Member AERRandDouble (void): This function uses a method of obtaining floats from integers that is now known to introduce slight distribution-related bias (see Generating Random Floating-Point Numbers by Dividing Integers: a Case Study by Frédéric Goualard). This is unlikely to cause issues in the vast majority of usecases, but it should be kept in mind.
Member AERRandDoubleRange (double min, double max): This function uses a method of obtaining floats from integers that is now known to introduce slight distribution-related bias (see Generating Random Floating-Point Numbers by Dividing Integers: a Case Study by Frédéric Goualard). This is unlikely to cause issues in the vast majority of usecases, but it should be kept in mind.
Member AERRandFloat (void): This function uses a method of obtaining floats from integers that is now known to introduce slight distribution-related bias (see Generating Random Floating-Point Numbers by Dividing Integers: a Case Study by Frédéric Goualard). This is unlikely to cause issues in the vast majority of usecases, but it should be kept in mind.
Member AERRandFloatRange (float min, float max): This function uses a method of obtaining floats from integers that is now known to introduce slight distribution-related bias (see Generating Random Floating-Point Numbers by Dividing Integers: a Case Study by Frédéric Goualard). This is unlikely to cause issues in the vast majority of usecases, but it should be kept in mind.
Member AERRandGenDouble (AERRandGen *gen): This function uses a method of obtaining floats from integers that is now known to introduce slight distribution-related bias (see Generating Random Floating-Point Numbers by Dividing Integers: a Case Study by Frédéric Goualard). This is unlikely to cause issues in the vast majority of usecases, but it should be kept in mind.
Member AERRandGenDoubleRange (AERRandGen *gen, double min, double max): This function uses a method of obtaining floats from integers that is now known to introduce slight distribution-related bias (see Generating Random Floating-Point Numbers by Dividing Integers: a Case Study by Frédéric Goualard). This is unlikely to cause issues in the vast majority of usecases, but it should be kept in mind.
Member AERRandGenFloat (AERRandGen *gen): This function uses a method of obtaining floats from integers that is now known to introduce slight distribution-related bias (see Generating Random Floating-Point Numbers by Dividing Integers: a Case Study by Frédéric Goualard). This is unlikely to cause issues in the vast majority of usecases, but it should be kept in mind.
Member AERRandGenFloatRange (AERRandGen *gen, float min, float max): This function uses a method of obtaining floats from integers that is now known to introduce slight distribution-related bias (see Generating Random Floating-Point Numbers by Dividing Integers: a Case Study by Frédéric Goualard). This is unlikely to cause issues in the vast majority of usecases, but it should be kept in mind.
Member AERSaveGetCurrentSlot (void): When a save has not yet been loaded (such as is the case at the title screen), this function returns 0.
Member AERSpriteRegister (const char *name, const char *filename, size_t numFrames, uint32_t origX, uint32_t origY): The coordinates defining the origin of a sprite may be negative despite the fact that both arguments origX and origY are unsigned. They are being left as unsigned to preserve API compatibility. To pass a negative value for a component of the origin, cast it to uint32_t.
Member AERSpriteReplace (int32_t spriteIdx, const char *filename, size_t numFrames, uint32_t origX, uint32_t origY): The coordinates defining the origin of a sprite may be negative despite the fact that both arguments origX and origY are unsigned. They are being left as unsigned to preserve API compatibility. To pass a negative value for a component of the origin, cast it to uint32_t.