Power Budgeting of a Multiple-Input Buck-Boost Converter

Benavides, N.D.; Chapman, P.L.

doi:10.1109/tpel.2005.857531

Cited by 169 publications

(77 citation statements)

References 5 publications

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“…Together with a controller board, the AIPM can be controlled using a driver board with an integrated digital signal processing (DSP) controller. Customer supplied software can be downloaded the AIPM's DSP to allow the AIPM to act as a motor controller (Lianghong et al, 2011;Zhang et al, 2011a;Gummi and Ferdowsi, 2010;Benavides and Chapman, 2005). In Figure 35, the AC Propulsion Systems' AC-150 drive system is rated at 150 kW (200 HP).…”

Section: Pes Topologiesmentioning

confidence: 99%

“…The AC power from the vehicle can then be used to power stand-alone loads or can be fed back into the grid. Safety systems similar to those used with small DG systems prevent the vehicle from feeding power into the grid when grid power is not available (Zhang et al, 2011a;Gummi and Ferdowsi, 2010;Benavides and Chapman, 2005;Mummadi and Sawant, 2008;Chen et al, 2003).…”

Section: Pes Topologiesmentioning

confidence: 99%

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Power electronics in smart grid distribution power systems: a review

Bayoumi

2016

IJIED

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Distributed generation (DG) in smart grid (SG) is being employed as a means of achieving increased reliability for electrical power systems as regarded by consumers. As the most of DG technologies utilise renewable sources, the power electronic interface plays a vital role to match the characteristics of a DG unit with the grid requirements. This paper presents the power electronics capabilities required for DG systems in SG to convert the generated power into useful power that can be directly interconnected with the utility grid and/or that can be used for consumer applications. Because of the enhancement and the different power ranges of power electronics devices, the development of advanced power electronic interface that is scalable to meet different power requirements, with modular design, lower cost, and improved reliability, will improve the overall performance and durability of smart grid distributed power systems.

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Section: Pes Topologiesmentioning

confidence: 99%

Section: Pes Topologiesmentioning

confidence: 99%

Power electronics in smart grid distribution power systems: a review

Bayoumi

2016

IJIED

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“…1) Design flexibility with high voltage step-up/down ratios 2) Flexible series/parallel converter connection in modular designs, and compatibility with NASA's Series Connected Boost Regulator (SCBR) concept [10], as well as the Power Electronics Building Blocks (PEBB's) approach [11].…”

Section: Innovation In the Power Stagementioning

confidence: 99%

“…Following on the battery-backed solar system example, the main candidate architectures are [11]- [17]: 1) Two stage interface: The solar array is interfaced to an intermediate battery-dominated bus allowing MPPT, as shown in Figure 1, with another converter stage interfaces that bus to the load. The main disadvantage of this scheme is that solar power goes through two loosely conversion stages, before reaching the load.…”

Section: Introductionmentioning

confidence: 99%

An Experimental Simulation of a Design Three-Port DC-DC Converter

Sharif¹,

Harb²,

Hu³

et al. 2014

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Traditional DC-DC converter topologies interface two power terminals: a source and a load. The construction of diverse and flexible power management and distribution (PMAD) systems with such topologies is governed by a tight compromise between converter count, efficiency, and control complexity. The broader impact of the current research activity is the development of enhanced power converter systems suitable for a wide range of applications. Potential users of this technology include the designers of portable and stand-alone systems such as laptops, hand-held electronics, and communication repeater stations. High power topology options support the evolution of clean power technologies such as hybrid-electric vehicles (HEV's) and solar vehicles. DC-DC converter is considered as an advanced environmental issue since it is a greenhouse emission eliminator. By utilizing the advancement of these renewable energy sources, we minimize the use of fossil fuel. Thus, we will have a cleaner and pollution free environment. In this paper, a threeport DC-DC converter is designed and discussed. The converter was built and tested at the energy research laboratory at Taibah University, Al Madinah, KSA.

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“…However, a power system designer may have difficulties in choosing a suitable MIC topology for a specific target application because each MIC topology presented in the literature has its own advantages and disadvantages. Although some MIC topologies were reviewed in [6] and [10], these studies were only focused on the combining methodology of an MIC topology for connecting its input sources. Specifically, the combining strategies used in [6] and [10] can be classified by the following three methods: sharing an output filter capacitor [14], sharing some power electronics switches, energy transfer inductor and capacitor [10,15], and sharing a magnetic core [8,9,11,13].…”

Section: Introductionmentioning

confidence: 99%

Systematic Topology Selection Method for Multiple-Input DC-DC Converters

Choung¹,

Bae²,

Kim³

2016

Journal of Electrical Engineering and Technology

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-A power system designer may have difficulties in choosing a suitable multiple-input converter topology for a specific target application because each multiple-input converter topology presented in the literature has its own advantages and disadvantages. In this perspective, this paper presents a systematic topology selection method for multiple-input converters with three comparison criteria including cost-saving effect, modularity potential and flexibility. Based on these criteria, this paper proposes a strategic flow chart example for choosing a proper multiple-input converter topology. This flow chart will provide a powerful selection tool to a power system designer when he or she chooses a specific multiple-input converter for a given application.

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Power Budgeting of a Multiple-Input Buck-Boost Converter

Cited by 169 publications

References 5 publications

Power electronics in smart grid distribution power systems: a review

Power electronics in smart grid distribution power systems: a review

An Experimental Simulation of a Design Three-Port DC-DC Converter

Systematic Topology Selection Method for Multiple-Input DC-DC Converters

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