This printable guide is to be used in conjunction with the African Vision web site from the NMAfA. It offers six different activites to try on your own including connections between art and science as well as some games.

Through the integration of video lectures and hands-on activities, students are introduced to the laws of arithmetic and geometric sequences.

Through a video lecture, students discover the visual side of the important applications of mathematics in practical life. More specifically, they will understand the relationship of mathematics and decoration or art.

The aim of this video is to introduce high school students to the engineering concept of road construction and to the reasons why problems might arise in road construction. Presentation of this concept is made more accessible to students by comparing road construction to the art of baking a layer cake. This simple comparison can serve to emphasize how important it is to follow proper procedures and to use proper materials for successful road construction. [21:46]

A collection of five interactive activities and labs to help young learners understand science, technology, engineering, and mathematics concepts while also actively experiencing the engineering design process. This resource includes both educator and family guides, materials lists, and extension activities. Activities include an introduction to scientists, engineering, and the design process; designing an oven; ice cream and slime; movement; and growing a plant.

A collection of six interactive activities and labs to help young learners understand science, technology, engineering, and mathematics concepts while also actively experiencing the engineering design process. This resource includes both educator and family guides, materials lists, and extension activities. Activities include an introduction to scientists, engineering, and the design process; airplane flight; meteorologists; safe travelling; building a bird nest; and fossil hunting.

A collection of five interactive activities and labs to help young learners understand science, technology, engineering, and mathematics concepts while also actively experiencing the engineering design process. This resource includes an educator guide, materials list, and extension activities. Activities include an introduction to the engineering design process; magnetic energy; states of matter life cycle; and genetics.

A collection of four interactive activities and labs to help young learners understand science, technology, engineering, and mathematics concepts while also actively experiencing the engineering design process. This resource includes an educator guide, materials list, and extension activities. Activities include an introduction to the engineering design process; matter and its interactions; energy conversions; roller coaster design; building a pizza oven; and weathering and erosion.

A collection of four interactive activities and labs to help young learners understand science, technology, engineering, and mathematics concepts while also actively experiencing the engineering design process. This resource includes an educator guide, materials list, and extension activities. Activities include an introduction to the engineering design process; egg drop engineering; creating a periscope; ecosystems; plant structures and processes; and astronomy.

A collection of seven interactive activities and labs to help young learners understand science, technology, engineering, and mathematics concepts while also actively experiencing the engineering design process. This resource includes an educator guide, materials list, and extension activities. Activities include an introduction to the engineering design process; asteroid impact; density; variables; and physical science.

A collection of six interactive activities and labs to help young learners understand science, technology, engineering, and mathematics concepts while also actively experiencing the engineering design process. This resource includes both educator and family guides, materials lists, and extension activities. Activities include an introduction to scientists, engineering, and the design process; portable weather stations; shadow puppets; the Three Little Pigs; musical instruments; and designing a bird feeder.

Biology 2e is designed to cover the scope and sequence requirements of a typical two-semester biology course for science majors. The text provides comprehensive coverage of foundational research and core biology concepts through an evolutionary lens. Biology includes rich features that engage students in scientific inquiry, highlight careers in the biological sciences, and offer everyday applications. The book also includes various types of practice and homework questions that help students understand—and apply—key concepts. The 2nd edition has been revised to incorporate clearer, more current, and more dynamic explanations, while maintaining the same organization as the first edition. Art and illustrations have been substantially improved, and the textbook features additional assessments and related resources.

By the end of this section, you will be able to do the following:

Describe the main function and basic structure of stems
Compare and contrast the roles of dermal tissue, vascular tissue, and ground tissue
Distinguish between primary growth and secondary growth in stems
Summarize the origin of annual rings
List and describe examples of modified stems

This learning video introduces high school students to a topic they would not ordinarily study in school, biotechnology, and to different applications of biotechnology that relate to the main theme of the module - making the desert greener. [21:18]

How must the environmental and engineering factors of designing a bridge be combined to create a safe bridge? People have built bridges over rivers, canyons, and other barriers for centuries. As engineers developed better technology and materials, the bridges became larger and stronger. Regardless of the type, all bridges apply common science principles related to forces, including tension and compression. Bridges of the future must be designed with lightweight materials that can withstand extreme weather events. Engineers must design bridges to create safe pathways for multiple forms of transportation, including bike lanes, pedestrian walkways, and passage for large cargo ships. Bridges can also be a source of inspiration, community gathering, and pride in a place. Bridges of the future must be designed with the community and environment in mind. Students will consider design criteria and constraints when defining an engineering problem. While analyzing the phenomena of the Hassanabad bridge collapse, students will consider the environmental and social factors involved in developing a structurally sound future bridge.

This is a 3-hour lesson that includes a self-paced interactive module and classroom activities. The teacher guide includes a challenge sequence (timeline), relevance to standards, materials list, print-outs, assessment, evaluation rubric, and learning extensions.

Lesson objectives: (1) Define and analyze the structural elements of bridges, including beams, arches, trusses, and suspension. (2) Identify tension and compression (tensile and compressive) forces in different types of bridges. (3) Analyze variables (materials, shapes used in the design, environmental factors) engineers must consider when designing a bridge with structural integrity with the ability to withstand a load (weather, cars, people, etc.)

COSI Connects launches audiences of all ages into a universe of science through online videos, activities, plus a free mobile app that enables science exploration even when offline. COSI Connects is helping to bridge the digital divide, promote digital literacy, and address critical science education needs simultaneously. This repository of activities and videos is for learners of all ages and is a great supplement to at-home learning or for use in the classroom.

This website brings an abundance of career education and job shadowing videos to your computer, tablet or mobile device! These videos provide insight into a wide array of professions, as students plan the pathway that best suits them.

Careers in computer science and technology can be fun and rewarding. But what does a person working in these fields really do? With a vast variety of jobs and companies, there's not just one answer to this question. Watch the videos to meet some of the people who are tackling big problems in creative ways, then use one of the interactive tools below to learn more about fields and careers that interest you.