A Phase III, Randomized, Double Blind, Active Controlled, Prospective, Parallel Group, Comparative, Multicentric Clinical Study to Evaluate the Efficacy, Safety and Tolerability of Fixed Dose Combination of Dextromethorphan Hydrobromide plus Bupropion Hydrochloride Extended Release Tablets versus Bupropion Hydrochloride Sustained Release Tablets in Adult Patients with Major Depressive Disorder (MDD). ?

开始日期2023-06-16

申办/合作机构

Exemed Pharmaceuticals

CTRI/2022/11/047227

/ Recruiting临床4期

A Multicentric, Phase IV Clinical Trial to Evaluate Safety and Efficacy Of Fixed Dose Combination Of Dextromethorphan Hydrobromide and Chlorpheniramine Maleate Sustained Release Suspension in Patients Suffering from Dry Cough Associated with Sneezing and/ or Running Nose and/ or Throat Irritation

开始日期2022-11-21

申办/合作机构-

CTR20212976

/ CompletedN/A

氢溴酸右美沙芬硫酸奎尼丁胶囊 20mg/10mg 随机、开放、单剂量、两制剂、双交叉空腹及餐后状态下人体生物等效性试验

主要目的：研究健康受试者在空腹及餐后状态下，单次分别口服受试制剂氢溴酸右美沙芬硫酸奎尼丁胶囊（规格：20mg/10mg）与参比制剂氢溴酸右美沙芬硫酸奎尼丁胶囊（商品名：Nuedxta®，规格：20mg/10mg），考察两制剂在健康人体内的生物等效性，为正式试验的样本量计算提供依据。次要目的：观察受试制剂氢溴酸右美沙芬硫酸奎尼丁胶囊和参比制剂Nuedxta®在健康受试者中的安全性。

开始日期2021-12-19

申办/合作机构

珠海润都制药股份有限公司

100 项与氢溴酸右美沙芬/硫酸奎尼丁相关的临床结果

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100 项与氢溴酸右美沙芬/硫酸奎尼丁相关的转化医学

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100 项与氢溴酸右美沙芬/硫酸奎尼丁相关的专利（医药）

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项与氢溴酸右美沙芬/硫酸奎尼丁相关的文献（医药）

2024-12-01·Current Drug Delivery

Supersaturation Behavior: Investigation of Polymers Impact on Nucleation Kinetic Profile for Rationalizing the Polymeric Precipitation Inhibitors

Article

作者: Rani, Nidhi ; Sharma, Prerna ; Guarve, Kumar ; Malik, Anuj ; Handa, Uditi

Background:Although nucleation kinetic data is quite important for the concept of supersaturation behavior, its part in rationalizing the crystallization inhibitor has not been well understood.Objective:This study aimed to investigate the nucleation kinetic profile of Dextromethorphan HBr (as an ideal drug, BCS-II) by measuring liquid-liquid phase segregation, nucleation induction time, and Metastable Zone width.Methods:Surfeit action was examined by a superfluity assay of the drug. The concentration was scrutinized by light scattering techniques (UV spectrum (novel method) and Fluorometer (CL 53)).Results:The drug induction time was 20 min without polymer and 90 and 110 min with polymers, such as HPMC K15M and Xanthan Gum, respectively. Therefore, the order of the polymer's ability to inhibit nucleation was Xanthan Gum > HPMC K15M in the medium (7.4 pH). Similarly, the drug induction time was 30 min without polymer and 20, 110, and 90 min with polymers, such as Sodium CMC, HPMC K15M, and Xanthan Gum, respectively. Therefore, the order of the polymer's ability to inhibit nucleation was HPMC K15M > Xanthan Gum > Sodium CMC in SIFsp (6.8 pH), which synchronizes the polymer’s potentiality to interdict the drug precipitation.Conclusion:The HPMC K15M and xanthan Gum showed the best crystallization inhibitor effect for the maintenance of superfluity conditions till the drug absorption time. The xanthan gum is based on the “glider” concept, and this shows the novelty of this preliminary research. The screening methodology used for rationalizing the best polymers used in the superfluity formulations development successfully.

2024-09-01·Biomedical Chromatography

A validated stability‐indicating reversed‐phase‐UPLC method for simultaneous estimation of promethazine hydrochloride, methylparaben, propylparaben and sodium benzoate assay of cough suppressant and antihistamine liquid oral dosage forms

Article

作者: Nekkalapudi, Arjuna Rao ; Komreddy, Venugopal Reddy ; Pippalla, Sreenivas

AbstractA quick, simple, sensitive, efficient and stability‐indicating reverse‐phase ultraperformance liquid chromatographic method for the estimation of propylparaben, methylparaben and sodium benzoate in a pharmaceutical liquid oral formulation was developed. A Waters Acquity UPLC BEH C18, 50 × 2.1 mm, 1.7 μm i.d. column was used to perform chromatographic separation with a 0.1% perchloric acid mobile phase used as solvent A and a mixture of 0.1 % perchloric acid and methanol in the ratio 20:80 (v/v), respectively, as solvent B. The experiments were carried out at a flow rate of 0.4 ml/min and the detection wavelength was 240 nm. The compartment temperature of the column was set at 40°C and the injection volume was set at 2 μl. The main aim of the research was to develop a single UPLC assay method for promethazine (active ingredient) and preservatives in the oral solution of promethazine HCl and dextromethorphan HBr that contains promethazine (active ingredient) and methylparaben, propylparaben and sodium benzoate (preservatives). An assay of dextromethorphan HBr was developed and validated by another HPLC method. The drug and preservatives were eluted at retention times of 19.3 min for promethazine HCl, 9.3 min for methylparaben, 18.9 min for propylparaben and 8.9 min for sodium benzoate. Validation of the developed method was carried out as stated by the International Conference on Harmonization guidelines ICH Q2B and under USP<1225>. The analytical parameters verified specificity/selectivity, linearity, accuracy, ruggedness and robustness. The linearity ranges of promethazine HCL, methylparaben, propylparaben and sodium benzoate were 10–100, 10–80, 1.0–8.0 and 10–80 μg/ml, respectively, with a correlation coefficient of active ingredients and preservatives of 1.00. Percentage recoveries of promethazine, propylparaben, methylparaben, and sodium benzoate were 100.0–100.2, 99.0–100.3, 99.5–98.0 and 99.0–100.0%. The validated analytical method proves that the method is specific, precise, linear, accurate, sensitive, rugged and stable, indicating the quantification of the active ingredient and all preservatives in liquid oral formulations.

2024-01-02·Amyotrophic Lateral Sclerosis and Frontotemporal Degeneration

ALSUntangled #71: Nuedexta

Review

作者: Brown, Andrew ; Li, Xiaoyan ; Bromberg, Mark ; Beauchamp, Morgan ; Staats, Kim ; Sun, Yuyao ; Carter, Greg ; Barkhaus, Paul ; Benatar, Michael ; Mascías Cadavid, Javier ; Jhooty, Sartaj ; Ennist, Dave ; Wicks, Paul ; Bedlack, Richard ; Bertorini, Tulio ; Pattee, Gary

Nuedexta is a combination of dextromethorphan hydrobromide and quinidine sulfate and was approved by the Food and Drug Administration (FDA) in 2010 to treat pseudobulbar affect (PBA). There have since been anecdotal case reports of bulbar function improvements after Nuedexta treatment. Here, we review the off-label use of Nuedexta for improving bulbar function in people with ALS. Nuedexta has plausible mechanisms for protecting brain stem motor neurons via its effects on S1R and glutamate excitotoxicity. Recent clinical trials support that Nuedexta can improve bulbar function in PALS, with or without PBA. Nuedexta causes mild to moderate side effects. Based on this information, we support considering Nuedexta treatment for bulbar dysfunction in ALS patients with or without PBA.

项与氢溴酸右美沙芬/硫酸奎尼丁相关的新闻（医药）

2024-09-26

·行舟Drug

周末文摘 | 美国505(b)(2) 路径对我国改良型新药设计与开发的启示

引用本文魏利军,雷继峰*.美国505(b)(2) 路径对我国改良型新药设计与开发的启示[J].中国食品药品监管,2024(7):56-67. 美国505(b)(2) 路径对我国改良型新药设计与开发的启示 Inspiration of the US 505(b)(2) on the Design and Development of Improved New Drugs in China 魏利军北京慧药实验室科技有限公司 WEI Li-jun Beijjing Huiyao Laboratory Co., Ltd. 雷继峰* 上海安必生制药技术有限公司 LEI Ji-feng* Shanghai Anbison Lab. Co., Ltd. 摘要 / Abstract 改良型新药在美国按505(b)(2) 路径申报和审评，相关药物的销售市场规模约为仿制药的1.7倍，在满足临床需求的前提下，505(b)(2) 药物因竞争压力较小而具有较大的经济效益。近年来，我国仿制药市场增长较为缓慢，越来越多的仿制药企业希望通过布局改良型新药获得新的增长点。同时，随着创新药获批数量的快速增长，越来越多的创新药企业开始利用改良型新药的路径增加产品的适用人群或延长生命周期。然而，改良型新药是一个具有挑战性的全新领域，不仅审批标准较高，而且产品设计的理念和经验尚不成熟，导致相关项目开发失败率较高或市场收益不理想。美国505(b)(2) 路径已发展近40 年，覆盖2500 多个批准文号，且很多产品的市场开拓取得成功，因此美国505(b)(2) 路径的设计与开发、药物临床评价及市场开拓对我国具有一定的借鉴意义。本文系统对比了我国改良型新药与美国505(b)(2) 路径药品申请的异同，梳理了美国505(b)(2) 路径审评审批情况，分析了成功通过505(b)(2)路径上市的产品所具备的共性及其设计思路与亮点，以期为我国改良型新药的业务布局、项目设计和产品开发提供一定的参考。 Improved new drugs are applied and evaluated according to the US 505(b)(2) pathway, and the market of 505(b)(2) products is about 1.7 times that of generic drugs in the USA. While meeting clinical needs, the 505(b)(2) products present significant economic benefits due to less competition. In recent years, due to the slow growth of the Chinese generic drug market, more and more generic pharmaceutical companies are looking to improved new drugs for new growth points. In addition, with the rapid growth of innovative drugs, many innovative pharmaceutical companies are starting to apply this pathway to increase the potential patient population or extend the product lifecycle. However, developing improved new drug is a challenging field for Chinese pharmaceutical companies, with high approval standards and immature product design concepts and experience, resulting in a high failure rate of development or unsatisfactory market returns. In contrast, the US505(b)(2) has a forty-year history, over 2500 approvals, and many products have obtained successful market performance. Therefore, the design and development, clinical evaluation, and market expansion of the US 505(b)(2) pathway are valuable for reference. This article systematically compares the similarities and differences between China’s improved new drugs and the US 505(b)(2) pathway, reviews 505(b)(2) approvals, including their market performance, design ideas, and highlights, to provide references for the industrial planning, project design, and product development of improved new drugs in China. 关键词 / Key words 505(b)(2) ；改良型新药；设计；开发；市场 505(b)(2); improved new drugs; design; development; market 01 美国505(b)(2) 的批准文号统计和市场概况 1984 年9 月，美国通过了《药品价格竞争与专利期补偿法案》（Drug Price Competition and Patent Restoration Act），又称为Hatch-Waxman 法案，修订后的《联邦食品药品和化妆品法案》（Federal Food, Drug and Cosmetic Act，FDCA）505 部分为药物上市申请提供了3 条路径：505(b)(1)、505(b)(2) 和505(j)。其中，505(b)(2) 旨在为主活性成分与市售药品相同，但剂型、规格和配方工艺等方面与市售药品存在差异，不能归类为仿制药的产品提供一种相对简化的新药申请通道[1-2]。按目前美国食品药品监督管理局（Food and Drug Administration，FDA）的分类，化学药品的新药上市许可申请（new drug application，NDA）可分为10 种类型，除了1 类属于505(b)(1) 路径之外，2~10 类均属于505(b)(2) 路径（表1）[3]。为了便于研究和分析，本文统计了近40 年以来美国FDA 批准的新药批文情况。统计结果显示，FDA 在1984~2023年仅批准了1328个新分子实体或新生物制品，低于授予的505(b)(2) 文号2523个。其中，2类90个，3类1252个，4类293个，5类705个，6类、9类、10类共112个，7类39个，8类32个。从趋势上来看，FDA每年批准的505(b)(2)数量相对稳定，有轻微的增长趋势，平均每年为63个，最多的一年为2016年的89个，最少的一年为1991年的29个（图1）。为了解通过505(b)(2) 路径上市产品的市场情况，本文使用艾昆纬（IQVIA）的全球药品销售数据库（Midas）对1984~2023 年获批的2523个505(b)(2)产品批文进行一一检索，结果显示美国505(b)(2) 产品在2022 年的总销售额约为1050 亿美元（截至本文统计时，数据库尚未更新至2023 年，故尚无2022年下半年和2023 年批准的部分产品数据），约占美国医药市场的17%。从产品获批上市的时间来看，市场主流产品是在2010~2019 年获批的，销售额占59% ；其次是在2000~2010 年获批的产品，销售额占29%。2022 年，2~5类505(b)(2) 产品的总销售额为924 亿美元；2017~2022 年，复合增长率为1.04%，市场处于缓慢增长状态（图2）。对于6~10 类产品，由于利用数据库无法有效区分销售额或涉及大量院外非处方药（OTC）产品而参考价值有限，本文不做重点探讨。需要注意的是，在上述2523个505(b)(2) 批文中，有702个在2022 年的销售额超过100 万美元，占比不足30%。也就是说，在1984~2023 年获批的505(b)(2) 批文中，超70% 在2022 年没有销售额或销售额不足100 万美元。其原因一方面在于时间跨度太长，大量产品已经退市、不再销售或因专利问题无法上市。FDA 橙皮书数据库显示，在2523个批文中，36% 处于停止销售状态，4% 处于暂时性批准状态。另一方面，505(b)(2) 产品需要企业从头开始进行市场推广，只有少数品种能够脱颖而出。在数据可区分度较高的2~5 类505(b)(2) 产品中，2022 年美国市场销售额排名前50 的产品销售额之和占总销售额的72.34%，市场集中度较高。在这50个产品中，36个被药物分子的原研厂家持有；9个被50强制药企业但非药物分子的原研厂家持有；仅5个被一般药物递送技术公司或制剂技术公司持有，销售额之和仅占上述50个产品的4.53%。销售排名在50 名后的产品市场格局较为分散，平均销售额仅为1100 万美元。 02 成功的505(b)(2) 产品共性分析如上文所述，虽然美国批准的505(b)(2) 产品数量较多，但年销售额超1 亿美元、生命周期内的总销售额超10亿美元的重磅产品屈指可数，且这些重磅产品大多来自于药物分子的原研厂家或制药巨头。造成这种结果的原因有两个方面：一是原研厂家拥有得天独厚的优势；二是美国505(b)(2) 产品的市场开拓投资巨大，对中小企业而言是一种挑战。首先，原研厂家开发505(b)(2) 产品是为了品牌延伸，以增加适用人群或提升用药便捷性为目的。例如，强生在利培酮片上市之后，又开发其口服液和口崩片，其临床优势是建立在新分子实体之上的，更容易获得市场认可。其次，原研厂家开发505(b)(2) 产品是为了延长产品的生命周期，可在药物化合物专利到期前停止推广普通制剂，同时切换为升级产品，如阿斯利康在奥美拉唑专利到期前，将奥美拉唑的处方替换为埃索美拉唑。再次，原研厂家或制药巨头拥有强大的品牌效应和渠道资源，学术推广能力及推广专业度也非一般药物递送技术公司或制剂技术公司所能及。最后，原研厂家拥有全面的药动学、药效学数据和用户反馈，能够直击患者痛点，找到最优的改良方案。相反，一般公司的505(b)(2) 产品往往面临诸多挑战。一是品牌要从头开始推广，若无足够临床优势和创意，就很难获得医生的关注和认可。由于大部分药物递送技术公司或制剂技术公司是中小型企业，渠道能力和推广能力都远不如原研厂家或制药巨头，很难做大市场。二是如果没有足够的临床额外获益，高价的505(b)(2) 产品会受到药品福利管理（PBM）组织的抵制，进而很难被纳入医保报销范围。三是505(b)(2)产品必须具有不可替代性（产品与仿制药存在显著差异或医生开具处方时注明不允许替代）才能产生销量，否则会在配方时被药师用仿制药替代。鉴于原研厂家的优势和中小型药物递送技术公司或制剂技术公司的劣势，后者通常会积极与原研厂家合作，为原研厂家的产品升级提供方案，或与在项目所属领域拥有强大管线的制药巨头合作，把产品委托给制药巨头销售。然而一般情况下，制药巨头仅对有技术创新、专利保护和临床价值的改良型新药接受销售委托，并投入巨资开拓市场。因此，如果产品没有显著优势，将可能无法产生销售额。虽然一般药物递送技术公司或制剂技术公司持有的产品很难发展成为重磅产品，但其中依然有成功突围的产品。基于对这些产品的梳理与分析，可以归纳出以下几点共性：富有创意的设计，技术含量较高或能形成强有力的专利保护，巨大的临床优势或能够解决临床痛点，有足够的市场卖点。 2.1 富有创意的设计例如，环孢素滴眼液（Restasis）是一款畅销的505(b)(2) 产品，其创意来自动物实验以及发现肾移植患者用药后泪液明显增加，后来进一步研究发现炎症能够抑制泪液释放，而环孢素作为免疫抑制剂，可以调节免疫系统而干预炎症。再如，右美沙芬可调节N- 甲基-D- 天冬氨酸（NMDA）受体，但容易被肝药酶代谢，Avanir 公司将其与肝药酶抑制剂奎尼丁联用并开发了Nuedexta，获得FDA 批准用于治疗假性延髓情绪。多年后，该创意被二次利用，Axsome 公司将右美沙芬与肝药酶抑制剂安非他酮联用并开发了Auvelity，成为治疗成人重度抑郁症的突破性疗法。此外，纳洛酮是一种阿片受体阻断剂，因没有选择性而无法用于阿片类药物引发的便秘治疗（需选择性阻断外周阿片受体），但经过聚乙二醇（PEG）修饰后便无法进入中枢神经系统，不但有效解决了阿片类药物引起的便秘，而且不影响阿片类药物的治疗效果。如果设计者无法跳出“仿制”的思维局限，就难以开发出富有创意的产品。由技术简单类推的创意（如片剂改缓释片），除非技术壁垒极高，否则很容易与他人“撞车”或被他人复制，因为这种“创意”也能被其他技术人员想到和做到。创意通常来自生活，设计者需走出实验室，与医生、患者和销售人员交流他们的痛点，从中发掘设计灵感。 2.2 技术含量较高或能形成强有力的专利保护一般情况下，产品的复杂程度越高，生命周期就越长，因为这些产品很难被仿制，如亮丙瑞林微球、奥曲肽微球等。然而这样的产品非常罕见，绝大部分505(b)(2) 产品都躲不过被仿制的命运，因此强有力的专利保护是产品成功的关键。有研究者统计分析了2010~2020 年美国批准上市的3~5 类505(b)(2) 产品获专利保护的占比：3 类产品为85.7%，4 类为77.4%，5 类为50.3%[4]。这表明随着技术含量的下降，获专利保护的概率也在减小。在不同类型505(b)(2) 产品中，5 类的开发门槛最低，获得专利保护的概率也最小。事实上，对于简单改剂型、配方或工艺的产品，即便获得了专利授权，保护效力也并不理想。因为仿制药厂家即便不使用专利保护的配方和工艺，也可能实现生物等效，所以技术门槛不够高的口服505(b)(2) 制剂，即便获得了市场认可，大多也只是昙花一现。除了专利保护，数据保护也是阻止仿制药进入市场的有效手段。根据美国的相关法规，只有开展了临床试验（不含生物等效性试验）的NDA才能获得3 年的数据保护期，但很多“改动不大”的产品容易被豁免临床试验，获得数据保护期的概率也很小。有研究统计分析数据显示，3 类505(b)(2) 产品获得数据保护期的比例为57.1%，4 类为66.0%，5 类仅为32.3%[4]。如果既没有强有力的专利保护、数据保护，也没有足够高的技术壁垒，产品即便获得了市场认可，也会很快迎来仿制药的激烈竞争。因此，5 类505(b)(2) 产品虽然研发难度较小，开发和注册成本也相对较低，但其生命周期通常比一般产品更短，市场影响力也更小，平均销售额仅为0.24 亿美元，低于2~5 类产品的平均水平（0.37 亿美元）。 2.3 巨大的临床优势或能够解决临床痛点要想让产品拥有足够的临床优势，在产品设计之时，就必须以获得临床优势为出发点。例如，降低药品的不良反应（如脂质体阿霉素相比普通注射剂降低了心脏毒性风险，白蛋白结合型紫杉醇相比普通注射剂杜绝了对紫杉醇发生超敏反应）；提高患者依从性（如奥氮平口崩片相比普通片剂克服了吞咽障碍，双氯芬酸钠喷雾剂相比口服制剂使用更便捷）；增加用药便捷性，扩大用药场景（如预充式肾上腺素注射液可以作为患者家庭和公共场所的储备用药，每日一片药物的艾滋病“鸡尾酒疗法”可以大幅减少患者服药错乱的现象）；提高疗效（如丁丙诺啡缓释注射剂相比口服疗法可显著提高毒瘾戒除成功率，白蛋白结合型紫杉醇可以提升乳腺癌治疗应答率）；二次定位产品，填补用药空缺（如芬太尼透皮贴剂可用于癌痛管理，硝酸甘油凝胶剂可用于局部治疗勃起功能障碍）；防止阿片类药物滥用（如防滥用制剂羟考酮）；大幅降低治疗成本（如口服抗生素可用于序贯治疗，减少患者的住院时间）。总之，为了体现产品的临床优势，需要通过临床试验来证明，不能吝啬必要的临床投入。若想节约研发成本，在产品设计之时，不仅要在药物机制上解释清楚潜在的临床优势，还需要有可以量化的指标。例如，虽然非诺贝特通过增溶技术实现了给药剂量下调，提高了生物利用度，但并没有直接、可量化的指标证明其临床优势。 2.4 有足够的市场卖点影响产品卖点的因素很多，如是否会为患者带来新的痛点，是否可稳定、大批量生产，用药成本是否过高，是否会引起严重不良反应，是否符合患者的生理特征和使用习惯，是否相较于竞品有独特的优势，产品创意是否为消费者所需要等。例如，基因泰克和Alkermes 公司联合开发的生长激素长效微球，虽然可以大幅减少患者打针的痛苦，但因为生产成本过高，上市后就很快退市。再如，可监视药物体内处置过程的创新制剂——带传感器的阿立哌唑（Abilify MyCite）几乎没有产生销量，因为这种创意对于大部分消费者而言是华而不实的。 03 505(b)(2) 路径的审评审批情况分析 505(b)(2) 产品或改良型新药是基于已上市活性成分的二次开发，大部分安全有效性证据是已知的，故不需要开展完整的安全有效性试验。由于不同国家和地区的药品审批标准不同，申请人所需开展的试验项目也有所差异。在505(b)(2) 路径的申报过程中，申请人可以通过新药临床试验申请前（pre-investigational new drug，Pre-IND）会议与美国FDA 建立有效的沟通以尽量豁免或减免临床试验，甚至豁免生物等效性试验，从而大幅压缩开发时间和成本[5]。有研究者统计分析了2010~2012 年美国FDA 批准的106 项不涉及美国总统防治艾滋病紧急救援计划（U.S. President's Emergency Plan for AIDS Relief，PEPFAR）的505(b)(2) 申请，其中有26 项（25%）仅基于临床药理学数据就获得了批准，有29 项（27%）被豁免了生物等效性或生物利用度试验和临床药理学试验，仅43% 的申请被要求开展临床药理学试验和临床试验[6]。从剂型角度来看，有研究者统计分析发现，2012~2016 年获批的226 项505(b)(2) 申请中，拥有完整审评信息的3~5 类产品申请有112 项，其中口服速释制剂、口服缓释制剂、口服迟释制剂（肠溶制剂）、口服新复方制剂、注射剂、变更辅料、新增规格和改变给药途径的申请分别为20 项、18 项、5 项、18 项、9 项、20 项、11 项和11 项。结果显示，上述申请中，获得生物等效性或生物利用度试验豁免的分别占比20%、0%、0%、0%、33%、75%、9% 和18% ；需要开展安全有效性研究（不含特定安全性研究）的分别占比25%、61%、80%、94%、0%、10%、45% 和36% ；需要开展临床前研究的分别占比5%、11%、20%、33%、20%、50%、27% 和55%[7]。从这些数据不难看出，美国FDA 对口服速释制剂、注射剂、变更辅料的505(b)(2) 申请，要求相对较低（图3）。审评速度方面，有研究者统计分析了284个在2009~2015 年获批的505(b)(2)产品，平均审评时间为18.4个月。相较于创新药，505(b)(2) 产品在第一轮审评结束后获批的概率较低，仅为49%。其中，有31 项获得了优先审评资格，9 项获得了罕见病用药认定[8]。 04 我国改良型新药与美国505(b)(2) 产品异同 2015 年8 月，国务院印发《关于改革药品医疗器械审评审批制度的意见》[9]，原国家食品药品监督管理总局根据相关要求于2016 年3 月发布《化学药品注册分类改革工作方案》[10]，我国对改良型新药首次有了明确的规定。我国改良型新药虽与美国505(b)(2) 产品有诸多相似之处，但其中注册分类为2 类的改良型新药更强调临床优势。具体而言，美国505(b)(2)产品的临床优势主要由市场评判，我国2类改良型新药如没有显著性临床优势，就可能无法获得批准，甚至新药申请也可能不被受理。我国2 类改良型新药主要分为以下几种：2.1 类为新活性成分，包括光学异构体，新盐、新酯，新酸根、新碱基或新螯合物，类似于美国505(b)(2) 产品注册中的2 类；2.2 类为新剂型、新处方工艺、新给药途径，类似于美国505(b)(2)产品注册中的3 类和5 类；2.3 类为新复方制剂，类似于美国505(b)(2) 产品注册中的4 类；2.4 类为新适应症，类似于美国505(b)(2) 产品注册中的6 类、9 类和10 类。我国对2 类改良型新药的临床优势有明确的要求，相关注册申请通过率较低。本文基于国家药品监督管理局药品审评中心（Center for Drug Evaluation，CDE）历年发布的药品审评报告数据进行了统计分析，2016~2023 年，CDE共受理了1496个改良型新药的IND，仅有278个进入NDA 阶段，其中有165个审结并建议批准（表2）。另基于药智网数据分析发现，2016 年6 月至2023年8月，共有148个改良型新药文号获批，其中2.1类3个，2.2类42个，2.3类9个，2.4类92个，2.2和2.4类2个，分别约占2%、29%、6%、62% 和1%（图4）。与美国505(b)(2) 产品相比，我国改剂型、改配方的产品比重较低，新适应症产品比重较高。除以上差异外，美国还对开展了临床试验（不含生物等效性试验）的产品提供3 年数据保护期，如果获得特殊认定则该期限更长，如罕见病用药认定的数据保护期为7 年，合格的传染病用药为5 年，儿科用药可额外增加0.5 年[5]。 05 我国改良型新药的市场状况本文通过Midas 数据库对我国已批准的2.1~2.3 类改良型新药进行一一检索，结果显示共有22个品种在该数据库中拥有销售额，2022 年和2023 年上半年的总销售额分别为4830 万美元和4290 万美元。由于数据库无法区分适应症，在商品名、剂型、规格一致的情况下，无法判断销售额来自新药还是改良型新药，故与美国的6 类、9 类和10 类505(b)(2) 产品一样，也不将此类产品纳入研究。尽管可获得的销售数据不多，但已有数据明显表现出增长趋势。由于我国改良型新药审批通道发展较晚，现有销售数据对市场状况的反映程度有限，本文不再做过多赘述。在不同类型的改良型新药中，2.1~2.3 类产品占比不足40%，这一方面说明我国药品监管部门对新剂型、新复方的审批标准较高；另一方面显示出，我国制药企业在载药技术和产品设计经验方面，相比美国505(b)(2) 产品申请人还存在一定的差距，相关项目开发成功率有待提高。总之，越来越多的国内企业开始重视改良型新药的布局，有的创新药企业已经把这种路径作为提升受众基数、扩大产品销量、延长产品生命周期的有效工具。例如，先声药业在依达拉奉右莰醇注射用浓溶液获批后又开发了其舌下片；信立泰药业在面临阿利沙坦酯“专利悬崖”之际，又布局了多个新复方。而仿制药企业鉴于激烈的市场竞争，普遍将开发改良型新药作为一种出路。上海谊众的注射用紫杉醇聚合物胶束于2021 年获批上市，2023年的营业收入就达到了3.6 亿元，这大大增强了改良型新药对企业的吸引力。由于很多企业习惯开发仿制药，在改良型新药的设计方面，“仿”的元素明显大于“创”，从而引发多个赛道异常拥挤或出现“为改而改”“乱改剂型”等现象，这些都是改良型新药开发失败率较高、市场表现不理想的主要原因。 06 讨论虽然我国的改良型新药与美国的505(b)(2) 产品的审评和审批要求有所不同，但市场要求是一样的。因此，成功的505(b)(2) 案例可以为我国改良型新药的设计提供一定的参考。如果企业不是药物分子的原研厂家，在产品布局时不考虑成功505(b)(2) 产品所具备的共性（富有创意的设计、技术含量较高或能形成强有力的专利保护、巨大的临床优势或能够解决临床痛点、有足够的市场卖点），仅是为开拓管线而盲目撒网，那么成功的概率注定大打折扣。改良型创新不局限于改剂型，因为从载药技术上发掘临床优势的难度越来越大，美国3 类505(b)(2) 产品的申报活跃度已呈现出明显的下降趋势（表3）。首先，随着药物筛选技术的逐渐提高，药物分子原研厂家在分子设计上侧重于一步到位，留下的改良机会并不多。其次，由于创新药研发成本攀升，原研厂家非常重视产品生命周期的延长，便不断升级配方，使得改良的机会大幅减少。再次，载药技术鲜有重大突破，老药经过多次改良已再难有提升空间，而近年来新上市的产品可供改良的机会不多，因此产品设计方面出现了瓶颈。此外，常见载药技术已普遍被仿制药企业掌握，大部分505(b)(2) 产品因仿制药的快速出现而投资回报不佳。最后，鉴于美国的“阿片类药物保卫战”[11]，FDA 收紧了对阿片类药物的监管[12-14]，导致缓控释制剂的开发积极性迅速下滑。改良型创新也不等于比拼技术难度。在美国，技术壁垒较低的5 类505(b)(2)产品的申报活跃度正在快速上升。从逻辑上讲，企业申报的5 类505(b)(2) 产品主要有以下几种类型。一是原研厂家为延伸品牌树和延长产品生命周期而申报大量的简单制剂，如强生在利培酮片上市后又推出了口崩片，艾尔建在贝美前列素滴眼液面临“专利悬崖”时升级了配方。二是因原研产品的配方专利保护或使用了特殊工艺而无法做到生物等效或处方组成/ 用量（Q1/Q2）一致，仿制药企业只改变策略选择申报5 类505(b)(2)，如阿特维斯、费森尤斯和山德士等公司为了绕开卡巴他赛的配方专利而相继提交了NDA。三是在消费升级的趋势下，许多企业为满足高端用户的需求而升级配方，如把普通注射剂升级为预充式注射剂，把大输液升级为固液双室袋，将滴眼液升级为无防腐剂配方等。四是大输液厂家为丰富产品管线而开发大量新配方，如费森尤斯使用不同的油相配比开发了多个脂肪乳配方。虽然5 类505(b)(2) 产品的研发门槛较低，但这并不代表其没有存在的价值。首先，企业以提升便捷性、依从性为目的，开发口服液、口崩片、咀嚼片以及小规格药品等，可有效解决老、幼以及肝肾功能不全等患者的用药痛点。其次，不同的患者对药物有不同的诉求，其中便捷性是一个重要的考量因素。例如，艾滋病治疗用药逐渐从一日多次、多片向一日一片发展，慢性病用药剂型向服用时不需要喝水或只需要少量水的口崩片、口溶膜发展等。最后，因原研产品存在组合物、晶型或工艺专利而不能申报仿制，仿制企业通过适度改工艺或配方申报505(b)(2)，有利于促进竞争，进而降低药价，减轻患者经济负担。总之，或许这些产品的临床优势并不明显或难以量化，但其的确是市场所需要的。我国改良型新药和美国505(b)(2) 产品都兼具“复制”和“创新”的属性[15]，虽然在审评、审批上存在诸多差异，但我国的改良型新药也必将成为创新药和仿制药之间的一块独特而不可或缺的市场。对于普通药品研发企业而言，在仿制药受到药品集中带量采购等影响的情况下，改良型创新是一条既符合实情又有一定前景的转型路径；对于创新药企业而言，改良型创新是延长产品生命周期、扩大细分市场、增加受众人群的有效途径。第一作者简介魏利军，硕士，北京慧药实验室科技有限公司，副主任药师。专业方向：产品战略、企业管理研究通讯作者简介雷继峰，硕士，上海安必生制药技术有限公司，高级工程师。专业方向：高壁垒制剂开发【参考文献】略你“在看”我吗？

申请上市

2024-05-24

·FiercePharma

Fierce Pharma Asia—AstraZeneca eyes China's innovation, plots Singapore ADC plant; FDA rejects Hengrui's PD-1 drug

AstraZeneca made multiple headlines related to Asia this week. In addition, the FDA's rejection of Hengrui's PD-1 inhibitor made our news roundup. AstraZeneca's CEO wants to tap into China's innovation explosion. The company inked an oncology antibody deal with Harbour BioMed, and it plans to build a $1.5 billion ADC plant in Singapore. Hengrui and Elevar's proposed PD-1/VEGFR liver cancer combination has been rejected by the FDA. Plus more. 1. AstraZeneca to harness China's explosion of innovation to boost cell therapy R&D Innovation in China has “exploded,” and AstraZeneca plans to utilize its growing presence in the country to boost its R&D ambitions in cell therapy, CEO Pascal Soriot said during an investor event. Clinical development of cell therapy in China can “move much faster than anywhere else in the world,” he said. The British pharma has made several deals with Chinese companies over the past two years, including its $1 billion acquisition of Gracell Biotechnologies. 2. AstraZeneca pays $19M to Harbour BioMed's Nona for preclinical cancer antibodies Speaking of tapping into China’s innovation, AstraZeneca paid Harbour BioMed’s U.S. subsidiary Nona Biosceicnes $19 million upfront for preclinical monoclonal antibodies as potential targeted cancer therapies. Nona’s mice-based technology can produce heavy chain-only antibodies. The deal also includes $10 million in near-term payments and another $575 million in biobucks. 3. AstraZeneca places $1.5B bet on end-to-end ADC manufacturing in Singapore Meanwhile, AZ has unveiled plans to build a $1.5 billion antibody-drug conjugate manufacturing facility in Singapore. The site, expected to be operational by 2029, will become the company’s first end-to-end ADC production site. The move comes shortly after CEO Soriot said AZ is building separate drug supply chains for China and Western countries amid geopolitical risks. In recent years, Singapore has become a hot destination for biopharma manufacturing expansions. 4. FDA snubs another China-made PD-1 with rejection of Elevar, Hengrui's liver cancer combo The FDA has rejected Jiangsu Hengrui Pharma and Elevar Therapeutics’ respective applications for PD-1 inhibitor camrelizumab and the VEGFR inhibitor rivoceranib for use as a combination in first-line liver cancer. The FDA cited unresolved issues from the inspection of Hengrui’s manufacturing facility for camrelizumab as well as unfinished clinical trial site inspections. The partners aim to refile as soon as possible. 5. Takeda gets crafty with $1.2B biobucks deal to create molecular glues with Degron Takeda has signed a $1.2 billion biobucks deal with Shanghai’s Degron Therapeutics to work on molecular glue degraders for multiple targets in oncology, neuroscience and inflammation. Degron will use its GlueXplorer platform to find the new glues for therapeutic targets selected by Takeda. Degron has an in-house pipeline, including five early-stage molecular glue candidates in oncology. 6. Otsuka pulls plug on Alzheimer's agitation drug after 2nd failed trial Otsuka has officially ended development of AVP-786 after the NMDA receptor antagonist failed to move the needle in agitation associated with Alzheimer’s disease in a phase 3 trial. Otsuka obtained the drug from its $3.5 billion acquisition of Avanir Pharmaceuticals in 2015, which also gave the Japanese pharma Nuedexta for the rare disorder pseudobulbar affect. 7. Merck KGaA unit avoids DOJ prosecution after exposing scheme to divert drugs to China Two Florida residents pleaded guilty to conspiring to “fraudulently procure deeply discounted products” from Merck’s KGaA’s Sigma-Aldrich and ship them to China using faked export documents. The Department of Justice decided not to prosecute the German firm’s life science division, MilliporeSigma, because the company quickly disclosed the scheme and cooperated with the government’s investigation. 8. Chinese CDMO Asymchem expands footprint with deal to take over former Pfizer UK site China’s Asymchem Laboratories inked a deal to purchase a former Pfizer small molecule API pilot plant and part of its development labs in Sandwich, England. As part of a bigger cost-cutting scheme, Pfizer last year laid off 500 staffers at the plant. The purchase marks Asymchem’s first foray into Europe, and the firm expects to hire 100 workers by the end of the year, including many former Pfizer employees. Other News of Note: 9. Bristol Myers lines up Opdivo treatment in Pakistan, Rwanda and beyond as part of 10-year access campaign 10. Astellas, Yaskawa Electric Corporation ink pact to explore automated cell therapy production 11. Serum Institute deploys first doses of Oxford, Novavax-partnered malaria shot to Africa 12. No treachery here: Celltrion signs 'The Traitors' star Mollie Pearce for bowel disease campaign

并购临床3期细胞疗法引进/卖出抗体药物偶联物

2024-05-23

·Pharmaceutical Technology

Otsuka cuts development for AVP-786 following Phase III flop

Otsuka Pharmaceuticals ended clinical development for AVP-786 for agitation associated with Alzheimer’s disease following a negative Phase III readout. Credit: SOPA Images via Getty Images. Otsuka Pharmaceutical has axed the development of its dementia drug, AVP-786, following a disappointing Phase III readout (NCT03393520). Free Report How is the Biopharmaceutical industry evolving? 2021 was a year of continued innovation and change in the Biopharmaceutical industry. As the COVID-19 pandemic continues to take its toll on businesses worldwide, it’s time to look for new ways to create value, prepare for the future, and remain competitive in the ever-changing landscape. GlobalData’s expansive report examines the business environment and trends that shape the Biopharmaceutical industry. We highlight the most impactful emerging technologies, as well as the industry, regulatory, and macroeconomic factors that influence growth prospects. Access the report to: Benchmark the impact of major themes on the Biopharmaceutical industry. Gain a deeper "on the ground" perspective through exclusive opinions and analysis from industry respondents. Evaluate the effects of COVID-19 on the sector. Download the full report to understand what to expect and how to align your strategies for success. Thank you. You will receive an email shortly. Please check your inbox to download the Report. 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Our services are intended for corporate subscribers and you warrant that the email address submitted is your corporate email address. The Japanese company was investigating the therapy as a potential treatment for patients with agitation associated with dementia due to Alzheimer’s disease (AD). Otsuka completed the recent Phase III study in December 2023, reporting the official study results in February 2024. In the randomised, double-blind study, AVP-786 demonstrated no significant difference in the primary endpoint of mean change in the Cohen-Mansfield Agitation Inventory total score compared to the placebo. As per the 22 May press release, the decision to terminate the drug’s development followed a complete data analysis of the Phase III trial. AVP-786 is a dextromethorphan/quinidine combination that works by antagonising NMDA receptors and agonising Sigma-1 receptors amongst other effects. The therapy is a second-generation treatment, derived from Avanir Pharmaceuticals ’ Nuedexta (AVP-923). Otsuka acquired Avanir in a $3.5bn deal in December 2014. Nuedexta is a first-in-class dual-action glutamate inhibitor approved by the US Food and Drug Administration (FDA) for the treatment of pseudobulbar affect (PBA) associated with certain neurological conditions, including multiple sclerosis, in December 2010. Otsuka is the developer of the only FDA-approved treatment for the agitation associated with dementia due to AD, Rexulti (brexpiprazole), which received approval in November 2023. See Also: Pfizer starts $1.5bn cost-cutting initiative amidst declining Covid-19 revenues Patients and caregivers driving innovation in drug development According to GlobalData, there are seven therapies in Phase III trials for dementia associated with Alzheimer’s disease. This includes trials studying Auvelity— Axsome Therapeutics bupropion / dextromethorphan combination therapy, and Novo Nordisk ’s semaglutide. Novo Nordisk’s drug is approved for the treatment of weight loss and diabetes, under the brand names Wegovy and Ozempic. Pharma companies are actively trying to push the scope of these GLP-1 receptor agonists , with trials now exploring them as treatments for neurological disorders and fatty liver disease. Novo Nordisk predicts that the Phase III AD trial with semaglutide will be completed in October 2026. GlobalData is the parent company of Pharmaceutical Technology. As per the recent press release, Otsuka has declared that it will continue developing therapies for agitation associated with AD. Free Report How is the Biopharmaceutical industry evolving? 2021 was a year of continued innovation and change in the Biopharmaceutical industry. As the COVID-19 pandemic continues to take its toll on businesses worldwide, it’s time to look for new ways to create value, prepare for the future, and remain competitive in the ever-changing landscape. GlobalData’s expansive report examines the business environment and trends that shape the Biopharmaceutical industry. We highlight the most impactful emerging technologies, as well as the industry, regulatory, and macroeconomic factors that influence growth prospects. Access the report to: Benchmark the impact of major themes on the Biopharmaceutical industry. Gain a deeper "on the ground" perspective through exclusive opinions and analysis from industry respondents. Evaluate the effects of COVID-19 on the sector. Download the full report to understand what to expect and how to align your strategies for success. Thank you. You will receive an email shortly. Please check your inbox to download the Report. 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临床3期上市批准临床结果申请上市临床2期

100 项与氢溴酸右美沙芬/硫酸奎尼丁相关的药物交易

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外链

KEGG	Wiki	ATC	Drug Bank
-	氢溴酸右美沙芬/硫酸奎尼丁	N07XX59	-

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
假性延髓麻痹	美国	Avanir Pharmaceuticals, Inc.	2010-10-29

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
假性延髓情绪	临床3期	列支敦士登	Jenson Pharmaceutical Services Limited	2013-06-24
假性延髓情绪	临床3期	欧盟	Jenson Pharmaceutical Services Limited	2013-06-24
假性延髓情绪	临床3期	挪威	Jenson Pharmaceutical Services Limited	2013-06-24
假性延髓情绪	临床3期	冰岛	Jenson Pharmaceutical Services Limited	2013-06-24
肌萎缩侧索硬化	临床3期	美国	Avanir Pharmaceuticals, Inc.	2001-01-01
情绪不稳	临床3期	美国	Avanir Pharmaceuticals, Inc.	2001-01-01

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临床结果

适应症

分期

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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


P6-3.008 (AAN2024)	N/A	亨廷顿舞蹈病	20	Dextromethorphan/Quinidine 20mg/10mg	(憲鹽網鬱壓壓願糧觸遞) = 積憲壓鹹鏇範遞積憲窪衊餘築鏇觸築糧糧獵鏇 (製襯繭餘餘顧構築積遞 )	不佳	2024-04-09
				Placebo	(憲鹽網鬱壓壓願糧觸遞) = 鹽鬱簾鑰衊淵鏇選築製衊餘築鏇觸築糧糧獵鏇 (製襯繭餘餘顧構築積遞 )
NCT01767129 (LID in PD, CTgov)	临床2期	药物性运动障碍 \| 帕金森病	14	AVP-923-45 (AVP-923-45)	鑰積淵齋製鑰鹹鑰鹽糧(鹽鹽繭艱壓築廠網鏇構) = 糧鏇鬱糧積鬱艱憲築簾鑰襯鑰繭餘簾構膚構觸 (簾齋獵膚夢醖醖構艱襯, 願願網範願鑰選製襯膚 ~ 範蓋襯簾鑰網製糧簾遞) 更多	-	2022-04-29
				Placebo (Placebo)	鑰積淵齋製鑰鹹鑰鹽糧(鹽鹽繭艱壓築廠網鏇構) = 鹹築鹹網蓋蓋積窪餘築鑰襯鑰繭餘簾構膚構觸 (簾齋獵膚夢醖醖構艱襯, 選蓋製繭顧範簾蓋膚夢 ~ 夢鬱鬱製壓獵壓簾構廠) 更多
NCT01584440 (CTgov)	临床2期	阿尔茨海默症 \| 躁动	220	Placebo (Placebo)	願鹹醖淵蓋艱憲獵顧憲(襯夢簾蓋鏇簾鏇製構膚) = 窪夢廠淵窪獵餘鏇鏇選醖醖醖觸糧壓憲觸壓憲 (鹹構遞壓顧觸簾壓顧廠, 簾鏇網襯鹽網繭鏇顧廠 ~ 壓顧窪廠窪築夢壓鏇蓋) 更多	-	2021-11-26
				AVP-923-20 (AVP-923)	願鹹醖淵蓋艱憲獵顧憲(襯夢簾蓋鏇簾鏇製構膚) = 鹽鑰憲鹽壓構艱壓觸觸醖醖醖觸糧壓憲觸壓憲 (鹹構遞壓顧觸簾壓顧廠, 淵衊鬱窪鑰鏇膚艱鹹觸 ~ 選獵築遞鬱選鏇願糧襯) 更多
NCT01324232 (PRIME, CTgov)	临床2期	多发性硬化症 \| 神经痛	209	Placebo (Placebo)	構廠醖範願襯顧積膚鑰(壓窪憲醖構構鹽憲蓋糧) = 鑰鏇觸獵艱蓋構廠鹹廠築鹹網鬱壓蓋艱製壓願 (範積窪觸衊夢淵壓遞夢, 繭襯獵鑰繭繭艱範遞膚 ~ 鹽遞遞鹹鹽廠鹹鑰艱淵) 更多	-	2021-11-22
				AVP-923-20 (AVP-923-20)	構廠醖範願襯顧積膚鑰(壓窪憲醖構構鹽憲蓋糧) = 鏇遞蓋餘鹹願襯範鹽憲築鹹網鬱壓蓋艱製壓願 (範積窪觸衊夢淵壓遞夢, 鹽膚鏇餘鹽繭襯觸製廠 ~ 獵範壓積製願衊蓋廠鬱) 更多
AAN2019	N/A	假性延髓情绪	86	Dextromethorphan-Quinidine (Nuedexta)	選憲觸糧衊壓廠獵齋遞(鹽鹹糧製衊製繭衊醖襯) = 艱選窪糧顧網廠構願築製網餘醖顧構構築蓋餘 (繭獵鬱構鬱壓簾淵鏇鏇, -3.30 ~ 5.22)	-	2019-04-09
NCT01882829 (CTgov)	临床2期	重度抑郁症 \| 难治性抑郁症	20	dextromethorphan/quinidine	(襯艱獵築憲範醖簾淵鹽) = 獵鹽夢製願獵壓築簾願獵範蓋糧窪夢製鏇壓糧 (鹹鏇築齋獵積鏇鹽範襯, 窪構蓋鹽遞鑰鬱構製願 ~ 餘艱獵醖蓋網衊簾憲醖) 更多	-	2018-06-11
NCT02176018 (CTgov)	临床2期	偏头痛	76	Dextromethorphan (Nuedexta)	鑰蓋鑰製觸齋蓋願膚蓋(鑰鏇獵蓋膚膚齋襯獵膚) = 網願簾淵壓獵繭齋顧餘繭夢壓遞衊範構膚齋獵 (顧壓襯艱繭積齋築積餘, 築遞鑰憲觸壓糧觸簾鏇 ~ 夢鑰醖簾膚製齋構鹽餘) 更多	-	2018-04-03
				Placebo (Placebo)	鑰蓋鑰製觸齋蓋願膚蓋(鑰鏇獵蓋膚膚齋襯獵膚) = 繭艱鹹製窪簾鏇製襯夢繭夢壓遞衊範構膚齋獵 (顧壓襯艱繭積齋築積餘, 願鏇築鹹構窪顧淵選蓋 ~ 憲鏇鹽簾積鹽觸膚蓋鑰) 更多
NCT01630811 (Nuedexta, CTgov)	临床2期	自闭症 \| 自闭症谱系障碍	13	Nuedexta (Nuedexta)	壓鬱製鑰窪獵網製積網(獵齋築膚鹽鬱廠衊鑰觸) = 餘觸獵醖鹹網鏇網鬱選顧淵壓範壓鏇觸壓窪網 (糧夢鬱醖餘鹹範窪襯構, 簾鏇蓋廠鹽構淵憲餘範 ~ 獵醖獵餘襯鹽繭獵壓鹹) 更多	-	2017-12-08
				Placebo (Placebo)	壓鬱製鑰窪獵網製積網(獵齋築膚鹽鬱廠衊鑰觸) = 窪壓鏇鹹鹽願願糧鬱醖顧淵壓範壓鏇觸壓窪網 (糧夢鬱醖餘鹹範窪襯構, 製夢顧糧齋餘構壓蓋觸 ~ 壓淵築壓願齋範築鑰獵) 更多
NCT01799941 (PRISM II, Pubmed \| CNS Spectr)	临床4期	假性延髓情绪	134	Dextromethorphan/quinidine 20/10 mg	(願鏇窪糧鏇糧醖鏇網膚) = 艱廠觸鏇願鹽齋齋淵鏇遞壓獵糧範衊膚衊鬱壓 (鑰簾醖範襯簾膚願鬱憲 ) 更多	-	2016-12-01
NCT01799941 (PRISM II, AAN2016)	临床4期	假性延髓情绪	367	Dextromethorphan 20 mg/Quinidine 10 mg (NUEDEXTA®)	鏇窪構夢艱鹽鑰網襯艱(蓋廠蓋膚糧鬱觸憲簾醖) = 網選繭鏇齋願鹹襯簾積繭蓋壓壓壓簾夢糧蓋憲 (積糧構製廠膚製鹽憲夢 )	积极	2016-04-05