Economical economic的問題，透過圖書和論文來找解法和答案更準確安心。 我們找到下列包括價格和評價等資訊懶人包

Bettering Humanomics: A New, and Old, Approach to Economic Science

為了解決Economical economic的問題，作者McCloskey, Deirdre Nansen 這樣論述：

Deirdre Nansen McCloskey is distinguished professor emerita of economics and of history and professor emerita of English and of communication, at the University of Illinois at Chicago. She is the author of two dozen books including Leave Me Alone and I’ll Make You Rich, The Bourgeois Virtues, Bourge

ois Dignity, Bourgeois Equality, Crossing: A Transgender Memoir, and Economical Writing.

Economical economic進入發燒排行的影片

利用模糊層級分析法 探討半導體產業品牌影響因素之分析

為了解決Economical economic的問題，作者范志旻 這樣論述：

隨著時間的流逝，半導體創新正在發生變化，可以適用於不同的創新業務，半導體業務的發展至關重要，因而開闢了許多新的職位。半導體業務是一個融合了不同創新能力並協調上游，中途和下游提供商的專業能力的行業，並且通常具有較高的進入壁壘 。廠家已投入花費很多精力與成本進入這個行業，期盼永續經營與回饋利害關係人。本研究第一步採用PEST, 五力 & SWOT分析，在美國，日本和臺灣，這些是國際半導體供應商鏈中的關鍵成員。經過最新半導體有關文獻的討論和分析，發現現有廠商已經建立了行業品牌，並獲得了用戶的信任。因此，品牌研究在這個行業是大家一直在探索的領域。考慮到寫作對話和大師談話，本研究使用分析層次結構(A

HP)研究技術對品牌的關鍵指針在半導體品牌的關鍵部件上進行重要性的排序，然後利用模糊層次分析法(FAHP)來分析這些標記之間的聯繫。經調查，有11項顯著結果可供參考，關鍵是要在半導體品牌建設上取得優異的成績，“客戶價值”和“品牌資產”都必須達到一定的水平。本研究發現，半導體品牌策略應以“客戶價值”為核心，解決客戶問題，創造卓越價值，並隨著技術的進步不斷投入新產品的研發，以奠定半導體品牌長期成功的基礎。

Environmental, Physiological and Chemical Controls of Adventitious Rooting in Cuttings

為了解決Economical economic的問題，作者 這樣論述：

The goal of this book is to provide a review, as thorough and up-to-date as possible, of the state-of-the-art of the environmental, physiological and chemical controls of adventitious rooting in cuttings obtained from plants. In plants, adventitious roots, which are highly useful for vegetative prop

agation (or clonal propagation) are produced mainly from leaves, hypocotyls, stems or shoots. Vegetative propagation may occur naturally by making use of propagules such as roots, underground and aerial stems, leaves, buds and bulbils. It may also be done artificially through regenerative organs (rh

izomes, bulbs, and corms) and by utilizing specialized methods, like cutting, grafting and layering. The technique of stem cuttings has long been used as an effective and economical method/measure of clonal propagation of uniform and pathogen-free plants of elite genotypes/germplasms. This is partic

ularly true for various species of horticultural and forestry value. The technique is of special importance for plants producing seeds that are highly recalcitrant and have a very low germination percentage. Quite often, both in vitro and in vivo clonal propagations are carried out using different t

ypes of explants. For in vitro clonal propagation usually axillary buds in the nodal segments are used, while various types of stem cuttings are chosen for in vivo propagation. Adventitious root formation in cuttings is a crucial physiological process for clonal propagation of many plant species. Ov

erall, a plethora of factors affect the adventitious rooting of cuttings, adding to the complexity of the phenomenon. The main factors which control adventitious root formation are types of cuttings, presence of leaf area on cuttings, types of hormones and their concentration, duration of hormonal t

reatment (quick dip, long soak, dry dip, spray dip, or total immerse method), maturation (juvenile or mature), genotype, explant position (basal, middle or apical cuttings), irradiance, temperature, water availability, season, mineral nutrition, rooting conditions, and/or proliferation medium. The i

dentification and the use of correct combination and/or hormonal or auxin treatments have improved the rooting potential even in hard-to-root species. It has been noticed that in spite of a thorough control of environmental factors in the modern propagation industry, high economic losses still occur

because of insufficient rooting. Therefore, understanding of each aspect associated with the adventitious root formation in cuttings is important and remains a fertile discipline for research. Pretreatment of cuttings with auxins such as indole-3-acetic acid, indole-3-butyric acid and a-naphthalene

acetic acid causes metabolic changes during the adventitious root formation, which consists of three successive but independent phases, namely induction, initiation, and expression. The induction phase comprises of molecular and biochemical events without visible changes, the initiation phase is ch

aracterized by cell divisions and root primordia organization, and the expression phase denotes the intra-stem growth of root primordia and the emergence of roots. Since rooting is a high-energy-demanding process, rooting ability of cuttings has been frequently discussed in relation to soluble and s

torage carbohydrate contents. Availability of energy sources as well as supply of nitrogen and amino-acid affects the pace and intensity of adventitious root formation. Furthermore, significant alterations in enzyme activities and metabolite accumulation observed in plant cuttings suggest that the a

ctivity of specific enzymes and metabolites governs the adventitious root formation. For instance, oxidative enzymes, widely distributed in higher plants, have special significance during the rooting. In many studies, changes in the pattern of oxidative enzymes such as peroxidase, indole acetic acid

oxidase, etc, have been taken as the biochemical markers for the successive rooting phases. Further, cutting-edge tools of genome and proteome analysis have been used to understand molecular regulations, gene actions, and cellular processes involved in adventitious root formation. Several candidate

genes have been identified to provoke the induction, initiation, and maintenance of adventitious root primordia-associated signaling cascading network. Considering these crucial points, it becomes essential to understand the underlying factors and their interactions during the formation of adventit

ious roots in cuttings. Given the above, effort has been made in the present book to cover a wide range of topics, as mentioned above, and discuss the environmental, physiological, and chemical controls of adventitious rooting in cuttings. The authors have crafted each chapter with immense clarity,

reviewing up-to-date literature and presenting lucid illustrations.

離網型微電網之再生能源系統容量規劃與技術經濟分析

為了解決Economical economic的問題，作者Teketay Mulu Beza 這樣論述：

對於埃塞俄比亞等撒哈拉以南非洲的發展中國家政府來說，實現普遍電力接入一直是一個具有挑戰性的目標。將國家電網延伸至地處偏遠、分散的島嶼人口需要巨大的投資。同樣，由於燃料價格以及污染物排放氣體，獨立的柴油發電機需要巨大的運營成本。另一方面，提供 1 級和 2 級電力的小型太陽能家庭系統無法提供生產用途所需的能源。因此，需要一個中間解決方案來填補離網社區的能源貧困。如今，根據特定場地的環境條件，離網社區已考慮使用以太陽能和風能為主的混合可再生能源系統。與此同時，最近光伏電池板和風力渦輪機成本的急劇下降為利用混合可再生能源系統滿足不同國家的電力需求提供了機會。本研究旨在通過使用能源混合優化模型 (H

OMER Pro) 軟件執行模擬、優化和敏感性分析，研究微型電網混合可再生能源系統為埃塞俄比亞 Kibran Gabriel 島供電的技術經濟可行性。將微型電網系統與獨立的柴油發電和電網擴展系統進行了比較。比較結果證實，微電網系統優於單機柴油發電機組和併網系統。此外，與指定站點的光伏/風/電池、光伏/風/柴油/電池和光伏/電池系統等其他微型電網系統相比，光伏/柴油/電池混合系統是成本最低的系統。根據分析，最佳成本效益的微型電網系統是一種包括潮流 (LF) 策略的系統，其中包含 25 kW PV、10 kW 柴油發電機、40 kWh 電池和 5kW 雙向變流器。最優的光伏/柴油/電池系統，平均能

源成本 (COE) 為 0.175 美元/千瓦時，淨現成本 (NPC) 為 119,139 美元，可再生摩擦 (RF) 為 86.4%，減少污染物排放 33,101.69 千克/與獨立的柴油動力系統相比。在敏感性分析中考慮了對總水平輻照度 (GHI)、柴油價格和負載消耗變化的最佳微型電網敏感性。結果證實，在 GHI、柴油價格和負載消耗等不確定參數的變化下，系統將運行良好。