Omeprazole

PRINCETON, N.J.--(BUSINESS WIRE)--Bristol Myers Squibb (NYSE: BMY) today announced that the U.S. Food and Drug Administration (FDA) has updated the U.S. Prescribing Information for CAMZYOS® (mavacamten, 2.5 mg, 5 mg, 10 mg, 15 mg capsules), simplifying treatment for patients and physicians by reducing the required echo monitoring for eligible patients in the maintenance phase and expanding patient eligibility by reducing contraindications. CAMZYOS is the first and only FDA-approved cardiac myosin inhibitor for the treatment of adults with symptomatic New York Heart Association (NYHA) Class II-III obstructive hypertrophic cardiomyopathy (oHCM) to improve functional capacity and symptoms.1 $BMY announced the U.S. FDA approved an update to the echo monitoring requirements for a treatment for adults living with symptomatic obstructive #HypertrophicCardiomyopathy (oHCM). “In addition to the established efficacy of CAMZYOS, these meaningful updates to the label reinforce the strong safety profile of the therapy. With robust clinical and real-world data and more than 15,000 patients prescribed CAMZYOS in the U.S.,2 this medicine has redefined the treatment landscape for symptomatic obstructive HCM and can have a significant impact for patients living with the condition,” said Al Reba, senior vice president, Cardiovascular & Immunology Commercialization at Bristol Myers Squibb. “Simplifying treatment by reducing the frequency of echo monitoring not only improves the patient experience, but will also save time for cardiologists, allowing them to treat more patients.” FDA-approved updates include reduced frequency of required echo monitoring from once every 12 weeks to every 6 months for patients with left ventricular ejection fraction (LVEF) ≥55% and a Valsalva left ventricular outflow tract (LVOT) gradient <30 mmHg (or Valsalva LVOT ≥30 mmHg without up-titration) who have reached the maintenance phase (at Week 12 or later).1,3 Additionally, CAMZYOS is no longer contraindicated with moderate CYP2C19 inhibitors and strong CYP3A4 inhibitors, which were adjusted to drug interactions. This provides physicians with greater flexibility in prescribing CAMZYOS to a broader group of eligible patients, with revised dosing and monitoring. The approved label update is supported by long-term clinical and real-world data, including analyses of results from the CAMZYOS Risk Evaluation and Mitigation Strategy (REMS) Program, real-world experience from three single-center studies, and ongoing clinical data reinforcing the safety profile of CAMZYOS through 3.5 years.4,5 CAMZYOS is included in both the ESC and AHA/ACC/Multisociety clinical guidelines as a recommended option for patients with persistent symptoms on a first-line therapy6,7 and is established as a standard of care for the treatment of adults with symptomatic obstructive HCM, supported by a growing body of evidence. The full U.S. Prescribing Information for CAMZYOS includes a Boxed WARNING for the risk of heart failure. CAMZYOS reduces left ventricular ejection fraction (LVEF) and can cause heart failure due to systolic dysfunction. Echocardiogram assessments of LVEF are required prior to and during treatment with CAMZYOS. Initiation of CAMZYOS in patients with LVEF <55% is not recommended. Interrupt CAMZYOS if LVEF is <50% at any visit or if the patient experiences heart failure symptoms or worsening clinical status. Concomitant use of CAMZYOS with certain cytochrome P450 inhibitors or discontinuation of certain cytochrome P450 inducers may increase the risk of heart failure due to systolic dysfunction; therefore, the use of CAMZYOS is contraindicated with strong CYP2C19 inhibitors and moderate to strong CYP2C19 inducers or moderate to strong CYP3A4 inducers. Because of the risk of heart failure due to systolic dysfunction, CAMZYOS is available only through a restricted program under a Risk Evaluation and Mitigation Strategy (REMS) called the CAMZYOS REMS PROGRAM. Please see additional Important Safety Information including Boxed WARNING below. Please refer to the updated CAMZYOS label linked here for full dosing guidelines and additional information. Bristol Myers Squibb offers various programs and resources to address the needs of patients and caregivers, and provides support that allows for access to therapies, including CAMZYOS. For additional information call 855-CAMZYOS (855-226-9967) 8 am to 11 pm ET, Monday through Friday. About CAMZYOS (mavacamten) CAMZYOS® (mavacamten) is the first and only cardiac myosin inhibitor approved in the U.S., indicated for the treatment of adults with symptomatic New York Heart Association (NYHA) class II-III obstructive hypertrophic cardiomyopathy (HCM) to improve functional capacity and symptoms, and in the European Union, indicated for the treatment of symptomatic (NYHA, class II-III) obstructive HCM in adult patients. It has also received regulatory approvals in countries and regions across five continents. CAMZYOS is an allosteric and reversible inhibitor selective for cardiac myosin. CAMZYOS modulates the number of myosin heads that can enter “on actin” (power-generating) states, thus reducing the probability of force-producing (systolic) and residual (diastolic) cross-bridge formation. Excess myosin actin cross-bridge formation and dysregulation of the super-relaxed state are mechanistic hallmarks of HCM. CAMZYOS shifts the overall myosin population towards an energy-sparing, recruitable, super-relaxed state. In obstructive HCM patients, myosin inhibition with CAMZYOS reduces dynamic left ventricular outflow tract (LVOT) obstruction and improves cardiac filling pressures. IMPORTANT SAFETY INFORMATION WARNING: RISK OF HEART FAILURE CAMZYOS reduces left ventricular ejection fraction (LVEF) and can cause heart failure due to systolic dysfunction. Echocardiogram assessments of LVEF are required prior to and during treatment with CAMZYOS. Initiation of CAMZYOS in patients with LVEF <55% is not recommended. Interrupt CAMZYOS if LVEF is <50% at any visit or if the patient experiences heart failure symptoms or worsening clinical status. Concomitant use of CAMZYOS with certain cytochrome P450 inhibitors or discontinuation of certain cytochrome P450 inducers may increase the risk of heart failure due to systolic dysfunction; therefore, the use of CAMZYOS is contraindicated with the following: Because of the risk of heart failure due to systolic dysfunction, CAMZYOS is available only through a restricted program under a Risk Evaluation and Mitigation Strategy (REMS) called the CAMZYOS REMS PROGRAM. CONTRAINDICATIONS CAMZYOS is contraindicated with concomitant use of: Strong CYP2C19 inhibitors Moderate to strong CYP2C19 inducers or moderate to strong CYP3A4 inducers WARNINGS AND PRECAUTIONS Heart Failure CAMZYOS reduces systolic contraction and can cause heart failure or significantly reduce ventricular function. Patients who experience a serious intercurrent illness (eg, serious infection) or arrhythmia (eg, atrial fibrillation or other uncontrolled tachyarrhythmia) are at greater risk of developing systolic dysfunction and heart failure. Assess the patient’s clinical status and LVEF prior to and regularly during treatment and adjust the CAMZYOS dose accordingly. New or worsening arrhythmia, dyspnea, chest pain, fatigue, palpitations, leg edema, or elevations in N-terminal pro-B-type natriuretic peptide (NT-proBNP) may be signs and symptoms of heart failure and should also prompt an evaluation of cardiac function. Asymptomatic LVEF reduction, intercurrent illnesses, and arrhythmias require additional dosing considerations. Initiation of CAMZYOS in patients with LVEF <55% is not recommended. Avoid concomitant use of CAMZYOS in patients on disopyramide, ranolazine, verapamil with a beta blocker, or diltiazem with a beta blocker as these medications and combinations increase the risk of left ventricular systolic dysfunction and heart failure symptoms and clinical experience is limited. CYP450 Drug Interactions Leading to Heart Failure or Loss of Effectiveness CAMZYOS is primarily metabolized by CYP2C19 and CYP3A4 enzymes. Concomitant use of CAMZYOS and drugs that interact with these enzymes may lead to life-threatening drug interactions such as heart failure or loss of effectiveness. Advise patients of the potential for drug interactions, including with over-the-counter medications (such as omeprazole, esomeprazole, or cimetidine). Advise patients to inform their healthcare provider of all concomitant products prior to and during CAMZYOS treatment. CAMZYOS Risk Evaluation and Mitigation Strategy (REMS) Program CAMZYOS is only available through a restricted program called the CAMZYOS REMS Program because of the risk of heart failure due to systolic dysfunction. Notable requirements of the CAMZYOS REMS Program include the following: Prescribers must be certified by enrolling in the REMS Program Patients must enroll in the REMS Program and comply with ongoing monitoring requirements Pharmacies must be certified by enrolling in the REMS Program and must only dispense to patients who are authorized to receive CAMZYOS Wholesalers and distributors must only distribute to certified pharmacies Further information is available at www.CAMZYOSREMS.com or by telephone at 1-833-628-7367. Embryo-Fetal Toxicity CAMZYOS may cause fetal toxicity when administered to a pregnant female, based on animal studies. Confirm absence of pregnancy in females of reproductive potential prior to treatment and advise patients to use effective contraception during treatment with CAMZYOS and for 4 months after the last dose. Combined hormonal contraceptives (CHCs) containing a combination of ethinyl estradiol and norethindrone may be used with CAMZYOS. However, CAMZYOS may reduce the effectiveness of certain other CHCs. If these CHCs are used, advise patients to add nonhormonal contraception (such as condoms) during concomitant use and for 4 months after the last dose of CAMZYOS. ADVERSE REACTIONS In the EXPLORER-HCM trial, adverse reactions occurring in >5% of patients and more commonly in the CAMZYOS group than in the placebo group were dizziness (27% vs 18%) and syncope (6% vs 2%). There were no new adverse reactions identified in VALOR-HCM. Effects on Systolic Function In the EXPLORER-HCM trial, mean (SD) resting LVEF was 74% (6) at baseline in both treatment groups. Mean (SD) absolute change from baseline in LVEF was -4% (8) in the CAMZYOS group and 0% (7) in the placebo group over the 30-week treatment period. At Week 38, following an 8-week interruption of trial drug, mean LVEF was similar to baseline for both treatment groups. In the EXPLORER-HCM trial, 7 (6%) patients in the CAMZYOS group and 2 (2%) patients in the placebo group experienced reversible reductions in LVEF <50% (median 48%: range 35-49%) while on treatment. In all 7 patients treated with CAMZYOS, LVEF recovered following interruption of CAMZYOS. DRUG INTERACTIONS Potential for Other Drugs to Affect Plasma Concentrations of CAMZYOS CAMZYOS is primarily metabolized by CYP2C19 and to a lesser extent by CYP3A4 and CYP2C9. Inducers and inhibitors of CYP2C19 and moderate to strong inhibitors or inducers of CYP3A4 may affect the exposures of CAMZYOS. Impact of Other Drugs on CAMZYOS: Strong CYP2C19 Inhibitors : Concomitant use increases CAMZYOS exposure, which may increase the risk of heart failure due to systolic dysfunction. Concomitant use is contraindicated. Moderate to Strong CYP2C19 Inducers or Moderate to Strong CYP3A4 Inducers : Concomitant use decreases CAMZYOS exposure, which may reduce CAMZYOS’ efficacy. The risk of heart failure due to systolic dysfunction may increase with discontinuation of these inducers as the levels of induced enzyme normalizes. Concomitant use is contraindicated. Weak CYP2C19 Inhibitors or Moderate CYP3A4 Inhibitors : Concomitant use with a weak CYP2C19 inhibitor or a moderate CYP3A4 inhibitor increases CAMZYOS exposure, which may increase the risk of adverse drug reactions. Initiate CAMZYOS at the recommended starting dose of 5 mg orally once daily in patients who are on stable therapy with a weak CYP2C19 inhibitor or a moderate CYP3A4 inhibitor. Reduce dose of CAMZYOS by one level (ie, 15 to 10 mg, 10 to 5 mg, or 5 to 2.5 mg) in patients who are on CAMZYOS treatment and intend to initiate a weak CYP2C19 inhibitor or a moderate CYP3A4 inhibitor. Schedule clinical and echocardiographic assessment 4 weeks after inhibitor initiation, and do not up-titrate CAMZYOS until 12 weeks after inhibitor initiation. Avoid initiation of concomitant weak CYP2C19 and moderate CYP3A4 inhibitors in patients who are on stable treatment with 2.5 mg of CAMZYOS because a lower dose is not available. For short-term use (eg, 1 week), interrupt CAMZYOS for the duration of treatment with a weak inhibitor of CYP2C19 or a moderate inhibitor of CYP3A4. CAMZYOS may be reinitiated at the previous dose immediately on discontinuation of concomitant therapy. Moderate CYP2C19 Inhibitors or Strong CYP3A4 Inhibitors : Concomitant use with a moderate CYP2C19 inhibitor or strong CYP3A4 inhibitor increases CAMZYOS exposure, which may increase the risk of adverse drug reactions. Discontinuing use of a moderate CYP2C19 inhibitor or strong CYP3A4 inhibitor after long-term concomitant use may decrease CAMZYOS exposure, which may reduce CAMZYOS’ efficacy. Initiate CAMZYOS at a starting dosage of 2.5 mg orally once daily in patients who are on a stable therapy with a moderate CYP2C19 inhibitor or a strong CYP3A4 inhibitor. Reduce dose of CAMZYOS by one level (ie, 15 to 10 mg, 10 to 5 mg, or 5 to 2.5 mg) in patients who are on CAMZYOS and intend to initiate a moderate CYP2C19 inhibitor or a strong CYP3A4 inhibitor. Avoid initiation of concomitant moderate CYP2C19 and strong CYP3A4 inhibitors in patients who are on a stable treatment with 2.5 mg of CAMZYOS because a lower dose is not available. An increase in dose of CAMZYOS may be needed if the moderate inhibitor of CYP2C19 or strong inhibitor of CYP3A4 is discontinued after long-term concomitant use. Monitor for new or worsening symptoms. For short-term use (ie, when CAMZYOS dose modification is not feasible), interrupt CAMZYOS for the duration of treatment with a weak inhibitor of CYP2C19 or a moderate inhibitor of CYP3A4. CAMZYOS may be reinitiated at the previous dose immediately on discontinuation of concomitant therapy Potential for CAMZYOS to Affect Plasma Concentrations of Other Drugs CAMZYOS is an inducer of CYP3A4, CYP2C9, and CYP2C19. Concomitant use with CYP3A4, CYP2C9, or CYP2C19 substrates may reduce plasma concentration of these drugs. Closely monitor when CAMZYOS is used with concomitant CYP3A4, CYP2C9, or CYP2C19 substrates unless otherwise recommended in the Prescribing Information. Certain Combined Hormonal Contraceptives (CHCs): Progestin and ethinyl estradiol are CYP3A4 substrates. Concomitant use of CAMZYOS may decrease exposures of certain progestins, which may lead to contraceptive failure. CHCs containing a combination of ethinyl estradiol and norethindrone may be used with CAMZYOS, but if other CHCs are used, advise patients to add nonhormonal contraception (such as condoms) or use an alternative contraceptive method that is not affected by CYP450 enzyme induction (eg, intrauterine system) during concomitant use and for 4 months after the last dose of CAMZYOS. Drugs That Reduce Cardiac Contractility Expect additive negative inotropic effects of CAMZYOS and other drugs that reduce cardiac contractility. Avoid concomitant use of CAMZYOS in patients on disopyramide, ranolazine, verapamil with a beta blocker, or diltiazem with a beta blocker as these medications and combinations increase the risk of left ventricular systolic dysfunction and heart failure symptoms and clinical experience is limited. If concomitant therapy with a negative inotrope is initiated, or if the dose of a negative inotrope is increased, monitor LVEF closely until stable doses and clinical response have been achieved. SPECIFIC POPULATIONS Pregnancy CAMZYOS may cause fetal harm when administered to a pregnant female. Advise pregnant females about the potential risk to the fetus with maternal exposure to CAMZYOS during pregnancy. There is a pregnancy safety study for CAMZYOS. If CAMZYOS is administered during pregnancy, or if a patient becomes pregnant while receiving CAMZYOS or within 4 months after the last dose of CAMZYOS, healthcare providers should report CAMZYOS exposure by contacting Bristol Myers Squibb at 1-800-721-5072 or www.bms.com. Lactation The presence of CAMZYOS in human or animal milk, the drug’s effects on the breastfed infant, or the effects on milk production are unknown. The developmental and health benefits of breastfeeding should be considered along with the mother’s clinical need for CAMZYOS and any potential adverse effects on the breastfed child from CAMZYOS or from the underlying maternal condition. Females and Males of Reproductive Potential Confirm absence of pregnancy in females of reproductive potential prior to initiation of CAMZYOS. Advise females of reproductive potential to use effective contraception during treatment with CAMZYOS and for 4 months after the last dose. CHCs containing a combination of ethinyl estradiol and norethindrone may be used with CAMZYOS. However, CAMZYOS may reduce the effectiveness of certain other CHCs. If these CHCs are used, advise patients to add nonhormonal contraception (such as condoms) or use an alternative contraceptive method during concomitant use and for 4 months after the last dose of CAMZYOS. Please see U.S. Full Prescribing Information, including Boxed WARNING and Medication Guide. About Bristol Myers Squibb Bristol Myers Squibb is a global biopharmaceutical company whose mission is to discover, develop and deliver innovative medicines that help patients prevail over serious diseases. For more information about Bristol Myers Squibb, visit us at BMS.com or follow us on LinkedIn, X, YouTube, Facebook and Instagram. Cautionary Statement Regarding Forward-Looking Statements This press release contains “forward-looking statements” within the meaning of the Private Securities Litigation Reform Act of 1995 regarding, among other things, the research, development and commercialization of pharmaceutical products. All statements that are not statements of historical facts are, or may be deemed to be, forward-looking statements. Such forward-looking statements are based on current expectations and projections about our future financial results, goals, plans and objectives and involve inherent risks, assumptions and uncertainties, including internal or external factors that could delay, divert or change any of them in the next several years, that are difficult to predict, may be beyond our control and could cause our future financial results, goals, plans and objectives to differ materially from those expressed in, or implied by, the statements. These risks, assumptions, uncertainties and other factors include, among others, that future study results may not be consistent with the results to date and whether CAMZYOS (mavacamten) for the indication described in this release will be commercially successful. No forward-looking statement can be guaranteed. It should also be noted that acceptance of CAMZYOS does not change the standards for FDA approval. Forward-looking statements in this press release should be evaluated together with the many risks and uncertainties that affect Bristol Myers Squibb’s business and market, particularly those identified in the cautionary statement and risk factors discussion in Bristol Myers Squibb’s Annual Report on Form 10-K for the year ended December 31, 2024, as updated by our subsequent Current Reports on Form 8-K and other filings with the Securities and Exchange Commission. The forward-looking statements included in this document are made only as of the date of this document and except as otherwise required by applicable law, Bristol Myers Squibb undertakes no obligation to publicly update or revise any forward-looking statement, whether as a result of new information, future events, changed circumstances or otherwise. References CAMZYOS [package insert]. Princeton, NJ: Bristol-Myers Squibb Company; 2025. Data on file. Total unique patients started on CAMZYOS. Valid as of February 2025. Princeton, NJ: Bristol-Myers Squibb Company; 2025. CAMZYOS REMS. Patient Status Form. Accessed April 18, 2025. PDISC-813. Princeton, NJ: Bristol-Myers Squibb Company; 2025. Garcia-Pavia P et al. Eur Heart J. 2024;45:5071–5083. Ommen SR, Ho CY, Asif IM, et al. 2024 AHA/ACC/AMSSM/HRS/PACES/SCMR guideline for the management of hypertrophic cardiomyopathy: a report of the American Heart Association/American College of Cardiology Joint Committee on Clinical Practice Guidelines. Circulation. 2024;149(23):e1239-e1311. Arbelo E, Protonotarios A, Gimeno JR, et al. 2023 ESC Guidelines for the management of cardiomyopathies: Developed by the task force on the management of cardiomyopathies of the European Society of Cardiology (ESC). European Heart Journal . 2023;33(37). corporatefinancial-news

以“医药健康产业的变革与新生”为主题，汇聚行业领袖，聚焦创新药械和消费医疗，探讨产业变革，交流商业保险与AI技术带来的机遇，助力行业新生。火热报名中最近，由中国药科大学药学院尤启东教授和王磊教授课题组，以及海军军医大学基础医学院卢小玲教授，合作在知名学术期刊The Innovation（IF: 33.2）上发表了题为“Global first-in-class drugs approved in 2023-2024: Breakthroughs and insights” 的综述文章，阐述了2023-2024年间全球首创性小分子药物的突破与进展。本期公众号对该文进行了整理，供业内同行参考。首创新药（First-in-class, FIC）被视为新药研发的主要驱动力，具有创新靶点与作用机制。FIC药物在新药中的占比为学术界和制药研究提供了基础性指导。从全球视野来看，2023至2024年间共有81款FIC药物获批。其中小分子药物占比更高（51.9%），体现了新化学实体的发现成果；而以抗体类似物为主的大分子药物（48.1%）则随着新型生物技术的涌现呈现增长趋势。就适应症分布而言，肿瘤领域仍居首位（22.0%），共有18款FIC疗法获批，反映出该领域迫切的临床需求。在基于作用机制的创新方面，以各类酶为靶点的FIC药物最为常见（32.1%），共涉及26个新靶点发现。本综述将系统阐述2023-2024年间获批FIC药物的表现与特征，为全球新药研发提供突破性进展与战略洞见。1引言药物研发领域的核心关注点在于首创新药（First-in-Class, FIC）的获批。美国食品药品监督管理局（FDA）将FIC药物定义为：通过作用于全新靶点与机制、具有区别于现有疗法作用机制的新获批药物，或针对未满足临床需求提供首次治疗选择的药物[1]。成功的FIC药物往往具有革命性意义，不仅能带来丰厚经济回报，更能为药物研发开辟新方向[2,3]。2024年获批的靶向claudin 18异构体2的单克隆抗体zolbetuximab-clzb（Vyloy）即属此类FIC药物[4,5]。该药物的获批同时验证了claudin 18.2靶向治疗的可行性，推动了针对该靶点的双特异性抗体、抗体偶联药物（ADC）等疗法的研发[6]。FIC药物的研发具有挑战性高、周期长、资源密集及风险大等特点[7,8]。通常这类药物需作用于新型候选靶点，并通过合理的药物分子设计实现对特定疾病的治疗作用，这使得新靶点的发现与验证至关重要[9]。该研发过程通常由临床数据或生物学研究驱动[10]，其中新靶点的发现是FIC药物研发的限速步骤[11]。值得注意的是，FIC药物的靶点验证贯穿整个药物开发流程——从早期实验室研究阶段到上市后应用，持续评估药物的安全性、有效性以及新靶点与疾病的关联性[12]。另一大挑战在于针对新靶点的候选药物设计，该过程至少涉及发现、优化与验证三个阶段，往往耗时数年[13]。理解分子、靶点与疾病间的相互作用关系是开发FIC药物的关键。因此，既往报道的FIC药物案例对指导未来药物设计具有重要参考价值。2023至2024年间，上市药物数量取得显著进展，反映出对生物机制与疾病发病机理的认知持续深化。本研究汇总了中国国家药品监督管理局（NMPA）、美国食品药品监督管理局（FDA）、日本医药品医疗器械综合机构（PMDA）及欧盟欧洲药品管理局（EMA）四大官方药监机构的新药审批数据。基于FDA对创新药物的界定标准[14]，我们从获批药物中筛选出首次在特定治疗领域获批的新分子实体（novel drugs）。统计显示，2023年1月至2024年10月期间共有1,035种药物上市，其中337种创新药物获得四大机构批准。在这337种创新药物中，81种首创新药（FIC）因其创新作用机制或新靶标而尤为突出。本综述重点分析了FIC药物（包括小分子FIC药物与大分子FIC药物）及其适应症与疾病靶点，列举了具有重大创新价值与临床意义的代表性FIC药物并阐释其作用机制与适应症。此外，我们还探讨了FIC药物研发趋势，并为未来FIC药物设计提出了建议。2FIC药物研发推动新药获批鉴于FIC新药具有新颖的作用机制或靶点，其功能属性对于确立其在该类药物中的开创性地位和领先优势至关重要[15]。因此，通过对FIC靶点与机制的持续医学研发，有望开发出疗效更优的创新药物[7]。近年来，未满足的临床需求与个性化用药期待共同推动了对更高疗效及安全性的FIC药物研究[1]。从2023至2024年全球药物获批情况来看（图1），创新药物的地域分布呈现差异化特征。据我们统计，2023年1月至2024年10月期间共有1,035种新药获批，其中426种为创新药物。由于部分创新药物在多地获批，实际创新药物数量为337种，包含81种FIC药物（占比24.0%）（图1A；表1）[3,16,17]。  在美国，根据《2023年新药治疗审批报告》（Novel Drug Approvals for 2023 | FDA）、《2024年新药治疗审批报告》以及《2023年首仿药审批报告》（2023 First Generic Drug Approvals | FDA）的数据，美国食品药品监督管理局（FDA）全年共批准315个药物，其中创新药117个（占比37.1%），改良药/仿制药/生物类似药198个（占比62.9%）。在117个创新药中[18]，93个由FDA药品评价与研究中心（CDER）批准，生物制品评价与研究中心（CBER）另批准24个创新治疗产品。其中包含51个首创新药（FIC）（图1B）。117个创新药与51个FIC药物的获批彰显了2023-2024年美国医药产业的重大成就。中国国家药品监督管理局（NMPA）同期批准352个药物，包含151个创新药（42.9%）、53个首仿药（15.1%）及148个改良药（42.0%）[16]，其中22个为FIC药物（图1B）。基于审批数量提升与质量优化的双重突破，中国医药产业在2023-2024年取得显著进展。日本医药品医疗器械综合机构（PMDA）共批准223个药物，包括78个创新药（35.0%，含16个FIC药物）、142个改良药（63.7%）及3个生物类似药（1.3%）（图1B），其中近半数（49.8%）为采用新剂量的药物。欧盟药品管理局（EMA）批准的创新药数量（80个，含19个FIC药物，占比55.2%；图1B）显著超过仿制药/混合药/其他类型药物（65个，44.8%）。图1. 全球批准的新药、首创新药与其他药物的数量及占比情况。（A）新药、首创新药与改良型/混合型/仿制药/生物类似药的总体概况。由于部分新药在多个地区获批，实际新药数量为337个而非426个。（B）新药与改良型/混合型/仿制药/生物类似药的数量及占比，以及首创新药数量。中国将获批药物分为新药、改良型药物和首仿药物；美国分为新药、首仿药物、生物类似药和改良型药物；日本主要分为新药、生物类似药和改良型药物；欧盟则分为新药、新适应症药物、仿制药、生物类似药、混合型药物和其他药物。绿色、蓝色、青色和橙色分别对应中国、美国、日本和欧盟批准的药物。表1. 2023年1月~2024年10月期间全球获批的FIC新药3原始创新研究推动小分子首创新药的发展低分子量的小分子药物在靶点亲和力与选择性[20]、药代动力学特性[21]以及患者用药依从性[21]等方面具有独特优势[19]。根据来源差异，小分子药物可分为合成小分子药物、天然产物/衍生物、内源性物质/衍生物、核苷/氨基酸/葡萄糖衍生物等类别。2023至2024年间，共有173种新型小分子药物获批上市，其中42种首创新药（FIC）属于小分子药物。图3展示了这42种FIC小分子药物的化学结构。无论是新型小分子药物还是FIC药物，人工设计合成的合成小分子药物均占据最大比例（76.4%）。天然产物（6.3%）与内源性物质（8.6%）同样是FIC药物研发的重要来源，部分生物大分子的小分子单体（8.6%）则推动了包括葡萄糖、氨基酸及核苷衍生物在内的两类FIC小分子药物的开发（图2）。统计数据显示，多数药物是通过理性药物设计与分子筛选技术发现的。图2. 新型小分子药物与首创新分子药物的比例及分类。环形图展示了新型小分子药物的比例与分类，不同半径的饼图则呈现首创新分子药物的比例与分类。小分子药物主要包括合成小分子药物、内源性物质/衍生物、核苷/氨基酸/葡萄糖衍生物以及天然产物/衍生物。在42种首创新分子实体（FIC）小分子药物中（图3），吲哚类药物iptacopan（Fabhalta）是一种FIC补体因子B抑制剂[22]，也是首个获批用于治疗阵发性睡眠性血红蛋白尿症（PNH）成人口服单药疗法[23]。针对PNH的治疗，C5抑制剂（如eculizumab单抗和ravulizumab单抗）虽代表先进治疗策略，但受限于患者对eculizumab单抗的不完全应答——这源于骨髓红系造血反应不足、残留血管内溶血及反复发作的血管外溶血（EVH）[24]。作为近端补体通路抑制剂，iptacopan在C3b介导的血管内溶血和终末补体通路介导的EVH中均展现出显著疗效[25]。相较于既往静脉注射的eculizumab单抗/ravulizumab单抗或皮下注射的pegcetacoplan，该药物突破了PNH患者持续性溶血性贫血的治疗困境，提供了口服给药选择[22]；其治疗成本亦低于部分抗C5治疗方案[25]，有效减轻患者经济负担。2024年获批的FIC因子D抑制剂danicopan（Voydeya）与iptacopan适应症相同，需特别指出的是，因子D位于iptacopan作用靶点因子B的上游[26]。不同于iptacopan，danicopan作为氨基吡啶衍生物[27]，经FDA批准用于PNH成人患者EVH的C5靶向抗体附加治疗。与C5靶向抗体单药治疗相比，danicopan联合C5靶向抗体可有效控制EVH，并拓宽补体通路的治疗靶点覆盖范围[28,29]。图3. 42种FIC小分子药物的化学结构杂环化合物futibatinib（Lytgobi）是一种首创性FIC共价成纤维细胞生长因子受体（FGFR）激酶抑制剂[30,31]，由日本医药品医疗器械综合机构（PMDA）批准用于治疗癌症化疗后进展的不可切除性FGFR2融合基因阳性胆道癌。FGFR信号通路与细胞增殖、凋亡、迁移及分化密切相关，抑制该通路已成为癌症治疗的有效策略[32]。该药物作为首个被发现可不可逆结合FGFR1-4的共价FGFR抑制剂[32]，已针对多种癌症类型进入临床开发阶段[33]。值得注意的是，尽管目前有多种可逆性FGFR抑制剂处于研究阶段，但均已观察到获得性耐药现象[33-35]。Futibatinib凭借其共价不可逆抑制机制及较低的获得性耐药易感性，于2023年脱颖而出获批上市[33]。除对胆道癌的疗效外，该药物还对具有10种不同类型FGFR1-4异常的7种其他肿瘤类型显示治疗作用[33]，因此有望拓展至更多疾病的治疗领域。在源自天然产物、内源性物质或某些生物大分子小单体的FIC小分子药物中，桦木三萜（Filsuvez）[36]——其活性成分属于天然产物[37]——已获FDA批准用于治疗6个月及以上儿童及成人患者的营养不良型和大疱性交界性表皮松解症（EB）相关创面。FDA还批准了一线治疗药物palovarotene（Sohonos）[38]，这是一种二苯乙烯类化合物[39]，用于治疗进行性骨化性纤维发育不良（FOP）的成人和儿童患者（女性≥8岁，男性≥10岁），以降低新发异位骨化体积。FOP的发病机制涉及激活素A受体I型（ACVR1）/激活素样激酶2（ALK2）基因的功能获得性突变[40]。激活素A与突变型ACVR1结合后，可激活下游SMAD家族成员1/5/8（SMAD1/5/8）信号通路，进而诱发软骨形成[41,42]。该药物通过靶向视黄酸受体γ有效阻断软骨形成过程，从而抑制异位骨化[42]。但需注意其具有明确的胎儿致畸性，并可能影响儿童生长发育[42]。FDA批准的首个Rett综合征[43]治疗药物trofinetide（Daybue）[44]是一种脑内源性三肽类似物（甘氨酰-脯氨酰-谷氨酸衍生物）。FIC药物牛磺罗定与肝素复方制剂（Defencath）[45]同样获得FDA批准，其中活性成分牛磺罗定是氨基酸牛磺酸的衍生物，作为广谱抗菌剂可通过破坏微生物细胞壁完整性[46]及抑制其与哺乳动物细胞粘附[47,48]，用于治疗导管相关血流感染。Imetelstat（Rytelo）作为FDA批准的首个且唯一寡核苷酸端粒酶抑制剂[49]，其13聚体核苷酸序列能与人端粒酶RNA组分互补结合，通过竞争性抑制导致端粒逐渐缩短并引发细胞死亡[50]。该药物适用于低危至中危-1型骨髓增生异常综合征（MDS），其III期临床试验证实可诱导持续的红细胞输注独立性（RBC-TI），这一机制优势确立了该药物的治疗价值[51]。总体而言，2023至2024年间获批的81种首创新药（FIC）中，有42种（51.9%）为小分子首创新药。具有悠久研发历史和成熟用药经验的小分子药物，仍是推动首创新药研发的重要动力。除对发病机制的深入研究与观察外，小分子药物开发来源正日趋多元化，为首创新药研发持续注入创新活力。4抗体药物已成为FIC药物领域的新生力量根据美国食品药品监督管理局（FDA）的定义，生物制品通常是用于诊断、预防、治疗及治愈疾病的大型复杂分子[52]。近年来，各类副作用较少[53]的大分子药物发展迅猛，包括抗体、酶替代疗法、激素疗法、核酸疗法和疫苗等，这些药物在多种重大疾病治疗中发挥着关键作用：例如疫苗应用于传染性疾病，酶替代疗法或激素疗法用于治疗酶缺乏或激素缺乏相关疾病，其作用机制与小分子药物存在显著差异。在新型大分子药物中，抗体/抗体偶联药物（ADC）类别占比最高（40.0%），在39种FIC大分子药物中，有16种属于抗体或ADC类药物（图4）。抗体药物可表现为单克隆抗体、双特异性抗体及抗体偶联药物等多种形式[54]。此外，另有23种首创新药归属于其他大分子药物类别，包括多肽类、酶类、疫苗类及核酸类疗法（图4）。图4. FIC大分子药物的比例及分类  新型大分子药物的比例分类及首创大分子药物的数量与类别分布。新型大分子药物主要分为抗体/抗体偶联药物（ADC）、疫苗、核酸疗法、酶制剂、细胞疗法、多肽类、因子类、激素类、细胞因子、干扰素及其他类别。 在16种首创新药（FIC）抗体药物中，经欧洲药品管理局（EMA）和美国食品药品监督管理局（FDA）批准的塔奎妥单抗（Talvey）是一种靶向G蛋白偶联受体C类5组成员D（GPRC5D）与T细胞表面免疫调节膜蛋白CD3的双特异性抗体，用于治疗复发/难治性多发性骨髓瘤（MM）[56,57]。该药物与首个双特异性抗体teclistamab展现出相似的疗效特征和持续应答时间[58]，同时拓展了T细胞募集双抗的已验证靶点清单[59]。人源化免疫球蛋白（Ig）G4单抗pozelimab是FDA批准用于治疗CHAPLE疾病的首创新药[60]。该疾病由补体调节蛋白CD55的基因缺失引起。在此批准前，超说明书使用依库珠单抗可改善该疾病症状，但对医疗基础设施薄弱和资源受限地区的患者而言，每两周静脉输注该药物存在显著挑战[61]。靶向补体蛋白C5的pozelimab是目前该疾病患者唯一获批的皮下注射制剂[61,62]。首个靶向claudin 18.2的单克隆抗体zolbetuximab-clzb（Vyloy）于2024年获得美国FDA批准上市。该药物联合含氟尿嘧啶和铂类化疗方案，适用于治疗CLDN18.2阳性、人表皮生长因子受体2（HER2）阴性、局部晚期不可切除或转移性胃或胃食管结合部（GEJ）腺癌成人患者的一线治疗。Claudin 18.2是CLDN18基因编码的两种亚型中的第二种亚型。与大多数作用于细胞膜表面靶点的靶向治疗药物不同，claudin 18.2是一种紧密连接蛋白，通常表达于非恶性胃上皮细胞的细胞旁间隙[6,63]。该药物的获批不仅拓展了肿瘤治疗策略的范畴，更激励研究者探索更多潜在治疗靶点[6]。在其他23种大分子FIC药物中，江苏豪森药业研发的合成肽类药物pegmolesatide（Saint Luolai）[17]适用于两类成人慢性肾脏病（CKD）贫血患者：未接受促红细胞生成刺激剂（ESA）治疗且未进行透析的患者，以及正在接受短效促红细胞生成素（EPO）治疗且进行透析的患者[64,65]。自模拟EPO的肽类药物培格司亭因致命性过敏反应撤市后[66,67]，特异性ESA培莫沙肽取得了重要进展。其优势包括采用不含防腐剂的单剂量西林瓶包装及皮下给药途径[68]。该药物为每月给药一次的长效制剂，与现有EPO受体激动剂阿法依泊汀相比，在疗效和安全性方面均显示非劣效性[68-70]。Velmanase alfa-tycv（Lamzede）是首个获批用于治疗α-甘露糖苷贮积症（AM）非中枢神经系统（CNS）表现的长期酶替代疗法[71]。AM是一种由甘露糖苷酶α类2B成员1（MAN2B1）基因突变引起的罕见遗传性内分泌代谢疾病[72]。造血干细胞移植曾是该病的治疗手段，但对部分患者疗效不稳定，且可能导致表达性语言障碍和听力缺陷[73]。Velmanase alfa-tycv酶替代疗法可降低血清寡糖水平，改善患者听力和生活质量，现被视为标准治疗方案[73]。Arexvy是首个针对60岁以上呼吸道合胞病毒（RSV）感染患者的疫苗，于2023年6月获欧洲EMA批准[74]。该疫苗对RSV感染引起的下呼吸道疾病（LRTD）老年患者具有临床获益。另一款RSV疫苗Abrysvo[75]于2023年8月获EMA批准，其独特之处在于成为首个用于孕妇群体以预防婴儿RSV感染的疫苗[76]。值得注意的是，这两款RSV疫苗亦在美国和日本获批，惠及更广泛患者群体。百健与Ionis合作开发的first-in-class基因疗法tofersen（Qalsody）于2023年获美国FDA加速批准，用于治疗超氧化物歧化酶1（SOD1）基因突变相关的肌萎缩侧索硬化症（SOD1-ALS）[77]。2024年，该药物相继获得中国NMPA和EMA对相同适应症的批准。约2%的成年患者携带导致罕见病的SOD1基因突变。78 Tofersen作为反义寡核苷酸（ASO）药物，可与突变SOD1 mRNA结合形成复合物，经RNase H酶识别并切割[78]，从而抑制该罕见病进展。这是首个针对SOD1-ALS的基因疗法[79]，为该疾病提供了有效治疗手段[80]。随着生物技术的进步，大分子药物的研究方法日趋完善，新型大分子药物正被越来越多的患者所接受。大分子药物在首创新药（FIC）研发中具有独特优势，例如疗效更佳、不良反应较少以及作用机制特殊。在39个FIC大分子药物中，抗体药物占据主导地位，其中16个为获批的FIC药物。其余23个FIC大分子药物属于其他类型，这也表明FIC大分子药物正持续呈现多元化发展趋势[81,82]。此外，根据美国FDA既往数据，2011-2014年、2015-2018年和2019-2022年期间获批的FIC抗体/抗体偶联药物（ADC）数量分别为7个、20个和17个[1]。2023年1月至2024年10月期间已有8个药物获批，这一数字达到2019-2022年总获批量的半数，并超过2011-2014年期间的总和。这些数据表明抗体/ADC药物已成为FIC药物研发的新生力量。我们相信大分子药物未来将为患者提供更有效、更安全的治疗选择。5癌症是FIC药物的主要适应症我们随后对2023年和2024年获批新药的疾病分布进行了分析。值得注意的是，这些药物的适应症广泛分布于17个疾病领域，其中2023年和2024年排名前两位的疾病领域均为癌症/肿瘤（272种药物，占比25.8%）和神经系统疾病（152种药物，占比14.7%）（图5A）。首创新药（FIC）的获批情况与新药整体分布相似。癌症/肿瘤是FIC药物最常见的靶向疾病（18种药物），血液疾病位列第二（12种药物），传染病排名第三（9种药物）（图5B）。图5. 药物适应症（疾病靶点）分布情况  (A) 2023年与2024年获批新药及首创新药（FIC）在不同疾病领域的数量统计。 (B) 获批药物中针对癌症/肿瘤适应症的占比情况。若获批药物包含首创新药适应症，则以棕色标注。(C) 获批药物中针对各类神经系统疾病适应症的占比情况。若获批药物包含首创新药适应症，则以棕色标注。作为一种全球性的重大公共卫生问题[83-86]，癌症/肿瘤在所有疾病领域中占比最高[87-89]。在用于癌症/肿瘤治疗的所有药物中，针对肺癌（17.7%）、淋巴瘤（11.0%）和乳腺癌（10.6%）的治疗药物占据主导地位。首创新药（FIC）主要分布于乳腺癌、淋巴瘤、多发性骨髓瘤及肺癌等领域（图5B）。尽管某些癌症/肿瘤类型的获批药物数量少于肺癌、淋巴瘤或乳腺癌，但在神经胶质瘤、黑色素瘤和结直肠癌等疾病领域仍可见首创新药获批。这一现象可能预示着这些疾病正受到日益增长的关注。在癌症/肿瘤领域的药物中，γ-分泌酶抑制剂nirogacestat（Ogsiveo）作为首创新药获得美国FDA批准[90]，用于治疗硬纤维瘤。该疾病是一种具有高复发率的罕见病，在nirogacestat获批前长期依赖手术治疗[91]。临床研究显示，nirogacestat不仅疗效显著且不良反应轻微，为患者提供了有效的治疗选择[92]。死亡受体4/5（DR4/5）激动剂aponermin联合沙利度胺与地塞米松治疗方案，首次在全球范围内获得中国国家药品监督管理局的上市许可[93]。在多种癌症中，DR4/5通过肿瘤坏死因子相关凋亡诱导配体（TRAIL）激活，进而诱导细胞凋亡[94]。该药物实质上是一种重组环状置换型人源TRAIL[93]，相较于天然TRAIL具有更高的稳定性与更强的抗肿瘤活性[93]。当前尽管已有数种药物获批，多发性骨髓瘤对多数患者仍属不可治愈疾病[95]。aponermin的获批不仅为该疾病治疗提供了新策略，更证实了靶向TRAIL信号通路的可行性[96]。2024年，非小细胞肺癌（NSCLC）治疗领域取得新突破。我国国家药品监督管理局（NMPA）批准了全球首创新型双特异性单克隆抗体ivonescimab上市，该药物同时靶向程序性细胞死亡蛋白1（PD-1）与血管内皮生长因子（VEGF）-A，适用于治疗EGFR突变的局部晚期或转移性非鳞状NSCLC患者[97]。作为创新疗法，该药物在三期临床试验中联合化疗方案显著延长了无进展生存期，其疗效优势相较于PD-1抑制剂帕博利珠单抗亦得到验证[98,99]。该药物还能规避VEGF抑制剂与检查点抑制剂相关的部分不良反应[99]。获批药物的第二大疾病领域为神经系统疾病，其中主要适应症为注意力缺陷多动障碍（ADHD）（13.8%）、癫痫（11.2%）和阿尔茨海默病（AD）（9.9%）。首创新药（FIC）还分布于阿尔茨海默病（AD）、偏头痛、癫痫、硬化症等疾病领域（图5C）。该领域共有8个FIC药物获得上市许可（图5A）。偏头痛（4.6%）和杜氏肌营养不良症（2.6%）等神经系统疾病的获批药物相对较少，因此这些FIC药物可能推动相关疾病领域的新发展值得关注。在8个相关FIC药物中，omaveloxolone（Skyclarys）获得FDA批准上市，这被视为Friedreich共济失调（FA）治疗领域的重大里程碑，对罕见神经系统疾病领域具有突破性意义[100-102]。该药物是FDA批准的首个治疗罕见严重神经退行性疾病FA的疗法。该疾病由frataxin（FXN）基因内含子GAA重复序列扩增引起，导致frataxin蛋白水平降低及活性氧（ROS）产生[100]，进而损伤神经系统[103]。该药物通过作用于核因子E2相关因子2（NRF2）通路[100]，抑制泛素E3连接酶KEAP1（Kelch样ECH关联蛋白1）的激活——该蛋白调控NRF2的降解，从而促进新生成NRF2的积累，改善氧化应激和炎症应激，延缓疾病进展[104]。癫痫是一种因神经元活动异常导致患者反复发作的脑部疾病[105]，全球患者超过7000万人[106]。欧洲药品管理局批准Ztalmy（活性成分ganaxolone）作为孤儿药[107]，用于治疗2至17岁患有细胞周期蛋白依赖性激酶样5（CDKL5）缺乏症（CDD）患儿的癫痫发作[108]。该药物作为首创新药类固醇激素类似物，可产生神经活性A型γ-氨基丁酸（GABAA）受体变构调节作用[109,110]，其特点在于既无类固醇激素活性，又能同时结合突触和突触外GABAA受体[109]。这一机制特征使其相较于仅作用于突触GABAA受体的苯二氮䓬类等调节剂具有显著优势[111-112]。Ganaxolone敏感的突触外γ-氨基丁酸A型受体能够在长时间癫痫发作期间维持功能性活动[112]。神经系统疾病的负担仍然十分沉重[113]，而新上市的药品将为改善神经健康提供更多治疗策略。在血液及传染病领域，共有21种首创新药获批（图5A）。其中，促红细胞成熟首创新药luspatercept（Reblozyl）获得日本PMDA批准用于骨髓增生异常综合征相关贫血治疗。该药物亦是美国FDA批准用于该适应症的首个治疗方案[114,115]。Ⅲ期临床试验显示其具有持续疗效且安全性良好[116]。值得注意的是，该药物将通过降低红细胞输注需求及提升血红蛋白水平使日本患者获益[116,117]。Chikungunya活疫苗（Ixchiq）为全球首个chikungunya疫苗[118]。Chikungunya是由蚊媒传播的病毒感染性疾病，过去15年间全球报告病例约500万例，已在100多个国家出现流行，尤以非洲、东南亚和南美洲为甚[119]。该疫苗填补了该疾病预防领域的空白，满足了迫切的临床需求[120,121]。药物适应症的分类有助于我们理解药物研发的关键领域，并促进某些疾病治疗现状的更新。根据我们的统计数据显示，癌症是首创新药（FIC）的主要适应症领域。尽管用于治疗神经系统疾病的FIC药物数量不占主导地位，但该领域获批药物数量位居第二，这表明该领域部分疾病仍存在未被满足的临床需求，亟待突破性进展。我们预期未来获批的FIC药物将覆盖更多适应症，特别是目前治疗选择匮乏的疾病[122]，如Rett综合征、硬纤维瘤和范可尼贫血（FA）等。6激酶仍是FIC的关键靶点理想治疗靶点往往反映疾病的发生机制。药物靶点分类是对已获批药物作用机制的持续解析，这将促进疾病治疗。2023至2024年获批药物涵盖免疫相关蛋白、受体及其配体、酶、离子通道、因子和转运体等多类靶点，凸显了通过作用于多样关键靶点探索新型疗法的持续努力。在所有靶点中，酶类（330种药物，占获批靶向药物的36.5%）和激酶（148种药物）位居前列（图6A、6B）。FIC的靶点分布与获批药物相似，酶类是最常见的FIC药物靶点（26种药物），其中激酶在获批FIC药物数量上居首（11种药物）（图6C）。激酶作为蛋白质磷酸化调节剂，参与多种生物学功能和疾病机制[123]。首个蛋白激酶B（AKT）抑制剂[124]——阿斯利康的capivasertib（Truqap）获FDA[125]批准联合氟维司群，用于治疗伴有PIK3CA/AKT1/PTEN基因改变的激素受体（HR）阳性、HER2阴性局部晚期或转移性乳腺癌[126]成人患者。AKT是一种具有AKT1、AKT2和AKT3三种亚型的丝氨酸/苏氨酸蛋白激酶，最早于1977年被记录并于1991年鉴定[127,128]。Capivasertib作为竞争性抑制剂，通过占据AKT中ATP结合位点抑制所有AKT亚型，从而减弱AKT底物磷酸化并影响细胞生长增殖[129]。图6. 2023年与2024年获批药物的治疗靶点分析  (A) 2023年及2024年获批药物作用于各类靶点的比例分布，以及这些靶点类别中首创新药(FIC)的数量与分布情况。  (B) 针对不同酶类别的药物数量统计。若靶点为FIC药物作用靶点，则以紫色标注。(C) 作用于不同酶类型的FIC药物数量统计。在一类新型高选择性Janus激酶3（JAK3）与肝细胞癌中表达的酪氨酸激酶（TEC）双重抑制剂中[16,130]，ritlecitinib（Litfulo）已获得中国国家药监局、美国FDA、日本PMDA及欧盟EMA批准，用于斑秃治疗[131]。JAK3与TEC酪氨酸激酶家族均属非受体型酪氨酸激酶，其抑制作用可调控参与斑秃发病机制的多个信号通路[132,133]，但具体作用机制尚未完全阐明[134]。一项随机双盲、多中心IIb-III期临床试验证实，ritlecitinib对12岁及以上斑秃患者具有良好疗效与耐受性[135]。不同JAK亚型抑制剂可适用于不同疾病领域。2024年，中国国家药监局批准首创新药JAK1特异性抑制剂golidocitinib用于治疗至少经过一线系统治疗后进展或难治的复发/难治性外周T细胞淋巴瘤[136,137]。JAK1在STAT3磷酸化及活化过程中起关键作用，而JAK-STAT通路激活与T细胞恶性肿瘤密切相关。鉴于作用于其他JAK家族成员的分子存在较大副作用风险，选择性JAK1抑制剂被推定为理想治疗药物。临床试验显示golidocitinib具有优势性的获益-风险特征，这为其最终获批提供了依据[138]。除酶类靶点外，2023至2024年获批药物的作用靶点还涉及多个其他类型。例如，17.4%的获批药物作用于GPCRs，其中包含9个靶向GPCRs的首创新药（图6A）。在这9个首创新药中，内皮素A型受体（ETAR）与血管紧张素II（Ang II）1型受体（AT1R）双重拮抗剂DEARA类药物sparsentan（Filspari）获得加速批准，用于治疗具有快速疾病进展风险的原发性IgA肾病成人患者的蛋白尿症状[139]。IgA肾病是一种罕见自身免疫性疾病[140]，其发病机制中AT1R与ETAR的激活与蛋白尿形成相关[141-142]。该药物是FDA批准的首个且唯一用于IgA肾病的非免疫抑制疗法，在保证疗效的同时提升了患者用药依从性[143]。其双靶点拮抗机制相比单靶点拮抗能产生更优的治疗效果[141]，并可能通过抑制血管紧张素转换酶或阻断血管紧张素受体作为蛋白尿的一线治疗选择[143]。此外，FDA还批准了具有新型作用机制的xanomeline与曲司氯铵复方新药（Cobenfy）用于精神分裂症治疗[144]。Xanomeline是M₁和M₄毒蕈碱受体的选择性激动剂，而曲司氯铵为泛毒蕈碱受体拮抗剂[145]。由于对外周毒蕈碱受体的激活作用，xanomeline单药治疗可能引发不良事件[145]；而曲司氯铵因其理化特性无法透过血脑屏障[145]。因此，这两种药物的联用方案既能减轻副作用又具有良好疗效[146]。更值得注意的是，该联合用药方案首次实现了不含D2多巴胺受体阻断活性的抗精神病药物治疗，而阻断D2受体曾是传统疗法的典型作用机制[144]。新治疗靶点的发现是首创药物研发的第一步[147]。分析已获批药物的靶点类型有助于我们理解新治疗靶点的研究趋势。尽管已有多种作用于激酶的药物上市，但在已知激酶中，仅十分之一被验证为癌症治疗靶点[148]，且至少70%的激酶尚未作为药物靶点进行探索[149]。未来仍需开展更多激酶相关研究。除激酶外，G蛋白偶联受体、免疫相关蛋白及核激素受体均是具有重要研究潜力的靶点类别。7前景展望2023至2024年间，全球范围内有多款首创新药（FIC）获批上市。美国FDA批准的FIC药物数量最为显著，中国NMPA、欧盟EMA及日本PMDA在FIC药物审批方面亦作出重要贡献。基于FDA 2011-2024年数据统计，2023年1月至2024年10月期间获批的FIC药物数量处于高位[1]，其中小分子FIC药物与大分子FIC药物的获批数量基本持平。值得注意的是，FIC小分子药物与大分子药物广泛分布于更多药物类型中，这反映出传统药物设计与新型生物技术的协同发展与深度融合，有力推动了FIC药物的研发进程。多款FIC药物在癌症等疑难杂症及Rett综合征、多发性骨髓瘤、范可尼贫血等罕见病领域发挥关键作用，成为这些疾病的首选治疗方案或突破性疗法。然而，对于CHAPLE病、硬纤维瘤、阿尔茨海默病等仍缺乏有效治疗手段的疾病领域，尚需持续探索新的治疗方案以解决未满足的临床需求。激酶作为FIC药物研发的重要靶点，其生物学功能及基于激酶的药物设计仍需开展更深入的研究。尽管2023-2024年有多款药物获批，但药物研发领域仍存在巨大的突破空间。例如，许多难治性神经系统疾病仍需要突破性疗法或首创药物。此外，转运蛋白在新获批药物靶点中占比相对较少，因此针对这些潜在靶点的深入研究可能具有重要价值[150]。通过对部分候选药物的分析，2025年神经系统疾病领域可能取得进一步突破。具有潜在首创新药（FIC）特性的seltorexant [151]（适应症为重度抑郁症）及suzetrigine [152]（用于治疗中重度急性疼痛）已在Ⅲ期临床试验中显示出积极结果。从治疗靶点来看，首创DNA拓扑异构酶2抑制剂gepotidacin [153]及首个神经激肽1（NK-1）与神经激肽3（NK-3）受体双重拮抗剂艾elinzanetant [154]正在等待审批，这表明酶类与G蛋白偶联受体（GPCR）在2025年药物审批中或将继续占据主导地位。我们亦期待新靶点类型的探索将推动首创新药问世，并为疾病治疗开辟新途径。首创药物在药物研发领域持续发挥着引领作用。它们不仅显著提升了疾病治疗的有效性，还拓展了药物的新型作用机制，这些突破性进展不仅深化了人类对疾病病理学的认知，更彰显了全球公共卫生水平与生活质量的提升。我们预期药物研发将继续推动创新药物的进一步发展，以覆盖更广泛的疾病谱、惠及更多患者群体。参考文献：(上下滑动查看更多）1. Okuyama, R. (2023). Chronological Analysis of First-in-Class Drugs Approved from 2011 to 2022: Their Technological Trend and Origin. Pharmaceutics 15: 1794.2. Osipenko, L., Potey, P., Perez, B., et al (2024). The Origin of First-in-Class Drugs: Innovation Versus Clinical Benefit. Clin. Pharmacol. Ther. 115: 342–348.3. Mullard, A. (2024). 2023 FDA approvals. Nat. Rev. Drug Discov. 23: 88–95.4. Olbe, L., Carlsson, E., and Lindberg, P. (2003). A proton-pump inhibitor expedition: the case histories of omeprazole and esomeprazole. Nat. Rev. Drug Discov. 2: 132–139.5. Keam, S.J. (2024). Zolbetuximab: First Approval. Drugs 84: 977–983.6. Nakayama, I., Qi, C., Chen, Y., et al (2024). Claudin 18.2 as a novel therapeutic target. Nat. Rev. Clin. Oncol. 21: 354–369.7. Gu, J., Wu, Q., Zhang, Q., et al (2022). A decade of approved first-in-class small molecule orphan drugs: Achievements, challenges and perspectives. Eur. J. Med. Chem. 243: 114742.8. Zhou, S.-F., and Zhong, W.-Z. (2017). Drug Design and Discovery: Principles and Applications. Molecules 22: 279.9. Wang, F., Ruan, D.-Y., and Xu, R.-H. (2024). Challenges and opportunities in oncology drug development and clinical research in China. Cell 187: 1578–1583.10. Zhang, Y., Threapleton, D., Shi, H., et al (2024). Effect of anti-diabetic drugs in primary prevention of cardiovascular disease in type 2 diabetes and prediabetes: A systematic review and meta-analysis of randomized trials. Innov. Med. 2: 100096.11. Chatterjee, A., Walters, R., Shafi, Z., et al (2023). Improving the generalizability of proteinligand binding predictions with AI-Bind. Nat. Commun. 14: 1989.12. Emmerich, C.H., Gamboa, L.M., Hofmann, M.C.J., et al (2021). Improving target assessment in biomedical research: the GOT-IT recommendations. Nat. Rev. Drug Discov. 20: 64–81.13. Berdigaliyev, N., and Aljofan, M. (2020). An overview of drug discovery and development. Future Med. Chem. 12: 939–947.14. (2024). Novel Drug Approvals for 2024 (FDA). https://www.fda.gov/drugs/novel-drugapprovals-fda/novel-drug-approvals-2024.15. Li, G., Liu, Y., Hu, H., et al (2022). Evolution of innovative drug R&D in China. Nat. Rev. Drug Discov. 21: 553–554.16. Zhi, X., Li, Q., and Shao, L. (2024). Approvals by the China NMPA in 2023. Nat. Rev. Drug Discov. 23: 164–165.17. Zheng, L., Wang, W., and Sun, Q. (2024). Targeted drug approvals in 2023: breakthroughs by the FDA and NMPA. Signal Transduct. Targeted Ther. 9: 46.18. Baedeker, M., Ringel, M.S., and Möller, C.C. (2024). 2023 FDA approvals: unprecedented volume at moderate value. Nat. Rev. Drug Discov. 23: 98.19. Beck, H., Harter, M., Haß, B., et al (2022). Small molecules and their impact in drug discovery: A perspective on the occasion of the 125th anniversary of the Bayer Chemical Research Laboratory. Drug Discov. Today 27: 1560–1574.20. Benedetto Tiz, D., Bagnoli, L., Rosati, O., et al (2022). FDA-Approved Small Molecules in 2022: Clinical Uses and Their Synthesis. Pharmaceutics 14: 2538.21. Zhong, L., Li, Y., Xiong, L., et al (2021). Small molecules in targeted cancer therapy: advances, challenges, and future perspectives. Signal Transduct. Targeted Ther. 6: 201.22. Peffault de Latour, R., Röth, A., Kulasekararaj, A.G., et al (2024). Oral Iptacopan Monotherapy in Paroxysmal Nocturnal Hemoglobinuria. N. Engl. J. Med. 390: 994–1008.23. Risitano, A.M., Kulasekararaj, A., Roeth, A., et al (2023). Factor B Inhibition with Oral Iptacopan Monotherapy Demonstrates Sustained Long-Term Efficacy and Safety in Anti-C5-Treated Patients (pts) with Paroxysmal Nocturnal Hemoglobinuria (PNH) and Persistent Anemia: Final 48-Week Results from the Multicenter, Phase III APPLY-PNH Trial. Blood 142: 571.24. Szlendak, U., Budziszewska, B., Spychalska, J., et al (2022). Paroxysmal nocturnal hemoglobinuria: advances in the understanding of pathophysiology, diagnosis, and treatment. Pol. Arch. Intern. Med. 132: 16271.25. Xu, B., Kang, B., Chen, J., et al (2024). Factor B inhibitor iptacopan for the treatment of paroxysmal nocturnal hemoglobinuria. Blood Rev. 66: 101210.26. Risitano, A.M., Frieri, C., Urciuoli, E., et al (2023). The complement alternative pathway in paroxysmal nocturnal hemoglobinuria: From a pathogenic mechanism to a therapeutic target. Immunol. Rev. 313: 262–278.27. (2024). Danicopan (PubChem). https://pubchem.ncbi.nlm.nih.gov/compound/118323590.28. Mullard, A. (2024). FDA approves first complement factor D inhibitor. Nat. Rev. Drug Discov. 23: 329.29. Lee, J.W., Griffin, M., Kim, J.S., et al (2023). Addition of danicopan to ravulizumab or eculizumab in patients with paroxysmal nocturnal haemoglobinuria and clinically significant extravascular haemolysis (ALPHA): a double-blind, randomised, phase 3 trial. Lancet. Haematol. 10: e955–e965.30. Syed, Y.Y. (2022). Futibatinib: First Approval. Drugs 82: 1737–1743.31. Jain, N.K., Tailang, M., Thangavel, N., et al (2024). A comprehensive overview of selective and novel fibroblast growth factor receptor inhibitors as a potential anticancer modality. Acta Pharm. 74: 1–36.32. Ito, S., Otsuki, S., Ohsawa, H., et al (2023). Discovery of Futibatinib: The First Covalent FGFR Kinase Inhibitor in Clinical Use. ACS Med. Chem. Lett. 14: 396–404.33. Javle, M., King, G., Spencer, K., et al (2023). Futibatinib, an Irreversible FGFR1-4 Inhibitor for the Treatment of FGFR -Aberrant Tumors. Oncol. 28: 928–943.34. Krook, M.A., Lenyo, A., Wilberding, M., et al (2020). Efficacy of FGFR Inhibitors and Combination Therapies for Acquired Resistance in FGFR2-Fusion Cholangiocarcinoma. Mol. Cancer Therapeut. 19: 847–857.35. Katoh, M., Loriot, Y., Brandi, G., et al (2024). FGFR-targeted therapeutics: clinical activity, mechanisms of resistance and new directions. Nat. Rev. Clin. Oncol. 21: 312–329.36. Heo, Y.-A. (2023). Correction to: Birch Bark Extract: A Review in Epidermolysis Bullosa. Drugs 83: 1455.37. Schwieger-Briel, A., Ott, H., Kiritsi, D., et al (2019). Mechanism of Oleogel-S10: A triterpene preparation for the treatment of epidermolysis bullosa. Dermatol. Ther. 32: e12983.38. Hoy, S.M. (2022). Palovarotene: First Approval. Drugs 82: 711–716.39. (2024). Palovarotene (PubChem). https://webvpn.cpu.edu.cn/https/77726476706e 69737468656265737421e0e2439f2f35651e700b8ba5d65b2f382b5252bc43589741/ compound/10295295.40. Pignolo, R.J., Wang, H., and Kaplan, F.S. (2019). Fibrodysplasia Ossificans Progressiva (FOP): A Segmental Progeroid Syndrome. Front. Endocrinol. 10: 908.41. Felix-Ilemhenbhio, F., Pickering, G.A.E., Kiss-Toth, E., et al (2022). Pathophysiology and Emerging Molecular Therapeutic Targets in Heterotopic Ossification. Int. J. Mol. Sci. 23: 6983.42. Kitoh, H. (2020). Clinical Aspects and Current Therapeutic Approaches for FOP. Biomedicines 8: 325.43. Hudu, S.A., Elmigdadi, F., Qtaitat, A.A., et al (2023). Trofinetide for Rett Syndrome: Highlights on the Development and Related Inventions of the First USFDA-Approved Treatment for Rare Pediatric Unmet Medical Need. J. Clin. Med. 12: 5114.44. Keam, S.J. (2023). Trofinetide: First Approval. Drugs 83: 819–824.45. Nguyen, T., Camins, B.C., and Butler, D.A. (2024). Taurolidine and Heparin as Catheter Lock Solution for Central Venous Catheters in Hemodialysis. Am. J. Ther. 31: e398–e409.46. (2023). FDA Approved Drug Products: Defencath (taurolidine and heparin) catheter lock solution for central venous catheter instillation use. US Food Drug Administration. https://www.accessdata.fda.gov/drugsatfda_docs/label/2023/214520s000lbl.pdf.47. Gong, L., Greenberg, H.E., Perhach, J.L., et al (2007). The Pharmacokinetics of Taurolidine Metabolites in Healthy Volunteers. J. Clin. Pharmacol. 47: 697–703.48. Taurolidine (2024). DRUGBANK. https://go.drugbank.com/drugs/DB12473.49. Mullard, A. (2024). FDA approves first telomerase inhibitor. Nat. Rev. Drug Discov. 23: 570.50. Bruedigam, C., Porter, A.H., Song, A., et al (2024). Imetelstat-mediated alterations in fatty acid metabolism to induce ferroptosis as a therapeutic strategy for acute myeloid leukemia. Nat. Can. (Ott.) 5: 47–65.51. Platzbecker, U., Santini, V., Fenaux, P., et al (2024). Imetelstat in patients with lower-risk myelodysplastic syndromes who have relapsed or are refractory to erythropoiesis-stimulating agents (IMerge): a multinational, randomised, double-blind, placebo-controlled, phase 3 trial. Lancet Lond. Engl. 403: 249–260.52. Biological Product Definitions US Food Drug Adm. https://www.fda.gov/media/108557/ download.53. Su, X.-D., and Shuai, Y. (2020). Macromolecules and Antibody-Based Drugs. In Regulation of Cancer Immune Checkpoints Advances in Experimental Medicine and Biology, J. Xu, ed. (Springer Singapore), pp. 485–530.54. Li, Q., Jiang, M., and Xu, B. (2023). A new perspective in the research of antibody drug conjugate. Innov. Med. 1: 100018.55. (2023). FDA approves first-in-class bispecific for multiple myeloma. Nat. Biotechnol. 41: 1180.56. Keam, S.J. (2023). Talquetamab: First Approval. Drugs 83: 1439–1445.57. Chari, A., Minnema, M.C., Berdeja, J.G., et al (2022). Talquetamab, a T-Cell–Redirecting GPRC5D Bispecific Antibody for Multiple Myeloma. N. Engl. J. Med. 387: 2232–2244.58. Liu, L., and Krishnan, A. (2024). Talquetamab in multiple myeloma. Haematologica 109: 718–724.59. Mullard, A. (2023). FDA approves first GPRC5D 3 CD3-targeted bispecific for multiple myeloma. Nat. Rev. Drug Discov. 22: 775.60. Hoy, S.M. (2023). Pozelimab: First Approval. Drugs 83: 1551–1557.61. Ozen, A., Chongsrisawat, V., Sefer, A.P., et al (2024). Evaluating the efficacy and safety of pozelimab in patients with CD55 deficiency with hyperactivation of complement, angiopathic thrombosis, and protein-losing enteropathy disease: an open-label phase 2 and 3 study. Lancet Lond. Engl. 403: 645–656.62. Kaur, M., and Misra, S. (2024). Pozelimab, a human monoclonal immunoglobulin for the treatment of CHAPLE disease. J. Basic Clin. Physiol. Pharmacol. 35: 121–127.63. Shah, M.A., Shitara, K., Ajani, J.A., et al (2023). Zolbetuximab plus CAPOX in CLDN18.2-positive gastric or gastroesophageal junction adenocarcinoma: the randomized, phase 3 GLOW trial. Nat. Med. 29: 2133–2141.64. (2023). Pegmolesatide Injection Approved for Marketing by China NMPA (CCFDIE). https:// english.nmpa.gov.cn/2023-06/30/c_940313.htm#: :text=Pegmolesatide%20is%20a%20 long-acting%20peptide-based%20ESA%2C%20which%20promotes,new%20treatment%20 option%20for%20CKD%20patients%20with%20anemia.65. Hansoh Pharma’s Saint Luolai (2023). The Global Unique Once-Monthly Peptide-Based Highly Specific EPO Receptor Activator, Granted Approval for Marketing (HANSOH). https://www.hansoh.cn/en/news/512915.htm.66. De La Torre, B.G., and Albericio, F. (2024). The Pharmaceutical Industry in 2023: An Analysis of FDA Drug Approvals from the Perspective of Molecules. Molecules 29: 585.67. Gupta, N., and Wish, J.B. (2018). Erythropoietin mimetic peptides and erythropoietin fusion proteins for treating anemia of chronic kidney disease. Curr. Opin. Nephrol. Hypertens. 27: 345–350.68. Zhang, P., Jiang, Y., Xu, C., et al (2023). Pegmolesatide for the treatment of anemia in patients undergoing dialysis: a randomized clinical trial. eClinicalMedicine 65: 102273.69. Zhou, E.-J., Lang, X.-L., Yang, M.-J., et al (2024). Modeling and biological evaluation of pegmolesatide, a novel and potent erythropoiesis-stimulating agent. J. Asian Nat. Prod. Res. 26: 1339–1347.70. Chen, J., Zhang, P., Lihui, Q., et al (2022). POS-606 Pegmolesatide for the treatment of anemia in CKD patients undergoing dialysis: Interim analysis of a multicenter phase III trial. Kidney Int. Rep. 7: S260.71. (2023). FDA Approves First Enzyme Replacement Therapy for Rare Alpha-Mannosidosis (US Food Drug Adm). https://www.fda.gov/drugs/news-events-human-drugs/fdaapproves-first-enzyme-replacement-therapy-rare-alpha-mannosidosis.72. Abdul Ghani, S., Burney, S., Ul Hussain, H., et al (2023). Can velmanase alfa be the next widespread potential therapy for alpha-mannosidosis? Int. J. Surg. 109: 2882–2885.73. Santoro, L., Cefalo, G., Canalini, F., et al (2024). Diagnosis of alpha-Mannosidosis: Practical approaches to reducing diagnostic delays in this ultra-rare disease. Mol. Genet. Metabol. 142: 108444.74. Wise, J. (2023). First RSV vaccine for older adults is approved in Europe. BMJ 381: 978.75. Topalidou, X., Kalergis, A.M., and Papazisis, G. (2023). Respiratory Syncytial Virus Vaccines: A Review of the Candidates and the Approved Vaccines. Pathogens 12: 1259.76. (2023). First RSV vaccine to protect infants up to 6 months of age and older adults. Eur. Med. Agency. https://www.ema.europa.eu/en/news/first-rsv-vaccine-protect-infants-6months-age-and-older-adults.77. Blair, H.A. (2023). Tofersen: First Approval. Drugs 83: 1039–1043.78. Jin, J., and Zhong, X.B. (2023). ASO drug Qalsody (tofersen) targets amyotrophic lateral sclerosis. Trends Pharmacol. Sci. 44: 1043–1044.79. (2024). Biogen’s QALSODY (tofersen), the First Therapy to Treat Rare, Genetic Form of ALS, Received Positive Opinion from CHMP (Biogen). https://investors.biogen.com/ news-releases/news-release-details/biogens-qalsodyr-tofersen-first-therapy-treat-raregenetic-form.80. Corcia, P., Blasco, H., Beltran, S., et al (2023). Treatment of hereditary amyotrophic lateral sclerosis. Rev. Neurol. (Paris) 179: 54–60.81. Cao, X., Li, W., Yu, Y., et al (2022). China enters CAR-T cell therapy era. Innovation 3: 100197.82. Tao, Q.-Q., Cai, X., Xue, Y.-Y., et al (2024). Alzheimer’s disease early diagnostic and staging biomarkers revealed by large-scale cerebrospinal fluid and serum proteomic profiling. Innovation 5: 100544.83. Shen, L. (2022). Anticancer drug R&D of gastrointestinal cancer in China: Current landscape and challenges. Innovation 3: 100249.84. Huang, X., and Cao, X. (2023). Innovative drugs bring continuous benefits to cancer patients. Innov. Life 1: 100043.85. The global challenge of cancer (2020). Nat. Can. (Ott.) 1: 1–2.86. Zhao, W., Li, S., Chen, R., et al (2023). RXR signaling targeted cancer therapy. Innov. Life 1: 100014.87. Feng, M., Pan, Y., Kong, R., et al (2020). Therapy of Primary Liver Cancer. Innovation 1: 100032.88. Wang, W., Lian, B., Xu, C., et al (2024). Expert consensus on the diagnosis and treatment of solid tumors with BRAF mutations. Innovation 5: 100661.89. Lu, X., Cheng, L., Yang, C., et al (2024). Crosstalk between bladder cancer and the tumor microenvironment: Molecular mechanisms and targeted therapy. Innov. Med. 2: 100094.90. Keam, S.J. (2024). Nirogacestat: First Approval. Drugs 84: 355–361.91. Rohail, S., Fareed, A., Taimuri, M.A., et al (2023). Nirogacestat and its potential impact on desmoid tumor. Rare Tumors 15: 20363613231182485.92. Gounder, M., Ratan, R., Alcindor, T., et al (2023). Nirogacestat, a g-Secretase Inhibitor for Desmoid Tumors. N. Engl. J. Med. 388: 898–912.93. Dhillon, S. (2024). Aponermin: First Approval. Drugs 84: 459–466.94. Yang, A., Wilson, N.S., and Ashkenazi, A. (2010). Proapoptotic DR4 and DR5 signaling in cancer cells: toward clinical translation. Curr. Opin. Cell Biol. 22: 837–844.95. Kastritis, E., Terpos, E., and Dimopoulos, M.A. (2022). How I treat relapsed multiple myeloma. Blood 139: 2904–2917.96. Xia, Z., Leng, Y., Fang, B., et al (2023). Aponermin or placebo in combination with thalidomide and dexamethasone in the treatment of relapsed or refractory multiple myeloma (CPT-MM301): a randomised, double-blinded, placebo-controlled, phase 3 trial. BMC Cancer 23: 980.97. Dhillon, S. (2024). Ivonescimab: First Approval. Drugs 84: 1135–1142.98. HARMONi-A Study Investigators, and Fang, W., et al (2024). Ivonescimab Plus Chemotherapy in Non–Small Cell Lung Cancer With EGFR Variant: A Randomized Clinical Trial. JAMA 332: 561–570.99. Bispecific upstages Keytruda (2024). Nat. Biotechnol. 42: 1478.100. Pilotto, F., Chellapandi, D.M., and Puccio, H. (2024). Omaveloxolone: a groundbreaking milestone as the first FDA-approved drug for Friedreich ataxia. Trends Mol. Med. 30: 117–125.101. Boesch, S., and Indelicato, E. (2024). Approval of omaveloxolone for Friedreich ataxia. Nat. Rev. Neurol. 20: 313–314.102. Subramony, S.H., and Lynch, D.L. (2024). A Milestone in the Treatment of Ataxias: Approval of Omaveloxolone for Friedreich Ataxia. Cerebellum 23: 775–777.103. Mullard, A. (2023). FDA approves first Friedreich’s ataxia drug. Nat. Rev. Drug Discov. 22: 258.104. Profeta, V., McIntyre, K., Wells, M., et al (2023). Omaveloxolone: an activator of Nrf2 for the treatment of Friedreich ataxia. Expet Opin. Invest. Drugs 32: 5–16.105. Kanner, A.M., and Bicchi, M.M. (2022). Antiseizure Medications for Adults With Epilepsy: A Review. JAMA 327: 1269–1281.106. Thijs, R.D., Surges, R., O’Brien, T.J., et al (2019). Epilepsy in adults. Lancet 393: 689–701.107. Lamb, Y.N. (2022). Ganaxolone: First Approval. Drugs 82: 933–940.108. Operto, F.F., Pastorino, G.M.G., Viggiano, A., et al (2023). Epilepsy and Cognitive Impairment in Childhood and Adolescence: A Mini-Review. Curr. Neuropharmacol. 21: 1646–1665.109. De, S.K. (2024). Ganaxolone: First FDA-approved Medicine for the Treatment of Seizures Associated with Cyclin-dependent Kinase-like 5 Deficiency Disorder. Curr. Med. Chem. 31: 388–392.110. Yasmen, N., Sluter, M.N., Yu, Y., et al (2023). Ganaxolone for management of seizures associated with CDKL5 deficiency disorder. Trends Pharmacol. Sci. 44: 128–129.111. Reddy, D.S. (2024). Neurosteroids as Novel Anticonvulsants for Refractory Status Epilepticus and Medical Countermeasures for Nerve Agents: A 15-Year Journey to Bring Ganaxolone from Bench to Clinic. J. Pharmacol. Exp. Therapeut. 388: 273–300.112. Perucca, E., Bialer, M., and White, H.S. (2023). New GABA-Targeting Therapies for the Treatment of Seizures and Epilepsy: I. Role of GABA as a Modulator of Seizure Activity and Recently Approved Medications Acting on the GABA System. CNS Drugs 37: 755–779.113. Carroll,W.M. (2019). The global burden of neurological disorders. Lancet Neurol. 18: 418–419.114. Kang, C., and Syed, Y.Y. (2021). Luspatercept: A Review in Transfusion-Dependent Anaemia due to Myelodysplastic Syndromes or b-Thalassaemia. Drugs 81: 945–952.115. Markham, A. (2020). Luspatercept: First Approval. Drugs 80: 85–90.116. Komrokji, R.S., Platzbecker, U., Fenaux, P., et al (2022). Luspatercept for myelodysplastic syndromes/myeloproliferative neoplasm with ring sideroblasts and thrombocytosis. Leukemia 36: 1432–1435.117. Platzbecker, U., Santini, V., Komrokji, R.S., et al (2023). Long-term utilization and benefit of luspatercept in transfusion-dependent, erythropoiesis-stimulating agent-refractory or -intolerant patients with lower-risk myelodysplastic syndromes with ring sideroblasts. Leukemia 37: 2314–2318.118. Mullard, A. (2024). FDA approves first chikungunya vaccine. Nat. Rev. Drug Discov. 23: 8.119. Chikungunya vaccine approved (2023). Nat. Biotechnol. 41: 1667.120. Freedman, D.O., Wilder-Smith, A.B., and Wilder-Smith, A. (2025). First immunogenicity and safety data on live chikungunya vaccine in an endemic area. Lancet Infect. Dis. 25: 11–13.121. Schneider, M., Narciso-Abraham, M., Hadl, S., et al (2023). Safety and immunogenicity of a single-shot live-attenuated chikungunya vaccine: a double-blind, multicentre, randomised, placebo-controlled, phase 3 trial. Lancet 401: 2138–2147.122. Chen, R., Liu, S., Han, J., et al (2024). Trends in rare disease drug development. Nat. Rev. Drug Discov. 23: 168–169.123. Ramazi, S., and Zahiri, J. (2021). Post-translational modifications in proteins: resources, tools and prediction methods. Database 2021: baab012.124. Luboff, A.J., and DeRemer, D.L. (2024). Capivasertib: A Novel AKT Inhibitor Approved for Hormone-Receptor-Positive, HER-2-Negative Metastatic Breast Cancer. Ann. Pharmacother. 58: 1229–1237.125. Shirley, M. (2024). Capivasertib: First Approval. Drugs 84: 337–346.126. Turner, N.C., Oliveira, M., Howell, S.J., et al (2023). Capivasertib in Hormone Receptor– Positive Advanced Breast Cancer. N. Engl. J. Med. 388: 2058–2070.127. Bellacosa, A., Testa, J.R., et al (1991). A retroviral oncogene, akt, encoding a serine-threonine kinase containing an SH2-like region. Science 254: 274–277.128. Staal, S.P., Hartley, J.W., and Rowe, W.P. (1977). Isolation of transforming murine leukemia viruses from mice with a high incidence of spontaneous lymphoma. Proc. Natl. Acad. Sci. USA 74: 3065–3067.129. Andrikopoulou, A., Chatzinikolaou, S., Panourgias, E., et al (2022). The emerging role of capivasertib in breast cancer. Breast 63: 157–167.130. (2022). FDA and EMA Accept Regulatory Submission for Pfizer’s Ritlecitinib for Individuals 12 Years and Older with Alopecia Areata (Pfizer). https://www.pfizer.com/news/pressrelease/press-release-detail/fda-and-ema-accept-regulatory-submission-pfizers.131. Blair, H.A. (2023). Correction to: Ritlecitinib: First Approval. Drugs 83: 1457.132. Zhou, C., Li, X., Wang, C., et al (2021). Alopecia Areata: an Update on Etiopathogenesis, Diagnosis, and Management. Clin. Rev. Allergy Immunol. 61: 403–423.133. Passeron, T., King, B., Seneschal, J., et al (2023). Inhibition of T-cell activity in alopecia areata: recent developments and new directions. Front. Immunol. 14: 1243556.134. Ritlecitinib (2023). DRUGBANK. https://go.drugbank.com/drugs/DB14924.135. King, B., Zhang, X., Harcha, W.G., et al (2023). Efficacy and safety of ritlecitinib in adults and adolescents with alopecia areata: a randomised, double-blind, multicentre, phase 2b–3 trial. Lancet 401: 1518–1529.136. (2023). Dizal Announces China CDE Acceptance of New Drug Application for Golidocitinib for Relapsed or Refractory PTCL (Dizal). https://www.dizalpharma.com/news/detail? id=62#:~:text=Golidocitinib%20is%20the%20first-in-class%20Janus%20kinase%201%20%28JAK1%29,ORR%20of%2044.3%25%20and%20a%20CRR%20of%2023.9%25.137. (2024). Golidocitinib Approved in China as First-In-Class JAK1 Only Inhibitor for the Treatment of Relapsed or Refractory Peripheral T-Cell Lymphoma (Dizal). https://www.dizalpharma.com/news/detail?id=75¤tPage=1.138. Song, Y., Malpica, L., Cai, Q., et al (2024). Golidocitinib, a selective JAK1 tyrosine-kinase inhibitor, in patients with refractory or relapsed peripheral T-cell lymphoma (JACKPOT8 Part B): a single-arm, multinational, phase 2 study. Lancet Oncol. 25: 117–125.139. Syed, Y.Y. (2023). Sparsentan: First Approval. Drugs 83: 563–568.140. Del Vecchio, L., Allinovi, M., Comolli, S., et al (2024). Drugs in Development to Treat IgA Nephropathy. Drugs 84: 503–525.141. El Karoui, K., Fervenza, F.C., and De Vriese, A.S. (2024). Treatment of IgA Nephropathy: A Rapidly Evolving Field. J. Am. Soc. Nephrol. 35: 103–116.142. Lai, K.N., Tang, S.C.W., Schena, F.P., et al (2016). IgA nephropathy. Nat. Rev. Dis. Prim. 2: 16001.143. Trachtman, H., Komers, R., and Inrig, J. (2024). Sparsentan: the first and only non-immunosuppressive therapy for the reduction of proteinuria in IgA nephropathy. Expet Rev. Clin. Immunol. 20: 571–576.144. Anderer, S. (2024). FDA Approves Novel Schizophrenia Drug. JAMA 332: 1603.145. Kaul, I., Sawchak, S., Correll, C.U., et al (2024). Efficacy and safety of the muscarinic receptor agonist KarXT (xanomeline–trospium) in schizophrenia (EMERGENT-2) in the USA: results from a randomised, double-blind, placebo-controlled, flexible-dose phase 3 trial. Lancet 403: 160–170.146. Kaul, I., Sawchak, S., Walling, D.P., et al (2024). Efficacy and Safety of XanomelineTrospium Chloride in Schizophrenia: A Randomized Clinical Trial. JAMA Psychiatr. 81: 749–756.147. Rubbini, D., Cornet, C., Terriente, J., et al (2020). CRISPR Meets Zebrafish: Accelerating the Discovery of New Therapeutic Targets. SLAS Discov. 25: 552–567.148. Cohen, P., Cross, D., and Janne, P.A. (2021). Kinase drug discovery 20 years after imatinib: progress and future directions. Nat. Rev. Drug Discov. 20: 551–569.149. Attwood, M.M., Fabbro, D., Sokolov, A.V., et al (2021). Trends in kinase drug discovery: targets, indications and inhibitor design. Nat. Rev. Drug Discov. 20: 839–861.150. Galetin, A., Brouwer, K.L.R., Tweedie, D., et al (2024). Membrane transporters in drug development and as determinants of precision medicine. Nat. Rev. Drug Discov. 23: 255–280.151. (2024). Johnson & Johnson Pivotal Study of Seltorexant Shows Statistically Significant and Clinically Meaningful Improvement in Depressive Symptoms and Sleep Disturbance Outcomes (Johns. Johns). https://www.jnj.com/media-center/pressreleases/johnson-johnson-pivotal-study-of-seltorexant-shows-statistically-significantand-clinically-meaningful-improvement-in-depressive-symptoms-and-sleep-disturbanceoutcomes.152. (2024). Vertex Announces FDA Acceptance of New Drug Application for Suzetrigine for the Treatment of Moderate-to-Severe Acute Pain (Vertex News Events). https://investors.vrtx.com/news-releases/news-release-details/vertex-announces-fda-acceptance-new-drugapplication-suzetrigine.153. Ali, A.S.M., and Anderson, C.S. (2024). Gepotidacin, a new first-in-class antibiotic for treating uncomplicated urinary tract infection. Lancet 403: 702–703.154. Simon, J.A., Anderson, R.A., Ballantyne, E., et al (2023). Efficacy and safety of elinzanetant, a selective neurokinin-1,3 receptor antagonist for vasomotor symptoms: a dose-finding clinical trial (SWITCH-1). Menopause 30: 239–246.【转载声明】本文转载自“百奥信康”微信公众号。