/*
 * PSn00bSDK GTE macros
 * (C) 2019 Lameguy64
 * (C) 2021-2022 Soapy (tweaked by spicyjpeg)
 *
 * This header is basically identical to Nugget's inline_n.h.
 */

/**
 * @file inline_c.h
 * @brief Inline GTE macro header
 *
 * @details This header provides a set of macros for making use of GTE commands
 * and registers from C or C++ code. Unlike the official SDK, all commands can
 * be used right away without having to run any other post-processing tool on
 * compiled object files.
 */

#pragma once

/* GTE load macros */

/**
 * @brief Loads a single SVECTOR to GTE vector register V0
 *
 * @details Loads values from an SVECTOR struct to GTE data registers C2_VXY0
 * and C2_VZ0.
 */
#define gte_ldv0( r0 ) __asm__ volatile ( \
	"lwc2	$0, 0( %0 );"	\
	"lwc2	$1, 4( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "$t0" )

/**
 * @brief Loads a single SVECTOR to GTE vector register V1
 *
 * @details Loads values from an SVECTOR struct to GTE data registers C2_VXY1
 * and C2_VZ1.
 */
#define gte_ldv1( r0 ) __asm__ volatile ( \
	"lwc2	$2, 0( %0 );"	\
	"lwc2	$3, 4( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "$t0" )

/**
 * @brief Loads a single SVECTOR to GTE vector register V2
 *
 * @details Loads values from an SVECTOR struct to GTE data registers C2_VXY2
 * and C2_VZ2.
 */
#define gte_ldv2( r0 ) __asm__ volatile ( \
	"lwc2	$4, 0( %0 );"	\
	"lwc2	$5, 4( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "$t0" )

/**
 * @brief Load three SVECTORs to GTE vector registers at once
 *
 * @details Loads values from three SVECTOR structs to GTE data registers
 * C2_VXY0 and C2_VZ0, C2_VXY1 and C2_VZ1,  C2_VXY2 and C2_VZ2 at once. 
 */
#define gte_ldv3( r0, r1, r2 ) __asm__ volatile ( \
	"lwc2	$0, 0( %0 );"	\
	"lwc2	$1, 4( %0 );"	\
	"lwc2	$2, 0( %1 );"	\
	"lwc2	$3, 4( %1 );"	\
	"lwc2	$4, 0( %2 );"	\
	"lwc2	$5, 4( %2 );"	\
	:						\
	: "r"( r0 ), "r"( r1 ), "r"( r2 ) )

#define gte_ldv3c( r0 ) __asm__ volatile ( \
	"lwc2	$0, 0( %0 );"	\
	"lwc2	$1, 4( %0 );"	\
	"lwc2	$2, 8( %0 );"	\
	"lwc2	$3, 12( %0 );"	\
	"lwc2	$4, 16( %0 );"	\
	"lwc2	$5, 20( %0 );"	\
	:						\
	: "r"( r0 ) )

#define gte_ldv3c_vertc( r0 ) __asm__ volatile ( \
	"lwc2	$0, 0( %0 );"	\
	"lwc2	$1, 4( %0 );"	\
	"lwc2	$2, 12( %0 );"	\
	"lwc2	$3, 16( %0 );"	\
	"lwc2	$4, 24( %0 );"	\
	"lwc2	$5, 28( %0 );"	\
	:						\
	: "r"( r0 ) )

#define gte_ldv01( r0, r1 ) __asm__ volatile ( \
	"lwc2	$0, 0( %0 );"	\
	"lwc2	$1, 4( %0 );"	\
	"lwc2	$2, 0( %1 );"	\
	"lwc2	$3, 4( %1 );"	\
	:						\
	: "r"( r0 ), "r"( r1 ) )

#define gte_ldv01c( r0 ) __asm__ volatile ( \
	"lwc2	$0, 0( %0 );"	\
	"lwc2	$1, 4( %0 );"	\
	"lwc2	$2, 8( %0 );"	\
	"lwc2	$3, 12( %0 );"	\
	:						\
	: "r"( r0 ) )

/**
 * @brief Load a CVECTOR to GTE register C2_RGBC
 *
 * @details Loads a CVECTOR value to GTE data register C2_RGBC. The primitive
 * code (the last byte of a CVECTOR) is passed to the color FIFO registers when
 * performing lighting compute operations, so it can be stored to the RGBC
 * field of a primitive directly without any additional operation required.
 */
#define gte_ldrgb( r0 ) __asm__ volatile ( \
	"lwc2	$6 , 0( %0 );"	\
	:						\
	: "r"( r0 ) )

#define gte_ldrgb3( r0, r1, r2 ) __asm__ volatile ( \
	"lwc2	$20, 0( %0 );"	\
	"lwc2	$21, 0( %1 );"	\
	"lwc2	$22, 0( %2 );"	\
	"lwc2	$6, 0( %2 );"	\
	:						\
	: "r"( r0 ), "r"( r1 ), "r"( r2 ) )

#define gte_ldrgb3c( r0 ) __asm__ volatile ( \
	"lwc2	$20, 0( %0 );"	\
	"lwc2	$21, 4( %0 );"	\
	"lwc2	$22, 8( %0 );"	\
	"lwc2	$6, 8( %0 );"	\
	:						\
	: "r"( r0 ) )

#define gte_ldlv0( r0 ) __asm__ volatile ( \
	"lhu	$13, 4( %0 );"	\
	"lhu	$12, 0( %0 );"	\
	"sll	$13, $13, 16;"	\
	"or	$12, $12, $13;"		\
	"mtc2	$12, $0;"		\
	"lwc2	$1, 8( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "$12", "$13" )

#define gte_ldlvl( r0 ) __asm__ volatile ( \
	"lwc2	$9, 0( %0 );"	\
	"lwc2	$10, 4( %0 );"	\
	"lwc2	$11, 8( %0 );"	\
	:						\
	: "r"( r0 ) )

#define gte_ldsv( r0 ) __asm__ volatile ( \
	"lhu	$12, 0( %0 );"	\
	"lhu	$13, 2( %0 );"	\
	"lhu	$14, 4( %0 );"	\
	"mtc2	$12, $9;"		\
	"mtc2	$13, $10;"		\
	"mtc2	$14, $11;"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13", "$14" )

#define gte_ldbv( r0 ) __asm__ volatile ( \
	"lbu	$12, 0( %0 );"	\
	"lbu	$13, 1( %0 );"	\
	"mtc2	$12, $9;"		\
	"mtc2	$13, $10;"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13" )

#define gte_ldcv( r0 ) __asm__ volatile ( \
	"lbu	$12, 0( %0 );"	\
	"lbu	$13, 1( %0 );"	\
	"lbu	$14, 2( %0 );"	\
	"mtc2	$12, $9;"		\
	"mtc2	$13, $10;"		\
	"mtc2	$14, $11;"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13", "$14" )

#define gte_ldclmv( r0 ) __asm__ volatile ( \
	"lhu	$12, 0( %0 );"	\
	"lhu	$13, 6( %0 );"	\
	"lhu	$14, 12( %0 );"	\
	"mtc2	$12, $9;"		\
	"mtc2	$13, $10;"		\
	"mtc2	$14, $11;"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13", "$14" )

#define gte_ldsxy0( r0 ) __asm__ volatile ( \
	"mtc2	%0, $12;"		\
	:						\
	: "r"( r0 ) )

#define gte_ldsxy1( r0 ) __asm__ volatile ( \
	"mtc2	%0, $13;"		\
	:						\
	: "r"( r0 ) )

#define gte_ldsxy2( r0 ) __asm__ volatile ( \
	"mtc2	%0, $14;"		\
	:						\
	: "r"( r0 ) )

#define gte_ldsxy3( r0, r1, r2 ) __asm__ volatile ( \
	"mtc2	%0, $12;"		\
	"mtc2	%2, $14;"		\
	"mtc2	%1, $13;"		\
	:						\
	: "r"( r0 ), "r"( r1 ), "r"( r2 ) )

#define gte_ldsxy3c( r0 ) __asm__ volatile ( \
	"lwc2	$12, 0( %0 );"	\
	"lwc2	$13, 4( %0 );"	\
	"lwc2	$14, 8( %0 );"	\
	:						\
	: "r"( r0 ) )

#define gte_ldsz3( r0, r1, r2 ) __asm__ volatile ( \
	"mtc2	%0, $17;"		\
	"mtc2	%1, $18;"		\
	"mtc2	%2, $19;"		\
	:						\
	: "r"( r0 ), "r"( r1 ), "r"( r2 ) )

#define gte_ldsz4( r0, r1, r2, r3 ) __asm__ volatile ( \
	"mtc2	%0, $16;"		\
	"mtc2	%1, $17;"		\
	"mtc2	%2, $18;"		\
	"mtc2	%3, $19;"		\
	:						\
	: "r"( r0 ), "r"( r1 ), "r"( r2 ), "r"( r3 ) )

#define gte_ldopv1( r0 ) __asm__ volatile ( \
	"lw	$12, 0( %0 );"		\
	"lw	$13, 4( %0 );"		\
	"ctc2	$12, $0;"		\
	"lw	$14, 8( %0 );"		\
	"ctc2	$13, $2;"		\
	"ctc2	$14, $4;"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13", "$14" )

/**
 * @brief Loads values to GTE registers C2_IR1-3
 *
 * @details Loads three 32-bit values to GTE data registers C2_IR1, C2_IR2 and
 * C2_IR3.
 */
#define gte_ldopv2( r0 ) __asm__ volatile ( \
	"lwc2	$11, 8( %0 );"	\
	"lwc2	$9 , 0( %0 );"	\
	"lwc2	$10, 4( %0 );"	\
	:						\
	: "r"( r0 ) )

#define gte_lddp( r0 ) __asm__ volatile ( \
	"mtc2	%0, $8;"		\
	:						\
	: "r"( r0 ) )

#define gte_ldlzc( r0 ) __asm__ volatile ( \
	"mtc2	%0, $30;"		\
	:						\
	: "r"( r0 ) )

#define gte_SetRGBcd( r0 ) __asm__ volatile ( \
	"lwc2	$6, 0( %0 );"	\
	:						\
	: "r"( r0 ) )

#define gte_ldbkdir( r0, r1, r2 ) __asm__ volatile ( \
	"ctc2	%0, $13;"		\
	"ctc2	%1, $14;"		\
	"ctc2	%2, $15;"		\
	:						\
	: "r"( r0 ), "r"( r1 ), "r"( r2 ) )

/**
 * @brief Sets an RGB color value to the GTE
 *
 * @details Sets the specified RGB value to GTE control registers C2_RBK,
 * C2_GBK and C2_BBK. This specifies the color value to use when a normal faces
 * away from the direction of the light source. This can be considered as the
 * ambient light color.
 */
#define gte_SetBackColor( r0, r1, r2 ) __asm__ volatile ( \
	"sll	$t0, %0, 4;"	\
	"sll	$t1, %1, 4;"	\
	"sll	$t2, %2, 4;"	\
	"ctc2	$t0, $13;"		\
	"ctc2	$t1, $14;"		\
	"ctc2	$t2, $15;"		\
	:						\
	: "r"( r0 ), "r"( r1 ), "r"( r2 )	\
	: "$t0", "$t1", "$t2" )

#define gte_ldfcdir( r0, r1, r2 ) __asm__ volatile ( \
	"ctc2	%0, $21;"		\
	"ctc2	%1, $22;"		\
	"ctc2	%2, $23;"		\
	:						\
	: "r"( r0 ), "r"( r1 ), "r"( r2 ) )

#define gte_SetFarColor( r0, r1, r2 ) __asm__ volatile ( \
	"sll	$12, %0, 4;"	\
	"sll	$13, %1, 4;"	\
	"sll	$14, %2, 4;"	\
	"ctc2	$12, $21;"		\
	"ctc2	$13, $22;"		\
	"ctc2	$14, $23;"		\
	:						\
	: "r"( r0 ), "r"( r1 ), "r"( r2 )	\
	: "$12", "$13", "$14" )

/**
 * @brief Sets the GTE screen offset
 *
 * @details Sets the values of the GTE screen offset which is applied to 2D
 * projected coordinates when performing perspective transformation. The values
 * are set to GTE control registers C2_OFX and C2_OFY.
 */
#define gte_SetGeomOffset( r0, r1 ) __asm__ volatile ( \
	"sll	$t0, %0, 16;"	\
	"sll	$t1, %1, 16;"	\
	"ctc2 	$t0, $24;"		\
	"ctc2	$t1, $25;"		\
	:						\
	: "r"( r0 ), "r"( r1 )	\
	: "$t0", "$t1" )

/**
 * @brief Sets the distance of the projection plane
 *
 * @details Sets the specified value to GTE control register C2_H which
 * determines the projection plane distance, otherwise known as the field of
 * view.
 */
#define gte_SetGeomScreen( r0 ) __asm__ volatile ( \
	"ctc2	%0, $26;"		\
	:						\
	: "r"( r0 ) )

#define gte_ldsvrtrow0( r0 ) __asm__ volatile ( \
	"lw	$12, 0( %0 );"		\
	"lw	$13, 4( %0 );"		\
	"ctc2	$12, $0;"		\
	"ctc2	$13, $1;"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13" )

/**
 * @brief Sets a 3x3 rotation matrix portion from a MATRIX to the GTE
 *
 * @details Sets the 3x3 rotation matrix coordinates from a MATRIX struct to
 * GTE control registers C2_R11R12, C2_R13R21, C2_R22R23, C2_R31R32 and C2_R33.
 */
#define gte_SetRotMatrix( r0 ) __asm__ volatile ( \
	"lw		$t0, 0( %0 );"	\
	"lw		$t1, 4( %0 );"	\
	"ctc2	$t0, $0;"		\
	"ctc2	$t1, $1;"		\
	"lw		$t0, 8( %0 );"	\
	"lw		$t1, 12( %0 );"	\
	"lhu	$t2, 16( %0 );"	\
	"ctc2	$t0, $2;"		\
	"ctc2	$t1, $3;"		\
	"ctc2	$t2, $4;"		\
	:						\
	: "r"( r0 )				\
	: "$t0", "$t1", "$t2" )

#define gte_ldsvllrow0( r0 ) __asm__ volatile ( \
	"lw	$12, 0( %0 );"		\
	"lw	$13, 4( %0 );"		\
	"ctc2	$12, $8;"		\
	"ctc2	$13, $9;"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13" )

/**
 * @brief Sets a 3x3 lighting matrix from a MATRIX to the GTE
 *
 * @details Sets the 3x3 lighting matrix coordinates from a MATRIX struct to
 * GTE control registers C2_L11L12, C2_L13L21, C2_L22L23, C2_L31L32 and C2_L33.
 *
 * The lighting matrix is essentially a triplet of three light direction
 * vectors. L11, L12 and L13 represents the X, Y and Z coordinates of light
 * source 0 for example. Coordinates must be normalized to ensure correct
 * results.
 */
#define gte_SetLightMatrix( r0 ) __asm__ volatile ( \
	"lw		$t0, 0( %0 );"	\
	"lw		$t1, 4( %0 );"	\
	"ctc2	$t0, $8;"		\
	"ctc2	$t1, $9;"		\
	"lw		$t0, 8( %0 );"	\
	"lw		$t1, 12( %0 );"	\
	"lhu	$t2, 16( %0 );"	\
	"ctc2	$t0, $10;"		\
	"ctc2	$t1, $11;"		\
	"ctc2	$t2, $12;"		\
	:						\
	: "r"( r0 )				\
	: "$t0", "$t1", "$t2" )

#define gte_ldsvlcrow0( r0 ) __asm__ volatile ( \
	"lw	$12, 0( %0 );"		\
	"lw	$13, 4( %0 );"		\
	"ctc2	$12, $16;"		\
	"ctc2	$13, $17;"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13" )

/**
 * @brief Sets a 3x3 color matrix from a MATRIX to the GTE
 *
 * @details Sets the 3x3 color matrix values from a MATRIX struct to GTE
 * control registers C2_LR1LR2, C2_LR3LG1, C2_LG2LG3, C2_LB1LB2 and C2_LB3.
 *
 * The light color matrix is essentially a triplet of three RGB colors for each
 * of the three light sources. LR1, LG1 and LB1 represents the R, G and B color
 * values for light source 0 for example. Values are of range 0 to 4095, higher
 * values will be saturated.
 */
#define gte_SetColorMatrix( r0 ) __asm__ volatile ( \
	"lw		$t0, 0( %0 );"	\
	"lw		$t1, 4( %0 );"	\
	"ctc2	$t0, $16;"		\
	"ctc2	$t1, $17;"		\
	"lw		$t0, 8( %0 );"	\
	"lw		$t1, 12( %0 );"	\
	"lhu	$t2, 16( %0 );"	\
	"ctc2	$t0, $18;"		\
	"ctc2	$t1, $19;"		\
	"ctc2	$t2, $20;"		\
	:						\
	: "r"( r0 )				\
	: "$t0", "$t1", "$t2" )

/**
 * @brief Sets the translation portion of a MATRIX to the GTE
 *
 * @details Sets the translation coordinates from a MATRIX struct to GTE
 * control registers C2_TRX, C2_TRY and C2_TRZ respectively.
 */
#define gte_SetTransMatrix( r0 ) __asm__ volatile ( \
	"lw		$t0, 20( %0 );"	\
	"lw		$t1, 24( %0 );"	\
	"ctc2	$t0, $5;"		\
	"lw		$t2, 28( %0 );"	\
	"ctc2	$t1, $6;"		\
	"ctc2	$t2, $7;"		\
	:						\
	: "r"( r0 )				\
	: "$t0", "$t1", "$t2" )

#define gte_ldtr( r0, r1, r2 ) __asm__ volatile ( \
	"ctc2	%0, $5;"		\
	"ctc2	%1, $6;"		\
	"ctc2	%2, $7;"		\
	:						\
	: "r"( r0 ), "r"( r1 ), "r"( r2 ) )

#define gte_SetTransVector( r0 ) __asm__ volatile ( \
	"lw	$12, 0( %0 );"		\
	"lw	$13, 4( %0 );"		\
	"lw	$14, 8( %0 );"		\
	"ctc2	$12, $5;"		\
	"ctc2	$13, $6;"		\
	"ctc2	$14, $7;"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13", "$14" )

#define gte_ld_intpol_uv0( r0 ) __asm__ volatile ( \
	"lbu	$12, 0( %0 );"	\
	"lbu	$13, 1( %0 );"	\
	"ctc2	$12, $21;"		\
	"ctc2	$13, $22;"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13" )

#define gte_ld_intpol_uv1( r0 ) __asm__ volatile ( \
	"lbu	$12, 0( %0 );"	\
	"lbu	$13, 1( %0 );"	\
	"mtc2	$12, $9;"		\
	"mtc2	$13, $10;"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13" )

#define gte_ld_intpol_bv0( r0 ) __asm__ volatile ( \
	"lbu	$12, 0( %0 );"	\
	"lbu	$13, 1( %0 );"	\
	"ctc2	$12, $21;"		\
	"ctc2	$13, $22;"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13" )

#define gte_ld_intpol_bv1( r0 ) __asm__ volatile ( \
	"lbu	$12, 0( %0 );"	\
	"lbu	$13, 1( %0 );"	\
	"mtc2	$12, $9;"		\
	"mtc2	$13, $10;"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13" )

#define gte_ld_intpol_sv0( r0 ) __asm__ volatile ( \
	"lh	$12, 0( %0 );"		\
	"lh	$13, 2( %0 );"		\
	"lh	$14, 4( %0 );"		\
	"ctc2	$12, $21;"		\
	"ctc2	$13, $22;"		\
	"ctc2	$14, $23;"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13", "$14" )

#define gte_ld_intpol_sv1( r0 ) __asm__ volatile ( \
	"lh	$12, 0( %0 );"		\
	"lh	$13, 2( %0 );"		\
	"lh	$14, 4( %0 );"		\
	"mtc2	$12, $9;"		\
	"mtc2	$13, $10;"		\
	"mtc2	$14, $11;"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13", "$14" )

#define gte_ldfc( r0 ) __asm__ volatile ( \
	"lw	$12, 0( %0 );"		\
	"lw	$13, 4( %0 );"		\
	"lw	$14, 8( %0 );"		\
	"ctc2	$12, $21;"		\
	"ctc2	$13, $22;"		\
	"ctc2	$14, $23;"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13", "$14" )

#define gte_ldopv2SV( r0 ) __asm__ volatile ( \
	"lh	$12, 0( %0 );"		\
	"lh	$13, 2( %0 );"		\
	"lh	$14, 4( %0 );"		\
	"mtc2	$12, $9;"		\
	"mtc2	$13, $10;"		\
	"mtc2	$14, $11;"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13", "$14" )

#define gte_ldopv1SV( r0 ) __asm__ volatile ( \
	"lh	$12, 0( %0 );"		\
	"lh	$13, 2( %0 );"		\
	"ctc2	$12, $0;"		\
	"lh	$14, 4( %0 );"		\
	"ctc2	$13, $2;"		\
	"ctc2	$14, $4;"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13", "$14" )

/* GTE store macros */

#define gte_stsxy( r0 ) __asm__ volatile ( \
	"swc2	$14, 0( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stsxy3( r0, r1, r2 ) __asm__ volatile ( \
	"swc2	$12, 0( %0 );"	\
	"swc2	$13, 0( %1 );"	\
	"swc2	$14, 0( %2 );"	\
	:						\
	: "r"( r0 ), "r"( r1 ), "r"( r2 )	\
	: "memory" )

#define gte_stsxy3c( r0 ) __asm__ volatile ( \
	"swc2	$12, 0( %0 );"	\
	"swc2	$13, 4( %0 );"	\
	"swc2	$14, 8( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stsxy2( r0 ) __asm__ volatile ( \
	"swc2	$14, 0( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stsxy1( r0 ) __asm__ volatile ( \
	"swc2	$13, 0( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stsxy0( r0 ) __asm__ volatile ( \
	"swc2	$12, 0( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stsxy01( r0, r1 ) __asm__ volatile ( \
	"swc2	$12, 0( %0 );"	\
	"swc2	$13, 0( %1 );"	\
	:						\
	: "r"( r0 ), "r"( r1 )	\
	: "memory" )

#define gte_stsxy01c( r0 ) __asm__ volatile ( \
	"swc2	$12, 0( %0 );"	\
	"swc2	$13, 4( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stsxy3_f3( r0 ) __asm__ volatile ( \
	"swc2	$12, 8( %0 );"	\
	"swc2	$13, 12( %0 );"	\
	"swc2	$14, 16( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stsxy3_g3( r0 ) __asm__ volatile ( \
	"swc2	$12, 8( %0 );"	\
	"swc2	$13, 16( %0 );"	\
	"swc2	$14, 24( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stsxy3_ft3( r0 ) __asm__ volatile ( \
	"swc2	$12, 8( %0 );"	\
	"swc2	$13, 16( %0 );"	\
	"swc2	$14, 24( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stsxy3_gt3( r0 ) __asm__ volatile ( \
	"swc2	$12, 8( %0 );"	\
	"swc2	$13, 20( %0 );"	\
	"swc2	$14, 32( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stsxy3_f4( r0 ) __asm__ volatile ( \
	"swc2	$12, 8( %0 );"	\
	"swc2	$13, 12( %0 );"	\
	"swc2	$14, 16( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stsxy3_g4( r0 ) __asm__ volatile ( \
	"swc2	$12, 8( %0 );"	\
	"swc2	$13, 16( %0 );"	\
	"swc2	$14, 24( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stsxy3_ft4( r0 ) __asm__ volatile ( \
	"swc2	$12, 8( %0 );"	\
	"swc2	$13, 16( %0 );"	\
	"swc2	$14, 24( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stsxy3_gt4( r0 ) __asm__ volatile ( \
	"swc2	$12, 8( %0 );"	\
	"swc2	$13, 20( %0 );"	\
	"swc2	$14, 32( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stdp( r0 ) __asm__ volatile ( \
	"swc2	$8, 0( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stflg( r0 ) __asm__ volatile ( \
	"cfc2	$12, $31;"		\
	"nop;"					\
	"sw	$12, 0( %0 );"		\
	:						\
	: "r"( r0 )				\
	: "$12", "memory" )

#define gte_stflg_4( r0 ) __asm__ volatile ( \
	"cfc2	$12, $31;"		\
	"addi	$13, $0, 4;"	\
	"sll	$13, $13, 16;"	\
	"and	$12, $12, $13;"	\
	"sw	$12, 0( %0 );"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13", "memory" )

#define gte_stsz( r0 ) __asm__ volatile ( \
	"swc2	$19, 0( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stsz3( r0, r1, r2 ) __asm__ volatile ( \
	"swc2	$17, 0( %0 );"	\
	"swc2	$18, 0( %1 );"	\
	"swc2	$19, 0( %2 );"	\
	:						\
	: "r"( r0 ), "r"( r1 ), "r"( r2 )	\
	: "memory" )

#define gte_stsz4( r0, r1, r2, r3 ) __asm__ volatile ( \
	"swc2	$16, 0( %0 );"	\
	"swc2	$17, 0( %1 );"	\
	"swc2	$18, 0( %2 );"	\
	"swc2	$19, 0( %3 );"	\
	:						\
	: "r"( r0 ), "r"( r1 ), "r"( r2 ), "r"( r3 )	\
	: "memory" )

#define gte_stsz3c( r0 ) __asm__ volatile ( \
	"swc2	$17, 0( %0 );"	\
	"swc2	$18, 4( %0 );"	\
	"swc2	$19, 8( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stsz4c( r0 ) __asm__ volatile ( \
	"swc2	$16, 0( %0 );"	\
	"swc2	$17, 4( %0 );"	\
	"swc2	$18, 8( %0 );"	\
	"swc2	$19, 12( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stszotz( r0 ) __asm__ volatile ( \
	"mfc2	$12, $19;"		\
	"nop;"					\
	"sra	$12, $12, 2;"	\
	"sw	$12, 0( %0 );"		\
	:						\
	: "r"( r0 )				\
	: "$12", "memory" )

#define gte_stotz( r0 ) __asm__ volatile ( \
	"swc2	$7, 0( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stopz( r0 ) __asm__ volatile ( \
	"swc2	$24, 0( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stlvl( r0 ) __asm__ volatile ( \
	"swc2	$9, 0( %0 );"	\
	"swc2	$10, 4( %0 );"	\
	"swc2	$11, 8( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stlvnl( r0 ) __asm__ volatile ( \
	"swc2	$25, 0( %0 );"	\
	"swc2	$26, 4( %0 );"	\
	"swc2	$27, 8( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stlvnl0( r0 ) __asm__ volatile ( \
	"swc2	$25, 0( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stlvnl1( r0 ) __asm__ volatile ( \
	"swc2	$26, 0( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stlvnl2( r0 ) __asm__ volatile ( \
	"swc2	$27, 0( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stsv( r0 ) __asm__ volatile ( \
	"mfc2	$12, $9;"		\
	"mfc2	$13, $10;"		\
	"mfc2	$14, $11;"		\
	"sh	$12, 0( %0 );"		\
	"sh	$13, 2( %0 );"		\
	"sh	$14, 4( %0 );"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13", "$14", "memory" )

#define gte_stclmv( r0 ) __asm__ volatile ( \
	"mfc2	$12, $9;"		\
	"mfc2	$13, $10;"		\
	"mfc2	$14, $11;"		\
	"sh	$12, 0( %0 );"		\
	"sh	$13, 6( %0 );"		\
	"sh	$14, 12( %0 );"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13", "$14", "memory" )

#define gte_stbv( r0 ) __asm__ volatile ( \
	"mfc2	$12, $9;"		\
	"mfc2	$13, $10;"		\
	"sb	$12, 0( %0 );"		\
	"sb	$13, 1( %0 );"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13", "memory" )

#define gte_stcv( r0 ) __asm__ volatile ( \
	"mfc2	$12, $9;"		\
	"mfc2	$13, $10;"		\
	"mfc2	$14, $11;"		\
	"sb	$12, 0( %0 );"		\
	"sb	$13, 1( %0 );"		\
	"sb	$14, 2( %0 );"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13", "$14", "memory" )

#define gte_strgb( r0 ) __asm__ volatile ( \
	"swc2	$22, 0( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_strgb3( r0, r1, r2 ) __asm__ volatile ( \
	"swc2	$20, 0( %0 );"	\
	"swc2	$21, 0( %1 );"	\
	"swc2	$22, 0( %2 );"	\
	:						\
	: "r"( r0 ), "r"( r1 ), "r"( r2 )	\
	: "memory" )

#define gte_strgb3_g3( r0 ) __asm__ volatile ( \
	"swc2	$20, 4( %0 );"	\
	"swc2	$21, 12( %0 );"	\
	"swc2	$22, 20( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_strgb3_gt3( r0 ) __asm__ volatile ( \
	"swc2	$20, 4( %0 );"	\
	"swc2	$21, 16( %0 );"	\
	"swc2	$22, 28( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_strgb3_g4( r0 ) __asm__ volatile ( \
	"swc2	$20, 4( %0 );"	\
	"swc2	$21, 12( %0 );"	\
	"swc2	$22, 20( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_strgb3_gt4( r0 ) __asm__ volatile ( \
	"swc2	$20, 4( %0 );"	\
	"swc2	$21, 16( %0 );"	\
	"swc2	$22, 28( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_ReadGeomOffset( r0, r1 ) __asm__ volatile ( \
	"cfc2	$12, $24;"		\
	"cfc2	$13, $25;"		\
	"sra	$12, $12, 16;"	\
	"sra	$13, $13, 16;"	\
	"sw	$12, 0( %0 );"		\
	"sw	$13, 0( %1 );"		\
	:						\
	: "r"( r0 ), "r"( r1 )	\
	: "$12", "$13", "memory" )

#define gte_ReadGeomScreen( r0 ) __asm__ volatile ( \
	"cfc2	$12, $26;"		\
	"nop;"					\
	"sw	$12, 0( %0 );"		\
	:						\
	: "r"( r0 )				\
	: "$12", "memory" )

#define gte_ReadRotMatrix( r0 ) __asm__ volatile ( \
	"cfc2	$12, $0;"		\
	"cfc2	$13, $1;"		\
	"sw	$12, 0( %0 );"		\
	"sw	$13, 4( %0 );"		\
	"cfc2	$12, $2;"		\
	"cfc2	$13, $3;"		\
	"cfc2	$14, $4;"		\
	"sw	$12, 8( %0 );"		\
	"sw	$13, 12( %0 );"		\
	"sw	$14, 16( %0 );"		\
	"cfc2	$12, $5;"		\
	"cfc2	$13, $6;"		\
	"cfc2	$14, $7;"		\
	"sw	$12, 20( %0 );"		\
	"sw	$13, 24( %0 );"		\
	"sw	$14, 28( %0 );"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13", "$14", "memory" )

#define gte_sttr( r0 ) __asm__ volatile ( \
	"cfc2	$12, $5;"		\
	"cfc2	$13, $6;"		\
	"cfc2	$14, $7;"		\
	"sw	$12, 0( %0 );"		\
	"sw	$13, 4( %0 );"		\
	"sw	$14, 8( %0 );"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13", "$14", "memory" )

#define gte_ReadLightMatrix( r0 ) __asm__ volatile ( \
	"cfc2	$12, $8;"		\
	"cfc2	$13, $9;"		\
	"sw	$12, 0( %0 );"		\
	"sw	$13, 4( %0 );"		\
	"cfc2	$12, $10;"		\
	"cfc2	$13, $11;"		\
	"cfc2	$14, $12;"		\
	"sw	$12, 8( %0 );"		\
	"sw	$13, 12( %0 );"		\
	"sw	$14, 16( %0 );"		\
	"cfc2	$12, $13;"		\
	"cfc2	$13, $14;"		\
	"cfc2	$14, $15;"		\
	"sw	$12, 20( %0 );"		\
	"sw	$13, 24( %0 );"		\
	"sw	$14, 28( %0 );"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13", "$14", "memory" )

#define gte_ReadColorMatrix( r0 ) __asm__ volatile ( \
	"cfc2	$12, $16;"			\
	"cfc2	$13, $17;"		\
	"sw	$12, 0( %0 );"		\
	"sw	$13, 4( %0 );"		\
	"cfc2	$12, $18;"		\
	"cfc2	$13, $19;"		\
	"cfc2	$14, $20;"		\
	"sw	$12, 8( %0 );"		\
	"sw	$13, 12( %0 );"		\
	"sw	$14, 16( %0 );"		\
	"cfc2	$12, $21;"		\
	"cfc2	$13, $22;"		\
	"cfc2	$14, $23;"		\
	"sw	$12, 20( %0 );"		\
	"sw	$13, 24( %0 );"		\
	"sw	$14, 28( %0 );"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13", "$14", "memory" )

#define gte_stlzc( r0 ) __asm__ volatile ( \
	"swc2	$31, 0( %0 );"	\
	:						\
	: "r"( r0 )				\
	: "memory" )

#define gte_stfc( r0 ) __asm__ volatile ( \
	"cfc2	$12, $21;"		\
	"cfc2	$13, $22;"		\
	"cfc2	$14, $23;"		\
	"sw	$12, 0( %0 );"		\
	"sw	$13, 4( %0 );"		\
	"sw	$14, 8( %0 );"		\
	:						\
	: "r"( r0 )				\
	: "$12", "$13", "$14", "memory" )

#define gte_mvlvtr() __asm__ volatile ( \
	"mfc2	$12, $25;"		\
	"mfc2	$13, $26;"		\
	"mfc2	$14, $27;"		\
	"ctc2	$12, $5;"		\
	"ctc2	$13, $6;"		\
	"ctc2	$14, $7;"		\
	:						\
	:						\
	: "$12", "$13", "$14" )

/*#define gte_nop() __asm__ volatile ( \
	"nop;" )*/

#define gte_subdvl( r0, r1, r2 ) __asm__ volatile ( \
	"lw	$12, 0( %0 );"		\
	"lw	$13, 0( %1 );"		\
	"mtc2	$12, $9;"		\
	"mtc2	$13, $10;"		\
	"sra	$12, $12, 16;"	\
	"sra	$13, $13, 16;"	\
	"subu	$15, $12, $13;"	\
	"mfc2	$12, $9;"		\
	"mfc2	$13, $10;"		\
	"sw	$15, 4( %2 );"		\
	"subu	$12, $12, $13;"	\
	"sw	$12, 0( %2 );"		\
	:						\
	: "r"( r0 ), "r"( r1 ), "r"( r2 )	\
	: "$12", "$13", "$14", "$15", "memory" )

#define gte_subdvd( r0, r1, r2 ) __asm__ volatile ( \
	"lw	$12, 0( %0 );"		\
	"lw	$13, 0( %1 );"		\
	"mtc2	$12, $9;"		\
	"mtc2	$13, $10;"		\
	"sra	$12, $12, 16;"	\
	"sra	$13, $13, 16;"	\
	"subu	$15, $12, $13;"	\
	"mfc2	$12, $9;"		\
	"mfc2	$13, $10;"		\
	"sh	$15, 2( %2 );"		\
	"subu	$12, $12, $13;"	\
	"sh	$12, 0( %2 );"		\
	:						\
	: "r"( r0 ), "r"( r1 ), "r"( r2 )	\
	: "$12", "$13", "$14", "$15", "memory" )

#define gte_adddvl( r0, r1, r2 ) __asm__ volatile ( \
	"lw	$12, 0( %0 );"		\
	"lw	$13, 0( %1 );"		\
	"mtc2	$12, $9;"		\
	"mtc2	$13, $10;"		\
	"sra	$12, $12, 16;"	\
	"sra	$13, $13, 16;"	\
	"addu	$15, $12, $13;"	\
	"mfc2	$12, $9;"		\
	"mfc2	$13, $10;"		\
	"sw	$15, 4( %2 );"		\
	"addu	$12, $12, $13;"	\
	"sw	$12, 0( %2 );"		\
	:						\
	: "r"( r0 ), "r"( r1 ), "r"( r2 )	\
	: "$12", "$13", "$14", "$15", "memory" )

#define gte_adddvd( r0, r1, r2 ) __asm__ volatile ( \
	"lw	$12, 0( %0 );"		\
	"lw	$13, 0( %1 );"		\
	"mtc2	$12, $9;"		\
	"mtc2	$13, $10;"		\
	"sra	$12, $12, 16;"	\
	"sra	$13, $13, 16;"	\
	"addu	$15, $12, $13;"	\
	"mfc2	$12, $9;"		\
	"mfc2	$13, $10;"		\
	"sh	$15, 2( %2 );"		\
	"addu	$12, $12, $13;"	\
	"sh	$12, 0( %2 );"		\
	:						\
	: "r"( r0 ), "r"( r1 ), "r"( r2 )	\
	: "$12", "$13", "$14", "$15", "memory" )

#define gte_FlipRotMatrixX() __asm__ volatile ( \
	"cfc2	$12, $0;"		\
	"cfc2	$13, $1;"		\
	"sll	$14, $12, 16;"	\
	"sra	$14, $14, 16;"	\
	"subu	$14, $0, $14;"	\
	"sra	$15, $12, 16;"	\
	"subu	$15, $0, $15;"	\
	"sll	$15, $15, 16;"	\
	"sll	$14, $14, 16;"	\
	"srl	$14, $14, 16;"	\
	"or	$14, $14, $15;"		\
	"ctc2	$14, $0;"		\
	"sll	$14, $13, 16;"	\
	"sra	$14, $14, 16;"	\
	"subu	$14, $0, $14;"	\
	"sra	$15, $13, 16;"	\
	"sll	$15, $15, 16;"	\
	"sll	$14, $14, 16;"	\
	"srl	$14, $14, 16;"	\
	"or	$14, $14, $15;"		\
	"ctc2	$14, $1;"		\
	:						\
	:						\
	: "$12", "$13", "$14", "$15" )

#define gte_FlipTRX() __asm__ volatile ( \
	"cfc2	$12, $5;"		\
	"nop;"					\
	"subu	$12, $0, $12;"	\
	"ctc2	$12, $5;"		\
	:						\
	:						\
	: "$12" )

/* GTE operation macros */

/**
 * @brief Rotate, Translate and Perspective Single (15 cycles)
 *
 * @details Performs rotation, translation and perspective calculation of a
 * single vertex. Divide overflows are simply saturated allowing for crude Z
 * clipping. Check C2_FLAG to determine which overflow error has occurred
 * during calculation.
 *
 * The following equation is performed when executing this GTE command:
 *
 *     IR1 = MAC1 = (TRX*4096 + R11*VX0 + R12*VY0 + R13*VZ0) / 4096
 *     IR2 = MAC2 = (TRY*4096 + R21*VX0 + R22*VY0 + R23*VZ0) / 4096
 *     IR3 = MAC3 = (TRZ*4096 + R31*VX0 + R32*VY0 + R33*VZ0) / 4096
 *     SZ3 = MAC3
 *
 *     MAC0 = (((H*131072/SZ3)+1)/2) * IR1 + OFX, SX2 = MAC0 / 65536
 *     MAC0 = (((H*131072/SZ3)+1)/2) * IR2 + OFY, SY2 = MAC0 / 65536
 *     MAC0 = (((H*131072/SZ3)+1)/2) * DQA + DQB, IR0 = MAC0 / 4096
 */
#define gte_rtps() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0180001;" )

/**
 * @brief Rotate, Translate and Perspective Triple (23 cycles)
 *
 * @details Performs rotation, translation and perspective calculation of three
 * vertices at once. The equation performed is the same as gte_rtps() only
 * repeated three times for each vertex. The result of the first vertex is
 * stored in GTE data register C2_SXY0, the second vector in C2_SXY1 then
 * C2_SXY2.
 */
#define gte_rtpt() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0280030;" )

#define gte_rt() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0480012;" )

#define gte_rtv0() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0486012;" )

#define gte_rtv1() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x048E012;" )

#define gte_rtv2() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0496012;" )

#define gte_rtir() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x049E012;" )

#define gte_rtir_sf0() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x041E012;" )

#define gte_rtv0tr() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0480012;" )

#define gte_rtv1tr() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0488012;" )

#define gte_rtv2tr() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0490012;" )

#define gte_rtirtr() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0498012;" )

#define gte_rtv0bk() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0482012;" )

#define gte_rtv1bk() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x048A012;" )

#define gte_rtv2bk() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0492012;" )

#define gte_rtirbk() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x049A012;" )

#define gte_ll() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04A6412;" )

#define gte_llv0() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04A6012;" )

#define gte_llv1() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04AE012;" )

#define gte_llv2() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04B6012;" )

#define gte_llir() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04BE012;" )

#define gte_llv0tr() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04A0012;" )

#define gte_llv1tr() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04A8012;" )

#define gte_llv2tr() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04B0012;" )

#define gte_llirtr() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04B8012;" )

#define gte_llv0bk() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04A2012;" )

#define gte_llv1bk() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04AA012;" )

#define gte_llv2bk() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04B2012;" )

#define gte_llirbk() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04BA012;" )


#define gte_lc() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04DA412;" )

#define gte_lcv0() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04C6012;" )

#define gte_lcv1() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04CE012;" )

#define gte_lcv2() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04D6012;" )

#define gte_lcir() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04DE012;" )

#define gte_lcv0tr() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04C0012;" )

#define gte_lcv1tr() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04C8012;" )

#define gte_lcv2tr() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04D0012;" )

#define gte_lcirtr() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04D8012;" )

#define gte_lcv0bk() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04C2012;" )

#define gte_lcv1bk() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04CA012;" )

#define gte_lcv2bk() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04D2012;" )

#define gte_lcirbk() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x04DA012;" )

#define gte_dpcl() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0680029;" )

#define gte_dpcs() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0780010;" )

#define gte_dpct() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0F8002A;" )

#define gte_intpl() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0980011;" )

#define gte_sqr12() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0A80428;" )

#define gte_sqr0() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0A00428;" )

#define gte_ncs() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0C8041E;" )

#define gte_nct() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0D80420;" )

#define gte_ncds() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0E80413;" )

#define gte_ncdt() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0F80416;" )

#define gte_nccs() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0108041B;" )

#define gte_ncct() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0118043F;" )

#define gte_cdp() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x01280414;" )

#define gte_cc() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0138041C;" )

/**
 * @brief Normal clipping (8 cycles)
 *
 * @details Computes the sign of three screen coordinates (C2_SXY0-3) used for
 * backface culling. If the value of C2_MAC0 is negative, the coordinates are
 * inverted and thus the triangle is back facing.
 *
 * The following equation is performed when executing this GTE command:
 *
 *     MAC0 = SX0*SY1 + SX1*SY2 + SX2*SY0 - SX0*SY2 - SX1*SY0 - SX2*SY1
 */
#define gte_nclip() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x01400006;" )

/**
 * @brief Average screen Z result (5 cycles)
 *
 * @details Averages the values of GTE registers C2_SZ1, C2_SZ2 and C2_SZ3,
 * multiplies it by C2_ZSF3 and divides the result by 0x1000 before storing to
 * C2_OTZ. Used to compute the ordering table depth level for a three-vertex
 * primitive.
 *
 * The following equation is performed when executing this GTE command:
 *
 *     MAC0 = ZSF3 * (SZ1+SZ2+SZ3)
 *     OTZ  = MAC0 / 4096
 */
#define gte_avsz3() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0158002D;" )

/**
 * @brief Average screen Z result (6 cycles)
 *
 * @details Averages the values of GTE registers C2_SZ1, C2_SZ2, C2_SZ3 and
 * C2_SZ4, multiplies it by C2_ZSF4 and divides the result by 0x1000 before
 * storing to C2_OTZ. Used to compute the ordering table depth level for a
 * four-vertex primitive.
 *
 * The following equation is performed when executing this GTE command:
 *
 *     MAC0 = ZSF4 * (SZ1+SZ2+SZ3+SZ4)
 *     OTZ  = MAC0 / 4096
 */
#define gte_avsz4() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0168002E;" )

#define gte_op12() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0178000C;" )

#define gte_op0() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0170000C;" )

#define gte_gpf12() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0198003D;" )

#define gte_gpf0() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x0190003D;" )

#define gte_gpl12() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x01A8003E;" )

#define gte_gpl0() __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 0x01A0003E;" )

#define gte_mvmva_core( r0 ) __asm__ volatile ( \
	"nop;"					\
	"nop;"					\
	"cop2 %0;"				\
	:						\
	: "g"( r0 ) )

#define gte_mvmva(sf, mx, v, cv, lm) gte_mvmva_core( 0x0400012 | \
	((sf)<<19) | ((mx)<<17) | ((v)<<15) | ((cv)<<13) | ((lm)<<10) )

/* GTE operation macros without leading nops */
 
#define gte_rtps_b()		__asm__ volatile ( "cop2 0x0180001;" )
#define gte_rtpt_b()		__asm__ volatile ( "cop2 0x0280030;" )
#define gte_rt_b()			__asm__ volatile ( "cop2 0x0480012;" )
#define gte_rtv0_b()		__asm__ volatile ( "cop2 0x0486012;" )
#define gte_rtv1_b()		__asm__ volatile ( "cop2 0x048E012;" )
#define gte_rtv2_b()		__asm__ volatile ( "cop2 0x0496012;" )
#define gte_rtir_b()		__asm__ volatile ( "cop2 0x049E012;" )
#define gte_rtir_sf0_b()	__asm__ volatile ( "cop2 0x041E012;" )
#define gte_rtv0tr_b()		__asm__ volatile ( "cop2 0x0480012;" )
#define gte_rtv1tr_b()		__asm__ volatile ( "cop2 0x0488012;" )
#define gte_rtv2tr_b()		__asm__ volatile ( "cop2 0x0490012;" )
#define gte_rtirtr_b()		__asm__ volatile ( "cop2 0x0498012;" )
#define gte_rtv0bk_b()		__asm__ volatile ( "cop2 0x0482012;" )
#define gte_rtv1bk_b()		__asm__ volatile ( "cop2 0x048A012;" )
#define gte_rtv2bk_b()		__asm__ volatile ( "cop2 0x0492012;" )
#define gte_rtirbk_b()		__asm__ volatile ( "cop2 0x049A012;" )
#define gte_ll_b()			__asm__ volatile ( "cop2 0x04A6412;" )
#define gte_llv0_b()		__asm__ volatile ( "cop2 0x04A6012;" )
#define gte_llv1_b()		__asm__ volatile ( "cop2 0x04AE012;" )
#define gte_llv2_b()		__asm__ volatile ( "cop2 0x04B6012;" )
#define gte_llir_b()		__asm__ volatile ( "cop2 0x04BE012;" )
#define gte_llv0tr_b()		__asm__ volatile ( "cop2 0x04A0012;" )
#define gte_llv1tr_b()		__asm__ volatile ( "cop2 0x04A8012;" )
#define gte_llv2tr_b()		__asm__ volatile ( "cop2 0x04B0012;" )
#define gte_llirtr_b()		__asm__ volatile ( "cop2 0x04B8012;" )
#define gte_llv0bk_b()		__asm__ volatile ( "cop2 0x04A2012;" )
#define gte_llv1bk_b()		__asm__ volatile ( "cop2 0x04AA012;" )
#define gte_llv2bk_b()		__asm__ volatile ( "cop2 0x04B2012;" )
#define gte_llirbk_b()		__asm__ volatile ( "cop2 0x04BA012;" )
#define gte_lc_b()			__asm__ volatile ( "cop2 0x04DA412;" )
#define gte_lcv0_b()		__asm__ volatile ( "cop2 0x04C6012;" )
#define gte_lcv1_b()		__asm__ volatile ( "cop2 0x04CE012;" )
#define gte_lcv2_b()		__asm__ volatile ( "cop2 0x04D6012;" )
#define gte_lcir_b()		__asm__ volatile ( "cop2 0x04DE012;" )
#define gte_lcv0tr_b()		__asm__ volatile ( "cop2 0x04C0012;" )
#define gte_lcv1tr_b()		__asm__ volatile ( "cop2 0x04C8012;" )
#define gte_lcv2tr_b()		__asm__ volatile ( "cop2 0x04D0012;" )
#define gte_lcirtr_b()		__asm__ volatile ( "cop2 0x04D8012;" )
#define gte_lcv0bk_b()		__asm__ volatile ( "cop2 0x04C2012;" )
#define gte_lcv1bk_b()		__asm__ volatile ( "cop2 0x04CA012;" )
#define gte_lcv2bk_b()		__asm__ volatile ( "cop2 0x04D2012;" )
#define gte_lcirbk_b()		__asm__ volatile ( "cop2 0x04DA012;" )
#define gte_dpcl_b()		__asm__ volatile ( "cop2 0x0680029;" )
#define gte_dpcs_b()		__asm__ volatile ( "cop2 0x0780010;" )
#define gte_dpct_b()		__asm__ volatile ( "cop2 0x0F8002A;" )
#define gte_intpl_b()		__asm__ volatile ( "cop2 0x0980011;" )
#define gte_sqr12_b()		__asm__ volatile ( "cop2 0x0A80428;" )
#define gte_sqr0_b()		__asm__ volatile ( "cop2 0x0A00428;" )
#define gte_ncs_b()			__asm__ volatile ( "cop2 0x0C8041E;" )
#define gte_nct_b()			__asm__ volatile ( "cop2 0x0D80420;" )
#define gte_ncds_b()		__asm__ volatile ( "cop2 0x0E80413;" )
#define gte_ncdt_b()		__asm__ volatile ( "cop2 0x0F80416;" )
#define gte_nccs_b()		__asm__ volatile ( "cop2 0x0108041B;" )
#define gte_ncct_b()		__asm__ volatile ( "cop2 0x0118043F;" )
#define gte_cdp_b()			__asm__ volatile ( "cop2 0x01280414;" )
#define gte_cc_b()			__asm__ volatile ( "cop2 0x0138041C;" )
#define gte_nclip_b()		__asm__ volatile ( "cop2 0x01400006;" )
#define gte_avsz3_b()		__asm__ volatile ( "cop2 0x0158002D;" )
#define gte_avsz4_b()		__asm__ volatile ( "cop2 0x0168002E;" )
#define gte_op12_b()		__asm__ volatile ( "cop2 0x0178000C;" )
#define gte_op0_b()			__asm__ volatile ( "cop2 0x0170000C;" )
#define gte_gpf12_b()		__asm__ volatile ( "cop2 0x0198003D;" )
#define gte_gpf0_b()		__asm__ volatile ( "cop2 0x0190003D;" )
#define gte_gpl12_b()		__asm__ volatile ( "cop2 0x01A8003E;" )
#define gte_gpl0_b()		__asm__ volatile ( "cop2 0x01A0003E;" )
#define gte_mvmva_core_b( r0 ) __asm__ volatile ( \
	"cop2 %0;"				\
	:						\
	: "g"( r0 ) )
#define gte_mvmva_b(sf, mx, v, cv, lm) gte_mvmva_core_b( 0x0400012 | \
	((sf)<<19) | ((mx)<<17) | ((v)<<15) | ((cv)<<13) | ((lm)<<10) )