Wave Dynamics of the Average Annual Temperature Surface Air Layer New Delhi for 1931-2021

Peter Matveevich
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引用次数: 3

Abstract

The identification method revealed asymmetric fluctuations in the dynamics of the average annual temperature in New Delhi from 1931 to 2021, that is, for 90 years. An analysis of the wave patterns of climate until 2110 was carried out. Geotechnology of the Himalayan passage was proposed to reduce heat waves in India and China. Formulas containing four and 18 fluctuations were adopted for forecasting. Models give an increase in the heat wave from 2021, which is the fourth component. As a result, the landscape of the Himalayan mountains and the deserts of Thar and Takla Makan create a regional climate system that is original for the land of the Earth. In this system, oscillatory temperature adaptation in the future will be several times greater than the global warming rate predicted in the IPCC CMIP5 report. Between 2001 and 2019 the largest temperature increase wave maximum was observed in New Delhi at 0.65 °C in 2012-2013. In the sixth phase from 2036 to 2049, an ecological catastrophe will break out in New Delhi. According to calculations, the maximum value of the average annual temperature in New Delhi was 25.82 °C in 2017. Since then, the cooling has continued for four years, which will continue until 2028. The temperature will drop to 22.54 °C due to a change in solar activity by 3.28 °C. Then by 2044, the average annual temperature in New Delhi will increase to 31.03 °C, or the increment will be 31.03 – 22.54 = 8.49 °C. In 2035, the climate in New Delhi will become hotter compared to 2021. The increase in the heat wave is noticeable. From 1931 to 2049 there will be six half-periods of cooling and warming: 1) 23; 2) 23; 3) 20; 4) 18; 5) 15; 6) 13 years old. The most dangerous is the sixth stage. It is proposed at the fifth stage for 15 years until 2037 in northern India to the Takla Makan desert in China to build a passage up to 350 km long, 10 km-20 km wide and at least 4.5 km high.
1931-2021年新德里地面空气层年平均温度的波动动力学
识别方法揭示了1931 - 2021年(即90年)新德里年平均气温动态的不对称波动。对2110年以前的气候波型进行了分析。喜马拉雅通道的地质技术被提议用于减少印度和中国的热浪。采用包含4和18个波动的公式进行预测。模型显示,从2021年开始,热浪会增加,这是第四个组成部分。因此,喜马拉雅山脉的景观以及塔尔和塔克拉玛干的沙漠创造了一个地球上原始的区域气候系统。在这个系统中,未来的振荡温度适应将比IPCC CMIP5报告预测的全球变暖速率大几倍。2001年至2019年期间,新德里观测到的最大升温波最大值为2012-2013年的0.65°C。在第六个阶段,从2036年到2049年,一场生态灾难将在新德里爆发。根据计算,2017年新德里的年平均气温最大值为25.82°C。此后,降温持续了4年,将持续到2028年。由于太阳活动变化3.28°C,气温将降至22.54°C。到2044年,新德里的年平均气温将增加到31.03℃,即增量为31.03 - 22.54 = 8.49℃。2035年,新德里的气候将比2021年更热。热浪的增加是显而易见的。从1931年到2049年,将有六个变冷和变暖的半衰期:1)23;2) 23;3) 20;4) 18;5) 15;6) 13岁。最危险的是第六阶段。在第五个阶段,计划用15年时间,直到2037年,在印度北部至中国的塔克拉玛干沙漠修建一条长达350公里,10公里至20公里宽,至少4.5公里高的通道。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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