrity of the end product. 

Leveraging AI to Streamline Pharmacy Compounding: Enhancing Safety and Efficiency in Drug Preparation 

Current State of Pharmacy Compounding Automation

In the rapidly evolving landscape of healthcare, the realm of pharmacy is undergoing a transformative shift with the advent of compounding automation. This paradigm shift is revolutionizing the way pharmacies function in the United States, leading to enhanced efficiency, improved accuracy, and increased safety. Pharmacy compounding, once a labor-intensive process requiring meticulous manual effort, is now becoming an automated operation, harnessing cutting-edge technology to streamline workflows and mitigate potential errors. This article delves into the current state of pharmacy compounding automation in the U.S., exploring its benefits, challenges, and the potential it holds for the future of pharmaceutical care. From reducing the risk of cross-contamination to ensuring precise dosage and formulation, automation is poised to redefine the standards of pharmacy compounding, making it a compelling topic of discussion in contemporary pharmaceutical discourse.

What are the main challenges?

Pharmacy compounding automation, while offering numerous benefits, does present its own set of challenges. The initial cost of adopting automated systems can be substantial and may deter some pharmacies, particularly smaller operations. Additionally, implementing these systems requires a significant amount of training and adaptation for the staff, potentially disrupting workflow during the transition period. Interoperability issues, where different systems fail to communicate effectively with each other, can also pose a challenge. However, the market is evolving rapidly to meet these challenges head-on. Numerous companies are developing more user-friendly interfaces, comprehensive training programs, and better integration capabilities to ensure smooth operation. Meanwhile, the long-term savings in terms of time, reduced wastage, and improved accuracy often outweigh the initial investment, making automation an increasingly viable option for pharmacies of all sizes.

Pharmacies play a critical role in providing safe and effective medications to patients. However, a study suggests that approximately 9 percent, or nearly 1 in 10, of IV preparations may contain errors, with the most common problem being incorrect ingredients and/or volumes. These errors have the potential to cause harm or even result in patient fatalities1. One area where advancements in technology can significantly improve safety and efficiency is the pharmacy compounding process. By leveraging artificial intelligence (AI), pharmacies can streamline their operations while minimizing the risk of errors. This blog post will discuss how AI can help reduce human error and enhance accuracy and consistency in pharmacy compounding, as well as the essential role of Closed System Transfer Devices (CSTDs) in maintaining a contamination-free environment. 

Harnessing AI to Reduce Human Error in Pharmacy Compounding

The integration of AI technology into pharmacy compounding processes offers several benefits, including:

  1. Precision and Consistency: AI algorithms can precisely measure and dispense drug components, ensuring consistency and accuracy in the final product. This reduces the likelihood of dosage errors reaching the patient2.
  2. Real-time Monitoring: AI-driven systems can continuously monitor the compounding process, detecting and correcting errors before they become a threat to patient safety.
  3. Data Analysis and Learning: AI can analyze historical data to identify trends and patterns, enabling continuous improvement in the compounding process and reducing the risk of future errors.

While AI is already making a significant impact, its potential in the field of pharmacy is far from fully realized. Future developments could see AI being used to automate more complex tasks, further reducing the burden on human pharmacists and minimizing the risk of errors. For instance, we could see AI systems that can interpret complex prescription orders or even dispense medications autonomously.

By adopting AI-driven automation, pharmacies can significantly reduce the occurrence of human errors, leading to safer and more efficient compounding processes.

The Role of Closed System Transfer Devices (CSTDs) in Ensuring Safety and Sterility

While AI can greatly improve the accuracy and consistency of pharmacy compounding, maintaining a sterile and contamination-free environment is equally important. Closed System Transfer Devices (CSTDs) serve as an additional layer of protection against contamination, particularly when handling hazardous drugs.

CSTDs are specially designed drug-transfer devices that create a physical barrier between the drug, the environment, and healthcare workers. They are used to prevent the escape of hazardous drug vapors, aerosols, and droplets during compounding and administration3. By incorporating CSTDs into the pharmacy compounding process, pharmacies can:

  1. Minimize Exposure Risks: CSTDs reduce the risk of healthcare workers and patients being exposed to hazardous drug particles, ensuring a safer working environment.
  2. Maintain Sterility: CSTDs help maintain the sterility of compounded medications by preventing contaminants from entering the drug preparation process.
  3. Complement AI-driven Systems: The integration of CSTDs with AI-driven automation systems can provide comprehensive protection against both dosage errors and contamination risks.

Embracing AI and CSTDs for a Safer Future in Pharmacy Compounding 

By integrating artificial intelligence technology and Closed System Transfer Devices (CSTDs) into their compounding processes with products like the EQUASHIELD Pro, pharmacies can significantly enhance safety, efficiency, and accuracy. This powerful combination of cutting-edge technology and robust protective measures can help minimize the risk of medication errors, ensuring optimal patient care and public health outcomes.