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(초록) 10

1. 서언 13

2. 연구사 16

3. 재료 및 방법 20

가. 실험 재료 20

1) 시험포장 20

2) 공시규산비료 21

나. 처리 및 방법 21

1) 규산 및 3요소 처리 21

2) 시험구 배치 및 벼 재배방법 23

다. 시료분석 및 조사 방법 24

1) 토양 및 공시비료 분석 24

2) 토양용액 분석 25

3) 토양미생물 조사 26

4) 식물체 분석 27

라. 생육 및 수량조사 28

1) 생육조사 28

2) 수량조사 28

마. 쌀 품질조사 28

1) 쌀 품위특성 28

2) 쌀의 무기양분 분석 29

3) 밥 맛 관련 화학성분 분석 30

4) 쌀 단백질 분획 조사 31

4. 결과 및 고찰 33

가. 벼 생육단계 별 토양환경에 미치는 규산질비료의 영향 33

1) 토양의 화학적 성질 변화 33

2) 토양용액의 양분함량 변화 45

3)/다. 토양미생물 개체수 51

나. 벼 생육 및 수량에 미치는 규산질비료의 효과 52

1) 벼 생육에 미치는 규산질비료의 영향 52

2) 수량에 미치는 규산질비료의 영향 56

다. 벼 최 상위 엽의 무기양분 함량 및 균형 61

1) 최 상위 완전전개 잎 또는 지엽의 주요 무기양분 함량 62

2) 최 상위 완전전개 잎 또는 지엽의 무기양분 균형 72

3) 볏짚의 화학적 성분 74

라. 쌀의 품질 및 식미요인 조사 75

1) 규산질비료 시용에 의한 쌀 품위 특성 76

2) 밥 맛 관련 화학적 요인 79

3) 쌀 단백질 그룹 특성 85

5. 적요 89

참고문헌 93

(Abstract) 102

감사의 글 104

List of Tables

Table 1. Physicochemical properties of paddy soil before experiment. 20

Table 2. Chemical composition of silicate fertilizer used in this experiment(2002). 21

Table 3. Experimental design for the effect of silicate fertilizer on rice plant and paddy soil. 22

Table 4. The chemical properties of soil amended with silicon and nitrogen fertilizer at each growing stages. 34

Table 5. Changes of Ca2+, Mg2+, and K+ content in soil solution affected by different levels of silicate alone, or combined with nitrogen fertilizer.(이미지참조) 50

Table 6. Seasonal changes in tiller number of rice plant influenced by different levels of silicate alone, or combined with nitrogen fertilizer application. 55

Table 7. Yield components of rice influenced by different levels of silicate alone, or in combination with nitrogen fertilizer. 57

Table 8. Yields of rice grain and straw influenced by different levels of silicate alone, or in combination with nitrogen fertilizer. 59

Table 9. Nutrients content of rice straw influenced by Si and N fertilizer application. 74

Table 10. Characteristics of rice process and brown rice. 77

Table 11. Physical quality parameters of polished rice influenced by different levels of silicate alone, or combined with nitrogen fertilizer. 78

Table 12. Mineral contents of brown rice influenced by different levels of silicate alone, or combined with nitrogen fertilizer. 84

Table 13. Composition of four protein groups of brown influenced by different levels of silicate alone, or combined with nitrogen fertilizer. 86

Table 14. The ratio of four protein groups of brown rice influenced by different levels of silicate alone, or combined with nitrogen fertilizer. 88

List of Figures

Fig. 1. Paddy rice field used in experiment. 23

Fig. 2. Solution access tubes used in the experiment. 24

Fig. 3. Protein extraction procedure from rice seed. 32

Fig. 4-1. Seasonal changes in pH values of paddy soil influenced by different levels of silicate fertilizer. 36

Fig. 4-2. Seasonal changes in pH values of paddy soil influenced by different levels of silicate in combination with nitrogen fertilizer. 36

Fig. 5-1. Seasonal changes in available P2O5 content of paddy soil influenced by different levels of silicate fertilizer.(이미지참조) 38

Fig. 5-2. Seasonal changes in available P2O5 content of paddy soil influenced by different levels of silicate in combination with nitrogen fertilizer application.(이미지참조) 38

Fig. 6-1. Seasonal changes in available SiO₂ content of paddy soil influenced by different levels of silicate fertilizer application. 40

Fig. 6-2. Seasonal changes in available SiO₂ content of paddy soil influenced by different levels of silicate in combination with nitrogen fertilizer application. 40

Fig. 7-1. Seasonal changes in organic matter content of paddy soil influenced by different levels of silicate fertilizer application. 42

Fig. 7-2. Seasonal changes in organic matter content of paddy soil influenced by different levels of silicate in combination with nitrogen fertilizer application. 42

Fig. 8-1. Seasonal changes in exchangeable K/(Ca+Mg) ratio of paddy soil influenced by different levels of silicate fertilizer application. 44

Fig. 8-2. Seasonal changes in exchangeable K/(Ca+Mg) ratio of paddy soil influenced by different levels of silicate in combination with nitrogen fertilizer application. 44

Fig. 9. Seasonal changes of SiO₂ content in soil solution at 30cm soil depth influenced by different levels of silicate alone, or combined with nitrogen fertilizer. 47

Fig. 10. Seasonal changes of NH4+-N content in soil solution at 30 cm soil depth influenced by different levels of silicate alone, or combined with nitrogen fertilizer.(이미지참조) 48

Fig. 11. Seasonal changes of H2PO4- content in soil solution at 30 cm soil depth influenced by different levels of silicate alone, or combined with nitrogen fertilizer.(이미지참조) 49

Fig. 12. The population of soil microorganisms at heading stage in paddy soil influenced by different levels of silicate alone, or in combined with nitrogen fertilizer. 51

Fig. 13. Seasonal changes in rice plant height influenced by different levels of silicate alone, or combined with nitrogen fertilizer application(expt. in 2002). 53

Fig. 14. Seasonal changes in rice plant height influenced by different levels of silicate alone, or combined with nitrogen fertilizer application(expt. in 2003). 54

Fig. 15. Relationships between yield and yield components of rice plant affected by different levels of silicate alone, or in combination with nitrogen fertilizer. 60

Fig. 16-1. Seasonal changes in total nitrogen content of the uppermost leaf(fully expanded) influenced by different levels of silicate fertilizer application. 63

Fig. 16-2. Seasonal changes in total nitrogen content of the uppermost leaf(fully expanded) influenced by different levels of silicate in combination with nitrogen fertilizer application. 63

Fig. 17-1. Seasonal changes in phosphate content of the uppermost leaf(fully expanded) influenced by different levels of silicate fertilizer application. 64

Fig. 17-2. Seasonal changes in phosphate content of the uppermost leaf(fully expanded) influenced by different levels of silicate in combination with nitrogen fertilizer application. 65

Fig. 18-1. Seasonal changes in Ca content of the uppermost leaf(fully expanded) influenced by different levels of silicate fertilizer application. 66

Fig. 18-2. Seasonal changes in Ca content of the uppermost leaf(fully expanded) influenced by different levels of silicate in combination with nitrogen fertilizer application. 66

Fig. 19-1. Seasonal changes in Mg content of the uppermost leaf(fully expanded) influenced by different levels of silicate fertilizer application. 67

Fig. 19-2. Seasonal changes in Mg content of the uppermost leaf(fully expanded) influenced by different levels of silicate in combination with nitrogen fertilizer application. 68

Fig. 20-1. Seasonal changes in K content of the uppermost leaf(fully expanded) influenced by different levels of silicate fertilizer application. 69

Fig. 20-2. Seasonal changes in K content of the uppermost leaf(fully expanded) influenced by different levels of silicate in combination with nitrogen fertilizer application. 69

Fig. 21-1. Seasonal changes in SiO₂content of the uppermost leaf(fully expanded) influenced by different levels of silicate fertilizer application. 71

Fig. 21-2. Seasonal changes in SiO₂content of the uppermost leaf(fully expanded) influenced by different levels of silicate in combination with nitrogen fertilizer application. 71

Fig. 22. Seasonal changes in Mg/K ratio of the uppermost leaf(fully expanded) influenced by different levels of silicate alone, or combined with nitrogen fertilizer. 72

Fig. 23. Seasonal changes in Si/N ratio of the uppermost leaf(fully expanded) influenced by different levels of silicate alone, or combined with nitrogen fertilizer. 73

Fig. 24. Amylose contents of polished rice influenced by different levels of silicate alone, or combined with nitrogen fertilizer. 80

Fig. 25. Protein contents of polished rice influenced by different levels of silicate alone, or combined with nitrogen fertilizer. 81

Fig. 26. Taste value(Toyo) of polished rice influenced by different levels of silicate alone, or combined with nitrogen fertilizer. 82

Fig. 27. The Mg/K ratio of brown rice influenced by different levels of silicate alone, or combined with nitrogen fertilizer. 85

Fig. 28. SDS-PAGE of rice protein. 87

참고문헌 (93건) : 자료제공( 네이버학술정보 )

참고문헌 목록에 대한 테이블로 번호, 참고문헌, 국회도서관 소장유무로 구성되어 있습니다.
번호 참고문헌 국회도서관 소장유무
1 Cereal Chem., 1966, 43, 145 미소장
2 1988. Effects of deep plowing and soil improvements on the change of chemical properties of paddy soil. Korean J. Soil Sci. Fert. 30(1): 63~69 미소장
3 2006. Effects of the granular silicate fertilizer(GSF) application on the rice growth and quality. Korean J. Soil Sci. Fert. Vol. 39(3): 151~156 미소장
4 Silicon fertilization for disease management of rice in Florida 네이버 미소장
5 Influence of Silicon Fertilizer Grades on Blast and Brown Spot Development and on Rice Yields 네이버 미소장
6 Effect of Calcium Silicate on Blast and Brown Spot Intensities and Yields of Rice 네이버 미소장
7 Silicon fertilization for disease management of rice in Florida 네이버 미소장
8 Silicon Concentration, Disease Response, and Yield Components of Rice Genotypes Grown on Flooded Organic Histosols 네이버 미소장
9 1999. Silicon annual review of plant physiology. Plant Molecular Biology. 50. 641~664 미소장
10 Influence of silicon on sheath blight of rice in Brazil 네이버 미소장
11 1998. Improvement of cultivation method of paddy rice in decrease of nitrogen application. Department of Agri. Chem. Graduate School, Chonnam National Uni. Kwangju, Korea. 미소장
12 1999. Effect of reduced N application and planting density on paddy rice. Korean J. Soil Sci. Fert. 32(1): 12~21 미소장
13 1994. Classification of rice varieties based on the physicochemical properties related with grain quality of rice. RDA. J. Agri. Sci. 36(1):52~64 미소장
14 1989. Rice quality evaluation for new developed varieties. res. rept. RDA (R) 31(2): 63~73 미소장
15 EFFECTS OF SILICON ON THE CHEMICAL COMPOSITION OF RICE PLANTS 네이버 미소장
16 Interaction between calcium and silicon in water-cultured rice plants 네이버 미소장
17 The economic potential of silicon for integrated management and sustainable rice production. 2001. Crop Protection. Vol. 20:43-48 미소장
18 1985. Effects of rice straw and wollastonite application on the growth and yield of the rice plant. Korean J. Soil Sci and Fert. 18(2): 148~155 미소장
19 1982. Silicon influences on growth and some physiological activities of rice. Res. Rept. ORD(C) 24: 1~17 미소장
20 1997. Influence of silicate application on rice grain quality. Korean J. Crop Sci.42: 800-804 미소장
21 1985. Effects of application of slag as silicate material on rice yield in normal paddy soil. Res. Rept. ORD 27(1): 41~50 미소장
22 Changes in Rice Yield and Soil Physico-Chemical Properties as Affected by Annul Application of Silicare Fertilizer to the Paddy Soil 네이버 미소장
23 Effects of Soil Improvement on the Dependence of Rice Nutrient Contents and Grain Quality 소장
24 Changes in Rice Yield,Nutrients' Use Efficiency and Soil Chemical Properties as Affected by Annul Application of Slag Silicate Fertilizer 소장
25 1988. Research status and prospects in rice quality. Korean J. Crop Sci. 33:1~17 미소장
26 Variation of Grain Quality of Rice Varieties Grown at Different Locations II. Relationship between Characteristics Related to Grain Quality 네이버 미소장
27 1991. Variation of grain quality of rice varieties grown at different locations.(Ⅱ. Relationship between characteristics related to grain quality). Korean J. Crop Sci. 35(2): 137~145 미소장
28 1983. Effect of silicate application in different paddy soils. Res. Rept. ORD25(S.P.M.U):85~95 미소장
29 1970. Studies on the effects of silicate and phosphate application on the growth of rice seeding. Korean J. Soil Sci and Fert. 3(1): 17~21 미소장
30 1999. Effects of soil amendments on soil chemical properties, salts concentration, and rice growth in reclaimed soil. Department of Agri. Chem. Graduate School, Chonnam National Uni. Kwangju, Korea. 미소장
31 1983. Fractionation and electrophoretic patterns of rice proteins. J. Korean Agricultural Chemical Society. 26(1):65~72 미소장
32 1992. Study on the improvement of rice quality; 1. Effect of chemical composition in brown rice. Korean J. Soil Sci and Fert. 25(4):357~363 미소장
33 1994. Effect of fly ash application on the yield of rice and silicate availability in paddy soil. Korean J. Soil Sci. Fert. Vol 27: 275~283 미소장
34 2005. Reducing nitrogen fertklization level of rice(Oryza sativa L.)by silicate application in Korean Paddy Soil. Korean J. Soil Sci and Fert. 38(4): 194~201 미소장
35 1969. A Study on the rice protein. J. Korean Agricultural Chemical Society. 10: 13~17 미소장
36 1977. Rice protein: Its composition, structure, occurence and biosynthesis. J. Korean Agricultural Chemical Society. 20: 156~169 미소장
37 A Study on the Rice Protein: Factionation of the Protein of Korean Rice by Paper Electrophoresis 네이버 미소장
38 1981. Silicate application at the different growth stages and the occurance of rice blast disease. Korean J. Soil Sci and Fert. 14(2): 76~82 미소장
39 1993. Effects of silicate and potassium applicaton on the yield of rice irrigated with polluted water and underground water. Korean J. Soil Sci and Fert. 26(4): 304~307 미소장
40 1986. Changes of silica solubility in the suspension of sandy loam soil treated with silicate fertilizers. Korean J. Soil Sci and Fert. 19(4): 321~325 미소장
41 Effects of Different Silicate Fertilizers on Rice Plant 네이버 미소장
42 Growth-associated protein-43 is elevated in the injured rat sciatic nerve after low power laser irradiation 네이버 미소장
43 1975. Fate of inorganic nitrogen by addition of silica materials on the fresh soil condition. Korean J. Soil Sci and Fert. 8(2): 61~68 미소장
44 Application effect in split doses of silicate fertilizers on rice plant. Korean J. Soil Sci and Fert. 7(3): 155~161 미소장
45 1973. Effect of wollastonites on silica uptake by rice Plant. Korean J. Soil Sci and Fert. 6(4): 221~226 미소장
46 1985. Utilization of blast furnace slag quenched with water as a source of silicate fertilizer; Ⅱ. Effect of particle size distribution of quenched slag on rice yields. Korean J. Soil Sci and Fert. 18(1): 67~71 미소장
47 1985. Utilization of blast furnace slag quenched with water as a source of silicate fertilizer; Ⅲ. Effect of direct application of quenched slag on rice yields. Korean J. Soil Sci and Fert. 18(4): 319~324 미소장
48 1983. Interaction between silicate and phosphate fertilizers applied in the paddy soils. Korean J. Soil Sci and Fert. 16(4): 325~332 미소장
49 1999. Evaluation of basic oxygen furnace slag as soil conditioner in the rice paddy field. Korean J. Soil Sci and Fert. 32(3): 295~303 미소장
50 Protective effect of silicon on phenolic biosynthesis and ultraviolet spectral stress in rice crop 네이버 미소장
51 1995. Effects of long term application and damages of Disease and pest on rice quality. RDA. J. Agri. Sci. 37(2) : 68~73 미소장
52 1961. Effects of silica on nutrition and physiology of rice plant. J. Sci.l Soil Manual: 125~136 미소장
53 London: Its Origin and Early Development by William Page; 네이버 미소장
54 Nitrogen form and silicon nutrition effects on resistance to blast disease of rice 네이버 미소장
55 1979. Cereal Chem. 56:389~393 미소장
56 1970. Studies on the relation between available silica content and the effect of silicate, distribution pattern of available silica content and requirement in Korean paddy top soil. Res. Rept. RDA(Plant environment). 13: 1~30 미소장
57 2000. Change of physical properties on long-term fertilization of compost and silicate in paddy soils. Korean j. Soil Sci. Fert. 33(3): 175~181 미소장
58 1986. The effect of long term application of compost, lime and wollastonite on rice yield and physico-chemical properties of paddy soil. Korean j. Soil Sci. Fert. 28(1): 59~68 미소장
59 1968. The Effect of wollastonite on rice plant grown on an akiochi soil. Korean j. Soil Sci. Fert. 1(1): 61~71 미소장
60 1970. The Effect of wollastonite and manganese dioxide on rice grown on a flooded acid sulfate soil. Korean j. Soil Sci. Fert. 3(1): 23~28 미소장
61 1970. Effect of potassium on rice plant growth on and akiochi Soil. Korean j. Soil Sci. Fert. 3(1): 11~15 미소장
62 1971. The effect of increased application of silica, nitrogen and potassium on rice grown on akiochi soils. Korean J. Soil Sci and Fert. 4(2): 161~166 미소장
63 RDA. 1988. Methods of soil chemical analysis. National Institute of Agricultural Science and Technology, Rural Development Administration, Suwon, Korea 미소장
64 Laid-Off Satellite Group Sets Up Shop 네이버 미소장
65 RDA. 1995. Standard investigation methods for agriculture experiment. Rural Development Administration, Suwon, Korea 미소장
66 Spending Boost Aims to Reform Academia 네이버 미소장
67 1986. Pretreatment of rice straw and silica fertilizer in submerged and upland soil condition. Korean j. Soil Sci. Fert. 19(3):245～249 미소장
68 Effect of Silicon Rate and Host Resistance on Blast, Scald, and Yield of Upland Rice. 네이버 미소장
69 Determination of Nitrogen Application Rates with Paddy Soil Types for Production of High Rice Quality 소장
70 Silicon Fertilization of Rice on Everglades Histosols 네이버 미소장
71 Soil and Fertilizer, 2001 : Korean J. Soil Sci. & Fertilizer. p.10~22(in Korean) 미소장
72 Soil and Fertilizer, 2001 : Korean J. Soil Sci. & Fertilizer. p.23~35(in Korean) 미소장
73 Soil and Fertilizer, 2001 : Korean J. Soil Sci. & Fertilizer. p.36~43(in Korean) 미소장
74 Soil and Fertilizer, 2004; Korean J. Soil Sci. Fert. (20) p. 7~19 미소장
75 1926. Studies concerning the essential nature of aluminum and slilcon for plant growth. Univ California Public Agr. Sci. 5:57 미소장
76 1990. The possibility of silicon as an essential element for higher plants. Comments Agricl. Food Chem. 2:99-102 미소장
77 Effects of Silicate Application on Lodging, Yield and Palatability of Rice Grown by Direct Sowing Culture. 네이버 미소장
78 1983. Effect of silicates on the fatty acid and sterol composition of paddy rice. Korean J. Soil Sci and Fert. 16(4): 333~342 미소장
79 1978. Effects of application season and particle-size distribution of silicate fertilizer on rice yields. Korean J. Soil Sci and Fert. 11(2): 89~95 미소장
80 1982. Residual effect of silicate fertilizer on rice. Korean J. Soil Sci. Fert. 15(2): 95~100 미소장
81 1959. Role of silicon in rice nutrition. Soil & Plant Food. 5:23. 미소장
82 1962. Chemical forms, mobility and deposition of silicon in rice plant. Soil Sci. Plant Nutr. 8: 15~21 미소장
83 1969. Effects of silica and nitrogen supply on some leaf characters of the rice plant. Plant Soil 31:48~56 미소장
84 1975. The physiology of silicon in rice. Tech. Bull. No. 25. Food and Fertilizer Technology Center, Taipei, Taiwan. 미소장
85 2001. 식물에 대한 규산의 효과. 규산질비료의 이용실태와 발전방향 워크샵결과. 23~35 미소장
86 1986. 수도 생육에 있어서 규소의 영향. 영남작물시험연구보고서. 2:300~317. 미소장
87 1970. 한국논토양 갈이 흙의 유효규산 함량과 규산질 비료의 효과와의 관계. 유효규산 함량분포 및 시용량에 관한 연구. 농시연보 13(식물환경편):1~30. 미소장
88 1984. 석회 및 전분첨가에 따른 담수토양의 규산흡수량 및 흡착특성 변화. 한국토양비료학회지. 15(2):95-100 미소장
89 Got silicon? The non-essential beneficial plant nutrient 네이버 미소장
90 Silicon, Disease Resistance, and Yield of Rice Genotypes under Upland Cultural Conditions 네이버 미소장
91 한국쌀연구회. 1996. 한국쌀의 재인식과 발전방향(한국쌀연구회 창립기념심포지엄). 미소장
92 1973. The chemistry of submergence soils. Advence in Agronomy. 29-88 미소장
93 1979. The effect of soil amendments on rice yield in sandy soils. Korean J. Soil Sci. Fert. 12(2): 83~89 미소장

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