CN114279103A - Automatic rainwater collector - Google Patents
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- CN114279103A CN114279103A CN202210011285.3A CN202210011285A CN114279103A CN 114279103 A CN114279103 A CN 114279103A CN 202210011285 A CN202210011285 A CN 202210011285A CN 114279103 A CN114279103 A CN 114279103A
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- 238000005057 refrigeration Methods 0.000 claims description 27
- 239000004065 semiconductor Substances 0.000 claims description 27
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- 239000007788 liquid Substances 0.000 claims description 4
- 238000001816 cooling Methods 0.000 claims description 3
- 238000009434 installation Methods 0.000 claims description 3
- XLYOFNOQVPJJNP-UHFFFAOYSA-N water Substances O XLYOFNOQVPJJNP-UHFFFAOYSA-N 0.000 description 22
- 238000010586 diagram Methods 0.000 description 7
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- QVGXLLKOCUKJST-UHFFFAOYSA-N atomic oxygen Chemical compound [O] QVGXLLKOCUKJST-UHFFFAOYSA-N 0.000 description 4
- 230000000903 blocking effect Effects 0.000 description 4
- 239000001257 hydrogen Substances 0.000 description 4
- 229910052739 hydrogen Inorganic materials 0.000 description 4
- 239000001301 oxygen Substances 0.000 description 4
- 229910052760 oxygen Inorganic materials 0.000 description 4
- 241000196324 Embryophyta Species 0.000 description 3
- 238000010521 absorption reaction Methods 0.000 description 3
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- 238000005516 engineering process Methods 0.000 description 2
- 235000021393 food security Nutrition 0.000 description 2
- 238000005194 fractionation Methods 0.000 description 2
- 239000003673 groundwater Substances 0.000 description 2
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- 230000005679 Peltier effect Effects 0.000 description 1
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- 238000007789 sealing Methods 0.000 description 1
- 239000002352 surface water Substances 0.000 description 1
- 230000009466 transformation Effects 0.000 description 1
- 230000005068 transpiration Effects 0.000 description 1
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- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02A—TECHNOLOGIES FOR ADAPTATION TO CLIMATE CHANGE
- Y02A20/00—Water conservation; Efficient water supply; Efficient water use
- Y02A20/108—Rainwater harvesting
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- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02A—TECHNOLOGIES FOR ADAPTATION TO CLIMATE CHANGE
- Y02A30/00—Adapting or protecting infrastructure or their operation
- Y02A30/24—Structural elements or technologies for improving thermal insulation
- Y02A30/244—Structural elements or technologies for improving thermal insulation using natural or recycled building materials, e.g. straw, wool, clay or used tires
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Abstract
本发明公开了一种自动雨水收集器,包括壳体、移动导雨板、导轨、过雨管、雨量筒及移动导雨板移动驱动装置,壳体顶部呈倾斜且敞开状,导轨倾斜布设于壳体顶部开口两边,移动导雨板位于壳体顶部之上,且与导轨滑动配合,移动导雨板表面中部设有一通孔,通孔之上设有过雨管,在壳体内的底部依次设有若干个等间距的放置槽,放置槽放置有雨量筒,移动导雨板移动驱动装置设于壳体,且移动导雨板移动驱动装置与移动导雨板连接。本发明通过移动导雨板、过雨管、多个雨量筒相互配合,实现自动连续收集数天的雨水,不同天数的雨水处于不同雨量筒中,相互不影响,并且雨水收集准确,满足后续试验需求,使用非常方便;本发明也可实现无人值守自动收集功能。
The invention discloses an automatic rainwater collector, comprising a casing, a mobile rain-guide plate, a guide rail, a rain pipe, a rain gauge and a mobile rain-guide plate mobile drive device. The top of the shell is open on both sides, and the movable rain deflector is located on the top of the shell, and is slidingly matched with the guide rail. A plurality of equally spaced placement slots are arranged, the placement slots are placed with rain gauges, the moving rain-guiding plate moving drive device is arranged in the casing, and the moving rain-guiding plate moving drive device is connected with the moving rain-guiding plate. The present invention realizes the automatic and continuous collection of rainwater for several days through the cooperation of the movable rain guide plate, the rain pipe and the plurality of rain gauges. , the use is very convenient; the present invention can also realize the automatic collection function of unattended operation.
Description
技术领域technical field
本发明属于生态研究技术领域,具体涉及一种自动雨水收集器。The invention belongs to the technical field of ecological research, in particular to an automatic rainwater collector.
背景技术Background technique
中国的水资源问题十分突出,水资源短缺,总量仅占世界的6%,且水资源时空分布不均,水土资源匹配程度偏低,总体而言我国的水资源问题对粮食安全产生了直接的影响,即水资源与粮食安全是一个互为因果的问题。而雨水作为补给水资源的关键途径,降雨量的分布,降雨量的多少及时间都显得至关重要,故有必要进行雨水的相关规律研究。China's water resources problems are very prominent. Water resources are in short supply, accounting for only 6% of the world's total. Moreover, water resources are unevenly distributed in time and space, and the matching degree of water and soil resources is low. Generally speaking, my country's water resources problems have a direct impact on food security. impact, that is, water resources and food security are a mutually causal issue. As rainwater is the key way to replenish water resources, the distribution of rainfall, the amount and time of rainfall are all very important, so it is necessary to study the relevant laws of rainwater.
目前对雨水的研究常集中在划分区域气候类型,雨情检测及城市规划等许多方面。在农业上,雨水的作用不言而喻,通过雨水来补给地表水、地下水等,满足作物的生长。而收集雨水相关数据常用雨量筒来进行收集,传统的雨量筒由2部分组成,包括量杯和漏斗。在实际收集雨水的情况下,受到光照、温度以及气流波动等的影响,会有一部分雨水从漏斗下方的孔蒸发,造成雨水的损失,雨量的不准确以及雨水中氢氧稳定同位素的分馏。同时,由于传统雨量筒结构简单,需要在下雨期间每天进行收集,对于像海南这样雨季时间长,降雨频繁的地区而言,所需要耗费的人力物力巨大。故收集到的雨水仅适用于对雨水精度要求不高的情况,对于了解雨水降落到地表之后的一系列运动,例如了解水分在农业林业复合系统中的水分迁移,作物吸收水分的深度,土壤蒸发及作物蒸腾等相关研究则精度不够。为此,研发一种能够解决上述问题的自动雨水收集器是非常必要的。At present, the research on rainwater often focuses on the division of regional climate types, rain detection and urban planning and many other aspects. In agriculture, the role of rainwater is self-evident. It is used to replenish surface water and groundwater to meet the growth of crops. Rain gauges are commonly used to collect rainwater-related data. The traditional rain gauges consist of two parts, including a measuring cup and a funnel. In the case of actual rainwater collection, under the influence of light, temperature and air flow fluctuations, a part of the rainwater will evaporate from the hole under the funnel, resulting in the loss of rainwater, inaccurate rainfall and the fractionation of hydrogen and oxygen stable isotopes in the rainwater. At the same time, due to the simple structure of traditional rain gauges, it needs to be collected every day during the rainy season. For areas like Hainan with long rainy seasons and frequent rainfall, it requires huge manpower and material resources. Therefore, the collected rainwater is only suitable for situations where the accuracy of rainwater is not high. For understanding a series of movements after rainwater falls on the surface, such as understanding the water migration of water in the agro-forestry complex system, the depth of water absorption by crops, and soil evaporation. And related researches such as crop transpiration are not accurate enough. Therefore, it is very necessary to develop an automatic rainwater collector that can solve the above problems.
发明内容SUMMARY OF THE INVENTION
本发明的目的在于提供一种自动雨水收集器。The purpose of the present invention is to provide an automatic rainwater collector.
本发明的目的是这样实现的,包括壳体、移动导雨板、导轨、过雨管、雨量筒及移动导雨板移动驱动装置,所述壳体顶部呈倾斜且敞开状,所述导轨倾斜布设于壳体顶部开口两边,所述移动导雨板位于壳体顶部之上,且与导轨滑动配合,移动导雨板表面中部设有一通孔,通孔之上设有过雨管,沿壳体长度方向,在壳体内的底部依次设有若干个等间距的放置槽,每一放置槽放置有一雨量筒,雨量筒内径与移动导雨板通孔直径、过雨管内径均相等,雨量筒与移动导雨板通孔、过雨管三者相互对应,所述移动导雨板移动驱动装置设于壳体,且移动导雨板移动驱动装置与移动导雨板连接,使移动导雨板移动驱动装置能够带动移动导雨板沿导轨移动。The purpose of the present invention is achieved in this way, including a casing, a moving rain deflector, a guide rail, a rain pipe, a rain gauge and a moving driving device for the moving rain deflector, the top of the casing is inclined and open, and the guide rail is inclined Arranged on both sides of the opening on the top of the casing, the movable rain guide plate is located on the top of the casing and is slidingly matched with the guide rail. In the direction of the length of the body, there are several equally spaced placement grooves at the bottom of the casing. Each placement groove is placed with a rain gauge. Corresponding to the through hole and the rain pipe of the mobile rain deflector, the mobile rain deflector moving driving device is arranged in the casing, and the moving rain deflecting plate moving driving device is connected with the moving rain deflecting plate, so that the moving rain deflecting plate can be moved. The moving driving device can drive the moving rain deflector to move along the guide rail.
与现有技术相比,本发明具有以下技术效果:Compared with the prior art, the present invention has the following technical effects:
1、本发明通过移动导雨板、过雨管、多个雨量筒相互配合,实现自动连续收集数天的雨水,不同天数的雨水处于不同雨量筒中,相互不影响,并且雨水收集准确(包括收集雨量的准确和收集雨水不发生同位素分馏的准确),满足后续试验需求,使用非常方便;本发明也可实现无人值守自动收集功能;1. The present invention realizes the automatic and continuous collection of rainwater for several days through the cooperation of the mobile rain deflector, the rain pipe, and a plurality of rain gauges. The accuracy of rainfall and the accuracy of collecting rainwater without isotopic fractionation) meet the requirements of subsequent experiments and are very convenient to use; the present invention can also realize the function of unattended automatic collection;
2、移动导雨板通过主板以及活动小板组成可活动结构,一方面不影响排水以及正常收集雨水,另一方面在导轨之外的活动小板收纳在壳体中,整体结构紧凑,同时整体自重较轻,便于运输;2. The movable rain deflector is composed of a movable structure through the main board and the movable small board. On the one hand, it does not affect the drainage and normal collection of rainwater. On the other hand, the movable small board outside the guide rail is stored in the shell. Light weight, easy to transport;
3、本发明移动导雨板还可设置双排孔洞,雨量筒同样采用双排设计,其中一排雨量筒正常收集雨水,另一排雨量筒作为备用筒,通过电子称重底座实时检测收集到的雨水重量数据,在台风、特大暴雨等极端天气导致雨量筒雨水超量时,自动启用备用筒继续收集;这种方式在确保正常收集雨水的同时,能够满足雨量过大的极端天气的雨水采样需求;3. The mobile rain deflector of the present invention can also be provided with double rows of holes, and the rain gauges also adopt a double row design. One row of rain gauges normally collects rainwater, and the other row of rain gauges is used as a spare tube, which is detected and collected in real time by the electronic weighing base. When extreme weather such as typhoon, heavy rain and other extreme weather lead to excessive rainwater in the rain gauge, the backup canister is automatically activated to continue to collect rainwater; this method can ensure the normal collection of rainwater, and can meet the rainwater sampling in extreme weather with excessive rainfall. need;
4、本发明雨量筒还可以设置螺旋状导流管、接雨漏斗、浮球,能够大大减少已收集雨水的挥发量,提高雨水收集准确度;4. The rain gauge of the present invention can also be provided with a spiral guide tube, a rain funnel, and a floating ball, which can greatly reduce the volatilization of collected rainwater and improve the accuracy of rainwater collection;
5、本发明还可通过半导体制冷装置进行制冷,使已收集雨水保持相对较低的温度,进一步降低雨水挥发,确保长时间雨水收集的准确度。5. In the present invention, the semiconductor refrigeration device can also be used for refrigeration, so that the collected rainwater can maintain a relatively low temperature, further reduce the volatilization of rainwater, and ensure the accuracy of rainwater collection for a long time.
附图说明Description of drawings
图1为本发明内部结构示意图;Fig. 1 is the internal structure schematic diagram of the present invention;
图2为本发明还包括仓门的结构示意图;Fig. 2 is the structural representation that the present invention also includes warehouse door;
图3为移动导雨板的俯视结构示意图;Fig. 3 is the top view structure schematic diagram of the mobile rain deflector;
图4为图3中A处的放大内部结构示意图;Fig. 4 is the enlarged internal structure schematic diagram of A place in Fig. 3;
图5为活动小板弧形凹陷的结构示意图;Fig. 5 is the structural representation of the arc-shaped depression of the movable small plate;
图6为主板有两个通孔且设有旋转封盖的平面结构示意图;6 is a schematic plan view of a main board with two through holes and a rotary cover;
图7为图6的主视结构示意图;Fig. 7 is the front view structure schematic diagram of Fig. 6;
图8为雨量筒的立体拆分结构示意图;Fig. 8 is the three-dimensional disassembly structure schematic diagram of rain gauge;
图9为图1还包括半导体制冷装置以及升降调节装置的结构示意图;FIG. 9 is a schematic structural diagram of FIG. 1 also including a semiconductor refrigeration device and a lift adjustment device;
图10为本发明仓门上有散热栅格口的结构示意图;Figure 10 is a schematic structural diagram of a warehouse door of the present invention with a heat dissipation grid opening;
图中:1-壳体,2-移动导雨板,201-主板,202-活动小板,203-铰链,204-弹性止水带,3-导轨,4-过雨管,5-雨量筒,501-筒本体,502-导流管,503-接雨漏斗,504-浮球,6-导辊,7-遮雨棚,8-丝杆电机,9-配重,10-电子称重底座,11-旋转封盖,12-封盖驱动电机,13-仓门,14-半导体制冷装置,15-滑杆,16-滑套,17-螺栓手柄。In the picture: 1-shell, 2-mobile weather guide, 201-main board, 202-movable small board, 203-hinge, 204-elastic waterstop, 3-guide rail, 4-rain pipe, 5-rain gauge , 501- barrel body, 502- guide tube, 503- rain funnel, 504- float ball, 6- guide roller, 7- canopy, 8- screw motor, 9- counterweight, 10- electronic weighing Base, 11-rotating cover, 12-cover driving motor, 13-silo door, 14-semiconductor refrigeration device, 15-sliding rod, 16-sliding sleeve, 17-bolt handle.
具体实施方式Detailed ways
下面结合附图对本发明作进一步的说明,但不以任何方式对本发明加以限制,基于本发明教导所作的任何变换或替换,均属于本发明的保护范围。The present invention is further described below in conjunction with the accompanying drawings, but the present invention is not limited in any way, and any transformation or replacement based on the teachings of the present invention belongs to the protection scope of the present invention.
如附图1~图10所示本发明包括壳体1、移动导雨板2、导轨3、过雨管4、雨量筒5及移动导雨板移动驱动装置,所述壳体1顶部呈倾斜且敞开状,所述导轨3倾斜布设于壳体1顶部开口两边,所述移动导雨板2位于壳体1顶部之上,且与导轨3滑动配合,移动导雨板2表面中部设有一通孔,通孔之上设有过雨管4,沿壳体1长度方向,在壳体1内的底部依次设有若干个等间距的放置槽,每一放置槽放置有一雨量筒5,雨量筒5内径与移动导雨板2通孔直径、过雨管4内径均相等,雨量筒5与移动导雨板2通孔、过雨管4三者相互对应,所述移动导雨板移动驱动装置设于壳体1,且移动导雨板移动驱动装置与移动导雨板2连接,使移动导雨板移动驱动装置能够带动移动导雨板2沿导轨3移动。As shown in Fig. 1 to Fig. 10, the present invention includes a
所述移动导雨板2包括主板201、活动小板202、铰链203、弹性止水带204,通孔及过雨管4位于主板201上,所述的主板201左右两边分别沿长度方向布设有若干个相互平行的活动小板202,主板201左边的活动小板202组成左小板组,主板201右边的活动小板202组成右小板组,所述的主板201、活动小板202两端均安装有铰链203,主板201的铰链203与其相邻的活动小板202的铰链203之间铰接,相邻活动小板202的铰链203之间铰接,且铰链203与导轨3滑动配合,所述的主板201与活动小板202之间的缝隙、相邻活动小板202之间的缝隙均覆盖有弹性止水带204,所述的导轨3较低一端向外延伸形成悬挑结构,悬挑结构下方的壳体1外壁上下固设有两个导辊6,两个导辊6之间的壳体1外壁设有开口,左小板组依次经过两导辊6间隙、壳体1外壁开口,分布在壳体1内的左侧,右小板组的右端从导轨3上端滑出并分布在壳体1内的右侧,壳体1较高一端的顶部设有遮雨棚7,遮雨棚7将导轨3上端以及对应的活动小板遮住;活动小板202与主板201之间,以及相邻活动小板202之间通过铰链203形成可活动结构,可活动结构利于左、右小板组进入壳体1,主板201始终在导轨3上,而弹性止水带204起到挡水作用,并且本身具有一定形变能力;悬挑结构利于将雨水导离移动导雨板,遮雨棚7起到遮雨功能。The
移动导雨板移动驱动装置为丝杆电机8,其中丝杆电机可以是配置伺服电机,以便于实现精准驱动,丝杆电机8竖直设置于壳体1右侧内壁,丝杆电机8的滑块与右小板组的右端连接,左小板组的左端挂设有配重9;丝杆电机为本领域公知技术,丝杆电机配合滑轨、滑块以及丝杆,带动右小板组移动,右小板组右端下移即主板201向导轨3较高一端方向移动,而位于壳体1内的部分右小板组被拉出并进入导轨3;右小板组右端上移即主板201向导轨3较低一端方向滑移,而右小板组在配重9的作用下,部分右小板组滑出导轨3,回到壳体1内;实现左右小板组自动收入壳体1内的功能。The moving drive device of the moving weather guide is a
对于本领域技术人员来说,移动导雨板移动驱动装置也可以是其他驱动设备,如直线驱动器,至于直线驱动器与移动导雨板之间的连接方式,本领域技术人员可根据公知技术灵活选择。For those skilled in the art, the moving driving device for the moving rain deflector can also be other driving devices, such as a linear drive. As for the connection method between the linear drive and the moving rain deflector, those skilled in the art can flexibly choose according to known technologies. .
本发明还可设置主控制器,主控制器为本领域技术人员熟知的控制设备,例如带有时钟的单片机、开发板或PLC控制器等,也可以是定时启动电路,主控制器与移动导雨板移动驱动装置或丝杆电机电连接;通过主控制器在每日0点自动启动移动导雨板移动驱动装置或丝杆电机,移动导雨板移动驱动装置或丝杆电机带动移动导雨板2向上移动一定距离,即过雨管4离开原本对应的雨量筒5,并移至下一雨量筒5相对应的位置,实现每日自动更换雨量筒功能。The present invention can also be provided with a main controller, which is a control device well known to those skilled in the art, such as a single-chip microcomputer with a clock, a development board or a PLC controller, etc., or a timing start-up circuit, the main controller and the mobile guide The rainboard moving drive device or the screw motor is electrically connected; through the main controller, the moving rain guide moving drive device or screw motor is automatically activated at 0:00 every day, and the moving rain guide moving drive device or screw motor drives the moving rain guide The
所述壳体1内的底部之左右两边分别设有排水凹槽,排水凹槽两端相对的壳体1壁设有排水孔;若壳体1内有少量积水,可通过排水凹槽以及排水孔排出。The left and right sides of the bottom of the
所述主板201、活动小板202的上表面均为中间低两边高的弧形凹陷结构;弧形凹陷结构起到导水的作用,利于将雨水聚集在弧形凹陷中并导流。The upper surfaces of the
所述放置槽有7个,雨量筒5有7个,7个雨量筒对应一周7天,即本发明自动雨水收集器一次布设可收集连续7天的雨水样品。There are 7 placement troughs and 7
还包括电子称重底座10、旋转封盖11、封盖驱动电机12以及封盖旋转控制器,其中电子称重底座为本领域技术人员熟知的电子称重设备,具体可以是底座上安装有重量传感器,通过重量传感器实时检测雨量筒内收集的雨水重量,封盖旋转控制器可以是本领域技术人员熟知的控制设备,如单片机、开发板、PLC控制器等,所述放置槽有两排,且每一放置槽均放置一雨量筒5,所述在移动导雨板2表面通孔有两个,且分布在移动导雨板2宽度方向,一通孔对应一排雨量筒5,通孔分别设有过雨管4,其中一过雨管4管口盖设有旋转封盖11,所述电子称重底座10设于雨量筒5底部,所述封盖驱动电机12通过悬挂架设置于移动导雨板2底部,且封盖驱动电机12位于两通孔之间,封盖驱动电机12的动力输出轴通过转轴与旋转封盖11边缘的安装位连接,且转轴穿过移动导雨板2,使封盖驱动电机12能够带动旋转封盖11转动,旋转封盖11能够旋转并盖住其中一个过雨管4管口,另一个过雨管4管口处于敞开状态,所述封盖旋转控制器分别与电子称重底座10、封盖驱动电机12电连接;当电子称重底座10检测到当天雨量筒已收集达到设定阈值(可以是最大雨量)时,封盖旋转控制器控制封盖驱动电机12启动,封盖驱动电机12将旋转封盖11转动180°,使已收集最大量雨水的雨量筒对应的过雨管4被盖住封闭,而另一过雨管4处于打开,该过雨管4对应的未收集雨水的雨量筒开始收集雨水;在到达下一个零点时间时,封盖驱动电机12可继续将旋转封盖8转动180°,即旋转封盖11复位,下一雨量筒正常进行收集,而备用雨量筒处于备用状态。It also includes an electronic weighing
所述放置槽有14个,雨量筒5有14个,即每一排7个雨量筒为一组,一组正常收集雨水,另一组用于备用收集雨水,适用于暴雨、台风超过收集最大量时的特殊天气,14个雨量筒已能够满足海南岛雨水收集工作。There are 14 said placement troughs and 5 rain gauges, that is, each row of 7 rain gauges is a group, one group is used to collect rainwater normally, and the other group is used to collect rainwater for backup. In special weather, 14 rain gauges have been able to meet the rainwater collection work in Hainan Island.
所述过雨管4管口内设有杂物阻拦网,杂物阻拦网用于阻挡掉落的树叶、树枝等杂质。A sundries blocking net is arranged in the nozzle of the
所述雨量筒5包括筒本体501、导流管502、接雨漏斗503、浮球504,所述接雨漏斗503设于筒本体501顶部筒口,且接雨漏斗503的上端内径与筒本体501内径相等,所述导流管502呈螺旋状,导流管502上端与接雨漏斗503下端出液口连接,导流管502位于筒本体501内,所述浮球504置于接雨漏斗503内;雨水先落在接雨漏斗503中,然后经接雨漏斗503出液口、导流管502落入筒本体501中;在无降雨时,由于接雨漏斗503堵在筒本体501筒口,配合浮球504盖住接雨漏斗503的口部,能够大大减少筒本体501已收集的雨水的挥发量,提高雨水收集准确度,螺旋状的导流管502进一步起到减少水汽挥发的作用;在取样完毕,需要取出雨量筒5时,将雨量筒5整体取出;在将雨量筒5内的雨水倒出前,可先将接雨漏斗503从筒本体501筒口上取下,再进行倾倒。The
所述壳体1正面设有仓门13,打开仓门13后,可取放雨量筒,操作方便。The front of the
所述雨量筒5上部外侧设有半导体制冷装置14,半导体制冷装置为本领域技术人员熟知的制冷设备,如半导体制冷片,其是利用半导体材料的Peltier效应,当直流电通过两种不同半导体材料串联成的电偶时,在电偶的两端即可分别吸收热量和放出热量,实现制冷的目的,半导体制冷装置14的散热端与壳体1内壁相接触,且壳体1内壁开设有散热栅格口;半导体制冷装置14的冷端用于将雨量筒5及其内的雨水保持在相对较低的温度,减少雨水挥发,而半导体制冷装置14的散热端经壳体1导热后与外界热交换,具体还可以在壳体1内壁、仓门上相应位置开设散热栅格口,通过散热栅格口与外界热交换。The outer side of the upper part of the
所述壳体1内壁设有保温层,保温层用于保持壳体1内制冷效果。The inner wall of the
所述壳体1内的两侧分别立设有滑杆15,滑杆15上套设有滑套16,滑套16正面螺孔设有螺栓手柄17,螺栓手柄17将滑杆15抵住,半导体制冷装置14位于两滑套16之间,滑套16侧面与半导体制冷装置14侧面连接,使滑套16能够与半导体制冷装置14一起升降;滑杆、滑套、螺栓手柄组成升降调节装置;分别拧松螺栓手柄17,然后双手分别握住螺栓手柄17,上移或下移滑套16,调节半导体制冷装置的位置,也可将半导体制冷装置升至高于雨量筒的位置,方便将雨量筒取出;拧紧螺栓手柄17可以使半导体制冷装置固定。Two sides of the
本发明自动雨水收集器可以内置蓄电池,蓄电池为移动导雨板移动驱动装置、丝杆电机、封盖驱动电机、电子称重底座、半导体制冷装置以及各控制器等用电部件提供电能,蓄电池可以人工更换充电,也可配合太阳能发电设备、风力发电设备等本领域技术人员公知的发电设备进行自发电。The automatic rainwater collector of the present invention can have a built-in battery, and the battery can provide electrical energy for the moving driving device, screw motor, cover driving motor, electronic weighing base, semiconductor refrigeration device and various controllers and other electrical components. Manual replacement and charging can also be performed in conjunction with solar power generation equipment, wind power generation equipment and other power generation equipment known to those skilled in the art to generate self-generated electricity.
本发明工作原理和工作过程:首先将本发明自动雨水收集器置于雨水采样点;第一天收集时,过雨管2与第一个雨量筒5相对应,需要收集的雨水经过雨管4落入雨量筒5中,由于移动导雨板2呈倾斜状,使落在移动导雨板2上的雨水被导流并离开移动导流板2,配合过雨管2形成阻挡,避免被导流的雨水进入雨量筒5,确保雨量筒5准确收集雨水;在第一天晚上12点(即开始第二天),启动移动导雨板移动驱动装置,移动导雨板移动驱动装置带动移动导雨板2向上自动移动,使过雨管2与第二个雨量筒5相对应,开始收集第二天的雨水;然后继续重复上述过程,收集后续时间的雨水;本发明还可搭配主控制器使用,控制移动导雨板移动驱动装置定时启停,实现本发明无需人工操作即可连续收集雨水;工作人员可随时将已收集雨水的雨量筒取出,将雨量筒中收集的雨水装入收集瓶中,通过水同位素分析仪分析降水中的氢氧稳定同位素,得到降水的氢氧稳定同位素的情况,还可进一步结合0~100 cm土壤水、地下水以及植株茎水的氢氧稳定同位素的特征,得出植物吸水深度,也可利用同位素直接对比法,研究胶农林复合系统下植物的吸水策略。The working principle and working process of the present invention: first, the automatic rainwater collector of the present invention is placed at the rainwater sampling point; when collecting on the first day, the
下面结合实施例1~实施例9对本发明作进一步说明。Below in conjunction with
实施例1Example 1
自动雨水收集器,包括壳体1、移动导雨板2、导轨3、过雨管4、雨量筒5及移动导雨板移动驱动装置,移动导雨板移动驱动装置可以是减速电机,减速电机动力输出部设有齿轮,移动导雨板2底面设有能够与齿轮相啮合的齿,通过齿轮带动移动导雨板2移动,所述壳体1顶部呈倾斜且敞开状,所述导轨3倾斜布设于壳体1顶部开口两边,所述移动导雨板2位于壳体1顶部之上,且与导轨3滑动配合,移动导雨板2表面中部设有一通孔,通孔之上设有过雨管4,沿壳体1长度方向,在壳体1内的底部依次设有若干个等间距的放置槽,每一放置槽放置有一雨量筒5,雨量筒5内径与移动导雨板2通孔直径、过雨管4内径均相等,雨量筒5与移动导雨板2通孔、过雨管4三者相互对应,所述移动导雨板移动驱动装置设于壳体1,且移动导雨板移动驱动装置与移动导雨板2连接,使移动导雨板移动驱动装置能够带动移动导雨板2沿导轨3移动,移动导雨板2的长度可以是导轨长度的两倍,在移动导雨板移动过程中,使移动导雨板全程能够覆盖所有雨量筒5之上的区域,避免已经完成收集雨水的雨量筒中再次滴入其他干扰雨水。The automatic rainwater collector includes a
实施例2Example 2
自动雨水收集器,包括壳体1、移动导雨板2、导轨3、过雨管4、雨量筒5及移动导雨板移动驱动装置,所述壳体1顶部呈倾斜且敞开状,所述导轨3倾斜布设于壳体1顶部开口两边,所述移动导雨板2位于壳体1顶部之上,且与导轨3滑动配合,移动导雨板2表面中部设有一通孔,通孔之上设有过雨管4,沿壳体1长度方向,在壳体1内的底部依次设有若干个等间距的放置槽,每一放置槽放置有一雨量筒5,雨量筒5内径与移动导雨板2通孔直径、过雨管4内径均相等,雨量筒5与移动导雨板2通孔、过雨管4三者相互对应,所述移动导雨板移动驱动装置设于壳体1,且移动导雨板移动驱动装置与移动导雨板2连接,使移动导雨板移动驱动装置能够带动移动导雨板2沿导轨3移动;其中放置槽有7个,雨量筒5有7个;移动导雨板2包括主板201、活动小板202、铰链203、弹性止水带204,所述的主板201左右两边分别沿长度方向布设有若干个相互平行的活动小板202,主板201左边的活动小板202组成左小板组,主板201右边的活动小板202组成右小板组,所述的主板201、活动小板202两端均安装有铰链203,主板201的铰链203与其相邻的活动小板202的铰链203之间铰接,相邻活动小板202的铰链203之间铰接,且铰链203与导轨3滑动配合,所述的主板201与活动小板202之间的缝隙、相邻活动小板202之间的缝隙均覆盖有弹性止水带204,所述的导轨3较低一端向外延伸形成悬挑结构,悬挑结构下方的壳体1外壁上下固设有两个导辊6,两个导辊6之间的壳体1外壁设有开口,左小板组依次经过两导辊6间隙、壳体1外壁开口,分布在壳体1内的左侧,右小板组的右端从导轨3上端滑出并分布在壳体1内的右侧,壳体1较高一端的顶部设有遮雨棚7,遮雨棚7将导轨3上端以及对应的活动小板遮住。The automatic rainwater collector includes a
实施例3Example 3
除移动导雨板移动驱动装置为丝杆电机8,丝杆电机8竖直设置于壳体1右侧内壁,丝杆电机8的滑块与右小板组的右端连接,左小板组的左端挂设有配重9外,其余与实施例2相同。Except that the moving driving device for moving the rain deflector is a
实施例4Example 4
除壳体1内的底部之左右两边分别设有排水凹槽,排水凹槽两端相对的壳体1壁设有排水孔外,其余与实施例3相同。Except that the left and right sides of the bottom of the
实施例5Example 5
除主板201、活动小板202的上表面均为中间低两边高的弧形凹陷结构外,其余与实施例4相同。Except that the upper surfaces of the
实施例6Example 6
在实施例5的基础上,还包括电子称重底座10、旋转封盖11、封盖驱动电机12以及封盖旋转控制器,所述放置槽有两排,且每一放置槽均放置一雨量筒5,所述在移动导雨板2表面通孔有两个,且分布在移动导雨板2宽度方向,一通孔对应一排雨量筒5,通孔分别设有过雨管4,其中一过雨管4管口盖设有旋转封盖11,所述电子称重底座10设于雨量筒5底部,所述封盖驱动电机12通过悬挂架设置于移动导雨板2底部,且封盖驱动电机12位于两通孔之间,封盖驱动电机12的动力输出轴通过转轴与旋转封盖11边缘的安装位连接,且转轴穿过移动导雨板2,使封盖驱动电机12能够带动旋转封盖11转动,旋转封盖11能够旋转并盖住其中一个过雨管4管口,另一个过雨管4管口处于敞开状态,所述封盖旋转控制器分别与电子称重底座10、封盖驱动电机12电连接;其中,放置槽有14个,雨量筒5有14个。On the basis of Embodiment 5, it also includes an electronic weighing base 10, a rotating cover 11, a cover driving motor 12 and a cover rotation controller, the placement slot has two rows, and each placement slot is placed with a rainfall Canister 5, there are two through holes on the surface of the mobile rain deflector 2, and they are distributed in the width direction of the mobile rain deflector 2, one through hole corresponds to a row of rain gauge canisters 5, and the through holes are respectively provided with rain pipes 4, one of which is The nozzle cover of the rain pipe 4 is provided with a rotating cover 11, the electronic weighing base 10 is arranged at the bottom of the rain gauge 5, and the cover driving motor 12 is arranged at the bottom of the moving rain deflector 2 through the hanger, and the cover The drive motor 12 is located between the two through holes, the power output shaft of the cover drive motor 12 is connected to the installation position on the edge of the rotating cover 11 through the rotating shaft, and the rotating shaft passes through the moving rain guide plate 2, so that the cover drive motor 12 can drive The rotary cover 11 rotates, and the rotary cover 11 can rotate and cover one of the nozzles of the rain pipe 4, and the other nozzle of the rain pipe 4 is in an open state, and the cover rotation controller is respectively connected with the electronic weighing base 10. , The
实施例7Example 7
除雨量筒5包括筒本体501、导流管502、接雨漏斗503、浮球504外,其余与实施例6相同;所述接雨漏斗503设于筒本体501顶部筒口,且接雨漏斗503的上端内径与筒本体501内径相等,所述导流管502呈螺旋状,导流管502上端与接雨漏斗503下端出液口连接,导流管502位于筒本体501内,所述浮球504置于接雨漏斗503内;过雨管4管口内设有杂物阻拦网。Except that the
实施例8Example 8
在实施例7的基础上,还包括半导体制冷装置14,雨量筒5上部外侧设有半导体制冷装置14,半导体制冷装置14的散热端与壳体1内壁相接触,且壳体1内壁开设有散热栅格口,壳体1内壁设有保温层。On the basis of
实施例9Example 9
在实施例8的基础上,还包括滑杆15、滑套16以及螺栓手柄17,所述壳体1内的两侧分别立设有滑杆15,滑杆15上套设有滑套16,滑套16正面螺孔设有螺栓手柄17,螺栓手柄17将滑杆15抵住,半导体制冷装置14位于两滑套16之间,滑套16侧面与半导体制冷装置14侧面连接,使滑套16能够与半导体制冷装置14一起升降,壳体1内壁有仓门,散热栅格口在仓门上。On the basis of
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