본문바로가기

자료 카테고리

전체 1
도서자료 0
학위논문 1
연속간행물·학술기사 0
멀티미디어 0
동영상 0
국회자료 0
특화자료 0

도서 앰블럼

전체 (0)
일반도서 (0)
E-BOOK (0)
고서 (0)
세미나자료 (0)
웹자료 (0)
전체 (1)
학위논문 (1)
전체 (0)
국내기사 (0)
국외기사 (0)
학술지·잡지 (0)
신문 (0)
전자저널 (0)
전체 (0)
오디오자료 (0)
전자매체 (0)
마이크로폼자료 (0)
지도/기타자료 (0)
전체 (0)
동영상자료 (0)
전체 (0)
외국법률번역DB (0)
국회회의록 (0)
국회의안정보 (0)
전체 (0)
표·그림DB (0)
지식공유 (0)

도서 앰블럼

전체 1
국내공공정책정보
국외공공정책정보
국회자료
전체 ()
정부기관 ()
지방자치단체 ()
공공기관 ()
싱크탱크 ()
국제기구 ()
전체 ()
정부기관 ()
의회기관 ()
싱크탱크 ()
국제기구 ()
전체 ()
국회의원정책자료 ()
입법기관자료 ()

검색결과

검색결과 (전체 1건)

검색결과제한

열기
논문명/저자명
NMP, Water, Monomethylamine 혼합물의 기-액 상평형 연구/ 송용성 인기도
발행사항
공주: 공주대학교 대학원, 2002.2
청구기호
TM 660.29 ㅅ338n
형태사항
65 p. ; 26 cm
자료실
전자자료
제어번호
KDMT1200208979
주기사항
학위논문(석사) -- 공주대학교 대학원, 화학공학, 2002.2
원문
미리보기

목차보기더보기

표제지

목차

국문초록 9

Ⅰ. 서론 11

1. 연구 배경 11

2. 연구 목적 12

Ⅱ. 이론 15

1. 상평형 15

1) 상태방정식 방법 15

2) 활동도 계수 방법 16

2. 상평형 모델 19

1) 상태방정식 모델 19

(1) Virial Equation of State 19

(2) van der Waals Equation of State 20

(3) Redlich-Kwong Equation of State 21

(4) SRK(Soave-Redlich-Kwong) Equation 21

(5) PR(Peng-Robinson) Equation 23

2) 활동도 계수 모델 24

(1) Wilson Equation 24

(2) NRTL(Nonrandom Two-Liquid) Equation 25

(3) UNIQUAC(Universal QuasiChemical) Equation 26

Ⅲ. 실험재료 및 실험방법 28

1. 시약 28

2. 실험장치 30

3. 실험방법 34

4. 분석방법 35

Ⅳ. 실험결과 36

1. 활동도 계수 적용 37

1) NMP + Water Binary System 37

2) Water + MMA Binary System 49

2. 상태방정식 적용 60

3. NMP + Water + MMA Ternary System 64

Ⅴ. 결론 68

1) 활동도 계수 방법 68

2) 상태방정식 방법 68

3) 삼성분계 69

4) 추후 과제 69

Ⅵ. Symbols 70

Ⅶ. 참고문헌 72

ABSTRACT 74

Table 1.1 Separation and purification processes of NMP 14

Table 2.1 Recommended cij values for different types of mixtures 26

Table 3.1 Material properties 28

Table 3.2 Constants of Antoine equation 29

Table 3.3 Technical data of the Vapor-Liquid Equilibrium Apparatus Model 602 30

Table 3.4 Experimental conditions of G.C 35

Table 4.1 Experimental vapor-liquid equilibrium data for the binary system NMP(1) + Water(2) at 0.132 bar : liquid-phase mole fraction x1, vapor-phase mole fraction y1, temperature T 38

Table 4.2 Binary interaction parameters for the binary system NMP(1) + Water (2) system at 0.132 bar 48

Table 4.3 Experimental vapor-liquid equilibrium data for the binary system Water(1) + MMA(2) at 1.013 bar : liquid-phase mole fraction x1, vapor-phase mole fraction y1, temperature T 50

Table 4.4 Binary interaction parameters for Water (1) + MMA (2) at 1.013 bar 59

Table 4.5 Parameters for SRK, PR 60

Table 4.6 Interaction parameters of binary system for equation-of-state 63

Table 4.7 Interaction parameters of ternary system for equation-of-state 64

Table 4.8 Experimental vapor-liquid equilibrium data for the ternary system NMP(1) + Water(2) + MMA(3) at 0.132 bar : liquid-phase mole fraction xi, vapor-phase mole fraction yi, temperature T 66

Figure 3.1 Vapor-Liquid Equilibrium Apparatus Model 602, FISCHER 31

Figure 3.2 Diagram of Vapor-Liquid Equilibrium Apparatus 32

Figure 3.3 Control device 33

Figure 4.1 Comparison of experimental results and Wilson model for the binary system NMP(1) + Water(2) at 0.132 bar by CASE Ⅰ 39

Figure 4.2 Comparison of experimental results and Wilson model for the binary system NMP(1) + Water(2) at 0.132 bar by CASE Ⅱ 40

Figure 4.3 Comparison of experimental results and NRTL model for the binary system NMP(1) + Water(2) at 0.132 bar by CASE Ⅰ 41

Figure 4.4 Comparison of experimental results and NRTL model for the binary system NMP(1) + Water(2) at 0.132 bar by CASE Ⅱ 42

Figure 4.5 Comparison of experimental results and UNIQUAC model for the binary system NMP(1) + Water(2) at 0.132 bar by CASE Ⅰ 43

Figure 4.6 Comparison of experimental results and UNIQUAC model for the binary system NMP(1) + Water(2) at 0.132 bar by CASE Ⅱ 44

Figure 4.7 Comparison of experimental results and Wilson, NRTL, UNIQUAC models for the binary system NMP(1) + Water(2) at 0.132 bar by CASE Ⅰ 45

Figure 4.8 Comparison of experimental results and Wilson, NRTL, UNIQUAC models for the binary system NMP(1) + Water(2) at 0.132 bar by CASE Ⅱ 46

Figure 4.9 Comparison of experimental results and Wilson, NRTL, models for the binary system NMP(1) + Water(2) at 1.013 bar 47

Figure 4.10 Comparison of experimental results and Wilson model for the binary system Water(1) +MMA(2) at 1.013 bar by CASE Ⅰ 51

Figure 4.11 Comparison of experimental results and Wilson model for the binary system Water(1) +MMA(2) at 1.013 bar by CASE Ⅱ 52

Figure 4.12 Comparison of experimental results and NRTL model for the binary system Water(1) +MMA(2) at 1.013 bar by CASE Ⅰ 53

Figure 4.13 Comparison of experimental results and NRTL model for the binary system Water(1) +MMA(2) at 1.013 bar by CASE Ⅱ 54

Figure 4.14 Comparison of experimental results and UNIQUAC model for the binary system Water(1) +MMA(2) at 1.013 bar by CASE Ⅰ 55

Figure 4.15 Comparison of experimental results and UNIQUAC model for the binary system Water(1) +MMA(2) at 1.013 bar by CASE Ⅱ 56

Figure 4.16 Comparison of experimental results and WILSON, NRTL, UNIQUAC models for the binary system Water(1) +MMA(2) at 1.013 bar by CASE Ⅰ 57

Figure 4.17 Comparison of experimental results and WILSON, NRTL, UNIQUAC models for the binary system Water(1) +MMA(2) at 1.013 bar by CASE Ⅱ 58

Figure 4.18 Comparison of experimental results and SRK, PR models for the binary system NMP(1) + Water(2) at 0.132 bar 61

Figure 4.19 Comparison of experimental results and SRK, PR models for the binary system Water(1) +MMA(2) at 1.013 bar 62

Figure 4.20 Ternary vapor-liquid equilibrium diagram 67

권호기사보기

권호기사 목록 테이블로 기사명, 저자명, 페이지, 원문, 기사목차 순으로 되어있습니다.
기사명 저자명 페이지 원문 기사목차
연속간행물 팝업 열기 연속간행물 팝업 열기