The LC86E6560 is a CMOS 8-bit single chip microcontroller with UVERPOM for the LC866500 series. This
microcontroller has the function and the pin description of the LC866500 series mask ROM version, and 60K-byte EPROM.
The program data is rewritable. It is suitable to develop the program.
(4) Operating supply voltage : 4.5V to 6.0V
(5) Instruction cycle time : 1.0µs to 366µs
(6) Operating temperature : +10°C to +40°C
(7) The pin compatible with the LC866500 series mask ROM devices
(8) Applicable mask ROM version : LC866560/LC866556
(9) Factory shipment : QFC100S (with window)
The option function of the LC866500 series can be specified by the EPROM data.
LC86E6560 can be checked the functions of the trial pieces using the mass production board.
Used EPROM or RAM capacity are equal ROM or RAM capacity of mask ROM version which applies LC86E6560.
LC86E6560 is provided for the first release and small shipping of the LC866500 series.
At using, take notice of the followings.
(1) A point of difference LC86E6560 and LC866500 series.
Item LC86E6560 LC866560/56
Operation after reset
releasing
Pull-down resistor of the
following pins
•
S0/T0 - S6/T6
S7/T7 - S15/T15
•
•
S16 -S31
S32 - S47
•
•
S48 -S51
Operating temperature
range (Topg)
Power dissipa tion Refer to ‘electrical ch aracteristics’ on the semiconductor news.
The option is specified until 3ms
after going to a ‘H’ level to the
reset terminal by degrees.
The program is executed from
00H of the program counter.
Pull-down resistor
provided/not provided
Not provided
Provided (fixed)
Provided (fixed)
Not provided
Not provided
10°C to 40°C -30°C to 70°C
LC86E6560 uses 256 bytes that is a ddressed on FF00 H to FFFFH in the p rogram memory as the option configuratio n
data area. This option configuration cannot execute all options which LC866500 series have. Next tables show the
options that correspond and not correspond to LC86E6560.
• A kind of the option corresponding of the LC86E6560
A kind of option Pins, Circuits Contents of the option
Input/output form of
input/output ports
Port 0
Port 1
Port 3
1. N-channel open drain output
2. CMOS output *1
1. Pull-up MOS Tr. provide d
2. Pull-up MOS Tr. not provided *2
1. Input
*1
Output
2. Input
Output
1. Input
*1
Output
2. Input
Output
*1) Specified in a bit
*2) Specified in nibble unit. The port of N-channel open drain output does not have the Pull-up MOS Tr..
• A kind of the option not corresponding of the LC86E6560
A kind of option Pins, Circuits LC86E6560 LC866560/56
Pull-down resistor of the
high voltage withstand
output terminals
S0/T0 to S6/T6
•
•
S16 to S31
S32 to S47
•
Not provided
Provided (fixed)
Not provided
(2) Option
The option data is created by the option specified program “SU86K.EXE”. The created option data is linked to the
program area by linkage loader “L86K.EXE” .
(3) ROM space
LC86E6560 and LC866500 series use 256 bytes that is addressed on 0FF00H to 0FFFFH in the program memory as the
option specified data area. These program memory capacity are 61440 bytes that is addressed on 0000H to EFFFH.
The program is executed from
00H of the program counter
immediately after going to a ‘H’
level to the reset terminal.
Pull-down resistor
provided/not provided
Specified by the op tion
Provided (fixed)
Specified by the opt ion
Specified by the opt ion
Not provided
: Programmable pull-up MOS Tr.
: N-channel open drain
: Programmable pull-up MOS Tr.
:CMOS
: Programmable pull-up MOS Tr.
: N-channel open drain
: Programmable pull-up MOS Tr.
:CMOS
Specified by the opt ion
Specified by the opt ion
Specified by the opt ion
A complete evaluation (EVA) file must be converted to an INTEL-HEX formatted (HEX) file for program to the
LC86E6560.
An EVA2HEX.EXE. can convert a EVA file to a HEX file.
Program the file that converted by the EVA2HEX to the LC86E6560.
(2) How to program for the EPROM
LC86E6560 can be programmed by the EPROM programmer with attachment ; W86EP6548Q.
• ”27512 (Vpp=12.5V) Intel high speed programming” mode available. The address must be set to “0 to 0FFFFH” and a
jumper (DASEC) must be set to ‘OFF’ at programming.
(3) How to use the data security function
“Data security” is the disabled function to read the data of the EPROM.
The following is the process in order to execute the data security.
1. Set ‘ON’ the jumper of attachment.
2. Program again. Then EPROM programmer displays the error. The error means normally activity of the data security.
It is not a trouble of the EPROM programmer or the LSI.
Notes
• Data security is not executed when the data of all address have ‘FFH’ at the sequence 2 above.
• The programming by a sequential operation “BLANK⇒PROGRAM⇒VERIFY” cannot be executed data security at
the sequence 2 above.
• Set to ‘OFF’ the jumper after executing the data security.
Data security
1 pin mark of LSI
1 pin
Not data security
W86EP6548Q
(4) How to eliminate
The programming data can be erased by using the EPROM eraser.
(5) Shielding
The UVEPROM (ultraviolet erasable programmable ROM) is in it. Put the seal on the window in use.
•Output form :
CMOS/N-channel
open drain (each bit)
Output form :
CMOS/N-channel open
drain (each bit)
Output form :
CMOS/N-channel open
drain (each bit)
-
enable
enable
disable
disable
03H
0BH
13H
1BH
- -
- -
- TA (*5)
EPROM
mode
-
Data line
D0 to D7
-
EPROM
control
signal
DASEC(*1)
OE
(*2)
CE
(*3)
(Continue)
No.6750-7/21
LC86E6560
Pin Name I/O Function description Option
S16 to S31
S32 to S47
S48 to S51
RES
P74
XT1/
XT2/P75 O •Output pin for 32.768kHz crystal oscillation
CF1 I Input pin for ceramic resonator oscillation - CF2 O Output pin for ceramic resonator oscillation - -
I/O •Output for VFD display controller segment
*8
*9
*9
•Other function
S16 : High voltage input port PC0
S17 : High voltage input port PC1
S18 : High voltage input port PC2
S19 : High voltage input port PC3
S20 : High voltage input port PC4
S21 : High voltage input port PC5
S22 : High voltage input port PC6
S23 : High voltage input port PC7
S24 : High voltage input port PD0
S25 : High voltage input port PD1
S26 : High voltage input port PD2
S27 : High voltage input port PD3
S28 : High voltage input port PD4
S29 : High voltage input port PD5
S30 : High voltage input port PD6
S31 : High voltage input port PD7
I/O •Output for VFD display controller segment
•Other function
S32 : High voltage input port PE0
S33 : High voltage input port PE1
S34 : High voltage input port PE2
S35 : High voltage input port PE3
S36 : High voltage input port PE4
S37 : High voltage input port PE5
S38 : High voltage input port PE6
S39 : High voltage input port PE7
S40 : High voltage input/output port PF0
S41 : High voltage input/output port PF1
S42 : High voltage input/output port PF2
S43 : High voltage input/output port PF3
S44 : High voltage input/output port PF4
S45 : High voltage input/output port PF5
S46 : High voltage input/output port PF6
S47 : High voltage input/output port PF7
I/O •Output for VFD display controller segment
•Other function
S48 : High voltage input/output port PG0
S49 : High voltage input/output port PG1
S50 : High voltage input/output port PG2
S51 : High voltage input/output port PG3
I Reset pin - I •Input pin for 32.768kHz crystal oscillation
•Other function
XT1 : Input port
In case of non use, connect to VDD1.
•Other function
XT2 : Input port P75
In case of non use, connect to VDD1 at using as
port or unconnect at using as oscillation.
P74
- Address input
- -
- -
- -
- -
EPROM
mode
A15 to A0
* All of port options (except pull-up resistor of port 0) can be specified in bit unit.
(Continue)
No.6750-8/21
LC86E6560
*1 Memory select input for data security
*2 Output enable input
*3 Chip enable input
*4 Connect like the following figure to reduce noise into a VDD1 terminal. Shorted the VSS1 terminal to the VSS2 terminal
and to make the back-up time long.
*5 TA!EPROM cont rol signal input
*6 S0/T0 to S6/T6 : not provided the pull-down resistor
*7 S7/T7 to S15/T155 : provided the pull-down resistor (fixed)
*8 S16 to S3 1 : provided the pull-down resistor (fixed)
*9 S32 to S51 : not provided the pull-down resistor
Power
Supply
Back-up capacitor
LSI
VDD1
VDD2
VDD3
VDD4
VFD
powers
VSS1 VSS2
No.6750-9/21
LC86E6560
1. Absolute Maximum Ratings at VSS1=VSS2=0V and Ta=25°C
Parameter Symbol Pins Conditions
Supply voltage VDDMAX VDD1, VDD2
VDD3, VDD4
Input voltage
VI(1) •Ports
P74
•Ports 80, 81,
82, 83
•Port 8
RES
•
VI(2) VP
Output voltage VO S0/T0 to
S15/T15
Input/output
voltage
VIO(1) •Port 1
•Ports 70, 71,
72, 73
•Ports 84, 85,
86, 87
•Ports 0, 3 at
CMOS output
option
VIO(2) Ports 0, 3 at
N-ch open
drain output
option
VIO(3) S16 to S51
High
level
output
current
Peak
output
current
IOPH(1) Ports 0, 1, 3 •CMOS output
IOPH(2) S0/T0 to
S15/T15
IOPH(3) S16 to S51 At each pi n. -15
∑
Total
output
current
IOAH(1) Port 0 The total all pins. -30
∑
IOAH(2) Ports 1, 3 The total all pins. -30
∑
IOAH(3) S0/T0 to
S15/T15
∑
IOAH(4) S16 to S27 The total all pins. -60
∑
IOAH(5) S28 to S39 The total all pins. -60
∑
IOAH(6) S40 to S51 The total all pins. -60
Low
level
output
current
output
current
IOPL(1) Ports 0, 1, 3 At each pin. 20 Peak
IOPL(2) •Ports 70, 71,
72, 73
•Ports 84, 85,
86, 87
∑
Total
output
current
IOAL(1) Port 0 The total all pins. 60
∑
IOAL(2) Ports 1, 3, 70 The total all pins. 50
∑
IOAL(3) •Ports 71, 72,
73
•Ports 84, 85,
86, 87
Maximum power
Pdmax QFC100S
dissipation
Operating
Topr +10 +40
temperature
range
Storage
Tstg -55 +125
temperature
range
VDD1=VDD2
=VDD3=VDD4
, 75
-0.3
-0.3
-0.3 15
•For each pin.
At each pin. -30
The total all pins. -55
At each pin. 15
The total all pins. 20
Ta=+10 to +40°C
Ratings
VDD[V]
min. typ. max.
-0.3 7.0
VDD+0.3
VDD-4.5
VDD-4.5
VDD-4.5
VDD+0.3
VDD+0.3
VDD+0.3
VDD+0.3
-10
unit
V
mA
500 mW
C
°
C
°
No.6750-10/21
LC86E6560
2. Recommended Operating Range at Ta=+10°C to +40°C, VSS1=VSS2=0V
Parameter Symbol Pins Conditions
Operating
supply voltage
VDD(1) VDD1=VDD2=
VDD3=VDD4
0.98µs≤t
≤
CYC
400µs
range
Hold voltage VHD VDD1=VDD2 RAMs and
registers hold
voltage at HOLD
mode.
Pull-down
VP VP 4.5 - 6.0 -35 VDD
voltage
Input high
voltage
•VIN=13.5V
(incl uding the off leak current of the
output Tr.)
•Output disable
•Pull-up MOS Tr.
OFF.
•VIN=VDD
(incl uding the off leak current of the
output Tr.)
•Output disable
•VIN=VDD
(incl uding the off leak current of the
output Tr.)
•Output P-channel
Tr. OFF
•VIN=VDD
•Output disable
•Pull-up MOS
Tr. OFF
•VIN=VSS
(incl uding the off leak current of the
output Tr.)
•Output disable
•VIN=VSS
(incl uding the off leak current of the
output Tr.)
IOH=-0.1mA 4.5 - 6.0
•IOH=-1mA
•The current of any
unmeasurement
pin is not over
1 mA.
The current of any
unmeasurement pin
is not over 1mA.
IOL=1.6mA 4.5 - 6.0 0.4
IOL=1.6mA 4.5 - 6.0 0.4
VDD[V] min. typ. max.
4.5 - 6.0 5
4.5 - 6.0 1
4.5 - 6.0 1
4.5 - 6.0 1
4.5 - 6.0 -1
4.5 - 6.0 -1
4.5 - 6.0 VDD-1
4.5 - 6.0 VDD-1
(Continue)
Ratings
VDD-0.5
VDD-1.8
VDD-1.8
unit
µ
V
V
A
No.6750-13/21
LC86E6560
Y
Y
Parameter Symbol Pins Conditions
IOFF(1) •Output P-ch Tr.
leakage
current
IOFF(2)
S0/T0 to S6/T6,
S32 to S51
without pull-down
resistor
OFF
•VOUT=VSS
•Output P-ch Tr.
OFF
•VOUT=VDD-40V
Resistance of
the low level
hold Tr.
Rinpd S16 to S51 •Output P-ch Tr.
OFF
•Using as input
ports
High voltage
pull-down
resistor
Rpd •S7/T7 to
S15/T15
•S16 to S31
•Output P-ch Tr.
OFF
•VOUT=3V
•Vp=-30V
VP pull-down
resistor
Hysteresis
voltage
Rvppd Vp •VSS=GND
•Vp=-30V
VHIS •Port 1
Output disable 4.5 - 6.0 0.1VDD V
•Ports 70, 71, 72,
73, 75
•
RES
Pin
capacitance
CP All pins •f=1MHz
Unmeasurement
terminals for input
are set to VSS
level.
•Ta=25°C
Ratings
VDD[V] min. typ. max.
4.5 - 6.0 -1 Output off-
unit
µ
4.5 - 6.0 -30
4.5 - 6.0 200
kΩ
5.0 60 100 200
5.0 60 100 200
4.5 - 6.0 10 pF
A
4. Serial Input/Output Characteristics at Ta=+10°C to +40°C, VSS1=VSS2=0V
Parameter Symbol Pins Conditions
Cycle t
Low Level
CKCY
CKL
t
•SCK0
(1) 2
•SCK1
(1) 1
Refer to figure 5. 4.5 - 6.0
pulse width
High Level
Input clock
pulse width
Cycle t
Serial clock
Low Level
pulse width
High Level
Output clock
pulse width
Data set up ti me
Data hold time
Serial input
CKH
t
(1)
CKCY
CKL
t
•SCK0
(2) 2
•SCK1
(2)
•Use pull-up
resistor (1kΩ)
when open drain
CKH
t
(2)
output.
•Refer to figure 5.
ICK
t
•SI0, SI1
0.1
•SB0, SB1
•Data set-up to
SCK0, 1.
•Data hold from
CKI
t
SCK0, 1.
•Refer to figure 5.
Output delay time
(Serial clock is
external clock)
Output delay time
(Serial clock is
Serial output
internal clock)
CKO(1)
t
CKO(2)
t
•SO0, SO1
4.5 - 6.0
•SB0, SB1
•Use pull-up
resistor (1kΩ)
when open drain
output.
•Data hold from
SCK0, 1.
•Refer to figure 5.
Ratings
VDD[V] min. typ. max.
1
4.5 - 6.0
1/2tCKC
1/2tCKC
4.5 - 6.0
0.1
7/12tCYC
+0.2
4.5 - 6.0
1/3tCYC
+0.2
unit
CYC
t
µ
s
No.6750-14/21
LC86E6560
5. Pulse Input Conditions at Ta=+10°C to +40°C, VSS1=VSS2=0V
Parameter Symbol Pins Conditions
pulse width
tPIH(1)
tPIL(1)
tPIH(2)
tPIL(2)
•INT0, INT1
•INT2/T0IN
INT3/T0IN
(The noise
•Interrupt accept able
•Timer0-countable
•Interrupt accept able
•Timer0-countable
rejection clock is
selected to 1/1.)
tPIH(3)
tPIL(3)
INT3/T0IN
(The noise
•Interrupt accept able
•Timer0-countable
rejection clock is
selected to 1/16.)
tPIH(4)
tPIL(4)
INT3/T0IN
(The noise
•Interrupt accept able
•Timer0-countable
rejection clock is
selected to 1/64.)
RES
tPIL(5)
Reset acceptable 4.5 - 6.0 200
Ratings
VDD[V] min. typ. max.
4.5 - 6.0 1
4.5 - 6.0 2
4.5 - 6.0 32
4.5 - 6.0 128
unit
CYC
t
µ
High/low level
s
6. AD Converter Characteristics at Ta=+10°C to +40°C, VSS1=VSS2=0V
Parameter Symbol Pins Conditions
Resolution N 4.5 - 6.0 8 bit
Absolute
ET 4.5 - 6.0 ±1.5 LSB
precision
(Note 2)
Conversion
time
tCAD
AD conversion time
=16×tCYC
(ADCR2=0)
(Note 3)
AD conversion time
=32×tCYC
(ADCR2=1)
(Note 3)
Analog input
VAIN 4.5 - 6.0 VSS VDD V
AN0 - AN7
voltage range
IAINH VAIN=VDD 4.5 - 6.0 1 Analog port
input current
IAINL
VAIN=VSS 4.5 - 6.0 -1
Ratings
VDD[V] min. typ. max.
4.5 - 6.0 15.68
(tCYC=
µ
0.98
4.5 - 6.0 31.36
(tCYC=
µ
0.98
65.28
s)
130.56
s)
(tCYC=
4.08
(tCYC=
4.08
unit
µ
s
µ
s)
µ
s)
µ
A
(Note 2) Absolute precision does not include quantizing error (±1/2LSB).
(Note 3) The conversion time means the time from executing the AD conversion instruction to setting the complete digital
conversion value to the register.
No.6750-15/21
LC86E6560
7. Current Dissipation Characteristics at Ta=+10°C to +40°C, VSS1=VSS2=0V
Parameter Symbol Pins Conditions
Current dissipation
during basic
operation
(Note 4)
IDDOP(1) •FmCF=6MHz
Ceramic resonator
oscillation
•Internal RC
oscillation stops
•FmX’tal=32.768kHz
X’tal oscillation
•System clock :
CF oscillation
•1/1 divided
IDDOP(2) •FmCF=3MHz
Ceramic resonator
oscillation
•Internal RC
oscillation stops
•FmX’tal=32.768kHz
X’tal oscillation
•System clock :
CF oscillation
•1/2 divided
IDDOP(3) •FmCF=0Hz
(When oscillation
stops.)
•FmX’tal=32.768kHz
X’tal oscillation
•System clock :
RC oscillation
•1/2 divided
IDDOP(4) •FmCF=0Hz
(When oscillation
stops.)
•FmX’tal=32.768kHz
X’tal oscillation
•System clock :
X’tal oscillation
•Internal RC
oscillation stops.
•1/2 divided
Ratings
VDD[V] min. typ. max.
4.5 - 6.0 14 33
4.5 - 6.0 6 18
4.5 - 6.0 4 13
4.5 - 6.0 3 10
(Continue)
unit
mA
No.6750-16/21
LC86E6560
Parameter Symbol Pins Conditions
Current dissipation
in HALT mode
(Note 4)
Current dissipation
in HOLD mode
(Note 4)
IDDHALT(1) •HALT mode
•FmCF=6MHz
Ceramic resonator
oscillation
•Internal RC
oscillation stops
•FmX’tal=32.768kHz
X’tal oscillation
•System clock :
CF oscillation
•1/1 divided
IDDHALT(2) •HALT mode
•FmCF=3MHz
Ceramic resonator
oscillation
•Internal RC
oscillation stops
•FmX’tal=32.768kHz
X’tal oscillation
•System clock :
CF oscillation
•1/2 divided
IDDHALT(3) •HALT mode
•FmCF=0Hz
(When oscillation
stops.)
•FmX’tal=32.768kHz
X’tal oscillation
•System clock :
RC oscillation
•1/2 divided
IDDHALT(4) •HALT mode
•FmCF=0Hz
(When oscillation
stops.)
•FmX’tal=32.768kHz
X’tal oscillation
•System clock :
X’tal oscillation
•Internal RC
oscillation stops.
•1/2 divided
IDDHOLD(1) HOLD mode 4.5 - 6.0 0.05 30 µA
Ratings
VDD[V] min. typ. max.
4.5 - 6.0 5 14 mA
4.5 - 6.0 2.2 7 mA
4.5 - 6.0 400 1600
4.5 - 6.0 25 100
(Note 4) The currents of outp ut tra n sist ors and pull-up MOS transistors are ignored.
* Both C3 and C4 must be a J rank (±5%) and CH characteristics.
(K rank (±10%), SL characteristics parts can be used for the applications which do not require oscillation accuracy.)
(Notes) •Since the circuit pattern affects the oscillation frequency, place the oscillation-related parts as close
to the oscillation pins as possible with the shortest possible pattern length.
•If you use other oscillators herein, we provide no guarantee for the characteristics.