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Carolina Center of Cancer Nanotechnology Excellence

Carolina Center of Cancer Nanotechnology Excellence
卡罗莱纳州癌症纳米技术卓越中心
批准号:
8540367
负责人:
JOSEPH M. DESIMONE
金额:
$205.84万
依托单位国家:
美国
项目类别:
财政年份:
2010
资助国家:
美国
项目状态:
已结题
起止时间:
2010-09-01 至 2015-07-31

项目摘要

项目成果

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中文摘要
翻译
卡罗莱纳州的CCNE专注于通过利用令人兴奋的新的尖端纳米技术来改善癌症疾病的控制和管理,这些技术是从我们的第一个CCNE工作中开发出来的。我们的努力将通过加强治疗和早期发现来改善癌症患者的生活质量和寿命以及疾病结果。我们在以下两个主要领域提出了五个项目:基于纳米颗粒的生物和化疗包括项目1:PRINT纳米颗粒:研究颗粒生物分布的“校准质量”纳米工具;项目2:肺癌中的Ras通路siRNA;项目3:肺癌的转化纳米系统化疗。基于碳纳米管的放射治疗和早期检测包括项目4:脑癌的紧凑微束放射治疗和项目5:数字乳房断层合成系统。提出的纳米粒子科学主要集中在靶向递送生物(siRNA)和化疗到癌细胞。我们将解决的一个关键基础科学问题是纳米颗粒的大小、形状和模量在进入人体各种组织中的影响。unc开发的PRINT技术可以有效地回答这个问题,该技术具有对颗粒特性的精细控制,并将导致建立用于纳米颗粒输送的BioMaps。另外两个基于纳米颗粒的项目将以靶向方式向肺癌提供生物和化疗,其中四种不同的纳米颗粒类型能够携带多种有效载荷。我们将在复杂的小鼠癌症模型中建立这些不同方法的疗效和毒性与等效的临床标准护理的第一次直接比较。基于碳纳米管的场发射x射线技术,提出了一种新型的紧凑型微束放射治疗源,可以对高级别胶质瘤和其他脑癌进行高强度和空间分布的放射治疗。最后,提出了一种基于碳纳米管的临床乳腺断层合成成像装置,该装置将促进乳腺异常的早期检测和表征,并有助于区分癌症和良性疾病。我们相信,开发这些技术并为临床试验做准备,将有助于实现纳米技术在癌症治疗中的承诺,并对癌症患者的生活产生积极影响。
英文摘要
The Carolina CCNE is focused on improving cancer disease control and management by utilizing exciting new and cutting edge nanotechnologies, developed from our first CCNE efforts,. Our efforts will work to improve the quality and duration of life and disease outcome for cancer patients by enhancing treatment and early detection. We propose five projects in two major areas as follows: Nano-Particle Based Biological and Chemotherapy includes Project 1: PRINT Nanoparticles: "Calibration Quality" Nano-tools for Studying Particle Biodistribution, Project 2: Ras pathway siRNA in Lung Cancer, and Project 3: Translational Nanosystems Chemotherapy in Lung Cancer. Carbon Nanotube Based Radiation Therapy and Early Detection include Project 4: Compact Micro Beam Radiation Therapy in Brain Cancer and Project 5: Digital Breast Tomosynthesis System. The proposed nanoparticle science is primarily focused on targeted delivery of biological (siRNA) and chemotherapy to cancer cells. A key basic science question we will address is the implications of nanoparticle size, shape and modulus in accessing various tissues in the body. This question can effectively be answered by the UNC-developed PRINT technology, which features exquisite control over particle properties and will result in the establishment of BioMaps for nanoparticle delivery. Two additional nanoparticle-based projects will deliver biological and chemotherapy in a targeted fashion to lung cancer, with four distinct nanoparticle types that are capable of carrying multiple payloads. We will establish the first direct comparison of efficacy and toxicity of these various approaches against the equivalent of clinical standard of care in sophisticated murine cancer models. With carbon nanotube-based field emission X-ray technology, a new compact microbeam radiation therapy source is proposed that will deliver high intensity and spatially distributed radiotherapy to high grade gliomas and other brain cancers. Lastly, a carbon nanotube-based clinic-ready breast tomosynthesis imaging device is proposed that would advance early detection and characterization of breast abnormalities, and help to distinguish cancer from benign disease. We believe that developing these technologies and preparing them for clinical trials will help in realizing the promise of nanotechnology in cancer care and positively impact the lives of cancer patients.
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PRINT: Nanoparticles: "Calibration Quality" Nano-tools for Studying the Effect of
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