March 2006

12 Rules for Rocket Stove Combustion in Mandarin Mandarin Chinese Bryan Willson, January 2006
【正規品】最新のナイキ メンズ レディース スニーカー通販

Explosion in shack fire from a propane cannister in Khayelitsha 6 December 2005, from Paraffin Safety Association of South Africa PASASA, Courtesy Crispin Pemberton-Pigott, New Dawn Engineering, Swaziland, January 2006

Denan IDP Camp – “1 Birr per Bundle”, Harry Stokes, Gaia Association, Ethopia, January 2006

Performance of Improved Heat Exchanger Chimney, Mouhsine Serrar, SunSmiles, Berkeley/Morocco, January 2006

Ten Design Principles for Wood Burning Stoves (pdf), Larry Winiarski, Dean Still, Aprovecho, August 2005 (Other Translations Welcome!)

Rules for Rocket Stove Combustion in
English, Spanish,
Turkish,
Kurdish,
Armenian,
Russian and
Tagalog
Ken Goyer, January 2006 (Other Translations Welcome!)

Aprovecho Stove Design Library, Aprovecho Research, Oregon January 2006

Escorts "Nada" Stove, Escorts Foundation, Changa Manga, (near Lahore) Pakistan, Maisoon Zamir, Maryam Bashir, 2004 Energy Globe (Austria) Winner, 56 villages, 11728 stoves, January 2006

File attachments: 

Heat Flux Report January 2006, Dale Andreatta, January 2006

Introduction
Omega Engineering makes a small heat flux sensor, a thin device about 25 mm by 25 mm
with 40 embedded thermocouples, which puts out a voltage proportional to the heat flux
through the device. This device was used to perform a series of experiments designed to
begin to answer the following questions:

  1. In a cooking pot that is being heated, where does the heat enter the pot, the bottom
  2. center, bottom edges, the sides, or uniformly?
  3. How much of the heat is transferred through radiation vs. how much of the heat is
  4. transferred through convection?
  5. Can one measure the temperature distributions in the gas around the pot, and can
  6. anything be learned about the heat transfer from these temperature distributions?
  7. Can the heat flux sensor be used to determine the effectiveness of skirts?

Heat flux is defined as heat flow per unit area, and the units are Watts/m2. Another
concept is heat flow, which is the total amount of heat being moved, in Watts. Heat flow
is the integral of the heat flux over the total area, or in other words, the average heat flux times the total area.
In science, it is often useful to compare the conclusions and results with conclusions
drawn from other measurements. If the measurements are consistent, this gives us
confidence that the measurements are accurate. If the measurements are not consistent,
the results may be reported, but the inconsistencies must also be pointed out. In this
report, a rigorous effort will be made to find inconsistencies, both within the data that
was measured, and in comparison with other data that was previously measured.

For more detail, see the attached report:
http://www.bioenergylists.org/files/Heat_Flux_Report_January_2006.pdf

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