光超声通信通道

B. Saidov, V. Telezhkin
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引用次数: 3

摘要

超声在结构状态监测、生物医学超声成像、信息(数据)传输等方面有着广泛的应用。超声波收发器是现代通信系统的一种,可用于近距离和远程接入。事实上,利用基于超声波(US)振动的通信信道传输信息的过程技术和利用光纤传输的物理实现被广泛应用于数据处理的机密性条件下。同时,无线和有线通信的需求要求开发更先进的应用程序(软件,硬件解决方案)。特别是,对收发器的高频、宽带宽和小尺寸提出了新的挑战。的目标。考虑在数据传输和接收通道中使用的“技术-光-超声波”方法。这项技术包括利用光声效应的脉冲产生超声波,然后接收和处理超声波振动。基于光声(US)工作原理的光超声收发器具有很大的潜力,特别是可以获得必要的:(超高)频率的发射信号;宽频带(速度);易于作为收发器使用;制造成本低。材料和方法。研究了各种光谱分析方法(傅里叶和小波),以确保实现上述目标。结果。与传统的信息接收和传输技术相比,光超声收发器具有通信频率高、带宽宽、体积小等优点。结论。本文研究了光谱分析方法(傅立叶和小波),并在这些研究的基础上提出了实现光学超声收发器的可能选择,该收发器可以使用超快激光产生持续时间在纳秒级的超声脉冲,并以高度安全的方式接收机密数据。同时,通过将产生光声超声的原理与光纤的使用相结合,可以获得紧凑而廉价的超声波收发器。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
OPTO-ULTRASONIC COMMUNICATION CHANNELS
Ultrasound is widely used in various applications, such as monitoring the state of structures, biomed-ical ultrasound imaging, and information (data) transmission. Ultrasonic transceivers are one of the modern communication systems, both for short-range and remote access. Indeed, the technology of the process of transmitting information using communication channels based on ultrasonic (US) vi-brations and the physical implementation of transmission using optical fiber are widely used in con-ditions of confidentiality of data processing. At the same time, the needs of wireless and wired communication demanded the development of more advanced applications (software, hardware solutions). In particular, new challenges have arisen requiring transceivers to have high frequency, wide bandwidth and compact size. Aim. Consider the “technology – opto-ultrasonic” approach used in data transmission and reception channels. This technology involves the generation of ultrasound by a pulse using the optical-acoustic effect, followed by the reception and processing of ultrasonic vibrations. Optical ultrasonic transceivers based on the photo-acoustic (US) principle of operation have great potential, in particular, to obtain the necessary: (super high) frequency of the transmitted signal; wide bandwidth (speed); ease of use as transceivers; low manufacturing cost. Materials and methods. Various methods of spectral analysis (Fourier and Wavelet) have been in-vestigated to ensure the achievement of the above goal. Results. Compared to traditional technolo-gies of information reception and transmission, optical ultrasonic transceivers provide high-frequency communication, wide bandwidth and compact size. Conclusion. The paper investigates the methods of spectral analysis (Fourier and Wavelet) and proposes, based on these studies, possi-ble options for the implementation of optical ultrasonic transceivers that can generate ultrasonic pulses with a duration on a nanosecond scale using an ultrafast laser and receive confidential data with a high degree of security. At the same time, by combining the principle of generating photo-acoustic ultrasound with the use of optical fiber, it is possible to obtain compact and inexpensive ul-trasonic transceivers.
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