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Carbon Capture and Storage (CCS) Market to Grow by USD 15.83 Billion from 2025-2029, Driven by Fossil Fuel Dependence for Electricity Generation, AI Transforming Market – Technavio

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NEW YORK, Feb. 12, 2025 /PRNewswire/ — Report with the AI impact on market trends – The global carbon capture and storage (CCS) market  size is estimated to grow by USD 15.83 billion from 2025-2029, according to Technavio. The market is estimated to grow at a CAGR of almost 26.6%  during the forecast period. Dependence on fossil fuels for generation of electricity is driving market growth, with a trend towards growing popularity of carbon capture and storage projects in developing nations. However, risks associated with carbon capture and storage poses a challenge. Key market players include Air Products and Chemicals Inc., Aker Solutions ASA, Babcock and Wilcox Enterprises Inc., Chevron Corp., ENGIE SA, Enhance Energy Inc., Eni SpA, Equinor ASA, Exxon Mobil Corp., Fluor Corp., General Electric Co., Hitachi Ltd., Linde Plc, Mitsubishi Heavy Industries Ltd., Occidental Petroleum Corp., Schlumberger Ltd., Shell plc, Siemens AG, and Sulzer Ltd..

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Forecast period

2025-2029

Base Year

2024

Historic Data

2019 – 2023

Segment Covered

Technology (Pre-combustion, Post-combustion, and Oxy-fuel combustion), Application (Enhanced oil recovery and Geological storage), Distribution Channel (Pipeline and Ships), End-user (Power and oil and gas and Manufacturing), and Geography (North America, APAC, Europe, Middle East and Africa, and South America)

Region Covered

North America, APAC, Europe, Middle East and Africa, and South America

Key companies profiled

Air Products and Chemicals Inc., Aker Solutions ASA, Babcock and Wilcox Enterprises Inc., Chevron Corp., ENGIE SA, Enhance Energy Inc., Eni SpA, Equinor ASA, Exxon Mobil Corp., Fluor Corp., General Electric Co., Hitachi Ltd., Linde Plc, Mitsubishi Heavy Industries Ltd., Occidental Petroleum Corp., Schlumberger Ltd., Shell plc, Siemens AG, and Sulzer Ltd.

Key Market Trends Fueling Growth

The Carbon Capture and Storage (CCS) market is gaining momentum as businesses and governments seek to reduce greenhouse gas emissions, particularly from fossil fuels used in electricity generation and industrial processes. The focus is on capturing CO2 from sources like flue gas, pre-combustion, and oxy fuel combustion. CCUS technology plays a crucial role in mitigating greenhouse gas emissions, helping to combat climate change and ozone depletion. Regulations and policies are driving the adoption of CCS, with tax benefits and carbon footprint reduction incentives. Technology providers are investing in CCUS, implementing it in power generation and industrial plants. Syngas, fuel gas, hydrogen, and CO2 are key components in the process. Storage technologies like geological and deep ocean storage are essential for long-term CO2 management. Industries like oil and gas, chemicals, cement and concrete, biofuels, fertilizers, textiles, food and beverages, paper and pulp, and renewable energy sources are exploring CCS to meet energy needs while minimizing environmental impact. Companies like Equinor are leading the way in CCS implementation, demonstrating commitment to a sustainable environment. 

The carbon capture and storage (CCS) market is gaining traction in developed economies, where there’s a growing focus on reducing carbon emissions from the power generation sector. Mature technologies and energy demands from the industry have facilitated substantial investments, enabling these countries to transition towards low-carbon technologies. However, developing nations, such as China, India, and Brazil, are still in their early stages of economic development, prioritizing energy security over carbon reduction. These nations heavily rely on coal for their energy needs, supplying billions of people and industries. CCS technology could play a crucial role in their energy mix, allowing them to meet their energy demands while reducing their carbon footprint. 

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Market Challenges

Businesses in electricity generation and industrial processes face increasing pressure to reduce their carbon footprints and minimize greenhouse gas emissions, particularly CO2, which contributes to ozone depletion and climate change. Fossil fuels remain a significant source of these emissions, making Carbon Capture and Storage (CCS) technology a crucial solution. CCUS technology captures CO2 from pre-combustion, oxy-fuel combustion, or post-combustion processes. The captured CO2 can be utilized in various applications, such as enhanced oil recovery, or stored in depleted hydrocarbon fields, deep ocean storage, or geological formations. Regulations and policies drive the adoption of CCS, with tax benefits and environmental impact considerations influencing decision-making. Technology providers like Equinor offer solutions for power generation, industrial plants, natural gas plants, and various industries, including chemicals, cement and concrete, iron and steel, fertilizer, biofuels, textiles, food and beverages, paper and pulp, and renewable energy sources. CCS implementation addresses energy costs, power consumption, and the environmental impact of industrial sources while reducing greenhouse gas emissions. Syngas, fuel gas, hydrogen, flue gas, and H2O are integral components of CCS processes. The technology supports a sustainable environment and climate change awareness, with the potential to transform industries and power generation towards cleaner, more efficient, and eco-friendly operations.Carbon capture and storage (CCS) is a technology aimed at mitigating climate change by capturing carbon dioxide (CO2) emissions from power plants and industrial processes, and storing it underground. However, concerns surrounding CCS include potential leakage hazards from dedicated storage facilities. The implications of CO2 leaks are a topic of ongoing debate. Studies examine the potential consequences, as a leak could diminish the effectiveness of CCS as a climate change solution. This concern could hinder the widespread adoption of CCS technology. It is crucial to address these apprehensions through rigorous research and safety measures to ensure the long-term viability of CCS as a key component in the global effort to combat climate change.

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Segment Overview 

This carbon capture and storage (ccs) market report extensively covers market segmentation by

TechnologyPre-combustionPost-combustionOxy-fuel CombustionApplicationEnhanced Oil RecoveryGeological StorageDistribution ChannelPipelineShipsEnd-userPower And Oil And GasManufacturingGeographyNorth AmericaAPACEuropeMiddle East And AfricaSouth America

1.1 Pre-combustion-  The post-combustion Carbon Capture and Storage (CCS) market is expected to expand significantly during 2024 and 2025. This growth can be attributed to the affordability of post-combustion CO2 capture technology, which can be integrated into existing power plants. In this process, flue gas from an industrial or power plant passes through a scrubbing tank, where a liquid solvent reacts with CO2 but not with other gas components, such as nitrogen. The solvent, now laden with CO2, is then separated and transported for storage. Advancements in technology have led to a decline in the cost of materials, equipment, and processes, making post-combustion capture technology increasingly cost-effective. Furthermore, the development of new solvents, membrane, and sorbent platforms will continue to reduce costs. The rising number of pilot-scale test projects will also contribute to the growth of this segment. Optimization of the post-combustion process, including component reconfiguration and waste heat integration, will increase overall process efficiency. Additionally, reduced energy penalties due to advances in post-combustion technologies will further support market expansion. This segment’s growth is crucial in mitigating carbon emissions from power generation and industrial processes.

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Research Analysis

Carbon Capture and Storage (CCS), also known as Carbon Capture, Utilization, and Storage (CCUS), is a critical technology for reducing greenhouse gas emissions, particularly from fossil fuel-based electricity generation and industrial processes. The primary objective of CCS is to capture and store CO2 before it is released into the atmosphere, helping mitigate the negative impacts of greenhouse gases on the environment. CO2, a major greenhouse gas, is produced in large quantities during the combustion of fossil fuels for electricity generation and industrial processes. The release of CO2 contributes to climate change, ozone depletion, and increased carbon footprints. CCS technology includes pre-combustion capture, which separates CO2 from the fuel before combustion, and oxy-fuel combustion, which separates CO2 from the flue gases produced during combustion. Regulations and policies are driving the adoption of CCS, with tax benefits and incentives encouraging the implementation of this technology. CCS is essential for industries with high energy needs, such as cement, steel, and chemical production, to reduce their carbon footprints. CCS is also being explored for use in power generation and industrial plants, providing a bridge to a low-carbon future while meeting energy demands. Technology providers are investing in research and development to improve the efficiency and cost-effectiveness of CCS. Green energy sources, such as wind and solar, are becoming increasingly competitive with fossil fuels, but they cannot yet meet the world’s energy demands alone. CCS offers a solution for reducing the carbon intensity of these energy sources by capturing and storing the CO2 produced during their production. In summary, CCS is a vital technology for reducing greenhouse gas emissions from fossil fuels and industrial processes, addressing the challenges of climate change, and enabling the transition to a low-carbon economy.

Market Research Overview

Carbon Capture and Storage (CCS), also known as Carbon Capture, Utilization, and Storage (CCUS), is a critical technology aimed at mitigating greenhouse gas emissions, primarily from fossil fuels used in electricity generation and industrial processes. CO2, a primary greenhouse gas, is captured before it is released into the atmosphere, preventing its contribution to ozone depletion and climate change. CCS technology is applied to various sources, including pre-combustion capture in synthesis gas production, oxy-fuel combustion, and post-combustion capture in flue gas. Regulations and policies drive the adoption of CCS to reduce industrial sources’ greenhouse gas emissions and meet energy needs while minimizing carbon footprints. CCS technology providers offer solutions for power generation, industrial plants, natural gas plants, and various industries such as chemicals, iron and steel, cement and concrete, biofuels, fertilizers, textiles, food and beverages, paper and pulp, and renewable energy sources. The technology’s implementation requires significant energy consumption and financial investment but offers tax benefits and environmental impact reduction. CCS technology is applied to various gases, including CO2, CO, H2O, and hydrogen, and is used in various applications, including geological storage, deep ocean storage, and industrial separation. The technology’s environmental impact is a concern, but its implementation supports a sustainable environment and climate change awareness. Oil and gas companies, chemicals, and other industries are exploring the use of depleted hydrocarbon fields for CO2 storage, reducing the greenhouse effect and supporting clean technologies. The technology’s implementation faces challenges, including energy costs and power consumption, but its potential to significantly reduce greenhouse gas emissions makes it a crucial component of the global transition towards a low-carbon economy.

Table of Contents:

1 Executive Summary
2 Market Landscape
3 Market Sizing
4 Historic Market Size
5 Five Forces Analysis
6 Market Segmentation

TechnologyPre-combustionPost-combustionOxy-fuel CombustionApplicationEnhanced Oil RecoveryGeological StorageDistribution ChannelPipelineShipsEnd-userPower And Oil And GasManufacturingGeographyNorth AmericaAPACEuropeMiddle East And AfricaSouth America

7 Customer Landscape
8 Geographic Landscape
9 Drivers, Challenges, and Trends
10 Company Landscape
11 Company Analysis
12 Appendix

About Technavio

Technavio is a leading global technology research and advisory company. Their research and analysis focuses on emerging market trends and provides actionable insights to help businesses identify market opportunities and develop effective strategies to optimize their market positions.

With over 500 specialized analysts, Technavio’s report library consists of more than 17,000 reports and counting, covering 800 technologies, spanning across 50 countries. Their client base consists of enterprises of all sizes, including more than 100 Fortune 500 companies. This growing client base relies on Technavio’s comprehensive coverage, extensive research, and actionable market insights to identify opportunities in existing and potential markets and assess their competitive positions within changing market scenarios.

Contacts

Technavio Research
Jesse Maida
Media & Marketing Executive
US: +1 844 364 1100
UK: +44 203 893 3200
Email: media@technavio.com
Website: www.technavio.com/

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SOURCE Technavio

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JAMS Launches AI for Enterprise Job Scheduling: JAX and JAMS MCP, on the Model You Choose

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A new AI agent and an open-standard connector let IT teams query, diagnose, and manage automation in plain language, on the model they choose, with operational data staying inside their own network

LONDON, July 24, 2026 /PRNewswire/ — JAMS Software, an orchestration solution for scheduled and event-driven automation, today announced the general availability of two AI capabilities for enterprise job scheduling: JAX, an AI agent built into the JAMS Web Client, and JAMS MCP, a connector built on the open Model Context Protocol standard that brings JAMS into external AI coding tools. Both capabilities ship at no additional cost as part of JAMS Web.

Automation environments grow faster than the teams that run them. Jobs multiply across SQL Server, Azure Data Factory, Airflow, SAP, JDE, and Banner, and when one fails, finding the root cause often means searching several consoles at once, frequently outside business hours. At the same time, IT leaders carry pressure to adopt AI while staying accountable for where operational data goes. JAX and JAMS MCP close both gaps together.

Full details on how JAX and JAMS MCP work, including the control model behind every action, are available at jamsscheduler.com/product/ai.

JAX is an AI agent that runs inside the JAMS Web Client. It finds jobs, troubleshoots failures, and answers how-to questions in plain language, with each response grounded in the JAMS user guide and checked against a built-in glossary. JAX acts only when a user asks it to. Reads flow freely, and every write action pauses for the user’s explicit approval before it runs. JAX does not learn between sessions, and conversations are not retained on the server.

JAMS MCP is a connector, built on the open Model Context Protocol standard, that brings JAMS into the AI tools engineering teams already use, including Cursor, VS Code with Copilot, Claude Code, Claude Desktop, and Codex. Users query jobs, investigate failures, and manage runs in plain language without leaving their tool.

Both capabilities run inside the customer’s own network and act as the signed-in user, with that user’s exact JAMS permissions. There is no elevated AI account: whatever a user cannot do in the JAMS interface, JAX and JAMS MCP cannot do on that user’s behalf. Every JAX and MCP operation is recorded in its own dedicated log, and changes made through the JAMS API land in the JAMS audit trail like any other change. Customers choose their own AI model, whether a commercial provider such as OpenAI or Anthropic or a model running entirely on their own hardware, and JAMS never trains on customer data. In the current release, neither feature edits or deletes a job, folder, schedule, or agent definition. For teams that must keep operational data within a defined boundary, JAX runs on a local model entirely inside the customer’s own network, so nothing leaves at all.

“Adopting AI usually means giving something up, most often visibility into where your data goes,” said Pete Hegland, Chief Executive Officer of JAMS Software. “We built JAX and JAMS MCP so that trade does not have to happen. Every action runs as the signed-in user, every change waits for approval, and the model itself can run entirely inside your own network.”

“IT teams across the United Kingdom and EMEA tell us the same thing: they want the benefit of AI without losing sight of where their data goes,” said Greg McLaughlin, Account Executive for EMEA at JAMS Software. “JAX and JAMS MCP let them keep operational data inside their own network and still get answers in plain language. That combination is what makes this practical for the teams I work with.”

JAX and JAMS MCP are available now to all JAMS Web customers across the United Kingdom and EMEA, with no separate licence, SKU, or additional cost. AI-assisted creation of new jobs and workflows from a plain-language description is on the roadmap for a future release, gated by the same approvals and permissions as every other action.

Learn how JAX and JAMS MCP work at https://jamsscheduler.com/product/ai.

Fast facts

JAX is an AI agent built into the JAMS Web Client for job scheduling and workflow automation.JAMS MCP is a connector built on the open Model Context Protocol standard, for Cursor, VS Code with Copilot, Claude Code, Claude Desktop, and Codex.Both act as the signed-in user, with that user’s exact JAMS permissions, and there is no elevated AI account.Customers choose the AI model, including a local model that runs entirely inside their own network.JAMS never trains on customer data.Both are available now at no additional cost as part of JAMS Web.

About JAMS Software

Founded in 1987, JAMS Software is an orchestration solution that helps IT teams centralize, automate, and manage scheduled and event-driven jobs across complex, hybrid environments. Over 850 customers rely on JAMS to run their automated workloads. JAMS Software, LLC is headquartered at 108 Patriot Drive, Suite A, Middletown, DE 19709.

Media Contact
Bobby Schmidt, Vice President of Marketing
press@jamssoftware.com
800.261.4267

 

 

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Video: CNPC offers green chemical answer

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BEIJING, July 24, 2026 /PRNewswire/ — A news report from chinadaily.com.cn:

Located on the edge of the Taklamakan Desert in Northwest China’s Xinjiang Uygur autonomous region, the Tarim 1.2 MTA Phase II Ethylene Project and its supporting green and low-carbon demonstration facility of PetroChina Dushanzi Petrochemical Company, a subsidiary of China National Petroleum Corporation, are offering a new example of China’s low-carbon industrial transformation.

Watch the video to discover how CNPC is exploring a cleaner and more circular future for the industry.

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SOURCE chinadaily.com.cn

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Shanghai Electric showcases embodied intelligence robot matrix and AI-native smart factory solutions at WAIC 2026

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Featuring humanoid robots with 41 degrees of freedom, pipe‑inspection robots with ±1mm positioning accuracy, and 51 industrial‑grade AI agents

SHANGHAI, July 24, 2026 /PRNewswire/ — Operations in high-end equipment manufacturing often involve confined spaces, complex objects, and fine manipulation tasks that demand sustained and stable precision. At the recent 2026 World Artificial Intelligence Conference and High-Level Meeting on Global AI Governance (WAIC 2026), Shanghai Electric (SEHK: 02727, SSE: 601727) showcased its comprehensive portfolio of embodied intelligence solutions tailored to a range of industrial scenarios.

Themed “AI for All: Smart Squad, Shining Without Limits,” Shanghai Electric highlighted its capabilities across embodied AI robots, robot core components, and AI-native smart factory solutions, demonstrating end-to-end capabilities spanning complete robot systems, critical parts, industrial software, and smart factory architecture.

“The true value of embodied intelligence lies in understanding real industrial tasks: combining the strength, precision, and stability of machines with human experience and judgment to drive a genuine paradigm of ‘machine-assisted, human-machine collaboration,'” said Wang Chunlei, deputy general manager of the Robotics Business Unit at Shanghai Electric Automation Group.

Shanghai Electric’s robotics portfolio covers five key industrial scenarios: connector insertion, electrical operations, flexible sorting, intelligent assembly, and pipe processing. Highlights include:

“SUYUAN” bipedal humanoid robot: With 41 degrees of freedom for enhanced mobility, it is equipped with a multimodal visual sensing system on the head and torso, along with a dual-battery hot-swap system. It is well-suited for inspection, material handling, and assembly tasks.”TUOYUAN” industrial wheeled humanoid robot: Powered by an embodied intelligence foundation model and force-position hybrid control, it is capable of multi-spec connector insertion, material sorting, and loading/unloading of automotive sheet metal parts.”Mermaid” bionic wheeled humanoid robot: Capable of autonomously identifying buttons, knobs, and air switches, it generates real-time operation paths.Autonomous pipe inner-wall chamfering robot: Designed for confined spaces, it can position and process thousands of hole edges with accuracy within 1 millimeter while transmitting data in real time.

Shanghai Electric also showcased its portfolio of core components ranging from power-output to end effectors. Among them, the planetary roller screw offers more than three times the load capacity of traditional ball screws, while the DexHand dexterous hand is designed to meet diverse gripping and manipulation requirements.

Shanghai Electric launched 51 AI models and agents under its “StarCloud Intelligent Manufacturing” series across three domains: R&D and design, production and manufacturing, and operations and maintenance—covering critical equipment processes such as process optimization and wind power facility maintenance.

These industrial agents are embedded in robotic decision-making systems and the operational logic of AI-native smart factories, transforming industrial expertise into digitized, reusable capabilities. They support production-line scheduling, quality inspection, and predictive maintenance, driving the evolution of manufacturing systems from experience-driven to data-driven operations.

Shanghai Electric also released the “AI-Native Smart Factory Technology White Paper,” proposing an active evolution architecture that enables real‑time, closed‑loop optimization of production data, giving the factory self‑perception, self‑decision, and self‑execution capabilities. Built on First Principles, the AI‑native smart factory vertically integrates process flows, industrial software, agents, and smart equipment to dismantle traditional hierarchies while horizontally bridging data silos. The architecture features three core layers: the AI factory brain as the “control center,” industrial agents and embodied robots as the “execution network,” and the physical twin as the “digital mirror.”

Leveraging its deep industrial expertise and comprehensive solution capabilities, Shanghai Electric will continue to drive the implementation of AI in industrial settings, tackle technical challenges facing embodied intelligence in complex scenarios, accelerate the large‑scale deployment of AI‑native smart factories, and deliver replicable solutions across diverse manufacturing environments.

SOURCE Shanghai Electric

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