A landscape architect is planning an artificial waterfall in a city park. Water flowing at 0.562 m/s will leave the end of a horizontal channel at the top of a vertical wall h = 2.25 m (a) How far from the wall will the water land? find m   Will the space behind the waterfall be wide enough for a pedestrian walkway? (Assume the water must land 2 m from the wall to provide adequate space for a person to walk beneath the waterfall.) Yes or No ? (b) To sell her plan to the city council, the architect wants to build a model to standard scale, one-seventeenth actual size. How fast should the water flow in the channel in the model? Find m/s

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Chapter1: Units, Trigonometry. And Vectors
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A landscape architect is planning an artificial waterfall in a city park. Water flowing at 0.562 m/s will leave the end of a horizontal channel at the top of a vertical wall h = 2.25 m

(a) How far from the wall will the water land?

find m

 

Will the space behind the waterfall be wide enough for a pedestrian walkway? (Assume the water must land 2 m from the wall to provide adequate space for a person to walk beneath the waterfall.)

Yes or No ?

(b) To sell her plan to the city council, the architect wants to build a model to standard scale, one-seventeenth actual size. How fast should the water flow in the channel in the model?

Find m/s

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### Planning an Artificial Waterfall in a City Park

A landscape architect is designing an artificial waterfall for a city park. The project involves water flowing at a speed of 0.562 meters per second (m/s) from the end of a horizontal channel situated at the top of a vertical wall. The height (\( h \)) of the wall is 2.25 meters, and the water will fall into a pool below (refer to the figure for clarification).

#### Diagram Explanation
The figure illustrates a person standing near the edge of a pool, observing the water cascading down from the top of a vertical wall. It provides a visual representation of the water's trajectory and the height from which it falls.

#### Questions

**(a) How far from the wall will the water land?**
\[ \_\_\_\_\_\_\_\_\_\_\_\_\_\_\_\_\_\_\_\_ \text{m} \]

**Considerations:**
This question requires calculating the horizontal distance from the wall where the water hits the pool. Knowing the water's flow rate and the height of the wall will help in determining the landing point.

**(b) Will the space behind the waterfall be wide enough for a pedestrian walkway?**
\[ \text{(Assume the water must land 2 meters from the wall to provide adequate space for a person to walk beneath the waterfall.)} \]
- Yes 
- No

**(c) To sell her plan to the city council, the architect wants to build a scale model (one-seventeenth of the actual size). How fast should the water flow in the channel in the model?**
\[ \_\_\_\_\_\_\_\_\_\_\_\_\_\_\_\_\_\_\_\_ \text{m/s} \]

### Additional Information
When considering the scale model, it's important to adjust the water flow speed proportionally to reflect the actual scenario accurately. This involves scaling the speed according to the reduction in size to maintain dynamic similarity.

**Submit Your Answers:**
[Submit Answer Button]

---

This interactive content encourages users to apply physics and engineering concepts such as projectile motion (for calculating the horizontal distance of the water's fall) and scale modeling principles.
Transcribed Image Text:### Planning an Artificial Waterfall in a City Park A landscape architect is designing an artificial waterfall for a city park. The project involves water flowing at a speed of 0.562 meters per second (m/s) from the end of a horizontal channel situated at the top of a vertical wall. The height (\( h \)) of the wall is 2.25 meters, and the water will fall into a pool below (refer to the figure for clarification). #### Diagram Explanation The figure illustrates a person standing near the edge of a pool, observing the water cascading down from the top of a vertical wall. It provides a visual representation of the water's trajectory and the height from which it falls. #### Questions **(a) How far from the wall will the water land?** \[ \_\_\_\_\_\_\_\_\_\_\_\_\_\_\_\_\_\_\_\_ \text{m} \] **Considerations:** This question requires calculating the horizontal distance from the wall where the water hits the pool. Knowing the water's flow rate and the height of the wall will help in determining the landing point. **(b) Will the space behind the waterfall be wide enough for a pedestrian walkway?** \[ \text{(Assume the water must land 2 meters from the wall to provide adequate space for a person to walk beneath the waterfall.)} \] - Yes - No **(c) To sell her plan to the city council, the architect wants to build a scale model (one-seventeenth of the actual size). How fast should the water flow in the channel in the model?** \[ \_\_\_\_\_\_\_\_\_\_\_\_\_\_\_\_\_\_\_\_ \text{m/s} \] ### Additional Information When considering the scale model, it's important to adjust the water flow speed proportionally to reflect the actual scenario accurately. This involves scaling the speed according to the reduction in size to maintain dynamic similarity. **Submit Your Answers:** [Submit Answer Button] --- This interactive content encourages users to apply physics and engineering concepts such as projectile motion (for calculating the horizontal distance of the water's fall) and scale modeling principles.
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