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110年 - 110 國立臺灣大學_碩士班招生考試_食品科技研究所丙組:食品微生物學#101273
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題組內容
6.為加强食品微生物之管理,中央主管機關已將Real-time PCR(Polymerase Chain Reaction)列為病原性食品微生物之檢驗方法之一。請說明下列問題
(2)Real-time PCR和PCR的差異為何?(7%)
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7. 舉出三個可能配合pasteurization之其他防腐措施(6%) 為何食品工廠 常標榜所進行的 pasteurization程序是「高溫短時間」而非「低溫長時 間」(4%)
#424779
8.說明 sauerkraut發酵過程中微生物之變化(8%)
#424780
9.寫出三個作為indicator organism應具有之條件(6%)
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(a) selective and differential medium
#424782
(b) sulfur stinker
#424783
(c)merabiosis
#424784
(d) prebiotics(16%)
#424785
一、試述統籌分配稅款在財政收支劃分制度上之定位如何?現行制度有何 須改進之處?(50%)
#424786
二、預算法第51前段規定,總預算案應於會計年度開始1個月前由立 法院議决,並於會計年度開始 15日前總公布之。惟以我中央政府 總預算案審議實況為例,卻往往未能如審議完成。基此,2020年12月 下旬媒體曾以政府恐斷炊!立院將休會總預算還未審民進黨開臨時 會拼三讀」作為標題報導此事。試從預算法觀點,申論總預算未如期完 時,政府否將「斷炊」?現行預算法规定之妥當性又如何?(50%)
#424787
請閱讀以下4篇論文之後,摘要寫出每篇内容之主旨(不超過250字)請勿逐字翻譯。 (1) (25%) Nature conservation Iiterature and policy instruments mainly focus on the impacts of buman development and the benefits of nature conservation for oceans and aboveground terrestrial organisms (e.g,, birds and plants) and processes (e.g, food production), but these efforts almost completely ignore the majority of terrestrial biodiversity that is unseen and living in the soil (1). Little is known about the conservation status of most soil organisms and the effects of nature conservation policies on soil systems. Yet like "canaries in the coal mine," when soil organisms begin to disappear, e ecosystems will soon start to underperform, potentially hindering their vital functions for humankind. Soil biodiversity and its ecosystem functions thus require explicit consideration when cstablishing nature protection priorities and policies and when designing new conservation areas. To , we lay out a global soil biodiversity and ecosystem function monitoring frame ework to be considered in the context of the post-2020 sions of the Convention on Biological Diversity (CBD). To support this framework, we suggest a suite of soil ecological indicators based on essential biodiversity variables (EBVs) (2) (see the figure and table S3) that directly link to current global targets such as the ones established under the CBD, the Sustainable Development Goals (SDGs), and the Paris Agreement (table S1). Soils not only are a main repository of terrestrial biodiversity, harboring roughly one-quarter of all species on Earth, but also provide a wide variety of functions (e.g., nutrient cycling, waste decor position) and benefits (e.g., climate regulation, pathogen resistance); they regulate the diversity and functioning of aboveground systems, including their contributions to human well-being (3). If we do not protect soils for the next generations, future aboveground biodiversity and food production cannot be guaranteed. Nonetheless, recent calls to expand nature protection (4), as well as many other initiatives aimed to shape future environmental policies (5), do not consider the specific requirements of soil biodiversity and associated ecosystem functions (6, 7). Discussions and data concerning soils and their sustainability have long focused on either their vulnerability to physical impacts (e.g., soil erosion) or improvements to their food production potential (c.g., through fertilization). These narrow perspectives, often missing tangible indicators and discon nnected from environmental mon onitoring, limit a wider discussion on the ccol logical importance of soil biodiversity and its role in maintaining ecosystem functioning beyond food production systems. The prevailing emphasis bas also prevented soils from becoming a more mainstream nature conservation priority. Although initiatives to provide a more holistic representation of soils as ecosystem services providers exist [e.g., (8)], standardized and timely information to track policy targets related to soils is missing, particularly at global scales. These information gaps have precluded the delivery of a robust scientific message supporting the importance of soil biodiversity and have delayed the inclusion of soil biodiversity in nature conservation debates. Linking soil biodiversity to policy Links between global soil essential biodiversity variables (EBVs) (outer ring) are prioritized by the Soil Biodiversity Observation Network (SoilBON) and policy sectors (center) through the use of soil ecological indicators (inner ring; table S3). Thin lines correspond to links between EBVs and soil indicators; thicker lines refer to links between each soil indicator and specific policy sectors. The EBVs for soil systems are proposed as a holistic system approach (table S2), where soil organisms are intertwined with relevant soil chemical, physical, and functional properties, ntributing to overall societal well-being. Scc table SI for further information on links to specific policy targets and policies. Sec table S2 for details of the EBVs.
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相關試卷
110年 - 110 國立臺灣大學_碩士班招生考試_食品科技研究所丙組:食品微生物學#101273
110年 · #101273