ABB improved the production process at Podilsky Cement's plant in Ukraine by installing integrated electrical, control and automation systems for their new production line no. 7. The new line has a production capacity of 7,500 tons per day, making it the largest cement production line in Ukraine. ABB provided professional support from the design phase through commissioning of the new line. Podilsky Cement and ABB have established a strong partnership through multiple successful automation projects.
This document discusses REW's experience providing programmable logic controller (PLC) systems and upgrading plant controls. It lists various industrial processes that REW has experience with including coal handling, bunker management, ash handling, water treatment, manufacturing, and more. The document also notes that REW can engineer, design, and supply PLC systems of all sizes for new or existing equipment and work with many major PLC platforms and manufacturers. Examples are given of small PLC systems REW has implemented.
AEG was awarded a 12-month contract by Eskom to design, supply, install, and commission a new control system for the coal stacker/reclaimer at one of their power stations. This included full project management, engineering a PLC-based system using Modicon controllers, supplying all equipment, and completing installation and testing ahead of schedule. A key feature of the project was a custom terminal design by an AGE engineer that provided full lightning protection on all I/O for the PLC cabinet, which has since become an industry standard.
Nattaphoom Tewarun has experience in project management, supply engineering, commissioning, and programming upgrades for cement plants from 2010-2013 while working at IPA Technologies Co., Ltd. Some of his projects include managing the startup of a vertical cement mill in Malaysia, supplying and commissioning a DCS system for a cement ball mill project in Saudi Arabia, and upgrading the control programming for a clinker grate cooler in the Philippines. He also has experience in engineering, purchasing, and designing control systems for a 3500 ton per day cement plant in Brazil.
Enhanced Ammonia Recovery with Built-In Feed Flexibility
Ammonia absorption and recovery projects are not a
unique challenge for the Koch Modular process team. They
have a high level of experience in this area and with an
abundance of existing data, no pilot trials were necessary
to design a solution and then guarantee the ammonia
absorption system performance. However, there were
challenges. The ammonia vapor feed stream was composed
of multiple ammonia-containing streams with a variety of
compositions. The Koch Modular team worked with the
client to agree upon a feed basis for the design of the
system. As often occurs, the ammonia recovery project
was part of an overall major expansion, and the client
requested that the modules be designed to fit indoors both
functionally and spatially into the new facility. This request,
and the overall scale and building configuration presented
some unique design challenges.
Nuberg is an Indian EPC company specializing in chemical plants and oil & gas facilities. It has executed over 40 greenfield chemical projects globally and serves customers in industries including chemicals, fertilizers, oil & gas, steel, and nuclear. The company provides EPC, fabrication, and project management services. It has a fabrication facility in India and an R&D center in Sweden. The document provides details on Nuberg's management team, areas of expertise, major projects, and infrastructure.
Nagy Ibraheem Abo El-Khair is a control systems engineer with over 10 years of experience in automation projects. He has extensive experience designing and implementing safety instrumented systems using Triconex and Trident controllers. Some of his project experience includes fire and gas, ESD, and shutdown systems for oil and gas facilities in Qatar, Saudi Arabia, and Egypt. He is proficient in automation software like TriStation 1131, InTouch, and various PLC platforms.
Three case studies are summarized:
1. A company saved thousands of pounds by having an obsolete digital engine management unit reverse engineered and its components replaced.
2. A wiring harness for a gas engine was replaced within three days after being destroyed in a fire, compared to a two week delivery time from the OEM.
3. A power supply failure taking six gas engines offline for five days was collected, repaired, and returned within 24 hours, restoring the engines to operation.
This document discusses REW's experience providing programmable logic controller (PLC) systems and upgrading plant controls. It lists various industrial processes that REW has experience with including coal handling, bunker management, ash handling, water treatment, manufacturing, and more. The document also notes that REW can engineer, design, and supply PLC systems of all sizes for new or existing equipment and work with many major PLC platforms and manufacturers. Examples are given of small PLC systems REW has implemented.
AEG was awarded a 12-month contract by Eskom to design, supply, install, and commission a new control system for the coal stacker/reclaimer at one of their power stations. This included full project management, engineering a PLC-based system using Modicon controllers, supplying all equipment, and completing installation and testing ahead of schedule. A key feature of the project was a custom terminal design by an AGE engineer that provided full lightning protection on all I/O for the PLC cabinet, which has since become an industry standard.
Nattaphoom Tewarun has experience in project management, supply engineering, commissioning, and programming upgrades for cement plants from 2010-2013 while working at IPA Technologies Co., Ltd. Some of his projects include managing the startup of a vertical cement mill in Malaysia, supplying and commissioning a DCS system for a cement ball mill project in Saudi Arabia, and upgrading the control programming for a clinker grate cooler in the Philippines. He also has experience in engineering, purchasing, and designing control systems for a 3500 ton per day cement plant in Brazil.
Enhanced Ammonia Recovery with Built-In Feed Flexibility
Ammonia absorption and recovery projects are not a
unique challenge for the Koch Modular process team. They
have a high level of experience in this area and with an
abundance of existing data, no pilot trials were necessary
to design a solution and then guarantee the ammonia
absorption system performance. However, there were
challenges. The ammonia vapor feed stream was composed
of multiple ammonia-containing streams with a variety of
compositions. The Koch Modular team worked with the
client to agree upon a feed basis for the design of the
system. As often occurs, the ammonia recovery project
was part of an overall major expansion, and the client
requested that the modules be designed to fit indoors both
functionally and spatially into the new facility. This request,
and the overall scale and building configuration presented
some unique design challenges.
Nuberg is an Indian EPC company specializing in chemical plants and oil & gas facilities. It has executed over 40 greenfield chemical projects globally and serves customers in industries including chemicals, fertilizers, oil & gas, steel, and nuclear. The company provides EPC, fabrication, and project management services. It has a fabrication facility in India and an R&D center in Sweden. The document provides details on Nuberg's management team, areas of expertise, major projects, and infrastructure.
Nagy Ibraheem Abo El-Khair is a control systems engineer with over 10 years of experience in automation projects. He has extensive experience designing and implementing safety instrumented systems using Triconex and Trident controllers. Some of his project experience includes fire and gas, ESD, and shutdown systems for oil and gas facilities in Qatar, Saudi Arabia, and Egypt. He is proficient in automation software like TriStation 1131, InTouch, and various PLC platforms.
Three case studies are summarized:
1. A company saved thousands of pounds by having an obsolete digital engine management unit reverse engineered and its components replaced.
2. A wiring harness for a gas engine was replaced within three days after being destroyed in a fire, compared to a two week delivery time from the OEM.
3. A power supply failure taking six gas engines offline for five days was collected, repaired, and returned within 24 hours, restoring the engines to operation.
Nagy Ibraheem Abo El-Khair is an automation engineer with over 10 years of experience working with Schneider Electric and other companies. He has extensive experience designing, implementing, and commissioning control systems using PLCs and HMIs from manufacturers such as Siemens, Omron, Schneider Electric, and Wonderware. Nagy has managed numerous process automation projects in various industries and countries, specializing in fire and gas safety systems. He is proficient in electrical and automation engineering, project management, and multiple programming languages.
This document contains the resume of Amandeep Sharma seeking a position in process or power industry involving electrical maintenance, engineering, and projects. He has over 11 years of experience in electrical engineering, including maintenance, project execution, commissioning, and power management. His experience includes working on refinery substations, switchyards, power plants, and coordinating vendors. He is seeking a challenging position that allows growth and has provided details of his education, training, skills, and work history to support his candidacy.
PRODUCTIVITY IMPROVEMENT OF PRE-TREATMENTS & POWDER COATING PROCESS.Raheem Arif
This document summarizes a project to improve the productivity of pre-treatment and powder coating processes at a manufacturing plant. The objectives were to increase the capacity of two bottleneck workstations: pre-treatment and powder coating. The project modified the hanger design to hold more jobs simultaneously. Testing showed the improved design increased monthly production from 328,000 to 342,000 springs while increasing resource consumption as expected. Operator training ensured proper handling of the new process. Overall the project helped address capacity shortfalls and better fulfill production demands.
This document provides information about Overseas Engineering Solution (OES), an ISO 9001-2008 certified engineering company. It outlines OES's vision, mission, activities, experience, services, and examples of major completed and ongoing projects in areas like power generation, oil and gas, water and waste treatment. OES aims to be a preferred engineering and project management company through quality services, timely project delivery, and customer satisfaction.
CASE STUDY: Two Harbors Municipal Power PlantAditi Paul
Solberg partnered with Fairbanks Morse to reduce and eliminate
crankcase emissions from its marine and stationary engines. Read about the challenge and solution in this Case Study.
This document provides a summary of an electrical engineer's qualifications and experience. It includes details about the engineer such as name, nationality, education, skills, and over 13 years of experience working on electrical system design projects for oil and gas facilities. Some of the key projects listed include work for ADCO, ZADCO, GASCO, and MOTT MACDONALD on projects involving substations, pipelines, offshore platforms, and refineries.
Leadec is an engineering company that specializes in conveyor integration projects for automotive manufacturers. They offer turnkey services including project management, conveyor installation, electrical and mechanical work, controls integration, and commissioning. Leadec has experience with various types of conveyor systems and automation equipment. The document provides examples of conveyor integration projects Leadec has completed for automotive plants, demonstrating their capabilities in brownfield modifications and system expansions.
The document summarizes the supply, installation, and commissioning of a chlorine dioxide (ClO2) generating system for DEWA's L-Station in Jebel Ali, UAE. The project involved designing, procuring, constructing, and testing the system to produce ClO2 for water treatment. Key stages included civil works, installing tanks and equipment, mechanical and electrical installation, instrumentation and controls, commissioning through testing and reliability runs, and final handover to DEWA for operation. The system was commissioned to serve the desalination plant by generating ClO2 to treat over 11,000 cubic meters of water per hour.
This document outlines plans for a project to construct new spur lines from existing 33kV overhead lines to provide power to 8 new ESP wells in the Shah Field in Abu Dhabi. The scope of work includes tapping into existing lines, running overhead lines or underground cables to power skids located near each well, and installing equipment like poles, switches, arrestors and cables. A project schedule outlines tasks like surveying, procurement, installation at each well location over 482 days from June 2015 to September 2016.
Mohamed Behiry is seeking a position as a Mechanical & Piping Engineer that allows for career growth. He has 10 years of experience in construction of power plants, water desalination plants, and pipelines. His most recent role was as a Senior Piping & Mechanical Engineer for Hyundai Heavy Industries where he oversaw piping installation and testing for a large electrical power and desalination plant. He has extensive experience in engineering, construction, and commissioning of various mechanical systems and piping networks.
Juliet Joseph is applying for the position of Electrical Engineer. She holds a Bachelor of Technology degree in Electrical and Electronics Engineering from 2013. She has over 5 years of experience as an Electrical Engineer working on projects in the UAE and Saudi Arabia for companies like Tebodin, JSE Engineering, and ADCO. Her experience includes performing load flow and short circuit studies, preparing engineering drawings and specifications, and reviewing designs. She is proficient in software like ETAP, AutoCAD, and Enervista.
Abdul Alim Dewan has over 13 years of experience in transmission and distribution projects including planning, scheduling, monitoring, procurement, and project coordination. He is currently working as an Assistant Project Manager for Mohammed Al-Ojaimi Contracting Est. on a 132/13.8kV GIS substation project in Riyadh, Saudi Arabia. Previously, he worked on substation projects in Saudi Arabia and Mozambique, holding roles such as Site Manager. He has a Bachelor's degree in Electrical Engineering and certifications in Project Management, Safety Training, and AutoCAD.
The document describes two oilfield projects in Albania managed by Bardhyl Leka. The first project involved installing 12 jet pump systems over two years to increase oil production from 800 to 2000 barrels per day at the Cakran-Mollaj Oilfield. The second project provided operations support for the Shpirag 2 drilling project, with successful running of tubulars and assistance with fishing tools during drilling issues. The document then describes a third project providing broader operations support over one year for the Molisht 1 drilling project, involving tubular running, fishing, cementing, surface logging, and wireline services. Both drilling projects encountered formation stability issues but were successful due to Weatherford's performance.
The new dry type cement production line is a modern cement production method with the pre-homogenization technology and rotary kiln calcining technology as the foundation and suspension pre-heating .
India is the second largest cement producer in the world, with nearly 300 million tonnes of annual production capacity. The private sector dominates production, accounting for 98% of total capacity. Large cement plants, which number 185, account for 97% of installed capacity. The states of Andhra Pradesh, Rajasthan, and Tamil Nadu contain many of the largest cement plants, with 77 plants located among those states. Cement demand is expected to grow at a compound annual growth rate of 10.2% through 2023, driven by growth in infrastructure, housing, and commercial real estate development.
Industrial training report Satna Cement Works (Birla Corp Ltd), Satna, Madhya...Sushant Siddhey
This report covers the complete description of my training and experience at Satna Cement Works (Birla Corp Ltd). This report shows various steps of cement production and various types of machines and equipment involved. This also shows the layout of plant and production cycle.
Portland cement mfg. process for finance, subsidy & project related support...Radha Krishna Sahoo
This document provides an overview of cement and the cement manufacturing process. It discusses that cement is produced by heating limestone and clay at high temperatures to form clinker, which is then ground with gypsum. The cement manufacturing process involves grinding raw materials, preheating them in a preheater tower, calcining in a rotary kiln at over 2700°F, and cooling the clinker before finishing grinding it into cement powder. The cement powder is then mixed with water, sand, and rock to form concrete. The cement industry is a large user of energy and emits CO2, but cement kilns can also beneficially reuse hazardous wastes by destroying them at high temperatures as a means of energy recovery and
Portland cement is produced from limestone and other ingredients that are heated to high temperatures and cooled quickly. Different types of cement are used depending on the application and desired properties, such as setting time or resistance to chemicals. Concrete is a mixture of cement, aggregates like sand and gravel, and water that is used to construct buildings and structures.
Primary cementing involves pumping a cement slurry down casing to isolate zones and support the casing. It is done soon after casing installation. Secondary cementing addresses later issues and includes techniques like squeeze cementing which forces slurry into annuli under pressure to seal leaks or supplement prior jobs. Proper planning and execution of cementing operations is important for achieving zonal isolation and well integrity.
The presentation contains detailed description about the manufacturing process of cement particularly of wet cement. The presentation is based on the internship taken by me at DCM Shriram cement, kota facility.
The document discusses the Indian cement industry. It notes that cement is used for construction purposes like buildings, transport infrastructure, and water systems. The main raw materials used are limestone, sand, shale, clay, and iron ore. The manufacturing process is highly energy intensive. Major players in the Indian cement industry are listed along with regional production capacities. India is currently the 2nd largest cement producer in the world and is expected to require a total capacity of around 480 million tonnes by 2025 to support continued infrastructure growth.
This document discusses the cement manufacturing process. It begins with the history of cement, which has been made since Roman times but has been refined over time. There are four main types of cement. The production process consists of three steps - raw material processing, clinker burning, and finish grinding. The raw material and clinker burning steps can be wet or dry processes. The dry process dries and heats materials directly while the wet process adds water. Portland cement is the most common type and is made by heating limestone and clay. The production process involves quarrying, crushing, mixing, heating in a kiln, cooling, and grinding. Emissions from manufacturing like NOx, CO2 and dust must be controlled to reduce
Nagy Ibraheem Abo El-Khair is an automation engineer with over 10 years of experience working with Schneider Electric and other companies. He has extensive experience designing, implementing, and commissioning control systems using PLCs and HMIs from manufacturers such as Siemens, Omron, Schneider Electric, and Wonderware. Nagy has managed numerous process automation projects in various industries and countries, specializing in fire and gas safety systems. He is proficient in electrical and automation engineering, project management, and multiple programming languages.
This document contains the resume of Amandeep Sharma seeking a position in process or power industry involving electrical maintenance, engineering, and projects. He has over 11 years of experience in electrical engineering, including maintenance, project execution, commissioning, and power management. His experience includes working on refinery substations, switchyards, power plants, and coordinating vendors. He is seeking a challenging position that allows growth and has provided details of his education, training, skills, and work history to support his candidacy.
PRODUCTIVITY IMPROVEMENT OF PRE-TREATMENTS & POWDER COATING PROCESS.Raheem Arif
This document summarizes a project to improve the productivity of pre-treatment and powder coating processes at a manufacturing plant. The objectives were to increase the capacity of two bottleneck workstations: pre-treatment and powder coating. The project modified the hanger design to hold more jobs simultaneously. Testing showed the improved design increased monthly production from 328,000 to 342,000 springs while increasing resource consumption as expected. Operator training ensured proper handling of the new process. Overall the project helped address capacity shortfalls and better fulfill production demands.
This document provides information about Overseas Engineering Solution (OES), an ISO 9001-2008 certified engineering company. It outlines OES's vision, mission, activities, experience, services, and examples of major completed and ongoing projects in areas like power generation, oil and gas, water and waste treatment. OES aims to be a preferred engineering and project management company through quality services, timely project delivery, and customer satisfaction.
CASE STUDY: Two Harbors Municipal Power PlantAditi Paul
Solberg partnered with Fairbanks Morse to reduce and eliminate
crankcase emissions from its marine and stationary engines. Read about the challenge and solution in this Case Study.
This document provides a summary of an electrical engineer's qualifications and experience. It includes details about the engineer such as name, nationality, education, skills, and over 13 years of experience working on electrical system design projects for oil and gas facilities. Some of the key projects listed include work for ADCO, ZADCO, GASCO, and MOTT MACDONALD on projects involving substations, pipelines, offshore platforms, and refineries.
Leadec is an engineering company that specializes in conveyor integration projects for automotive manufacturers. They offer turnkey services including project management, conveyor installation, electrical and mechanical work, controls integration, and commissioning. Leadec has experience with various types of conveyor systems and automation equipment. The document provides examples of conveyor integration projects Leadec has completed for automotive plants, demonstrating their capabilities in brownfield modifications and system expansions.
The document summarizes the supply, installation, and commissioning of a chlorine dioxide (ClO2) generating system for DEWA's L-Station in Jebel Ali, UAE. The project involved designing, procuring, constructing, and testing the system to produce ClO2 for water treatment. Key stages included civil works, installing tanks and equipment, mechanical and electrical installation, instrumentation and controls, commissioning through testing and reliability runs, and final handover to DEWA for operation. The system was commissioned to serve the desalination plant by generating ClO2 to treat over 11,000 cubic meters of water per hour.
This document outlines plans for a project to construct new spur lines from existing 33kV overhead lines to provide power to 8 new ESP wells in the Shah Field in Abu Dhabi. The scope of work includes tapping into existing lines, running overhead lines or underground cables to power skids located near each well, and installing equipment like poles, switches, arrestors and cables. A project schedule outlines tasks like surveying, procurement, installation at each well location over 482 days from June 2015 to September 2016.
Mohamed Behiry is seeking a position as a Mechanical & Piping Engineer that allows for career growth. He has 10 years of experience in construction of power plants, water desalination plants, and pipelines. His most recent role was as a Senior Piping & Mechanical Engineer for Hyundai Heavy Industries where he oversaw piping installation and testing for a large electrical power and desalination plant. He has extensive experience in engineering, construction, and commissioning of various mechanical systems and piping networks.
Juliet Joseph is applying for the position of Electrical Engineer. She holds a Bachelor of Technology degree in Electrical and Electronics Engineering from 2013. She has over 5 years of experience as an Electrical Engineer working on projects in the UAE and Saudi Arabia for companies like Tebodin, JSE Engineering, and ADCO. Her experience includes performing load flow and short circuit studies, preparing engineering drawings and specifications, and reviewing designs. She is proficient in software like ETAP, AutoCAD, and Enervista.
Abdul Alim Dewan has over 13 years of experience in transmission and distribution projects including planning, scheduling, monitoring, procurement, and project coordination. He is currently working as an Assistant Project Manager for Mohammed Al-Ojaimi Contracting Est. on a 132/13.8kV GIS substation project in Riyadh, Saudi Arabia. Previously, he worked on substation projects in Saudi Arabia and Mozambique, holding roles such as Site Manager. He has a Bachelor's degree in Electrical Engineering and certifications in Project Management, Safety Training, and AutoCAD.
The document describes two oilfield projects in Albania managed by Bardhyl Leka. The first project involved installing 12 jet pump systems over two years to increase oil production from 800 to 2000 barrels per day at the Cakran-Mollaj Oilfield. The second project provided operations support for the Shpirag 2 drilling project, with successful running of tubulars and assistance with fishing tools during drilling issues. The document then describes a third project providing broader operations support over one year for the Molisht 1 drilling project, involving tubular running, fishing, cementing, surface logging, and wireline services. Both drilling projects encountered formation stability issues but were successful due to Weatherford's performance.
The new dry type cement production line is a modern cement production method with the pre-homogenization technology and rotary kiln calcining technology as the foundation and suspension pre-heating .
India is the second largest cement producer in the world, with nearly 300 million tonnes of annual production capacity. The private sector dominates production, accounting for 98% of total capacity. Large cement plants, which number 185, account for 97% of installed capacity. The states of Andhra Pradesh, Rajasthan, and Tamil Nadu contain many of the largest cement plants, with 77 plants located among those states. Cement demand is expected to grow at a compound annual growth rate of 10.2% through 2023, driven by growth in infrastructure, housing, and commercial real estate development.
Industrial training report Satna Cement Works (Birla Corp Ltd), Satna, Madhya...Sushant Siddhey
This report covers the complete description of my training and experience at Satna Cement Works (Birla Corp Ltd). This report shows various steps of cement production and various types of machines and equipment involved. This also shows the layout of plant and production cycle.
Portland cement mfg. process for finance, subsidy & project related support...Radha Krishna Sahoo
This document provides an overview of cement and the cement manufacturing process. It discusses that cement is produced by heating limestone and clay at high temperatures to form clinker, which is then ground with gypsum. The cement manufacturing process involves grinding raw materials, preheating them in a preheater tower, calcining in a rotary kiln at over 2700°F, and cooling the clinker before finishing grinding it into cement powder. The cement powder is then mixed with water, sand, and rock to form concrete. The cement industry is a large user of energy and emits CO2, but cement kilns can also beneficially reuse hazardous wastes by destroying them at high temperatures as a means of energy recovery and
Portland cement is produced from limestone and other ingredients that are heated to high temperatures and cooled quickly. Different types of cement are used depending on the application and desired properties, such as setting time or resistance to chemicals. Concrete is a mixture of cement, aggregates like sand and gravel, and water that is used to construct buildings and structures.
Primary cementing involves pumping a cement slurry down casing to isolate zones and support the casing. It is done soon after casing installation. Secondary cementing addresses later issues and includes techniques like squeeze cementing which forces slurry into annuli under pressure to seal leaks or supplement prior jobs. Proper planning and execution of cementing operations is important for achieving zonal isolation and well integrity.
The presentation contains detailed description about the manufacturing process of cement particularly of wet cement. The presentation is based on the internship taken by me at DCM Shriram cement, kota facility.
The document discusses the Indian cement industry. It notes that cement is used for construction purposes like buildings, transport infrastructure, and water systems. The main raw materials used are limestone, sand, shale, clay, and iron ore. The manufacturing process is highly energy intensive. Major players in the Indian cement industry are listed along with regional production capacities. India is currently the 2nd largest cement producer in the world and is expected to require a total capacity of around 480 million tonnes by 2025 to support continued infrastructure growth.
This document discusses the cement manufacturing process. It begins with the history of cement, which has been made since Roman times but has been refined over time. There are four main types of cement. The production process consists of three steps - raw material processing, clinker burning, and finish grinding. The raw material and clinker burning steps can be wet or dry processes. The dry process dries and heats materials directly while the wet process adds water. Portland cement is the most common type and is made by heating limestone and clay. The production process involves quarrying, crushing, mixing, heating in a kiln, cooling, and grinding. Emissions from manufacturing like NOx, CO2 and dust must be controlled to reduce
The document discusses the process of cement production including limestone quarrying, crushing, storage in silos, grinding in raw mills and cement mills, preheating, burning clinker in a rotary kiln, cooling clinker, and packing cement. Key equipment used includes stackers, reclaimers, ball mills, cyclones, baghouses, kilns, coolers, ESPs, and various conveyors, hoppers, and silos. Safety instruments discussed are zero speed switches, belt sway switches, and pull cord switches to detect issues with rotating equipment and conveyors.
The document provides information on Satna Cement Works, a cement plant owned by Birla Corp. Ltd. in Satna, Madhya Pradesh, India. It details the plant's current installed capacity of 2.36 million tons and planned expansion to 2.84 million tons. It then outlines the 17 major processes involved in cement production, from limestone quarrying and crushing to clinker production, cement milling, storage, and dispatch. Finally, it includes a Gantt chart scheduling the author's six-week training program at the plant.
This document discusses Portland cement and the cement manufacturing process. It begins with an overview of what cement is and how it is used to make concrete. It then describes the industrial process for manufacturing cement, involving grinding raw materials like limestone and clay at high temperatures in a kiln to form clinker, which is then pulverized with gypsum to become Portland cement powder. The document also provides a brief history of cement development and explains how cement kilns can beneficially reuse solid and hazardous wastes as a source of energy and raw material replacement due to the kilns' high temperatures and long retention times.
The Vietnamese Hatien 2 cement plant is located at the border between mountains and flood plains in Vietnam. The plant produces 700,000 tons of cement per year and 600,000 tons of clinker that is delivered to other plants. In 2000, the company began converting from fuel oil to coal burning due to rising oil prices. ABB was contracted to supply electrical and automation equipment for the conversion, including process control systems, distribution systems, and site supervision. The conversion project will allow the plant to use locally available coal instead of imported fuel oil.
Prakash Jawanji Goyal is an electrical engineer with over 10 years of experience in project design and development using PLCs, SCADA, HMIs, AC and DC drives, control panels, and more. He has extensive experience working with Siemens, Allen-Bradley, and other automation equipment on projects in various industries. Prakash is currently seeking new opportunities where he can utilize his skills in electrical system design, automation, commissioning, and customer support.
The document discusses several power plant projects around the world where ABB has provided electrical equipment and control systems:
1) In Kuwait, ABB helped complete an 800 MW gas turbine power plant in just 10.5 months, setting a record for fast completion.
2) ABB will provide turbine control systems for power stations under construction in Algeria, Brazil, the United Arab Emirates, and the Netherlands.
3) ABB received an award for developing advanced control methods and received an order to provide electrical and control equipment for a new 790 MW coal-fired power station in Germany.
This résumé is for Prashant R. Vispute, an Industrial Automation - System Analyst with over 11 years of experience. He is currently employed as an Assistant Manager - Projects at Fox Solutions in Nashik, India. The résumé outlines his technical expertise in areas like PLC, SCADA, DCS programming and various automation products. It also provides details of his role and responsibilities, key projects, education qualifications and personal details.
This document contains a resume for Sandeep L. Anugade, an automation professional with over 10 years of experience in hardware engineering, designing, commissioning, and executing automation projects for various industrial domains. It lists his technical skills and experience programming PLCs from Siemens and Allen-Bradley, along with HMIs, drives, and other industrial software. It also provides details on several automation projects he has worked on, including for power plants, hydroelectric plants, and automotive manufacturing facilities.
In 2012 Bureau of Industrial Automation LLC participate in a large-scale project which was carried out together with the I&S department of Siemens LLC, Moscow. The project is - Automatic process control system of flood protective shelter complex in Saint Petersburg city. The purpose of the first stage of the project was automation of culverts. It is worth to mention that the object of automation is a rather large complex of hydro-technical utilities and construction facilities around Saint Petersburg - Dam.
Phoenix Control Systems won a contract to supply the electrical control systems for the new paint shop at the CAPSA automotive manufacturing facility in Shenzhen, China. The project involved designing and manufacturing control panels for the conveyor system, pretreatment, e-coat, ovens, topcoat booths, paint distribution, and overall supervision systems. Phoenix beat out Chinese and Japanese competitors for the €3,750,000 contract to design, build, ship, install, and commission all of the control panels and software over a 12-month period from February 2012 through March 2013.
This document is a project report submitted for the degree of Bachelor of Technology in Electrical Engineering. It discusses the design of an automatic bottle filling system using a programmable logic controller (PLC). The system aims to provide benefits like low power consumption, low cost, accuracy and more. A prototype has been developed to demonstrate the project. The report includes chapters on PLC concepts, feasibility study, software and hardware requirements, system design, results and further scope of development. It is supervised by Prof. Alok Kole and submitted by students Prithwish Das, Krishnendu Mandal and Paromita Das.
ABB Contact - 2/13 India : Oil and Gas issueABBCONTACT
Here are the key opportunities and challenges I see on the energy front:
Opportunities:
- Growth in renewable energy sources like solar and wind. Technology improvements are making these more viable and cost-effective options.
- Increased energy efficiency. There is potential to reduce consumption through more efficient production, distribution and use of energy.
- Energy storage technologies. Advances in batteries and other storage solutions could help integrate more renewable energy into the grid.
- Natural gas. As a transitional fuel it can help reduce emissions compared to coal and oil. Shale gas in particular has increased supplies.
Challenges:
- Meeting rising energy demand sustainably. Population and economic growth is increasing consumption while reducing dependence on fossil
ABB's expertise in power transmission systems and electrical optimization,grid reliability and blackout prevention offer sustainable solutions to the challenges of today, and tomorrow. From Flexible Alternate Current Transmission systems that enhance the security, capactity and flexibility of power transmission networks to HVDC power superhighways , there are comparatively inexpensive and faster ways to provide more power and control in existing networks.
33 kV towerline roadcrossing design modification - Final (English)Pablo Miguel Jurado
The document summarizes the procedure developed by IMCO Engineering & Construction Co. to redesign underground road crossings between 33kV transmission towers in Kuwait's Wafra Oil Field using live line techniques. The original rigid underground cable connections caused failures to shut down entire lines. The new design installed temporary overhead bypasses to allow disconnecting and replacing the underground cables without power interruptions. Live line crews carefully installed and later removed the bypasses while construction crews built the new road crossing structures over 28 days per site. The procedure was successfully used to redesign 9 road crossings over 9 months, with adaptations made for special cases involving nearby power lines.
The document discusses an automation project for a brewery involving temperature control of fermentation tanks. AGE Technologies was commissioned to design and implement a control system using Modicon PLCs and a SCADA system to monitor temperatures, control glycine valves and manage the operating modes of each tank. Key features included graphical tank status displays, temperature and process logging, and alarm annunciation. The project scope involved three PLC control systems networked via Ethernet with an overview SCADA system.
Bright Singh Chellathurai is a project management professional with over 11 years of experience managing automation projects for companies like ABB Global Industries. He has extensive experience leading projects from bid support through commissioning, including designing control systems, developing software, and coordinating project teams. Currently he is the project manager for a legacy project at K+S Potash limited in Canada.
IRJET- Automatic Bottle Filling and Capping System using PLCIRJET Journal
This document summarizes an automatic bottle filling and capping system that uses a Programmable Logic Controller (PLC). The system aims to meet industrial demands by filling and capping bottles on a conveyor belt. The PLC controls the filling process and coordinates the conveyor belt and sensors. After filling, the bottles are capped. Ladder logic is used to program the PLC to control the filling and capping processes. The system is designed to efficiently and accurately fill and cap bottles for use in industries such as those packaging liquids like milk or water.
A new age of industrial productionThe Internet of Things, Se.docxransayo
The document discusses the new age of industrial production enabled by connecting industrial equipment, systems, and processes to the Internet. This industrial Internet of Things allows for improved productivity and efficiency through data collection and analytics, predictive maintenance, remote monitoring and control, and more flexible automation from order to delivery. It highlights examples of ABB solutions that utilize sensors and data to optimize operations in various industries like manufacturing, mining, shipping, and energy.
The document summarizes the INTEGRADDE project, which aims to develop an end-to-end digital manufacturing solution for additive manufacturing (AM) of metal components. The project will create pilot lines to demonstrate AM of medium to large metal parts using technologies like laser metal deposition. It will develop a digital thread to integrate design, modeling, production planning, quality control and more. The consortium involves 26 entities from 11 European countries covering the full AM value chain.
ABB's technology provides further growth to Europe's largest wind farm. ABB installed three liquid cooled PCS 6000 STATCOM units at Whitelee wind farm in Great Britain to enable the wind farm to comply with grid codes and allow further expansion. ABB and Vestas worked together to install three 2MVAr PCS100 STATCOM containers and two 2.5MVAr capacitor banks at the Fakken wind farm in Norway to make it grid compliant. ABB successfully installed 32 PCS100 AVCs to provide limitless power protection for semiconductor processes at a world class semiconductor company in Korea.
The document discusses several automation projects completed by an engineer team at various companies. It describes projects involving setup of systems for rapid changeover, paste supply and filling, safety controls, data management, virtual server environments, vision inspection, movable interlocks, terminal automation, machine upgrades, and electronic batch data collection. The projects utilized various automation technologies from companies like Allen-Bradley, Schneider, Rockwell, Siemens, Cognex, and more.
The engineer team defined the requirements, design, and installation guidelines for a safety system. All this associated with the setup of a Safety PLC with AMEC (Alternative Methods of Energy Control).
Sujit Das has 12 years of experience in electrical engineering and automation systems for process plants, machine tools industries, and substations. He has expertise in PLC programming, SCADA development, CNC systems, servo drives, VFD drives, and designing electrical systems. Some of his responsibilities include designing, installing, and commissioning automation, electrical, and power management systems for various industries. He is proficient in software such as Eplan, AutoCAD, Solid Edge, and PLC programming packages from Siemens and GE Fanuc.
Similar to ABB_Podilsky_Reprint_WorldCement_lowres (20)
1. Cementing Relationships
ABB improves production process at Podilsky Cement plant
Reprint from World Cement, March 2012
“We were delighted to renew the
partnership with ABB for the installation
of integrated electrical, control and
automation systems for our new
production line. From the first steps of
the detailed project design through to
the intensive commissioning phase, ABB
provided professional and dedicated
support. It was a pleasure to work with
ABB and we look forward to future
collaborations.”
Nigel Reape, Podilsky Cement’s
Production Director
2. Introduction
JSC Podilsky Cement, part of the Irish building
materials group CRH, is located in Kamyanets-Podilsky,
approximately 420 km southwest of Ukraine’s capital Kiev.
The site was originally commissioned in the 1970s. ABB’s
success story with CRH’s Podilsky Cement started seven
years ago, in 2005, when ABB signed a contract for the
supply of an automation package for a new vertical coal
mill to be installed at the plant. During the execution phase
of this project an engineer from Podilsky Cement and
an engineer from ABB in Ukraine joined the ABB project
team in Switzerland’s main technology centre for electrical,
control and instrumentation systems to jointly elaborate the
design and the control application. The commissioning of
this project was successfully completed in spring 2007. In
2008, a similar setup was applied for the new coal feeder
of kiln line no. 5. Podilsky and ABB established a strong
relationship during the execution stages of these two
projects.
Line no. 7 project
In June 2009, ABB signed a contract for the supply of
systems, solutions and products for the new Podilsky
Cement production line no. 7 project. Among the various
ABB systems, products and services included in the
overall project scope of supply were medium-voltage (MV)
switchgears, intelligent low-voltage (LV) motor control
centres (MNSiS MCC), LV variable-speed drives (VSD), a
Cementing
Relationships
Cementing
Relationships
Alex Kaufmann, ABB Switzerland Ltd,
discusses the new cement
production line no.7 project at
Podilsky Cement.
Podilsky cement plant overview.
Cover Story
Reprint from World Cement, March 2012
3. plant-wide process control system, MES, instrumentation,
gas analysers, engineering services, technical site services,
as well as on- and off-shore training. Also part of ABB’s
overall solution is the design, procurement, support
and coordination of third-party equipment, including
uninterruptable power supplies (UPS) and additional
instrumentation.
The production line no. 7 project was successfully
commissioned in August 2011. With its production capacity
of 7500 tpd, Podilsky Cement now operates the biggest
cement production line in Ukraine. The project also
constitutes the largest single investment in the Ukrainian
cement industry since independence was achieved in
1991. This was one of the reasons why the new line was
officially inaugurated by the president of Ukraine in October
2011. The new line is important for CRH, with significant
improvements in operational efficiency, product quality and
environmental performance. The old cement plant used
the wet process for clinker production and ball mills for
cement grinding. The modern equipment produces cement
more efficiently, with kilns such as the Polysius-supplied dry
process clinker production line and the FLSmidth-supplied
vertical mill for cement grinding.
Modern instrumentation, such as cross-belt analysers,
provide better control of the processes involved in
making cement and thereby improve product quality. The
new cement production line is fitted with high-efficiency
filtration equipment at all emission points, helping to
significantly reduce particulate and CO2 emissions. The
project is the world’s first Track 2 ‘joint implementation’
project registered with the UNFCCC (United Framework
Convention on Climate Change).
Before Podilsky Cement decided to modernise its
installations and build the new cement production line,
the plant consisted of six cement production lines using a
wet production process and achieving a total production
of 3 million tpa of cement. After the start-up of the new
line, the existing wet production process lines will be
mothballed, since the new dry production process line
alone achieves almost the same capacity as the old lines
together. “The initial performance of the new plant shows
fuel consumption to be less than 50% of the wet process.
Power consumption to make clinker shows a reduction
of over 15%, and the optimisation of the new line will
improve performance further,” says CRH Europe Material’s
Technical Director Eamon Geraghty.
At the beginning of the execution phase of the project,
two engineers from Podilsky Cement joined the ABB core
project team, consisting of engineering experts from ABB
Ukraine and ABB Switzerland. They started the detailed
engineering and the software application programming in
Switzerland before moving back to Ukraine to complete
this part of the engineering. The factory acceptance test
(FAT) of the control system application was executed in
ABB Ukraine’s facilities in Kharkov. The involvement of
Podilsky engineers during the engineering and subsequent
commissioning ensures that they have detailed knowledge
about the ABB systems and solutions installed at the
site, resulting in professional operation, maintenance and
troubleshooting of the plant.
Integrated solutions for process control
ABB supplied the 800xA control system, which extends
the reach of traditional automation systems beyond control
of the process to achieve the productivity gains necessary
to succeed in today’s business markets. This function is
accessible from a single user interface that is configured
to present information and provide interaction in a context
appropriate to all user disciplines, e.g. every electrical loop
diagram is directly linked to its corresponding object in
the control system, independent of whether it is a simple
instrument or a complex MV motor. With this integrated
information, plant operators can make qualified decisions
quickly and based on relevant and reliable data.
“Due to the clear structure of the ABB control system
and the well-arranged process graphics and faceplates,
Kiln line no. 7 at Podilsky Cement.
New central control room (CCR).
4. our operators easily and efficiently learnt to operate our
new plant. They can reach all the necessary information
to take their decisions with only a few mouse clicks. The
easy navigation with dynamic hyperlinks between objects
is one of the many features that help operators to find the
root cause of abnormal situations.
For us, the new ABB control
system is a perfect combination of
most modern design and ultimate
functionality,” says Podilsky’s
Control System Manager
Aleksey Lavrenyuk.
Extended automation objects
created within the engineering
environment provide a
foundation for the efficient
development, deployment, reuse
and continuous improvement of
production and safety applications,
with great predictability.
ABB’s System 800xA Minerals
Library is especially developed for
the cement industry and suitable
for greenfield projects and control
system upgrades. It is a suite of
object-oriented software control
modules that make it possible to
design process control and power
applications in an efficient and
fully-parameterised fashion. Successfully operating at more
than 300 cement and mineral processing sites worldwide,
the technology increases the standardisation, functionality
and quality of process control software over the complete
life cycle of the production facility.
ABB also installed its Knowledge Manager system at
Podilsky Cement, which offers industry-specific process
data management solutions for cement production and
minerals processing. Goal-oriented decisions can be made
by accessing the information needed at the right time,
place and format. The system provides analytical insights
to identify deviations in the process and best practices to
keep the production on target.
Providing solutions suited to the cement industry,
the Knowledge Manager system supports Podilsky Cement
with monitoring manufacturing performance indicators,
process operations and energy reporting, as well as
downtime management.
Integration of subsystems
As can be seen in Table 1, many subsystems were
delivered by a variety of suppliers. The seamless
integration of these systems into the control system is
proof of the flexibility of the 800xA control system. “ABB
delivered a full turnkey package and was technically
competent with all delivery dates achieved. Their
understanding of the cement process was evident in their
development of the consumer circuits and
MCC designs. Commissioning of the application
software was smooth with no major omissions or errors,”
states CRH’s Technical Electrical Advisor Pat Fullen.
During the commissioning of the new line, ABB also
integrated the existing coal mill application into the new
plant control system. Due to the detailed preparation of
this task, the modification could be completed during an
ordinary scheduled shutdown of the coal mill, avoiding any
additional downtime.
Configuration of the control system.
The preheater tower.
5. LV distribution system, emergency power
system, UPS system
All LV distribution panels are of modular MNS type and
have front-side operated withdrawable feeders, whereas the
incomer circuit breakers are motor controlled. The intelligent
motor control centre (MNSiS) is fully integrated into ABB’s
800xA control system. Through a complex but efficient fibre
optic network, all intelligent motor starter detail information is
accessible from any of the nine electrical rooms and from any
of the plant’s three control rooms. The availability of essential
information in the whole plant enables the central control
room (CCR) operators and the electrical maintenance staff
to make the most efficient decisions in the shortest possible
time.
For the safety of the equipment and for the emergency
operation during power network shutdowns, the various
emergency consumers are fed by a diesel generator unit.
These consumers are connected to different motor control
centre groups, which contain an incomer circuit breaker for
the distribution transformer, as well as an incomer circuit
breaker for the emergency power. Both incomers are
feeding the same LV busbar and are therefore interlocked in
order to use only either one of the two power supplies.
UPS systems with an output of 220 V are installed in
the CCR building and in the various substations to maintain
power for servers, the central control system, remote I/O
panels, instrumentation and the essential lighting.
Acceleration programmes
Due to overall project requirements during the execution
phase of the line no. 7 project, Podilsky Cement asked
ABB to plan and implement two acceleration programmes
in order to significantly shorten the delivery time of the
equipment included in ABB’s scope of supply.
“On two separate occasions ABB was able to meet our
requests for acceleration of their engineering and delivery
programmes,” says Podilsky Cement’s Production Director
Nigel Reape.
After a detailed investigation, ABB presented the
revised schedule, resulting in a reduced engineering and
manufacturing time of approximately three months. This
reduction of the delivery time could be reached due to the
company’s ability to access its global expert resources in
engineering ad hoc, as well as by increasing the resources
working on the manufacturing side of the project. Despite
the challenging schedule, the project team reached all
the new milestones and delivered all the equipment and
engineering documents on time while keeping ABB’s high
quality standards. Reape continued: “This flexibility in
meeting tight deadlines coupled with the ability to provide
truly professional installation and commissioning engineers
were critical in achieving our project deadlines. It was a
pleasure to work with ABB on this project and we look
forward to future collaborations.”
Excellent cooperation during the
complete project
Building on the existing relationship from previous successful
common projects, the cooperation between Podilsky
Cement, CRH and ABB resulted in an efficient and smooth
project execution.
Reape concludes: “After the successful collaboration
between Podilsky Cement and ABB on our coal mill
installation project in 2006, Podilsky Cement was delighted
to renew our partnership with ABB for the installation
of our new cement production line. From the first steps
of the detailed project design through to the intensive
commissioning phase, the ABB project team provided
professional and dedicated support to Podilsky Cement.
Through open and honest communications our two teams
developed a close working relationship, which was a key
element in the successful completion of the project.”
Table 1. Control system details
Process controllers 9
Integration of Profibus
interfaces
138 (55 from ABB scope of
supply)
Integration of Modbus
interfaces
141 (33 from ABB scope of
supply)
Field inputs/outputs (digital) 3616
Field inputs/outputs
(analog)
1072
Intelligent MCC starter 358
PID control loops 32
Third party PLC* interfaces 7
Third party OPC**
interfaces
4
Aspect servers 3
Connectivity servers 2
Domain servers 2
Knowledge Manager (KM) 1
Data collector node (DCN) 1
Engineering station 1
Operators station 5 in CCR***, 1 in LCR****
for clay, 1 in limestone LCR
approximately 3.5 km from plant
800xA version SV5.0 SP2, Rev.C, Minerals Lib
5.1/2
Major OEM interfaces Polysius, FLSmidth, Beumer,
Schenck Process, Hasler,
FLSmidth Pfister, Bedeschi,
Auma, Saacke
Intelligent MCCs with ABB latest MNSiS technology providing
reliable motor protection and control, communicating with the
800xA system throughout the complete plant, including the
nine substations through ModBus@TCPIP protocol
*PLC - Programmable logic controller
**OPC - Object linking and embedding (OLE) for process
control
***CCR - Central control room
****LCR - Local control room