diff --git a/observation_sim/mock_objects/SpecDisperser/SpecDisperser.py b/observation_sim/mock_objects/SpecDisperser/SpecDisperser.py
index a6073a7f84d648c9f3f139405e8eb45d50eaa780..7f1626e5eeb598cd70162b38031ff3badfc6f1ab 100644
--- a/observation_sim/mock_objects/SpecDisperser/SpecDisperser.py
+++ b/observation_sim/mock_objects/SpecDisperser/SpecDisperser.py
@@ -495,36 +495,36 @@ class aXeConf:
         return a
 
     def evaluate_dp(self, dx, dydx):
-        """Evalate arc length along the trace given trace polynomial coefficients
+        # """Evalate arc length along the trace given trace polynomial coefficients
 
-        Parameters
-        ----------
-        dx : array-like
-            x pixel to evaluate
+        # Parameters
+        # ----------
+        # dx : array-like
+        #     x pixel to evaluate
 
-        dydx : array-like
-            Coefficients of the trace polynomial
+        # dydx : array-like
+        #     Coefficients of the trace polynomial
 
-        Returns
-        -------
-        dp : array-like
-            Arc length along the trace at position `dx`.
+        # Returns
+        # -------
+        # dp : array-like
+        #     Arc length along the trace at position `dx`.
 
-        For `dydx` polynomial orders 0, 1 or 2, integrate analytically.
-        Higher orders must be integrated numerically.
+        # For `dydx` polynomial orders 0, 1 or 2, integrate analytically.
+        # Higher orders must be integrated numerically.
 
-        **Constant:**
-            .. math:: dp = dx
+        # **Constant:**
+        #     .. math:: dp = dx
 
-        **Linear:**
-            .. math:: dp = \sqrt{1+\mathrm{DYDX}[1]}\cdot dx
+        # **Linear:**
+        #     .. math:: dp = \sqrt{1+\mathrm{DYDX}[1]}\cdot dx
 
-        **Quadratic:**
-            .. math:: u = \mathrm{DYDX}[1] + 2\ \mathrm{DYDX}[2]\cdot dx
+        # **Quadratic:**
+        #     .. math:: u = \mathrm{DYDX}[1] + 2\ \mathrm{DYDX}[2]\cdot dx
 
-            .. math:: dp = (u \sqrt{1+u^2} + \mathrm{arcsinh}\ u) / (4\cdot \mathrm{DYDX}[2])
+        #     .. math:: dp = (u \sqrt{1+u^2} + \mathrm{arcsinh}\ u) / (4\cdot \mathrm{DYDX}[2])
 
-        """
+        # """
         # dp is the arc length along the trace
         # $\lambda = dldp_0 + dldp_1 dp + dldp_2 dp^2$ ...