View allAll Photos Tagged Advanced
From May 13-23, 2013, teams gathered for the EcoCar 2 Year Two Competition at the General Motors Desert Proving Grounds in Yuma, Arizona and at locations throughout San Diego, California to compete in more then a dozen technical, communications, and business events. Throughout the ten days, vehicles participated in engineering test similar to those conducted by the automotive industry to determine a prototype's readiness for production, and ultimately prove the viability of their advanced technology vehicles.
Research and development to support the advancement of small modular reactors and advanced reactors.
The Edmonton Research Park (ERP) also known as the Alberta Research Park encourages growth in technological research, providing a place for businesses to conduct their scientific research in Edmonton.
The American Reinvestment & Recovery Act (ARRA) allowed Argonne to build and install an upgrade to our largest user facility, the world-class Advanced Photon Source. More on Argonne and ARRA here.
Argonne staff work with new equipment at the APS, bought and installed with funds from the federal stimulus bill.
Photo by George Joch, Argonne National Laboratory.
4th Regiment, Advanced Camp Cadets arrive at Fort Knox, Ky. for Cadet Summer Training. Photo by: Madison Thompson
The Edmonton Research Park (ERP) also known as the Alberta Research Park encourages growth in technological research, providing a place for businesses to conduct their scientific research in Edmonton.
Late afternoon on Zavižanska Kosa, 1620m above North Adriatic, while clouds roll from the west, signaling approaching frontal system and new snow and blizzard that tomorrow brings.
Argonne chemist Trevor Dzwiniel runs an experiment on a reaction calorimeter in Argonne’s Materials Engineering and Research Facility (MERF). The reaction calorimeter gives Argonne researchers the ability to precisely measure how much heat is generated by a chemical reaction. MERF and several other Argonne research facilities form an integral part of the Joint Center for Energy Storage Research.
Technical Meeting on Advanced Techniques for Equipment Testing Under Field Conditions (BRD TM). Division of Nuclear Security, IAEA Seibersdorf. 13 June 2019
Figure 14. A participant notes the location of a hidden radioactive source during a field exercise.
Photo Credit: Dean Calma / IAEA
ADVANCED FEATURES
THX Ultra2 Plus Certified (with THX Listening Modes)
DTS-HD Master Audio™, DTS-HD High Resolution Audio™, Dolby® TrueHD, Dolby® Digital Plus Decoding
HDMIâ„¢ (Version 1.3a to Support Deep Colorâ„¢, x.v.Colorâ„¢, LipSync, Dolby TrueHD, DTS-HD Master Audio, DVD-Audio, Super Audio CD)
HDMI Video Upscaling (Up to 1080p) with HQV Reon-VX
HDMI Audio and Video Processing (4 Inputs and 2 Outputs [Main/Sub])
Component Video Upscaling (Up to 1080i)
Toroidal Transformer and Two Separate Transformers for Audio and Video Processing
Burr-Brown 192 kHz/24-Bit Audio DACs (PCM1796) for All Channels
Three TI (Aureusâ„¢) 32-Bit DSP Chips for Advanced Processing
Audyssey MultEQâ„¢ XT* to Correct Room Acoustic Problems and to Calibrate Speakers
Audyssey Dynamic EQâ„¢ for Loudness Correction
Audyssey Dynamic Volumeâ„¢ for Optimal Listening Level and Dynamic Range
VLSC (Vector Linear Shaping Circuitry)
Zone 2 and Zone 3 Pre Outs; Independent Control for Volume, Balance (Zone 2 and Zone 3) and Bass/Treble (Zone 2 Only)
Component Video and Composite Video Outputs for Zone 2; Subwoofer Pre Outs for Zone 2 and Zone 3
ISF (Imaging Science Foundation) Video Calibration Function
RIHD (Remote Interactive over HDMI) for System Control
Compatible with RI (Remote Interactive) Dock for the iPod
*Including installation with MultEQ Pro software application and Audyssey Installer Kit
CONNECTIVITY FEATURES
7.1-Channel Balanced Line-Level XLR Pre Outs (with Front Bi-Amping Capability)
2-Channel Balanced XLR Audio Inputs
Dual IR Inputs with Common Output
12 V Triggers (A, B, and C) with Adjustable Delay
Bi-Directional Ethernet and RS232 Ports
Component Video Switching (3 Inputs and 1 Output)
6 Digital Inputs (3 Optical and 3 Coaxial) and 1 Optical Output
6 S-Video Inputs and 2 Outputs
6 Composite Video Inputs and 2 Outputs
Color-Coded 7.1-Multichannel Inputs and Pre Outs
6 A/V Inputs and 1 Output
2 Audio Inputs and 1 Output
Phono Input
Front Panel Auxiliary Inputs (for Camcorders, Game Consoles, etc.)
OTHER FEATURES
Music Optimizer to Support Compressed Music Files
Theater-Dimensional Virtual Surround Function
Tone Control (Bass/Treble) for All Channels
Independent Crossover Adjustment for F/C/S/SB (40/45/50/55/60/70/80/90/100/110/120/130/150/200 Hz)
Newly Designed GUI for System Set-up
Neural-THX® Surround Decoder
Gold-Plated A/V Inputs and Outputs
Pure Audio Mode
Network Capability for Installing Crestron and AMX Controllers
A/V Synchronization Function (Up to 250 ms in 5 ms Steps)
40 FM/AM Radio Presets with RDS
IntelliVolume
Late Night Mode
Aluminum Front Panel
Preprogrammed RI (Remote Interactive) Learning Remote Control with Macros and Mode-Key LEDs
We had Paige's 6 month checkup a few days ago. She's there in front of the doctor crawling, sitting, and standing (pulling herself up) all on her own.
Multinational Soldiers train in harsh weather conditions as part of the International Special Training Center Advanced Medical First Responder Course, conducted by the ISTC Medical Branch, Feb. 17-19, 2015, in Pfullendorf, Germany. The students from the United States and European allies received the training to enhance their medical skills to support NATO Soldiers, Sailors, and Airmen and treat combat trauma casualties using special forces-oriented medical procedures and skills. The ISTC provides centralized training for NATO Special Forces and similar units in Europe. The center is run by a cadre of instructors from nine member nations-Belgium, Denmark, Germany, Greece, Italy, the Netherlands, Norway, Turkey and the United States. (U.S. Army photo by Visual Information Specialist Jason Johnston)
The Edmonton Research Park (ERP) also known as the Alberta Research Park encourages growth in technological research, providing a place for businesses to conduct their scientific research in Edmonton.
Bayer Advanced Flower and Rose Care, 9/2014, by Mike Mozart of TheToyChannel and JeepersMedia on YouTube
Advanced Education Minister Andrew Wilkinson and SFU president Simon Petter visited the media museum at the Communication University of China in Beijing and talked with students during the Trade Mission to China.
This British 1950's Trainer version of the de Havilland Vampire Fighter was used to teach Student Pilots how to fly Jet Aircraft. The T. 11 was developed from the original Vampire Fighter, it entered service in 1952 and became the RAF's standard Advanced Trainer. Vampire T.11's were also issued to Fighter Squadrons as Communications Aircraft (for running errands between RAF Stations) and to check Pilot abilities.
The Vampire T.11 allowed Student Pilots to graduate from the Piston Engined Percival Provost T.1 Trainer to an Aircraft with the characteristics of a 'Jet Fighter' which included a Pressurised Cockpit, Ejector Seat and Armament of twin 20mm Cannons, plus Rockets and Bombs.
This de Havilland Vampire Aircraft WZ590 was delivered to RAF Leeming in 1953, it then went to No.5 Flying Training School (FTS) at RAF Oakington in 1959, and transferred to No.8 FTS at RAF Swinderby in 1962. It was donated to the Imperial War Museum Duxford by Hawker-Siddeley Aviation Limited in 1973.
The de Havilland Vampire is a British jet fighter which was developed and manufactured by the de Havilland Aircraft Company, and was the second Jet Fighter to be operated by the RAF, after the Gloster Meteor, and the first to be powered by a single Jet Engine.
Development of the Vampire as an experimental Aircraft began in 1941 during World War Two, to exploit the revolutionary innovation of jet propulsion. From the company's design studies, it was decided to use a Single-Engine, Twin-Boom Aircraft, powered by the Halford H.1 Turbojet (later produced as the Goblin) Aside from its Propulsion System and Twin-Boom Configuration, it was a relatively conventional Aircraft. In May 1944 it was decided to produce the Aircraft as an Interceptor for the Royal Air Force, in 1946 the Vampire entered operational service with the RAF, only months after the War had ended.
The Vampire quickly proved to be effective and was adopted as a replacement of Wartime Piston-Engined Fighter Aircraft. During its early service it accomplished several aviation firsts and achieved various records, such as being the first Jet Aircraft to cross the Atlantic Ocean. The Vampire remained in front-line RAF service until 1953 when its transfer began to secondary roles such as Ground Attack and Pilot Training, for which specialist variants were produced. The RAF retired the Vampire in 1966 when its final role of Advanced Trainer was filled by the Folland Gnat. The Royal Navy had also adapted the type as the 'Sea Vampire', a navalised variant suitable for operations from Aircraft Carriers. It was the service's first Jet Fighter.
The Vampire was exported to many nations and was operated worldwide in numerous Theatres and Climates. Several countries used the type in Combat including the Suez Crisis, the Malayan Emergency and the Rhodesian Bush War. By the end of production, almost 3,300 Vampire's had been manufactured, a quarter of these having been manufactured under licence abroad. de Havilland pursued the further development of the type major derivatives produced include the DH.115, a specialised Dual-Seat Trainer and the more advanced DH.112 Venom, a refined variant for Ground Attack and Night-Fighter Operations.
▪︎Role: Fighter Aircraft / Advanced Trainer
▪︎National Origin: United Kingdom
▪︎Manufacturer: de Havilland / English Electric
▪︎First Flight: 20th September 1943
▪︎Introduction: 1946
▪︎Retired: 1979 Rhodesian Air Force
▪︎Status: Retired
▪︎Primary Users: Royal Air Force / Royal Navy
▪︎Number Built: 3,268
▪︎Developed Into: de Havilland Venom
▪︎Crew: One
▪︎Length: 30ft 9in
▪︎Wingspan: 38ft
▪︎Height: 8ft 10in
▪︎Empty Weight: 7,283lb
▪︎Maximum Weight: 12,390lb
▪︎Powerplant: 1 x de Havilland Goblin 3 Centrifugal-Flow Turbojet Engine, 3,350lbf thrust
▪︎Maximum Speed: 548mph
▪︎Range: 1,220 miles
▪︎Service Ceiling: 42,800ft
▪︎Weapons: 4 x 0.79in Hispano MK.V Cannon with 600 Rounds Total (150 rounds per gun)
▪︎Armament: 8 x 3in "60 lb" Rockets / 2 x 500lb Bombs or two Drop-Tanks.