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22897ha (ot) no. 5489-1/28 overview the lc66p5316 is an on-chip otp prom version of the lc6653xx series cmos 4-bit single-chip micro- controllers. the lc66p5316 is appropriate for program development and product evaluation since it provides identical functionality and pin compatibility with the lc665316a. features and functions on-chip otp rom capacity of 16 kilobytes, and an on- chip ram capacity of 512 4 bits. fully supports the lc66000 series common instruction set (128 instructions). i/o ports: 42 pins a sub-oscillator circuit can be used (option) this circuit allows power dissipation to be reduced by operating at lower speeds. 8-bit serial interface: two circuits (can be connected in cascade to form a 16-bit interface) instruction cycle time: 0.95 to 10 ? (at 4.0 to 5.5 v) powerful timer functions and prescalers time limit timer, event counter, pulse width measurement, and square wave output using a 12-bit timer. time limit timer, event counter, pwm output, and square wave output using an 8-bit timer. time base function using a 12-bit prescaler powerful interrupt system with 8 interrupt factors and 8 interrupt vector locations. external interrupts: 3 factors/3 vector locations internal interrupts: 5 factors/5 vector locations flexible i/o functions 16-value comparator inputs, 20-ma drive outputs, inverter circuits, pull-up and open-drain circuits selectable as options. optional runaway detection function (watchdog timer) 8-bit i/o functions power saving functions using halt and hold modes. packages: dip48s, qip48e (qfp48e) evaluation lsis: lc66599 (evaluation chip) + eva800/850-tb662yxx2 package dimensions unit: mm 3149-dip48s unit: mm 3156-qfp48e preriminary lc66p5316 sanyo electric co.,ltd. semiconductor bussiness headquarters tokyo office tokyo bldg., 1-10, 1 chome, ueno, taito-ku, tokyo, 110 japan four-bit single-chip microcontroller with 16 kb of on-chip otp prom cmos lsi sanyo dip48 0.48 1.05 1.78 2.53 46.0 15.24 0.51min 3.8 5.1max 4.25 13.8 0.25 24 1 25 48 sanyo: dip48s [lc66p5316] (stand off) 1.5 17.2 17.2 1.5 1.5 1.5 1.6 1.6 14.0 0.35 15.6 0.8 1.0 1.0 3.0max 2.70 0.1 0.15 112 24 25 13 48 36 14.0 37 sanyo: qfp48e [lc66p5316] no. 5489
series organization note: * under development no. 5489-2/28 lc66p5316 type no. no. of rom capacity ram package features pins capacity lc66304a/306a/308a 42 4 k/6 k/8 kb 512 w dip42s qfp48e lc66404a/406a/408a 42 4 k/6 k/8 kb 512 w dip42s qfp48e lc66506b/508b/512b/516b 64 6 k/8 k/12 k/16 kb 512 w dip64s qfp64a lc66354a/356a/358a 42 4 k/6 k/8 kb 512 w dip42s qfp48e lc66354s/356s/358s 42 4 k/6 k/8 kb 512 w qfp44m lc66556a/558a/562a/566a 64 6 k/8 k/12 k/16 kb 512 w dip64s qfp64e lc66354b/356b/358b 42 4 k/6 k/8 kb 512 w dip42s qfp48e low-voltage high-speed versions lc66556b/558b/562b/566b 64 6 k/8 k/12 k/16 kb 512 w dip64s qfp64e 3.0 to 5.5 v/0.92 ? lc66354c/356c/358c 42 4 k/6 k/8 kb 512 w dip42s qfp48e 2.5 to 5.5 v/0.92 ? LC662104A/06a/08a 30 4 k/6 k/8 kb 384 w dip30sd mfp30s lc662304a/06a/08a/12a/16a 42 4 k/6 k/8 k/12 k/16 kb 512 w dip42s qfp48e lc662508a/12a/16a 64 8 k/12 k/16 kb 512 w dip64s qfp64e lc665304a/06a/08a/12a/16a 48 4 k/6 k/8 k/12 k/16 kb 512 w dip48s qfp48e dual oscillator support 3.0 to 5.5 v/0.95 ? lc66e308 42 eprom 8 kb 512 w dic42s qfc48 with window with window lc66p308 42 otprom 8 kb 512 w dip42s qfp48e lc66e408 42 eprom 8 kb 512 w dic42s qfc48 with window with window lc66p408 42 otprom 8 kb 512 w dip42s qfp48e lc66e516 64 eprom 16 kb 512 w dic64s qfc64 with window with window lc66p516 64 otprom 16 kb 512 w dip64s qfp64e lc66e2108 * 30 eprom 8 kb 384 w lc66e2316 42 eprom 16 kb 512 w dic42s qfc48 with window with window lc66e2516 64 eprom 16 kb 512 w dic64s qfc64 with window with window lc66e5316 52/48 eprom 16 kb 512 w dic52s qfc48 with window with window lc66p2108 * 30 otprom 8 kb 384 w dip30sd mfp30s lc66p2316 * 42 otprom 16 kb 512 w dip42s qfp48e lc66p2516 64 otprom 16 kb 512 w dip64s qfp64e lc66p5316 48 otprom 16 kb 512 w dip48s qfp48e otp 4.0 to 5.5 v/0.95 ? window evaluation versions 4.5 to 5.5 v/0.92 ? window and otp evaluation versions 4.5 to 5.5 v/0.92 ? on-chip dtmf generator versions 3.0 to 5.5 v/0.95 ? low-voltage versions 2.2 to 5.5 v/3.92 ? normal versions 4.0 to 6.0 v/0.92 ?
pin assignments we recommend the use of reflow soldering techniques to solder-mount qfp packages. please consult with your sanyo representative for details on process conditions if the package itself is to be directly immersed in a dip-soldering bath (dip-soldering techniques). no. 5489-3/28 lc66p5316 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 48 47 46 45 44 43 42 41 40 39 38 37 36 35 34 33 32 31 30 29 28 27 26 25 dip48s p20/si0/a0 p21/so0/a1 p22/sck0/a2 p23/int0/a3 p30/int1/a4 p31/pout0/a5 p32/pout1/a6 v ss osc1 osc2 v dd res/v pp /oe pe0/xt1 pe1/xt2 test/epmod p33/hold p40/inv0i/a7 p41/inv0o/a8 p42/inv1i/a9 p43/inv1o/a10 p50/a11 p51/a12 p52/a13 p53/int2/ta p13/d7 p12/d6 p11/d5 p10/d4 p03/d3 p02/d2 p01/d1 p00/d0 pd3/an4/inv4o lc66p5316 pd2/an3/inv4i pd1/an2/inv3o pd0/an1/inv3i pc3/inv2o/dasec pc2/inv2i/ce pc1 pc0 p83 p82 p81/ds1 p80/ds0 p63/pin1 p62/sck1 p61/so1 p60/si1 qfp48e lc66p5316 36 37 p02/d2 p01/d1 1 p32/pout1/a6 35 p00/d0 2 v ss 34 pd3/an4/inv4o 3 osc1 33 pd2/an3/inv4i 4 osc2 32 pd1/an2/inv3o 5 v dd 31 pd0/an1/inv3i 6 res/v pp /oe 30 pc3/inv2o/dasec 7 pe0/xt1 29 pc2/inv2i/ ce 8 pe1/xt2 28 pc1 9 test/epmod 27 pc0 10 p33/hold 26 p83 11 p40/inv0i/a7 25 p82 12 p41/inv0o/a8 24 p81/ds1 38 p03/d3 23 p80/ds0 39 p10/d4 22 p63/pin1 40 p11/d5 21 p62/sck1 41 p12/d6 20 p61/so1 42 p13/d7 19 p60/si1 43 p20/si0/a0 18 p53/int2/ta 44 p21/so0/a1 17 p52/a13 45 p22/sck0/a2 16 p51/a12 46 p23/int0/a3 15 p50/a11 47 p30/ int1 /a4 14 p43/inv1o/a10 48 p31/pout0/a5 13 p42/inv1i/a9 top view
usage notes the lc66p5316 was created for program development, product evaluation, and prototype development for products based on the lc6653xx series microcontrollers. keep the following points in mind when using this product. 1. after a reset the res pin must be held low for an additional 3 instruction cycles after the oscillator stabilization period has elapsed. also, the port output circuit types are set up during the 9 instruction cycles immediately after res is set high. only then is the program counter set to 0 and program execution started from that location. (the port output circuits all revert to the open-drain type during periods when res is low.) 2. notes on lc6653xx evaluation the high end of the eprom area (locations 3ff0h to 3fffh) are the option specification area. option specification data must be programmed for and loaded into this area. the sanyo specified cross assembler for this product is the program lc66s.exe. also, insert jmp instructions so that user programs do not attempt to execute addresses that exceed the capacity of the mask rom, and write zeros (00h) to areas (other than 3ff0h to 3fffh) that exceed the actual capacity of the mask rom. 3. mounting notes due to structural considerations, sanyo is unable to fully test one-time programmable products. therefore, the user must apply the screening procedure described on page 20 to these products. 4. use the following procedure when ordering rom through the sanyo prom writing service. (note that this is a for- fee service.) if ordering one-time programmable and mask rom versions at the same time: the customer must provide the eprom for the mask rom version, the order forms for the mask rom version, and the order forms for the one-time programmable version. if ordering only the one-time programmable version: the customer must provide the eprom and the order forms for the one-time programmable version. the last section of the eprom (locations 3ff0h to 3fffh) is the option specification area, and the option specification data must be written to this area. the sanyo specified cross assembler for this product is the program lc66s.exe. also, insert jmp instructions so that user programs do not attempt to execute addresses that exceed the capacity of the mask rom, and write zeros (00h) to areas (other than 3ff0h to 3fffh) that exceed the actual capacity of the mask rom. 5. differences between this product and the mask rom version: carefully read the sections on the following pages that describe these differences. no. 5489-4/28 lc66p5316 at least 10 ms v dd min location 0 location 1 v dd osc res program execution (pc) port output type at least 3 instruction oscillator stabilization open drain option switching period 9 instruction cycles option specification
main differences between the lc66e5316, lc66p5316, and lc6653xx series note: * although the microcontroller will remain in hold mode if the res pin is set low while it is in hold mode, always use the reset start sequence (after switching hold from low to high, switch res from low to high) when clearing hold mode. also a current of about 100 ? flows from the res pin when it is low. this increases the hold mode current drain by about 100 ?. see the data sheets for the individual products for details on other differences. system block diagram no. 5489-5/28 lc66p5316 item lc6653xx series (mask version) lc66e5316 lc66p5316 differences in the main characteristics ?0 to +70? +10 to +40? ?0 to +70? operating temperature range 3.0 to 5.5 v/0.95 to 10 ? 4.5 to 5.5 v/0.95 to 10 ? 4.0 to 5.5 v/0.92 to 10 ? operating supply voltage/operating (when the main oscillator is (when the main oscillator is (when the main oscillator is frequency (cycle time) operating) operating) operating) 3.0 to 5.5 v/25 to 127 ? 4.5 to 5.5 v/25 to 127 ? 4.0 to 5.5 v/25 to 127 ? (when the sub-oscillator is operating) (when the sub-oscillator is operating) (when the sub-oscillator is operating) typical: 10 ? typical: 10 ? input high-level current (res) maximum: 1 ? (normal operation and halt mode) (normal operation and halt mode) hold mode: 1 ? maximum hold mode: 1 ? maximum input low-level current (res) maximum: 1 ? typical: 100 ? typical: 100 ? current drain (operating at 4 mhz) (operating at 32 khz) typical: 10 na, maximum: 10 ? larger than that for the mask versions larger than that for the mask versions (halt mode at 4 mhz) typical: 10 na, maximum: 10 ? * typical: 10 na, maximum: 10 ? * (halt mode at 32 khz) (hold mode) port output types at reset the output type specified in open-drain outputs open-drain outputs the options package dip48s dic52s window package dip48s qfp48e qfc48 window package qfp48e system control ram stack (512w) sp e a otp rom (16kb) prom control pc pout0 a0 to a13 d0 to d7 si0 so0 sck0 int0 ce dasec v pp /oe epmod ta int1, int2 pin1, pout1 inv x o inv x i (x=0 to 4) flag interrupt control mpx mpx timer1 mpx timer0 serial i/o 0 pe pd pc e m r d p y d p x d p l d p h p0 p1 p2 p3 p4 p5 p6 ds1 ds0 p8 cz alu res xt1 xt2 an1 to 4 test osc1 osc2 hold adc si1 so1 sck1 serial i/o 1 prescaler
pin function overview no. 5489-6/28 lc66p5316 pin i/o overview output driver type options state after a standby mode reset operation p00/d0 p01/d1 p02/d2 p03/d3 p10/d4 p11/d5 p12/d6 p13/d7 p20/si0/a0 p21/so0/a1 p22/sck0/ a2 p23/int0/a3 p30/int1/a4 p31/pout0/ a5 p32/pout1/ a6 p33/hold p40/inv0i/ a7 p41/inv0o/ a8 p42/inv1i/ a9 p43/inv1o/ a10 i/o ports p00 to p03 input or output in 4-bit or 1-bit units p00 to p03 support the halt mode control function (this function can be specified in bit units.) used as data pins in eprom mode i/o ports p10 to p13 input or output in 4-bit or 1-bit units used as data pins in eprom mode i/o ports p20 to p23 input or output in 4-bit or 1-bit units p20 is also used as the serial input si0 pin. p21 is also used as the serial output so0 pin. p22 is also used as the serial clock sck0 pin. p23 is also used as the int0 interrupt request pin, and also as the timer 0 event counting and pulse width measurement input. used as address pins in eprom mode i/o ports p30 to p32 input or output in 3-bit or 1-bit units p30 is also used as the int1 interrupt request. p31 is also used for the square wave output from timer 0. p32 is also used for the square wave and pwm output from timer 1. p31 and p32 also support 3-state outputs. used as address pins in eprom mode hold mode control input hold mode is set up by the hold instruction when hold is low. in hold mode, the cpu is restarted by setting hold to the high level. this pin can be used as input port p33 along with p30 to p32. when the p33/hold pin is at the low level, the cpu will not be reset by a low level on the res pin. therefore, applications must not set p33/hold low when power is first applied. i/o ports p40 to p43 input or output in 4-bit or 1-bit units input or output in 8-bit units when used in conjunction with p50 to p53. can be used for output of 8-bit rom data when used in conjunction with p50 to p53. dedicated inverter circuit (option) used as address pins in eprom mode i/o i/o i/o i/o i i/o pch: pull-up mos type nch: intermediate sink current type pch: pull-up mos type nch: intermediate sink current type pch: cmos type nch: intermediate sink current type pch: cmos type nch: intermediate sink current type pch: pull-up mos type cmos type when the inverter circuit option is selected nch: intermediate sink current type pull-up mos or nch od output output level on reset pull-up mos or nch od output output level on reset cmos or nch od output cmos or nch od output pull-up mos or nch od output output level on reset inverter circuit high or low (option) high or low (option) h h high or low (option) inverter i/o is set to the output off state. hold mode: output off hold mode: output off hold mode: output off hold mode: output off hold mode: port output off, inverter output off halt mode: port output retained, inverter output continues hold mode: output off halt mode: output retained halt mode: output retained halt mode: output retained continued on next page.
continued from preceding page. note: pull-up mos type: the output circuit includes a mos transistor that pulls the pin up to v dd . cmos output: complementary output. od output: open-drain output. no. 5489-7/28 lc66p5316 pin i/o overview output driver type options state after a standby mode reset operation p50/a11 p51/a12 p52/a13 p53/int2/ta p60/si1 p61/so1 p62/sck1 p63/pin1 p80/ds0 p81/ds1 p82 p83 pc0 pc1 pc2/inv2i/ ce pc3/inv2o/ dasec pd0/an1/ inv3i pd1/an2/ inv3o pd2/an3/ inv4i pd3/an4/ inv4o pe0/xt1 pe1/xt2 osc1 osc2 res/v pp / oe test/ epmod v dd v ss i/o ports p50 to p53 input or output in 4-bit or 1-bit units input or output in 8-bit units when used in conjunction with p40 to p43. can be used for output of 8-bit rom data when used in conjunction with p40 to p43. p53 is also used as the int2 interrupt request. used as address pins in eprom mode i/o ports p60 to p63 input or output in 4-bit or 1-bit units p60 is also used as the serial input si1 pin. p61 is also used as the serial output so1 pin. p62 is also used as the serial clock sck1 pin. p63 is also used for the event count input to timer 1. dedicated output ports p80 to p83 output in 4-bit or 1-bit units the contents of the output latch are input using input instructions. p80 is a data shaper input (options) p81 is a data shaper output (options) i/o ports pc0 to pc3 output in 4-bit or 1-bit units dedicated inverter circuits (option) used as the control ce and dasec pin in eprom mode. dedicated input ports pd0 to pd3 can be switched in software to function as 16-value analog inputs. dedicated inverter circuits (option) dedicated input ports and sub-oscillator connections system clock oscillator connections when an external clock is used, leave osc2 open and connect the clock signal to osc1. system reset input when the p33/hold pin is at the high level, a low level input to the res pin will initialize the cpu. used as the v pp /oe pin in eprom mode. cpu test pin this pin must be connected to v ss during normal operation. power supply pins i/o i/o o i/o i i i o i i pch: pull-up mos type nch: intermediate sink current type pch: cmos type nch: intermediate sink current type pch: cmos type nch: intermediate sink current type pch: cmos type nch: intermediate sink current type only when the inverter circuit option is selected: pch: cmos type nch: intermediate sink current type pull-up mos or nch od output output level on reset cmos or nch od output cmos or nch od output output level at reset data shaper circuit cmos or nch od output inverter circuits inverter circuits sub-oscillator/port pe selection ceramic oscillator or external clock selection high or low (option) h high or low (option) h normal input option selection option selection hold mode: output off hold mode: output off hold mode: output off hold mode: output off inverter ?hold mode: output off ?halt mode: output continues hold mode: oscillator stops halt mode: output retained halt mode: output retained halt mode: output retained halt mode: output retained halt mode: oscillator continues
user options 1. port 0, 1, 4, 5, and 8 output level at reset option the output levels at reset for i/o ports 0, 1, 4, 5, and 8, in independent 4-bit groups, can be selected from the following two options. 2. oscillator circuit options main clock note: there is no rc oscillator option. sub-clock 3. watchdog timer option a runaway detection function (watchdog timer) can be selected as an option. 4. port output type options the output type of each bit (pin) in ports p0, p1, p2, p3 (except for the p33/hold pin), p4, p5, p6, and pc can be no. 5489-8/28 lc66p5316 option circuit conditions and notes 1. external clock 2. ceramic oscillator the input has schmitt characteristics option circuit conditions and notes 1. ports pe0 and pe1 2 sub-oscillator (crystal oscillator) option conditions and notes 1. output high at reset the four bits of ports 0, 1, 4, 5, or 8 are set in a group 2. output low at reset the four bits of ports 0, 1, 4, 5, or 8 are set in a group option circuit conditions and notes 1. open-drain output 2. output with built-in pull-up resistor the port p2, p3, p5, and p6 inputs have schmitt characteristics. the port p2, p3, p5, and p6 inputs have schmitt characteristics. the cmos outputs (ports p2, p3, p6, and pc) and the pull-up mos outputs (p0, p1, p4, and p5) are distinguished by the drive capacity of the p-channel transistor. osc1 osc1 osc2 c1 c2 ceramic oscillator dsb input data xt1 xt2 c1 c2 crystal oscillator dsb output data input data dsb output data input data
one of the following two options can be selected for p8, in bit units. 5. inverter array circuit option one of the following options can be selected for each of the following port sets: p40/p41, p42/p43, pc2/pc3, pd0/pd1, and pd2/pd3. (pds do not use option 1 because they are dedicated to inputs.) no. 5489-9/28 lc66p5316 option circuit conditions and notes 1. open-drain output 2. output with built-in pull- down resistor (cmos output) option circuit conditions and notes 1. normal port i/o circuit 2. inverter i/o circuit when the open-drain output type is selected when the built-in pull-up resistor output type is selected the cmos outputs (pc) and the pull-up mos outputs (p4) are distinguished by the drive capacity of the p-channel transistor. if this option is selected, the i/o circuit is disabled by the dsb signal. also note that the open-drain port output type option and the high level at reset option must be selected. dsb output data dsb output data dsb output data input data dsb output data input data dsb dsb output data high input data output data high input data
6. buffer array circuit option in addition to normal port output, one of the following two options may also be selected for p80 and p81. no. 5489-10/28 lc66p5316 option circuit conditions and notes 1. normal port output 2. buffer input (p80) and buffer output (p81) circuits 3. buffer input (p80) and buffer output (p81) circuits with built-in zero-cross detection circuits when the open-drain output type is selected if this option is selected, the i/o circuit is disabled by the dsb signal. also note that the open-drain port output type option and the high level at reset option must be selected. if this option is selected, the i/o circuit is disabled by the dsb signal. also note that the open-drain port output type option and the high level at reset option must be selected. when the built-in pull-down resistor output type is selected (cmos output) dsb output data dsb output data dsb p80 p81 output data low output data low dsb p80 p81 output data low output data low
lc665316 series option data area and definitions lc66p5316 rom area bit option specified option/data relationship 7p5 output level at reset 0 = high level, 1 = low level 6p4 5 sub-oscillator option 0 = port pe, 1 = crystal oscillator 3ff0h 4 oscillator option 0 = external clock, 1 = ceramic oscillator 3p8 2 p1 output level at reset 0 = low level, 1 = high level 1p0 0 watchdog timer option 0 = none, 1 = yes (present) 7 p13 6 p12 output type 0 = od, 1 = pu 5 p11 3ff1h 4 p10 3 p03 2 p02 output type 0 = od, 1 = pu 1 p01 0 p00 7 unused this bit must be set to 0. 6 p32 5 p31 output type 0 = od, 1 = pu 3ff2h 4 p30 3 p23 2 p22 output type 0 = od, 1 = pu 1 p21 0 p20 7 p53 6 p52 output type 0 = od, 1 = pu 5 p51 3ff3h 4 p50 3 p43 2 p42 output type 0 = od, 1 = pu 1 p41 0 p40 7 6 unused this bit must be set to 0. 5 3ff4h 4 3 p63 2 p62 output type 0 = od, 1 = pu 1 p61 0 p60 7 6 unused this bit must be set to 0. 5 3ff5h 4 3 p83 2 p82 output type 0 = od, 1 = pd 1 p81 0 p80 7 6 unused this bit must be set to 0. 5 3ff6h 4 3 2 unused this bit must be set to 0. 1 0 continued on next page.
continued from preceding page. no. 5489-12/28 lc66p5316 rom area bit option specified option/data relationship 7 6 unused this bit must be set to 0. 5 3ff7h 4 3 pc3 2 pc2 output type 0 = od, 1 = pu 1 pc1 0 pc0 7 unused this bit must be set to 1. 6 buffer output 0 = used, 1 = none 5 buffer output with zero-cross bias input 0 = used, 1 = none 3ff8h 4 pd3 3 pd1 2 pc3 inverter output 0 = inverter output, 1 = none 1 p43 0 p41 7 6 unused this bit must be set to 0. 5 3ff9h 4 3 2 unused this bit must be set to 0. 1 0 7 6 unused this bit must be set to 0. 5 3ffah 4 3 2 unused this bit must be set to 0. 1 0 7 6 unused this bit must be set to 0. 5 3ffbh 4 3 2 unused this bit must be set to 0. 1 0 7 6 unused this bit must be set to 0. 5 3ffch 4 3 2 unused this bit must be set to 0. 1 0 7 6 5 3ffdh 4 reserved. must be set to predefined data values. this data is generated by the assembler. 3 if the assembler is not used, set this data to ?0? 2 1 0 continued on next page.
continued from preceding page. usage notes 1. option specification when using a sanyo cross assembler with the lc66p5316, use the version called ?c66s.exe?and specify the actual microcontroller to be evaluated with the cpu pseudoinstruction in the source file. the port options must be specified in the source file. the cross assembler will create an options code list in the option specification area (locations 3ff0h to 3fffh). it is also possible to directly set up data in the option specification area. if this is done, the options must be specified according to the option code creation table shown on the following page. 2. writing the eprom use a special-purpose writing conversion board (the w66ep5316d for the dip package, and the w66ep5316q for the qfp package) to allow the eprom programmers listed below to be used when writing the data created by the cross assembler to the lc66p5316. the eprom programmers listed below can be used. the ?7512 (v pp 12.5 v) intel high-speed write?technique must be used to write the eprom. set the address range to location 0 to 3fffh. the dasec jumper must be off. 3. using the data security function the data security function sets up the microcontroller in advance so that data that was written to the microcontroller eprom cannot be read out. use the following procedure to enable the lc66p5316 data security function. set the write conversion board dasec jumper to the on position. write the data to the eprom once again. at this time, since this function will operate, the eprom programmer will issue an error. however, this error does not indicate that there was a problem in either the programmer or the lsi. notes: 1. if the data at all addresses was ?f?at step 2, the data security function will not be activated. notes: 2. the data security function will not be activated at step 2 if the ?lank ? program ? verify?operation sequence is used. notes: 3. always return the jumper to the off position after the data security function has been activated. no. 5489-13/28 lc66p5316 rom area bit option specified option/data relationship 7 6 5 3ffeh 4 reserved. must be set to predefined data values. this data is generated by the assembler. 3 if the assembler is not used, set this data to ?0? 2 1 0 7 6 5 3fffh 4 reserved. must be set to predefined data values. this data is generated by the assembler. 3 if the assembler is not used, set this data to ?0? 2 1 0 manufacturer models that can be used advantest r4945, r4944a, r4943, or equivalent products ando af9704 aval minato electronics model1890a
specifications absolute maximum ratings at ta = 25?, v ss = 0 v note: 1. applies to pins with open-drain output specifications. for pins with other than open-drain output specifications, the ratings in the pin column for that pin apply. 2. for the oscillator input and output pins, levels up to the free-running oscillation level are allowed. 3. sink current (applies to p8 and pd when either the cmos output specifications or the inverter array specifications have been selected.) 4. source current (applies to all pins except p8 and pd for which the pull-up output specifications, the cmos output specifications, or the inverter array specifications have been selected. applies to pd pins for which the inverter array specifications have been selected.) contact your sanyo representative for the electrical characteristics when the inverter array or buffer array options are specified. 5. we recommend the use of reflow soldering techniques to solder mount qfp packages. please consult with your sanyo representative for details on process conditions if the package itself is to be directly immersed in a solder dip bath (solder dip or spray techniques). lc66p5316 parameter symbol conditions ratings unit note maximum supply voltage v dd max v dd ?.3 to +7.0 v v in 1 p2, p3 (except for the p33/hold pin), ?.3 to +7.0 v 1 input voltage p61, and p63 v in 2 all other inputs ?.3 to v dd + 0.3 v 2 v out 1 p2, p3 (except for the p33/hold pin), ?.3 to +7.0 v 1 output voltage p61, and p63 v out 2 all other inputs ?.3 to v dd + 0.3 v 2 i on 1 p0, p1, p2, p3 (except for the p33/hold pin), 20 ma 3 p4, p5, p6, p8, pc, pd1, pd3 output current per pin ? op 1 p0, p1, p4, p5 2 ma 4 ? op 2 p2, p3 (except for the p33/hold pin), 4ma 4 p6,p8, and pc ? op 3 p41, p43, pc3, pd1, pd3, p81 10 ma 4 s i on 1 p4, p5, p6, p8, pc 75 ma 3 s i on 2 p0, p1, p2, p3 (except for the p33/hold pin), 75 ma 3 total pin current pd1, pd3 s i op 1 p4, p5, p6, p8, pc 25 ma 4 s i op 2 p0, p1, p2, p3 (except for the p33/hold pin), 25 ma 4 pd1, pd3 allowable power dissipation pd max ta = ?0 to +70?: dip48s (qfp48e) 600 (430) mw 5 operating temperature topr ?0 to +70 ? storage temperature tstg ?5 to +125 ? sw dasec o pin 1 aligned to the top sw dasec cut corner pin 1 pin 1 lc66p5316 (dip) lc66p5316 (qfp) write board (w66ep5316d) write board (w66ep5316q)
allowable operating ranges at ta = ?0 to +70?, v ss = 0 v, v dd = 4.0 to 5.5 v, unless otherwise specified. note: 1. applies to pins with open-drain specifications. however, v ih 2 applies to the p33/hold pin. when ports p2, p3, and p6 have cmos output specifications they cannot be used as input pins. 2. pc port pins with cmos output specifications cannot be used as input pins. contact your sanyo representative for the allowable operating ranges for p4, pc, and pd when the inverter array is used, and for p8 when the buffer array is used. 3. applies to pins with open-drain specifications. however, v il 2 applies to the p33/hold pin. p2, p3, and p6 port pins with cmos output specifications cannot be used as input pins. no. 5489-15/28 lc66p5316 parameter symbol conditions min typ max unit note operating supply voltage v dd v dd 4.0 5.5 v memory retention supply voltage v dd hv dd : during hold mode 1.8 5.5 v v ih 1 p2, p3 (except for the p33/hold pin), 0.8 v dd +7.0 v 1 p61, and p63: n-channel output transistor off input high-level voltage v ih 2 p33/hold, res, osc1: 0.8 v dd v dd v n-channel output transistor off v ih 3 p0, p1, p4, p5, pc, pd, pe: 0.8 v dd v dd v2 n-channel output transistor off v il 1 p2, p3 (except for the p33/hold pin), p6, v ss 0.2 v dd v res, and osc1: n-channel output transistor off input low-level voltage v il 2 p33/hold: v dd = 1.8 to 5.5 v v ss 0.2 v dd v v il 3 p0, p1, p4, p5, pc, pd, pe, test: v ss 0.2 v dd v2 n-channel output transistor off when the main oscillator is operating 0.4 4.20 mhz operating frequency fop (10) (0.95) (?) (instruction cycle time) (tcyc) when the sub-oscillator is operating 30 32.768 100 khz (133.2) (122) (40) (?) [external clock input conditions] osc1: defined by figure 1. input the clock frequency f ext signal to osc1 and leave osc2 open. 0.4 4.20 mhz (external clock input must be selected as the oscillator circuit option.) osc1: defined by figure 1. input the clock pulse width t exth , t extl signal to osc1 and leave osc2 open. 100 ns (external clock input must be selected as the oscillator circuit option.) osc1: defined by figure 1. input the clock rise and fall times t extr , t extf signal to osc1 and leave osc2 open. 30 ns (external clock input must be selected as the oscillator circuit option.)
electrical characteristics at ta = ?0 to +70?, v ss = 0 v, v dd = 4.0 to 5.5 v unless otherwise specified. lc66p5316 parameter symbol conditions min typ max unit note p2, p3 (except for the p33/hold pin), i ih 1 p61, and p63: v in = +10.0 v, with the output 5.0 ? 1 nch transistor off p0, p1, p4, p5, p6, pc, osc1, and p33/hold i ih 2 (does not apply to pd, pe, pc2, and pc3): 1.0 ? 1 v in = v dd , with the output nch transistor off input high-level current pd, pc2, pc3, pe0, (when used as a port; does i ih 3 not apply when the sub-oscillator option is 1.0 ? 1 selected.): v in = v dd , with the output nch transistor off i ih 4 res: v in = v dd , operating, halt mode 10 ? 1 i ih 5 res: v in = v dd , hold mode 1.0 ? 1 i ih 6 pe1 (when used as a port; does not apply when 1.0 ? 1 the sub-oscillator option is selected.) : v in = v dd i il 1 input ports other than pd, pe, pc2, and pc3: ?.0 ? 2 v in = v ss , with the output nch transistor off i il 2 pd, pc2, pc3, pe0: v in = v ss , ?.0 ? 2 input low-level current with the output nch transistor off i il 3 res: v in = v ss 100 ? 1 pe1 (when used as a port; does not apply i il 4 when the sub-oscillator option is selected.): 20 ? 1 v in = v ss p2, p3 (except for the p33/hold pin), v dd ?1.0 output high-level voltage v oh 1 p6, p8, and pc: i oh = ? ma v3 p2, p3 (except for the p33/hold pin), v dd ?0.5 p6, p8, and pc: i oh = ?.1 ma value of the output pull-up resistor r po p0, p1, p4, p5 30 100 150 k 4 v ol 1 p0, p1, p2, p3, p4, p5, p6, p8, and pc 0.4 v 5 output low-level voltage (except for the p33/hold pin): i ol = 1.6 ma v ol 2 p0, p1, p2, p3, p4, p5, p6, p8, and pc 1.5 v (except for the p33/hold pin): i ol = 8 ma i off 1 p2, p3, p61, p63: v in = +7.0 v 5.0 ? 6 output off leakage current i off 2 does not apply to p2, p3, p61, p63, and p8.: 1.0 ? 6 v in = v dd i off 3 p8: v in = v ss ?.0 ? 7 [schmitt characteristics] hysteresis voltage v hys 0.1 v dd v high-level threshold voltage vt h p2, p3, p5, p6, osc1 (ext), res 0.5 v dd 0.8 v dd v low-level threshold voltage vt l 0.2 v dd 0.5 v dd v [ceramic oscillator] oscillator frequency f cf osc1, osc2: figure 2, 4 mhz 4.0 mhz oscillator stabilization time f cfs figure 3, 4 mhz 10.0 ms [crystal oscillator] oscillator frequency f xt xt1, xt2: figure 2, when the sub-oscillator 32.768 khz option is selected, 32 khz oscillator stabilization time f xts figure 3, when the sub-oscillator option is 1.0 5.0 s selected, 32 khz [serial clock] cycle time input t ckcy 0.9 ? output 2.0 tcyc low-level and high-level input t ckl 0.4 ? pulse widths output t ckh 1.0 tcyc rise an fall times output t ckr , t ckf 0.1 ? [serial input] data setup time t ick 0.3 ? data hold time t cki 0.3 ? [serial output] so0, so1: with the timing of figure 5 and output delay time t cko the test load of figure 5. stipulated with respect 0.3 ? to the falling edge ( ) of sck0 or sck1. si0, si1: with the timing of figure 4. stipulated with respect to the rising edge ( - ) of sck0 or sck1. sck0, sck1: with the timing of figure 4 and the test load of figure 5. continued on next page.
continued from preceding page. note: 1. with the output nch transistor off in shared i/o ports with the open-drain output specifications. these pins cannot be used as input pins if the cmos output specifications are selected.when the port option is selected for pe. 2. with the output nch transistor off in shared i/o ports with the open-drain output specifications. the rating for the pull-up output specification pins is stipulated in terms of the output pull-up current ipo. these pins cannot be used as input pins if the cmos output specifications are selected. 3. with the output nch transistor off for cmos output specification pins. (also applies when the pch open-drain option is selected for p8.) 4. with the output nch transistor off for pull-up output specification pins. 5. when cmos output specifications are selected for p8. 6. with the output nch transistor off for open-drain output specification pins. 7. with the output pch transistor off for open-drain output specification pins. 8. reset state comparator characteristics at ta = ?0 to +70?, v ss = 0 v note: 1. does not include the quantization error. figure 1 external clock input waveform no. 5489-17/28 lc66p5316 parameter symbol conditions min typ max unit note [pulse conditions] int0: figure 6, conditions under which the int0 int0 high and low-level t ioh , t iol interrupt can be accepted, conditions under 2 tcyc which the timer 0 event counter or pulse width measurement input can be accepted high and low-level pulse widths t iih , t iil int1, int2: figure 6, conditions under which 2 tcyc for interrupt inputs other than int0 the corresponding interrupt can be accepted pin1 high and low-level t pinh , t pinl pin1: figure 6, conditions under which the 2 tcyc pulse widths timer 1 event counter input can be accepted res high and low-level t rsh , t rsl res: figure 6, conditions under which reset 3 tcyc pulse widths can be applied. operating current drain i dd op v dd : 4-mhz ceramic oscillator 6.0 12 ma 8 v dd : 4-mhz external clock 6.0 12 ma v dd : 4-mhz ceramic clock 4.0 8 ma halt mode current drain i ddhalt v dd : 32 khz (main oscillator stopped), 100 500 ? sub-oscillator: crystal hold mode current drain i ddhold v dd : v dd = 1.8 to 5.5 v 0.01 10 ? parameter symbol conditions min typ max unit note absolute precision v cecm an1 to an4: v dd = 4.0 to 5.5 v ?/2 ? lsb 1 threshold voltage v thcm v dd = 4.0 to 5.5 v v ss v dd v input voltage v incm an1 to an4: v dd = 4.0 to 5.5 v v ss v dd v conversion time t ccm v dd = 4.0 to 5.5 v 30 s t extl open (osc2) osc1 t extr t extf v ss v dd 0.2v dd 0.8v dd 1/fext t exth external clock
figure 2 ceramic oscillator circuit figure 3 oscillator stabilization period table 1 guaranteed ceramic oscillator constants external capacitor type table 2 guaranteed crystal oscillator constants figure 4 serial i/o timing figure 5 timing load figure 6 input timing for the int0, int1, int2, pin1, and res pins no. 5489-18/28 lc66p5316 external capacitor type built-in capacitor type 4 mhz c1 = 33 pf 10% 4 mhz (murata mfg. co., ltd.) c2 = 33 pf 10% (murata mfg. co., ltd.) rd = 220 5% csa4.00mg rd = 220 5% cst4.00mg 4 mhz c1 = 33 pf 10% 4 mhz (kyocera corporation) c2 = 33 pf 10% (kyocera corporation) kbr4.0ms rd = 0 kbr4.0mes 32 khz c1 = 18 pf 10% (seiko epson) c2 = 18 pf 10% c-002rx rd = 470 k 5% osc2 osc1 c1 c2 rd xt2 crystal oscillator xt1 c1 c2 rd ceramic oscillator v dd osc 0v oscillator unstable period t cfs stable oscillation operating v dd minimum value t ick t cki t ckl t ckr t ckcy t ckh t ckf 0.8v dd (input) v dd -1 (output) 0.2v dd (input) sck0 sck1 si0 si1 so0 so1 0.4v dd (output) 0.8v dd 0.2v dd t ck0 v dd -1 0.4v dd c=50pf test point r=1k t i0h t i1h t pinh t rsh t i0l t i1l t pinl t rsl 0.8v dd 0.2v dd
no. 5489-19/28 lc66p5316 preconditions for mounting one-time programmable microprocessors usage notes due to inherent structural considerations, it is impossible to fully test one-time programmable microprocessors before the prom has been programmed, i.e. before shipment from the factory. we recommend that users screen products whose prom has been written according to the following procedure to improve the reliability of these products. due to the nature of the product, it is not possible to test write operations to all bits in one-time programmable microprocessors whose prom has not been written. therefore it may be impossible to guarantee a 100% yield on writing to these products. please understand that no such guarantee may be made. storage of products in the moisture-proof packed (unopened) state store products in moisture-proof packages in an environment in which the temperature is no higher than 30? and the relative humidity is no higher than 70%. storage of products after opening the moisture-proof packaging after opening products that were packed in moisture-proof packaging, mount (solder) those products as soon as possible. store products for no more than 96 hours after opening the moisture-proof packaging in an environment in which the temperature is no higher than 30? and the relative humidity is no higher than 70%. a. preconditions for mounting products that were programmed by the user b. preconditions for mounting products that were programmed by sanyo sanyo rom writing service sanyo provides a for-fee rom writing service that includes writing the one-time programmable rom, printing, screening, and read-out verification. contact your sanyo sales representative for details. dip/qfp product mounting mounting programming and verification recommended screening conditions high-temperature bake (disconnected) 150 c ? c, 24 hr +1hr ?hr program data verification dip/qfp product
lc66xxxx series instruction table (by function) abbreviations: ac: accumulator e: e register cf: carry flag zf: zero flag hl: data pointer dph, dpl xy: data pointer dpx, dpy m: data memory m (hl): data memory pointed to by the dph, dpl data pointer m (xy): data memory pointed to by the dpx, dpy auxiliary data pointer m2 (hl): two words of data memory (starting on an even address) pointed to by the dph, dpl data pointer sp: stack pointer m2 (sp): two words of data memory pointed to by the stack pointer m4 (sp): four words of data memory pointed to by the stack pointer in: n bits of immediate data t2: bit specification pch: bits 8 to 11 in the pc pcm: bits 4 to 7 in the pc pcl: bits 0 to 3 in the pc fn: user flag, n = 0 to 15 timer0: timer 0 timer1: timer 1 sio: serial register p: port p (i4): port indicated by 4 bits of immediate data int: interrupt enable flag ( ), [ ]: indicates the contents of a location ? : transfer direction, result : exclusive or : logical and : logical or +: addition ? subtraction ? taking the one's complement no. 5489-20/28 lc66p5316 t2 11 10 01 00 bit 2 3 2 2 2 1 2 0
no. 5489-21/28 lc66p5316 continued on next page. instruction code affected mnemonic operation description status note d 7 d 6 d 5 d 4 d 3 d 2 d 1 d 0 bits [accumulator manipulation instructions] cla clear ac 1000 0000 1 1 ac ? 0 clear ac to 0. zf has a vertical (equivalent to lai 0.) skip function. daa decimal adjust ac 1100 1111 22 ac ? (ac) + 6 add six to ac. zf in addition 0010 0110 (equivalent to adi 6.) decimal adjust ac 1100 1111 ac ? (ac) + 10 das in subtraction 0010 1010 2 2 (equivalent to add 10 to ac. zf adi 0ah.) clc clear cf 0001 1110 1 1 cf ? 0 clear cf to 0. cf stc set cf 0001 1111 1 1 cf ? 1 set cf to 1. cf cma complement ac 0001 1000 1 1 ac ? (ac) take the one? complement zf of ac. ia increment ac 0001 0100 1 1 ac ? (ac) + 1 increment ac. zf, cf da decrement ac 0010 0100 1 1 ac ? (ac) ?1 decrement ac. zf, cf rotate ac right ac 3 ? (cf), rar through cf 0001 0000 1 1 acn ? (acn + 1), shift ac (including cf) right. cf cf ? (ac 0 ) rotate ac left ac 0 ? (cf), ral through cf 0000 0001 1 1 acn + 1 ? (acn), shift ac (including cf) left. cf, zf cf ? (ac 3 ) tae transfer ac to e 0100 0101 1 1 e ? (ac) transfer the contents of ac to e. tea transfer e to ac 0100 0110 1 1 ac ? (e) transfer the contents of e to ac. zf xae exchange ac with e 0100 0100 1 1 (ac) ? (e) exchange the contents of ac and e. [memory manipulation instructions] im increment m 0001 0010 1 1 m (hl) ? increment m (hl). zf, cf [m (hl)] + 1 dm decrement m 0010 0010 1 1 m (hl) ? decrement m (hl). zf, cf [m (hl)] ?1 imdr i8 increment m direct 1100 0111 2 2 m (i8) ? [m (i8)] + 1 increment m (i8). zf, cf i 7 i 6 i 5 i 4 i 3 i 2 i 1 i 0 dmdr i8 decrement m direct 1100 0011 2 2 m (i8) ? [m (i8)] ?1 decrement m (i8). zf, cf i 7 i 6 i 5 i 4 i 3 i 2 i 1 i 0 smb t2 set m data bit 0000 11t 1 t 0 1 1 [m (hl), t2] ? 1 set the bit in m (hl) specified by t0 and t1 to 1. rmb t2 reset m data bit 0010 11t 1 t 0 1 1 [m (hl), t2] ? 0 clear the bit in m (hl) zf specified by t0 and t1 to 0. [arithmetic, logic and comparison instructions] add the contents of ac and ad add m to ac 0000 0110 1 1 ac ? (ac) + m (hl) as two? complement zf, cf [m (hl)] values and store the result in ac. add the contents of ac and addr i8 add m direct to ac 1100 1001 2 2 ac ? (ac) + [m (i8)] m (i8) as two? complement zf, cf i 7 i 6 i 5 i 4 i 3 i 2 i 1 i 0 values and store the result in ac. add the contents of ac, adc add m to ac with cf 0000 0010 1 1 ac ? (ac) + m (hl) and c as two? zf, cf [m (hl)] + (cf) complement values and store the result in ac. add the contents of ac and adi i4 add immediate data 1100 1111 22 ac ? (ac) + the immediate data as two? zf to ac 0010 i 3 i 2 i 1 i 0 i 3 , i 2 , i 1 , i 0 complement values and store the result in ac. subtract the contents of ac cf will be zero if subc subtract ac from m 0001 0111 1 1 ac ? [m (hl)] and cf from m (hl) as two? zf, cf there was a with cf (ac) ?(cf) complement values and store borrow and one the result in ac. otherwise. and m with ac then ac ? (ac) take the logical and of ac anda store ac 0000 0111 1 1 [m (hl)] and m (hl) and store the zf result in ac. or m with ac then ac ? (ac) take the logical or of ac and ora store ac 0000 0101 1 1 [m (hl)] m (hl) and store the result zf in ac. number of bytes number of cycles
continued from preceding page. no. 5489-22/28 lc66p5316 continued on next page. instruction code affected mnemonic operation description status note d 7 d 6 d 5 d 4 d 3 d 2 d 1 d 0 bits [arithmetic, logic and comparison instructions] exclusive or m with ac ? (ac) take the logical exclusive or exl ac then store ac 0001 0101 1 1 [m (hl)] of ac and m (hl) and store zf the result in ac. and m with ac then m (hl) ? (ac) take the logical and of ac andm store m 0000 0011 1 1 [m (hl)] and m (hl) and store the zf result in m (hl). or m with ac then m (hl) ? (ac) take the logical or of ac and orm store m 0000 0100 1 1 [m (hl)] m (hl) and store the result zf in m (hl). compare the contents of ac and m (hl) and set or clear cf and zf according to the result. cm compare ac with m 0001 0110 1 1 [m (hl)] + (ac) + 1 zf, cf compare the contents of ac and the immediate data i 3 i 2 i 1 i 0 and set or clear cf and zf according to the result. ci i4 compare ac with 1100 1111 22i 3 i 2 i 1 i 0 + (ac) + 1 zf, cf immediate data 1010 i 3 i 2 i 1 i 0 zf ? 1 compare the contents of dp l cli i4 compare dp l with 1100 1111 22 if (dp l ) = i 3 i 2 i 1 i 0 with the immediate data. zf immediate data 1011 i 3 i 2 i 1 i 0 zf ? 0 set zf if identical and clear if (dp l ) i 3 i 2 i 1 i 0 zf if not. zf ? 1 if (ac, t2) = [m (hl), compare the corresponding cmb t2 compare ac bit with 1100 1111 22 t2] bits specified by t0 and t1 in zf m data bit 1101 00t 1 t 0 zf ? 0 ac and m (hl). set zf if if (ac, t2) [m (hl), identical and clear zf if not. t2] [load and store instructions] lae load ac and e from 0101 1100 1 1 ac ? m (hl), load the contents of m2 (hl) m2 (hl) e ? m (hl + 1) into ac, e. lai i4 load ac with 1000 i 3 i 2 i 1 i 0 1 1 ac ? i 3 i 2 i 1 i 0 load the immediate data zf has a vertical immediate data into ac. skip function ladr i8 load ac from m 1100 0001 2 2 ac ? [m (i8)] load the contents of m (i8) zf direct i 7 i 6 i 5 i 4 i 3 i 2 i 1 i 0 into ac. s store ac to m 0100 0111 1 1 m (hl) ? (ac) store the contents of ac into m (hl). sae store ac and e to 0101 1110 1 1 m (hl) ? (ac) store the contents of ac, e m2 (hl) m (hl + 1) ? (e) into m2 (hl). load the contents of m (reg) into ac. the reg is either hl or xy load ac from depending on t 0 . la reg m (reg) 0100 10t 0 0 1 1 ac ? [m (reg)] zf number of bytes number of cycles magnitude cf zf comparison [m (hl)] > (ac) 0 0 [m (hl)] = (ac) 1 1 [m (hl)] < (ac) 1 0 magnitude cf zf comparison i 3 i 2 i 1 i 0 > ac 0 0 i 3 i 2 i 1 i 0 = ac 1 1 i 3 i 2 i 1 i 0 < ac 1 0 reg t 0 hl 0 xy 1
continued from preceding page. no. 5489-23/28 lc66p5316 continued on next page. instruction code affected mnemonic operation description status note d 7 d 6 d 5 d 4 d 3 d 2 d 1 d 0 bits [load and store instructions] load the contents of m (reg) into ac. (the reg is either hl zf is set load ac from m (reg) ac ? [m (reg)] or xy.) then increment the according to the la reg, i then increment reg 0100 10t 0 11 2dp l ? (dp l ) + 1 contents of either dp l or dp y . zf result of or dp y ? (dp y ) + 1 the relationship between t 0 incrementing and reg is the same as that dp l or dp y . for the la reg instruction. load the contents of m (reg) into ac. (the reg is either hl zf is set load ac from m (reg) ac ? [m (reg)] or xy.) then decrement the according to the la reg, d then decrement reg 0101 10t 0 11 2dp l ? (dp l ) ?1 contents of either dp l or dp y . zf result of or dp y ? (dp y ) ?1 the relationship between t 0 decrementing and reg is the same as that dp l or dp y . for the la reg instruction. exchange the contents of m (reg) and ac. the reg is either hl or xy exchange ac with depending on t 0 . xa reg m (reg) 0100 11t 0 0 1 1 (ac) ? [m (reg)] exchange the contents of m (reg) and ac. (the reg is zf is set exchange ac with (ac) ? [m (reg)] either hl or xy.) then according to the xa reg, i m (reg) then 0100 11t 0 11 2dp l ? (dp l ) + 1 increment the contents of zf result of increment reg or dp y ? (dp y ) + 1 either dp l or dp y . the incrementing relationship between t 0 and dp l or dp y . reg is the same as that for the xa reg instruction. exchange the contents of m (reg) and ac. (the reg is zf is set exchange ac with (ac) ? [m (reg)] either hl or xy.) then according to the xa reg, d m (reg) then 0101 11t 0 11 2dp l ? (dp l ) ?1 decrement the contents of zf result of decrement reg or dp y ? (dp y ) ?1 either dp l or dp y . the decrementing relationship between t 0 and dp l or dp y . reg is the same as that for the xa reg instruction. xadr i8 exchange ac with 1100 1000 2 2 (ac) ? [m (i8)] exchange the contents of ac m direct i 7 i 6 i 5 i 4 i 3 i 2 i 1 i 0 and m (i8). leai i8 load e & ac with 1100 0110 22 e ? i 7 i 6 i 5 i 4 load the immediate data i8 immediate data i 7 i 6 i 5 i 4 i 3 i 2 i 1 i 0 ac ? i 3 i 2 i 1 i 0 into e, ac. load into e, ac the rom data rtbl read table data from 0101 1010 1 2 e, ac ? at the location determined by program rom [rom (pch, e, ac)] replacing the lower 8 bits of the pc with e, ac. output from ports 4 and 5 the read table data from port 4, 5 ? rom data at the location rtblp program rom then 0101 1000 1 2 [rom (pch, e, ac)] determined by replacing the output to p4, 5 lower 8 bits of the pc with e, ac. [data pointer manipulation instructions] load dp h with zero ldz i4 and dp l with 0110 i 3 i 2 i 1 i 0 11 dp h ? 0 load zero into dp h and the immediate data dpl ? i 3 i 2 i 1 i 0 immediate data i4 into dp l . respectively lhi i4 load dp h with 1100 1111 22dp h ? i 3 i 2 i 1 i 0 load the immediate data i4 immediate data 0000 i 3 i 2 i 1 i 0 into dp h . lli i4 load dp l with 1100 1111 22dp l ? i 3 i 2 i 1 i 0 load the immediate data i4 immediate data 0001 i 3 i 2 i 1 i 0 into dp l . lhli i8 load dp h , dp l with 1100 0000 22 dp h ? i 7 i 6 i 5 i 4 load the immediate data into immediate data i 7 i 6 i 5 i 4 i 3 i 2 i 1 i 0 dp l ? i 3 i 2 i 1 i 0 dl h , dp l . lxyi i8 load dp x , dp y with 1100 0000 22 dp x ? i 7 i 6 i 5 i 4 load the immediate data into immediate data i 7 i 6 i 5 i 4 i 3 i 2 i 1 i 0 dp y ? i 3 i 2 i 1 i 0 dl x , dp y . number of bytes number of cycles reg t 0 hl 0 xy 1
continued from preceding page. no. 5489-24/28 lc66p5316 continued on next page. instruction code affected mnemonic operation description status note d 7 d 6 d 5 d 4 d 3 d 2 d 1 d 0 bits [data pointer manipulation instructions] il increment dp l 0001 0001 1 1 dp l ? (dp l ) + 1 increment the contents zf of dp l . dl decrement dp l 0010 0001 1 1 dp l ? (dp l ) ?1 decrement the contents zf of dp l . iy increment dp y 0001 0011 1 1 dp y ? (dp y ) + 1 increment the contents zf of dp y . dy decrement dp y 0010 0011 1 1 dp y ? (dp y ) ?1 decrement the contents zf of dp y . tah transfer ac to dp h 1100 1111 22dp h ? (ac) transfer the contents of ac 1111 0000 to dp h . tha transfer dp h to ac 1100 1111 2 2 ac ? (dp h ) transfer the contents of dp h zf 1110 0000 to ac. xah exchange ac 0100 0000 1 1 (ac) ? (dp h ) exchange the contents of ac with dp h and dp h . tal transfer ac to dp l 1100 1111 22dp l ? (ac) transfer the contents of ac 1111 0001 to dp l . tla transfer dp l to ac 1100 1111 2 2 ac ? (dp l ) transfer the contents of dp l zf 1110 0001 to ac. xal exchange ac 0100 0001 1 1 (ac) ? (dp l ) exchange the contents of ac with dp l and dp l . tax transfer ac to dp x 1100 1111 22dp x ? (ac) transfer the contents of ac 1111 0010 to dp x . txa transfer dp x to ac 1100 1111 2 2 ac ? (dp x ) transfer the contents of dp x zf 1110 0010 to ac. xax exchange ac 0100 0010 1 1 (ac) ? (dp x ) exchange the contents of ac with dp x and dp x . tay transfer ac to dp y 1100 1111 22dp y ? (ac) transfer the contents of ac 1111 0011 to dp y . tya transfer dp y to ac 1100 1111 2 2 ac ? (dp y ) transfer the contents of dp y zf 1110 0011 to ac. xay exchange ac 0100 0011 1 1 (ac) ? (dp y ) exchange the contents of ac with dp y and dp y . [flag manipulation instructions] sfb n4 set flag bit 0111 n 3 n 2 n 1 n 0 1 1 fn ? 1 set the flag specified by n4 to 1. rfb n4 reset flag bit 0011 n 3 n 2 n 1 n 0 1 1 fn ? 0 reset the flag specified zf by n4 to 0. [jump and subroutine instructions] pc13, 12 ? this becomes jmp jump in the current 1110p 11 p 10 p 9 p 8 pc13, 12 jump to the location in the pc12 + (pc12) addr bank p 7 p 6 p 5 p 4 p 3 p 2 p 1 p 0 22 pc11 to 0 ? same bank specified by the immediately p 11 to p 8 immediate data p12. following a bank instruction. jump to the address pc13 to 8 ? jump to the location jpea stored at e and ac 0010 0111 1 1 pc13 to 8, determined by replacing the in the current page pc7 to 4 ? (e), lower 8 bits of the pc pc3 to 0 ? (ac) by e, ac. pc13 to 11 ? 0, pc10 to 0 ? cal call subroutine 0101 0p 10 p 9 p 8 22 p 10 to p 0 , call a subroutine. addr p 7 p 6 p 5 p 4 p 3 p 2 p 1 p 0 m4 (sp) ? (cf, zf, pc13 to 0), sp ? (sp)-4 pc13 to 6, pc10 ? 0, czp call subroutine in the 1010 p 3 p 2 p 1 p 0 12 pc5 to 2 ? p 3 to p 0 , call a subroutine on page 0 addr zero page m4 (sp) ? in bank 0. (cf, zf, pc12 to 0), sp ? sp-4 bank change bank 0001 1011 1 1 change the memory bank and register bank. number of bytes number of cycles
continued from preceding page. no. 5489-25/28 lc66p5316 instruction code affected mnemonic operation description status note d 7 d 6 d 5 d 4 d 3 d 2 d 1 d 0 bits [jump and subroutine instructions] store the contents of reg in m2 (sp). subtract 2 from sp after the store. push push reg on m2 (sp) 1100 1111 22 m2 (sp) ? (reg) reg 1111 1i 1 i 0 0 sp ? (sp) ?2 add 2 to sp and then load the pop 1100 1111 sp ? (sp) + 2 contents of m2(sp) into reg. reg pop reg off m2 (sp) 1110 1i 1 i 0 0 22 reg ? [m2 (sp)] the relation between i1i0 and reg is the same as that for the push reg instruction. return from sp ? (sp) + 4 return from a subroutine or rt subroutine 0001 1100 1 2 pc ? [m4 (sp)] interrupt handling routine. zf and cf are not restored. return from interrupt sp ? (sp) + 4 return from a subroutine or rti routine 0001 1101 1 2 pc ? [m4 (sp)] interrupt handling routine. zf zf, cf cf, zf ? [m4 (sp)] and cf are restored. [branch instructions] pc7 to 0 ? branch to the location in the bat2 branch on ac bit 1101 00t 1 t 0 22 p 7 p 6 p 5 p 4 same page specified by p 7 to addr p 7 p 6 p 5 p 4 p 3 p 2 p 1 p 0 p 3 p 2 p 1 p 0 p 0 if the bit in ac specified by if (ac, t2) = 1 the immediate data t 1 t 0 is one. pc7 to 0 ? branch to the location in the bnat2 branch on no ac bit 1001 00t 1 t 0 22 p 7 p 6 p 5 p 4 same page specified by p 7 to addr p 7 p 6 p 5 p 4 p 3 p 2 p 1 p 0 p 3 p 2 p 1 p 0 p 0 if the bit in ac specified by if (ac, t2) = 0 the immediate data t 1 t 0 is zero. pc7 to 0 ? branch to the location in the bmt2 1101 01t 1 t 0 p 7 p 6 p 5 p 4 same page specified by p 7 to addr branch on m bit p 7 p 6 p 5 p 4 p 3 p 2 p 1 p 0 22 p 3 p 2 p 1 p 0 p 0 if the bit in m (hl) specified if [m (hl),t2] by the immediate data t 1 t 0 = 1 is one. pc7 to 0 ? branch to the location in the bnmt2 1001 01t 1 t 0 p 7 p 6 p 5 p 4 same page specified by p 7 to addr branch on no m bit p 7 p 6 p 5 p 4 p 3 p 2 p 1 p 0 22 p 3 p 2 p 1 p 0 p 0 if the bit in m (hl) specified if [m (hl),t2] by the immediate data t 1 t 0 = 0 is zero. internal control registers can also be tested by pc7 to 0 ? branch to the location in the executing this p 7 p 6 p 5 p 4 same page specified by p 7 to instruction bpt2 branch on port bit 1101 10t 1 t 0 22 p 3 p 2 p 1 p 0 p 0 if the bit in port (dp l ) immediately after addr p 7 p 6 p 5 p 4 p 3 p 2 p 1 p 0 if [p (dp l ), t2] specified by the immediate a bank = 1 data t 1 t 0 is one. instruction. however, this is limited to registers that can be read out. internal control registers can also be tested by pc7 to 0 ? branch to the location in the executing this p 7 p 6 p 5 p 4 same page specified by p 7 to instruction bnpt2 branch on no port bit 1001 10t 1 t 0 22 p 3 p 2 p 1 p 0 p 0 if the bit in port (dp l ) immediately after addr p 7 p 6 p 5 p 4 p 3 p 2 p 1 p 0 if [p (dp l ), t2] specified by the immediate a bank = 0 data t 1 t 0 is zero. instruction. however, this is limited to registers that can be read out. number of bytes number of cycles continued on next page. reg i 1 i 0 hl 0 0 xy 0 1 ae 1 0 illegal value 1 1
continued from preceding page. no. 5489-26/28 lc66p5316 continued on next page. instruction code affected mnemonic operation description status note d 7 d 6 d 5 d 4 d 3 d 2 d 1 d 0 bits [branch instructions] pc7 to 0 ? branch to the location in the bc addr branch on cf 1101 1100 22 p 7 p 6 p 5 p 4 same page specified by p 7 to p 7 p 6 p 5 p 4 p 3 p 2 p 1 p 0 p 3 p 2 p 1 p 0 p 0 if cf is one. if (cf) = 1 pc7 to 0 ? branch to the location in the bnc branch on no cf 1001 1100 22 p 7 p 6 p 5 p 4 same page specified by p 7 to addr p 7 p 6 p 5 p 4 p 3 p 2 p 1 p 0 p 3 p 2 p 1 p 0 p 0 if cf is zero. if (cf) = 0 pc7 to 0 ? branch to the location in the bz addr branch on zf 1101 1101 22 p 7 p 6 p 5 p 4 same page specified by p 7 to p 7 p 6 p 5 p 4 p 3 p 2 p 1 p 0 p 3 p 2 p 1 p 0 p 0 if zf is one. if (zf) = 1 pc7 to 0 ? branch to the location in the bnz branch on no zf 1001 1101 22 p 7 p 6 p 5 p 4 same page specified by p 7 to addr p 7 p 6 p 5 p 4 p 3 p 2 p 1 p 0 p 3 p 2 p 1 p 0 p 0 if zf is zero. if (zf) = 0 pc7 to 0 ? branch to the location in the bfn4 1111 n 3 n 2 n 1 n 0 p 7 p 6 p 5 p 4 same page specified by p 0 to addr branch on flag bit p 7 p 6 p 5 p 4 p 3 p 2 p 1 p 0 22 p 3 p 2 p 1 p 0 p 7 if the flag (of the 16 user if (fn) = 1 flags) specified by n 3 n 2 n 1 n 0 is one. pc7 to 0 ? branch to the location in the bnfn4 1011 n 3 n 2 n 1 n 0 p 7 p 6 p 5 p 4 same page specified by p 0 to addr branch on no flag bit p 7 p 6 p 5 p 4 p 3 p 2 p 1 p 0 22 p 3 p 2 p 1 p 0 p 7 if the flag (of the 16 user if (fn) = 0 flags) specified by n 3 n 2 n 1 n 0 is zero. [i/o instructions] ip0 input port 0 to ac 0010 0000 1 1 ac ? (p0) input the contents of port zf 0 to ac. ip input port to ac 0010 0110 1 1 ac ? [p (dp l )] input the contents of port zf p (dp l ) to ac. ipm input port to m 0001 1001 1 1 m (hl) ? [p (dp l )] input the contents of port p (dp l ) to m (hl). ipdr i4 input port to 1100 1111 2 2 ac ? [p (i4)] input the contents of zf ac direct 0110 i 3 i 2 i 1 i 0 p (i4) to ac. input port 4, 5 to 1100 1111 e ? [p (4)] input the contents of ports ip45 e, ac respectively 1101 0100 22 ac ? [p (5)] p (4) and p (5) to e and ac respectively. op output ac to port 0010 0101 1 1 p (dp l ) ? (ac) output the contents of ac to port p (dp l ). opm output m to port 0001 1010 1 1 p (dp l ) ? [m (hl)] output the contents of m (hl) to port p (dp l ). opdr i4 output ac to 1100 1111 2 2 p (i4) ? (ac) output the contents of ac port direct 0111 i 3 i 2 i 1 i 0 to p (i4). output e, ac to port 1100 1111 p (4) ? (e) output the contents of e and op45 4, 5 respectively 1101 0101 22 p (5) ? (ac) ac to ports p (4) and p (5) respectively. set to one the bit in port spb t2 set port bit 0000 10t 1 t 0 1 1 [p (dp l ), t2] ? 1 p (dp l ) specified by the immediate data t 1 t 0 . clear to zero the bit in port rpb t2 reset port bit 0010 10t 1 t 0 1 1 [p (dp l ), t2] ? 0 p (dp l ) specified by the zf immediate data t 1 t 0 . and port with p (p 3 to p 0 ) ? take the logical and of p (p 3 andpdr immediate data then 1100 0101 2 2 [p (p 3 to p 0 )] to p 0 ) and the immediate data zf i4, p4 output i 3 i 2 i 1 i 0 p 3 p 2 p 1 p 0 i 3 to i 0 i 3 i 2 i 1 i 0 and output the result to p (p 3 to p 0 ). or port with p (p 3 to p 0 ) ? take the logical or of p (p 3 orpdr immediate data then 1100 0100 2 2 [p (p 3 to p 0 )] to p 0 ) and the immediate data zf i4, p4 output i 3 i 2 i 1 i 0 p 3 p 2 p 1 p 0 i 3 to i 0 i 3 i 2 i 1 i 0 and output the result to p (p 3 to p 0 ). number of bytes number of cycles
continued from preceding page. no. 5489-27/28 lc66p5316 instruction code affected mnemonic operation description status note d 7 d 6 d 5 d 4 d 3 d 2 d 1 d 0 bits [timer control instructions] timer0 ? [m2 (hl)], write the contents of m2 (hl), wttm0 write timer 0 1100 1010 1 2 (ac) ac into the timer 0 reload register. 1100 1111 write the contents of e, ac wttm1 write timer 1 1111 0100 2 2 timer1 ? (e), (ac) into the timer 1 reload register a. m2 (hl), read out the contents of the rtim0 read timer 0 1100 1011 1 2 ac ? (timer0) timer 0 counter into m2 (hl), ac. rtim1 read timer 1 1100 1111 2 2 e, ac ? (timer1) read out the contents of the 1111 0101 timer 1 counter into e, ac. start0 start timer 0 1100 1111 2 2 start timer 0 counter start the timer 0 counter. 1110 0110 start1 start timer 1 1100 1111 2 2 start timer 1 counter start the timer 1 counter. 1110 0111 stop0 stop timer 0 1100 1111 2 2 stop timer 0 counter stop the timer 0 counter. 1111 0110 stop1 stop timer 1 1100 1111 2 2 stop timer 1 counter stop the timer 1 counter. 1111 0111 [interrupt control instructions] mset set interrupt master 1100 1101 2 2 mse ? 1 set the interrupt master enable flag 0101 0000 enable flag to one. mreset reset interrupt 1100 1101 2 2 mse ? 0 clear the interrupt master master enable flag 1001 0000 enable flag to zero. eih i4 enable interrupt high 1100 1101 2 2 edih ? (edih) i4 set the interrupt enable flag 0101 i 3 i 2 i 1 i 0 to one. eil i4 enable interrupt low 1100 1101 2 2 edil ? (edil) i4 set the interrupt enable flag 0100 i 3 i 2 i 1 i 0 to one. dih i4 disable interrupt high 1100 1101 2 2 edih ? (edih) i4 clear the interrupt enable zf 1001 i 3 i 2 i 1 i 0 flag to zero. dil i4 disable interrupt low 1100 1101 2 2 edil ? (edil) i4 clear the interrupt enable zf 1000 i 3 i 2 i 1 i 0 flag to zero. wtsp write sp 1100 1111 2 2 sp ? (e), (ac) transfer the contents of e, 1101 1010 ac to sp. rsp read sp 1100 1111 2 2 e, ac ? (sp) transfer the contents of sp 1101 1011 to e, ac. [standby control instructions] halt halt 1100 1111 2 2 halt enter halt mode. 1101 1110 hold hold 1100 1111 2 2 hold enter hold mode. 1101 1111 [serial i/o control instructions] starts start serial i o 1100 1111 2 2 start si o start sio operation. 1110 1110 wtsio write serial i o 1100 1111 2 2 sio ? (e), (ac) write the contents of e, 1110 1111 ac to sio. rsio read serial i o 1100 1111 2 2 e, ac ? (sio) read out the contents of sio 1111 1111 into e, ac. [other instructions] consume one machine cycle nop no operation 0000 0000 1 1 no operation without performing any operation. sb i2 select bank 1100 1111 2 2 pc13, pc12 ? i 1 i 0 specify the memory bank. 1100 00i 1 i 0 number of bytes number of cycles
no. 5489-28/28 lc66p5316 this catalog provides information as of february, 1997. specifications and information herein are subject to change without notice. n no products described or contained herein are intended for use in surgical implants, life-support systems, aerospace equipment, nuclear power control systems, vehicles, disaster/crime-prevention equipment and the like, the failure of which may directly or indirectly cause injury, death or property loss. n anyone purchasing any products described or contained herein for an above-mentioned use shall: accept full responsibility and indemnify and defend sanyo electric co., ltd., its affiliates, subsidiaries and distributors and all their officers and employees, jointly and severally, against any and all claims and litigation and all damages, cost and expenses associated with such use: not impose any responsibility for any fault or negligence which may be cited in any such claim or litigation on sanyo electric co., ltd., its affiliates, subsidiaries and distributors or any of their officers and employees jointly or severally. n information (including circuit diagrams and circuit parameters) herein is for example only; it is not guaranteed for volume production. sanyo believes information herein is accurate and reliable, but no guarantees are made or implied regarding its use or any infringements of intellectual property rights or other rights of third parties.

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