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-rw-r--r--robot/mode_grid.c89
1 files changed, 26 insertions, 63 deletions
diff --git a/robot/mode_grid.c b/robot/mode_grid.c
index 16dbef3..d493a1a 100644
--- a/robot/mode_grid.c
+++ b/robot/mode_grid.c
@@ -7,6 +7,8 @@ int g_w2_order_number;
int g_w2_maze_status = 0;
+
+//product coordinates
w2_s_grid_coordinate g_w2_order[4] = {
{0, 0},
{1, 1},
@@ -17,6 +19,8 @@ w2_s_grid_coordinate g_w2_location;
w2_s_grid_coordinate g_w2_destination;
w2_e_orientation g_w2_direction;
+
+//give coordinates for grid
void w2_location_message() {
clear();
print_long(g_w2_location.x);
@@ -25,13 +29,15 @@ void w2_location_message() {
delay(200);
}
+
int g_w2_detection = 0;
-int g_w2_transition;
-char g_w2_x_location = 0;
+int g_w2_transition; //used for the crosswalk, used to count black lines
+char g_w2_x_location = 0; //current location in grid
char g_w2_y_location = 0;
+
+//used for the crosswalk from maze to grid
void w2_crosswalk_stroll() {
- print("hoi");
while (g_w2_sensors[0] < 100 && g_w2_sensors[1] < 100 && g_w2_sensors[2] < 100 &&
g_w2_sensors[3] < 100 && g_w2_sensors[4] < 100) {
set_motors(15, 15);
@@ -65,6 +71,7 @@ void w2_grid_crossway_detection() {
g_w2_position = read_line(g_w2_sensors, IR_EMITTERS_ON);
}
+//main function for grid mode
void w2_grid_follow_line() {
unsigned int last_proportional = 0;
long integral = 0;
@@ -82,9 +89,9 @@ void w2_grid_follow_line() {
if (power_difference < -max) power_difference = -max;
if (g_w2_sensors[0] >= 500 && g_w2_sensors[1] >= 250 && g_w2_sensors[2] >= 500 &&
- g_w2_sensors[3] >= 250 && g_w2_sensors[4] >= 500) {
+ g_w2_sensors[3] >= 250 && g_w2_sensors[4] >= 500) { //crossways/intersections
break;
- } else if (g_w2_sensors[0] >= 500 && g_w2_sensors[1] >= 200 && g_w2_sensors[4] < 100) {
+ } else if (g_w2_sensors[0] >= 500 && g_w2_sensors[1] >= 200 && g_w2_sensors[4] < 100) { //left corners
break;
} else if (g_w2_sensors[4] >= 500 && g_w2_sensors[3] >= 200 &&
g_w2_sensors[0] < 100) { // for the south and west borders of the grid
@@ -106,17 +113,22 @@ void w2_grid_follow_line() {
}
}
+//begin location when entering the grid
void w2_begin_location() {
g_w2_location.x = 4;
g_w2_location.y = 0;
g_w2_direction = W2_ORT_WEST;
}
+
+//location of grid exit
void w2_end_destination() {
g_w2_destination.x = 4;
g_w2_destination.y = 4;
}
+
+//turns are used to get the correct orientation when picking up orders
void w2_turn_north() {
switch (g_w2_direction) {
case W2_ORT_NORTH:
@@ -175,7 +187,6 @@ void w2_turn_south() {
case W2_ORT_EAST:
w2_grid_rotation_half_right();
- ;
break;
}
@@ -204,16 +215,20 @@ void w2_turn_east() {
g_w2_direction = W2_ORT_EAST;
}
+
+//signals when the product is picked
void w2_arrived_message() {
if (g_w2_location.x == g_w2_destination.x && g_w2_location.y == g_w2_destination.y) {
clear();
- print("ORDER ");
+ print("PRODUCT");
print_long(g_w2_order_number);
play_frequency(400, 500, 7);
delay(500);
}
}
+
+//go to correct x coordinate
void w2_go_to_x() {
if (g_w2_location.x != g_w2_destination.x) {
while (g_w2_location.x != g_w2_destination.x) {
@@ -234,6 +249,7 @@ void w2_go_to_x() {
}
}
+//go to correct y coordinate
void w2_go_to_y() {
if (g_w2_location.y != g_w2_destination.y) {
while (g_w2_location.y != g_w2_destination.y) {
@@ -254,6 +270,7 @@ void w2_go_to_y() {
}
}
+//main function for grid mode
void w2_mode_grid() {
set_motors(0, 0);
clear();
@@ -273,6 +290,7 @@ void w2_mode_grid() {
delay(1000);
w2_go_to_x();
w2_go_to_y();
+ w2_arrived_message();
}
w2_end_destination();
@@ -280,61 +298,6 @@ void w2_mode_grid() {
delay(1000);
w2_go_to_y();
w2_go_to_x();
- w2_turn_east(); // this was uncommented (6.3)
+ w2_turn_east();
w2_modes_swap(W2_M_CHRG);
}
-
-/*
-void w2_mode_maze() {
- unsigned int last_proportional = 0;
- long integral = 0;
-
- clear();
- print("MAZE");
-
- g_w2_transition = 0;
-
- // This is the "main loop" - it will run forever.
- while (1) {
- // Get the position of the line. Note that we *must* provide
- // the "sensors" argument to read_line() here, even though we
- // are not interested in the individual sensor readings.
- g_w2_position = read_line(g_w2_sensors, IR_EMITTERS_ON);
-
- // The "proportional" term should be 0 when we are on the line.
- int proportional = ((int)g_w2_position) - 2000;
-
- // Compute the derivative (change) and integral (sum) of the
- // position.
- int derivative = proportional - last_proportional;
- integral += proportional;
-
- // Remember the last position.
- last_proportional = proportional;
-
- // Compute the difference between the two motor power settings,
- // m1 - m2. If this is a positive number the robot will turn
- // to the right. If it is a negative number, the robot will
- // turn to the left, and the magnitude of the number determines
- // the sharpness of the turn.
- int power_difference = proportional / 20 + integral / 10000 + derivative * 3 / 2;
-
- // Compute the actual motor settings. We never set either motor
- // to a negative value.
-
- const int max = 60;
- if (power_difference > max) power_difference = max;
- if (power_difference < -max) power_difference = -max;
-
- if (g_w2_sensors[0] < 100 && g_w2_sensors[1] < 100 && g_w2_sensors[2] < 100 &&
-g_w2_sensors[3] < 100 && g_w2_sensors[4] < 100) { } else if (g_w2_sensors[0] >= 500 &&
-g_w2_sensors[1] >= 250 && g_w2_sensors[2] >= 500 && g_w2_sensors[3] >= 250 && g_w2_sensors[4] >=
-500) { w2_crossway_detection(); } else if (g_w2_sensors[0] >= 500 && g_w2_sensors[1] >= 200 &&
-g_w2_sensors[4] < 100) { w2_half_rotation_left(); } else { if (power_difference < 0 &&
-(g_w2_sensors[2] > 100 || g_w2_sensors[3] > 100 || g_w2_sensors[1] > 100)) set_motors(max +
-power_difference, max); else if (power_difference > 0 && (g_w2_sensors[2] > 100 || g_w2_sensors[3] >
-100 || g_w2_sensors[1] > 100)) set_motors(max, max - power_difference);
- }
- }
-}
-*/