Quantcast
Channel: EHSQL(Environment-Energy ,Health,Safety, Security and Social Ac. ,Quality-Lab) Technical services

What is the International Finance Corporation (IFC)

$
0
0

The International Finance Corporation (IFC) is a global development institution that works with the private sector in developing countries. The IFC is a member of the World Bank Group and is the largest development institution of its kind. 

Here are some things the IFC does:

Investment

The IFC invests in companies and financial institutions in developing countries. 

Advisory services

The IFC provides technical assistance and advisory services to clients in the public and private sectors. 

Climate investment

The IFC has a climate investment portfolio of US\$13 billion and has experience in wind and solar projects. 

Mobilizing capital

The IFC works to mobilize capital into emerging markets. 

Access to finance

The IFC works to increase access to finance for individuals and micro, small, and medium-sized enterprises. 

Partnership network

The IFC works with a large partnership network to drive investment across sectors. 

The IFC works in over 100 countries, focusing on areas such as infrastructure, manufacturing, agribusiness, services, and financial markets. 


The Bureau of Energy Efficiency (BEE) in India has several guidelines to ensure energy efficiency,

$
0
0

 The Bureau of Energy Efficiency (BEE) in India has several guidelines to ensure energy efficiency, including:

Mandatory labeling

The BEE requires specific appliances and equipment to display labels that indicate their energy performance and efficiency levels. This helps consumers make informed choices and encourages the use of energy-efficient products. 

Star rating

The BEE provides a star rating, ranging from 1 to 5, to products registered with it. The star rating is based on standards that prescribe limits on energy performance. 

Registration

Manufacturers or importers of electrical appliances or equipment must apply for registration with the BEE. 

Promoting awareness

The BEE promotes awareness of energy savings and energy conservation. 

The BEE's primary objective is to reduce energy intensity in the Indian economy. 

Some other ways to save energy include:

Upgrading to energy-efficient lighting options, such as LED or CFL bulbs 

Turning off lights when not required 

Using automatic devices, such as infrared sensors, motion sensors, automatic timers, dimmers, and solar cells 

The Clean Development Mechanism (CDM)

$
0
0

 The Clean Development Mechanism (CDM) is a United Nations-run program that allows countries to fund projects in developing countries to reduce greenhouse gas emissions. The countries that fund these projects can then claim the emissions reductions as part of their own efforts to meet international emissions targets. 

The CDM was established in 2006 under the Kyoto Protocol. It's the world's main international offset program and has helped to create a global market for reducing greenhouse gas emissions. 

Here are some benefits of the CDM:

Emission reductions: The CDM helps to reduce greenhouse gas emissions and prevent climate change.

Sustainable development: The CDM can help to promote sustainable development.

Energy efficiency: The CDM can help to improve energy efficiency.

Renewable energy: The CDM can help to promote renewable energy.

Air quality: The CDM can help to improve air quality.

Technology transfer: The CDM can help to transfer technology.

Cost reduction: The CDM can help to reduce costs.

Employment generation: The CDM can help to generate employment.

Poverty reduction: The CDM can help to reduce poverty. 

The CDM Executive Board oversees the CDM, and is accountable to the countries that have ratified the Kyoto Protocol. 

UNFCCC

$
0
0

 The United Nations Framework Convention on Climate Change (UNFCCC) is an international treaty that aims to limit dangerous human interference with the climate system: 

Purpose: The UNFCCC's goal is to stabilize greenhouse gas concentrations in the atmosphere to prevent dangerous human interference with the climate system. 

History: The UNFCCC was adopted in 1992 and entered into force in 1994. It's the parent treaty of the 1997 Kyoto Protocol and the 2015 Paris Agreement. 

Parties: The UNFCCC has 198 parties. 

Meetings: Countries that are parties to the UNFCCC meet annually at the Conference of the Parties (COP) to: 

Measure progress 

Negotiate multilateral responses to climate change 

Review national communications and emission inventories 

Assess the effects of the measures taken by parties 

Next COP: COP29 will be held in Baku, Azerbaijan in November 2024. 

Secretariat: The UNFCCC secretariat is the United Nations entity that supports the global response to climate change. The secretariat is located at the UN Campus in Bonn, Germany. 

Finance portal: The UNFCCC's finance portal includes information on: 

Financial resources provided by contributing countries 

Resources provided by developed countries 

Climate finance flows of the GEF 

Projects and programs of the Adaptation Fund 

Environmental key performance indicators (KPIs)

$
0
0

 Environmental key performance indicators (KPIs) are measurements that help organizations track their environmental performance. Some examples of environmental KPIs include: 

Carbon emissions

A well-known metric for tracking an organization's environmental performance. Companies can calculate their carbon footprint, measure carbon intensity, and set sustainability targets to track carbon emissions. 

Energy consumption

Measuring the energy used in a company's factories, offices, and transportation. 

Recycling rates

Reducing waste and increasing recycling rates are important goals for environmentally conscious companies. 

Water usage

A company's water footprint is an indicator of freshwater consumption that includes both direct and indirect water use. 

Biodiversity

Monitoring the value of biodiversity outside protected areas. 

When defining environmental KPIs, it's important to consider the following:

Relevance: The KPIs should be relevant to the organization's environmental objectives and targets.

Specificity: The KPIs should be specific.

Realism: The KPIs should be realistic.

Practicality: The KPIs should be practical.

Time bound: The KPIs should be time bound.

Cost effectiveness: The KPIs should be cost effective to measure.

Reproducibility: The KPIs should be reproducible over time.

Comparability: The KPIs should be comparable over time. 

Technip Energies strategic expansion in India

$
0
0

Technip Energies strategic expansion in India

By Anna Peverieri

November 21, 20249:24 PM GMT+5:30Updated 17 hours ago

Nov 21 (Reuters) - France's Technip Energies (TE.PA), opens new tab announced strategic expansion plans for India on Thursday, saying it would launch a new R&D laboratory in the country in 2025.

The group, which specialises in engineering and technology for the energy industry, plans to launch the new lab in Chennai to expand its research and development footprint, its Chief Operating Officer Loïc Chapuis said at a capital markets day.

The group also announced plans to open a new office in Ahmedabad, expanding into the city for the first time, in a move to bolster its staff resources.

"India is strategic for the group," the company told Reuters. Technip Energies has been operating in India for more than five decades. It employs around 4,100 people, which represent 24% of its global workforce.

India, the world's third-largest emitter of greenhouse gases, aims, opens new tab to ramp up non-fossil fuel capacity by 50 GW a year to help meet its 500 GW target by 2030 and over 600 GW by 2032.

Significant enhancements are planned for the Dahej manufacturing facility, a cornerstone of Technip Energies' operations in India. The expansion includes the construction of a new captive jetty, expected to be operational by the second quarter of 2025, and the development of additional land and facilities scheduled for 2025-26.

Technip Energies is also establishing a "Green H2 & Power-to-X" centre in Delhi, which will target the prospective market for green molecules, encompassing projects, operations, and post-market services.

In India, company's operations are mostly focused on downstream projects. However, the group told Reuters it foresees "a prospective market for green molecules," mentioning green hydrogen and green ammonia.

India’s Intervention at the Plenary Session of the UNFCCC-CoP29

$
0
0

Ministry of Environment, Forest and Climate Change

azadi ka amrit mahotsav

India’s Intervention at the Plenary Session of the UNFCCC-CoP29

Posted On: 21 NOV 2024 11:02PM by PIB Delhi

India today expressed disappointment at the shifting of focus from enablement of adequate Climate Finance to emphasis only on mitigation, at the Plenary Session at the CoP29 of the UN Climate Change Summit in Baku, Azerbaijan. India aligned its stance with the statement made by Bolivia on behalf of Like-Minded Developing Countries (LMDCs) and reiterated that the process of the fight against Climate Change has to be guided by the UNFCCC and its Paris Agreement, as the Global South continues to face the intense impacts of Climate Change.

Delivering India’s statement, Secretary (MoEFCC) and Dy. Leader of the Delegation, Ms. Leena Nandan said, “We feel disappointed by the fact that we continue to shift focus when the time has come to ensure that the mitigation actions are fully supported through provisions of adequate Finances as per CBDR-RC and equity considerations. CoP after CoP, we keep talking about mitigation ambitions - what is to be done, without talking about how it is to be done - in other words, the enablement of mitigation ambitions. This CoP started with Focus on enablement through New Collective Quantitative Goals (NCQG), but as we move towards the end, we see shifting of the focus to mitigation.”

India firmly asserted that any attempts to deflect the focus again from Finance to repeated emphasis on mitigation cannot be accepted. The statement read, “All countries have submitted their NDCs and will be submitting the next round of Nationally Determined Contributions (NDCs) being informed by the various decisions we have taken together in the past as well as on the basis of our national circumstances and in the context of sustainable development goals and poverty eradication. What we decide here on climate finance will certainly influence what we submit next year. The attempt by some parties to further talk about mitigation is primarily a shift in focus from their own responsibilities of providing finance.” The statement called for a ‘Balance in the Climate Discourse’, and added, “If not so ensured, we may have continuous talk of mitigation that has no meaning, unless supported by enablement that is needed to make climate actions happen on the ground.”

India put forth its stance on the following issues that are critical in the fight against Climate Change. They are:

NCQG

India highlighted that as grant-based concessional Climate Finance is the most critical enabler to formulate and implement the new NDCs, action will get severely impacted in the absence of adequate means of implementation. The statement read, “The document needs to be specific on the structure, quantum, quality, timeframe, access, transparency, and review. The goal for mobilisation needs to be USD 1.3 trillion, with USD 600 billion of this coming through grants and grants equivalent resources. Expansion of the contributor base, reflection of conditional elements such as macroeconomic and fiscal measures, suggestion for carbon pricing, focus on private sector actors for scaling up resource flows as investments – is contrary to the mandate for the goal. NCQG is not an investment goal. We must accept that climate actions by Developing countries will have to be country driven, in line with their circumstances and in the manner best suited to country priorities.”

Mitigation

India strongly protested against changing the scope of the Mitigation Work Programme (MWP) in the draft text. India further cautioned against shifting of temperature goals, which need to be as per the exact language in the Paris Agreement. India called the introduction to the targets for 2030, 2035 and 2050 in the preamble as purely prescriptive.

India urged to add to the text certain elements like noting the pre-2020 mitigation gap by Annex-I Parties; noting with strong concern that the emission of Annex-I Parties is increasing from 2020 to 2030 etc. India strongly urged to recall the negative impacts of coercive unilateral measures on climate action specifically mitigation ambition and implementation.

Just Transition

India strongly declined to accept any renegotiation of the shared understanding prevalent on ‘Just Transitions’ in the decision from Dubai. The statement read, “Just transition is interpreted in narrow domestic terms, implying that it is national governments that have to take actions to ensure domestic just transitions. However, we have repeatedly made the point that Just transitions begin globally with Developed countries taking the lead in mitigation and ensuring that they provide the means of implementation to all Developing countries.”


India statement further said, “We have also repeatedly made the point that the possibility of our domestic transitions, our right to development, and our over-riding priority to pursue sustainable development, is constrained by repeated and ongoing inaction of Developed countries. The current text completely disregards this point that we have been making about our understanding of just transitions, which is also reflected in the Dubai decision. We absolutely cannot accept these paragraphs. They are prescriptive and completely reinterpret just transitions.”


GST

On the GST India stated the following:

India does not agree to a follow up of the GST outcomes. As per Paris agreement, GST is supposed to only inform parties to undertake climate action.

The new chapeau on Enhancing Action, Support and International Cooperation has been drafted without adequate connection or integration with the text, parts of which are under negotiation on the UAE dialogue.

The last text from the negotiations undertaken by Parties was one that captured the views of all Parties and was a viable basis for further negotiation. The new options under the Section titled Modalities of the UAE dialogue does not capture this at all.

The new chapeau has no connection with the subject matter of finance which is the main aim of the UAE dialogue.

Further, the phrase “with developed countries (as per the synthesis report of the Biennial Reports) on track to increasing their emissions by 0.5 per cent from 2020 to 2030” may be added after the phrase “by 2.6 per cent by 2030 compared with the 2019 level”.

Though the new chapeau title is general, the text added is completely mitigation centric and completely unbalanced. India does not accept this text.

India does not accept the way the options have been formulated in the Timing and Format sections of the UAE dialogue.

Adaptation

India shared the following five points, which are essential to consider the draft decision:

Final outcome should include indicators on means of implementation in order for this work on global goal on adaptation to be meaningful.

There is no need to further focus on transformational adaptation. Instead, it is important to focus on other approaches such as incremental adaptation, long term adaptation in the context of national circumstances.

The data used for reporting on indicators should be taken from Party submitted reports and not from any third party databases. Therefore, this text may be dropped.

Language on Establishment of Baku Road Map as a means of continuing work pertaining to the global goal on adaptation, is essential.

Indicators should reflect the progress in the GGA goals. Further segregation may not be required.

In conclusion, reiterated that this CoP is the Finance CoP - the Balancing CoP, the enabling CoP. The statement read, “If we fail here, we fail in the fight against Climate Change for which the onus should be on those who are obligated to provide finance for climate action.”


CAQM reviews sector specific enforcement actions taken by the concerned NCR State Governments/ GNCTD and Punjab to abate air pollution in the region, during the 18th meeting of the Sub-Committee on Safeguarding & Enforcement

$
0
0


Ministry of Environment, Forest and Climate Change

azadi ka amrit mahotsav

CAQM reviews sector specific enforcement actions taken by the concerned NCR State Governments/ GNCTD and Punjab to abate air pollution in the region, during the 18th meeting of the Sub-Committee on Safeguarding & Enforcement

Posted On: 21 NOV 2024 9:15PM by PIB Delhi

In order to ensure strict enforcement of measures to control air pollution in the National Capital Region (NCR) especially during the current period of Graded Response Action Plan (GRAP) in-force, the Sub-Committee on Safeguarding & Enforcement of the Commission for Air Quality Management in NCR and Adjoining Areas (CAQM) held a meeting on 20th November, 2024, to monitor and review status of sector specific enforcement actions taken by the concerned NCR State Governments/ GNCTD and Punjab to abate air pollution in the NCR.


After a detailed review of action taken by NCR State Governments/ GNCTD, following directions were given by the Commission:


Mismatch in number of cases where EC has imposed and the cases where FIR has been filed u/s 223 of BNS, 2023 needs to be sorted out. (Action: Punjab and Haryana)

Gap in cumulative amount of EC imposed and EC realised needs to analysed and redressed on an urgent basis. (Action: Punjab and Haryana)

Inspection protocol for verification of fire incidences be revised to within 24 hrs from 48 hours, specially by Punjab. (Action: Punjab and Haryana)

All actions prescribed under different stages of GRAP need to be enforced strictly in true letter and spirit. (Action: All Delhi NCR States)

Special attention must be given to all identified hotspots in Delhi. The same must be taken up on priority, except those actions which are prohibited under GRAP. (Action: GNCTD/ DPCC)

Special attention must be given for controlling the C&D dust and all C&D activities must stop keeping in provisions under GRAP Inspections must be intensified in entire Delhi NCR. Stringent actions must be taken against the violators as per directions issued by the Commission. (Action: All Delhi NCR States)

Special drive must be launched for impounding of EoL vehicles. The data from Traffic Police, Transport agencies and municipal authorities must be compiled and submitted to the Commission through the nodal agency. (Action: All Delhi NCR States)

Efforts for challaning the non-possession of PUC must be enhanced. (Action: All Delhi NCR States)

The auditing of the PUC Centres needs to be carried out on priority. (Action: All Delhi NCR States)

The entry points of Delhi must be checked for the non-permitted vehicles and proper arrangements be made at the border. (Action: GNCTD, Delhi Traffic Police)

The congestion points and barricades on the road to be managed properly. Barricading to be done only during inspection and to be removed immediately thereafter. Patrolling vehicles to check for these points creating congestion and inform the Traffic Police to take immediate corrective action. (Action: GNCTD, Delhi Traffic Police)

It was directed to augment the MRSMs on priority to achieve the target. (Action: GNCTD, Haryana)

Expedite the collection of pending Environmental Compensation (ECs) from violators. (Action: All Delhi NCR States)

Ensure compliance to the directions of the Hon’ble Supreme Court regarding brick kilns regulation. (Action: NCR districts of Haryana, UP and Rajasthan)

The biomass and MSW burning activities must be stopped in open areas through strict enforcement of regulations and improved waste management practices. (Action: All Delhi NCR States)

Pending complaints from citizens on different Apps and social media platforms till date must be resolved in a time-bound manner. CAQM must be tagged on social media page while forwarding and resolving the complaint so that they are properly tracked and monitored. (Action: All Delhi NCR States)

Nodal officers for all agencies to coordinate actions in their respective agencies and concerned DPCC to also monitor the actions by different agencies, besides action required to be taken by themselves. (Action: All Delhi NCR States)

Daily reporting of actions under GRAP must be provided to Commission on daily basis without fail. (Action: All Delhi NCR States)

Officials of concerned agencies shall be held accountable for any laxity in the enforcement of the directions of the Commission and the same may attract action under provisions of CAQM Act. (Action: All Delhi NCR States)

Monitoring and implementation/ enforcement of actions in respect of stubble burning including penal actions initiated by the State Governments in Haryana and Punjab were reviewed

The authorities of Punjab and Haryana were asked to ensure implementation of in-situ and ex-situ measures for prevention of paddy stubble burning. Further, it was reiterated that considering the prevailing AQI levels in Delhi-NCR, there should not be any laxity in monitoring and taking enforcement actions after expeditious verification of fire incidences within 24 hrs

It was committed at the meeting by all implementing agencies that they will regularly review air pollution control measures and take strict and effective action across various sectors as well as those listed under GRAP. 



Strategic Business objectives

$
0
0

Strategic business objectives are the primary areas of focus that an organization must address to achieve its vision of success. They are the top layer of an organization's strategic plan and framework. 

Strategic objectives are specific, measurable, and actionable goals that help shape a company's strategic planning process. They provide the direction and focus needed to align resources, efforts, and decision-making. 

Some common strategic objectives include:

Increasing revenue

Improving customer satisfaction

Expanding market share

Reducing costs

Enhancing operational efficiency

Improving profitability 

Strategic objectives vary depending on the organization's size, industry, and goals. 

Strategic business objectives can help with:

Improved decision-making

Strategic business planning allows staff to make more informed decisions that align with the company's strategic objectives. 

Competitive advantage

Strategic differentiation allows organizations to identify and leverage their strengths while addressing weaknesses. 

Integrated reporting and performance management

$
0
0

 Integrated reporting and performance management

Integrated reporting and performance management

A previous technical article – 'Integrated reporting' (see 'Related links') – discussed the relevance of Integrated Reporting to organisations’ performance management, and therefore how integrated reporting (IR) could be relevant to the APM syllabus. 

However, as well as recognising the overall significance of IR for organisations, in the APM exam you could also be expected to assess the practical implications of this for a management accountant – for example, how organisations can assess their performance in relation to the different capitals identified in IR.


This article begins by recapping the key features of IR, before then considering the role of the management accountant in collecting, collating, reporting the required data, and potential issues the management accountant may face in doing this.


Integrated reporting

An important development in performance reporting over the last few decades has been the recognition of the importance of measuring and monitoring non-financial aspects of performance, not just financial ones. This applies to corporate reporting (eg narrative commentary in companies’ annual reports), and to management accounting (eg multi-dimensional performance measurement systems such as Kaplan & Norton’s balanced scorecard, or Lynch & Cross’ performance pyramid.)


IR builds on these developments by looking to provide a more holistic way to report the value created by an organisation, by considering the use of non-financial resources as well as financial resources, and also by giving a longer-term view of the organisation.


IR provides an insight into an organisation’s business model, and how it draws on a range of different capitals as inputs and transforms them – through the organisation’s operating activities – into outputs (products, services, waste/pollution). The business model also leads to wider outcomes (eg staff development; investment in environmental regeneration, or in local infrastructure).


Six capitals

The International Integrated Reporting Council (IIRC) identifies six categories of capital which help an organisation create value: financial, manufactured, intellectual, human, social and relationship, and natural.

 


Capital Definition

Financial The pool of funds that is:


Available to an organisation for use in the production of goods or the provision of services

Obtained through financing, such as debt, equity, or grants, or generated through operations or investments

Manufactured Manufactured physical objects that are available to an organisation for use in the production of goods or the provision of services, including:


Buildings

Machinery and equipment

Infrastructure (eg roads, ports)

Manufactured capital is often created by one or more other organisations (not the reporting organisation) but can also include assets manufactured by the reporting organisation where these are retained for its own use


Intellectual Organisational, knowledge-based intangibles, including:


Intellectual property, such as patents, copyrights, and licences

‘Organisational capital’ such as tacit knowledge, systems, procedures, and protocols

Intangibles associated with the brand and reputation that an organisation has developed

Human People’s competencies, capabilities and experience, and their motivations to innovate, including their:


Alignment with, and support for, an organisation’s governance framework and risk management approach, and ethical values, such as recognition of human rights

Ability to understand, develop and implement an organisation’s strategy

Loyalties and motivations for improving processes, goods and services, including their ability to lead, manage and collaborate

Social and relationship The institutions and relationships established within and between each community, group of stakeholders and other networks (and an ability to share information) to enhance individual and collective well-being.


Social and relationship capital includes:


Shared norms, and common values and behaviours

Key relationships, and the trust and willingness to engage, that an organisation has developed, and strives to build and protect, with customers, suppliers, business partners, and other external stakeholders

An organisation’s social licence to operate (eg approval from regulators, appropriate risk management and governance practices)

Natural All renewable and non-renewable environmental stocks that provide goods and services that support the current and future prosperity of an organisation. Natural capital includes:


Air, water, land, forests, and minerals

Biodiversity and ecosystem health

Source: International Integrated Reporting Council (2013)


Although intellectual, human, and social and relationship capitals are classified separately, the IIRC acknowledges that these are related and interdependent. However, it has argued there are sufficient differences between the that they should be viewed as three separate capitals, rather than combining them into a single group, and the IIRC suggests that one helpful way to differentiate between the three could be to view them in terms of the ‘carrier’ of each:


For human capital, the carrier is the individual person

For social and relationship capital, the carrier is networks within or between organisations

For intellectual capital, the carrier is the organisation.

Interrelationships between the six capitals

Together, the six capitals are the basis of an organisation’s value creation. However, they are not independent of each other. To take a simple example, if an organisation buys a new piece of equipment for its production process, the immediate effect of this will be to decrease the organisation’s financial capital (by the cost of the equipment) but to increase its stock of manufactured capital. Over time, the organisation should then expect the increased efficiency or productiveness of the new machine (ie increased outputs from its manufactured capital) to offset the initial decrease in financial capital, thereby adding value to the organisation overall.


Nonetheless, the extent to which organisations are building up or running down the various capitals can have an important effect on the availability, quality, and affordability of those capitals. This is of particular concern with respect to capitals that are in limited supply, such as skilled staff, and those that are non-renewable, such as fossil fuels. A reduction in those capitals could affect the long-term viability of an organisation’s business model and, therefore, its ability to create value over time.


As such, the IIRC highlights that IR also needs to encourage integrated thinking within an organisation; that is, management’s understanding of the interconnections between functions, operations, resources and relationships which have an effect on the organisation’s ability to create value over time.


Measuring and reporting on the capitals

It is all very well being aware of the different capitals, and their potential impact on an organisation’s ability to create value, but for IR to be useful to management for decision-making and control, they will need to be able to measure performance in key areas.


Quantitative indicators, such as key performance indicators (KPIs), could be very important in explaining an organisation’s use of, or impact on, various capitals. However, it is important to recognise that it would not be practical to expect organisations to quantify every aspect of all the capitals. Therefore, the objective of IR is not to measure all the capitals, or movements in them. Importantly, as the IIRC (2013; pg 4) notes: 'Many uses and effects on the capitals are best (and in some cases can only be) reported on in the form of narrative rather than through metrics.'


This could be important for a management accountant when deciding how to report on performance. It may be more appropriate to provide narrative commentary on performance in relation to certain capitals, whilst then using quantitative indicators to report performance in relation to other capitals.


Selecting performance measures

One of the key issues involved in using quantitative indicators will be deciding which indicators to include in a report. The International Integrated Reporting Council (IIRC)’s aim is that IR reporting should pull together relevant information to explain the key drivers of an organisation’s value. Information should only be included where it is material to stakeholders’ assessment of the business.


However, while the range of reporting (ie over the six capitals) may be wider than in traditional reporting, the underlying approach being advocated here should still be familiar to management accountants from traditional approaches to strategic planning and control: ie identifying the key factors of an organisation’s success (critical success factors (CSFs)) and then selecting the relatively small number of key performance indicators (KPIs) which enable an organisation’s performance against its CSFs to be measured.


apm-int-reporting-1

One of IIRC’s aims for Integrated Reporting is that it should be clear and concise. As such, it argues that organisations should not report on every aspect of performance in relation to the six capitals but should focus on activities and issues which are material to it, and then identify key performance indicators linked to these key activities or issues.


Accordingly, part of the management accountant's role could be working with the board of directors or with operational managers to identify the issues which are critical for an organisation's success (critical business issues) and then identifying appropriate KPIs which can be used to monitor performance in relation to those issues.


This point about focusing on key indicators is also important in your APM exam. If you are asked to identify, or recommend, metrics to measure an organisation’s performance in relation to different capitals, you should look to identify the key value-creating activities1 in relation to the relevant capitals, and then recommend indicators which are most appropriate for measuring performance in relation to those activities (ie the performance indicators which are truly key to the organisation’s success).  

 


Worked example

Zaccair is an airline company, based in Zeeland, which operates passenger flights both domestically and internationally.


The performance reports it produces for the Board currently focus primarily on financial performance, but the CFO has argued that these reports should provide more information about Zaccair’s value, and he has argued Zaccair should adopt an integrated reporting approach.


He has highlighted that Zaccair’s performance reports do not currently provide any information about fuel efficiency, or safety, both of which he argues should be key areas the company reports on.


He has asked you to advise which capital each of these areas of performance is most appropriate to relate to in an integrated report, and to recommend a key performance measure for each area.


Fuel efficiency – should be classified within ‘natural capital’ because it relates to how efficiently Zaccair is using the non-renewable resources (oil) which aviation fuel is made from. Fuel efficiency also has an important impact on the outputs of Zaccair’s flights; reducing the amount of fuel used per flight should reduce CO2 emissions, and therefore reduce the impact of Zaccair’s flights on the atmosphere.


An appropriate measure to use will be kilometres flown per gallon of fuel. The measure needs to be ‘per kilometre’ rather than simply measuring the amount of fuel used ‘per flight,’ because Zaccair operates flights of different lengths (domestic; international). As such, fuel usage ‘per flight’ would be determined more by the length of the flight than the efficiency of Zaccair’s planes.

Increasing fuel efficiency should also benefit Zaccair’s financial capital – because it will help to reduce fuel costs.

Safety – should be classified within ‘social and relationship’ capital. Zaccair’s safety record will not only affect customer trust (and therefore their willingness to book with it) but it could also affect Zaccair’s ability to retain an operating licence from the industry regulator. Zaccair needs to ensure it has appropriate risk management and quality procedures in place to ensure the safety of passengers on its flights.

An appropriate measure to use could be the number of accidents and/or safety incidents in the last 12 months. Fatal plane crashes are relatively rare, so reporting only on crashes may have limited value (if the number reported is regularly zero.) As such, a more useful metric might be to look at safety incidents (eg near misses; losses of control in flights) which might have resulted in accidents but didn’t.

Short-term v longer-term performance

IR aims to promote decision-making and actions which support value creation not only in the short-term, but also over the medium- and longer-term, in order to ensure promotion of sustainable value creation. This also has significant implications for performance management, because it means the focus is no longer simply on short-term goals (or short-term results), but performance measures and performance reports also need to demonstrate how an organisation creates value in the longer-term, including through its commitment to social and environmental issues.

Business decisions which are solely dedicated to the pursuit of increasing profit (financial capital) at the expense of building good relations with key stakeholders such as customers or suppliers (social capital) are likely to hinder value creation in the longer term. Accordingly, this means performance metrics need to address the different capitals, and to provide some insight into longer-term value creation, not just short-term performance (eg annual profits).

Non-financial information – By definition, IR seeks to provide an integrated and holistic view of an organisation’s performance. As such, by focusing on value generation in a broader sense (rather than focusing on narrow, short-term financial objectives around revenue or profits, for example) IR will require organisations to use a more diverse range of performance metrics to measure and manage performance.

One of the main consequences of IR is likely to be the increased use of non-financial data to gain a clearer picture of an organisation and its performance, in relation to the different capitals, and to enable a wider understanding of value creation in an organisation, beyond that which can be measured through traditional financial terms.

Equally, IR should also encourage greater attention being paid to non-financial data in strategic decision-making. For example, investment appraisals may need to include non-financial costs and benefits (and sustainability information) as well as traditional financial costs and benefits.

Potential issues for management accountants in relation to integrated reporting

However, introducing IR could have significant implications and challenges for an organisation’s information systems, and for management accountants in trying to produce reports from those systems, and in relation to the different capitals. In particular: 

Data availability: Can the organisation's information systems supply the data needed to calculate the performance measures selected (particularly for the non-financial capitals)?

If this data cannot currently be obtained from an organisation's information systems, how can the management accountant get the information needed for the report?

Consistency and comparability: Are non-financial data reliable, and comparable, in the way that financial data is? If organisations are going to use non-financial data for decision-making and control, they need assurance over the reliability of the data.

There are standard definitions of financial performance metrics (eg operating profit, ROCE) which enable performance comparisons to be made over time, and against other organisations. However, if non-financial performance measures being used are not clearly and consistently defined, this reduces an organisation’s ability to compare its performance over time, or with other organisations.

Connectivity

One additional challenge relates to connectivity. As we have mentioned above, IR seeks to provide an integrated and holistic view of an organisation’s performance. However, to do this they need to show the connectivity between factors and capitals, to give a holistic picture of the interrelatedness and dependencies between factors which affect an organisation’s ability to create value over time. However, companies who have implemented IR in practice have identified that showing the connectivity of information is one of the biggest challenges they faced, because showing this connectivity required breaking down silos within the organisation and changing existing data collection processes.


Reference:

International Integrated Reporting Council (2013), Capitals – Background Paper for <IR>.

Benefits of an Environmental and Social Management

$
0
0

 Benefits of an Environmental

and Social Managements System For Your Company

Today, companies are confronted with a number of significant environmental

and social challenges. None of the challenges is insurmountable, but if not

effectively assessed and managed, they will hurt your profitability, reputation,and prospects for future business.

Among these challenges are increasing energy and raw materials costs, the growing power and influence of environmental and labor regulatory agencies,and rapidly evolving consumer awareness and concerns about environmental and social issues. These risks are in addition to the primary risk of failing to meet your business goals or build brand and consumer confidence. All of these risks ultimately have financial consequences. Moreover, exports and international exposure are vital to the success of many businesses; but exporting your goods and services also increases demands from international legislation, local

industry standards, and consumer requirements. Many of these requirements

are increasingly related to environmental and social practices. All of these risks, requirements, and pressures on your business are driving forces that should motivate you to implement a management system.

“We are facing intense global

competition and

declining spending

during the current

global economic

crisis. Improving our

environmental and

social management is

helping us to reduce

material inputs,

minimize waste

and improve our

competitiveness and

our profitability.”


SA 8000 is a voluntary, internationally recognized standard that helps organizations manage social accountability and improve the workplace:

$
0
0

 SA 8000 is a voluntary, internationally recognized standard that helps organizations manage social accountability and improve the workplace: 

What it is

SA 8000 is a management system standard that helps organizations improve their social performance and protect the rights of their employees and workers. 

What it covers

SA 8000 covers a range of topics, including child labor, working hours, health and safety, and freedom of association. 

How it works

SA 8000 is based on international standards like the Universal Declaration of Human Rights and ILO conventions. Organizations must comply with the standard through an effective management system. 

How to get certified

To get certified, organizations must implement a management system and practices that comply with the standard. They are then subject to regular audits to ensure continued compliance. 

Benefits

SA 8000 certification can help organizations improve brand recognition and instill confidence among customers and business partners. 

Pre-assessment

Before the initial assessment, organizations usually have a pre-assessment to identify areas where they may not be operating to the standard. 

Certification period

SA 8000 certification lasts for three years. 

Cloud seeding not feasible, says CPCB amid Delhi pollution crisis

$
0
0

Cloud seeding not feasible, says CPCB amid Delhi pollution crisis

Neha Mishra

22 November, 2024 07:18

New Delhi, Nov 22 (PTI) The Central Pollution Control Board has said the feasibility of cloud seeding as an emergency measure to battle winter pollution in northern India will be limited, citing insufficient moisture and reliance on pre-existing clouds, an RTI query has revealed.

The CPCB shared its observations on a cloud seeding proposal by IIT Kanpur, which aims to combat Delhi’s severe air pollution crisis through artificial rainfall.

The information was shared in response to a Right to Information query filed by activist Amit Gupta on October 24.

According to the CPCB, cloud seeding faces significant challenges due to insufficient moisture in the air and the dependency on pre-existing clouds influenced by Western Disturbances.

“As per IIT Kanpur (proponent), the mandatory requirement of successful cloud seeding is the availability of appropriate clouds with enough moisture content (clouds having 50 per cent or higher moisture content).

“In northern India, winter clouds are often influenced by Western Disturbances, and the moisture content in the air remains low, limiting the scope of successful operations,” the CPCB stated in its reply.

The board’s comment comes against the backdrop of the Delhi government seeking emergency measures to combat a sharp rise in the city’s pollution.

Reportedly, Delhi Environment Minister Gopal Rai has written to his Union counterpart Bhupender Yadav four times, urging the Centre to consider cloud seeding as a potential solution and convene a meeting on the matter.

Meanwhile, CPCB said the estimated cost of the proposed experiment will be approximately Rs 3 crore. The proposal includes a minimum coverage area of 100 sqkm and involves five sorties (cloud seeding attempts).

As part of the proposal, a presentation was made by Dr Manindra Agrawal and his team from IIT Kanpur to the Delhi government on November 8, 2023.

The presentation outlined the involvement of 12 key agencies, including Defence, Home, and Environment.

IIT Kanpur conducted cloud seeding trials during the summer of 2017, reportedly achieving successful precipitation in six out of seven attempts.

The trials primarily aimed at developing a cost-effective strategy for cloud seeding by optimising both seeding agents and flying platforms. While the experiments resulted in successful precipitation, the type and intensity of rainfall remained difficult to control.

The proposed trials in Delhi aim to build on the findings of those trials.

A recent report said that light-intensity rains (2.5-15.5 mm) in Delhi on three days in November last year brought the PM2.5 concentrations from 315 micrograms per cubic metre air to 95 micrograms per cubic metre air during the period.

PM10 levels too reduced from 501 micrograms per cubic metre air to 167 micrograms per cubic metre air over the same period.

All the same, the cloud seeding proposal has sparked mixed reactions among environmental activists.

Amit Gupta, who filed the RTI, urged the government to conduct the trials without delay.

“It’s high time we tried this measure because nothing else seems to be working for Delhi’s pollution crisis. If IIT Kanpur has achieved success with cloud seeding, our government should too. The central government must provide the necessary clearances for the experiment,” he said.

On the other hand, environmentalist Verhaen Khanna dismissed the experiment as an ineffective and potentially harmful solution.

“The better option is to stop producing pollution in the first place and prevent tree-cutting in Delhi. Today, hundreds of trees are being felled, which would otherwise help reduce pollution,” he said.

Khanna also raised concerns about the use of silver iodide, the chemical used in cloud seeding, warning of its harmful effects on humans.

“Whoever is promoting cloud seeding should first make a video of themselves consuming silver iodide – the same chemical that will be sprayed into clouds. This chemical could cause nausea, diarrhoea, skin burns, and even cancer, especially in children and senior citizens exposed to it through food, skin, or the environment,” he said. PTI NSM NSM VN VN



RAW water analysis parameters

$
0
0

 Here are some parameters that are commonly analyzed when testing raw water:

pH: A measure of how acidic or alkaline the water is. A pH of 7 is neutral, while water with a lower pH is more acidic and water with a higher pH is more alkaline. 

Temperature: A measure of the average energy of water molecules. Temperature affects the amount of dissolved oxygen in water. 

Dissolved oxygen: The amount of oxygen dissolved in water, which is important for aquatic organisms. 

Turbidity: A measure of how cloudy the water is due to suspended particles like algae, sediment, and organic matter. 

Electrical conductivity: A measure of how well the water conducts electricity. 

Total coliform: An indicator of water contaminated with fecal matter. 

Nitrogen: A nutrient that is essential for plant growth in aquatic ecosystems. 

Metals: Possible contaminants like copper, iron, aluminum, lead, mercury, and zinc. 

Ammonium: A source of nitrogen for bacteria, but water should not contain more than 0.1 mg/l. 

Other parameters that may be analyzed include: Chemical oxygen demand (COD), ORP, Salinity, Alkalinity, and Total dissolved solids. 

Water quality assessment can help with planning, utilization, and antipollution and conservation strategies.

Meteorological parameters are factors that affect the weather, including

$
0
0

Meteorological parameters are factors that affect the weather, including:

Temperature: A physical property that measures the common notions of hot and cold. 

Pressure: Higher barometric pressure is associated with good weather, while lower pressure is associated with clouds, moisture, poor visibility, and precipitation. 

Humidity: The ratio of vapor pressure to saturation vapor pressure with respect to water. 

Wind: Includes wind speed and direction. 

Precipitation: Includes rain rate. 

Solar radiation: An important aspect of meteorology for air quality. 

Cloudiness: A factor that affects weather. 

Meteorological conditions play a crucial role in air pollution by affecting the emissions, transport, formation, and deposition of air pollutants. 


India’s participation in various Side-events during CoP29 UN Climate Change Conference at Baku, Azerbaijan

$
0
0


Ministry of Environment, Forest and Climate Change

azadi ka amrit mahotsav

India’s participation in various Side-events during CoP29 UN Climate Change Conference at Baku, Azerbaijan

Posted On: 23 NOV 2024 9:33PM by PIB Delhi

India collaborated with various agencies to organize side events on several aspects of climate action during the CoP29 UN Climate Change Conference at Baku, Azerbaijan, from 11th-22nd November, 2024. India participated in these side events and shared experiences/initiatives to deal with the climate challenges. India effectively articulated and showcased its commitment to climate action and various initiatives being taken at the international as well as domestic level.


The important side events include the following:


Integrating Disaster Resilient Infrastructure into the Adaptation Strategies, 13.11.2024 (CDRI Pavilion)

Organizers: Govt. of India (MoEFCC) and Coalition for Disaster Resilient Infrastructure (CDRI)


The session was designed as a panel discussion to explore key approaches, challenges, and opportunities for integrating disaster risk reduction (DRI) into national adaptation strategies, offering a pathway toward more resilient and sustainable development. The panel deliberated on how countries can better assess infrastructure vulnerability in the face of changing climate risks, how DRI can be embedded into national adaptation strategies and long-term development goals, innovative financing mechanisms, collaboration among stakeholders to advance DRI.


It was highlighted with 88 per cent of all adaptation costs attributed to infrastructure, holistic and integrated approaches to resilient and climate-compatible infrastructure development will play an increasingly critical role in strengthening the global climate adaptation agenda. Investing in resilient infrastructure not only mitigates risks but also yields significant long-term benefits, including sustainable growth, environmental sustainability, and improved quality of life.


CDRI's initiatives, such as the Infrastructure for Resilient Island States (IRIS), the Global Infrastructure Resilience Initiative (GIRI), and targeted efforts for critical infrastructure resilience, are actively assisting countries with technical support, data, and tools for resilience building.


 


LeadIT (Leadership Group for Industry Transition) Member Meet, 14.11.2024 (India Delegation Office)

Organizers: Govt. of India (MoEFCC), Govt. of Sweden, with support from Leadership Group for Industry Transition (LeadIT) Secretariat


The purpose of the meeting was to interact with the members to understand their experience with LeadIT so far and how that can be made effective.


State Secretary (Sweden) highlighted the importance of this partnership for Sweden. The Swedish companies are keen to engage in India in view of the massive growth potential in India and the conducive environment for start-ups to grow. Trade with India is growing at 15% every year and the cooperation between countries is expected to bring prosperity to both the countries.


India highlighted that it gives equal value to this partnership. This platform can play a significant role in overcoming these challenges. The members of LeadIT should serve as the lighthouse for the rest of the industry.


The LeadIT Secretariat stressed that the group is expanding and changing with addition of each member.


The members including Dalmia, SSAB, Vattenfall, Tata Motors, SAIL, Tata Steel highlighted technological challenges they face and recommended the areas of cooperation. Dalmia highlighted that two technological challenge it faces are to capture the CO2 from the process and electrifying the process. SAIL made a detailed presentation on the initiatives they are taking for the low carbon transition. They are looking forward to collaborating on hydrogen based DRI, CCU, dry beneficiation of low and tailing grade iron ore, and biomass consumption pathways.


Tata Steel mentioned that Indian steel industry needs to grow as well as reduce emissions. It is important to address the issue at the value chain level, therefore presence of consumers in the group is very encouraging. It is important for new pilots and demonstrations projects. Tata motors highlighted challenges like high pressure refuelling for the automotive sector. Collaboration with the steel industry can help the automobile sector.


 


 India-Sweden Industry Transition Partnership (ITP) – Road to Belém, 16.11.2024 (Swedish Pavillion)

Organizers: Govt. of India (MoEFCC), Govt. of Sweden, with support from LeadIT Secretariat


At CoP28, Prime Minister of India, Shri Narendra Modi and Prime Minister of Sweden, Ulf Kristersson had launched the India-Sweden Industry Transition Partnership (ITP) as part of the LeadIT initiative. The Prime Ministers committed to return to CoP30 in Belém to deliver tangible results under this partnership. With one year to go, this side-event provided an opportunity to take stock of progress made under the India-Sweden ITP and highlight the links to its sister partnership, the Brazil-UK Industry Decarbonisation and Hydrogen Hubs.


The panel discussions showcased progress under India-Sweden ITP and ongoing political commitment, highlighted links between the India-Sweden ITP and the Brazil-UK Hubs and served as a springboard towards a CoP30 moment with leaders and stakeholders.


 


Unlocking Investments for Climate Resilient and Sustainable Infrastructure in Small Island Developing Started (SIDS), 18.11.2024 (CDRI Pavillion)

The side-event facilitated two segments, the first segment included a keynote address from MoEFCC and high-level statements as well as a conversation/discussion on identified questions with representatives from SIDS and from the IRIS donor group. The second segment showcased CDRI’s Infrastructure for Resilient Island States (IRIS) initiative as a pathway for SIDS to access finance, knowledge, tools, and partnerships for resilient infrastructure leading to sustainable development and enhanced liveability for all.


It brought together stakeholders from SIDS and donors to deliberate on collective actions and multilateral cooperation to strengthen the enabling environment for disaster and climate resilient infrastructure in SIDS, especially access to climate finance. The discussions will focus on the need for a shift in the climate finance landscape, including the criticality of unlocking adaptation finance, to better align with and respond to SIDS’ needs and unique vulnerabilities.


The Indian Ocean islands are covered under the Security and Growth for All in the Region (SAGAR) initiative; SIDS in the Pacific Ocean are part of the Forum for India-Pacific Islands Cooperation (FIPIC), a grouping developed for cooperation between India and 14 Pacific Island countries on various fronts, including renewable energy, disaster management, and climate change; and leading climate adaptation organizations such as the CDRI, specifically through the dedicated facility for SIDS, IRIS.


CDRI displayed IRIS initiative as a vehicle for enabling resilient and sustainable prosperity of SIDS including update on the first cohort of projects being implemented across 13 SIDS. The Project Awardees of IRIS Second Call for Proposals were also announced by Director General, CDRI accompanied by donor representatives and representatives of SIDS featuring in the second cohort.


 


Energy Transitions for the Global South: Unleashing the role of solar for the global south, 19.11.2024 (ISA Pavilion)

Organizers: Govt. of India (MoEFCC) and International Solar Alliance (ISA)


The session began with a critical examination of solar energy's role in addressing the intertwined challenges of energy security and climate change, with a special emphasis on its significance for the Global South. Participants stressed the urgency of hastening the energy transition to bridge developmental disparities while promoting a balance of economic growth, social justice, and environmental sustainability. Solar energy was spotlighted as a cost-effective and adaptable renewable energy source, crucial for breaking the link between economic development and carbon emissions.


Shri Kirti Vardhan Singh, Minister of State for Environment, Forest & Climate Change in India, underscored the pivotal moment facing the global energy landscape. He articulated the pressing need for a swift transition to renewable energy resources to confront the escalating threats posed by climate change and to ensure a stable and secure energy future. The minister's remarks reflect a global governmental consensus on the importance of moving away from fossil fuels and embracing renewable energy sources such as solar power. This shift is not only imperative for environmental preservation but also for achieving energy independence and ensuring long-term economic stability.


Dr. Ajay Mathur, Director General of the ISA, delved into the potential of burgeoning debt markets in the Global South to attract investment in solar energy projects. The panel discussion yielded several key takeaways, including the acknowledgment of solar energy as a linchpin for the global energy transition, particularly in enhancing energy security, mitigating emissions, and fostering equitable development in the Global South.


The session called for a 20x increase in solar adoption by 2050, aiming to meet over 75% of the world's grid energy needs.


 


LeadIT Summit 2024 of members, 20.11.2024 (EU Office)

Organizers: Govt. of India (MoEFCC), Govt. of Sweden, with support from LeadIT Secretariat


The LeadIT Summit, held at the EU Delegation Office, on the sidelines of CoP29, marked the fifth year of the Leadership Group for Industry Transition (LeadIT). This annual event brings together governments, industries, and key stakeholders to discuss industrial low carbon transition, innovation, public-private partnerships, and aligning heavy industry with the Paris Agreement.


The summit was co-chaired by India’s Minister of State for Environment, Forest, and Climate Change, Shri Kriti Vardhan Singh, and Sweden’s Minister for Climate and the Environment, Ms. Romina Pourmokhtari, the Summit underscored the shared commitment of LeadIT's members.


LeadIT published its first five-year report, outlining its work, successes and impacts so far and its remaining challenges in aligning industry with the Paris Agreement. The report was launched by the Swedish and Indian Environment Ministers at the LeadIT Annual Summit Meeting held at COP29 in Baku.


A keynote address was delivered by Mr. Selwin Hart, Special Adviser to the UN Secretary-General on Climate Action and Just Transition.


A tour de table showcased insights from representatives of countries from United Kingdom, Netherlands, Germany, Ethiopia, Australia, Japan, Finland and the US, alongside Tata Motors, on industrial low carbon transition strategies and commitments.


The Summit concluded with a strong reaffirmation of LeadIT's pivotal role in uniting diverse stakeholders to accelerate the decarbonization of heavy industries while ensuring a just and inclusive transition aligned with global climate ambitions.


 


Solarizing Communities through Women-led Climate Action: Strengthening Adaptation, Unlocking Finance and Creating Jobs, 21.11.2024 (ISA Pavillion)

Organizers: Govt. of India (MoEFCC & MNRE), ISA and Natural Resources Defense Council (NRDC)


This session intended to bring together leaders from the Global South across governments, civil society and grassroot communities to showcase innovative and successful models of women-led climate-friendly and clean energy solutions. This session will also highlight the need to adopt a more gender-balanced approach across policies, programmes, and global commitments through effective collaboration, capacity building, peer learning and technology and financial support. The Key Note address was given by MoEFCC.


Women-led clean energy adoption at local levels also enhances the adaptive capacities of communities. Switching to cleaner solutions for cooking, electricity, irrigation and meeting other energy needs also helps rural communities better adapt to climate change beyond reaping the emission reduction, health, and other socio-economic benefits.


The recent achievements of India in large scale implementation of renewable energy were highlighted. Also, the initiatives to mainstream the role of women in the developmental journey were talked about.


*****



‘Over 20 years, methane warms Earth 80 times more than CO2 — but it offers us opportunities'

$
0
0

Over 20 years, methane warms Earth 80 times more than CO2 — but it offers us opportunities’

Robert C. Stowe is Executive Director of the Harvard Initiative on Reducing Global Methane Emissions. Speaking to Srijana Mitra Das at Times Evoke from COP29 in Baku, Azerbaijan, he discusses the urgency — and methods — to lower methane releases:

What are the most profound impacts of methane on the environment?

Methane (CH4), like carbon dioxide (CO2), is a greenhouse gas — it warms Earth. However, it is different from CO2 in two ways — it is a more powerful warming agent. Over 20 years, methane is 80 times more powerful than CO2 in retaining heat near Earth’s surface. Also, methane is very short-lived compared to CO2 — it disappears in just a few decades, rather than hundreds of years like CO2. These two scientific facts combined make methane a terrific opportunity for climate action.

By reducing methane emissions, we can have an immediate impact on global average surface temperature, keeping 2°C or even the 1.5°C target within reach.

WILL A NEW RICE RISE? For centuries, farmers have grown paddy by flooding their fields — today, however, this is a major contributor to both methane emissions and water loss, spurring research on alternative ways of farming rice (Photo Getty images and iStock)

What are the most important sources of methane emissions?

To start, there is energy. Natural gas is basically methane to a close approximation — when it leaks into the atmosphere, whether from fracking or other kinds of oil and gas production, this is methane escaping. There is often some confusion about flaring here. At times, in the production of oil, either the oil company doesn’t care about the natural gas or it doesn’t have the pipeline capacity to get it to market — so, it burns it at the production site, as with flares seen in oilfields. This actually turns the methane into carbon dioxide and other byproducts. However, a lot of the natural gas doesn’t get combusted, so there is still methane leak.

Another source is agriculture. There are two distinct areas within agriculture contributing to methane emissions. One is livestock, particularly ruminants, which produce methane during digestion. Most of this methane comes from cattle raised for the dairy and meat industries. The other significant area is paddy rice production. There are two types of rice cultivation: flooded and dry upland. The flooded or paddy rice method generates a substantial amount of methane. Waste and landfills also contribute to methane emissions. Disposing of organic matter, such as food waste and plant debris, in landfills results in significant methane production. Additionally, a fair amount of methane emissions comes from coalmines operating in certain parts of the world.

You’ve described a wide range of sources — what are some remedial measures to reduce CH4 emissions?

Given the diversity of sectors contributing to methane emissions, mitigation approaches vary significantly depending on the technologies, economics, and other factors involved. In many ways, the oil and gas sector is the easiest to address. Once a methane leak is identified, fixing it is relatively straightforward. A portfolio of technologies, including satellites and handheld devices, is now available to detect such leaks, and these technologies are constantly improving. While addressing leaks involves some cost, natural gas producers often recover this expense because the previously lost gas can now be captured and sold.

For livestock, ongoing research focuses on developing feed additives that can influence cattle digestion and reduce methane emissions. Many startups are exploring the use of Asparagopsis, a specific type of seaweed, as a promising solution. Additionally, adjusting the ratio of pasture feed to processed feed is another potential strategy to mitigate emissions.

In the case of paddy rice, water management techniques are being explored to reduce methane emissions. Flooding the rice fields constantly may not be necessary, and reducing water usage at various growth stages can help lower emissions. Furthermore, research is underway on developing rice strains that produce less methane, which could offer a long-term solution to emissions from this sector.

Importantly, methane is formed from the decomposition of organic matter in the absence of oxygen. This process, known as anaerobic digestion, produces methane. While the exact chemistry varies across sectors, the underlying principle remains the same. By exposing organic matter to oxygen, the amount of methane produced can be significantly reduced.

In waste management, a crucial step is to keep food and other organic matter out of landfills. If this cannot be achieved, the next best approach is to capture methane from waste sites. This is often done using PVC pipes placed atop landfills to collect the emitted gas. However, it is far more effective to prevent organic material from reaching these sites altogether. Ideally, organic waste would be composted, allowing decomposition to occur in the presence of oxygen, thereby mitigating methane emissions.

With such pressing impacts, which international agreements govern this area?

The most significant agreement addressing methane emissions is the Global Methane Pledge (GMP), introduced by the European Union and the United States at COP26 in 2021. To date, 159 countries have signed this pledge, which aims to reduce global methane emissions by 30% below 2020 levels by 2030. However, the GMP does not impose national targets; instead, each country commits to contributing as much as it can. While China and India have not signed the pledge, this does not mean they are not taking steps to reduce methane emissions.


Online Monitoring of Pollution

$
0
0

 India has a number of laws and rules to protect the environment and control pollution, including the Environment (Protection) Act, 1986, the Water Act, 1974, and the Air Act, 1981: 


Environment (Protection) Act, 1986


This act gives the central government the power to take action to protect the environment, including making rules and preventing pollution. The act also includes penalties for violating its provisions, such as imprisonment for up to five years and a fine of up to 100,000 rupees. 


Water Act, 1974


This act is used to take action against industries that do not comply with water pollution standards. 


Air Act, 1981


This act is used to take action against industries that do not comply with air pollution standards. 


Environment (Protection) Rules, 1986


These rules include standards for emissions and discharges, prohibitions and restrictions on the location of industries, and procedures for submitting samples for analysis. 

The Central Pollution Control Board (CPCB) inspects 17 categories of highly polluting industries based on SMS alerts that indicate violations of emission and effluent standards.


Online Monitoring of Pollution

Posted On: 04 APR 2022 3:38PM by PIB Delhi

Central Pollution Control Board (CPCB) issued direction under Section 18(1)(b) of the Water (Prevention and Control of Pollution) Act, 1974 and the Air (Prevention and Control of Pollution) Act, 1981 to all State Pollution Control Board (SPCBs)/ Pollution Control Committees (PCCs) to further direct industries for installation of online monitoring system in highly polluting 17 categories of industries/Common Effluent Treatment Plants (CETPs)/ Biomedical facility/common hazardous waste facility.

Further, under section 5 of Environment (Protection) Act, 1986, CPCB has also issued directions to all the industries falling under 17 categories of highly polluting industries to install online continuous emission/effluent monitoring system and ensure connectivity of data to SPCBs/PCCs and CPCB servers.


CPCB directed SPCBs/PCCs to issue closure directions to existing industries falling under 17 categories of industries and common treatment facilities, commissioned on or before 28.02.2017 if found operating without installation and connectivity of OCEMS. SPCBs/PCCs were also directed to incorporate a specific condition of installing and connecting OCEMS before start of operation in the Consent Order (CTO) of a newly established industry falling under 17 categories of industries and common treatment facilities, commissioned after 28.02.2017.


During 2014-2022, out of 4247 industrial units, 3535 industries have installed and connected OCEMS to CPCB and SPCB server. The closure directions for remaining 712 industries are still in-force. The purpose of the direction was to create self-regulation and monitoring by the industries themselves for complying with the stipulated standards. Sector-wise status regarding connectivity of OCEMS is attached at Annexure-I.


From these OCEMS, real-time values of environmental pollutants of trade effluent and emissions from industrial units are transmitted online to the server of CPCB and concerned SPCB/PCC on 24x7 basis. Central software processes the data and in case of value of pollutant parameter exceeds prescribed environmental norms, an automatic SMS alert is generated and sent to industrial unit, SPCB and CPCB, so that corrective measures can be taken by the industry immediately and appropriate action can be taken by concerned SPCB/PCC.


There are total 4,433 highly polluting 17-categories of industries in the country. Appropriate actions are taken against non-complying units. State-wise status of 17 categories of highly polluting industries is given at Annexure-II.

Government has taken various initiatives towards control of pollution caused by industrial sector which are as follow:

Notification of industry-specific discharge standards under Schedule-I: ‘Standards for Emission or Discharge of Environmental Pollutants from various Industries’ of Environment Protection Act, 1986. SPCB and PCCs are mandated to ensure the compliance of these standards. So far, industry specific environmental standards, for about 80 industrial sectors, have been notified.  

The SPCBs/PCCs issue consent to establish/ consent to operate and authorization to the industries in the States. Also, the SPCBs/PCCs monitor the compliance of industrial emissions/effluent discharges and other operational activities according to the prescribed standards.

Since 2016, CPCB has started inspection of 17 categories of highly polluting industries on the basis of SMS alerts generated on violation of effluent and emission standards. In case of non-compliance, action against industry is taken under provisions of Water Act, 1974, Air Act, 1981 and Environment (Protection) Act, 1986.

The criteria for categorization of industries has been revised and directed all SPCBs/PCCs to adopt the same. 254 industrial sectors are categorized into red (61), orange (90), green (65) and white (38) categories.


Green Hydrogen Safety and Production: Implementing Safety Measures in Hydrogen Industry

$
0
0


Green Hydrogen Safety and Production: Implementing Safety Measures in Hydrogen Industry

As the world increasingly turns to sustainable energy sources, green hydrogen emerges as a pivotal player in the transition to a low-carbon economy. However, its production and utilization come with inherent safety challenges that cannot be overlooked. Lee Enterprises Consulting is at the forefront of addressing these concerns, advocating for rigorous safety measures within the hydrogen industry. Our latest article delves into the critical safety protocols necessary to mitigate risks associated with green hydrogen, ensuring a safe and efficient integration into our energy systems. Join us as we navigate the safe production and application of this promising energy vector.


Understanding Green Hydrogen Safety Protocols and Hazards

With the escalating transition to renewable energy, green hydrogen is stepping into the limelight as a promising, carbon-free fuel. However, as the industry expands, so does the necessity for stringent hydrogen safety protocols to safeguard against the innate hazards of hydrogen use. Safety measures tailored to green hydrogen production and utilization are critical in fostering a sustainable hydrogen economy. To ensure energy safety, stakeholders must acknowledge the risks and integrate safety procedures that are in alignment with the latest safety regulations.


Preventing a hydrogen ignition is optimal, as hydrogen has a wide flammability range. Thus, comprehensive safety measures, which include constant monitoring for leaks, are vital. The inherent risks of green hydrogen, such as its low ignition energy and high diffusivity, necessitate a thorough understanding of hydrogen hazards to mitigate potential accidents. At Lee Enterprises Consulting , part of our expertise lies in assessing these risks, implementing robust process safety systems, and conducting detailed risk assessments.


The Fuel Cell Technologies Office, an advocate of safe hydrogen and fuel cell advancements, emphasizes the significance of adopting safety measures that coincide with the dynamic nature of green hydrogen technology. Adhering to guidelines set forth by such agencies ensures green hydrogen can be safely integrated into energy systems. For instance, fuel cell technologies require careful handling due to the potent energy stored and the complexity of cell technologies. To prevent accidental ignitions, robust safety systems and proper training for personnel are indispensable.


Undoubtedly, ensuring safety in the production and utilization of green hydrogen is a multidimensional challenge. Facilities must be designed with safety at their core, integrating sensors and ventilation systems to detect and disperse hydrogen leaks. Employees must be trained in safety procedures that are in adherence to safety regulations that govern the industry, and frequent safety drills should be the norm. Implementing these safety measures is not just about compliance but also about cultivating a culture of safety awareness that permeates every level of operation.


In conclusion, Lee Enterprises Consulting recognizes the profound impact that comprehensive safety strategies can have on advancing green hydrogen as a sustainable fuel source. We are committed to guiding our clients through the intricate web of safety considerations, from process safety management to the meticulous development of safety procedures that mitigate hazards. Embracing an approach where risks are not only understood but preemptively managed, will ensure the safe proliferation of green hydrogen technologies. In doing so, we enable a future where green hydrogen becomes synonymous with not just clean energy, but with the highest standards of safety in the energy sector.


Advancing Hydrogen Production While Ensuring Energy Safety

The transition towards a sustainable future is deeply intertwined with the advancement of green hydrogen as a viable energy source. With burgeoning interest in green hydrogen, the hydrogen production industry is on the threshold of becoming a cornerstone of the global energy matrix. Paramount to this transformation is ensuring hydrogen safety – a vital aspect that Lee Enterprises Consulting takes seriously in steering the sector toward a risk-mitigated state. Implementing robust safety measures is crucial as we scale up hydrogen production, where energy safety isn’t merely a regulation but a foundational business ethic.


Green hydrogen production rests on the pillars of environmental stewardship, and energy safety protocols are instrumental in maintaining the integrity of both the product and the process. As we navigate the hydrogen industry’s evolution, the role of the Fuel Cell Technologies Office becomes increasingly significant. By pioneering advancements and setting industry benchmarks for safety, Lee Enterprises Consulting aligns with such bodies to harmonize energy safety protocols across the board. Ensuring safety in the green hydrogen arena means more than meeting standards; it involves a proactive approach to foresee risks and mitigate them before they manifest.


The implementation of safety measures must be as dynamic and innovative as the technologies we employ in hydrogen production. With fuel cell technologies advancing at a rapid pace, safety considerations must evolve concurrently to address the unique challenges posed by newer methods and uses of hydrogen. Lee Enterprises Consulting is committed to ensuring that safety measures keep pace with the technological strides made within the cell technologies domain. Our focus is not solely on advancing production but also on ensuring safety that matches the sophistication of these energy systems.


Echoing the holistic approach to green hydrogen, we emphasize the importance of an all-encompassing energy safety strategy. This spans the entire hydrogen production lifecycle—from the initial concept, through deployment, and into the long-term operational phase. Safety isn’t a one-time checkpoint; it’s a continuous commitment that threads through every stage of hydrogen production. Moreover, embracing safety measures in energy production doesn’t just safeguard operations; it fosters trust among stakeholders, regulators, and the public as we journey towards a green energy economy powered by hydrogen.


Lee Enterprises Consulting champions a safety-first philosophy, integrating safety into the DNA of every project. In the realm of green hydrogen, where the potential for energy advancement is boundless, ensuring safety remains our unwavering priority. As we continue to innovate within the hydrogen safety frameworks, it’s clear that our dedication to advancing production capabilities must be coupled with an equivalent dedication to energy safety. Together, these efforts underpin the resilience and sustainability of the hydrogen industry, ensuring that green hydrogen doesn’t just promise a cleaner future but also a safer one for generations to come.


Green Hydrogen: Revolutionizing Fuel with Safe Production Methods

The advent of green hydrogen signifies a monumental shift in the green energy landscape, presenting an innovative solution to complement renewable energy sources while reshaping our approach to fuel. At Lee Enterprises Consulting , we underscore the importance of safe production methods, knowing that the ascent of green hydrogen as a critical player within the renewable sector hinges not only on its environmental merits but equally on maintaining rigorous safety standards. Hydrogen production, particularly when aligned with green standards, involves handling highly flammable substances, thereby necessitating strict safety protocols to mitigate potential hazards.


Green hydrogen production is a beacon of hope for a sustainable future, and our commitment at Lee Enterprises Consulting extends to ensuring that every aspect of hydrogen’s journey from production to utilization adheres to the pinnacle of safety expectations. Our expertise and experience guide the implementation of cutting-edge safety measures across the hydrogen industry, with particular attention to the nuances of fuel cell technologies. The cell technologies office plays a pivotal role in the continual improvement and dissemination of knowledge pertinent to handling hydrogen safely.


As advocates for a greener planet, we recognize that the blossoming of the green hydrogen sector must not come at the cost of compromised safety. Thus, Lee Enterprises Consulting dedicates itself to pioneering safe production methods that align with the renewable ethos. Our strategies are tailored specifically to equip hydrogen production facilities with state-of-the-art equipment, designed to deal with the challenges inherent in handling this potent yet promising form of green fuel.


Integration of green hydrogen into our energy matrix is not only a boon for curbing greenhouse emissions but also a testament to human ingenuity in fuel innovation. Fuel cell technologies offer a glimpse into a future where clean, efficient energy is ubiquitous, and the role of technologies office in this transformation cannot be overstated. These entities are the vanguard, ensuring that the production of green hydrogen is congruent with stringent safety benchmarks, thereby fostering public trust and industry growth.


Indeed, the production of green hydrogen is an intricate balance between harnessing renewable energy and executing safe production methods. At Lee Enterprises Consulting , we are committed to the pragmatic advancement of green hydrogen solutions, where the sustainability of green energy harmoniously coexists with the rigid safety prerequisites of fuel production. Whether it’s through meticulous design, robust equipment, or comprehensive safety training, we’re steadfast in our goal to see green hydrogen become a cornerstone of our renewable future, uncompromising in both safety and ecological integrity.

Rich content results: Table

Rank Method Description Efficiency Pros Cons

1 Proton Exchange Membrane (PEM) Electrolysis Uses an electric current to split water into hydrogen and oxygen with a solid polymer electrolyte. High (60-80%) Fast response times, compact design, good for variable power supplies Expensive catalysts (platinum, iridium), requires pure water

2 Alkaline Electrolysis Electric current is passed through water containing an alkaline electrolyte, usually potassium or sodium hydroxide. Moderate (60-70%) Mature technology, uses non-precious metals Less efficient with intermittent power, requires caustic electrolytes

3 Solid Oxide Electrolysis (SOE) Conducts electricity through a solid ceramic electrolyte at high temperatures to produce hydrogen. High (80-90%) High efficiency, utilizes heat from external sources High operating temperatures, complex system management

Addressing Safety in the Green Energy Landscape

As we venture deeper into the green energy landscape, the emergence of green hydrogen as a clean fuel alternative has been met with enthusiastic support. However, the burgeoning hydrogen industry must contend with inherent safety concerns to protect both the workforce and the environment. At Lee Enterprises Consulting , our commitment to addressing safety is unwavering, with a proactive approach that places safety measures at the forefront of our operations. Harnessing green hydrogen’s potential in a safe and responsible manner hinges on adherence to stringent safety regulations and the rigorous application of safety procedures designed for high-energy equipment and production facilities.


Within the green hydrogen sphere, the Cell Technologies Office plays a pivotal role in advancing hydrogen safety, lending its expertise to develop cutting-edge safety protocols that mitigate risks at every turn. These safety regulations are not mere suggestions, but essential frameworks that ensure the most stringent industry standards are met. By integrating safety procedures with the advanced technologies that drive hydrogen production, Lee Enterprises Consulting safeguards the entire green hydrogen supply chain without compromising on performance or the promise of a greener climate future.


To address safety concerns head-on, it’s imperative that we not only rely on current safety measures but also look to the horizon for innovative solutions that may redefine energy safety. Green hydrogen, while a beacon of the green energy transition, is not devoid of challenges; thus, addressing safety in this context requires a multi-faceted strategy. Safety, safety, and more safety – this mantra reverberates through the corridors of Lee Enterprises Consulting , instilling a culture of vigilance and preparedness that spans from the production line to the executive suite.


Potential hazards must be anticipated and preempted with robust safety regulations, championing the cause of preemptive care rather than reactive measures. It is our responsibility as a leader in the energy sector to ensure that safety is not merely a box to be checked but a continuous journey towards excellence. The commitment to safety within the realm of green hydrogen is tantamount to our dedication to the broader green energy landscape. As proponents of green hydrogen, we at Lee Enterprises Consulting remain unyielding in upscaling safety measures, with an eye always set on the horizon of energy innovation and climate consciousness. When it comes to energy safety, rest assured that Lee Enterprises Consulting is not only responding to the needs of an industry but is actively revolutionizing fuel production methods to be as safe as they are efficient and sustainable.


Innovative Insights in Green Hydrogen Gas Handling and Standards

Lee Enterprises Consulting is dedicated to pioneering innovative insights in the ever-evolving hydrogen industry, particularly focusing on the burgeoning sector of green hydrogen. Our comprehensive approach to green hydrogen gas handling is informed by a deep understanding of the unique challenges and opportunities presented by this sustainable energy carrier. Safety measures are paramount in our operations, ensuring that hydrogen storage and transport comply with the stringent standards, which stand as a testament to our commitment to upholding top-tier safety regulations.


As we delve into the intricacies of green hydrogen, we recognize the critical importance of adhering to established safety procedures to mitigate any potential risks associated with hydrogen gas. Our strategies encapsulate the latest in fuel cell technologies office guidelines, integrating these cutting-edge cell technologies to elevate the standard for energy safety across the green hydrogen spectrum. We champion robust safety precautions that align with the fuel cell technologies office’s vision for a sustainable energy future, encapsulating the essence of innovation with rigorous standards for green hydrogen production and utilization.


Given the highly reactive nature of hydrogen, effective gas handling is not just a matter of compliance with safety standards; it is a core tenet of our operational ethos at Lee Enterprises Consulting . The standards – recognized internationally for their rigorous quality benchmarks in safety – are adeptly woven into our hydrogen storage protocols. These standards reinforce our dedication to minimizing risks and showcasing exemplary safety in the handling of hydrogen. We engage with energy experts and stakeholders, ensuring that our innovative insights into green hydrogen not only meet but exceed the expectations outlined by the most current standards.


With safety regulations continually evolving to accommodate new developments in hydrogen technologies, we are committed to staying at the forefront of change. This commitment to safety is especially salient as the application of green hydrogen widens, from powering vehicles to energizing entire industries with a cleaner fuel alternative. Hence, our expertise in green hydrogen positions Lee Enterprises Consulting as a crucial player in this energy transition, blending the latest insights with unwavering safety measures to foster the growth of a secure green hydrogen economy.


The safer production methods heralded by our team at Lee Enterprises Consulting underscore a broader trend to address safety within the green energy landscape. Drawing upon the breadth of standards laid out by the fuel cell technologies office, while actively engaging with the invaluable insights garnered from across the energy sector, we are setting a new paradigm in green hydrogen safety and production. As we continue to harness the transformative potential of green hydrogen, we remain vigilant in our commitment to safety, ensuring that the promise of this clean energy source is realized through meticulous and exemplary gas handling practices.


Rich content results: List

Ensure proper ventilation when handling hydrogen to prevent the accumulation of gas, which could lead to an explosive atmosphere.

Use appropriate personal protective equipment (PPE), such as safety glasses and flame-resistant clothing, to protect against potential hydrogen burns or explosions.

Store hydrogen in approved containers or tanks, and maintain equipment regularly to prevent leaks and ensure the integrity of the storage system.

Implementing Robust Safety Measures Across the Hydrogen Industry

At the forefront of the renewable energy transition, green hydrogen has emerged as a cornerstone in the quest for a sustainable future. However, as green hydrogen production scales up, enforcing robust safety measures becomes pivotal to maintaining the integrity and reliability of the hydrogen industry. Implementing safety measures is not only reactionary but a proactive approach to the nuanced facets of hydrogen safety. Manufacturing facilities engaged in the production of green hydrogen must align their operational procedures with the highest standards of safety regulations. Embodying a culture of safety procedures, these manufacturing plants prioritize the welfare of both the workforce and the environment.


The Fuel Cell Technologies Office, an expert entity in fuel cell and cell technologies, advocates for a stringent adherence to safety measures, underscoring their importance in the realm of hydrogen production. With their guidance, the hydrogen industry has incorporated an array of safety regulations into the fabric of green hydrogen production. These regulations serve as the foundation upon which facilities plan and execute their hydrogen safety protocols.


Education and expertise are pillars of implementing safety measures effectively. Hydrogen industry professionals must be well-versed in the intricacies of green hydrogen to enforce safety procedures seamlessly. The energy released in the production and usage of green hydrogen, while potent, demands respect and caution. Henceforth, green hydrogen has produced a paradigm shift, necessitating comprehensive safety measures and the continuous review of safety regulations to mitigate any potential risks involved.


Functional equipment is paramount in maintaining safety standards. It is vital that all equipment undergo rigorous checks and balances, ensuring that operations adhere to prescribed safety measures. In this vein, codes represent the blueprint of safety, acting as crucial benchmarks. Equipment that falls within these codes plays a critical role in the prevention of hazards. The transition to green hydrogen, while produced with the best intentions, is not without its risks. Therefore, a robust safety program must be an integral part of any green hydrogen facility to address these challenges head-on.


As an acknowledged expert in the field, Lee Enterprises Consulting offers a full suite of services to ensure that safety is never compromised. From operational safety to hydrogen safety training, our services envelop every aspect of the safety spectrum. Safety is not an afterthought

Monitoring Green Hydrogen Purity

$
0
0


Monitoring Green Hydrogen Purity | Hydrogen Gas Quality Measurement | Pure Green Hydrogen

As the quest for sustainable energy solutions intensifies, green hydrogen emerges as a vital player in the energy transition. However, the efficacy of hydrogen as a clean fuel hinges on its purity. The monitoring of green hydrogen purity is instrumental to its performance and longevity in fuel cell applications. In this article, we delve into the science of hydrogen gas quality and the advanced measurement techniques crucial for ensuring the highest standards of purity are met, thus safeguarding the integrity of our green energy future. Join us as we explore the critical role of precision in the domain of green hydrogen.


The Importance of Quality Measurement in Green Hydrogen Production

As the world pivots towards sustainable fuel alternatives, green hydrogen emerges as a vital player. Monitoring its purity is not just a preference but a strict requirement for ensuring the highest quality fuel. In the industrial production of hydrogen gas, the integrity of the production process is paramount. Thus, the quest for near-perfect hydrogen purity begins with meticulous monitoring and testing. It can’t be overstated how essential quality measurement is in green hydrogen production.


At Lee Enterprises Consulting , we understand that to monitor green hydrogen effectively, the purity level must be tracked relentlessly using state-of-the-art spectroscopy and other advanced testing methods. This guarantees that the pure hydrogen produced is indeed of the quality that industries and applications demand. In hydrogen production, the electrolyzer plays a key role in splitting water into hydrogen and oxygen; however, without proper control measures, impurities could compromise the gas quality.


Therefore, the process of hydrogen production demands a thorough testing regime. Our consultants specialize in setting up monitoring systems that continuously monitor the purity of hydrogen. By doing so, we ensure that the process hydrogen production is carried through with precision, and any deviation from the required purity standards can be immediately addressed. Monitoring green hydrogen, especially when intended for fuel, requires an intricate balance of technology and expertise.


The term “hydrogen gas quality and measurement” encompasses the various techniques employed to assess hydrogen purity. Whether in the lab or in field conditions, Lee Enterprises Consulting provides cutting-edge solutions for monitoring gas purity, thereby reinforcing the production cycle with unwavering quality assurance. Testing fuel purity is a critical aspect of maintaining high levels of efficiency and safety in applications such as transport, power generation, and industrial processes where pure hydrogen is pivotal.


The monitored purity of the hydrogen fuels not only underscores the production value; it also conveys a message of commitment towards excellence and environmental stewardship. Production process control is a fundamental aspect, where continuous view and adjustments ensure the resulting hydrogen meets the anticipated quality benchmarks. Hence, in green hydrogen production, it is not just the production that is important, but the encompassing ecosystem, including the application, monitoring, and control, all under the watchful eye of hydrogen purity measurement.


The responsibility to produce and provide quality fuel rests squarely on the shoulders of producers. Lee Enterprises Consulting champions this cause by advocating for robust purity systems for every step of the production process. When the green hydrogen meets the high standards set forth, it truly becomes a cornerstone in the pursuit of a sustainable and environmentally conscious energy future. To that end, our consultants assist with setting protocols to test, monitor, and confirm that the hydrogen produced is of premier quality and ready for its intended use.


Monitoring Green Hydrogen Purity: Hydrogen Gas Analysis and Fuel Test

As the momentum behind green hydrogen accelerates, it’s clear that ensuring the purity of hydrogen is paramount for its application as a clean energy fuel. With the advent of renewable energy sources, green hydrogen production has risen to prominence, offering a pathway to a sustainable future. Nonetheless, rigorous monitoring of this valuable gas is vital to maintain the high standards required for its use. Through continuous and meticulous hydrogen gas analysis, we can safeguard the integrity and purity of green hydrogen.


Monitoring hydrogen gas encompasses a series of scientific methods to view and track the exact composition of the gas produced. Since green hydrogen’s value lies in its purity, the monitoring process must be exacting and fail-proof. The purity of hydrogen is essentially its oxygen content and other impurities; these need to be kept at bay for hydrogen to serve effectively as a fuel. In the realm of hydrogen gas quality, testing every batch is non-negotiable.


Testing for purity involves a comprehensive fuel test that examines whether the hydrogen produced is indeed pure enough to be classified as green hydrogen. This monitoring guarantees that the hydrogen fuel meets stringent quality guidelines. Furthermore, the quintessential characteristic of hydrogen as a clean fuel lies in its purity. If compromised, the benefits of green hydrogen as an alternative energy source might be nullified. Hence, analysis of the gas is critical at every juncture of hydrogen production.


Lee Enterprises Consulting seamlessly integrates monitoring into the hydrogen production process, ensuring that the hydrogen gas churned out is constantly monitored. The measurement of purity is not taken lightly, as it is intimately connected with the fuel’s performance. The methods we employ for monitoring purity adapt to the rigorous demands of tracking the quality of green hydrogen. Our analytical prowess in testing hydrogen supports the industry’s pursuit of an impeccably pure fuel.


The process of monitoring green hydrogen includes specialized gas analysis equipment that has been carefully calibrated for precise measurement. Each test verifies that the purity of hydrogen aligns with the scientific benchmarks established. The repeated use of the keywords ‘monitor’ and ‘purity’ in industry discussions emphasizes their critical role in establishing green hydrogen as a reliable fuel source. Purity testing, and accurate monitoring of hydrogen gas, are the cornerstones upon which the trust in green hydrogen’s quality is built.


At Lee Enterprises Consulting , we understand that the repeated mention of ‘gas’ is not just a redundant emphasis but a reminder of the substance that’s being scrutinized. Gas quality can’t be understated, and as consultants, we continually stress the importance of using sophisticated monitoring tools. With an unwavering commitment to enhancing green hydrogen quality, Lee Enterprises Consulting stands at the forefront of ensuring that the pure, green hydrogen meets the anticipated promises of this fuel of the future. Thus, our expertise supports the full spectrum of purity analysis, from oxygen content to the tiniest of impurities, promoting a greener tomorrow through superior hydrogen monitoring solutions.


Advancements in Green Hydrogen Production: The Role of Water and Energy

The surge in demand for sustainable energy solutions has significantly underlined the importance of advancements in green hydrogen production. This process, instrumental to securing a low-carbon future, necessitates a rigorous understanding of the intricate relationship between water and energy. High-level advancement in hydrogen manufacturing technology has led to enhanced hydrogen purity, which is critical for efficacy in a wide range of applications. Making strides towards sustainable green hydrogen availability depends largely on optimizing water usage and process energy consumption, to ensure that the on-site production of this energy carrier leaves a minimal environmental footprint.


Leading the charge in this high pressure arena, Lee Enterprises Consulting stands at the forefront of scientific advancements that streamline the production process. By harnessing renewable energy services, we effectively manage the energy-water flux, thus contributing to the production of high-quality green hydrogen. Monitoring this energy-intensive process is no simple feat, requiring precision instruments to analyze hydrogen gas quality, fuel tests to guarantee standards, and meticulous attention to maintaining ideal concentration levels. Environmental consultancy services are paramount, as they provide the expertise necessary to fine-tune the operational parameters for optimal hydrogen purity.

Our commitment to excellence in green hydrogen production is complemented by our understanding of the role that water plays at various stages of production. Water is not only a principal ingredient in the production of hydrogen through electrolysis but is also a critical component for regulating temperature and ensuring the smooth functioning of equipment under high pressure. The push towards enhanced energy efficiency in hydrogen production demands advancements that not only scale production up but also seek to minimize the energy consumed throughout the process. Our competency in energy services is embodied in our dedication to promoting a sustainable production environment that is aligned with global energy trends.


With meticulous monitoring and an emphasis on the end-to-end purity of hydrogen, Lee Enterprises Consulting is contributing to the high-level advancement in green hydrogen we see today. This dedication ensures that every stage of production—from energy input to water optimization and hydrogen output—functions seamlessly to produce hydrogen that meets the stringent standards set for green energy carriers. Balancing the scales of water and energy, we lay the foundation for an energy future where green hydrogen plays a pivotal role. Our role in pioneering these advancements can’t be overstated, nor can the importance of monitoring and maintaining the purity of hydrogen throughout the production lifecycle to guarantee efficient and clean energy for a variety of applications.


Rich content results: List

Gas Chromatography (GC): Employing a gas chromatograph equipped with a thermal conductivity detector or a mass spectrometer to separate and analyze the components of the hydrogen gas mixture, identifying and quantifying any impurities present.

Fourier Transform Infrared Spectroscopy (FTIR): Utilizing FTIR spectrometry to inspect the hydrogen gas for the characteristic absorption spectra of impurities, which can indicate the presence and concentration of various contaminant molecules.

Dew Point Testing: Measuring the dew point temperature of the hydrogen gas to determine the amount of water vapor present, which can provide indirect information on the purity level of the hydrogen, since higher levels of contaminants can raise the dew point.

HORIBA Instruments for Hydrogen Quality and Purity Monitoring

At the forefront of green hydrogen production, the imperative to ensure the highest standards in hydrogen gas quality and purity can’t be overstated. Lee Enterprises Consulting recognizes the intrinsic value of precision in this realm, which is precisely why HORIBA’s instruments are integral to monitoring these critical parameters. Through sophisticated analysis and testing, HORIBA helps maintain the purity of hydrogen, thereby safeguarding its role as a sustainable fuel source. The application of HORIBA’s instruments spans various aspects of hydrogen production, from manufacturing to the point of delivery, asserting an unwavering commitment to quality and safety.

The need for thorough hydrogen purity and quality monitoring is essential, as even minimal contamination can compromise the efficiency of fuel cells. HORIBA’s scientific prowess is evident in its high-flow instruments, which seamlessly monitor hydrogen purity levels. These devices offer robust support to ongoing quality control, with a focus on real-time measurement and analysis. The incorporation of Raman spectroscopy in some of HORIBA’s instruments allows for precise detection of even trace levels of impurities, such as oxygen, while also enabling pressure control and flow level regulation.

Hydrogen gas analysis is a cornerstone of HORIBA’s services; their testing equipment is specifically designed to handle the high-pressure and high-purity conditions characteristic of hydrogen fuel applications. Ensuring the correct concentration of hydrogen is maintained is not only critical for performance but also for compliance with the stringent safety standards set within the industry. HORIBA’s products are regularly used to monitor and test hydrogen quality, contributing to the reliability of green hydrogen as an energy vector. On-site support from HORIBA further complements their expansive catalog of products and services, facilitating a seamless integration into existing hydrogen production operations.

For quality measurement to be effective, it must be continuous. HORIBA ensures continuous monitoring through instruments that provide continual feedback on the hydrogen’s purity levels. Every variation in purity is promptly identified and could be addressed to ensure the hydrogen meets the necessary specifications for advanced applications. In the realm of green hydrogen production, the critical role of water and energy can’t be discounted, as these inputs directly affect the final purity of the hydrogen gas produced. HORIBA’s instruments are adept at handling these variables, ensuring that the hydrogen produced is of the highest quality and ready for end-use.

In conclusion, the instruments provided by HORIBA are indispensable for those who prioritize quality, control, and safety in green hydrogen production. As Lee Enterprises Consulting , we stand by the reliability and precision of HORIBA’s comprehensive range of instruments and are poised to offer insights and support to any entity engaging in the advanced manufacturing of hydrogen. With our site-specific solutions and unwavering support, we aim to ensure that the purity and quality of hydrogen are rigorously monitored and maintained at the highest levels, in line with global fuel standards.


In summary, the imperative of monitoring green hydrogen purity cannot be overstated. Ensuring the requisite quality of hydrogen gas is critical for the optimal performance of fuel cells and to guarantee the safety and efficacy of hydrogen as a clean energy carrier. As the industry continues to evolve, advanced measurement techniques are increasingly becoming essential tools. At Lee Enterprises Consulting , we remain at the forefront of providing innovative solutions for monitoring and analysis, supporting the transition to a sustainable energy future. Monitoring is not just about maintaining standards; it’s about upholding a commitment to environmental stewardship and operational excellence.


Q: What is the importance of green hydrogen purity in the context of sustainable energy solutions?

 A: The purity of green hydrogen is paramount for its effectiveness as a clean fuel, especially when used in fuel cell applications where impurities can impair performance and longevity. Ensuring high standards of green hydrogen purity helps to safeguard the integrity of our green energy future and is essential for maintaining high levels of efficiency and safety in its various applications. 

Q: How does Lee Enterprises Consulting ensure the quality of green hydrogen produced? A: Lee Enterprises Consulting uses state-of-the-art spectroscopy and advanced testing methods to continuously monitor and track the purity levels of green hydrogen. We specialize in setting up monitoring systems that can detect any deviation from required purity standards and ensure that hydrogen production processes are carried out with precision. This guarantees that the hydrogen produced meets the demanded quality

. Q: What does hydrogen gas quality and measurement encompass? A: Hydrogen gas quality and measurement refer to the various techniques used to assess the purity of hydrogen gas. This involves sophisticated analytical methods to verify that the concentration of oxygen and other impurities is within strict thresholds set for green hydrogen. Each test ensures the hydrogen meets stringent quality guidelines and is fit for its intended applications. 

Q: Why is rigorous monitoring of green hydrogen production so vital? A: Rigorous monitoring is vital because even minimal impurities can severely compromise the efficiency of hydrogen as a fuel source, particularly in fuel cells. The ongoing quality control, facilitated by precise detection and real-time analysis, helps maintain the purity necessary for hydrogen’s performance, safety, and compliance with industry standards. 

Q: How does Lee Enterprises Consulting support advancements in green hydrogen production from an environmental consultancy perspective? 

A: Lee Enterprises Consulting offers environmental consultancy services that provide the expertise necessary to optimize production parameters for ideal hydrogen purity. We focus on managing the water-energy flux and minimizing the environmental footprint of hydrogen production. Our comprehensive support and commitment to sustainable practices help ensure that green hydrogen remains a high-quality energy carrier.



The factories act 1948

$
0
0

 The Factories Act of 1948 covers a variety of topics related to factory safety and worker welfare, including:

Working hours

The act includes provisions for working hours, weekly holidays, and rest intervals. It also prohibits overlapping shifts and restricts the employment of young children. 

Safety

The act requires that factories provide a safe and healthy working environment for employees. This includes ensuring that the factory has safe plant and systems, and that workers are properly trained and supervised. 

Annual leave

Workers who have worked at least 240 days in a factory are entitled to paid leave. The amount of leave depends on the worker's age, with adults receiving one day of leave for every 20 days worked, and children receiving one day for every 15 days worked. 

Child labor

The act prohibits children under the age of seven from working, and requires factories to establish a Child Labour Committee to regulate the employment of 14–18 year olds. 

Welfare

The act requires factories to provide facilities such as canteens, shelters, rest rooms, lunch rooms, and creches. 

Administrative measures

The act provides for the appointment of labor officers to ensure that the act is followed, and for the establishment of welfare funds in factories. 

The first Factories Act was passed in 1881 to improve the conditions of factory workers and reduce their working hours. 

Rules - Chemical accident rule

$
0
0

 The Chemical Accidents (Emergency Planning, Preparedness and Response) Rules, 1996 include provisions for the management of chemical accidents, such as:

Crisis groups

The rules require the formation of District Crisis Groups and Local Crisis Groups within 30 days of the rules coming into effect. The District Crisis Group meets every 45 days and sends a report to the State Crisis Group. The Local Crisis Group meets every month and sends a copy of its proceedings to the District Crisis Group. 

Central Crisis Group

The Central Crisis Group is the apex body for dealing with major chemical accidents. It monitors the post-accident situation, suggests measures to prevent future accidents, and provides expert guidance. 

Major accident notification

The occupier of a site or pipeline must notify the concerned authority within 48 hours of a major accident. They must also provide a report on the accident in installments as needed. 

Safety reports

Occupiers must not make any modifications to the industrial activity covered by a safety report without first making a further report and sending it to the concerned authority. 

Chemical accidents can be caused by natural disasters, human error, or deliberate acts. They are generally industrial-scale accidents that can have significant offsite consequences. 

To prevent chemical accidents, you can:

Avoid mixing chemicals, especially common household products like ammonia and bleach.

Read and follow the directions when using a new product.

Don't use some products in small, confined spaces. 


Here are some rules related to chemical accidents:

Notifications 

The occupier of a chemical accident must notify the Chemical Accidents Unit within 24 hours of the incident and submit a report within 72 hours. 

Emergency planning

The Central Government must establish a Crisis Alert System and a Central Crisis Group for managing chemical accidents. 

Safety management

The Government of India has enacted rules such as the EPPR Rules, MSIHC Rules, SMPV Rules, CMV Rules, Gas Cylinder Rules, and Hazardous Waste Rules to strengthen the legal framework for chemical safety and accident management. 

Safety procedures

During a chemical accident, you should:

Evacuate quickly and calmly in a direction perpendicular to the wind. 

Use a wet cloth or handkerchief to cover your face while evacuating. 

Do not panic. 

Some other safety tips for handling chemicals include:

Wearing protective clothing, gloves, eye protection, and face protection

Washing thoroughly after handling chemicals

Storing chemicals in a locked area

Keeping chemicals in their original containers

Avoiding breathing dust, fumes, gas, mist, vapors, or spray 


Static and mobile pressure vessels

$
0
0

 Static and mobile pressure vessels are vessels that store gases or liquids at a pressure higher than atmospheric pressure. The Static and Mobile Pressure Vessels (Unfired) Rules, 2016, govern the design, fabrication, and use of these vessels. Some of the topics covered by these rules include: 

Design and fabrication

Codes for pressure vessels, cryogenic pressure vessels, and safety relief valves 

Testing and examination

Procedures for periodic testing of pressure vessels, safety relief valves, and other safety fittings 

Markings

Requirements for markings on pressure vessels, including the manufacturer's name, design pressure, and date of the initial hydrostatic test 

Periodic testing

Requirements for periodic testing of pressure vessels in service, including precautions to be observed 

The rules also define a "competent person" as someone who is recognized by the Chief Controller to perform tests, examinations, and certifications

Draft Static and Mobile Pressure Vessels (Unfired) Rules (Amendment), 2024

$
0
0


May 17, 2024 | by TeamLease 

The Ministry of Commerce and Industry (MoCI) on May 07, 2024, issued Draft Static and Mobile Pressure Vessels (Unfired) Rules (Amendment), 2024, to further amend the Static and Mobile Pressure Vessels (Unfired) Rules, 2016.


The following has been stated namely: -


• In rule 2, which states "Definitions" new sub-rules shall be inserted - 


o (via) "Bulk hydrogen compressed gas system"


o (vib) "Bulk liquefied hydrogen system"


o (vic) "Bulk Hydrogen Supply System"


o (viiia) "Compressed Hydrogen Gas (CHG))"


o (viiib) "Compressed Hydrogen Gas Dispensing station” 


o (xixa) "Electrolyser”


o (xxviia) "Green Hydrogen”


o (xxviib) “Hydrogen Generation System"


o (xxviic) “Hydrogen Storage System”


o (xxxa) “Liquefied Hydrogen (LH2)”


o (xxxiiia) “Non bulk hydrogen compressed gas system”

• In rule 2, sub-rule (xv) which states the definition of "Gas Cylinder or "Cylinder", shall be substituted with "Cylinder" or "Gas Cylinder" means any closed metal container having a volume exceeding 500 ml but not exceeding 1000 liters intended for the storage and transport of compressed gas, including any liquefied petroleum gas (LPG) container or liquefied natural gas (LNG) container or compressed natural gas (CNG) cylinder or compressed hydrogen gas (CHG) cylinder fitted to a motor vehicle as its fuel tank but not including any other such container fitted to a special transport or undercarriage and includes a composite cylinder and cryogenic container, however, the water capacity of cylinder used for storage of CHG, CNG, nitrogen or compressed air, etc., may exceed 1000 liters up to 3000 liters provided the diameter of such cylinder does not exceed 60 cm;

• In rule 31, sub-rule (1) which states "No electrical wire shall pass over any storage vessel" after the word “vessel”, the words “or any part of the premises licensed under these rules.”, shall be inserted.

• In rule 49, sub-rule (4) after the word and numerical “LS-2B”, the word and numerical “, LS-1D”, shall be inserted.

• In rule 51, sub-rule (1) after the word and numerical “or LS-1C” the words and numerical “or LS-1D”, shall be inserted.

• In rule 55, sub-rule (2) after the words and numerical “, LS-1C”, the words and numerical “, LS-1D”, shall be inserted.

• After Schedule IV, a new Schedule “SCHEDULE V - LH2 Storage, Handling, Transportation, Operation, Maintenance, and Dispensing" shall be inserted.

The Objections or suggestions, if any, with respect to these draft rules shall be taken into consideration by June 13, 2024, and may be sent by post to “Deputy Secretary (Explosives), Department for Promotion of Industry and Internal Trade, Ministry of Commerce and Industry, Room No. 204, Vanijya Bhavan, New Delhi – 110001” or Email at expl-dipp@nic.in. 

Kindly refer to the document for all the amendments made to the rules.

[Notification no. - G.S.R. 272(E)]

 View the document

Central EHS Ministry of Commerce and Industry Update Central EHS Explosives Act 1884 and Static and Mobile Pressure Vessels (Unfired) Rules 2016 Update


Global meet may see India push for a ban on single-use plastics: CSE

$
0
0

Global meet may see India push for a ban on single-use plastics: CSE

CSE team to attend INC-5 session on ending plastic pollution globally; meeting being held in Busan, South Korea from November 25-December 1

Global meet may see India push for a ban on single-use plastics: CSE


India could lead the world towards the development of a global criteria for single-use plastics ban, researchers from Delhi-based think tank Centre for Science and Environment (CSE) said in a statement on November 23, 2024.


The statement comes as the international community prepares to converge on Busan in South Korea next week for the fifth Intergovernmental Negotiating Committee session (INC-5) on ending plastic pollution.


A team of CSE researchers, who have closely followed the negotiations through the years, will be in Busan to attend INC-5.

Four phases of INC

In March 2022, the world had come together to agree on a ground-breaking United Nations Environment Assembly (UNEA) resolution 5/14 to “End Plastic Pollution”. The resolution mandated the creation of the INC to arrive at a legally binding instrument.

After four rounds of negotiations in Punte Del Este, Paris, Nairobi and Ottawa, this fifth and final round of negotiations in Busan — between November 25 and December 1, 2024 — is where the member states are expected to try and build consensus on a host of issues related to plastic pollution.


According to the United Nations Environment Programme, problematic, unnecessary and avoidable (single-use) plastics represent 36 per cent of the plastic production in the world. Of this, an estimated 85 per cent is mismanaged — which means they end up in the environment and pollute it.

“141 countries across the globe have banned or restricted some form of plastic products, indicating a high willingness among member states to take action. However, inconsistencies in regulations across countries or provinces and states have rendered the implementation of these bans more challenging than anticipated,” Sunita Narain, CSE director general, was quoted as saying in the statement.

India’s role till now

India introduced a resolution in UNEA 4, aimed at “ending single-use plastic product pollution.” Atin Biswas, programme director, Solid Waste Management and Circular Economy, CSE, said: “The country is positioning itself as a leader in efforts to eliminate single-use plastics at both regional and national levels.”

In 2019, the Government of India had developed a criteria-based framework to identify problematic and unnecessary single-use plastic products. A total of 40 single-use plastic products, including carry bags, small plastic bottles, intravenous (saline) bottles and tea bags were evaluated using this criteria-based method — which was then used to phase out 19 single-use plastic items that were banned from production, stocking, distribution, sale, and use from the Indian market.

Added Biswas: “The criteria developed by India, guided by its ministry of chemicals and fertilisers, along with support and inputs from other member states advocating for a global criteria-based approach, can serve as a foundation for creating a comprehensive, logical, and science-based global framework for problematic, unnecessary, and avoidable plastic products including single-use plastic products.”

At the INC meetings, a criteria-based approach has been advocated by many countries. “Overall, the idea of developing and embracing global criteria for problematic, unnecessary, or avoidable plastic products under the international legally binding instrument on plastic pollution enjoys support from at least 70 member states,” said Siddharth G Singh, programme manager, Solid Waste Management and Circular Economy, CSE.


CSE’s analysis of the existing Indian criteria for problematic and mismanaged single-use plastic and those proposed in the Report of the Co-Chairs of the ‘Ad hoc intersessional open-ended expert group’ reveals significant alignments and overlaps between India’s national ban framework and the global ban proposals from these countries.


“Commonalities include criteria such as littering propensity, environmental impact, recyclability, essentiality, collectability, and availability of alternatives. India's approach additionally considers aspects like product safety and social and economic impacts,” Singh said.

The third version of the INC Chair’s non-paper notes that Article 3 on Plastic Products (and Chemicals) of Concern could incorporate criteria for identifying specific (short-lived and single-use) plastic products. It also outlines a proposed process or framework for the Conference of Parties (COP) to identify additional plastic products subject to regulation and establish a process for reviewing the list.

Harmonisation and creating a level playing field for businesses would be a step to avoid unnecessary economic costs.

“The significant alignments indicate that the groundwork for global consensus is already in place. By building on these shared principles and drawing from successful national models, the international community can establish a cohesive, science-driven approach to ensure global consistency in tackling problematic, unnecessary and avoidable single-use plastic products,” Narain said.