// This was generated by project/codegen/engine_gen.cpp #pragma once #if INTELLISENSE_DIRECTIVES #include "vectors.hpp" #include "engine.hpp" #endif struct Pos2_f32 { union { struct { f32 x; f32 y; }; f32 Basis[ 2 ]; }; operator Vec2_f32() { return *rcast( Vec2_f32*, this ); } }; template<> inline Pos2_f32 tmpl_cast< Pos2_f32, Vec2_f32 >( Vec2_f32 vec ) { return pcast( Pos2_f32, vec ); } template<> constexpr Pos2_f32 tmpl_zero< Pos2_f32 >() { return { 0, 0 }; } inline Pos2_f32 abs( Pos2_f32 v ) { Pos2_f32 result { abs( v.x ), abs( v.y ) }; return result; } inline f32 magnitude( Pos2_f32 v ) { f32 result = sqrt( v.x * v.x + v.y * v.y ); return result; } inline Pos2_f32 normalize( Pos2_f32 v ) { f32 square_size = v.x * v.x + v.y * v.y; if ( square_size < scast( f32, 1e-4 ) ) { return Zero( Pos2_f32 ); } f32 mag = sqrt( square_size ); Pos2_f32 result { v.x / mag, v.y / mag }; return result; } inline f32 scalar_product( Pos2_f32 a, Pos2_f32 b ) { f32 result = a.x * b.x + a.y * b.y; return result; } inline f32 magnitude_squared( Pos2_f32 v ) { f32 result = scalar_product( v, v ); return result; } inline Pos2_f32 operator-( Pos2_f32 v ) { Pos2_f32 result { -v.x, -v.y }; return result; } inline Pos2_f32 operator+( Pos2_f32 a, Pos2_f32 b ) { Pos2_f32 result { a.x + b.x, a.y + b.y }; return result; } inline Pos2_f32 operator-( Pos2_f32 a, Pos2_f32 b ) { Pos2_f32 result { a.x - b.x, a.y - b.y }; return result; } inline Pos2_f32 operator*( Pos2_f32 v, f32 s ) { Pos2_f32 result { v.x * s, v.y * s }; return result; } inline Pos2_f32 operator*( f32 s, Pos2_f32 v ) { Pos2_f32 result { v.x * s, v.y * s }; return result; } inline Pos2_f32 operator/( Pos2_f32 v, f32 s ) { Pos2_f32 result { v.x / s, v.y / s }; return result; } inline Pos2_f32& operator+=( Pos2_f32& a, Pos2_f32 b ) { a.x += b.x; a.y += b.y; return a; } inline Pos2_f32& operator-=( Pos2_f32& a, Pos2_f32 b ) { a.x -= b.x; a.y -= b.y; return a; } inline Pos2_f32& operator*=( Pos2_f32& v, f32 s ) { v.x *= s; v.y *= s; return v; } inline Pos2_f32& operator/=( Pos2_f32& v, f32 s ) { v.x /= s; v.y /= s; return v; } using Dist_f32 = f32; inline Dist_f32 distance( Pos2_f32 a, Pos2_f32 b ) { f32 x = b.x - a.x; f32 y = b.y - a.y; Dist_f32 result = sqrt( x * x + y * y ); return result; } struct Vel2_f32 { union { struct { f32 x; f32 y; }; f32 Basis[ 2 ]; }; operator Vec2_f32() { return *rcast( Vec2_f32*, this ); } }; template<> inline Vel2_f32 tmpl_cast< Vel2_f32, Vec2_f32 >( Vec2_f32 vec ) { return pcast( Vel2_f32, vec ); } template<> constexpr Vel2_f32 tmpl_zero< Vel2_f32 >() { return { 0, 0 }; } inline Vel2_f32 abs( Vel2_f32 v ) { Vel2_f32 result { abs( v.x ), abs( v.y ) }; return result; } inline f32 magnitude( Vel2_f32 v ) { f32 result = sqrt( v.x * v.x + v.y * v.y ); return result; } inline Vel2_f32 normalize( Vel2_f32 v ) { f32 square_size = v.x * v.x + v.y * v.y; if ( square_size < scast( f32, 1e-4 ) ) { return Zero( Vel2_f32 ); } f32 mag = sqrt( square_size ); Vel2_f32 result { v.x / mag, v.y / mag }; return result; } inline f32 scalar_product( Vel2_f32 a, Vel2_f32 b ) { f32 result = a.x * b.x + a.y * b.y; return result; } inline f32 magnitude_squared( Vel2_f32 v ) { f32 result = scalar_product( v, v ); return result; } inline Vel2_f32 operator-( Vel2_f32 v ) { Vel2_f32 result { -v.x, -v.y }; return result; } inline Vel2_f32 operator+( Vel2_f32 a, Vel2_f32 b ) { Vel2_f32 result { a.x + b.x, a.y + b.y }; return result; } inline Vel2_f32 operator-( Vel2_f32 a, Vel2_f32 b ) { Vel2_f32 result { a.x - b.x, a.y - b.y }; return result; } inline Vel2_f32 operator*( Vel2_f32 v, f32 s ) { Vel2_f32 result { v.x * s, v.y * s }; return result; } inline Vel2_f32 operator*( f32 s, Vel2_f32 v ) { Vel2_f32 result { v.x * s, v.y * s }; return result; } inline Vel2_f32 operator/( Vel2_f32 v, f32 s ) { Vel2_f32 result { v.x / s, v.y / s }; return result; } inline Vel2_f32& operator+=( Vel2_f32& a, Vel2_f32 b ) { a.x += b.x; a.y += b.y; return a; } inline Vel2_f32& operator-=( Vel2_f32& a, Vel2_f32 b ) { a.x -= b.x; a.y -= b.y; return a; } inline Vel2_f32& operator*=( Vel2_f32& v, f32 s ) { v.x *= s; v.y *= s; return v; } inline Vel2_f32& operator/=( Vel2_f32& v, f32 s ) { v.x /= s; v.y /= s; return v; } struct Accel2_f32 { union { struct { f32 x; f32 y; }; f32 Basis[ 2 ]; }; operator Vec2_f32() { return *rcast( Vec2_f32*, this ); } }; template<> inline Accel2_f32 tmpl_cast< Accel2_f32, Vec2_f32 >( Vec2_f32 vec ) { return pcast( Accel2_f32, vec ); } template<> constexpr Accel2_f32 tmpl_zero< Accel2_f32 >() { return { 0, 0 }; } inline Accel2_f32 abs( Accel2_f32 v ) { Accel2_f32 result { abs( v.x ), abs( v.y ) }; return result; } inline f32 magnitude( Accel2_f32 v ) { f32 result = sqrt( v.x * v.x + v.y * v.y ); return result; } inline Accel2_f32 normalize( Accel2_f32 v ) { f32 square_size = v.x * v.x + v.y * v.y; if ( square_size < scast( f32, 1e-4 ) ) { return Zero( Accel2_f32 ); } f32 mag = sqrt( square_size ); Accel2_f32 result { v.x / mag, v.y / mag }; return result; } inline f32 scalar_product( Accel2_f32 a, Accel2_f32 b ) { f32 result = a.x * b.x + a.y * b.y; return result; } inline f32 magnitude_squared( Accel2_f32 v ) { f32 result = scalar_product( v, v ); return result; } inline Accel2_f32 operator-( Accel2_f32 v ) { Accel2_f32 result { -v.x, -v.y }; return result; } inline Accel2_f32 operator+( Accel2_f32 a, Accel2_f32 b ) { Accel2_f32 result { a.x + b.x, a.y + b.y }; return result; } inline Accel2_f32 operator-( Accel2_f32 a, Accel2_f32 b ) { Accel2_f32 result { a.x - b.x, a.y - b.y }; return result; } inline Accel2_f32 operator*( Accel2_f32 v, f32 s ) { Accel2_f32 result { v.x * s, v.y * s }; return result; } inline Accel2_f32 operator*( f32 s, Accel2_f32 v ) { Accel2_f32 result { v.x * s, v.y * s }; return result; } inline Accel2_f32 operator/( Accel2_f32 v, f32 s ) { Accel2_f32 result { v.x / s, v.y / s }; return result; } inline Accel2_f32& operator+=( Accel2_f32& a, Accel2_f32 b ) { a.x += b.x; a.y += b.y; return a; } inline Accel2_f32& operator-=( Accel2_f32& a, Accel2_f32 b ) { a.x -= b.x; a.y -= b.y; return a; } inline Accel2_f32& operator*=( Accel2_f32& v, f32 s ) { v.x *= s; v.y *= s; return v; } inline Accel2_f32& operator/=( Accel2_f32& v, f32 s ) { v.x /= s; v.y /= s; return v; } struct Dir2_f32 { union { struct { f32 x; f32 y; }; f32 Basis[ 2 ]; }; operator Vec2_f32() { return *rcast( Vec2_f32*, this ); } operator Vel2_f32() { return *rcast( Vel2_f32*, this ); } operator Accel2_f32() { return *rcast( Accel2_f32*, this ); } }; template<> inline Dir2_f32 tmpl_cast< Dir2_f32, Vec2_f32 >( Vec2_f32 vec ) { f32 abs_sum = abs( vec.x + vec.y ); if ( is_nearly_zero( abs_sum - 1 ) ) return pcast( Dir2_f32, vec ); Vec2_f32 normalized = normalize( vec ); return pcast( Dir2_f32, normalized ); } inline Vel2_f32 velocity( Pos2_f32 a, Pos2_f32 b ) { Vec2_f32 result = b - a; return pcast( Vel2_f32, result ); } inline Pos2_f32& operator+=( Pos2_f32& pos, Vel2_f32 const vel ) { pos.x += vel.x * engine::get_context()->delta_time; pos.y += vel.y * engine::get_context()->delta_time; return pos; } inline Accel2_f32 acceleration( Vel2_f32 a, Vel2_f32 b ) { Vec2_f32 result = b - a; return pcast( Accel2_f32, result ); } inline Vel2_f32& operator+=( Vel2_f32& vel, Accel2_f32 const accel ) { vel.x += accel.x * engine::get_context()->delta_time; vel.y += accel.y * engine::get_context()->delta_time; return vel; } inline Dir2_f32 direction( Pos2_f32 pos_a, Pos2_f32 pos_b ) { Vec2_f32 diff = pos_b - pos_a; f32 mag = magnitude( diff ); Dir2_f32 result { diff.x / mag, diff.y / mag }; return result; } inline Dir2_f32 direction( Vel2_f32 vel ) { f32 mag = magnitude( vel ); Dir2_f32 result { vel.x / mag, vel.y / mag }; return result; } inline Dir2_f32 direction( Accel2_f32 accel ) { f32 mag = magnitude( accel ); Dir2_f32 result { accel.x / mag, accel.y / mag }; return result; } using Dist = Dist_f32; using Pos2 = Pos2_f32; using Dir2 = Dir2_f32; using Vel2 = Vel2_f32; using Accel2 = Accel2_f32;