According to one embodiment, there is provided a white light source system. P(λ), B(λ) and V(λ) satisfy an equation (1) below in a wavelength range of 380 nm to 780 nm. The white light source system satisfies an expression (2) below in a wavelength range of 400 nm to 495 nm:
∫.sub.380.sup.780P(λ)V(λ)dλ=∫.sub.380.sup.780B(λ)V(λ)dλ  (1) where P(λ) is a light emission spectrum of white light, B(λ) is a light emission spectrum of blackbody radiation of a color temperature correspond to a color temperature of the white light, and V(λ) is a spectrum of a spectral luminous efficiency.

According to one embodiment, there is provided a white light source system. P(), B() and V() satisfy an equation (1) below in a wavelength range of 380 nm to 780 nm. The white light source system satisfies an expression (2) below in a wavelength range of 400 nm to 495 nm:
.sub.380.sup.780P()V()d=.sub.380.sup.780B()V()d(1)
P()/B()1.8.(2) where P() is a light emission spectrum of white light, B() is a light emission spectrum of blackbody radiation of a color temperature correspond to a color temperature of the white light, and V() is a spectrum of a spectral luminous efficiency.

According to one embodiment, a rotating-anode X-ray tube assembly includes a rotating-anode X-ray tube, a housing, a coolant, a first shell, an X-ray shielding member, a second shell and an air introduction unit. The first shell is provided apart from the housing and an envelope of the rotating-anode X-ray tube, and surrounds the envelope. The X-ray shielding member is provided between the first shell and the housing and apart from the housing. The second shell is provided apart from the housing to cause an airway to be formed between the second shell and the housing. The air introduction unit produces a flow of air in the airway.

According to one embodiment, a rotating-anode X-ray tube assembly includes a rotating-anode X-ray tube, a housing, a coolant, a first shell, an X-ray shielding member, a second shell and an air introduction unit. The first shell is provided apart from the housing and an envelope of the rotating-anode X-ray tube, and surrounds the envelope. The X-ray shielding member is provided between the first shell and the housing and apart from the housing. The second shell is provided apart from the housing to cause an airway to be formed between the second shell and the housing. The air introduction unit produces a flow of air in the airway.

A security light system includes a plurality of light fixtures, whereby each light fixture has a light module including an infrared light and an LED that generates white light. Each light fixture includes a driver circuit for controlling operation of the infrared light and the LED. The system includes a light intensity controller for communicating with each light fixture. The light intensity controller includes a control element that enables an operator to selectively increase and decrease the intensity level of the infrared and white light generated by the infrared light and the LED.

A universal load control module may include a power supply that operates over a wide voltage range, a microcontroller, and one or more functional control blocks. A functional control block may include a dimmer circuit for controlling a lighting load that provides reverse phase cut mode dimming, forward phase cut mode dimming, and hybrid phase cut mode dimming, as well as thermal protection. One or more universal control modules may be housed in a cabinet that include a cabinet control module. The cabinet may include additional thermal protection measures.

A processing system including a chamber that includes one or more sidewalls defining an internal volume, one or more heat sources configured to generate heat, a liner disposed in the internal volume and lining one or more sidewalls, and one or more cooling channels. The processing system includes a fluid system in fluid communication with the cooling channels, the fluid system including one or more supply lines configured to supply a fluid to the cooling channels at a first temperature, and one or more return lines configured to flow the fluid from the cooling channels at a second temperature that is higher than the first temperature, and a fluid motor configured to move the fluid. The processing system includes an energy harnessing device configured to harness energy to produce electrical energy, the energy harnessing device including one or more turbines.

A processing system including a chamber that includes one or more sidewalls defining an internal volume, one or more heat sources configured to generate heat, a liner disposed in the internal volume and lining one or more sidewalls, and one or more cooling channels. The processing system includes a fluid system in fluid communication with the cooling channels, the fluid system including one or more supply lines configured to supply a fluid to the cooling channels at a first temperature, and one or more return lines configured to flow the fluid from the cooling channels at a second temperature that is higher than the first temperature, and a fluid motor configured to move the fluid. The processing system includes an energy harnessing device configured to harness energy to produce electrical energy, the energy harnessing device including one or more turbines.