diff --git a/layoutparser-service/layoutparser-service-processor/src/main/java/com/knecon/fforesight/service/layoutparser/processor/utils/RulingIntersectionFinder.java b/layoutparser-service/layoutparser-service-processor/src/main/java/com/knecon/fforesight/service/layoutparser/processor/utils/RulingIntersectionFinder.java
index 70ea31b..2107abc 100644
--- a/layoutparser-service/layoutparser-service-processor/src/main/java/com/knecon/fforesight/service/layoutparser/processor/utils/RulingIntersectionFinder.java
+++ b/layoutparser-service/layoutparser-service-processor/src/main/java/com/knecon/fforesight/service/layoutparser/processor/utils/RulingIntersectionFinder.java
@@ -24,7 +24,7 @@ public class RulingIntersectionFinder {
 
 
     /**
-     * Implementation to find line intersection in O(P + n log n), where n is the number of lines and P the numer of intersections
+     * Implementation to find line intersection in O(P + n log n), where n is the number of lines and P the numer of intersections.
      * based on <a href="http://people.csail.mit.edu/indyk/6.838-old/handouts/lec2.pdf">Segment Intersection by Piotr Indyk</a>
      * The algorithm assumes there are only horizontal and vertical lines which are unique in their coordinates. (E.g. no overlapping horizontal lines exist)
      * As a high level overview, the algorithm uses a sweep line advancing from left to right.
@@ -32,13 +32,10 @@ public class RulingIntersectionFinder {
      * When the sweep line hits a vertical line, it then checks for all intersections with the currently intersected horizontal rulings.
      * THe trick of the algorithm is using a binary search tree to store the currently intersected horizontal rulings. This way the lookup should be in O(log n).
      * This way the initial sorting step has the highest complexity class (O(n log n) and thus determines the complexity class of the entire algorithm
-     *
      * Unfortunately, the implementation here takes a few liberties compared to the original algorithm. The binary search tree is replaced by an ordered Set which is simply looped over.
      * Therefore, this implementation's worst case, where all horizontal lines span the entire sweep, you are essentially performing the naive approach with a bunch of overhead.
      * Since we are using this implementation to find table cells, one can expect this worst case to always be the case.
-     *
      * A simple runtime comparison for a single page with the most lines we can expect (SinglePages/AbsolutelyEnormousTable.pdf with 30 horizontals and 144 verticals) shows this implementation takes roughly 14 ms, whereas the naive approach takes 7 ms. Both are negligible, but the naive approach is two times as fast.
-     *
      * If we would like to make this faster, we would need a better data structure for 'TreeMap<Ruling, Void> horizontalRulingsInCurrentSweep', where we can query the TreeMap for all horizontal rulings in a given interval in O(log n).
      *
      * @param horizontals a list of non-overlapping horizontal rulings
@@ -162,7 +159,7 @@ public class RulingIntersectionFinder {
         }
 
 
-        public SweepStep(Type type, float y_position, Ruling ruling) {
+        SweepStep(Type type, float y_position, Ruling ruling) {
 
             this.type = type;
             this.y_position = y_position;
diff --git a/layoutparser-service/layoutparser-service-processor/src/main/java/com/knecon/fforesight/service/layoutparser/processor/visualization/LayoutparsingVisualizations.java b/layoutparser-service/layoutparser-service-processor/src/main/java/com/knecon/fforesight/service/layoutparser/processor/visualization/LayoutparsingVisualizations.java
index 217938d..98fe586 100644
--- a/layoutparser-service/layoutparser-service-processor/src/main/java/com/knecon/fforesight/service/layoutparser/processor/visualization/LayoutparsingVisualizations.java
+++ b/layoutparser-service/layoutparser-service-processor/src/main/java/com/knecon/fforesight/service/layoutparser/processor/visualization/LayoutparsingVisualizations.java
@@ -72,7 +72,7 @@ public class LayoutparsingVisualizations {
                                                                 new Color(121, 85, 72));
 
     @Setter
-    boolean active = false;
+    boolean active;
 
     final Visualizations words = Visualizations.builder().layer(ContentStreams.WORDS).build();
     final Visualizations lines = Visualizations.builder().layer(ContentStreams.LINES).build();