
CLL: Hematologists Face Off on Best Long-Term Strategy
At the 18th International Conference on Malignant Lymphoma (ICML) 2025 in Lugano, Switzerland, a pair of hematologists set aside their friendship for a few moments and took opposite sides in a debate over off-and-on BCL2 targeting vs continuous treatment with Bruton's tyrosine kinaseinhibitors (BTKis).
Here's a summary of their discussion — and insight from another specialist who provided perspective to Medscape Medical News.
Team Venetoclax: It's the 'Most Potent' Therapy
Hematologist John F. Seymour, MBBS, PhD, of the Royal Melbourne Hospital, Parkville, and the Peter MacCallum Cancer Center, Melbourne, both in Australia, supported on-and-off BLC2 targeting via therapy with venetoclax, which he called 'the most potent known anti-CLL therapy.'
He highlighted its early record of rapid improvement in patients and asked, 'Why would we not want to use a drug that potent?'
He cited data from the 2023 CLL13 study, which he said showed that venetoclax combinations have 'an astonishing and unprecedented ability to achieve incredibly deep remissions, as measured by undetectable MRD [measurable or minimal residual disease] rates in the peripheral blood above 90% with short term time-limited treatment.'
The study authors reported that 'venetoclax-obinutuzumab [VO] with or without ibrutinib was superior to chemoimmunotherapy as first-line treatment in fit patients with CLL.'
Seymour also noted phase 3 data from several studies demonstrating that time-limited therapy of 12-14 months achieved 4-year progression-free survival (PFS) rates between 75% and 85%, similar to continuous BTKi therapy outcomes. 'So in terms of PFS, both are equivalent,' he said.
Team BTKi: The Evidence Is in
Hematologist Stephan Stilgenbauer, MD, of Ulm University, Ulm, Germany, countered by emphasizing the extensive evidence base supporting continuous BTKi therapy, noting data from 'almost 2000 patients on nine clinical trials' with nearly 5 years of aggregate follow-up.
He added that 'we have a median follow-up time that is close to 50 years in aggregate, and even more importantly, seven of these nine trial arms involved the relevant CLL patient population — namely, patients of a median age of about 70 years.'
He contrasted this with more limited data for venetoclax combinations, stating that VO had evidence from only two trials, the CLL13 and CLL14 trials, with 'only a single arm' addressing the relevant older patient population. And the aggregated median follow-up time, he said, is just over 10 years.
Regarding efficacy, Stilgenbauer presented cross-trial comparisons showing 48-month PFS rates in older patients, with aggregate data showing 72% for BCL-2 inhibitors and 79% for '79% BTKis.'
'It is quite clear efficacy is better with [BTKis],' he said.
Team Venetoclax: Listen to Guidelines and Patients
Seymour highlighted European Society For Medical Oncology (ESMO) recommendations regarding therapy. ESMO's 2024 interim guideline update says that in front-line therapy, 'first-line treatment in patients with CLL regardless of IGHV [immunoglobulin heavy chain variable region status] but without a TP53 mutation or del(17p), preference should be given to time-limited therapies and to therapies and/or combinations with longer follow-up data, if efficacy is similar.'
However, the 2021 ESMO guidelines offer these cautions about time-limited therapies: 'side-effect profile (renal impairment and risk of TLS [tumor lysis syndrome] vs atrial fibrillation and bleeding risk), application mode (intravenous [IV] application with combination therapy due to the antibody infusion vs oral medication only), intensity of controls (5-week ramp-up period with the combination), and shorter follow-up have to be taken into consideration.'
Seymour also noted patient preference data showing that 'the most dominant factor for patients' preference with given equivalent efficacy was shorter duration of treatment.'
As for adverse effects, Seymour argued that current protocols have minimized this risk for TLS. 'Interventions are very uncommonly needed. When analyzing aggregate data, TLS is in less than 1 in 200 patients,' he said.
He contrasted this with the risks of continuous therapy, noting that 'continuous accumulation of risk of adverse events is seen, and some of those, and the most troublesome among those are cardiovascular. That can be atrial fibrillation or flutter. While second-generation drugs have a lower rate, they still occur, and they still increase with time.'
Most devastatingly, 'the risk of sudden cardiac death is increased with ibrutinib across a number of these studies. And that risk continues to accumulate with time.'
Team BTKi: Safety Matters
Stilgenbauer challenged safety perceptions about BTKis, highlighting the CLL12 placebo-controlled trial. 'When you look at the adverse event table from this trial, you see that all of these so-called treatment-emergent adverse events that occurred with ibrutinib also occurred with placebo,' he said. 'These adverse events occur due to the disease and not due to the treatment.'
He also noted safety data showing higher rates of severe neutropenia in venetoclax combinations. 'You have a high-grade neutropenia in more than 55% of patients. You have thrombocytopenia, anemia, you have febrile neutropenia and pneumonia,' Stilgenbauer said, comparing this to single-digit percentages with BTKis.
The Outside Expert: Focus on Patient Characteristics
Medscape Medical News contacted Hematologist Seema Ali Bhat, MD, of The Ohio State University in Columbus, Ohio, and asked her for her perspective. Here are excerpts from our conversation:
What do you think regarding time-limited venetoclax-based therapy vs continuous BTKi therapy?
Both regimens are highly effective options for CLL, and the choice between them should be individualized. Time-limited venetoclax combinations (with obinutuzumab or acalabrutinib +/- obinutuzumab) offer the advantage of finite therapy, with potential for deep remissions, MRD negativity, and treatment-free intervals.
On the other hand, BTKis have shown sustained efficacy with long-term data, even in high-risk groups. In fact, a pooled analysis of three trials showed that first-line treatment with ibrutinib provides long-term overall survival benefits, with estimates similar to those of an age-matched adult population.
What should hematologists be thinking about when they make decisions regarding treatment in these patients?
Several factors should guide treatment selection:
•Patient-specific factors: age, fitness, cardiovascular comorbidities (atrial fibrillation, hypertension, congestive heart failure, etc.), renal function, medication adherence, and treatment goals.
BTKis are known to have cardiac adverse effects, so patients with underlying uncontrolled cardiac condition like atrial fibrillation or hypertension may not be suitable for this kind of therapy.
On the other hand, patients with renal dysfunction may be prone to worsening renal function due to risk for TLS with venetoclax.
•Patient preferences: If a patient does not want to come in for frequent laboratory monitoring during venetoclax ramp-up, a BTKi is preferred. Similarly, if coming for IV infusions for 6 months is burdensome, it is better to avoid a VO regimen.
If there is a patient who wants fixed duration therapy but prefers not to have IV treatments, the acalabrutinib plus venetoclax (AV) regimen will be ideal in this case.
The consideration of patient preferences is important. Some patients value time off treatment and the concept of deep remissions while others may prioritize fewer visits or simpler oral treatments.
•Disease characteristics: We take disease biology into consideration, especially IGHV mutation status and TP53 disruption. In the CLL14 study, it was very clear that in patients with TP53 disruptions, the responses were not as durable as in patients without these abnormalities. Studies with BTKis have consistently shown similar outcomes in patients with or without TP53 disruption.
•Drug interactions: Due to an increased risk for bleeding, it is advised to be cautious when combining BTKis with blood thinners. In a patient who is at an increased risk for bleeding, venetoclax-based therapy may be preferred.
•Access and cost: Time-limited therapy may be more cost-effective, but access to obinutuzumab and logistical complexity of venetoclax ramp-up can be barriers.
Shared decision-making is essential, especially as both options — time-limited or continuous offer excellent outcomes in many patients.
Is there anything else you'd like to add about this topic?
Head-to-head comparisons between these different types of treatments are ongoing — for example, trials like FLAIR and CLL17— so we are eagerly awaiting those results which may help further refine this field.
Also, the oral doublets have so far been compared with chemoimmunotherapy, it will be important to see how AV compares to VO in the MAJIC trial or how zanubrutinib plus sonrotoclax, a new BCL2 inhibitor, compares to VO in the CELESTIAL trial.
Until we have definitive long-term comparative data, clinicians should avoid rigid treatment algorithms.
Hashtags

Try Our AI Features
Explore what Daily8 AI can do for you:
Comments
No comments yet...
Related Articles


Health Line
21 minutes ago
- Health Line
Understanding Non-Mendelian Genetics (Patterns of Inheritance)
In Mendelian inheritance patterns, you receive one version of a gene, called an allele, from each parent. These alleles can be dominant or recessive. Non-Mendelian genetics don't completely follow these principles. Genetics is an expansive field that focuses on the study of genes. Scientists who specialize in genetics are called geneticists. Geneticists study many different topics, including: how genes are inherited from our parents how DNA and genes vary between different people and populations how genes interact with factors both inside and outside of the body If you're looking into more information on genetics topics, you may come across two types of genetics: Mendelian and non-Mendelian genetics. This article reviews both types of genetics, with a focus on non-Mendelian genetics. Continue reading to learn more. What is Mendelian genetics? It's possible that you may remember some concepts of Mendelian genetics from your high school biology class. If you've ever done a Punnett square, you've learned about Mendelian genetics. The principles of Mendelian genetics were established by the Austrian monk Gregor Mendel in the mid-19th century based on his experiments with pea plants. Through his experiments, Mendel pinpointed how certain traits (such as pea color) are passed down across generations. From this information, he developed the following three laws, which are the basis of Mendelian genetics: Dominance. Some variants of a gene, called alleles, are dominant over others. Non-dominant alleles are referred to as recessive. If both a dominant and recessive allele are inherited, the dominant trait will be the one that shows. Segregation. Offspring inherit one allele for a gene from each of their parents. These alleles are passed down randomly. Independent assortment. Genetic traits are inherited independently of each other. Pea color: An example of Mendelian genetics at work To illustrate how Mendelian genetics works, let's use an example with pea plants, in which yellow pea color (Y) is dominant and green pea color (y) is recessive. In this particular example, each parent pea plant is heterozygous, meaning it has a dominant and recessive allele, noted as Yy. When these two plants are bred, noted as Yy x Yy, the following pattern of inheritance will be seen: 25% of offspring will be homozygous dominant (YY) and have yellow peas. 50% of offspring will be heterozygous (Yy) and have yellow peas. 25% of offspring will be homozygous recessive (yy) and have green peas. What are examples of health conditions that follow Mendelian patterns of inheritance? There are several health conditions that follow Mendelian patterns of inheritance. Alleles for sickle cell anemia and cystic fibrosis are recessive. This means that you need two copies of the recessive allele, one from each parent, to have these conditions. In contrast, the allele for Huntington's disease is dominant. That means that you only need a single copy of the allele (from one of your parents) to have it. Sex-linked conditions Some health conditions can be linked to genes in the sex chromosomes (X and Y). For example, hemophilia is X-linked recessive. In those assigned male at birth, who have a single X chromosome, only one copy of the recessive allele is enough to have hemophilia. That's why hemophilia is more common in males. Individuals assigned female at birth have two X chromosomes, meaning they need two copies of the recessive allele to have hemophilia. What are non-Mendelian genetics? Exceptions exist for every rule, and that's also true for genetics. Simply put, non-Mendelian genetics refers to inheritance patterns that don't follow Mendel's laws. Here are some different types of non-Mendelian genetics: Polygenic traits Some traits are determined by two or more genes instead of just one. These are called polygenic traits and don't follow Mendelian inheritance patterns. Examples of polygenic health conditions include: hypertension diabetes certain cancers, such as breast and prostate cancer Mitochondrial inheritance Your mitochondria are the energy factories of your cells and also contain their own DNA, called mtDNA. While there are some exceptions, mtDNA is usually inherited from your mother. You get your mtDNA from your mother because the mitochondria present in sperm typically degrade after fertilization. This leaves behind just the mitochondria in the egg. Examples of Mitochondrial health conditions include Leber hereditary optic neuropathy (LHON) and mitochondrial encephalomyopathy. Epigenetic inheritance Epigenetics refers to how genes are expressed and regulated by factors outside of the DNA sequence. This includes things like DNA methylation, in which a chemical called a methyl group is added to a gene, turning it 'on' or 'off'. Epigenetic factors can change as we get older and are exposed to different things in our environment. Sometimes, these changes can be passed down to the next generation, which is called epigenetic inheritance. Certain cancers (such as breast, colorectal, and esophageal cancer) have been linked to epigenetic changes. Neurological disorders like Alzheimer's and metabolic diseases like Type 2 diabetes have also been associated with epigenetic inheritance. Genetic imprinting While we inherit two copies of a gene, one from each parent, in some cases, only one copy of the gene may be turned 'on' via DNA methylation. This is called imprinting, and it only affects a small percentage of our genes. Which gene is turned 'on' can depend on where the gene came from. For example, some genes are only turned 'on' when they come from the egg, while others are only 'on' when they come from the sperm. Examples of conditions associated with genetic imprinting include Beckwith-Wiedemann syndrome, Silver-Russell syndrome, and Transient Neonatal Diabetes Mellitus. Gene conversion Gene conversion can happen during meiosis, the type of cell division that helps make sperm and eggs. After meiosis, each sperm and egg contains one set of chromosomes and therefore one set of alleles to be passed down to offspring. During meiosis, genetic information from one copy of an allele (the donor) may be transferred to the corresponding allele (the recipient). This results in a genetic change that effectively converts the recipient allele to the donor allele. Genetic conditions influenced by gene conversions include hemophilia A, sickle cell disease, and congenital adrenal hyperplasia. What are examples of health conditions that follow non-Mendelian patterns of inheritance? Most health conditions we're familiar with don't follow Mendelian inheritance patterns. These conditions are often polygenic, meaning the effects of multiple genes contribute to them. For example, cystic fibrosis is caused by inheriting two copies of a recessive allele of a specific gene. However, there's not an isolated 'heart disease' allele that we inherit that causes us to develop heart disease. Mitochondrial disorders, which are caused by changes in mtDNA, are another type of health condition that follows non-Mendelian patterns of inheritance. This is because you typically inherit mtDNA from your mother. Sometimes problems with genetic imprinting can lead to disorders. Prader-Willi syndrome and Beckwith-Wiedemann syndrome are two examples. How do Mendelian and non-Mendelian genetics contribute to our understanding of genetic diseases in humans? Understanding both Mendelian and non-Mendelian inheritance patterns is important in understanding how different genetic diseases may be passed down. For example, if you have a certain genetic disease or you know that one runs in your family, you may have concerns about future children inheriting it. In this situation, working with a medical professional, such as a genetic counselor, who understands a disease's inheritance patterns can help you get an understanding of the risk of future children having the disease. Additionally, understanding genetic changes and inheritance can affect future therapies. This information can be important for developing gene therapies for a variety of genetic diseases. Takeaway Mendelian genetics focuses on the principles that there are dominant and recessive alleles and that we randomly inherit one copy of an allele from each parent. Some health conditions follow basic Mendelian inheritance patterns. Examples include cystic fibrosis and Huntington's disease. Non-Mendelian genetics don't follow the principles outlined by Mendel. Many health conditions we're familiar with don't follow Mendelian inheritance patterns because they're polygenic, affect mtDNA, or are associated with imprinting.


Medscape
32 minutes ago
- Medscape
When Medicine Meets Philosophy: A New SEC Series
Medicine and Philosophy, a new roundtable series by the Spanish Society of Cardiology (SEC) in collaboration with Madrid's Círculo de Bellas Artes, aims to facilitate discussions between medical, science, and humanities experts. The series, which took place in May and June, was recorded and can be viewed online at the SEC's channel. Organizers and Topics The Hippocratic Chapter of the SEC, along with organizers from the Círculo de Bella Artes, decided on three healthcare topics to explore in the series. The session titles were "The Doctor-Patient Relationship in the Era of Artificial Intelligence," "Who Wants to Live Forever?", and "Is Boredom a Medical Problem? AI in Medicine: Pros and Cons AI's role in medicine was the first session's focus. Panelists discussed how AI saves time by streamlining data interpretation, allowing more time spent with patients. Ironically, the extra time results in the expectation that patient load should increase. The importance of physician input in AI advancement for medical use, as well as educating future clinicians on AI, were discussed. A Long Life The concept of living a longer life was discussed in the second session. A balanced approach to the topic by medical professionals and philosophers created a crossover of biological facts with existential questions about the meaning of life. Is Boredom Treatable? The last session featured panelists talking about boredom, whether it is a medical issue, and the social and medical repercussions of labeling these normal emotional life experiences as treatable conditions. Were These Roundtables Successful? Yes. All sessions sold out and this success has prompted the organizers to brainstorm future topics for collaboration. Also, expanding this series outside of Madrid is a possibility. Bottom line: Viewing healthcare topics through scientific and philosophical lenses can foster thought-provoking discussions, as shown by the success of the Medicine and Philosophy roundtable series. The full list of panelists can be found on the Círculo de Bellas Artes page for the roundtable series.
Yahoo
an hour ago
- Yahoo
Roche's Susvimo maintains vision over five years with two refills per year in people with neovascular age-related macular degeneration (nAMD)
Susvimo is the only continuous delivery treatment to provide reliable, long-term vision outcomes in nAMD, the leading cause of vision loss in people over the age of 60 With two refills per year, Susvimo maintained vision and stabilised the retina for five years, with durability maintained in approximately 95% of patients Susvimo was well tolerated over five years and has a well-characterised safety profile Basel, 01 August 2025 - Roche (SIX: RO, ROG; OTCQX: RHHBY) announced today new, five-year efficacy, safety and durability data from the Phase III Portal study, a long-term extension of the Phase III Archway study, of Susvimo® (ranibizumab injection) for the treatment of people with nAMD.1 Results show that Susvimo's immediate and predictable durability was sustained over five years, with approximately 95% of people receiving treatment every six months requiring no supplemental treatment before each refill. The data were presented at the American Society of Retina Specialists (ASRS) 2025 Annual Meeting in Long Beach, California, United States. 'These long-term results reinforce Susvimo's ability to maintain vision and retinal drying over a long period of time for people with nAMD, the leading cause of vision loss in people over age 60,' said Levi Garraway, MD, PhD, Roche's chief medical officer and head of Global Product Development. 'These robust data reinforce our confidence in Susvimo's unique therapeutic approach, providing an effective alternative to regular eye injections while preserving vision in a sustained manner.' 'People with nAMD often experience suboptimal outcomes with real-world anti-VEGF treatment, largely due to the frequency of injections,' said study investigator John Kitchens, M.D., Retina Associates of Kentucky, who presented the data at ASRS. 'Continuous delivery of treatment with Susvimo may preserve vision in patients with nAMD for longer in real-world clinical use than IVT injections.' In the Portal study (n = 352), people originally treated with Susvimo in Archway continued to receive Susvimo refills every six months (Susvimo cohort; n = 220), while those originally treated with monthly intravitreal (IVT) ranibizumab injections in Archway received Susvimo and then refills every six months (IVT-Susvimo cohort; n = 132). Five-year results showed consistent and sustained disease control and retinal drying in a population who entered Archway with vision at or near peak levels after receiving an average of five intravitreal injections per standard of care. In the Susvimo cohort, best-corrected visual acuity (BCVA) was 74.4 letters at baseline and 67.6 letters at 5 years. In the IVT-Susvimo cohort, BCVA was 76.3 letters at baseline and 68.6 at 5 years. Half of all patients had better than 20/40 vision at five years (Snellen visual acuity test). Average central subfield thickness (CST) remained stable, with a 1.0 (95% CI: -13.1, 11.1) µm reduction from baseline in the Susvimo cohort, and a 10.3 (95% CI: -25.7, 5.0) µm reduction in the IVT-Susvimo cohort. The cohort of people who entered the Portal study from Archway is the largest cohort of people with nAMD to be followed prospectively and continuously for five years in a clinical study.1 Susvimo provides continuous delivery of a customised formulation of ranibizumab via the Port Delivery Platform, while other currently approved treatments may require eye injections as often as once per month. The Port Delivery Platform is a refillable eye implant surgically inserted into the eye during a one-time, outpatient procedure, which introduces medicine directly into the eye, addressing certain retinal conditions that can cause vision loss. About the Archway study and its open-label extension study (Portal)1,2Archway (NCT03677934) was a randomised, multicentre, open-label phase III study evaluating the efficacy and safety of Susvimo refilled every six months at fixed intervals, compared to monthly IVT ranibizumab 0.5 mg in 415 people living with nAMD. Patients were randomized 3:2 to Susvimo (n = 248) or IVT ranibizumab injections (n = 167). Patients enrolled in Archway were responders to prior treatment with anti-VEGF therapy. In both study arms, patients were treated with at least three anti-VEGF injections within the six months prior to their Archway screening visit, with an average of five anti-VEGF injections before randomization. The primary endpoint of the study was the change in BCVA score from baseline at the average of Week 36 and Week 40. Secondary endpoints include safety, overall change in vision (BCVA) from baseline and change from baseline in centre point thickness over time. Patients who completed the study at week 96 were eligible to enter the Portal open-label extension study. In Portal, people originally treated with Susvimo in Archway continued to receive Susvimo refills every six months (Susvimo cohort), while those originally treated with monthly intravitreal (IVT) ranibizumab injections in Archway received the Susvimo implant and then refills every six months (IVT-Susvimo cohort). Portal is ongoing. About neovascular age-related macular degenerationAge-related macular degeneration (AMD) is a condition that affects the part of the eye that provides sharp, central vision needed for activities like reading.3 Neovascular or 'wet' AMD (nAMD) is an advanced form of the disease that can cause rapid and severe vision loss if left untreated.4,5 It develops when new and abnormal blood vessels grow uncontrolled under the macula, causing swelling, bleeding and/or fibrosis.5 Worldwide, around 20 million people are living with nAMD – the leading cause of vision loss in people over the age of 60 – and the condition will affect even more people around the world as the global population ages.3,6,7 About Susvimo® (Port Delivery System with ranibizumab)Approved in the United States by the Food and Drug Administration (FDA) for nAMD, diabetic macular edema (DME) and diabetic retinopathy (DR), Susvimo is a refillable eye implant surgically inserted into the eye during a one-time, outpatient procedure.8,9 Susvimo continuously delivers a customised formulation of ranibizumab over time.8,9 Ranibizumab is a VEGF inhibitor designed to bind to and inhibit VEGF-A, a protein that has been shown to play a critical role in the formation of new blood vessels and the leakiness of the vessels.8-10The customised formulation of ranibizumab delivered by Susvimo is different from the ranibizumab IVT injection, a medicine marketed as Lucentis® (ranibizumab injection)*, which is approved to treat nAMD and other retinal diseases.11 About Roche Founded in 1896 in Basel, Switzerland, as one of the first industrial manufacturers of branded medicines, Roche has grown into the world's largest biotechnology company and the global leader in in-vitro diagnostics. The company pursues scientific excellence to discover and develop medicines and diagnostics for improving and saving the lives of people around the world. We are a pioneer in personalised healthcare and want to further transform how healthcare is delivered to have an even greater impact. To provide the best care for each person we partner with many stakeholders and combine our strengths in Diagnostics and Pharma with data insights from the clinical practice. For over 125 years, sustainability has been an integral part of Roche's business. As a science-driven company, our greatest contribution to society is developing innovative medicines and diagnostics that help people live healthier lives. Roche is committed to the Science Based Targets initiative and the Sustainable Markets Initiative to achieve net zero by 2045. Genentech, in the United States, is a wholly owned member of the Roche Group. Roche is the majority shareholder in Chugai Pharmaceutical, Japan. For more information, please visit All trademarks used or mentioned in this release are protected by law. *Lucentis® (ranibizumab injection) was developed by Genentech, a member of the Roche Group. Genentech retains commercial rights in the United States and Novartis has exclusive commercial rights for the rest of the world. References[1] Kitchens J, et al. Five Year Outcomes in nAMD Patients Enrolled in the Archway Study and Treated With the PDS. Presented at: The American Society of Retina Specialists (ASRS) 2025 Annual Meeting; 2025 August 01; Long Beach, California, United States.[2] Regillo C, et al. Archway Phase 3 Trial of the Port Delivery System with Ranibizumab for Neovascular Age-Related Macular Degeneration 2-Year Results. Ophthalmology. 2023;130(7):735-747.[3] Bright Focus Foundation. Age-related macular degeneration (AMD): facts & figures. [Internet; cited July 2025]. Available from: [4] Pennington KL, et al. Epidemiology of AMD: associations with cardiovascular disease phenotypes and lipid factors. Eye and Vision. 2016;3:34.[5] Little K, et al. Myofibroblasts in macular fibrosis secondary to nAMD - the potential sources and molecular cues for their recruitment and activation. EBioMedicine. 2018;38:283-91.[6] Connolly E, et al. Prevalence of AMD associated genetic risk factors and four-year progression data in the Irish population. British Journal of Ophthalmology. 2018 Feb;102:1691-95.[7] Wong WL, et al. Global prevalence of AMD and disease burden projection for 2020 and 2040: a systematic review and meta-analysis. The Lancet Global Health. 2014 Feb;2:106-16.[8] US Food and Drug Administration (FDA). Highlights of prescribing information, Susvimo. 2021. [Internet; cited July 2025]. Available from: [9] Holekamp N, et al. Archway randomised phase III trial of the PDS with ranibizumab for neovascular age-related macular degeneration (nAMD). Ophthalmology. 2021.[10] Heier JS, et al. The angiopoietin/tie pathway in retinal vascular diseases: A review. The Journal of Retinal and Vitreous Diseases. 2021;41:1-19.[11] US FDA. Highlights of prescribing information, Lucentis. 2012. [Internet; cited April 2025]. Available from: [12] US FDA. Highlights of prescribing information, Vabysmo. 2024. [Internet; cited April 2025]. Available from: [13] European Medicines Agency. Summary of product characteristics, Vabysmo. [Internet; cited April 2025]. Available from: Roche Global Media RelationsPhone: +41 61 688 8888 / e-mail: Hans Trees, PhDPhone: +41 79 407 72 58 Sileia UrechPhone: +41 79 935 81 48 Nathalie AltermattPhone: +41 79 771 05 25 Lorena CorfasPhone: +41 79 568 24 95 Simon GoldsboroughPhone: +44 797 32 72 915 Karsten KleinePhone: +41 79 461 86 83 Kirti PandeyPhone: +49 172 6367262 Yvette PetillonPhone: +41 79 961 92 50 Dr Rebekka SchnellPhone: +41 79 205 27 03 Roche Investor Relations Dr Bruno EschliPhone: +41 61 68-75284e-mail: Dr Sabine BorngräberPhone: +41 61 68-88027e-mail: Dr Birgit MasjostPhone: +41 61 68-84814e-mail: Investor Relations North America Loren KalmPhone: +1 650 225 3217e-mail: Attachment Media Investor Release Susvimo Archway study english