天文信息的处理模式研究
Research on the Processing Mode of Astronomical Information
DOI: 10.12677/JA.2019.74004, PDF,  被引量   
作者: 陈 宇:北京师范大学天文系,北京;陈寿元:山东师范大学信息科学与工程学院,山东 济南
关键词: 现代通信天文信息处理模式信号与通信系统Modern Communications Astronomical Information Processing Mode Signals and Communication Systems
摘要: 该文研究目的:寻求由天文信息到天文现象的处理模式,特别是更合理诠释宇宙红移、超新星等现代天文信息的处理模式。研究的方法:总结前人处理天文信息的模式优缺点,如托勒密为代表的天真模式、哥白尼的理性模式、大爆炸的多普勒效应模式、本文企图用现代通信模式处理天文信息,多模式处理结论具有对比性,看出模型优势。现代天文信息的处理模式为大爆炸的多普勒效应模式,优点促进宇宙学的发展。但是缺点也是致命的,所有结论支撑点——多普勒效应。整个宇宙来源于一点的大爆炸,比托勒密的宇宙围绕地球转的结论更荒唐。通信系统及理论对信号的处理非常完备,已经模块化、技术标准化。光纤通信对光信号发射、传播、接收、交换等技术非常先进;还有移动通信、卫星通信。采用现代通信理论处理天文信息应该是更先进的处理模式。由收到的天文信息,采用通信模式进行追溯,得到天体发射端信号源的信号,依据发射源的信号推测天文现象,应该更合理。研究结果:宇宙红移是光波在太空信道传播所致,多普勒效应所致缺乏依据。宇宙不用膨胀、更不用大爆炸。地面收到的超新星暴发的信息:超新星爆发式脉冲信号对二阶阻尼信道的冲击响应,这种响应比连续信号在信道传输不同,具有脉冲展宽独特作用,使得亮度衰减更快,红移更大。多普勒效应的宇宙加速膨胀缺乏依据。研究结论:天文信息的多模式处理,哥白尼的理性模式比托勒密天真模式具有明显的优势。经过星系、超新星等信息处理结果对比,通信模式比大爆炸的多普勒效应模式具有非常大的优势,它更科学、处理效果更好。星系不用后退,宇宙不用膨胀,不会加速膨胀,更不用大爆炸。
Abstract: The purpose of this paper is to seek the processing mode from astronomical information to astro-nomical phenomena, especially to interpret the processing mode of modern astronomical infor-mation such as cosmic red shift and supernova more rationally. Methods of research: Summarizing the advantages and disadvantages of previous models for handling astronomical information, such as the naive model represented by Ptolemy, the rational model of Copernicus, the Doppler Effect Model of the Big Bang, and the attempt to use modern communication modes to process as-tronomical information. Multi-mode processing conclusions are comparable. We can see the ad-vantage of the model. The processing mode of modern astronomical information is the Doppler Effect mode of the Big Bang, which has the advantage of promoting the development of cosmology. However, the shortcomings are also fatal. All conclusions support the Doppler Effect. The entire universe originated from the Big Bang of one point, which is even more absurd than the conclusion that Ptolemy’s universe revolves around the earth. Communication systems and theories are very complete in processing signals and have been modular and technically standardized. Optical fiber communication is very advanced for optical signal transmission, transmission, reception, exchange and other technologies; there are also mobile communications and satellite communications. The use of modern communication theory to deal with astronomical information should be a more advanced processing model. From the received astronomical information, the communication mode is used to trace the signal from the signal source of the celestial body transmitter. It should be more reasonable to infer the astronomical phenomenon based on the signal from the transmitting source. Results: The red shift of the universe is caused by the propagation of light waves in the space channel and the lack of evidence due to the Doppler Effect. The universe does not need to expand, let alone exploding. Information received on the ground about supernova outbreaks: supernova burst pulse signals respond to the impact of second-order damping channels. This response is different from that of continuous signals in the channel. It has a unique function of pulse broadening, making the brightness decay faster and the redshift greater. There is no basis for the accelerated expansion of the universe with Doppler Effect. The conclusion is that the rational model of Copernicus has obvious advantages over Ptolemy’s naive model in multimode processing of astronomical information. After comparing the results of information processing such as galaxies and supernovae, the communication mode has a great advantage over the Doppler Effect mode of the big explosion, and it is more scientific and better processing effect. The Galaxy does not need to retreat; the universe does not expand, does not accelerate expansion, and does not explode.
文章引用:陈宇, 陈寿元. 天文信息的处理模式研究[J]. 天线学报, 2018, 7(4): 25-34. https://doi.org/10.12677/JA.2019.74004

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