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Indian Oil LNG Private Ltd – Various Openings

Indian Oil LNG Private Ltd, a JVC of Indian oil Corporation Ltd, is operating a 5 MMTPA LNG import, storage and Re-gasification terminal Inside kamarajar port, Chennai.

Application are Invited from dynamic and experienced Engineers & diploma holders (Instrumentation & control, electrical, Chemical/Petrochemical, Mechanical, Civil and HSE/ fire & safety) and professionals in the field of contract & Procurement and Human Resources for Operations and maintenance of the terminal.

For detailed advertisement and submission of online application please visit our website: https://indianoiling.com/careers from 17.07.2019 onwards and the last date of receipt of application: 31.07.2019

Addendum/Corrigendum, if any, shall be notified in company’s Website only

Mangalore Refinery and Petrochemicals Limited – Multiple Openings

Recruitment of Professionals In Management Cadre

Mangalore Refinery and Petrochemicals Limited (MRPL), a Schedule ‘A’ Mini Ratna Central Public Sector Enterprise and subsidiary of ONGC; India’s top energy company, has openings for bright energetic and aspirant professionals.

MRPL invites applications from the eligible Indian Nationals for the following Positions:

Sr Position Grade Scale of pay No of post Category
1 Chief Manager (Human Resources) E 100000-260000 1 UR-01
2 Chief Manager (Marketing Operations E 100000-260000 1 SC-01
3 Senior Manager (Medical Services) D 90000-240000 1 UR-01
4 Manager (Human Resource) C 80000-220000 2 UR-02
5 Assistant Manager (Safety) B 70000-200000 1 OBC(NCL)-01
6 Assistant Manager (Human Resource) B 70000-200000 2# UR-02
7 Assistant Manager (System Administrator) B 70000-200000 1 UR-01
8 Executive (Finance) A 60000-180000 2 UR-01, SC-01

 

* UR-Un-Reserved, SC- Scheduled Caste, OBC- Other Backward Class (NCL- Non-Creamy layer).

# One post of Assistant Manager (Human Resource) is reserved for Visually Handicapped (Low Vision) category.

Candidates are required to apply online only.

Please visit our website www.mrpl.co.in and refer ‘Human Resource’ Careers for further details.

Pre-Monsoon Precautions in the Chemical Industry

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India has seasonal monsoon lasting from June to September. Although monsoons bring rains and relief from the summer heat, it also brings risks associated with safety, especially in the chemical industry. Hence, as the rainy season gets underway, it is good to review these safety tips.

Collection of First Rainwater: There are possibilities that the stormwater within the premises of a chemical industry during the first seasonal rains is contaminated with chemicals which may have spilt over the year. Hence it is preferred that the first 50 mm of rainwater must be diverted to the wastewater treatment plant in order to eliminate chemical contamination or it should be collected preferably in a stormwater pond and analyzed for chemical contaminants, if any, before letting it out of the factory premises. This ensures that the surrounding water reservoirs, aquatic species and domestic animals are not endangered.

Storage Facilities for Water Reactive Chemicals: Water-reactive chemicals can release toxic gases on reacting with water that can disperse into neighbouring areas leading to an emergency. Hence, all such storage tanks must be checked thoroughly for leaks from flanges, joints, instruments and associated piping so that rainwater droplets do not enter in these tanks. Roofs of such storage facilities must also be tested for any pinhole leakages prior to the monsoons as a part of a preventive maintenance plan.

Electrical and Lightening Hazards: Heavy and constant rains are reasons for high humidity, dampness, and moisture, which can harm electrical appliances. This allows the growth of fungus and mould – two of the things that could cause damage and increase the probability of electrical hazards such as electrocution. The only way to prevent this from happening is to clean your appliances regularly with a dry, clean cloth and inspect their parts for safety. Make sure that the wires, plugs, and switches are in good, working condition. If not, consider having them repaired or replaced.

Further, no place outside is safe from lightning during a thunderstorm. In industry, it is of utmost importance to ensure that all the buildings, storage tanks and structures are protected either by an adequately designed lightening arrester or are inherently self-protected by earthing to avoid any catastrophic failures due to lightening.

Structural Stability of Buildings and Structures: Storms/cyclones with high wind intensities are common in India during monsoons. Old buildings and structures, which have deteriorated over years due to the corrosive atmosphere in and around a chemical industry, can collapse due to these conditions. Hence, all such structures must be identified and checked for structural strength and stability as their failures can lead to immediate loss of life and lead to an emergency in the surrounding area.

Water Logging: Water logging can happen if the roads are uneven, near and inside excavation work or if stormwater drainages are blocked. This can also lead to scenarios of tank dykes full of water during monsoons leading to unsafe conditions. Proper systems need to be in place to clear all stormwater drainages prior to the rainy season and all excavation areas must be hard barricaded prior to monsoon. Also, all drainage covers must be checked for their strength and not left open.

Health Precautions during Monsoons: The rainy season is the perfect breeding ground for germs and bacteria which in turn lead to water & vector-borne diseases. Health problems such as cold, flu, malaria or gastroenteritis are common in monsoons. It is the time when dirty water mixed with sewage and soil can cause infections. Overflowing groundwater can contaminate tap water too. It is important to make drinking water safe by boiling, filtering and by using ultraviolet purifiers to ensure its purity or just stick to bottled mineral water to protect yourself against water-borne diseases. Prevent stagnation of water near your house & work area, in flowerpots, coolers etc. All sources of water such as wells and storage tanks should be covered and cleaned to avert breeding of mosquitoes and prevent mosquito-borne diseases. Use insect repellents, disinfectants and take precautions to stay away from mosquitoes, flies, cockroaches and termites.

At the end of the day, safety is the best return on investment for every second spent on re-assessing or upgrading your environment around you.

Author’s Bio:

Narendra K Shah (Masters in Organic Chemistry, Diploma in Chemical Engineering) is a Director & Site Manager of Bayer Vapi Private Limited since December 2014.

Before joining Bayer’s Ankleshwar site as a Site Manager in 2011, Shah has worked as the Vice-President of Bilag Industries Pvt. Ltd.  in 2006 handling 7 plants under him. In 2013, he worked with the Operational Excellence Team, Bayer AG, Germany, and then took over as a Director at Bayer Vapi in 2015.

Deeper Insights on Sustainability – Dr. Swaminathan Sivaram

Deeper Insights on Sustainability

Views of World-Renowned Scientists and Sustainability Advocates

In the last edition (3rd) of Chemical Industry Digest Annual on Sustainability, we had views from leading chemical industry CEOs, defining the different dimensions of sustainability in the chemical industry.
This time, for this 4th edition of the Sustainability Annual, Chemical Industry Digest, quizzed leading scientists and sustainability advocates on adoption and incorporation of sustainability practices in the hydrocarbon, chemical and allied industries.
Their responses published here provide deep insights on the subject.
The gist of it is that the chemical industry has to move quickly beyond environment-friendly processes and embrace proactively and wholeheartedly the principles of sustainability and incorporate it in business and industry.
This needs a huge transformational shift in mindsets and attitudes from top management to virtually all other personnel in the chemical industry. And it has to roll all along the entire manufacturing value chain from suppliers to the end-users. Equally, it would need transformational changes in business and manufacturing models. If looked at positively it will drive innovation and concomitantly open up new vistas in business opportunities.
Chemical Industry Digest has been privileged to obtain views of India’s leading and internationally renowned scientist and here Dr S Sivaram’s views on sustainability.


Dr Swaminathan Sivaram
INSA Senior Scientist and Honorary Professor, Indian Institute of Science Education and Research &
Former Director of National Chemical Laboratory

Chemical Industry Digest (CID): Experts state that the survival and future of the chemical industries would depend on how quickly the industry adopts sustainability as its main principle or operating theme. To what extent is this a critical factor? Can the industry adopt sustainability incrementally? Do they need to totally revamp? Would they have to change their manufacturing & business models?

Dr Swaminathan Sivaram (SS): Embracing sustainability is certainly critical to the future of the chemical industry. Principles of sustainability must be firmly embedded in the operational philosophy of the chemical industry, large or small. For large and listed companies, this is even more important. Often practising principles of sustainability is considered as a cost; however, it must be really considered as insurance for future survival. Implemented with thought, it can also lead to an improvement in the bottom line of companies. In my opinion, sustainability adoption has to be incremental, with a clearly planned strategy for implementation. Well-defined annual plans with measurable targets must be laid out to make industry operations sustainable. Such incremental adoption strategy will make the process less disruptive. Depending on the business and the current levels of sustainability, companies may have to tweak their manufacturing and business models. In the end, sustainability is a classic problem of the “Tragedy of the Commons”, where everyone tries to maximize his/her personal gain based on perfectly good and logical reason, but collectively create damage to the eco-systems. Sustainability is also a problem related to how we handle our increasing desire for material consumption for enhancing our quality of life in a world of diminishing resources.

CID: An integrated approach always provides the best results in any area. What should be the elements of such an integrated strategy to implement sustainability in the chemical industry?

SS: Elements of an integrated approach to sustainability are (a) a clear understanding of what “sustainability” means in the context of a given business (b) defining specific components of sustainability (c) understanding the current levels of each of the component and the desirable target levels to be achieved (d) mapping the sustainability journey in terms of plans, budget, manner of implementation and defining measurable indicators of performance (e) and setting internal processes to measure the cost to benefit ratio. The battle against sustainability can be won only when a company realizes that its adoption has brought tangible benefit to the company.

CID: Currently most of the chemical industry is in the ‘take-make-dispose’ mode of manufacturing. Can this shift to a cradle to cradle (circular) manufacturing or stepwise by first getting into greener processes with less environmental distress & then into circular manufacturing. Are circular processes feasible? – only in some cases or majorly?

SS: Circularity is a key component of sustainability. Zero-waste and zero-discharge processes can be implemented only when the concept of circularity is accepted. Like in many other activities, the journey begins once we embrace the philosophy of sustainability. The road to circularity will not be linear; it will have to go through many side alleys, with small improvements. One should not be weighed down by the thought of achieving complete “circularity”. In some case, even partial circularity is better than none at all.

CID: If chemical companies have to revisit their manufacturing processes to make them on sustainable lines, which areas should they start in the manufacturing cycle & how: Products (Restructuring product portfolios)? Processes (Green Chemistry)? Plant & Equipment (Improving Efficiency)? Starting Materials (Biomass/Renewables)? Any other?

SS: The manufacturing industry has to relook at all its processes. However, one is not advocating that they change it all at once. This is not practical because of sunken investments. One of the thought experiments that every industry can undertake is to ask: If we were to build a new manufacturing facility today, keeping in mind the goal of circularity and sustainability, how should we do it? How should my flow sheet ideally look like? How can I maximize output with minimum inputs of materials, energy and water? How should my wastes and byproducts be used to create additional wealth? What kind of process improvements is needed? If my final output is a product, how will I design it a priori to meet the needs of circularity? Such thinking will lead to solutions that can be implemented even within the constraints of existing manufacturing technologies. In addition, sustainability goals have to be extended to the entire supply chain. Manufacturers have to take responsibility for the products after their use. Labelling and information sharing with consumers must become open and transparent.

CID: Since innovation is needed across the manufacturing value chain to achieve sustainability, can the advent of Industry 4.0 technologies (IoT, Artificial Intelligence, Machine Learning, Data Analytics etc) give a fillip to accelerate innovation/sustainability.

SS: Digital and Industry 4.0 technologies are critical to any industry of the future; however, adopting these technologies alone will not serve the cause of sustainable manufacturing. The latter will require new ways of thinking based on our understanding of chemistry and chemical engineering and devise efficient new process technologies suited specifically for the needs of the specific industry. Digital and industry 4.0 technologies are tools. Sustainability goal is a process.

Sustainability cannot be merely reduced to a problem in science and technology. Before implementing any solution deep thought and analysis are required. We still lack adequate tools and disciplined processes to define the “unintended consequences” of any new solution.

CID: Do you think there is sufficient awareness of the importance of sustainability in the industry from top management to employees. Any additional steps required to increase awareness and convert awareness into action?

SS: I tend to believe that there is sufficient awareness amongst the chemical industry leaders on the importance and relevance of sustainability and its criticality to the survival of the business. However, whether the message has trickled down to the employees is doubtful. The chemical industry is at a crossroads today and is often the whipping boy for all the ills of the society. Increasingly, the license to operate a chemical industry needs to be obtained from the citizens and the community, not the Government or regulatory bodies. Informed citizens have the power to shut down what they believe are processes with a poor record of sustainability and they have shown it so in recent times, even in India. If the chemical industry has to regain its trust amongst the community, it has to behave more responsibly and communicate more effectively than they are equally, if not more, concerned about the negative impact of chemical manufacturing.

Sustainability is ultimately a new way of thinking and doing. This requires a change in mindsets and significant “social engineering”. Embedding all dimensions of sustainability in undergraduate science and engineering education will be important to create a new generation of people who think differently. A beginning has already been made in many Universities abroad. In India, too various institutions are planning to introduce a structured curriculum in chemistry and chemical engineering to impart knowledge on “sustainability” thinking. There is also a need for industry personnel to be educated through short courses on this subject, so there is a common understanding on the principles of sustainability and the methods and tools available to achieve the goals.

CID: While there are the Dow Jones Sustainability Index & other Indices by professional bodies like AIChe, what according to you should be the benchmarks for measuring sustainability? To what extent does obtaining a good rating facilitate a company’s business?

SS: There are a plethora of indices to measure sustainability. While they provide guidance, these indices have no absolute significance. Every company must devise their own internal metrics for the processes they operate. Sustainability is driven by an inner conscience which values social responsibility and places it above all other considerations. It is in effect an ethical statement. Therefore ratings are, in my opinion, less important.

ISO has issued ISO 26000 as broad guidance on social responsibility and sustainability. More than ever, both consumers and manufacturers recognize the impacts of their choices and actions. In the past, many of the costs of doing business were hidden; now ISO standards allow them to be quantified and factored into decision-making processes. This means more responsive and responsible businesses. These ISO standards enable businesses to plan their future growth around meeting consumer expectations. They enable transparency about products and best practices for limiting their negative impacts.

A sustainable future means balancing the needs of the environmental, social and economic systems. Every organization is increasingly expected to play a significant role in achieving this. With over 450 recommendations that directly impact the Sustainable Development Goals, ISO 26000 provides guidance on how businesses and organizations can operate in an ethical and transparent way that contributes to sustainable development.

Deeper Insights on Sustainability – Dr R A Mashelkar, FRS

Deeper Insights on Sustainability

Views of World-Renowned Scientists and Sustainability Advocates

In the last edition (3rd) of Chemical Industry Digest Annual on Sustainability, we had views from leading chemical industry CEOs, defining the different dimensions of sustainability in the chemical industry.
This time, for this 4th edition of the Sustainability Annual, Chemical Industry Digest, quizzed leading scientists and sustainability advocates on adoption and incorporation of sustainability practices in the hydrocarbon, chemical and allied industries.
Their responses published here provide deep insights on the subject.
The gist of it is that the chemical industry has to move quickly beyond environment-friendly processes and embrace proactively and wholeheartedly the principles of sustainability and incorporate it in business and industry.
This needs a huge transformational shift in mindsets and attitudes from top management to virtually all other personnel in the chemical industry. And it has to roll all along the entire manufacturing value chain from suppliers to the end-users. Equally, it would need transformational changes in business and manufacturing models. If looked at positively it will drive innovation and concomitantly open up new vistas in business opportunities.
Chemical Industry Digest has been privileged to obtain views of India’s leading and internationally renowned scientist, Dr R A Mashelkar.

Dr R A Mashelkar, FRS
National Research Professor & Former Director-General of CSIR

Dr R A Mashelkar

Chemical Industry Digest (CID): Experts state that the survival and future of the chemical industries would depend on how quickly the industry adopts sustainability as its main principle or operating theme. To what extent is this a critical factor? Can the industry adopt sustainability incrementally? Do they need to totally revamp? Would they have to change their manufacturing & business models?

Dr R A Mashelkar (RAM): I strongly believe the industry needs solutions that are no longer just environment-friendly but fundamentally shift the paradigm and address both the ecology and the economy. The market for “green” chemistry is already expected to reach $100 billion globally by next year. The chemical industries no longer have the luxury of adopting sustainable goals incrementally, they have to innovate and adopt breakthrough solutions. As I have mentioned on multiple occasions, leapfrogging is no longer an option, the chemical industry must pole vault. The digital revolution is another critical enabler which can provide a plethora of solutions for driving sustainability.

India, in particular, needs to jump the development cycle – and we have done this many times in different industries. For example, we jumped the landline generation and went straight to the mobile phone era. Today, we have the same opportunity with power generation – we could transition from predominantly coal to the optimum mix of renewable energy and non-renewable energy. Also, the Indian chemical industry must strive to become the world leader in setting the sustainability example – both in policy and in practice.

CID: An integrated approach always provides the best results in any area. What should be the elements of such an integrated strategy to implement sustainability in the chemical industry?

RAM: In my book titled `Leapfrogging to pole vaulting: Creating the magic of a radical yet sustainable transformation’, I have laid out the contours of an integrated strategy with assured success.

ASSURED can be a ‘one word integrated strategy’ for the chemical industry to implement sustainability. The industry needs to achieve accelerated inclusive growth and the ASSURED framework would be a great tool for this. The framework can even be used for judging an institution, an enterprise irrespective of its size.

An integrated strategy to implement sustainability in the chemical industry could be based on the following elements:

A (Affordability) is required to create access for everyone across the economic pyramid, especially at the bottom.
S (Scalability) is required to make a real impact by reaching out to every individual in society, not just a privileged few.
S (Sustainability) is required in many contexts; environmentally sustainable, economically feasible, socially acceptable and adaptable to policy changes.
U (Universal) implies user-friendliness, so the innovation can be used irrespective of the skill levels of an individual.
R (Rapid) refers to speed. Inclusive growth cannot be achieved without the speed of our action matching the speed of our innovative thoughts!
E (Excellence) in technology, product quality, and service quality is required, not just for the elite few but for everyone in society.
D (Distinctive) innovation is required because there is no use of creating me too’ products and services.

All the above elements provide for a powerful framework to achieve the integration of environmental concerns and sustainable development, thereby promoting environmental protection, competitiveness, innovation and employment.

CID: Currently most of the chemical industry is in the ‘take-make-dispose’ mode of manufacturing. Can this shift to a cradle to cradle (circular) manufacturing or stepwise]w9a by first getting into greener processes with less environmental distress & then into circular manufacturing. Are circular processes feasible? – only in some cases or majorly?

RAM: The ‘take-make-dispose’ thinking clearly has its limitations. The current state of affairs of our consumption of the non-renewable resources and adding waste to our air, land, and water is just not sustainable. The chemical industry and its innovations can lead the way in this change.

However, circular manufacturing cannot be restricted to a company’s own operations. It needs to run across the value chain to embrace and provide value to customers and suppliers. This needs large amounts of renewable energy and significant investments.
I am optimistic about the change happening sooner than later, primarily driven by technology-led to disruptive innovation. However, we also need to realise that the change of moving to a whole new manufacturing process across the industry will not happen overnight.
We are already seeing commendable work going on across the globe. One such example that I can think of is the Waste2Chemicals initiative. This is a consortium of 8 international companies, including Enerkem, Air Liquide, and AkzoNobel, which intend to begin joint production of bio-based methanol and ethanol from municipal waste. The technology is compatible with existing waste infrastructure and is intended to enable wastes that cannot be mechanically recycled to be converted into fuels and high-quality chemicals via synthesis gas.

CID: If chemical companies have to revisit their manufacturing processes to make them on sustainable lines, which areas should they start in the manufacturing cycle & how: Products (Restructuring product portfolios)? Processes (Green Chemistry)? Plant & Equipment (Improving Efficiency)? Starting Materials (Biomass/Renewables)? Any other?

RAM: chemical companies need to have a more holistic approach. Embracing sustainability gives chemical producers an opportunity to optimize their manufacturing processes, increase vertical integration of the supply chain, reduce resource consumption, and gain greater control over the entire product lifecycle, including the ability to sustainably manage the end-of-life of a product.

I believe companies should start with one or two initiatives and expand their capabilities and move strategically along the sustainability spectrum.

I would like to highlight the example of Michelin, where I serve on their Corporate Innovation Board. In ba id to strengthen their resolve for circular manufacturing, Michelin acquired U.S. specialty chemicals company Lehigh Technologies, which produces a material called micronized rubber powder (MRP) from waste tires. These powders are capable of replacing oil- and rubber-based feedstocks in a variety of applications, including the production of high-performance tires. This is a perfect example of ca losed-loop, zero-waste process that manufacturers need to pursue as they move towards circular manufacturing.

CID: Since innovation is needed across the manufacturing value chain to achieve sustainability, can the advent of Industry 4.0 technologies (IoT, Artificial Intelligence, Machine Learning, Data Analytics etc) give a fillip to accelerate innovation/sustainability.

RAM: The chemical industry is already entering a new phase with Chemistry4.0, in which digitalization, circular economy, and sustainability are playing keyroles. Digital technologies are already helping chemical manufacturers develop the low-carbon innovations which they need to thrive in the Circular Economy. Europe and in particular Germany is at the fore-front of applying Industry 4.0 to accelerate sustainable and inclusive innovations.

AI is being used for rethinking standardized processes as continuously adaptive and applying AI to manage processes, getting the maximum out of the data to solve previously unsolved problems and reveal hidden patterns and also in shifting toward an AI-enabled culture and reskilling employees to collaborate with machines.

Further, chemical companies can realise the full benefits of reimagined processes if with their customers, they keep on exploring the potential of intelligent virtual agents, for internal use and customer service desks. They can sweat their assets far more by creating an “intelligent plant” utilizing cognitive learning for predictive insights.

Predictive maintenance has emerged as a significant use case for Industry 4.0 technologies. The sensors collect real time bigdata, which is then analysed and specifically developed algorithms predict machine failures as well as their cause. This way production losses can be avoided through appropriate maintenance measures, significantly reducing the costs and time required for maintenance.

CID: Do you think there is sufficient awareness on the importance of sustainability in the industry from top management to employees. Any additional steps required to increase awareness and convert awareness into action?

RAM: Unfortunately, it is the history of accidents, and the resultant damage to human health, flora and fauna and the environment which has created awareness on the importance of sustainability. In the last four decades, the number of manmade disasters nearly tripled, while the number of natural disasters surged sevenfold. Many regulations and awareness initiatives have sprung up as a result of these horrific accidents.

I have personally been involved in looking closely at human tragedies in India Bhopal gas tragedy, Maharashtra Gas Cracker Complex accident. As humans, we have suffered far too many such disasters and their consequences to turn a blind eye to them.
I am glad that globally, chemical companies are showcasing their sustainability intent. A quick review of the disclosures by leading chemical companies points to sustainability risks and opportunities being mainstreamed in business operations. Many of these large chemical companies are being proactive in their commitments to move to ‘zero’– zero waste, zero-emission or zero hazardous chemicals. The leadership of all major companies have taken initiatives to strengthen their engagement with the stakeholders (internal and external). Digital technologies and primarily social media are becoming an increasingly important tool is this aspect.

Wh ile companies do their bit, I believe awareness initiatives targeted at school and academic institutions should be undertaken, which will create huge human resource who are sensitive to sustainability and action oriented in their approach.

CID: While there are the Dow Jones Sustainability Index & other Indices by professional bodies like AIChe, what according to you should be the benchmarks for measuring sustainability? To what extent does obtaining a good rating facilitate a company’s business?

RAM: I think the era of ‘holding’ businesses accountable or benchmarking them is far gone. Today, businesses have to be self-accountable and create cultures that deliver real improvements in health, safety and environmental performance, and have benefits to all. Take activist shareholders – they are a part of the company, and have played a big role in holding corporates accountable. Real, organic change always comes from within.

Chemingineering | Carbon Nanotubes – The unfulfilled Promise

Nearly 3 decades after its discovery, the much-hyped Carbon Nanotubes have failed to live up to its potential. Our columnist examines the reasons for this unfulfilled promise. Despite the material’s unique properties, there are still large gaps in understanding how it is formed. A lot needs to be done before we can have a robust process for manufacturing Carbon Nanotubes of consistent quality on an industrial scale.

The discovery of Carbon Nanotubes in June 1991 was serendipitous. Sumio Iijima was examining various carbon materials under an electron microscope when he noticed peculiarly elongated needle-like structures. He subsequently gave these filaments the name of Carbon Nanotubes. Carbon Nanotube is a single sheet of a honeycomb network of carbon atoms rolled up seamlessly into a cylinder. Later it began to be widely regarded as the fourth allotrope of Carbon, after diamond, graphite and fullerene. The diameter of Carbon Nanotube, in the range of few nanometres, is almost comparable to that of an individual molecule. Because of their size, Carbon Nanotubes behave as both molecule and solid and hence exhibit unique physical and chemical properties.

Properties

The tensile strength of Carbon Nanotube is 400 times that of steel, but its density is only one-sixth of steel. Carbon Nanotubes are possibly the best heat-conducting material ever discovered. They have an aspect ratio of more than 1000; they are extremely thin in relation to their length. This high aspect ratio means that they can form a percolating matrix at low loadings and impart the desired properties to the composite. Addition of low concentrations of Carbon Nanotubes to plastic makes the latter electrically conductive. Carbon Nanotubes also possess astonishing electrical properties which allow them to switch between a fully conducting material and a semiconductor.

Applications

With a slew of such unique properties, a host of interesting applications have been envisioned for Carbon Nanotubes. These include advanced composites for aerospace, coaxial cables for power transmission, fuel cells, electronic devices, and biosensors. Carbon Nanotube-based composites have received much attention because of their superior mechanical, thermal, electrical and chemical properties. In addition to significant weight reduction, these composites promise to offer increased tensile strength, improved wear resistance, flame retardancy and antistatic properties. Automobiles and aircrafts made from carbon nanotube-based composites are expected to weigh 30% less and the consequent saving in fuel consumption would reduce carbon dioxide emission by about 4 billion tons. Use of carbon nanotube wiring in power distribution would decrease transmission losses significantly and shrink the carbon footprint of power companies.

Because of their high surface area, excellent chemical stability and polyaromatic structure, carbon nanotubes are able to adsorb or conjugate with a variety of therapeutic molecules. They have proved to be excellent vehicles for drug delivery by penetrating directly into cells while keeping the drug intact without metabolism during transport through the body. carbon nanotubes have been used as scaffolds in tissue generation and artificial implants. They have also been used successfully for enantiomer separation of chiral molecules in the pharmaceutical industry.

Manufacture

For material with such spectacular properties and applications, Carbon Nanotubes still lacks a robust and cost-effective method of production on an industrial scale. The problem is mainly due to a lack of clear understanding of the growth mechanism, in the absence of which it is not easy to synthesise nanotubes of a specific structure. Chemical Vapour Deposition is currently the most popular method of producing carbon nanotubes. It involves the thermal decomposition of hydrocarbon vapour in the presence of a metal catalyst. Carbon nanotubes are grown on the catalyst surface. Most commonly used hydrocarbons are methane, ethylene, acetylene and benzene. Iron, Cobalt and Nickel are the most common catalysts because of their strong adhesion to the growing nanotubes. The carbon precursor, the metal catalyst and its particle size are among the key parameters influencing the growth of carbon nanotubes. Even minor changes in these parameters affect the product characteristics in inexplicable ways. Large scale production continues to be plagued by poor yields, rapid catalyst deactivation and inconsistent product quality.

Unfulfilled Promise

Because of their remarkable mechanical, electrical and thermal properties, carbon nanotubes sparked considerable interest immediately after their discovery in 1991. Investments poured into research on carbon nanotubes over the next two decades. Plenty of material was made available for research and product development. The tiny nanotubes were added to polymer matrices as fillers or modifiers to improve mechanical strength and impart specific electrical properties. Carbon nanotube-based products like fibres, cables and composites were produced for testing and development. Many companies aggressively scaled up production in anticipation of growing demand, which however failed to materialise.

The unfulfilled promise gradually dampened the enthusiasm for the wonder material. In 2013, Bayer MaterialScience decided to exit the carbon nanotube business. Starting with a pilot facility in 2007, the company had grown to become the world’s largest producer of carbon nanotubes in 2010. Bayer had invested and collaborated with others in developing and scaling up processes for the manufacture of specific carbon nanotubes for different applications. But obviously, the company was disillusioned that the potential areas of application that had seemed promising failed to take off.

In September 2014, the National Nanotechnology Initiative in the USA sponsored a study in collaboration with NASA to identify technical barriers to the production of Carbon Nanotube-based materials and composites with optimal mechanical and electrical properties and to explore ways to overcome these barriers.

Entangled Mess

Carbon nanotubes have a tendency to entangle and aggregate into clumps. This presents a great challenge in dispersing them into a polymer matrix. The way in which the nanotubes are dispersed and aligned in the bulk matrix and the way these nanotubes interact with each other make a huge impact on the final properties. Because of the clumping and entanglement, the properties of the bulk materials and composites fall much short of what is obtained with the individual nanotubes. The difficulty in achieving adequate disentanglement of the carbon nanotubes and their dispersion into the matrix is one of the main impediments in the realisation of the material’s full potential. Researchers have tried various methods to unentangle the clumpy aggregates of nanotubes. These include high-pressure washing, treating with surfactants etc.

In 2015, Molecular Rebar, a start-up, achieved a breakthrough in disentangling and straightening the carbon nanotubes. The nanotubes modified by Molecular Rebar’s proprietary technology has been successfully used to enhance the performance of lead-acid and lithium-ion batteries. Earlier this year, SABIC of Saudi Arabia took a controlling interest in Molecular Rebar’s proprietary technology. More of such initiatives and efforts are needed to fulfil the potential of carbon nanotubes.

Roadmap

From time immemorial advances in materials have paved the road of human civilisation. From stone to Silicon it has been a fascinating journey. Carbon nanotubes are yet another addition to the long list of materials that have made our technologies leapfrog periodically. It is a material of incredible potential, but one fraught with challenges in both manufacturing and purification. There are still large gaps in our understanding of how the material is formed. Replication of the material’s remarkable nanoscale properties on a macroscale has been largely elusive. A lot of research needs to be done to unlock the full promise of carbon nanotubes.

Readers’ responses may be sent to k.sahasranaman@gmail.com or chemindigest@gmail.com

How Industry Captains View Industry 4.0

Several emerging digital technologies are converging to thrust manufacturing and services into the next orbit. The excitement about digital transformation comes from the new opportunities it is opening up in combining powerful and large amounts of data from multifarious sources in a manufacturing plant and from operating processes with data analytics. This provides valuable information and insights – which were not possible to extract earlier – enabling online optimisation of plant and process, including proactive maintenance of plant & equipment, well in advance, avoiding breakdowns. It is helping in unlocking higher levels of plant performances.
Many who thought that plant optimisation and profitability had peaked are now realising that using such digital technologies, Artificial Intelligence & Machine Learning, productivities & profitabilities can be driven higher, much more than before. These technologies apply across functional areas, allow far better & quicker analyses and hence enable better decision making.
It is also making work more exciting and interesting for plant people, taking the drudgery out of work.
However, digitalisation is not just about novel technologies. It needs decision making at the highest levels. It is important to prepare the organisational infrastructure – IT systems, plant & equipment to incorporate Industry 4.0 and importantly, reskilling the human resources. It needs specific focus, objectives and targets with a roadmap for implementation, which is what counts in effect.
To understand the implications of how Industry 4.0 is unfolding, Chemical Industry Digest sought the views to a few questions from industry leaders whose views are presented below.
Chemical Industry Digest Questions:

Q1. As you know Industry 4.0 constitutes a suite of advanced digital technologies which include: artificial intelligence (AI), industrial internet of things (IIoT), data analytics, virtual reality, machine learning, advanced robotics, blockchain. Many leading experts opine that the advent and convergence of these technologies and their applications in industry and elsewhere will herald the next paradigm shift in manufacturing, which could be a disruptive shift rather than incremental.
How do you view the emergence of Industry 4.0 and what do you feel will be its impact on industry? In what all areas of manufacturing or engineering services would it contribute? Would existing business models need to be re-examined?

Q2. What is your company’s strategy for the digital transformation of your company using these technologies? To what extent has your company seized the potential of Industry 4.0, from top management to the rest of the workforce? How are you preparing your organization for the adoption of such technologies?

Q3. What do you feel are the challenges to its implementation in industry? What about the availability of adequate trained human resources for this? Would it need large scale re-skilling of the workforce?

Rajesh Joshi, Vice President of Sales, India, Aker Solutions
A1. Digitalization, which is a part of Industry 4.0, represents an incredible opportunity. New technologies that combine the physical, digital and biological worlds will impact all disciplines, economies and industries.
A combination of cyber-physical systems, the Internet of Things and the Internet of Systems makes Industry 4.0 possible and the smart factory a reality. Connected machines collect a tremendous volume of data that can inform maintenance, performance and other issues and also analyze that data to identify patterns and insights. Using these technologies, facilities will become more efficient and productive and less wasteful.
Industry 4.0, particularly robotics and additive manufacturing, will also have a disruptive impact on mechanical engineering design. Digital engineering simulation tools create realistic, perfectly scaled, three-dimensional images that speed up product design, reduce iterations and shorten time to market. Processes and operations will have to be redesigned to accommodate these new advances. It will also impact the design of products for increasingly smart manufacturing facilities.
In project management, data from current and past projects tends to be scattered among different sources. Digitalization could assist to capture and analyze the data. It can also assist in developing repeatable, standardized designs and significantly drive efficiencies on design timelines and efforts.
At Aker Solutions, we develop products that use digital technologies to allow our customers to move toward more complex condition monitoring and predictive and preventive maintenance. For example, we have been appointed by Wintershall AS to build a complete digital replica of the Nova subsea production system and undertake a study to enable live data streaming and monitoring of the subsea equipment. The digital twin will become an advanced replacement to traditional documentation, ensuring that all relevant engineering data is held centrally in a single, interactive and searchable solution.
Whereas short-term successes can be realized via process optimization, a long-term strategy requires the development of new products and services as well as new business models which utilize the potential of new technologies and add value in the process. Business models based on digitalization could support long-term advantages such as interoperability, virtualization, modularity and the decentralization of decision-making.
A2. Digitalization is high on Aker Solutions’ agenda, with digital technologies transforming how we live and work. Increasing the use of these technologies has the potential to improve internal flow efficiency significantly. To support this, we moved a number of our business-critical internal systems to the SAP cloud last year.
We believe that the industry needs standardization to reduce capex, improve quality and shorten lead time. With this in mind, we have been working towards increasing the automation of engineering design through standardized, rule-based flexible building blocks. These are being developed using a combination of industry best practices and lessons learnt from past projects.
We’re also working on more hands-on applications for new technologies. For example, we recently installed an automated warehouse storage system at our operation in Brunei. It reduces the material footprint, increases the speed of work and ensures safe operation. It’s also fully integrated with our digital work management system.
More than half of all our R&D investments were allocated to digital initiatives last year, and we expect this share to increase going forward. We have also established a “Software House” to act as a hub for innovation and accelerate and commercialize our own software solutions. Additionally, we are collaborating with other organizations for the collection and analysis of data and the development of new digital offerings.
With these and other initiatives, we are executing on our plan to connect our products, assets and people to the digital ecosystem.
A3. Organizations need to establish an operating model that supports digitalization and innovation. Digital initiatives need to be integrated into the core strategy and work processes. Organizational structures need to be updated for digitalized environments.
Over the next few years, we can expect major shifts in three areas: organizational structure, talent management and corporate culture.
Talented individuals with a passion for technology will be needed to fill new roles and help staff members in traditional roles develop their digital skills. Companies that want to enable innovation must ensure that all employees in traditional roles start developing digital capabilities that complement their existing skills. A long-term plan to recruit, develop, and retain people with very specific capabilities is essential to address any gaps.
Most successful digital teams focus on three priorities. First, they perform analytics to assess operations and performance, and then they take action based on the insights. They also rapidly test and deploy new hardware and software – for instance, an innovative project production system software or a new autonomous piece of site equipment – following agile principles.
The changes described won’t come easily or quickly, but the companies that resolve to address them first will likely emerge as digital leaders.

Ajay Durrani- Managing Director, Covestro India

Ajay Durrani, Managing Director, Covestro (India) Pvt. Ltd.
A1. Industry 4.0 is a fresh intake of current and innovative technologies. If you look at the past years of development in the ways of working, we have come a long way by shifting from traditional and conventional processes to adapting the new age technology. Digitalization has already made its mark in bringing excellence in multiple areas of manufacturing and other related industries already. Industry 4.0 will take the digitalisation to next level with support of technologies like Artificial Intelligence, Internet of Things (IOT), Data Analytics.
Industry 4.0 will truly rely on data and trend analysis as that is going to be the king maker in future and I would say it has already started showing results in the consumer industries specially in FMCG sector with so many customised product variants even for example for a small category like the bakery industry. Today, thanks to AI and Data Analytics, organisations have detailed likings and buying patterns of each customer. Multiple levels of customisation are possible. This has also compelled the related manufacturing industries to embrace the industry 4.0 concepts to cater to rising consumer needs for customised products. Looking ahead of the negligible disruptiveness at the beginning, the trend will bring about more benefits in the industry by contributing to areas like productivity, cost, product quality, operations etc. Although the effect of the Industry 4.0 will be widespread, the areas of production and supply chain will witness the most competitive advantages. All the players in the industry have a huge scope on optimizing on this,as in the future entire factory setup can be digitalised and connected to entire value chain which will give leverage to all the players to optimise as well as enhance their forecasting abilities.
A2. Digital solutions have long been standard in everyday life. And they also facilitate work in the chemical industry and offer great economic opportunities, which Covestro is seizing with a comprehensive transformation program. The focus is on further digitalization of operations, points of contact with customers and new digital business models.
Digitalization is becoming part of our lives – both professionally and privately. This change is being further accelerated by the fast-paced nature of technological developments and the omnipresence of digital technologies. This progress holds enormous potential for Covestro in many areas. The comprehensive “Digital@Covestro” strategic program is designed to make use of this. It comprises three dimensions: “Digital Operations”, “Digital Customer and Supplier Experience” and “Digital Business Models”. Each individual dimension opens up new possibilities for the optimization of production processes and workflows. As a result, added value can be created in many business areas, but it is above all the people who benefit from the digitalization of work processes at Covestro. This transformation needs to be well accompanied: For example, new processes must be internalized, new customer needs to be identified and an adapted working environment created.
Industry 4.0 will be a next formative step in establishing collaborative ways of working across entire value chain and concepts like ‘no-touch orders’ will be reality. At Covestro India we already have progressed well in this area with help of multiple digital inclusion programs.
A3. As the Industry 4.0 is upon us, the impact of it on each industry or company will be different globally, as well as locally. It has become vital for an organisation to retune their current setup to the advanced way of working. This will have some temporary effect but is the need of the hour for most of the organisations. While we will be busy modifying our business models and our operations, one of the essential elements that we cannot leave out is our people. Be it any automation or advanced technology, you will still need a human resource to oversee the effectiveness.
India has the advantage to skill as well as reskill people in this new age technology easily, being one of the software superpowers. However we need to enhance our education system to be more vocational and move towards exploratory learning system. Industry and Academia need to work together in developing curriculum relevant for the change being envisaged by the industry and for the future expertise required.
As the world becomes smart in manufacturing and related processes, there will be equally huge demand for techno-savvy workforce. Such smart work force need to understand not only traditional engineering concepts but are also absolutely hands-on to use multiple softwares and data analysis tools. There is a considerable opportunity for India to create talent pool for the world that is Industry 4.0 ready and will help the world drive this change.

Sudhir Shenoy, CEO, Dow India
Chemical Industry Digest (CID):
How is Industry 4.0 advantageous for India? What should India be doing to capitalize on this opportunity? What is the role of private players and government to drive this transformation?
Sudhir Shenoy (SS): As the 6th largest economy in the world, India is focussed on increasing its manufacturing footprint and the manufacturing GDP from 16% to 25% by 2025 – while creating 10 crore new jobs. Adoption of Industry 4.0 will bring significant strategic advantage and boom to the manufacturing industry with smart, flexible supply chains, factories and distribution models where machines capture and convey more data, via machine-to-machine communications and to human operators and others, enhancing the pace of much needed growth. It will also aid product innovation, faster time-to-market, cost optimisation through procurement/supply chain analytics, revenue maximisation through better demand forecasting, and better understanding of customer needs. Industry 4.0 works across all sizes of companies – for example- in the small industries, adoption of technology aids cost optimization, consistency in product quality and better control on product design. For the larger industries, reduction of lead time, flexibility in production, agility to market, optimization of resources, are some of the obvious benefits.
However, with Industry 4.0, one cannot expect a one-size-fits-all solution. On one hand, Industry 4.0 offers India the opportunity to create its own smart-manufacturing ecosystem, custom configured to each enterprise and industry based on the opportunities, challenges and priorities. On the other hand it can become a platform facilitating a level playing field for large, medium and small companies through regulation, policy, sustainability, creating value that makes India a competitive market for the world.
Digital Transformation is and will continue to bring significant reduction in monotonous and ergonomically challenging jobs, giving significance to cognitive abilities and system skills over physical abilities. It allows the manufacturing industry to institutionalize intellectual property, attract young and high skilled talent. Technology aids in building bridges and breaking barriers of who we hire and what we hire them for – providing an unprecedented opportunity for inclusion across gender, disability and others.
Another key element, in the Industry 4.0 discussion is sustainability. The two are closely interlinked and calls for a think now as we plan for Industry 4.0. The play of society, business, and governments to the new paradigm will be critical in directing the impact.
CID: How is Dow India adopting digital transformation?
SS: As a company, we have been early to join the bandwagon of the Fourth Industrial Revolution (FIR) – investing in organizational information systems, cyber security and risk management, reporting and advanced analytics, and facilities management. Our company has collected process control data from all its operations, over the last 20 years – over the last five years, this information has been fed into a ‘data-lake’ and is now being updated in real-time. We have also added sensors on existing equipment to monitor and run analytics. Here are some examples:
1. Predictive Maintenance: On an average, unplanned maintenance costs business between USD 300 – 500 Mn every year – directly impacting the bottom-line. Integration of traditional business with digital transformation has enabled new disciplines like ‘predictive-maintenance’ within our company. When we started this initiative and looked at robots and drones to do the turnarounds, we realized that many confined space entries require maintenance several times during the year. In the past we used to send a human inside a vessel to check, sometimes of hydrocarbons, putting people in a risky environment, when you can substitute machine for the same work. A combination of IIoT, robotics and machine learning, predictive maintenance helps us carry out periodic audits and repairs of our manufacturing sites seamlessly creating real savings. Hosted at our excellence centre in Chennai, this technology helps us monitor facilities all over the world.
2. High-throughput research: In combination with digital simulation, we are using AI to aid high-throughput research which decreases the time and effort required to create and test formulations. By using artificial intelligence we are making our engineers and scientists more productive – taking an idea to commercialization, almost two to three times more effectively.
3. Sustainability in the context of Industry 4.0 has been key enabler for us at Dow India, by helping us accelerate the creation of a safer and more sustainable ecosystem. One of the examples that comes to mind is Nicer Globe – an Indian chemical industry initiative along with Indian Chemical Council. The software used in the model, helps tracking, monitoring and quick emergency response, along with using the data from the driving on particular lanes to determine potential hotspots for accidents, using camera functionality on trucks to track the drivers alertness and to prevent driving under fatigued conditions and more.

Chemical Industry Digest – June 2019

Articles in this issue:

Views on Sustainability
Globally renowned scientists and sustainability advocates give deeper insights on how to take the philosophy of sustainability forward and apply it in industries.

Way Forward to Carbon-Free Electricity for E-Mobility
– Dr. S. Sakthivel, Senior Technologist-Process, TCE Hydrogen is well known as the cleanest fuel.
This article reviews the developments in utilizing ‘Hydrogen Fuel’ with particular reference to ‘Fuel Cell’ and its role in producing energy with lesser environmental load for transportation.

Circular Economy: A New Philosophy to Address Environmental Issues and to Drive Growth Opportunities
– Nikhil Deshpande. Reliance Industries Ltd.
Circular economy is what industries should transit into as the ultimate step. The author discusses the potential of circular economy in identifying solutions to waste management and
other resource challenges.

Stepping Towards Zero Liquid Discharge (ZLD): A Path Breaking Water Management System in a Petroleum Refinery Complex
– Arindam Chakraborty, Sunil Sajja, Joe Guida, Fluor India
Treatment of industrial wastewater is challenging with conventional methods of treatment, especially with poorly degraded refractory effluents. This article explains the advances in ZLD plants in skirting wastewater at source.

Transitioning Towards Sustainable Chemical Industry: Toolbox for Practitioners
– Prof. Yogendra Shastri, IIT-Bombay
To transform sustainable practices into sustainable businesses methodologies and tools needed are outlined.

Business of Chemicals: Future Contours of Sustainability
– Dr. R. Rajagopal, CEO, KnowGenix
Our highly urbanized civilisation has led to rapid depletion of natural resources and is linked to the chemical industry directly or indirectly. This article reviews the innovation and technological advances taking place for sustainable development to address these challenges.

Application of Metal-Doped Organic Aerogels for Photodegradation of Antibiotics in Water
– Dr. J. Bolobajev, M. Kask, Dr. M. Koel
With conventional water treatment techniques proving inadequate for effluent treatment from pharmaceutical plants, water bodies get contaminated with antibiotics and other pharmaceuticals. This article highlights the potential of advanced photo active methods to degrade the antibiotics in water.

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One Key Challenge in Instrumentation – P&IDs – Shivendra Kapoor

Abstract:

The journey of developments in instrumentation has been very exciting. From pneumatic (3 to 15 psi) to voltage (0 to 5 V DC) or current (4 to 20 mA) to hardwired relays/PLC/DCS, HART/Modbus/Foundation Fieldbus/Profibus, etc… further to wireless and other technologies; the developments and their practical application have been very fascinating and at times challenging to implement. The growing trend of application of Safety Instrumented Systems and Industrial Cybersecurity is the best that can happen in Instrumentation. It is very difficult to know the intricate details of every instrumentation aspect as the subject is infinite and one needs to know the area of his/her interest and expertise so as to be the best. The need of the hour is to know the issues related to instrumentation that are still prevalent in the industry and that these issues need to have a firm solution.

In this article we attempt to highlight some issues related to documentation and drawings; in particular P&IDs – the very basic platform on which the fundamentals of instrumentation stand. The author tries to share his experience (related to P&IDs) gained during site visits/audits of various operating companies in India.

Introduction

The industrial sector in India has grown rapidly in the past few years and the usage of automation has seen an exponential rise. Though there has been tremendous advancement in automation, still, even today, one key issue that is prevalent is the correct and up-to-date updation of documentation and drawings (henceforth called as documentation in this article) that are maintained at the end-users operating facility. This is applicable for green field projects and even brown field projects. Though, in any project there are thousands of documentation that are required to be referred even after the plant is commissioned and set into production mode but very few of them see the face of updation and correct record maintenance. This may appear to be a trivial matter but in reality poor documentation is one of the very big causes of constant issues for operations, maintenance and safety that actually affects productivity, profitability and business sustainability.

Site documentation (as related to instrumentation) is varied like: P&IDs, instrument index, I/O list, Functional Specifications, JB/Cable schedule, Hook-ups, Interface drawings, Control / Shutdown system related documentation, O&M manuals, SOPs, maintenance/calibration schedules, vendor certificates/catalogues, etc. However, in this article, we discuss through case studies, the issues with the mother of all documentation, i.e. P&IDs (Process and Instrumentation Drawings or Piping and Instrumentation Diagrams).

The Details

There are many operating companies that have their facilities running quite smoothly till date but the mother document “P&IDs” are either completely/partially missing or they have not been updated since decades. Barring a few companies that believe in truly following the Management of Change (MoC) procedure and maintaining documentation up-to-date and enforce strict control to prevent misuse, many others believe in maintaining strong commercials and making profits while some of them have a mixed approach. The need to invest time and money in maintaining P&IDs up-to-date is lacking and that is a big gap to be bridged.

This common issue is applicable across all industries like oil and gas, chemicals, refineries, pharmaceuticals, etc. The bigger and complex the facility is, more is the need to have each and every P&ID (and of course all documentation) updated and in easily accessible and retrievable place.

The author has many case studies that can be discussed but would like to highlight one recent example.

Case Study

The author while conducting a Process Safety Management (PSM) gap analysis observed a strange case of issues with P&IDs.

The operating facility was running past 25 years and involved in manufacturing Highly Hazardous Chemicals (HHC). The plant personnel knew that they were sitting on a live bomb ready to explode but they were habituated to procrastinate because they were complacent in the fact that nothing could go wrong in their facility as nothing major hard happened in the past 15 years.

On document review it was found that the P&IDs were not available for all the unit areas in the facility and for the areas where P&IDs were available they were last updated in the year 1998 and only a few had been updated in the year 2000 so as to close the observation highlighted in one of the safety audits. This good attempt however never became a habit due to prevalent site culture. The prints of some of them were very dull and were not readable at all. Many operating personnel in the facility were unaware that P&IDs did exist and what was actually the use for it. Plant personnel believed in verbal communication and sign language was heavily used.

Many who were interviewed had raised a strange concern; the company has changed many hands and there is no set guideline or management procedure that can be followed. Most of the procedures were still under management approval (since 5 years).

Personnel at site believed that P&IDs were never referred as the site had umpteen modifications and for all modifications P&IDs were not updated or even required.

However, with one clear P&ID a site round was conducted for a small unit area. But it was astonishing to see that almost 50% of the instrumentation as depicted on the P&ID was not available and even some of the pipeline numbers. were not matching. On further interaction, the site personnel revealed their management beliefs, that P&IDs were meant for the design and detail engineering phase only and after As-Built their updation made no difference as such as the senior personnel on site were working since the time the facility was built. Hence they were the ‘Masters’ on site and so no modification / updation on site would proceed without their consensus.

Though taking consensus of Seniors/Management is absolutely correct and a must requirement, however, without formal documentation and that too P&IDs in place the ‘so called verbal method’ adopted should not be accepted. There are umpteen chances of verbal communication being misinterpreted and incorrect implementation may have catastrophic consequences. It is fair to understand that during design and engineering stage, the P&IDs are actually under the ownership of Process engineering. However after the handover at site and once the site is up and running, it usually comes under custody of the instrumentation team and proper P&ID ‘take-care’ shall always be ensured.

Key Notes

Some of the instrumentation pointers that shall always be available on a P&ID are:

1. Use of correct instrumentation symbols as per ISA S5.1/ client specific standards (field, control room, local, packages, etc.)
2. Use of correct identification of signals (electrical, pneumatic, hydraulic, soft link, etc.)
3. Representation of scope demarcation between various parties (if applicable)
4. Specific notes to be referred (like: requirement of split range control, etc.)
5. Interface between DCS, ESD, package PLCs, etc.
6. Applicable Interlocks and their description
7. Equipment numbering, pipeline numbering, legend sheets, set points/trip limits, etc…
8. Other key parameters depending on the project scope, process criticality and requirements.

Summary

The need to have the facility P&IDs on site shall be understood by all required site personnel (including top management) and that P&IDs be always readily accessible and easily retrievable should be developed as a habit and a culture in any organization.
Additionally, all instrumentation engineers in colleges be precisely taught how to read/draw/develop/understand/maintain (and everything) about P&IDs including the interlocks, field & control instrumentation and symbols used. This will help engineers carry the habit and influence to develop a positive culture in the organization that they work, in true spirit.

IBI Chematur Engineering & Consultancy Ltd – Various Opening

IBI Chematur  Engineering & Consultancy Ltd.

Required
Manager – Business Development- 8 To 15 Years Engineering Manager -15 To 20 Years Manager – Process -14 To 20 Years Principal Process Engineer -8 To 13 Years Project Manager (Chemical Complexes) -11 To 18 Years Manager – Piping- 15 To 20 Years Project Manager (Pharma Projects). 11 To 18 Years Manager – Process (Pharma API) -14 To 20 Years

Interested candidates can mail their resumes to teamhr@ibichematur.com For more details on the job description, visit www.ibichematur.com/careers.htm

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