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  1. NTU Theses and Dissertations Repository
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請用此 Handle URI 來引用此文件: http://tdr.lib.ntu.edu.tw/jspui/handle/123456789/2431
完整後設資料紀錄
DC 欄位值語言
dc.contributor.advisor曾文毅(Wen-Yih Tseng)
dc.contributor.authorHsiang-Kuang Liangen
dc.contributor.author梁祥光zh_TW
dc.date.accessioned2021-05-13T06:40:08Z-
dc.date.available2018-01-04
dc.date.available2021-05-13T06:40:08Z-
dc.date.copyright2018-01-04
dc.date.issued2017
dc.date.submitted2017-11-28
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dc.identifier.urihttp://tdr.lib.ntu.edu.tw/jspui/handle/123456789/2431-
dc.description.abstract膠質母細胞瘤為成人最常見原發型腦瘤。同步放化療後最常見的進展型態為局部或照野內復發,約佔72%–96.8%,而遠端轉移或照野外復發約佔2%–28%。病人開刀前若有腫瘤周邊水腫大範圍延伸以及腫瘤位於腦室和胼胝體交界處,存活較差並有多樣化進展型態。
我們以影像生物標記,分類膠質母細胞瘤病人的腫瘤進展型態,包括侷限型、中間型和擴散型,與相對應不同的存活狀況。再根據不同分類,提出相對應的膠質母細胞瘤放射治療目標劃定與劑量給予,決定個人化的治療策略。侷限型膠質母細胞瘤僅有小於10%的人腫瘤會延伸大於原腫瘤界線兩公分,然而擴散型病人,超過70%會有腫瘤移動超過原腫瘤界線兩公分的情況。和侷限型的病人相比,擴散型的病人存活狀況較差。我們的臨床研究顯示需要根據膠質母細胞瘤影像生物標記制定個人化的治療策略。
無論侷限型或擴散型,原腫瘤處是膠質母細胞瘤復發最常見的位置。提高腫瘤局部控制的最好策略之一,就是腫瘤內藥物注射再加上局部放射治療。我們比較各種腫瘤內藥物傳輸方式,包括藥片、熱塑型水膠和對流加壓注射,比較藥物釋放安全性與輻射增強效果,設計一個基礎研究探討腫瘤內藥物傳輸方式,以便臨床應用。
為達到未解決的臨床需求,我們合成一個新的藥物結合水狀凝膠與卡鉑進行腫瘤內藥物注射。經過全面性的生物材料、細胞與動物實驗,我們成功證實水狀凝膠與卡鉑是一個安全、有效、方便的藥物組合。腫瘤內卡鉑凝膠注射保有放射化學治療的協同效果,而且沒有嚴重的治療副作用。單次腫瘤內水狀凝膠與卡鉑注射的藥物持續釋放,簡化給藥過程與接續的放射治療,有助應用在臨床腦瘤治療。
zh_TW
dc.description.abstractGlioblastoma is the most prevalent primary brain tumor of adults. The most common progression patterns after concurrent chemoradiotherapy are local and in-field (72%–96.8%), and the rates of distant and out-field recurrence range from 2% to 28%. The extensive preoperative edema (EPE) (edema extent ≥ 2 cm from the tumor edge) and tumor located at synchronous subventricular zone and corpus callosum (sSVZCC) are associated with poor survival and diverse progression patterns of glioblastoma. We combined the imaging biomarkers, EPE and sSVZCC invasion, to classify glioblastomas progression patterns, including confined, intermediate, and extensive types, with different survivals. According to the classification, we proposed the corresponding RT target volume delineations and dose prescriptions to personalize treatment strategies for glioblastomas.
Less than 10% of patients with EPE- (confined type) have tumor progression extending beyond the 2-cm margin from the preoperative tumor edge, while more than 70% glioblastomas with EPE+/SVZCC+ (extensive type) have tumor migration beyond the 2-cm margin from the preoperative tumor edge along the preoperative edema areas. Compared with patients with confines type glioblastoma, those with extensive type have poorer survival. Our clinical study demonstrated the need for developing individualized irradiation strategies for glioblastomas according to the imaging biomarkers of EPE and sSVZCC invasion.
The tumor bed is the most common recurrence area of glioblastomas either confined or extensive types. One of the strategies to increase the local tumor control is intratumoral drug delivery combining with local radiotherapy (RT). We compared the drug release and safety features of intratumoral delivery modalities (wafer, thermogelling hydrogel, and convection-enhanced delivery) and the radiosensitizing effects among anti-cancer drugs (carmustine, carboplatin, and cisplatin) to propose a basic investigation on the intratumoral drug delivery for further clinical application.
To satisfy the unmet clinical need for glioma treatment, we compounded a novel drug combination of oxidated hyaluronic acid/adipic acid dihydrazide hydrogel and carboplatin for intratumoral injection. Through the comprehensive biomaterial, cell, and animal experiment design, we significantly demonstrated that hydrogel carboplatin is a safe, effective, and convenient drug combination. Intratumoral hydrogel carboplatin injection simplified the method and frequency of intratumoral hydrogel carboplatin delivery and remained the RT synergistic effect without causing severe toxicity, which makes intraoperative single drug injection with subsequent RT a feasible and potential clinical treatment for glioblastomas.
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dc.description.tableofcontents口試委員審定書 I
誌謝 II
中文摘要 IV
ABSTRACT V
CHAPTER 1 INTRODUCTION P1
1.1 Glioblastomas: Epidemiology, Pathology, and Treatment Outcomes P1
1.2 The Unmet Clinical Needs for Glioblastomas: Individualized Treatment Strategies According to the Progression Patterns P2
1.3 Clinical Investigation of Imaging Biomarkers: Hypothesis and Purpose P4
1.4 Basic Investigation of Intratumoral Drug Injection: Hypothesis and Purpose P5
CHAPTER 2 MATERIALS AND METHODS P8
2.1 Clinical Study of Imaging Biomarkers P8
2.1.1 Patient eligibility P8
2.1.2 Treatment modalities P8
2.1.3 Anatomical features of preoperative imaging P9
2.1.4 Tumor progression patterns after concurrent chemoradiotherapy (CCRT) P10
2.1.5 Statistical analysis P11
2.2 Basic Study of Intratumoral Hydrogel Carboplatin injection P12
2.2.1 Biomaterial investigation P12
2.2.1.1 Preparation of oxi-HA/ADH hydrogel and hydrogel carboplatin P13
2.2.1.2 Characterization of oxi-HA/ADH hydrogel and hydrogel carboplatin by Fourier transformation infrared analysis P13
2.2.1.3 Gelling time and temperature of oxi-HA/ADH hydrogel by rheometer P14
2.2.1.4 Degradation property of oxi-HA/ADH hydrogel P14
2.2.1.5 Drug release profile of hydrogel carboplatin by inductively coupled plasma mass spectrometry (ICP-MS) P15
2.2.2 In vitro investigation P15
2.2.2.1 Cell culture P16
2.2.2.2 Biocompatibility of oxi-HA/ADH hydrogel P16
2.2.2.3 Half maximal inhibitory concentration (IC50) of carboplatin to ALTS1C1 glioma cells P18
2.2.3 In vivo investigation P18
2.2.3.1 Subcutaneous tumor implant model of mice P18
2.2.3.2 Intratumoral dye injection P19
2.2.3.3 Irradiation setting P19
2.2.3.4 Different treatment combinations of carboplatin and irradiation P19
2.2.3.5 Tumor growth evaluation by gross volume measurement and bioluminescence imaging (BLI) P21
2.2.3.6 Treatment effect evaluation by tumor gross/slice P21
2.2.3.7 Toxicity evaluation by blood analysis and skin survey P22
2.2.4 Statistical analysis P22
CHAPTER 3 RESULTS P23
3.1 Imaging Biomarkers P23
3.1.1 Patient characteristics P23
3.1.2 Survival analyses P23
3.1.3 Progression pattern analysis P24
3.2 Intratumoral Hydrogel Carboplatin Injection P26
3.2.1 Biomaterial investigation P26
3.2.1.1 Characterization of oxi-HA/ADH hydrogel and hydrogel carboplatin by FTIR Analysis P26
3.2.1.2 Gelling time of oxi-HA/ADH hydrogel by rheometer P26
3.2.1.3 Degradation property of oxi-HA/ADH hydrogel P27
3.2.1.4 Drug release of hydrogel carboplatin by ICP-MS P27
3.2.2 In vitro investigation P27
3.2.2.1 Biocompatibility of hydrogel P27
3.2.2.2 IC50 of carboplatin to ALCS1C1 cells P28
3.2.3 In vivo investigation P28
3.2.3.1 First-stage in vivo experiment (low-dose carboplatin) P28
3.2.3.2 Second-stage in vivo experiment (high-dose carboplatin) P29
CHAPTER 4 DISCUSSION P31
4.1 Imaging biomarkers and clinical impacts P31
4.1.1 Disease classification and RT strategies P31
4.1.2 High-dose proton boost for confined type glioblastoma P34
4.1.3 Disease classification and drug selection strategy P34
4.1.4 Imaging biomarkers and future investigation P35
4.2 Treatment Impact and Clinical Application of Hydrogel Carboplatin P37
4.2.1 Effectiveness of hydrogel carboplatin combined with RT for tumor control P37
4.2.2 Convenience of hydrogel carboplatin administration to combine with RT P38
4.2.3 Safety of hydrogel carboplatin with RT P40
CHAPTER 5 CONCLUSIONS AND FUTURE PROSPECT P41
5.1 Clinical Investigation P41
5.2 Basic Investigation P41
LIST OF FIGURES P43
Figure 1. The clinical and basic research perspectives of our glioblastoma study P43
Figure 2. The correlation between tumor location with edema and tumor migration P44
Figure 3. The rationale and purpose in the current basic study P45
Figure 4. The method of evaluating the preoperative edema extent in our clinical study P46
Figure 5. The definitions of edema extent and progression patterns P47
Figure 6. The workflow of our basic study design P48
Figure 7. Drug preparation P49
Figure 8. The treatment regimens and evaluation protocol of our mice study P50
Figure 9. Kaplan-Meier’s estimates P51
Figure 10. MRI demonstration of patients with different tumor locations P52
Figure 11. MRI demonstration of patients with different edema extents and tumor locations P54
Figure 12. Illustrations of by FTIR analysis P55
Figure 13. The rheological properties of oxi-HA/ADH P56
Figure 14. Degradation properties of oxi-HA/ADH hydrogel P56
Figure 15. Drug release profile P57
Figure 16. Biocompatibility of oxi-HA/ADH P57
Figure 17. The LIVE/DEAD staining P58
Figure 18. The IC50 test of carboplatin P58
Figure 19. The BLIs evolution of the first-stage in vivo experiment P59
Figure 20. The tumor volume evolution of the first-stage in vivo experiment P60
Figure 21. The BLIs evolution of the second-stage in vivo experiment P61
Figure 22. The bioluminescence signal of the second-stage in vivo experiment P61
Figure 23. The tumor volume evolution of the second-stage in vivo experiment P62
Figure 24. The survival curves of the second-stage in vivo experiment P62
Figure 25. The gross and histopathological findings of the second-stage in vivo experiment P63
Figure 26. The weight change and skin reaction of mice in the second-stage in vivo experiment P64
Figure 27. The proposed personalized glioblastoma treatment strategies P65
Figure 28. Progression patterns and sSVZCC invasion P66
LIST OF TABLES P67
Table 1. Patient characteristics, imaging findings, and treatment modalities stratified by EPE status P67
Table 2. Univariate analysis results for OS and PFS P68
Table 3. Multivariate Cox proportional hazards results for shorter OS and PFS combined with different various anatomical factors P68
Table 4. Univariate analysis results for OS and PFS stratified by sSVZCC invasion status the in the EPE− and EPE+ groups P69
Table 5. Progression patterns and sites stratified by EPE and sSVZCC invasion P70
Table 6. Progression patterns and sites stratified by RT techniques P71
Table 7. Analysis of survival in the first-stage in vivo experiment P71
Table 8. Analysis of survival in the second-stage in vivo experiment P72
Table 9. Analysis of blood samples in the second-stage in vivo experiment P72
REFERENCE P73
APPENDIX P88
A. Abbreviations P88
B. Publications P91
dc.language.isoen
dc.subject卡鉑凝膠zh_TW
dc.subject腫瘤內藥物注射zh_TW
dc.subject同步放射化學治療zh_TW
dc.subject膠質母細胞瘤zh_TW
dc.subject影像生物標記zh_TW
dc.subject個人化治療zh_TW
dc.subject疾病分類zh_TW
dc.subjectconcurrent chemotherapyen
dc.subjectglioblastomaen
dc.subjectimaging biomarkersen
dc.subjectdisease classificationen
dc.subjectpersonalized treatment strategyen
dc.subjecthydrogel carboplatinen
dc.subjectintratumoral drug injectionen
dc.title膠質母細胞瘤之個人化治療: 以影像生物標記預測腫瘤進展模式與發展對應之腫瘤內藥物傳輸系統zh_TW
dc.titlePersonalized Glioblastoma Treatment: Seeking Imaging Biomarkers to Predict Tumor Progression Patterns and Developing Targeted Intratumoral Drug Delivery Systemen
dc.typeThesis
dc.date.schoolyear106-1
dc.description.degree博士
dc.contributor.coadvisor陳中明(Chung-Ming Chen),林?輝(Feng-Huei Lin)
dc.contributor.oralexamcommittee郭頌鑫(Sung-Hsin Kuo),林頌然(Sung-Jan Lin)
dc.subject.keyword膠質母細胞瘤,影像生物標記,疾病分類,個人化治療,卡鉑凝膠,腫瘤內藥物注射,同步放射化學治療,zh_TW
dc.subject.keywordglioblastoma,imaging biomarkers,disease classification,personalized treatment strategy,hydrogel carboplatin,intratumoral drug injection,concurrent chemotherapy,en
dc.relation.page93
dc.identifier.doi10.6342/NTU201704398
dc.rights.note同意授權(全球公開)
dc.date.accepted2017-11-28
dc.contributor.author-college工學院zh_TW
dc.contributor.author-dept醫學工程學研究所zh_TW
顯示於系所單位:醫學工程學研究所

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