· It can simulate all kinds of typical road environments around the world.

Ford's test center, built in Gaochun District, Nanjing, broke ground recently. It is reported that the test center can simulate various typical road environments around the world and can conduct nearly 80 vehicle performance tests. The entire project will be completed in 2017. By then, Ford will use the new Nanjing Test Center to better integrate the needs of Chinese consumers into the global product development process.
According to reports, Ford Nanjing Test Center invested 680 million yuan, will build a number of test track. Upon completion, the engineer can drive the vehicle on a variety of different grades of runways, such as a uniform speed track and a maneuvering runway, to test the vehicle's performance while observing and evaluating the vehicle including wading, suspension, ground clearance and slippery Performance in road braking and other aspects.
A series of state-of-the-art laboratories are also built around the runway to test vehicle emissions, noise vibrations, and power and steering. The central test range covers compact to full-size passenger cars, SUVs and light commercial vehicles.
Ford Motor (China) Co., Ltd. CEO Luo Lixiang said that Ford is committed to improving its engineering and R&D capabilities in the Asia Pacific and China markets. The Nanjing Test Center will complement Ford's other test centers in the Asia Pacific region to meet global and regional market models. Test requirements.

Oxygen generator

The air we breathe is about 21% oxygen. Oxygen for industrial use is generated by separating oxygen molecules from the other molecules within a clean, dry compressed air stream. Pressure Swing Adsorption (PSA) is a simple, reliable and cost-effective technology that enables continuous, high-capacity oxygen flow at the desired level of purity. Adsorption happens when atoms, ions or molecules from a substance (compressed air in this case) adhere to a surface of an adsorbent. PSA technology isolates oxygen molecules from other molecules (nitrogen, CO2, water vapor and trace gases) to leave high purity oxygen at the outlet of the generator. The process takes place in two separate pressure vessels (tower A and tower B), each filled with a carbon molecular sieve, that switch between a separation process and a regeneration process.