Known As The Horsehead Nebula – But You Can Call It Starbiscuit.

Comet Hale-Bopp 

images: x, x

Mimas (moon of Saturn) taken by the Cassini spacecraft.

Credit: NASA/JPL

Crescent Moon and Earth’s Atmosphere Seen by International Space Station

Credit: NASA

We were founded in New Taipei, Taiwan in 2005. We are a professional manufacturer of automotive diagnostic wires(OEM,OBM,ODM). For customers, we adhere to the principle of customer supremacy and strive to meet the requirements as a business philosophy. With professional technical strength, flexible production operation, and responsible and active attitude, we ensure that products gallop at high speed in the transmission of information, so as to ensure that customers can continuously get the greatest satisfaction while using the product.

www.vobd.com.tw

To the Moon and Beyond: Why Our SLS Rocket Is Designed for Deep Space

It will take incredible power to send the first woman and the next man to the Moon’s South Pole by 2024.  That’s where America’s Space Launch System (SLS) rocket comes in to play.

Providing more payload mass, volume capability and energy to speed missions through deep space than any other rocket, our SLS rocket, along with our lunar Gateway and Orion spacecraft, creates the backbone for our deep space exploration and Artemis lunar mission goals.

Here’s why our SLS rocket is a deep space rocket like no other:

It’s a heavy lifter

The Artemis missions will send humans 280,000 miles away from Earth. That’s 1,000 times farther into space than the International Space Station. To accomplish that mega feat, you need a rocket that’s designed to lift — and lift heavy. With help from a dynamic core stage — the largest stage we have ever built — the 5.75-million-pound SLS rocket can propel itself off the Earth. This includes the 57,000 pounds of cargo that will go to the Moon. To accomplish this, SLS will produce 15% more thrust at launch and during ascent than the Saturn V did for the Apollo Program.

We have the power 

Where do our rocket’s lift and thrust capabilities come from? If you take a peek under our powerful rocket’s hood, so to speak, you’ll find a core stage with four RS-25 engines that produce more than 2 million pounds of thrust alongside two solid rocket boosters that each provide another 3.6 million pounds of thrust power. It’s a bold design. Together, they provide an incredible 8.8 million pounds of thrust to power the Artemis missions off the Earth. The engines and boosters are modified heritage hardware from the Space Shuttle Program, ensuring high performance and reliability to drive our deep space missions.

A rocket with style

While our rocket’s core stage design will remain basically the same for each of the Artemis missions, the SLS rocket’s upper stage evolves to open new possibilities for payloads and even robotic scientific missions to worlds farther away than the Moon like Mars, Saturn and Jupiter. For the first three Artemis missions, our SLS rocket uses an interim cryogenic propulsion stage with one RL10 engine to send Orion to the lunar south pole. For Artemis missions following the initial 2024 Moon landing, our SLS rocket will have an exploration upper stage with bigger fuel tanks and four RL10 engines so that Orion, up to four astronauts and larger cargoes can be sent to the Moon, too. Additional core stages and upper stages will support either crewed Artemis missions, science missions or cargo missions for a sustained presence in deep space.

It’s just the beginning

Crews at our Michoud Assembly Facility in New Orleans are in the final phases of assembling the core stage for Artemis I— and are already working on assembly for Artemis II.

Through the Artemis program, we aim not just to return humans to the Moon, but to create a sustainable presence there as well. While there, astronauts will learn to use the Moon’s natural resources and harness our newfound knowledge to prepare for the horizon goal: humans on Mars.

Make sure to follow us on Tumblr for your regular dose of space: http://nasa.tumblr.com

Neptune and its moons (Proteus, Larissa, Despina and Galatea) 

Credit: NASA / Hubble (infrared)

The total solar eclipse of 02 July 2019 from La Serena, Chile.

Credit: Gwenael Blanck

Total solar eclipse, 2 July 2019.

Credits: ESA/CESAR

Venus and the Sisters (pleiades)

Image Credit: Fred Espenak (Bifrost Astronomical Observatory) more images: instagram @astronomy.blog