Turbo Green Burner

根据最近的许多报告，预计到2025年，非洲的支出和制造业产出将迅速增长（麦肯锡，非洲绘制新的采购机会）。因此，非洲不同的工业可望获得若干市场机会。众所周知，电力供应被认为是任何类型的工业或制造业发展最重要的投入之一。涡轮绿色燃烧器项目旨在为非洲的烘焙行业提供一种新产品，使用微型燃气涡轮发动机同时产生12千瓦的电力和200千瓦的热量。该项目的主要优点是除了独立于国家电网之外，所提出的系统的效率和灵活性。Samad电力有限公司是项目的主要合作伙伴，在开发不同工业应用的微型燃气轮机系统方面拥有丰富的经验。Samad Power已经掌握了组合设计的方法，并为国内市场开发了世界上最具成本效益的微型燃气轮机热电联产系统——涡轮绿色锅炉（安装成本为4000英镑）。Samad power将利用其以前的经验，方法和注册专利，成功地将涡轮绿色燃烧器系统推向市场。克兰菲尔德大学（CU）是一所领先的机构，在与该项目相关的各种尖端工业研发合作方面拥有丰富的经验和记录，包括；燃气轮机和涡轮机械设备的研究、设计和开发。科罗拉多大学将作为学术合作伙伴参与涡轮绿色燃烧器项目，设计和分析一个燃烧室，它可以使用不同类型的燃料。特别地，中大将在工作包1和工作包2期间支持该项目，设计和分析一种既可以使用传统燃料又可以使用环保燃料的高效燃烧室。燃烧室也将被设计为燃烧液体和气体燃料。计算流体动力学（CFD）和其他数值和分析方法将用于评估燃烧室的性能并建立其稳定性图。为了使选定的发动机能够在不同的燃料下运行，除了先进的数值方法和模拟技术外，CU还将使用内部分析代码设计不同的部件。此外，将对燃烧室壁温度进行分析和数值评估，以预测所有热负荷和适当的冷却方法。这种设计的新颖之处在于，燃烧室可以高效地使用市场上各种各样的燃料，如甲烷、柴油和生物燃料。

According to many recent reports, spending and manufacturing output are expected to grow rapidly in Africa by 2025 (McKinsey, Africa mapping new opportunities for sourcing). As a consequence, several market opportunities are expected to be available for different African industries. It is well known that electricity supply is considered one of the most important inputs for any type of industrial or manufacturing developments. The Turbo Green Burner project aims to offer a new product for bakery industries in Africa to produce 12kW of power and 200kW of heat simultaneously using a micro gas turbine engine. The main advantages of this project are the efficiency and flexibility of the proposed system, in addition to its independence from the national grid. Samad Power Ltd, the lead project partner, has developed wide experience in developing micro gas turbine systems for different industrial applications. Samad Power has mastered the Method of Combined Design and developed the world's most cost-effective micro gas turbine CHP system, the Turbo Green Boiler, for the domestic market (£4,000 installed cost). Samad power will utilise its previous experience, methodologies, and registered patents to successfully deliver the Turbo Green Burner system to the market. Cranfield University (CU) is a leading institution with strong experience and a track record in various cutting-edge industrial R&D collaborations on the subjects related to this project including; research, design, and development of gas turbines and turbomachinery equipment. CU will be involved as the academic partner in the Turbo Green Burner project to design and analyse a combustion chamber, which operates with different types of fuels. In particular, CU will support the project during work packages 1 and 2 to design and analyse an efficient combustion chamber that can operate with conventional and environmentally friendly fuels. The combustion chamber will also be designed to burn liquid and gas fuels. Computational fluid dynamics (CFD) and other numerical and analytical methods will be used to evaluate the combustion chamber performance and to establish its stability maps. To enable the selected engine to operate with different fuels, CU will design different components using inhouse analytical codes, in addition to advanced numerical methods and simulation techniques. Furthermore, the combustion chamber wall temperature will be assessed analytically and numerically to predict all the thermal loads and the appropriate cooling method. The novelty of this design lies on the possibility of the combustion chamber to operate efficiently and effectively using a wide range of fuels available in the market such as methane, diesel, and biofuels.