Field reference

Every field on every screen of the app: what it is for, its unit, and the limits the API accepts.

Account

Sign in — Sign in to the app with your email address and password. The first sign-in asks for a permanent password and licence acceptance, and accounts with multi-factor authentication are asked for a code from their authenticator app. A successful sign-in opens the Projects screen, the entry point to everything else.

Data files — Your account's file store. Upload files here once and use them from any project. What comes out is a list of your uploaded files, held outside any project, that you can download again or delete at any time.

Projects — Lists your projects and lets you open, rename or delete them. Editing a project changes its name and description; the depth grid is fixed when the project is created. Opening a project makes it the active one and takes you to its Project overview, from which every modelling screen works on that project's layers.
Project overview — The home of one project: it summarises the project's layers and data and is the starting point for the modelling screens, with no form fields of its own. From here you go to Manage Layers to build the layered earth model, or straight to a modelling screen once the layers exist.
Create project — Creates a new project, either empty or with layers imported from a CSV file or a LAS well log. The depth grid chosen here applies to every layer in the project and cannot be changed later. What comes out is a project, with its layers already in place if you imported them, ready for Manage Layers to complete their properties.
Import LAS — A step-by-step import that builds a project from a LAS well log. You describe the project, assign the elastic curves, choose how the log is divided into layers and pick the averaging method used to block it. The result is a project whose layers carry the blocked elastic properties, ready for review in Manage Layers and for Rock Physics Modelling.

Reflectivity — Pick one layer to inspect its slowness surfaces, or two adjacent layers to compute angle- and azimuth-dependent reflection coefficients at their interface and convolve them into a synthetic gather. Each layer uses a scenario from Rock Physics Modelling or its baseline properties, and the coefficients and gather are viewed on this screen as a quick check on the layer pair before the fuller Convolution or Wave Modelling.

Reservoir Model — Upload a RESQML or RESCUE reservoir model and inspect its surfaces, wells, grids and properties in 3D. The processed model is kept with the project and viewed on this screen, so its geometry can be checked against the layered earth model that the other screens work from.

Manage Layers — Build the layered earth model for a project: create layers, give each its measured elastic properties, and record the in-situ porosity, mineral and fluid conditions that later rock-physics modelling starts from. These layer properties are the baseline that Rock Physics Modelling turns into scenarios, and that Reflectivity, Convolution and Wave Modelling fall back on for any layer without one.
Rock Physics Modelling — Choose a rock-physics model for a layer, describe its mineral frame and pore fluids, compute the elastic response, and save the result as a scenario on the layer. A layer can hold several scenarios, and Reflectivity, Convolution and Wave Modelling each let you pick which scenario stands in for each layer.

Seismic — Upload SEG-Y volumes and horizon exports, run SpeQ-AVO on a partial-stack group, and view any converted volume as sections or as a 3D cube. The uploaded volumes and the horizons imported against them are what a SpeQ-AVO or Inversion-AVO run works over, and a finished SpeQ-AVO run appears here as a further volume to view alongside its input.

Wave Modelling — Set up and run a two-dimensional finite-difference simulation of seismic waves through the project's earth model, then browse the recorded gathers and download the outputs. Each layer takes a scenario from Rock Physics Modelling or its baseline properties, and a finished run leaves shot gathers, VSP records and snapshots to view here and files to download for use outside the app.
Convolution — Build a one-dimensional synthetic gather by convolving a wavelet with the reflectivity of the project's layered earth model, choosing which rock-physics scenario stands in for each layer. The synthetic is viewed on this screen; it is the quick way to see how a scenario choice changes the seismic response before committing to a full Wave Modelling run.