Dr. Haifeng QIN

Dr. Haifeng QIN

  • Director, Department of Thoracic Oncology & Department of Tumor Immunotherapy, Beijing GoBroad Hospital
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About the Doctor

Dr. Haifeng Qin is a distinguished leader in cancer prevention and treatment in China. He has long specialized in the multidisciplinary management and individualized precision treatment of thoracic malignancies. With extensive clinical experience in chemotherapy, radiotherapy, targeted therapy, immunotherapy, minimally invasive interventions, and palliative care, he is highly regarded for his expertise in managing lung cancer, thymic tumors, and other thoracic cancers.

Dr. Qin has significant academic influence in the field of tumor immunotherapy. He led the first clinical study of TIL (tumor-infiltrating lymphocyte) therapy in China, contributing greatly to the innovation of cancer treatment models and the advancement of immunotherapeutic technologies. He is also the founder of the iHope Medical Platform, which promotes open academic exchange and medical translation, supports the professional development of young physicians, and drives continuous innovation in cancer care to improve patient outcomes.

Areas of Expertise

  • Multidisciplinary diagnosis and treatment of thoracic tumors
  • Individualized precision treatment of lung cancer and thymic tumors
  • Targeted therapy, immunotherapy, and combination treatment strategies
  • Minimally invasive interventions for thoracic cancers
  • Development and implementation of palliative and supportive care systems

Contact information and location

Whatsapp
+86 15901185120
Address
Building 1,No.4 Science Park Road,Life Science Park,Changping District,Beijing,China

Related reading

Dr. Haifeng Qin's Team: Interpretation of the Cutting-edge Advances in Solid Tumor Cellular Immunotherapy

In recent years, CAR-T therapy has made groundbreaking progress in hematologic malignancies and has started to expand into solid tumors. Meanwhile, TIL (tumor-infiltrating lymphocytes) and TCR-T (T cell receptor-engineered T cells) therapies hold great promise for advanced solid tumors. NK (natural killer) cells and CAR-NK cell therapies have also become research focuses due to their innate immune functions and safety advantages. The continued advancement and breakthroughs in immunotherapy have not only brought new choices and hope to cancer patients but also ushered in a new era in cancer treatment. In this article, Dr. Qin Haifeng, Director of the Thoracic Oncology Department at Beijing GoBroad Hospital, and Dr. Qin Lili, systematically explain the categories of immunotherapy and recent progress in each type.

 

Progress in Clinical Research of TILs for Advanced Solid Tumors

 

Tumor-infiltrating lymphocytes (TILs) are a population of T cells with natural anti-tumor activity found within tumor tissues. These cells have two important characteristics:

  1. The ability to survive in a complex tumor microenvironment.
  2. The innate ability to recognize and kill tumor cells.

Research has shown that TILs have a high tropism for tumors, which allows them to actively target and gather in tumor regions, making them key effector cells in tumor immunotherapy.

The core process of TIL therapy includes:

  • Obtaining tumor samples from patients.
  • Isolating and expanding TILs in the lab to a therapeutic dose.
  • Re-infusing them into the patient.
  • Administering immune factors such as interleukin-2 (IL-2) to promote further expansion and targeted tumor killing in the body.

TILs are derived directly from the tumor and exhibit greater tumor specificity. Despite the complex and time-consuming preparation process, their therapeutic potential in solid tumor patients is gradually becoming evident.

 

FDA Approves First TIL Product Showing Efficacy in Melanoma

In 2024, the U.S. FDA approved the world’s first TIL product, LN-144 (developed by Iovance Biotherapeutics), for second-line treatment of advanced melanoma. LN-144 is currently the only approved TIL therapy for solid tumors and has shown over 30% objective response rate (ORR) in multiple international studies—significantly outperforming targeted drugs and immune checkpoint inhibitors, which typically yield ORRs of 10–20%.

This approval was based on the C-202 trial by Iovance, which involved multiple solid tumor types including melanoma, non-small cell lung cancer, and head and neck squamous cell carcinoma. The trial validated the therapeutic potential of standardized TIL extraction and infusion protocols for recurrent or refractory solid tumors.

 

Initial Success of Domestic TIL Projects

Many Chinese biotech firms and research centers are actively developing TIL-related therapies. The GT101 project, involving Dr. Qin Haifeng’s team, has completed Phase I trials in cervical cancer and other solid tumors, achieving an ORR of 45.4%, a notable result. These findings were presented as a poster at the 2024 ASCO Annual Meeting.

Dr. Qin’s team is now conducting upgraded TIL protocols across various cancer types and treatment stages. Some patients have even achieved complete pathological remission (pCR), showing strong clinical potential.

 

Clinical Progress in NK Cell Therapy

 

Natural Killer (NK) cells are key components of the innate immune system with the ability to recognize and eliminate tumors without antigen presentation. Due to their safety profile and treatment potential, they have garnered increasing attention in cancer immunotherapy.

NK cell therapy is already being applied in hematologic malignancies (e.g., lymphoma, leukemia) and is being actively explored in solid tumors such as:

  • Liver cancer
  • Breast cancer
  • Small cell lung cancer
  • Nasopharyngeal carcinoma
  • Ovarian cancer

However, broad application faces technical challenges:

  • Therapeutic efficacy depends heavily on NK cell activity and quantity.
  • Factors such as a patient’s physical condition, immune status, and collection quality affect outcomes.
  • Some patients’ NK cell activity is insufficient for effective treatment.

Thus, developing "universal" NK cell products—derived from healthy donors, standardized for mass production, and ready for use—has become a major research focus.

 

Clinical Case Highlights

  1. A 52-year-old female with endometrial cancer showed significant shrinkage of lymph node metastases and reduced tumor burden after receiving universal NK cell infusion.
  2. A 72-year-old male lung cancer patient with multiple lymph node metastases received NK cells combined with PD-1 inhibitor therapy. Although tumor shrinkage couldn't be directly measured due to imaging limitations, his quality of life improved significantly post-treatment without serious adverse reactions, underscoring the therapy's clinical promise.

 

Progress in CAR-NK Cell Therapy

 

CAR-NK therapy integrates CAR technology with NK cells, combining specific antigen recognition with NK cells' inherent safety and low toxicity. It represents a significant development in cell therapy.

Current CAR-NK research targets several solid tumor antigens:

  • B7-H3
  • Claudin 18.2
  • HER-2
  • TROP2

Clinical Advantages

CAR-NK therapy has demonstrated:

  • Excellent safety profile
  • Lower or controllable incidence of immune-related side effects such as:
    • Cytokine release syndrome (CRS)
    • Neurotoxicity (ICANS)
    • Graft-versus-host disease (GVHD)

These advantages are due to:

  • NK cells’ short in vivo lifespan and limited expansion.
  • No autologous infusion required, simplifying preparation and lowering costs.
  • Greater accessibility for a wider patient population.

 

Advances in Tumor Vaccine Therapy

 

Tumor vaccines aim to activate the body’s adaptive immune system by inducing or enhancing T cell recognition and attack on tumor-specific antigens to control or prevent cancer progression.

Types of tumor vaccines include:

  • DNA vaccines
  • RNA vaccines
  • Peptide vaccines
  • Dendritic cell (DC) vaccines

These have been studied in melanoma, lung cancer, ovarian cancer, and more. Some have reached Phase II/III trials, especially when combined with immune checkpoint inhibitors (e.g., PD-1/PD-L1 antibodies), showing synergistic effects and improving patient outcomes.

 

Domestic Breakthroughs in Tumor Vaccine R&D

China has also seen advances in original vaccine development. The first FDA-approved domestic mRNA tumor vaccine, LK101, integrates mRNA technology with dendritic cell delivery, and targets post-operative recurrence risk in liver cancer.

Initial studies show LK101 significantly:

  • Prolonged 2-year recurrence-free survival (RFS)
  • Improved overall survival (OS)

This suggests broad prospects for adjuvant immunotherapy after curative treatments.

 

Conclusion

Tumor cellular immunotherapy is rapidly evolving from research to clinical application, bringing real survival benefits to patients with advanced or refractory cancers. As immunotherapies continue to mature, we are entering a new stage of precise and durable tumor control.

 

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First Nationwide Prescription Issued at GoBroad! Launch of Lazertinib in Beijing Marks a New Era of Dual-Target EGFR Therapy

October 9, 2025 — Beijing: Beijing GoBroad Hospital have officially issued China’s first in-hospital prescription for Lazertinib Mesylate Tablets.

The prescription was written by Dr. Lili Qin, marking the first clinical use of this third-generation EGFR-TKI in combination with Amivantamab, which had also achieved its first nationwide hospital prescription at GoBroad earlier this year.

This milestone brings new hope for a patient with advanced non-small cell lung cancer (NSCLC) harboring an EGFR exon 19 deletion, and signifies that China's frontline treatment for EGFR-mutant NSCLC has officially entered the era of “dual-antibody + TKI” synergy—further highlighting GoBroad's leadership in the clinical translation of innovative therapies.

 

Precision Breakthrough: A New Option for Patients at a Crossroads

The treated patient had undergone lung cancer surgery two years ago but was recently found to have disease progression with multiple metastases—facing resistance to conventional therapy.

Genetic testing confirmed an EGFR exon 19 deletion, a classic sensitizing mutation, yet post-surgical metastasis demanded a stronger and more durable treatment strategy.

The multidisciplinary team (MDT) at Beijing GoBroad Hospital’s Thoracic Oncology and Tumor Immunotherapy Departments quickly convened, carefully reviewed the patient’s clinical and molecular profile, and ultimately determined a dual-target regimen combining Lazertinib and Amivantamab.

This success was no coincidence. Amivantamab had already achieved its first in-hospital prescription in China at GoBroad in May 2025, and just five months later, Lazertinib followed suit — a reflection of GoBroad’s “innovation speed” powered by a well-established mechanism for introducing novel therapies and a mature clinical application framework.

 

Evidence-Based Excellence: Redefining Survival Outcomes

“The approval of Lazertinib combined with Amivantamab represents a landmark breakthrough supported by the Phase III MARIPOSA study, setting a new treatment standard for EGFR-mutated advanced NSCLC,”— said Dr. Shasha Wang, Deputy Director of Thoracic Oncology and Tumor Immunotherapy at Beijing GoBroad Hospital.

Key clinical findings demonstrate remarkable advantages of the combination therapy:

  • Record-breaking survival benefit: Among Asian patients, this first-line regimen achieved a median overall survival (OS) of 57.7 months, extending life expectancy by more than 12 months compared to standard therapy. At 37.8 months, 56% of patients receiving the combination were still alive — 12% higher than the control group.
  • Multi-dimensional efficacy improvement: The complete response rate doubled compared with monotherapy, and the median progression-free survival (PFS) reached 23.7 months, extending to 27.5 months in Asian subgroups, reducing the risk of progression or death by 35%.

 

 Research-Driven Excellence: GoBroad Accelerating Innovation into Clinical Practice

The successful rollout of the nation's first Lazertinib in-hospital prescription once again underscores Beijing GoBroad Hospital’s strong foundation as a research-driven medical institution.

From Amivantamab to Lazertinib, from rare-disease drugs to next-generation anti-tumor therapies, GoBroad is actively translating global innovations into real-world clinical benefits—bringing cutting-edge treatments to patients faster and upholding the principle of “patient needs first.”

Looking ahead, GoBroad will continue leveraging its integrated clinical and research strengths, accelerating the translation of breakthrough therapies, and striving to bring longer survival and better quality of life to cancer patients worldwide.

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Dr. Haifeng Qin: Tarlatamab Is Reshaping SCLC Treatment as Research-Oriented Hospitals Accelerate Clinical Translation

As cancer care enters a new era defined by precision medicine, immunotherapy, and multidisciplinary collaboration, the path from drug development to clinical practice is becoming increasingly rapid. A key challenge for modern healthcare systems is how to validate clinically meaningful innovations more efficiently and translate them into safe, standardized treatment options for patients.

Research-oriented hospitals are emerging as important platforms connecting clinical needs, scientific innovation, and translational development. Their value lies not simply in conducting more research, but in building a continuous cycle in which clinical questions drive research, research findings are tested in clinical practice, and validated strategies ultimately improve patient care.

This model is particularly relevant in small cell lung cancer (SCLC). Characterized by rapid progression, a high risk of relapse, and a strong tendency to metastasize to the brain, SCLC has historically offered very limited treatment options once patients progress after first-line therapy.

In recent years, however, the discovery of DLL3 and the development of novel treatment modalities—including T-cell engagers (TCEs), antibody-drug conjugates (ADCs), and CAR-T cell therapies—have opened new therapeutic possibilities. Among them, tarlatamab, the world’s first DLL3/CD3-targeting bispecific T-cell engager, has generated substantial clinical evidence through the DeLLphi program and is helping move SCLC treatment beyond a chemotherapy-dominated paradigm toward novel immune-targeted approaches.

Against this backdrop, Dr. Haifeng Qin, Director of the Department of Thoracic Oncology & Cancer Immunotherapy at Beijing GoBroad Hospital, GoBroad Healthcare Group, shares his perspectives on the evolving SCLC treatment landscape, the clinical value of tarlatamab, and the role of research-oriented hospitals in accelerating clinical translation.

Clinical Questions Should Drive Research

Q1: How do you define the core value of a research-oriented hospital?

Clinical medicine is fundamentally practice-based. Any new therapeutic approach must ultimately generate clinical evidence before it can become part of routine patient care. The greatest value of a research-oriented hospital is therefore its ability to bridge clinical practice and scientific research rather than allowing them to operate separately.

Clinicians encounter unresolved questions every day: What should be done after standard therapy fails? Can specific patient populations benefit from a new drug? How can treatment-related adverse events be managed more effectively?

A research-oriented hospital should transform these real-world clinical challenges into research questions, test them through clinical studies, and then bring the resulting evidence back into practice. Research should therefore evolve continuously around unmet clinical needs rather than exist independently of patient care.

At the same time, the pace of innovative drug development continues to accelerate. Capabilities in early-phase clinical research, investigator-initiated trials (IITs), multidisciplinary care, molecular diagnostics, and real-world follow-up all need to be integrated within a coordinated platform. Only then can innovative treatments be evaluated more efficiently while maintaining appropriate standards of safety and clinical governance.

Beijing GoBroad Hospital is among the institutions exploring this model by strengthening collaboration among clinicians, research platforms, and biopharmaceutical innovators, enabling selected emerging therapies to enter clinical research and real-world practice more efficiently.

DLL3 Opens a New Therapeutic Window

Q2: Why has SCLC remained one of the most difficult lung cancers to treat?

SCLC is highly aggressive, progresses rapidly, and has a strong tendency to metastasize, particularly to the brain.

Over the past several decades, non-small cell lung cancer has undergone two major therapeutic transformations with targeted therapy and immune checkpoint inhibitors. Progress in SCLC has been much slower. One important reason is the absence of well-established actionable driver alterations comparable to EGFR or ALK.

Immune checkpoint inhibitors have improved outcomes for some patients, but treatment options remain limited once SCLC becomes relapsed or refractory. Identifying new therapeutic targets has therefore remained a major research priority.

The discovery of DLL3 has been particularly important. DLL3 is highly expressed in a large proportion of SCLC tumor cells while showing relatively limited expression in normal tissues, providing a strong biological rationale for targeted intervention.

A number of DLL3-directed approaches are now being explored, including TCEs, ADCs, and CAR-T therapies. Emerging targets such as B7-H3 are also under active investigation.

From this perspective, SCLC is entering a new phase in which multiple innovative mechanisms are being developed in parallel.

Tarlatamab Is Moving SCLC Beyond Chemotherapy

Q3: How do you view the significance of tarlatamab in the evolving SCLC treatment landscape?

The significance of tarlatamab goes beyond simply adding another drug. It introduces a fundamentally different therapeutic mechanism from conventional chemotherapy.

Tarlatamab is a DLL3/CD3 bispecific T-cell engager. One arm binds DLL3 on tumor cells, while the other binds CD3 on T cells, bringing T cells into close proximity with tumor cells and activating an antitumor immune response.

This mechanism is helping expand SCLC treatment from traditional cytotoxic therapy toward immune-targeted treatment.

In the DeLLphi-301 study, tarlatamab achieved a confirmed objective response rate (ORR) of 40% in previously treated SCLC, with a median overall survival (mOS) of 15.2 months.

The China bridging study DeLLphi-307 reported an ORR of approximately 39%, broadly consistent with the global dataset.

DeLLphi-304 subsequently moved tarlatamab into the second-line setting. Compared with standard chemotherapy, tarlatamab significantly prolonged overall survival, with median OS of 13.6 months versus 8.3 months.

Together, these studies suggest that later-line SCLC treatment is beginning to move beyond the traditional model of repeatedly switching chemotherapy regimens.

Another important finding is the intracranial antitumor activity observed with tarlatamab in patients with brain metastases. Because brain metastases are highly prevalent in SCLC, the ability of a systemic therapy to control intracranial disease is clinically meaningful. Findings from the DeLLphi program suggest that DLL3-directed treatment may broaden the therapeutic options available for this difficult-to-treat population.

Looking ahead, if ongoing studies in first-line therapy, maintenance treatment, and limited-stage SCLC continue to generate positive results, the potential role of tarlatamab may extend beyond relapsed disease and become part of broader disease management across the SCLC treatment continuum.

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From “Having a Drug” to “Using It Well”

Q4: What new requirements do innovative therapies place on clinicians and treatment centers?

Approval of a new drug does not mean that clinical translation is complete.

In real-world practice, patients are often more complex than those enrolled in clinical trials. Some have received multiple prior lines of therapy, while others have impaired pulmonary function, interstitial lung disease, or other comorbidities. Many may also present with brain metastases or extensive multi-organ disease.

The clinical question therefore shifts from “Do we have a new treatment?” to “Which patients are suitable for it, when should it be used, and how should treatment-related risks be managed?”

For T-cell engagers, cytokine release syndrome (CRS) and immune effector cell-associated neurotoxicity syndrome (ICANS) are important safety considerations.

Their presence does not mean that the treatment cannot be used. Rather, they require treatment centers to establish structured management systems covering pretreatment risk assessment, monitoring during administration, early recognition and grading of adverse events, and timely multidisciplinary support from critical care, neurology, pharmacy, and other relevant specialties.

The team at Beijing GoBroad Hospital has accumulated real-world experience with tarlatamab. One key observation is that, with standardized risk assessment and management pathways in place, many patients can complete treatment safely and successfully.

The clinical adoption of innovative therapies therefore tests not only the physician’s understanding of a drug, but also the organizational capacity of the entire healthcare system.

From Short-Term Control to Long-Term Management

Q5: As new therapies emerge, how might the overall treatment philosophy for SCLC change?

Historically, when treating relapsed SCLC, the primary goals were to delay disease progression and relieve symptoms. In many cases, treatment remained focused on short-term disease control.

That is beginning to change.

New therapies, including tarlatamab, are enabling some patients to achieve deeper and more durable responses. As additional agents and combination strategies enter clinical practice, SCLC may evolve toward a more complex model of sequential treatment.

This means clinicians will need to move beyond selecting therapy primarily according to treatment line. Treatment decisions will increasingly need to consider molecular characteristics, prior therapies, brain metastases, disease burden, performance status, and the mechanisms of different therapeutic agents.

The longer-term goal is to transform SCLC from a disease with very limited options and rapid progression after relapse into one that can increasingly be managed over time using multiple treatment modalities.

It is still premature to describe SCLC as a chronic disease, and much more evidence will be required. Nevertheless, the direction of treatment is clearly shifting toward longer survival and a greater proportion of patients achieving durable clinical benefit.

Research-Oriented Hospitals as Clinical Translation Hubs

Q6: What role will research-oriented hospitals play in this new treatment era?

The pace of anticancer drug development will only continue to accelerate.

Basic research is identifying new targets, industry is developing new therapeutics, and clinicians are asking increasingly complex questions about combinations, sequencing, and patient selection. Without effective connections between these areas, valuable innovations may take a long time to reach clinical practice.

Research-oriented hospitals therefore function as clinical translation hubs.

On one side, they connect basic science, drug development, and biopharmaceutical innovation. On the other, they connect clinicians and patients. Through early-phase trials, IITs, real-world studies, and long-term follow-up, they can help determine more efficiently whether a therapeutic strategy has genuine clinical value.

Importantly, the goal of a research-oriented hospital is not simply to use new drugs faster. It must answer three fundamental questions: Which patients are most likely to benefit? How can a therapy be used to achieve the best possible outcomes? And how can treatment be delivered safely and consistently?

That is the real meaning of clinical translation.

A growing number of institutions in China, including Beijing GoBroad Hospital, are exploring research-oriented hospital models. As clinical research infrastructure, ethics systems, multidisciplinary collaboration, and translational medicine platforms continue to mature, this model may further shorten the distance between scientific innovation and clinical care.

Conclusion

SCLC is undergoing one of the most important treatment transitions seen in recent years.

The emergence of DLL3 and other novel targets, together with the development of TCEs, ADCs, and cellular therapies, is moving a disease long characterized by limited treatment options into an era of mechanism-driven therapeutic innovation. Tarlatamab, as a representative DLL3-directed T-cell engager, has demonstrated that innovative immunotherapy can deliver clinically meaningful survival benefits in relapsed SCLC and is now being explored in earlier stages of treatment.

Yet innovative drugs represent only one part of therapeutic progress.

The ability to identify truly valuable treatment strategies through high-quality clinical research, establish standardized adverse-event management pathways, and convert real-world clinical questions back into new research priorities will ultimately determine whether innovation translates into meaningful patient benefit.

From this perspective, the core value of a research-oriented hospital lies not in the number of innovative projects it conducts, but in its ability to build a sustainable cycle linking clinical needs, scientific research, clinical validation, and improvements in care.

As this model continues to mature, the treatment of difficult cancers such as SCLC may increasingly move beyond isolated therapeutic breakthroughs toward more systematic, continuous, and long-term disease management.

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