Zack Norwood

ORCID: 0000-0002-8355-8899
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About
Contact & Profiles
Research Areas
  • Solar Thermal and Photovoltaic Systems
  • Thermodynamic and Exergetic Analyses of Power and Cooling Systems
  • Hybrid Renewable Energy Systems
  • Smart Grid Energy Management
  • Microgrid Control and Optimization
  • Integrated Energy Systems Optimization
  • Building Energy and Comfort Optimization
  • Advanced Thermodynamic Systems and Engines
  • Photovoltaic System Optimization Techniques
  • Solar Radiation and Photovoltaics
  • Water-Energy-Food Nexus Studies
  • Hygrothermal properties of building materials
  • Refrigeration and Air Conditioning Technologies
  • Energy and Environment Impacts
  • Photovoltaic Systems and Sustainability
  • Combustion and flame dynamics
  • Energy Efficiency and Management
  • Recycling and Waste Management Techniques
  • Advanced battery technologies research
  • Solar-Powered Water Purification Methods
  • Sustainable Building Design and Assessment
  • Architecture and Computational Design
  • Perovskite Materials and Applications

University of Gothenburg
2020

Chalmers University of Technology
2014-2018

University of California, Berkeley
2010-2012

University of Michigan
2010

Lawrence Berkeley National Laboratory
2008

A hybrid solar energy system consisting of a molecular thermal storage (MOST) combined with water heating (SWH) is presented.

10.1039/c6ee01952h article EN cc-by Energy & Environmental Science 2016-11-18

The global trends for the rapid growth of distributed solar heat and power in last decade will likely continue as levelized cost production these technologies continues to decline. To be able compare economic potential one must first quantify types amount resource that each technology can utilize; second, estimate technological performance based on resource; third, costs across regions. In this analysis, we have performed two steps process. We use physical empirically validated models a...

10.1371/journal.pone.0112442 article EN cc-by PLoS ONE 2014-12-04

We report on life cycle assessment (LCA) of the economics, global warming potential and water (both for desalination use in operation) a distributed concentrating solar combined heat power (DCS-CHP) system. Detailed simulation system performance across 1020 sites US with sensible cost allocation scheme informs this LCA. forecast levelized $0.25 kWh−1 electricity $0.03 thermal, ∼80 gCO2eq ∼10 sited Oakland, California. On basis economics shown air cooling, fact that any reduces need cooling...

10.1088/1748-9326/7/4/044016 article EN cc-by Environmental Research Letters 2012-10-26

This paper investigates the cost-effectiveness of operation strategies which can be used to abate CO 2 emissions in a local multi-energy system. A case study is carried out using data from real energy system that integrates district heating, cooling, and electricity networks at Chalmers University Technology. Operation are developed mixed integer linear programming multi-objective optimization model with short foresight rolling horizon year data. The different evaluated across carbon prices....

10.3390/en13071626 article EN cc-by Energies 2020-04-02

The European roadmap for the power sector dictates an 80–95% cut of existing levels carbon dioxide emissions is needed by year 2050 to meet climate goals. This article describes results from a linear cost optimization investment model, ELIN, coupled with solar technology Distributed Concentrating Solar Combined Heat and Power (DCS-CHP), using published costs comprehensive suite renewable conventional electricity generation technologies, compare possible scenarios future grid. these model...

10.3390/en10122080 article EN cc-by Energies 2017-12-07

A small, efficient, and robust turbine is essential to the development of a small-scale (∼10 kWe) Combined Heat Power (CHP) Rankine cycle system. While Tesla design offers versatile solution with low manufacturing maintenance cost, its successful use in systems this type hinges on that also high energy conversion efficiency. The investigation summarized here explored parametric trends efficiency using model analysis performance tandem experimental testing small scale turbine. data were used...

10.1115/es2010-90251 article EN ASME 2010 4th International Conference on Energy Sustainability, Volume 2 2010-01-01

Abstract In this article, we present performance results and analysis of a novel rotary lobe expander device. This is part larger research effort into the design small‐scale solar system that would compete with available distributed technologies for heat electricity generation. To choose an appropriate working fluid components concentrating combined power (DCS‐CHP) system, compared many different fluids, collectors, choices. Of expanders analyzed, including piston expanders, radial inflow...

10.1002/ese3.30 article EN Energy Science & Engineering 2014-04-11

Solar combined heat and power (CHP) systems can compete or exceed solar photovoltaics (PV) — which is often used as the benchmark in terms of efficiency, performance, cost a range distributed generation applications, across specific technology platforms. A common metric to evaluate per peak output “dollars watt” metric. For purpose comparison, we develop new analytic methodology electricity generated from CHP system. The thermal subsystems system are energetically intertwined, yet by...

10.1115/es2010-90198 article EN ASME 2010 4th International Conference on Energy Sustainability, Volume 2 2010-01-01

Recent studies suggest that small scale (5–10kW) distributed solar Rankine combined heat and power could be a viable renewable energy strategy for displacing fossil fuel use in residential buildings, commercial or developing rural communities. One of the primary obstacles scaling down technology to this level is finding an appropriate expander design. This paper considers radial-inflow turbine such application. Although well-tested methodologies exist design analysis radial inflow turbines,...

10.1115/es2010-90250 article EN ASME 2010 4th International Conference on Energy Sustainability, Volume 2 2010-01-01
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