diff --git a/ass b/ass
index 26c7eba..9038a36 100755
Binary files a/ass and b/ass differ
diff --git a/elementdata.c b/elementdata.c
index 59bc659..4e17684 100644
--- a/elementdata.c
+++ b/elementdata.c
@@ -1,4 +1,5 @@
-// Periodic Table CVS file from https://github.com/Bowserinator/Periodic-Table-JSON
+// Periodic Table CVS file from
+// https://github.com/Bowserinator/Periodic-Table-JSON
 
 #include <ctype.h>
 #include <stdio.h>
@@ -9,178 +10,187 @@
 #define MAX_CSV_LINE_LENGTH 2048
 
 typedef struct {
-    char name[50];
-    char appearance[100];
-    double atomic_mass;
-    double boil;
-    char category[50];
-    double density;
-    char discovered_by[50];
-    double melt;
-    double molar_heat;
-    char named_by[50];
-    int number;
-    int period;
-    int group;
-    char phase[10];
-    char source[100];
-    char bohr_model_image[200];
-    char bohr_model_3d[200];
-    char spectral_img[200];
-    char summary[500];
-    char symbol[3];
-    int xpos;
-    int ypos;
-    int wxpos;
-    int wypos;
-    char shells[50];
-    char electron_configuration[50];
-    char electron_configuration_semantic[50];
-    double electron_affinity;
-    double electronegativity_pauling;
-    char ionization_energies[200];
-    char cpk_hex[10];
-    char block[2];
-    char image_title[200];
-    char image_url[200];
-    char image_attribution[200];
+  char name[50];
+  char appearance[100];
+  double atomic_mass;
+  double boil;
+  char category[50];
+  double density;
+  char discovered_by[50];
+  double melt;
+  double molar_heat;
+  char named_by[50];
+  int number;
+  int period;
+  int group;
+  char phase[10];
+  char source[100];
+  char bohr_model_image[200];
+  char bohr_model_3d[200];
+  char spectral_img[200];
+  char summary[500];
+  char symbol[3];
+  int xpos;
+  int ypos;
+  int wxpos;
+  int wypos;
+  char shells[50];
+  char electron_configuration[50];
+  char electron_configuration_semantic[50];
+  double electron_affinity;
+  double electronegativity_pauling;
+  char ionization_energies[200];
+  char cpk_hex[10];
+  char block[2];
+  char image_title[200];
+  char image_url[200];
+  char image_attribution[200];
 } Element;
 
 // Function to trim leading and trailing whitespaces
-char* trimWhitespace(char* str) {
-    char* end;
+char *trimWhitespace(char *str) {
+  char *end;
 
-    // Trim leading space
-    while(isspace((unsigned char)*str)) str++;
-
-    if(*str == 0)  // All spaces?
-        return str;
-
-    // Trim trailing space
-    end = str + strlen(str) - 1;
-    while(end > str && isspace((unsigned char)*end)) end--;
-
-    // Write new null terminator character
-    end[1] = '\0';
+  // Trim leading space
+  while (isspace((unsigned char)*str))
+    str++;
 
+  if (*str == 0) // All spaces?
     return str;
+
+  // Trim trailing space
+  end = str + strlen(str) - 1;
+  while (end > str && isspace((unsigned char)*end))
+    end--;
+
+  // Write new null terminator character
+  end[1] = '\0';
+
+  return str;
 }
 
 // Function to parse a CSV line considering quoted fields
-void parseCSVLine(char* line, char** fields, int field_count) {
-    int field_index = 0;
-    int in_quotes = 0;
-    char* field_start = line;
+void parseCSVLine(char *line, char **fields, int field_count) {
+  int field_index = 0;
+  int in_quotes = 0;
+  char *field_start = line;
 
-    for (char* p = line; *p; p++) {
-        if (*p == '\"') {
-            in_quotes = !in_quotes;  // Toggle quote state
-        } else if (*p == ',' && !in_quotes) {
-            *p = '\0';
-            fields[field_index++] = trimWhitespace(field_start);
-            field_start = p + 1;
-        }
+  for (char *p = line; *p; p++) {
+    if (*p == '\"') {
+      in_quotes = !in_quotes; // Toggle quote state
+    } else if (*p == ',' && !in_quotes) {
+      *p = '\0';
+      fields[field_index++] = trimWhitespace(field_start);
+      field_start = p + 1;
     }
+  }
 
-    fields[field_index] = trimWhitespace(field_start);
+  fields[field_index] = trimWhitespace(field_start);
 }
 
 // Function to parse the CSV file
-Element* parseCSV(const char* filename, int* element_count) {
-    FILE* file = fopen(filename, "r");
-    if (!file) {
-        perror("Unable to open file");
-        return NULL;
-    }
-
-    Element* elements = (Element*)malloc(MAX_ELEMENTS * sizeof(Element));
-    if (!elements) {
-        perror("Unable to allocate memory");
-        fclose(file);
-        return NULL;
-    }
-
-    char line[MAX_CSV_LINE_LENGTH];
-    fgets(line, sizeof(line), file); // Skip the header line
-
-    *element_count = 0;
-    while (fgets(line, sizeof(line), file)) {
-        if (*element_count >= MAX_ELEMENTS) break;
-
-        char* fields[35] = {0};  // Array to hold all fields in the CSV line
-        parseCSVLine(line, fields, 35);
-
-        Element elem = {0};  // Initialize all struct members to zero or empty
-
-        strncpy(elem.name, fields[0], sizeof(elem.name) - 1);
-        strncpy(elem.appearance, fields[1], sizeof(elem.appearance) - 1);
-        elem.atomic_mass = atof(fields[2]);
-        elem.boil = atof(fields[3]);
-        strncpy(elem.category, fields[4], sizeof(elem.category) - 1);
-        elem.density = atof(fields[5]);
-        strncpy(elem.discovered_by, fields[6], sizeof(elem.discovered_by) - 1);
-        elem.melt = atof(fields[7]);
-        elem.molar_heat = atof(fields[8]);
-        strncpy(elem.named_by, fields[9], sizeof(elem.named_by) - 1);
-        elem.number = atoi(fields[10]);
-        elem.period = atoi(fields[11]);
-        elem.group = atoi(fields[12]);
-        strncpy(elem.phase, fields[13], sizeof(elem.phase) - 1);
-        strncpy(elem.source, fields[14], sizeof(elem.source) - 1);
-        strncpy(elem.bohr_model_image, fields[15], sizeof(elem.bohr_model_image) - 1);
-        strncpy(elem.bohr_model_3d, fields[16], sizeof(elem.bohr_model_3d) - 1);
-        strncpy(elem.spectral_img, fields[17], sizeof(elem.spectral_img) - 1);
-        strncpy(elem.summary, fields[18], sizeof(elem.summary) - 1);
-        strncpy(elem.symbol, fields[19], sizeof(elem.symbol) - 1);
-        elem.xpos = atoi(fields[20]);
-        elem.ypos = atoi(fields[21]);
-        elem.wxpos = atoi(fields[22]);
-        elem.wypos = atoi(fields[23]);
-        strncpy(elem.shells, fields[24], sizeof(elem.shells) - 1);
-        strncpy(elem.electron_configuration, fields[25], sizeof(elem.electron_configuration) - 1);
-        strncpy(elem.electron_configuration_semantic, fields[26], sizeof(elem.electron_configuration_semantic) - 1);
-        elem.electron_affinity = atof(fields[27]);
-        elem.electronegativity_pauling = atof(fields[28]);
-        strncpy(elem.ionization_energies, fields[29], sizeof(elem.ionization_energies) - 1);
-        strncpy(elem.cpk_hex, fields[30], sizeof(elem.cpk_hex) - 1);
-        strncpy(elem.block, fields[31], sizeof(elem.block) - 1);
-        strncpy(elem.image_title, fields[32], sizeof(elem.image_title) - 1);
-        strncpy(elem.image_url, fields[33], sizeof(elem.image_url) - 1);
-        strncpy(elem.image_attribution, fields[34], sizeof(elem.image_attribution) - 1);
-
-        elements[*element_count] = elem;
-        (*element_count)++;
-    }
+Element *parseCSV(const char *filename, int *element_count) {
+  FILE *file = fopen(filename, "r");
+  if (!file) {
+    perror("Unable to open file");
+    return NULL;
+  }
 
+  Element *elements = (Element *)malloc(MAX_ELEMENTS * sizeof(Element));
+  if (!elements) {
+    perror("Unable to allocate memory");
     fclose(file);
-    return elements;
-}
+    return NULL;
+  }
 
+  char line[MAX_CSV_LINE_LENGTH];
+  fgets(line, sizeof(line), file); // Skip the header line
+
+  *element_count = 0;
+  while (fgets(line, sizeof(line), file)) {
+    if (*element_count >= MAX_ELEMENTS)
+      break;
+
+    char *fields[35] = {0}; // Array to hold all fields in the CSV line
+    parseCSVLine(line, fields, 35);
+
+    Element elem = {0}; // Initialize all struct members to zero or empty
+
+    strncpy(elem.name, fields[0], sizeof(elem.name) - 1);
+    strncpy(elem.appearance, fields[1], sizeof(elem.appearance) - 1);
+    elem.atomic_mass = atof(fields[2]);
+    elem.boil = atof(fields[3]);
+    strncpy(elem.category, fields[4], sizeof(elem.category) - 1);
+    elem.density = atof(fields[5]);
+    strncpy(elem.discovered_by, fields[6], sizeof(elem.discovered_by) - 1);
+    elem.melt = atof(fields[7]);
+    elem.molar_heat = atof(fields[8]);
+    strncpy(elem.named_by, fields[9], sizeof(elem.named_by) - 1);
+    elem.number = atoi(fields[10]);
+    elem.period = atoi(fields[11]);
+    elem.group = atoi(fields[12]);
+    strncpy(elem.phase, fields[13], sizeof(elem.phase) - 1);
+    strncpy(elem.source, fields[14], sizeof(elem.source) - 1);
+    strncpy(elem.bohr_model_image, fields[15],
+            sizeof(elem.bohr_model_image) - 1);
+    strncpy(elem.bohr_model_3d, fields[16], sizeof(elem.bohr_model_3d) - 1);
+    strncpy(elem.spectral_img, fields[17], sizeof(elem.spectral_img) - 1);
+    strncpy(elem.summary, fields[18], sizeof(elem.summary) - 1);
+    strncpy(elem.symbol, fields[19], sizeof(elem.symbol) - 1);
+    elem.xpos = atoi(fields[20]);
+    elem.ypos = atoi(fields[21]);
+    elem.wxpos = atoi(fields[22]);
+    elem.wypos = atoi(fields[23]);
+    strncpy(elem.shells, fields[24], sizeof(elem.shells) - 1);
+    strncpy(elem.electron_configuration, fields[25],
+            sizeof(elem.electron_configuration) - 1);
+    strncpy(elem.electron_configuration_semantic, fields[26],
+            sizeof(elem.electron_configuration_semantic) - 1);
+    elem.electron_affinity = atof(fields[27]);
+    elem.electronegativity_pauling = atof(fields[28]);
+    strncpy(elem.ionization_energies, fields[29],
+            sizeof(elem.ionization_energies) - 1);
+    strncpy(elem.cpk_hex, fields[30], sizeof(elem.cpk_hex) - 1);
+    strncpy(elem.block, fields[31], sizeof(elem.block) - 1);
+    strncpy(elem.image_title, fields[32], sizeof(elem.image_title) - 1);
+    strncpy(elem.image_url, fields[33], sizeof(elem.image_url) - 1);
+    strncpy(elem.image_attribution, fields[34],
+            sizeof(elem.image_attribution) - 1);
+
+    elements[*element_count] = elem;
+    (*element_count)++;
+  }
+
+  fclose(file);
+  return elements;
+}
 
 int testParser() {
-    int element_count;
-    Element* elements = parseCSV("resources/periodictable.csv", &element_count);
-    if (elements) {
-        for (int i = 0; i < element_count; i++) {
-            printf("Element: %s (%s)\n", elements[i].name, elements[i].symbol);
-            printf("Atomic Mass: %.2f\n", elements[i].atomic_mass);
-            printf("Category: %s\n", elements[i].category);
-            printf("Atomic Number: %d\n", elements[i].number);
-            printf("Period: %d\n", elements[i].period);
-            printf("Group: %d\n", elements[i].group);
-            printf("Phase: %s\n", elements[i].phase);
-            printf("Summary: %s\n", elements[i].summary);
-            printf("Shells: %s\n", elements[i].shells);
-            printf("Electron Configuration: %s\n", elements[i].electron_configuration);
-            printf("Electron Configuration Semantic: %s\n", elements[i].electron_configuration_semantic);
-            printf("Electron Affinity: %.2f\n", elements[i].electron_affinity);
-            printf("Electronegativity Pauling: %.2f\n", elements[i].electronegativity_pauling);
-            printf("Ionization Energies: %s\n", elements[i].ionization_energies);
-            printf("CPK Hex Color: %s\n", elements[i].cpk_hex);
-            printf("Block: %s\n", elements[i].block);
-        }
-        free(elements);
+  int element_count;
+  Element *elements = parseCSV("resources/periodictable.csv", &element_count);
+  if (elements) {
+    for (int i = 0; i < element_count; i++) {
+      printf("Element: %s (%s)\n", elements[i].name, elements[i].symbol);
+      printf("Atomic Mass: %.2f\n", elements[i].atomic_mass);
+      printf("Category: %s\n", elements[i].category);
+      printf("Atomic Number: %d\n", elements[i].number);
+      printf("Period: %d\n", elements[i].period);
+      printf("Group: %d\n", elements[i].group);
+      printf("Phase: %s\n", elements[i].phase);
+      printf("Summary: %s\n", elements[i].summary);
+      printf("Shells: %s\n", elements[i].shells);
+      printf("Electron Configuration: %s\n",
+             elements[i].electron_configuration);
+      printf("Electron Configuration Semantic: %s\n",
+             elements[i].electron_configuration_semantic);
+      printf("Electron Affinity: %.2f\n", elements[i].electron_affinity);
+      printf("Electronegativity Pauling: %.2f\n",
+             elements[i].electronegativity_pauling);
+      printf("Ionization Energies: %s\n", elements[i].ionization_energies);
+      printf("CPK Hex Color: %s\n", elements[i].cpk_hex);
+      printf("Block: %s\n", elements[i].block);
     }
-    return 0;
+    free(elements);
+  }
+  return 0;
 }
-
diff --git a/main.c b/main.c
index 32feac1..edb41d4 100644
--- a/main.c
+++ b/main.c
@@ -28,7 +28,7 @@ int main(int argc, char *argv[]) {
   // normalizeCoordinates(&mol, screenWidth, screenHeight);
 
   int element_count;
-  Element* elements = parseCSV("resources/periodictable.csv", &element_count);
+  Element *elements = parseCSV("resources/periodictable.csv", &element_count);
 
   D printf("Number of atoms: %d\n", mol.num_atoms);
   for (int i = 0; i < mol.num_atoms; i++) {
@@ -46,7 +46,8 @@ int main(int argc, char *argv[]) {
   camera.target = (Vector3){5.0f, 5.0f, 5.0f};      // Set camera target
   camera.up = (Vector3){0.0f, 1.0f, 0.0f};          // Set camera up vector
   camera.fovy = 45.0f;                              // Set camera field of view
-  // camera.projection = CAMERA_ORTHOGRAPHIC;             // Camera projection type
+  // camera.projection = CAMERA_ORTHOGRAPHIC;             // Camera projection
+  // type
   camera.projection = CAMERA_PERSPECTIVE; // Camera projection type
   int cameraMode = CAMERA_THIRD_PERSON;
 
@@ -123,7 +124,6 @@ int main(int argc, char *argv[]) {
 
   free(elements);
 
-
   CloseWindow(); // Close window and OpenGL context
   //--------------------------------------------------------------------------------------
 
@@ -135,7 +135,8 @@ void drawAtom(Atom atom) {
   float radius;
   int scalingFactor = 100;
 
-// radius is empirical from https://en.wikipedia.org/wiki/Atomic_radii_of_the_elements_(data_page) 
+  // radius is empirical from
+  // https://en.wikipedia.org/wiki/Atomic_radii_of_the_elements_(data_page)
   if (strcmp(atom.atom_type, "C") == 0) {
     color = BLACK;
     radius = 70.0f / scalingFactor;
@@ -160,20 +161,21 @@ void drawAtom(Atom atom) {
 }
 
 void drawBond(Atom atom) {
-      Color bondColor = GREEN;
-      for (int j = 0; j < atom.num_neighbours; j++) {
-        if (!atom.bonds_drawn) {
-          if (atom.bond_orders[j] > 1) {
-            bondColor = BLUE;
-          }
-
-          DrawCylinderWiresEx(
-              (Vector3){atom.x, atom.y, atom.z},
-              (Vector3){atom.neighbours[j]->x,
-                        atom.neighbours[j]->y,
-                        atom.neighbours[j]->z},
-              0.1f, 0.1f, 20, bondColor);
-        }
-        atom.bonds_drawn = true;
+  Color bondColor = GREEN;
+  for (int j = 0; j < atom.num_neighbours; j++) {
+    if (!atom.bonds_drawn) {
+      if (atom.bond_orders[j] == 2) {
+        bondColor = BLUE;
+      } else if (atom.bond_orders[j] >= 3) {
+        bondColor = RED;
       }
+
+      DrawCylinderWiresEx((Vector3){atom.x, atom.y, atom.z},
+                          (Vector3){atom.neighbours[j]->x,
+                                    atom.neighbours[j]->y,
+                                    atom.neighbours[j]->z},
+                          0.1f, 0.1f, 20, bondColor);
+    }
+    atom.bonds_drawn = true;
+  }
 }