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Korean scientists fired a missile aimed at destroying the moon, so US scientists fired an interceptor missile to save it. By graphing the missile trajectories and calculating their speeds, the group found the missiles would intersect over 10 days after launch, below the moon's orbit, safely intercepting the Korean missile. Their calculations and CIA report concluded the moon was not threatened.
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Korean scientists fired a missile aimed at destroying the moon, so US scientists fired an interceptor missile to save it. By graphing the missile trajectories and calculating their intersection point and speeds, the group found the missiles would intersect over 6,000 miles from the moon in about 10 days, safely below the moon, so the moon was not threatened. Possible errors include inaccuracies in the best-fit lines, slopes, and intersection point calculations from the graphs.
Cia Missile Launch
The team used math skills to simulate intercepting a North Korean missile headed for the moon. They graphed the trajectories of the North Korean and American missiles to find their point of intersection, determining the missiles would collide after 10.11 days at a distance of 225,000 miles from Earth. Their math skills showed how problems in class relate to real-life scenarios like nuclear nonproliferation. Potential errors included entering wrong numbers or rounding inaccuracies affecting calculations.
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Mathkm
Korean scientists fired a missile aimed at destroying the moon, so US scientists fired an interceptor missile to save it. By graphing the missile trajectories and calculating their intersection point and speeds, the group found the missiles would intersect over 6,000 miles from the moon in about 10 days, safely below the moon, so the moon was not threatened. Possible errors include inaccuracies in the best-fit lines, slopes, and intersection point calculations from the graphs.
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Korean scientists fired a missile aimed at destroying the moon, so US scientists fired an interceptor missile to save it. By graphing the missile trajectories and calculating their speeds, the group found the missiles would intersect over 10 days after launch, below the moon's orbit, safely intercepting the Korean missile. Their calculations and CIA report concluded the moon was not threatened.
Koreanmissilemath
Korean scientists fired a missile aimed at destroying the moon, so US scientists fired an interceptor missile to save it. By graphing the missile trajectories and calculating their speeds, the group found the missiles would intersect over 10 days after launch, below the moon's orbit, safely intercepting the Korean missile. Their calculations and CIA report concluded the moon was not threatened.
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Mathkm
Korean scientists fired a missile aimed at destroying the moon, so US scientists fired an interceptor missile to save it. By graphing the missile trajectories and calculating their intersection point and speeds, the group found the missiles would intersect over 6,000 miles from the moon in about 10 days, safely below the moon, so the moon was not threatened. Possible errors include inaccuracies in the best-fit lines, slopes, and intersection point calculations from the graphs.
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The team used graphing calculators to model the trajectories of missiles launched by North Korea and the United States towards the moon. They graphed the best fit lines for each missile and found their point of intersection, determining the missiles would collide after 10.11 days at an altitude of 225,000.68 miles. This showed how the team's math skills could solve a real-world problem by intercepting the nuclear missile before it reached the moon. Possible errors included entering incorrect numbers or rounding values inaccurately during calculations.
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The team used graphing calculators to model the trajectories of missiles launched by North Korea and the United States towards the moon. They graphed the best fit lines for each missile and found their point of intersection, determining the missiles would collide after 10.11 days at an altitude of 225,000.68 miles. This showed how the team's math skills could solve a real-world problem by intercepting the nuclear missile before it reached the moon. Possible errors included entering incorrect numbers or rounding values inaccurately during calculations.
Cia Missile Launch
The team used math skills to simulate intercepting a North Korean missile headed for the moon. They graphed the trajectories of the North Korean and American missiles to find their point of intersection, determining the missiles would collide after 10.11 days at a distance of 225,000 miles from Earth. Their math skills showed how problems in class relate to real-life scenarios like nuclear nonproliferation. Potential errors included entering wrong numbers or rounding inaccuracies affecting calculations.
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The document summarizes calculations done by a team to determine where two intercepting missiles launched from the US and North Korea would collide. The team used data on the missiles' distance from Earth each day to create plots and best fit lines. Using substitution, they calculated the missiles would intercept after 10 days, 9 hours and 36 minutes, 232,323 miles from Earth, safely past the moon. The team concluded the American missile would intercept the Korean missile without endangering the moon.
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2) Data from a satellite was used to calculate the speed of each missile and graph lines of best fit.
3) By solving a system of equations, the group determined the missiles would collide at coordinates (10.40664753, 232323.5464), just .267895586 days from the moon, potentially saving it.
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Mathkm
Korean scientists fired a missile aimed at destroying the moon, so US scientists fired an interceptor missile to save it. By graphing the missile trajectories and calculating their speeds, the group found the missiles would intersect over 10 days after launch, below the moon's orbit, safely intercepting the Korean missile. Their calculations and CIA report concluded the moon was not threatened.
Koreanmissilemath
Korean scientists fired a missile aimed at destroying the moon, so US scientists fired an interceptor missile to save it. By graphing the missile trajectories and calculating their speeds, the group found the missiles would intersect over 10 days after launch, below the moon's orbit, safely intercepting the Korean missile. Their calculations and CIA report concluded the moon was not threatened.
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Viewers also liked (6)
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Mathkm
Korean scientists fired a missile aimed at destroying the moon, so US scientists fired an interceptor missile to save it. By graphing the missile trajectories and calculating their intersection point and speeds, the group found the missiles would intersect over 6,000 miles from the moon in about 10 days, safely below the moon, so the moon was not threatened. Possible errors include inaccuracies in the best-fit lines, slopes, and intersection point calculations from the graphs.
Cia Missile Launch
The team used graphing calculators to model the trajectories of missiles launched by North Korea and the United States towards the moon. They graphed the best fit lines for each missile and found their point of intersection, determining the missiles would collide after 10.11 days at an altitude of 225,000.68 miles. This showed how the team's math skills could solve a real-world problem by intercepting the nuclear missile before it reached the moon. Possible errors included entering incorrect numbers or rounding values inaccurately during calculations.
Cia Missile Launch
The team used graphing calculators to model the trajectories of missiles launched by North Korea and the United States towards the moon. They graphed the best fit lines for each missile and found their point of intersection, determining the missiles would collide after 10.11 days at an altitude of 225,000.68 miles. This showed how the team's math skills could solve a real-world problem by intercepting the nuclear missile before it reached the moon. Possible errors included entering incorrect numbers or rounding values inaccurately during calculations.
Cia Missile Launch
The team used math skills to simulate intercepting a North Korean missile headed for the moon. They graphed the trajectories of the North Korean and American missiles to find their point of intersection, determining the missiles would collide after 10.11 days at a distance of 225,000 miles from Earth. Their math skills showed how problems in class relate to real-life scenarios like nuclear nonproliferation. Potential errors included entering wrong numbers or rounding inaccuracies affecting calculations.
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The document summarizes calculations done by a team to determine where two missiles launched from Earth and North Korea would intercept. The team created plots of the missiles' distance from Earth over time and calculated best fit lines. Using these lines, they determined the missiles would intercept after 10 days, 9 hours and 36 minutes at a distance of 232,323 miles from Earth, safely past the moon.
Intercepting Missiles 1
The document summarizes calculations done by a team to determine where two intercepting missiles launched from the US and North Korea would collide. The team used data on the missiles' distance from Earth each day to create plots and best fit lines. Using substitution, they calculated the missiles would intercept after 10 days, 9 hours and 36 minutes, 232,323 miles from Earth, safely past the moon. The team concluded the American missile would intercept the Korean missile without endangering the moon.
Math Presentation
The document summarizes a math presentation about calculating the collision point of North Korean and US missiles to save the moon. It lists group members and their roles, the procedure used involving graphing calculators and linear regression, and reports that the missiles will collide at a point (10.40664753, 232323.5464) only 0.267895586 days from the moon, with possible errors noted in the math.
Math Thingy
US defense satellites detected a North Korean missile targeting the moon. The US launched a counter missile to intercept it. Data showed the increasing distances of both missiles from Earth over 8 days. Calculations using the missiles' lines of best fit predicted they would collide 230,633 miles from Earth on day 10 1/3, assuming perfect conditions. The report concludes America successfully neutralized the enemy missile and protected capitalism.
Math Missile Project
The document summarizes a math project analyzing the trajectory of North Korean and American missiles. It finds that the missiles will collide 10.4064291 days after launch at a distance of 232,317.8288 miles from Earth, which is 6,579.1712 miles from the moon, meaning the moon will not be damaged. The project involved finding the line of best fit for each missile's daily distance traveled, graphing the lines, and algebraically solving for their intersection point.
Systems Webquest
The document provides steps to calculate the intersection point of paths for North Korean and American missiles traveling from Earth. It includes entering missile distance data into a statistics program to generate linear equations, graphing the lines of best fit, and using an intersection tool to find where the paths cross. The intersection point is reported along with calculations of missile speeds and the distance to the moon for comparison. Potential sources of error are also discussed.
Math Presentation
1) A math presentation was created to model the trajectory of missiles launched by North Korea and the US to determine where they would collide.
2) Data from a satellite was used to calculate the speed of each missile and graph lines of best fit.
3) By solving a system of equations, the group determined the missiles would collide at coordinates (10.40664753, 232323.5464), just .267895586 days from the moon, potentially saving it.
4) However, the report notes there is uncertainty due to possible human errors in plotting points or calculating best fit lines.
SlideEgg_200407-Chandrayaan 3.pptx
Chandrayaan 3 is India's third lunar mission to soft land on the lunar south pole region in order to conduct scientific experiments studying the lunar geology, atmosphere, and environment. The mission was launched on July 14, 2023 and successfully landed the Vikram lander and Pragyan rover on the Moon's south pole on August 23, 2023, making India the first nation to soft land in that region. The lander and rover will conduct experiments over the next 14 days.
Chandrayaan 3.pptx
Chandrayaan-3 was India's third lunar mission that successfully soft landed its Vikram lander and Pragyan rover on the Moon's south pole region in August 2023. The mission objectives were to demonstrate a safe landing, conduct rover operations, and on-site surface experiments. Key technologies included hazard detection systems, inertial measurement units, and propulsion systems. The mission concluded with both the lander and rover entering sleep modes after completing their tasks of studying lunar geology and the environment over a period of 14 Earth days.
chandrayan 3 ppt. (3).pptx
Chandrayaan-3 was India's third lunar mission that successfully soft landed its Vikram lander and deployed its Pragyan rover on the lunar south pole in August 2023. The mission objectives were to demonstrate a safe landing, conduct rover operations, and perform on-site experiments over a period of one lunar day (14 Earth days). Key aspects included demonstrating technologies like hazard detection and precision landing, as well as scientific payloads on the lander and rover to study lunar geology, atmosphere, and water resources. The mission was successfully launched on July 14, 2023 and involved complex orbital maneuvers before Vikram landed on August 23rd and Pragyan was deployed on August 24th, marking India as the first
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The document provides step-by-step instructions for calculating the average orbital velocity of Earth around the Sun. It states that Earth travels around the Sun in an elliptical orbit at an average distance of 584 million miles over 365 days. Plugging these numbers into the formula for average speed (distance/time), it is calculated that Earth travels at a rate of 1.6 million miles per day or 67,000 miles per hour. The document also provides an example calculation for the average orbital velocity of Mars, which is found to be about 54,000 miles per hour.
Physical Science-Q4-Week-8_THE EXPANDING UNIVERSEv2.pdf
The document discusses measuring distances in the universe. It explains that there is no single method, but rather a "cosmic distance ladder" is used, with different techniques applied at increasing distances. These include radar ranging for nearby objects, parallax for stars up to 300 light years away, and main sequence fitting, Cepheids, supernovae and redshift to measure more distant galaxies and quasars billions of light years from Earth. The document also outlines evidence that the universe is expanding from an initial hot, dense state nearly 14 billion years ago.
Korean Missile Crisis
The document outlines a student project analyzing the hypothetical speeds of Korean and American missiles. It assigns roles, describes the calculation process of finding the linear rate of change, includes a graph of the missile distances over time, and concludes that the American missile would intercept the Korean missile before it reaches the moon. Sources of potential error are also listed.
CIA Missle Project
The document summarizes calculations done to determine the intersection point and timing of North Korean and American missiles targeting the moon. It is found that the missiles intersect at a point (10.406648,232323.55) hours into the flight, with the American missile reaching this point first and destroying the North Korean missile, saving the moon. The average speeds of the missiles are also calculated. Possible errors in the calculations are noted to be data entry mistakes or inaccuracies in the Earth-moon distance value used.
Math Thingy
The document summarizes the detection and neutralization of a North Korean missile targeting the moon by the United States. It provides data on the trajectory and speed of both missiles. Calculations using graphing equations estimate that the US missile will collide with the North Korean missile 10.33 days later at a distance of approximately 230,633 miles from Earth, saving the moon. The document celebrates the success and asserts that America has protected capitalism.
Od report team_3_2019
This document summarizes observations of asteroid 68950 (2002 QF15) conducted by a student team over several nights at the Etscorn Observatory in New Mexico. Through imaging the asteroid at multiple points in its orbit and performing astrometry to determine its right ascension and declination, the team aimed to calculate the asteroid's orbital elements and compare them to known values. Bad weather hindered some observation sessions. The team used various software tools to process the images, locate the asteroid, perform photometry and astrometry, and determine the orbital elements through the Method of Gauss.
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Physical Science-Q4-Week-8_THE EXPANDING UNIVERSEv2.pdf
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