This activity introduces cybersecurity concerns with technologies commonly used in the livestock industry  in the context of a "clue" style activity in which students act as private investigators looking for a lost racehorse. It can be facilitated in 90 minutes, either in a single session or 4-5 shorter sessions. This activity is part of the Agricultural Cyberbiosecurity Education Resource Collection that contains resources for formal and non-formal agricultural educators working with middle school aged youth. Published as Open Educational Resources, all resources are provided in durable (pdf) and customizable (MS Word) formats. They are hosted on  GoOpenVA in a unique resource collection, Ag Cybersecurity Virginia Tech, at https://goopenva.org/curated-collections/143 and on on Virginia Tech’s stable repository, VTechWorks at https://doi.org/10.21061/cyberbiosecurity

Students will use their knowledge of famous Americans to create a “strong password.” They will then write a password for their given person using invisible ink.

How to use this formThis is a two-page activity, the first page the student describe him/herself. The student can write simple sentences such as: “Yo soy alto(a) = I am tall or simply write Alto/alta.  The second page is the same instructions; however the student would choose someone else such as his/her best friend or a family member. There are times where I have built from this small activity into a family project.

El módulo de Clima de High-Adventure Science tiene cinco actividades. El módulo explora la pregunta, "¿Cómo será el clima de la Tierra en el futuro?" A través de una serie de preguntas guiadas, explorarás las interacciones entre los factores que afectan el clima de la Tierra. Explora los datos de temperatura de núcleos de hielo, sedimentos y satélites, y los datos de gases de efecto invernadero de las mediciones atmosféricas, realiza experimentos con modelos computacionales y escucha de un científico del clima que trabaja para responder la misma pregunta. No podrás contestar la pregunta al final del módulo, pero podrás explicar cómo los científicos están seguros de que la Tierra se está calentando sin tener la certeza absoluta de cuánto se calentará.

Students will be able to create a magazine article written in Spanish with advice on living a healthy life.

DASHlink is a virtual laboratory for scientists and engineers to disseminate results and collaborate on research problems in health management technologies for aeronautics systems. Managed by the Integrated Vehicle Health Management project within NASA's Aviation Safety program, the Web site is designed to be a resource for anyone interested in data mining, IVHM, aeronautics and NASA.

Suicide Prevention. Know the signs.

The DISCOVER-AQ curriculum integrates real-word research with real-life learning to answer the question: What are the causes and effects of air quality issues and how do they affect human health and the environment?

This activity would be a great start to a unit on weather.  Ideally, students should create their weather instruments and use them to gather data over a period of at least several days, looking for trends in the weather such as temperature and cloud cover.  Show the weather PowerPoint to introduce weather tools and terms.  Divide students into teams of 3 or 4 to create one of the tools.  The following day, students should use the weather tool they create to take and record measurements using the “Weather Data Sheet."  Repeat this process several times over several days (or even weeks). 

In this activity, students extract DNA from Archaea or from their cheek cells. Students learn key concepts about DNA function during the intervals required for the extraction procedure. Student understanding of DNA structure, function and replication is further developed by additional analysis and discussion questions and hands-on modeling of DNA replication. This activity helps students meet the Next Generation Science Standards.

Learn about DNA. Deoxyribonucleic acid is the blueprint for all living things, but it is so small we can’t usually see it. The role of DNA is to provide our cells information on building proteins; these proteins lead to our individual traits such as eye color, height, dimples, and so much more. The structure of DNA is a double helix and we can model this structure at home. This model is based on the work of Rosalind Franklin, a British Chemist who created an X-ray photograph that provided evidence of the double-helix structure of DNA molecules. We can also extract DNA from a living thing, such as a strawberry, at home. The components of this DNA are so small that it does not look like our model; however, with technology scientists can both see the structure and manipulate the structure to change proteins in organisms. The key concepts and terms explored in this episode include DNA, nucleotides, genes, and genetically modified organisms (GMO's).

Students are tasked with creating a model of DNA, which they then photograph and include a written explanation of how the model represents DNA.

Students are tasked with creating a model of DNA and include a typed explanation of how it represents DNA.

This analysis and discussion activity can be used to introduce your students to key concepts about DNA structure, function and replication or to review these topics. This activity includes hands-on modeling of DNA replication.

Explore how the code embedded in DNA is translated into a protein. DNA transcription and mRNA translation are modeled.

Explore the relationship between the genetic code on the DNA strand and the resulting protein and rudimentary shape it forms. Through models of transcription and translation, you will discover this relationship and the resilience to mutations built into our genetic code. Start by exploring DNA's double helix with an interactive 3D model. Highlight base pairs, look at one or both strands, and turn hydrogen bonds on or off. Next, watch an animation of transcription, which creates RNA from DNA, and translation, which 'reads' the RNA codons to create a protein.

Explore the relationship between the genetic code on the DNA strand and the resulting protein and rudimentary shape it forms. Through models of transcription and translation, you will discover this relationship and the resilience to mutations built into our genetic code. Start by exploring DNA's double helix with an interactive 3D model. Highlight base pairs, look at one or both strands, and turn hydrogen bonds on or off. Next, watch an animation of transcription, which creates RNA from DNA, and translation, which reads the RNA codons to create a protein. Finally, make mutations to DNA and see the effects on the proteins that result. Learn why some mutations change the resulting protein while other mutations are "silent."

Science Instructional Plans (SIPs) help teachers align instruction with the Science Standards of Learning (SOL) by providing examples of how the content and the scientific and engineering practices found in the SOL and curriculum framework can be presented to students in the classroom.

Virginia’s dance arts instructional programs reinforce Virginia’s 21st Century Workplace Readiness Skills.

The Dance Arts Standards of Learning (SOL) are intentionally and directly aligned with the skills outlined in the Profile of a Virginia Graduate. This document demonstrates conatins statements taken directly from the 2020 Dance Arts SOL document and re-organized to show alignment to the “5 Cs”.