Merge pull request #180 from Jaseci-Labs/examples_01

refactored examples

examples/guess_game/guess_game5.jac

@@ -1,8 +1,10 @@
 """A Number Guessing Game"""
+
 import:py random;
 
 walker GuessGame {
     has correct_number: int = (1, 100) |> random.randint;
+
     can start_game with `<root> entry;
     can process_guess(guess: int);
 }
@@ -23,13 +25,14 @@ node turn {
 
 :walker:GuessGame:can:start_game {
     end = <here>;
-    for i=0 to i<10 by i+=1 {
-        end ++> end := :> turn;
+    for i=0 to i<10 by i+=1  {
+        end ++> (end := turn());
     }
     visit -->;
 }
 
-:walker:GuessGame:can:process_guess(guess: int) {
+:walker:GuessGame:can:process_guess
+(guess: int) {
     if guess > <self>.correct_number {
         "Too high!" |> print;
     } elif guess < <self>.correct_number {
@@ -39,8 +42,8 @@ node turn {
         disengage;
     }
 }
-
 # # Run the game
+
 with entry {
     :> GuessGame spawn <root>;
 }

examples/reference/arithmetic_expressions.jac

@@ -1,34 +1,11 @@
 with entry{
-    # Addition
-result_addition = 5 + 3;
-print("Addition:", result_addition); # Output: 8
+     p = print;
 
-# Subtraction
-result_subtraction = 10 - 4;
-print("Subtraction:", result_subtraction); # Output: 6
+    p("Multiply:", 7 * 2);
+    p("Division:", 15 / 3);
+    p("Floor:", 15 // 3);
+    p("Modulo:", 17 % 5);
+    p("Expon:", 2 ** 3);
+    p("combo:", (9+ 2) *9 - 2);
 
-# Multiplication
-result_multiplication = 7 * 2;
-print("Multiplication:", result_multiplication);  # Output: 14
-
-# Division
-result_division = 15 / 3;
-print("Division:", result_division); # Output: 5.0 (result is a float)
-
-# Integer Division (Floor Division)
-result_floor_division = 15 // 3;
-print("Floor Division:", result_floor_division);  # Output: 5 (result is an integer)
-
-# Modulo (Remainder)
-result_modulo = 17 % 5;
-print("Modulo (Remainder):", result_modulo);  # Output: 2
-
-# Exponentiation
-result_exponentiation = 2 ** 3;
-print("Exponentiation:", result_exponentiation); # Output: 8
-
-# Combined Operations
-combined_result = (4 + 7) * 2 - 3;
-print("Combined Operations:", combined_result); # Output: 15
-
-}
+}

examples/reference/arithmetic_expressions.py

@@ -1,30 +1,8 @@
-result_addition = 5 + 3
-print("Addition:", result_addition)  # Output: 8
-
-# Subtraction
-result_subtraction = 10 - 4
-print("Subtraction:", result_subtraction)  # Output: 6
-
-# Multiplication
-result_multiplication = 7 * 2
-print("Multiplication:", result_multiplication)  # Output: 14
-
-# Division
-result_division = 15 / 3
-print("Division:", result_division)  # Output: 5.0 (result is a float)
-
-# Integer Division (Floor Division)
-result_floor_division = 15 // 3
-print("Floor Division:", result_floor_division)  # Output: 5 (result is an integer)
-
-# Modulo (Remainder)
-result_modulo = 17 % 5
-print("Modulo (Remainder):", result_modulo)  # Output: 2
-
-# Exponentiation
-result_exponentiation = 2**3
-print("Exponentiation:", result_exponentiation)  # Output: 8
-
-# Combined Operations
-combined_result = (4 + 7) * 2 - 3
-print("Combined Operations:", combined_result)  # Output: 15
+p = print
+
+p("Multiply:", 7 * 2)
+p("Division:", 15 / 3)
+p("Floor:", 15 // 3)
+p("Modulo:", 17 % 5)
+p("Expon:", 2**3)
+p("combo:", (9 + 2) * 9 - 2)

examples/reference/assignments.jac

@@ -1,22 +1,14 @@
 with entry{
 
-    a=b=5;
-    let c = 10;
+    a=b=16;
+    let c = 18;
     print(a,b,c);
-
- # Right Shift Equal (>>=)
-    x=16;
-    x>>=2;
-    print(x);
-
-#Left shift Equal (<<=)
-    x<<=2;
-    print(x);
-
- #floor Division
-    x= 18;
-    x//=4;
-    print(x);
+    a>>=2;
+    print(a);
+    a<<=2;
+    print(a);
+    c//=4;
+    print(c);
 }
 
 

examples/reference/assignments.py

@@ -1,20 +1,9 @@
-a = b = 5
-c = 10
+a = b = 16
+c = 18
 print(a, b, c)
-
-
-# Right Shift Equal (>>=)
-x = 16  # Binary: 0b10000
-x >>= 2  # Right shift x by 2 positions and assign the result back to x
-print(x)  # After the operation, x will be 4 (Binary: 0b100)
-
-
-# Left shift Equal (<<=)
-x <<= 2  # Left shift x by 2 positions and assign the result back to x
-print(x)  # After the operation, x will be 64 (Binary: 0b1000000)
-
-
-# floor division equal
-x = 18
-x //= 4
-print(x)  # output gives 4
+a >>= 2
+print(a)
+a <<= 2
+print(a)
+c //= 4
+print(c)

examples/reference/atom.jac

@@ -1,15 +1,15 @@
 :enum:x {
-    a_b=67,
-     y="aaa" +f"b{a_b}bbcc"
+    aa=67,
+     y="aaa" +f"b{aa}bbcc"
    }
- glob  c=(3,4,5) , l_1=[2,3,4,5];
+glob  c=(3,4,5) , list1=[2,3,4,5];
 with entry{
-    #do we need to give example for what are atoms ?
     a="abcde....";
     b=True;
     c=bin(12); d=hex(78);
-    # e=0x4e; ????
-    print(l_1,a,b,c,d);
+    print(list1,a,b,c,d);
+    # pp=0x4e;
+    # print(0b1100);
     enum x;
     print(x.y.value);
 }

examples/reference/bitwise_expressions.jac

@@ -1,29 +1,10 @@
-#Bitwise_operators.jac
 with entry{
-    # Bitwise AND
-    a = 5;    # binary: 0101
-    b = 3;    # binary: 0011
-    result_and = a & b;
-    print(f"Bitwise AND: {result_and}");  # Output: 1 (binary: 0001)
-
-    # Bitwise OR
-    result_or = a | b;
-    print(f"Bitwise OR: {result_or}") ;   # Output: 7 (binary: 0111)
-
-    # Bitwise XOR
-    result_xor = a ^ b;
-    print(f"Bitwise XOR: {result_xor}"); # Output: 6 (binary: 0110)
-
-    # Bitwise NOT
-    result_not_a = ~a;
-    print(f"Bitwise NOT of a: {result_not_a}");  # Output: -6 (binary: 11111010)
-
-    # Left shift
-    result_left_shift = a << 1;
-    print(f"Left shift of a: {result_left_shift}");  # Output: 10 (binary: 1010)
-
-    # Right shift
-    result_right_shift = a >> 1;
-    print(f"Right shift of a: {result_right_shift}"); # Output: 2 (binary: 0010)
+    p=print;
+    p("&:", 5 & 3);
+    p("|:", 5 | 3);
+    p("^:", 5 ^ 3);
+    p("~:", ~5);
+    p("<<:", 5 << 1);
+    p(">>:", 5 >> 1);
 
 }

examples/reference/bitwise_expressions.py

@@ -1,27 +1,7 @@
-# Bitwise AND
-a = 5
-# binary: 0101
-b = 3
-# binary: 0011
-result_and = a & b
-print(f"Bitwise AND: {result_and}")  # Output: 1 (binary: 0001)
-
-# Bitwise OR
-result_or = a | b
-print(f"Bitwise OR: {result_or}")  # Output: 7 (binary: 0111)
-
-# Bitwise XOR
-result_xor = a ^ b
-print(f"Bitwise XOR: {result_xor}")  # Output: 6 (binary: 0110)
-
-# Bitwise NOT
-result_not_a = ~a
-print(f"Bitwise NOT of a: {result_not_a}")  # Output: -6 (binary: 11111010)
-
-# Left shift
-result_left_shift = a << 1
-print(f"Left shift of a: {result_left_shift}")  # Output: 10 (binary: 1010)
-
-# Right shift
-result_right_shift = a >> 1
-print(f"Right shift of a: {result_right_shift}")  # Output: 2 (binary: 0010)
+p = print
+p("&:", 5 & 3)
+p("|:", 5 | 3)
+p("^:", 5 ^ 3)
+p("~:", ~5)
+p("<<:", 5 << 1)
+p(">>:", 5 >> 1)

examples/reference/connect_expressions.jac

@@ -1,31 +1,36 @@
-node node_a{
-    has value:int;
+node node_a {
+    has value: int;
 }
+
 walker Creator {
     can create with `<root> entry;
-    can travel with `<root>|node_a entry;
+    can travel with `<root> | node_a entry;
 }
+
 edge MyEdge {
-  has val:int =5;
+    has val: int = 5;
 }
-:walker:Creator:can:create{
+
+:walker:Creator:can:create {
     end = <here>;
-    for i = 0 to i<7 by i+=1{
-        if i % 2==0{
-            end ++> end := node_a(value=i);
-        }
-        else{
-            end +:MyEdge:val=i:+> end := node_a(value=i+10);
+    for i=0 to i<7 by i+=1  {
+        if i % 2 == 0 {
+            end ++> (end := node_a(value=i));
+        } else {
+            end +:MyEdge:val=i:+> (end := node_a(value=i + 10));
         }
     }
 }
-:walker:Creator:can:travel{
-    for i in -:MyEdge:val<=6 :->{
-            print(i.value);
-        }
-    visit-->;
+
+:walker:Creator:can:travel {
+    for i in -:MyEdge:val <= 6:-> {
+        print(i.value);
+    }
+    visit -->;
 }
-with entry{
+
+with entry {
     <root> spawn Creator();
+
     # print(<r>._jac_.gen_dot());
-}
+}

examples/reference/data_spatial_calls.jac

@@ -1,24 +1,27 @@
-walker walker_1{
-     can func2 with `<root> entry;
+walker walker_1 {
+    can func2 with `<root> entry;
 }
-node node_1{
-    has val :int;
-     can func_1 with walker_1 entry;
+
+node node_1 {
+    has val: int;
+
+    can func_1 with walker_1 entry;
 }
-:node:node_1:can:func_1{
-        print("visiting ",<s>);
-        visit-->;
- }
-:walker:walker_1:can:func2{
+
+:node:node_1:can:func_1 {
+    print("visiting ", <s>);
+    visit -->;
+}
+
+:walker:walker_1:can:func2 {
     end = <here>;
-    for i=0 to i<5 by i+=1 {
-        end ++>  end := node_1(val=i+1);
+    for i=0 to i<5 by i+=1  {
+        end ++> (end := node_1(val=i + 1));
     }
     visit -->;
 }
 
-with entry{
-    <r> spawn |> walker_1  ;
-    <r> spawn :>  walker_1  ;
-
+with entry {
+    <r> spawn |> walker_1;
+    <r> spawn :> walker_1;
 }