Solid Oxide Fuel Cell Stacks and Battery Systems
A technology of fuel cell system and solid oxide, which is applied in the direction of fuel cell, fuel cell auxiliary agent, fuel cell heat exchange, etc., can solve problems such as complex operation, increase the heat exchange area, solve the problem of thermal stress that is difficult to amplify, and avoid The effect of uneven thermal stress
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Embodiment 1
[0061] This embodiment adopts a two-stage battery pack series-connected solid fuel cell system, such as Figure 5 As shown, the system includes a flue gas heat exchanger, an air heat exchanger, an exhaust gas combustion boiler, two solid fuel cell stacks, and an electric heater, where the anode feed gas is CO and H 2 A mixture of gases, CO and H 2 The volume ratio of the cathode is 1:1, and the cathode raw material gas is air.
[0062] The cathode feed gas at room temperature is heated to 650°C by a flue gas heat exchanger, and then enters the multi-channel end panel of battery pack one (such as figure 2 shown), and then enter the multi-channel end panel of battery pack two (as shown in figure 2 As shown), after gas distribution again, it enters the cathode of the second battery pack, and the oxygen molecules get electrons and are reduced to oxygen ions; the oxygen ions pass through the electrolyte membrane under the action of the driving force of the potential difference ...
Embodiment 2
[0069] This embodiment adopts a four-stage battery pack series-connected solid fuel cell system, such as Image 6 As shown, the system includes a flue gas heat exchanger, an air heat exchanger, an exhaust combustion boiler, four solid fuel cell stacks, and an electric heater, where the anode feed gas is CO and H 2 A mixture of gases, CO and H 2 The volume ratio of the cathode is 1.5:1, and the cathode raw material gas is air.
[0070] Operate the battery system according to the method of Example 1. The difference is that the battery system includes four solid fuel cell stacks. After the system runs stably, the temperature of the outlet gas (including anode tail gas and cathode tail gas) after the tetraoxidation reaction of the battery pack can reach 805°C, the temperature of the outlet gas (including anode tail gas and cathode tail gas) after the trioxidation reaction of the battery pack can reach 838°C, the temperature of the outlet gas (including anode tail gas and cathode ...
Embodiment 3
[0072] This embodiment adopts a two-stage battery pack series-connected solid fuel cell system, such as Figure 5 As shown, the system includes a flue gas heat exchanger, an air heat exchanger, an exhaust combustion boiler, two solid fuel cell stacks, and an electric heater, where the anode feed gas is CO and H 2 A mixture of gases, CO and H 2 The volume ratio of the cathode is 1:1, and the cathode raw material gas is air.
[0073] Operate the battery system according to the method of Example 1, the difference is that the end panels on both sides of the cathode and anode of the battery pack of the battery system are as follows image 3 As shown in the end panel (that is, the hollow is a multi-channel end panel), after the system runs stably, the temperature of the outlet gas (including anode tail gas and cathode tail gas) after the carbon dioxide reaction of the battery pack can reach 712°C, and the temperature of the battery pack one oxidation reaction The temperature of th...
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