Argonne model

As a consequence, corporations operating PUREX plants have been using sophisticated process simulation codes, including the PAREX code in France (45-47), SpeedUp (Aspen Plus) in the UK (48), and SIMPSEX code in India (49-51). Argonne Model for Universal Solvent Extraction (AMUSE) code in the United States was contrived not only for PUREX, but for UREX+ processes (52), which will be mentioned later. In Japan, similar efforts have also been made (53-55). 

MORROW It seems that one of the essential features of this approach is that somewhere in the beginning you had to have a model dealing with transport and deposition. You cited the Argonne model. How does it take into account climatology, let s say. Does it use a historic average circumstance for that area An average wind direction An average wind velocity ... 

MORROW Then they must also be able to provide how much fluctuation would be implicit in such a model, probably. Is each region going to have to develop such a model You can t take the Argonne model, if it has topographic information and such historic information and generalize. 

Ishii, M., andT. C. Chawla, 1978, Multichannel Drift-Flux Model and Constitutive Relation for Transverse Drift-Velocity, Rep. ANL/RAS/LWR 78-2, Argonne Natl. Lab., Argonne, IL. (3)... 

Figure 4 Overview of several theoretical predictions for the SE Brueckner-Hartree-Fock (continuous choice) with Reid93 potential (circles), self-consistent Green function theory with Reid93 potential (full line), variational calculation from [9] with Argonne Avl4 potential (dashed line), DBHF calculation from [16] (triangles), relativistic mean-field model from [22] (squares), effective field theory from [23] (dash-dotted fine).

Fet us now confront the EOS predicted by the phenomenological TBF and the microscopic one. In both cases the BHF approximation has been adopted with same two-body force (Argonne uis). In the left panel of Fig. 4 we display the equation of state both for symmetric matter (lower curves) and pure neutron matter (upper curves). We show results obtained for several cases, i.e., i) only two-body forces are included (dotted lines), ii) TBF implemented within the phenomenological Urbana IX model (dashed lines), and iii) TBF treated within... 

Wang, M. (2008). Overview of GREET model development at Argonne. GREET user workshop, Sacramento (CA), March 18. Center for Transportation Research, Argonne National Laboratory, www.transportation.anl.gov/ modeling simulation/GREET/index.html. 

Singh, M., Vyas, A. and Steiner, E. (2003). VISION Model Description of Model Used to Estimate the Impact of Highway Vehicle Technologies and Fuels on Energy Use and Carbon Emissions to 2050. Center for Transportation Research. Argonne National Laboratory Report. ANL/ESD/04-1. 

Wang, M. (2005). Well-to-Wheels Analysis with the GREET Model. Argonne National Laboratory. Presentation at the 2005 DOE Hydrogen Program Review, May 26, 2005. 

Argonne National Laboratory, (ANL) is pursuing fuel processor technology development that ranges from catalyst development, to component (CO, S cleanup, etc.) evaluations, to fuel processor hardware design, modeling, and demonstration. 

The model, TFLOW, is available for licensing from Argonne National Laboratory. Please contact Dr. Romesh Kumar, Argonne National Laboratory, Argonne, H. 60439. Tel. 630-252-4342. 

To quantify this treatment of migration as influenced by kinetics, a model has been developed in which instantaneous or local equilibrium is not assumed. The model is called the Argonne Dispersion Code (ARDISC) ( ). In the model, adsorption and desorption are treated independently and the rates for adsorption and desorption are taken into account. The model treats one dimensional flow and assumes a constant velocity of solution through a uniform homogeneous media. 

Exotic atomic nuclei may be described as structures than do not occur in nature, but are produced in collisions. These nuclei have abundances of neurons and protons that are quite different from the natural nuclei. In 1949, M.G, Mayer (Argonne National Laboratory) and J.H.D. Jensen (University of Heidelberg) introduced a sphencal-shell model of die nucleus. The model, however, did not meet the requirements and restrains imposed by quantum mechanics and the Pauli exclusion principle, Hamilton (Vanderbilt University) and Maruhn (University of Frankfurt) reported on additional research of exotic atomic nuclei in a paper published in mid-1986 (see reference listedi. In addition to the aforementioned spherical model, there are several other fundamental shapes, including other geometric shapes with three mutually peipendicular axes—prolate spheroid (football shape), oblate spheroid (discus shape), and triaxial nucleus (all axes unequal). 

The Argonne experimental results [69] were consistent with an Arrhenius emperature dependence of the cuprous-cupric rate, though the uncertainties vere substantial regarding this conclusion. We only performed simulations at me temperature and so did not check whether the model predicts a strictly Vrrhenius behavior. The most obvious case in which the model would lead to... 

Wang, M.Q., Development and Use of the GREET Model to Estimate Fuel-Cycle Energy Use and Emissions of Various Transportation Technologies and Fuels, Argonne National Laboratory, Argonne, 111. 

Vandegrift, G.F., Copple, J.M., Chamberlain, D.B. et al. 1992. The generic TRUEX model Operating manual for the IBM-PC compatible and Macintosh computers, Chemical Technology Division, Argonne National Laboratory. ANL-92/41. 

Koppel, L. "A Model for Predicting the Extent of Reaction of Limestone and Sulfur Dioxide During Fluidized-Bed Combustion of Coal" Appendix C, pp. 60-77, in Jonke, A. A. "Reduction of Atmospheric Pollution by the Application of Fluidized Bed Combustion" Argonne National Laboratory Annual Report, ANL/ES-CEN-1002, July 1969-June 1970. 

Rehmat, A. Saxena, S. C. Land, R. H. Application of Non-catalytic Gas-Solid Reactoins for a Single Pellet of Changing Size to the Modeling of Fluidized-Bed Combustion of Coal Char Containing Sulfur Argonne National Laboratory Report, ANL/ CEN/FE-80-13, September 1980, 86 pp. 

As with Argonne, we had a project related to fuel cell technology with Sandia. Although the technology associated with the project was successful, Dow made a business decision to exit the fuel cell business and so the project was never completed. We have also had a very successful project on materials modeling. Here, Dow has a business focus, but the basic technology being developed can be... 

FLUFIX, for modeling fluidized bed combusters (Chang et al 1989), at the Argonne National Laboratory (USA)... 

Time-resolved X-ray scattering data are presented for three different carbons that w ere activated in situ in the beamline at the Advanced Photon Souree at the Argonne National Laboratory in Argonne, IL, USA. The resultant data exhibit vai ied behavior, depending on the carbon type. The data suggest a dynamic porosity development mechanism. A net population balance model of pores within a particular size range may explain these observations. 

A Multiple Source Atmospheric Dispersion Model, Argonne National Laboratory Report (1970). 

Several options are available in FLOTRAN for representing fractured media. The equivalent continuum model (ECM) formulation represents fracture and matrix continua as an equivalent single continuum. Two distinct forms of dual continuum models also are available, defined in terms of connectivity of the matrix. These models are the dual continuum connected matrix (DCCM) and the dual continuum disconnected matrix (DCDM) options. A parallel version of the code, PFLOTRAN, has been developed based on the PETSC parallel library at Argonne National Laboratory. 

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