Remotely Piloted Aircraft (RPA) controls as a type of unmanned aerial vehicle (drone) is growing rapidly and its flight controller stick disposition is required standardization. We should standardize RPA drone flight control disposition because the flight pilot of RPA is hard to be trained so the flight controller stick differences impairs safety and wastes time and effort of flight controller industry. So this study researches the on-going standardization of RPA drone flight control disposition in Korea and foreign countries. Also this paper analyzes and researches of expert about RPA drone flight controller function and application of flight control mode. I accomplished expert research about standardization plan of unmanned flight control mode and confirm the necessity. Nowadays mode1 and 2 are mostly used in Korea so I carried out preference investigation for two modes. There were 4 preferences choices of RPA drone control mode necessity (importance) and recommendation of standardization modes. They answered that necessity of standardization is important considering pilot training, flight safety and positive development of drone industry. The result of standardization mode preference is that they prefer mode 2 (drone maker 86%, training facilities and research facilities 58%, government bureau 60%). Overall preference result shows that mode 1 24%, mode 1&2 16%, mode 2 60%. So they preferred mode 2 by 60%. The differences between two modes are the direction of throttle and pitch. Direction of throttle and pitch operate opposite way. They prefer mode 2 because mode 2 has similarities of manned flight control mode. Significance of this study is that it showed the necessity of standardization and flight control preference in a quantitative way. It will help drone standardization in related industries and development direction near future.

As a continuing effort to develop an automatic control system for small telescope, we developed the software for telescope control and CCD observations under DOS operating system. For accurate pointing of the telescope in short amount of time, we modelled the angular speed of the telescope by aquadratic function of time (constant acceleration) for the first 15 second and then linear function of time (zero acceleration) aftwewards. By changing the telescope speed from 'slew' to 'fine' before the telescope reaches the desired position, we could achieve the accuracy of a few arcsecond. The CCD control software was written for model CCD-10 of CCD Technology. This CCD can be used for guiding purposes. We also conducted the study for remote control of the telescope using telephone line. Although it cannot be used for real observations at the present form, we succeded in remotely pointing the telescope to desired direction. As faster communication technologies become widely available, simple observations can be made remotely in the near future. Finally we report some observational results made with the present control system.

본(本) 연구(硏究)는 고성능(高性能) 농약(農藥) 살포기인 스피드 스프레이어에 있어서 농약(農藥)살포 시(時) 인체(人體)에 해로운 농약(農藥)으로부터 오퍼레이터를 보호(保護)하기 위하여 무인(無人) 운전(運轉) 연구(硏究)의 일환(一環)으로 원칩 마이크로 컴퓨터를 이용(利用)하여 원격조종(遠隔操縱) 변속장치(變速裝置)를 개발(開發)할 목적(目的)으로 수행(遂行)한 연구(硏究)에서 얻어진 결과(結果)를 要約(요약)하면 다음과 같다. 1. 시작(試作)한 원칩 마이크로 컴퓨터를 이용(利用)한 원격조종(遠隔操縱) 변속장치(變速裝置)는 변속조작(變速操作) 100회(回) 중(中) 오동작(吳動作)이 전무(全無)하여 조작성(操作性)이 정확(正確)하였다. 2. 使用된 원칩 마이크로 컴퓨터의 프로그램은 기계어(機械語)로 작성(作成)되었으며, 변속조작(變速操作) 시간(時間)이 3초(初) 이내(以內)로 사람에 의한 변속조작(變速操作) 시간(時間)과 거의 같았다. 3. 본(本) 연구(硏究)에 사용(使用)한 원칩 마이크로 컴퓨터는 지금까지 자동화(自動化) 장치(裝置)에 많이 도입(導入) 사용(使用)하던 퍼스널 컴퓨터, 랩탑 컴퓨터, 원 보오도 컴퓨터 등과 비교하여 볼 때 극소형(極小型)으로 소비전력(消費電力)이 작으며 염가(廉價)이기 때문에 농업용(農業用)으로 적합(適合)하다고 사료(思料)된다. 4. 본(本) 연구(硏究)에 사용(使用)된 변속장치(變速裝置)는 승용(乘用) 농업기계(農業機械)와 같은 형식(形式)의 것이므로 농업용(農業用) 트렉터 및 포장기계(圃場機械)의 자동화(自動化) 기계(機械)에도 적용(適用)될 것으로 판단(判斷)된다. 5. 본(本) 실험장치(實驗裝置)는 직접(直接)레버조작(操作) 및 원격조종(遠隔操縱)이 동시(同時)에 이루어지도록 제작(製作)하였기 때문에 구조적(構造的)으로 복잡(複雜)하나 직접(直接)레버 조작부(操作部)를 제거(除去)하고 원격조종부(遠隔操縱部)만 스피드 스프레이어에 장착(裝着)하면 더욱더 소형화(小型化) 되고 중량(重量)도 더 가벼워져 사용(使用)하기에 편리(便利)한 장치(裝置)가 될 것으로 사료(思料)된다.

Recently, although the need of marine robots being raised in extreme areas, the basis is very deficient. Fortunately, as the robot competition is vitalizing and the need of the robot education is increasing, it is desirable to establish the basis of the R&D and industrialization of marine robots and to train professionals through the development and diffusion of marine robot kits. However, in conventional case, there is no remotely operated aerial robot‐kit based on the balloon for the marine robot competition, which has the abilities of the airborne locomotion and obstacle avoidance. To solve this problem, an aerial robot‐kit which has the abilities of the airborne locomotion and remote control, is developed. To verify the performance of the developed kit, test and evaluation such as surge, yaw and pitch is performed. The test and evaluation results show that the possibility of the real applications of the developed kit.

An increasing number of researches and developments for personal or professional service robots are attracting a lot of attention and interest industrially and academically during the past decade. Furthermore, the development of intelligent robots is intensively fostered as strategic industry. Until now, most of practical and commercial service robots are worked by remotely operated controller. The most important technical issue of remote control is a wireless communication, especially in the indoor and unstructured environments where communication infrastructures might be destroyed by various disasters. Therefore we propose a multi-robot following navigation method for securing the valid communication distance extension of the remote control based on WPAN(Wireless Personal Area Networks). The concept and implementation of following navigation are introduced and the performance verification is performed through real navigation experiments in real or test-bed environments.