$ This is the fault parameters input file for Pecube-HUGG v0.2 $ you can add as many comment lines as you wish as long as they start with a $ dollar sign $ $ This example model design is based on the models of exhumation of the Himalaya $ of western Bhutan described in Coutand et al. (2014): $ $ Coutand, I., Whipp, D. M., Grujic, D., Bernet, M., Fellin, M. G., Bookhagen, $ B., Landry, K., Ghalley, S. & Duncan, C. (2014). Geometry and kinematics of $ the Main Himalayan Thrust and Neogene crustal exhumation in the Bhutanese $ Himalaya derived from inversion of multithermochronologic data. Journal of $ Geophysical Research: Solid Earth, 119(2), 1446-1481. $ $------------------------------------------------------------------------------- $ number of faults active at any time during the run 2 $ two points (in longitude-latitude) defining the y axis of the $ coordinate system used to define the faults $ the x-axis is to the right of the y-axis 89.0 26.8 90.5 26.8 $ fault model: $ 1 = Original Pecube fault model $ 2 = kink-band style fault kinematics 2 $ first fault: Main Frontal Thrust (underthrusting) $ number of segments 7 $ segment (x,y) coordinates, number of fault if using same coordinates as another $ fault, x point number for 'same' fault, y point number for 'same' fault -182.0 -38.5 -1 -1 -1 -126.0 -30.0 -1 -1 -1 -70.0 -14.9 -1 -1 -1 -5.1 -14.7 -1 -1 -1 0.0 0.5 -1 -1 -1 3.0 3.5 -1 -1 -1 35.0 3.5 -1 -1 -1 $ number of time intervals to define its motion story 1 $ Fault timing and velocity definition (each intergal given on one line) $ e.g., ftv1, ftv2, ftv3, ftv4, ftv5 $ ftv1 = Start time for fault slip in Ma $ ftv2 = End time for fault slip in Ma $ ftv3 = Fault slip rate (thrust is negative, normal is positive) $ ftv4 = overthrusting/underthrusting partitioning factor (disabled if negative) $ 0. = all overthrusting, no underthrusting $ 1. = all underthrusting, no overthrusting $ when using this option, the fault slip velocity specified in ftv3 $ should be set to 1. $ ftv5 = convergence rate between model sides (used only if ftv4 is positive) $ positive equals extension, negative equals convergence $ **** IMPORTANT: If ftv4 for fault 1 is positive (i.e., partitioning is **** $ **** enabled), the values for ftv1-5 for fault 1 will be used in place of **** $ **** any values listed for fault 2. **** 12.0 0.0 1.0 0.8 -20.0 $ second fault: Main Frontal Thrust (underthrusting) $ number of segments 7 $ segment (x,y) coordinates, number of fault if using same coordinates as another $ fault, x point number for 'same' fault, y point number for 'same' fault 35.0 3.5 1 7 7 3.0 3.5 1 6 6 0.0 0.5 1 5 5 -5.1 -14.7 1 4 4 -70.0 -14.9 1 3 3 -126.0 -30.0 1 2 2 -182.0 -38.5 1 1 1 $ number of time intervals to define its motion story 1 $ Fault timing and velocity definition (each intergal given on one line) $ e.g., ftv1, ftv2, ftv3, ftv4, ftv5 $ ftv1 = Start time for fault slip in Ma $ ftv2 = End time for fault slip in Ma $ ftv3 = Fault slip rate (thrust is negative, normal is positive) $ ftv4 = overthrusting/underthrusting partitioning factor (disabled if negative) $ 0. = all overthrusting, no underthrusting $ 1. = all underthrusting, no overthrusting $ when using this option, the fault slip velocity specified in ftv3 $ should be set to 1. $ ftv5 = convergence rate between model sides (used only if ftv4 is positive) $ positive equals extension, negative equals convergence $ **** IMPORTANT: If ftv4 for fault 1 is positive (i.e., partitioning is **** $ **** enabled), the values for ftv1-5 for fault 1 will be used in place of **** $ **** any values listed for fault 2. **** 12.0 0.0 1.0 0.8 -20.0 $ Duplex parameters listed together on one line $ e.g., dp1 dp2 dp3 dp4 dp5 $ dp1 = time in Ma for onset of duplexing $ dp2 = time in Ma for end of duplexing (enter -1. for models running to 0 Ma) $ dp3 = rate of duplex-driven uplift in mm/a (or km/Ma) $ dp4 = distance to distal edge of duplex (closer to fault trace) $ dp5 = distance to interior edge of duplex from fault trace (further from fault $ trace) $ dp6 = flag to enable or disable advection of the duplex zone when using $ topographic advection $ 0 = Duplex advection disabled $ 1 = Duplex advected perpendicular to faults at rate specified in dp7 $ -1 = Duplex advected perpendicular to faults at topographic advection $ velocity $ dp7 = Duplex advection velocity (ignored if dp6 = 0 or -1) $ Velocities applied perpendicular to the fault trace with values that $ follow the coordinate axes (e.g., negative velocities in negative x or y $ directions.) 0.0 0.0 0.0 0.0 0.0 0 0.0