Bees and Technology

Overview

Today students investigate how technology supports beekeeping and agriculture across a product life cycle, from identifying needs to selecting tools and processes. They will research, complete a multiple-choice check, and then create and present a creative poster proposing a technology solution to improve hive management and/or crop outcomes.

Learning intentions

Students will:

• explain why people design and innovate technologies that support beekeeping and agriculture
• investigate tools, materials, processes and components used to monitor hives and crops
• select and justify an appropriate technology concept for an identified need (e.g. honey yield, pollination, hive health, sustainability)
• present design ideas using clear criteria and respectful language about ethical and environmental considerations

Success criteria

Students can:

• identify at least three technology uses in beekeeping/agriculture (monitoring, navigation/field work, data recording, automation)
• choose an appropriate sensor/drone/data tool for a scenario and justify their choice using evidence from research
• complete a multiple-choice task with explanations for correct answers
• create a poster that includes: the need, the proposed technology, how it works, safety/ethical notes, and how success will be evaluated

Curriculum links

• VC2TDE8D01: explain needs or opportunities for designing, and investigate/select tools, materials, processes and components for designed solutions
• VC2TDE8D03: select, justify and use suitable tools/materials/processes/components to safely make designed solutions (with safe use of tech concepts and practical planning)
• VC2TDE8C04: analyse how characteristics and properties of tools, materials, systems and components can be combined to create ethical designed solutions (e.g. sensor accuracy, data privacy, environmental impact)
• VC2TDE8D04: collaborate to develop design criteria that include ethical considerations to evaluate design ideas, processes and solutions

Lesson structure (60 minutes)

1. 0–5 min · Hook and context. Teacher displays short scenarios on the board: “Low honey yield”, “Hives stressed by heat”, “Need better pollination for nearby crops”. Students quick-write which problem matters most and why.
2. 5–15 min · Mini-direct teach: technology in the bee–crop system. Teacher explains how beekeeping and agriculture can be supported by monitoring (temperature/weight), decision-making (data), and field work (drones/maps), linking to how designers choose components based on needs and properties. Students add one example to their scenario notes.
3. 15–25 min · Research sprint (guided). Students use online research tools (teacher-provided list and curated sources) and classroom devices to find answers to a question set:

• What sensor data could help a beekeeper (hive weight, temperature, humidity, activity)?
• How can mapping/monitoring support crop pollination?
• What ethical/sustainability considerations matter (environmental impact, animal welfare, safe operation, data responsible use)? Teacher circulates with a checklist and prompts: “Which need does this technology address?”

4. 25–33 min · Multiple-choice assessment (individual). Students complete a printed multiple-choice quiz (10 questions) on matching needs to technology and identifying appropriate components/properties (e.g. “Which measurement best indicates hive stress during hot weather?”). Students circle answers and write a one-sentence justification for two questions.
5. 33–40 min · Check and feedback. Teacher conducts a fast whole-class review: students share reasons for one or two items; teacher clarifies misconceptions and reinforces ethical design thinking.
6. 40–55 min · Creative poster creation (small groups of 3–4). Groups design and produce a creative poster proposing a technology-supported solution for their original scenario. Required poster elements:

• Need/opportunity (what problem and for whom)
• Proposed technology (be specific: sensors, drone type, data platform, or component set)
• How it works (a simple labelled process)
• Why these components fit (properties/characteristics: range, power use, accuracy, reliability, weather resistance)
• Ethical considerations (environmental impact, safety by design, responsible data use, animal welfare) Teacher provides a class co-created criteria sheet based on VC2TDE8D04 language.

7. 55–60 min · Gallery share (rapid presentations). Groups do a 1-minute “pitch” using a sentence starter: “Our design addresses…, using…, because… Our ethical/safety note is…”. Teacher collects poster snapshots for feedback.

Resources

• Device access for curated online research (tablets/laptops) and teacher-prepared source list
• Printed multiple-choice quiz with answer sheet
• Poster paper, markers, coloured pencils, glue/tape
• Sensor concept cards (temperature/humidity sensors, load/weight sensors, humidity sensors, GPS modules, weather station components)
• Drone concept cards (mapping/navigation, overhead imagery, safe operating notes)
• Example data visualisations (simple charts/graphs on printed sheets)
• Safety resources: class expectations for device use and respectful handling of animal/environment topics

Assessment

• Formative: teacher checklist during research sprint (evidence gathered, need clearly identified, technology matched to purpose)
• Formative: observe reasoning during multiple-choice review; look for justification sentences that align with the scenario
• Summative (lesson end): poster assessed with a criteria rubric focusing on alignment to needs/opportunities, justified tool/component selection, and inclusion of ethical/safety considerations; include a quick mark for “clarity of explanation”

Suggested poster assessment criteria (teacher rubric)

• Needs and opportunity (clear, relevant, specific)
• Technology selection and justification (appropriate components/properties explained)
• Mechanism/process explained (clear steps or labelled diagram)
• Ethical/safety considerations (at least two relevant points)
• Communication quality (creative but readable, uses scientific/technical terms accurately)

Differentiation

• Support: provide sentence starters (“Our need is…”, “We chose this sensor because…”, “A key ethical issue is…”) and a partially filled poster template for some students
• Support: give a “technology word bank” (sensor, data, mapping, reliability, power, weather-resistant, safety by design, pollination)
• Extension: challenge students to include a simple evaluation plan (how success will be measured: data trends, improvements in hive health indicators, pollination support)
• EAL/SEN: allow key ideas to be shown with labelled diagrams; pair students strategically in groups; pre-teach 5–7 technical terms orally before research
• Safety: emphasise that drones/sensors are discussed as concepts and planning tools, not operated by students unless school-approved and supervised

Assessment for learning notes

• During research sprint, ask: “What evidence did you find that links this technology to the need?”
• During pitch, listen for explicit justification based on properties/characteristics and a clear ethical/safety statement.