Annie
Diamond Member
- Nov 22, 2003
- 50,848
- 4,828
- 1,790
I think we'll be hearing more on this. As noted, part II will be posted tomorrow:
http://www.captainsquartersblog.com/mt/archives/007380.php
Oh, 'Chemical Consultant':
http://www.captainsquartersblog.com/mt/archives/007375.php#more
http://www.captainsquartersblog.com/mt/archives/007380.php
July 04, 2006
Mobile Labs Could Not Have Produced Hydrogen As Described, Part I
In Part I of ChemicalConsultant's analysis of the mobile weapons laboratories, he calls into question the CIA's calculations of the production capability of the facilities described. In his calculations, he posits that these mobile facilities could not have produced the hydrogen necessary for the mission the CIA claims.
1. The reaction to produce hydrogen gas from aluminum, sodium hydroxide is:
2Al(s) +2NaOH (aq) +6H2O-> 2Na+ (aq) + 2[Al(OH)4]- +3H2 (g)
This means that it takes 80 grams of NaOH (molecular weight about 40) to make 6 grams of H2 (molecular weight about 2) and uses 54 grams of Al (atomic weight about 27) in the process. On a kilogram basis, 1 kg NaOH makes 6/80 = 0.075 kg or 75 g H2 and uses 54/80 = 0.675 kg or 675 g Al.
My reference is www.webelements.com/webelements/elements/text/Al/chem.html.
2. According to the Fast Facts link on the website of a major hydrogen producer, 1 kg of hydrogen gas at 1 atmosphere at 70o F occupies 11.986 cubic meters (m3) or 1 m3 weighs 1/ 11.896 = 0.084 kg or 84 g.
My reference is www.airproducts.com/products/fastfacts/charts_n_tables/32100/hydrogen.asp. Please note that the spaces on either side of n are underlined.
3. The Iraqi Survey Group Final Report, Annex D, Biological Weapons
Process Description section, states that This is a batch process designed to produce sufficient H2 to fill 5x40l bottles to a pressure of between 40-50 bar. This is equivalent to 50x5x40l =10,000 liters or 10 m3 at atmospheric pressure. Thus, from 2. , 0.84 kg of hydrogen must be produced. The next sentence in Process Description; the report states This requires 10-12 kg of Aluminum powder, 1-1.5 kg flaked/ granulated NaOH, and 25-30 liters of water. 1 kg of NaOH would only make 0.075 kg. However, from 1. , what is actually needed is 0.84/0.075 = 11.2 kg NaOH, using up 7.56 kg aluminum.
4. At first I thought that there might have been a typo. I went back to the Process Outline section of the report which described the purported Russian system which is one tenth the volume of the Iraqi reactor. I found that the ratio of reagents for the Russian system is the same as the report states for the Iraqi system. Thus the 100 g or 0.1 kg NaOH would only make 7.5 g hydrogen instead of the 84 g needed for the 1 m3 balloon. How is it that the experts who wrote the report and those who approved it did not catch these errors?
In part II tomorrow, ChemicalConsultant talks about how the residue in the mobile labs should not have been present and appear to be a deliberate ruse. He also shows how the formulas used for the Duelfer analysis would have produced hydrogen so impure as to be useless.
UPDATE: The molecular weight of NaOH is 40; thanks to those who pointed out the typo.
Posted by Captain Ed at July 4, 2006 12:01 AM
Oh, 'Chemical Consultant':
http://www.captainsquartersblog.com/mt/archives/007375.php#more
July 03, 2006
Mobile Labs Could Not Have Produced Hydrogen As Described, Prologue
I have written several times about the issue of the mobile laboratories in Iraq and the subsequent conventional wisdom that they served as hydrogen generators for weather balloons instead of WMD production facilities. In April, I pointed out that the hydrogen theory came as a minority opinion within the CIA/DIA teams that reviewed the two labs captured by the Coalition. One month later, Joseph Shahda translated a key memo showing that the Iraqis spent $33 million on the mobile labs in September 2002, while America decided to take military action against the Iraqis, and that the same agency that controlled Iraq's WMD programs (the Military Industrialization Committee) arranged to purchase these facilities.
One key point (besides the memo) that undermines the argument for a civil hydrogen production facility is the ease in which the Iraqis could already produce and store hydrogen. Oil refining creates hydrogen in fairly large quantities as a normal byproduct. If the Iraqis wanted hydrogen for weather balloons, they could have simply pumped it into tanks and used normal trucks to transport it where needed. Now we have another argument against the hydrogen production explanation.
A CQ reader with a doctorate in physical chemistry from the University of Minnesota and with over sixteen years of experience in weapons and materiel laboratory work in the military has written a paper on why the hydrogen lab explanation cannot possibly explain the existence and the engineering of these mobile laboratories. Preferring anonymity for professional reasons, "ChemicalConsultant" has allowed me access to a condensed version of an analysis that he has sent to Joby Warrick at the Washington Post, Reps. Curt Weldon and Jane Harman, and former CIA director John Deutsch, now at MIT -- none of whom have responded to ChemicalConsultant or addressed these concerns.
I will put ChemicalConsultant's CV, stripped of any personal identification, in the extended entry below. Over the next three days I will post his analysis of the physics of hydrogen production and why that explanation makes no sense whatsoever. At the end, I will interview ChemicalConsultant and post the transcript.
Curriculum Vitae
I am a retired physical chemist with 31 years of industrial chemical experience in the characterization of silica based materials and the development of new siliceous products and applications. In the course of my career I have authored 17 peer reviewed papers, been an inventor of 5 patents, chaired technical symposia and reviewed, for technical journals, the submitted papers of other scientists.
1977-1999
Senior Research Fellow 1990 to 1999.
Manager, Analysis, Characterization and Testing Department 1985 to 1990.
Supervisor, Materials Evaluation Section 1977 to 1985.
Significant accomplishments:
Implemented a long term project which provided fundamental technical understanding of largest volume product line, soluble silicates. Results included technical papers, patents and a licensing agreement with a customer.
Interfaced with corporate sales and marketing personnel and their customers to provide technical support to corporate sales and growth goals.
Implemented the application of state of the art chemical instrumentation to support corporate research projects in soluble silicates, zeolites, silica particulates and microspherical glass beads.
Evaluated the performance of subordinates and supported their professional growth.
Implemented a laboratory data base management system that improved communication of analytical results to project chemist.
Received the first R&D Achievement Award for Technical Excellence.
1968 - 1977
Senior Chemist 1973 to 1977.
Chemist 1968 to 1973.
Significant accomplishments:
Implemented the application of state of the art chemical instrumentation to support corporate research projects in zeolites, petroleum refining catalysts, adsorbents and industrial chemical catalysts.
Interfaced with corporate sales and marketing personnel and their customers to provide technical support to corporate sales and growth goals.
Published and presented papers on materials described above.
Military Experience
Retired as a Lieutenant Colonel, USAF Reserve, June 1986.
Assignments:
Hq, AF Systems Command (5 years)
Hq, Air Force Materials Laboratory (12 years)
Active Duty:
Hq, Air Force Weapons Laboratory (2 years)
Hq, Ogden Air Materiel Area (1 year)
EDUCATION:
Ph.D. in Physical Chemistry, University of Minnesota, Minneapolis, MN
B.S. in Chemistry, University of Rochester, Rochester, NY
Posted by Captain Ed at July 3, 2006 02:00 PM