熱電併給システム市場の2028年までの予測-容量、燃料タイプ、技術、エンドユーザー、地域別の世界分析

Stratistics MRCによると、世界の熱電併給システム市場は、2022年に162億3,000万米ドルを占め、2028年には263億4,000万米ドルに達すると予測され、予測期間中に8.4%のCAGRで成長するとされています。

熱電併給（CHP）は、単一の燃料源から電力と熱電力を作り出す生産的でクリーンな方法です。CHPは、エンドユーザーのいる場所やその近くでエネルギーを作り出し、エネルギーを作る際に出る熱をユーザーの熱需要を満たすために使うことができ、作り出したエネルギーはその場所のエネルギー需要のすべてまたは一部を満たすことができます。電気と熱の安定した需要を持つアプリケーションは、CHP導入の優れた財務目標となります。

IEAによると、中国は2020年に石炭需要が増加した唯一の主要経済国です。2021年には力強い経済成長が電力需要を支え、COVID後の景気刺激策が鉄鋼、セメント、その他の石炭集約型工業製品の生産をサポートします。

市場力学：

促進要因：

分散型発電の増加動向

使用する場所やその近くで電力を作ることを分散型発電といい、以前は、小規模な発電所で低電圧の直流システムを使って電気を分配していました。分散型発電では、電力と機械的な作業の両方を実現することができます。分散型発電は、発電所が常に固定され、使用場所から遠く離れた場所で著しく大容量の発電を行う集中型発電とは区別されます。分散型発電の主役は、ガスタービンです。ガスタービンは、オンサイト発電やバックアップ電源として必要な効率や信頼性において、他の分散型発電システムを凌駕しています。その結果、CHP市場は分散型発電の成長により大きな機会を得ており、予測期間中、市場の成長を加速させると考えられます。

抑制要因

設置費用とメンテナンス費用の増加

設置には多額の先行投資が必要です。CHP事業の成長にとって重要な障壁は、典型的なCHPプラントのコストであり、同等の容量と原動機を持つ発電プラントのコストに比べ、約240%も高くなることがあります。原動機、熱回収システム、熱・蒸気配管など多くの部品で構成される複雑な構造のため、CHPシステムには多額の維持費もかかります。CHPの高効率を維持するためには、すべてのコンポーネントを定期的にメンテナンスする必要があり、これが全体のメンテナンス費用を押し上げ、フォグコンピューティング市場の成長を妨げると予測されています。

機会

政府プログラムおよびインセンティブ

政府の取り組みとインセンティブは、特に米国、英国、ドイツ、日本などのOECD諸国において、CHP分野の拡大を促進すると予想されます。米国では2012年にエネルギー効率化のためのCHP開発の新戦略が採択され、当時の米国大統領も企業におけるエネルギー効率化を奨励する大統領令に署名しました。CHPの設置については、米国連邦政府や多くの州政府がインセンティブや税制優遇を提供しています。この指令は、環境保護庁（EPA）、米国エネルギー省、商務省、農業省、その他の連邦政府機関に対して、産業用エネルギー効率への投資を促進するために、各州に商業・技術支援を提供するための努力を調整するように指示しています。

脅威

バイオガス中の不純物別原動機へのダメージ

CHPプラントが直面する大きな課題の一つは、ガスの前処理の意義を理解し、その戦略を練ることです。バイオガスを燃料とするCHPシステムは、ガスタービン、マイクロガスタービン、レシプロエンジン、スターリングエンジンなどの原動機を持ち、燃焼室内でメタンを酸化させることで運転します。これにより熱エネルギーが発生し、ピストンやタービンを駆動し、その結果生じる軸の仕事を発電機で電気に変換します。燃料電池が作動する際には、メタンが電気化学的に酸化され、ほとんどの場合、各原動機ではメタンが主燃料となります。硫化水素（H2S）、一酸化炭素（CO）、アンモニア（NH3）などの微量不純物の方が原動機には悪影響があります。原動機が少量の不純物を処理できても、不純物の濃度が高くなると、CHPの寿命は数年程度になってしまいます。

COVID-19の影響：

COVID-19のパンデミックは、感染拡大を食い止めるための封鎖措置や極端な渡航制限により、人命に大きな悪影響を与えただけでなく、世界経済にも大きな悪影響を与えています。多くの産業で多くの個人が職を失い、多くの国で多くの産業の総労働力が大幅に減少しました。その結果、多くの国で様々な業種の労働力が大幅に減少したため、世界市場も大きな影響を受けています。業界関係者の中には、COVID-19危機がもたらした遅延により、様々な規模の熱電併給プロジェクトが予定より遅れていると述べている人もいます。

予測期間中、天然ガス部門が最大となる見通し

予測期間中、天然ガスセグメントは他のセグメントと比較して最も大きなシェアを占めると予測されています。燃料の種類によって、天然ガス、石炭、バイオマス、その他のカテゴリーに分類されます。予測期間中、天然ガスセグメントは金額ベースでトップの座を維持すると思われます。この技術の利用を促進する主な要素として、総設置・運用コストの低減を目指した取り組みや、天然ガス発電所プロジェクトの建設に対する公的・民間からの継続的な支援などがあり、市場成長を後押ししています。

予測期間中、コンバインドサイクル分野のCAGRが最も高くなると予想される

同市場は、技術に基づき、コンバインドサイクル、蒸気タービン、ガスタービン、レシプロエンジン、その他に大別されます。2021年には、コンバインドサイクルCHPシステムが市場を独占すると予測されます。発電所のコンバインドサイクルシステムは、排気ガスに蓄積された余熱を利用して追加の電力を生成するため、エネルギー損失を低減します。発電所全体の効率は、従来の蒸気タービン発電所の約40％、ガスタービン発電所の約35％に対し、コンバインドサイクルCHPシステムでは50％近くまで上昇し、これが世界市場の拡大を促進する重要な要因となっています。

最もシェアの高い地域

欧州の熱電併給システム市場は、収益シェアで世界市場を独占しており、この支配は予測期間中も続くと予想されます。CHP市場の地域的な展望を支える主な要因は、気候環境の変化による地域エネルギー（暖房および冷房）システムのニーズの高まりと、燃料の適応性から派生する機械の改良の進行です。また、安価な資金調達プログラムやリベート、研究開発の奨励、CHPの設置方法の徹底、費用対効果の高い削減戦略の概要などが、世界市場を支える重要な要素となっています。

CAGRが最も高い地域：

予測期間中、アジア太平洋が最も速い成長率を示すと予想されています。この地域の急速な工業化、都市化、クリーン燃料エネルギーに対する市場需要の高まりの結果、新興国では新しい熱電併給システムが誕生しています。例えば、インドのアンドラプラデシュ州スリ市で発足したBert Mobil Gasのデモプランは、Bert Energy GmbHによって公開されたものです。さらに、産業用ボイラーや発電所に対する環境規制、エネルギー効率の向上、有利な天然ガスの供給と価格の見通しにより、この地域全体でコージェネレーションシステムの設置が促進されると予想されています。

主な発展：

2021年7月、Capstone Green Energyは、ニューヨークで1.2MWsのマイクロタービンの10年間のサービス契約を締結しました。この超高層ビルの1.2MWのエネルギー効率化プラントは、CapstoneのC600Sマイクロタービン2基とCapstoneの統合熱回収モジュールで構成されています。

2021年3月、The European Marine Energy Centre（EMEC）とHighlands and Islands Airports Limited（HIAL）は、グリーン水素技術によりカークウォール空港の熱電併給を脱炭素化するために提携しました。

2020年8月、TEDOMとBOSCH Thermotechnikは、熱電併給装置の供給契約を締結しました。2つの組織間の取り決めには、電気出力30～530kWのノーマルガソリンを燃やす小型・中型のCHPユニットの在庫が組み込まれています。ブデラス社は、この新しいコラボレーションにより、ポートフォリオを拡大し、より低い出力とより高い出力を持つCHPユニットを提供することができます。これまでBOSCH Thermotechnikがコージェネレーション製品を提供してきたBuderus Loganovaユニットの全アレンジは、TEDOM CHPユニットに取って代わられる予定です。

2020年10月、シーメンス・エナジー社は、米国インディアナ州ラファイエットにあるテート・アンド・ライルの食品固定処理工場向けにSGT-700ガスタービン2基を納入しました。このタービン2基は、石炭燃料ボイラーに代わる別の統合CHP活動の基盤となります。近くで発電し、通常は浪費される熱を再利用することで、新しいCHP活動はエネルギー生産性を拡大し、エネルギー費用と化石燃料の製品別を大幅に削減することができます。

私たちのレポートが提供するもの

• 地域別および国別セグメントの市場シェア評価
• 新規参入企業への戦略的提言
• 2020年、2021年、2022年、2025年、2028年の市場データを網羅
• 市場動向（促進要因、抑制要因、機会、脅威、課題、投資機会、推奨事項）
• 市場推定に基づく、主要ビジネスセグメントにおける戦略的提言
• 主要な共通トレンドをマッピングした競合情勢。
• 詳細な戦略、財務、最近の開発状況を含む企業プロファイル
• 最新の技術的進歩をマッピングしたサプライチェーン動向

無料のカスタマイズ提供：

本レポートをご購入いただいたお客様には、以下の無料カスタマイズオプションのいずれかを提供させていただきます：

• 企業プロファイル
  • 追加市場プレイヤーの包括的なプロファイリング（最大3社まで）
  • 主要プレイヤーのSWOT分析（3社まで）
• 地域別セグメンテーション
  • お客様のご希望に応じて、主要国の市場推計・予測・CAGR（注：フィージビリティチェックによる。）
• 競合ベンチマーキング
  • 製品ポートフォリオ、地域的プレゼンス、戦略的提携に基づく主要プレイヤーのベンチマーキング

目次

第1章 エグゼクティブサマリー

第2章 序文

• 概要
• ステークホルダー
• 調査範囲
• 調査手法
  • データマイニング
  • データ分析
  • データ検証
  • 調査アプローチ
• 調査ソース
  • 1次調査ソース
  • 2次調査ソース
  • 仮定

第3章 市場動向分析

• 促進要因
• 抑制要因
• 機会
• 脅威
• 技術分析
• エンドユーザー分析
• 新興市場
• 新型コロナウイルス感染症（COVID-19）の影響

第4章 ポーターのファイブフォース分析

• 供給企業の交渉力
• 買い手の交渉力
• 代替品の脅威
• 新規参入業者の脅威
• 競争企業間の敵対関係

第5章 世界の熱電併給システム市場：容量別

• 最大10MW
• 10-150MW
• 151-300MW
• 300MW以上

第6章 世界の熱電併給システム市場：燃料タイプ別

• 石炭
• 天然ガス
• バイオガス/バイオマス
• 核
• ディーゼル
• バイオディーゼル
• 地熱

第7章 世界の熱電併給システム市場：技術別

• 複合サイクル
• ガスタービン
• 蒸気タービン
• レシプロエンジン
• 燃料電池
• マイクロタービン
• その他の技術

第8章 世界の熱電併給システム市場：エンドユーザー別

• 住宅
• 商業
• 産業用
• その他のエンドユーザー

第9章 世界の熱電併給システム市場：地域

• 北米
  • 米国
  • カナダ
  • メキシコ
• 欧州
  • ドイツ
  • 英国
  • イタリア
  • フランス
  • スペイン
  • その他欧州
• アジア太平洋地域
  • 日本
  • 中国
  • インド
  • オーストラリア
  • ニュージーランド
  • 韓国
  • その他アジア太平洋地域
• 南米
  • アルゼンチン
  • ブラジル
  • チリ
  • その他南米
• 中東とアフリカ
  • サウジアラビア
  • アラブ首長国連邦
  • カタール
  • 南アフリカ
  • その他中東とアフリカ

第10章 主な発展

• 契約、パートナーシップ、コラボレーション、合弁事業
• 買収と合併
• 新製品の発売
• 事業拡大
• その他の主要戦略

第11章 会社概要

• 2G Energy Inc.
• ABB Limited
• Aegis Energy Services LLC
• Bosch Thermotechnology Ltd.
• Capstone Turbine Corporation
• Caterpillar Inc.
• CENTRAX Gas Turbines
• Centrica PLC
• Clarke Energy Inc.
• Cummins Inc.
• Doosan Fuel Cell America, Inc.
• Elite Energy Systems, LLC
• ENER-G Rudox and Veolia
• FuelCell Energy Inc.
• Generac Holdings Inc.
• General Electric Company
• Integral Power
• Kawasaki Heavy Industries Ltd
• MAN Diesel & Turbo SE
• Mitsubishi heavy Industries ltd.
• Primary Energy Recycling Corporation
• Seimens Energy AG
• Tecogen Inc.
• Veolia
• Viessmann Werke Group GmbH & Co. KG
• Wartsila Oyj Abp

List of Tables

• Table 1 Global Combined Heat & Power System Market Outlook, By Region (2020-2028) ($MN)
• Table 2 Global Combined Heat & Power System Market Outlook, By Capacity (2020-2028) ($MN)
• Table 3 Global Combined Heat & Power System Market Outlook, By upto10 MW (2020-2028) ($MN)
• Table 4 Global Combined Heat & Power System Market Outlook, By 10-150 MW (2020-2028) ($MN)
• Table 5 Global Combined Heat & Power System Market Outlook, By 151-300 MW (2020-2028) ($MN)
• Table 6 Global Combined Heat & Power System Market Outlook, By above300 MW (2020-2028) ($MN)
• Table 7 Global Combined Heat & Power System Market Outlook, By Fuel Type (2020-2028) ($MN)
• Table 8 Global Combined Heat & Power System Market Outlook, By Coal (2020-2028) ($MN)
• Table 9 Global Combined Heat & Power System Market Outlook, By Natural Gas (2020-2028) ($MN)
• Table 10 Global Combined Heat & Power System Market Outlook, By Biogas/Biomass (2020-2028) ($MN)
• Table 11 Global Combined Heat & Power System Market Outlook, By Nuclear (2020-2028) ($MN)
• Table 12 Global Combined Heat & Power System Market Outlook, By Diesel (2020-2028) ($MN)
• Table 13 Global Combined Heat & Power System Market Outlook, By Biodiesel (2020-2028) ($MN)
• Table 14 Global Combined Heat & Power System Market Outlook, By Geothermal (2020-2028) ($MN)
• Table 15 Global Combined Heat & Power System Market Outlook, By Technology (2020-2028) ($MN)
• Table 16 Global Combined Heat & Power System Market Outlook, By Combined Cycle (2020-2028) ($MN)
• Table 17 Global Combined Heat & Power System Market Outlook, By Gas Turbine (2020-2028) ($MN)
• Table 18 Global Combined Heat & Power System Market Outlook, By Steam Turbine (2020-2028) ($MN)
• Table 19 Global Combined Heat & Power System Market Outlook, By Reciprocating Engine (2020-2028) ($MN)
• Table 20 Global Combined Heat & Power System Market Outlook, By Fuel Cell (2020-2028) ($MN)
• Table 21 Global Combined Heat & Power System Market Outlook, By Microturbine (2020-2028) ($MN)
• Table 22 Global Combined Heat & Power System Market Outlook, By Other Technologies (2020-2028) ($MN)
• Table 23 Global Combined Heat & Power System Market Outlook, By End User (2020-2028) ($MN)
• Table 24 Global Combined Heat & Power System Market Outlook, By Residential (2020-2028) ($MN)
• Table 25 Global Combined Heat & Power System Market Outlook, By Commercial (2020-2028) ($MN)
• Table 26 Global Combined Heat & Power System Market Outlook, By Industrial (2020-2028) ($MN)
• Table 27 Global Combined Heat & Power System Market Outlook, By Other End Users (2020-2028) ($MN)
• Table 28 North America Combined Heat & Power System Market Outlook, By Country (2020-2028) ($MN)
• Table 29 North America Combined Heat & Power System Market Outlook, By Capacity (2020-2028) ($MN)
• Table 30 North America Combined Heat & Power System Market Outlook, By upto10 MW (2020-2028) ($MN)
• Table 31 North America Combined Heat & Power System Market Outlook, By 10-150 MW (2020-2028) ($MN)
• Table 32 North America Combined Heat & Power System Market Outlook, By 151-300 MW (2020-2028) ($MN)
• Table 33 North America Combined Heat & Power System Market Outlook, By above300 MW (2020-2028) ($MN)
• Table 34 North America Combined Heat & Power System Market Outlook, By Fuel Type (2020-2028) ($MN)
• Table 35 North America Combined Heat & Power System Market Outlook, By Coal (2020-2028) ($MN)
• Table 36 North America Combined Heat & Power System Market Outlook, By Natural Gas (2020-2028) ($MN)
• Table 37 North America Combined Heat & Power System Market Outlook, By Biogas/Biomass (2020-2028) ($MN)
• Table 38 North America Combined Heat & Power System Market Outlook, By Nuclear (2020-2028) ($MN)
• Table 39 North America Combined Heat & Power System Market Outlook, By Diesel (2020-2028) ($MN)
• Table 40 North America Combined Heat & Power System Market Outlook, By Biodiesel (2020-2028) ($MN)
• Table 41 North America Combined Heat & Power System Market Outlook, By Geothermal (2020-2028) ($MN)
• Table 42 North America Combined Heat & Power System Market Outlook, By Technology (2020-2028) ($MN)
• Table 43 North America Combined Heat & Power System Market Outlook, By Combined Cycle (2020-2028) ($MN)
• Table 44 North America Combined Heat & Power System Market Outlook, By Gas Turbine (2020-2028) ($MN)
• Table 45 North America Combined Heat & Power System Market Outlook, By Steam Turbine (2020-2028) ($MN)
• Table 46 North America Combined Heat & Power System Market Outlook, By Reciprocating Engine (2020-2028) ($MN)
• Table 47 North America Combined Heat & Power System Market Outlook, By Fuel Cell (2020-2028) ($MN)
• Table 48 North America Combined Heat & Power System Market Outlook, By Microturbine (2020-2028) ($MN)
• Table 49 North America Combined Heat & Power System Market Outlook, By Other Technologies (2020-2028) ($MN)
• Table 50 North America Combined Heat & Power System Market Outlook, By End User (2020-2028) ($MN)
• Table 51 North America Combined Heat & Power System Market Outlook, By Residential (2020-2028) ($MN)
• Table 52 North America Combined Heat & Power System Market Outlook, By Commercial (2020-2028) ($MN)
• Table 53 North America Combined Heat & Power System Market Outlook, By Industrial (2020-2028) ($MN)
• Table 54 North America Combined Heat & Power System Market Outlook, By Other End Users (2020-2028) ($MN)
• Table 55 Europe Combined Heat & Power System Market Outlook, By Country (2020-2028) ($MN)
• Table 56 Europe Combined Heat & Power System Market Outlook, By Capacity (2020-2028) ($MN)
• Table 57 Europe Combined Heat & Power System Market Outlook, By upto10 MW (2020-2028) ($MN)
• Table 58 Europe Combined Heat & Power System Market Outlook, By 10-150 MW (2020-2028) ($MN)
• Table 59 Europe Combined Heat & Power System Market Outlook, By 151-300 MW (2020-2028) ($MN)
• Table 60 Europe Combined Heat & Power System Market Outlook, By above300 MW (2020-2028) ($MN)
• Table 61 Europe Combined Heat & Power System Market Outlook, By Fuel Type (2020-2028) ($MN)
• Table 62 Europe Combined Heat & Power System Market Outlook, By Coal (2020-2028) ($MN)
• Table 63 Europe Combined Heat & Power System Market Outlook, By Natural Gas (2020-2028) ($MN)
• Table 64 Europe Combined Heat & Power System Market Outlook, By Biogas/Biomass (2020-2028) ($MN)
• Table 65 Europe Combined Heat & Power System Market Outlook, By Nuclear (2020-2028) ($MN)
• Table 66 Europe Combined Heat & Power System Market Outlook, By Diesel (2020-2028) ($MN)
• Table 67 Europe Combined Heat & Power System Market Outlook, By Biodiesel (2020-2028) ($MN)
• Table 68 Europe Combined Heat & Power System Market Outlook, By Geothermal (2020-2028) ($MN)
• Table 69 Europe Combined Heat & Power System Market Outlook, By Technology (2020-2028) ($MN)
• Table 70 Europe Combined Heat & Power System Market Outlook, By Combined Cycle (2020-2028) ($MN)
• Table 71 Europe Combined Heat & Power System Market Outlook, By Gas Turbine (2020-2028) ($MN)
• Table 72 Europe Combined Heat & Power System Market Outlook, By Steam Turbine (2020-2028) ($MN)
• Table 73 Europe Combined Heat & Power System Market Outlook, By Reciprocating Engine (2020-2028) ($MN)
• Table 74 Europe Combined Heat & Power System Market Outlook, By Fuel Cell (2020-2028) ($MN)
• Table 75 Europe Combined Heat & Power System Market Outlook, By Microturbine (2020-2028) ($MN)
• Table 76 Europe Combined Heat & Power System Market Outlook, By Other Technologies (2020-2028) ($MN)
• Table 77 Europe Combined Heat & Power System Market Outlook, By End User (2020-2028) ($MN)
• Table 78 Europe Combined Heat & Power System Market Outlook, By Residential (2020-2028) ($MN)
• Table 79 Europe Combined Heat & Power System Market Outlook, By Commercial (2020-2028) ($MN)
• Table 80 Europe Combined Heat & Power System Market Outlook, By Industrial (2020-2028) ($MN)
• Table 81 Europe Combined Heat & Power System Market Outlook, By Other End Users (2020-2028) ($MN)
• Table 82 Asia Pacific Combined Heat & Power System Market Outlook, By Country (2020-2028) ($MN)
• Table 83 Asia Pacific Combined Heat & Power System Market Outlook, By Capacity (2020-2028) ($MN)
• Table 84 Asia Pacific Combined Heat & Power System Market Outlook, By upto10 MW (2020-2028) ($MN)
• Table 85 Asia Pacific Combined Heat & Power System Market Outlook, By 10-150 MW (2020-2028) ($MN)
• Table 86 Asia Pacific Combined Heat & Power System Market Outlook, By 151-300 MW (2020-2028) ($MN)
• Table 87 Asia Pacific Combined Heat & Power System Market Outlook, By above300 MW (2020-2028) ($MN)
• Table 88 Asia Pacific Combined Heat & Power System Market Outlook, By Fuel Type (2020-2028) ($MN)
• Table 89 Asia Pacific Combined Heat & Power System Market Outlook, By Coal (2020-2028) ($MN)
• Table 90 Asia Pacific Combined Heat & Power System Market Outlook, By Natural Gas (2020-2028) ($MN)
• Table 91 Asia Pacific Combined Heat & Power System Market Outlook, By Biogas/Biomass (2020-2028) ($MN)
• Table 92 Asia Pacific Combined Heat & Power System Market Outlook, By Nuclear (2020-2028) ($MN)
• Table 93 Asia Pacific Combined Heat & Power System Market Outlook, By Diesel (2020-2028) ($MN)
• Table 94 Asia Pacific Combined Heat & Power System Market Outlook, By Biodiesel (2020-2028) ($MN)
• Table 95 Asia Pacific Combined Heat & Power System Market Outlook, By Geothermal (2020-2028) ($MN)
• Table 96 Asia Pacific Combined Heat & Power System Market Outlook, By Technology (2020-2028) ($MN)
• Table 97 Asia Pacific Combined Heat & Power System Market Outlook, By Combined Cycle (2020-2028) ($MN)
• Table 98 Asia Pacific Combined Heat & Power System Market Outlook, By Gas Turbine (2020-2028) ($MN)
• Table 99 Asia Pacific Combined Heat & Power System Market Outlook, By Steam Turbine (2020-2028) ($MN)
• Table 100 Asia Pacific Combined Heat & Power System Market Outlook, By Reciprocating Engine (2020-2028) ($MN)
• Table 101 Asia Pacific Combined Heat & Power System Market Outlook, By Fuel Cell (2020-2028) ($MN)
• Table 102 Asia Pacific Combined Heat & Power System Market Outlook, By Microturbine (2020-2028) ($MN)
• Table 103 Asia Pacific Combined Heat & Power System Market Outlook, By Other Technologies (2020-2028) ($MN)
• Table 104 Asia Pacific Combined Heat & Power System Market Outlook, By End User (2020-2028) ($MN)
• Table 105 Asia Pacific Combined Heat & Power System Market Outlook, By Residential (2020-2028) ($MN)
• Table 106 Asia Pacific Combined Heat & Power System Market Outlook, By Commercial (2020-2028) ($MN)
• Table 107 Asia Pacific Combined Heat & Power System Market Outlook, By Industrial (2020-2028) ($MN)
• Table 108 Asia Pacific Combined Heat & Power System Market Outlook, By Other End Users (2020-2028) ($MN)
• Table 109 South America Combined Heat & Power System Market Outlook, By Country (2020-2028) ($MN)
• Table 110 South America Combined Heat & Power System Market Outlook, By Capacity (2020-2028) ($MN)
• Table 111 South America Combined Heat & Power System Market Outlook, By upto10 MW (2020-2028) ($MN)
• Table 112 South America Combined Heat & Power System Market Outlook, By 10-150 MW (2020-2028) ($MN)
• Table 113 South America Combined Heat & Power System Market Outlook, By 151-300 MW (2020-2028) ($MN)
• Table 114 South America Combined Heat & Power System Market Outlook, By above300 MW (2020-2028) ($MN)
• Table 115 South America Combined Heat & Power System Market Outlook, By Fuel Type (2020-2028) ($MN)
• Table 116 South America Combined Heat & Power System Market Outlook, By Coal (2020-2028) ($MN)
• Table 117 South America Combined Heat & Power System Market Outlook, By Natural Gas (2020-2028) ($MN)
• Table 118 South America Combined Heat & Power System Market Outlook, By Biogas/Biomass (2020-2028) ($MN)
• Table 119 South America Combined Heat & Power System Market Outlook, By Nuclear (2020-2028) ($MN)
• Table 120 South America Combined Heat & Power System Market Outlook, By Diesel (2020-2028) ($MN)
• Table 121 South America Combined Heat & Power System Market Outlook, By Biodiesel (2020-2028) ($MN)
• Table 122 South America Combined Heat & Power System Market Outlook, By Geothermal (2020-2028) ($MN)
• Table 123 South America Combined Heat & Power System Market Outlook, By Technology (2020-2028) ($MN)
• Table 124 South America Combined Heat & Power System Market Outlook, By Combined Cycle (2020-2028) ($MN)
• Table 125 South America Combined Heat & Power System Market Outlook, By Gas Turbine (2020-2028) ($MN)
• Table 126 South America Combined Heat & Power System Market Outlook, By Steam Turbine (2020-2028) ($MN)
• Table 127 South America Combined Heat & Power System Market Outlook, By Reciprocating Engine (2020-2028) ($MN)
• Table 128 South America Combined Heat & Power System Market Outlook, By Fuel Cell (2020-2028) ($MN)
• Table 129 South America Combined Heat & Power System Market Outlook, By Microturbine (2020-2028) ($MN)
• Table 130 South America Combined Heat & Power System Market Outlook, By Other Technologies (2020-2028) ($MN)
• Table 131 South America Combined Heat & Power System Market Outlook, By End User (2020-2028) ($MN)
• Table 132 South America Combined Heat & Power System Market Outlook, By Residential (2020-2028) ($MN)
• Table 133 South America Combined Heat & Power System Market Outlook, By Commercial (2020-2028) ($MN)
• Table 134 South America Combined Heat & Power System Market Outlook, By Industrial (2020-2028) ($MN)
• Table 135 South America Combined Heat & Power System Market Outlook, By Other End Users (2020-2028) ($MN)
• Table 136 Middle East & Africa Combined Heat & Power System Market Outlook, By Country (2020-2028) ($MN)
• Table 137 Middle East & Africa Combined Heat & Power System Market Outlook, By Capacity (2020-2028) ($MN)
• Table 138 Middle East & Africa Combined Heat & Power System Market Outlook, By upto10 MW (2020-2028) ($MN)
• Table 139 Middle East & Africa Combined Heat & Power System Market Outlook, By 10-150 MW (2020-2028) ($MN)
• Table 140 Middle East & Africa Combined Heat & Power System Market Outlook, By 151-300 MW (2020-2028) ($MN)
• Table 141 Middle East & Africa Combined Heat & Power System Market Outlook, By above300 MW (2020-2028) ($MN)
• Table 142 Middle East & Africa Combined Heat & Power System Market Outlook, By Fuel Type (2020-2028) ($MN)
• Table 143 Middle East & Africa Combined Heat & Power System Market Outlook, By Coal (2020-2028) ($MN)
• Table 144 Middle East & Africa Combined Heat & Power System Market Outlook, By Natural Gas (2020-2028) ($MN)
• Table 145 Middle East & Africa Combined Heat & Power System Market Outlook, By Biogas/Biomass (2020-2028) ($MN)
• Table 146 Middle East & Africa Combined Heat & Power System Market Outlook, By Nuclear (2020-2028) ($MN)
• Table 147 Middle East & Africa Combined Heat & Power System Market Outlook, By Diesel (2020-2028) ($MN)
• Table 148 Middle East & Africa Combined Heat & Power System Market Outlook, By Biodiesel (2020-2028) ($MN)
• Table 149 Middle East & Africa Combined Heat & Power System Market Outlook, By Geothermal (2020-2028) ($MN)
• Table 150 Middle East & Africa Combined Heat & Power System Market Outlook, By Technology (2020-2028) ($MN)
• Table 151 Middle East & Africa Combined Heat & Power System Market Outlook, By Combined Cycle (2020-2028) ($MN)
• Table 152 Middle East & Africa Combined Heat & Power System Market Outlook, By Gas Turbine (2020-2028) ($MN)
• Table 153 Middle East & Africa Combined Heat & Power System Market Outlook, By Steam Turbine (2020-2028) ($MN)
• Table 154 Middle East & Africa Combined Heat & Power System Market Outlook, By Reciprocating Engine (2020-2028) ($MN)
• Table 155 Middle East & Africa Combined Heat & Power System Market Outlook, By Fuel Cell (2020-2028) ($MN)
• Table 156 Middle East & Africa Combined Heat & Power System Market Outlook, By Microturbine (2020-2028) ($MN)
• Table 157 Middle East & Africa Combined Heat & Power System Market Outlook, By Other Technologies (2020-2028) ($MN)
• Table 158 Middle East & Africa Combined Heat & Power System Market Outlook, By End User (2020-2028) ($MN)
• Table 159 Middle East & Africa Combined Heat & Power System Market Outlook, By Residential (2020-2028) ($MN)
• Table 160 Middle East & Africa Combined Heat & Power System Market Outlook, By Commercial (2020-2028) ($MN)
• Table 161 Middle East & Africa Combined Heat & Power System Market Outlook, By Industrial (2020-2028) ($MN)
• Table 162 Middle East & Africa Combined Heat & Power System Market Outlook, By Other End Users (2020-2028) ($MN)

According to Stratistics MRC, the Global Combined Heat & Power System Market is accounted for $16.23 billion in 2022 and is expected to reach $26.34 billion by 2028 growing at a CAGR of 8.4% during the forecast period. Combined Heat and Power (CHP) is a productive and clean way to deal with creating electric power and thermal power from a single fuel source. CHP creates energy at or close to the end user's location so that the heat emitted during energy creation can be used to satisfy the user's requirement for heat while the energy created satisfies all or some of the location's energy needs. Applications with steady demands for electrical and thermal energy make excellent financial targets for CHP adoption.

According to IEA, China is the only major economy where coal demand increased in 2020. Strong economic growth underpins electricity demand in 2021, while post-COVID stimuli measures support production of steel, cement and other coal-intensive industrial products.

Market Dynamics:

Driver:

The increasing trend of distributed power generation

Power creation at or near the point of usage is known as distributed generation. Previously, electricity was distributed using low-voltage DC systems at small power plants. Electrical power and mechanical work can both be accomplished with distributed generation. Distributed generation is distinct from centralized power generation, where plants are always fixed and significantly higher-capacity generation occurs far from the point of use. A key component of the present arsenal of distributed power production technologies is the gas turbine. Gas turbines outperform other distributed generation systems in terms of efficiency and dependability for onsite generation requirements and backup power capacity. As a result, the market for CHP is presented with a significant opportunity due to the growth of distributed power generation, which will accelerate market growth over the course of the forecast period.

Restraint:

Increased installation and maintenance costs

Installation requires a significant upfront capital investment. A key barrier to the growth of the CHP business is the cost of a typical CHP plant, which can be about 240% higher than the cost of a power production plant with equivalent capacity and a prime mover. Due to the complicated construction of the system, which comprises many components like a prime mover, a heat recovery system, and heat and steam pipes, CHP systems also have substantial maintenance expenses. To maintain the CHP's high efficiency, all of its components must undergo routine maintenance, which drives up overall maintenance expenses, which are projected to impede the fog computing market's growth.

Opportunity:

Government programs and incentives

Government initiatives and incentives are anticipated to fuel the expansion of the CHP sector, especially in OECD nations like the US, UK, Germany, Japan, and others. A new strategy for the development of CHP for energy efficiency was adopted by the US in 2012, and the then-US President also signed an executive order to encourage energy efficiency in businesses. For CHP installations, the US federal government and a number of state governments have offered incentives and tax breaks. The directive instructs the Environmental Protection Agency (EPA), the US Departments of Energy, Commerce, and Agriculture, and other federal agencies to coordinate their efforts to provide commercial and technical assistance to states in order to encourage investments in industrial energy efficiency.

Threat:

Damage to prime movers due to impurities in biogas

One of the major challenges facing CHP plants is understanding the significance of gas pre-treatment and developing a strategy for it. Biogas-fuelled CHP systems have prime movers, such as a gas turbine, a micro gas turbine, a reciprocating engine, or a Stirling engine, and operate by oxidizing methane in a combustion chamber. This generates thermal energy and drives a piston or turbine, and the resulting shaft work is converted to electricity in a generator. Methane is oxidized electrochemically by fuel cells when they operate, and in most cases, methane is the primary fuel in each prime mover. Trace impurities such as hydrogen sulfide (H2S), carbon monoxide (CO), and ammonia (NH3) have more adverse effects on the prime mover. Even though the prime mover can handle a small amount of these impurities, a higher concentration of impurities reduces the life of the CHP to just a few years.

COVID-19 Impact:

Due to lockdown measures and extreme travel restrictions to stop its spread, the COVID-19 pandemic has not only had a large negative impact on human life but has also had a significant negative impact on the world economy. Many individuals across many industries have lost their jobs, and many nations have seen a considerable reduction in the total workforce across many industries. Since a result, the global market has also been significantly impacted, since numerous countries have experienced a major reduction in the labor force across many different business sectors. Several industry participants have stated that delays brought on by the COVID-19 crisis have resulted in various scale combined heat and power projects falling behind schedule.

The Natural gas segment is expected to be the largest during the forecast period

The Natural gas segment is projected to witness the largest share as compared to other segments over the forecast period. Based on the type of fuel used, the market is divided into natural gas, coal, biomass, and other categories. During the forecast period, the natural gas segment will hold the top spot in terms of value. Key elements that encourage the use of the technology include initiatives aimed at lowering total installation and operational costs as well as ongoing support from public and private sources for the construction of natural gas power plant projects, thereby boosting market growth.

The Combined cycle segment is expected to have the highest CAGR during the forecast period

The market is essentially divided into combined cycle, steam turbine, gas turbine, reciprocating engine, and others based on technology. In 2021, combined-cycle CHP systems are anticipated to dominate the market. As they use leftover heat stored in exhaust gases to generate additional electricity, combined cycle systems in power plants reduce energy losses. The overall efficiency of the plant rises to nearly 50% with these systems, compared to about 40% for conventional steam turbine plants and 35% for gas turbine plants, which is a crucial factor fostering the expansion of the global market.

Region with largest share:

The European combined heat and power system market dominated the global market in terms of revenue share, and it is anticipated that this dominance will continue over the course of the forecasted period. The key factors supporting the regional perspective of the CHP market are the rising need for district energy (heating and cooling) systems under changing climatic circumstances as well as ongoing mechanical improvements derived from fuel adaptability. In addition, affordable funding programs and rebates, encouraging R&D initiatives, thorough CHP installation instructions, and outlines of strategies for cost-effective reduction are some of the key aspects supporting the global market.

Region with highest CAGR:

During the forecast period, Asia-Pacific is anticipated to have the fastest growth rate. New combined heat and power systems have been created in emerging economies as a result of the region's rapid industrialization, urbanization, and rising market demand for clean fuel energy. For instance, the Bert Mobil Gas demo plan, which was inaugurated in Sri City, Andhra Pradesh, India, was made public by Bert Energy GmbH. Additionally, it is anticipated that environmental restrictions for industrial boilers and power plants, improved energy efficiency, and a favourable natural gas supply and price outlook will encourage the installation of cogeneration systems throughout the region.

Key players in the market:

Some of the key players in Combined Heat & Power System Market include 2G Energy Inc., ABB Limited, Aegis Energy Services LLC, Bosch Thermotechnology Ltd., Capstone Turbine Corporation, Caterpillar Inc., CENTRAX Gas Turbines, Centrica PLC, Clarke Energy Inc., Cummins Inc., Doosan Fuel Cell America, Inc., Elite Energy Systems, LLC, ENER-G Rudox and Veolia, FuelCell Energy Inc., Generac Holdings Inc., General Electric Company, Integral Power, Kawasaki Heavy Industries Ltd, MAN Diesel & Turbo SE, Mitsubishi heavy Industries ltd., Primary Energy Recycling Corporation, Seimens Energy AG, Tecogen Inc., Veolia, Viessmann Werke Group GmbH & Co. KG and Wartsila Oyj Abp

Key Developments:

In July 2021, Capstone Green Energy signed a 10-year service contract for 1.2 MWs of micro-turbines in New York City. The skyscraper's 1.2 MW energy efficiency plant consists of two Capstone C600S micro turbines with Capstone's Integrated Heat Recovery Modules.

In March 2021, The European Marine Energy Centre (EMEC) and Highlands and Islands Airports Limited (HIAL) partnered to decarbonise combined heat and power at Kirkwall Airport through green hydrogen technology.

In August 2020, TEDOM and BOSCH Thermotechnik signed a contract to supply combined heat and power units. The arrangement between the two organizations incorporates the stock of little and medium-sized CHP units burning normal gasoline with an electrical output of 30-530 kW. Buderus can extend its portfolio and offer CHP units with lower and higher results with this new collaboration. The whole arrangement of Buderus Loganova units, under which BOSCH Thermotechnik has up to this point offered its cogeneration items, will be supplanted by TEDOM CHP units.

In October 2020, Siemens Energy conveyed two SGT-700 gas turbines for a food fixing handling plant that Tate and Lyle possessed in Lafayette, Indiana, U.S. The two turbines will be the foundation of another consolidated CHP activity supplanting its coal-terminated boilers. By producing power nearby and recuperating heat that would typically be squandered, the new CHP activity will expand energy productivity and significantly diminish energy expenses and fossil fuel by-products.

Capacities Covered:

• upto10 MW
• 10-150 MW
• 151-300 MW
• above300 MW

Fuel Types Covered:

• Coal
• Natural Gas
• Biogas/Biomass
• Nuclear
• Diesel
• Biodiesel
• Geothermal

Technologies Covered:

• Coal
• Combined Cycle
• Gas Turbine
• Steam Turbine
• Reciprocating Engine
• Fuel Cell
• Microturbine
• Other Technologies

End Users Covered:

• Residential
• Commercial
• Industrial
• Other End Users

Regions Covered:

• North America
  • US
  • Canada
  • Mexico
• Europe
  • Germany
  • UK
  • Italy
  • France
  • Spain
  • Rest of Europe
• Asia Pacific
  • Japan
  • China
  • India
  • Australia
  • New Zealand
  • South Korea
  • Rest of Asia Pacific
• South America
  • Argentina
  • Brazil
  • Chile
  • Rest of South America
• Middle East & Africa
  • Saudi Arabia
  • UAE
  • Qatar
  • South Africa
  • Rest of Middle East & Africa

What our report offers:

• Market share assessments for the regional and country-level segments
• Strategic recommendations for the new entrants
• Covers Market data for the years 2020, 2021, 2022, 2025, and 2028
• Market Trends (Drivers, Constraints, Opportunities, Threats, Challenges, Investment Opportunities, and recommendations)
• Strategic recommendations in key business segments based on the market estimations
• Competitive landscaping mapping the key common trends
• Company profiling with detailed strategies, financials, and recent developments
• Supply chain trends mapping the latest technological advancements

Free Customization Offerings:

All the customers of this report will be entitled to receive one of the following free customization options:

• Company Profiling
  • Comprehensive profiling of additional market players (up to 3)
  • SWOT Analysis of key players (up to 3)
• Regional Segmentation
  • Market estimations, Forecasts and CAGR of any prominent country as per the client's interest (Note: Depends on feasibility check)
• Competitive Benchmarking
  • Benchmarking of key players based on product portfolio, geographical presence, and strategic alliances

Table of Contents

1 Executive Summary

2 Preface

• 2.1 Abstract
• 2.2 Stake Holders
• 2.3 Research Scope
• 2.4 Research Methodology
  • 2.4.1 Data Mining
  • 2.4.2 Data Analysis
  • 2.4.3 Data Validation
  • 2.4.4 Research Approach
• 2.5 Research Sources
  • 2.5.1 Primary Research Sources
  • 2.5.2 Secondary Research Sources
  • 2.5.3 Assumptions

3 Market Trend Analysis

• 3.1 Introduction
• 3.2 Drivers
• 3.3 Restraints
• 3.4 Opportunities
• 3.5 Threats
• 3.6 Technology Analysis
• 3.7 End User Analysis
• 3.8 Emerging Markets
• 3.9 Impact of Covid-19

4 Porters Five Force Analysis

• 4.1 Bargaining power of suppliers
• 4.2 Bargaining power of buyers
• 4.3 Threat of substitutes
• 4.4 Threat of new entrants
• 4.5 Competitive rivalry

5 Global Combined Heat & Power System Market, By Capacity

• 5.1 Introduction
• 5.2 upto10 MW
• 5.3 10-150 MW
• 5.4 151-300 MW
• 5.5 above300 MW

6 Global Combined Heat & Power System Market, By Fuel Type

• 6.1 Introduction
• 6.2 Coal
• 6.3 Natural Gas
• 6.4 Biogas/Biomass
• 6.5 Nuclear
• 6.6 Diesel
• 6.7 Biodiesel
• 6.8 Geothermal

7 Global Combined Heat & Power System Market, By Technology

• 7.1 Introduction
• 7.2 Combined Cycle
• 7.3 Gas Turbine
• 7.4 Steam Turbine
• 7.5 Reciprocating Engine
• 7.6 Fuel Cell
• 7.7 Microturbine
• 7.8 Other Technologies

8 Global Combined Heat & Power System Market, By End User

• 8.1 Introduction
• 8.2 Residential
• 8.3 Commercial
• 8.4 Industrial
• 8.5 Other End Users

9 Global Combined Heat & Power System Market, By Geography

• 9.1 Introduction
• 9.2 North America
  • 9.2.1 US
  • 9.2.2 Canada
  • 9.2.3 Mexico
• 9.3 Europe
  • 9.3.1 Germany
  • 9.3.2 UK
  • 9.3.3 Italy
  • 9.3.4 France
  • 9.3.5 Spain
  • 9.3.6 Rest of Europe
• 9.4 Asia Pacific
  • 9.4.1 Japan
  • 9.4.2 China
  • 9.4.3 India
  • 9.4.4 Australia
  • 9.4.5 New Zealand
  • 9.4.6 South Korea
  • 9.4.7 Rest of Asia Pacific
• 9.5 South America
  • 9.5.1 Argentina
  • 9.5.2 Brazil
  • 9.5.3 Chile
  • 9.5.4 Rest of South America
• 9.6 Middle East & Africa
  • 9.6.1 Saudi Arabia
  • 9.6.2 UAE
  • 9.6.3 Qatar
  • 9.6.4 South Africa
  • 9.6.5 Rest of Middle East & Africa

10 Key Developments

• 10.1 Agreements, Partnerships, Collaborations and Joint Ventures
• 10.2 Acquisitions & Mergers
• 10.3 New Product Launch
• 10.4 Expansions
• 10.5 Other Key Strategies

11 Company Profiling

• 11.1 2G Energy Inc.
• 11.2 ABB Limited
• 11.3 Aegis Energy Services LLC
• 11.4 Bosch Thermotechnology Ltd.
• 11.5 Capstone Turbine Corporation
• 11.6 Caterpillar Inc.
• 11.7 CENTRAX Gas Turbines
• 11.8 Centrica PLC
• 11.9 Clarke Energy Inc.
• 11.10 Cummins Inc.
• 11.11 Doosan Fuel Cell America, Inc.
• 11.12 Elite Energy Systems, LLC
• 11.13 ENER-G Rudox and Veolia
• 11.14 FuelCell Energy Inc.
• 11.15 Generac Holdings Inc.
• 11.16 General Electric Company
• 11.17 Integral Power
• 11.18 Kawasaki Heavy Industries Ltd
• 11.19 MAN Diesel & Turbo SE
• 11.20 Mitsubishi heavy Industries ltd.
• 11.21 Primary Energy Recycling Corporation
• 11.22 Seimens Energy AG
• 11.23 Tecogen Inc.
• 11.24 Veolia
• 11.25 Viessmann Werke Group GmbH & Co. KG
• 11.26 Wartsila Oyj Abp