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Press Clipping / Jul 19, 2023

Net-Zero Pledge: CDMOs Go Greener

Contract Pharma, 19 July 2023

In the year 2021, when COP26 was held in Glasgow, Sterling Pharma Solutions came out announcing an ambitious target: to reduce the CDMO’s overall emissions by 50% by 2025 and by doing so, joining the international community’s fight against climate change.

The CDMO Recipharm expanded its pressurized metered dose inhalers (pMDI) product development the following year to accommodate the switch to new propellants, which have 90% to 99.9% lower global warming potential than HFA134a.

In the same year, WuXi STA won top scores from EcoVadis, a provider of business sustainability ratings, for their API and formulations factories located in China.

Again, in January, Samsung Biologics was awarded the 2022 Sustainable Markets Initiative’s Terra Carta Seal in recognition of its commitment to achieving net zero greenhouse gas emissions across its direct operations and supply chain by 2050 or earlier.

Similarly, Cytiva says its goal is to eliminate polystyrene from the company’s packaging materials and supply chain by 2025.

These are just a few examples of a growing trend.

A number of CDMOs are accelerating their environmental drive setting themselves far more ambitious targets than these as sustainability goals are now becoming one of the most urgent business strategies facing pharma companies.

Presently, analysts say that there is a move away from sustainability being seen as something that is nice to have, to something more fundamentally important to businesses.

"Sustainability commitments are no longer just desirable," says Jon Peers, director of sustainability at Hovione. "They are becoming mandatory, both directly by our regulatory authorities and indirectly by the regulatory and financial requirements faced by our customers."

Hovione, a leader in spray drying and particle engineering, became a Certified B Corp in 2017 integrating an innovative community of companies that use the power of business to solve social and environmental problems.

Pharma’s outsized impact

Medicine making leaves an environmental impact which is quite massive. Estimates show that the pharmaceutical sector is accountable for as much as 4.4% of worldwide emissions—and if no action is taken—its carbon dioxide, a greenhouse gas (GHG), emissions are predicted to triple by 2050.

Not only manufacturing but the distributing and transporting of medicines from the factory to the patient also carries a substantial environmental footprint.

According to the Sustainable Markets Initiative’s (SMI) “Decarbonizing Healthcare Supply Chains” whitepaper, the biopharma industry is responsible for 4–5% of global GHG emissions, with most of its carbon footprint coming from supply chain, manufacturing, retail, and logistics.

Having felt the heat, many leading pharma companies are already ahead of the curve on the path to net-zero carbon emissions. They have made carbon neutrality and net-zero pledges, some for as early as the next decade.

Sustainability metrics: High on the agenda

CDMOs demonstrate a strong determination to reduce their carbon emissions as environmental performance is being added to the list of demands by their clientele.

Industry reports show that full waste recycling, green power percentage and green chemistries currently play a crucial role during negotiations between pharmaceutical companies and the CDMOs.

These “sustainability metrics” are becoming increasingly important even as technology, track record, capacity, and cost are still the most important criteria for selecting CMOs/CDMOs.

"Recognizing our commitment and progress made towards our sustainability targets, clients will seek out not only providers of CDMO services but also those companies with the competence to execute these services in harmony with the client’s respective sustainability goals," says Paul Zuechner, director, sustainability and reliability engineering, pharma services, Thermo Fisher Scientific.

Thermo Fisher, which offers end-to-end solutions to small molecules as well as biologics, announced an acceleration of the target to reduce scope 1 and 2 GHG emissions to more than 50% by 2030.

Zuechner maintains that the increasing focus on sustainability, resource and decarbonization quantifications is now elevating sustainability towards an equal project deliverable on par with cost, quality, and timelines.

The sustainability initiatives by CDMOs are not only driven by customer preference but also by regulatory requirements, according to Peers of Hovione. Regulated and standardized reporting is there. The European Corporate Sustainability Reporting Directive (CSRD) together with the European Sustainability Reporting Standards (ESRS) is significantly raising the required levels of compliance.

On top of this, businesses must meet their stakeholder’s requirements to provide material information that stands up to scrutiny.

Headquartered in Loures-Portugal, Hovione believes that it is simply not possible to meet the challenging goals that have been set by the companies themselves on sustainability without further innovation, particularly through process intensification and the greening of pharmaceutical intermediate and API manufacturing.

Safety via process efficiency

Without question, manufacturers are aggressively pursuing various strategies to enhance processes as it becomes a business imperative for the service providers.

"Olon tries to optimize plants' performances, in order to reduce the amount of energy, materials and natural resources they need,'' says Giorgio Bertolini, senior vice president of R&D, Olon Group, a global leader in the development and production of APIs, headquartered in Milan, Italy.

Olon is working on cutting-edge R&D processes applied both to chemistry, in terms of flow chemistry, photochemistry, and electrochemistry, and to biotechnologies. Investing in and developing technological advances allows the organization to combine well-established practices with new ones, to guarantee efficient and successful manufacturing processes, at the same time ensuring safe, fast and cost-effective commercial processes.

"We consider climate protection and the related reduction of GHG emissions to be a top priority," emphasizes Bertolini. To increase efficiency and reduce the energy required for production, especially in the functioning of reactors, Olon is implementing several continuous manufacturing processes, investigating both the flow chemistry approach and the continuous stirred tank reactors (CSTR)

These approaches entail leaving no batch reactors with loading and unloading phases but keeping constantly active production units—either microreactors or small classical reactors. The outcome is that, at the same levels of production, continuous manufacturing processes can reduce the footprint of the manufacturing process in comparison with standard methods.

This innovative production technique, he explains, enables a double positive impact in terms of sustainability. Indeed, it allows for the use of smaller amounts of material for the unit time, therefore resulting in increased local temperature control and in the possibility to avoid extreme temperatures, making the manufacturing process less energy intensive. It also provides greater safety for operators.

The industry is now facing a change of paradigm, avers Bertolini, in which there is a continuous exchange of knowledge and information between the chemical and engineering sectors, which eventually results in the creation of new specific know-how and business synergies.

Olon started constructing a new facility at its Rodano site (Milan, Italy) dedicated to ultra-potent compounds, used for antibody-drug conjugates (ADCs).

Circular business models that combine a responsible use of natural resources and raw materials with a responsible waste management approach are what Olon strives to promote, according to Bertolini.

Greening the supply chain

To reduce effluents and design safer alternatives to hazardous processes organizations extensively explore the use of safer and more sustainable chemicals.

This green chemistry approach can minimize the risk of impact on the environment to a great extent.

Olon, for instance, is focusing on green chemistry projects for the replacement of chlorinated solvents and the reduction of critical substances which could be particularly toxic, especially in new manufacturing processes.

Not only in manufacturing, quite a few companies are investing in greener biofuels (rather than diesel) for vehicles. As mentioned, distributing and transporting medicines from the factory to the patient also leaves a large carbon footprint. Temperature-sensitive products are loaded onto refrigerated vehicles to maintain cold-chain which require a considerable amount of energy to power.

Environmental credentials are now integral to all supply chain decisions. There is almost a universal consensus on this approach, shows the CPHI sustainability sentiment index.

In data released ahead of CPHI Frankfurt 2022, 95% of industry executives suggest it is either “important” or “extremely important” (52%) to have visibility on supply chain partners.

Scope 3 emissions: Key challenge

In comparison to the scope 3 tally that falls not within the organization's boundary, scopes 1 and 2 emissions are relatively minor. However, within these scopes, electrical energy consumption in manufacturing and the fugitive emissions from hydrofluorocarbons (HFC) released during pMDIs product lab testing are the highest.

pMDIs and anesthetic gases can be particularly serious for global warming. The UK and several countries in the EU block including Belgium, and the Netherlands are now promoting dry powder inhalers in prescription guidelines. Meanwhile, the common general anesthetic desflurane is being replaced by lower-carbon alternatives in countries like Sweden.

Scope 3 emissions, however, make up the majority of the pharma sector’s carbon footprint. Even though many CDMOs have set ambitious targets like striving for carbon neutrality across the entire value chain already by 2030, many are still simply focusing on scope 1 and 2 emissions.

Observers say that this is largely because the need for sustainability in the pharmaceutical industry has become more apparent only in recent years.

Another concern is the cost factor.

According to Peers of Hovione, decarbonization costs in particular can be very expensive and require strategic planning and commitment from senior management to meet associated capital and operational costs.

The sustainability challenge, he says, needs to be considered throughout the drug development life cycle, starting from simple assessments against sustainability principles and metrics early on and growing in detail and robustness as the drug progresses through the cycle.

Shift in focus

Experts, however, see a shift across the industry. Discussions about sustainability are taking place at the highest levels. An increasing number of pharmaceutical companies are prioritizing it when discussing projects with their CDMO partners.

"Be it the fulfillment of new technical capabilities, increased production capacities, advancing regulatory compliance and now sustainability target introductions—it’s natural for us to solve for and achieve our customers’ product development, manufacturing, and corporate goals in partnership,” says Zuechner of Waltham, Massachusetts-headquartered Thermo Fisher.

It will be essential for drug makers and their CDMO partners to work together on questions of sustainability, and to be ready with a sustainability agenda before starting to work on the project, in the coming years.

It is important for CDMOs, says Peers, that their clients and suppliers share the same vision of a more sustainable industry as collaboration across the value chain is key to leveraging knowledge and driving change.

 

Read the article at contractpharma.com

 

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The company is building out more than 200,000 square feet of space in New Jersey. In April, Contract Pharma had the opportunity to tour Hovione’s expanded manufacturing facility in East Windsor, NJ. The company is planning a formal ribbon-cutting this fall; before that, we got an inside look at some new features. Having established United States operations in 2002, Hovione now has more than 200,000 square feet of space in New Jersey. This will be developed into a large, integrated campus in the next five to ten years. Overall, the company’s recent NJ expansion, which began in 2025, has tripled its total spray-drying capacity in the U.S. Future Facility Upgrades A 125,000-square-foot greenfield acquired by Hovione at the East Windsor campus will eventually be a large-scale production site. This includes enhanced quality control and R&D capabilities. Together, all this adds to Hovione’s stable of manufacturing sites, R&D centers, and other offices spread across three continents. Key to the expansion is a targeted reduction of Hovione’s carbon footprint by 40% by the year 2030. Part of this goal is embracing new and/or changing solvent types to help meet sustainability standards. Additionally, the company says automation that has been put in place at its Portugal site will be replicated in NJ. Hovione Aligns NJ Operations At the Drug, Chemical & Associated Technologies Association (DCAT) Week in New York in March, Contract Pharma met with Hovione. There, David Basile, Vice President of Technical Operations—Americas, further illustrated the New Jersey expansion. “Hovione aims to build an equivalent manufacturing network, where clients can go to any site across the globe,” Basile said. “The design of the facility has been well-thought through with material flows [and] gravity-fed processes. It’s scalable. We call each one of these building segments a finger. You can copy and paste these fingers, and they are built to house both spray drying and drug product assets.” Ultimately, with these moves and a strategic partnership model, Hovione aims to provide customers an opportunity to co-invest and access the company’s proprietary knowledge and assets to accelerate programs and create long-term value. Read the full article at ContractPharma.com    

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The podcast "The Next Discovery" is a six-episode series created by Observador, a leading Portuguese digital newspaper and radio station, in partnership with Hovione.   From hospitals to patients’ homes, discover the solutions that make it possible to administer high-dose biologics with greater comfort, less pain, and more freedom in treatment. What if some of the scientific breakthroughs that could improve the lives of millions of people were happening right now in Portugal? The Next Discovery. Listen to the last episode of the podcast here, featuring João Pires and Joana Cristóvão from Hovione’s Research and Development Center. [English transcription] Nelson Ferreira (NF): Welcome to the sixth and final episode of The Next Discovery, a podcast series in which Hovione opens the doors to its world to share the global impact of innovation developed in Portugal. I’m Nelson Ferreira, and throughout this journey we have explored chemical processes, ultrafine particles, and revolutionary production lines. Today, we look directly at the future of medicine. After exploring the world of small molecules, we are now entering a new therapeutic dimension: biologic medicines. Based on larger and more complex molecules, these treatments are opening new possibilities for addressing a wide range of diseases. To explain how this field is evolving and how science can make these treatments more effective, stable, and accessible to patients, I’m joined by João Pires and Joana Cristóvão from Hovione’s Research and Development Center. NF: Welcome to you both. João, let me start with you. For someone who has never heard this term before, what exactly are biologic medicines, and what sets them apart from small-molecule drugs, which are more closely associated with traditional chemistry? João Pires (JP): If we think about the medicines we find in pharmacies today, most of them are indeed composed of small molecules. These are simpler structures that are still highly effective and that we can design and manufacture through what we call classical chemistry, a field that has developed its knowledge over the last 150 to 200 years. Biologics are completely different. Because of their complexity, larger size, and structure, they differ mainly in their origin. They are produced from living organisms, such as cells, which, under the right conditions, can function as biological factories. Just as in our own bodies, they allow us to produce and extract substances that can have a significant therapeutic effect for certain diseases. In that sense, biologics benefit from millions of years of evolution, something classical chemistry simply does not have. NF: Biology is what carried out that evolution. JP: Exactly. Biology. That’s part of the beauty of it. NF: Nature carried out that entire process for us. NF: Joana, since these medicines are created from living organisms, can we say they are, in a way, more “intelligent” and have greater therapeutic potential? Joana Cristóvão (JC): In some cases, they do have tremendous therapeutic potential. One of the advantages of these molecules is their remarkable specificity. You can think of it as a key fitting into a lock. It has to be the right key. Biologics, because they speak the same biological language as our bodies, have this advantage. However, that does not mean they are better than small molecules. It means that, because they are produced by living microorganisms, they are highly complex and would be very difficult, and in some cases impossible, to produce through traditional chemical synthesis. Their great strength lies in their specificity. Examples of biologics include proteins that facilitate communication within the body and monoclonal antibodies that identify specific targets. These functions are particularly suited to biologics and less common among small molecules. NF: João, as I understand it, this is still an emerging field worldwide. How did Hovione, a company historically linked to chemical synthesis and small-molecule particle engineering, decide to embrace the challenge of biologics? JP: Honestly, it has been a very natural transition. Over the years, Hovione has developed highly specialized expertise in chemistry, particle engineering, and formulation science. When we look at biologics, despite their greater complexity, the underlying challenge is very similar. These medicines still require materials, processes, and controls to ensure they reach patients safely, consistently, and effectively. NF: But is there real potential? JP: Absolutely. Not only is there potential, but there are also significant challenges. This leads to the second point: curiosity. Throughout Hovione’s history, starting with our founder, there has always been a drive to embrace increasingly complex challenges. That curiosity is part of our DNA, particularly within our Innovation and Development Center. It is also one of the most rewarding aspects of working at Hovione: being part of this transition. NF: And it is not that far removed from Hovione’s history either. JP: Exactly. NF: Joana, in which therapeutic areas have biologics already had the greatest impact? Are there diseases where they have clearly transformed patient treatment? JC: There are several areas. NF: So this is no longer science fiction. It already exists in practice. JC: Exactly, and it has existed for quite some time in some fields. In oncology, for example, antibodies are used to target and kill cancer cells with high specificity. Instead of attacking cells broadly, these treatments target the disease’s underlying mechanisms. NF: Which I assume reduces side effects. JC: It does. Cancer is also a very clever disease. It evolves rapidly and often hides from our immune system. There are biologic therapies designed to help our natural defenses do their job by removing the “invisible cloak” that some tumors use to evade detection and progress rapidly. Another classic example is diabetes. Insulin has been the most common treatment for diabetes for decades. Before biotechnology, insulin was extracted from animals, making production limited. With biotechnology, we gained the ability to produce human insulin, known as recombinant insulin, using living microorganisms. This transformation made the treatment available to far more people and has saved countless lives. NF: Two clear examples where biologics are already making a difference. João, these medicines are on the market today, but I imagine developing and stabilizing them in the laboratory presents major technical challenges. What are they? JP: Because these molecules are highly complex and, as Joana described, quite elegant, they are also extremely sensitive, almost like greenhouse flowers. Biological evolution has optimized them to survive under very specific conditions, conditions that often do not exist during manufacturing, transportation, or administration. As a result, they are highly sensitive to heat, air, pressure, and even prolonged contact with one another. When these molecules interact too much, they can lose their structure and unfortunately their therapeutic effect as well. This is where we come in. Clients often approach us with molecules that have tremendous therapeutic potential but are still only proof-of-concept projects. Our role is to take those early experimental results and develop the controls, processes, and formulations needed to scale production to thousands or even millions of doses while maintaining impeccable quality and stability. NF: Joana, how are these medicines administered? Are they different from conventional drugs? Traditionally, many biologics require intravenous administration in a hospital setting. Is that still the case? JC: Traditionally, yes. Most biologics are administered directly into a vein through an infusion, similar to receiving an IV drip. However, the pharmaceutical industry is not only focused on treating diseases. It is also increasingly focused on the patient experience. These treatments require hospital visits and can take time to administer. For chronic illnesses, this process repeats throughout a patient's life. The industry's goal is to develop alternative treatments that are more comfortable and give patients greater independence. NF: So they would no longer need to go to the hospital. JC: Exactly. The ultimate objective is to create injectable solutions that patients can administer themselves. Achieving this requires innovation in technology, formulation development, and medical devices. NF: João, this is where high-concentration formulations come in. What does that mean in practice? Could we eventually administer these medicines ourselves without the help of a nurse? JP: We certainly hope so. The concept of high-concentration formulations is relatively simple: fitting as much medicine as possible into the smallest possible volume. Ideally, that volume is small enough to fit into something like an auto-injector that can be carried in a pocket. NF: A pen-like device. JP: Exactly, a pen. Thanks to newer treatments, particularly in areas such as obesity, these devices have become much more familiar to the public. Technically, it sounds simple: more medicine, less liquid. But as we discussed earlier, these molecules are highly sensitive. As concentration increases and the molecules become more crowded together, challenges emerge. In addition to stability concerns, there is the issue of viscosity. This is easy to visualize: the more concentrated something is, the thicker it becomes. NF: Which makes it harder to inject. JP: Exactly. And greater viscosity generally means greater pain during administration. That directly contradicts the goal of developing treatments that are more convenient and patient-friendly. This is one of the major challenges facing the industry today: finding ways to overcome dose limitations and reduce administration volumes without compromising therapeutic effectiveness, convenience, or patient acceptance. NF: Joana, before we finish, what do scientists feel when they look toward the future and see Hovione’s work helping bring medicine closer to solutions that are increasingly personalized, convenient, patient-centered, and comfortable? JC: I think it is a tremendous responsibility, and that responsibility is also a major source of motivation. Medicine is becoming increasingly personalized and focused on the biological mechanisms that cause disease rather than simply treating symptoms. It is incredibly rewarding to be part of teams contributing to this journey toward a better future, one that places patients at the center. NF: João, is the future biological? JP: Not exclusively, but certainly in part. Biologics allow us to dream bigger. They open the door to better, more personalized, and more effective medicines, creating possibilities that were difficult to imagine until now. NF: João Pires and Joana Cristóvão, thank you for opening the doors to the future of medicine. With this look toward tomorrow, we conclude the first season of The Next Discovery. Over the course of six episodes, we traveled from a basement laboratory in Lisbon in 1959 to global technological leadership that now touches the lives of more than 80 million people every year. These conversations have shown that with curiosity, rigor, and talent, the next great scientific breakthroughs can indeed bear the signature of our country. To listen to all episodes of this series, visit observador.pt or your favorite podcast platforms. Until the next discovery.

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