Summary of Contents for Thames & Kosmos Space-explorers 620734
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E X PE R I M E NT M A N UA L Franckh-Kosmos Verlags-GmbH & Co. KG, Pfizerstr. 5-7, 70184 Stuttgart, Germany | +49 (0) 711 2191-0 | www.kosmos.de Thames & Kosmos, 301 Friendship St., Providence, RI, 02903, USA | 1-800-587-2872 | www.thamesandkosmos.com Thames &...
› › › SAFETY INFORMATION Safety Information Notes on Disposal of Electrical and Electronic Components WARNING. Only for use by children aged 8 years and older. Instructions for parents or other supervising adults are included The electronic components of this product are recyclable. For the and have to be observed.
› › › TIPS AND TRICKS Hole A Hole Here are a few tips for assembling and using the models. Read them carefully before starting. Hole A. Gear hole alignment Pay close attention to the alignment of the Hole C holes in the gear wheels.
Remote-Control Machines: Space Explorers › › › TABLE OF CONTENTS Safety Information ............Inside front cover Kit Contents ...................... 1 Tips and Tricks ....................2 Table of Contents .................... 3 Exploring Space with Machines and Robots Mars Exploration .................... 4 Build a model resembling the Curiosity Mars Rover and learn about how it got to Mars and what it did when it got there.
Exploring Space with Machines and Robots Robots are mechanical agents controlled by computer programs. They can be programmed to perform all sorts of tasks and movements. Robots can assemble cars, play soccer, wash windows, vacuum floors, fly planes, map terrain, climb mountains, entertain people, cook dinner —...
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Mars Exploration Push Done! Exploring “Mars” EXPERIMENT 1 HERE’S HOW investigated and collected such as and, while staying at least one meter Have a friend or family member set small cardboard boxes (e.g., tea away from the model at all times, try up a make-believe Mars landscape in boxes and matchboxes), light toys, to collect all of the objects and bring...
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CHECK IT OUT Curiosity Makes You Smarter On November 26, 2011, the moment had finally arrived. The most ambitious NASA mission to date for the exploration of Mars had started: The Mars Science Laboratory (MSL) lifted off from Cape Canaveral on board an Atlas V 541 rocket. The centerpiece of this Mars mission was the Curiosity rover.
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Mars Exploration CURIOSITY’S ENGINEERING IN DETAIL With a mass of 900 kg and the size of a compact car, Curiosity is by far the heaviest man-made object ever to land on the Martian surface. In contrast to earlier rover missions to Mars, Curiosity is powered with a small atomic battery rather than solar cells.
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CHECK IT OUT WELL EQUIPPED WITH DRILL, SHOVEL, AND BRUSH Curiosity’s arm is equipped with a drilling system, a digging shovel, a brush, and a sieve with collection containers. This equipment can even allow it to analyze deeper levels of soil and rock.
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Mars Exploration Getting to Know Mars, One Step at a Time For researchers, Mars was right up there with the moon as an attractive candidate for exploration. It is close to Earth and a rocky planet. It gets its red color from iron compounds in its soil. Its surface is a rocky desert with monstrous extinct volcanoes and dried seas and river beds.
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CHECK IT OUT Curiosity Opportunity WATER AND ICE ON MARS! In January 2004, the NASA rovers Spirit and Sojourner Opportunity landed on Mars. In early March, they delivered the sensational news: There was liquid water on Mars. Opportunity found sulfur compounds that can only form in liquid water.
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SPACE SHUTTLE EXPERIMENT 2 Cargo mission Done! HERE’S HOW What can your space shuttle transport to the International Space Station? Turn on your model and see if you can remotely control the space shuttle’s cargo bay doors to open and the inner mechanical arm to lift out of the cargo bay.
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Getting to Space CHECK IT OUT A Cargo Truck for Space Its loading bay gave the Space Shuttle a lot of flexibility. It was the only carrier capable of taking a cargo of up to 24.5 tons from Earth to space, such as to the International Space Station.
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SHUTTLE ARM 35-mm axle 35-mm axle Connect to hole B...
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Getting to Space EXPERIMENT 3 Reach for the stars HERE’S HOW Turn your model on and test its range of motion. How far to the left and right can it turn? Can it turn all the way around? Can it reach down to the horizontal plane (to the tabletop)? How high up can it reach? Also, try affixing some heavier building pieces to the end of the arm: Can it lift...
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CHECK IT OUT Robotics Comes in Handy The Space Shuttle was a reusable spaceplane developed by NASA. It is sometimes also referred to as an orbiter. It functioned as both a space taxi and a space transporter. For example, it carried both astronauts and materials to the International Space Station (ISS), which orbits the Earth at a height of around 400 km.
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Shoot for the Moon Done! EXPERIMENT 4 That’s one small step ... HERE’S HOW Many areas on the moon’s surface are very flat, so your lunar rover model was designed to travel on smooth, flat surfaces. But can it drive over bumpier or rougher terrain? First try driving the model on a smooth floor, such as a wood floor.
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CHECK IT OUT BREAKDOWN SERVICE ON THE MOON For power, it carried two non- rechargeable 36-volt silver oxide-zinc batteries, which gave it a top speed of 13 km/h and a maximum range of 92 km. On the second day of the Apollo 17 mission, a fender was torn off the LRV’s right rear wheel and had to be repaired.
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Deep Space Done! EXPERIMENT 5 Aiming high HERE’S HOW As the operator of this rocket launch car, it’s your job to get this rocket, which is carrying a scientific probe, into space. Mission control has given you specific instructions to drive the rocket launch vehicle two meters forward and then position the rocket at a 25-degree angle to prepare it for blast off.
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PROBE “Communications antenna” EXPERIMENT 6 Searching far and wide HERE’S HOW Pretend you are a NASA scientist. Your space probe needs to be deployed on a mission to travel far away from Earth and photograph planets as it Done! passes by them. Once it is in space, it has “solar panel arms”...
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Deep Space Traveling Through Endless Space A satellite is an artificial spacecraft. This kind of attendant — which is the literal meaning of the Latin word — orbits around a heavenly body such as a planet or a moon. Satellites that orbit Earth are known as Earth satellites. Sputnik 1 (1) was the first artificial Earth satellite.
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SPACE DROID Rubbery plastic Hard plastic Align 10 x 27 x 35-mm axle 35-mm axle...
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Robots in Space 35-mm axle Rubbery plastic 35-mm axle Rubbery plastic...
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SPACE DROID Hole A Connect to holes B Hole Hole Hole C Connect to holes B Done! EXPERIMENT 7 At your service HERE’S HOW Your personal assistant droid is ready to serve you. Can you control it to move forward and backward in a straight line? Can you control it to turn left and right by only powering one motor at a time? Can you make it stand upright as if to greet a newly discovered alien friend?
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Robots in Space CHECK IT OUT The Famous Robots of Hollywood Droids, or human-like robots, have already existed for a while in the fantasy worlds of science fiction books and movies. Science fiction conceives of worlds in which new technological possibilities and speculations are woven into the story.
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WALKING BOT 11 x 30-mm axle 8 x 26 x 5 x 30-mm axle Hole A Hole Hole Hole C 30-mm axle...
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Robots in Space Connect to hole A 35-mm axle...
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Robots in Space Stickers EXPERIMENT 8 Walking the walk Done! HERE’S HOW This robot pal is designed to walk on two legs. Experiment with the positioning of the rods that make up its feet. Can you get it to balance on one foot and then the other, to slowly shift its weight back and forth between legs, and thus move forward or backward?
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CROSS-WING STARSHIP Done! EXPERIMENT 9 Jumping into hyperspace HERE’S HOW This fantastic model imagines a time in the future when hyperspace travel — faster than light speed travel — is possible. The thruster wings in the back lock together during light speed travel and separate to provide greater maneuverability when flying through atmosphere.
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SPACESHIP CONTROLLER Roll Pitch EXPERIMENT 10 Space flight simulator HERE’S HOW In space, the concepts of “up” and “down” don’t mean what they do on Earth! If you had a Done! spaceship, you could point it in any direction and go.
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Futuristic Spacecraft CHECK IT OUT Where do we go from here? Robot technologies have long been successfully used in the exploration of planets and space. Without them, there would be no spectacular missions to Mars or anywhere else. But researchers have also been working on other astounding ideas and solutions.
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Kosmos Quality and Safety More than one hundred years of expertise in publishing science experiment kits stand behind every product that bears the Kosmos name. Kosmos experiment kits are designed by an experienced team of specialists and tested with the utmost care during development and production.
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