机翼形量水槽试验与应用研究
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摘要
梯形断面渠道是灌区的干、支渠道常用断面形式之一,大多采用流速仪测流的灌区末级渠道,量测精度存在较大误差,且测流工作量很大。因此研究开发和推广造价低、水头损失小、易于自动监控的量水设备,对灌区进行科学用水管理、实行按量计费和节约用水具有十分重要的实际应用价值。
本文对梯形渠道机翼形量水槽进行了试验研究,并应用量纲分析得到了梯形渠道机翼形量水槽在自由出流状态下的流量公式,根据量纲分析建立的流量公式满足量纲和谐性,简明实用,测流精度较高,量测流量的平均相对误差为0.47%。试验表明,机翼形量水槽的临界淹没度较高,在试验收缩比的范围内,临界淹没度的变化范围为0.82～0.92,均值可达0.87,能在较大范围内保证机翼形量水槽在自由出流状态下工作。机翼形量水槽的水头损失较小,平均水头损失约占上游总水头的12%左右。初步研究表明:机翼形量水槽是适合梯形渠道上测流的新型量水设备,有较好的推广应用前景。
通过在内蒙古河套灌区与鄂尔多斯黄河南岸灌区进行机翼形量水槽的应用实验研究,证明机翼形量水槽量水精度能满足灌区测流误差小于5%的量水规范要求,并且具有水头损失小,结构简单,便于施工的特点,在实测中量水槽的淹没度都比较高,适合平原灌区的需要,试验所采用的量水监测设备能够连续自动精确地测量和记录水量,实现了测流自动化与无线传输,可产生良好的经济效益和社会效益,适合进行信息化建设的灌区推广。
Trapezoidal cross-section channel is one of the commonly used cross-sections of the stem and branch channels in irrigation district. Currently most of irrigation channels at final stage are measured by hydrometric propeller which exist lots of calculation error and with heavy workload, Thus, to research and development a new water measuring facility which is lower cost, small head loss and automatic measure has a very important practical application on scientific water management, pay-in-volume-use and water conservation.
This paper research on the experiment of airfoil-shaped measuring flume in trapezoidal channel and educe the discharge formula in state of free flow in trapezoidal channel by the dimensional analysis. This formula can meet the requirements of dimensional analysis harmonious, besides it’s concise, practical and high flow measurement precision, the average rate of relative error is only 0.47%. The experiment shows that the critical submergence in airfoil-shaped measuring flume is higher and in the range of experiment contraction ratio which is 0.82～0.92,and the average value is 0.87. It can ensure the airfoil-shaped measuring flume can work in a larger scope under the free flow. The head loss of flume is less, and the average loss is nearly 12% of the total head in upstream. Preliminary study results shows that airfoil-shaped measuring flume is a new type water measuring device, which fit to measuring discharge in trapezoidal channel, and illustrate a good prospect of application and extension.
Researching on the experiment of the airfoil-shaped measuring flume in Inner Mongolia Hetao irrigation district and the south bank of Yellow river irrigation district in Oerhtossu, shows that the accuracy of flow measurement can meet the Hydrological norms which require the error less than 5%, it also possesses other severeal characteristics, such as low head loss, simple structure, easy to process, higher critical submergence in the actual experiment and fit for the plain irrigation district. The water measuring facility used in the experiment can automatic measure and record the data continuously and correctly. This facility achieved the goals of automatic flow measurement and wireless transmission, and also produces the better economic and social benefit and promoting informatization construction in irrigation district.
本文对梯形渠道机翼形量水槽进行了试验研究,并应用量纲分析得到了梯形渠道机翼形量水槽在自由出流状态下的流量公式,根据量纲分析建立的流量公式满足量纲和谐性,简明实用,测流精度较高,量测流量的平均相对误差为0.47%。试验表明,机翼形量水槽的临界淹没度较高,在试验收缩比的范围内,临界淹没度的变化范围为0.82～0.92,均值可达0.87,能在较大范围内保证机翼形量水槽在自由出流状态下工作。机翼形量水槽的水头损失较小,平均水头损失约占上游总水头的12%左右。初步研究表明:机翼形量水槽是适合梯形渠道上测流的新型量水设备,有较好的推广应用前景。
通过在内蒙古河套灌区与鄂尔多斯黄河南岸灌区进行机翼形量水槽的应用实验研究,证明机翼形量水槽量水精度能满足灌区测流误差小于5%的量水规范要求,并且具有水头损失小,结构简单,便于施工的特点,在实测中量水槽的淹没度都比较高,适合平原灌区的需要,试验所采用的量水监测设备能够连续自动精确地测量和记录水量,实现了测流自动化与无线传输,可产生良好的经济效益和社会效益,适合进行信息化建设的灌区推广。
Trapezoidal cross-section channel is one of the commonly used cross-sections of the stem and branch channels in irrigation district. Currently most of irrigation channels at final stage are measured by hydrometric propeller which exist lots of calculation error and with heavy workload, Thus, to research and development a new water measuring facility which is lower cost, small head loss and automatic measure has a very important practical application on scientific water management, pay-in-volume-use and water conservation.
This paper research on the experiment of airfoil-shaped measuring flume in trapezoidal channel and educe the discharge formula in state of free flow in trapezoidal channel by the dimensional analysis. This formula can meet the requirements of dimensional analysis harmonious, besides it’s concise, practical and high flow measurement precision, the average rate of relative error is only 0.47%. The experiment shows that the critical submergence in airfoil-shaped measuring flume is higher and in the range of experiment contraction ratio which is 0.82～0.92,and the average value is 0.87. It can ensure the airfoil-shaped measuring flume can work in a larger scope under the free flow. The head loss of flume is less, and the average loss is nearly 12% of the total head in upstream. Preliminary study results shows that airfoil-shaped measuring flume is a new type water measuring device, which fit to measuring discharge in trapezoidal channel, and illustrate a good prospect of application and extension.
Researching on the experiment of the airfoil-shaped measuring flume in Inner Mongolia Hetao irrigation district and the south bank of Yellow river irrigation district in Oerhtossu, shows that the accuracy of flow measurement can meet the Hydrological norms which require the error less than 5%, it also possesses other severeal characteristics, such as low head loss, simple structure, easy to process, higher critical submergence in the actual experiment and fit for the plain irrigation district. The water measuring facility used in the experiment can automatic measure and record the data continuously and correctly. This facility achieved the goals of automatic flow measurement and wireless transmission, and also produces the better economic and social benefit and promoting informatization construction in irrigation district.
引文
[1]冯广志.中国灌溉与排水[M].北京:中国水利水电出版社,2005
[2]薛亮.中国节水农业理论与实践[M].北京:中国农业出版社,2002
[3]李英能.节水农业新技术[M].南昌:江西科学技术出版社,1998
[4]吴普特,牛文全,郝宏科.现代高效节水灌溉设施[M].北京:化学工业出版社,2002
[5]汪志农,冯浩.节水灌溉管理决策专家系统[M].郑州:黄河水利出版社,2001
[6]张忠学,曾赛星.东北半干旱抗旱灌溉区节水农业理论与实践[M].北京:中国农业出版社,2005
[7]钱正英,张光斗.中国可持续发展水资源战略研究[M].北京:水利水电出版社,2001
[8]汪恕诚,翟浩辉,冯广志.农业节水探索[M].北京::水利水电出版社,2001
[9]翟浩辉.加大灌区改造力度,保障国家粮食安全[J].求是,2004,(6):1～6
[10]范家炎,史伏初,郑浩杰.灌区量水设备[M].北京:水利电力出版社,1987
[11]周明耀,陶长生.灌区管理工作手册[M].南京:河海大学出版社
[12]蔡勇,周明耀.灌区量水实用技术指南[M].北京:中国水利水电出版社,2001
[13]洪成.U形渠道机翼形量水槽试验研究[D].杨凌:西北农林科技大学,2005
[14]中国水利学会水利量测研究会灌区量测技术学组.灌区用水管理与量水技术论文集[D].北京:中国水利水电出版社,1997
[15]水利量测技术委员会.水利量测技术进展综述[J].中国水利,2004,(11):34～36
[16]俞双恩,左晓霞,赵伟.我国灌区量水现状及发展趋势[J].节水灌溉,2004,(4):35～37
[17]郝树荣,任瑞英,郝树刚.灌区量水技术的发展与展望[J].人民黄河,2003,(11):41～43
[18]陈毓陵,王靖波.灌区量水方法及应用对策[J].水利水电科技进展, 2000,(6) : 39～42.
[19]陈炯新,邹广荣.灌区量水工作手册[M].北京:水利水电出版社,1984.
[20]蔡勇,李同春.灌区量水设施分析研究[J].中国农村水利水电,2005,(2):13～15
[21]陈梦华,韩克敏,宋向荣.灌区量水技术的研究进展[J].中国农村水利水电,2001,(9):44～45
[22]王长德.我国灌溉量水技术的应用[J].中国水利,2005,(7):26～34
[23]国家质量监督检疫检验总局.中华人民共和国国家标准、灌溉渠道系统量水规范(征求意见稿)[S].2005
[24]Skogerboe,G.V.,Hyatt,M.L.Rectangular Cutthroat Flow measuring Flumes[J].Journal of the Irrigation and Drainage Division,ASCE,1967,(4):1～13
[25]Skogerboe,G.V.,Hyatt,M.L.Analysis of Submergence in Flow measuring Flumes[J].Journal of the Hydraulics Division,ASCE,1967,(4):183～200
[26]Skogerboe,G.V.,Bennet,R. S.,and Walker,W.R.Generalized Discharge Relations for Cu–throat Flumes[J].Journal of the Irrigation and Drainage division,ASCE,1972,(4):569～583
[27]Keller,R.J.Cut-throat Flume Characteristics[J].Journal of the Hydraulics Engineering,1984,(9):1248～1263
[28]Ramamurthy,A.S.,Rao,M.V.J.,and Dev,Auckle .Free Flow Discharge Characteristics of Throatless Flumes[J].Journal of the Irrigation and Drainage Engineering,1985, (1):65～75
[29] Ramamurthy,A.S.,Vo,N.D.,and Balachandar,R.Submerged Flow Characteristics of Throatless Flume[J].Journal of the Irrigation and Drainage Engineering,1988, (1): 186～194
[30]Bos,M.G.,Reinink,Y.Required Head Loss Over Long-Throated Flumes[J].Journal of the Irrigation and Drainage Division,ASCE,1981,(1):87～102
[31]Clemmens,A.J.,Replogle,J.A.,and Bos,M.G.Rectrangular Measuring Flumes for Line and Earthen Channels[J].Journal of the Irrigation and Drainage Engineering,1984,,(2):121～137
[32]Clemmens,A.J.,Bos,M.G..,and Replogle,J.A.Contraction Ratios for Weir and Flume Designs[J].Journal of the Irrigation and Drainage Engineering,1987,(3):420～424
[33]Replogle,J.A.,Fry,B.J.,and Clemmens,A.J.Effects of Non-level Placement on the Calibration of Long-Throated Flumes[J].Journal of the Irrigation and Drainage Engineering,1987,(4):584～594.
[34]Clemmens,A.J.,Bos,M.G.Critical Depth Relations for Flow Measurement Design[J].Journal of the Irrigation and Drainage Engineering,1992,(4): 640～644.
[35]Hager,W.H.Modified Venturi Channel1[J].Journal of the Irrigation and Drainage Engineering,1985,(1):19～35
[36]Hager,W.H.Modified Trapezoidal Venturi Channel[J].Journal of the Irrigation and Drainage Engineering,1986,(3):225～241
[37]Hager,W.H.Venturi Flume for Minimum Space Requirementsr[J].Journal of the Irrigation and Drainage Engineering,1988,(3):226～243
[38]Hager,W.H.Mobile Flume for Circular Channe[rJ].Journal of the Irrigation and Drainage Engineering,1988, 114(3): 520～534
[39]陕西省水利水保厅.U形渠道[M].北京:水利电力出版社,1986
[40]U形渠道量水设备试验研究课题组.U形渠道平底抛物线形量水槽的研究[J].陕西水利,1990,(4):16～19
[41]王智,朱凤书,刘晓明.平底抛物线形无喉段量水槽试验研究[J].水利学报,1994, (7):12-23
[42]陕西省水利厅,陕西省技术质量监督局.陕西省地方标准、U形渠道量水槽[S].西安,2000
[43]Samani,Z.,Jorat,S.and Yousef,M.Hydraulic Characteristics of Cricular Flume[J].Journal of the Irrigation and Drainage Engineering,1991,(4):558～566
[44]Samani,Z.,Magallanez,H.Measuring Water in Trapezoidal Canals[J].Journal of the Irrigation and Drainage Engineering,1993,(1):181～186
[45]吴高巍,周子奎.柱形量水槽的研制及应用[J].灌溉排水,1991,(3):46～51
[46]尚民勇. U形长喉道量水槽的试验研究及其应用[J].陕西水利,1991,(3): 41～44
[47]张志昌,张宗孝,闫晋垣,等.一种新型的量水设备—U形渠道直壁式量水堰[J].陕西机械学院学报,1992,(1): 44～52
[48]张志昌,牛争鸣,刘亚菲,等.U形渠道直壁式量水堰的流量系数和流速系数的探讨与计算[J].陕西机械学院学报,1993,(1): 52～62
[49]张志昌,刘亚菲,张宗孝,等.U形渠道直壁式量水堰的试验研究[J].防渗技术,1993,(3):11～17
[50]张志昌.U形渠道测流[M].西安:西北工业大学出版社,1997
[51]张志昌.U形渠道量水设施综述[J].西安理工大学学报,1995,(3):214～219
[52]张志昌,刘亚菲.有坎缺口式量水槽的流量系数和水利计算[J].陕西水利发电,1993,(3):43～49
[53]张志昌,刘亚菲.U形渠道便携式测流槽的研究[J].陕西水利,1995,(S1): 31～33
[54]张志昌,牛争鸣.边界层理论在明渠测流中的应用[J].西安理工大学学报,1994,(3):201～207
[55]张志昌,刘亚菲,李建中.边界层方法在明渠测流槽水力设计中的应用[J].水利学报,1998,(5):18～23
[56]张志昌,张漫丽,王开民.U形渠道(圆底形)长喉道测流槽水力特性的研究[J].陕西水利发电,2000,(2):5～11
[57]吕宏兴,朱凤书,马孝义,等. U型渠道平底抛物线形无喉段量水槽流量公式的改进[J].灌溉排水,1999,(3):30～34
[58]吕宏兴,朱凤书,董鹏.抛物线形喉口式量水槽的简化流量公式[J].西北农业大学学报,2000, (3):107～110.
[59]吕宏兴,朱晓群,张春娟,等. U形渠道抛物线形喉口式量水槽选型与设计[J].灌溉排水,2001,(2):55～57.
[60]Samani,Z.,Magallanez,H.Simple Flume for Flow Measurement in Open Channel[J].Journal of the Irrigation and Drainage Engineering,2000,(2):127～129
[61] Ferro,V.Discussion of "Simple Flume for Flow Measurement in Open Channel" by Zohrab Samani and Henry Magallanez [J].Journal of the Irrigation and Drainage Engineering,2002,(2):129～131
[62]Samani,Z.,Magallanez,H.Closure to "Simple Flume for Flow Measurement in Open Channel" by Zohrab Samani and Henry Magallanez[J].Journal of the Irrigation and Drainage Engineering,2002,(2):131～132
[63]吕宏兴,余国安,陈俊英,等.矩形渠道半圆柱形简易量水槽试验研究[J].农业工程学报, 2004, (6):81～84
[64]阮新建,王长德,柳树票.明渠测流长喉槽结构优化及设计理论研究[J].农业工程学报,2001,(5):22～26
[65]王长德,卢玉春.长喉量水槽的设计原理和应用[J].农田水利与小水电,1990,(11):22～26
[66]孙秋菊,李继马.长喉槽计算原理及几何设计[J].中农村水利水电,2000,(5):18～20
[67]王长德,管光华,崔巍,等.长喉槽水头损失德修正[J].武汉大学学报,2005,(2):1～5
[68]马孝义,王文娥,于国丰,等. U形渠道量水槽的筛选研究[J].水土保持研究, 2002,(2):72～77
[69]马孝义,朱晓群,王文娥,等. U形渠道抛物线形量水槽设计多媒体软件的研制[J].水土保持研究,2002,(2):78～81
[70]马孝义,王文娥,吕宏兴,等. U形渠道量水槽的性能分析与筛选研究[J].水土保持研究,2002,(2):44～49
[71]陈建康,沈波.长喉道量水槽的应用研究[J].灌溉排水,2001,(4):26～29
[72]吉庆丰,沈波,李国安.灌区量水设施研究开发进展[J].灌溉排水,2001,(4): 69～72
[73]沈波,吉庆丰,程吉林.长喉道量水槽的设计新方法[J].排灌机械,2003,(6):23～26
[74]吉庆丰,沈波,高峰.长喉道量水槽设计软件的研究开发[J].灌溉排水学报2003,(2):32～35
[75]沈波,吉庆丰,黄勇.自记式长喉道量水计的开发和应用[J].水利水电科技进展,2003,(5):28～30
[76]吉庆丰,沈波,黄勇.即插式长喉道量水计的研究开发[J].农业工程学报,2003,(6):21～24
[77]李香平,杨兆选,张涛.改进型帕歇尔水槽[J].天津大学学报,2004,(5):419～422
[78]吴景社,朱风书,康绍忠,等.U形渠道适宜量水设施及标准化研究[J].灌溉排水学报,2004,(2),38～41
[79]洪成,吕宏兴,张宽地,等. U形渠道机翼形量水槽试验研究[J].灌溉排水学报,2005,(1):63～65.
[80]吕宏兴,刘焕芳,朱晓群,等.机翼形量水槽的试验研究[J].农业工程学报,2006,(9):119～123
[81]蔡勇,李同春.梯形渠道圆柱形量水槽的试验研究[J].中国农村水利水电,2005,(8):63～66.
[82]蔡勇.灌区新型量水槽结构形式优化及测流理论计算方法研究[D].南京:河海大学,2005
[83]何武全,王玉宝,蔡明科.U形渠道圆柱体量水槽研究[J].水利学报,2006,(5):573～577
[84]Blaisdell,F.W.Results of Parshall Flume Tests[J].Journal of the Irrigation and Drainage Engineering,1994,(2):p278
[85]Gogus, Mustafa.,Al-Khatib,Issam.Flow-measurement Flumes of Rectangular Compound Cross section[J].Journal of the Irrigation and Drainage Engineering,1995,(2):135～141
[86]Abt,S.R.,Florentin,C.B.,Genovez,A.Settlement and Submergence Adjustments for Parshall Flume[J].Journal of the Irrigation and Drainage Engineering,1995,(5):p317
[87]Peruginelli,A.,Bonacci,F.Mobile Prisms for Flow Measurement in Rectangular Channels[J].Journal of the Irrigation and Drainage Engineering,1997,(3):p170
[88]Al-Khatib.,Issam,A.Head-Discharge Relationship in Flumes of Compound Sections[J].Journal of the Irrigation and Drainage Engineering,1998,(3): 177～179
[89]Abt,S.R.,Ruth,B.C.,Skowron,E.M.Rating Adjustment for Settlement of Cutthroat Flumes[J].Journal of the Irrigation and Drainage Engineering,1998,(6):311～315
[90]Abt,S.R.,Skowron,E.M.Revising the Cutthroat Flume Settlement Rating Adjustment Procedure 2001,(1):p54
[91]Barenblatt,G.I.Similarity,Self-similarity,and Intermediate Asymptotic.New York:Consultans Bureau,1979
[92]Barenblatt,G.I.Dimensional Analysis.Amsterdam:Gordon and Breach Science,1987.
[93]吕宏兴.水力学[M].北京:中国农业出版社,2000
[94]吴持恭.水力学[M].北京:高等教育出版社,1982.
[95]朱风书,马孝义,朱晓群,等.U形渠道抛物线形移动式量水堰板研究[J].农业工程学报,2002,(3):36～40
[96]肖迎元,李炳生.渠系量水槽CAD软件系统的开发[J].武汉科技大学学报,2001,(1):84～86
[97]朱凤书,王智.灌溉渠系量水技术[J].山西水利科技,1996,(3):92～94
[98]同套文.巴歇尔量水槽在西干渠改造工程的应用[J].西北水力发电2005, 21(S1):123-124
[99]苏华英,戴光清,杨庆.常用量水槽的计算理论与试验研究[J].东北水利水电,2005,23(4):42～44.
[100]李强,苏萍,马爱民.灌溉渠中的平底侧收缩堰初探[J].石河子大学学报,1999,(2):131～136
[101]李永祥,李春华,刘沛清.明槽非恒定流矩形薄壁堰流量公式的研究[J].水力发电学报,1997,(2):41～49
[102]冯民权,刘红明.渠道量水槽的水力学分析[J].黑龙江水专学报,1994,(3):36～39
[103]陈泽恩.明渠测流及量水槽精度的鉴定[J].农田水利与小水电,1995,(9):22～25
[104]何长辉.标准量水槽的误差估计[J].水文,1995,(5):48～52
[105]郭晓科.U形渠道直壁式量水槽的设计[J].西北水力发电,2004,(A1):p50
[106]肖宏武,毛兆民,刘永宏.U形渠道直壁式量水槽过渡段曲面的设计[J].西安理工大学学报,2004,(3):302～305
[107]孟祥玮,周华兴.矩形量水槽试验研究[J].水道港口,1999,(1):16～19
[108]陈泽恩.明渠测流及量水槽精度的鉴定农田水利与小水电,1995,(9):22～25
[109]刘子慧.帕肖尔小流量量水槽流量公式的修正[J].水利水电快报1994,(21):24～29
[110]Samani,Z.,蔡守华.梯形渠道简易量水槽[J].灌溉排水1994,(3):54～55
[111]何秉月,雷芹瑞,赵成全,等.无喉道量水槽在灌区运行中的设计与应用[J].河北水利1996,(3):56～59
[112]兀伟,张志昌,郗珂庆,等.基于GSM短信息的灌区明渠测流系统[J].西北水力发电,2004,(3):34～37
[113]李善征,张春义.明渠堰槽测流技术综述[J].北京水利2003,(1):23～25
[114]张志昌,刘亚菲.明渠测流槽不分离水流流量的计算方法[J].甘肃水利水电技术1995,(1):30～35
[115]张志昌,刘松舰,刘亚菲.抛物线形渠道长喉道量水槽德水力设计方法[J].西安理工大学学报,2003,(1):51～55
[116]王海峰,曹冲,王惠忠,等。文丘利量水槽在河套灌区灌溉管理中的应用[J].内蒙古水利,2007,(1):32～33
[117]王忠建,陈文宏,张启昌,等.U形渠道直壁式量水槽体型优化及在泾惠渠三支渠上的应用[J].西北水力发电,2006,(4):50～52
[118]肖宏武.U形渠道量水标准化及自动化测流研究[D].西安理工大学,2005
[119]吴彩丽,黄斌,谢崇宝.灌区特设量水设备水量监测误差分析[J].节水灌溉,2007,(1):45～48
[119]ISO标准手册16.明渠水流测量[S].北京:中国标准出版社,1986
[120]吕宏兴.一种“U”形渠道用量水槽.中国.200420086285.7,2005
[2]薛亮.中国节水农业理论与实践[M].北京:中国农业出版社,2002
[3]李英能.节水农业新技术[M].南昌:江西科学技术出版社,1998
[4]吴普特,牛文全,郝宏科.现代高效节水灌溉设施[M].北京:化学工业出版社,2002
[5]汪志农,冯浩.节水灌溉管理决策专家系统[M].郑州:黄河水利出版社,2001
[6]张忠学,曾赛星.东北半干旱抗旱灌溉区节水农业理论与实践[M].北京:中国农业出版社,2005
[7]钱正英,张光斗.中国可持续发展水资源战略研究[M].北京:水利水电出版社,2001
[8]汪恕诚,翟浩辉,冯广志.农业节水探索[M].北京::水利水电出版社,2001
[9]翟浩辉.加大灌区改造力度,保障国家粮食安全[J].求是,2004,(6):1～6
[10]范家炎,史伏初,郑浩杰.灌区量水设备[M].北京:水利电力出版社,1987
[11]周明耀,陶长生.灌区管理工作手册[M].南京:河海大学出版社
[12]蔡勇,周明耀.灌区量水实用技术指南[M].北京:中国水利水电出版社,2001
[13]洪成.U形渠道机翼形量水槽试验研究[D].杨凌:西北农林科技大学,2005
[14]中国水利学会水利量测研究会灌区量测技术学组.灌区用水管理与量水技术论文集[D].北京:中国水利水电出版社,1997
[15]水利量测技术委员会.水利量测技术进展综述[J].中国水利,2004,(11):34～36
[16]俞双恩,左晓霞,赵伟.我国灌区量水现状及发展趋势[J].节水灌溉,2004,(4):35～37
[17]郝树荣,任瑞英,郝树刚.灌区量水技术的发展与展望[J].人民黄河,2003,(11):41～43
[18]陈毓陵,王靖波.灌区量水方法及应用对策[J].水利水电科技进展, 2000,(6) : 39～42.
[19]陈炯新,邹广荣.灌区量水工作手册[M].北京:水利水电出版社,1984.
[20]蔡勇,李同春.灌区量水设施分析研究[J].中国农村水利水电,2005,(2):13～15
[21]陈梦华,韩克敏,宋向荣.灌区量水技术的研究进展[J].中国农村水利水电,2001,(9):44～45
[22]王长德.我国灌溉量水技术的应用[J].中国水利,2005,(7):26～34
[23]国家质量监督检疫检验总局.中华人民共和国国家标准、灌溉渠道系统量水规范(征求意见稿)[S].2005
[24]Skogerboe,G.V.,Hyatt,M.L.Rectangular Cutthroat Flow measuring Flumes[J].Journal of the Irrigation and Drainage Division,ASCE,1967,(4):1～13
[25]Skogerboe,G.V.,Hyatt,M.L.Analysis of Submergence in Flow measuring Flumes[J].Journal of the Hydraulics Division,ASCE,1967,(4):183～200
[26]Skogerboe,G.V.,Bennet,R. S.,and Walker,W.R.Generalized Discharge Relations for Cu–throat Flumes[J].Journal of the Irrigation and Drainage division,ASCE,1972,(4):569～583
[27]Keller,R.J.Cut-throat Flume Characteristics[J].Journal of the Hydraulics Engineering,1984,(9):1248～1263
[28]Ramamurthy,A.S.,Rao,M.V.J.,and Dev,Auckle .Free Flow Discharge Characteristics of Throatless Flumes[J].Journal of the Irrigation and Drainage Engineering,1985, (1):65～75
[29] Ramamurthy,A.S.,Vo,N.D.,and Balachandar,R.Submerged Flow Characteristics of Throatless Flume[J].Journal of the Irrigation and Drainage Engineering,1988, (1): 186～194
[30]Bos,M.G.,Reinink,Y.Required Head Loss Over Long-Throated Flumes[J].Journal of the Irrigation and Drainage Division,ASCE,1981,(1):87～102
[31]Clemmens,A.J.,Replogle,J.A.,and Bos,M.G.Rectrangular Measuring Flumes for Line and Earthen Channels[J].Journal of the Irrigation and Drainage Engineering,1984,,(2):121～137
[32]Clemmens,A.J.,Bos,M.G..,and Replogle,J.A.Contraction Ratios for Weir and Flume Designs[J].Journal of the Irrigation and Drainage Engineering,1987,(3):420～424
[33]Replogle,J.A.,Fry,B.J.,and Clemmens,A.J.Effects of Non-level Placement on the Calibration of Long-Throated Flumes[J].Journal of the Irrigation and Drainage Engineering,1987,(4):584～594.
[34]Clemmens,A.J.,Bos,M.G.Critical Depth Relations for Flow Measurement Design[J].Journal of the Irrigation and Drainage Engineering,1992,(4): 640～644.
[35]Hager,W.H.Modified Venturi Channel1[J].Journal of the Irrigation and Drainage Engineering,1985,(1):19～35
[36]Hager,W.H.Modified Trapezoidal Venturi Channel[J].Journal of the Irrigation and Drainage Engineering,1986,(3):225～241
[37]Hager,W.H.Venturi Flume for Minimum Space Requirementsr[J].Journal of the Irrigation and Drainage Engineering,1988,(3):226～243
[38]Hager,W.H.Mobile Flume for Circular Channe[rJ].Journal of the Irrigation and Drainage Engineering,1988, 114(3): 520～534
[39]陕西省水利水保厅.U形渠道[M].北京:水利电力出版社,1986
[40]U形渠道量水设备试验研究课题组.U形渠道平底抛物线形量水槽的研究[J].陕西水利,1990,(4):16～19
[41]王智,朱凤书,刘晓明.平底抛物线形无喉段量水槽试验研究[J].水利学报,1994, (7):12-23
[42]陕西省水利厅,陕西省技术质量监督局.陕西省地方标准、U形渠道量水槽[S].西安,2000
[43]Samani,Z.,Jorat,S.and Yousef,M.Hydraulic Characteristics of Cricular Flume[J].Journal of the Irrigation and Drainage Engineering,1991,(4):558～566
[44]Samani,Z.,Magallanez,H.Measuring Water in Trapezoidal Canals[J].Journal of the Irrigation and Drainage Engineering,1993,(1):181～186
[45]吴高巍,周子奎.柱形量水槽的研制及应用[J].灌溉排水,1991,(3):46～51
[46]尚民勇. U形长喉道量水槽的试验研究及其应用[J].陕西水利,1991,(3): 41～44
[47]张志昌,张宗孝,闫晋垣,等.一种新型的量水设备—U形渠道直壁式量水堰[J].陕西机械学院学报,1992,(1): 44～52
[48]张志昌,牛争鸣,刘亚菲,等.U形渠道直壁式量水堰的流量系数和流速系数的探讨与计算[J].陕西机械学院学报,1993,(1): 52～62
[49]张志昌,刘亚菲,张宗孝,等.U形渠道直壁式量水堰的试验研究[J].防渗技术,1993,(3):11～17
[50]张志昌.U形渠道测流[M].西安:西北工业大学出版社,1997
[51]张志昌.U形渠道量水设施综述[J].西安理工大学学报,1995,(3):214～219
[52]张志昌,刘亚菲.有坎缺口式量水槽的流量系数和水利计算[J].陕西水利发电,1993,(3):43～49
[53]张志昌,刘亚菲.U形渠道便携式测流槽的研究[J].陕西水利,1995,(S1): 31～33
[54]张志昌,牛争鸣.边界层理论在明渠测流中的应用[J].西安理工大学学报,1994,(3):201～207
[55]张志昌,刘亚菲,李建中.边界层方法在明渠测流槽水力设计中的应用[J].水利学报,1998,(5):18～23
[56]张志昌,张漫丽,王开民.U形渠道(圆底形)长喉道测流槽水力特性的研究[J].陕西水利发电,2000,(2):5～11
[57]吕宏兴,朱凤书,马孝义,等. U型渠道平底抛物线形无喉段量水槽流量公式的改进[J].灌溉排水,1999,(3):30～34
[58]吕宏兴,朱凤书,董鹏.抛物线形喉口式量水槽的简化流量公式[J].西北农业大学学报,2000, (3):107～110.
[59]吕宏兴,朱晓群,张春娟,等. U形渠道抛物线形喉口式量水槽选型与设计[J].灌溉排水,2001,(2):55～57.
[60]Samani,Z.,Magallanez,H.Simple Flume for Flow Measurement in Open Channel[J].Journal of the Irrigation and Drainage Engineering,2000,(2):127～129
[61] Ferro,V.Discussion of "Simple Flume for Flow Measurement in Open Channel" by Zohrab Samani and Henry Magallanez [J].Journal of the Irrigation and Drainage Engineering,2002,(2):129～131
[62]Samani,Z.,Magallanez,H.Closure to "Simple Flume for Flow Measurement in Open Channel" by Zohrab Samani and Henry Magallanez[J].Journal of the Irrigation and Drainage Engineering,2002,(2):131～132
[63]吕宏兴,余国安,陈俊英,等.矩形渠道半圆柱形简易量水槽试验研究[J].农业工程学报, 2004, (6):81～84
[64]阮新建,王长德,柳树票.明渠测流长喉槽结构优化及设计理论研究[J].农业工程学报,2001,(5):22～26
[65]王长德,卢玉春.长喉量水槽的设计原理和应用[J].农田水利与小水电,1990,(11):22～26
[66]孙秋菊,李继马.长喉槽计算原理及几何设计[J].中农村水利水电,2000,(5):18～20
[67]王长德,管光华,崔巍,等.长喉槽水头损失德修正[J].武汉大学学报,2005,(2):1～5
[68]马孝义,王文娥,于国丰,等. U形渠道量水槽的筛选研究[J].水土保持研究, 2002,(2):72～77
[69]马孝义,朱晓群,王文娥,等. U形渠道抛物线形量水槽设计多媒体软件的研制[J].水土保持研究,2002,(2):78～81
[70]马孝义,王文娥,吕宏兴,等. U形渠道量水槽的性能分析与筛选研究[J].水土保持研究,2002,(2):44～49
[71]陈建康,沈波.长喉道量水槽的应用研究[J].灌溉排水,2001,(4):26～29
[72]吉庆丰,沈波,李国安.灌区量水设施研究开发进展[J].灌溉排水,2001,(4): 69～72
[73]沈波,吉庆丰,程吉林.长喉道量水槽的设计新方法[J].排灌机械,2003,(6):23～26
[74]吉庆丰,沈波,高峰.长喉道量水槽设计软件的研究开发[J].灌溉排水学报2003,(2):32～35
[75]沈波,吉庆丰,黄勇.自记式长喉道量水计的开发和应用[J].水利水电科技进展,2003,(5):28～30
[76]吉庆丰,沈波,黄勇.即插式长喉道量水计的研究开发[J].农业工程学报,2003,(6):21～24
[77]李香平,杨兆选,张涛.改进型帕歇尔水槽[J].天津大学学报,2004,(5):419～422
[78]吴景社,朱风书,康绍忠,等.U形渠道适宜量水设施及标准化研究[J].灌溉排水学报,2004,(2),38～41
[79]洪成,吕宏兴,张宽地,等. U形渠道机翼形量水槽试验研究[J].灌溉排水学报,2005,(1):63～65.
[80]吕宏兴,刘焕芳,朱晓群,等.机翼形量水槽的试验研究[J].农业工程学报,2006,(9):119～123
[81]蔡勇,李同春.梯形渠道圆柱形量水槽的试验研究[J].中国农村水利水电,2005,(8):63～66.
[82]蔡勇.灌区新型量水槽结构形式优化及测流理论计算方法研究[D].南京:河海大学,2005
[83]何武全,王玉宝,蔡明科.U形渠道圆柱体量水槽研究[J].水利学报,2006,(5):573～577
[84]Blaisdell,F.W.Results of Parshall Flume Tests[J].Journal of the Irrigation and Drainage Engineering,1994,(2):p278
[85]Gogus, Mustafa.,Al-Khatib,Issam.Flow-measurement Flumes of Rectangular Compound Cross section[J].Journal of the Irrigation and Drainage Engineering,1995,(2):135～141
[86]Abt,S.R.,Florentin,C.B.,Genovez,A.Settlement and Submergence Adjustments for Parshall Flume[J].Journal of the Irrigation and Drainage Engineering,1995,(5):p317
[87]Peruginelli,A.,Bonacci,F.Mobile Prisms for Flow Measurement in Rectangular Channels[J].Journal of the Irrigation and Drainage Engineering,1997,(3):p170
[88]Al-Khatib.,Issam,A.Head-Discharge Relationship in Flumes of Compound Sections[J].Journal of the Irrigation and Drainage Engineering,1998,(3): 177～179
[89]Abt,S.R.,Ruth,B.C.,Skowron,E.M.Rating Adjustment for Settlement of Cutthroat Flumes[J].Journal of the Irrigation and Drainage Engineering,1998,(6):311～315
[90]Abt,S.R.,Skowron,E.M.Revising the Cutthroat Flume Settlement Rating Adjustment Procedure 2001,(1):p54
[91]Barenblatt,G.I.Similarity,Self-similarity,and Intermediate Asymptotic.New York:Consultans Bureau,1979
[92]Barenblatt,G.I.Dimensional Analysis.Amsterdam:Gordon and Breach Science,1987.
[93]吕宏兴.水力学[M].北京:中国农业出版社,2000
[94]吴持恭.水力学[M].北京:高等教育出版社,1982.
[95]朱风书,马孝义,朱晓群,等.U形渠道抛物线形移动式量水堰板研究[J].农业工程学报,2002,(3):36～40
[96]肖迎元,李炳生.渠系量水槽CAD软件系统的开发[J].武汉科技大学学报,2001,(1):84～86
[97]朱凤书,王智.灌溉渠系量水技术[J].山西水利科技,1996,(3):92～94
[98]同套文.巴歇尔量水槽在西干渠改造工程的应用[J].西北水力发电2005, 21(S1):123-124
[99]苏华英,戴光清,杨庆.常用量水槽的计算理论与试验研究[J].东北水利水电,2005,23(4):42～44.
[100]李强,苏萍,马爱民.灌溉渠中的平底侧收缩堰初探[J].石河子大学学报,1999,(2):131～136
[101]李永祥,李春华,刘沛清.明槽非恒定流矩形薄壁堰流量公式的研究[J].水力发电学报,1997,(2):41～49
[102]冯民权,刘红明.渠道量水槽的水力学分析[J].黑龙江水专学报,1994,(3):36～39
[103]陈泽恩.明渠测流及量水槽精度的鉴定[J].农田水利与小水电,1995,(9):22～25
[104]何长辉.标准量水槽的误差估计[J].水文,1995,(5):48～52
[105]郭晓科.U形渠道直壁式量水槽的设计[J].西北水力发电,2004,(A1):p50
[106]肖宏武,毛兆民,刘永宏.U形渠道直壁式量水槽过渡段曲面的设计[J].西安理工大学学报,2004,(3):302～305
[107]孟祥玮,周华兴.矩形量水槽试验研究[J].水道港口,1999,(1):16～19
[108]陈泽恩.明渠测流及量水槽精度的鉴定农田水利与小水电,1995,(9):22～25
[109]刘子慧.帕肖尔小流量量水槽流量公式的修正[J].水利水电快报1994,(21):24～29
[110]Samani,Z.,蔡守华.梯形渠道简易量水槽[J].灌溉排水1994,(3):54～55
[111]何秉月,雷芹瑞,赵成全,等.无喉道量水槽在灌区运行中的设计与应用[J].河北水利1996,(3):56～59
[112]兀伟,张志昌,郗珂庆,等.基于GSM短信息的灌区明渠测流系统[J].西北水力发电,2004,(3):34～37
[113]李善征,张春义.明渠堰槽测流技术综述[J].北京水利2003,(1):23～25
[114]张志昌,刘亚菲.明渠测流槽不分离水流流量的计算方法[J].甘肃水利水电技术1995,(1):30～35
[115]张志昌,刘松舰,刘亚菲.抛物线形渠道长喉道量水槽德水力设计方法[J].西安理工大学学报,2003,(1):51～55
[116]王海峰,曹冲,王惠忠,等。文丘利量水槽在河套灌区灌溉管理中的应用[J].内蒙古水利,2007,(1):32～33
[117]王忠建,陈文宏,张启昌,等.U形渠道直壁式量水槽体型优化及在泾惠渠三支渠上的应用[J].西北水力发电,2006,(4):50～52
[118]肖宏武.U形渠道量水标准化及自动化测流研究[D].西安理工大学,2005
[119]吴彩丽,黄斌,谢崇宝.灌区特设量水设备水量监测误差分析[J].节水灌溉,2007,(1):45～48
[119]ISO标准手册16.明渠水流测量[S].北京:中国标准出版社,1986
[120]吕宏兴.一种“U”形渠道用量水槽.中国.200420086285.7,2005