Communication and Presentation Skills

Communication is a fundamental skill necessary for building and maintaining positive relationships in personal and professional environments.
Effective communication is crucial for conveying clearly organized messages to public audiences and working effectively in groups.
It is also essential for acing job interviews and succeeding in the workforce.

Developing soft skills is vital for students preparing for college and entering the workforce.
Soft skills are integrated skills that college students require to succeed in their academic and professional careers.

The course primarily focuses on developing oral communication skills in various contexts.
Students will have the opportunity to develop many communication skills throughout the course.

Personal attributes enable individuals to interact effectively with others.
Self-management skills involve managing one's behaviors, thoughts, feelings, and actions in a conscious and productive way.
The workforce refers to the people available to work or employed in a particular area, industry, or company.

A circuit is a path for electric current flow from a power source, through devices, and back to the source.
Series circuits connect devices one after the other, with current flowing through each device in sequence.
Parallel circuits connect devices between the same two points, with current flowing through each device independently.
Circuit components include:
- Resistors, which control voltage and current, measured in ohms (Ω).
- Capacitors, which store energy, measured in farads (F).
- Inductors, which store energy in a magnetic field, measured in henries (H).
- Diodes, which allow current to flow in one direction, used for rectification and switching.
- Transistors, which amplify or switch electronic signals, used for amplification and switching.

A microcontroller is a small computer on a single integrated circuit (IC) containing a processor, memory, and input/output peripherals.
Microcontroller architectures include:
- Von Neumann architecture, where processor, memory, and I/O peripherals are separate components.
- Harvard architecture, where processor and memory are separate components with separate buses for data and instructions.
Microcontroller components include:
- Central Processing Unit (CPU), which executes instructions and performs calculations.
- Memory, which stores program instructions and data, including types like RAM, ROM, and EPROM.
- Input/Output (I/O) peripherals, which interface with external devices like sensors, displays, and actuators.
Microcontroller programming involves:
- Assembly language, which uses symbolic codes to represent machine instructions.
- High-level language, which uses programming languages like C or Python to write code.

Robotics is the study of robots, which are machines programmed to perform tasks autonomously.
Robotics components include:
- Sensors, which detect and respond to environmental stimuli like light, sound, and touch.
- Actuators, which perform actions like movement or grasping.
- Microcontrollers, which control and coordinate robotic actions.
- Power sources, such as batteries, motors, or other energy sources.
Robotics applications include:
- Industrial automation, where robots perform tasks in manufacturing and assembly lines.
- Service robots, which perform tasks that assist humans, like cleaning or cooking.
- Autonomous vehicles, which navigate and make decisions in transportation.
Robotics programming involves:
- Control systems, which use algorithms to control robotic movements and actions.
- Machine learning, where robots learn from experience and adapt to new situations.
- Computer vision, where robots process and interpret visual data from cameras and sensors.