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研究生: 尹 璐
Yin, Lu
論文名稱: 對於跑動宇宙學常數模型的研究
Study of running cosmological constant models
指導教授: 耿朝強
Geng, Ghao-Qiang
口試委員: 張維甫
Chang, We-Fu
栗崇中
Lih, Chong-Chung
潘國全
Pan, Kuo-Chuan
何小剛
He, Xiao-Gang
學位類別: 博士
Doctor
系所名稱: 理學院 - 物理學系
Department of Physics
論文出版年: 2020
畢業學年度: 108
語文別: 英文
論文頁數: 60
中文關鍵詞: 暗能量宇宙學常數
外文關鍵詞: Dark energy, Cosmological constant
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  • 我們通過跑動真空能模型來研究變化的宇宙學常數。在我們的模型中Λ(H) =3νH^2+Λ0,其中ν是模型參數Λ0是宇宙學常數。從宇宙微波背景輻射,弱引力透鏡和重子聲學振盪,哈勃參數H(z) 和加權線性增長f(z)σ_8(z) 的数据中,我們發現RVM 模型中ν= (1.37^+0.72_-0.95)×10^-4 且卡方分佈χ^2 值比ΛCDM 模型的值更小。我們還研究了形式為Λ=3αH^2+3βH^4_0 H^-2+Λ0的特殊跑動真空模型,其中α和β是模型參數,Λ0是宇宙常數。該跑動真空能模型具有非解析的能量密度背景演化,只能用數值解去研究。為了避免產生負的暗能量的能量密度,我們規定α>0。從CMB 功率譜和重子聲學振蕩的分析,我們發現α<2.83×10^-4 和β=(-0.2^+3.9_-4.5)×10^-4(95 % C.L.)。
    我們另外也研究了Λ(α)CDM 模型的宇宙學常數演化,其中Λ(α) 是隨時間變化的精細結構常數α的函數。根據宇宙學觀測到的隨時間變化的313個α數據點,我们仔細研究了分別具有一個和兩個模型參數的特定Λ(α)CDM 模型的宇宙學限制。我們發現模型參數被約束在10^-4 左右,這與前人研究的結果相似,但更為準確。


    We examine the running vacuum model with Λ(H) =3νH^2 +Λ0 to study the running cosmological constant term, where ν is the model parameter and Λ0 is the cosmological constant. From the data of the cosmic microwave background radiation, weak lensing and baryon acoustic oscillation along with the time-dependent Hubble parameter H(z) and weighted linear growth f(z)σ_8(z) measurements, we find that ν=(1.37^+0.72_-0.95)×10^-4 with the best fitted χ^2 value slightly smaller than that in the ΛCDM model.
    We extend our work to a special running vacuum model with Λ= 3αH^2+3βH^4_0 H^-2+Λ0, where α and β are the model parameters and Λ0 is the cosmological constant. This RVM has non-analytic background solutions for the energy densities of matter and radiation, which can only be evaluated numerically. From the analysis of the CMB power spectrum and baryon acoustic oscillation along with the prior of α> 0 to avoid having a negative dark energy density, we find that α<2.83 × 10^-4 and β= (-0.2^+3.9_-4.5)×10^-4 (95% C.L.).
    We also study Λ(α)CDM models with Λ(α) being a function of the time-varying fine structure constant α. We give a close look at the constraints on two specific Λ(α)CDM models with one and two model parameters, respectively, based on the cosmological observational measurements along with 313 data points for the time varying α. We find that the model parameters are constrained to be around 10^-4, which are similar to the results discussed previously but more accurately.

    Abstract Contents------------------------------------------------------ i List of Tables---------------------------------------------- iii List of Figures---------------------------------------------- iv 1 Introduction------------------------------------------------ 1 2 Constraints on running vacuum model with H(z) and fσ8------ 4 3 Constraints on a special running vacuum model-------------- 15 4 Cosmological constraints on Λ(α)CDM models with time-varying fine structure constant------------------------------------------- 32 5 Conclusions------------------------------------------------ 50 6 Bibliography------------------------------------------------52

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