Missions & Courses

Hyperspectral imager mission (HyperSCAN-1)

1U CubeSat Project

Advanced Intelligent AI Environmental Monitor

Coordinated Lower-Mid-Upper Atmosphere Observation

https://drive.google.com/drive/u/0/folders/1yQHg2izwKGn2lWAMBpS44OYZx9HZnw5p

https://drive.google.com/drive/u/0/folders/1Gx1IEkVt_qcdXCxpMe34ePZarz8a8y4Q

The course reviews the basic space optics and related radiation environment, focus on the hyperspectral imager.

Part I. Hyperspectral Satellites

• Introduction to Hyperspectral Satellites (9/18)

• Airborne Visible/Infrared Imaging Spectrometer (9/25)

• Application of Hyperspectral Satellites in Earth Observations (10/2)

• Mission Concept (10/9)

• Hyperspectral Satellites and System Design (10/16)

Part II. Physics, Sensors and Algorithm

• Remote sensing environment (10/23)

• Radiometry (10/30)

• Atmosphere absorption (11/6)

• Aerosol scattering (11/13)

• Spectral Properties of Materials (11/27)

Part III. Code V Lab

• Overview software and install CODE V (12/4 提早到9點)

• Build a simple optical system with optical design software (--)

• Stop and Pupils (--)

• Performance analyses [spherical aberration, coma, astigmatism(--)]

11. Oral Report (12/25)

The course reviews the basic space optics and related near-earth laser communications.

Part I. Background Knowledge

• Near-Earth laser communications

• System engineering and design drivers

• Pointint, acquisition and tracking

• Laser transmitters: coherent and direct detection

• Flight optomechanical assembly

• Coding and modulation for free-space optical communications

• Photodetectors and receiver architectures

• Atmospheric channel

Lab

• Diffractive Optics Experiment

Part I. Background Knowledge

• Digital systems and binary numbers

• Boolean algebra and logic gates

• Gate-level minimization

• Combinational logic

• Synchronous sequential circuits

• Register and counters

Part II. Advanced applications

• Libero introduction & examples

• status machine

• Datapath

• Memory

The objective is to allow students to discover how the microcontroller monitor our environment. It will provide lectures and hands-on experiences of how an embedded system could be used to design your instruments for science purposes.

Introduction

1.Introduction to embedded system

2.Digital system

3.Structured_programming

4.Microcontroller architecture

5.MSP432 architecture

6.Development environment (CCS and Lab)

7.Embedded C language

Lab: 1.GPIO+LED+Buzzer+Button 2.Clock system+LPM mode

3.Serial port UART + Bluetooth 4.Timer 5.Comparator+ADC

6.Serial port SPI+I2C 7.SD card

Final project. Advanced microcontroller applications