xref: /drivers/staging/comedi/drivers/jr3_pci.h

// Helper types to take care of the fact that the DSP card memory
//   is 16 bits, but aligned on a 32 bit PCI boundary
typedef u32 u_val_t;

typedef s32 s_val_t;

static inline u16 get_u16(volatile const u_val_t * p)
{
	return (u16) readl(p);
}

static inline void set_u16(volatile u_val_t * p, u16 val)
{
	writel(val, p);
}

static inline s16 get_s16(volatile const s_val_t * p)
{
	return (s16) readl(p);
}

static inline void set_s16(volatile s_val_t * p, s16 val)
{
	writel(val, p);
}

// The raw data is stored in a format which facilitates rapid
// processing by the JR3 DSP chip. The raw_channel structure shows the
// format for a single channel of data. Each channel takes four,
// two-byte words.
//
// Raw_time is an unsigned integer which shows the value of the JR3
// DSP's internal clock at the time the sample was received. The clock
// runs at 1/10 the JR3 DSP cycle time. JR3's slowest DSP runs at 10
// Mhz. At 10 Mhz raw_time would therefore clock at 1 Mhz.
//
// Raw_data is the raw data received directly from the sensor. The
// sensor data stream is capable of representing 16 different
// channels. Channel 0 shows the excitation voltage at the sensor. It
// is used to regulate the voltage over various cable lengths.
// Channels 1-6 contain the coupled force data Fx through Mz. Channel
// 7 contains the sensor's calibration data. The use of channels 8-15
// varies with different sensors.
typedef struct raw_channel {
	u_val_t raw_time;
	s_val_t raw_data;
	s_val_t reserved[2];
} raw_channel_t;

// The force_array structure shows the layout for the decoupled and
// filtered force data.
typedef struct force_array {
	s_val_t fx;
	s_val_t fy;
	s_val_t fz;
	s_val_t mx;
	s_val_t my;
	s_val_t mz;
	s_val_t v1;
	s_val_t v2;
} force_array_t;

// The six_axis_array structure shows the layout for the offsets and
// the full scales.
typedef struct six_axis_array {
	s_val_t fx;
	s_val_t fy;
	s_val_t fz;
	s_val_t mx;
	s_val_t my;
	s_val_t mz;
} six_axis_array_t;

// VECT_BITS
// The vect_bits structure shows the layout for indicating
// which axes to use in computing the vectors. Each bit signifies
// selection of a single axis. The V1x axis bit corresponds to a hex
// value of 0x0001 and the V2z bit corresponds to a hex value of
// 0x0020. Example: to specify the axes V1x, V1y, V2x, and V2z the
// pattern would be 0x002b. Vector 1 defaults to a force vector and
// vector 2 defaults to a moment vector. It is possible to change one
// or the other so that two force vectors or two moment vectors are
// calculated. Setting the changeV1 bit or the changeV2 bit will
// change that vector to be the opposite of its default. Therefore to
// have two force vectors, set changeV1 to 1.

typedef enum {
	fx = 0x0001,
	fy = 0x0002,
	fz = 0x0004,
	mx = 0x0008,
	my = 0x0010,
	mz = 0x0020,
	changeV2 = 0x0040,
	changeV1 = 0x0080
} vect_bits_t;

// WARNING_BITS
// The warning_bits structure shows the bit pattern for the warning
// word. The bit fields are shown from bit 0 (lsb) to bit 15 (msb).
//
// XX_NEAR_SET
// The xx_near_sat bits signify that the indicated axis has reached or
// exceeded the near saturation value.

typedef enum {
	fx_near_sat = 0x0001,
	fy_near_sat = 0x0002,
	fz_near_sat = 0x0004,
	mx_near_sat = 0x0008,
	my_near_sat = 0x0010,
	mz_near_sat = 0x0020
} warning_bits_t;

// ERROR_BITS
// XX_SAT
// MEMORY_ERROR
// SENSOR_CHANGE
//
// The error_bits structure shows the bit pattern for the error word.
// The bit fields are shown from bit 0 (lsb) to bit 15 (msb). The
// xx_sat bits signify that the indicated axis has reached or exceeded
// the saturation value. The memory_error bit indicates that a problem
// was detected in the on-board RAM during the power-up
// initialization. The sensor_change bit indicates that a sensor other
// than the one originally plugged in has passed its CRC check. This
// bit latches, and must be reset by the user.
//
// SYSTEM_BUSY
//
// The system_busy bit indicates that the JR3 DSP is currently busy
// and is not calculating force data. This occurs when a new
// coordinate transformation, or new sensor full scale is set by the
// user. A very fast system using the force data for feedback might
// become unstable during the approximately 4 ms needed to accomplish
// these calculations. This bit will also become active when a new
// sensor is plugged in and the system needs to recalculate the
// calibration CRC.
//
// CAL_CRC_BAD
//
// The cal_crc_bad bit indicates that the calibration CRC has not
// calculated to zero. CRC is short for cyclic redundancy code. It is
// a method for determining the integrity of messages in data
// communication. The calibration data stored inside the sensor is
// transmitted to the JR3 DSP along with the sensor data. The
// calibration data has a CRC attached to the end of it, to assist in
// determining the completeness and integrity of the calibration data
// received from the sensor. There are two reasons the CRC may not
// have calculated to zero. The first is that all the calibration data
// has not yet been received, the second is that the calibration data
// has been corrupted. A typical sensor transmits the entire contents
// of its calibration matrix over 30 times a second. Therefore, if
// this bit is not zero within a couple of seconds after the sensor
// has been plugged in, there is a problem with the sensor's
// calibration data.
//
// WATCH_DOG
// WATCH_DOG2
//
// The watch_dog and watch_dog2 bits are sensor, not processor, watch
// dog bits. Watch_dog indicates that the sensor data line seems to be
// acting correctly, while watch_dog2 indicates that sensor data and
// clock are being received. It is possible for watch_dog2 to go off
// while watch_dog does not. This would indicate an improper clock
// signal, while data is acting correctly. If either watch dog barks,
// the sensor data is not being received correctly.

typedef enum {
	fx_sat = 0x0001,
	fy_sat = 0x0002,
	fz_sat = 0x0004,
	mx_sat = 0x0008,
	my_sat = 0x0010,
	mz_sat = 0x0020,
	memory_error = 0x0400,
	sensor_change = 0x0800,
	system_busy = 0x1000,
	cal_crc_bad = 0x2000,
	watch_dog2 = 0x4000,
	watch_dog = 0x8000
} error_bits_t;

// THRESH_STRUCT
// This structure shows the layout for a single threshold packet inside of a
// load envelope. Each load envelope can contain several threshold structures.
// 1. data_address contains the address of the data for that threshold. This
//    includes filtered, unfiltered, raw, rate, counters, error and warning data
// 2. threshold is the is the value at which, if data is above or below, the
//    bits will be set ... (pag.24).
// 3. bit_pattern contains the bits that will be set if the threshold value is
//    met or exceeded.
typedef struct thresh_struct {
	s32 data_address;
	s32 threshold;
	s32 bit_pattern;
} thresh_struct;

// LE_STRUCT
// Layout of a load enveloped packet. Four thresholds are showed ... for more
// see manual (pag.25)
// 1. latch_bits is a bit pattern that show which bits the user wants to latch.
//    The latched bits will not be reset once the threshold which set them is
//    no longer true. In that case the user must reset them using the reset_bit
//    command.
// 2. number_of_xx_thresholds specify how many GE/LE threshold there are.
typedef struct {
	s32 latch_bits;
	s32 number_of_ge_thresholds;
	s32 number_of_le_thresholds;
	struct thresh_struct thresholds[4];
	s32 reserved;
} le_struct_t;

// LINK_TYPES
// Link types is an enumerated value showing the different possible transform
// link types.
// 0 - end transform packet
// 1 - translate along X axis (TX)
// 2 - translate along Y axis (TY)
// 3 - translate along Z axis (TZ)
// 4 - rotate about X axis (RX)
// 5 - rotate about Y axis (RY)
// 6 - rotate about Z axis (RZ)
// 7 - negate all axes (NEG)
typedef enum link_types {
	end_x_form,
	tx,
	ty,
	tz,
	rx,
	ry,
	rz,
	neg
} link_types;

// TRANSFORM
// Structure used to describe a transform.
typedef struct {
	struct {
		u_val_t link_type;
		s_val_t link_amount;
	} link[8];
} intern_transform_t;

// JR3 force/torque sensor data definition. For more information see sensor and
// hardware manuals.

typedef struct force_sensor_data {
	// Raw_channels is the area used to store the raw data coming from
	// the sensor.

	raw_channel_t raw_channels[16];	/* offset 0x0000 */

	// Copyright is a null terminated ASCII string containing the JR3
	// copyright notice.

	u_val_t copyright[0x0018];	/* offset 0x0040 */
	s_val_t reserved1[0x0008];	/* offset 0x0058 */

	// Shunts contains the sensor shunt readings. Some JR3 sensors have
	//  the ability to have their gains adjusted. This allows the
	//  hardware full scales to be adjusted to potentially allow
	//  better resolution or dynamic range. For sensors that have
	//  this ability, the gain of each sensor channel is measured at
	//  the time of calibration using a shunt resistor. The shunt
	//  resistor is placed across one arm of the resistor bridge, and
	//  the resulting change in the output of that channel is
	//  measured. This measurement is called the shunt reading, and
	//  is recorded here. If the user has changed the gain of the //
	// sensor, and made new shunt measurements, those shunt
	//  measurements can be placed here. The JR3 DSP will then scale
	//  the calibration matrix such so that the gains are again
	//  proper for the indicated shunt readings. If shunts is 0, then
	//  the sensor cannot have its gain changed. For details on
	//  changing the sensor gain, and making shunts readings, please
	//  see the sensor manual. To make these values take effect the
	//  user must call either command (5) use transform # (pg. 33) or
	//  command (10) set new full scales (pg. 38).

	six_axis_array_t shunts;	/* offset 0x0060 */
	s32 reserved2[2];	/* offset 0x0066 */

	// Default_FS contains the full scale that is used if the user does
	// not set a full scale.

	six_axis_array_t default_FS;	/* offset 0x0068 */
	s_val_t reserved3;	/* offset 0x006e */

	// Load_envelope_num is the load envelope number that is currently
	// in use. This value is set by the user after one of the load
	// envelopes has been initialized.

	s_val_t load_envelope_num;	/* offset 0x006f */

	// Min_full_scale is the recommend minimum full scale.
	//
	// These values in conjunction with max_full_scale (pg. 9) helps
	// determine the appropriate value for setting the full scales. The
	// software allows the user to set the sensor full scale to an
	// arbitrary value. But setting the full scales has some hazards. If
	// the full scale is set too low, the data will saturate
	// prematurely, and dynamic range will be lost. If the full scale is
	// set too high, then resolution is lost as the data is shifted to
	// the right and the least significant bits are lost. Therefore the
	// maximum full scale is the maximum value at which no resolution is
	// lost, and the minimum full scale is the value at which the data
	// will not saturate prematurely. These values are calculated
	// whenever a new coordinate transformation is calculated. It is
	// possible for the recommended maximum to be less than the
	// recommended minimum. This comes about primarily when using
	// coordinate translations. If this is the case, it means that any
	// full scale selection will be a compromise between dynamic range
	// and resolution. It is usually recommended to compromise in favor
	// of resolution which means that the recommend maximum full scale
	// should be chosen.
	//
	// WARNING: Be sure that the full scale is no less than 0.4% of the
	// recommended minimum full scale. Full scales below this value will
	// cause erroneous results.

	six_axis_array_t min_full_scale;	/* offset 0x0070 */
	s_val_t reserved4;	/* offset 0x0076 */

	// Transform_num is the transform number that is currently in use.
	// This value is set by the JR3 DSP after the user has used command
	// (5) use transform # (pg. 33).

	s_val_t transform_num;	/* offset 0x0077 */

	// Max_full_scale is the recommended maximum full scale. See
	// min_full_scale (pg. 9) for more details.

	six_axis_array_t max_full_scale;	/* offset 0x0078 */
	s_val_t reserved5;	/* offset 0x007e */

	// Peak_address is the address of the data which will be monitored
	// by the peak routine. This value is set by the user. The peak
	// routine will monitor any 8 contiguous addresses for peak values.
	// (ex. to watch filter3 data for peaks, set this value to 0x00a8).

	s_val_t peak_address;	/* offset 0x007f */

	// Full_scale is the sensor full scales which are currently in use.
	// Decoupled and filtered data is scaled so that +/- 16384 is equal
	// to the full scales. The engineering units used are indicated by
	// the units value discussed on page 16. The full scales for Fx, Fy,
	// Fz, Mx, My and Mz can be written by the user prior to calling
	// command (10) set new full scales (pg. 38). The full scales for V1
	// and V2 are set whenever the full scales are changed or when the
	// axes used to calculate the vectors are changed. The full scale of
	// V1 and V2 will always be equal to the largest full scale of the
	// axes used for each vector respectively.

	force_array_t full_scale;	/* offset 0x0080 */

	// Offsets contains the sensor offsets. These values are subtracted from
	// the sensor data to obtain the decoupled data. The offsets are set a
	// few seconds (< 10) after the calibration data has been received.
	// They are set so that the output data will be zero. These values
	// can be written as well as read. The JR3 DSP will use the values
	// written here within 2 ms of being written. To set future
	// decoupled data to zero, add these values to the current decoupled
	// data values and place the sum here. The JR3 DSP will change these
	// values when a new transform is applied. So if the offsets are
	// such that FX is 5 and all other values are zero, after rotating
	// about Z by 90 degrees, FY would be 5 and all others would be zero.

	six_axis_array_t offsets;	/* offset 0x0088 */

	// Offset_num is the number of the offset currently in use. This
	// value is set by the JR3 DSP after the user has executed the use
	// offset # command (pg. 34). It can vary between 0 and 15.

	s_val_t offset_num;	/* offset 0x008e */

	// Vect_axes is a bit map showing which of the axes are being used
	// in the vector calculations. This value is set by the JR3 DSP
	// after the user has executed the set vector axes command (pg. 37).

	u_val_t vect_axes;	/* offset 0x008f */

	// Filter0 is the decoupled, unfiltered data from the JR3 sensor.
	// This data has had the offsets removed.
	//
	// These force_arrays hold the filtered data. The decoupled data is
	// passed through cascaded low pass filters. Each succeeding filter
	// has a cutoff frequency of 1/4 of the preceding filter. The cutoff
	// frequency of filter1 is 1/16 of the sample rate from the sensor.
	// For a typical sensor with a sample rate of 8 kHz, the cutoff
	// frequency of filter1 would be 500 Hz. The following filters would
	// cutoff at 125 Hz, 31.25 Hz, 7.813 Hz, 1.953 Hz and 0.4883 Hz.

	struct force_array filter[7];	/* offset 0x0090,
					   offset 0x0098,
					   offset 0x00a0,
					   offset 0x00a8,
					   offset 0x00b0,
					   offset 0x00b8 ,
					   offset 0x00c0 */

	// Rate_data is the calculated rate data. It is a first derivative
	// calculation. It is calculated at a frequency specified by the
	// variable rate_divisor (pg. 12). The data on which the rate is
	// calculated is specified by the variable rate_address (pg. 12).

	force_array_t rate_data;	/* offset 0x00c8 */

	// Minimum_data & maximum_data are the minimum and maximum (peak)
	// data values. The JR3 DSP can monitor any 8 contiguous data items
	// for minimums and maximums at full sensor bandwidth. This area is
	// only updated at user request. This is done so that the user does
	// not miss any peaks. To read the data, use either the read peaks
	// command (pg. 40), or the read and reset peaks command (pg. 39).
	// The address of the data to watch for peaks is stored in the
	// variable peak_address (pg. 10). Peak data is lost when executing
	// a coordinate transformation or a full scale change. Peak data is
	// also lost when plugging in a new sensor.

	force_array_t minimum_data;	/* offset 0x00d0 */
	force_array_t maximum_data;	/* offset 0x00d8 */

	// Near_sat_value & sat_value contain the value used to determine if
	// the raw sensor is saturated. Because of decoupling and offset
	// removal, it is difficult to tell from the processed data if the
	// sensor is saturated. These values, in conjunction with the error
	// and warning words (pg. 14), provide this critical information.
	// These two values may be set by the host processor. These values
	// are positive signed values, since the saturation logic uses the
	// absolute values of the raw data. The near_sat_value defaults to
	// approximately 80% of the ADC's full scale, which is 26214, while
	// sat_value defaults to the ADC's full scale:
	//
	//   sat_value = 32768 - 2^(16 - ADC bits)

	s_val_t near_sat_value;	/* offset 0x00e0 */
	s_val_t sat_value;	/* offset 0x00e1 */

	// Rate_address, rate_divisor & rate_count contain the data used to
	// control the calculations of the rates. Rate_address is the
	// address of the data used for the rate calculation. The JR3 DSP
	// will calculate rates for any 8 contiguous values (ex. to
	// calculate rates for filter3 data set rate_address to 0x00a8).
	// Rate_divisor is how often the rate is calculated. If rate_divisor
	// is 1, the rates are calculated at full sensor bandwidth. If
	// rate_divisor is 200, rates are calculated every 200 samples.
	// Rate_divisor can be any value between 1 and 65536. Set
	// rate_divisor to 0 to calculate rates every 65536 samples.
	// Rate_count starts at zero and counts until it equals
	// rate_divisor, at which point the rates are calculated, and
	// rate_count is reset to 0. When setting a new rate divisor, it is
	// a good idea to set rate_count to one less than rate divisor. This
	// will minimize the time necessary to start the rate calculations.

	s_val_t rate_address;	/* offset 0x00e2 */
	u_val_t rate_divisor;	/* offset 0x00e3 */
	u_val_t rate_count;	/* offset 0x00e4 */

	// Command_word2 through command_word0 are the locations used to
	// send commands to the JR3 DSP. Their usage varies with the command
	// and is detailed later in the Command Definitions section (pg.
	// 29). In general the user places values into various memory
	// locations, and then places the command word into command_word0.
	// The JR3 DSP will process the command and place a 0 into
	// command_word0 to indicate successful completion. Alternatively
	// the JR3 DSP will place a negative number into command_word0 to
	// indicate an error condition. Please note the command locations
	// are numbered backwards. (I.E. command_word2 comes before
	// command_word1).

	s_val_t command_word2;	/* offset 0x00e5 */
	s_val_t command_word1;	/* offset 0x00e6 */
	s_val_t command_word0;	/* offset 0x00e7 */

	// Count1 through count6 are unsigned counters which are incremented
	// every time the matching filters are calculated. Filter1 is
	// calculated at the sensor data bandwidth. So this counter would
	// increment at 8 kHz for a typical sensor. The rest of the counters
	// are incremented at 1/4 the interval of the counter immediately
	// preceding it, so they would count at 2 kHz, 500 Hz, 125 Hz etc.
	// These counters can be used to wait for data. Each time the
	// counter changes, the corresponding data set can be sampled, and
	// this will insure that the user gets each sample, once, and only
	// once.

	u_val_t count1;		/* offset 0x00e8 */
	u_val_t count2;		/* offset 0x00e9 */
	u_val_t count3;		/* offset 0x00ea */
	u_val_t count4;		/* offset 0x00eb */
	u_val_t count5;		/* offset 0x00ec */
	u_val_t count6;		/* offset 0x00ed */

	// Error_count is a running count of data reception errors. If this
	// counter is changing rapidly, it probably indicates a bad sensor
	// cable connection or other hardware problem. In most installations
	// error_count should not change at all. But it is possible in an
	// extremely noisy environment to experience occasional errors even
	// without a hardware problem. If the sensor is well grounded, this
	// is probably unavoidable in these environments. On the occasions
	// where this counter counts a bad sample, that sample is ignored.

	u_val_t error_count;	/* offset 0x00ee */

	// Count_x is a counter which is incremented every time the JR3 DSP
	// searches its job queues and finds nothing to do. It indicates the
	// amount of idle time the JR3 DSP has available. It can also be
	// used to determine if the JR3 DSP is alive. See the Performance
	// Issues section on pg. 49 for more details.

	u_val_t count_x;	/* offset 0x00ef */

	// Warnings & errors contain the warning and error bits
	// respectively. The format of these two words is discussed on page
	// 21 under the headings warnings_bits and error_bits.

	u_val_t warnings;	/* offset 0x00f0 */
	u_val_t errors;		/* offset 0x00f1 */

	// Threshold_bits is a word containing the bits that are set by the
	// load envelopes. See load_envelopes (pg. 17) and thresh_struct
	// (pg. 23) for more details.

	s_val_t threshold_bits;	/* offset 0x00f2 */

	// Last_crc is the value that shows the actual calculated CRC. CRC
	// is short for cyclic redundancy code. It should be zero. See the
	// description for cal_crc_bad (pg. 21) for more information.

	s_val_t last_CRC;	/* offset 0x00f3 */

	// EEProm_ver_no contains the version number of the sensor EEProm.
	// EEProm version numbers can vary between 0 and 255.
	// Software_ver_no contains the software version number. Version
	// 3.02 would be stored as 302.

	s_val_t eeprom_ver_no;	/* offset 0x00f4 */
	s_val_t software_ver_no;	/* offset 0x00f5 */

	// Software_day & software_year are the release date of the software
	// the JR3 DSP is currently running. Day is the day of the year,
	// with January 1 being 1, and December 31, being 365 for non leap
	// years.

	s_val_t software_day;	/* offset 0x00f6 */
	s_val_t software_year;	/* offset 0x00f7 */

	// Serial_no & model_no are the two values which uniquely identify a
	// sensor. This model number does not directly correspond to the JR3
	// model number, but it will provide a unique identifier for
	// different sensor configurations.

	u_val_t serial_no;	/* offset 0x00f8 */
	u_val_t model_no;	/* offset 0x00f9 */

	// Cal_day & cal_year are the sensor calibration date. Day is the
	// day of the year, with January 1 being 1, and December 31, being
	// 366 for leap years.

	s_val_t cal_day;	/* offset 0x00fa */
	s_val_t cal_year;	/* offset 0x00fb */

	// Units is an enumerated read only value defining the engineering
	// units used in the sensor full scale. The meanings of particular
	// values are discussed in the section detailing the force_units
	// structure on page 22. The engineering units are setto customer
	// specifications during sensor manufacture and cannot be changed by
	// writing to Units.
	//
	// Bits contains the number of bits of resolution of the ADC
	// currently in use.
	//
	// Channels is a bit field showing which channels the current sensor
	// is capable of sending. If bit 0 is active, this sensor can send
	// channel 0, if bit 13 is active, this sensor can send channel 13,
	// etc. This bit can be active, even if the sensor is not currently
	// sending this channel. Some sensors are configurable as to which
	// channels to send, and this field only contains information on the
	// channels available to send, not on the current configuration. To
	// find which channels are currently being sent, monitor the
	// Raw_time fields (pg. 19) in the raw_channels array (pg. 7). If
	// the time is changing periodically, then that channel is being
	// received.

	u_val_t units;		/* offset 0x00fc */
	s_val_t bits;		/* offset 0x00fd */
	s_val_t channels;	/* offset 0x00fe */

	// Thickness specifies the overall thickness of the sensor from
	// flange to flange. The engineering units for this value are
	// contained in units (pg. 16). The sensor calibration is relative
	// to the center of the sensor. This value allows easy coordinate
	// transformation from the center of the sensor to either flange.

	s_val_t thickness;	/* offset 0x00ff */

	// Load_envelopes is a table containing the load envelope
	// descriptions. There are 16 possible load envelope slots in the
	// table. The slots are on 16 word boundaries and are numbered 0-15.
	// Each load envelope needs to start at the beginning of a slot but
	// need not be fully contained in that slot. That is to say that a
	// single load envelope can be larger than a single slot. The
	// software has been tested and ran satisfactorily with 50
	// thresholds active. A single load envelope this large would take
	// up 5 of the 16 slots. The load envelope data is laid out in an
	// order that is most efficient for the JR3 DSP. The structure is
	// detailed later in the section showing the definition of the
	// le_struct structure (pg. 23).

	le_struct_t load_envelopes[0x10];	/* offset 0x0100 */

	// Transforms is a table containing the transform descriptions.
	// There are 16 possible transform slots in the table. The slots are
	// on 16 word boundaries and are numbered 0-15. Each transform needs
	// to start at the beginning of a slot but need not be fully
	// contained in that slot. That is to say that a single transform
	// can be larger than a single slot. A transform is 2 * no of links
	// + 1 words in length. So a single slot can contain a transform
	// with 7 links. Two slots can contain a transform that is 15 links.
	// The layout is detailed later in the section showing the
	// definition of the transform structure (pg. 26).

	intern_transform_t transforms[0x10];	/* offset 0x0200 */
} jr3_channel_t;

typedef struct {
	struct {
		u_val_t program_low[0x4000];	// 0x00000 - 0x10000
		jr3_channel_t data;	// 0x10000 - 0x10c00
		char pad2[0x30000 - 0x00c00];	// 0x10c00 - 0x40000
		u_val_t program_high[0x8000];	// 0x40000 - 0x60000
		u32 reset;	// 0x60000 - 0x60004
		char pad3[0x20000 - 0x00004];	// 0x60004 - 0x80000
	} channel[4];
} jr3_t;