Emergency Broadband Access Network (EBAN) is a balloon-based broadband wireless access flies in low altitude (100-500 meter) offering various emergency applications. One of the applications may include IP video camera allowing the authority to observe the affected area and act accordingly. The emergency team can use WiFi coverage from EBAN sky station to get internet access, VoIP, video conference and tailored emergency applications such as Emergency Medical Care Information System (EMCIS). Atmospheric disturbances and its effect to the system performance are considered in term of platform and communication design. WiFi solution is selected because of its popularity and relatively easy to deploy. According to the trial result the WiFi-based EBAN system is able to provide coverage about 5.5 km radius or 72 km square from sky station at altitude 440 meter.

The means of designing an effective user interface software package varies from one application to another. Almost the entire ICT infrastructure was damaged following the impact of the tsunami tidal wave. Under such circumstances, transporting critically ill patients is a must and becomes the first priority. Many considerations are needed when designing a specific user interface for emergency situations in developing countries. In this study we proposed how to design the user interface in order to support emergency medical care in the early stages of disasters. The user interface was classified into two tabs, firstly to indicate critically ill patients and secondly to notify details of the medicine having been administered to the patients. Classifying the user interface of emergency medical care information systems by using VHF radio connections will be beneficial, especially for the early stages of disaster-stricken developing countries, in order to preserve the lives of more victims.

An Induction motor is an electric machine that converts electrical energy into kinetics energy and widely used in the industrial fields. Many disturbances that occur in the motor that cause production to be not optimal as for the problems that occur at PT. Madu Baru Yogyakarta is when there is a disturbance in the three-phase induction motor, workers still use manual methods to analyze the disturbance, so that the time used in the analysis takes a long time even the three-phase induction motor cannot work again. In overcoming this, it is necessary to implement a data logger system that can detect the electrical parameters of a three-phase induction motor in real time, in order to make it easier to analyze existing disturbances through graphs. The voltage sensor CYVS13-34U0 and current sensor SCT-019 will detect the electrical parameters which will then be processed by the Arduino Mega 2560 pro so that the processed data will be stored on the microsd card. The data resulting from the processing are electrical parameters in the form of voltage, current, apparent power, real power, reactive power, and power factor. The data will be saved as a file with .txt format which has an interval of about 1 minute for each storage.