共查询到19条相似文献,搜索用时 125 毫秒
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城市发展过程中不可避免地出现绿地减少、环境污染等问题,屋顶花园是人类在有限的城市空间里拓展绿化面积的方式之一。通过分析屋顶花园当前发展现状及存在问题,总结屋顶花园的种植特点与难点,并从花境与屋顶花园种植技术之间的契合寻求突破口,探讨花境在屋顶花园应用的可行性。 相似文献
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基于济南地区的环境条件对屋顶花园的植物选择与配置应用进行了分析研究,阐述了屋顶花园植物选择的标准,筛选出了适合济南地区屋顶花园应用的园林植物40种,并总结了屋顶花园在不同形式应用下的植物配置方式。 相似文献
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浅谈屋顶花园的规划设计 总被引:1,自引:0,他引:1
屋顶花园是在各类建筑物的顶部栽植树木,建造各种园林小品所形成的绿地。屋顶花园的设计是巧妙利用主体建筑开辟绿化场地,恢复绿地,并使之有园林艺术的感染力。屋顶花园的设计应以人为本,坚持经济、实用、创新的原则,通过科学的艺术手法,合理布局山、石、花木,设计出人与环境相融合的现代城市绿化、绿地景观。 相似文献
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由于能改善屋顶眩光、美化城市景观、增加绿色空间,有效改善人们的工作和生活环境,屋顶花园日益得到人们青睐,屋顶花园艺术设计的效果也成为越来越多业主追求的目标。 相似文献
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1 屋顶花园的设计原则
1.1 实用性——屋顶花园的造园目的
屋顶花园的使用要求不同,形势也各异,因此首先要根据建造单位使用要求进行规划设计和建造。既然是屋顶花园,绿化或养花其基本点就是保证一定数量和绿化的覆盖率,它直接关系到屋顶花园绿化功能发挥。为充分发挥绿化的生态效能、环境效益和经济效益,屋顶上绿化覆盖率一般的低于屋顶面积的60%。除必要的园路及水面外,可充分利用屋顶女儿墙、花架、假山、花墙及建筑小品的墙柱及屋顶,进行垂直空间绿化。这样做的结果可能取得80%~90%的绿化覆盖率,甚至能达到超过原屋顶面积的绿化面积。 相似文献
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从屋顶花园在当今城市发展中的意义出发,结合国内外屋顶花园绿化植物研究,对屋顶环境生态因子进行分析,阐述我国屋顶绿化植物的选择原则及品种类型,详细列出国内几大屋顶花园建设区的植物选择品种。 相似文献
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屋顶绿化在城市绿化美化中占有重要作用,拥有巨大的市场潜力。通过对郑州市现有及施工中屋顶花园的调查勘测,从屋顶绿化的设计和工程两大部分进行研究分析,并对比两种屋顶绿化的建造形式(简单式屋顶绿化和花园式屋顶绿化)。总结郑州市屋顶绿化规划中存在的问题与不足,并针对这些问题和不足提出改进措施和规划意见。 相似文献
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屋顶菜园不仅适合生产无公害蔬菜,还能为顶层住户节能降耗,实现提前采收上市,在分析屋顶茄子设施栽培的适用范围和生产效益基础之上,从设施准备、品种选择、整地施肥、定植和定植后管理及采收等方面总结了适用于河南省的屋顶茄子设施栽培技术,为屋顶菜园的推广与普及提供了参考。 相似文献
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我国城镇化速度不断加快,而城市居家微空间蔬菜花园满足了城市部分居民的需求,形成了集生产、生活、生态于一体的精神需求和物质需求.为了更好地设计未来城市居家微空间蔬菜花园,以南京城市蔬菜花园设计为例,调查了南京地区典型的蔬菜花园设计案例,总结了南京城市居家微空间蔬菜花园的不同模式及其设施结构、植物种类等,其中模式主要有3种... 相似文献
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为了探讨屋顶绿化的生态效益,2013年7月选取重庆市园林事业管理局花园式屋顶绿化作为研究对象,以无绿化植物的屋顶水泥地作为对照,进行“乔-灌”、“灌-草”和草坪三种不同植物配置模式的气温、空气相对湿度、地表温度和空气中负氧离子含量测定。研究结果表明,屋顶绿化具有重要的生态效益,且不同植物配置模式的生态效益有较大差异。降温幅度为“乔-灌”(3.60℃)〉“灌~草”(2.68℃)〉草坪(1.43℃),增湿幅度为草坪(29.42%)〉“乔-灌”(17.68%)〉“灌-草”(9.46%),对地表温度的降低程度“乔-灌”(25.55℃)〉草坪(20.67℃);屋顶绿化空气负氧离子含量此对照高33.73ions/m^3。 相似文献
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Since spring 2011 the roof of a building on the Agripolis Campus of the University of Padova (Italy) has been used as a drainage area for two rain gardens with a circular area of about 10% and 20% of the drainage area respectively. To improve soil infiltration, the topsoil was removed up to the depth of 1 m and filled with a mix of 50% sand, 25% compost and 25% of the existing topsoil. Herbaceous perennials were selected and planted to test their adaptability to different soil water conditions in the rain garden. To evaluate the capacity of each rain garden to manage stormwater runoff a simplified water balance was done, estimating actual evapotranspiration using the WUCOLS method. From autumn 2012 runoff volumes were collected just from one pitch of the roof, and directed only into the smaller rain garden that became equal to 15% of the new roof drainage area. We thus had the possibility to test the functionality of rain gardens with three different percentages of roof drainage area: 10, 15 and 20%, even if in different periods. Results are presented relating to a four-year experimental period. Regarding hydrological behaviour, the input water volumes caused a slight overflow only during a few rainfall events. Consequently, the results showed a high capacity to manage stormwater runoff and also in the smaller rain garden almost the total roof runoff volumes infiltrated into the soil. As regards plants, the results indicated that the growth is affected by their position in the rain garden, from the wettest condition in the centre to the driest at the perimeter, except for Hemerocallis hybrida that showed great adaptability in all positions. Aster novi-belgii, Echinacea purpurea, Iris pseudacorus, Molinia caerulea and Rudbeckia fulgida also showed good adaptation, even if not in all rain garden zones, with highly aesthetic results. Lythrum salicaria and Saponaria officinalis plants appeared to be unsuitable for rain gardens. The results of the experiment have shown that, in the Veneto plain environment, rain gardens with a size of 10–15% of the roof drainage area can ensure both the sustainable management of stormwater runoff and a high aesthetic functionality. 相似文献
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Sky gardens have been actively studied and installed in different cities. Their development potential in compact developing cities has received little attention. Using remote sensing and GIS techniques, this study evaluates the vegetation configuration and development potential of sky gardens in urban Hong Kong, their underlying location, land use and building factors, and future planning and implementation concerns. Existing sky garden area is limited with sparse vegetation cover and low biomass. Existing podium gardens exceed roof gardens by about nine times. District development age has little effect on existing and potential sky gardens. Old towns have higher potential roof and podium gardens than new towns in most land uses. The effect of land use on potential sky gardens varies greatly by districts. Buildings with 10–20 floors have higher potential roof gardens in most districts. Building area is the main determinant of potential roof garden, and population density of potential podium gardens. Three scenarios of realization, namely minimum (20%), medium (50%) and maximum (80%), are adopted to project sky garden provision in individual districts. The projection extends to the contribution of new sky gardens to urban greening in terms of green cover and greening rate in districts. The challenges include susceptibility to typhoon damage in high-rise exposed sites, aggressive weed invasion, lack of roof-slab loading data in old buildings, and poor building maintenance. The opportunities include affordability of the new technology, enabling government policy, and establishment of scientific and research foundation in the local context. The development strategy could aim squarely at stringent technical standards and contractor skill requirement, and programme prioritization based on research findings. The study provides useful hints, approaches and recommendations for a systematic sky-garden action plan in Hong Kong and other similar compact cities. 相似文献