Spelling suggestions: "subject:"[een] METALS"" "subject:"[enn] METALS""
271 |
INFRARED SPECTRA OF TRANSITION-METAL NITROSYLSQuinby-Hunt, Mary S. January 1972 (has links)
No description available.
|
272 |
Time dependent reliability of components subjected to simple fatigueSmith, Richard Edward, 1941- January 1965 (has links)
No description available.
|
273 |
Limiting criteria for the deposition of certain metals in trace quiantitiesHenry, Donald Ned, 1939- January 1963 (has links)
No description available.
|
274 |
Effect of stacking fault energy on texture transition in alpha brassesValenzuela, Carlos G., 1934- January 1965 (has links)
No description available.
|
275 |
Hardening mechanisms in a cobalt-base superalloyLee, Charles Samuel, 1933- January 1966 (has links)
No description available.
|
276 |
Experimental study of iron hydrolysis in acid sulfate solutionsHeadington, Tom Arnold, 1947- January 1977 (has links)
No description available.
|
277 |
The effects of forced convection on macrosegregationPetrakis, Dennis Nikolaos January 1979 (has links)
No description available.
|
278 |
Formation of ester adducts of lanthanide shift reagentsMerali, Arzina Muradali. January 1975 (has links)
No description available.
|
279 |
A sensor for continuously monitoring the batch annealing of cold worked steel strip /Durham, Simon J. P. January 1984 (has links)
No description available.
|
280 |
Evaluation of Waste Gypsum Wallboard as a Compost AdditiveRichards, Christopher 04 December 2013 (has links)
Twenty percent of all the material delivered to construction and demolition (C&D) disposal sites in the Province of Nova Scotia, Canada, is waste gypsum wallboard (WGW) (Dillon Consulting Ltd., 2006). This is typically in the form of residential or business demolition waste, which includes WGW from new construction activities. This study looked at the use of papered and de-papered waste gypsum wallboard in compost to evaluate its impact on the process, total heavy metal concentration, bioavailable metal concentration, and movement of heavy metals. The study consisted of three components: a short term mechanical in-vessel compost sub-study to assess the impact of composting WGW; a lysimeter cell sub-study to evaluate potential movement of compost constituents from compost to soil and water under a static compost system open to the ambient environmental conditions; and, a final sub-study to determine the performance of waste gypsum wallboard in compost under controlled composting conditions. The study found that the inclusion of up to 34% (by mass) WGW had no negative effects on the degradation of carbon, final pH, and final electrical conductivity in the compost product, however, WGW-containing composts did increase concentrations of total sulphur. There was the potential for elevated levels of total lead and cadmium but the compost produced was within the CCME Class A guidelines for heavy metal concentration. Waste gypsum wallboard containing composts also had increased levels of bioavailable cadmium compared to non-WGW composts.
|
Page generated in 0.0551 seconds