Every year, scores of wireless communications products enter the commercial marketplace, but ensuring their security in U.S. government applications remains a major cause for concern for federal authorities. Through the Defense Information Systems Agency and the National Security Agency, the government is creating an architecture as resistant to hacking and other cybercrime as it is secure and efficient for approved users to navigate. A key part of this effort is an accreditation regime that tests and approves all new technologies set to enter civilian government and military programs.

Focus with flexibility is now the hallmark of the U.S. Defense Department's principal communications capabilities provider. Just 18 months after its third restructuring and in the midst of supporting current operations, the Defense Information Systems Agency is nearing final operational capability of a robust network foundation that will offer warfighters a mega-increase in bandwidth. At the same time, the agency has been meeting immediate needs with new services and scoping out a future that may include modularly designed Web services. These Web services would allow warfighters to harvest the information and intelligence they need from various sources in near-real time.

The U.S. Army is turning to commercial game technology to teach soldiers how to function like sensors in the network-centric battlespace. An application derived from popular computer-game software is teaching Army personnel how to think, act and respond like intelligence sensors in a network.

To meet a bold presidential mandate for space exploration, NASA scientists are developing new power and propulsion systems for future generations of manned and unmanned missions. These applications will allow spacecraft to travel efficiently far into the outer solar system, preparing the way for a manned return to the moon and eventually a manned flight to Mars. And new technologies to stay in touch with these distant missions may revolutionize near-earth communications as well.

Researchers in the long quest for battlefield laser weapons are closing on their objective with the development of a new type of solid-state laser system at a U.S. government laboratory. This laser can be mounted in a small vehicle and can draw from battery power to shoot down difficult-to-hit projectiles such as mortar rounds, or it can be aimed downward to neutralize the threat of buried mines and other explosive devices.

A new research center is helping scientists to better understand the realm of the very small and to integrate discoveries into existing technologies. Devoted to nonclassified work, the facility is administered by two U.S. national science laboratories and geared toward providing researchers with open access to specialized tools and expertise. Although the main building is still under construction, a number of programs already are underway through special funding.

Researchers at Argonne National Laboratory are crafting the building blocks for future technologies that will increase computing speeds, enhance collaboration and advance the fields of materials science and biology. Today, the facility that produced the first sustained nuclear chain reaction in 1942 continues to develop cutting-edge capabilities through its work with academia and industry. At the same time, it is employing some of the latest technologies to refine its modeling and simulations work that will affect advancements in energy, the environment and national security.

No one could possibly question the logic of using scarce U.S. Defense Department resources to fully fund the ongoing war on terrorism. If we can spend an extra dollar to prevent one of our military people from being injured in Afghanistan or Iraq, then certainly we should do that.

A multifaceted one-stop shop that matches technology requirements identified by top government and military officials with available and emerging industry solutions will enable TechNet International 2000 attendees to home in on answers to critical questions confronting governments throughout the world.

Microprocessors capable of operating at extremely low power levels will soon fly in a variety of spacecraft. Radiation hardened in a novel process that allows them to be produced in existing facilities, the chips will play a role in future near-earth and deep-space missions. Moreover, the technology presents potential applications beyond aerospace circles, especially in battery-powered communications devices, sensors and portable electronics.