Need help answering exploration 1.2 and exploration 2.2 thanks! ### Exploration 2: Angular Dependence of Range on Angle**Exploration 2.1:** Consider the case where the ball lands at the same level that it is fired. The range of the ball (distance travelled in the x-direction) can be determined in terms of the initial velocity, \( v_0 \), the initial angle \( \theta \), and the gravitational constant, \( g \). Use the equations of motion in both the x- and y-directions to determine the equation for the range. Show your work on how it is derived. (Don’t just write the equation down.) ### Physics Exploration Activities#### Exploration 1.2: Initial and Final Positions MeasurementYou will be measuring the initial and final positions, but not the time of travel. The time of travel is the same in both the x and y directions. Solve the kinematics equations for the initial velocity of the ball in terms of fundamental constants and quantities you can measure, such as initial and final positions. Show your work and write the equations in the space below.#### Exploration 1.3: Firing the Ball at Different AnglesIf you fire the ball at a different angle (≠ 0), will the initial velocity be the same or different from the horizontal case? Explain the difference in the two cases.**Student Handwritten Response:**It will be different because when fired horizontally, only the horizontal component of velocity is there. At an angle, the initial velocity is split into horizontal and vertical components.---#### Explanation of Diagrams (If Applicable)There appears to be a faint and partially visible diagram on the page which might be illustrating the trajectory of a projectile or the setup for the kinematics experiment. However, due to the faintness and incomplete visibility, it is challenging to provide a full description of the diagram.This activity is designed to enhance your understanding of the kinematic equations and the impact of different forces and angles on the motion of a projectile. Make sure to analyze and measure carefully to determine the initial velocities accurately. Your observations and detailed equations will provide deeper insights into the fundamentals of projectile motion.

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Exploration 2.1 Consider the case where the ball lands at the same level tħat it is fired. The range of the ball (distance travelled in the x- direction) can be determined in terms of the initial velocity, v, the initial angle, 0, and the gravitational constant, g. Use the equations of motion in both the x- and y- directions to determine the equation for the range. (Don't just write the equation down. Show your work on how it is derived.)

Exploration 2.1 Consider the case where the ball lands at the same level tħat it is fired. The range of the ball (distance travelled in the x- direction) can be determined in terms of the initial velocity, v, the initial angle, 0, and the gravitational constant, g. Use the equations of motion in both the x- and y- directions to determine the equation for the range. (Don't just write the equation down. Show your work on how it is derived.)

Horizons: Exploring the Universe (MindTap Course List)

14th Edition

ISBN:9781305960961

Author:Michael A. Seeds, Dana Backman

Publisher:Michael A. Seeds, Dana Backman

Chapter15: Origin Of The Solar System And Extrasolar Planets

Section: Chapter Questions

Problem 13RQ: What does the term differentiated mean when applied to a planet? Would you expect to find that...

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Problem 4. Physical Features of the Giant Planets: Volume and Density of Jupiter (Palen, et. al. 1st Ed. Chapter 8 Problem 57 ) Jupiter is an oblate (Links to an external site.) planet with an average radius of 69,900 km, compared to Earth’s average radius of 6,370 km. How many Earth volumes could fit inside Jupiter? Jupiter is 318 times as massive as the Earth. How does Jupiter’s density compare (Links to an external site.) to that of Earth?
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* Question Completion Status: Consider two vectors and shown in the figure below. The vector sum is best illustrated by A+B OA. OB. Click Save and Submit to save and submit. Click Save All Answers to save all answers. O Type here to search TA
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Please answer the following and a) Use 10 m/s^2, not 9.8 m/s^2 for gravity in calculation. b) Fill out the graph and system/ flow diagram, if possibe Thanks.
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college.com/course.html?courseld3D168765858&OpenVellumHMAC3Deca93c2c656be349bee6a952b986809b#10001 Problem 9.110 E Reading list 6 of 6 Astronomers estimate that a 2.0-km-wide asteroid collides with the Earth once every million years. The collision could pose a threat to life on Earth. Constants | Periodic Table Part A Assume a spherical asteroid has a mass of 3500 kg for each cubic meter of volume and moves toward the Earth at 15 km/s. How much destructive energy could be released when it embeds itself in the Earth? Express your answer using two significant figures. να Α ? Easteroid = Submit Request Answer Part B For comparison, a nuclear bomb could release about 4.0x1016 J. How many such bombs Pearson temView?assignmentProblemID=158457852&offset=Dnext 1:17 AM 46°F Clear 12/4/2021
Procedure Table 11.1 presents Djup and Pday for the major Jovian satellites. First use these data and the equation above to calculate Jupiter’s mass in kilograms (kg). Enter your results in the table for each satellite. Next calculate the average Jupiter mass (Mjup, av) and enter the result in the table. Finally, calculate the percent difference (PD) using Mjup, av and the standard value for Jupiter’s mass (1.9 X 1027 kg). In the calculation of PD you can ignore 1027 because it will appear in both numerator and denominator. ________________________________________________________ Table 11.1 Calculated values for Jupiter’s Mass Satellite Djup Pday Mjup Io 2.95 1.77 Europa 4.69 3.55 Ganymede 7.50 7.15 Callisto 13.15 16.7 __________________________________________________________ Average Jupiter Mass = Percent Difference =
MY NOTES ASK YOUR TEACHER PRACTICE ANOTHER The Curiosity Rover has recently landed on Mars and likes to send Twitter updates on its progress. If a tweet is posted 11 minutes after it was sent, how far is Curiosity from Earth? (Assume there is no network lag.) m Additional Materials O Reading
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lo Europa Ganymede Callisto Orbital Period (Days) 2 3.57 7.12 16.43 Mass Calculation Amplitude (Jupiter Diameters) 0.00311048 0.00460952 0.2087671 Average: 0.01285714 Mass of Jupiter as determined by Orbital Period (Years) a3 P2 lo: Con vert ↓ Europa: Ganymede: Callisto: 0.00547345 0.00978082 0.01950685 All values should be 3 significant figures! Examples: 6.44x104 or 5.78 or 0.00752 0.0450137 You now have P (period) and a (semi major axis) for each moon orbiting Jupiter. Using the following equation, calculate the mass of Jupiter as measured by each moon. Then average. M≈ Semi Major Axis (AU) 3.266 (This is a modified Kepler's 3rd law which only works if units of AU, Years, and Solar mass are used) 4.84 7.62 13.5 Solar Masses Solar Masses Solar Masses Solar Masses Solar Masses