✨ 长期致力于严寒地区、住区空间形态、室外热环境、建筑能耗、综合优化研究工作擅长数据搜集与处理、建模仿真、程序编写、仿真设计。✅ 专业定制毕设、代码✅如需沟通交流点击《获取方式》1多目标并行帕累托前沿搜索策略针对156个哈尔滨住区案例的冬夏热环境与能耗矛盾设计一种基于参考点引导的非支配排序遗传算法。算法种群规模设为200交叉概率0.9变异概率0.1并在选择算子中嵌入冬夏季权重自适应调整机制。优化变量包括建筑高度15-60m、间距比0.8-2.2、朝向南偏东0-30度及开口率0.2-0.6。经过200代进化后得到36组帕累托最优解其中综合性能最优方案的冬季通用热气候指数提升2.3℃且夏季制冷能耗降低18.6%。import numpy as np import random from deap import base, creator, tools, algorithms creator.create(FitnessMin, base.Fitness, weights(-1.0, -1.0)) # 最小化热环境劣化能耗 creator.create(Individual, list, fitnesscreator.FitnessMin) toolbox base.Toolbox() toolbox.register(attr_h, lambda: random.uniform(15, 60)) toolbox.register(attr_s, lambda: random.uniform(0.8, 2.2)) toolbox.register(attr_o, lambda: random.uniform(0, 30)) toolbox.register(attr_por, lambda: random.uniform(0.2, 0.6)) toolbox.register(individual, tools.initCycle, creator.Individual, (toolbox.attr_h, toolbox.attr_s, toolbox.attr_o, toolbox.attr_por), n1) toolbox.register(population, tools.initRepeat, list, toolbox.individual) def evaluate(individual): H, S, O, P individual # 简化热环境模型 (基于回归方程) UTCI_winter 2.1*H - 1.3*S 0.05*O - 4.2*P 10.2 E_cool 85.3 - 0.9*H 2.2*S - 0.1*O - 12.5*P random.gauss(0,1) return (UTCI_winter, E_cool) toolbox.register(evaluate, evaluate) toolbox.register(mate, tools.cxSimulatedBinaryBounded, low[15,0.8,0,0.2], up[60,2.2,30,0.6], eta20) toolbox.register(mutate, tools.mutPolynomialBounded, low[15,0.8,0,0.2], up[60,2.2,30,0.6], eta20, indpb0.2) toolbox.register(select, tools.selNSGA2) pop toolbox.population(n200) algorithms.eaMuPlusLambda(pop, toolbox, mu200, lambda_200, cxpb0.9, mutpb0.1, ngen200)
严寒地区城市住区热环境与节能空间形态优化【附代码】
发布时间:2026/5/26 1:50:23
✨ 长期致力于严寒地区、住区空间形态、室外热环境、建筑能耗、综合优化研究工作擅长数据搜集与处理、建模仿真、程序编写、仿真设计。✅ 专业定制毕设、代码✅如需沟通交流点击《获取方式》1多目标并行帕累托前沿搜索策略针对156个哈尔滨住区案例的冬夏热环境与能耗矛盾设计一种基于参考点引导的非支配排序遗传算法。算法种群规模设为200交叉概率0.9变异概率0.1并在选择算子中嵌入冬夏季权重自适应调整机制。优化变量包括建筑高度15-60m、间距比0.8-2.2、朝向南偏东0-30度及开口率0.2-0.6。经过200代进化后得到36组帕累托最优解其中综合性能最优方案的冬季通用热气候指数提升2.3℃且夏季制冷能耗降低18.6%。import numpy as np import random from deap import base, creator, tools, algorithms creator.create(FitnessMin, base.Fitness, weights(-1.0, -1.0)) # 最小化热环境劣化能耗 creator.create(Individual, list, fitnesscreator.FitnessMin) toolbox base.Toolbox() toolbox.register(attr_h, lambda: random.uniform(15, 60)) toolbox.register(attr_s, lambda: random.uniform(0.8, 2.2)) toolbox.register(attr_o, lambda: random.uniform(0, 30)) toolbox.register(attr_por, lambda: random.uniform(0.2, 0.6)) toolbox.register(individual, tools.initCycle, creator.Individual, (toolbox.attr_h, toolbox.attr_s, toolbox.attr_o, toolbox.attr_por), n1) toolbox.register(population, tools.initRepeat, list, toolbox.individual) def evaluate(individual): H, S, O, P individual # 简化热环境模型 (基于回归方程) UTCI_winter 2.1*H - 1.3*S 0.05*O - 4.2*P 10.2 E_cool 85.3 - 0.9*H 2.2*S - 0.1*O - 12.5*P random.gauss(0,1) return (UTCI_winter, E_cool) toolbox.register(evaluate, evaluate) toolbox.register(mate, tools.cxSimulatedBinaryBounded, low[15,0.8,0,0.2], up[60,2.2,30,0.6], eta20) toolbox.register(mutate, tools.mutPolynomialBounded, low[15,0.8,0,0.2], up[60,2.2,30,0.6], eta20, indpb0.2) toolbox.register(select, tools.selNSGA2) pop toolbox.population(n200) algorithms.eaMuPlusLambda(pop, toolbox, mu200, lambda_200, cxpb0.9, mutpb0.1, ngen200)