Introductions to CubeSat
CubeSats are important mini satellites that have huge roles in both the scientific and commercial sectors.
CubeSats were pioneered by California Polytechnic State University in 1999 and quickly became popular tools for students seeking to learn all aspects of spacecraft design and development.
Today, CubeSats are opening up space research to public and private entities like never before.
Are CubeSats transforming the future of space discovery and education?
Many experts in the space technology sector believe so. Scientists, like those from NASA, are increasingly using CubeSats to look out at space — searching for water ice on the dark side of the moon, hunting for extrasolar planets that might be habitable, and exploring deep space. And they’re also looking back at Earth — and assisting farmers in preventing crop damage and increasing yield.
CubeSats further provide a complementary connectivity solution to the pervasive Internet of Things (IoT) networks, leading to a globally connected cyber-physical system. Several future research directions for CubeSat communications, including Internet of space things, low-power long-range networks, and machine learning for CubeSat resource allocation.
The burgeoning CubeSat community can take advantage of a variety of payloads and mission applications that CubeSats can support at economically attractive costs.
In fact, launching a conventional satellite into space can cost anywhere between $10 million and $400 million, depending on the vehicle used. A CubeSat launch is around $40,000.
CubeSats also require shorter development times. This is key because analysts insist the new Space Age is about the ability to start projects quickly, without waiting too long.
A conventional satellite requires very long development times, between five and 15 years. On the other hand, the first CubeSat of a constellation can be in space within eight months, and if we are talking about replicas, this wait is reduced to only two months.
CubeSats also tend to incorporate more modern, up-to-date technology. It’s no secret that technological advances are moving at a dizzying speed. It is not difficult to find functioning satellites that use technology from more than 25 years ago.
Introductions to CubeSat Course by Tonex
Introductions to CubeSat is a 2-day covering the basic concepts and processes for
CubeSat analysis, design and developments. Participants will learn about the CubeSats or miniature satellites that have been used exclusively in Low Earth Orbit (LEO), and can be used for exploring and interplanetary missions. In the beginning, however, they were commonly used in low Earth orbit for applications such as remote sensing or communications.
Nanosatellites are loosely defined as any satellite weighing less than 10 kilograms. The basic design of a CubeSat is a 10-centimeter (4-inch) cube with a mass of less than 1.33 kilograms (2.93 lbs.). CubeSats can also be designed to encompass two, three or six 10-centimeter units for more complicated missions. CubeSats shall also comply with a series of specific criteria that control factors such as their shape, size and weight.
The standard CubeSat unit, a cube-shaped structure measuring 10x10x10 centimetres, has with a mass of somewhere between 1 and 1.33 kg (AKA as 1U). This modular unit is now multiplied and larger nanosatellites such (1.5U, 2U, 3U or 6U).
Fundamentals of CubeSats
- CubeSats Use Cases
- Satellite Types
- Satellite Types and the Mass
- Large satellites: More than 1,000 kg
- Medium-sized satellites: 500-1,000 kg
- Small satellites
- Minisatellite: 100-500 kg
- Microsatellite: 10-100 kg
- Nanosatellite: 1-10 kg
- Picosatellite: Less than 1 kg
- CubeSat Launch Initiatives
- CubeSats System Survey
- Mission Models
- Operationally Responsive Space (ORS) Rideshare
- National Reconnaissance Office (NRO) Rideshare
- International Space Station (ISS) Deployment Mission Model
- Commercial Launch Services
- Attitude control
- Thermal management
CubeSat Architecture and Design
- CubeSat Reference Architecture CubeSats Systems Engineering Design Process
- Model Based Systems Engineering (MBSE) applied to CubeSats
- System Inputs
- Desired System Outputs
- System Level Architecture
- CubeSat RF Engineering
- Communication Protocols
- Launch Vehicles
- CubeSat Dispenser Systems
- 3U Dispensers
- 6U Dispensers
- Launch Vehicles Rockets
- Development Process Overview
- Ground Station Design, Development, and Testing
- CubeSat Software Design and Implementation
- CubeSat Testing
- CubeSat Hardware Fabrication and Testing
- CubeSat Software Testing
- Mission Readiness Reviews
- CubeSat-to-Dispenser Integration and Testing
- Mission Operations
CubeSat Design Specifications (CDS)
- Range Safety Requirements
- Licensing Procedures
- Radio Frequency (RF) Licensing
- Remote Sensing
- Flight Certification
- Orbital Debris Mitigation Compliance
- Transmitter Surveys
- CubeSat Components
- Materials List
- Environment Testing (Vibration/Shock)
- 693 Thermal Vacuum Bakeout Testing
- Safety and Reliability
- CubeSat Verification and Validation (V&V)
- Acceptance Checklists
- Technical Reference Documents for CubeSat
- Requirements Verification
- CubeSat Cybersecurity Attacks and Mitigation
- Space Cybersecurity
- CubeSat Networking, Systems, Technologies, Databases
- CubeSat Defensive and Offensive Cybersecurity
- CubeSats Vulnerabilities and Hackers
- Securing Satellites and CubeSats
- CubeSat Threat Models and Mitigation
CubeSat Case Study
- Business Case for a CubeSat-based Earth Imaging Constellation
- Tools to to Build a CubeSat
- CubeSat cost and Components
Introductions to CubeSat