SATELLITE

Satellite Logo

The Satellite team (QSAT) develops a 3U CubeSat to compete in the CubeSat Design Challenge alongside other Canadian Universities with the aim of launching a satellite into space! The team consists of 6 sub-system teams: Communications, Electrical Power System (EPS), Attitude Determination & Control System (ADCS), Mechanical, and Payload which together form a functional satellite. Projects are often multidisciplinary and sub-teams consist of students from all programs and backgrounds. The team is entering its first year of a two-year competition cycle in Fall 2021, with competition scheduled for Summer 2023 at the Canadian Space Agency’s satellite testing facility in Ottawa. During the 2020-2021 school year, the team also participated in Canadian Stratospheric Balloon Experiment Design Challenge (CAN-SBX) and will be launching an experiment with prototype satellite systems on a high-altitude balloon in October 2021 in partnership with the CSA. QSAT also runs the Space School program, aimed at first years, to provide students with the essential skills and knowledge needed to start designing satellites. New team members are welcome to join the team directly or via Space School. 

Space School

The 3rd annual offering of Space School will be run during the 2021-2022 academic year and is open to all students interested in joining the QSET Satellite team. The program is geared towards first years but interested students in any year or program are welcome. Through weekly sessions, students will have the chance to build a small experiment designed to go to space – with the possibility to launch into the stratosphere on a high-altitude balloon! Skills learned include GitHub, working with Arduinos, basic circuits, soldering, PCB design, CAD & 3D printing, and designing for a space environment. Space School is run by senior QSAT team members in collaboration with Thomas Sears, a Queens PhD student with CubeSat industry experience. 

Subteams

ADCS

The attitude determination and control system allows the satellite to turn and reorient itself in space. Since we cannot rely on thrusters, we must use conservation of momentum and Earth’s magnetic field to control the satellites movement.

Communications System

The satellite’s communication system allows commands to be sent from the ground to the satellite and have the collected data on the satellite be sent back to Earth.

Onboard Computer System

The OBC is the network that connects and manages all the other subsystems. The OBC team works with microprocessors, memory banks, and interfacing chips to build and connect the computer to other sub-systems.

Electrical Power System

The power system collects energy using solar panels, stores it in a battery pack and distributes it to the other subsystems.

Payload System

The payload is the purpose for the CubeSat. This year, our payload is a camera module composed of a telescope and focusing lens. The end goal is to take pictures of the surface of the earth, then compress the images so they can be sent to the ground.

Mechanical System

Work on designing and manufacturing the mechanical components of the satellite while learning how to use CAD software such as Solidworks to design the structure.