A computer-implemented method for evaluating measurement data in a reservoir model, comprising: obtaining a first reservoir model of a subsurface volume; determining a baseline control parameter based on the first reservoir model, wherein the baseline control parameter comprises a flowpath area of a flow control device in a completion in the subsurface volume; receiving deep directional resistivity measurement data of the subsurface volume measured using a data collection device; the deep directional resistivity measurement data representing one or more characteristics of the subsurface volume; obtaining a second reservoir model of the subsurface volume based in part on the deep directional resistivity measurement data, wherein the first reservoir model is not based on the deep directional resistivity measurement data; determining an enhanced control parameter based on the second reservoir model, wherein the enhanced control parameter comprises a flowpath area of the flow control device in the completion; determining an enhanced value by applying the enhanced control parameter in the second reservoir model, wherein the enhanced value represents an amount of hydrocarbons that can be recovered from the well over a predetermined time period with the enhanced control parameter; determining a realized value by applying the baseline control parameter to the second reservoir model, wherein the realized value represents an amount of hydrocarbons that can be recovered from the well over the predetermined time period with the selected baseline control parameter; comparing the enhanced value and the realized value to evaluate whether a cost associated with collection of the deep directional resistivity measurement data of the subsurface volume exceeds a gain associated with the amount of hydrocarbons that can be recovered from the well over the predetermined time period; and adjusting a flowpath area of a flow control device to be installed in the completion based on the new measurement data. obtaining a first reservoir model of a subsurface volume; determining a baseline control parameter based on the first reservoir model, wherein the baseline control parameter comprises a flowpath area of a flow control device in a completion in the subsurface volume; receiving deep directional resistivity measurement data of the subsurface volume measured using a data collection device; the deep directional resistivity measurement data representing one or more characteristics of the subsurface volume; obtaining a second reservoir model of the subsurface volume based in part on the deep directional resistivity measurement data, wherein the first reservoir model is not based on the deep directional resistivity measurement data; determining an enhanced control parameter based on the second reservoir model, wherein the enhanced control parameter comprises a flowpath area of the flow control device in the completion; determining an enhanced value by applying the enhanced control parameter in the second reservoir model, wherein the enhanced value represents an amount of hydrocarbons that can be recovered from the well over a predetermined time period with the enhanced control parameter; determining a realized value by applying the baseline control parameter to the second reservoir model, wherein the realized value represents an amount of hydrocarbons that can be recovered from the well over the predetermined time period with the selected baseline control parameter; comparing the enhanced value and the realized value to evaluate whether a cost associated with collection of the deep directional resistivity measurement data of the subsurface volume exceeds a gain associated with the amount of hydrocarbons that can be recovered from the well over the predetermined time period; and adjusting a flowpath area of a flow control device to be installed in the completion based on the new measurement data. <EOS>