- Read about the problem and solutions. School has a week-long break, but classroom plants need water. Solution 1: make a bottle drip system. Solution 2: ask families to take plants home. Solution 3: move plants to one bathroom with a humidifier. How could students solve this problem in more than one way?
Answer: Make a bottle drip system or ask families to take plants home.
This question tests understanding that design problems have multiple possible solutions (NGSS 3-5-ETS1-2: Generate and compare multiple possible solutions to a problem based on how well each is likely to meet the criteria and constraints of the problem). In engineering design, the same problem can usually be solved in different ways. Different solutions might use different materials, different approaches, or different mechanisms, but still solve the same problem. For example, to keep items organized, you could build a shelf (one solution) OR use hanging bags (different solution) - both organize items but in different ways. Engineers generate multiple solutions so they can compare options and choose the best one for their specific situation. In this scenario, the problem is classroom plants needing water during a week-long school break, and 3 different solutions are suggested: making a bottle drip system, asking families to take plants home, and moving plants to one bathroom with a humidifier. Each solution solves the same problem but uses a different method/approach. One automates watering, another relocates care responsibility, and the third creates a humid environment. Choice A is correct because it describes how students could solve this problem in more than one way: make a bottle drip system OR ask families to take plants home. This shows understanding that design problems can be solved in more than one way and different approaches can all be valid solutions. Choice D represents claiming only one solution exists. Students who choose this may think design problems have only one right answer, not recognizing that different methods can solve the same problem. To help students: When facing a design problem, ask "What are three different ways we could solve this?" Use sentence frames like "One solution is to automate watering, another solution is to have someone else care for them, and a third solution is to create a humid environment." Emphasize that different solutions might have different advantages (faster, cheaper, easier, more durable) but can all solve the problem. Practice comparing solution options: How are they the same? How are they different? Could both work?
- Read about the problem and solutions. Balls are hard to find because they are piled on the shed floor. Solution 1: make a shelf with cardboard dividers. Solution 2: hang mesh bags on hooks. Solution 3: create a wall pocket organizer. Why might students suggest different solutions to the same problem?
Answer: Different ideas can all solve the problem, but in different ways.
This question tests understanding that design problems have multiple possible solutions (NGSS 3-5-ETS1-2: Generate and compare multiple possible solutions to a problem based on how well each is likely to meet the criteria and constraints of the problem). In engineering design, the same problem can usually be solved in different ways. Different solutions might use different materials, different approaches, or different mechanisms, but still solve the same problem. For example, to keep items organized, you could build a shelf (one solution) OR use hanging bags (different solution) - both organize items but in different ways. Engineers generate multiple solutions so they can compare options and choose the best one for their specific situation. In this scenario, the problem is balls being hard to find because they are piled on the shed floor, and 3 different solutions are suggested: making a shelf with cardboard dividers, hanging mesh bags on hooks, and creating a wall pocket organizer. Each solution solves the same problem but uses a different method/approach. All three organize the balls but use different storage systems. Choice A is correct because it explains why students might suggest different solutions: different ideas can all solve the problem, but in different ways. This shows understanding that design problems can be solved in more than one way and different approaches can all be valid solutions. Choice B represents claiming only one solution exists. Students who choose this may think design problems have only one right answer, not recognizing that different methods can solve the same problem. To help students: When facing a design problem, ask "What are three different ways we could solve this?" Use sentence frames like "One solution is to build shelves, another solution is to hang bags, and a third solution is to use wall pockets." Emphasize that different solutions might have different advantages (faster, cheaper, easier, more durable) but can all solve the problem. Practice comparing solution options: How are they the same? How are they different? Could both work?
- Read about the problem and solutions. School has a week-long break, but classroom plants need water. Solution 1: make a bottle drip system. Solution 2: ask families to take plants home. Solution 3: move plants to one bathroom with a humidifier. How could students solve this problem in more than one way?
Answer: Make a bottle drip system or ask families to take plants home.
This question tests understanding that design problems have multiple possible solutions (NGSS 3-5-ETS1-2: Generate and compare multiple possible solutions to a problem based on how well each is likely to meet the criteria and constraints of the problem). In engineering design, the same problem can usually be solved in different ways. Different solutions might use different materials, different approaches, or different mechanisms, but still solve the same problem. For example, to keep items organized, you could build a shelf (one solution) OR use hanging bags (different solution) - both organize items but in different ways. Engineers generate multiple solutions so they can compare options and choose the best one for their specific situation. In this scenario, the problem is classroom plants needing water during a week-long school break, and 3 different solutions are suggested: making a bottle drip system, asking families to take plants home, and moving plants to one bathroom with a humidifier. Each solution solves the same problem but uses a different method/approach. One automates watering, another relocates care responsibility, and the third creates a humid environment. Choice A is correct because it describes how students could solve this problem in more than one way: make a bottle drip system OR ask families to take plants home. This shows understanding that design problems can be solved in more than one way and different approaches can all be valid solutions. Choice D represents claiming only one solution exists. Students who choose this may think design problems have only one right answer, not recognizing that different methods can solve the same problem. To help students: When facing a design problem, ask "What are three different ways we could solve this?" Use sentence frames like "One solution is to automate watering, another solution is to have someone else care for them, and a third solution is to create a humid environment." Emphasize that different solutions might have different advantages (faster, cheaper, easier, more durable) but can all solve the problem. Practice comparing solution options: How are they the same? How are they different? Could both work?
- Look at the different ideas. Wind knocks over seedlings in cups. Solution 1: a cardboard windbreak wall. Solution 2: move cups inside a plastic box with holes. Solution 3: tie cups together in groups. Which two solutions would both work to solve the problem?
Answer: Build a windbreak wall or place cups inside a plastic box with holes.
This question tests understanding that design problems have multiple possible solutions (NGSS 3-5-ETS1-2: Generate and compare multiple possible solutions to a problem based on how well each is likely to meet the criteria and constraints of the problem). In engineering design, the same problem can usually be solved in different ways. Different solutions might use different materials, different approaches, or different mechanisms, but still solve the same problem. For example, to keep items organized, you could build a shelf (one solution) OR use hanging bags (different solution) - both organize items but in different ways. Engineers generate multiple solutions so they can compare options and choose the best one for their specific situation. In this scenario, the problem is that wind knocks over seedlings in cups, and 3 different solutions are suggested: a cardboard windbreak wall, move cups inside a plastic box with holes, and tie cups together in groups. Each solution solves the same problem but uses a different method/approach. The windbreak blocks wind, the box provides shelter while allowing air flow, and tying creates stability through connection. Choice A is correct because it identifies two solutions that would both work: 'Build a windbreak wall or place cups inside a plastic box with holes.' This shows understanding that design problems can be solved in more than one way and different approaches can all be valid solutions. Choice C represents the error of claiming only one solution exists. Students who choose this may think design problems have only one right answer and not recognize that different methods can solve the same problem. To help students: When facing a design problem, ask 'What are three different ways we could solve this?' Use sentence frames like 'One solution is to block the wind, another solution is to shelter the plants, and a third solution is to make them more stable.' Emphasize that different solutions might have different advantages (faster, cheaper, easier, more durable) but can all solve the problem. Practice comparing solution options: How are they the same? How are they different? Could both work?
- Look at the different ideas. Crumbs and spills make lunch tables messy. Solution 1: give each table a small broom and dustpan. Solution 2: have wet wipes at tables. Solution 3: use washable placemats. How could students solve this problem in more than one way?
Answer: Use wet wipes at tables or give each table a small broom and dustpan.
This question tests understanding that design problems have multiple possible solutions (NGSS 3-5-ETS1-2: Generate and compare multiple possible solutions to a problem based on how well each is likely to meet the criteria and constraints of the problem). In engineering design, the same problem can usually be solved in different ways. Different solutions might use different materials, different approaches, or different mechanisms, but still solve the same problem. For example, to keep items organized, you could build a shelf (one solution) OR use hanging bags (different solution) - both organize items but in different ways. Engineers generate multiple solutions so they can compare options and choose the best one for their specific situation. In this scenario, the problem is crumbs and spills making lunch tables messy, and 3 different solutions are suggested: giving each table a small broom and dustpan, having wet wipes at tables, and using washable placemats. Each solution solves the same problem but uses a different method/approach. One provides dry cleaning tools, another provides wet cleaning, and the third prevents mess from reaching the table. Choice A is correct because it describes how students could solve this problem in more than one way: use wet wipes at tables OR give each table a small broom and dustpan. This shows understanding that design problems can be solved in more than one way and different approaches can all be valid solutions. Choice D represents claiming only one solution exists. Students who choose this may think design problems have only one right answer, not recognizing that different methods can solve the same problem. To help students: When facing a design problem, ask "What are three different ways we could solve this?" Use sentence frames like "One solution is to provide dry cleaning tools, another solution is to provide wet cleaning, and a third solution is to prevent the mess." Emphasize that different solutions might have different advantages (faster, cheaper, easier, more durable) but can all solve the problem. Practice comparing solution options: How are they the same? How are they different? Could both work?
- Read about the problem and solutions. Art supplies take too long to get during class. Solution 1: supply caddies stay at each table. Solution 2: a rolling cart brings supplies to groups. Solution 3: each student has a personal supply box. Which statement describes two different ways to solve this problem?
Answer: Use supply caddies at each table or use a rolling cart to deliver supplies.
This question tests understanding that design problems have multiple possible solutions (NGSS 3-5-ETS1-2: Generate and compare multiple possible solutions to a problem based on how well each is likely to meet the criteria and constraints of the problem). In engineering design, the same problem can usually be solved in different ways. Different solutions might use different materials, different approaches, or different mechanisms, but still solve the same problem. For example, to keep items organized, you could build a shelf (one solution) OR use hanging bags (different solution) - both organize items but in different ways. Engineers generate multiple solutions so they can compare options and choose the best one for their specific situation. In this scenario, the problem is art supplies taking too long to get during class, and 3 different solutions are suggested: supply caddies staying at each table, a rolling cart bringing supplies to groups, and each student having a personal supply box. Each solution solves the same problem but uses a different method/approach. One keeps supplies stationary at tables, another brings supplies to students, and the third gives individual ownership. Choice A is correct because it describes two different ways to solve this problem: use supply caddies at each table OR use a rolling cart to deliver supplies. This shows understanding that design problems can be solved in more than one way and different approaches can all be valid solutions. Choice B represents repeating the same solution twice. Students who choose this may not understand that the question asks for two DIFFERENT ways, showing confusion about what constitutes different solutions versus the same solution repeated. To help students: When facing a design problem, ask "What are three different ways we could solve this?" Use sentence frames like "One solution is to keep supplies at tables, another solution is to bring supplies to students, and a third solution is to give each student their own." Emphasize that different solutions might have different advantages (faster, cheaper, easier, more durable) but can all solve the problem. Practice comparing solution options: How are they the same? How are they different? Could both work?
- Look at the different ideas. Wind keeps tipping over seedlings in cups during science. Solution 1: build a cardboard windbreak wall. Solution 2: tie cups together in groups. Solution 3: move cups inside a plastic box with holes. Which two solutions would both work to protect seedlings from wind?
Answer: Build a cardboard windbreak wall or move cups into a plastic box with holes.
This question tests understanding that design problems have multiple possible solutions (NGSS 3-5-ETS1-2: Generate and compare multiple possible solutions to a problem based on how well each is likely to meet the criteria and constraints of the problem). In engineering design, the same problem can usually be solved in different ways. Different solutions might use different materials, different approaches, or different mechanisms, but still solve the same problem. For example, to keep items organized, you could build a shelf (one solution) OR use hanging bags (different solution) - both organize items but in different ways. Engineers generate multiple solutions so they can compare options and choose the best one for their specific situation. In this scenario, the problem is wind tipping over seedlings in cups during science, and 3 different solutions are suggested: building a cardboard windbreak wall, tying cups together in groups, and moving cups inside a plastic box with holes. Each solution solves the same problem but uses a different method/approach. One blocks wind, another creates stability through connection, and the third provides shelter. Choice A is correct because it identifies two solutions that would both work to protect seedlings from wind: build a cardboard windbreak wall OR move cups into a plastic box with holes. This shows understanding that design problems can be solved in more than one way and different approaches can all be valid solutions. Choice B represents only mentioning one solution. Students who choose this may not recognize that the question asks for TWO solutions that would both work, showing they might not fully understand that multiple solutions can exist for the same problem. To help students: When facing a design problem, ask "What are three different ways we could solve this?" Use sentence frames like "One solution is to block the wind, another solution is to connect items together, and a third solution is to provide shelter." Emphasize that different solutions might have different advantages (faster, cheaper, easier, more durable) but can all solve the problem. Practice comparing solution options: How are they the same? How are they different? Could both work?
- Read about the problem and solutions. Recess balls are scattered in the shed, and students need a way to store them. Solution 1: hang mesh bags on hooks. Solution 2: build a rolling cart with bins. Solution 3: make a shelf with cardboard dividers. Which two solutions would both work to solve the problem?
Answer: Hang mesh bags on hooks or build a rolling cart with bins.
This question tests understanding that design problems have multiple possible solutions (NGSS 3-5-ETS1-2: Generate and compare multiple possible solutions to a problem based on how well each is likely to meet the criteria and constraints of the problem). In engineering design, the same problem can usually be solved in different ways. Different solutions might use different materials, different approaches, or different mechanisms, but still solve the same problem. For example, to keep items organized, you could build a shelf (one solution) OR use hanging bags (different solution) - both organize items but in different ways. Engineers generate multiple solutions so they can compare options and choose the best one for their specific situation. In this scenario, the problem is storing scattered recess balls in the shed, and 3 different solutions are suggested: hanging mesh bags on hooks, building a rolling cart with bins, and making a shelf with cardboard dividers. Each solution solves the same problem but uses a different method/approach. One might be easier to build while another might hold more balls or be easier to move. Choice A is correct because it identifies two viable solutions from the passage: hanging mesh bags on hooks OR building a rolling cart with bins. This shows understanding that design problems can be solved in more than one way and different approaches can all be valid solutions. Choice B represents only mentioning one solution. Students who choose this may not recognize that the question asks for TWO solutions that would both work, showing they might not fully understand that multiple solutions can exist for the same problem. To help students: When facing a design problem, ask "What are three different ways we could solve this?" Use sentence frames like "One solution is to hang bags, another solution is to build a cart, and a third solution is to make a shelf." Emphasize that different solutions might have different advantages (faster, cheaper, easier, more durable) but can all solve the problem. Practice comparing solution options: How are they the same? How are they different? Could both work?
- Read about the problem and solutions. School has a week-long break, but classroom plants need water. Solution 1: a bottle drip self-watering system. Solution 2: families take plants home. Solution 3: move plants to one bathroom with a humidifier. Which statement describes two different ways to solve this problem?
Answer: Make a bottle drip system or ask families to take plants home to water.
This question tests understanding that design problems have multiple possible solutions (NGSS 3-5-ETS1-2: Generate and compare multiple possible solutions to a problem based on how well each is likely to meet the criteria and constraints of the problem). In engineering design, the same problem can usually be solved in different ways. Different solutions might use different materials, different approaches, or different mechanisms, but still solve the same problem. For example, to keep items organized, you could build a shelf (one solution) OR use hanging bags (different solution) - both organize items but in different ways. Engineers generate multiple solutions so they can compare options and choose the best one for their specific situation. In this scenario, the problem is that classroom plants need water during a week-long school break, and 3 different solutions are suggested: a bottle drip self-watering system, families take plants home, and move plants to one bathroom with a humidifier. Each solution solves the same problem but uses a different method/approach. The drip system provides automatic watering, taking plants home provides human care, and the humidifier creates a moist environment. Choice B is correct because it describes two different ways to solve this problem: 'Make a bottle drip system or ask families to take plants home to water.' This shows understanding that design problems can be solved in more than one way and different approaches can all be valid solutions. Choice D represents the error of claiming only one correct way exists. Students who choose this may think design problems have only one right answer and not recognize that different methods can solve the same problem. To help students: When facing a design problem, ask 'What are three different ways we could solve this?' Use sentence frames like 'One solution is to water automatically, another solution is to have people care for plants, and a third solution is to create a humid environment.' Emphasize that different solutions might have different advantages (faster, cheaper, easier, more durable) but can all solve the problem. Practice comparing solution options: How are they the same? How are they different? Could both work?
- Read about the problem and solutions. Art supplies take too long to get during class. Solution 1: supply caddies stay at each table. Solution 2: a rolling cart brings supplies to groups. Solution 3: each student has a personal supply box. Which statement describes two different ways to solve this problem?
Answer: Use supply caddies at each table or use a rolling cart to deliver supplies.
This question tests understanding that design problems have multiple possible solutions (NGSS 3-5-ETS1-2: Generate and compare multiple possible solutions to a problem based on how well each is likely to meet the criteria and constraints of the problem). In engineering design, the same problem can usually be solved in different ways. Different solutions might use different materials, different approaches, or different mechanisms, but still solve the same problem. For example, to keep items organized, you could build a shelf (one solution) OR use hanging bags (different solution) - both organize items but in different ways. Engineers generate multiple solutions so they can compare options and choose the best one for their specific situation. In this scenario, the problem is art supplies taking too long to get during class, and 3 different solutions are suggested: supply caddies staying at each table, a rolling cart bringing supplies to groups, and each student having a personal supply box. Each solution solves the same problem but uses a different method/approach. One keeps supplies stationary at tables, another brings supplies to students, and the third gives individual ownership. Choice A is correct because it describes two different ways to solve this problem: use supply caddies at each table OR use a rolling cart to deliver supplies. This shows understanding that design problems can be solved in more than one way and different approaches can all be valid solutions. Choice B represents repeating the same solution twice. Students who choose this may not understand that the question asks for two DIFFERENT ways, showing confusion about what constitutes different solutions versus the same solution repeated. To help students: When facing a design problem, ask "What are three different ways we could solve this?" Use sentence frames like "One solution is to keep supplies at tables, another solution is to bring supplies to students, and a third solution is to give each student their own." Emphasize that different solutions might have different advantages (faster, cheaper, easier, more durable) but can all solve the problem. Practice comparing solution options: How are they the same? How are they different? Could both work?
- Read about the problem and solutions. Recess balls are scattered in the shed, and students need a way to store them. Solution 1: hang mesh bags on hooks. Solution 2: build a rolling cart with bins. Solution 3: make a shelf with cardboard dividers. Which two solutions would both work to solve the problem?
Answer: Hang mesh bags on hooks or build a rolling cart with bins.
This question tests understanding that design problems have multiple possible solutions (NGSS 3-5-ETS1-2: Generate and compare multiple possible solutions to a problem based on how well each is likely to meet the criteria and constraints of the problem). In engineering design, the same problem can usually be solved in different ways. Different solutions might use different materials, different approaches, or different mechanisms, but still solve the same problem. For example, to keep items organized, you could build a shelf (one solution) OR use hanging bags (different solution) - both organize items but in different ways. Engineers generate multiple solutions so they can compare options and choose the best one for their specific situation. In this scenario, the problem is storing scattered recess balls in the shed, and 3 different solutions are suggested: hanging mesh bags on hooks, building a rolling cart with bins, and making a shelf with cardboard dividers. Each solution solves the same problem but uses a different method/approach. One might be easier to build while another might hold more balls or be easier to move. Choice A is correct because it identifies two viable solutions from the passage: hanging mesh bags on hooks OR building a rolling cart with bins. This shows understanding that design problems can be solved in more than one way and different approaches can all be valid solutions. Choice B represents only mentioning one solution. Students who choose this may not recognize that the question asks for TWO solutions that would both work, showing they might not fully understand that multiple solutions can exist for the same problem. To help students: When facing a design problem, ask "What are three different ways we could solve this?" Use sentence frames like "One solution is to hang bags, another solution is to build a cart, and a third solution is to make a shelf." Emphasize that different solutions might have different advantages (faster, cheaper, easier, more durable) but can all solve the problem. Practice comparing solution options: How are they the same? How are they different? Could both work?
- Read about the problem and solutions. Balls are scattered in the shed after recess. Solution 1: a shelf with cardboard dividers. Solution 2: mesh bags on hooks. Solution 3: a wall pocket organizer. Why might students suggest different solutions to the same problem?
Answer: Because different ideas can store balls in different ways and still work.
This question tests understanding that design problems have multiple possible solutions (NGSS 3-5-ETS1-2: Generate and compare multiple possible solutions to a problem based on how well each is likely to meet the criteria and constraints of the problem). In engineering design, the same problem can usually be solved in different ways. Different solutions might use different materials, different approaches, or different mechanisms, but still solve the same problem. For example, to keep items organized, you could build a shelf (one solution) OR use hanging bags (different solution) - both organize items but in different ways. Engineers generate multiple solutions so they can compare options and choose the best one for their specific situation. In this scenario, the problem is that balls are scattered in the shed after recess, and 3 different solutions are suggested: a shelf with cardboard dividers, mesh bags on hooks, and a wall pocket organizer. Each solution solves the same problem but uses a different method/approach. The shelf provides horizontal storage, mesh bags provide hanging storage, and wall pockets use vertical space. Choice B is correct because it explains why students might suggest different solutions: 'Because different ideas can store balls in different ways and still work.' This shows understanding that design problems can be solved in more than one way and different approaches can all be valid solutions. Choice A represents the error of thinking there is one correct solution that was forgotten. Students who choose this may think design problems have only one right answer and not recognize that different methods can solve the same problem. To help students: When facing a design problem, ask 'What are three different ways we could solve this?' Use sentence frames like 'One solution is to use shelves, another solution is to hang storage, and a third solution is to use wall space.' Emphasize that different solutions might have different advantages (faster, cheaper, easier, more durable) but can all solve the problem. Practice comparing solution options: How are they the same? How are they different? Could both work?
- Look at the different ideas. Wind keeps tipping over seedlings in cups during science. Solution 1: build a cardboard windbreak wall. Solution 2: tie cups together in groups. Solution 3: move cups inside a plastic box with holes. Which two solutions would both work to protect seedlings from wind?
Answer: Build a cardboard windbreak wall or move cups into a plastic box with holes.
This question tests understanding that design problems have multiple possible solutions (NGSS 3-5-ETS1-2: Generate and compare multiple possible solutions to a problem based on how well each is likely to meet the criteria and constraints of the problem). In engineering design, the same problem can usually be solved in different ways. Different solutions might use different materials, different approaches, or different mechanisms, but still solve the same problem. For example, to keep items organized, you could build a shelf (one solution) OR use hanging bags (different solution) - both organize items but in different ways. Engineers generate multiple solutions so they can compare options and choose the best one for their specific situation. In this scenario, the problem is wind tipping over seedlings in cups during science, and 3 different solutions are suggested: building a cardboard windbreak wall, tying cups together in groups, and moving cups inside a plastic box with holes. Each solution solves the same problem but uses a different method/approach. One blocks wind, another creates stability through connection, and the third provides shelter. Choice A is correct because it identifies two solutions that would both work to protect seedlings from wind: build a cardboard windbreak wall OR move cups into a plastic box with holes. This shows understanding that design problems can be solved in more than one way and different approaches can all be valid solutions. Choice B represents only mentioning one solution. Students who choose this may not recognize that the question asks for TWO solutions that would both work, showing they might not fully understand that multiple solutions can exist for the same problem. To help students: When facing a design problem, ask "What are three different ways we could solve this?" Use sentence frames like "One solution is to block the wind, another solution is to connect items together, and a third solution is to provide shelter." Emphasize that different solutions might have different advantages (faster, cheaper, easier, more durable) but can all solve the problem. Practice comparing solution options: How are they the same? How are they different? Could both work?
- Read about the problem and solutions. Balls are hard to find because they are piled on the shed floor. Solution 1: make a shelf with cardboard dividers. Solution 2: hang mesh bags on hooks. Solution 3: create a wall pocket organizer. Why might students suggest different solutions to the same problem?
Answer: Different ideas can all solve the problem, but in different ways.
This question tests understanding that design problems have multiple possible solutions (NGSS 3-5-ETS1-2: Generate and compare multiple possible solutions to a problem based on how well each is likely to meet the criteria and constraints of the problem). In engineering design, the same problem can usually be solved in different ways. Different solutions might use different materials, different approaches, or different mechanisms, but still solve the same problem. For example, to keep items organized, you could build a shelf (one solution) OR use hanging bags (different solution) - both organize items but in different ways. Engineers generate multiple solutions so they can compare options and choose the best one for their specific situation. In this scenario, the problem is balls being hard to find because they are piled on the shed floor, and 3 different solutions are suggested: making a shelf with cardboard dividers, hanging mesh bags on hooks, and creating a wall pocket organizer. Each solution solves the same problem but uses a different method/approach. All three organize the balls but use different storage systems. Choice A is correct because it explains why students might suggest different solutions: different ideas can all solve the problem, but in different ways. This shows understanding that design problems can be solved in more than one way and different approaches can all be valid solutions. Choice B represents claiming only one solution exists. Students who choose this may think design problems have only one right answer, not recognizing that different methods can solve the same problem. To help students: When facing a design problem, ask "What are three different ways we could solve this?" Use sentence frames like "One solution is to build shelves, another solution is to hang bags, and a third solution is to use wall pockets." Emphasize that different solutions might have different advantages (faster, cheaper, easier, more durable) but can all solve the problem. Practice comparing solution options: How are they the same? How are they different? Could both work?
- Look at the different ideas. Cafeteria tables get messy with crumbs and spills. Solution 1: give each table a small broom and dustpan. Solution 2: put large trays at each table for plates. Solution 3: use washable placemats. Which two solutions would both work to help keep tables clean?
Answer: Put large trays at each table or use washable placemats.
This question tests understanding that design problems have multiple possible solutions (NGSS 3-5-ETS1-2: Generate and compare multiple possible solutions to a problem based on how well each is likely to meet the criteria and constraints of the problem). In engineering design, the same problem can usually be solved in different ways. Different solutions might use different materials, different approaches, or different mechanisms, but still solve the same problem. For example, to keep items organized, you could build a shelf (one solution) OR use hanging bags (different solution) - both organize items but in different ways. Engineers generate multiple solutions so they can compare options and choose the best one for their specific situation. In this scenario, the problem is cafeteria tables getting messy with crumbs and spills, and 3 different solutions are suggested: giving each table a small broom and dustpan, putting large trays at each table for plates, and using washable placemats. Each solution solves the same problem but uses a different method/approach. One provides cleaning tools, another contains the mess, and the third protects the table surface. Choice A is correct because it identifies two viable solutions from the passage: putting large trays at each table OR using washable placemats. This shows understanding that design problems can be solved in more than one way and different approaches can all be valid solutions. Choice B represents only mentioning one solution. Students who choose this may not recognize that the question asks for TWO solutions that would both work, showing they might not fully understand that multiple solutions can exist for the same problem. To help students: When facing a design problem, ask "What are three different ways we could solve this?" Use sentence frames like "One solution is to provide cleaning tools, another solution is to contain the mess, and a third solution is to protect the surface." Emphasize that different solutions might have different advantages (faster, cheaper, easier, more durable) but can all solve the problem. Practice comparing solution options: How are they the same? How are they different? Could both work?
- Look at the different ideas. Strong wind keeps knocking over bean seedlings in cups. Solution 1: build a cardboard windbreak wall. Solution 2: place rocks around each cup. Solution 3: tie cups together in groups. Which describes different approaches to solving this design challenge?
Answer: Put rocks around each cup or build a cardboard windbreak wall.
This question tests understanding that design problems have multiple possible solutions (NGSS 3-5-ETS1-2: Generate and compare multiple possible solutions to a problem based on how well each is likely to meet the criteria and constraints of the problem). In engineering design, the same problem can usually be solved in different ways. Different solutions might use different materials, different approaches, or different mechanisms, but still solve the same problem. For example, to keep items organized, you could build a shelf (one solution) OR use hanging bags (different solution) - both organize items but in different ways. Engineers generate multiple solutions so they can compare options and choose the best one for their specific situation. In this scenario, the problem is that strong wind keeps knocking over bean seedlings in cups, and 3 different solutions are suggested: build a cardboard windbreak wall, place rocks around each cup, and tie cups together in groups. Each solution solves the same problem but uses a different method/approach. The windbreak blocks wind before it reaches the cups, the rocks add weight to stabilize individual cups, and tying cups creates a more stable group structure. Choice A is correct because it describes different approaches to solving this design challenge: 'Put rocks around each cup or build a cardboard windbreak wall.' This shows understanding that design problems can be solved in more than one way and different approaches can all be valid solutions. Choice C represents the error of claiming only one solution exists. Students who choose this may think design problems have only one right answer and not recognize that different methods can solve the same problem. To help students: When facing a design problem, ask 'What are three different ways we could solve this?' Use sentence frames like 'One solution is to block the wind, another solution is to add weight, and a third solution is to connect items together.' Emphasize that different solutions might have different advantages (faster, cheaper, easier, more durable) but can all solve the problem. Practice comparing solution options: How are they the same? How are they different? Could both work?
- Look at the different ideas. Crumbs and spills make lunch tables messy. Solution 1: give each table a small broom and dustpan. Solution 2: have wet wipes at tables. Solution 3: use washable placemats. How could students solve this problem in more than one way?
Answer: Use wet wipes at tables or give each table a small broom and dustpan.
This question tests understanding that design problems have multiple possible solutions (NGSS 3-5-ETS1-2: Generate and compare multiple possible solutions to a problem based on how well each is likely to meet the criteria and constraints of the problem). In engineering design, the same problem can usually be solved in different ways. Different solutions might use different materials, different approaches, or different mechanisms, but still solve the same problem. For example, to keep items organized, you could build a shelf (one solution) OR use hanging bags (different solution) - both organize items but in different ways. Engineers generate multiple solutions so they can compare options and choose the best one for their specific situation. In this scenario, the problem is crumbs and spills making lunch tables messy, and 3 different solutions are suggested: giving each table a small broom and dustpan, having wet wipes at tables, and using washable placemats. Each solution solves the same problem but uses a different method/approach. One provides dry cleaning tools, another provides wet cleaning, and the third prevents mess from reaching the table. Choice A is correct because it describes how students could solve this problem in more than one way: use wet wipes at tables OR give each table a small broom and dustpan. This shows understanding that design problems can be solved in more than one way and different approaches can all be valid solutions. Choice D represents claiming only one solution exists. Students who choose this may think design problems have only one right answer, not recognizing that different methods can solve the same problem. To help students: When facing a design problem, ask "What are three different ways we could solve this?" Use sentence frames like "One solution is to provide dry cleaning tools, another solution is to provide wet cleaning, and a third solution is to prevent the mess." Emphasize that different solutions might have different advantages (faster, cheaper, easier, more durable) but can all solve the problem. Practice comparing solution options: How are they the same? How are they different? Could both work?
- Look at the different ideas. Strong wind keeps knocking over bean seedlings in cups. Solution 1: build a cardboard windbreak wall. Solution 2: place rocks around each cup for weight. Solution 3: move cups inside a plastic box with holes. Which statement describes two different ways to solve this problem?
Answer: Build a cardboard windbreak wall or place rocks around each cup.
This question tests understanding that design problems have multiple possible solutions (NGSS 3-5-ETS1-2: Generate and compare multiple possible solutions to a problem based on how well each is likely to meet the criteria and constraints of the problem). In engineering design, the same problem can usually be solved in different ways. Different solutions might use different materials, different approaches, or different mechanisms, but still solve the same problem. For example, to keep items organized, you could build a shelf (one solution) OR use hanging bags (different solution) - both organize items but in different ways. Engineers generate multiple solutions so they can compare options and choose the best one for their specific situation. In this scenario, the problem is strong wind knocking over bean seedlings in cups, and 3 different solutions are suggested: building a cardboard windbreak wall, placing rocks around each cup for weight, and moving cups inside a plastic box with holes. Each solution solves the same problem but uses a different method/approach. One blocks the wind, another adds weight to prevent tipping, and the third provides shelter. Choice A is correct because it describes two different ways to solve this problem: building a cardboard windbreak wall OR placing rocks around each cup. This shows understanding that design problems can be solved in more than one way and different approaches can all be valid solutions. Choice B represents mentioning the same solution twice with slight variation. Students who choose this may confuse variations of one solution with truly different solution approaches, not recognizing that different methods can solve the same problem. To help students: When facing a design problem, ask "What are three different ways we could solve this?" Use sentence frames like "One solution is to block the wind, another solution is to add weight, and a third solution is to provide shelter." Emphasize that different solutions might have different advantages (faster, cheaper, easier, more durable) but can all solve the problem. Practice comparing solution options: How are they the same? How are they different? Could both work?
- Look at the different ideas. Water bottles freeze on the playground in winter. Solution 1: wrap bottles in cloth or bubble wrap. Solution 2: keep bottles inside until lunch. Solution 3: use insulated bottles. Which describes different approaches to solving this design challenge?
Answer: Wrap bottles for warmth or keep bottles inside until lunch.
This question tests understanding that design problems have multiple possible solutions (NGSS 3-5-ETS1-2: Generate and compare multiple possible solutions to a problem based on how well each is likely to meet the criteria and constraints of the problem). In engineering design, the same problem can usually be solved in different ways. Different solutions might use different materials, different approaches, or different mechanisms, but still solve the same problem. For example, to keep items organized, you could build a shelf (one solution) OR use hanging bags (different solution) - both organize items but in different ways. Engineers generate multiple solutions so they can compare options and choose the best one for their specific situation. In this scenario, the problem is water bottles freezing on the playground in winter, and 3 different solutions are suggested: wrapping bottles in cloth or bubble wrap, keeping bottles inside until lunch, and using insulated bottles. Each solution solves the same problem but uses a different method/approach. One adds insulation, another avoids cold exposure, and the third uses specialized equipment. Choice A is correct because it describes different approaches to solving this design challenge: wrap bottles for warmth OR keep bottles inside until lunch. This shows understanding that design problems can be solved in more than one way and different approaches can all be valid solutions. Choice D represents combining parts of different solutions into one. Students who choose this may not understand that the question asks for different approaches, confusing a combination of methods with separate solution options. To help students: When facing a design problem, ask "What are three different ways we could solve this?" Use sentence frames like "One solution is to add insulation, another solution is to avoid the cold, and a third solution is to use special equipment." Emphasize that different solutions might have different advantages (faster, cheaper, easier, more durable) but can all solve the problem. Practice comparing solution options: How are they the same? How are they different? Could both work?
- Look at the different ideas. Water bottles freeze on the playground in winter. Solution 1: wrap bottles in cloth or bubble wrap. Solution 2: keep bottles inside until lunch. Solution 3: use insulated bottles. Which describes different approaches to solving this design challenge?
Answer: Wrap bottles for warmth or keep bottles inside until lunch.
This question tests understanding that design problems have multiple possible solutions (NGSS 3-5-ETS1-2: Generate and compare multiple possible solutions to a problem based on how well each is likely to meet the criteria and constraints of the problem). In engineering design, the same problem can usually be solved in different ways. Different solutions might use different materials, different approaches, or different mechanisms, but still solve the same problem. For example, to keep items organized, you could build a shelf (one solution) OR use hanging bags (different solution) - both organize items but in different ways. Engineers generate multiple solutions so they can compare options and choose the best one for their specific situation. In this scenario, the problem is water bottles freezing on the playground in winter, and 3 different solutions are suggested: wrapping bottles in cloth or bubble wrap, keeping bottles inside until lunch, and using insulated bottles. Each solution solves the same problem but uses a different method/approach. One adds insulation, another avoids cold exposure, and the third uses specialized equipment. Choice A is correct because it describes different approaches to solving this design challenge: wrap bottles for warmth OR keep bottles inside until lunch. This shows understanding that design problems can be solved in more than one way and different approaches can all be valid solutions. Choice D represents combining parts of different solutions into one. Students who choose this may not understand that the question asks for different approaches, confusing a combination of methods with separate solution options. To help students: When facing a design problem, ask "What are three different ways we could solve this?" Use sentence frames like "One solution is to add insulation, another solution is to avoid the cold, and a third solution is to use special equipment." Emphasize that different solutions might have different advantages (faster, cheaper, easier, more durable) but can all solve the problem. Practice comparing solution options: How are they the same? How are they different? Could both work?
