CN210086550U - Integrated non-light-transmitting wall thermal activation energy-saving building system - Google Patents

Integrated non-light-transmitting wall thermal activation energy-saving building system Download PDF

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CN210086550U
CN210086550U CN201920338430.2U CN201920338430U CN210086550U CN 210086550 U CN210086550 U CN 210086550U CN 201920338430 U CN201920338430 U CN 201920338430U CN 210086550 U CN210086550 U CN 210086550U
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wall
layer
heat pipe
loop heat
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耿凤彦
杨洋
陈萨如拉
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Tianjin University of Commerce
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Abstract

The utility model discloses an energy-conserving building system of integration non-printing opacity wall body thermal activation to the low-grade solar radiation energy that make full use of sunny side building surface obtained realizes reducing building shady side wall body energy consumption. The system comprises a non-light-transmitting wall body and a loop heat pipe system, wherein the loop heat pipe system is a closed circulating system formed by sequentially communicating an evaporation section, an evaporation section steam collector, a steam ascending section, a condensation section steam distributor, a condensation section liquid collector, a liquid descending section and an evaporation section liquid distributor, and a phase-change working medium is arranged in the loop heat pipe system; the evaporation section is embedded into an outer plastering layer or a slope surface layer of the sunny side of the non-light-transmitting wall body, and the condensation section is embedded into a structural layer of the shady side of the non-light-transmitting wall body or a roof structural layer; the position of the evaporation section is lower than that of the condensation section. The loop heat pipe system in the system fully utilizes the low-grade solar energy to solve the problem that the energy consumption of the shadow side of the building is relatively large, and meanwhile, no mechanical driving equipment is needed, so that the operating cost is reduced.

Description

一种一体化非透光墙体热激活节能建筑系统An integrated non-translucent wall thermally activated energy-saving building system

技术领域technical field

本实用新型涉及建筑节能技术领域,尤其是涉及一种被动式一体化非透光墙体热激活节能建筑系统。The utility model relates to the technical field of building energy saving, in particular to a passive integrated non-translucent wall thermally activated energy saving building system.

背景技术Background technique

近年来,被动式超低能耗建筑逐渐在我国兴起,也逐渐成为建筑能耗居高不下背景下的一个新的发展方向。降低建筑自身负荷是建筑节能的主要措施之一。In recent years, passive ultra-low energy buildings have gradually emerged in my country, and have gradually become a new development direction under the background of high building energy consumption. Reducing the building's own load is one of the main measures for building energy conservation.

目前超低能耗建筑的主要技术实现方式是依靠大量使用各种建筑保温材料增加围护结构的传热热阻。这一方式虽然在表面上降低了建筑能耗,但在应用上还存在下述不足之处:首先,这种技术方案并不适宜于在部分地区,如夏热冬冷地区,因为建筑保温材料的增加,虽然降低了建筑的冬季供暖负荷,但却使得夏季建筑室内热量无法及时散去,导致因制冷设备负荷增加而引起建筑负荷上升。其次,从建筑的全生命周期来看,保温材料的大量应用必然导致其生产和运输环节耗能巨大,在一定程度上属于“拆东墙补西墙”,偏离了可持续发展目标。最后,过厚的保温材料也给建筑带来了火灾隐患、占用大量建筑使用空间,并且保温层效果随时间推移会逐渐下降甚至失效,需要定期更换,安全性和经济性也存在一定问题。At present, the main technical realization method of ultra-low energy consumption building is to rely on a large number of various building insulation materials to increase the heat transfer resistance of the envelope structure. Although this method reduces building energy consumption on the surface, it still has the following shortcomings in application: First, this technical solution is not suitable for some areas, such as areas with hot summer and cold winter, because building insulation materials Although the increase of the heating load reduces the heating load of the building in winter, it makes the indoor heat of the building unable to dissipate in time in summer, resulting in an increase in the building load due to the increase in the load of the cooling equipment. Secondly, from the perspective of the whole life cycle of buildings, the large-scale application of thermal insulation materials will inevitably lead to huge energy consumption in its production and transportation links. Finally, excessively thick thermal insulation materials also bring fire hazards to the building, occupy a lot of building space, and the effect of the thermal insulation layer will gradually decline or even fail over time, requiring regular replacement, and there are also certain problems in safety and economy.

太阳能属于丰富易得的可再生能源,合理应用太阳能并用于降低建筑能耗对于丰富超低能耗建筑技术体系意义十分重大。目前,主动式热激活建筑系统作为一种逐渐兴起的建筑能源系统,其通过在围护结构中嵌入流体管道,并利用机械泵等主动驱动设备驱动流体在建筑围护结构中循环流动,为建筑供热或降温,但由于其维护和运行成本仍然较高。因此,如何通过低技技术手段将太阳能被动式应用于降低建筑能耗这一技术问题仍然没有得到较好的解决。Solar energy is an abundant and easily available renewable energy. The rational application of solar energy to reduce building energy consumption is of great significance to enriching the ultra-low energy consumption building technology system. At present, the active thermal activated building system is a gradually emerging building energy system. It embeds fluid pipes in the envelope and uses active driving equipment such as mechanical pumps to drive the fluid to circulate in the building envelope. Heating or cooling is still high due to its maintenance and operating costs. Therefore, the technical problem of how to apply passive solar energy to reduce building energy consumption through low-tech technical means has not been well resolved.

实用新型内容Utility model content

本实用新型的目的是针对现有技术中存在的技术缺陷,而提供一种一体化非透光墙体热激活节能建筑系统,以充分利用向阳面建筑表面所获得的低品位太阳辐射能实现降低建筑背阴面墙体能耗,并最终减少建筑的运行和使用成本。The purpose of this utility model is to aim at the technical defects existing in the prior art, and provide an integrated non-translucent wall thermally activated energy-saving building system, so as to make full use of the low-grade solar radiation energy obtained from the surface of the building facing the sun to reduce the The shady walls of the building consume energy and ultimately reduce the operating and operating costs of the building.

为实现本实用新型的目的所采用的技术方案是:The technical scheme adopted for realizing the purpose of the present utility model is:

一种一体化非透光墙体热激活节能建筑系统,包括非透光墙体和环路热管系统,所述环路热管系统为由蒸发段、蒸发段集汽器、蒸汽上升段、冷凝段分汽器、冷凝段、冷凝段集液器、液体下降段、蒸发段分液器依次连通组成的封闭循环系统,所述环路热管系统中设置有相变工质;所述蒸发段嵌入所述非透光墙体向阳面的外抹灰层或边坡面层中,所述冷凝段嵌入所述非透光墙体背阴面的结构层中或屋顶结构层中;所述蒸发段的位置低于所述冷凝段的位置。An integrated non-translucent wall thermally activated energy-saving building system, comprising a non-translucent wall and a loop heat pipe system, the loop heat pipe system is composed of an evaporation section, an evaporation section steam collector, a steam rising section, and a condensation section. A closed cycle system consisting of a steam separator, a condensation section, a liquid collector in the condensation section, a liquid descending section, and a liquid separator in the evaporation section are connected in sequence, and the loop heat pipe system is provided with a phase-change working medium; the evaporation section is embedded in the In the outer plastering layer or the slope surface layer of the sun-facing side of the non-translucent wall, the condensation section is embedded in the structural layer on the shady side of the non-transparent wall or in the roof structure layer; the location of the evaporation section position below the condensation section.

所述环路热管系统位于所述非透光墙体相邻墙体的交界处的部分分别设置有外穿内穿墙套管或外穿外穿墙套管。The parts of the loop heat pipe system located at the junction of the non-translucent walls and adjacent walls are respectively provided with outer-penetrating inner-wall-penetrating sleeves or outer-penetrating outer-wall-penetrating sleeves.

所述非透光墙体向阳面的外抹灰层或边坡面层表面太阳辐射热吸收系数大于0.5.The solar radiation heat absorption coefficient of the outer plastering layer or the slope surface layer of the non-translucent wall facing the sun is greater than 0.5.

位于首层的所述环路热管系统中,所述蒸发段嵌入所述边坡面层中,所述冷凝段嵌入所述非透光墙体北墙结构层中。In the loop heat pipe system located on the first floor, the evaporation section is embedded in the slope surface layer, and the condensation section is embedded in the non-transparent north wall structural layer of the wall.

位于中间层的所述环路热管系统中,所述蒸发段嵌入所述非透光墙体南墙外抹灰层中,所述冷凝段嵌入所述非透光墙体北墙结构层中。In the loop heat pipe system located in the middle layer, the evaporation section is embedded in the outer plastering layer of the south wall of the non-transparent wall, and the condensation section is embedded in the structural layer of the north wall of the non-transparent wall.

位于屋顶的所述环路热管系统中,所述蒸发段嵌入所述非透光墙体南墙外抹灰层中,所述冷凝段嵌入屋顶结构层中。In the loop heat pipe system located on the roof, the evaporation section is embedded in the outer plastering layer of the south wall of the non-transparent wall, and the condensation section is embedded in the roof structure layer.

位于首层、中间层和屋顶的所述环路热管系统的蒸发段集汽器、蒸汽上升段、冷凝段集汽器分别嵌入东墙外抹灰层中。The evaporation section steam collector, the steam rising section and the condensation section steam collector of the loop heat pipe system located on the first floor, the middle floor and the roof are respectively embedded in the plastering layer outside the east wall.

位于首层、中间层和屋顶的所述环路热管系统的蒸发段分液器、液体下降段、冷凝段集液器分别嵌入西墙外抹灰层中。The evaporating section liquid separator, the liquid descending section and the condensation section liquid collector of the loop heat pipe system located on the first floor, the middle floor and the roof are respectively embedded in the exterior plastering layer of the west wall.

所述所述非透光墙体向阳面的外抹灰层或边坡面层材料中添加有金属粉末或石墨,所述金属粉末或石墨添加剂占所述外抹灰层或边坡面层材料组成的比例按重量百分比小于0.25%。Metal powder or graphite is added to the outer plastering layer or the slope surface layer material on the sunny side of the non-transparent wall, and the metal powder or graphite additive accounts for the outer plastering layer or the slope surface layer material. The proportion of the composition is less than 0.25% by weight.

所述环路热管系统中,所述蒸发段的管体沿流动方向的坡度范围为+0.5%至+5.0%,所述冷凝段的管体沿流动方向的坡度范围为-0.5%至-5.0%。In the loop heat pipe system, the gradient range of the tube body of the evaporation section along the flow direction is +0.5% to +5.0%, and the gradient range of the tube body of the condensation section along the flow direction is -0.5% to -5.0% %.

与现有技术相比,本实用新型的有益效果是:Compared with the prior art, the beneficial effects of the present utility model are:

1、本实用新型的一体化非透光墙体热激活节能建筑系统中设置有环路热管系统,只需向阳面与背阴面存在微小温差条件即可充分依赖环路热管系统的自发循环驱动内部相变工质进行向阳面与背阴面墙体之间的热量迁移与传输,在超低温差传热条件下实现热量转移,充分利用免费的低品位太阳能解决建筑背阴面能耗相对较大的问题,为超低能耗建筑的技术实现提供可靠解决方案。本实用新型整个循环过程无需任何机械驱动设备,大幅降低了超低能耗建筑保温层使用量以及保温层过厚带来的建筑使用面积下降问题,同时降低建筑火灾安全隐患,降低了建筑运行和定期更换保温层所带来的额外费用。1. The integrated non-translucent wall thermally activated energy-saving building system of the present invention is provided with a loop heat pipe system, which can fully rely on the spontaneous circulation drive of the loop heat pipe system as long as there is a slight temperature difference between the sunny side and the backside. The phase change working medium transfers and transmits heat between the sunny side and the back side wall, realizes heat transfer under the condition of ultra-low temperature differential heat transfer, and makes full use of free low-grade solar energy to solve the problem of relatively large energy consumption on the back side of the building. Provide reliable solutions for the technical realization of ultra-low energy buildings. The whole cycle process of the utility model does not need any mechanical driving equipment, which greatly reduces the usage of the ultra-low energy consumption building thermal insulation layer and the reduction of the building usable area caused by the excessively thick thermal insulation layer. The extra cost of replacing the insulation.

2、本实用新型的建筑系统中,环路热管系统的蒸发段设置于南墙外抹灰及南墙边坡面层中,环路热管系统的冷凝段设置于北墙及屋顶混凝土层中,能够充分利用低品位太阳能解决建筑背阴面能耗相对较大的问题。2. In the building system of the present utility model, the evaporation section of the loop heat pipe system is arranged in the plastering outside the south wall and the slope surface layer of the south wall, and the condensation section of the loop heat pipe system is arranged in the concrete layer of the north wall and the roof, It can make full use of low-grade solar energy to solve the problem of relatively large energy consumption on the shady side of the building.

附图说明Description of drawings

图1所示为本实用新型一体化非透光墙体热激活节能建筑系统东向示意图;Fig. 1 shows the eastward schematic diagram of the integrated non-translucent wall thermally activated energy-saving building system of the present invention;

图2所示为本实用新型一体化非透光墙体热激活节能建筑系统西向示意图;Figure 2 is a schematic diagram showing the west direction of the integrated non-translucent wall thermally activated energy-saving building system of the present invention;

图3所示为本实用新型一体化非透光墙体热激活节能建筑系统南向示意图;3 is a schematic diagram showing the south direction of the integrated non-translucent wall thermally activated energy-saving building system of the present invention;

图4所示为本实用新型一体化非透光墙体热激活节能建筑系统北向示意图;4 is a schematic diagram showing the north direction of the integrated non-translucent wall thermally activated energy-saving building system of the present invention;

图5所示为外穿外穿墙套管的结构示意图;Figure 5 shows a schematic diagram of the structure of the outer casing through the outer wall;

图6所示为外穿外穿墙套管的剖面图;Figure 6 shows a cross-sectional view of the outer casing through the outer wall;

图7所示为外穿内穿墙套管的结构示意图;Figure 7 shows a schematic diagram of the structure of the outer casing through the inner wall;

图8所示为外穿内穿墙套管的剖面图。Figure 8 shows a cross-sectional view of the outer wall bushing through the inner wall.

具体实施方式Detailed ways

以下结合附图和具体实施例对本实用新型进行详细说明。The present utility model will be described in detail below with reference to the accompanying drawings and specific embodiments.

本实用新型一种一体化非透光墙体热激活节能建筑系统如图1-图6所示,包括非透光墙体和环路热管系统。所述环路热管系统为由蒸发段1、蒸发段集汽器2、蒸汽上升段3、冷凝段分汽器4、冷凝段5、冷凝段集液器6、液体下降段7、蒸发段分液器8依次连通组成的封闭循环系统,所述环路热管系统内设置有相变工质。所述蒸发段1嵌入所述非透光墙体向阳面的外抹灰层或边坡面层12中,所述冷凝段5嵌入所述非透光墙体背阴面的结构层或屋顶9结构层中。所述环路热管系统中,所述蒸发段1的位置位于低于所述冷凝段5的位置。An integrated non-translucent wall thermally activated energy-saving building system of the present invention is shown in Figures 1 to 6, including a non-translucent wall and a loop heat pipe system. The loop heat pipe system is divided into evaporation section 1, evaporation section steam collector 2, steam rising section 3, condensation section steam separator 4, condensation section 5, condensation section liquid collector 6, liquid descending section 7, and evaporation section. The liquid containers 8 are connected in sequence to form a closed circulation system, and a phase-change working medium is arranged in the loop heat pipe system. The evaporation section 1 is embedded in the outer plastering layer or the slope surface layer 12 on the sunny side of the non-transparent wall, and the condensation section 5 is embedded in the structure layer or roof 9 structure on the shady side of the non-transparent wall. in the layer. In the loop heat pipe system, the position of the evaporation section 1 is located lower than the position of the condensation section 5 .

所述环路热管系统位于所述非透光墙体相邻墙体交界处的部分分别设置有外穿内穿墙套管14或外穿外穿墙套管13。The part of the loop heat pipe system located at the junction of the adjacent walls of the non-transparent wall is respectively provided with an outer-penetrating inner-wall-penetrating sleeve 14 or an outer-penetrating outer-wall-penetrating sleeve 13 .

本实用新型中,所述环路热管系统中的蒸发段和冷凝段均等同于一个平行流换热器。所述环路热管系统的具体连接方式为:所述蒸发段1包括多根蒸发管,所述冷凝段5包括多根冷凝管。每根所述蒸发管的蒸汽出口分别与对应的所述蒸发段集汽器2的蒸汽进口连接,多个所述蒸发段集汽器2的蒸汽出口并联连接后与蒸汽上升段3管路的蒸汽进口连接,蒸汽上升段3管路的蒸汽出口与冷凝段分汽器4的蒸汽进口连接,冷凝段分汽器4的每个蒸汽出口分别与对应的每根冷凝管的蒸汽进口连接,汽态工质在冷凝管中冷凝成为液态。每根冷凝管的液体出口分别与对应的冷凝段集液器6的液体进口连接,所述冷凝段集液器6的液体出口与液体下降段7的液体进口连接,液体下降段7管路的液体出口与蒸发段分液器8的液体进口连接,蒸发段分液器8的每个液体出口分别与对应的每根蒸发管的液体进口连接,形成封闭的循环系统。In the present invention, the evaporation section and the condensation section in the loop heat pipe system are equivalent to a parallel flow heat exchanger. The specific connection mode of the loop heat pipe system is as follows: the evaporation section 1 includes a plurality of evaporation tubes, and the condensation section 5 includes a plurality of condensation tubes. The steam outlet of each evaporating tube is respectively connected with the corresponding steam inlet of the evaporating section steam collector 2, and the steam outlets of a plurality of the evaporating section steam collectors 2 are connected in parallel with the steam rising section 3 pipeline. The steam inlet is connected, the steam outlet of the pipeline in the steam ascending section 3 is connected with the steam inlet of the condensing section steam separator 4, and each steam outlet of the condensing section steam separator 4 is respectively connected with the steam inlet of each corresponding condenser tube. The working fluid is condensed into a liquid state in the condenser tube. The liquid outlet of each condenser tube is respectively connected with the liquid inlet of the corresponding condenser section liquid collector 6, the liquid outlet of the condensation section liquid collector 6 is connected with the liquid inlet of the liquid descending section 7, and the liquid descending section 7 pipeline is connected to the liquid inlet of the liquid descending section 7. The liquid outlet is connected with the liquid inlet of the liquid separator 8 in the evaporation section, and each liquid outlet of the liquid separator 8 in the evaporation section is connected with the liquid inlet of each corresponding evaporation tube to form a closed circulation system.

本实施例中所述非透光墙体由外向内依次为外抹灰层、保温层和结构层。所述环路热管系统可以根据建筑物的不同需要安装在建筑物的不同位置。本实施例中,优选的所述环路热管系统的安装位置为:位于首层的所述环路热管系统中,所述蒸发段1嵌入所述边坡面层12中,所述冷凝段5嵌入第二层所述非透光墙体的北墙11结构层中。位于中间层的所述环路热管系统中,所述蒸发段1嵌入该层所述非透光墙体南墙10外抹灰层中,所述冷凝段5嵌入上一层所述非透光墙体北墙11结构层中。位于顶层的所述环路热管系统中,所述蒸发段1嵌入顶层所述非透光墙体南墙10外抹灰层中,所述冷凝段5嵌入屋顶9的结构层中。In this embodiment, the non-light-transmitting wall body is sequentially composed of an outer plastering layer, a thermal insulation layer and a structural layer from the outside to the inside. The loop heat pipe system can be installed in different positions of the building according to different needs of the building. In this embodiment, the preferred installation position of the loop heat pipe system is: in the loop heat pipe system on the first floor, the evaporation section 1 is embedded in the slope surface layer 12, the condensation section 5 It is embedded in the structural layer of the north wall 11 of the second layer of the non-transparent wall. In the loop heat pipe system located in the middle layer, the evaporation section 1 is embedded in the outer plastering layer of the non-transparent south wall 10 of this layer, and the condensation section 5 is embedded in the non-transparent wall 10 on the upper layer. In the 11th structural layer of the north wall of the wall. In the loop heat pipe system on the top floor, the evaporation section 1 is embedded in the outer plastering layer of the south wall 10 of the non-transparent wall on the top floor, and the condensation section 5 is embedded in the structural layer of the roof 9 .

根据使用需要,相变工质在环路热管系统的封闭循环过程中,可以从东墙集汽,从西墙集液,也可以从西墙集汽,从东墙集液。以从东墙集汽,从西墙集液为例,位于首层、中间层和屋顶的所述环路热管系统的蒸发段集汽器2、蒸汽上升段3、冷凝段集汽器4分别嵌入东墙外抹灰层中。位于首层、中间层和屋顶的所述环路热管系统的蒸发段分液器8、液体下降段7、冷凝段集液器6分别嵌入西墙外抹灰层中。According to the needs of use, the phase change working medium can collect steam from the east wall, collect liquid from the west wall, or collect steam from the west wall and collect liquid from the east wall during the closed circulation process of the loop heat pipe system. Taking the steam collection from the east wall and the liquid collection from the west wall as an example, the steam collector 2 in the evaporation section, the steam riser section 3 and the condenser section 4 in the condensation section of the loop heat pipe system on the first floor, the middle floor and the roof are respectively. Embedded in the plastering layer outside the east wall. The evaporating section liquid separator 8, the liquid descending section 7 and the condensation section liquid collector 6 of the loop heat pipe system located on the first floor, the middle floor and the roof are respectively embedded in the exterior plastering layer of the west wall.

由于南墙的蒸发段管路位于保温层以外的外抹灰层中,蒸发段集汽器2、蒸汽上升段3、冷凝段集汽器4分别嵌入东墙外抹灰层中,蒸发段分液器8、液体下降段7、冷凝段集液器6分别嵌入西墙外抹灰层中,为解决蒸发段管路与蒸汽上升段管路以及液体下降段管路在南墙与东墙和西墙外抹灰层结合处的连接,同时克服金属管路连接产生的弯管应力对环路热管结构的影响,所述外穿外穿墙套管13置于南墙外抹灰层与东墙外抹灰层连接处及南墙外抹灰层与西墙外抹灰层的连接处,即:外穿外穿墙套管13从一侧的外抹灰层穿过进入另一侧的外抹灰层。所述外穿外穿墙套管13具有两层结构,其示意图如图5和图6所示,内层为防挤压橡胶管套层13-1,外层为金属钢管层13-2。外穿外穿墙套管内层防挤压橡胶管套层13-1包覆南墙外抹灰层与东墙外抹灰层连接处、南墙外抹灰层与西墙外抹灰层的连接处的管路及蒸发段集汽器2的蒸汽进口或蒸发段分液器8的液体进口。由于北墙的冷凝段管路位于保温层以内的结构层中,屋顶的冷凝段管路位于屋顶的结构层中,蒸发段集汽器2、蒸汽上升段3、冷凝段集汽器4分别嵌入东墙外抹灰层中,蒸发段分液器8、液体下降段7、冷凝段集液器6分别嵌入西墙外抹灰层中,为解决冷凝段管路与蒸汽上升段管路以及液体下降段管路在北墙(或屋顶)结构层与东墙或西墙抹灰层结合处的连接,同时克服金属管路连接产生的弯管应力以及冷桥的产生对环路热管结构以及建筑自身保温性能的影响,所述外穿内穿墙套管14置于北墙结构层与东墙外抹灰层的连接处、北墙结构层与西墙外抹灰层的连接处、屋顶结构层与东墙外抹灰层的连接处及屋顶结构层与西墙外抹灰层的连接处,即:外穿内穿墙套管14从西墙或东墙的外抹灰层穿过北墙的外抹灰层和保温层进入北墙(或屋顶)的结构层中。外穿内穿墙套管14具有三层结构,内层为防挤压橡胶管套层14-1,中间层为金属钢管层14-2,外层为保温层14-3。外穿内穿墙套管14内层防挤压橡胶管套层14-1包覆北墙结构层与东墙外抹灰层的连接处、北墙结构层与西墙外抹灰层的连接处、屋顶结构层与东墙外抹灰层的连接处及屋顶结构层与西墙外抹灰层的连接处的连接管路及冷凝段分汽器4的每个蒸汽出口或冷凝段集液器6的液体进口。Since the evaporation section pipeline of the south wall is located in the outer plastering layer outside the thermal insulation layer, the evaporation section steam collector 2, the steam rising section 3, and the condensation section steam collector 4 are respectively embedded in the outer plastering layer of the east wall, and the evaporation section is divided into two parts. The liquid collector 8, the liquid descending section 7, and the condensing section liquid collector 6 are respectively embedded in the plastering layer outside the west wall. The connection at the junction of the outer plastering layer of the west wall, and at the same time overcome the influence of the bending stress generated by the metal pipeline connection on the loop heat pipe structure, the outer wall-penetrating sleeve 13 is placed between the outer plastering layer of the south wall and the east wall. The connection between the exterior plastering layer of the wall and the connection between the exterior plastering layer of the south wall and the exterior plastering layer of the west wall, that is: the outer wall-penetrating sleeve 13 passes through the outer plastering layer on one side and enters the other side. External plastering layer. The outer wall penetrating sleeve 13 has a two-layer structure, as shown in Fig. 5 and Fig. 6 . The inner layer is an anti-extrusion rubber sleeve layer 13-1, and the outer layer is a metal steel pipe layer 13-2. The inner layer of anti-extrusion rubber sleeve layer 13-1 covers the connection between the outer plastering layer of the south wall and the outer plastering layer of the east wall, and the outer plastering layer of the south wall and the outer plastering layer of the west wall. The pipeline at the connection and the steam inlet of the vapor collector 2 in the evaporation section or the liquid inlet of the liquid separator 8 in the evaporation section. Since the pipeline of the condensation section of the north wall is located in the structural layer within the insulation layer, the pipeline of the condensation section of the roof is located in the structural layer of the roof. In the outer plastering layer of the east wall, the evaporation section liquid separator 8, the liquid descending section 7, and the condensation section liquid collector 6 are respectively embedded in the outer plastering layer of the west wall. The connection of the descending pipeline at the junction of the north wall (or roof) structural layer and the east wall or west wall plastering layer, while overcoming the bending stress caused by the connection of metal pipelines and the generation of cold bridges, has an impact on the loop heat pipe structure and building The influence of its own thermal insulation performance, the said outer through inner wall casing 14 is placed at the connection between the north wall structural layer and the east wall outer plastering layer, the connection between the north wall structural layer and the west wall outer plastering layer, and the roof structure. The junction between the floor and the outer plastering layer of the east wall and the junction between the roof structure layer and the outer plastering layer of the west wall, namely: the outer casing 14 through the inner wall passes through the outer plastering layer of the west wall or the east wall and passes through the north wall. The outer plastering and insulation of the wall goes into the structural layer of the north wall (or roof). The outer and inner wall-penetrating casing 14 has a three-layer structure, the inner layer is an anti-extrusion rubber tube casing layer 14-1, the middle layer is a metal steel pipe layer 14-2, and the outer layer is a thermal insulation layer 14-3. The inner layer of anti-extrusion rubber tube casing 14-1 covers the connection between the north wall structural layer and the east wall external plastering layer, and the connection between the north wall structural layer and the west wall external plastering layer At the junction of the roof structure layer and the external plastering layer of the east wall, and the connection pipeline between the roof structure layer and the external plastering layer of the west wall, and each steam outlet of the condensing section steam separator 4 or the liquid collecting section of the condensing section The liquid inlet of the device 6.

所述环路热管系统中充入的相变工质,可为醇类(如乙醇、丙酮等)、空调用制冷剂(如R22、R134a、R410a等)或自然工质(如水、二氧化碳等)。相变工质的充入比例(充入体积/环路热管系统蒸发段体积)为20-150%。The phase change working fluid charged in the loop heat pipe system can be alcohols (such as ethanol, acetone, etc.), refrigerants for air conditioning (such as R22, R134a, R410a, etc.) or natural working fluids (such as water, carbon dioxide, etc.) . The charging ratio of the phase change working medium (charged volume/volume of the evaporation section of the loop heat pipe system) is 20-150%.

所述非透光墙体向阳面的外抹灰层或边坡面层优选为深色建筑材料,并添加金属粉末、石墨等添加剂,添加剂占外抹灰层或边坡面层材料组成的比例按重量百分比小于0.25%,表面太阳辐射热吸收系数大于0.5。The outer plastering layer or the slope surface layer on the sunny side of the non-translucent wall body is preferably a dark building material, and additives such as metal powder and graphite are added, and the additives account for the proportion of the material composition of the outer plastering layer or the slope surface layer. The weight percentage is less than 0.25%, and the surface solar radiation heat absorption coefficient is greater than 0.5.

所述环路热管系统中,蒸发段1的管体沿流动方向坡度范围为+0.5%至+5.0%,冷凝段5的管体沿流动方向坡度范围为-0.5%至-5.0%。In the loop heat pipe system, the slope of the tube body of the evaporation section 1 along the flow direction ranges from +0.5% to +5.0%, and the slope range of the tube body of the condensation section 5 along the flow direction ranges from -0.5% to -5.0%.

所述环路热管系统的蒸发段和冷凝段嵌管材料可为圆形或多边形金属或非金属管道,表面可嵌入针状或片状翅片,等效管径范围为5-25mm,管间距范围为100-300毫米。The evaporating section and condensing section of the loop heat pipe system can be made of circular or polygonal metal or non-metallic pipes, the surface can be embedded with needle-shaped or sheet-shaped fins, the equivalent pipe diameter is in the range of 5-25mm, and the distance between pipes is 5-25mm. The range is 100-300 mm.

本实用新型的一体化非透光墙体热激活节能建筑系统采暖季工作模式如下:冬季白天,南墙10外抹灰层、南侧边坡面层12在太阳辐射作用下不断积聚热量并逐渐升温。此时,南墙相比北墙温升较为明显,南墙与北墙之间传热温差逐渐增加。而对于传统建筑围护结构中,由于南墙外抹灰层置于外保温层以外,因此这部分热量基本未被有效利用即散失在周围环境中。本实用新型的热激活建筑系统则充分利用这一未被有效利用的低品位可再生能源。由于受到南墙外抹灰层、南墙边坡面层的加热,蒸发段1中的工质受热相变蒸发成为汽态工质,并积聚在环路热管系统蒸发段出口处的蒸发段集汽器2内以及蒸汽上升段3内。当南北墙温差达到一定值时(即相变力完全可以克服管路循环流动阻力时),汽态工质将携带热量并经蒸发段集汽器2、汽体上升管3以及冷凝段分汽器4进入环路热管冷凝段5,汽态工质在冷凝段5相变冷凝成为液态工质,并向混凝土层释放热量,达到为北墙加热、降低北墙负荷的目的。相变冷凝后的液态工质经冷凝段集液器6、液体下降段7和蒸发段分液器8进入蒸发段1,完成工质流动循环。The heating season working mode of the integrated non-translucent wall heat-activated energy-saving building system of the present invention is as follows: during the daytime in winter, the outer plastering layer of the south wall 10 and the surface layer 12 of the south side slope continuously accumulate heat under the action of solar radiation and gradually warming up. At this time, the temperature rise of the south wall is more obvious than that of the north wall, and the heat transfer temperature difference between the south wall and the north wall gradually increases. As for the traditional building envelope, since the outer plastering layer of the south wall is placed outside the outer thermal insulation layer, this part of the heat is basically not used effectively and is dissipated in the surrounding environment. The thermally activated building system of the present invention makes full use of this underutilized low-grade renewable energy. Due to the heating of the plastering layer outside the south wall and the surface layer of the slope of the south wall, the working medium in the evaporation section 1 is heated and evaporated into a vaporous working medium, and accumulates in the evaporation section at the outlet of the evaporation section of the loop heat pipe system. In the steam generator 2 and in the steam rising section 3. When the temperature difference between the north and south walls reaches a certain value (that is, when the phase change force can completely overcome the circulation resistance of the pipeline), the gaseous working medium will carry heat and pass through the vapor collector 2, the vapor riser 3 and the condensation section. The device 4 enters the condensing section 5 of the loop heat pipe, and the vaporous working medium is condensed into a liquid working medium in the condensing section 5, and releases heat to the concrete layer to achieve the purpose of heating the north wall and reducing the load of the north wall. The liquid working medium after phase change condensation enters the evaporation section 1 through the condensing section liquid collector 6, the liquid descending section 7 and the evaporation section liquid separator 8 to complete the working medium flow cycle.

综上所述,本实用新型的一体化非透光墙体热激活节能建筑系统整个循环过程无需任何机械驱动设备,可在冬季有效提升北墙温度,实现了太阳能被动式利用以及利用低技技术手段实现降低背阴面能耗的目的。To sum up, the whole cycle process of the integrated non-translucent wall thermally activated energy-saving building system of the present invention does not require any mechanical drive equipment, can effectively increase the temperature of the north wall in winter, and realizes the passive utilization of solar energy and the use of low-tech technical means. To achieve the purpose of reducing the energy consumption of the backside.

以上所述仅是本实用新型的优选实施方式,应当指出的是,对于本技术领域的普通技术人员来说,在不脱离本实用新型原理的前提下,还可以做出若干改进和润饰,这些改进和润饰也应视为本实用新型的保护范围。The above are only the preferred embodiments of the present invention. It should be pointed out that for those skilled in the art, some improvements and modifications can be made without departing from the principles of the present invention. Improvement and modification should also be regarded as the protection scope of the present invention.

Claims (9)

1.一种一体化非透光墙体热激活节能建筑系统,其特征在于,包括非透光墙体和环路热管系统,所述环路热管系统为由蒸发段、蒸发段集汽器、蒸汽上升段、冷凝段分汽器、冷凝段、冷凝段集液器、液体下降段、蒸发段分液器依次连通组成的封闭循环系统,所述环路热管系统中设置有相变工质;所述蒸发段嵌入所述非透光墙体向阳面的外抹灰层或边坡面层中,所述冷凝段嵌入所述非透光墙体背阴面的结构层中或屋顶结构层中;所述蒸发段的位置低于所述冷凝段的位置。1. an integrated non-translucent wall thermal activation energy-saving building system, is characterized in that, comprises non-translucent wall and loop heat pipe system, and described loop heat pipe system is composed of evaporation section, evaporation section steam collector, A closed circulation system consisting of a steam ascending section, a condensing section vapor separator, a condensing section, a condensing section liquid collector, a liquid descending section, and an evaporation section liquid separator are connected in sequence, and a phase change working medium is arranged in the loop heat pipe system; The evaporating section is embedded in the outer plastering layer or the side slope surface layer of the sun-facing side of the non-translucent wall, and the condensation section is embedded in the structural layer or the roof structural layer on the shady side of the non-transparent wall; The position of the evaporation section is lower than the position of the condensation section. 2.根据权利要求1所述的一体化非透光墙体热激活节能建筑系统,其特征在于,所述环路热管系统位于所述非透光墙体相邻墙体的交界处的部分分别设置有外穿内穿墙套管或外穿外穿墙套管。2 . The integrated non-translucent wall thermally activated energy-saving building system according to claim 1 , wherein the parts of the loop heat pipe system located at the junction of the adjacent walls of the non-translucent wall are respectively 2 . There is an outer-penetrating inner-wall-penetrating sleeve or an outer-penetrating outer-wall-penetrating sleeve. 3.根据权利要求1所述的一体化非透光墙体热激活节能建筑系统,其特征在于,所述非透光墙体向阳面的外抹灰层或边坡面层表面太阳辐射热吸收系数大于0.5。3 . The integrated non-translucent wall thermally activated energy-saving building system according to claim 1 , wherein the outer plastering layer or the surface of the slope surface of the non-translucent wall on the sunny side absorbs solar radiation heat. 4 . The coefficient is greater than 0.5. 4.根据权利要求3所述的一体化非透光墙体热激活节能建筑系统,其特征在于,位于首层的所述环路热管系统中,所述蒸发段嵌入所述边坡面层中,所述冷凝段嵌入所述非透光墙体北墙结构层中。The integrated non-translucent wall thermally activated energy-saving building system according to claim 3, characterized in that, in the loop heat pipe system located on the first floor, the evaporation section is embedded in the slope surface layer , the condensation section is embedded in the north wall structural layer of the non-transparent wall. 5.根据权利要求3所述的一体化非透光墙体热激活节能建筑系统,其特征在于,位于中间层的所述环路热管系统中,所述蒸发段嵌入所述非透光墙体南墙外抹灰层中,所述冷凝段嵌入所述非透光墙体北墙结构层中。5 . The integrated non-translucent wall thermally activated energy-saving building system according to claim 3 , wherein, in the loop heat pipe system located in the middle layer, the evaporation section is embedded in the non-translucent wall. 6 . In the outer plastering layer of the south wall, the condensation section is embedded in the structure layer of the north wall of the non-transparent wall. 6.根据权利要求3所述的一体化非透光墙体热激活节能建筑系统,其特征在于,位于屋顶的所述环路热管系统中,所述蒸发段嵌入所述非透光墙体南墙外抹灰层中,所述冷凝段嵌入屋顶结构层中。6 . The integrated non-translucent wall thermally activated energy-saving building system according to claim 3 , wherein in the loop heat pipe system located on the roof, the evaporation section is embedded in the south of the non-translucent wall. 7 . In the plastering layer outside the wall, the condensation section is embedded in the roof structure layer. 7.根据权利要求3所述的一体化非透光墙体热激活节能建筑系统,其特征在于,位于首层、中间层和屋顶的所述环路热管系统的蒸发段集汽器、蒸汽上升段、冷凝段集汽器分别嵌入东墙外抹灰层中。7. The integrated non-translucent wall heat-activated energy-saving building system according to claim 3, characterized in that, the vapor collectors, steam risers of the loop heat pipe system located on the first floor, middle floor and roof The section and condensation section steam collectors are respectively embedded in the plastering layer outside the east wall. 8.根据权利要求7所述的一体化非透光墙体热激活节能建筑系统,其特征在于,位于首层、中间层和屋顶的所述环路热管系统的蒸发段分液器、液体下降段、冷凝段集液器分别嵌入西墙外抹灰层中。8 . The integrated non-translucent wall thermally activated energy-saving building system according to claim 7 , wherein the evaporator section separator, liquid descender of the loop heat pipe system located on the first floor, middle floor and roof Section and condensation section liquid collectors are respectively embedded in the plastering layer outside the west wall. 9.根据权利要求3所述的一体化非透光墙体热激活节能建筑系统,其特征在于,所述环路热管系统中,所述蒸发段的管体沿流动方向的坡度范围为+0.5%至+5.0%,所述冷凝段的管体沿流动方向的坡度范围为-0.5%至-5.0%。9 . The integrated non-translucent wall thermally activated energy-saving building system according to claim 3 , wherein, in the loop heat pipe system, the slope of the pipe body of the evaporation section along the flow direction is +0.5. 10 . % to +5.0%, the gradient of the pipe body of the condensation section along the flow direction ranges from -0.5% to -5.0%.
CN201920338430.2U 2019-03-15 2019-03-15 Integrated non-light-transmitting wall thermal activation energy-saving building system Expired - Fee Related CN210086550U (en)

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Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN109853774A (en) * 2019-03-15 2019-06-07 天津商业大学 A kind of non-transparent wall hot activation energy saving building system of integration
CN111895832A (en) * 2020-08-18 2020-11-06 同济大学 A combined heat pipe system and a building structure for its application

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN109853774A (en) * 2019-03-15 2019-06-07 天津商业大学 A kind of non-transparent wall hot activation energy saving building system of integration
CN111895832A (en) * 2020-08-18 2020-11-06 同济大学 A combined heat pipe system and a building structure for its application

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