燃料化学学报
燃料化學學報
연료화학학보
JOURNAL OF FUEL CHEMISTRY AND TECHNOLOGY
2014年
4期
507-512
,共6页
乐传俊%王吉祥%曹桂萍%刘宝亮
樂傳俊%王吉祥%曹桂萍%劉寶亮
악전준%왕길상%조계평%류보량
制氢%Cu-P体系%水%绿色化过程
製氫%Cu-P體繫%水%綠色化過程
제경%Cu-P체계%수%록색화과정
hydrogen production%Cu-P system%water%green process
研究了水参与的Cu-P氧化还原体系制氢过程。考察了Cu/P物质的量比、反应温度、酸度、外加Cu单质等对氢气产率的影响,设计了Cu的循环利用和P的转化利用过程,实现了Cu-P体系的绿色化过程。结果表明,通过调控Cu /P物质的量比和反应温度等因素可以控制反应过程中生成的氢原子转化为氢气的量,在以0.20 g五水硫酸铜为基准物的Cu2+/H2 PO-2物质的量比为0.05和95益反应条件下可获得大于反应计量比的18.6 mL氢气;酸性条件下H2 O2氧化单质Cu可以实现Cu的10次循环利用;制氢过程生成的亚磷酸氢根可以用Ca( OH)2处理转化为新型防锈剂CaHPO3·H2 O,该防锈剂用红外光谱( FT-IR)和X射线衍射( XRD)得到了表征。
研究瞭水參與的Cu-P氧化還原體繫製氫過程。攷察瞭Cu/P物質的量比、反應溫度、痠度、外加Cu單質等對氫氣產率的影響,設計瞭Cu的循環利用和P的轉化利用過程,實現瞭Cu-P體繫的綠色化過程。結果錶明,通過調控Cu /P物質的量比和反應溫度等因素可以控製反應過程中生成的氫原子轉化為氫氣的量,在以0.20 g五水硫痠銅為基準物的Cu2+/H2 PO-2物質的量比為0.05和95益反應條件下可穫得大于反應計量比的18.6 mL氫氣;痠性條件下H2 O2氧化單質Cu可以實現Cu的10次循環利用;製氫過程生成的亞燐痠氫根可以用Ca( OH)2處理轉化為新型防鏽劑CaHPO3·H2 O,該防鏽劑用紅外光譜( FT-IR)和X射線衍射( XRD)得到瞭錶徵。
연구료수삼여적Cu-P양화환원체계제경과정。고찰료Cu/P물질적량비、반응온도、산도、외가Cu단질등대경기산솔적영향,설계료Cu적순배이용화P적전화이용과정,실현료Cu-P체계적록색화과정。결과표명,통과조공Cu /P물질적량비화반응온도등인소가이공제반응과정중생성적경원자전화위경기적량,재이0.20 g오수류산동위기준물적Cu2+/H2 PO-2물질적량비위0.05화95익반응조건하가획득대우반응계량비적18.6 mL경기;산성조건하H2 O2양화단질Cu가이실현Cu적10차순배이용;제경과정생성적아린산경근가이용Ca( OH)2처리전화위신형방수제CaHPO3·H2 O,해방수제용홍외광보( FT-IR)화X사선연사( XRD)득도료표정。
Hydrogen production was studied in the Cu-P oxidation-reduction system with water. The influence of Cu /P ratio, reaction temperature, acidity and additional Cu on hydrogen yield was investigated. The green process of Cu-P system was realized by the design of the copper recycling and the phosphorus transformation and utilization. The results showed the hydrogen yield from the hydrogen atom in the reaction was mainly dependent on the Cu/P ratio and the reaction temperature, with the optimal yield of 18. 6 mL under the conditions of 95℃and 0. 05 mol ratio of Cu to P with 0. 20 g CuSO4·5H2 O. H2 O2 oxidation of elemental Cu in Cu-P system was also achieved for 10 times recycling under acidic condition. FT-IR and XRD results revealed that H2 PO3-from the hydrogen production process could be converted into the new antirust CaHPO3·H2 O with Ca( OH) 2 .