@InProceedings{RodriguesAmbrCerq:2016:ToAuHy,
author = "Rodrigues, Italo Pinto and Ambrosio, Ana Maria and Cerqueira,
Christopher Schneider",
affiliation = "{Instituto Nacional de Pesquisas Espaciais (INPE)} and {Instituto
Nacional de Pesquisas Espaciais (INPE)} and {Instituto Nacional de
Pesquisas Espaciais (INPE)}",
title = "Towards an automated hybrid test and simulation framework to
functional verification of nanosatellites' electrical power supply
subsystem",
year = "2016",
organization = "Latin American IAA CubeSat Workshop, 2.",
abstract = "Tests in the space systems development life cycles are necessary
to early verify requirements fulfillment, ensuring that the
systems developed are correct. Nowadays, the efforts to develop
miniaturized satellites and their test suite is increasing.
Additionally, it is growing the initiatives is adopting MBSE
(Model Based System Engineering) to automate the processes of:
model design, simulation and model transformation. In MBSE
development approach, models are the focus of the activities. The
models describe requirements, functionalities and interfaces of a
system, and their subsystems, considered here as input models. In
the context of an Electrical Power Subsystem (EPS), the design
engineers have to (i) generate models representing solar array,
battery, voltage regulators, loads, etc., for implementation
solutions, and (ii) provide a verification plan, derived from
requirements, to ensure the correctness of the developed
functionality. In this scenario, the following question raises:
how to interconnect the input models with verification plans,
developed solutions and test executions? This paper aims to
describe the structure of an automated verification framework to
nanosatellites EPS, using COTS (commercial-of-the-shelf) tools,
such as MATLAB/Simulink, MS. Excel, and Arduino. We propose the
models are as granular as in the verification plans (it is not
possible to test internal behaviors from a black box artifact),
so, each model represent an element in a unique file and a
sequencer will integrate them, as a DSM (Design Structure Matrix)
in Excel. In the context of the proposed framework, the subsystem
verification enables three test configurations: fully simulated,
fully simulated considering physical interface model, and
hardware-in-the-loop (HIL). One advantage of the proposed
framework is to reuse models from the start of the mission
development, providing the reuse of these models throughout the
life cycle, minimizing costs. The paper shows also results of
development of the framework using an EPS behavioral model.",
conference-location = "Florian{\'o}polis, SC",
conference-year = "28 Feb. - 02 Mar.",
targetfile = "rodrigues.pdf",
urlaccessdate = "27 abr. 2024"
}