GHI is dedicated to driving sustainability and innovation across various industries, offering customized solutions tailored to meet the specific needs of our clients while contributing to a cleaner and more sustainable future for generations to come.

Process Industries

Providing sustainable solutions for optimizing processes and reducing environmental impact.

Petrochemicals & Chemicals

Offering innovative technologies to minimize emissions and enhance efficiency in the production of petrochemicals and chemicals.

Energy

Renewables
Developing renewable energy projects such as solar, wind, and hydroelectric power.

Oil & Gas
1. Upstream: Supporting exploration and production activities with sustainable practices.
2. Midstream: Enhancing the efficiency and safety of transportation and storage infrastructure.
3. Downstream: Optimizing refining and distribution processes while reducing environmental footprint.

Hydrogen, Ammonia
Promoting the adoption of hydrogen and ammonia as clean energy sources.

CCUS
(Carbon Capture, Utilization, and Storage): Implementing technologies to capture and store carbon emissions, mitigating climate change.

Liquefied Natural Gas (LNG)
Facilitating the transition to cleaner fuels through LNG infrastructure and solutions.

Pharma

Implementing sustainable practices and technologies to reduce waste and improve efficiency in pharmaceutical manufacturing.

Food & Beverage

Offering sustainable solutions for food processing, packaging, and distribution to minimize environmental impact.

Transportation

Advancing sustainable transportation solutions, including electric vehicles, biofuels, and efficient logistics.

Mechanical Equipment Manufacturing

Providing eco-friendly solutions for manufacturing processes and equipment, optimizing energy usage and resource efficiency.

Knowledge Partners:

GEXCON

GHES is joint venture with Gexcon India to share the vision of Innovating for a safer and sustainable future. Gexcon is a world-leading company in the field of safety and risk management and advanced dispersion, explosion, and fire modelling.

Gexcon’s experience arises from detailed knowledge of explosion phenomena built up through years of extensive research projects, carrying out safety assessments, performing accident investigations and conducting physical testing at the company’s facilities.

Headquartered in Bergen, Norway, Gexcon has offices in Australia (Perth), China (Shanghai), France (Paris), India (Pune and Mumbai), Indonesia (Jakarta), the Netherlands (Utrecht), Sweden (Borås), the UAE (Dubai), the UK (Manchester) and USA (Houston, Bethesda, and Boston).

Academic Partner:

IIT Roorkee

In India, the need has been felt for long, for a Centre of Excellence (CoE) to promote education as well as research and development in process safety at par with global institutes. In response to this need, a unique Center of Advanced Sciences (CoAS) in Process Safety & Risk Vulnerability in Hydrogen Economy has been set up in the Indian Institute of Technology, Roorkee (IITR) under a MoU between IITR (Academic & Research Partner), Greenstat Hydrogen India Pvt. Ltd. (Industry Partner) and Gexcon (Knowledge Partner) and Green Hydrogen Energy Services Pvt. Ltd. (Funding Partner) to develop human capital and to conduct research, consultancy and advisory services in the domain areas of Process Safety, Risk management, Hydrogen Safety and Green Hydrogen to industries, government and public sector units of the Government of India (GoI).

Regulations/Codes and Standards:

Government

• MNRE (https://mnre.gov.in/)
• MoEF &CC (https://moef.gov.in/en/)
• NDMA (https://ndma.gov.in/)

Regulatory

• CPCB (https://cpcb.nic.in/)
• PESO (https://peso.gov.in/web/home)
• OISD (https://www.oisd.gov.in/)

Finance

• IRDAI (https://www.irdai.gov.in/)
• Banking Institutions
• Insurance companies

Training

• Process safety and Risk management (PSM)
• Process hazards analysis study (PHA)
• Hydrogen Safety
• Explosion Hazards (Vapour and Dust)
• HAC and ATEX
• Codes and Standards/International Best Practices
• Incident Investigation
• Emergency Response

Training Tools

• 3D CFD Consequence Analysis- FLACS CFD
• QRA – DNV PHAST/SAFETI, EFFECTS, RISKCURVE, Shell-FRED, Shell-Shepherd
• Incident Investigation and Emergency Response – AR/VR
• Chemical Compatibility- AIChE CRW4

Register your interest in courses

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Incident Investigation and Emergency Response focus on learning from past incidents, improving emergency response procedures, and utilizing advanced technologies such as Augmented Reality (AR) and Virtual Reality (VR) for training and simulation.

• Incident Investigation
• Lessons Learning
• Emergency Response
• AR/VR

Safety in Design Solutions involves integrating safety considerations into the design phase of industrial processes and facilities to minimize risks and enhance safety.

Land Use Planning and Layout Optimisation Assessment

This assessment evaluates the layout of industrial facilities to minimize the impact of potential hazards on surrounding areas and communities.

Structural Response and Integrity Assessment

This assessment evaluates the structural integrity of buildings and equipment to ensure they can withstand potential hazards such as explosions or fires.

Design Accidental Load ( fire and blast) Assessment

This assessment evaluates the potential loads placed on structures and equipment during accidents such as fires or explosions.

Active and Passive Fire Protection Assessment

This assessment evaluates the effectiveness of fire protection measures such as fire suppression systems, fireproofing, and passive fire protection barriers.

Fire and Gas Mapping Studies

These studies involve mapping the distribution of flammable gases and potential fire scenarios within industrial facilities to identify areas of high risk.

HAC and ATEX Studies

HAC (Hazardous Area Classification) and ATEX (Atmosphères Explosibles) studies involve classifying areas within industrial facilities based on the likelihood of explosive atmospheres forming and assessing the effectiveness of safety measures in these areas.

Building Risk Assessment involves evaluating the structural integrity and safety features of buildings in industrial facilities to ensure they can withstand potential hazards such as explosions or fires.

Process Safety and Risk Management (PSM) is a comprehensive approach to managing the risks associated with industrial processes. It encompasses various methodologies and tools to identify, assess, and mitigate process-related hazards and risks.

Qualitative Risk Assessment /Bow-Tie Analysis

Qualitative Risk Assessment involves identifying and evaluating risks based on their likelihood and potential consequences. Bow-Tie Analysis is a graphical method used to visualize the relationship between hazards, their causes, and the preventive and mitigative barriers.

Quantitative Risk Assessment (QRA) and ALARP Studies

QRA involves quantifying the risks associated with process-related hazards using mathematical models and data analysis techniques. ALARP (As Low As Reasonably Practicable) Studies aim to ensure that risks are reduced to the lowest practicable level.

With a team of experienced consultants, we deliver QRAs for normal operations and SIMOPS to assist our clients in decision making.

The following steps are implemented systematically for analyzing the risk of different operations

• • • Hazard Identification and listing of accident scenarios
    • frequency and consequence calculations
    • Overall risk assessment
    • Transportation and dropped object risk
    • Simultaneous Operations (SIMOPS)
    • Cost-Benefit Analysis (CBA)
    • ALARP Assessment

The team of experts are well versed with a wide range of risk analysis tools available in the market like PHAST/ SAFETI, FRED/ SHEPHERD, EFFECTS/ RISK CURVES. This creates a unique opportunity to customize the best fit analysis using different methods and tools as per the complexity customer’s scope.

Fire and Explosion Risk Assessments

These assessments evaluate the risk of fires and explosions occurring in industrial processes and facilities. They involve analyzing the likelihood and consequences of various ignition sources and combustible materials.

Escape Evacuation and Rescue Analysis

This analysis assesses the effectiveness of evacuation plans and emergency response procedures in the event of a process-related incident. It aims to ensure the safe evacuation and rescue of personnel.

Emergency Systems Survivability Analysis

This analysis evaluates the reliability and effectiveness of emergency systems such as fire suppression systems, emergency shutdown systems, and emergency response teams.

Process Hazards Analysis (PHA) is a systematic method used to identify potential hazards in industrial processes. It involves a thorough examination of all aspects of the process, from raw material handling to product storage and distribution. The primary goal is to prevent accidents and protect workers, the community, and the environment. PHA typically includes various techniques such as Hazard Identification (HAZID), Hazard and Operability Study (HAZOP), and Safety Integrity Level (SIL)/Layer of Protection Analysis (LOPA).

HAZID

HAZID involves brainstorming sessions with multidisciplinary teams to identify possible hazards associated with a process. It relies on the knowledge and experience of experts to recognize potential risks.

HAZOP

HAZOP is a structured and systematic technique used to identify deviations from the design intent of a process that may lead to hazardous situations or operability issues. It involves breaking down the process into manageable sections and systematically analyzing each part for potential deviations.

SIL/LOPA

SIL/LOPA is a risk assessment technique used to evaluate the effectiveness of safety measures in preventing or mitigating process-related hazards. It involves quantifying the risk associated with various scenarios and determining the required safety integrity level or layers of protection needed to reduce the risk to an acceptable level.