Trends and opportunities in sugar cogeneration
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This is a presentation shared to public specially for those in sugar industry who are venturing in cogeneration either in form of a new greenfield project or expansion of existing capabilities.
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Cogeneration in Sugar mills
This document discusses opportunities for cogeneration in the sugar and paper industries using bagasse as a fuel source. It notes that high capital costs, fuel availability, and government approvals present constraints. Improving milling processes can reduce bagasse moisture content. Using both bagasse and sugarcane trash has potential to generate electricity year-round. New mill designs like CMR mills use less power and produce lower moisture bagasse than conventional mills. Bagasse dryers can further reduce moisture when using bagasse combustion gases as the heat source. Recovering and utilizing sugarcane trash in addition to bagasse could nearly double surplus power generation from mills.
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OVERVIEW OF COGENERATION OPPORTUNITIES IN NEPALESE SUGAR SECTOR
This document provides an overview of cogeneration opportunities in the Nepalese sugar sector. It discusses how cogeneration works by using fuel to generate both steam for industrial processes and electricity. The sugar sector in Nepal is described, including annual sugarcane production and bagasse production. Current practices and configurations in sugar plants are outlined. The document proposes upgrading to higher pressure boilers and turbines to increase power generation potential. Estimates suggest upgrading several plants could generate over 50 MW of surplus power for the grid. Interventions to realize this cogeneration potential are recommended, such as feasibility studies, assessing utility benefits, and developing incentive programs.
Cogeneration
Cogeneration involves the sequential conversion of fuel into multiple usable energy forms. It can produce both electrical and thermal energy, unlike conventional systems. There are two types of cogeneration systems - inplant power generation and reject heat utilization. Inplant power generation produces steam at a higher temperature than needed for manufacturing to also generate electricity using a turbine generator. Reject heat utilization uses excess steam from a power plant for manufacturing. Topping cycles produce electricity first while bottoming cycles produce heat first. Cogeneration provides benefits like fuel economy, lower capital costs, and protection from power outages. Common technologies are steam turbine, gas turbine, combined cycle, and diesel engine systems.
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- Heat recovery systems maximize efficiency and flexibility by producing steam, hot water, or chilled water depending on customer needs.
Co-Generation
The document discusses Grameen Phone's co-generation power system at their corporate headquarters. It provides details on the power demands of the building, the co-generation equipment including gas turbines and chillers, and how the system saves energy by utilizing waste heat. The co-generation system produces both electricity and cooling, lowering costs and greenhouse gas emissions compared to separate power and chilled water systems.
Cogeneration
Cogeneration, or combined heat and power (CHP), involves generating electricity and useful thermal energy from a single fuel source. This is more efficient than separate generation of power and heat, with overall efficiencies potentially over 75%. Cogeneration can reduce fuel costs by 40-50% and lower carbon dioxide emissions. It provides reliable, lower cost power for industrial processes and other applications like district heating. Widespread adoption of cogeneration could cut India's fuel use and greenhouse gas emissions significantly.
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This document discusses opportunities for cogeneration in the sugar and paper industries using bagasse as a fuel source. It notes that high capital costs, fuel availability, and government approvals present constraints. Improving milling processes can reduce bagasse moisture content. Using both bagasse and sugarcane trash has potential to generate electricity year-round. New mill designs like CMR mills use less power and produce lower moisture bagasse than conventional mills. Bagasse dryers can further reduce moisture when using bagasse combustion gases as the heat source. Recovering and utilizing sugarcane trash in addition to bagasse could nearly double surplus power generation from mills.
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OVERVIEW OF COGENERATION OPPORTUNITIES IN NEPALESE SUGAR SECTOR
This document provides an overview of cogeneration opportunities in the Nepalese sugar sector. It discusses how cogeneration works by using fuel to generate both steam for industrial processes and electricity. The sugar sector in Nepal is described, including annual sugarcane production and bagasse production. Current practices and configurations in sugar plants are outlined. The document proposes upgrading to higher pressure boilers and turbines to increase power generation potential. Estimates suggest upgrading several plants could generate over 50 MW of surplus power for the grid. Interventions to realize this cogeneration potential are recommended, such as feasibility studies, assessing utility benefits, and developing incentive programs.
Cogeneration
Cogeneration involves the sequential conversion of fuel into multiple usable energy forms. It can produce both electrical and thermal energy, unlike conventional systems. There are two types of cogeneration systems - inplant power generation and reject heat utilization. Inplant power generation produces steam at a higher temperature than needed for manufacturing to also generate electricity using a turbine generator. Reject heat utilization uses excess steam from a power plant for manufacturing. Topping cycles produce electricity first while bottoming cycles produce heat first. Cogeneration provides benefits like fuel economy, lower capital costs, and protection from power outages. Common technologies are steam turbine, gas turbine, combined cycle, and diesel engine systems.
Chp 2007
Wärtsilä produces highly efficient combined heat and power (CHP) plants that run on various fuels. Their modular design allows for flexible operation and scalability. Key features include:
- Electrical efficiencies of 43-45% for engines and total efficiencies over 90% when waste heat is recovered.
- Engines can use natural gas, liquid fuels, or dual-fuels to provide reliable, low-emission power.
- Heat recovery systems maximize efficiency and flexibility by producing steam, hot water, or chilled water depending on customer needs.
Co-Generation
The document discusses Grameen Phone's co-generation power system at their corporate headquarters. It provides details on the power demands of the building, the co-generation equipment including gas turbines and chillers, and how the system saves energy by utilizing waste heat. The co-generation system produces both electricity and cooling, lowering costs and greenhouse gas emissions compared to separate power and chilled water systems.
Cogeneration
Cogeneration, or combined heat and power (CHP), involves generating electricity and useful thermal energy from a single fuel source. This is more efficient than separate generation of power and heat, with overall efficiencies potentially over 75%. Cogeneration can reduce fuel costs by 40-50% and lower carbon dioxide emissions. It provides reliable, lower cost power for industrial processes and other applications like district heating. Widespread adoption of cogeneration could cut India's fuel use and greenhouse gas emissions significantly.
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Cogeneration
Indraprastha Gas Limited (IGL) is exploring cogeneration as an efficient and cost-effective energy alternative in India. Cogeneration, or combined heat and power, involves the sequential generation of two forms of useful energy (typically electricity and heat) from a single fuel source. It provides multiple benefits over other energy sources such as lower emissions, reduced costs, and improved reliability. IGL has partnered with over 60 industries and corporate houses to implement cogeneration projects totaling over 60 MW of power. IGL can assist customers by providing natural gas, financing options, equipment suppliers, and turnkey project implementation for cogeneration solutions.
Cogeneration
Cogeneration systems produce both electricity and useful thermal energy in a single integrated system to improve efficiency. This document discusses cogeneration systems that use steam turbines, gas turbines, or reciprocating engines as the prime mover. Steam turbine cogeneration systems can be backpressure or extraction condensing configurations. Gas turbine cogeneration systems operate on the Brayton cycle of compressing, heating, and expanding air. Cogeneration provides benefits like increased efficiency, lower emissions, and cost savings compared to separate thermal and electrical systems.
Cogeneration (chp)
This document discusses cogeneration/combined heat and power (CHP) systems. It defines CHP as the integrated production of usable heat and power from a single system. The key benefits of CHP systems are outlined as increased efficiency, environmental benefits from reduced emissions, and economic benefits from lower energy costs. The document describes common CHP configurations including combustion turbines/reciprocating engines with heat recovery and steam boilers with steam turbines. It also discusses assessing CHP system performance and provides examples of applications for CHP technology.
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Download Link (Copy URL):
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Syllabus:
Introduction
Need of Cogeneration
Principle and Advantages of Cogeneration
Technical Options for Cogeneration
Gas turbine Cogeneration Systems
Reciprocating Engine Cogeneration Systems
Classification of Cogeneration Systems
Topping Cycle
Bottoming Cycle
Factors Influencing Cogeneration Choice
Important Technical Parameters for Cogeneration
Typical Cogeneration Performance Parameters
Relative Merits of Cogeneration Systems
Case Study
Cogeneration
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Cogeneration power plant
This document discusses cogeneration and improving energy efficiency in sugar mills. It provides information on:
1) Cogeneration involves the combined production of electrical power and useful thermal energy from a common fuel source. This allows for better utilization of resources and independence in power and steam.
2) Major advantages of cogeneration include lower production costs, quick return on investment, and ability to use biomass fuels. It also provides a solution to power problems when hydropower availability is low.
3) Case studies show potential energy savings through retrofitting with high-pressure boilers, improving control systems, reducing downtime, and acquiring best available technologies for new projects.
Cogeneration Concept
Cogeneration, also known as combined heat and power (CHP), is the simultaneous generation of electrical or mechanical power and useful thermal energy from a single process or system. It can achieve overall fuel efficiencies of over 80% by capturing heat that would otherwise be wasted from power generation. Trigeneration refers to the addition of an absorption chiller to produce cooling from the waste heat. Cogeneration technologies include gas turbines, steam turbines, internal combustion engines, microturbines, and fuel cells. Cogeneration can provide economic and environmental benefits through improved efficiency and reduced emissions.
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This document provides an overview of 3 biomass-based cogeneration case studies in India:
1. Arvind Mills Cogeneration Plant - A 27MW plant in Gujarat that meets the company's power, heating and cooling needs through a biomass-fueled CHP system. It has a payback period of 4 years.
2. DSL, Himachal Pradesh - A 5MW biomass CHP plant that provides reliable steam and power for a textile manufacturing plant. It uses biomass from local sources.
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Combined Heat and Power Generation
Combined Heat and Power is the simultaneous production of
electricity and heat using a single fuel such as natural gas. The heat produced from the electricity generation process is captured and used to produce steam or hot water that can then be used for industrial and commercial heating or cooling purposes, such as district energy systems. The dual output of CHP facility can make more efficient use of fuel than two separate facilities that each just produce just heat or electricity. Consequently a CHP facility can provide the same energy services with lower greenhouse gas emissions.
Combined heat power plant (chp)
Combined heat and power (CHP) refers to the use of a production unit's exhaust heat for another process requirement, improving energy utilization. By capturing waste heat, overall thermal efficiency can increase from 40-50% to 70-90%. CHP installations can be large or small, using fuels like natural gas or biomass, and are used for industrial steam production, agriculture heating, district heating, and small-scale building heating. CHP provides benefits like high efficiency, reduced emissions, cost savings, and power reliability.
Topic cogeneration
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Presentation1
This document discusses cogeneration systems and their benefits. It describes the main types of cogeneration systems which include steam turbine, gas turbine, reciprocating engine, and other classifications like topping and bottoming cycles. For each system, it provides details on how they work, examples of configurations (e.g. back pressure steam turbine, extraction condensing steam turbine), advantages, disadvantages, and ranges of capacities. The document also outlines benefits of cogeneration such as increased energy efficiency and cost savings, and provides some examples of opportunities to improve energy efficiency for steam turbine and gas turbine cogeneration systems.
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1. Cogeneration systems can use steam turbines, gas turbines, or diesel generators to simultaneously produce electricity and useful thermal energy.
2. A performance assessment would provide insights into a cogeneration system's performance and identify opportunities for optimization.
3. The document outlines the methodology for conducting a performance test of a cogeneration plant, including instrumentation, test duration, measurements, calculations of turbine efficiency and plant heat rate.
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Combined Heat and Power (CHP) generation. The use of industrial power and heat, resulting into high efficiency of the industrial unit and high profits. Reliability on energy provider is reduced.
Co-generation and trigeneration by Varun Pratap Singh
Download Link (Copy URL):
https://sites.google.com/view/varunpratapsingh/teaching-engagements
Syllabus:
Introduction
Need of Cogeneration
Principle and Advantages of Cogeneration
Technical Options for Cogeneration
Gas turbine Cogeneration Systems
Reciprocating Engine Cogeneration Systems
Classification of Cogeneration Systems
Topping Cycle
Bottoming Cycle
Factors Influencing Cogeneration Choice
Important Technical Parameters for Cogeneration
Typical Cogeneration Performance Parameters
Relative Merits of Cogeneration Systems
Case Study
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The document discusses co-generation (also known as combined heat and power) as a promising technology to meet future energy demands while reducing dependence on imported oil. Co-generation improves efficiency by capturing waste heat from power generation and using it for industrial processes. This can increase overall efficiency to 80-85% compared to 36-58% for conventional separate power and heat generation. Co-generation also reduces emissions and costs by locating power plants near heat demand. The document outlines applications of co-generation in various sectors and its benefits including fuel savings, lower emissions, and increased efficiency.
Cogeneration power plant
This document discusses cogeneration and improving energy efficiency in sugar mills. It provides information on:
1) Cogeneration involves the combined production of electrical power and useful thermal energy from a common fuel source. This allows for better utilization of resources and independence in power and steam.
2) Major advantages of cogeneration include lower production costs, quick return on investment, and ability to use biomass fuels. It also provides a solution to power problems when hydropower availability is low.
3) Case studies show potential energy savings through retrofitting with high-pressure boilers, improving control systems, reducing downtime, and acquiring best available technologies for new projects.
Cogeneration Concept
Cogeneration, also known as combined heat and power (CHP), is the simultaneous generation of electrical or mechanical power and useful thermal energy from a single process or system. It can achieve overall fuel efficiencies of over 80% by capturing heat that would otherwise be wasted from power generation. Trigeneration refers to the addition of an absorption chiller to produce cooling from the waste heat. Cogeneration technologies include gas turbines, steam turbines, internal combustion engines, microturbines, and fuel cells. Cogeneration can provide economic and environmental benefits through improved efficiency and reduced emissions.
Energy Management - Biomass Based Cogeneration
This document provides an overview of 3 biomass-based cogeneration case studies in India:
1. Arvind Mills Cogeneration Plant - A 27MW plant in Gujarat that meets the company's power, heating and cooling needs through a biomass-fueled CHP system. It has a payback period of 4 years.
2. DSL, Himachal Pradesh - A 5MW biomass CHP plant that provides reliable steam and power for a textile manufacturing plant. It uses biomass from local sources.
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Cogeneration Of Power
Cement production is an energy intensive process that generates significant waste heat from preheaters and cooler exhaust gases. This document examines the potential for cogeneration in the Indian cement industry by recovering waste heat to generate electricity. It estimates that 40 cement plants in India could generate up to 160 MW of power capacity through cogeneration, reducing total power needs by 25-30% and cutting CO2 emissions by 1.5 million tonnes per year or 18%. However, barriers to wider adoption include the high capital costs, lack of proven indigenous technology, and absence of incentives for adopting cogeneration.
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What is Cogeneration and why should you invest in it? In this presentation, GREENCROWN Energy defines Cogeneration and discusses its many benefits for your organization. How can this help your company? Read on for more information.
Additionally, this presentation contains information on Power Purchase Agreement (PPA)/On-Site Utility.
How to master your projects - CHP - Combined Heat and Power Generation
M+W Group is a leading global engineering firm that specializes in combined heat and power (CHP) generation projects. It offers consulting, design, construction, and operational services for CHP plants. M+W Group has extensive experience delivering turnkey CHP solutions using technologies like gas turbines, engines, and biomass. Notable past projects include trigeneration plants, energy supply centers for data centers, and biomass CHP facilities.
Combined Heat and Power Generation
Combined Heat and Power is the simultaneous production of
electricity and heat using a single fuel such as natural gas. The heat produced from the electricity generation process is captured and used to produce steam or hot water that can then be used for industrial and commercial heating or cooling purposes, such as district energy systems. The dual output of CHP facility can make more efficient use of fuel than two separate facilities that each just produce just heat or electricity. Consequently a CHP facility can provide the same energy services with lower greenhouse gas emissions.
Combined heat power plant (chp)
Combined heat and power (CHP) refers to the use of a production unit's exhaust heat for another process requirement, improving energy utilization. By capturing waste heat, overall thermal efficiency can increase from 40-50% to 70-90%. CHP installations can be large or small, using fuels like natural gas or biomass, and are used for industrial steam production, agriculture heating, district heating, and small-scale building heating. CHP provides benefits like high efficiency, reduced emissions, cost savings, and power reliability.
Topic cogeneration
This document discusses cogeneration and combined heat and power (CHP). It defines cogeneration as the simultaneous generation of thermal energy and electricity from one process. There are two types of cogeneration - topping cycle, where fuel is primarily used to generate electricity and excess heat is recovered, and bottoming cycle, where waste heat from a process is used to generate electricity. The document provides examples of topping cycle systems like combined cycle, steam turbine, and gas turbine configurations. Cogeneration improves efficiency by capturing heat that would otherwise be wasted during conventional power generation.
Presentation1
This document discusses cogeneration systems and their benefits. It describes the main types of cogeneration systems which include steam turbine, gas turbine, reciprocating engine, and other classifications like topping and bottoming cycles. For each system, it provides details on how they work, examples of configurations (e.g. back pressure steam turbine, extraction condensing steam turbine), advantages, disadvantages, and ranges of capacities. The document also outlines benefits of cogeneration such as increased energy efficiency and cost savings, and provides some examples of opportunities to improve energy efficiency for steam turbine and gas turbine cogeneration systems.
Epa of cogen
The document discusses performance assessment of cogeneration systems. It describes:
1. Cogeneration systems can use steam turbines, gas turbines, or diesel generators to simultaneously produce electricity and useful thermal energy.
2. A performance assessment would provide insights into a cogeneration system's performance and identify opportunities for optimization.
3. The document outlines the methodology for conducting a performance test of a cogeneration plant, including instrumentation, test duration, measurements, calculations of turbine efficiency and plant heat rate.
ENER-G Digester Gas Brochure Feb 2009
ENER·G designs, installs, and operates biogas combined heat and power systems for digestion plants. They provide turnkey biogas CHP projects utilizing the methane-rich biogas produced from anaerobic digestion to run generator engines that produce electricity and heat. As a specialist in biogas CHP, ENER·G offers feasibility studies, system design, manufacturing, installation, operation, and maintenance services. Their solutions maximize the economic and environmental benefits of utilizing biogas for renewable energy generation.
Cogeneration assesment
This document discusses performance assessment of cogeneration systems with steam and gas turbines. It provides definitions of key performance terms like plant heat rate and turbine cylinder efficiency. It outlines the purpose of performance testing being to determine power output and plant heat rate. The document describes test procedures for steam turbine cogeneration systems including required measurements, calculations of thermal and electrical energy, and an example calculation for a small cogeneration plant.
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Sugarcane industry
Brazil is the world's largest producer of sugar, producing over 672 million tons annually. India is the second largest producer, producing 285 million tons, and is the largest producer of Gur and Khandsari. Sugar cane is produced in many areas worldwide, with major production in Brazil, India, China, Thailand, and Pakistan. Sugar is manufactured by cleaning sugarcane, milling it to extract juice, evaporating the juice to form syrup, crystallizing the syrup into sugar crystals, and packaging the sugar. Bagasse and ethanol are important byproducts of sugar production. Sugar production is well-suited to the cooperative sector in India due to its seasonal nature. Sugar mills are located within 25km of sugarcane
Refined Sugar
Refined sugar provides empty calories and is stripped of all nutrients during the refining process. Consumption of refined sugar and processed foods high in sugar is associated with many health problems like dental cavities, obesity, diabetes, and mental health issues. Refined sugar acts as a drug in the body and is highly addictive due to sudden rises and drops in blood sugar levels. Removing refined sugar from one's diet for several weeks can help reduce addiction symptoms and make a noticeable difference in overall health and energy levels.
Refining Sugar (Eben Eliason)
OLPC Country Meetings May 21, 2008.
http://wiki.laptop.org/go/Presentations/May_2008_Country_Workshop
Sugar Refining
The document describes the process for refining sugar from raw sugar syrup. The key steps are:
1) Affination where raw syrup is mixed with crystals to wash off molasses in centrifuges.
2) Carbonation where lime and carbon dioxide are added to precipitate impurities.
3) Filtration to remove impurities.
4) Decolorization by passing the liquor through bone charcoal filters.
5) Concentration and crystallization in vacuum pans to form pure sugar crystals.
Sugars
India is the largest producer of sugar globally, producing around 30 million tons annually. The sugar industry is the second largest agro-processing industry in India, employing over 980 people across various departments like production, purchase, sales, accounts, and more. Key departments oversee cane procurement, extraction of juice from cane, crystallization of sugar, and distribution. The organizational structure consists of various levels from laborers to managers overseeing multiple departments.
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- 1. www.uttamgroup.com Presentation on TRENDS AND OPPORTUNITIES IN SUGAR COGENERATION IREDA-MITCON BUSINESS MEET Pune, Maharashtra, 17 Oct 2013 Presented by Manoj JP Kumar Manager-Marketing, Uttam Group
- 2. www.uttamgroup.com CURRENT SITUATION • Current potential of bagasse based cogeneration is estimated at 7000 MW. In Maharashtra it is projected to be at 1250 MW • Challenges in sugar production is increasingly offset by integration of cogen with distillery. • MNRE initiatives as one of the main driving force for renewable energy and decentralized generation of power. • Sugar industry is inherently suitable for cogeneration • Technological, regulatory, financial and barrier characteristic to cooperative sugar factories preventing full realization of.
- 3. www.uttamgroup.com TREND 1 – HIGH PRESSURE SYSTEMS
- 4. www.uttamgroup.com TREND 1 – HIGH PRESSURE SYSTEMS
- 5. www.uttamgroup.com TREND 2 – MULTIPLE FUEL, HIGH EFFICIENCY BOILERS • As the cogeneration outweighs the bagasse saving mode, the need for higher fuel goes up. • Coal become necessity in capacity enhancements and in offseason operations • Sugarcane procurement becomes challenge after certain capacity depending on the region. • Boilers are now technologically more suitable for higher capacity and multiple fuel firing. • Opens up a new field of resources utilization ie. in biomass based cogeneration
- 6. www.uttamgroup.com TREND 3 – CONDENSING TURBINES /AIR COOLED CONDENSER • Earlier back pressure turbines used to default options for sugar factories. • Now it is based on requirement. • Lower back pressure results in higher power generation per unit of steam flow. • Air cooled condenser is a viable option where the water availability is or will be a concern in future. • The varied requirement is suitable addressed by extraction in different turbine stages. • These extraction are also used for regeneration across different feedwater heaters.
- 7. www.uttamgroup.com TREND 4 – RO-DM PLANT • Higher pressure calls for stringent water quality requirements. • Deposit/scaling is serious concern which not only reduces the life of the boiler but it also reduces the heat transfer hence higher fuel to generate same amount of steam. Drum Operating Pressure (bar) Total Alkalinity (ppm) Silica (ppm Si02) Total Suspended Solids (ppm) 22-31 600 90 10 32-41 500 40 8 42-51 200 30 3 52-61 150 20 2 61-68 125 8 1 70-105 B.D.L 1 B.D.L > 110 B.D.L 0.02 B.D.L
- 8. www.uttamgroup.com TREND 5 – PLANT DCS • As we move to integrated sugar mills the need for integrated control system goes up. • Manual intervention become supplementary measure to DCS. • Continuous control, monitoring system is required to improve the efficiency, availability and operations of plant. • Emergency handing • Optimization of cogeneration system and hence better return on investment.
- 9. www.uttamgroup.com TREND 6 - REMOTE PLANT OPERATION
- 10. www.uttamgroup.com TREND 6 - REMOTE PLANT OPERATION • Data acquisition through various DCS, data-logger and other third party applications. • The data is ported through intranet/web securely for global access of information. • Data can be accessed and recorded for targeted audience. • The data is presented is form of KPI and other advanced analytics which can reported to various stakeholders in most appropriate format.
- 11. www.uttamgroup.com TREND 7– IMPROVED PROJECT MANAGEMENT AND O&M • Turnkey mode /EPC mode has gained industry wide acceptability not only in private sugar plants but also in cooperative sugar plants. • As industry moves to “cogen mode”, efficiency and availability of plant became utmost important. It needs improved team for operation and maintenance. • Annual maintenance contacts is some of the solution offered by Industry. It not only improves the ROI of the plant but aslo enhances its life
- 12. www.uttamgroup.com QUICK WRAP UP S.no ASPECT Earlier Now 1. Cogeneration pressure cycle 22-45 bar, 380-450 °C 67-105 bar, 485-525 °C 2. Fuel Primarily bagasse Multiple fuels 3. Turbine exhaust Back pressure Condensing / Air cooled condenser 4. Water treatment plant Filtration Yes, RO-DM 5. Plant DCS / remote operation Relay based Yes 6. Project Management and O&M Unorganized Professional
- 13. www.uttamgroup.com RECIPROCATING SERVO GRATE BOILER FOR SPENT WASH FIRING
- 16. www.uttamgroup.com COMPANY OVERVIEW • Uttam Group was started by our founder-chairman Late Shri Uttam Chand Adlakha in 1962 and today it is one of the leading business house in India. • Lipi boilers, one of pioneer companies in India started by late Mr. Kamal Mukherjee in 1969, which later taken over by Uttam, remains base of Uttam’s efforts in addressing the need of sugar cogeneration in India. • Combined turnover of the group is currently more than 350 million USD including an export revenue of 90 million. • Uttam energy is one of the top supplier of cogeneration plants on turnkey/EPC basis. • We have supplied 400+ installations across India, Africa and South East Asia.
- 17. www.uttamgroup.com LIST OF MAJOR PROJECTS UNDER EXECUTION Below is a brief list projects under execution. S.No Project Name Plant capacity 1. Dalmia Sugar 5000 TCD sugar plant 2. Nira Bhima SSK 18 MW cogen plant 3. Utopian sugars 15 MW cogen plant 5. Sant tukaram SSK 15 MW cogen plant 6. Kisanveer Khandala SSK 9.5 MW cogen plant 7. Bhima SSK, solapur 25 MW power generation plant 8. Daund sugars limited 1.5 MW cogen plant and the list goes on……
- 18. www.uttamgroup.com THANK YOU PRESENTED BY: MR. MANOJ JP KUMAR, MANAGER- MARKETING, UTTAM GROUP