SYSTEM DEVELOPMENT FOR ENHANCING BOILER PERFORMANCE: FROM PID CONTROL TO ADAPTIVE AND MODEL PREDICTIVE CONTROL FOR MORE EFFECTIVE OPTIMIZATION OF TEMPERATURE, PRESSURE, AND LEVEL CONTROL IN BOILER SYSTEM

Eko Susetyo Yulianto, Doddi Yuniardi, Achmad Risa Harfit
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Abstract

When discussing control systems for boilers, the PID (Proportional-Integral-Derivative) control algorithm is one of the most well-known and widely used. The PID control algorithm has been proven effective in controlling temperature and pressure within boiler systems. However, as technology advances, there have been advancements in more sophisticated and efficient control systems. One of these advancements is the utilization of adaptive control and model predictive control. Adaptive control can adapt to changes in operational conditions and provide better performance compared to PID control. Meanwhile, model predictive control utilizes a mathematical model of the system to predict future behavior and make control decisions based on these predictions. Nevertheless, the PID control algorithm remains crucial and can deliver satisfactory performance in temperature and pressure control within boilers. The key to effective use of PID control lies in the selection of appropriate parameters and proper tuning. By employing the correct tuning methods, PID control can achieve optimal performance and high efficiency in boiler systems. Overall, the use of the PID control algorithm remains a good choice for temperature and pressure control in boiler systems, despite advancements in more advanced and efficient control systems. Model predictive control, on the other hand, utilizes a mathematical model of the boiler system to predict its future behavior. By solving an optimization problem over a predictive horizon, it determines the optimal control actions to be applied. This proactive approach allows model predictive control to account for constraints, nonlinearity, and system dynamics, leading to improved control performance and energy efficiency. In conclusion, while PID control remains a viable option for temperature and pressure control in boiler systems, the advancements in adaptive control and model predictive control offer more sophisticated and efficient alternatives. The choice of control strategy depends on the specific requirements, complexity, and desired performance of the boiler system. Combining different control techniques or employing advanced control algorithms can further enhance the overall control performance and optimize the operation of the boiler system.
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提高锅炉性能的系统开发:从pid控制到自适应和模型预测控制,更有效地优化锅炉系统的温度、压力和液位控制
在讨论锅炉控制系统时,PID(比例-积分-导数)控制算法是最知名和应用最广泛的控制算法之一。PID控制算法在锅炉系统的温度和压力控制中已被证明是有效的。然而,随着技术的进步,在更复杂和有效的控制系统方面已经取得了进展。其中一个进步是自适应控制和模型预测控制的应用。自适应控制可以适应运行条件的变化,提供比PID控制更好的性能。同时,模型预测控制利用系统的数学模型来预测未来的行为,并根据这些预测做出控制决策。然而,PID控制算法仍然是关键,可以提供满意的性能在锅炉内的温度和压力控制。有效使用PID控制的关键在于选择合适的参数和适当的整定。通过采用正确的整定方法,PID控制可以达到锅炉系统的最优性能和高效率。总的来说,使用PID控制算法仍然是锅炉系统温度和压力控制的一个很好的选择,尽管有更先进和高效的控制系统的进步。另一方面,模型预测控制利用锅炉系统的数学模型来预测其未来的行为。通过在预测范围内解决优化问题,它确定要应用的最优控制动作。这种前瞻性方法允许模型预测控制考虑约束、非线性和系统动力学,从而提高控制性能和能源效率。总之,虽然PID控制仍然是锅炉系统温度和压力控制的可行选择,但自适应控制和模型预测控制的进步提供了更复杂和有效的替代方案。控制策略的选择取决于锅炉系统的具体要求、复杂程度和期望的性能。结合不同的控制技术或采用先进的控制算法,可以进一步提高锅炉系统的整体控制性能,优化锅炉系统的运行。
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