Apoptosis and Anti-proliferation in HeLa and SK-N-SH Cells using Crude Extract of Ganoderma applanatum, Stomopneustes variolaris, and Phospholipid of Scomberomorus niphonius
- Alternative Title
- Ganoderma applanatum, Stomopneustes variolaris 조추출물 및 Scomberomorus niphonius 인지질 추출물의 HeLa와 SK-N-SH 암세포 사멸과 항증식
- Abstract
- Cancer is one of the health challenges and leading causes of death in the world these days. Maternal and child health is one of the most vulnerable to cancer. The global expansion of cancer registries has prompted the quest for innovative treatments that are toxic to cancer cells but have no impact on normal cells. The anticancer medications previously used displayed relatively considerable toxicity not only to tumor cells but also to the normal cells of the affected body area. The quest for new anticancer medicines is now being conducted in both terrestrial and marine habitats. Plants have been used to heal ailments for millennia. As part of traditional folk medicine, numerous plants are taken for their health advantages in various regions of the globe. The rising occurrence of many forms of cancer have necessitated the development of novel anticancer medications. Several anticancer medicines obtained from plant materials are evaluated on cells (including diverse cancer cell lines) and experimental animals before being submitted to clinical trials. In recent years, the number of newly identified natural chemicals has increased dramatically. In addition, there are several pharmacologically active substances for which the quantitative interactions are known. Plants that have been used for ages in traditional medicine have been used as sources of compounds with high biological activity. One way to get these compounds is by extracting them from plant matter. Utilizing biotechnology to develop anticancer chemicals derived from plants is another strategy. The anticancer chemicals of natural origin (e.g., from plants and aquatic sources) correspond to a variety of chemical classes. Their effects have been evaluated on various cancer cell lines, experimental animals, and in human treatment. Their prevalence and range of modes of action, such as binding to microtubules, topoisomerase inhibition, DNA binding, cell-cycle arrest, antiproliferation and apoptosis, have been evaluated.
Cervical cancer is caused by a number of cofactors, including oral contraceptive use, smoking, multiparity, HIV and HPV infection, etc. One of the major and considerable etiologies is the persistent infection of the oncogenic human papilloma virus. G. applanatum is a valuable medicinal mushroom that has been widely used as a folk medicine for the treatment and prevention of various diseases. In this study, we obtained crude extract from G. applanatum mushroom; a cell viability assay was done, and the crude extract showed a cytotoxic effect in HeLa cells with an IC50 of 1.55 ± 0.01 mg/ml. Protein expression was detected and suggested the loss of survival in a dose-dependent manner. DNA fragmentation was seen in the treatment groups as compared to the control group. Gene expression implies apoptosis in a dose-dependent manner. Additionally, anti-angiogenic activity was observed with an IC50 of 531.28 ± 6.55 μg/ml crude extract. Identification and quantification of compounds showed 2(5H)furanone with an IC50 of 1.99 ± 0.01 μg/ml and 2-hydroxy-gamma-butyrolactone could be responsible for the cytotoxic and anti-angiogenic compounds, respectively.
Likewise, S. variolaris is a valuable sea creature that has long been used as a folk medicine to cure and prevent a variety of ailments. The crude extract had a cytotoxic effect on HeLa cells with an IC50 of 723.1 ± 9.73 µg/ml. RNA/mRNA expression and fragmentation of the nuclear content of HeLa were revealed a dose-dependent manner apoptotic and antiproliferative activities. Antiangiogenic activity was reported with an IC50 of 797.3 ± 4.04 µg/ml crude extract. Anticancer activity could be attributed to dodecanoic acid, hexadecanoic acid, and tetradecanoic acid, while anti-angiogenic activity could be attributed to 2-hydroxy-gamma-butyrolactone content.
Neuroblastoma is the most common solid extra-cranial neoplasm in children. S. niphonius is a valuable edible fish that has been widely used for human diet. The phospholipid extract showed anticancer activity on neuroblastoma SK-N-SH cells, and the anticancer activity was presented with an IC50 of 710.25 ± 28.31 µg/ml. Signaling proteins and gene expression imply apoptosis. The experimental groups had more fragmented DNA than the control group. Angiogenesis inhibition activity of the extracted phospholipid was observed with an IC50 of 251.93 ± 9.68 μg/ml phospholipid. The use of HPLC allowed for the detection of both phosphatidylcholine and phosphatidylethanolamine in the extracted phospholipid.
These results demonstrated for the first time that crude extracts of G. applanatum and S. variolaris, as well as phospholipid extracts of S. niphonius, had anticancer properties. This work will provide crucial information for discovering the molecular pathways behind apoptosis in cancer cells.
- Author(s)
- KIDDANE ANLEY TEFERRA
- Issued Date
- 2023
- Awarded Date
- 2023-02
- Type
- Dissertation
- Publisher
- Pukyong National University
- URI
- https://repository.pknu.ac.kr:8443/handle/2021.oak/32885
http://pknu.dcollection.net/common/orgView/200000670419
- Affiliation
- Pukyong National University, Graduate School
- Department
- 대학원 해양수산생명과학부 미생물학전공
- Advisor
- Gun-Do Kim
- Table Of Contents
- Chapter 1. General Introduction 1
1.1. Cancer 2
1.2. Cervical cancer 3
1.3. Human papilloma virus 4
1.3.1. HPV virology 5
1.3.2. Molecular pathogenic cycle of HPV 10
1.4. Molecular genetics of cervical cancer 11
1.4.1. Chromosomal abnormalities in cervical cancer 11
1.4.2. Single nucleotide polymorphism profiling 12
1.4.3. Tumor protein p53 (TP53 gene) 13
1.4.4. FAS receptor and ligand (FAS and FASL genes) 13
1.5. Prevention of cervical cancer 14
1.5.1. Primary prevention: HPV vaccination 14
1.5.2. Secondary prevention: cervical cancer screening 15
1.6. Cervical cancer treatment 16
1.6.1. Surgical treatment 16
1.6.2. Radiation therapy 17
1.7. Neuroblastoma 18
1.7.1. Genetic predisposition 19
1.7.2. Genetic factors 20
1.7.3. Molecular factors 21
1.7.4. Treatment 23
1.8. Angiogenesis 25
1.9. Ganoderma applanatum 26
1.10. Stomopneustes variolaris 29
1.11. Phospholipid 32
1.11.1. Phospholipid classes and biological functions 32
1.11.2. Sources of marine phospholipids 35
1.12. Scomberomorus niphonius 36
1.13. The purpose of this research 38
1.14. References 39
Chapter 2. Anticancer Activity via Apoptosis and Anti-proliferation in Cervical Adenocarcinoma HeLa using Crude Extract of Ganoderma applanatum 55
2.1. Abstract 55
2.2. Introduction 56
2.3. Materials and methods 57
2.3.1. Sample collection 57
2.3.2. Crude extraction 57
2.3.3. Cell culture 58
2.3.4. Cell subculture 58
2.3.5. Solution preparation 59
2.3.6. Cell viability assay 59
2.3.7. Protein extraction 60
2.3.8. Protein quantification 60
2.3.9. Western blot 61
2.3.10. RNA extraction 61
2.3.11. Reverse transcriptase - PCR 62
2.3.12. Real time - qPCR 62
2.3.13. DNA fragmentation 64
2.3.14. Tube formation assay 64
2.3.15. GC-MS 64
2.3.16. HPLC 65
2.3.17. Statistical analysis 65
2.4. Results 65
2.5. Discussion 81
2.6. Conclusion 87
2.7. References 89
Chapter 3. Anticancer Activity via Apoptosis and Anti-proliferation in Cervical Adenocarcinoma HeLa using Crude Extract of Stomopneustes variolaris 96
3.1. Abstract 96
3.2. Introduction 96
3.3. Materials and methods 97
3.3.1. Sample collection 97
3.3.2. Crude extraction 97
3.3.3. Cell culture 98
3.3.4. Cell subculture 99
3.3.5. Solution preparation 99
3.3.6. Cell viability assay 99
3.3.7. Protein extraction 100
3.3.8. Protein quantification 100
3.3.9. Western blot 101
3.3.10. RNA extraction 101
3.3.11. Reverse transcriptase - PCR 102
3.3.12. Real time - qPCR 102
3.3.13. DNA fragmentation 105
3.3.14. Tube formation assay 105
3.3.15. GC-MS 105
3.3.16. Statistical analysis 106
3.4. Results 106
3.5. Discussion 122
3.6. Conclusion 129
3.7. References 131
Chapter 4. Anticancer Activity via Apoptosis and Antiproliferation in Neuroblastoma SK-N-SH cells using Phospholipid of Scomberomorus niphonius 137
4.1. Abstract 137
4.2. Introduction 137
4.3. Materials and methods 140
4.3.1. Phospholipid extraction 140
4.3.2. Cell culture 141
4.3.3. Solution preparation 142
4.3.4. Cell viability assay 142
4.3.5. Protein extraction and western blot 142
4.3.6. Tube formation assay 143
4.3.7. RNA extraction 143
4.3.8. Reverse transcriptase PCR 144
4.3.9. Real time qPCR 144
4.3.10. DNA fragmentation 146
4.3.12. Statistical analysis 146
4.4. Results 147
4.5. Discussion 157
4.6. Conclusion 164
4.7. References 165
요약 171
Acknowledgement 175
- Degree
- Doctor
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