Space exploration Pr的問題,透過圖書和論文來找解法和答案更準確安心。 我們找到下列股價、配息、目標價等股票新聞資訊

Space exploration Pr的問題,我們搜遍了碩博士論文和台灣出版的書籍,推薦寫的 Encyclopedia of Lunar Science 和的 Encyclopedia of Lunar Science都 可以從中找到所需的評價。

這兩本書分別來自 和所出版 。

臺北醫學大學 國際生醫工程博士學位學程 LUNDY, DAVID JON所指導 GEORGE, THOMASHIRE ANITA的 Liposome-Encapsulated Anthraquinone improves efficacy and safety in Triple Negative Breast Cancer (2021),提出Space exploration Pr關鍵因素是什麼,來自於Triple negative breast cancer、Anthraquinone、Liposomes。

而第二篇論文國立陽明交通大學 電子研究所 蘇彬所指導 劉佑陞的 鐵電電晶體非揮發性記憶體之變異分析與微縮評估 (2021),提出因為有 鐵電場效電晶體、記憶體窗口、隨機變異、非揮發性記憶體、二維材料的重點而找出了 Space exploration Pr的解答。

接下來讓我們看這些論文和書籍都說些什麼吧:

除了Space exploration Pr,大家也想知道這些:

Encyclopedia of Lunar Science

為了解決Space exploration Pr的問題,作者 這樣論述:

Editor-in-Chief: Brian Cudnik, Prairie View A&M University, Houston, TX, USASection Editors: Shengbo Chen, College of Geo-Exploration Science and Technology, Jinlin University, Changchun, PR ChinaJesse Davenport, Centre de Recherches Pétrographiques et Géochimiques (CNRS-CRPG), Vandoeuvre-Lés-Nancy,

FranceCesare Grava, Southwest Research Institute, San ANtonio, TX, UsaAmanda Hendrix, Planetary Science Institute, Tucson, AZ, USAIssaku Kohl, University of California, Young Stable Isotope Laboratory, Los Angeles, CA, USAJosé M. Madiedo, Facultad de Sciencias Experimentales, Universidad de Huelva,

SpainAmit B. Sarbadhikari, Physical Research Laboratory, Ahmedabad, IndiaEdgar S. Steenstra, Faculteit Aard- en Levenwetenschappen, Vrije Universiteit, Amsterdam, The NetherlandsNicolle E. B. Zellner, Department of Physics, Albion College, MI, USAYuanzhi Zhang, Key Laboratory of Lunar and Deep-Spac

e Exploration, Chinese Academy of Science, Beijing, PR China----------------Professor Brian Cudnik serves as Laboratory Specialist for the Physics Program at Prairie View A&M University (a part of the Texas A&M University system) in Texas. He has been at this position for almost 11 years and has bee

n at Prairie View A&M for a total of 13 years. His prior position was that of Research Assistant at the Solar Observatory. He has served as coordinator of the Lunar Meteoritic Impact Search section of the Association of Lunar and Planetary Observers (ALPO) since January 2000, two months after making

the first confirmed visual observation of a meteoroid impact on the Moon during the Leonid storm of November 1999.He has published papers and posters on various astronomical subjects including peer-reviewed papers, posters at professional conferences and amateur astronomy publications. He has serve

d as Board Member of the Houston Astronomical Society, is presently an Associate member of the American Astronomical Society, a member of the American Association of Variable Star Observers and a regular contributor of observations at the International Occultation Timing Association. He taught astro

nomy at the University of St. Thomas every semester or summer session (one summer session per summer) since 2005.

Liposome-Encapsulated Anthraquinone improves efficacy and safety in Triple Negative Breast Cancer

為了解決Space exploration Pr的問題,作者GEORGE, THOMASHIRE ANITA 這樣論述:

Background:Breast cancer is the most diagnosed cancer and a leading cause of cancer mortality in women worldwide. Triple negative breast cancer (TNBC), the most aggressive subtype of breast cancer, is highly heterogeneous, with high rates of relapse and distant metastasis, especially to the brain a

nd lung. Treatment of TNBC is a challenge because it lacks druggable targets and gene profiling shows six different subtypes which have distinct responses to different therapies.This shows that the ideal treatment strategy is the use of multi-targeting agents or a combination of agents.Drugs contain

ing anthraquinone scaffolds have shown to have enormous potential in cancer treatment and previous studies have shown that combining thiadiazole-fused anthraquinone scaffolds with other side chains expands the range of activities of the synthesized molecules, increasing its potency against several c

ancer cell lines.Small molecules are often limited by poor targeting and retention at tumor sites, as well as having poor pharmacokinetics. This leads to increased toxicity and rapid clearance from the bloodstream. Drug delivery carriers, such as liposomal formulations, can overcome these limitation

s, resulting in enhanced targeting, better efficacy, and reduced toxicity.Aim:The aim of this study is to develop a novel agent for TNBC therapy by screening a series of nitrogen-substituted anthra[1,2-c][1,2,5] thiadiazole-6,11-dione anthraquinone derivative small molecules. Upon selection of a sui

tably potent molecule, a drug delivery system will be formulated and characterized, aiming to improve drug therapeutic index and efficacy and, reduce toxicity.Materials and Methods:Eight in-house synthesized molecules were screened against two TNBC cell lines. Todetermine selectivity for breast canc

er cells one non-tumourigenic cell line was also used. Viability and cytotoxicity assays were performed, and “RV-59” was identified as the most suitable molecule. However, this molecule was poorly soluble in aqueous buffers and was relatively toxic to non-cancer cells. To overcome this, a liposome w

as developed which could encapsulate RV-59 with high efficiency and improve its activity. The liposome was formed using thin film hydration of lipids and cholesterol then sized by extrusion. The final liposomal formulation, LipoRV, was characterized by cryo-electron microscopy, dynamic light scatter

ing and dialysis to measure drug release. In-vitro assays were performed to compare LipoRV with the free molecule RV-59 and in-vivo studies were used to determine the therapeutic potential of LipoRV, as well as gather toxicity and safety data. RNA sequencing was used to examine the RV-59 mechanism o

f action and key differentially expressed proteins were confirmed by antibody array.Results:RV-59 was found to be one of the most potent molecules against both TNBC cell lines based on the in vitro screening. It was found to inhibit the cell cycle and induced necrosis and apoptosis. After liposome f

ormation, dynamic light scattering confirmed a single population of 91.02 ± 42.46 nm, PDI 0.081. Cryo-EM confirmed spherical uni-lamellar liposomes. LipoRV showed improved cell uptake and a four-fold increase in selectivity for cancer cells. It induced apoptosis and inhibited cell cycle readily and

demonstrated efficient inhibition of cell growth.In a TNBC xenograft mouse model, tumour volume was significantly reduced by LipoRVcompared to the free drug, clearing tumours in 85 % of animals. LipoRV also demonstrated an increased half-life and good safety profile compared to RV-59, without detrim

ental offtarget effects on organs or serum biochemical markers. Biodistribution analysis showed a higher drug serum concentration and reduced urinary output for LipoRV compared to RV-59.RNA sequencing of treated cells showed strong upregulation of cytokine and TNF-alphasignaling pathway and down reg

ulations genes related to extra cellular matrix components. A membrane-based antibody array confirmed the differential expression of multiple cytokines following LipoRV treatment.Conclusion:This study showed that encapsulating a thiadiazole-fused anthraquinone scaffold-basedmolecule into liposome gr

eatly improves its efficacy, reducing toxicity. This molecule shows immense potential for future use in TNBC therapy.

Encyclopedia of Lunar Science

為了解決Space exploration Pr的問題,作者 這樣論述:

Editor-in-Chief: Brian Cudnik, Prairie View A&M University, Houston, TX, USASection Editors: Shengbo Chen, College of Geo-Exploration Science and Technology, Jinlin University, Changchun, PR ChinaJesse Davenport, Centre de Recherches Pétrographiques et Géochimiques (CNRS-CRPG), Vandoeuvre-Lés-Nancy,

FranceCesare Grava, Southwest Research Institute, San ANtonio, TX, UsaAmanda Hendrix, Planetary Science Institute, Tucson, AZ, USAIssaku Kohl, University of California, Young Stable Isotope Laboratory, Los Angeles, CA, USAJosé M. Madiedo, Facultad de Sciencias Experimentales, Universidad de Huelva,

SpainAmit B. Sarbadhikari, Physical Research Laboratory, Ahmedabad, IndiaEdgar S. Steenstra, Faculteit Aard- en Levenwetenschappen, Vrije Universiteit, Amsterdam, The NetherlandsNicolle E. B. Zellner, Department of Physics, Albion College, MI, USAYuanzhi Zhang, Key Laboratory of Lunar and Deep-Spac

e Exploration, Chinese Academy of Science, Beijing, PR China----------------Professor Brian Cudnik serves as Laboratory Specialist for the Physics Program at Prairie View A&M University (a part of the Texas A&M University system) in Texas. He has been at this position for almost 11 years and has bee

n at Prairie View A&M for a total of 13 years. His prior position was that of Research Assistant at the Solar Observatory. He has served as coordinator of the Lunar Meteoritic Impact Search section of the Association of Lunar and Planetary Observers (ALPO) since January 2000, two months after making

the first confirmed visual observation of a meteoroid impact on the Moon during the Leonid storm of November 1999.He has published papers and posters on various astronomical subjects including peer-reviewed papers, posters at professional conferences and amateur astronomy publications. He has serve

d as Board Member of the Houston Astronomical Society, is presently an Associate member of the American Astronomical Society, a member of the American Association of Variable Star Observers and a regular contributor of observations at the International Occultation Timing Association. He taught astro

nomy at the University of St. Thomas every semester or summer session (one summer session per summer) since 2005.

鐵電電晶體非揮發性記憶體之變異分析與微縮評估

為了解決Space exploration Pr的問題,作者劉佑陞 這樣論述:

摘要......iAbstract......ivAcknowledgements......viiContents......ixFigure Captions......xiiTable Captions......xxiiChapter 1 Introduction......11.1. Background......11.2. Phase Nonuniformity and Ferroelectricity in Doped Hafnium Oxide......31.3. Basic Operation of FeFETs with Preisach Model......51.

4. Endurance and Reliability Limitations......61.5. Dissertation Organization......7Chapter 2 Variability Analysis for Ferroelectric FET Nonvolatile Memories Considering Random Ferroelectric-Dielectric Phase Distribution......262.1. Introduction......262.2. Calibration between Models and TCAD......2

72.3. Simulation Methodology: Number and Position Fluctuations......282.4. Discussion on Worst-case MW......292.5. Impact of EOT of IL on MW Distribution......292.6. Impact of Scaled Channel Area on MW Distribution......302.7. Comparison between Voronoi and Square Approaches......322.8. Summary.....

.33Chapter 3 Impact of Trapped-Charge Variations on Scaled Ferroelectric FET Nonvolatile Memories......553.1. Introduction......553.2. Simulation Methodology: Number and Position Fluctuations......563.3. Impact of Trapped Charges on Vth and MW Distributions......573.4. Impact of EOT of IL on MW Dist

ribution......593.5. Impact of Scaled Channel Area on MW Distribution......593.6. Impact of Trapped-Charge Variations under Random FE-DE Phase Distribution......603.7. Summary......62Chapter 4 Improving the Scalability of Ferroelectric FET Nonvolatile Memories with High-k Spacers......794.1. Introdu

ction......794.2. Simulation Methodology......804.3. Impact of High-k Spacers on the Scalability of FeFETs Considering Phase Non-uniformity......814.4. Impact of High-k Spacers on Electric Field across Interfacial Layer......844.5. Design Space Exploration for Scaled FeFET Nonvolatile Memories......

864.6. Impact of the Pr/PS ratio on MW and Design Space......884.7. Possible Concerns with High-k Spacer Design......894.8. Summary......89Chapter 5 Comparison of 2D MoS2 and Si Ferroelectric FET Nonvolatile Memories Considering the Trapped-Charge induced Variability......1175.1. Introduction......1

175.2. Calibration between Post-Process Models and TCAD......1185.3. Better Electrostatic Integrity of the MoS2 FeFET......1195.4. Superior Immunity to Trapped-Charge induced Variability......1205.5. Comparison of Device Scaling on MW Variation......1205.6. Comparison between Classical and Quantum r

esults on MW Variation......1215.7. Random FE-DE Phase Distribution in MoS2 FeFETs......1245.8. Summary......125Chapter 6 Conclusion and Future Work......1476.1. Conclusion......1476.2. Future work......149