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市場調查報告書

瓦斯渦輪機技術

Developments in Gas Turbine Technologies

出版商 Technical Insights, Inc.
出版日期 2005年12月 商品編碼 40469
內容資訊 英文  
價格
本報告書已不再販售

本報告已在2011年07月19日停止出版。

簡介

在多數的國家中,為了符合環保專家及政府設定的嚴格廢氣排放標準,瓦斯渦輪機生產企業都投資龐大費用在研發工作上。到目前為止已經成功地將氮氧化物控制在政府規定的 25 PPM 以下,但目標是在 2020 年達到 15 PPM 以下。

專門於高科技領域顧問服務與市場調查的美國市調公司 Technical Insights, Inc. (總公司:美國德州),針對瓦斯渦輪機技術進行調查分析,經系統整理後出版報告 "Developments in Gas Turbine Technologies" 。

本報告書內容包括:瓦斯渦輪機技術的研發現況、壓縮機、燃燒器、複合循環等。內容綱要摘記如下:

第1章 實施概要

  • 簡介
  • 調查結果中的主要發現

第2章 瓦斯渦輪機技術之發展與應用

  • 瓦斯渦輪機
  • 北美的發展
  • EMEA 的發展
  • 亞太地區的發展

第3章 技術採用與實用化

  • 瓦斯渦輪機技術推動因素與課題分析
  • 瓦斯渦輪機市場的牽引因素與課題分析
  • 相互競爭之技術與各自的發展推動因素、課題
  • 瓦斯渦輪機技術的趨勢

第4章 大學之研發

  • 瓦斯渦輪機相關研發
    • 對空氣濾淨器更加了解
    • 具有除碳功能的接近零二氧化碳排放的新複合循環過程
    • SOFC(燃料電池)-MGT(微瓦斯渦輪機)基礎的電力設備內外部改革效率之評價 
    • 瓦斯渦輪機技術之現況與未來
    • 分散型與集中型發電系統的排氣研究
  • 瓦斯渦輪機材料覆膜相關的研究
    • 厚型隔熱覆膜( Thick TBC )生產用前驅電漿過程
    • 覆膜類型及瓦斯渦輪機的長期安定性問題
    • EBPVD TBC 的腐蝕特性相關之 TBC 形態學的影響
    • APS、EBPVD TBC 的蔓延特性與燒結之相關研究
    • 隔熱覆膜的新檢查技術
    • 減少渦輪機風扇的熱傳導用的 Niobia

第5章 專利與聯絡對象列表

  • 主要專利
  • 主要聯絡對象

第6章 Frost & Sullivan 2005 Science and Technology Awards

第7章 參考統計資料

目錄

Abstract

Research Overview

Lowering NOx Emission Levels Continues to be the Prime Focus of Research Activities

Manufacturers of gas turbines are allocating a major portion of research funds toward meeting the strict emission levels prescribed by environmentalists and the governments of various countries. So far, current technologies that operate at less than, or equal to, 25 parts per million (ppm) have been successful in containing the nitrogen oxide (NOx) emission to the stipulated levels set by the governments. The goal is to achieve less than 15 ppm by 2020. Facing competition from 'greener' technologies such as fuel cells and coal-based power generation, manufacturers are turning to methods such as diluent injection, lean premixed combustion, catalytic reduction, carbon monoxide oxidation catalysts, and catalytic absorbtion systems to reduce NOx emissions. The challenge lies in sustaining low emission levels at all loads, while simultaneously maintaining efficiency standards.

This Technical Insights research service provides a thorough analysis of the latest trends in gas turbine technologies. The study analyzes key MAST and non-MAST technologies and highlights important developments taking place across research institutions. In addition to identifying key technology drivers and industry challenges, participants can also identify potential collaborators, stay ahead of the competition, and keep abreast of critical developments.

Overall Shortage of Power Likely to Drive Distributed Generation

In most countries, power generation has not been able to cope with existing demand. This situation reaches challenging heights when the power generation companies or the concerned authorities are not able to meet the peak demand by exploiting their reserve margins. High-quality cogeneration to meet the power demands of the industrial sector and offer significant energy savings has been a key focus of research, especially in Europe. In other markets, demand for combined heat and power applications is expected to drive the adoption of gas turbine technologies.

"Leading original equipment manufacturers (OEMs) are looking to Asia Pacific, because of the tremendous potential for distributed generation technologies in these markets," explains the analyst. Distributed generation technologies such as gas engines, diesel engines, gas turbines, micro turbines, and fuel cells are gaining ground due to benefits such as proximity to point of use and reduced burden on the existing transmission and distribution networks.

Thrust on Increasing Efficiency of Gas Turbines

The power generation industry is demanding gas turbine technologies that demonstrate competence on various factors such as efficiency, fuel flexibility, operating flexibility, durability, cost, and other value-enhanced features. Reliability, availability, and maintainability (RAM) are collectively known as the three important parameters in the market. "Efficiency remains the prime concern for gas turbine users because of its impact on electricity costs," observes the analyst. "A single percent increase in efficiency promises increased profitability to users, particularly during peak power requirements."

Currently, the efficiency of these systems ranges from 35 to 46 percent for a single cycle and between 57 to 60 percent for combined cycle operations. The focus is likely to be on increasing the minimum efficiency figures, whereas the upper efficiency limit is expected to remain constant, at least for the next five years.

Table of Contents

1 EXECUTIVE SUMMARY

  • Overview
    • Research Overview
    • Research Methodology
  • Key Findings
    • Emerging Technologies
    • Competing Technologies

2 GAS TURBINES: TECHNOLOGY DEVELOPMENTS AND APPLICATIONS

  • Gas Turbines
    • Technology Primer
    • MAST Gas Turbine Technologies
    • NonMAST Gas Turbine Technologies
  • Developments in North America
    • H System-Based Gas Turbines
    • Aeroderivatives for Land-Based Power Generation
  • Developments in EMEA
    • Aeroderivative-Based Gas Turbine Technology
    • Gas Turbines from Italy
    • Gas Turbines Using Patented Air-Bypass Systems Facilitating Part Loads
    • Advanced H Class Gas Turbines
    • Sequential-Combustion-Technology-Based Gas Turbines
    • SwirlFlash-Technology-Based TOPHAT Cycle Gas Turbines
  • Developments in APAC
    • Environment Friendly Combustion Gas Turbines
    • Advanced Premix DLN Combustor Technology

3 GAS TURBINES: TECHNOLOGY ADOPTION AND COMMERCIALIZATION

  • Analysis of Gas Turbine Technology Challenges and Drivers
    • Technology Challenges
    • Technology Drivers
  • Analysis of Gas Turbine Market Drivers and Challenges
    • Market Drivers
    • Market Challenges
  • Competing Technologies and Their Drivers and Challenges
    • Clean Coal Technologies
    • Renewable Energy Technologies
    • Fuel Cell Technologies
    • Microturbines
  • Gas Turbine Technology Trends
    • Technology Trends in Gas Turbines
    • Technology Roadmap
    • Industry Trends in Gas Turbines

4 GAS TURBINES: R&D DEVELOPMENTS FROM UNIVERSITIES

  • Research & Development on Gas Turbines
    • Understanding Air Filters Better
    • Novel Combined Cycle Process with Fuel Decarbonization and Near-Zero Carbon Dioxide Emissions
    • Performace Evaluation of Internal and External Reforming in SOFC-MGT-Based Power Plants
    • Current and Future Gas Turbine Technologies
    • Study on Emissions from Distributed and Centralized Power Generation Systems
  • Research on Coatings for Gas Turbine Materials
    • Solution Precursor Plasma Process for Producing Thick TBCs
    • Types of Coatings and Long-Term Stability Issues in Gas Turbines
    • Impact of TBC Morphology on the Erosion Behavior of EBPVD TBCs
    • Study on Sintering and Creep Behavior of APS and EBPVD TBCs
    • Novel Inspection Technique for Thermal Barrier Coatings
    • Niobia for Reducing Thermal Conductivity on Turbine Blades

5 KEY PATENTS & CONTACTS

  • Key Patents
    • Patents--Gas Turbines
    • Patents--Coatings
  • Key Contacts
    • Corporate Contacts
    • Research Institutions

6 FROST & SULLIVAN 2005 SCIENCE & TECHNOLOGY AWARDS

  • Product Innovation Award
    • Award Description
    • Award Recipient
  • Excellence in Technology Award
    • Award Description
    • Award Recipient
  • Technology Leadership Award
    • Award Description
    • Award Recipient

7 CRITICAL REFERENCE TABLES

  • Decision Support Database
    • Total Electricity Installed Capacity--North America (1999-2009)
    • SO2 Emissions--North America (1999-2009)
    • CO2 Emissions--North America (1999-2009)
    • Electricity Installed Capacity from Other Renewable Energy Sources--North America (1999-2009)
    • Electricity Installed - Thermal--North America (1999-2009)
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