BRANDT'S RANDOM GOVERNMENT PRESS RELEASES: MISSILE DEFENSE PLAN FOR EUROPE

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Saturday, June 9, 2012

UPDATE ON U.S. APPROACH TO MISSILE DEFENSE IN EUROPE

Photo: Missile Interceptor Test Launch. Credit: U.S. Navy.
FROM: U.S. STATE DEPARTMENT
Reinforcing Stability Through Missile Defense
Remarks Frank A. Rose
Deputy Assistant Secretary, Bureau of Arms Control, Verification and Compliance OSCE Forum for Security Cooperation
Vienna, Austria
June 6, 2012
Thank you so much for inviting me to speak today. This venue provides an opportunity for constructive dialogue on current security issues, and in this context, I will share an update on the U.S. approach to missile defense. At the State Department, I am responsible for overseeing a wide range of defense policy issues, including missile defense. In that capacity, it was my responsibility to negotiate the details of the Ballistic Missile Defense (BMD) agreements with Poland, Romania, and Turkey that will enable the United States to implement the European Phased Adaptive Approach. I will touch more on this later in my presentation, but suffice to say that I have been focused over the last couple of years on ensuring that we are able to meet the vision President Obama laid out in his 2009 announcement regarding the European Phased Adaptive Approach.

Missile Defense Policy
Today, the threat from short-, medium-, and intermediate-range ballistic missiles to our deployed forces, allies, and partners is growing. This regional threat is likely to increase in both quantitative and qualitative terms in the coming years, as some states are increasing their inventories, and making their ballistic missiles more accurate, reliable, mobile, and survivable.

Recognizing the seriousness of the ballistic missile threat, the United States seeks to create an environment, based on strong cooperation with allies and partners, which will diminish an adversary’s confidence in the effectiveness of ballistic missile attacks. This will devalue ballistic missiles and provide a disincentive for their development, acquisition, deployment, and use. To that end, President Obama has made international cooperation on missile defense a key priority, and we are pursuing a region-by-region approach based on the following three principles:

First, the United States will strengthen regional deterrence architectures built upon solid cooperative relationships with an eye toward efficiently incorporating assets and structures that our partners already have today or are seeking.

Second, the United States is pursuing phased adaptive approaches (PAAs) to missile defense within key regions that are tailored to their unique deterrence requirements and threats, including the scale, scope, and pace of their development, and the capabilities available and most suited for deployment. Specifically, we will phase in the best available technology to meet existing and evolving threats, and adapt to situations that evolve in the future.

Third, recognizing that our supply of missile defense assets cannot meet the global demand we face, the United States is developing mobile capabilities that can be relocated to adapt to a changing threat and provide surge defense capabilities where they are most needed.

Missile defense plays an important role in the broader U.S. international security strategy, supporting both deterrence and diplomacy. Missile defense assures our allies and partners that the United States has the will and the means to deter and, if necessary, defeat a limited ballistic missile attack against the U.S. homeland and regional ballistic missile attacks against our deployed forces, allies, and partners.

NATO and European Missile Defense
Today I will focus on our work in Europe, which continues to receive a great deal of attention. In order to augment the defense of the United States against a future long-range threat and provide more comprehensive and more rapid protection to our deployed forces and European Allies against the current threat, President Obama outlined a four-phase approach for European missile defense called the European Phased Adaptive Approach or EPAA. Through the EPAA, the United States will deploy increasingly capable BMD assets to defend Europe against a ballistic missile threat from the Middle East that is increasing both quantitatively and qualitatively.

The EPAA is designed to protect our deployed forces and Allies in Europe, as well as improve protection of the U.S. homeland against potential ICBMs from the Middle East. As part of Phase 1, we have deployed to Turkey, a missile defense radar, referred to as the AN/TPY-2 radar. Also, as part of Phase 1, the United States deployed a BMD-capable Aegis ship to the Mediterranean Sea in March of 2011, and has maintained a BMD-capable ship presence in the region ever since.

Slightly more than a year ago, we concluded negotiations with Romania to host a U.S. land-based SM-3 BMD interceptor site, designed to extend missile defense protection to a greater portion of Europe. The land-based SM-3 system to be deployed to Romania is anticipated to become operational in the 2015 timeframe. We also reached an agreement with Poland to place a similar U.S. BMD interceptor site there in the 2018 timeframe, which will extend missile defense protection to all of NATO Europe.

The Obama Administration is implementing the EPAA within the NATO context. At the 2010 Lisbon Summit, NATO Heads of State and Government approved a new Strategic Concept and took the historic decision to develop the capability to defend NATO European populations and territory against the growing threat from ballistic missile proliferation. The Allies also welcomed the EPAA as a U.S. national contribution to the new NATO territorial missile defense capability, in support of our commitment to the collective defense of the Alliance under Article 5 of the North Atlantic Treaty. At the Lisbon Summit, NATO Heads of State and Government also decided to expand the scope of the NATO Active Layered Theatre Ballistic Missile Defense (ALTBMD) program to serve as the command, control, and communications network to support this new capability. NATO allies have committed to investing over $1 billion for command, control, and communications infrastructure to support NATO missile defense.

On May 20-21, the NATO Heads of State and Government met in Chicago for the NATO Summit and announced that NATO has achieved an interim BMD capability. This means that the Alliance has an operationally meaningful standing peacetime ballistic missile defense capability. NATO also agreed on the command and control procedures for ballistic missile defense, designated Supreme Allied Commander Europe (SACEUR) as the commander for this mission, and demonstrated an interoperable command and control capability funded by all Allies. To support this interim BMD capability, the United States will offer EPAA assets to the Alliance as voluntary national contributions to the BMD mission, and will welcome contributions by other Allies. For example, President Obama announced in Chicago that he has directed the transfer of the AN/TPY-2 radar deployed in Turkey to NATO operational control. The EPAA also includes BMD-capable Aegis ships that can perform many roles besides BMD. If conditions warrant, we will transfer BMD-capable Aegis ships to NATO operational control.

These decisions have created a framework for Allies to contribute and optimize their own BMD assets for our collective defense, and the United States welcomes contributions from other Allies. Several NATO Allies possess land- and sea-based sensors that could be linked into the system, as well as lower tier systems that can be integrated and used to provide point defense. For example, the Netherlands has indicated that it will spend close to 250 million Euros to modify the radars on its frigates to detect and track ballistic missiles at long ranges and has indicated it will contribute its Patriot BMD systems to the NATO missile defense mission.

Russia
An update on missile defense cooperation with Europe should also include a discussion of our efforts to pursue cooperation with the Russian Federation. Missile defense cooperation with Russia is a Presidential priority, as it has been for several Administrations going back to President George H.W. Bush in the early 1990s.

When President Obama announced his new vision for missile defense in Europe in September 2009, he stated that “we welcome Russia’s cooperation to bring its missile defense capabilities into a broader defense of our common strategic interests.” Missile defense cooperation with Russia will not only strengthen our bilateral and NATO-Russia relationships, but also could enhance NATO’s missile defense capabilities. Successful missile defense cooperation would provide concrete benefits to Russia, our NATO Allies, and the United States and will strengthen – not weaken – strategic stability over the long term.

This means it is important to get the Russian Federation inside the missile defense tent now, working alongside the United States and NATO, while we are in the early stages of our efforts. Close cooperation between Russia and the United States and NATO is the best and most enduring way for Russia to gain the assurance that European missile defenses cannot and will not undermine its strategic deterrent.

Through this cooperation, Russia would see firsthand that this system is designed for the ballistic missile threat from outside the Euro-Atlantic area, and that NATO missile defense systems will not undermine Russia’s strategic nuclear deterrent capabilities. Working together on missile defense would also send a strong message to proliferators that the United States, NATO, and Russia are working to counter their efforts. And in Chicago, the NATO Allies in our Summit Declaration stated that “Through ongoing efforts in the NATO-Russia Council, we seek to determine how independent NATO and Russian missile defence systems can work together to enhance European security. We look forward to establishing the proposed joint NATO-Russia Missile Data Fusion Centre and the joint Planning Operations Centre to cooperate on missile defence.”

That said, Russia has raised the issue of wanting a legal guarantee with a set of “military-technical criteria” that could, in effect, create limitations on our ability to develop and deploy future missile defense systems against regional ballistic missile threats such as those presented by Iran and North Korea. We have made it clear that we cannot and will not accept limitations on our ability to defend ourselves, our allies, and our partners, including where we deploy our BMD-capable Aegis ships. These are multi-mission ships that are used for a variety of purposes around the world, not just for missile defense.

While we seek to develop ways to cooperate with Russia on missile defense, it is important to remember that under the terms of Article 5 of the North Atlantic Treaty, NATO alone bears responsibility for defending the Alliance from the ballistic missile threat. This is why the United States and NATO cannot agree to Russia’s proposal for “sectoral” missile defense. Just as Russia must ensure the defense of Russian territory, NATO must ensure the defense of NATO territory. NATO cannot and will not outsource its Article 5 commitments.

We would, however, be willing to agree to a political framework including a statement that our missile defenses are not directed at Russia. Any such statement would be politically binding and would publicly proclaim our intent to work together and chart the direction for cooperation.

As the NATO Declaration issued at the Chicago summit stated: “We propose to develop a transparency regime based upon a regular exchange of information about the current respective missile defence capabilities of NATO and Russia. Such concrete missile defence cooperation is the best means to provide Russia with the assurances it seeks regarding NATO’s missile defence plans and capabilities. In this regard, we today reaffirm that the NATO missile defence in Europe will not undermine strategic stability. NATO missile defence is not directed against Russia and will not undermine Russia’s strategic deterrence capabilities. NATO missile defence is intended to defend against potential threats emanating from outside the Euro-Atlantic area. ”

We look forward to continuing discussions with the Russian Federation to develop a mutually agreed framework for missile defense cooperation.

Conclusion
Today’s ballistic missile threats continue to increase in number and sophistication. This increasing threat reinforces the importance of our collaborative missile defense efforts with allies and partners around the world, which not only strengthen regional stability, but also provide protection for our forces serving abroad and augment the defense of the United States. At the same time we are continuing to work with Russia and appreciate the statements of President Putin, Prime Minister Medvedev, and other Russian officials that we should continue to work to find common ground to resolve our differences.
Thank you for your time and attention. I look forward to your questions.

Friday, April 13, 2012

STATE DEPARTMENT ON PHASED ADAPTIVE APPROACH TO MISSILE DEFENSE

FROM: U.S. STATE DEPARTMENT
A U.S. State Department Perspective on the Phased Adaptive Approach to Missile Defense
Remarks Frank A. Rose
Deputy Assistant Secretary, Bureau of Arms Control, Verification and Compliance Remarks to the Middle East Missile & Air Defense Symposium
Abu Dhabi, United Arab Emirates
April 12, 2012
As delivered
Thank you so much for inviting me to speak today. I am very pleased to have the opportunity to come to the United Arab Emirates to give remarks at this distinguished gathering of missile and air defense experts.

At the State Department, I am responsible for overseeing a wide range of defense policy issues, including missile defense. In that capacity, it was my responsibility to negotiate the details of the missile defense agreements with Poland, Romania and Turkey that will enable the United States to implement the missile defense plan for Europe that President Obama announced in September 2009 as a contribution to NATO missile defense. I will touch more on this later in my presentation, but suffice to say that I have been focused over the last couple of years on ensuring that we are able to meet the vision the President laid out in his 2009 announcement.

In my presentation today, I’d like to do two things. First, I would like to discuss some of the thinking behind the administration’s missile defense policy. Second, I’ll discuss how we are implementing that policy around the world.

Missile Defense Policy
Missile defense plays an important role in the broader U.S. international security strategy, supporting both deterrence and diplomacy. Missile defense assures our allies and partners that the United States has the will and the means to deter and, if necessary, defeat a limited ballistic missile attack against the U.S. homeland, our forward deployed troops, allies, and partners. Missile defense also may help constrain regional actors from trying to inhibit or disrupt the U.S. ability to come to the defense or assistance of its allies and partners.

The Ballistic Missile Defense Review (BMDR), released in February 2010, set out a new policy framework and committed the United States to pursue a phased adaptive approach (PAA) to missile defense within particular regions. The BMDR set out in detail the first regional application—in Europe. Much more recently, the President and Secretary of Defense announced in January of this year the U.S. Priorities for 21st Century Defense. This document provides strategic guidance to re-balance our efforts to emphasize the Asia-Pacific and Middle East regions. It states, “U.S. policy will emphasize Gulf security, in collaboration with Gulf Cooperation Council countries when appropriate …” and also notes that “… Of particular concern are the proliferation of ballistic missiles and weapons of mass destruction (WMD).”

In its assessment of the threat, the BMDR noted that the threat from short-, medium-, and intermediate-range ballistic missiles to our deployed forces, allies, and partners is growing, and this threat is likely to increase in both quantity and quality in the coming years. Many states are increasing their inventories, and making their ballistic missiles more accurate, reliable, mobile, and survivable. Trends in ballistic missiles show increased ranges, more advanced propellant systems, better protection from pre-launch attack, and the ability to counter BMD systems. The proliferation of ballistic missiles and associated materials to several countries in the region remains a source of concern as it could accelerate the development of more sophisticated systems.

Recognizing the seriousness of the ballistic missile threat, the United States seeks to create an environment, based on strong cooperation with allies and partners, which will eliminate an adversary’s confidence in the effectiveness of missile attacks and thereby devalue and provide a disincentive for the development, acquisition, deployment, and use of ballistic missiles. To that end, President Obama has made international cooperation on missile defense a key priority.

Recognizing that each region has unique deterrence and defense requirements due to differences in geography, history, and relationships, the United States is pursuing a region-by-region approach based on the following three principles:

First, the United States will deter adversaries through strong regional deterrence architectures built upon solid cooperative relationships with an eye toward efficiently incorporating assets and structures that our partners already have today or are seeking.

Second, the United States will pursue a Phased Adaptive Approach (PAA) within key regions that is tailored to the threats unique to that region, including the scale, scope, and pace of their development, and the capabilities available and most suited for deployment. This approach means we will phase in and implement the best available technology to meet existing and evolving threats, and adapt to situations that evolve in an unforeseen manner.

Third, in order to meet a global demand for missile defense assets that will continue to exceed supply, the United States will develop mobile capabilities that can be relocated to adapt to a changing threat, or provide surge defense capabilities where they are most needed.

Missile defense is an integral part of a comprehensive U.S. effort to strengthen regional deterrence architectures. As I mentioned, this plays a central role in the new strategic guidance the Department of Defense released in January 2012.

Europe
Let me now discuss our efforts in Europe, which have received a great deal of attention. In order to augment the defense of the United States and provide more comprehensive and more rapid BMD protection to our European Allies and U.S. deployed forces, in 2009 President Obama outlined a four-phase implementation plan for European defense. Through the European Phased Adaptive Approach (EPAA), the United States will deploy increasingly capable BMD assets to defend European population and territory against a ballistic missile threat from outside the Euro-Atlantic area that is increasing both quantitatively and qualitatively. At the 2010 NATO Summit in Lisbon Allies welcomed the EPAA as the U.S. contribution to the NATO missile defense capability.

Our NATO Allies also have systems that they can contribute to the collective defense. Some of our Allies, for example, have Aegis ships with advanced sensor capabilities that could provide valuable contributions even without SM-3 interceptors. Our Allies also possess other land- and sea-based sensors that could be linked into the system, as well as lower tier systems, such as PATRIOT, that can be integrated and used to provide point defense.

EPAA Phase 1 gained its first operational elements in 2011 with the start of a sustained deployment of an Aegis BMD-capable multi-role ship to the Mediterranean. The deployment of an AN/TPY-2 missile defense radar in Turkey was the other key part of EPAA Phase 1.

For Phase 2 of the EPAA, we have an agreement with Romania to host a U.S. land-based SM-3 interceptor site beginning in the 2015 timeframe. This site would provide protection against medium-range ballistic missiles launched from the Middle East.
We also have an agreement with Poland to place a similar U.S. SM-3 interceptor site there in the 2018 timeframe for Phase 3 of the EPAA.
Finally, with respect to Phase 4, the Department of Defense has begun concept development of a more advanced interceptor for deployment in the 2020 timeframe that will enhance our ability to counter medium- and intermediate-range ballistic missiles and potential future ICBM threats to the United States from the Middle East.

Russia
An update on missile defense should also include a mention of our efforts to pursue cooperation with Russia. Missile defense cooperation with Russia is a Presidential priority, and we believe it is in everyone’s interest. When President Obama announced his new vision for missile defense in Europe in September 2009, he stated that “we welcome Russia’s cooperation to bring its missile defense capabilities into a broader defense of our common strategic interests.” Missile defense cooperation with Russia will not only strengthen our bilateral and NATO-Russia relationships, but could enhance NATO’s missile defense capabilities. Successful missile defense cooperation would provide concrete benefits to Russia, our NATO Allies, and the United States and will strengthen - not weaken – strategic stability over the long term.

This means getting Russia inside the missile defense tent now, working alongside the United States and NATO, while we are in the early stages of our efforts. This way Russia will be able to see NATO missile defense with its own eyes. Close cooperation with the United States and NATO by Russia is the best and most enduring way for it to gain the assurance that European missile defenses do not undermine Russia’s strategic deterrent. Through this cooperation, Russia would see firsthand that this system is designed for the threat from outside the Euro-Atlantic area, and that NATO missile defense systems will not threaten Russia’s strategic nuclear capabilities. This cooperation is essential to convince Russia that the NATO system does not undermine Russian strategic deterrence. Cooperation will also allow Russia to see that the EPAA is designed to be flexible. Should the ballistic missile threat from nations like Iran change, increasing or decreasing, our missile defense system can be adapted accordingly.

Russia has raised the issue of a legal guarantee with a set of “military-technical criteria” that could, in effect, create limitations on our ability to develop and deploy future missile defense systems. We certainly cannot accept limitations on our ability to defend ourselves, our allies, and our partners, including where we deploy our Aegis ships. These are multi-mission ships that are used for a variety of purposes around the world, not just for missile defense. We also will NOT accept limitations on the capabilities, and numbers of our missile defense systems. We would be willing to agree to a political framework including a statement that our missile defenses are not directed at Russia. In fact, this is what we have been saying all along: any statement will be politically binding and it would publicly proclaim our intent to cooperate and chart the direction for cooperation, not limitations. Our cooperation with Russia will not come at the expense of our plans to defend against regional ballistic missile threats or for the defense of the U.S. homeland.

Asia-Pacific
In the Asia-Pacific region, the United States is committed to working with our allies and partners to strengthen stability and security in the region.
Japan is one of our closest allies, a leader in missile defense within the region, and one of the United States’ closest BMD partners. The United States and Japan have made significant strides in interoperability. The United States and Japan regularly train together, and our forces have successfully executed cooperative BMD operations. Japan has acquired a layered integrated BMD system that includes Aegis BMD ships with Standard Missile 3 interceptors, Patriot Advanced Capability 3 (PAC-3) fire units, early warning radars, and a command and control system. We also worked cooperatively to deploy a forward-based X-band radar in Japan. One of our most significant cooperative efforts is the co-development of a next-generation SM-3 interceptor, called the Block IIA. This co-development program represents not only an area of significant technical cooperation but also the basis for enhanced operational cooperation to strengthen regional security.
The Republic of Korea (ROK) is also a key U.S. ally and, recognizing the North Korean missile threat, the United States stands ready to work with the ROK to strengthen its BMD capabilities. We are working together to define possible future ROK BMD requirements and the United States looks forward to taking further steps to build upon this ongoing missile defense cooperation.

Australia signed a BMD Framework MOU with the U.S. in July 2004, making it one of the first U.S. partners on BMD. Australia has been a strong supporter of bilateral technology cooperation with the United States and the Nimble Titan series of multilateral missile defense wargames. We continue to consult with Australia bilaterally regarding missile defense cooperation. Similar to some of our Allies in Europe, Australia has a class of surface combatants – the Air Warfare Destroyer – that uses the Aegis Combat System that could be upgraded in the future to provide a missile defense capability.

The Middle East
I am sure that today’s audience is most interested in our missile defense cooperation in the Middle East. In this region, the United States has had a continuous missile defense presence and seeks to strengthen cooperation with its partners in the Gulf Cooperation Council (GCC). The importance of this issue was demonstrated by the prominence it received by Secretary Clinton and her GCC counterparts in the first ministerial meeting of the U.S.-GCC Strategic Cooperation Forum in Riyadh on March 31 of this year. A number of states in the region already deploy PATRIOT batteries and are exploring purchases of some missile defense capabilities under the auspices of the foreign military sales (FMS) program.

The UAE continues to be a leader in the field of ballistic missile defense. On December 25, 2011, the UAE became the first international partner to purchase the Terminal High Altitude Area Defense, or “THAAD,” system from the United States. This robust area defense capability, in conjunction with the acquisition of PAC-3 point defense systems, will provide the UAE with a layered missile defense capability, ensure interoperability with United States forces, and contribute to regional stability. These purchases highlight the strong ties and common strategic interests between the United States and the UAE.
As our partners acquire greater missile defense capabilities, the United States will work to promote interoperability and information sharing among the GCC states. This will allow for more efficient missile defenses and could lead to greater security cooperation in the region. As Secretary of State Clinton said in Riyadh at the GCC Strategic Cooperation Forum, “we believe strongly that, in addition to the bilateral military cooperation between the United States and every member nation of the GCC, we can do even more to defend the Gulf through cooperation on ballistic missile defense.”

In sync with our BMD cooperation goals, we’re also working hard to prevent missile proliferation. The U.S. actively participates in the Missile Technology Control Regime (MTCR), which serves as the global standard for controlling the transfer of equipment, software, and technology that could make a contribution to the development of WMD-capable missile and unmanned aerial vehicle delivery systems. We are also working through the Proliferation Security Initiative (PSI) and other counter-proliferation activities to help partners improve their ability to stop shipments of proliferation concern. These are just some of our ongoing efforts to tackle the missile threat and prevent missile proliferation. While much of this work is performed quietly, the impact of all of these efforts is of crucial importance to international peace and security.

Conclusion
While the title “Phased Adaptive Approach to missile defense” is perhaps a new conceptual way of thinking about our efforts in Asia and the Middle East, our partnerships in missile and air defense are certainly not new. Our cooperation here in the Middle East has been strong, and continues to be dynamic and productive. As we continue to strengthen cooperation here, we know there is a strong foundation to build on. We welcome your thoughts on how this can all be done in a regional context that bolsters regional stability. We believe that better insights into each other’s operational concepts and the possibility of greater interoperability are a few of the key elements of this endeavor.

The January 2012 “Priorities for the 21st Century Defense” make it clear that we will be rebalancing our efforts to emphasize the Middle East. Over the coming months, I would hope that we will be able to offer more details on those efforts, particularly as they apply to ballistic missile defense.

The increasing threat associated with the proliferation of ballistic missiles reinforces the importance of continuing and strengthening our collaborative missile defense efforts. However, beyond bilateral cooperation, we need to develop regional missile defense architectures that will enable us to leverage our bilateral cooperation so that nations share BMD-related information and capabilities on a multilateral basis. While we think about what a phased adaptive approach would look like in the Middle East, we recognize that each region has unique factors that will likely shape our approach in ways that are different from our approach in other regions. Each region has unique threats, capabilities, history, and geography. Our allies and partners in the Middle East have their own BMD assets, their own ways of integrating them into their defense structures and each of our efforts brings different advantages to the missile defense table. We need to work together to determine how we can fully leverage those advantages to protect ourselves.
Thank you for your time and attention. I look forward to your questions.

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NORTH SEA WITH BLOOMING PHYTOPLANKTON

Despite its cold waters and harsh winds, the North Sea is a fertile basin for phytoplankton blooms. The drifting, plantlike organisms tend to be most abundant in late spring and early summer due to high levels of nutrients in the water and increasing sunlight. The intense winds blowing over the relatively shallow North Sea causes a lot of vertical and horizontal mixing that brings nutrients to the surface, as does runoff from European rivers. This image, acquired on June 11, 2015, by the Moderate Resolution Imaging Spectroradiometer (MODIS) on NASA’s Aqua satellite, shows a mass of phytoplankton blooming between Denmark, the United Kingdom, and Germany. As compared to a June 6 image showing a different stage of the bloom cycle, areas of concentrated phytoplankton are smaller and most have the milky color characteristic of coccolithophores; there are few to no green areas. The change could be due to the short life span of phytoplankton—two to six days—and differences between the species. Some outlast others because of their ability to survive at lower nutrient levels. Some researchers have found that numbers of plankton can actually begin to increase in the middle of winter, when growth conditions would seem to be at their worst. Studies suggest that winter storms churn the ocean and cause deep water mixing. This water mixing allows for phytoplankton to grow and live at depth without being spotted by their predators. When spring arrives, phytoplankton can fully bloom because not only are the nutrients available, but there is a longer period of sunlight. Image Credit: NASA Earth Observatory images by Jesse Allen, using data from the Level 1 and Atmospheres Active Distribution System (LAADS). Caption: Rachel Carlowicz with Mike Carlowicz

WATCHING YOUNG STARS SPARKLE

While fireworks only last a short time here on Earth, a bundle of cosmic sparklers in a nearby cluster of stars will be going off for a very long time. NGC 1333 is a star cluster populated with many young stars that are less than 2 million years old, a blink of an eye in astronomical terms for stars like the Sun expected to burn for billions of years. To make a detailed study of the X-ray properties of young stars, a team of astronomers, led by Elaine Winston from the University of Exeter, analyzed both the Chandra X-ray data of NGC 1333, located about 780 light years from Earth, and of the Serpens cloud, a similar cluster of young stars about 1100 light years away. They then compared the two datasets with observations of the young stars in the Orion Nebula Cluster, perhaps the most-studied young star cluster in the Galaxy.The researchers found that the X-ray brightness of the stars in NGC 1333 and the Serpens cloud depends on the total brightness of the stars across the electromagnetic spectrum, as found in previous studies of other clusters. They also found that the X-ray brightness mainly depends on the size of the star. In other words, the bigger the stellar sparkler, the brighter it will glow in X-rays. Image credit: X-ray: NASA/CXC/SAO/S.Wolk et al; Optical: DSS & NOAO/AURA/NSF; Infrared: NASA/JPL-Caltech.

ARTIST GRAPHIC OF PLUTO'S OCCULATION

The Stratosphere Observatory for Infrared Astronomy (SOFIA) is a modified Boeing 747SP aircraft that makes celestial observations with its German-built 100-inch telescope. The telescope is enhanced to collect infrared radiation, and is able to detect energy at a wider range of wavelengths than any other ground-based or space telescope. SOFIA can fly anywhere in the world, and operates at altitudes up to 45,000 feet, putting the observatory above more than 99 percent of Earth's atmospheric water vapor that blocks infrared radiation from celestial objects. SOFIA is flying out of Christchurch, New Zealand, where its telescope can study celestial objects more easily observed from the Southern Hemisphere. Starting June 28 through the 29th, instruments on the plane will observe Pluto as it passes in front of a background star. Data returned from the observations will be provided to the New Horizon team who is preparing for Pluto's occultation, July 13 through the 15th. Image is an artist's conception of the Pluto occultation seen close-up, not a photo. Credits: NASA Graphic.

SHOOTING STARS IN SPACE

Caption Credit: NASA. Astronaut Ron Garan, Expedition 28 flight engineer, tweeted this image from the International Space Station in August, 2011 with the following caption: “What a `Shooting Star’ looks like from space, taken yesterday during Perseid Meteor Shower.” A special camera to record meteor showers will launch to the International Space Station aboard SpaceX's Dragon cargo craft, currently scheduled to launch on June 28, 2015, from Cape Canaveral Air Force Station, Florida. The Meteor investigation should be installed in the station’s Window Observational Research Facility by the end of July, enabling scientists to learn more about the composition and behavior of asteroids and comets that cross paths with Earth. The investigation's camera is programmed to record known major meteor showers during its two-year orbit and could spot unpredicted showers as well. Image Credit: NASA.

SUNSET ON MARS

Curiosity used its Mast Camera (Mastcam) to record the sunset during an evening of skywatching on April 15, 2015. The imaging was done between dust storms, but some dust remained suspended high in the atmosphere. The sunset observations help researchers assess the vertical distribution of dust in the atmosphere. "The colors come from the fact that the very fine dust is the right size so that blue light penetrates the atmosphere slightly more efficiently," said Mark Lemmon of Texas A&M University, College Station, the Curiosity science-team member who planned the observations. "When the blue light scatters off the dust, it stays closer to the direction of the sun than light of other colors does. The rest of the sky is yellow to orange, as yellow and red light scatter all over the sky instead of being absorbed or staying close to the sun." Just as colors are made more dramatic in sunsets on Earth, Martian sunsets make the blue near the sun's part of the sky much more prominent, while normal daylight makes the rusty color of the dust more prominent. Photo/Caption Credit: NASA.

AN IMPACT LEFT ON MARS

The High Resolution Imaging Science Experiment (HiRISE) camera aboard NASA's Mars Reconnaissance Orbiter acquired this closeup image of a "fresh" (on a geological scale, though quite old on a human scale) impact crater in the Sirenum Fossae region of Mars on March 30, 2015. This impact crater appears relatively recent as it has a sharp rim and well-preserved ejecta. The steep inner slopes are carved by gullies and include possible recurring slope lineae on the equator-facing slopes. Fresh craters often have steep, active slopes, so the HiRISE team is monitoring this crater for changes over time. The bedrock lithology is also diverse. The crater is a little more than 1-kilometer wide. Image Credit: NASA/JPL/University of Arizona. Caption: Alfred McEwen.

A LOOK AT GALAXY NSG 6503

Caption Credit: NASA.Most galaxies are clumped together in groups or clusters. A neighboring galaxy is never far away. But this galaxy, known as NGC 6503, has found itself in a lonely position, at the edge of a strangely empty patch of space called the Local Void. The Local Void is a huge stretch of space that is at least 150 million light-years across. It seems completely empty of stars or galaxies. The galaxy’s odd location on the edge of this never-land led stargazer Stephen James O’Meara to dub it the “Lost-In-Space galaxy” in his 2007 book, Hidden Treasures. NGC 6503 is 18 million light-years away from us in the northern circumpolar constellation of Draco. NGC 6503 spans some 30,000 light-years, about a third of the size of the Milky Way. This Hubble Space Telescope image shows NGC 6503 in striking detail and with a rich set of colors. Bright red patches of gas can be seen scattered through its swirling spiral arms, mixed with bright blue regions that contain newly forming stars. Dark brown dust lanes snake across the galaxy’s bright arms and center, giving it a mottled appearance. The Hubble Advanced Camera for Surveys data for NGC 6503 were taken in April 2003, and the Wide Field Camera 3 data were taken in August 2013. The Hubble Space Telescope is a project of international cooperation between NASA and the European Space Agency. NASA’s Goddard Space Flight Center in Greenbelt, Maryland, manages the telescope. The Space Telescope Science Institute (STScI) in Baltimore conducts Hubble science operations. STScI is operated for NASA by the Association of Universities for Research in Astronomy, Inc., in Washington, D.C. Photo Credit: NASA, ESA, D. Calzetti (University of Massachusetts), H. Ford (Johns Hopkins University), and the Hubble Heritage Team.

FIRST AMERICAN WOMAN FLIES INTO SPACE ON SPACE SHUTTLE CHALLENGER

On June 18, 1983, Sally Ride became the first American woman to fly in space when the space shuttle Challenger launched on mission STS-7 from Pad 39A at NASA's Kennedy Space Center in Florida. The STS-7 crew consisted of astronauts Robert Crippen, commander, the first two-time space shuttle astronaut; Frederick H. Hauck, pilot; and three mission specialists -- Ride, John M. Fabian and Norman E. Thagard. This high-angle view of the shuttle liftoff, showing a lengthy stretch of Florida Atlantic coastline and a number of large cumulus clouds, was photographed with a handheld 70mm camera by astronaut John W. Young, who piloted the Shuttle Training Aircraft (STA) for weather monitoring at launch and landing sites for STS missions. One of Sally Ride's jobs was to call out "Roll program" seven seconds after launch. "I'll guarantee that those were the hardest words I ever had to get out of my mouth," she said later. Image Credit: NASA.

ON EDGE SPIRAL GALAXY NGC 5023

Caption Credit: NASA. This NASA/ESA Hubble Space Telescope image shows an edge-on view of the spiral galaxy NGC 5023. Due to its orientation we cannot appreciate its spiral arms, but we can admire the elegant profile of its disk. The galaxy lies over 30 million light-years away from us. NGC 5023 is part of the M51 group of galaxies. The brightest galaxy in this group is Messier 51, the Whirlpool Galaxy, which has been captured by Hubble many times. NGC 5023 is less fond of the limelight and seems rather unsociable in comparison — it is relatively isolated from the other galaxies in the group. Astronomers are particularly interested in the vertical structure of disks like these. By analyzing the structure above and below the central plane of the galaxy they can make progress in understanding galaxy evolution. Astronomers are able to analyze the distribution of different types of stars within the galaxy and their properties, in particular how well evolved they are on the Hertzsprung–Russell Diagram — a scatter graph of stars that shows their evolution. NGC 5023 is one of six edge-on spiral galaxies observed as part of a study using Hubble’s Advanced Camera for Surveys. They study this vertical distribution and find a trend which suggests that heating of the disc plays an important role in producing the stars seen away from the plane of the galaxy. In fact, NGC 5023 is pretty popular when it comes to astronomers, despite its unsociable behavior. The galaxy is also one of 14 disk galaxies that are part of the GHOSTS survey — a survey which uses Hubble data to study galaxy halos, outer disks and star clusters. It is the largest study to date of star populations in the outskirts of disk galaxies. The incredible sharp sight of Hubble has allowed scientist to count more than 30,000 individual bright stars in this image. This is only a small fraction of the several billion stars that this galaxy contains, but the others are too faint to detect individually even with Hubble. European Space Agency Credit-ESA-NASA

U.S. SAILORS RECOVER NASA TEST VEHICLE

A CROWDED NEIGHBORHOOD OF STARS

This NASA/ESA Hubble Space Telescope image presents the Arches Cluster, the densest known star cluster in the Milky Way. It is located about 25,000 light-years from Earth in the constellation of Sagittarius (The Archer), close to the heart of our galaxy, the Milky Way. It is, like its neighbor the Quintuplet Cluster, a fairly young astronomical object at between two and four million years old. The Arches cluster is so dense that in a region with a radius equal to the distance between the sun and its nearest star there would be over 100,000 stars! At least 150 stars within the cluster are among the brightest ever discovered in the Milky Way. These stars are so bright and massive that they will burn their fuel within a short time (on a cosmological scale that means just a few million years). Then they will die in spectacular supernova explosions. Due to the short lifetime of the stars in the cluster the gas between the stars contains an unusually high amount of heavier elements, which were produced by earlier generations of stars. Despite its brightness the Arches Cluster cannot be seen with the naked eye. The visible light from the cluster is completely obscured by gigantic clouds of dust in this region. To make the cluster visible astronomers have to use detectors which can collect light from the X-ray, infrared, and radio bands, as these wavelengths can pass through the dust clouds. This observation shows the Arches Cluster in the infrared and demonstrates the leap in Hubble’s performance since its 1999 image of same object. Image credit: NASA/ESA. Text credit: European Space Agency

SECOND TEST OF NASA'S LDSD

The second flight test of NASA's Low-Density Supersonic Decelerator (LDSD) will be attempted on Tuesday, June 2 at no earlier than 1:30 p.m. EDT (7:30 a.m. HST), launching a rocket-powered, saucer-shaped test vehicle into near-space from the Pacific Missile Range Facility on the island of Kauai in Hawaii. The LDSD project, led by the Jet Propulsion Laboratory in Pasadena, California, and sponsored by NASA’s Space Technology Mission Directorate in Washington, is conducting this full-scale flight test of two breakthrough technologies: a supersonic inflatable aerodynamic decelerator, or SIAD, and an innovative new parachute. These devices potentially will help us deliver double the current amount of payload — 1.5 metric tons — to the surface of Mars. They also will greatly increase the accessible surface area we can explore, and will improve landing accuracy from a margin of approximately 6.5 miles to a little more than 1 mile. All these factors will dramatically increase the success of future missions on Mars. The LDSD project's successful first flight test was launched on June 28, 2014. In this photograph, a full mission dress rehearsal is held for the LDSD project, Friday, May 29, 2015, at the U.S. Navy Pacific Missile Range Facility (PMRF) in Kauai, HI. Image Credit: NASA/Bill Ingalls

NASA SUPPORTS F-15 PROGRAM

NASA pilot Jim Less and photographer Jim Ross pull their F-15D #897 aircraft away from a KC-135 refueling tanker. NASA is supporting the Edwards Air Force Base F-15 program with safety and photo chase expertise. NASA Armstrong Flight Research Center currently flies an F-15D Eagle aircraft for research support and pilot proficiency. NASA research support aircraft are commonly called chase planes and fill the role of escort aircraft during research missions. Chase pilots are in constant radio contact with research pilots and serve as an "extra set of eyes" to help maintain total flight safety during specific tests and maneuvers. They monitor certain events for the research pilot and are an important safety feature on all research missions. Chase aircraft also are used as camera platforms for research missions that must be photographed or videotaped. Aeronautical engineers use this pictorial coverage (photos, motion pictures, and videotape) extensively to monitor and verify various aspects of research projects. The F-15D is also used by Armstrong research pilots for routine flight training required by all NASA pilots. Image Credit: NASA/Jim Ross.

SDO IMAGES OF THE SOLAR ATMOSPHEREE

Caption Credit: NASA. The Atmospheric Imaging Assembly (AIA) instrument aboard NASA's Solar Dynamics Observatory (SDO) images the solar atmosphere in multiple wavelengths to link changes in the surface to interior changes. Its data includes images of the sun in 10 wavelengths every 10 seconds. When AIA images are sharpened a bit, such as this AIA 171Å channel image, the magnetic field can be readily visualized through the bright, thin strands that are called "coronal loops". Loops are shown here in a blended overlay with the magnetic field as measured with SDO's Helioseismic and Magnetic Imager underneath. Blue and yellow represent the opposite polarities of the magnetic field. The combined images were taken on Oct. 24, 2014, at 23:50:37 UT. Image Credit: NASA SDO.

DEPRESSION ON SURFACE OF MARS

Caption Credit: NASA. This image of a circular depression on the surface of Mars was acquired on Jan. 5, 2015 by the High Resolution Imaging Science Experiment (HiRISE) camera on NASA's Mars Reconnaissance Orbiter (MRO). The spacecraft has been orbiting Mars since March 2006 and completed its 40,000th orbit around Mars on Feb. 7, 2015. The target of this observation is a circular depression in a dark-toned unit associated with a field of cones to the northeast. At the scale of an image taken by MRO's Context Camera, which provides wide area views to provide context for high-resolution analysis, the depression appears to expose layers especially on the sides or walls, which are overlain by dark sands presumably associated with the dark-toned unit. The HiRISE camera's resolution, which is far higher than that of the Context Camera and its larger footprint, can help identify possible layers. HiRISE is one of six instruments on the Mars Reconnaissance Orbiter. The University of Arizona, Tucson, operates HiRISE, which was built by Ball Aerospace & Technologies Corp., Boulder, Colo. NASA's Jet Propulsion Laboratory, a division of the California Institute of Technology in Pasadena, manages the Mars Reconnaissance Orbiter Project for NASA's Science Mission Directorate, Washington. Image Credit-NASA-JPL-Caltech-University of Arizona.

FLEET WEEK NEW YORK 2015

Caption Credit: U.S. Navy. 150520-N-PJ969-213 NEW YORK (May 20, 2015) The amphibious transport dock ship USS San Antonio (LPD 17) enters New York harbor during the Parade of Ships to start Fleet Week New York 2015. Fleet Week New York, now in its 27th year, is the city's time-honored celebration of the sea services. It is an unparalleled opportunity for the citizens of New York and the surrounding tri-state area to meet Sailors, Marines and Coast Guardsmen, as well as witness firsthand the latest capabilities of today's maritime services. (U.S. Navy photo by Mass Communication Specialist 2nd Class Abe McNatt/Released)

22,000 LIGHT YEARS TO EARTH: NGC 6535

This image captures the stunning NGC 6535, a globular cluster 22,000 light-years away in the constellation of Serpens (The Serpent) that measures one light-year across. Globular clusters are tightly bound groups of stars which orbit galaxies. The large mass in the rich stellar centre of the globular cluster pulls the stars inward to form a ball of stars. The word globulus, from which these clusters take their name, is Latin for small sphere. Globular clusters are generally very ancient objects formed around the same time as their host galaxy. To date, no new star formation has been observed within a globular cluster, which explains the abundance of aging yellow stars in this image, most of them containing very few heavy elements. NGC 6535 was first discovered in 1852 by English astronomer John Russell Hind. The cluster would have appeared to Hind as a small, faint smudge through his telescope. Now, over 160 years later, instruments like the Advanced Camera for Surveys (ACS) and Wide Field Camera 3 (WFC3) on the NASA/ European Space Agency (ESA) Hubble Space Telescope allow us to marvel at the cluster and its contents in greater detail. European Space Agency Credit: ESA/Hubble & NASA, Acknowledgement: Gilles Chapdelaine.

HEAVY RAINFALL FALLS ON AUSTRALIAN COASTS

Caption Credit: NASA. The rainfall accumulation analysis above was computed from data generated by the Integrated Multi-satellite Retrievals for GPM (IMERG) during the period from April 28 to May 3, 2015. During this period IMERG algorithms continuously merged and interpolated satellite passive microwave precipitation estimates and microwave-calibrated infrared (IR) satellite estimates over the entire globe. Rainfall from cyclone Quang fell over the west coast and a non-tropical system pounded the east coast of Australia simultaneously during the past weekend. Cyclone Quang formed in the South Indian Ocean northwest of Australia on April 28, 2015. Quang's peak intensity of 115kts (133 mph) occurred while it was well off western Australia's coast. The heaviest rainfall with cyclone Quang also occurred during this period when the tropical cyclone was far out in the Indian Ocean northwest of Australia's coast. Total rainfall there was measured at over 454 mm (17.9 inches). Heavy rainfall of over 448 mm (17.7 inches) was also found by this analysis in the Coral Sea off Australia's southeast coast. Rainfall totals of above 356 mm (14.0 inches) were analyzed with the passage of the low pressure center over southeastern Australia. Flooding in this area caused the reported deaths of at least four Australians. Credits-SSAI-NASA, Hal Pierce.

SOMEWHERE OVER THE GRAND CANYON

From the International Space Station, NASA astronaut Terry Virts took this photograph of an early morning sunrise over the Grand Canyon and posted it to social media on May 10, 2015. Because the station completes each trip around the globe in about 92 minutes, the crew experiences 16 sunrises and sunsets each day. The space station and its crew orbit Earth from an altitude of 220 miles, traveling at a speed of approximately 17,500 miles per hour. Because the station completes each trip around the globe in about 92 minutes, the crew experiences 16 sunrises and sunsets each day. Image Credit: NASA. Last Updated: May 13, 2015. Editor: Sarah Loff

THE ISS SOALR ARRAY

Caption Credit: NASA. Expedition 43 Flight Engineer Samantha Cristoforetti of the European Space Agency (ESA) photographed the giant solar arrays on the International Space Station on Feb. 12, 2015. The space station's solar arrays contain a total of 262,400 solar cells and cover an area of about 27,000 square feet (2,500 square meters) -- more than half the area of a football field. A solar array's wingspan of 240 feet (73 meters) is longer than a Boeing 777's wingspan, which is 212 feet (65 meters). Altogether, the four sets of arrays can generate 84 to 120 kilowatts of electricity -- enough to provide power to more than 40 homes. The solar arrays produce more power than the station needs at one time for station systems and experiments. When the station is in sunlight, about 60 percent of the electricity that the solar arrays generate is used to charge the station's batteries. At times, some or all of the solar arrays are in the shadow of Earth or the shadow of part of the station. This means that those arrays are not collecting sunlight. The batteries power the station when it is not in the sun. Image Credit: ESA/NASA

THE ATMOSPHERE ON MERCURY

Caption Credit: NASA. The Mercury Atmosphere and Surface Composition Spectrometer (MASCS) instrument aboard NASA's MESSENGER spacecraft was designed to study both the exosphere and surface of the planet Mercury. To learn more about the minerals and surface processes on Mercury, the Visual and Infrared Spectrometer (VIRS) portion of MASCS has been diligently collecting single tracks of spectral surface measurements since MESSENGER entered Mercury orbit on March 17, 2011. The track coverage is now extensive enough that the spectral properties of both broad terrains and small, distinct features such as pyroclastic vents and fresh craters can be studied. To accentuate the geological context of the spectral measurements, the MASCS data have been overlain on the monochrome mosiac from the Mercury Dual Imaging System (MDIS), an instrument with wide- and narrow-angle cameras to map the rugged landforms and spectral variations on Mercury’s surface. Click on the image to explore the colorful diversity of surface materials in more detail! The MESSENGER spacecraft is the first ever to orbit the planet Mercury, and the spacecraft's seven scientific instruments and radio science investigation are unraveling the history and evolution of the solar system's innermost planet. In the mission's more than four years of orbital operations, MESSENGER has acquired over 250,000 images and extensive other data sets. MESSENGER's highly successful orbital mission is about to come to an end, as the spacecraft runs out of propellant and the force of solar gravity causes it to impact the surface of Mercury near the end of April 2015. Image Credit: NASA/Johns Hopkins University Applied Physics Laboratory/Carnegie Institution of Washington

NASA'S GREASED LIGHTNING BATTERY PLANE

Caption Credit: NASA. A team at NASA's Langley Research Center is developing a concept of a battery-powered plane that has 10 engines and can take off like a helicopter and fly efficiently like an aircraft. The prototype, called Greased Lightning or GL-10, is currently in the design and testing phase. The initial thought was to develop a 20-foot wingspan (6.1 meters) aircraft powered by hybrid diesel/electric engines, but the team started with smaller versions for testing, built by rapid prototyping. During a recent spring day the engineers took the GL-10 to test its wings at a military base about two hours away from NASA Langley. The remotely piloted plane has a 10-foot wingspan (3.05 meters), eight electric motors on the wings, two electric motors on the tail and weighs a maximum of 62 pounds (28.1 kilograms) at take off. This photograph captures the GL-10 prototype taking off in hover mode like a helicopter. Image Credit: NASA Langley/David C. Bowman

3-D PRINTER AND MANUFACTURING IN SPACE

Caption Credit: NASA. The International Space Station’s 3-D printer has manufactured the first 3-D printed object in space, paving the way to future long-term space expeditions. The object, a printhead faceplate, is engraved with names of the organizations that collaborated on this space station technology demonstration: NASA and Made In Space, Inc., the space manufacturing company that worked with NASA to design, build and test the 3-D printer. This image of the printer, with the Microgravity Science Glovebox Engineering Unit in the background, was taken in April 2014 during flight certification and acceptance testing at NASA's Marshall Space Flight Center in Huntsville, Alabama, prior to its launch to the station aboard a SpaceX commercial resupply mission. The first objects built in space will be returned to Earth in 2015 for detailed analysis and comparison to the identical ground control samples made on the flight printer prior to launch. The goal of this analysis is to verify that the 3-D printing process works the same in microgravity as it does on Earth. The printer works by extruding heated plastic, which then builds layer upon layer to create three-dimensional objects. Testing this on the station is the first step toward creating a working "machine shop" in space. This capability may decrease cost and risk on the station, which will be critical when space explorers venture far from Earth and will create an on-demand supply chain for needed tools and parts. Long-term missions would benefit greatly from onboard manufacturing capabilities. Data and experience gathered in this demonstration will improve future 3-D manufacturing technology and equipment for the space program, allowing a greater degree of autonomy and flexibility for astronauts. Image Credit-NASA-Emmett Given.

AEGIS BALLISTIC MISSILE DEFENSE SYSTEM COMPLETES SIMULATED ENGAGEMENTS

Caption Credit: U.S. DOD. February 24, 2015 Aegis Ballistic Missile Defense System Completes Successful Tracking and Simulated Engagements of Three Short-Range Ballistic Missiles. This test was designated Flight Test Other (FTX)-19. This was the first flight test to assess the ability of the Aegis BMD 4.0 weapon system to simulate engagements of a raid consisting of three short-range, separating ballistic missile targets. This was also the first time Aegis BMD 4.0 ships used the DWES capability with live targets. The MDA will use test results to improve and enhance the Ballistic Missile Defense System and support the advancement of Phase 2 of the Phased Adaptive Approach for missile defense in Europe to provide protection of U.S. deployed forces and our European allies and partners.

FROSTY MARS

Caption: Livio Tornabene, Ryan Hopkins, Kayle Hansen and Eric Pilles. This image of an area on the surface of Mars, approximately 1.5 by 3 kilometers in size, shows frosted gullies on a south-facing slope within a crater. At this time of year, only south-facing slopes retain the frost, while the north-facing slopes have melted. Gullies are not the only active geologic process going on here. A small crater is visible at the bottom of the slope. The image was acquired on Nov. 30, 2014, by the High Resolution Imaging Science Experiment (HiRISE) camera, one of six instruments on NASA's Mars Reconnaissance Orbiter. The University of Arizona, Tucson, operates HiRISE, which was built by Ball Aerospace & Technologies Corp., Boulder, Colorado. NASA's Jet Propulsion Laboratory, a division of the California Institute of Technology in Pasadena, manages the Mars Reconnaissance Orbiter Project for NASA's Science Mission Directorate, Washington. Image Credit: NASA/JPL-Caltech/University of Arizona.

USS THEODORE ROSEVELT SUPPORTING OPERATIONS IN SYRIA AND IRAQ

U.S. NAVY DISPLAYS 28,000 POUNDS OF COCAINE

Caption Credit: U.S. DOD. 150416-N-UL721-037 SAN DIEGO (April 16, 2015) More than 28,000 pounds of cocaine, worth over $424 million, seized in 19 separate interdictions awaits its offload aboard the U.S. Coast Guard Cutter Boutwell (WHEC 719) at Naval Base San Diego. U.S. Navy, U.S. Coast Guard and Royal Canadian Navy ships have seized more cocaine in the last six months than in all of fiscal year 2014. Joint, interagency, and international relationships strengthen U.S. 3rd Fleet's ability to respond to crises and protect the collective maritime interests of the U.S. and its allies and partners. (U.S. Navy photo by Mass Communication Specialist 2nd Class Corey T. Jones/Released)

SPACEX FALCON 9 ROCKET CARRYING SUPPLIES FOR ISS

Caption Credit: NASA. A SpaceX Falcon 9 rocket lifts off from Space Launch Complex 40 at Cape Canaveral Air Force Station carrying the Dragon resupply spacecraft on the sixth commercial resupply services mission to the International Space Station. Liftoff was at 4:10 p.m. EDT, Tuesday, April 14. Research that will help prepare NASA astronauts and robotic explorers for future missions to Mars is among the two tons of cargo on its way to the International Space Station aboard Dragon. The mission is the company's sixth cargo delivery flight to the station through NASA’s Commercial Resupply Services contract. Dragon's cargo will support approximately 40 of the more than 250 science and research investigations that will be performed during Expeditions 43 and 44, including numerous human research investigations for NASA astronaut Scott Kelly's one-year mission in space. Image Credit: NASA/Kim Shiflett

SEA ICE OFF COAST OF EAST ANTARCTICA

On April 5, 2015, the Moderate Resolution Imaging Spectroradiometer (MODIS) on NASA’s Terra satellite acquired this natural-color image of sea ice off the coast of East Antarctica’s Princess Astrid Coast. White areas close to the continent are sea ice, while white areas in the northeast corner of the image are clouds. One way to better distinguish ice from clouds is with false-color imagery. In the false-color view of the scene here, ice is blue and clouds are white. The image was acquired after Antarctic sea ice had passed its annual minimum extent (reached on Feb. 20, 2015), and had resumed expansion toward its maximum extent (usually reached in September). More information: NASA's Earth Observatory Image Credit: NASA/Jeff Schmaltz, LANCE/EOSDIS Rapid Response. Caption: Kathryn Hansen.

WATER, WATER EVERYWHERE?

Caption Credit: NASA. As NASA missions explore our solar system and search for new worlds, they are finding water in surprising places. Water is but one piece of our search for habitable planets and life beyond Earth, yet it links many seemingly unrelated worlds in surprising ways. Perhaps the most surprising water worlds are the five icy moons of Jupiter and Saturn that show strong evidence of oceans beneath their surfaces: Ganymede, Europa and Callisto at Jupiter, and Enceladus and Titan at Saturn. Scientists using NASA's Hubble Space Telescope recently provided powerful evidence that Ganymede has a saltwater, sub-surface ocean, likely sandwiched between two layers of ice. In this artist’s concept, the moon Ganymede orbits the giant planet Jupiter. The Hubble Space Telescope observed aurorae on the moon generated by Ganymede’s magnetic fields. A saline ocean under the moon’s icy crust best explains shifting in the auroral belts measured by Hubble. More: The Solar System and Beyond is Awash in Water Image Credit: NASA/ESA.

HEIST TESTED AT ARMSTRONG FLIGHT RESEARCH CENTER

Caption Credit: NASA. Leading Edge Asynchronous Propeller Technology (LEAPTech) project researchers at NASA's Armstrong Flight Research Center are performing ground testing of a 31-foot-span, carbon composite wing section with 18 electric motors. The LEAPTech project will test the premise that tighter propulsion-airframe integration, made possible with electric power, will deliver improved efficiency and safety, as well as environmental and economic benefits. The experimental wing, called the Hybrid-Electric Integrated Systems Testbed (HEIST), is mounted on a specially modified truck. Testing on the mobile ground rig assembly will provide valuable data and risk reduction applicable to future flight research. Instead of being installed in a wind tunnel, the HEIST wing section will remain attached to load cells on a supporting truss while the vehicle is driven at speeds up to 70 miles per hour across a dry lakebed at Edwards Air Force Base. LEAPTech to Demonstrate Electric Propulsion Technologies Image Credit: Joby Aviation.

MINERAL VEINS ON MOUNT SHARP, MARS

Caption Credit: NASA. This view from the Mast Camera (Mastcam) on NASA's Curiosity Mars rover shows a network of two-tone mineral veins at an area called "Garden City" on lower Mount Sharp. The veins combine light and dark material. The veins at this site jut to heights of up to about 2.5 inches (6 centimeters) above the surrounding rock, and their widths range up to about 1.5 inches (4 centimeters). Figure 1 includes a 30-centimeter scale bar (about 12 inches). Mineral veins such as these form where fluids move through fractured rocks, depositing minerals in the fractures and affecting chemistry of the surrounding rock. In this case, the veins have been more resistant to erosion than the surrounding host rock. This scene is a mosaic combining 28 images taken with Mastcam's right-eye camera, which has a telephoto lens with a focal length of 100 millimeters. The component images were taken on March 18, 2015, during the 929th Martian day, or sol, of Curiosity's work on Mars. The color has been approximately white-balanced to resemble how the scene would appear under daytime lighting conditions on Earth. Malin Space Science Systems, San Diego, built and operates the rover's Mastcam. NASA's Jet Propulsion Laboratory, a division of the California Institute of Technology, Pasadena, manages the Mars Science Laboratory Project for NASA's Science Mission Directorate, Washington. JPL designed and built the project's Curiosity rover. Feature: Curiosity Eyes Prominent Mineral Veins on Mars. Image Credit-NASA-JPL-Caltech-MSSS.

A LOOK AT SUPER TYPHOON MAYSAK FROM ISS

Caption Credit: NASA. Typhoon Maysak strengthened into a super typhoon on March 31, reaching Category 5 hurricane status on the Saffir-Simpson Wind Scale. ESA Astronaut Samantha Cristoforetti captured this image while flying over the weather system on board the International Space Station. The Tropical Rainfall Measuring Mission (TRMM) and Global Precipitation Measurement (GPM) satellites, both co-managed by NASA and the Japan Aerospace Exploration Agency, captured rainfall and cloud data that revealed heavy rainfall and high thunderstorms in the strengthening storm. The TRMM satellite has been collecting valuable scientific data since November 1997. Early on March 30, the satellite collected rainfall data as it flew directly above Maysak at 04:14 UTC (12:14 a.m. EDT) when maximum sustained winds were near 85 knots (98 mph). Rainfall data was collected by TRMM's Microwave Imager (TMI) and Precipitation Radar (PR) instruments and showed heaviest rainfall southwest of the center, and in fragmented bands of thunderstorms northeast of the center. In both of those places rainfall was in excess of 50 mm/2 inches per hour. More information. Image Credit-ESA-NASA-Samantha Cristoforetti.

U.S. AIR FORCE THUNDERBIRDS PERFORM DEMONSTRATION AT NELLIS AFB

WAITING FOR TAKEOFF ABOARD USS BOHNOMME RICHARD

Caption Credit: U.S. Navy. EAST CHINA SEA (March 24, 2015) A Naval Aircrewman awaits takeoff on an MH-60S Sea Hawk helicopter assigned to Helicopter Sea Combat Squadron (HSC) 25 aboard the amphibious assault ship USS Bonhomme Richard (LHD 6). Bonhomme Richard is the lead ship of the Bonhomme Richard Amphibious Ready Group (ARG) and, along with the embarked 31st Marine Expeditionary Unit (31st MEU), is underway in the U.S. 7th Fleet area of responsibility. U.S. Navy photo by Mass Communication Specialist 3rd Class Kevin V. Cunningham (Released) 150324-N-UF697-009.

SOYUZ TMA-16M SPACECRAFT ROLLS OUT

The Soyuz TMA-16M spacecraft is seen after having rolled out by train to the launch pad at the Baikonur Cosmodrome, Kazakhstan, Wednesday, March 25, 2015. NASA astronaut Scott Kelly and Russian cosmonauts Mikhail Kornienko and Gennady Padalka of the Russian Federal Space Agency (Roscosmos) are scheduled to launch to the International Space Station in the Soyuz at 3:42 p.m. EDT, Friday, March 27 (March 28, Kazakh time). As the one-year crew, Kelly and Kornienko will return to Earth on the Soyuz TMA-18M in March 2016. Most expeditions to the space station last four to six months. By doubling the length of this mission, researchers hope to better understand how the human body reacts and adapts to long-duration spaceflight. This knowledge is critical as NASA looks toward human journeys deeper into the solar system, including to and from Mars, which could last 500 days or longer. More: A Year in Space Image Credit: NASA/Bill Ingalls.

OPPORTUNITY'S VIEW OF MARATHON VALLEY

This view from NASA's Mars Exploration Rover Opportunity shows part of "Marathon Valley," a destination on the western rim of Endeavour Crater, as seen from an overlook north of the valley. The scene spans from east, at left, to southeast. It combines four pointings of the rover's panoramic camera (Pancam) on March 13, 2015, during the 3,958th Martian day, or sol, of Opportunity's work on Mars. The rover team selected Marathon Valley as a science destination because observations of this location using the Compact Reconnaissance Imaging Spectrometer for Mars (CRISM) instrument on NASA's Mars Reconnaissance Orbiter yielded evidence of clay minerals, a clue to ancient wet environments. By the time Opportunity explores Marathon Valley, the rover will have exceeded a total driving distance equivalent to an Olympic marathon. Opportunity has been exploring the Meridiani Planum region of Mars since January 2004. This version of the image is presented in approximate true color by combining exposures taken through three of the Pancam's color filters at each of the four camera pointings, using filters centered on wavelengths of 753 nanometers (near-infrared), 535 nanometers (green) and 432 nanometers (violet). Image Credit: NASA/JPL-Caltech/Cornell Univ./Arizona State Univ.

MAGNETOSPHERIC MULTISCALE SPACECRAFT LAUNCH

Caption Credit: NASA. The United Launch Alliance Atlas V rocket with NASA’s Magnetospheric Multiscale (MMS) spacecraft onboard launches from the Cape Canaveral Air Force Station Space Launch Complex 41, Thursday, March 12, 2015, Florida. NASA’s MMS mission studies the mystery of how magnetic fields around Earth connect and disconnect, explosively releasing energy via a process known as magnetic reconnection. MMS consists of four identical spacecraft that work together to provide the first three-dimensional view of this fundamental process, which occurs throughout the universe. Photo Credit: NASA/Aubrey Gemignani.

RETURN OF SOYUZ TMA-14M SPACECRAFT

The Soyuz TMA-14M spacecraft is seen as it lands with International Space Station Expedition 42 commander Barry Wilmore of NASA, Alexander Samokutyaev of the Russian Federal Space Agency (Roscosmos) and Elena Serova of Roscosmos near the town of Zhezkazgan, Kazakhstan. The landing took place on the evening of Wednesday, March 11 in the U.S, and early in the morning on Thursday, March 12, in Kazakhstan. The three crew members returned to Earth after a 167-day mission on the orbital outpost that included hundreds of scientific experiments and several spacewalks to prepare the orbiting laboratory for future arrivals by U.S. commercial crew spacecraft. Credit: NASA/Bill Ingalls.

GIVING ORION A LIFT

Caption Credit: NASA. Engineers across the country have been busy taking a closer look at NASA's Orion spacecraft and the data it produced during its successful flight test in December 2014. Inside the Launch Abort System Facility at NASA's Kennedy Space Center in Florida, Orion was lifted using a special crane for removal of its heat shield on Feb. 13, 2015. In the background, technicians move the heat shield on a work stand. The spacecraft’s heat shield protected Orion as it reentered Earth’s atmosphere at searing temperatures. Removing the back shell allows the team to get a closer look at Orion’s systems to see how they fared during the trip to space. The heat shield was removed in preparation for shipment to NASA’s Marshall Space Flight Center in Huntsville, Alabama, where special equipment will be used to remove its ablative material. From there, the heat shield will be shipped to NASA’s Langley Research Center in Hampton, Virginia, where it will be outfitted on a test article for water impact testing. Meanwhile, NASA and Lockheed Martin, the prime contractor for Orion, continue to take a look at the data the flight test produced to validate pre-flight models and improve the spacecraft’s design. Analysis of data obtained during its two-orbit, four-and-a-half hour mission Dec. 5 will provide engineers detailed information on how the spacecraft fared. Photo Credit-NASA-Jim Grossmann.

DAWN ARIVES TO DWARF PLANET CERES

Caption Credit: NASA. NASA's Dawn spacecraft has become the first mission to achieve orbit around a dwarf planet. The spacecraft was approximately 38,000 miles (61,000) kilometers from Ceres when it was captured by the dwarf planet’s gravity at about 4:39 a.m. PST (7:39 a.m. EST) Friday, March 6. This image of Ceres was taken by the Dawn spacecraft on March 1, just a few days before the mission achieved orbit around the previously unexplored world. The image shows Ceres as a crescent, mostly in shadow because the spacecraft's trajectory put it on a side of Ceres that faces away from the sun until mid-April. When Dawn emerges from Ceres' dark side, it will deliver ever-sharper images as it spirals to lower orbits around the planet. The image was obtained at a distance of about 30,000 miles (about 48,000 kilometers) at a sun-Ceres-spacecraft angle, or phase angle, of 123 degrees. Image scale on Ceres is 1.9 miles (2.9 kilometers) per pixel. Ceres has an average diameter of about 590 miles (950 kilometers). Dawn's mission is managed by NASA's Jet Propulsion Laboratory, Pasadena, California, for NASA's Science Mission Directorate in Washington. Dawn is a project of the directorate's Discovery Program, managed by NASA's Marshall Space Flight Center in Huntsville, Alabama. The University of California, Los Angeles, is responsible for overall Dawn mission science. Orbital ATK Inc., in Dulles, Virginia, designed and built the spacecraft. The German Aerospace Center, the Max Planck Institute for Solar System Research, the Italian Space Agency and the Italian National Astrophysical Institute are international partners on the mission team. Image Credit: NASA/JPL-Caltech/UCLA/MPS/DLR/IDA

COMET C/2014 Q2 KNOWN AS LOVEJOY

Comet C/2014 Q2 (Lovejoy) is one of more than 32 comets imaged by NASA's NEOWISE mission from December 2013 to December 2014. This image of comet Lovejoy combines a series of observations made in November 2013, when comet Lovejoy was 1.7 astronomical units from the sun. (An astronomical unit is the distance between Earth and the sun.) The image spans half of one degree. It shows the comet moving in a mostly west and slightly south direction. (North is 26 degrees to the right of up in the image, and west is 26 degrees downward from directly right.) The red color is caused by the strong signal in the NEOWISE 4.6-micron wavelength detector, owing to a combination of gas and dust in the comet's coma. Comet Lovejoy is the brightest comet in Earth's sky in early 2015. Image credit: NASA/JPL-Caltech.

USS CARL VINSON SUPPORTS STRIKES IN IRAQ, SYRIA

ISS VIEW OF THE ISLAND OF HAWAII

Caption Credit: NASA. From the International Space Station, European Space Agency astronaut Samantha Cristoforetti (@AstroSamantha) took this photograph of the island of Hawaii and posted it to social media on Feb. 28, 2015. Cristoforetti wrote, "And suddenly as we flew over the Pacific... the island of #Hawaii with its volcanoes! #HelloEarth".Crewmembers on the space station photograph the Earth from their unique point of view located 200 miles above the surface as part of the Crew Earth Observations program. Photographs record how the planet is changing over time, from human-caused changes like urban growth and reservoir construction, to natural dynamic events such as hurricanes, floods and volcanic eruptions. Astronauts have used hand-held cameras to photograph the Earth for more than 40 years, beginning with the Mercury missions in the early 1960s. The ISS maintains an altitude between 220 - 286 miles (354 - 460 km) above the Earth, and an orbital inclination of 51.6˚, providing an excellent stage for observing most populated areas of the world. Image Credit: NASA/ESA/Samantha Cristoforetti.

GETTING READY FOR VISITORS IN SPACE

Caption Credit: NASA. NASA astronaut Barry Wilmore works outside the International Space Station on the first of three spacewalks preparing the station for future arrivals by U.S. commercial crew spacecraft, Saturday, Feb. 21, 2015. Fellow spacewalker Terry Virts, seen reflected in the visor, shared this photograph on social media. The spacewalks are designed to lay cables along the forward end of the U.S. segment to bring power and communication to two International Docking Adapters slated to arrive later this year. The new docking ports will welcome U.S. commercial spacecraft launching from Florida beginning in 2017, permitting the standard station crew size to grow from six to seven and potentially double the amount of crew time devoted to research. The second and third spacewalks are planned for Wednesday, Feb. 25 and Sunday, March 1, with Wilmore and Virts participating in all three. Image Credit: NASA.

"LIVE LONG AND PROSPER"

SMAP LAUNCHES INTO SPACE

Caption Credit: NASA. A United Launch Alliance Delta II rocket with the Soil Moisture Active Passive (SMAP) observatory onboard is seen in this long exposure photograph as it launches from Space Launch Complex 2, Saturday, Jan. 31, 2015, Vandenberg Air Force Base, Calif. SMAP is NASA’s first Earth-observing satellite designed to collect global observations of surface soil moisture and its freeze/thaw state. SMAP will provide high resolution global measurements of soil moisture from space. The data will be used to enhance scientists' understanding of the processes that link Earth's water, energy, and carbon cycles. )Photo Credit-NASA-Bill Ingalls.

2015: THE YEAR OF LIGHT

The year of 2015 has been declared the International Year of Light (IYL) by the United Nations. Organizations, institutions, and individuals involved in the science and applications of light will be joining together for this yearlong celebration to help spread the word about the wonders of light. NASA’s Chandra X-ray Observatory explores the universe in X-rays, a high-energy form of light. By studying X-ray data and comparing them with observations in other types of light, scientists can develop a better understanding of objects likes stars and galaxies that generate temperatures of millions of degrees and produce X-rays. To recognize the start of IYL, the Chandra X-ray Center is releasing a set of images that combine data from telescopes tuned to different wavelengths of light. From a distant galaxy to the relatively nearby debris field of an exploded star, these images demonstrate the myriad ways that information about the universe is communicated to us through light. In this image, an expanding shell of debris called SNR 0519-69.0 is left behind after a massive star exploded in the Large Magellanic Cloud, a satellite galaxy to the Milky Way. Multimillion degree gas is seen in X-rays from Chandra, in blue. The outer edge of the explosion (red) and stars in the field of view are seen in visible light from the Hubble Space Telescope. Chandra Celebrates the International Year of Light. Image Credit: NASA-CXC-SAO.

NASA SENDS SOUNDING ROCKETS INTO AUROAS

The interaction of solar winds and Earth’s atmosphere produces northern lights, or auroras, that dance across the night sky and mesmerize the casual observer. However, to scientists this interaction is more than a light display. It produces many questions about the role it plays in Earth’s meteorological processes and the impact on the planet’s atmosphere. To help answer some of these questions, NASA suborbital sounding rockets carrying university-developed experiments -- the Mesosphere-Lower Thermosphere Turbulence Experiment (M-TeX) and Mesospheric Inversion-layer Stratified Turbulence (MIST) -- were launched into auroras from the Poker Flat Research Range in Alaska. The experiments explore the Earth’s atmosphere’s response to auroral, radiation belt and solar energetic particles and associated effects on nitric oxide and ozone. This composite shot of all four sounding rockets for the M-TeX and MIST experiments is made up of 30 second exposures. The rocket salvo began at 4:13 a.m. EST, Jan. 26, 2015. A fifth rocket carrying the Auroral Spatial Structures Probe remains ready on the launch pad. The launch window for this experiment runs through Jan. 27. Image Credit: NASA-Jamie Adkin.

THE FIRST BIG SOLAR FLARE OF 2015

AIR FORCE BUILDS AN ICE BRIDGE IN ALASKA

K2: PROFILE OF A PLANET HUNTER

Caption Credit: NASA. The artistic impression shows NASA's planet-hunting Kepler spacecraft operating in a new mission profile called K2. In May the spacecraft began its new mission observing in the ecliptic plane, the orbital path of Earth around the sun, depicted by the grey-blue line marked by opaque cross-like shapes. Each shape represents the field-of-view of an observing campaign. The K2 mission observes a specific portion of the distant sky for approximately 80 days, until it is necessary to rotate the spacecraft to prevent sunlight from entering the telescope. The spacecraft orbits the sun every 372 days as it trails Earth, allowing for four full campaigns per orbit or year. The arching band of stars is the plane of the Milky Way Galaxy. Using publicly available data collected by the spacecraft in February 2014 during the performance concept test to prove K2 would work, astronomers have confirmed the first exoplanet detected by the K2 mission. The newly confirmed planet, HIP 116454b, is 2.5 times the diameter of Earth, and closely orbits a star smaller and cooler than our sun once every nine days, making the planet too hot for life as we know it. The star and planet are 180 light-years from Earth toward the constellation Pisces. In May 2013, data collection for Kepler's extended prime mission came to an end when the second of four reaction wheels used to stabilize the spacecraft failed. Without at least three functioning reaction wheels, Kepler couldn’t be pointed at the original field with sufficient stability to precisely measure the dimming of starlight caused by a planet when it passes or transits in front of a distant star. Rather than giving up on the stalwart spacecraft, a team of scientists and engineers crafted a resourceful strategy to use pressure from sunlight as a virtual reaction wheel to help control the spacecraft while observing the sky in the ecliptic plane. The resulting K2 mission promises to not only continue Kepler’s planet hunt, but to expand that search to bright nearby stars which harbor planets that allow scientists to study them in detail to better understand their composition. K2 will also introduce new opportunities to observe star clusters, active galaxies, and supernovae. Link to full NASA press release: NASA’s Kepler Reborn, Makes First Exoplanet Find of New Mission Credit: NASA Ames-JPL-Caltech-T Pyle.

MARS ROVER VISITS THE LAKE

Caption Credit: NASA. This evenly layered rock photographed by the Mast Camera (Mastcam) on NASA's Curiosity Mars Rover shows a pattern typical of a lake-floor sedimentary deposit not far from where flowing water entered a lake. The scene combines multiple frames taken with Mastcam's right-eye camera on Aug. 7, 2014, during the 712th Martian day, or sol, of Curiosity's work on Mars. It shows an outcrop at the edge of "Hidden Valley," seen from the valley floor. This view spans about 5 feet (1.5 meters) across in the foreground. The color has been approximately white-balanced to resemble how the scene would appear under daytime lighting conditions on Earth. Figure A is a version with a superimposed scale bar of 50 centimeters (about 20 inches). This is an example of a thick-laminated, evenly-stratified rock type that forms stratigraphically beneath cross-bedded sandstones regarded as ancient river deposits. These rocks are interpreted to record sedimentation in a lake, as part of or in front of a delta, where plumes of river sediment settled out of the water column and onto the lake floor. NASA's Jet Propulsion Laboratory, a division of the California Institute of Technology, Pasadena, manages the Mars Science Laboratory Project for NASA's Science Mission Directorate, Washington. JPL designed and built the project's Curiosity rover. Malin Space Science Systems, San Diego, built and operates the rover's Mastcam. Related: NASA’s Curiosity Rover Finds Clues to How Water Helped Shape Martian Landscape Image Credit: NASA/JPL-Caltech/MSSS

THE END OF THE MISSION IN AFGHAISTAN

Caption Credit: U.S. DOD. A U.S. Army CH-47 Chinook helicopter lands while coalition troops prepare for the International Security Assistance Force Joint Command and U.S. Army XVIII Airborne Corps end-of-mission ceremony on North Kabul International Airport in Afghanistan, Dec. 8, 2014. The command's five-year mission was to neutralize the insurgency in specified areas and support improved governance and development, in order to protect the Afghan people and provide a secure environment for sustainable peace. U.S. Air Force photo by Staff Sgt. Perry Aston

NASA DEVELOPING TECH TO IMPROVE FUEL EFFICIENCY, NOISE POLUTION

Caption Credit: NASA. NASA's green aviation project is one step closer to developing technology that could make future airliners quieter and more fuel-efficient with the successful flight test of a wing surface that can change shape in flight. This past summer, researchers replaced an airplane’s conventional aluminum flaps with advanced, shape-changing assemblies that form seamless bendable and twistable surfaces. Flight testing will determine whether flexible trailing-edge wing flaps are a viable approach to improve aerodynamic efficiency and reduce noise generated during takeoffs and landings. For the initial Adaptive Compliant Trailing Edge (ACTE) flight, shown in this image, the experimental control surfaces were locked at a specified setting. Varied flap settings on subsequent tests will demonstrate the capability of the flexible surfaces under actual flight conditions. ACTE technology is expected to have far-reaching effects on future aviation. Advanced lightweight materials will reduce wing structural weight and give engineers the ability to aerodynamically tailor the wings to promote improved fuel economy and more efficient operations, while reducing environmental impacts. NASA Tests Revolutionary Shape Changing Aircraft Flap for the First Time Image Credit: NASA/Ken Ulbrich.

ORION PASSES SPACEPORT VEHICLE ASSEMBLY BUILDING

Caption Credit: NASA. At NASA's Kennedy Space Center in Florida, the agency's Orion spacecraft passes the spaceport's iconic Vehicle Assembly Building as it is transported to Launch Complex 37 at Cape Canaveral Air Force Station on the evening of Tuesday, Nov. 11, 2014. After arrival at the launch pad, United Launch Alliance engineers and technicians will lift Orion and mount it atop its Delta IV Heavy rocket. Orion began its journey to the launch pad at at the Launch Abort System Facility, where a 52-foot-tall protective fairing and the launch abort system were attached to the 10-foot, 11-inch-tall crew module. Resting atop a specialized Kamag transporter, Orion was moved to Space Launch Complex 37B at Cape Canaveral Air Force Station. The move began at 8:54 p.m. EST and concluded at 3:07 a.m., Wednesday, Nov. 12. Orion is the exploration spacecraft designed to carry astronauts to destinations not yet explored by humans, including an asteroid and Mars. It will have emergency abort capability, sustain the crew during space travel and provide safe re-entry from deep space return velocities. Orion is scheduled to launch Dec. 4, 2014 atop a United Launch Alliance Delta IV Heavy rocket in its first unpiloted flight test, and in 2018 on NASA’s Space Launch System rocket. Image Credit: NASA/Kim Shiflett.

NuSTAR FINDS ENERGETIC PULSAR

Image and caption credit: NASA/JPL-Caltech/SAO. The blue dot in this image marks the spot of an energetic pulsar -- the magnetic, spinning core of star that blew up in a supernova explosion. NASA's Nuclear Spectroscopic Telescope Array, or NuSTAR, discovered the pulsar by identifying its telltale pulse -- a rotating beam of X-rays, that like a cosmic lighthouse, intersects Earth every 0.2 seconds. The pulsar, called PSR J1640-4631, lies in our inner Milky Way galaxy about 42,000 light-years away. It was originally identified by as an intense source of gamma rays by the High Energy Stereoscopic System (H.E.S.S.) in Namibia. NuSTAR helped pin down the source of the gamma rays to a pulsar. The other pink dots in this picture show low-energy X-rays detected by NASA's Chandra X-ray Observatory. In this image, NuSTAR data is blue and shows high-energy X-rays with 3 to 79 kiloelectron volts; Chandra data is pink and shows X-rays with 0.5 to 10 kiloeletron volts. The background image shows infrared light and was captured by NASA's Spitzer Space Telescope.

ULTRA VIOLET EXTREME

NASA Caption: The sun emitted a significant solar flare on Oct. 19, 2014, peaking at 1:01 a.m. EDT. NASA's Solar Dynamics Observatory, which is always observing the sun, captured this image of the event in extreme ultraviolet wavelength of 131 Angstroms – a wavelength that can see the intense heat of a flare and that is typically colorized in teal. This flare is classified as an X1.1-class flare. X-class denotes the most intense flares, while the number provides more information about its strength. An X2 flare is twice as intense as an X1, and an X3 is three times as intense. Solar flares are powerful bursts of radiation. Harmful radiation from a flare cannot pass through Earth's atmosphere to physically affect humans on the ground, however -- when intense enough -- they can disturb the atmosphere in the layer where GPS and communications signals travel. > More: NASA's SDO Observes an X-class Solar Flare. Image Credit-NASA-Solar Dynamics Observatory.

GLACIERS AND MOUNTAINS OF WEST ANTARTICA

Caption Credit: NASA. Glaciers and mountains in the evening sun are seen on an Operation IceBridge research flight, returning from West Antarctica on Oct. 29, 2014. NASA is carrying out its sixth consecutive year of Operation IceBridge research flights over Antarctica to study changes in the continent’s ice sheet, glaciers and sea ice. This year’s airborne campaign revisits a section of the Antarctic ice sheet that recently was found to be in irreversible decline. IceBridge uses a suite of instruments that includes a laser altimeter, radar instruments, cameras, and a gravimeter, which is an instrument that detects small changes in gravity. These small changes reveal how much mass these glaciers have lost. Researchers plan to measure previously unsurveyed regions of Antarctica, such as the upper portions of Smith Glacier in West Antarctica, which is thinning faster than any other glaciers in the region. The mission also plans to collect data in portions of the Antarctic Peninsula, such as the Larsen C, George VI and Wilkins ice shelves and the glaciers that drain into them. The Antarctic Peninsula has been warming faster than the rest of the continent. In addition to extending the data record of NASA’s Ice, Cloud and Land Elevation Satellite (ICESat), which stopped collecting data in 2009, IceBridge will also help set the stage for ICESat-2 by measuring ice the satellite will fly over. > Operation IceBridge Antarctic 2014 Campaign Image Credit: NASA/Michael Studinger.

ANTARES ROCKET EXPLODES DURING LAUNCH

Attention: Antares rocket explodes on liftoff Monday, Oct. 27. NASA Caption: Orbital Antares Rocket at the Launch Pad: The Orbital Sciences Corporation Antares rocket, with the Cygnus spacecraft onboard, is seen on launch Pad-0A, Sunday, Oct. 26, 2014, at NASA's Wallops Flight Facility in Virginia. The Antares will launch with the Cygnus spacecraft filled with over 5,000 pounds of supplies for the International Space Station, including science experiments, experiment hardware, spare parts, and crew provisions. The Orbital-3 mission is Orbital Sciences' third contracted cargo delivery flight to the space station for NASA. Launch is scheduled for Monday, Oct. 27 at 6:45 p.m. EDT. Image Credit-NASA-Joel Kowsky.

THE ULTIMATE IN SUNBLOCK

A partial solar eclipse was visible from much of North America before sundown on Thursday, Oct.23. A partial eclipse occurs when the moon blocks a portion of the Sun from view. The Hinode spacecraft captured images of yesterday’s eclipse as it passed over North America using its X-ray Telescope. During the eclipse, the new moon eased across the Sun from right to left with the Sun shining brilliantly in the background. And as a stroke of good luck, this solar cycle’s largest active region, which has been the source of several large flares over the past week, was centered on the Sun’s disk as the moon transitted! Hinode is in the eighth year of its mission to observe the Sun. Previously, Hinode has observed numerous eclipses due to its high-altitude, sun-synchronous orbit. As viewed from Hinode’s vantage point in space, this eclipse was annular instead of partial, which means that the entire moon moved in front of the Sun but did not cover it completely. In this situation, a ring of the Sun encircles the dark disk of the moon. Led by the Japan Aerospace Exploration Agency (JAXA), the Hinode mission is a collaboration between the space agencies of Japan, the United States, the United Kingdom and Europe. NASA helped in the development, funding and assembly of the spacecraft's three science instruments. Hinode is part of the Solar Terrestrial Probes (STP) Program within the Heliophysics Division of NASA's Science Mission Directorate in Washington. NASA's Marshall Space Flight Center in Huntsville, Ala., manages the Hinode science operations. The Lockheed Martin Corp. in Palo Alto, Calif., is the lead U.S. investigator for the Solar Optical Telescope. Image Credit: NASA

SUPERNOVA EXPLOSION IN X-RAY LIGHT

Caption Credit: NASA. The destructive results of a powerful supernova explosion reveal themselves in a delicate tapestry of X-ray light, as seen in this image from NASA’s Chandra X-Ray Observatory and the European Space Agency's XMM-Newton. The image shows the remains of a supernova that would have been witnessed on Earth about 3,700 years ago. The remnant is called Puppis A, and is around 7,000 light years away and about 10 light years across. This image provides the most complete and detailed X-ray view of Puppis A ever obtained, made by combining a mosaic of different Chandra and XMM-Newton observations. Low-energy X-rays are shown in red, medium-energy X-rays are in green and high energy X-rays are colored blue. These observations act as a probe of the gas surrounding Puppis A, known as the interstellar medium. The complex appearance of the remnant shows that Puppis A is expanding into an interstellar medium that probably has a knotty structure. Supernova explosions forge the heavy elements that can provide the raw material from which future generations of stars and planets will form. Studying how supernova remnants expand into the galaxy and interact with other material provides critical clues into our own origins. A paper describing these results was published in the July 2013 issue of Astronomy and Astrophysics and is available online. The first author is Gloria Dubner from the Instituto de Astronomía y Física del Espacio in Buenos Aires in Argentina. Image credit: NASA/CXC/IAFE/G.Dubner et al & ESA/XMM-Newton.

ORBITING CARBON OBSERVATORY-2 IS ABOARD DELTA II ROCKET

Orbiting Carbon Observatory-2 (OCO-2) Aboard Delta II Rocket. The launch gantry is rolled back to reveal the United Launch Alliance Delta II rocket with the Orbiting Carbon Observatory-2 (OCO-2) satellite onboard, at the Space Launch Complex 2, Monday, June 30, 2014, Vandenberg Air Force Base, Calif. OCO-2 will measure the global distribution of carbon dioxide, the leading human-produced greenhouse gas driving changes in Earth’s climate. Launch of OCO-2 is now scheduled for Wednesday, July 2 at 5:56 a.m. EDT (2:56 a.m. Pacific) at the opening of a 30-second window. Image Credit-NASA-Bill Ingalls. Caption Credit-NASA.

TEST VERSION OF ORION SPACECRAFT FLOATS

Caption Credit: NASA. A test version of NASA's Orion spacecraft floats inside the well deck of the U.S.S. Anchorage on Aug. 2, 2014, during recovery tests off the coast of California. A combined NASA and U.S. Navy team practiced recovery techniques over the weekend, in preparation for Orion's first trip to (and return from) space in Exploration Flight Test-1 (EFT-1) in December. Orion is the exploration spacecraft designed to carry astronauts to destinations not yet explored by humans, including an asteroid and Mars. It will have emergency abort capability, sustain the crew during space travel and provide safe re-entry from deep space return velocities. After traveling 3,600 miles into space on the uncrewed EFT-1, Orion will return to Earth at a speed of 20,000 miles per hour and endure temperatures near 4,000 degrees Fahrenheit before landing in the Pacific Ocean. > NASA Prepares for Second Orion Underway Recovery Test Image Credit: U.S. Navy photo by Mass Communication Specialist 1st Class Gary Keen

PROTOTYPE ROBOT WITH SMARTPHONE TO TEST3-D MAPPING, NAVIGATION

Image and Story Credit: NASA/Ames. Orbital Sciences Corporation's Cygnus spacecraft will carry 3,293 pounds (1,493.8 kg) of cargo on its upcoming commercial resupply mission to the International Space Station, including crew supplies, nanosatellites, student research and this prototype free-flying space robot equipped with a smartphone, known as Smart SPHERES (Synchronized Position Hold, Engage, Reorient Experimental Satellites). NASA has been testing SPHERES on the space station since 2011. This summer, astronauts will upgrade these existing space robots to use Google’s "Project Tango" smartphone, which features a custom 3-D sensor and multiple cameras. NASA will then use the Smart SPHERES to test free-flying 3-D mapping and navigation inside the space station. NASA is developing the Smart SPHERES to perform work on the space station that requires mobile sensing, such as environmental surveys to monitor levels of radiation, lighting and air quality. They also will be used to monitor inventory and conduct experiments. The development and testing of Smart SPHERES is funded by the Space Technology Mission Directorate at NASA Headquarters in Washington.

NASA'S NEW POWERFUL ROCKET

NASA’s Space Launch System, or SLS, will be the most powerful rocket in history. The flexible, evolvable design of this advanced, heavy-lift launch vehicle will meet a variety of crew and cargo mission needs. In addition to carrying the Orion spacecraft, SLS will transfer important cargo, equipment and science experiments to deep space, providing the nation with a safe, affordable and sustainable means to expand our reach in the solar system. It will allow astronauts aboard Orion to explore multiple deep-space destinations including an asteroid and ultimately Mars. The first configuration of the SLS launch vehicle will have a 70-metric-ton (77-ton) lift capacity and carry an uncrewed Orion spacecraft beyond low-Earth orbit to test the performance of the integrated system. As the SLS is evolved, it will be the most powerful rocket ever built and provide an unprecedented lift capability of 130 metric tons (143 tons) to enable missions even farther into our solar system. Image Credit: NASA.

THE GRANDEST CANYON IN THE SOLAR SYSTEM

Valles Marineris: The Grand Canyon of Mars: Explanation: The largest canyon in the Solar System cuts a wide swath across the face of Mars. Named Valles Marineris, the grand valley extends over 3,000 kilometers long, spans as much as 600 kilometers across, and delves as much as 8 kilometers deep. By comparison, the Earth's Grand Canyon in Arizona, USA is 800 kilometers long, 30 kilometers across, and 1.8 kilometers deep. The origin of the Valles Marineris remains unknown, although a leading hypothesis holds that it started as a crack billions of years ago as the planet cooled. Several geologic processes have been identified in the canyon. The above mosaic was created from over 100 images of Mars taken by Viking Orbiters in the 1970s. Image and story credit: Viking Project, USGS, NASA.

A LOOK AT THE DUNES OF MARS

Nili Patera is one of the most active dune fields on Mars. As such, it is continuously monitored with the HiRISE (High Resolution Imaging Science Experiment) camera, a science instrument aboard NASA's Mars Reconnaissance Orbiter, with a new image acquired about every six weeks. By monitoring the sand dune changes, we can determine how winds vary seasonally and year-to-year. This observation is one of the more recent Nili images, acquired on March 1, 2014. Compared to an image acquired on Nov. 22, 2012, changes are obvious. The ripples on the dunes have moved, as well some of the dune boundaries, such as the one at upper left. New landslides on the central dune's lee face are apparent. Such changes, in just 16 months (and finer scale changes have been seen in just a couple of weeks), demonstrate the effectiveness of wind in modifying the Martian landscape. HiRISE is one of six instruments on NASA's Mars Reconnaissance Orbiter. The University of Arizona, Tucson, operates the orbiter's HiRISE camera, which was built by Ball Aerospace & Technologies Corp., Boulder, Colo. NASA's Jet Propulsion Laboratory, a division of the California Institute of Technology in Pasadena, manages the Mars Reconnaissance Orbiter Project for the NASA Science Mission Directorate, Washington. > More information and image products Image Credit-NASA-JPL-Caltech-Univ. of Arizona Caption: Nathan Bridges.

ROBONAUT 2 GETS HIS SPACE LEGS

NASA has built and is sending a set of high-tech legs up to the International Space Station for Robonaut 2 (R2), the station's robotic crewmember. The new legs are scheduled to launch on the SpaceX-3 commercial cargo flight to the International Space Station, scheduled launch Monday, April 14 at 4:58 p.m. EDT from Cape Canaveral Air Force Station in Florida. These new legs, funded by NASA's Human Exploration and Operations and Space Technology mission directorates, will provide R2 the mobility it needs to help with regular and repetitive tasks inside and outside the space station. The goal is to free up the crew for more critical work, including scientific research. Once the legs are attached to the R2 torso, the robot will have a fully extended leg span of nine feet, giving it great flexibility for movement around the space station. Each leg has seven joints and a device on what would be the foot, called an "end effector," which allows the robot to take advantage of handrails and sockets inside and outside the station. A vision system for the end effectors also will be used to verify and eventually automate each limb's approach and grasp. Image Credit: NASA.

THE BLUE ANGELS 2014 AIR SHOW SEASON BEGINS MARCH 15

BIG FLARE BUT NO REAL SCARE

On Feb. 24, 2014, the sun emitted a significant solar flare, peaking at 7:49 p.m. EST. NASA's Solar Dynamics Observatory (SDO), which keeps a constant watch on the sun, captured images of the event. These SDO images from 7:25 p.m. EST on Feb. 24 show the first moments of this X-class flare in different wavelengths of light -- seen as the bright spot that appears on the left limb of the sun. Hot solar material can be seen hovering above the active region in the sun's atmosphere, the corona. Solar flares are powerful bursts of radiation, appearing as giant flashes of light in the SDO images. Harmful radiation from a flare cannot pass through Earth's atmosphere to physically affect humans on the ground, however -- when intense enough -- they can disturb the atmosphere in the layer where GPS and communications signals travel. Image Credit: NASA/SDO.

GALAXY SHOCK

FROM NASA: Roguish runaway stars can have a big impact on their surroundings as they plunge through the Milky Way galaxy. Their high-speed encounters shock the galaxy, creating arcs, as seen in this newly released image from NASA’s Spitzer Space Telescope. In this case, the speedster star is known as Kappa Cassiopeiae, or HD 2905 to astronomers. It is a massive, hot supergiant moving at around 2.5 million mph relative to its neighbors (1,100 kilometers per second). But what really makes the star stand out in this image is the surrounding, streaky red glow of material in its path. Such structures are called bow shocks, and they can often be seen in front of the fastest, most massive stars in the galaxy. Bow shocks form where the magnetic fields and wind of particles flowing off a star collide with the diffuse, and usually invisible, gas and dust that fill the space between stars. How these shocks light up tells astronomers about the conditions around the star and in space. Slow-moving stars like our sun have bow shocks that are nearly invisible at all wavelengths of light, but fast stars like Kappa Cassiopeiae create shocks that can be seen by Spitzer’s infrared detectors. Image Credit-NASA-JPL-Caltech

THE FIRST FLAG ON THE MOON

Photo taken by Neil Arstrong of Buzz Aldrin with U.S. flag on the Moon. (mission time: 110:10:33) Buzz salutes the U.S. Flag. His fingertips are visible on the far side of his faceplate. Note the well-defined footprints in the foreground. Buzz is facing up-Sun. There is a reflection of the Sun in his visor. At the bottom of Buzz's faceplate, note the white 'rim' which is slightly separated from his neckring. This 'rim' is the bottom of his gold visor, which he has pulled down. We can see the LEC straps hanging down inside of the ladder strut. In the foreground, we can see the foot-grabbing loops in the TV cable. The double crater under Neil's Lm window is beyond Buzz and the LM shadow

JAPANESE H-IIA ROCKET LAUNCHES FROM TANEGASHIMA SPACE CENTER

A LOOK AT THE CRAB NEBULA

This image shows a composite view of the Crab nebula, an iconic supernova remnant in our Milky Way galaxy, as viewed by the Herschel Space Observatory and the Hubble Space Telescope. Herschel is a European Space Agency (ESA) mission with important NASA contributions, and Hubble is a NASA mission with important ESA contributions. A wispy and filamentary cloud of gas and dust, the Crab nebula is the remnant of a supernova explosion that was observed by Chinese astronomers in the year 1054. The image combines Hubble's view of the nebula at visible wavelengths, obtained using three different filters sensitive to the emission from oxygen and sulphur ions and is shown here in blue. Herschel's far-infrared image reveals the emission from dust in the nebula and is shown here in red. While studying the dust content of the Crab nebula with Herschel, a team of astronomers have detected emission lines from argon hydride, a molecular ion containing the noble gas argon. This is the first detection of a noble-gas based compound in space. The Herschel image is based on data taken with the Photoconductor Array Camera and Spectrometer (PACS) instrument at a wavelength of 70 microns; the Hubble image is based on archival data from the Wide Field and Planetary Camera 2 (WFPC2). Image credit: ESA/Herschel/PACS/MESS Key Programme Supernova Remnant Team; NASA, ESA and Allison Loll/Jeff Hester (Arizona State University).

FUTURE FLIGHT

Aeronautics: New Ideas for Greener Aircraft We are accelerating the nation’s transition to the Next Generation Air Transportation System (NextGen) and making commercial aviation safer, more fuel efficient, quieter, and more environmentally friendly through investments in revolutionary concepts for air vehicles and air traffic management. Three industry teams spent 2011 studying how to meet NASA's goals for making future aircraft burn 50 percent less fuel than aircraft that entered service in 1998, emit 75 percent fewer harmful emissions; and shrink the size of geographic areas affected by objectionable airport noise by 83 percent. Image Credit: NASA

AIR FORCE SPACE BASED INFRARED SYSTEM PAYLOAD IS LAUNCHED

What Is Wrong With The Sun?

Something unexpected is happening on the Sun. 2013 was supposed to be the year of "solar maximum", the peak of the 11-year sunspot cycle. Yet 2013 has arrived and solar activity is relatively low. Sunspot numbers are well below their values from 2011, and strong solar flares have been infrequent. The quiet has led some observers to wonder if forecasters missed the mark. Conventional wisdom holds that solar activity swings back and forth like a simple pendulum. At one end of the cycle, there is a quiet time with few sunspots and flares. At the other end, solar max brings high sunspot numbers and frequent solar storms. It’s a regular rhythm that repeats every 11 years. Image Credit: NASA/SDO

SPACEX DRAGON LAUNCHES

The Launch of SpaceX Dragon KSC-2012-2913 (22 May 2012) --- On Cape Canaveral Air Force Station in Florida, Space Launch Complex-40 is ablaze as the SpaceX Falcon 9 rocket lifts off at 3:44 a.m. (EDT) May 22, 2012. The launch is the company's second demonstration test flight for NASA's Commercial Orbital Transportation Services, or COTS, program. During the flight, the Dragon capsule will conduct a series of check-out procedures to test and prove its systems, including rendezvous and berthing with the International Space Station. If the capsule performs as planned, the cargo and experiments it is carrying will be transferred to the station. The cargo includes food, water and provisions for the station's Expedition crews, such as clothing, batteries and computer equipment. Under COTS, NASA has partnered with two aerospace companies to deliver cargo to the station. Photo credit: NASA

HOME WORLD EARTH

"A 'Blue Marble' image of the Earth taken from the VIIRS instrument aboard NASA's most recently launched Earth-observing satellite - Suomi NPP. This composite image uses a number of swaths of the Earth's surface taken on January 4, 2012. The NPP satellite was renamed 'Suomi NPP' on January 24, 2012 to honor the late Verner E. Suomi of the University of Wisconsin. Suomi NPP is NASA's next Earth-observing research satellite. It is the first of a new generation of satellites that will observe many facets of our changing Earth. Suomi NPP is carrying five instruments on board. The biggest and most important instrument is The Visible/Infrared Imager Radiometer Suite or VIIRS.

BRANDT'S RANDOM GOVERNMENT PRESS RELEASES

Saturday, June 9, 2012

UPDATE ON U.S. APPROACH TO MISSILE DEFENSE IN EUROPE

Friday, April 13, 2012

STATE DEPARTMENT ON PHASED ADAPTIVE APPROACH TO MISSILE DEFENSE

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