CONTENTS
Page
Foreword vii
Some Geological
Considerations
for the Economic Evaluation of Canadian Oil Shale DepositsG.
Macauley,
T.G.Powell,
and L.R. Snowdon 1The
Devonian-Mississippian
Oil Shale Resource of the Eastern United StatesR. D. Matthews 14
Fracture
History
oftheNorthern Piceance CreekBasin,
Northwestern Colorado
E.R. Verbeek and M.A. Grout 26
Using
a MultipleLog
Approach to Evaluate Green River Oil Shale in the Piceance Creek BasinRob Habiger and R.H. Robinson 45
Field Studies of Joints: Insufficiencies and
Solutions,
with Examples from the Piceance CreekBasin,
ColoradoM.A. Grout and E.R. Verbeek 68
A Standard Technique for
Handling, Marking,
andLogging
Oil Shale CoreJ. A.
Hartley
and T.N. Beard 81Microcrystalline Nahcolite on the 1840
Level,
Horse DrawMine,
Piceance CreekBasin,
ColoradoR.D. Cole and G.J. Daub 99
Mineralogy
andGeochemistry
of Green River Formation Oil Shales, C-A Tract, ColoradoW.S. Meddaugh and C.A. Salotti 113
Mineralogy
of theMahogany
Marker Tuff of the Green RiverFormation,
Piceance Creek Basin, ColoradoG.M. Mason 124
Chemical Aspects of Eastern Oil Shale Retorting: Analysis of a Core
A.M. Rubel, D.W. Koppenaal, D.N. Taulbee, and T.L. Robl 132
Distribution and Origin of Sulfur in Colorado Oil Shale
J.R. Dyni 144
Variations in Sulfur Mineralization in the Parachute Creek Member of Green River
Formation,
Colorado and UtahD.L. Boyer and R.D. Cole 160
Stratigraphic Variation of Sulfur Isotopes in Colorado Corehole Number 1
J.W. Smith and N.B.
Young
176Laboratory Study
of the Effects of Combustion Gases onRetorting
of Green River Oil Shale with Superheated SteamA.L. Tyler, H.R. Jacobs, and E.A. Bullen 189
Median Residence and Dispersion Times for Fluidization of Crushed Oil Shale
D.E. Christiansen and R.G. Mallon 199
Attrition of Spent Oil Shales
During
PneumaticConveying
and CycloneSeparating
J. F.
Carley
207Material Balance Technique for Analysis of In Situ Oil Shale
Retorting
B.H. Major and P.J. Hommert 228
Page
Heat Generation
During
Wet Oxidation of Oil Shale Wastewatersby
the Vertical Tube Reactor ProcessJ.E. Barnes and CB. Cassetti 242
Results of the
Processing
of a Western Oil Shale on theAllis-Chalmers
Roller Grate Retort SystemB.P.
Faulkner,
M.H.Weinecke,
R.F. Cnare 255Results from the Simultaneous
Processing
of Modified In Situ Retorts 7 & 8A.L. Stevens and R.L. Zahradnik 267
Analysis of Occidental Vertical Modified In Situ Retorts 7 and 8
T.C. Bickel 281
Improving
FlowUniformity
in Vertical Modified In Situ Oil Shale RetortsT. E. Ricketts 296
Application of the High Temperature Gas Cooled Reactor to Oil Shale
Recovery
D.C.
Wadekamper,
J.R. Impellezzeri, N.T. Arcilla and I.N. Taylor 315High-Temperature Gas-Cooled Reactor
(HTGR)
Application for Shale OilRecovery
R.N. Quade and R. Rao 325
Sandia/Geokinetics Retort 23: Comparison of Real-Time Analyses with Post-Burn
Coring
ResultsC.E. Tyner, D.W. Cook, and E.G. Costomiris 335
Study
of Moroccan Oil Shale Thermal Decomposition KineticsOmar Bekri, Hachem Baba-Habib,
Chang
YulCha,
and M.C. Edelman 345Economics Derived from Detailed and Definitive Design of Superior's Circular Grate Retort for an 18,000 BPD Oil Shale Demonstration Plant
D.F. Li1
ley
and J.W. Fishback 365Retorting Kentucky
Oil Shales. Yield Optimization at Moderate and RapidHeating
RatesThomas Coburn, Marshall Margolis, and Ronald
Gariepy
373Hydroprocessing
of Stuart(Australian)
Oil ShaleR.M. Baldwin, W.L. Frank, G.L. Baughman, and C.S. Minden 388
Size Reduction of Green River Shale
C.A. Salotti and R.S. Datta 394
Coarse Beneficiation of Green River Oil Shale
R.S. Datta and C.A. Salotti 413
Beneficiation of U.S. Oil Shales
by
Froth FlotationG.N. Krishnan, E.P. Farley, and R.G.
Murray
426An
Engineering
Model for Prediction of In Situ Oil Shale RetortBlasting
J.T. Schamaun 437
Vertical Pneumatic
Conveying
of Mixed-Particle-Sized Oil ShaleRoland
Quong
451Fluidized Bed Combustion of Oil Shale
H.E.
McCarthy
469Chemical and Physical Characterization of Effluent Streams from the
Processing
of Australian Oil ShaleP.R. Bell, P.F. Greenfield, and D.J. Nicklin 477
The Utilization of Residual Heat in Spent MIS Retorts for Wastewater Treatment and Process Improvements
N.E. Hester and Carl Jacobson 487
Page
Biotreatment
of Oil Shale WastewatersJ.B.
Healy, Jr.,
B.M.Jones,
G.W.Langlois,
and C.G. Daughton 498The
Treatability
of Wastewaters ProducedDuring
Oil Shale
Retorting
D.R.
Day
and B.O.Desai,
and W.W.Liberick,
Jr 512Evaluation
of ControlTechnology
for Modified In Situ Oil Shale RetortsP. Persoff and J. P. Fox 534
Oil Shale Health and Environmental Risk Analysis
L.B. Gratt 541
Effects of MIS
Retorting
on GroundwaterN.E. Hester 550
Past and Present Geomorphic
Activity
in the Piceance Creek DrainageBasin,
Northwestern ColoradoJ.W.
Whitney
and E.D. Andrews 566Preliminary
Computer Model of Ground Water Flow and SoluteTransport for MIS
Retorting
at TractC-b,
Piceance Basin, ColoradoR.G. Shepherd 578
Environmental Baseline Characterization of the Naval Oil Shale Reserves in Colorado
John Dadiani and L.L. Meyer 591
Computer