Deliverables 2021

• D5.3_2019.04b Resource and Energy Collaborations – a Handbook (this document is based on deliverable D5.3_2019.04a Handbook: Energy Collaboration in Norwegian Industry)

Deliverables 2020

• D0.1_2020.02 HighEFF Annual Report 2019
• D1.1_2020.02 Work Exchange Networks and Work and Heat Exchange Networks - A Review
• D1.2_2020.01 Distillation Simulation robust to liquid and vapor phase disappearing
• D1.2_2020.02 Nonsmooth Analysis for steady state simulation of Distillation Processes
• D1.2_2020.07 Optimization of Liquid Air Energy Storage using a Genetic Algorithm
• D1.2_2020.09 Optimal Operation and Control of Heat-to-Power Cycles
• D1.2_2020.10 Coordinator MPC for Thermal Energy Storage
• D1.3_2020.01 Recycling of the Flue Gas from Aluminium Electrolysis Cells
• D2.2_2020.04 Evaluation of real ejector performance in the field
• D3.3_2020.02 Potential of TES for a DH system utilizing industrial waste heat
• D3.3_2020.04 Control policies for managing TES based on industrial cases studies
• D5.1_2020.01 Barriers and enablers - Policy brief
• D5.1_2020.03 Barriers, drivers, innovation - Book Chapter
• D5.1_2020.10 Centre Innovation Coordination - Conference paper I
• D5.1_2020.11 Centre Innovation Coordination - Conference paper II
• D5.1_2020.14 Centre Innovation Coordination - Journal Paper I
• D5.1_2020.15 Centre Innovation Coordination - Journal Paper II
• D5.1_2020.17 Medie Analyses
• D5.2_2020.03 HighEFF Spring Meeting presentation of NEC results
• D5.2_2020.05 Cost-efficient TES for increased utilization of RE in steam production - CETES
• D5.2_2020.06 Optimal selection of TES for fossil-free steam production
• D6.2_2020.01 System impact of heat exchanger pressure loss in ORCs for smelter off-gas waste heat recovery
• D6.4_2020.04 Case study 1-pager - Integrated agricluster for surplus heat utilization

Deliverables 2019

• D0.1_2019.02 HighEFF Annual Report 2018
• D1.1_2019.02 Natural Systems study for Industrial use
• D1.1_2019.05 Work and Heat Integration - a new Field in PS and PSE
• D1.1_2019.06 Optimal Thermodynamic Paths for WHENs
• D1.2_2019.01 Systematic Design of Split Range Controllers
• D1.2_2019.02 Optimal Operation and Control of Heat to Power Cycles
• D1.2_2019.05 Optimization of WHENs with unclassified streams
• D1.2_2019.06 A Novel Methodology for Cogeneration Targeting with Optimum Steam Level Placement
• D1.3_2019.03 Advanced Exergy Analysis of the Oil and Gas Processing on a North Sea Platform
• D2.1_2019.07 Utilisation of Dry Ice Sublimation
• D2.2_2019.01 LT-Compressor replacement ejector
• D2.2_2019.04 HTHP with Ejector
• D2.3_2019.06 Humid gases
• D2.3_2019.07 Abstract of Rankine 2020
• D3.1_2019.04 and D4.2_2019.03 Practical Heat-to-power conversion
• D3.1_2019.09 Design of an Experimental ORC Expander Setup using Natural Working Fluids
• D3.1_2019.10 Heat-to-power conversion from variable surplus heat
• D3.2_2019.01 Concept for low temperature plate freezing and energy storage for fish processing industry
• D3.3_2019.01 Thermal storage for improved utilization of renewable energy in steam production
• D3.3_2019.03 Experimental testing of novel cold TES for the food industry
• D4.3_2019.02 Outlining an industrial cluster
• D4.3_2019.03 Success factors for future industrial clusters
• D5.1_2019.01 Realization of energy efficient clusters
• D5.1_2019.03a University-collaboration
• D5.1_2019.05a Centre Innovation
• D5.1_2019.05b Centre Innovation
• D5.1_2019.05c Centre Innovation
• D5.1_2019.08 The discourse of energy efficiency
• D5.2_2019.04 NEC#1 Organizing shared resources and alternative business models
• D5.2_2019.05 NEC#2 HighEX
• D5.2_2019.06 NEC#3 CETES
• D6.2_2019.03 Heat pump concepts for steam production at Glencore Nikkelverk
• D6.2_2019.04 Case study 1-pager - Steam production at Glencore Nikkelverk
• D6.4_2019.01 Cross-industry exploration for external utilization of waste heat
• D6.4_2019.02 Case study 1-pager - External Utilization of waste heat

Deliverables 2018

• D0.1_2018.02 HighEFF Annual Report 2017 – Final  
• D1.3_2018.02 Inert Anode...TMS 2018 presentation 
• D2.1_2018.02 From theoretical analysis to 3D-printed HX models 
• D2.1_2018.05 Cold Energy Storage HX 
• D2.1_2018.06 HX concepts for low temo freezing 
• D2.1_2018.07 Heat exchanger modelling tool opportunities 
• D2.2_2018.02 Multi-Ejector concepts 
• D2.2_2018.04 Modelling 
• D2_3_2018.03 Thermodynamics of humid gases 
• D2_3_2018.04 Effects from choice of thermodynamic and transport properties on heat exchanger design 
• D3.1_2018.11 Thermal storage aided heat-to-power conversion from an intermittent heat source 
• D3.2_2018.04 Design recommendations for R-718 heat pups in high temperature applications 
• D3.3_2018.02 High-temperature TES for industrial processes 
• D3.3_2018.04 TES for Industry_KIFEE 
• D5.1_2018.01 Barriers and enablers for industry implementation
• D5.1_2018.03 STS article on the CO Case
• D5.1_2018.04 Master Thesis
• D5.1_2018.05 Formation of Research Centre_JP
• D5.1_2018.06a University-industry collaboration
• D5.1_2018.06b University-industry collaboration
• D5.1_2018.06c University-industry collaboration
• D5.1_2018.06d University-industry collaboration
• D5.1_2018.08a Centre innovation-Whats the magic word
• D5.1_2018.10 Research Methods
• D5.1_2018.11 History of philosophy

HighEFF publications in the Norwegian publication register Cristin