MARC

 008100311s2005        ulka                    000      kor
■020    ▼a8957611282
■0801  ▼a620.92.2
■082    ▼a665.81▼b김75ㅅ▼223
■090    ▼a665.81▼b김75ㅅ
■1001  ▼a김종원,  김영호,  김창수,  김해진,  박주식  등저
■24510▼a수소에너지▼d김종원,  김영호,  김창수,  김해진,  박주식  등저
■260    ▼a서울▼b아진▼c2005
■300    ▼a499p.▼b삽도▼c26cm
■505    ▼a(제1장  수소에너지란)▼c1▼a1.  수소의  기초▼c1▼a2.  수소의  발견과  이용▼c4▼a3.  수소경제-배경▼c5▼a★참고문헌▼c14▼a(제2장  물의  전기분해)▼c15▼a1.  물의  특성▼c16▼a2.  전기분해의  기초▼c18▼a3.  물의  전기분해  이론▼c23▼a4.  알카리  수전해▼c3500▼a5.  고온  ·  고압  알카리  수전해법▼c4111▼a6.  고분자  전해질  막  수전해▼c4922▼a7.  고온  수증기  수전해▼c6233▼a8.  물의  전기분해  기술의  경제성  평가▼c8444▼a9.  물의  전기분해에  관한  기술개발  동향▼c9555▼a★참고문헌▼c10366▼a(제3장  열화학적  물  분해  수소제조)▼c10777▼a1.  물  분해의  열역학  이론▼c11088▼a2.  열화학적  수소제조  방법의  개요▼c12599▼a3.  집광  고온  태양열을  이용한  열화학적  물  분해  수소제조  기술▼c13700▼a4.  원자력의  고온  핵  열을  이용한  열화학적  물  분해  수소제조  기술(IS사이클)▼c16611▼a5.  HTGR의  열을  이용하는  수소제조  방법의  경제성▼c17522▼a★참고문헌▼c19033▼a(제4장  수소저장합금에  의한  수소저장)▼c19744▼a1.  수소에너지와  수소저장합금의  필요성▼c19755▼a2.  수소저장합금(금속수소화물)의  이해▼c20166▼a3.  실용  수소저장합금▼c23477▼a4.  최근의  수소저장합금의  개발현황▼c27388▼a★참고문헌▼c28599▼a(제5장  탄소계  나노재료에  의한  수소저장)▼c28700▼a1.  다공정  탄소(porous  carban)▼c28811▼a2.  탄소나노튜브▼c29922▼a3.  탄소재료의  수소저장기술▼c31533▼a★참고문헌▼c32644▼a(제6장  비탄소계  나노재료에  의한  수소  저장)▼c32955▼a1.  무기계  수소저장재료▼c33066▼a2.  유기계  수소저장  재료▼c34377▼a3.  다공질  재료▼c34488▼a4.  기타  수소저장기술과  수소저장  재료▼c34499▼a★참고문헌▼c34800▼a(제7장  고분자  전해질  연료전지(PEMFC))▼c35311▼a1.  연료전지의  기초▼c35322▼a2.  고분자  전해질  연료전지의  구성▼c36033▼a3.  동력시스템  구성▼c37844▼a4.  소형  연료전지▼c39855▼a5.  가정용  연료전지▼c40766▼a6.  연료전지  자동차▼c41377▼a7.  연료전지의  경제성  및  전망▼c43388▼a★참고문헌▼c44399▼a(제8장  고체  산화물  연료전지(SOFC))▼c44500▼a1.  고체  산화물  연료전지의  기초▼c44611▼a2.  고체  산화물  연료전지의  구조  및  특성▼c45522▼a3.  고체산화물  연료전지  발전시스템▼c46333▼a4.  국내외  기술개발  동향▼c46644▼a5.  고체산화물  연료전지의  경제성▼c47655▼a★참고문헌▼c47966▼a(제9장  수소의  특성과  안전)▼c48177▼a1.  수소의  성질▼c48188▼a2.  수소의  연소  메커니즘▼c48399▼a3.  수소의  안전성▼c48400▼a4.  수소의  법규상의  취급▼c48911▼a★참고문헌▼c49322
■9500  ▼c30,000

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