Stochastic global optimization methods. part 11: multi level methods
Mathematical Programming: Series A and B
A Minimax Portfolio Selection Rule with Linear Programming Solution
Management Science
An Internet-based decision support tool for non-industrial private forest landowners
Environmental Modelling & Software
SIMO: An adaptable simulation framework for multiscale forest resource data
Computers and Electronics in Agriculture
The Forest Time Machine-a multi-purpose forest management decision-support system
Computers and Electronics in Agriculture
Editorial: Decision-support systems for forest management
Computers and Electronics in Agriculture
Integrated decision support for sustainable forest management in the United States: Fact or fiction?
Computers and Electronics in Agriculture
NED-2: A decision support system for integrated forest ecosystem management
Computers and Electronics in Agriculture
A method for integrating multiple components in a decision support system
Computers and Electronics in Agriculture
The forest vegetation simulator: A review of its structure, content, and applications
Computers and Electronics in Agriculture
Computers and Electronics in Agriculture
Reusing legacy FORTRAN in the MOTTI growth and yield simulator
Computers and Electronics in Agriculture
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YAFO is a planning-support tool for the development of management plans under uncertainty focusing on the forest enterprise level. Based on existing stand data, the software provides the calculation of management scenarios (felling plans) for single stands that are optimized with respect to financial considerations and ecological constraints. Under these constraints, YAFO predicts timber stocks, harvest amounts and financial returns for each simulation period. The YAFO package consists of an optimization module, that has been programmed using the modelling software AIMMS. In addition, it contains two Excel-based spreadsheet files - an import and evaluation module and a risk analysis module. The YAFO model calculates financially optimized management scenarios by means of the net present value development of single stands. Optionally, the objective function can also consider risks and uncertainties due to natural calamities and timber price fluctuations, using the value at risk approach or risk utility functions. Nonlinear programming algorithms are used as solution techniques. As YAFO provides the additional flexibility to switch between two timber grading options on stand level, effects of timber price scenarios on grading can be analyzed. Due to its modular design, it can be easily adopted to individual data bases.