Platinum的問題，透過圖書和論文來找解法和答案更準確安心。 我們找到下列問答集和資訊懶人包

The Queen Bee

為了解決Platinum的問題，作者Lil’ Kim 這樣論述：

Kimberly Denise Jones is the female rap legend better known as Lil’ Kim. In 1996, she changed the face of hip-hop with the release of her solo debut album, Hard Core. Since then, Lil’ Kim has remained a backbone of hip-hop culture, from fashion icon to actor, model, and entrepreneur. A Grammy award-

winning and multi-Platinum artist, Lil’ Kim has released five solo studio albums, four mixtapes, and over twenty hit singles both of her own and as a featured artist. Kathy Iandoli is the critically acclaimed author of God Save The Queens: The Essential History of Women in Hip-Hop and the forthcomin

g Baby Girl: Better Known as Aaliyah. Iandoli has written for Vibe, The Source, XXL, Village Voice, Rolling Stone, Billboard, Pitchfork, Playboy, Cosmopolitan, Maxim, The Guardian, Vice, and many other publications. She has held editorial positions at top hip-hop/urban websites and is an alumna-in-r

esidence of Music Business at New York University.

Platinum進入發燒排行的影片

錨定含吡啶與吡唑雙配位基於氧化鋅奈米粒子的合成、催化與水中的應用

為了解決Platinum的問題，作者廖建勳 這樣論述：

本篇論文選擇以吡唑、吡啶以及含有羧酸根官能基的含氮雜環碳烯為主要結構，藉由中性分子化合物 (NHC-COOH) (5) 錨定在氧化鋅奈米粒子，成功合成出氧化鋅奈米粒子載體 (ZnO-NHC NPs) (9)。而且有機分子修飾在氧化鋅奈米粒子上，能使得氧化鋅奈米粒子載體 (ZnO-NHC NPs) (9) 均勻分散在高極性的溶劑中，因此可以利用核磁共振光譜儀、紅外線光譜儀進行定性與定量分析，並用穿透式電子顯微鏡量測粒徑大小。 除此之外，也把氧化鋅奈米粒子載體 (ZnO-NHC NPs) (9) 與鈀金屬螯合鍵結成鈀金屬氧化鋅奈米粒子載體 (Pd-NHC ZnO NPs) (1

0)。並且應用於 Sonogashira 偶聯反應，探討分子式觸媒 (Pd-NHC) (6) 與載體式觸媒 (Pd-NHC ZnO NPs) (10) 的催化活性。研究結果顯示載體式觸媒 (Pd-NHC ZnO NPs) (10) 的催化效果與分子式觸媒 (Pd-NHC) (6) 相當，這結果可證明不會因為載體化的製程，而減少中心金屬的催化活性，而且載體式觸媒 (Pd-NHC ZnO NPs) (10) 可以藉由簡單的離心、傾析後，即使經過十次回收再利用，仍然保持著很高的催化活性。 工業廢水是近年來熱門討論的議題，廢水中所含有的重金屬離子往往會造成嚴重的環境汙染。而這些有毒的金屬汙染物

不只汙染了大自然，更是影響了人類的健康。因此，如何從廢水中除去重金屬離子是非常重要的技術。在本篇研究中，利用氧化鋅奈米粒子載體 (ZnO-NHC NPs) (9) 當作吸附劑，把廢水中常見的鋅、鉛、鎘等金屬，以及硬水溶液中的鈣、鎂金屬成功吸附。接著利用氫氧化鈉當作脫附劑，成功的把金屬離子脫附下來，並且進行再次吸附，也達到很好的效果。除了吸附與脫附的定性分析，本論文也進行吸附的定量分析實驗，發現與文獻其他相近系統效果相當，尤其在低濃度金屬離子的吸附更是優於許多文獻數值。

Harder to Breathe: A Memoir of Making Maroon 5, Losing It All, and Finding Recovery

為了解決Platinum的問題，作者Dusick, Ryan 這樣論述：

Two decades after Songs About Jane, Maroon 5’s original drummer presents an unflinching examination of fame, anxiety, mental health, and recoveryIn the nineties, Ryan Dusick and his friends Adam Levine and Jesse Carmichael dreamed about making it big . . . and against all odds, they did. This ins

ide story recounts Maroon 5’s founding and their road to becoming Grammy-winning megastars, told through the eyes of former drummer Ryan Dusick. He takes readers behind the scenes of the band’s meteoric rise to success--and the grueling demands that came with it--as well as his personal struggles wi

th anxiety and addiction after his departure from the band. For Maroon 5, fame came with a platinum debut record, jam sessions with Prince in his own living room, and encounters with celebrities such as Jessica Simpson, Justin Timberlake, John Mayer, and Bono. For Dusick, stardom came to an abrupt h

alt with the devastating loss of his ability to play drums due to chronic nerve damage. Alongside Maroon 5’s story of camaraderie and pressure, Dusick interweaves his own narrative: a decade lost to liquor and antianxiety medication, his ferocious commitment to recovery, and his current perspective

as a professional counselor. With a candor that will speak to anyone who has struggled with mental health, Harder to Breathe moves beyond celebrity to examine the nature of human heartbreak and resilience, and to buoy anyone currently facing similar challenges. Ultimately, Harder to Breathe is a rol

ler-coaster memoir about how making it to the top sent Dusick to the bottom--and how he let go of the past and embraced a new future, one breath at a time.

具新穎氮硫化鎢界面結構的p型二硫化鎢電晶體: 以第一原理量子傳輸理論進行模擬計算

為了解決Platinum的問題，作者歐仲鎧 這樣論述：

實驗室所製作的過渡金屬二硫族化合物(含一定濃度缺陷)二維電晶體，由於費米能釘札導致其p型接觸非常稀少；另一方面，電腦計算模擬所對應的上述理想結構(二維材料無缺陷)則可在高功函數金屬顯出為p型接觸，但仍未達到足夠低的電洞蕭特基位障。因此本文提出一種金屬性的超材料硫氮化鎢作為傳統金屬與半導體通道之間的緩衝層。其結構的形成可揣摩是由簡單的metal/WS2側接觸做為出發，我將鄰近介面處一定面積的上排硫原子置換為氮。以第一原理及量子傳輸理論計算電子結構與傳輸電流。我發現在金屬與二硫化鎢之間僅需0.6奈米長的硫氮化鎢緩衝層，便可有效降低通道的電洞蕭特基位障：在以鉑為金屬電極的情形中，硫氮化鎢可使蕭特基

型的Pt/WS2側接觸轉變為歐姆特性，達成以單一二維材料實現互補式金屬氧化物半導體的目標。除了鉑電極，即便我採用低功函數的金屬鋁，在Al/WSN/WS2的結構，計算而得的蕭特基位障仍低至0.12 eV。上述鉑與鋁電極的計算結果表明，氮硫化鎢緩衝層顯著提升了選擇電極金屬的靈活性，令選擇不再受限於高功函數的貴重金屬：如金、鉑和鈀。我亦更進一步量化計算Pt/WSN/WS2在不同閘極電壓下的伏安特性，得出該結構有高達10^8的開關電流比和在汲極電壓50毫伏下231 µA/µm的導通電流(接觸電阻 ≈ 63.8Ω∙μm)。同時為驗證實驗製程時硫氮化鎢的穩定性，我們採用第一原理分子動力學在室溫下分別模擬氮

吸附、單顆氮取代硫和單層氮硫化鎢，發覺皆為穩定結構。