Several research directions and open problems are further discussed for the design and verification of energy-sustainable CPSs.
An overview of sustainable computing is provided and different approaches towards design and verification of energy-sustainable computing (i.e., sustainable computing from energy consumption perspective) are discussed for cyber physical systems (CPSs), i.e., systems with strong coupling between computing components and non-computing processes in physical environment.
The findings of this work can be used to (1) inform technology assessments for technologies that deliver operational and/or behavioral savings; and (2) determine the expected accuracy of statistical models used for automated measurement and verification (M&V) of energy savings.
The paper concerns verification of the energy model for the fatigue life determination under the uniaxial random and variable-amplitude stress state.
(For a more detailed discussion of Einstein's (1935), see Flores, (1998).) Cockcroft and Walton (1932) are routinely credited with the first experimental verification of mass-energy equivalence.
The design will allow automatic verification of zero electrical energy in the machine.
The proposed system is critical to support better management, reporting, and verification of material and energy network construction.
The control tests consist of the measurement of beam output, verification of the beam energy, and determination of the beam flatness and symmetry in a linear accelerator.
And before 2025, building owners will demand verification of how much energy - and other resources - their buildings use.
To address this interesting issue, this paper reports a design and experimental verification of a beam-roller piezoelectric energy harvester that can scavenge energy from both sway and bi-directional vibrations.
In some countries, the verification of smart meters such as energy meters and payroll recorders is a requirement [12, 15].
