Merge commit

developer-guide.html

@@ -95,7 +95,7 @@ <h2>FEA Modules</h2>
                 <p>
                     FEA Modules are implementations of specific physical properties or phenomena. They can contain logic for either static
                     computation or simulating the next steps of dynamic evolution. For example, the Inertial FEA Module is tasked with computing element-wise
-                    masses and moments of inertia. Alternatively, the SGH module implements a Lagrangian finite element staggard grid hydrodynamic (SGH) method with a Runge Kutta
+                    masses and moments of inertia. Alternatively, the SGH module implements a Lagrangian finite element staggered grid hydrodynamic (SGH) method with a Runge Kutta
                     time evolution scheme to simulate the dynamics of materials.
                 </p>
 

index.html

@@ -120,7 +120,7 @@ <h4>Project Description</h4>
                             Fierro uniquely offers several compact-stencil, arbitrary-order Lagrangian finite element method for more efficient simulations.  These schemes use meshes that edges that can bend to accurately track large deformations in material dynamics.
                         </p>
                         <p>
-                            The implicit finite solver in Fierro is for simulating static or quasistatic thermal and mechanical applications.  Higher-order optimization methods work in concert with the thermal-mechanical implicit solvers for multiphysics topology optimization that satisfies multiple constraints.
+                            The implicit solver in Fierro is for simulating static or quasistatic thermal and mechanical applications.  Higher-order optimization methods work in concert with the thermal-mechanical implicit solvers for multiphysics topology optimization that satisfies multiple constraints.
                         </p>
                     </div>
                 </div>
@@ -143,11 +143,11 @@ <h4>EVPFFT</h4>
                     Our Elasto-Viscoplastic FFT method predicts the micro-mechanical response and microstructure evolution of polycrystalline materials. This tool can be used
                     to simulate the bulk response of a polycrystalline material under desired loading conditions.
                 </p>
-                <h4>Implicit Physics Sovler</h4>
+                <h4>Implicit Physics Solver</h4>
                 <p>
                     Our implicit physics solver can solve boundary value problems over a meshed geometry with provided boundary conditions (Neumann or Dirichlet).
                 </p>
-                <h4>Explicit Physics Sovler</h4>
+                <h4>Explicit Physics Solver</h4>
                 <p>
                     Our explicit physics solver can simulate high resolution dynamic evolution on a mesh given a range of boundary conditions, external forces, and initial conditions.
                 </p>