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Combined Heat and Power Industry

Combined Heat and Power Design Software

CogenS™

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Effortless Software for a Complex Problem

Evaluate, Model and Design
CHP Microgrid projects

CogenS™ is a revolutionary new Combined Heat and Power Design software that is changing the way people think about cogeneration. CogenS™ makes it easier than ever to see the benefits of cogeneration, especially when coupled with Solar and Energy Storage Systems.

With its easy-to-use interface, you can compare your project to traditional energy resource systems in no time.

CogenS™ is a 64-bit windows-based software application that was built using MathWorks MATLAB products.

CogenS™ Resources

CogenS™ System Diagram

Combined Heat and Power Design Diagram

This diagram represents the working concept of CogenS™; a Comparison based Combined Heat and Power Modeling Design Solution; Conventional VS Cogeneration Energy systems. CogenS™ allows you to design, model, optimize and evaluate each system without loss of generality, in a unique design process.

Interested in Buying the Source Code?

Reach out to us at info@jisenergy.com

CogenS™ Project Design Process

Combined Heat and Power Process 10

Project Info

  • Location.
  • Building Type (Industrial, Commercial or Residential).
  • Microgrid components (Combined Heat and Power, Combined Cooling Heat and Power, Energy Storage and PV).
  • Modeling interval (15, 20, 30 and 60 minutes).
  • Metric VS Imperial Units.
  • Weather Data.
Combined Heat and Power Process 9

Energy Profiles

  • Building energy profiles Estimation and Analysis (Electric, Gas, Oil, Cooling, Heating, Domestic Hot Water).
  • Fuel specifications (Heating Value and Density).
  • Scenario Analysis Option (Maximum, Average and Minimum Load Profiles)
  • Peak, Minimum, Average Demand and Load Factor.
  • Grid Emissions Factor.
Combined Heat and Power Process 8

Cooling

Chillers

  • Equipment modeling features:
  • Screw, Centrifugal, Scroll and Reciprocating compressors.
  • Water- or air-cooled condenser.
  • Electric or Gas-Fired absorption.
  • Indirect Hot Water or Steam absorption.
  • System modelling features:
  • Identical multi-unit system.
  • Variable or Constant Flow.
  • Supply Temperature Reset.
  • Part-Load Efficiency Performance.
  • Optimized number of operating units.
  • CO2e emissions.

Cooling Towers

  • Equipment modeling features:
  • Open or closed loop.
  • Cross or Counter flow.
  • Single, 2-speed or variable speed fan.
  • System modelling features:
  • Identical multi-unit system.
  • Free Cooling Heat Exchanger option.
  • Wet-Bulb Reset Control Scheme.
  • Variable or Constant Flow.
  • Supply Temperature Reset.
  • CoolTools or YorkCalc Heat Rejection Performance.
  • Optimized number of operating units.
Combined Heat and Power Process 7

Heating

Boilers

  • Equipment modeling features:
  • Condensing or Non-Condensing.
  • Hot Water or Steam.
  • Electric, Gas or Oil.
  • Mechanical or Natural draft.
  • System modelling features:
  • Identical multi-unit.
  • Variable or Constant Flow.
  • Supply Temperature Reset.
  • Part-Load Efficiency Performance.
  • Optimized number of operating units.
  • CO2e emissions.

Hot Water Heaters

  • Equipment modeling features:
  • Storage or Tankless.
  • Cycle or modulating control.
  • Heat Exchanger, Electric, Gas or Oil.
  • System modelling features:
  • Identical multi-unit.
  • Variable or Constant Flow.
  • Part-Load Efficiency Performance.
  • Optimized number of operating units.
  • CO2e emissions.
Combined Heat and Power Process 6

Energy Cost

Electric and Gas Utility Tariff

  • Fixed and minimum charges.
  • Rates Escalation.
  • Unlimited Energy and Demand charges by Period and Tier.
  • 5 Different Metering and Billing Types:
  • Net Energy Metering
  • Net Energy Metering with $ Credits
  • Net Billing
  • Net Billing with Carry Over to next Month
  • Buy All/Sell All

Oil Cost

  • Fixed and minimum charges.
  • Rates Escalation.
Combined Heat and Power Process 5

Microgrid sizing

  • Optimum CHP Electric and Thermal Outputs.
  • Battery and Thermal Energy Storage Sizes.
  • Auxiliary boiler system size.
  • CHP Microgrid System Load Duration Curve Representation.
Combined Heat and Power Process 4

Energy Resources

Combined Heat and Power

  • Equipment modeling features:
  • Fuel Cell, Reciprocating Internal Combustion Engine and Microturbine.
  • Hot Water or Steam.
  • Natural Gas, Renewable Natural Gas, Hydrogen or Liquified Petroleum Gas.
  • System modeling feattures:
  • Identical multi-unit system.
  • Variable or Constant Flow.
  • Supply Temperature Reset.
  • Shut down and replacement simulation.
  • Output Control.
  • Cost-based Dispatch Optimization with Energy Storage and Grid.
  • Unit Sequencing simulation based on runtime.
  • Dynamic Response.
  • Annual, Temperature and Restart Degradation.
  • Part-Load Efficiency Performance.
  • Optimized number of operating units.
  • Capital and O&M costs.
  • CO2e emissions.

Solar Photo-Voltaic system PVWatts Version 6 API

  • System locatiion.
  • System DC nameplate capacity.
  • Array and Module Types.
  • Azimuth and Tilt angles.
  • Annual Degredation.
  • Capital and O&M costs.
Combined Heat and Power Process 3

Energy Storage

Thermal Energy Storage

  • Single Hot Water Energy Storage Tank.
  • CHP Priority.
  • Supply Temperature Reset.
  • Stratified tank approximated model.
  • Capital and O&M costs.

Battery Energy Storage System

  • Single System.
  • Idealized flat charge and discharge curve.
  • Dynamic Response.
  • Annual, Temperature and Cycle Degradation.
  • Replacement simulation.
  • Capital and O&M costs.

Hydrogen Energy Storage System

  • Multi-unit System.
  • Electrolyzer model.
  • Pressurized vessel + Compressor model.
  • Metal Hydride model.
  • Dynamic Response.
  • Annual, Temperature and Cycle Degradation.
  • Replacement simulation.
  • Capital and O&M costs.
Combined Heat and Power Process 2

Finance

  • Power Purchase Agreement Provider or Building Owner investment financial models.
  • Inflation, Discounting and effective tax rates.
  • Capacity and Production based incentives.
  • Assets Depreciation, Loans and Reserves.
  • Project Financial Metrics (PV, IRR, SPB, DPB, BCR, EAS, BTCF, CFAT).
Combined Heat and Power Process

Results

Summary

  • Energy, Financial and Emissions savings.
  • Financial KPIs
  • Project Capital and Operating Activities pie charts.
  • Conventional VS Cogeneration Pie charts:
  • Energy Bill and Consumption by fuel.
  • Gas Consumption by fuel.
  • Electricity production and emissions by equipment.

Tables

  • Lifetime profiles for key project variables in tabular format:
  • Sub hourly
  • Hourly
  • Daily
  • Weekly
  • Monthly
  • Yearly

Plots

  • Lifetime profiles for key project variables in plot format:
  • Sub hourly
  • Hourly
  • Daily
  • Weekly
  • Monthly
  • Yearly

Combined Heat and Power Projects are Complex

Combined Heat and Power Design requires an eclectic knowledge base across Mechanical, Electrical and Control Systems engineering disciplines. CogenS™ gives you the ability to gain insight into these areas very early in the process.

 

If you’re working on a Residential, Commercial or an Industrial building and thinking about Combined Heat and Power for your energy project, you need to try CogenS™.

 

Or reach out to us and we will do the work for you. We provide CHP Feasibility study engineering services, ask for our engineering services agreement.

Vision

A vision for a Net-Zero CARBON Future

At JIS energy, this is how we envision the role of Combined Heat and Power in a Net-Zero future. Read our report on the subject here.

CogenS™ is an attestation to our passion on the subject matter. Combined Heat and Power Design requires vigorous studying of the different project possibilities. CogenS™ allows the user to exercise with different system sizes, technologies and configurations to achieve optimum results. 

Combined Heat and Power future