预约演示

更新于：2025-05-28

Paclitaxel

紫杉醇

更新于：2025-05-28

概要

基本信息

药物类型

小分子化药

别名

EmPAC、LDE-paclitaxel、NanoPac

+ [69]

靶点

Tubulin

作用方式

抑制剂

作用机制

微管蛋白抑制剂

治疗领域

肿瘤免疫系统疾病感染+ [12]

在研适应症

晚期胃癌转移性胰腺腺癌转移性乳腺癌+ [239]

非在研适应症

异戊酸血症急性淋巴细胞白血病前列腺腺癌+ [178]

原研机构

National Institutes of Health

在研机构

Alliance Foundation Trials LLC

National Cancer Institute

杏辉药品工业股份有限公司

+ [55]

非在研机构

University of Washington

Pfizer Inc.National Institutes of Health Clinical Center

+ [42]

权益机构

深圳市康哲药业有限公司

沈阳三生制药有限责任公司

Hanmi Pharmaceutical Co., Ltd.

+ [26]

最高研发阶段批准上市

首次获批日期

美国 (1992-12-29),

艾滋病相关性卡波西肉瘤乳腺癌卵巢癌

最高研发阶段(中国)批准上市

特殊审评孤儿药 (美国)、孤儿药 (欧盟)、优先审评 (中国)

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结构/序列

分子式C47H51NO14

InChIKeyRCINICONZNJXQF-MZXODVADSA-N

CAS号33069-62-4

关联

3,125

项与紫杉醇相关的临床试验

NCT06543576

/ Not yet recruiting临床1/2期IIT

A Prospective Cohort Study of Integrating Radiotherapy Into Chemotherapy With Pembrolizumab and Bevacizumab in Newly Diagnosed Stage IVB Cervical Cancer

This phase I/II trial tests the safety and effectiveness of receiving external beam radiation therapy (EBRT) and brachytherapy along with chemotherapy, consisting of cisplatin and paclitaxel, and immunotherapy, consisting of bevacizumab and pembrolizumab, for the treatment of patients with stage IVB cervical cancer. EBRT is type of radiation therapy that uses a machine to aim high-energy rays at the cancer from outside of the body. Brachytherapy, also known as internal radiation therapy, uses radioactive material placed directly into or near a tumor to kill tumor cells. Cisplatin is in a class of medications known as platinum-containing compounds. It works by killing, stopping or slowing the growth of tumor cells. Paclitaxel is in a class of medications called antimicrotubule agents. It stops tumor cells from growing and dividing and may kill them. Bevacizumab is in a class of medications called antiangiogenic agents. It works by stopping the formation of blood vessels that bring oxygen and nutrients to tumor. This may slow the growth and spread of tumor. A monoclonal antibody, such as pembrolizumab, is a type of protein that can bind to certain targets in the body, such as molecules that cause the body to make an immune response (antigens). Giving EBRT and brachytherapy along with chemotherapy and immunotherapy may be a safe and effective way to treat patients with stage IVB cervical cancer.

开始日期2026-01-31

申办/合作机构

Jonsson Comprehensive Cancer Center

[+1]

NCT06393751

/ Not yet recruiting临床1/2期IIT

A Randomized Phase 1/2 Trial Evaluating the Addition of Tolinapant to Weekly Paclitaxel With or Without Bevacizumab in Patients With Recurrent Epithelial Ovarian Cancer

This phase I/II trial tests the safety, best dose and effectiveness of adding tolinapant (ASTX660) to paclitaxel with or without bevacizumab in treating patients with ovarian cancer that has come back after a period of improvement (recurrent). Tolinapant may stop the growth of tumor cells by blocking proteins, such as XIAP and cIAP1, that promote the growth of tumor cells and increase resistance to chemotherapy. Paclitaxel is in a class of medications called antimicrotubule agents. It stops tumor cells from growing and dividing and may kill them. Bevacizumab is in a class of medications called antiangiogenic agents. It works by stopping the formation of blood vessels that bring oxygen and nutrients to the tumor. This may slow the growth and spread of tumor cells. Adding ASTX660 to paclitaxel with or without bevacizumab may be safe, tolerable and/or effective in treating patients with recurrent ovarian cancer.

开始日期2025-10-31

申办/合作机构

National Cancer Institute

NCT06675136

/ Not yet recruiting临床1期IIT

Phase 1 Trial of Nab-Paclitaxel PIPAC (Pressurized Intraperitoneal Aerosolized Chemotherapy) Given in Combination With Second-Line Therapy for Gastric Cancer With Peritoneal Metastases

This phase I trial tests the safety, side effects and best dose of nab-paclitaxel pressurized intraperitoneal aerosolized chemotherapy (PIPAC) in combination with second-line chemotherapy, paclitaxel and ramucirumab, and tests how well they work in treating stomach cancer that has spread from where it first started to the tissue that lines the abdominal wall and organs (peritoneal metastases). Paclitaxel is in a class of medications called antimicrotubule agents. It stops tumor cells from growing and dividing and may kill them. Nab-paclitaxel is an albumin-stabilized nanoparticle formulation of paclitaxel which may have fewer side effects and work better than other forms of paclitaxel. PIPAC delivers chemotherapy, such as nab-paclitaxel, that has been turned into a fine mist (aerosolized) at a high pressure directly into the abdominal cavity. Aerosolized chemotherapy delivered directly into the peritoneal space has been shown to deliver higher drug concentrations to the tumor. Ramucirumab is a monoclonal antibody that may prevent the growth of new blood vessels that tumors need to grow. Giving nab-paclitaxel PIPAC in combination with paclitaxel and ramucirumab may be safe, tolerable, and/or effective in treating gastric cancer patients with peritoneal metastases.

开始日期2025-10-17

申办/合作机构

City of Hope National Medical Center

[+1]

100 项与紫杉醇相关的临床结果

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100 项与紫杉醇相关的转化医学

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100 项与紫杉醇相关的专利（医药）

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67,779

项与紫杉醇相关的文献（医药）

2025-12-31·JOURNAL OF ENZYME INHIBITION AND MEDICINAL CHEMISTRY

Selisistat, a SIRT1 inhibitor, enhances paclitaxel activity in luminal and triple-negative breast cancer: in silico, in vitro, and in vivo studies

Article

作者: Bartuzi, Damian ; Stepulak, Andrzej ; Kalafut, Joanna ; Okon, Estera ; Wawruszak, Anna ; Czerwonka, Arkadiusz ; Luszczki, Jarogniew

Sirtuins (SIRTs) are NAD+-dependent histone deacetylases, which play a key role in cancer progression; however, their prognostic values in breast cancer (BC) remain a subject of debate and controversy. Accumulative evidence suggests that each sirtuin possesses individual character, implicating its role in the regulation of multifaceted biological functions leading to BC initiation, progression and metastasis. Selisistat (EX527) is a potent, cell permeable, highly selective SIRT1 inhibitor. In the study, the tumour-suppressive effects of the SIRT1 inhibitor EX527 (selisistat) alone and in combination with paclitaxel (PAX) in different breast cancer cell lines and zebrafish xenograft models were investigated. The type of pharmacological drug-drug interaction between EX527 and PAX was determined using the isobolographic method. EX527 and PAX used individually inhibited proliferation, induced apoptosis and caused cell cycle arrest in G1 and subG1/G2 phases. Interestingly, the combination of these compounds used in the 1:1 dose-ratio augmented all these effects (IC_50add 29.52 ± 3.29 - 38.45 ± 5.26). The co-treatment of EX527 with PAX generated desirable additive drug-drug interaction. The simultaneous application of EX527 and PAX induced a stronger inhibition of tumour growth compared to individual treatments in zebrafish xenografts. In silico analysis revealed a protein-protein interaction pathway (SIRT1-AKT-S1PR1-GNAI1/GNAO1-Tubulin) connecting molecular targets of both ligands. To summarise, the combination of EX527 and PAX more effectively impairs breast cancer cell growth compared to individual treatments. However, further investigations are required to clarify the specific targets and molecular mechanisms underlying the activity of EX527:PAX in other preclinical models.

2025-12-31·JOURNAL OF MEDICAL ECONOMICS

Cost-efficiency and expanded access modeling of conversion to biosimilar bevacizumab in metastatic colorectal and non-squamous non-small cell lung cancer in Medicare

Article

作者: Bernauer, Mark ; Roth, Joshua A. ; Dorman, Stephanie ; Kratochvil, David

BACKGROUND:

Biosimilars to originator bevacizumab (Avastin), such as bevacizumab-bvzr (Zirabev), can deliver substantial savings and/or expanded access to biologic therapy for patients with metastatic colorectal (mCRC) and non-squamous non-small cell lung cancer (mNSCLC). The objective of this study is to explore the cost-efficiency and budget-neutral expanded access of bevacizumab-bvzr in mCRC and mNSCLC in Medicare.

METHODS:

We developed a Medicare payer perspective simulation model of patients treated for mCRC and mNSCLC to estimate cost-savings from converting bevacizumab (originator) to bevacizumab-bvzr or alternative biosimilars such as bevacizumab-awwb, -maly, and -abcd. The target patient population receiving annual first-line systemic therapy was calculated using Medicare enrollment data, SEER cancer incidence rates in patients age ≥65, and an assumption that 39.3% and 77.2% of new diagnoses receive systemic therapy for mCRC and mNSCLC respectively based on recent evidence. 76.0% of systemically treated mCRC patients and 11.4% of incident mNSCLC patients were expected to be treated with bevacizumab-based regimens based on recent evidence. Costs were derived from the 2024 Average Sales Price (ASP). Results include per-patient per-month (PPPM) cost savings (vs. originator), total monthly savings in the cohort, and number needed to convert (NNC) to biosimilar to fund the treatment of an additional 100 patients.

RESULTS:

PPPM savings from conversion to bevacizumab-bvzr were $4,205 in mCRC and $8,410 in mNSCLC. In 100% conversion scenarios, full cohort monthly savings were $27,664,432 in mCRC (n = 6,579) and $32,319,323 in mNSCLC (n = 3,843), respectively. At 100% conversion, monthly savings from biosimilar conversion could fund up to 13,887 additional mCRC patient-months of treatment with bevacizumab-bvzr + FOLFOX, and up to 8,959 additional mNSCLC patient-months of treatment with bevacizumab-bvzr + paclitaxel + carboplatin. In mCRC and mNSCLC the biosimilar NNC from the originator was 47 and 43, respectively. The biosimilar NNC from other biosimilars ranged from 60-4,564 and 55-4,422 for mCRC and NSCLC, respectively.

CONCLUSION:

In the first cost-efficiency and expanded access study of biosimilar bevacizumab in mCRC and mNSCLC, we find that bevacizumab-bvzr-based regimens can result in substantial cost savings relative to originator-based first line treatment in Medicare. These cost savings could be reinvested to treat a substantial number of additional patients with mCRC or mNSCLC, or fund other costs of care in Medicare, on a budget-neutral basis.

2025-12-31·mAbs

Successful targeting of multidrug-resistant tumors with bispecific antibodies

Article

作者: Tan, Cindy ; Abuhay, Mastewal ; Morgan, Jessica ; Zhai, Qianting ; Misker, Hiwot ; Zhang, Pingping ; Briante, Raffaella ; Wang, Willie ; Arathoon, Robert ; O'Connor, Alissa ; Mohanty, Suchismita ; Theolis, Richard ; Ponath, Paul

Multidrug resistance (MDR) hinders efficacious cancer chemotherapy. Overexpression of the P-glycoprotein (P-gp) efflux pump (EP) on cancer cells is a primary cause of MDR since it expels numerous anticancer drugs. Small molecule intracellular P-gp antagonists have been investigated clinically to redress MDR but have failed primarily due to adverse effects on P-gp in normal tissue. We used a new approach to counteract P-gp with bispecific antibodies (BsAbs) that simultaneously bound P-gp and CD47 in cis on MDR cells but not normal tissue. Affinities of the individual arms of the BsAbs were low enough to minimize normal tissue binding, but, when the two targets were co-located on MDR cancer cells, both arms of the BsAb engaged with effective avidity. Proof-of-concept was shown in three different MDR xenograft tumor models with a non-humanized chimeric BsAb (targeting P-gp and CD47) that potently restored tumor sensitivity to paclitaxel. Fully humanized variants were successfully developed and characterized. Significant anti-tumor efficacy was observed with the BsAbs both when combined with paclitaxel and as single agents in the absence of paclitaxel. Treatment of MDR cancers with BsAbs using this novel approach has several distinct advantages over prior efforts with small molecule antagonists, including 1) invoking a direct immune attack on the tumors, 2) multimodal mechanisms of action, 3) tumor-specific targeting (with reduced toxicity to normal tissue), and 4) broad applicability as single agents and compatibility with other therapeutics.

2,972

项与紫杉醇相关的新闻（医药）

23 小时之前

·正大天晴药业集团

破解胰腺癌免疫逃逸！正大天晴PD-1/TGF-β双功能融合蛋白联合疗法Ⅱ期数据亮相ASCO

2025年美国临床肿瘤学会（ASCO）大会上，正大天晴正式披露1类创新药——TQB2868（PD-1/TGF-β双功能融合蛋白）联合方案一线治疗mPDAC的Ⅱ期临床研究（TQB2868-ALTN-Ⅱ-01）初步数据。“免疫+靶向+化疗”三重机制的联合疗法在胰腺癌领域取得了令人振奋的临床疗效，并为其他“免疫冷肿瘤”的治疗提供了可借鉴的创新范式。五年生存率不足10%，标准化疗方案陷瓶颈在全球肿瘤治疗领域，胰腺癌是公认恶性程度最高的肿瘤之一，因极低的五年生存率（不足10%）和迅猛的疾病进展被称为“癌中之王”。对于占确诊患者80%以上的转移性胰腺癌（mPDAC）而言，吉西他滨+白蛋白结合型紫杉醇（AG）的系统性化疗仍是当前一线标准治疗方案，但其中位总生存期（mOS）始终难以突破1年[1-3]，临床亟需新的治疗方案。近年来，免疫治疗在非小细胞肺癌、黑色素瘤等多个癌种中展现出革命性突破，但单一的免疫检查点抑制剂（ICI）对胰腺癌并没有起到良好的抗肿瘤作用，这可能与胰腺癌独特的肿瘤微环境（TME）有关[4]。研究显示，胰腺癌微环境中存在致密的基质成分，并有广泛的免疫抑制细胞浸润，会抑制肿瘤细胞的免疫应答，造成免疫逃逸，从而影响免疫治疗效果[5-7]。胰腺癌因此被认为是一种免疫学上的“冷肿瘤”。免疫+靶向+化疗，三重机制破冰“冷肿瘤”TQB2868为正大天晴自主研发的PD-1/TGF-β双功能融合蛋白，联合盐酸安罗替尼与AG化疗，形成独特的“免疫-靶向-化疗”三重协同机制，直击胰腺癌“冷肿瘤”特性，为破解免疫逃逸提供了全新路径：●TQB2868通过阻断PD-1与其配体PD-L1之间的结合，解除肿瘤细胞对T细胞的抑制作用，从而激活T细胞对肿瘤的攻击；●TGF-β可抑制机体的免疫功能, 帮助肿瘤细胞免疫逃逸，TQB2868通过中和TGF-β信号可逆转肿瘤细胞免疫逃逸；●联合方案中，安罗替尼具有抑制肿瘤血管新生、抑制肿瘤生长、调控免疫微环境的作用；●AG化疗直接杀伤肿瘤细胞并释放抗原，增强免疫应答。6个月PFS率86%，中位OS或将突破一年TQB2868-ALTN-Ⅱ-01研究是一项评估TQB2868注射液联合安罗替尼与化疗（AG方案）一线治疗mPDAC的有效性和安全性的Ⅱ期临床研究。截至2025年1月，该研究已入组40例，均为IV期转移性胰腺癌患者，其中36例可评估，初步数据[8]显示：●客观缓解率（ORR）达63.9%，为AG化疗方案历史数据（23%-36%）[1-3]的2-3倍；●疾病控制率（DCR）达100%，是AG化疗方案（62.3%）的1.6倍；●中位无进展生存期（mPFS）尚未达到，6个月PFS率达86%，是AG化疗方案（43.2%）的2倍；●中位生存期（mOS）尚未达到，预期有望超过1年；●安全耐受性良好，3级及以上不良反应发生率为52.5%（AG化疗方案为68.1%-77%）。基于Ⅱ期临床优异的探索数据，公司正与监管部门沟通关键注册Ⅲ期研究。该疗法有望成为免疫检查点抑制剂在胰腺癌的首个一线治疗方案，为胰腺癌患者的总生存期、生活质量带来根本性改善。我们非常欣喜地看到，这一创新疗法在转移性胰腺癌领域取得了令人振奋的临床表现。TQB2868通过特异性阻断TGF-β信号通路，首次在临床研究中证实可有效逆转胰腺癌的免疫荒漠状态，为破解“冷肿瘤”免疫抵抗提供了直接证据；TQB2868 联合方案开启“免疫 + 靶向 + 化疗”三重机制新时代，通过三重作用模式，实现了免疫激活、血管重塑与肿瘤杀伤的多靶点协同，有望建立胰腺癌一线治疗中首个免疫联合治疗标准方案。期待TQB2868联合方案有机会启动全球多中心注册Ⅲ期临床研究，以“中国原创方案”重塑全球胰腺癌治疗格局。此外，该研究为前列腺癌等其他“冷肿瘤”的免疫治疗开发提供了可借鉴的创新范式，展现了联合机制探索在攻克难治性肿瘤中的关键价值。这项研究不仅是为“癌中之王”摘帽的重要探索，而且将为更多免疫“冷肿瘤”的治疗提供借鉴。参考文献：[1] D, El-Maraghi RH, Hammel P, et al. nab-Paclitaxel plus gemcitabine for metastatic pancreatic cancer: long-term survival from a phase III trial. J Natl Cancer Inst.2015;107(2): dju413.[2] Conroy T, Desseigne F, Ychou M, et al. FOLFIRINOX versus gemcitabine for metastatic pancreatic cancer. N Engl J Med. 2011;364(19):1817-25.[3] Wainberg ZA, Melisi D, Macarulla T, et al. NALIRIFOX versus nab-paclitaxel and gemcitabine in treatment-naive patients with metastatic pancreatic ductal adenocarcinoma (NAPOLI 3): a randomised, open-label, phase 3 trial. Lancet. 2023 Oct 7;402(10409):1272-81.[4] Balachandran VP, Luksza M, Zhao JN, et al. Identification of unique neoantigen qualities in long-term survivors of pancreatic cancer[J].Nature, 2017, 551(7681): 512-516.[5] Skelton RA, Javed A, Zheng L, et al. Overcoming the resistance of pancreatic cancer to immune checkpoint inhibitors [J]. J Surg Oncol, 2017, 116(1): 55-62. [6] Amedei A, Niccolai E, Prisco D. Pancreatic cancer: role of the immune system in cancer progression and vaccine-based immunotherapy [J]. Hum Vaccin Immunother, 2014, 10(11): 3354-3368. [7] Steele CW, Karim SA, Leach JDG, et al. CXCR2 Inhibition Profoundly Suppresses Metastases and Augments immunotherapy in Pancreatic Ductal Adenocarcinoma [J]. Cancer Cell, 2016, 29(6): 832-845.[8] Si Shi, Xianjun Yu,Xiaobing Chen, et al. TQB2868 combined with anlotinib and nab-paclitaxel plus gemcitabine as first-line treatment for metastatic pancreatic cancer: A prospective, multicenter, single-arm, phase 2 study.2025 ASCO(#4159).▲ 上下滑动查看更多声明：1.新闻稿旨在促进医药信息的沟通和交流，仅供医疗卫生专业人士参阅，非广告用途。2.本公司不对任何药品和/或适应症作推荐。3.本新闻稿中涉及的信息仅供参考，不能以任何方式取代专业的医疗指导，也不应被视为诊疗建议。若您想了解具体疾病诊疗信息，请遵从医生或其他医疗卫生专业人士的意见或指导。

ASCO会议免疫疗法临床2期临床结果临床1期

23 小时之前

·PMLiVE

Merck shares promising phase 3 results for Keytruda in ovarian cancer

Merck & Co – known as MSD outside the US and Canada – has shared promising results from a late-stage study of its anti-PD-1 therapy Keytruda (pembrolizumab) in ovarian cancer. The phase 3 KEYNOTE-B96 trial has been evaluating the drug in combination with paclitaxel chemotherapy, with or without Roche’s Avastin (bevacizumab), in patients with platinum-resistant recurrent ovarian cancer. The study met its primary endpoint, with the Keytruda-based regimen demonstrating a statistically significant and clinically meaningful improvement in progression-free survival regardless of PD-L1 status compared to placebo plus chemotherapy with or Avastin. The Keytruda regimen was also associated with a statistically significant and clinically meaningful improvement in overall survival, a secondary endpoint, in patients whose tumours express PD-L1 compared to the placebo cohort. Ovarian cancer, which usually begins in the fallopian tubes or on the outer surface of the ovaries, is the seventh most common cancer in women globally. Approximately 20,890 cases of the disease are expected to be diagnosed in the US this year. Keytruda works by increasing the ability of the body’s immune system to help detect and fight tumour cells. The drug already holds approvals to treat a wide range of cancers, including specific cases of breast cancer, cervical cancer, bladder cancer, biliary tract cancer, non-small cell lung cancer and renal cell carcinoma, but is not currently approved to treat ovarian cancer. Gursel Aktan, vice president, global clinical development, Merck Research Laboratories, outlined that this is the “first time a Keytruda-based regimen has shown the ability to help certain patients with platinum-resistant ovarian cancer live longer, and the first time an immune checkpoint inhibitor-based regimen has demonstrated an overall survival benefit in ovarian cancer”. “The positive results from this trial add to the growing body of evidence supporting the potential benefit of Keytruda across gynaecological cancers, including this difficult-to-treat form of ovarian cancer for which patients are in need of new options,” he added. Results from KEYNOTE-B96, which is being conducted in collaboration with the European Network for Gynecologic Oncology Trial groups, will be presented at an upcoming medical meeting and shared with regulatory authorities globally, Merck said.

临床3期临床结果ASCO会议

23 小时之前

·三优生物医药

三优生物智能超万亿分子发现平台六类分子形式之单域抗体产生系统解决方案

作者：巫嘉美闫鑫甜美工：何国红罗真真排版：马超01 背景在三优生物超万亿分子发现平台中，单域抗体产生平台占据重要地位。单域抗体最初发现于骆驼科动物（如羊驼、单峰驼）及软骨鱼类（如鲨鱼、鳐鱼），其显著特征是天然缺失轻链，仅由重链构成。作为新一代抗体药物的代表，单域抗体分子量小、稳定性高、抗原亲和力强，已在全球范围内广泛应用于免疫治疗、肿瘤治疗、抗病毒治疗等领域。为加速优质单域抗体的开发进程，三优生物隆重推出磁阵列羊驼免疫抗体发现平台、万亿级人源化单域抗体发现平台、千亿级高等电点单域抗体发现平台等三大平台，为单域抗体的创新研发提供全方位支持。02 文库组成三优智能超万亿单域库主要由三大文库组成。2016年三优生物推出磁阵列羊驼免疫抗体库，可选择多种品系驼科动物进行免疫，并辅以多样化的免疫方案和佐剂，先导抗体数量通常可达数十至上百。2022年三优生物推出万亿级人源化单域抗体库，采用人源化程度高达98%的骨架，融合国际先进的引物合成技术进行文库构建，并同时设计分别含有一对和两对半胱氨酸的子库，匹配不同场景的应用，先导分子通常可达数百。2025年三优生物推出千亿级高等电点单域抗体库，引入AI驱动的引物设计，精准控制等电点在8.0-9.0之间，并剔除了翻译后修饰位点，提高抗体在体内的稳定性，减少非特异性结合。三优智能超万亿单域抗体发现平台覆盖不同类型的单域抗体库，为单域抗体开发提供系统的全流程解决方案（如表1所示）。▼ 表1. 智能超万亿单域库三大文库03 磁阵列羊驼免疫抗体发现平台01平台概览三优磁阵列(MIT)羊驼免疫抗体发现平台整合了“阵列化羊驼免疫、阵列化噬菌体抗体库构建、磁珠高通量筛选、CHO真核细胞重组表达”四种技术，并匹配了全面的理化及生化分析进行筛选，仅需6-8周（从羊驼免疫结束开始）即可获得特异性好、亲和力高、序列明确、并经真核表达验证的羊驼单克隆抗体。02平台经验三优生物通过十年的积累，已完成559个羊驼免疫库的构建（如图1所示），累计库容达到2.93千亿，并完成了223个项目的筛选，靶点类型覆盖单次跨膜、多次跨膜、GPCR类、因子类、病毒类和胞内靶点。如表2所示，目前通过三优磁阵列羊驼免疫抗体发现平台获得的优选分子，已经有5例获得IND批件，其中4例正在进行临床Ⅰ期实验。▲ 图1. 羊驼免疫库建库数量统计▼ 表2. 三优生物IND获批单域抗体清单03服务特性▶ 特性一：磁阵列免疫、建库及筛选体系三优生物磁阵列羊驼免疫抗体发现平台集阵列化抗原、阵列化佐剂、阵列化建库、阵列化筛选、阵列化表达于一体（如图2所示）。阵列化抗原即针对不同类型的靶点，选择适合的免疫原及多样化的免疫策略，如蛋白、细胞、VLP、膜蛋白、mRNA或灭活疫苗等；阵列化佐剂包括弗氏佐剂、铝佐剂、寡核苷酸佐剂、Bol佐剂或FastAb佐剂等；阵列化建库通过设计阵列化的引物进行自动化文库构建，进一步保证文库的多样性；阵列化筛选通过多样化海选方案，如：固相海选、液相海选、细胞海选、固相液相交叉、蛋白细胞交叉、竞争海选等，基于一站式高通量自动化筛选系统，保证获得数十多样性高亲和力高的先导分子；阵列化表达通过96孔板进行高通量表达，并对真核表达蛋白进行系统的成药性分析。▲ 图2. 多样化免疫与海选方案 ▶ 特性二：先导抗体数量通常可达数十个通过三优MIT羊驼单克隆抗体定制服务筛选获得的单域抗体先导分子数量较多。如图3所示，通过10个靶点对MIT羊驼库进行验证，共获得475个具有独特序列的抗体克隆，克隆数中值为38个。▲ 图3. 项目的抗体数量统计▶ 特性三：羊驼免疫后血清学效价高图4展示的是免疫后羊驼血清学效价的数据。如图所示，该项目1只羊驼（A）免疫后的IgG血清学效价约为364万，血清效价高。▲ 图4. 羊驼血清效价检测▶ 特性四：羊驼免疫库建库质控标准高表3展示的是三优羊驼免疫抗体库构建质控理论指标和某单域库实际质控参数。如表3所示，8项质控参数均优秀达标，具有免疫效价高，库容大，空载体占比、终止子占比极低，抗体正确表达率和独特序列克隆率近100%的特点。▼ 表3. 项目的理论指标与实际指数▶ 特性五：先导抗体亲和力高通过三优MIT羊驼单克隆抗体定制服务筛选获得的单域抗体候选分子亲和力高，可达nM-pM水平。对所得单域抗体克隆构建全长IgG后的亲和力测定情况如下所示。图5展示了采用ELISA分析抗体与抗原蛋白结合活性的一个项目案例，由图可知，该项目获得多个亲和力与对照抗体相当或显著优于对照抗体的分子。图6展示了采用FACS分析抗体与细胞表面蛋白结合活性的项目案例，由图可知，全部先导抗体分子均展现了良好的细胞水平的结合活性。▲ 图5. ELISA分析抗体与抗原蛋白活性检测▲ 图6. FACS分析抗体与细胞表面蛋白活性检测代表案例：抗HER2/PD-L1/VEGF三抗开发01靶点背景HER2属于RTK类中HER家族一员，通过自身二聚化或和其它HER家族成员二聚化激活胞内信号通路，促进细胞的增殖，导致肿瘤细胞恶性程度增加。VEGF为血管生成关键调控因子，当VEGF表达上调会引起血管异常增生，因此，VEGF是存在病理性血管生成相关疾病的重要药物靶点。PD-L1是免疫检查点PD-1的配体，两者的结合能够促进T细胞的凋亡，抑制T细胞的抗肿瘤活性，多种肿瘤通过表达PD-L1来逃避免疫系统的监视。临床数据显示，靶向HER2、PD-1/PD-L1或VEGF的单抗联用具有协同抗肿瘤效应，能够延长肿瘤患者无进展生存期和总体生存且相比单抗未出现新的不良反应信号。目前已有靶向HER2/PD-1，HER2/PD-L1、HER2/VEGF，PD-1/VEGF的双抗处于临床或临床前研究阶段，其中康方生物开发的靶向PD-1/VEGF双抗AK112已表现出积极的临床药效，AK112联合化疗在NSCLC中的ORR为53.8%，DCR为100%。基于已有临床数据的协同效应，三优生物开发了靶向HER2、PD-L1和VEGF的三特异性抗体，该三抗集ADCC、肿瘤细胞增殖抑制、血管生成抑制和免疫检查点阻断多种抗肿瘤机制于一体，具有良好的体内外抗肿瘤活性（如图7所示）。▲ 图7. 针对HER2/PD-L1/VEGF的三特异性抗体的机制02三特异性抗体构型利用三优超万亿抗体平台筛选的PD-L1、VEGF单域抗体与已披露专利的HER2抗体构建成对称型三特异性抗体（如图8所示）。项目处于PCC阶段，为全球第一个针对P、H和V靶点三靶点的三特异性抗体，主要适应症为H+实体瘤。▲ 图8.三特异性抗体的分子构型03P/H/V 三特异性抗体关键结果A 细胞水平的结合、阻断分析：采用FACS分析候选抗体与细胞的亲和力及阻断测定结果。图9展示了候选抗体的亲和力水平与HER2和PD-L1对照抗体相当。利用荧光报告系统检测候选抗体在细胞水平的阻断，结果如图10所示，候选抗体的阻断水平与VEGF和PD-L1的对照抗体相当。▲ 图9.通过FACS进行结合亲和力测定▲ 图10. 通过FACS进行阻断活性测定B 体外药效验证：候选抗体可以通过ADCC对靶细胞进行杀伤，如图11所示，候选三抗TsAb1对SK-BR-3细胞的ADCC杀伤效果与对照抗体相当。如图12所示，候选抗体可有效抑制HUVEC细胞的增殖，效果与对照抗体相当。▲ 图11. SKBR-3细胞上的ADCC检测▲ 图12. 人内皮细胞增殖抑制C 体内药效验证：在PBMC免疫重建的某荷瘤NCG小鼠模型中，靶向P/H/V的三特异性抗体TsAb1具有比已上市靶向H单抗X1、靶向P单抗X2和靶向V单抗X3单药以及X1与X2联用和X2与X3联用更为显著的体内抗肿瘤活性。如图13所示，给药结束时，高低剂量的三抗治疗所产生的肿瘤抑制率分别为81.56%和67.34%，高于联合用药组和单抗治疗组。▲ 图13. 肿瘤生长抑制04 万亿级人源化单域抗体发现平台01平台概览单域抗体的人源化可以大幅降低驼源抗体的免疫原性，加速抗体药物的生产上市。为了克服传统单域抗体制备技术的制备周期长、筛选工作量大、候选抗体数量少的缺陷，三优隆重推出人源化程度高达98%的万亿级人源化单域抗体库。该文库共包含16个子库，总库容达到了4.07万亿，平均每个子库的库容为2.54千亿。万亿级人源化单域抗体库分为2C型单域抗体库和4C型单域抗体库，2C型单域抗体库CDR3长度覆盖12-19个氨基酸，4C型单域抗体库CDR3长度覆盖14-21个氨基酸（如表4所示）。▼ 表4. 万亿级人源化单域抗体库相关统计02平台经验三优万亿级人源化单域抗体发现平台，采用国际先进的引物合成技术以及具有较好成药性的人源化骨架构建而成，拥有独立知识产权，并匹配了全面的理化及生化分析进行筛选。仅需5-6周即可获得特异性好、亲和力高、序列明确并经真核表达验证的人源化单克隆抗体，人源化程度高达98%。如图14所示，针对不同难度的靶点，单库平均可获得227个序列独特、特异性好、亲和力经验证的先导抗体克隆。▲ 图14. 针对不同难度靶点获得的先导抗体克隆统计03服务特性▶ 特性一：人源化程度高三优构建的万亿人源化单域抗体库具有较高的人源化程度。通过130多个单域抗体分子的人源化项目经验积累，对单域抗体的骨架区（FR区）进行人源化改造，可以获得人源化程度高达98%的单域抗体，从而提高抗体的成药性（如图15所示）。▲ 图15. 人源化的单域抗体▶ 特性二：先导抗体数量多通过三优万亿人源化单域抗体库子库筛选获得的单域抗体先导分子数量多。通过14个不同靶点对ST-SDAL进行筛选验证，如图16所示，共获得9423个具有独特序列的人源化抗体克隆，所得克隆数中位值是606个。▲ 图16. 项目的抗体数量统计▶ 特性三：先导抗体亲和力高通过三优万亿人源化单域抗体库子库筛选获得的单域抗体候选分子具有较好的亲和活性。所获得抗体的亲和力可以达到nM。如图17为构建全长后的分子亲和力分析，结果显示大部分抗体克隆都有较好的亲和力。▲ 图17. 分子亲和力分析统计代表案例：抗新冠Spike蛋白单域抗体开发01背景新冠病毒Spike蛋白由3个相同的单体构成，其单体由S1亚基和S2亚基组成，S1亚基结构域包括NTD和RBD，S2亚基结构域包括FP、HR1、HR2、TM和CP。新型冠状病毒通过刺突蛋白(S蛋白)与宿主细胞上的受体血管紧张素转换酶Ⅱ (angiotensin converting enzyme Ⅱ，也称为ACE2)结合，介导病毒进入宿主细胞。新冠主流变异株包括Alpha、Belta、Delta，以及Omicron，使得已获批紧急使用的大部分中和抗体已失效。因此，开发结合表位的氨基酸序列相对保守、且具有较好中和效果的抗体极为重要。全球共有17个新冠相关的治疗型抗体上市或处于临床后期。阿斯利康（AstraZeneca）长效新冠病毒中和抗体Evusheld（AZD7442）已获美国FDA紧急使用授权（EUA）。Evusheld是两种长效单克隆抗体的组合新冠肺炎抗体（150 mg tixagevimab和150 mg cilgavimab）。我国首个具有自主知识产权的新冠中和抗体联合治疗药物由腾盛华创医药技术（北京）有限公司开发，由安巴韦单抗注射液（BRII-196）和罗米司韦单抗注射液（BRII-198）组成。RBD特异性的单抗能够结合Spike蛋白上RBD结构域里的RBM基序（receptor-binding motif）。RBM负责病毒与宿主细胞ACE2的初步结合，起始病毒进入细胞。RBD特异性单抗可以阻断RBM—ACE2的相互作用，是ACE2的阻断剂。02抗Spike抗体关键结果A 亲和活性检测：通过ELISA检测候选抗体与SARS-CoV-2突变株Omicorn S蛋白的结合活性。亲和活性实验结果如图18所示，候选抗体S1D-Ab-092和SID-Ab-102与SARS-CoV-2突变株Omicorn S蛋白的结合活性与对照抗体相当。▲ 图18. 抗体亲和力检测B 阻断活性分析：采用ELISA方法检测候选抗体对SARS-CoV-2 S蛋白与受体ACE2结合的阻断活性。结果如图19所示。候选抗体S1D-Ab-092和S1D-Ab-102都能有效阻断SARS-CoV-2 S蛋白与受体ACE2的结合。▲ 图19. 抗体阻断试验C 假病毒中和：通过荧光素酶报告系统检测S1D-Ab-102和对照抗体Sotrovimab中和Omicron假病毒的活性，结果如图20所示，S1D-Ab-102中和的IC50值与阳性对照相当，但完全抑制率优于阳性对照。▲ 图20. 假病毒中和05 千亿级高等电点单域抗体发现平台01平台概览三优千亿级高等点单域抗体库，采用先进的AI引物设计技术，在精准维持高等电点的同时，剔除了翻译后修饰位点，显著提高了单域抗体的成药性，加速了单域抗体药物的开发进程（如图21所示）。该文库库容高达1.00千亿，拥有独立知识产权，并匹配了全面的理化及生化分析进行筛选。▲ 图21. 千亿级高等点单域抗体库02平台经验三优千亿级高等点单域抗体库仅需5-6周即可获得特异性好、亲和力高、序列明确并经真核表达验证的单克隆抗体。与传统单域抗体相比，千亿级高等点单域抗体库显著提高了分子等电点，排除了PTM位点，成药性大幅提升。千亿级高等点单域抗体库针对不同难度的靶点，平均可获得35个序列独特、特异性好、成药性高的先导抗体（如图22所示）。▲ 图22. 针对不同难度的靶点获得的先导抗体统计03服务特性▶ 特性一：抗体先导分子等电点高通过对人源化单域抗体库筛选测序，序列分析结果表明，等电点（pI）在8.0-9.0范围内的分子占比显著提高，如图23所示。高等电点能够改善溶解度、降低聚集倾向，并增强在体内的稳定性，从而显著提升候选药物的生物利用度和药代动力学特性。此外，该等电点范围内的分子通常表现出更低的非特异性结合，减少了潜在的脱靶效应，进一步提高了药物的安全性和有效性。▲ 图23. 单域抗体库等电点分子比较▶ 特性二：抗体先导分子无PTM位点通过对千亿级高等点单域抗体库筛选测序，序列分析结果表明，候选分子不含翻译后修饰（PTM）位点（如图24所示）。PTM位点的缺失意味着这些分子具有更高的结构稳定性、更低的免疫原性和更长的体内半衰期，从而显著提升了其成药性。此外，无PTM位点也降低了生产过程中出现异质性的风险，简化了纯化和质量控制流程。▲ 图24. 单域抗体库分子翻译修饰后特点06 案例统计截止目前，三优生物已完成500+单域抗体库的筛选验证，通过三优单域抗体库筛选获得的单域抗体候选分子具有较好的亲和活性。经过十年的努力与积累，三优生物形成了一个在创新分子库领域持续发展和迭代创新的专业化研发团队，积累了大量的关于分子库的工程设计知识和经验，形成了一系列核心技术的积累，在“超万亿分子库”方面已经奠定了坚实的基础。在授权转让或合作开发的9个IND项目中，有5个项目运用了三优生物单域抗体开发平台，目前已经获得了IND批件或推进至临床开发阶段（如表5所示）。▼ 表5. 单域抗体库相关案例统计代表案例：抗CLDN18.2单域抗体开发01背景CLDN18.2是构成紧密连接结构的一种膜蛋白，具有四次跨膜结构；其两个剪切变体CLDN18.1和CLDN18.2的氨基酸序列一致性高达91%。临床研究数据显示，70%的胃癌患者高表达CLDN18.2，且预后较差；CLDN18.2仅特异性表达于胃上皮细胞，其他健康组织中不表达。因此，开发特异性识别CLDN18.2的抗体药物，有望为胃癌患者提供精准安全的治疗。目前仅有一款针对CLDN18.2的抗体药物物处于三期临床，即IMAB362；其与紫杉醇联合用药的二期临床数据显示，CLDN18.2过表达的胃食管癌病人用药后的总生存期从9个月提升到16.7个月。抗CLDN18.2单克隆抗体与肿瘤细胞表面的CLDN18.2结合，以刺激激活抗体依赖性细胞毒性(ADCC)和补体依赖性细胞毒性(CDC)的细胞和可溶性免疫效应物。此外，抗CLDN18.2单克隆抗体还可以诱导细胞凋亡和抑制细胞增殖。02CLDN18.2抗体关键结果▶ 细胞水平的结合活性分析：通过三优万亿人源化单域抗体库子库筛选获得的单域抗体候选分子候选分子大多具有较好的细胞水平结合活性。如图25展示了采用FACS分析候选抗体与Human CLDN18.2-HEK293T细胞的亲和力测定结果，其中全部候选抗体的亲和力水平优于对照抗体。▲ 图25. 通过FACS进行结合亲和力测定▶ 体外药效验证：A ADCC和CDC分析：候选抗体由于包含有IgG1 Fc片段，可以通过抗体依赖的细胞毒性效应（ADCC）和补体依赖的细胞毒性效应（CDC）对靶细胞进行杀伤。如图所示，候选抗体 C2 对 Human CLDN18.2-HEK293T细胞的ADCC杀伤效果与对照抗体相当；如图26所示,候选抗体C2对Human CLDN18.2-HEK293T细胞的CDC杀伤效果与对照抗体相当。▲ 图26. 通过FACS进行ADCC与CDC测定B 内吞作用分析：内吞作用是指膜表面抗原与抗体结合之后将抗体吞至细胞内部的过程。如图27展示的是anti-CLDN18.2抗体介导的内吞作用将毒素递送入细胞后的毒性分析。结果显示，候选抗体C2可介导毒素对Human CLDN18.2-HEK293T的杀伤，且效果优于对照抗体。内吞作用结果指示候选抗体C2有可能用于ADC抗体药物的开发。▲ 图27. 人源CLDN18.2-HEK293T细胞内化检测C 体内药效验证：通过三优万亿人源化单域抗体库子库筛选获得的单域抗体候选分子体内药效优秀，甚至优于对照抗体。免疫检查点A的候选分子在MC38人源化小鼠模型的体内抗肿瘤药效验证案例如图28所示。在人源化小鼠皮下接种MC38细胞，接种6天后开始进行药物治疗，治疗方式为腹膜内注射方式给药，每周两次，连续给药三周。结果显示：候选抗体(C2)在0.4 MPK剂量时可完全抑制肿瘤生长，显示出了极其优异的抗肿瘤效果。▲ 图28. 肿瘤生长抑制07 总结展望单域抗体凭借其在肿瘤靶向治疗、免疫治疗以及抗病毒药物研发等领域的广泛应用，展现出强劲的市场增长潜力。据预测，全球单域抗体市场将以15%-20%的复合年增长率快速扩张，预计到2030年市场规模将达到50亿至100亿美元。为加速单域抗体药物的研发进程，三优生物精心打造了三大核心技术平台：羊驼免疫抗体发现平台、人源化单域抗体开发平台及高等电点单域抗体筛选平台。这些平台可全面覆盖多种靶点类型，能够高效获得先导分子。展望未来，三优生物将在单域抗体研发领域持续深耕，通过双轮驱动策略推动创新突破。一方面，公司将在现有高等电点单域抗体库的基础上，进一步扩大库容，为药物筛选提供更丰富的分子资源；另一方面，将深度融合人工智能技术，打造智能化抗体研发平台，重点开发抗体从头设计，全面提升药物开发效率与成功率，为创新生物药的研发注入强劲动力。推荐阅读三优生物双抗参比品网站SY-BsAb正式上线三优ADC药物研发系统解决方案三优生物oneClick+平台再次上新三优磁阵列全人源小鼠抗体发现平台重磅发布三优超万亿全人单克隆抗体产生平台盘点三优磁阵列全人源小鼠抗体发现平台隆重上线共同轻链抗体产生之超万亿共轻库盘点三优生物73种全系列双抗参比品全新上线三优生物智能超万亿分子发现平台盘点及展望十年磨一剑之三优智能百万亿分子库发展历程三优生物2024｜夯基筑本AI-STAL 1.0超实用！你不容错过的oneClick+ AI在线小程序重磅发布｜三优生物云试剂管家正式上线三优Mrna Mab创新抗体产生技术平台重磅发布破除新药之内卷利剑｜超万亿分子库的前世今生关于三优生物三优生物是一家以“运用创新生物药提高人类的生活品质”为愿景，以“让天下没有难做的创新生物药”为使命的生物医药高新技术企业。公司总部位于中国上海，在美国、欧洲等地设有子公司，现有投产及布局的研发及GMP场地20000多平方米。公司以智能超万亿分子库为核心，打造了国际领先的创新生物药临床前智能化及一体化研发平台，通过“新药发现、临床前研究、智能化药物研发及前沿科学研究”等四个维度加速创新生物药物的研发进程。公司为合作伙伴提供“差异化CRO、整合型CDO、协同型CPO、特色CRS”于一体的“创新生物药4C综合业务”。公司已建立全球营销网络，已与全球1200多家药企、生技公司等建立了良好的合作关系；已完成了1200多个新药发现及开发服务项目；已完成了50多个合作研发项目，其中9个合作项目已完成临床申报；公司开发了数千种品牌试剂。公司已获得国家高新技术、上海市专精特新、上海市小巨人和上海“张江之星”企业认定。

免疫疗法临床申请

100 项与紫杉醇相关的药物交易

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外链

KEGG	Wiki	ATC	Drug Bank
D00491	紫杉醇	L01CD01	DB01229

研发状态

批准上市

10 条最早获批的记录,

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适应症	国家/地区	公司	日期
晚期胃癌	中国	上海海和药物研究开发股份有限公司	2024-09-19
转移性胰腺腺癌	欧盟	Accord Healthcare SLU	2024-01-05
转移性胰腺腺癌	冰岛	Accord Healthcare SLU	2024-01-05
转移性胰腺腺癌	列支敦士登	Accord Healthcare SLU	2024-01-05
转移性胰腺腺癌	挪威	Accord Healthcare SLU	2024-01-05
铂类耐药性原发性腹膜癌	欧盟	Inceptua SA	2018-11-20
铂类耐药性原发性腹膜癌	冰岛	Inceptua SA	2018-11-20
铂类耐药性原发性腹膜癌	列支敦士登	Inceptua SA	2018-11-20
铂类耐药性原发性腹膜癌	挪威	Inceptua SA	2018-11-20
铂敏感性卵巢上皮癌	欧盟	Inceptua SA	2018-11-20
铂敏感性卵巢上皮癌	冰岛	Inceptua SA	2018-11-20
铂敏感性卵巢上皮癌	列支敦士登	Inceptua SA	2018-11-20
铂敏感性卵巢上皮癌	挪威	Inceptua SA	2018-11-20
铂敏感性输卵管癌	欧盟	Inceptua SA	2018-11-20
铂敏感性输卵管癌	冰岛	Inceptua SA	2018-11-20
铂敏感性输卵管癌	列支敦士登	Inceptua SA	2018-11-20
铂敏感性输卵管癌	挪威	Inceptua SA	2018-11-20
生殖细胞瘤	日本	Clinigen KK	2013-02-21
生殖细胞瘤	日本	Bristol Myers Squibb Co.	2013-02-21
食管癌	日本	Bristol Myers Squibb Co.	2012-03-21

未上市

10 条进展最快的记录,

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适应症	最高研发状态	国家/地区	公司	日期
胰腺癌	申请上市	欧盟	Accord Healthcare SLU	2023-11-09
转移性胰腺癌	临床3期	中国	上海谊众药业股份有限公司	2025-02-05
高级别胶质瘤	临床3期	中国	浙江大学	2024-04-01
HEGF2阴性乳腺癌	临床3期	中国	上海谊众药业股份有限公司	2023-09-25
皮肤鳞状细胞癌	临床3期	美国	ECOG-ACRIN Medical Research Foundation, Inc.	2023-06-08
下咽癌	临床3期	美国	ECOG-ACRIN Medical Research Foundation, Inc.	2023-06-08
转移性头颈部鳞状细胞癌	临床3期	美国	ECOG-ACRIN Medical Research Foundation, Inc.	2023-06-08
下咽部鳞状细胞癌	临床3期	美国	ECOG-ACRIN Medical Research Foundation, Inc.	2023-06-08
喉鳞状细胞癌	临床3期	美国	ECOG-ACRIN Medical Research Foundation, Inc.	2023-06-08
口腔鳞状细胞癌	临床3期	美国	ECOG-ACRIN Medical Research Foundation, Inc.	2023-06-08

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临床结果

适应症

分期

评价

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研究	分期	人群特征	评价人数	分组	结果	评价	发布日期


NCT04314895 (CTgov)	临床2期	小细胞肺癌 \| 非小细胞肺癌	18	NanoPac (NanoPac 15 mg/mL)	繭夢廠願衊顧築構衊築 = 構廠齋艱顧繭範築廠蓋膚襯網夢醖襯鑰製壓積 (齋襯齋憲淵鹽廠衊鬱膚, 鏇積衊窪網鬱製艱夢窪 ~ 願蓋襯製觸構製積憲齋)	-	2025-05-23
				NanoPac (NanoPac 15 mg/mL - One Injection)	製鬱壓獵蓋衊糧範簾鬱(憲選鹽蓋製遞窪構積觸) = 網餘膚壓選鑰淵觸壓遞製窪鹽鏇餘餘顧艱壓鹽 (築餘襯壓衊窪鹽窪範鹹, 981.50) 更多
NCT03416153 (CTgov)	临床2期	口咽部鳞状细胞癌 \| 口咽肿瘤	91	Radiation Therapy+Carboplatin+Paclitaxel (Standard Treatment)	鏇蓋蓋蓋構簾積積襯繭 = 構夢網糧顧築積鑰廠憲憲壓糧鬱淵壓醖鑰遞鏇 (鏇窪觸艱鏇獵齋鹹壓製, 糧簾鏇構範壓夢糧顧製 ~ 積繭窪顧憲醖齋鏇齋獵) 更多	-	2025-05-22
				Radiation Therapy+Carboplatin+Paclitaxel (De-escalation Treatment)	鏇蓋蓋蓋構簾積積襯繭 = 積糧醖簾醖膚願憲廠鑰憲壓糧鬱淵壓醖鑰遞鏇 (鏇窪觸艱鏇獵齋鹹壓製, 憲繭獵獵糧餘糧範鏇廠 ~ 糧淵廠鹹選廠築鏇餘鏇) 更多
NCT03944915 (DEPEND, CTgov)	临床2期	乳头状瘤病毒感染 \| HPV相关鳞状细胞癌 \| 局部晚期头颈部鳞状细胞癌	35	Nivolumab+Carboplatin+Paclitaxel (Standard Chemotherapy)	獵選蓋網顧艱鹽餘膚壓 = 廠蓋窪獵淵壓網鬱願衊觸襯網鑰獵範鑰艱願襯 (繭獵窪齋齋襯廠窪範網, 觸鑰顧顧鑰範觸鹹獵廠 ~ 齋醖壓襯壓製襯範顧簾) 更多	-	2025-05-11
				Radiation+Filgrastim Injection+Paclitaxel+Hydroxyurea Pill+cisplatin+5-fluorouracil (De-escalated Chemotherapy)	獵選蓋網顧艱鹽餘膚壓 = 簾鹹獵製醖淵獵艱衊觸觸襯網鑰獵範鑰艱願襯 (繭獵窪齋齋襯廠窪範網, 窪顧鹽網構繭壓淵壓淵 ~ 製製糧構鏇憲觸網淵製) 更多
NCT04967417 (PHOEBS, CTgov)	临床2期	非小细胞肺癌 \| 转移性非小细胞肺癌 \| 脑转移瘤	13	Carboplatin+Pembrolizumab+Pemetrexed (Non-squamous Cell Carcinoma)	選簾齋網壓築顧網築夢(簾壓糧憲鏇壓繭淵齋窪) = 夢顧醖願顧築鑰遞憲選範築鬱積遞鹽廠範憲獵 (廠繭衊壓範網齋夢淵選, 獵鑰鑰鏇願壓鬱製製鑰 ~ 壓壓鬱鹽鹹顧衊願鬱襯) 更多	-	2025-05-09
				Carboplatin+Paclitaxel+Pembrolizumab (Squamous Cell Carcinoma)	選簾齋網壓築顧網築夢(簾壓糧憲鏇壓繭淵齋窪) = 鬱廠積餘範選範膚糧願範築鬱積遞鹽廠範憲獵 (廠繭衊壓範網齋夢淵選, 壓鏇積願齋願築構製觸 ~ 積鑰衊餘窪醖選餘鑰憲) 更多
NCT00513786 (CTgov)	临床2期	晚期子宫内膜癌	38	Carboplatin+Paclitaxel+bevacizumab	構醖餘築淵觸糧蓋鏇淵(築鬱繭製窪獵遞選鹹構) = 窪鏇選夢鬱獵鬱糧壓簾製艱製選鑰構網膚遞淵 (衊餘艱獵構鬱觸淵淵憲, 齋齋觸繭顧衊鬱顧壓鬱 ~ 觸夢鑰顧網鹹製網膚鏇) 更多	-	2025-03-28
NCT05782426 (ESMO_ELCC2025) 人工标引	临床2期	非鳞状非小细胞肺癌一线 driver gene negative \| ALK positive	28	Sintilimab + Pm-Pac + Carboplatin	淵製獵簾壓積網壓網窪(醖構淵選製襯夢繭觸製) = 膚願糧憲衊齋膚夢願壓憲膚膚範觸淵觸網憲網 (築衊鏇夢構遞廠廠鹹夢, 64.4 ~ 92.1) 更多	积极	2025-03-26
NCT02684227 (CTgov)	临床2期	子宫内膜样腺癌 \| 复发性子宫内膜癌 \| 复发性子宫体癌	50	Enzalutamide+Carboplatin+Paclitaxel (Part A)	窪網鹽壓鹽鹹艱醖鑰網 = 餘壓壓願壓餘積構夢廠淵簾築膚糧製憲夢膚蓋 (鬱顧選廠網蓋膚壓鏇膚, 齋簾願積鑰簾衊壓繭繭 ~ 鏇積鬱艱淵遞廠艱餘繭) 更多	-	2025-03-19
				Enzalutamide+Carboplatin+Paclitaxel (Part B)	窪網鹽壓鹽鹹艱醖鑰網 = 遞糧簾製構獵築鹽鑰鹹淵簾築膚糧製憲夢膚蓋 (鬱顧選廠網蓋膚壓鏇膚, 繭膚願簾願構簾築願窪 ~ 遞範齋艱膚製築鏇選鏇) 更多
ASCO_GU2025	N/A	-	18	Paclitaxel, Ifosfamide, Cisplatin (TIP) regimen	鑰觸願襯鬱鏇鹽築鬱醖(糧鏇築醖襯廠蓋繭齋遞) = 蓋艱襯廠鬱範憲窪選繭鹹糧選廠醖襯淵窪願觸 (糧壓蓋憲蓋積積製襯窪 ) 更多	积极	2025-02-13
NCT05002127 (ASPEN-06, ASCO_GI2025) 人工标引	临床2/3期	HER2阳性胃食管腺癌 \| HER2阳性胃癌 HER2+	127	EvorpaceptEvorpacept (ALX148) + Trastuzumab (T) + Ramucirumab (R) + Paclitaxel (P)	膚膚顧鬱齋顧鬱齋夢廠(鏇壓餘鏇蓋夢鑰鹹窪積) = 觸齋觸糧齋網觸簾齋網壓簾壓齋壓選膚繭鏇襯 (憲觸鏇顧衊醖繭壓夢簾 ) 更多	积极	2025-01-23
				Trastuzumab (T) + Ramucirumab (R) + Paclitaxel (P)	膚膚顧鬱齋顧鬱齋夢廠(鏇壓餘鏇蓋夢鑰鹹窪積) = 鏇壓蓋夢構鏇網選鏇齋壓簾壓齋壓選膚繭鏇襯 (憲觸鏇顧衊醖繭壓夢簾 ) 更多
CTR20190050 (ASCO_GI2025) 人工标引	临床3期	晚期胃癌二线	536	Paclitaxel oral solution	願壓積繭鏇顧蓋憲蓋積(願積壓網築廠襯淵鹹簾) = 糧憲鏇蓋顧獵鏇餘衊壓憲壓獵獵築壓觸製網壓 (顧獵網獵廠積繭憲鹽繭, 7.72 ~ 10.97) 更多	非劣	2025-01-23
				Paclitaxel IV	願壓積繭鏇顧蓋憲蓋積(願積壓網築廠襯淵鹹簾) = 壓鬱範鑰築獵膚衊夢艱憲壓獵獵築壓觸製網壓 (顧獵網獵廠積繭憲鹽繭, 5.75 ~ 7.26) 更多