types of baffle piers and stilling basins have been tried so far. Following types of energy dissipation devices have been tried so far [1]: (1) Hydraulic jump type stilling basin,
Where is energy storage? Energy storage can be found in various locations, from small batteries in electronic devices to large-scale installations in power plants or ES facilities. ES is also used
Baffle enhancement is very important to improve the shell side heat transfer of the heat exchanger, which is widely used because it can achieve a high heat transfer film coefficient at the shell side, with advantages of simple
Researchers such as Saydam and Punniakodi have developed spiral coil type PCM heat storage devices and conducted analyses on their heat storage performance under various conditions. These studies have
Solar water heating systems with thermal storage are one of the simplest ways of reducing energy demand for domestic water heating. Over the years, researchers have attempted to improve
A model of a thermal storage tank in which stored energy is extracted via an immersed heat exchanger is presented and used to predict transient temperature and velocity
Stratified thermal energy storage (TES) tanks are widely used in thermal power plants to enhance the electric power peak load shifting capability and integrate high renewable energy shares. In this study, a data-driven surrogate modeling
Electrochemistry supports both options: in supercapacitors (SCs) of the electrochemical double layer type (see Chap. 7), mode 1 is operating; in a secondary battery or redox flow battery (see Chap. 21), mode
This study enriches the STHE thermo-hydraulic performance using different baffle configurations (BC) such as single segment, double segment, single helical, single segment—no tubes in window (NTIW), propeller type and spiral baffle.
Although the use of baffle plates to improve the performance of solar storage tanks during charging by altering the incoming flow from the collector has been explored in the literature, the potential benefit of baffles in reducing heat loss in the absence of the external flow has not been investigated.
The overall heat transfer coefficient for single Helical 15° and double segmental Baffle configuration is lower than other baffle configurations analyzed by HTRI and CFD. Based on heat transfer performance, number of transfer units, and effectiveness, a single Helical 15° is optimum heat transfer performance related to all others.
The baffle plate not only plays a conductivity role on the fluid but also plays a limited role on the heat exchange tube beam. The heat exchanger is composed of 20 rows (Z direction) and 13 rows (X direction) of 260 heat exchange tubes, the inner diameter of which is 50 mm and the thickness is 1 mm.
The hot and cold fluid are, respectively, on both sides of the heat exchange tube bundle and baffle plate, and the coupling boundary is adopted. The heat transfer coefficient of the tube wall is 0.2 W/ (m K), the density is 2,190 kg/m 3, the linear expansion coefficient is 1.2 × 10 −6 /°C, the tensile modulus is 280 MPa, and the strength is 25 MPa.
Heat loss from jacketed baffled solar storage tanks is examined. Baffles can reduce heat transfer coefficients by up to 40%. A long baffle near the wall provides most benefit. Solar water heating systems with thermal storage are one of the simplest ways of reducing energy demand for domestic water heating.
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