ADVERTISEMENT

Subscribe to the PowerPulse Newsletter

Conferences and Forums

Darnell's Energy Summit

Darnell's Power Forum

Green Building Power Forum

Smart Grid Electronics Forum

Industry News

April 24, 2012

Darnell White Paper Compares Design Flows for PSiP/MicroModule/PwrSoC Technologies

Darnell Group has just-released a Free white paper quantifying the relative ease of design for a PSiP/MicroModule/PwrSoC design flow used in a 5A dc-dc regulator for an FPGA or similar load vs. a "typical" dc-dc regulator "down" solution. In order to do this, the Darnell Group qualified and validated the design steps for a general PSiP/MicroModule/PwrSoC design configuration by conducting a series of surveys comparing a typical DC-DC Regulator design flow with a comparable PSiP/MicroModule/PwrSoC design flow. Respondents included representatives from a variety of leading server, storage, data communications, personal computer and telecommunications industries in the US, China and Europe. A few of the key findings include:

-- The duration of the design process for the PSiP/MicroModule/PwrSoC design flow takes 45.0% less man hours to complete than a dc-dc regulator "down solution." (Man-hours are defined as a combination of both gross design steps and design iterations)

ADVERTISEMENT

-- The dc-dc regulator design flow is a much more complex process and with design iterations included, takes over 2.8 times as many steps to complete.

-- Even with the use of today’s web-based tools, it still takes an average of 464 man-hours to complete a dc-dc regulator design flow vs. only 254 man-hours to complete a PSiP/MicroModule/PwrSoC design. This is for a simple 5A regulator design flow, for a more complex design, the process could take 20-40% longer.

In addition to the questionnaire, each of the individuals contacted was sent an illustration comparing 14 specific steps it takes to design a typical dc-dc regulator (the 14 steps identified in typical dc-dc design process were validated by over 150 engineers representing a variety of fields worldwide) with the 6 steps it was determined to take to design a PSiP/MicroModule/PwrSoC configuration. The illustration describing the design flows for these two technologies was used as a basis for the questions asked in the surveys.

Opinion: Maximising Synergies between Power Electronics and ICT for improving Energy Efficiency

All of the respondents agreed that the design flows for both the typical dc-dc regulator and PSiP/MicroModule/PwrSoC configurations seemed reasonable and correct and acknowledged that the implementation resulted in a 57% reduction in gross design flow steps. The findings of this white paper confirm that PwrSoC and PSiP technologies appear to be achieving the goals of eliminating the need for external components, providing a smaller alternative, and a simplified and shorted design flow.

In this white paper, sponsored by Enpirion Inc., a dc-dc regulator is defined as a dc-dc converter IC that uses a switching element to transform the dc supply into an alternating current, which is then converted to a different voltage using capacitors, inductors, and other elements, then converted back to dc. The circuit includes regulation and filtering components to insure a steady output. Advantages include the ability to generate voltages beyond the input supply range, higher power handling capability, and efficiency; disadvantages include complexity and relatively higher cost. A disadvantage of Converter/Regulator ICs is that they require the addition of external components such as inductors, capacitors and/or resistors.

You can download a copy of "Ease of Design Comparison For a PSiP/MicroModule/PwrSoC Design Flow Process" here.

Share this story

Send via E-mail
Post to Twitter

On the Web:

Darnell Group Inc.
Enpirion Inc.

ADVERTISEMENT

White Papers

March 11, 2013

Power Modules for Charger Applications

Sponsored by Vincotech

February 27, 2013

The Adaptive Cell Converter Topology Enables Constant Efficiency Over Universal Input AC Line in Front-End, High-Density Power Factor Correction Applications

Sponsored by Vicor Corp.

February 27, 2013

From 48 V direct to Intel VR12.0: Saving "Big Data" $500,000 per datacenter, per year

Sponsored by Vicor Corp.

More White Papers

Most Popular

Design Features

October 22, 2012

Energy Efficiency with Class D Amplifier Modules

Class-D switching amplifiers are helping audio designers create personal multimedia devices and home audio/visual systems that demonstrate how compact and stylish equipment can also deliver high sound quality and high audio output power. The key to this breakthrough, providing freedom from the large and bulky boxes housing traditional audio products, lies in the class-D amplifier’s high energy efficiency, which is typically around 90%. This allows designers to reduce or eliminate heatsinks as well as using smaller-sized PCBs and smaller components such as transformers, connectors and power supplies.

Read this paper

Design Features

October 8, 2012

The Role of Hall Effect Sensors in Power Distribution Infrastructure

Power distribution units (PDUs) form an essential part of modern computing and data communications hardware. They provide multiple outputs for transferring electrical power with maximum efficiency, controlling the power capacity and safeguarding against the possible causes of supply interruption. With an ever increasing need from tech savvy consumers for higher data throughput and greater quantities of data storage capacity, as well as tough international legislation now governing CO&sub2; emissions, the demands being placed on these units are proving challenging for engineering teams to satisfy.

Read this paper

Product Focus

August 13, 2012

The Year in AC-DC Power Supply Technology

The past year witnessed significant new product releases, technological developments, and industry news related to the field of AC-DC Power Supply technology.

Read this paper

Read More Technical Features

 

©2013 Darnell Group Inc.