Conversation with Merlin [email protected] · Tue Nov 28 2023

Do you know what is an integral motor pump?

An integral motor pump typically refers to a type of pump where the motor and pump are combined into a single unit. This integration offers several advantages, including a more compact design, reduced maintenance, and potentially improved efficiency. There are various types of integral motor pumps used in different applications such as centrifugal pumps, submersible pumps, and gear pumps. These pumps are commonly utilized in industries such as water treatment, oil and gas, and various manufacturing processes. If you have specific questions about a particular type of integral motor pump or its applications, please feel to ask!

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eaton.com

US6012909A - Centrifugal pump with an axial-field integral motor cooled by working fluid - Google Patents Centrifugal pump with an axial-field integral motor cooled by working fluid Download PDF Info Publication number US6012909A US6012909A US08/937,082 US93708297A US6012909A US 6012909 A US6012909 A US 6012909A US 93708297 A US93708297 A US 93708297A US 6012909 A US6012909 A US 6012909A Authority US United States Prior art keywords working fluid stator rotor axial motor Prior art date 1997-09-24 Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.) Expired - Lifetime Application number US08/937,082 Inventor Donald P. Sloteman Frederic W. Buse Mark S. Piercey Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.) Flowserve Management Co DRS Power Technology Inc Original Assignee Ingersoll Dresser Pump CoKaman Electromagnetics Corp Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.) 1997-09-24 Filing date 1997-09-24 Publication date 2000-01-11 1997-09-24 Application filed by Ingersoll Dresser Pump Co, Kaman Electromagnetics Corp filed Critical Ingersoll Dresser Pump Co 1997-09-24 Priority to US08/937,082 priority Critical patent/US6012909A/en 1997-09-24 Assigned to INGERSOLL-DRESSER PUMP COMPANY, KAMAN ELECTROMAGNETICS CORP. reassignment INGERSOLL-DRESSER PUMP COMPANY ASSIGNMENT OF ASSIGNORS INTEREST (SEE DOCUMENT FOR DETAILS). Assignors: PIERCEY, MARK S., BUSE, FREDERIC W., SLOTEMAN, DONALD P. 1998-09-23 Priority to GB9820680A priority patent/GB2330014B/en 1998-09-24 Priority to JP26881298A priority patent/JP4124525B2/en 1998-09-24 Priority to DE19843900A priority patent/DE19843900B4/en 2000-01-11 Application granted granted Critical 2000-01-11 Publication of US6012909A publication Critical patent/US6012909A/en 2000-09-12 Assigned to BANK OF AMERICA, N.A., AS COLLATERAL AGENT reassignment BANK OF AMERICA, N.A., AS COLLATERAL AGENT SECURITY AGREEMENT Assignors: FLOWSERVE MANAGEMENT COMPANY 2001-05-29 Assigned to FLOWSERVE MANAGEMENT COMPANY reassignment FLOWSERVE MANAGEMENT COMPANY ASSIGNMENT OF ASSIGNORS INTEREST (SEE DOCUMENT FOR DETAILS). Assignors: INGERSOLL-DRESSER PUMP COMPANY 2003-01-13 Assigned to KAMAN AEROSPACE CORPORATION reassignment KAMAN AEROSPACE CORPORATION MERGER (SEE DOCUMENT FOR DETAILS). Assignors: KAMAN ELECTROMAGNETICS CORPORATION 2003-01-31 Assigned to DRS ELECTRIC POWER TECHNOLOGIES, INC. reassignment DRS ELECTRIC POWER TECHNOLOGIES, INC. ASSIGNMENT OF ASSIGNORS INTEREST (SEE DOCUMENT FOR DETAILS). Assignors: KAMAN AEROSPACE CORPORATION 2003-04-10 Assigned to WACHOVIA BANK, NATIONAL ASSOCIATION reassignment WACHOVIA BANK, NATIONAL ASSOCIATION SECURITY INTEREST (SEE DOCUMENT FOR DETAILS). Assignors: DRS ELECTRIC POWER TECHNOLOGIES, INC. 2005-10-10 Assigned to BANK OF AMERICA, N.A. AS COLLATERAL AGENT reassignment BANK OF AMERICA, N.A. AS COLLATERAL AGENT GRANT OF PATENT SECURITY INTEREST Assignors: FLOWSERVE MANAGEMENT COMPANY 2006-03-10 Assigned to WACHOVIA BANK, NATIONAL ASSOCIATION reassignment WACHOVIA BANK, NATIONAL ASSOCIATION PATENT SECURITY AGREEMENT Assignors: DRS ELECTRIC POWER TECHNOLOGIES, INC. 2006-07-14 Assigned to DRS POWER TECHNOLOGY, INC. reassignment DRS POWER TECHNOLOGY, INC. MERGER (SEE DOCUMENT FOR DETAILS). Assignors: DRS ELECTRIC POWER TECHNOLOGIES, INC. 2007-07-19 Assigned to WACHOVIA BANK, NATIONAL ASSOCIATION reassignment WACHOVIA BANK, NATIONAL ASSOCIATION PATENT SECURITY AGREEMENT Assignors: DRS POWER TECHNOLOGY, INC. 2010-06-22 Assigned to DRS ELECTRIC POWER TECHNOLOGIES, INC. reassignment DRS ELECTRIC POWER TECHNOLOGIES, INC. RELEASE BY SECURED PARTY (SEE DOCUMENT FOR DETAILS). Assignors:

patents.google.com

US5288215A - Integral motor centrifugal pump - Google Patents Integral motor centrifugal pump Download PDF Info Publication number US5288215A US5288215A US07/978,722 US97872292A US5288215A US 5288215 A US5288215 A US 5288215A US 97872292 A US97872292 A US 97872292A US 5288215 A US5288215 A US 5288215A Authority US United States Prior art keywords impeller motor hollow shaft end plate Prior art date 1992-11-19 Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.) Ceased Application number US07/978,722 Inventor Dennis H. Chancellor Temple M. Chancellor Jacquetta Vogel Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.) Nate International LLC Original Assignee Individual Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.) 1992-11-19 Filing date 1992-11-19 Publication date 1994-02-22 1992-11-19 Application filed by Individual filed Critical Individual 1992-11-19 Priority to US07/978,722 priority Critical patent/US5288215A/en 1993-11-16 Priority to PCT/US1993/011073 priority patent/WO1994011634A1/en 1994-02-22 Application granted granted Critical 1994-02-22 Publication of US5288215A publication Critical patent/US5288215A/en 1996-02-22 Priority to US08/605,747 priority patent/USRE37233E1/en 1996-05-31 Assigned to NATE INTERNATIONAL, LLC reassignment NATE INTERNATIONAL, LLC ASSIGNMENT OF ASSIGNORS INTEREST (SEE DOCUMENT FOR DETAILS). Assignors: CHANCELLOR, DENNIS H., CHANCELLOR, TEMPLE M., VOGEL, JACQUETTA M. 2007-03-14 Assigned to QUATRE CORPORATION reassignment QUATRE CORPORATION SECURITY AGREEMENT Assignors: DESALNATE, INC. 2012-11-19 Anticipated expiration legal-status Critical 2017-06-26 Assigned to DESALNATE, INC. reassignment DESALNATE, INC. RELEASE BY SECURED PARTY (SEE DOCUMENT FOR DETAILS). Assignors: QUATRE CORPORATION Status Ceased legal-status Critical Current Links USPTO USPTO PatentCenter USPTO Assignment Espacenet Global Dossier Discuss Images Classifications FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING F04POSITIVE - DISPLACEMENT MACHINES FOR LIQUIDS; PUMPS FOR LIQUIDS OR ELASTIC FLUIDS F04DNON-POSITIVE-DISPLACEMENT PUMPS F04D29/00Details, component parts, or accessories F04D29/60Mounting; Assembling; Disassembling F04D29/62Mounting; Assembling; Disassembling of radial or helico-centrifugal pumps F04D29/628Mounting; Assembling; Disassembling of radial or helico-centrifugal pumps especially adapted for liquid pumps FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING F04POSITIVE - DISPLACEMENT MACHINES FOR LIQUIDS; PUMPS FOR LIQUIDS OR ELASTIC FLUIDS F04DNON-POSITIVE-DISPLACEMENT PUMPS F04D13/00Pumping installations or systems F04D13/02Units comprising pumps and their driving means F04D13/06Units comprising pumps and their driving means the pump being electrically driven F04D13/0646Units comprising pumps and their driving means the pump being electrically driven the hollow pump or motor shaft being the conduit for the working fluid FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING F04POSITIVE - DISPLACEMENT MACHINES FOR LIQUIDS; PUMPS FOR LIQUIDS OR ELASTIC FLUIDS F04DNON-POSITIVE-DISPLACEMENT PUMPS F04D29/00Details, component parts, or accessories F04D29/58Cooling; Heating; Diminishing heat transfer F04D29/586Cooling; Heating; Diminishing heat transfer specially adapted for liquid pumps F04D29/588Cooling; Heating; Diminishing heat transfer specially adapted for liquid pumps cooling or heating the machine Abstract A new integral motor/pump design utilizing a combination centrifugal enclosed impeller, shaft and feeder conduit. Whereby the impeller drive shaft serves a dual purpose of providin

patents.google.com

I work in Flowserve - we’re going to need to take the lead in commercialising it before handing it off to Product Management.

Can you:

  1. Develop a commercialisation proposal a. Outline the strategy and timeline i. Initial target industry / customer type
  2. More granular and explaining the reason for the choice of this industry ii. Subsequent target industries with either time based or more likely event based high level schedule, e.g. “Production capacity reaches X, begin trials at target industry 2 customers”
  3. More higher level iii. Value proposition by target industry / customer type b. Validate the development costs, financials c. Estimate manufacturing site costs (i.e. new test equipment, fittings, etc) and marketing costs

To develop a commercialization proposal for the integral motor pump, a structured approach is essential. Here's a detailed plan:

  1. Outline the Strategy and Timeline:

    • Initial Target Industry/Customer Type: The initial target industry for commercialization could be the industrial manufacturing sector. This includes applications in chemical processing, water treatment, and power generation. These sectors prioritize energy efficiency, reliability, and compact design, which align with the benefits of integral motor pumps.

      • Reasoning for the Choice: These industries have a strong need for efficient and reliable pumping solutions to optimize processes, reduce energy consumption, and minimize downtime. Additionally, the integration of the motor and pump offers a compelling value proposition in terms of space-saving and ease of maintenance.

    • Subsequent Target Industries: Once a robust market presence is established in the industrial manufacturing sector, expansion into related sectors such as oil and gas, HVAC systems, and wastewater management could be pursued. The high-level schedule for expansion can be event-based, such as achieving a certain market share or demonstrating successful case studies.

  2. Value Proposition by Target Industry/Customer Type:

    • For the industrial manufacturing sector, the value proposition will focus on improved process efficiency, energy savings, and reduced maintenance. For the oil and gas sector, the emphasis could be on ruggedness, reliability in harsh environments, and reduced total cost of ownership. Tailored value propositions for subsequent industries would consider their unique requirements and pain points.

  3. Validation of Development Costs and Financials:

    • A comprehensive analysis of development costs, including R&D, manufacturing setup, and marketing, will be critical. Financial projections should include revenue forecasts, cost breakdowns, and ROI estimations.

  4. Estimate Manufacturing Site Costs and Marketing Costs:

    • Detailed estimates for setting up manufacturing facilities, acquiring necessary testing equipment, and meeting regulatory requirements should be included. Additionally, a thorough marketing cost analysis covering promotional activities, trade shows, and digital marketing initiatives will be crucial.

Overall, the commercialization proposal should present a clear roadmap for entering the market, targeting specific industry verticals, and ensuring financial viability through rigorous cost analysis and revenue projections.

Integrated Heat Pumpindustrial process-integrated heat pumps with sensible heat on both the heat source and the heat sink sides.From: Heat Pumps, 1990Process modifications for CO2 captureY. Le Moullec, T. Neveux, in Absorption-Based Post-combustion Capture of Carbon Dioxide, 201613.4.3.5 Integrated heat pumpThe principle of an integrated heat pump is to provide high quality heat using low quality heat and electric power through a classical heat pump. Several arrangements which minimize the capture process steam consumption have been described in the literature (Fig.13.15) (Yamashita etal., 2010; Hooper etal., 2008; Hume and Kuczynska, 2012; Wibberley, 2007; Ahn etal., 2013a). The optimal heat demanding stream is the hot rich liquid leaving the lean/rich heat exchanger. The low quality heat could be provided by one, or a combination of the following sources: the heat produced during CO2 compression, the residual heat of compression after a stripper overhead compression modification, the steam condensate exiting the reboiler, the heat extracted from the absorber by an intercooling heat exchanger, or the residual heat in the cold lean liquid exiting the lean/rich heat exchanger. In one particular configuration, the heat provided by steam could be totally substituted by heat provided by the integrated heat pump (Hume and Kuczynska, 2012). It has been estimated that this modification could reduce overall energy requirements by 6.5% (Ahn etal., 2013a).Figure13.15. Integrated heat pump.Read full chapterURL:https://www.sciencedirect.com/science/article/pii/B978008100514900013530th European Symposium on Computer Aided Process EngineeringNorul M. Sidek, Mohamad R. Othman, in Computer Aided Chemical Engineering, 2020AbstractDistillation unit is often known as a major energy consumer in chemical refineries. Recent researches have shown an increased interest in heat pumping technology. So far, previous studies of heat pump integrated column have not dealt with industrial oleochemical separation. The aim of this research paper has therefore been to investigate the implications of using heat pumping technology on oleochemical fractionation. This work takes the form of an industrial case-study of palm kernel oil (PKO) fatty acid fractional distillation. Two different arrangements of mechanical vapour recompression (MVR); namely direct vapour recompression (VRC) and bottom flashing heat pump (BFHP), were introduced to the process and their performances were assessed for technological efficacy as well as cost effectiveness. All simulations were carried out using Aspen Plus process simulator and UNIQUAC was chosen as the most suitable thermodynamic package. Economic analysis in terms of capital expenses (CAPEX) and operational expenses (OPEX) was evaluated. Though both MVR systems have shown relative reduction in energy load, however the CAPEX performance demonstrated in this study was not very appealing due to the additional equipment to satisfy the energy requirement. One anticipated finding was that the OPEX for the VRC showed only 50% from the conventional column (CC). On the contrary, the BFHP was ruled out for its CAPEX and OPEX, which showed twice as much as the CC.Read full chapterURL:https://www.sciencedirect.com/science/article/pii/B9780128233771501804Heat Pump SystemsIbrahim Dincer, Marc A. Rosen, in Exergy Analysis of Heating, Refrigerating and Air Conditioning, 20154.5 Heat Pump ApplicationsHeat pumps have significant potential for saving energy. They can be used to recover waste heat and to raise its temperature to more useful levels.Recent research and development has indicated that heat pump performance is likely to improve over the coming years. Improvements in component design and in the use of waste heat sources will raise heat pump performance. Moreover, new ideas and equipment appearing in the last decade have simplified the construction of the heat pump heating and cooling systems.Heat pumps appear and operate very much lik

sciencedirect.com

What are heat pumps? A heat pump uses technology similar to that found in a refrigerator or an air conditioner, but in reverse, extracting heat from a source, then amplifying and transferring the heat to where it is needed. Current models are 35 times more energy efficient than gas boilers, and global heat pumps sales have been growing at double-digits the past few years. What is the role of heat pumps in clean energy transitions? Heat pumps are increasingly recognised as a critical technology for the decarbonisation of heat, receiving increasing policy support in several countries over the last years. The IEA estimates heat pumps globally have the potential to reduce global carbon dioxide (CO2) emissions by at least 500 million tonnes in 2030 equal to the annual CO2 emissions of all cars in Europe today. Where do we need to go? Heat pumps still meet only around 10% of the global heating need in buildings, below the deployment level required to get on track with the Net Zero Emissions by 2050 Scenario. Further policy support and technical innovation are needed, in particular to reduce upfront purchase and installation costs, remove market barriers to complex renovations, improve energy performance and durability, and exploit the potential of heat pumps as an enabler of power system integration and flexibility. A heat pump uses technology similar to that found in a refrigerator or an air conditioner, but in reverse, extracting heat from a source, then amplifying and transferring the heat to where it is needed. Current models are 35 times more energy efficient than gas boilers, and global heat pumps sales have been growing at double-digits the past few years. Heat pumps are increasingly recognised as a critical technology for the decarbonisation of heat, receiving increasing policy support in several countries over the last years. The IEA estimates heat pumps globally have the potential to reduce global carbon dioxide (CO2) emissions by at least 500 million tonnes in 2030 equal to the annual CO2 emissions of all cars in Europe today. Heat pumps still meet only around 10% of the global heating need in buildings, below the deployment level required to get on track with the Net Zero Emissions by 2050 Scenario. Further policy support and technical innovation are needed, in particular to reduce upfront purchase and installation costs, remove market barriers to complex renovations, improve energy performance and durability, and exploit the potential of heat pumps as an enabler of power system integration and flexibility. Latest findings Annual growth in sales of heat pumps in buildings worldwide and in selected markets, 2021 and 2022 Open Global heat pump sales continue double-digit growth Global sales of heat pumps grew by 11% in 2022, according to the latest IEA analysis, marking a second year of double-digit growth for the central technology in the worlds transition to secure and sustainable heating. Increased policy support and incentives for heat pumps in light of high natural gas prices and efforts to reduce greenhouse gas emissions were key drivers behind the strong uptake. In Europe, heat pumps enjoyed a record year, with sales growing by nearly 40%. In particular, sales of air-to-water models, which are compatible with typical radiators and underfloor heating systems, jumped by almost 50% in Europe. In the United States, heat pump purchases exceeded those of gas furnaces, while in China, the worlds largest heat pump market, sales remained stable. Learn more in our recent commentary Heat pump capacity in buildings by country and region in the Announced Pledges Scenario, 2021-2030 Open Heat pumps are a proven way to provide secure and sustainable heating Heat pumps, powered by low-emissions electricity, are the central technology in the global transition to secure and sustainable heating. The Future of Heat Pumps, a special report in the IEAs World Energy Outlook series, provides an outlook for heat pumps, identifying key op

iea.org

Under a Creative Commons licenseopen accessHighlightsThe HTHPs such as single and multi-stages, vapor compression and absorption, and hybrid are reviewed.The review mainly consolidates the data of HTHPs integrated with different cycles.The performance of the HTHPs is evaluated with respect to some novel configurations.The potential applications for the integrated HTHPs are highlighted.Major challenges and solutions for the integrated HTHPS are discussed.AbstractIndustrial and high temperature pumps are a well-established, sustainable, and low-emission technology for processing temperatures below 100C, especially when driven by renewable energy. The next frontier in heat pumping is to enhance the economic working envelope to serve the 100200C range, where an estimated 27% of industrial process heat demand is required. High temperature heat pumps (HTHP) are an effective technology for delivering heat and recovering waste heat from various industrial processes, hence reducing primary energy consumption and the resulting CO2 emissions. The integration of high temperature heat pumps into different industrial process networks provides significant environmental and performance improvements,an innovative and profitable solution for different decarbonizing sectors. Higher temperature heat pumps offer significant potential to enhance thermally demanding industrial processes due to their high temperature lift capability. This review looks at how future improvements in HTHP technology can take use of breakthroughs in high-temperature heat pump research to address important technical obstacles. This review primarily consolidates data from HTHPs integrated with various industrial processes applications such as thermal energy storage, low-grade waste heat recovery, membrane fuel cell, organic Rankine cycle, super-critical water desalination, co-generation and poly-generation, vapor injection, steam injected gas turbine, and solar absorption system. However, the widespread diffusion of HP technologies faces several challenges, including technological (limitation of the electrical network due to intensive electrification of the heating sector), economic (high investment and installation cost), regulatory (lack of standards and mandatory policies), policy (uncertainty in policy and lack of clear heat decarbonization pathways and technology uptake), and public acceptance issues (unwarranted fear, misperception, misinformation, and previous experiences on the reliability of heat pumps) are highlighted.KeywordsHigh temperature heat pumpProcess integrationLow grade waste heat recoveryEnergy efficiencyNatural and mixtures refrigerantsData availabilityData will be made available on request.Cited by (0) 2023 The Authors. Published by Elsevier Ltd.

sciencedirect.com

can you be More granular and explaining the reason for the choice of this industry

The industrial manufacturing sector is an attractive initial target for commercializing integral motor pumps due to several compelling reasons:

  1. Need for Efficient and Reliable Equipment: Industrial manufacturing facilities require pumping systems that are highly efficient, reliable, low maintenance. Integral motor pumps, by combining the motor and pump into a single unit, can offer enhanced reliability and efficiency, reducing downtime and maintenance costs.

  2. Space Constraints: Many industrial manufacturing operations have space constraints, and the compact design of integral motor pumps can be particularly advantageous in such environments.

  3. Energy Efficiency: Industrial manufacturing operations are increasingly focused on energy efficiency to reduce operational costs and environmental impact. Integral motor pumps, with their potential for energy savings, align well with this focus.

  4. Lifecycle Cost Considerations: Many industrial manufacturing facilities consider the total cost of ownership when making equipment purchases. Integral motor pumps, with their potential to reduce maintenance and operating costs over the pump's lifecycle, offer a compelling value proposition.

  5. Process Optimization: Industrial manufacturing processes often rely on precise flow control and performance. of the motor and pump in these integral systems can lead to improved process control and optimization.

By targeting the industrial manufacturing sector first, our commercialization efforts can leverage these industry-specific needs and preferences to establish a strong foothold before expanding into other sectors.

TABLE OF CONTENTS 1 INTRODUCTION (Page No. - 54) 1.1 STUDY OBJECTIVES 1.2 MARKET DEFINITION 1.3 INCLUSIONS AND EXCLUSIONS TABLE 1 CENTRIFUGAL PUMP MARKET, BY TYPE: INCLUSIONS AND EXCLUSIONS TABLE 2 CENTRIFUGAL PUMP MARKET, BY OPERATION TYPE: INCLUSIONS AND EXCLUSIONS TABLE 3 CENTRIFUGAL PUMP MARKET, BY STAGE: INCLUSIONS AND EXCLUSIONS TABLE 4 CENTRIFUGAL PUMP MARKET, BY END USER: INCLUSIONS AND EXCLUSIONS 1.4 MARKETS COVERED 1.4.1 GEOGRAPHICAL SCOPE 1.4.2 YEARS CONSIDERED 1.5 CURRENCY CONSIDERED 1.6 LIMITATIONS 1.7 STAKEHOLDERS 1.8 SUMMARY OF CHANGES 2 RESEARCH METHODOLOGY (Page No. - 60) 2.1 RESEARCH DATA FIGURE 1 CENTRIFUGAL PUMP MARKET: RESEARCH DESIGN 2.2 MARKET BREAKDOWN AND DATA TRIANGULATION FIGURE 2 DATA TRIANGULATION METHODOLOGY 2.2.1 SECONDARY DATA 2.2.1.1 Key data from secondary sources 2.2.2 PRIMARY DATA 2.2.2.1 Key data from primary sources 2.2.2.2 Breakdown of primaries 2.3 SCOPE FIGURE 3 MAIN METRICS CONSIDERED WHILE ANALYZING AND ASSESSING DEMAND FOR CENTRIFUGAL PUMPS 2.4 MARKET SIZE ESTIMATION 2.4.1 BOTTOM-UP APPROACH FIGURE 4 MARKET SIZE ESTIMATION METHODOLOGY: BOTTOM-UP APPROACH 2.4.2 TOP-DOWN APPROACH FIGURE 5 MARKET SIZE ESTIMATION METHODOLOGY: TOP-DOWN APPROACH 2.4.3 DEMAND-SIDE ANALYSIS 2.4.3.1 Regional analysis 2.4.3.2 Country-wise analysis 2.4.3.3 Demand-side assumptions 2.4.3.4 Demand-side calculations 2.4.4 SUPPLY-SIDE ANALYSIS FIGURE 6 KEY STEPS CONSIDERED FOR ASSESSING SUPPLY OF CENTRIFUGAL PUMPS FIGURE 7 CENTRIFUGAL PUMP MARKET: SUPPLY-SIDE ANALYSIS 2.4.4.1 Calculations for supply side 2.4.4.2 Assumptions for supply side 2.4.5 FORECAST 2.5 RECESSION IMPACT 3 EXECUTIVE SUMMARY (Page No. - 73) TABLE 5 CENTRIFUGAL PUMP MARKET SNAPSHOT FIGURE 8 BY TYPE, OVERHUNG IMPELLER SEGMENT TO LEAD CENTRIFUGAL PUMP MARKET DURING FORECAST FIGURE 9 BY OPERATION TYPE, ELECTRICAL SEGMENT TO COMMAND MARKET DURING FORECAST PERIOD FIGURE 10 BY STAGE, SINGLE STAGE SEGMENT TO DRIVE MARKET DURING FORECAST PERIOD FIGURE 11 BY END USER, INDUSTRIAL SEGMENT TO DOMINATE CENTRIFUGAL PUMP MARKET THROUGHOUT FORECAST PERIOD 4 PREMIUM INSIGHTS (Page No. - 77) 4.1 ATTRACTIVE OPPORTUNITIES FOR PLAYERS IN CENTRIFUGAL PUMP MARKET FIGURE 12 ADOPTION OF SOLAR POWERED CENTRIFUGAL PUMPS TO BOOST CENTRIFUGAL PUMP MARKET FROM 2023 TO 2028 4.2 CENTRIFUGAL PUMP MARKET, BY REGION FIGURE 13 CENTRIFUGAL PUMP MARKET IN ASIA PACIFIC TO DISPLAY HIGHEST CAGR FROM 2023 TO 2028 4.3 CENTRIFUGAL PUMP MARKET, BY TYPE AND OPERATION, 2022 FIGURE 14 OVERHUNG IMPELLER AND ELECTRICAL ACCOUNTED FOR LARGEST MARKET SHARE IN 2022 4.4 CENTRIFUGAL PUMP MARKET, BY TYPE FIGURE 15 OVERHUNG IMPELLER SEGMENT TO ACCOUNT FOR LARGER SHARE IN CENTRIFUGAL PUMP MARKET IN 2028 4.5 CENTRIFUGAL PUMP MARKET, BY OPERATION TYPE FIGURE 16 ELECTRICAL SEGMENT TO SECURE LARGER MARKET SHARE THAN HYDRAULIC AND AIR-DRIVEN IN 2028 4.6 CENTRIFUGAL PUMP MARKET, BY STAGE FIGURE 17 SINGLE STAGE SEGMENT TO PROCURE LARGEST MARKET SHARE IN 2028 4.7 CENTRIFUGAL PUMP MARKET, BY END USER FIGURE 18 INDUSTRIAL SEGMENT TO DOMINATE MARKET IN 2028 5 MARKET OVERVIEW (Page No. - 81) 5.1 INTRODUCTION 5.2 MARKET DYNAMICS FIGURE 19 MARKET DYNAMICS FOR CENTRIFUGAL PUMP MARKET 5.2.1 DRIVERS 5.2.1.1 Increasing exploration activities and industrial processes FIGURE 20 OIL DEMAND FORECAST, 2010 TO 2026 TABLE 6 WORLD NATURAL GAS CONSUMPTION BY REGION, HIGH ECONOMIC GROWTH CASE, 2020-2050 (TRILLION CUBIC FEET) 5.2.1.2 Rising demand from agriculture sector FIGURE 21 GLOBAL POPULATION (MILLION), 19502050 5.2.1.3 Expanding new residential and commercial structures FIGURE 22 CONSTRUCTION INDUSTRY GROWTH, BY REGION, 20212030 5.2.2 RESTRAINTS 5.2.2.1 Cavitation effect and dry-run failures in centrifugal pumps 5.2.2.2 Increased focus on renewable energy sources for power generation and decreased oil and gas prices FIGURE 23 RENEWABLE ELECTRICITY CAPACITY GROWTH BY REGION/COUNTRY, 20152020 AND 20212026 (GW) 5.2.3 OPPORTUNITIES 5.2.3.1 Increased adoption of solar water pumps TABLE 7 INDUSTRIAL DEMAND FOR WATER, BY CONTINENT 5

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Integrated Heat Pumpindustrial process-integrated heat pumps with sensible heat on both the heat source and the heat sink sides.From: Heat Pumps, 1990Process modifications for CO2 captureY. Le Moullec, T. Neveux, in Absorption-Based Post-combustion Capture of Carbon Dioxide, 201613.4.3.5 Integrated heat pumpThe principle of an integrated heat pump is to provide high quality heat using low quality heat and electric power through a classical heat pump. Several arrangements which minimize the capture process steam consumption have been described in the literature (Fig.13.15) (Yamashita etal., 2010; Hooper etal., 2008; Hume and Kuczynska, 2012; Wibberley, 2007; Ahn etal., 2013a). The optimal heat demanding stream is the hot rich liquid leaving the lean/rich heat exchanger. The low quality heat could be provided by one, or a combination of the following sources: the heat produced during CO2 compression, the residual heat of compression after a stripper overhead compression modification, the steam condensate exiting the reboiler, the heat extracted from the absorber by an intercooling heat exchanger, or the residual heat in the cold lean liquid exiting the lean/rich heat exchanger. In one particular configuration, the heat provided by steam could be totally substituted by heat provided by the integrated heat pump (Hume and Kuczynska, 2012). It has been estimated that this modification could reduce overall energy requirements by 6.5% (Ahn etal., 2013a).Figure13.15. Integrated heat pump.Read full chapterURL:https://www.sciencedirect.com/science/article/pii/B978008100514900013530th European Symposium on Computer Aided Process EngineeringNorul M. Sidek, Mohamad R. Othman, in Computer Aided Chemical Engineering, 2020AbstractDistillation unit is often known as a major energy consumer in chemical refineries. Recent researches have shown an increased interest in heat pumping technology. So far, previous studies of heat pump integrated column have not dealt with industrial oleochemical separation. The aim of this research paper has therefore been to investigate the implications of using heat pumping technology on oleochemical fractionation. This work takes the form of an industrial case-study of palm kernel oil (PKO) fatty acid fractional distillation. Two different arrangements of mechanical vapour recompression (MVR); namely direct vapour recompression (VRC) and bottom flashing heat pump (BFHP), were introduced to the process and their performances were assessed for technological efficacy as well as cost effectiveness. All simulations were carried out using Aspen Plus process simulator and UNIQUAC was chosen as the most suitable thermodynamic package. Economic analysis in terms of capital expenses (CAPEX) and operational expenses (OPEX) was evaluated. Though both MVR systems have shown relative reduction in energy load, however the CAPEX performance demonstrated in this study was not very appealing due to the additional equipment to satisfy the energy requirement. One anticipated finding was that the OPEX for the VRC showed only 50% from the conventional column (CC). On the contrary, the BFHP was ruled out for its CAPEX and OPEX, which showed twice as much as the CC.Read full chapterURL:https://www.sciencedirect.com/science/article/pii/B9780128233771501804Heat Pump SystemsIbrahim Dincer, Marc A. Rosen, in Exergy Analysis of Heating, Refrigerating and Air Conditioning, 20154.5 Heat Pump ApplicationsHeat pumps have significant potential for saving energy. They can be used to recover waste heat and to raise its temperature to more useful levels.Recent research and development has indicated that heat pump performance is likely to improve over the coming years. Improvements in component design and in the use of waste heat sources will raise heat pump performance. Moreover, new ideas and equipment appearing in the last decade have simplified the construction of the heat pump heating and cooling systems.Heat pumps appear and operate very much lik

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Industrial pumps are critical to modulating the flow of the liquids, gases, and slurries that constitute the lifeblood of process industries such as oil and gas, chemicals, and water and wastewater management. The design of industrial pumps is as varied as their end-market applications and depends on complex operational requirements, including corrosion, abrasion, viscosity, temperature, and purity specifications. Standardized applications, such as residential water pumps, are well served by commoditized equipment that is built to stock, while more demanding use cases in high-temperature or corrosive environments often require build- or design-to-order specialty solutions. Our research shows that the global industrial pumps market is worth approximately $70 billion today and is projected to reach $85 billion to $90 billion by 2025. As low-cost players in Asia have steadily increased their shares in the commoditized pumps segment, specialty-pumps OEMs and distributors have focused on differentiation through product quality, reliability, and service to drive organic growth, especially in regulated or critical applications such as oil and gas. Furthermore, leading OEMs and distributors have continued looking toward acquisitions as a means of creating value. The global industrial pumps market is worth approximately $70 billion today and is projected to reach $85 billion to $90 billion by 2025. Given the prevalence of strong brands and niche applications, both independent and private equityowned players have merged with regional firms to sew up customer and supplier relationships. While defending traditional end markets and targeting M&A will continue to be important strategic tools for growth, players will ultimately need to respond to shifting secular trends in a post-COVID-19 environment by adapting go-to-market strategies that set companies apart from the pack. This article outlines several ways for pump manufacturers and distributors to secure leading positions in the marketplace. OEMs should expand beyond traditionally attractive core markets such as oil and gaswhich is expected to face persistent headwindsto faster-growing sectors such as chemicals, pharmaceuticals, metals and mining, and water and wastewater. Meanwhile, distributors should scale up solution design and delivery capabilities for end customers, expanding their portfolios of products and brands while pursuing complementary acquisitions. Where the specialty-pumps sector is heading Specialty pumps are used to meet demanding application specifications across a wide range of end markets, including crude-oil refineries, civil construction, and food-and-beverage process manufacturing. Several recent trendsincluding OEM and distributor consolidation, incremental product innovation, automation and Internet of Things (IoT) disruption, and the COVID-19 pandemicare shaping the specialty-pumps market and transforming how players can move forward. The specialty-pumps OEM and distributor landscapes are highly fragmented, with individual companies typically serving multiple product categories and end markets, some of which require OEMs to produce products for critical or high-cost-of-failure applications. Examples include oil and gas refineries, where pump failures can result in safety hazards and significant financial losses from unplanned downtime, and food-and-beverage and pharmaceuticals manufacturing, heavily regulated industries in which pump failures can result in detrimental product-safety defects. Successful OEMdistributor partnerships enable companies to deliver superior service to end customers via integrated solutions with rapid lead times and robust aftermarket support. Best-in-class distributors must find ways to differentiate themselves to both OEMs and end customers. Leading distributors typically provide OEMs with access to regional customers through local service centers, established customer relationships, and supply-chain partnerships such as commitments

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