Abstract: A temperature compensation flow-limiting device and an elastomeric infusion system are provided. The temperature compensation flow-limiting device is disposed in the infusion tube of the elastomeric infusion system to improve instability, caused by changes to temperature, of the flow velocity of the fluid inside the infusion tube to keep the flow velocity of the fluid stable. The temperature compensation flow-limiting device includes an inner layer and an outer layer; the coefficient of thermal expansion (CTE) of the inner layer is greater than that of the outer layer. When the temperature of the fluid inside the infusion tube increases, the inner layer expands and the internal diameter decreases as it is limited by the outer layer.

Abstract: A temperature compensation flow-limiting device are provided. The temperature compensation flow-limiting device is disposed in the infusion tube of the elastomeric infusion system to improve instability, caused by changes to temperature, of the flow velocity of the fluid inside the infusion tube to keep the flow velocity of the fluid stable. The temperature compensation flow-limiting device includes an inner layer and an outer layer; the coefficient of thermal expansion (CTE) of the inner layer is greater than that of the outer layer. When the temperature of the fluid inside the infusion tube increases, the inner layer expands and the internal diameter decreases as it is limited by the outer layer.

Abstract: A temperature compensation flow-limiting device and an elastomeric infusion system are provided. The temperature compensation flow-limiting device is disposed in the infusion tube of the elastomeric infusion system to improve instability, caused by changes to temperature, of the flow velocity of the fluid inside the infusion tube to keep the flow velocity of the fluid stable. The temperature compensation flow-limiting device includes an inner layer and an outer layer; the coefficient of thermal expansion (CTE) of the inner layer is greater than that of the outer layer. When the temperature of the fluid inside the infusion tube increases, the inner layer expands and the internal diameter decreases as it is limited by the outer layer.

Abstract: A solar cell includes a photoelectric conversion module having a light incident surface and a europium-doped cover glass applied on the light incident surface. The photoelectric conversion module is configured for receiving light and converting the light into electric energy. The cover glass includes two phases each having a phase size of less than 500 nanometers. At least one of the phases is interconnected three-dimensionally throughout the cover glass. The cover glass being capable of converting first light of a first wavelength into second light of a second wavelength, the second wavelength is greater than the first wavelength.

Abstract: A solar cell includes a photoelectric conversion module having a light incident surface for receiving light and converting the light into electric energy, and glass layer containing europium therein applied on the light incident surface. The glass layer modulates wavelength of received light to a higher level and transmits modulated light to the light incident surface.