Protocol IDN-6556-18 - A Post Treatment Follow-up Study for Liver Disease Subjects With or Without Liver Cirrhosis After Receiving Emricasan or Placebo

A post-treatment follow-up observational study for liver disease subjects with or without liver cirrhosis after receiving emricasan or placebo.
Subjects must have been enrolled in a prior IDN-6556 study to be eligible.

开始日期2018-02-27

申办/合作机构

Conatus Pharmaceuticals, Inc.

NCT03205345 / Unknown status临床2期

A Multicenter, Randomized, Double-Blind, Placebo-Controlled Trial of Emricasan, an Oral Caspase Inhibitor, in Subjects With Decompensated Non-Alcoholic Steatohepatitis (NASH) Cirrhosis

This is a multicenter, double-blind, randomized, placebo-controlled study to evaluate the safety and efficacy of emricasan in improving event-free survival based on a composite clinical endpoint (where all-cause mortality, new decompensation events, and MELD score progression are events) in subjects with decompensated NASH cirrhosis.

开始日期2017-06-28

申办/合作机构

Conatus Pharmaceuticals, Inc.

NCT03462576 / TerminatedN/A

Companion Protocol for the ¹³C-Methacetin Breath Test Using the BreathID® MCS System for Conatus Phase 2 Study of Emricasan, an Oral Caspase Inhibitor, Under Protocol IDN-6556-17

This study is a companion protocol that will use the data generated by Conatus' study of emricasan under protocol IDN-6556-17.The IDN-6556-17 study is a Phase 2, multicenter, double-blind, placebo-controlled trial of Emricasan in subjects with decompensated non-alcoholic steatohepatitis (NASH) cirrhosis.

开始日期2017-06-28

申办/合作机构

Meridian Bioscience, Inc.

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0 项与 Conatus Pharmaceuticals, Inc. 相关的专利（医药）

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项与 Conatus Pharmaceuticals, Inc. 相关的文献（医药）

2019-09-01·Hepatology (Baltimore, Md.)

Letter

作者: Garcia-Tsao, Guadalupe ; Bosch, Jaime ; Hagerty, David

2019-07-01·Hepatology communications2区 · 医学

Emricasan Ameliorates Portal Hypertension and Liver Fibrosis in Cirrhotic Rats Through a Hepatocyte‐Mediated Paracrine Mechanism

2区 · 医学

ArticleOA

作者: Contreras, Patricia C. ; García‐Calderó, Héctor ; Hide, Diana ; Bosch, Jaime ; Fernández‐Iglesias, Anabel ; Spada, Alfred ; Gracia‐Sancho, Jordi ; Boyer‐Díaz, Zoe ; Guixé‐Muntet, Sergi ; Maeso‐Díaz, Raquel ; Ortega‐Ribera, Martí ; Manicardi, Nicolò

In cirrhosis, liver microvascular dysfunction is a key factor increasing hepatic vascular resistance to portal blood flow, which leads to portal hypertension. De‐regulated inflammatory and pro‐apoptotic processes due to chronic injury play important roles in the dysfunction of liver sinusoidal cells. The present study aimed at characterizing the effects of the pan‐caspase inhibitor emricasan on systemic and hepatic hemodynamics, hepatic cells phenotype, and underlying mechanisms in preclinical models of advanced chronic liver disease. We investigated the effects of 7‐day emricasan on hepatic and systemic hemodynamics, liver function, hepatic microcirculatory function, inflammation, fibrosis, hepatic cells phenotype, and paracrine interactions in rats with advanced cirrhosis due to chronic CCl4 administration. The hepato‐protective effects of emricasan were additionally investigated in cells isolated from human cirrhotic livers. Cirrhotic rats receiving emricasan showed significantly lower portal pressure than vehicle‐treated animals with no changes in portal blood flow, indicating improved vascular resistance. Hemodynamic improvement was associated with significantly better liver function, reduced hepatic inflammation, improved phenotype of hepatocytes, liver sinusoidal endothelial cells, hepatic stellate cells and macrophages, and reduced fibrosis. In vitro experiments demonstrated that emricasan exerted its benefits directly improving hepatocytes’ expression of specific markers and synthetic capacity, and ameliorated nonparenchymal cells through a paracrine mechanism mediated by small extracellular vesicles released by hepatocytes. Conclusion: This study demonstrates that emricasan improves liver sinusoidal microvascular dysfunction in cirrhosis, which leads to marked amelioration in fibrosis, portal hypertension and liver function, and therefore encourages its clinical evaluation in the treatment of advanced chronic liver disease.

2019-03-01·Clinical gastroenterology and hepatology : the official clinical practice journal of the American Gastroenterological Association1区 · 医学

Emricasan Improves Liver Function in Patients With Cirrhosis and High Model for End-Stage Liver Disease Scores Compared With Placebo

1区 · 医学

Article

作者: Hagerty, David T ; Frederick, R Todd ; Spada, Alfred P ; Morelli, Giuseppe ; Fallon, Michael B ; Chan, Jean L ; Cave, Matt ; Frenette, Catherine T ; Cheng, Jason T ; Robinson, James M ; Rubin, Raymond A ; Khaderi, Saira A ; Yamashita, Mason ; Pyrsopoulos, Nikolaos ; Massoud, Omar ; Shiffman, Mitchell L ; Park, James S

BACKGROUND & AIMS:

Caspase-mediated apoptosis and inflammation contribute to progression of liver disease. Emricasan is a pan-caspase inhibitor that reduced serum markers of apoptosis and liver inflammation in patients with hepatitis C and non-alcoholic steatohepatitis (NASH).

METHODS:

We performed a multicenter study of 86 patients with cirrhosis (Child-Pugh class A or B; mean score, 6.9; 38% with alcohol-associated cirrhosis, 29% with HCV-associated cirrhosis, and 23% with NASH) and model for end-stage liver disease (MELD) scores of 11-18 (mean, 12.8). Patients were randomly assigned to groups given placebo (N = 42) or Emricasan (25 mg, N = 44), twice daily for 3 months; subjects then received open-label Emricasan (25 mg) twice-daily for 3 months. The primary endpoint was the change from baseline in serum levels of cleaved keratin 18 (CK-18) at month 3.

RESULTS:

Seventy-four patients completed the 3-month study period (40 given Emricasan and 34 given placebo); 69 patients received open-label Emricasan for 3 months afterward. At the 3-month timepoint, Emricasan significantly reduced mean MELD (P = .003) and Child-Pugh (P = .003) scores in subjects with high MELD scores (15 or more), compared with placebo, with significant reductions in INR (95% CI, -0.2882 to -0.0866) and total bilirubin (95% CI, -1.5069 to -0.0823) vs placebo. There were no significant differences between Emricasan and placebo groups in mean MELD (P = .466) or Child-Pugh (P = .124) scores overall at 3 months compared to placebo. Of patients with high MELD scores, 6/9 given Emricasan (67%) had a reduction of 2 points or more at month 3, compared with 2/10 given placebo (20%). Serum levels of full-length CK-18 (P = .02) and caspase 3/7 (P < .001), but not cleaved CK-18 (P = .092), decreased significantly at 3 months in the Emricasan vs placebo group. Emricasan was well tolerated, and adverse events were balanced between groups. Emricasan's effects were generally maintained or increased after 6 months of treatment.

CONCLUSIONS:

In a randomized trial of patients with cirrhosis, we found 3 months treatment with Emricasan to improve liver function, compared with placebo, reducing MELD and Child-Pugh scores, INR, and total bilirubin in patients with MELD scores ≥15. ClinicalTrials.gov no: NCT02230670.

项与 Conatus Pharmaceuticals, Inc. 相关的新闻（医药）

2024-04-22

·佰傲谷BioValley

抗炎生物技术公司破产

4月18日，致力于开发细菌性皮肤感染药物的生物技术公司Histogen表示，公司已经根据《美国破产法》第11章第五分章向美国加利福尼亚州南区破产法院提交了破产保护，以确认一项清算计划，该计划将所有价值分配给利益相关者，包括股东。Histogen是一家临床阶段的治疗公司，专注于开发具有多种抗凋亡和抗炎作用的潜在临床和临床前药物。2023年9月，Histogen宣布停止所有产品开发，并寻求批准解散计划，大部分员工在当月底之前被解雇。目前，公司官网已经处于关闭状态。核心产品未成功上岸在申请破产前，Histogen专注于开发潜在的第一种临床和临床前小分子泛半胱氨酸天冬氨酸蛋白酶(pan-caspase)和半胱氨酸天冬氨酸蛋白酶(caspase)选择性抑制剂，保护人体恢复免疫功能的自然过程。公司的主要产品是口服泛半胱天冬酶抑制剂Emricasan，旨在降低人半胱天冬酶的活性，人半胱天冬酶是介导炎症和细胞凋亡的酶。2023年4月，Histogen公布了一项治疗细菌感染临床前研究。在这项研究中，在小鼠模型中，研究了单独Emricasan和与标准护理抗生素多西环素联合使用的作用。研究结果表明，与安慰剂相比，单独使用Emricasan可减小病变大小和细菌负荷，单用Emricasan小的疗效优于单用多西环素。单独使用Emricasan和Emricasan联合多西环素在病变大小和细菌负荷方面与安慰剂相比具有相当的疗效。在临床前研究中，Emricasan 在轻度症状 COVID-19 患者的 1 期研究中进行了测试，以评估安全性、耐受性和初步疗效。完成Emricasan治疗的五名患者中有五名在第七天完全缓解了与轻度COVID-19最常见的症状，而安慰剂组的六名患者中只有零。与安慰剂组的六名患者相比，服用Emricasan的五名患者中有四名在第14天时病毒呈阴性。在研究第四十五天结束时，接受Emricasan治疗的患者针对 COVID 的平均抗体指数为 6.98，而接受安慰剂治疗的患者为 5.32。2023年3月，FDA批准了Emricasan的临床试验，Histogen表示如果筹集到足够的资金，计划在2023年下半年进行Emricasan治疗急性细菌性皮肤和皮肤结构感染（ABSSSI）的临床试验，但是资金链断裂，再加上融资困难，不得不暂停了所有的临床开发计划。除了Emricasan，公司管线中还有其他新的临床前候选产品，包括CTS-2090和其他专有的半胱天冬酶抑制剂，这些半胱天冬酶抑制剂是caspase-1的选择性小分子抑制剂，旨在治疗某些炎症性疾病。艰难求索不幸的是，Histogen候选产品屡遭坎坷。2022年，公司的合作伙伴Amerimmune 终止了合作协议，将Emricasan、CTS-2090 和 CTS-2096 的所有权利。2022年12月，Histogen宣布终止HST 003的1/2期临床研究，该研究旨在评估人类细胞外基质(hECM)修复膝关节软骨缺损的安全性和有效性。2022年第三季度，公司宣布暂停HST 004脊柱椎间盘修复项目的所有IND激活活动，原因是管道重新排序。停止临床开发实属无奈之举，Histogen实在是没钱。2023年第一季度财报显示，2023年前三个月公司的收入仅为5000美元，2022年同期为380万美元，报告解释收入减少，是由于2022年3月，公司收到一次性付款375万美元，作为执行艾尔建信函协议的对价。2023年前三个月，公司研发费用为100万美元，同比减少90万美元，原因是由于外包制造设施费用、人员相关费用、正在开发的临床和临床前候选药物数量以及成本的相应降低。截至2023年3月31日，现金及现金等价物为970万美元。当时Histogen认为，其现有的现金和现金等价物以及运营现金流入将足以满足Histogen到2024年1月的预期现金需求。但是很快，公司的资金就难以支撑临床开发了。2023年7月，Histogen首席执行官Mento表示：“我们已经暂停了我们的开发活动，以保护我们的剩余资源并扩大我们的现金跑道，以探索有可能使股东受益的战略替代方案”。Mento在3月份才担任永久首席执行官一职。自2021年11月以来，这位前Idun Pharmaceuticals首席执行官一直担任Histogen的临时首席执行官。参考来源：1.https://www.biospace.com/article/releases/histogen-files-for-voluntary-chapter-11-protection-to-facilitate-wind-down-maximize-share-offering/?keywords=Histogen本周好文推荐如需转载请联系佰傲谷并在醒目位置注明出处···

临床1期微生物疗法临床2期

2024-04-22

·药智网

MASH爆发在即，十余款新药有望上市

40余年里，全球无数知名药企扎堆MASH（原NASH，非酒精性脂肪性肝炎）领域而不得，数十款MASH疗法折戟，一度让领域内的新药研发陷入低谷。2019年2月11日，吉利德宣布其NASH药物ASK1抑制剂selonsertib在第一个Ⅲ期临床（STELLAR-4）错过主要终点。次年，全球最先进的MASH候选药物之一的elafibranor也同样未能走出临床Ⅲ期。2019年6月25日，诺华（Novartis）与合作伙伴Conatus Pharmaceuticals联合宣布，emricasan治疗非酒精性脂肪性肝炎（NASH）的Ⅱb期研究ENCORE-LF未能达到主要终点。之后，诺华更是在2023年将管线缩减了10%，其中就有ADTP02、FIA586、tropifexor等4款MASH候选药物。2022年，辉瑞开发的danuglipron(PF-06882961)+PF-06865571用于伴有肝纤维化的非酒精性脂肪性肝炎（MASH)1期临床试验遭遇停止，不再作为NASH的潜在治疗药物被推进。而在此之前，辉瑞还有PF-06835919、PF-05221304、PF-06427878等多款MASH新药被终止。另一方面，对于行业内谁能率先在MASH领域撞线也倍感期待，毕竟从历史上看，似乎任何一款“首批新药”的诞生，都将意味着一大波“风口”的到来。2024年3月，Madrigal宣布其THR-β抑制剂Resmetirom获美国FDA加速批准上市，成为首款获FDA批准上市的MASH新药。尘埃落地的同时，也让MASH如愿站上了“热搜”，曾经那些寂寂无闻的在研管线们则顺势成为了众多资本市场争相追捧的宠儿。更有人直言，MASH就没有不火的可能，Resmetirom的获批仅仅只是提前了这个进程。三大因素奠定MASH爆火前提所谓MASH，其实是非酒精性脂肪肝炎（NASH）的更新命名，是随着科学水平进步之后，对该疾病与代谢紊乱之间的联系更清晰了解之后的结果。而之所以，MASH能被资本与药企寄予厚望，则主要源于其三大方面的优势。首先，是极为庞大的患者群体。据最新文献资料显示，肥胖与糖尿病与MASH的发展密切相关，前者更是被定义为导致MASH的主要风险因素之一，不仅增加MASH的风险，还会加剧已有MASH的病情，使得治疗更加困难。而在全球肥胖人群数量倍增的当下，MASH的患者群体也是水涨船高，2023年AASLD（美国肝病学会年会）数据显示，MASH全球患病率已从过去预估的3%-5%增长至5.27%左右，部分区域甚至超过了6%。而FDA则估计，仅美国大约就有600万-800万人患有MASH，全球肝脏研究所预计，全球有超过3.5亿人受MASH影响。而就是这么庞大的患者群体之下，其药品市场空间自然也是惊人，据弗若斯特沙利文预计，2025年全球MASH市场规模将达107亿美元，2023年有望突破322亿美元。更关键的是，该领域在Resmetirom上市之前甚至都基本处于空白情况。其次，是迫切的临床需求。从疾病进展上，MASH的最初阶段通常只表现为单纯的脂肪肝，其本身并不会引起较为严重的肝损伤，且基本不会出现明显的身体症状，并且在生活水平提升的当今，极其容易被忽视，但其却为更严重的肝病提供了基础。随着肥胖等因素的持续影响下，脂肪肝则可能发展为MASH，造成肝脏中的炎症和肝细胞损伤，伴随肝功能的轻微下降，之后持续的炎症与损伤则就形成了MASH的重要阶段成果，即肝脏纤维化，并伴严重肝功能下降，进展为肝硬化、肝衰竭与肝癌。而在上述整个疾病发展过程中，缺乏有效的药物治疗方案就是其最大的难题，疾病多数阶段的治疗都依赖于饮食控制、增加体育活动等生活方式的调整，以及疾病进展之后的对症、延缓疾病进展的治疗。因此，临床上对于MASH由症状治疗转向病因治疗的需求尤其迫切，也奠定了创新药强大的想象空间。最后，是强烈的支付意愿。虽然，患者群体与临床需求确实是决定一个领域市场天花板的基础，但在众多疾病中有着与MASH相同的患者群体与临床需求情况绝不是少数，导致MASH爆火的主要原因或许也并不仅仅是上述两者。MASH能脱颖而出还有一个重要因素，即其背后强大的“支付意愿”，要知道无论细胞疗法、基因疗法还是其他，领域内药物成功商业化的最核心步骤一定在于“购买”，只有当大多数患者在“买与不买”之间选择前者时，药品才有成功的希望。而通常情况下，决定患者对药品的支付意愿主要有三大因素：疾病后果、现有治疗情况、药品疗效。且不提现有治疗情况与药品疗效，其主要与药品本身有关，更具宏观的疾病后果则更具预判性，理论上疾病后果可分为生死问题与生活质量两类，前者相对能接受较高的治疗费用，支付意愿更强，而后者则需根据患者支付能力因人而异。这就是为何肿瘤新药一直以来都是新药研发领域的重点方向，而自身免疫性疾病却被大多数人称为“穷病”的原因。当然，万事并非绝对，肥胖就并不适用上述规律，其疾病后果虽不会关乎生死，但其致病因素却决定了该群体的支付能力更强（肥胖患者的经济水平普遍较高，可以将肥胖想象成富贵病），其支付意愿反而更强。而对于MASH而言，原则上其既满足了生死攸关，也满足了肥胖的患病基础条件，其支付能力想不高都难。大戏将近Resmetirom绝非MASH的唯一不同于传统的治疗方式，MASH对新药的核心治疗需求不仅有脂肪的代谢、更需要减少炎症反应甚至逆转纤维化，从而显著改善患者肝功能，而Resmetirom的上市，想必也绝非MASH新药的终点。据药智数据显示，截至目前全球有超过300种新药将适应症放在了MASH之上，其中不乏众多在逆转肝脏纤维化方面效果明显的新药。并且随着更多关于GLP-1在减少肝脏脂肪积累、降低炎症水平以及改善肝纤维化的潜力被证实，MASH市场竞争想必还将更加激烈。从药理学机制上，目前MASH管线中大致上可以分为以下几大类别：FXR （法尼醇 X 受体）激动剂FGF21 （成纤维细胞生长因子21）受体激动剂FGF19 类似物PPAR（过氧化物酶体增殖物活化受体）调节剂甲状腺激素β受体激动剂GLP-1受体激动剂表1 部分MASH领域在研管线药学机制产品名称分类靶点研发企业适应症最高阶段更新时间FGF21受体激动剂efruxifermin多肽FGF21安进公司Akero Therapeutics临床Ⅲ期12/6/23BIO89-100（Pegozafermin）生物药FGF21;FGFR89bio Inc临床Ⅱ期3/13/24AP-025生物药FGF21安源医药科技（上海）有限公司临床Ⅱ期10/9/23HEC-88473生物药FGF21;GLP-1R东莞市东阳光生物药研发有限公司临床Ⅱ期11/20/23FGF19类似物aldafermin生物药CYP7A1;FGF19NGM Biopharmaceuticals Inc临床Ⅱ期11/10/21PPAR（过氧化物酶体增殖物活化受体）调节剂lanifibranor化学药PPAR-alpha;PPAR-delta;PPAR-gammaInventiva临床Ⅲ期11/7/23pemafibrate化学药PPAR-alphaKowa Co Ltd临床Ⅲ期11/2/23elafibranor化学药PPAR-alpha;PPAR-deltaGenfit SA临床Ⅲ期（停止）12/7/23甲状腺激素β受体激动剂resmetirom化学药THRBMadrigal Pharmaceuticals Inc;罗氏制药临床Ⅲ期3/14/24TERN-501化学药THRB上海拓臻生物科技有限公司临床Ⅱ期-ASC41化学药THRB歌礼制药有限公司;甘莱制药有限公司临床Ⅱ期7/7/22HSK-31679化学药THRB海思科医药集团股份有限公司临床Ⅱ期12/5/23FXR（法尼醇 X 受体）激动剂obeticholic acid化学药NR1H4Intercept Pharmaceuticals Inc临床Ⅲ期（拒绝上市）2023.6.2211/2/23CS-0159化学药NR1H4Van Andel Institute;中国科学院上海药物研究所;凯思凯迪（上海）医药科技有限公司临床Ⅱ期9/21/23TERN-101化学药NR1H4上海拓臻生物科技有限公司;礼来制药临床Ⅱ期6/8/22HEC96719化学药NR1H4广东东阳光药业股份有限公司临床Ⅱ期5/25/22数据来源：药智数据其中，在各药学机制之下，有不少品种临床研究进度较靠前，被誉为MASH强有力的候选药物，更根据这些MASH候选药物的II 期试验公布数据中的“纤维化改善”主要临床终点与Resmetirom进行对比，可以发现不少有趣的地方。图片来源：蓝精灵壹号GLP-1难以颠覆MASH市场？从上图中可以发现，对于MASH患者最期望的“纤维化改善”终点指标上看，被寄予厚望的诺和诺德司美格鲁肽似乎并不及大多数MASH潜力疗法，是所有项目中纤维化改善程度最低疗法（非头对头数据，不同的入组标准和不同设计之间存在明显差异，仅作为参考）。这一点上，与之前多数人期待GLP-1能颠覆MASH药物的预期有所不及，或许GLP-1在MASH的治疗效果仍主要体现在其调节血糖水平、体重管理和代谢改善之后的综合作用，更多表现为减少肝脏脂肪积累、降低炎症水平，当然这也需要后续真正意义上头对头试验数据来进一步说明。不过，不可否认的是，GLP-1的爆火以及后续多款产品的上市，很大程度或将降低整体MASH的市场天花板，毕竟突出的减肥效果，一定程度还会导致肥胖患者的数量规模下降，继而直接影响MASH的治疗顺位，拉低预期。Resmetirom并非最佳？而从上图中，除了GLP-1与多数MASH潜在疗法在“纤维化改善”终点指标上对比外，随着Resmetirom以后，其与众多MASH潜在疗法在这项临床终点上的对比，或许更受人关注。数据上看，很明显Resmetirom的纤维化改善效果并非最佳，至少efruxifermin、pemafibrate、lanifibranor、Pegozafermin与ION-224的数据比之均有不同程度的超越，尤其是efruxifermin。Efruxifermin是基于人体免疫球蛋白G1的Fc片段与成纤维细胞生长因子21（FGF21）融合多肽的长效FGF21类似物，能够模拟内源性FGF21在其与β-Klotho和3种FGF受体（FGFR1c、FGFR2c、FGFR3c）之一的共受体复合物上的平衡效价。其最初由安进研发，后于2018年被Akero引进，是目前MASH潜在疗法中最受关注的管线之一，其最新的临床数据显示，主要终点方面（纤维化改善），有效性上 50mg剂量组有76%的患者在肝纤维化不恶化的情况下获得了MASH缓解（即：MASH缓解且肝纤维化未进展比例最高达76%）；次要终点方面，Efruxifermin在肝损伤标志物、软组织纤维化与纤维发生的血清生物标志物水平明显下降。静待花开国内MASH的有生力量当然，面对MASH领域市场确定性强、临床需求明确、支付意愿明确的优势，国内药企绝不可能放任其从手中流走，据悉，国内市场已经有超过80家药企在MASH领域上有所布局，并且这个数字还有望在今后几年继续增长。现阶段，国内MASH疗法主要分布在临床前中期，除部分GLP-1疗法外，暂无任何新药进入临床III期间以及之后，其中临床II期疗法有16种、临床I期疗法21种，临床前与临床申请阶段疗法则多达67种。其中，国内研发进度相对靠前的MASH疗法中，安源医药的AP-025、君圣泰生物的HTD1801、东阳光的HEC-88473、海思科的HSK-31679等创新疗法MASH的适应症临床近一年有所更新，也是国内较受关注的品种之一。表2 部分MASH国内在研管线产品名称分类靶点研发企业适应症最高阶段适应症更新时间AP-025生物药FGF21安源医药科技（上海）有限公司全球：临床Ⅱ期8/11/23中国：临床Ⅱ期HTD1801化学药Bile acid深圳君圣泰生物技术有限公司全球：临床Ⅱ期12/21/23中国：临床Ⅱ期HEC-88473生物药>未分类FGF21;GLP-1R东莞市东阳光生物药研发有限公司全球：临床Ⅱ期8/17/23中国：临床Ⅱ期HSK-31679化学药THRB海思科医药集团股份有限公司全球：临床Ⅱ期11/9/23中国：临床Ⅱ期VSA-006生物药>核酸类>小干扰RNA（siRNA）HSD17B13维亚臻生物技术（上海）有限公司全球：临床Ⅱ期12/22/23中国：临床Ⅱ期ASC41化学药THRB歌礼制药有限公司;甘莱制药有限公司全球：临床Ⅱ期6/21/22中国：临床Ⅱ期CS-0159化学药NR1H4Van Andel Institute;中国科学院上海药物研究所;凯思凯迪（上海）医药科技有限公司全球：临床Ⅱ期12/30/22中国：临床申请ZSP1601化学药PDE上海药明康德新药开发有限公司;广东众生药业股份有限公司全球：临床Ⅱ期12/30/22中国：临床Ⅱ期RAY-1225生物药>多肽GIP;GLP-1广东众生睿创生物科技有限公司全球：临床Ⅱ期8/12/22西格列他钠 Chiglitazar Sodium化学药PPAR-alpha;PPAR-delta;PPAR-gamma成都微芯药业有限公司全球：临床Ⅱ期12/7/21中国：临床Ⅱ期HPG1860化学药NR1H4雅创医药技术（上海）有限公司全球：临床Ⅱ期11/18/21中国：临床Ⅰ期HEC96719化学药NR1H4广东东阳光药业股份有限公司全球：临床Ⅱ期7/27/21中国：临床Ⅱ期TERN-101化学药NR1H4上海拓臻生物科技有限公司;礼来制药全球：临床Ⅱ期3/13/20TERN-501化学药THRB上海拓臻生物科技有限公司全球：临床Ⅱ期-图片来源：药智数据小结很明显，随着MASH的全球患病率突破5%，全球患病人数激增至3.5亿人，临床上对新机制MASH药物的需求还在继续加大，最终导致MASH的市场想象空间也在水涨船高。而困扰了全球制药企业的MASH难题，随着Resmetirom的上市也迎来了新的出路，犹如一针强心剂。紧随之后，全球领域还有如efruxifermin、pemafibrate、lanifibranor等众多创新疗法破茧在即，国内众多biotech抓紧追赶。大胆预测，或许未来十年都将是MASH集中爆发的时间段，领域也将迎来真正意义上的快速发展期，而国内药企或许也将借此良机，与全球制药企业站在统一舞台，值得期待。来源 | 博药（药智网获取授权转载）撰稿 | 弎责任编辑 | 八角声明：本文系药智网转载内容，图片、文字版权归原作者所有，转载目的在于传递更多信息，并不代表本平台观点。如涉及作品内容、版权和其它问题，请在本平台留言，我们将在第一时间删除。商务合作 | 王存星 19922864877（同微信）阅读原文，是受欢迎的文章哦

临床3期临床2期加速审批

2024-03-14

·PRNewswire

Pharmaceutical and Biotechnology Royalty Rates Report 2024: Essential Benchmark Data for Dealmakers - Royalty Rates, Deal Financials, Contract Documents, Royalty Rate Trends

DUBLIN, March 13, 2024 /PRNewswire/ -- The "Royalty Rates in Pharmaceutical and Biotechnology Deals" report has been added to ResearchAndMarkets.com's offering. Royalty Rates in Pharmaceutical and Biotechnology Deals is your one-stop source for providing real-deal information on hundreds of transactions, including the technology licensed, royalty rates, license fees, upfront and milestone payments. This report provides details of the latest partnering deals which disclose a royalty rate, announced in the pharmaceutical, biotechnology and diagnostic sectors. The report provides details of partnering deals disclosing royalty rates from 2010 to 2024. The report provides an overview of how and why companies enter partnering deals where a royalty is payable upon commercialization of the compound or technology. Understanding the flexibility of a prospective partner's negotiated deals terms provides critical insight into the negotiation process in terms of what you can expect to achieve during the negotiation of terms. Whilst many smaller companies will be seeking details of the payments clauses, the devil is in the detail in terms of how payments are triggered - contract documents provide this insight where press releases and databases do not. This report contains a comprehensive listing of all partnering deals announced since 2010 where a quantitative royalty rate has been disclosed, as recorded in the Current Agreements deals and alliances database. Each deal record and royalty disclosure is available in further detail via a link to online copy of the deal including actual contract document, where available, as submitted to the Securities Exchange Commission by companies and their partners. The initial chapters of this report provide an orientation of royalty rate trends in pharma and biotech since 2010. Chapter 1 provides an introduction to the report, whilst chapter 2 provides an overview of the trends in royalty rates in the pharma and biotech sectors since 2010. Chapter 3 provides a more detailed insight into the structure of a royalty rate clause and how it fits with the other financial terms of the partnering deal. Chapter 4 provides an insight into companies active in disclosing royalty rates as well as those deals attracting the highest royalty rates. Chapter 5 provides comprehensive and detailed access to deals which disclose a royalty rate since 2010 where a contract document is available. Contract documents provide an in-depth insight into the actual deal terms agreed between the parties with respect to the royalty rate. In addition the report includes a comprehensive deal directory listing of all deals where a royalty rate has been disclosed announced since 2010. Each listing is organized as a directory by company A-Z, stage of development at signing, therapeutic area, and technology type. Each deal title links via hyperlink to an online version of the deal record including, where available, the actual contract document. The report also includes numerous table and figures that illustrate the trends in royalty rates in pharma and biotech deal making since 2010. In conclusion, this report provides everything a prospective dealmaker needs to know about royalty rates in the pharma and biotech sector. Royalty Rates in Pharmaceutical and Biotechnology Deals provides the following benefits: Understand royalty rate trends since 2010 Analysis of the structure of royalty clauses with real life case studies Browse collaboration and licensing deals which reveal a royalty rate Benchmark analysis - identify market value of transactions Financials terms - upfront, milestone, royalties Directory of deals by company A-Z, therapy focus and technology type Access contract documents - insights into deal structures Due diligence - assess suitability of your proposed deal terms for partner companies Save hundreds of hours of research time Analyzing actual contract agreements allows assessment of the following: What are the precise royalty rates granted? What is actually granted by the agreement to the partner company? What exclusivity is granted? What is the payment structure for the deal? How are sales and payments audited? What is the deal term? How are the key terms of the agreement defined? How are IPRs handled and owned? Who is responsible for commercialization? Who is responsible for development, supply, and manufacture? How is confidentiality and publication managed? How are disputes to be resolved? Under what conditions can the deal be terminated? What happens when there is a change of ownership? What sublicensing and subcontracting provisions have been agreed? Which boilerplate clauses does the company insist upon? Which boilerplate clauses appear to differ from partner to partner or deal type to deal type? Which jurisdiction does the company insist upon for agreement law? Key Topics Covered: Executive Summary Chapter 1 - Introduction 1.1. What are royalties? 1.2. History of royalty rates 1.3. Royalties in pharmaceuticals and biotechnology 1.4. Royalties versus revenue share 1.5. Overview of the report Chapter 2 - An overview of pharmaceutical and biotechnology royalty rates 2.1. Trends in royalty rates 2010 - 2024 2.2. How do revenue shares figure? 2.3. A review of recent literature 2.4. Royalty rates in the future Chapter 3 - The royalty clause in pharmaceutical and biotechnology deals 3.1. Partnering agreement structure 3.2. Structure of a typical royalty clause 3.3. Example royalty clauses 3.3.1. Case study 1 3.3.2. Case study 2 3.3.3. Case study 3 3.3.4. Case study 4 Chapter 4 - Companies actively disclosing royalty rates 4.1. Most active companies in disclosing royalty rates Chapter 5 - Royalty rate contract directory Explore royalty rates within the deal contract document to gain greater insight Deal directory Deal Directory - Royalty rates in deals - by company A-Z Deal Directory - Royalty rates in deals - by therapy area Deal Directory - Royalty rates in deals - by stage of development at signing Deal Directory - Royalty rates in deals - by technology type Royalty rate references Example royalty rate deal contract document List of Figures Figure 1: Trends in pharma and biotech royalty rates, 2010 - 2024 Figure 2: Components of the partnering deal structure Figure 3: Components of the partnering royalty clause Figure 4: Most active companies disclosing royalty rate 2010 - 2024 Figure 5: Licensing agreement for rhAAT - rEVO Biologics, LFB Biotechnologies Companies Mentioned 2seventy bio 3a-diagnostics 3D Medicines 4SC 23andMe Abbott Laboratories Abbvie Abeona Therapeutics Ablynx Abraxis BioScience ABVC BioPharma ACADIA Pharmaceuticals Acceleron Pharma Acelrx Pharmaceuticals Acer Therapeutics Acerus Acrotech Biopharma Actavis (acquired by Watson) Active Biomaterials Acura Pharmaceuticals Adamis Pharmaceuticals Adaptimmune ADC Therapeutics Adeona Pharmaceuticals Adial Pharmaceuticals Aditx Therapeutics Adlai Nortye Aduro BioTech Advanced Dosage Forms Advanz Pharma Advaxis Advirna Aegerion Pharmaceutical Aeglea BioTherapeutics Aerie Pharmaceuticals AEterna Zentaris Aexon Labs Affimed Therapeutics Afritex Medical Products AFT Pharmaceuticals Agenus Bio Agios Pharmaceuticals Aguettant AiBtl BioPharma AIT Therapeutics Akcea Therapeutics Akebia Therapeutics Albert Einstein College of Medicine Alchemia Alder Biopharmaceuticals Alector Alexion Pharmaceuticals Alexza Pharmaceuticals Alfasigma Alfa Wassermann Allergan Allergan (name changed from Actavis) Almirall Alnylam Pharmaceuticals Alora Pharmaceuticals Alpha Biopharma Alternavida Altman Enterprises AltrazealTrading Altum Pharmaceuticals Alvogen Amarantus BioSciences American Type Culture Collection (ATCC) Amgen Amherst Pharmaceuticals Amorfix Life Sciences Ampio Pharmaceuticals Amryt Pharma Amylin Pharmaceuticals Amyris AnaBios AnaptysBio AnGes MG Angion Biomedica AnnaMed Antares Pharma Antibe Therapeutics Antigen Express Applied Therapeutics Apricus Biosciences Aquestive Therapeutics Aradigm Aratana Therapeutics Arcellx Arch Pharmalabs Arctic Vision Arcturus Therapeutics Arcus Biosciences Ardelyx Arena Pharmaceuticals Arrowhead Pharmaceuticals Artiva Biotherapeutics Arvinas Ascendis Pharma Ascentage Pharma Ashvattha Therapeutics Assembly Biosciences Astellas Pharma Astellas Pharma Europe Asterias Biotherapeutics AstraZeneca Athenex Atossa Therapeutics Atreca Audeo Oncology Augmenta Aurigene Discovery Technologies Aurinia Pharmaceuticals Authentic Brands Group AVEO Oncology Avita Therapeutics Avivagen Axovant Gene Therapies Axsome Therapeutics Aytu BioPharma Azaya Therapeutics Azure Biotech Baker Brothers Investments BAKX Therapeutics Baliopharm BASF Baxter International Bayer Healthcare Bayer Innovation Baylor Research Institute Beam Therapeutics BeiGene Beijing Defengrei Biotechnology Belgian Volition Bellerophon Therapeutics Benitec Biopharma Besins Healthcare Beth Israel Deaconess Medical Center BetterLife Pharma Bharat Biotech BIND Biosciences BioCorRx BioCryst Pharmaceuticals Bioeq IP Biogen BioGene Technology Biohaven Pharmaceuticals BioInvent BiolineRX BioMarin Pharmaceutical BioNovion BioNTech BioNxt Solutions Biopharmex BiopharmX BioPorto Bioprocess Capital Ventures BioProspect Biostem US Biotech Investment Biotechnology Value Fund BioTime Acquisition Bioton Biovail BioZone Laboratories BioZone Pharmaceuticals Blackstone Bluebird Bio Blueprint Medicines BMV Medica Boehringer Ingelheim Bone Therapeutics Braeburn Pharmaceuticals BrainStorm Cell Therapeutics Breathtec BioMedical Brickell Biotech BridgeBio Pharma Bridge Biotherapeutics Bristol-Myers Squibb Caleco Pharma Calico Can-Fite BioPharma Cancer Prevention Pharmaceuticals Cannassure Therapeutics CanniMed Therapeutics Cann Pharmaceutical Australia Canntab Therapeutics Cannus Partners Cantex Pharmaceuticals Cara Therapeutics Cardigant Medical Cardium Therapeutics CareFusion Carna BioSciences Cary Pharmaceuticals CASI Pharmaceuticals Castle Creek Biosciences Catalent CB2 Therapeutics Celdara Medical Celgene Cell Cure Neurosciences Cellvera Cel Sci Celyad Cereal Ingredients Cerebain Biotech Cerus CGA 369 cGreen Chi-Med Chiesi Farmaceutici Chimerix Chong Kun Dang Chongqing Jingdong Pharmaceutical Cimtech Cipher Pharmaceuticals Cipla Circassia Clal Biotech Clalit Health Services Clearmind Medicine Clearside Biomedical Clemson University Cleveland BioLabs Clinigen CMIC CNS Pharmaceuticals Cocrystal Pharma Coeptis Pharmaceuticals CohBar Cohen-McNiece Foundation Coherus Biosciences Colby Pharmaceuticals Collegium Pharmaceuticals Columbia Laboratories Columbia University Common Sense Conatus Pharmaceuticals Concile Consilient Health ContraFect Coronado Biosciences Cosmofix Cosmo Pharmaceuticals Coya Therapeutics CRISPR Therapeutics Crossject Crucell CSL CTI BioPharma CTT Pharmaceutical Cullinan Oncology Cumberland Pharmaceuticals Cures Within Reach CureTech Curis Currax Pharmaceuticals CURx Pharmaceuticals Cutanea Life Sciences Cybin CymaBay Therapeutics Cypress Bioscience Cytodyn Cytokinetics Cytori Therapeutics Daewoong Pharmaceutical Daiichi Sankyo Dana-Farber Cancer Institute Dance Biopharm DAS Therapeutics Defiante Farmaceutica Denali Therapeutics DepoMed Derma Sciences Dermavant Sciences Dermin Dianomi Therapeutics Dicerna Pharmaceuticals DNA Biomedical Solutions Dr. Falk Pharma Dr. Reddy's Laboratories Dragonfly Therapeutics DRI Capital Drugs for Neglected Diseases Initiative DS Healthcare Duke University Dyax Eagle Pharmaceuticals Eagle Pharmaceuticals (US) Easton Pharmaceuticals Echo Therapeutics Ecology Coatings Eczacibasi Pharmaceuticals Eddingpharm Egalet Eisai Elencee Eli Lilly Elite Pharmaceuticals Emergent BioSolutions Emory University Enalare Therapeutics Endocyte Endo Pharmaceuticals EnGeneIC Enochian Biosciences Entera Bio Entest BioMedical EnWave Epizyme Epocal Esperion Therapeutics Eternity Healthcare Eton Pharmaceuticals Eureka Genomics EUSA Pharma Evolva Ewopharma Exact Sciences Exelixis ExScientia Eyevance Fairview Health System FasTrack Pharmaceuticals Ferozsons Laboratories Ferring Pharmaceuticals Fibrocell Science Foghorn Therapeutics Forest Laboratories Fosun Pharmaceutical Fox Chase Chemical Diversity Center Fresenius Kabi Pharmaceuticals FSD Pharma Fusion Pharmaceuticals FusionVax Galapagos Galmed Pharmaceuticals GE Healthcare Genentech Generex Biotechnology Genevant Sciences Genexine Genfit Genmab Gentium Genzyme Geron Gilead Sciences Glaukos Glenmark Generics Inc USA Glenmark Pharmaceuticals Goldfinch Bio Government of Israel GPCR Therapeutics Gravocore Grifols GSK GT Biopharma Hai Kang Life Hail First Pharma Hainan Sihuan Pharmaceutical Halo Labs Halozyme Therapeutics Hansen Medical Health Canada Healthcare Royalty Partners Health Discovery Heartseed Heat Biologics Hefei Life Science Hefei Tianhui Incubation of Technologies HekaBio Helsinn Therapeutics HemoCleanse Hemogenyx HemPup Henlius Biotech Hetero Labs HIBM Research Group Hikma Pharmaceuticals Hoffmann La Roche Hollister Biosciences Hookipa Pharma Horizon Pharma Inc Huadong Medicine HyperGenomics I-mab Icahn School of Medicine at Mount Sinai Ice + Jam Iconovo IDC-GP Pharm IDEAYA Biosciences Idera Pharmaceuticals Idorsia Idun Pharmaceuticals IGM Biosciences iMetabolic Biopharma Immugenyx Immunic ImmunityBio Immunomedics Immunomic Therapeutics Immunovative Therapies ImmVira Impax Laboratories Imprimis Pharmaceuticals In4Derm iNAP Incannex Healthcare Incuron Incyte Indiana University Infinity Pharmaceuticals InflaRx Inhibitor Therapeutics Innate Pharma Innocoll Innovate Biopharmaceuticals Innovation Pharmaceuticals Innovent Biologics Innovet Innovus Pharmaceuticals INO Therapeutics Inspiration Biopharmaceuticals Instrumentation Laboratory IntelGenx Intellia Therapeutics IntelliCell BioSciences Intellikine Internet Marketing Consortium Intrexon Intuitive Surgical Invekra Inverness Medical Innovations Ionis Pharmaceuticals Ipsen Iroko Pharmaceuticals Ironwood Pharmaceuticals Israeli National Authority for Technological Innovation Itrom Pharmaceutical Group Ivantis Jaguar Health Janssen Biotech Janssen Pharmaceuticals Jazz Pharmaceuticals JFC Technologies Jiangsu Alphamab Jiangsu Lianhuan Pharmaceuticals Jiangsu NHWA Pharmaceutical Ji Xing Pharmaceuticals John Morley Foods Joincare Pharmaceutical Journey Medical Jubilant Life Sciences Jumpcan Pharmaceutical Juniper Pharmaceuticals Junshi Biosciences Jupiter Wellness Juventas Therapeutics K2M Kadmon Pharmaceuticals Kaken Pharmaceutical Kalbe Genexine Biologics KaloBios Pharmaceuticals Karveer Meditech KemPharm Kensey Nash Kieran Murphy Kinetic Concepts Kiniksa Pharmaceuticals Kintor Kiromic Biopharma Kite Pharma Kitov Pharma Klaria Klinge Biopharma Knighton Foods Knight Therapeutics Kodiak Sciences Kowa Kraig Biocraft Laboratories KVK-Tech Kwang Dong Pharmaceutical Kymera Therapeutics Kyowa Hakko Kirin Kyverna Therapeutics L1 Systems Laboratories Acbel Lantheus Holding Launch Therapeutics Lee Moffitt Cancer Center Legend Biotech LegoChem Biosciences Level Brands LFB Biotechnologies Lifestyle Delivery Systems Ligand Pharmaceuticals Lineage Cell Therapeutics Link Health Lipidor Lipocine Lixte Biotechnology Lorna Linda University Lotus Pharmaceuticals Loxo Oncology Lubrizol Lumenis Lundbeck Lung Therapeutics MabCure Macrogenics Magenta Therapeutics MainPointe Mallinckrodt Pharmaceuticals Marvanal Marv Enterprises Massachusetts General Hospital Matrix Biomed Mayne Pharma McComb Foundation McEwen Centre for Regenerative Medicine Meda Medica Medica Avante Medical Technologies Innovation Asia Medice Arzneimittel Putter Medicines Patent Pool Foundation Medicox MediGene Medigus MedImmune Medison Pharma Medivation Medivir Medovex MEI Pharma Melmed Memory Dx Mercer University Merck and Co Merck KGaA Merck Serono Merus Methodist Hospital Houston Micromet Mikah Pharma Millennium Mimi's Rock Mindset Pharma Ministry of Health Labor and Welfare MiNK Therapeutics Miraculins Miralogx Mira Pharmaceuticals Miromatrix Medical Mitsubishi Tanabe Pharma Moderna Modis Therapeutics Moleculin Biotech Mologen Momenta Pharmaceuticals Monash University Monopar Therapeutics Morgan Stanley MorphoSys Mount Sinai Health System MultiCell Immunotherapeutics Munich Leukemia Laboratory Mylan Laboratories Mylan Pharmaceuticals Myovant Sciences NanoVibronix NanoViricides NantCell NantKwest Nantong Jinghua Pharmaceutical NantWorks Napo Pharmaceuticals Natac Biotech Natco Pharmaceuticals National Green Biomed Nektar Therapeutics Neogenomics Neotope Nephrogenex Nephros Nestle Health Science Neuraxpharm Neurocrine Biosciences NeuroRx NeuroSigma NeuroVive Pharmaceutical NeuroVive Pharmaceutical Asia NewLeaf Brands Newsoara Biopharma New York University NexMed NextCure Nextleaf Solutions Nexvet NGM Biopharmaceuticals Nicox Nkarta Therapeutics NLS Pharmaceutics Nordic Bioscience Norgine NorthStar Medical Radioisotopes Notable Labs Novadaq Technologies NovaDel Pharma Novan Novan Therapeutics Novartis Novartis Vaccines and Diagnostics Novocure Novo Nordisk Novus Biologicals NRx Pharmaceuticals Nucorion Numab Nunzi Pharmaceutical Nurix Therapeutics Nutech Medical NutraOrigin NXTGEN Nymox Pharmaceutical Oberland Capital Ocugen Oculus Innovative Sciences Ocumension Therapeutics Omeros Oncologie Oncolytics Biotech OncoMed Pharmaceuticals Onconova Therapeutics Onegevity One Way Liver Genomics (OWL) ONK Therapeutics Ono Pharmaceutical Onxeo Onyx Pharmaceuticals Opexa Therapeutics Opthea OptiBiotix OptiNose Oragenics Oramed Pharmaceuticals Orexigen Therapeutics Organovo Orgenesis Orion Orox Pharmaceuticals OrthoCyte Otsuka OvaMed Ovid Therapeutics Oxford BioMedica Oxis Biotech Oxygen Biotherapeutics OxySure Systems Oyster Point Pharma Pan-Provincial Vaccine Enterprise Parnell Pharmaceuticals Par Pharmaceutical PDL BioPharma PDS Biotechnology Penwest Pharmaceuticals Pernix Therapeutics Perugia University Pfenex Pfizer Pharmacyclics PharmaCyte Biotech PharmaMar PharmaNova Pharmastrip Philogen Phosphagenics Photocure ASA Phusion Laboratoies Phyto Nutricare Pipex Pharmaceuticals Plandai Biotechnology Pluristem Therapeutics POINT Biopharma Portola Pharmaceuticals Poseida Therapeutics Pozen PreMD Premier Biomedical Professional Compounding Centers of America Progenics Pharmaceuticals Prometic Life Sciences ProQR Therapeutics Prosidion Protagonist Therapeutics Protalix BioTherapeutics Proteonomix Prothena ProtoKinetix Pulmatrix Puma Biotechnology QED Therapeutics QRxPharma Quick Med Technologies Quigley Corporation Quoin Pharmaceuticals Rayner Surgical Reata Pharmaceuticals Recordati Recro Pharma RedHill Biopharma Reedy Creek Investments RegenaStem Regeneron Pharmaceuticals Regenxbio Regnum Relay Therapeutics Relief Therapeutics Relmada Therapeutics RenalytixAI ReNeuron Repare Therapeutics Replicel Life Sciences Repligen Reprise Biomedical Resarci Therapeutics Retrophin rEVO Biologics Revolution Medicines Rigel Pharmaceuticals RNL Bio Roche Rockefeller University Roivant Sciences Royalty Pharma RST Biomedikal Sanayi Ruthigen RXi Pharmaceuticals S2 Therapeutics SACCO Sagard Healthcare Royalty Partners Sage Therapeutics Salix Pharmaceuticals Sam Amer Sanara MedTech Sandoz Sanofi Sanofi-Aventis Sanofi-Pasteur Sanpellegrino Cosmetics Santarus Santen Pharmaceutical Sanuwave Health SA Pathology Sapientia Pharmaceuticals Sarepta Therapeutics Schrodinger Scopus BioPharma Seagen Seattle Genetics Seelos Therapeutics Sekris Biomedical Senetek Senior Paradise Sensory Cloud Seqirus Seres Therapeutics Sermonix Pharmaceutical Sesen Bio SevenScore Pharmaceuticals Shanghai Pharmaceuticals Holdings Sheba Medical Center Shenzhen BioScien Pharmaceuticals Shield Therapeutics Shionogi Shire Pharmaceuticals Shore Therapeutics Siemens Healthcare Diagnostics Sigma-Tau Sinclair Pharmaceuticals Sinobiopharma Sinopharm Sio Gene Therapies Skinvera Skyline Diagnostics Solarvest BioEnergy Soliance Soligenix Sonoma BioTherapeutics Sorrento Therapeutics Spectranetics Spencer Pharmaceutical Spinal USA St. Jude Children's Research Hospital STADA Arzneimittel Staidson (Beijing) BioPharmaceuticals Stanford University Stealth BioTherapeutics Stellar Biotechnologies St Jude Medical Stoke Therapeutics Strongbridge Biopharma Sucampo AG SUDA Pharmaceuticals Sumitomo Dainippon Pharma Sunesis Pharmaceuticals Sunovion Pharmaceuticals Sun Pharmaceutical SuperNova Diagnostics Sutro Biopharma Swedish Orphan Biovitrum SymBio Pharmaceuticals Symbollon Syndax Pharmaceuticals Synergy Strips Syntopix Tactical Relief Taiba TaiGen Biotechnology Taiho Takeda Pharmaceutical Talaris Therapeutics Tango Therapeutics Target Group Tauriga Sciences TB Alliance TearLab Technion Research and Development Foundation Teijin Telomir Pharmaceuticals Tesaro Tetra Bio-Pharma TetraLogic Pharmaceuticals Teva Pharmaceutical Industries Texas A&M University Texas Heart Institute TFF Pharmaceuticals TG Therapeutics Therakine TherapeuticsMD Theravance Theravance Biopharma The Regents of the University of California Thorne Research Threshold Pharmaceuticals TiGenix Tilray Titterington Veterinary Services Tiziana Life Sciences Tocagen TONIX Pharmaceuticals Torii Pharmaceutical TRACON Pharmaceuticals Tramorgan Transgene Travere Therapeutics Trellis Bioscience Trevena Trimedyne Trimeris TrovaGene TTFactor Tufts University Turnstone Biologics Tyme Technologies Ultragenyx Pharmaceuticals Uluru Unigene Laboratories UniQure Universal Cells University College Dublin University Health Network University of Alberta University of California University of Central Florida Research Foundation University of Colorado University of Florida Research Foundation University of Geneva University of Louisville University of Missouri University of Notre of Dame University of Pennsylvania University of Texas University of Virginia University of Western Sydney University of Zurich UOP Uppsalagruppen Medical Upstream Peripheral Technologies UroGen Pharma Valeant Pharmaceuticals ValiPharma Valneva Valor Biotherapeutics Vanderbilt University Vasomune Therapeutics Vaxent VBL Therapeutics Veloxis Pharmaceuticals Veracyte Verenium Verity Pharmaceuticals VeroScience Vertex Pharmaceuticals Vida Concepts Vifor Pharma ViiV Healthcare Virbac Viropharma VistaGen Therapeutics Vividion Therapeutics Vivus VolitionRX Voronoi Voyager Therapeutics Vyera Pharmaceuticals VYNE Therapeutics Vyrix Pharmaceuticals Watson Pharmaceuticals WAVE Life Sciences Wigen Biomedicine Wisconsin Alumni Research Foundation World Class Extractions WPD Pharmaceuticals WUGEN Xbrane Bioscience Xencor Xlife Sciences XPhyto Therapeutics XTL Biopharmaceuticals Xynomic Pharmaceuticals Yale University Yeda Research and Development Company Yeugnam University Yissum Research Development ZAI Laboratory Zalicus Zenitech Zenith Epigenetics Ziopharm Oncology Zogenix ZS Pharma Zymeworks For more information about this report visit About ResearchAndMarkets.com ResearchAndMarkets.com is the world's leading source for international market research reports and market data. 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100 项与 Conatus Pharmaceuticals, Inc. 相关的药物交易

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药物(靶点)	适应症	全球最高研发状态

IDN-1529 ( CASP family )	脓毒症更多	临床前
RS-130830 ( MMPs )	关节炎更多	终止
IDN-1965 ( caspase 3 )	再灌注损伤更多	终止
IDN-6734 ( CASP family )	心肌梗塞更多	终止
IDN-5370 ( CASP family )	神经系统疾病更多	终止