312:靶向纳米微球(TNS)

Hyung-Gyoo Kang, J. Nagy, Bryon Upton, R. Upton, T. Triche
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引用次数: 0

摘要

以肿瘤为靶点的纳米颗粒给药技术表明,在限制正常组织对药物的摄取的同时,几乎可以增加任何小剂量治疗药物对肿瘤细胞的递送剂量,从而大大提高有效MTD。通过改进早期配方并经过广泛的测试,我们开发了一种新的靶向脂质体纳米颗粒,靶向纳米球(targeted NanoSpheres, TNS)。我们证明了这种新型纳米配方平台可以克服传统纳米颗粒的许多缺陷,因此具有增强的潜力,作为一种有效的递送载体,几乎可以用于任何类型的肿瘤细胞表面抗原存在的癌症。我们已经开发了nv103,一种一流的抗cd99 TNS (CD99-TNS/伊立替康),用于治疗Ewing肉瘤(EWS), EWS是一种由融合蛋白驱动的高度致命的儿童和年轻人骨骼和软组织肿瘤,典型的EWS/FLI1在超过85%的病例中。癌细胞有能力对化疗产生耐药性。我们目前对NV103的抢救研究表明,NV103只需改变剂量计划(剂量增强),而不增加剂量,即可克服Ewing肿瘤的伊立替康耐药。我们对NV103的抢救/抢救研究结果表明,在未来的临床试验中,NV103成功的剂量强化方案可用于治疗复发或耐药患者。此外,靶向纳米球(TNS)可用于克服各种癌症的耐药。该平台也正在研究用于表达CD99或其他肿瘤抗原(如GD2和B7-H3)的其他类型的癌症。引用格式:HyungGyoo Kang, Jon Nagy, Bryon Upton, Racheal Upton, Timothy Triche, Timothy Triche。靶向纳米微球(TNS)[摘要]。见:美国癌症研究协会2021年年会论文集;2021年4月10日至15日和5月17日至21日。费城(PA): AACR;癌症杂志,2021;81(13 -增刊):312。
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Abstract 312: Targeted NanoSpheres (TNS)
The tumor-targeted, nanoparticle delivery technology has shown the possibility of increasing the delivered dose of virtually any small therapeutics to tumor cells while limiting the drug uptake by normal tissues, thereby greatly increasing the effective MTD. By refining the early formulations and after extensive testing, we developed a novel targeted liposomal nanoparticle, Targeted NanoSpheres (TNS). We showed this novel nano-formulated platform can overcome many deficiencies of conventional nanoparticles and therefore has enhanced potential as an effective delivery vehicle for virtually any type of cancer for which a suitable tumor cell surface antigen is present. We have developedNV103, a first-in-class anti-CD99 TNS (CD99-TNS/Irinotecan), for the treatment of Ewing Sarcoma (EWS), a highly lethal pediatric and young adult bone and soft tissue tumor driven by a fusion protein, typically EWS/FLI1 in over 85% of cases. Cancer cells have the ability to develop resistance to the chemotherapy. Our present salvage/rescue study with NV103 showed that NV103 can overcome irinotecan resistance of Ewing tumor with simple change of dose schedule (dose intensification), not increasing the dose. The results from our salvage/rescue studies with NV103 suggested that successful dose intensification schedules with NV103 could be used to treat relapsed or resistant patients in future clinical trials. Furthermore, Targeted Nanosphere (TNS) can be used to overcome drug resistance of various cancers.This platform is also being investigated for other types of cancer that either express CD99, or other tumor antigens like GD2 and B7-H3. Citation Format: HyungGyoo Kang, Jon Nagy, Bryon Upton, Racheal Upton, Timothy Triche, Timothy Triche. Targeted NanoSpheres (TNS) [abstract]. In: Proceedings of the American Association for Cancer Research Annual Meeting 2021; 2021 Apr 10-15 and May 17-21. Philadelphia (PA): AACR; Cancer Res 2021;81(13_Suppl):Abstract nr 312.
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