在人体血管中移动的受控微型机器人

Q3 Mathematics
A. Gorodetskiy, I. Tarasova, V. G. Kurbanov
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引用次数: 0

摘要

引言:能够根据给定的交通在人类船只中移动的受控微型机器人的创建是一个复杂的问题。解决这一问题的有效途径是采用智能机电系统(SEMS)模块。这些模块以一种特殊的方式连接起来,可以模拟纤毛装置或鞭毛虫推进器的操作,这些装置被用作微型机器人的推进装置。目的:研制一种基于标准SEMS模块的可控医疗微型机器人。结果:研制出一种医用微型机器人。讨论了此类微型机器人的集体运动控制原理。作为自动控制系统的中枢神经系统在微机器人群体控制中起着特殊的作用。在对一组微型机器人进行最优情境控制时,将逻辑-概率和逻辑-语言约束转化为逻辑-区间约束,将优化问题简化为求解一些经典的数学规划问题。实际意义:在医疗微型机器人中使用各种组合的SEMS模块可以提高它们的准确性,速度和对环境的适应性。这是因为在这种情况下,与微型机器人中常用的机构相比,不仅在测量和计算过程中引入了并行性,而且在控制命令的执行中也引入了并行性。开发模块的设计特点使您能够提供各种生物医学机器人综合体的广泛技术能力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Controlled microrobot for moving in human vessels
Introduction: The creation of controlled microrobots capable of moving in human vessels in accordance with a given traffic is asophisticated problem. An effective way to solve it is the use of SEMS (Smart ElectroMechanical System) modules. These modulesconnected in a special way can simulate the operation of a ciliary apparatus or a flagellated propulsor used as propulsive devices for amicrorobot. Purpose: Development of a controlled medical microrobot based on standard SEMS modules. Results: A medical microrobotis developed. The principles of collective movement control for such microrobots are discussed. A special role in microrobot groupcontrol is assigned to the central nervous system of a microrobot which functions as an automatic control system. When synthesizingan optimal situational control over a group of microrobots, logical-probabilistic and logical-linguistic constraints are translatedinto logical-interval ones, reducing the optimization problem to solving a number of classical mathematical programming problems.Practical relevance: The use of various combinations of SEMS modules in medical microrobots allows you to increase their accuracy,speed and adaptability to the environment. This is because in this case, in contrast to the mechanisms commonly used in microrobots,parallelism is introduced not only in the measurement and calculation processes, but also in the execution of control commands. Thedesign features of the developed modules allow you to provide broad technological capabilities of various biomedical robotic complexes.
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来源期刊
Informatsionno-Upravliaiushchie Sistemy
Informatsionno-Upravliaiushchie Sistemy Mathematics-Control and Optimization
CiteScore
1.40
自引率
0.00%
发文量
35
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