This manual was created as a reference for maintenance of the Thermal Printer TUP400 Series for
personnel who are responsible for periodic inspections or troubleshooting of that equipment. This manual
was written for maintenance personnel, and was not intended to be used by the general operator.
This manual is organized into the following chapters.
Chapter 1 Specifications and Operation
Chapter 2 Theory of Operation
Chapter 3 Parts Replacement and Related Adjustments
Chapter 4 Maintenance and Lubrication
Chapter 5 Parts Lists
V2:Ver.2
Mechanism type
2: 40 columns
Printer type
5: Guilotine Type Full Cutter
8: Guillotine Type Full Cutter + Presenter
TUP400-series thermal printer
7.Changing the Interface Board..........................................................................14
1
1.General Specifications
Printing methodLine thermal direct
Resolution8 dots/mm (H) × 8 dots/mm (V)
Printable width50 mm in Line Mode; 80 mm in Page Mode
Printing speeds2 Inches/sec and 1 Inch/sec
Printable charactersPage mode: ANK, International, Slash zero
Line mode: ANK, International, Special, Block graphics, IBM special,
IBM block graphics, Chinese characters, Slash zero
NOTE: ANK is comprised of ASCII characters and Japanese katakana characters.
Character matrixesPage mode
Small8×16
Standard16×24
Wide24×32
OCR-B16×24
Chinese chara.24×24
Line mode
IBM block graphic 12×24 or 12×32
Chinese chara.24×24 (12×24)
All others12×24
Bar CodesJAN, EAN, UPC, Code39, ITF, Code93, Code128, NW-7
Paper
Recommended brandsTF50KS-E, TF62KS-E (Nippon Paper Industries)
KP50-HEAEX (New Oji Paper Co., Ltd.)
0
Width82.5 mm(3.25 inches)
ThicknessGeneral thermal paper 60 to 85 µm
Roll diametersExternal 203 mm max. (8 Inch), Internal 32 mm (1.26 Inch)
InterfaceRS232C, RS422A, or Parallel
MCBF5,000,000 Lines
Head longevity100 Km or 1.0 x 108 pulses(excludes damaged caused by dirt or foreign objects.)
Cutter longevity300,000 cuts (One piece max. paper thickness: 85 µm.)
Power supplyDC 24 V ±7%
Power consumptionMax. 120 W
Operating environmentTemperature 5°C to 40°C
Storage environmentTemperature -20°C to 60°C
-1
(Missing dots is Max. 5%. However, there will be no missing dots up to 50Km.
This is the point where the thermal body resistor value varies more than 15% of the
initial value when continuously printing up to 12.5% of the printing rate.)
Humidity 25% to 80% (No condensation)
Humidity 10% to 90% (No condensation)
164mm
Approximately 3.1kg
TUP452
254mm
299mm
Fig. 1-1 External Dimensions
– 6 –
254mm
164mm
356mm
Approximately 3.3kg
TUP482
2.External Appearance
Printer head
Cutter
Arm
Fig. 1-2-a Internal Configuration (TUP452)
Presenter
Arm
Printer head
Fig. 1-2-b Internal Configuration (TUP482)
– 7 –
3.DIP-Switch Settings
DIP switches are located on the interface board and they differ according to the type of interface.
(1)Setting the DIP Switches
Fig. 1-3 DIP-Switch Settings
1. Turn the power supply OFF.
2. Remove the screw holding the ROM cover in place. (The screw is located at the base of the paper-roll holder.)
3. Remove the ROM cover to expose the main and interface PCBs
Interface Board (RS-232C)
DIP Switches
VP4 (Black Mark Sensor)
EPROM
VP3 (Paper End Sensor)
Main Logic Board
Fig. 1-4 Main Interface Board
4. Set the DIP-switches on the interface board.
– 8 –
2. DIP-switch values
(1) RS-232C interface
This board has a single 8-bit DIP switch.
* DIP-SW #2 overrides the DIP-SW #1 DC1/3 setting (bit 1-7).
* DIP-SW #2 factory setting: All ON
(3) Parallel (Centronics) interface
The parallel-interface board has no DIP switches.
– 10 –
4.Print-Density Adjustment
Adjust the print density in accordance with the sensitivity of the paper being used.
Variable Resistor
Fig. 1-5 Print-Density Adjustment
1. The variable resistor is located to the left of the interface connector on the back side of the printer.
2. Use a phillips screw driver to rotate the variable resistor to adjust the print density. The variable resistor will
rotate approximately 180°.
Approx. 90
LightDark
Approx. 90
If you are not getting a good print on the thermal paper with the density set to its maximum at 2 Inch/sec print
speed, set the print speed to 1 Inch sec.
CAUTION
Avoid setting density too high for sensitive paper types. Excessive dark values may cause the paper
to swell which will degrade the quality of the image.
– 11 –
5.Sensor Adjustment
You must adjust the paper sensor for the paper quality and the black mark print.
VR3
VR4
EPROM
Main Logic Board
Interface Board
Fig. 1-6 Sensor Adjustment
1)Remove the screw on the underside of the paper-roll holder and remove the ROM cover.
2)Turn ON the power supply while holding down the push switch on the Near-end Sensor Board.
Remove the push-switch within 3 seconds after the "HU" LED on the Near-end Sensor Board lights.
CAUTION
If you continue holding the push switch for more than 3 seconds, the "PE" LED will light and you will not
be able to make any adjustments.
3)Black Mark Sensor
• Insert a piece of paper into the mechanism’s sensor area. Set it anywhere but the book mark area.
• Rotate the variable resistor VR4 on the main logic board until the "HU" LED on the Near-end Board lights.
Paper End Sensor
• Insert a piece of paper into the mechanism’s sensor area. Set it anywhere but the book mark area.
• Rotate the variable resistor VR3 on the main logic board until the "PE" LED on the Near-end Board lights.
4)After the LED lights, press the RESUME switch.
– 12 –
6.HEX Dump Mode/Test Print
You can enter the HEX Dump Mode and run Test Prints by turning ON the power supply while pressing the RESUME
switch. The HEX Dump mode prints the data sent from the host computer in HEX data format.
1)Turn ON the power supply while pressing the RESUME switch.
2)Release the RESUME switch using the following timing to set each mode.
Near-end Sensor Board LED
HU Lights
2 Sec
a
PE Lights
Releasing at a: HEX Dump Mode
b
Releasing at b: Test Print
– 13 –
7.Changing the Interface Board
You can change the printer’s interface by replacing the interface board.
Fig. 1-7 Changing the Interface Board
1. Turn the power supply OFF.
2. Remove the 2 Interface Board Screws.
3. Remove the Interface Board.
4. Insert the new Interface Board by pushing it along the guides.
Push until the connector is completely inserted.
5. Attach the 2 screws to attach the Interface Board to the printer.
(Note)
The printer will automatically recognize the new Interface Board when it has been changed.
– 14 –
CHAPTER 2
THEORY OF OPERATION
This chapter describes the operating principles of the circuitry and printer mechanism.
The following is the block diagram for this printer.
Data (Host Computer)
Interface Board
RS-232C, RS-422A, Parallel
Gate Array
(16)
(8)
EPROM
128 k x 16 Bit (Ver. 1
250 k x 16 Bit (Ver. 2
(16)
Near-end
Sensor Board
PS-RAM
128 x 16 BitPS-RAM
(8)
S-RAM
8K x 8 BitS-RAM
Main Logic Board
EEPROM
)
)
Head Driver
Motor Driver
Cutter Driver
Print Mechanism
Thermal
Head
Paper
Feed
Motor
Cutter
RESUME
Switch
(16)
Chinese Char. ROM
256 k x 16 Bit (Ver. 1
512 k x 16 Bit (Ver. 2
CPU
DC-DC Coverter
Power Supply Unit
)
)
24V
Fig. 2-1 Block Diagram
Sensor Circuit
Presenter
Driver
Sensor
Presenter
– 16 –
(1) Main Logic Board
The interface board relays data from the host computer to the main logic board. The main logic board’s CPU
temporarily stores the data into local RAM.
It then reads out the data, edits it according to the control program stored in the board’s ROM, and prints the results
by issuing the appropriate drive signals to the printer mechanism.
[Block Description]
a. CPU: HD641300F, CMOS single-chip computer
Controls overall printer operation.
b. EPROM
Contains the program and character fonts (other than Chinese characters) for CPU control.
c. PS-RAM: 128 K × 16 bits
Used as the work area and data buffer
d. S-RAM 8 K × 8 bits
Saves format data and externally defined characters.
e. EEPROM: 1024 bits
Stores printer settings. Settings can be changed by software. (Used in place of dip-switches.)
f. Gate array
Executes various types of signal processing.
g. Drivers
The various drivers convert signals received from the CPU and gate array into the drive signals that directly control
the printer mechanism.
h. DC-DC converter
Converts 24V to 5V.
(2) Interface board
Interfaces the main board with the host computer.
There are three versions, each for a different interface type: RS-232C, RS-422A, or Centronics parallel.
(3) Near-end sensor board
a. Checks the amount of paper remaining on the paper roll.
b. Used to adjust the sensor.
c. Displays errors using the LED.
(4) RESUME Switch
a. Used to set paper.
b. Used in HEX Dump output and test prints.
(5) Printer Mechanism
The printer mechanism is composed of the thermal head, paper feed motor, cutter sensors and presenter (only on the
TUP482.)
– 17 –
2.Main Logic Board
2-1.Data I/O Circuitry
The main logic board relays data back and forth to the host computer via the interface board.
2-1-1. RS-232C Interface
CN3CN1
IC1
D2I
D1I
R1O
R2O
R-CH
TXD
RXD
CTS
D2O
D1O
R1I
R2I
HD151232FP
RS-232C Interface BoardMain Logic Board
B12
B14
A15
B15
CN9
B12
B14
A15
B15
IC10
Gate
Array
IC5
CPU
ACKDTR
TXD0
RXD0
RXD1
Fig. 2-2 RS-232C Interface
Data from host to printer passes through the IC1 on the interface board from the RXD terminal and is input to the CPU on
the main logic board.
IC1 converts the RS-232C and TTL voltage levels.
The CPU converts the input serial data to parallel data and stores that data in the memory buffer memory. It also converts
the internal parallel data to serial data and outputs that to the IC1.
The CTS line is hardware-connected, but the connection is not recognized by software. (The printer does not monitor the
signal.)
– 18 –
2-1-2.RS-422A Interface
R2I
R2I
R1I
R1I
D2O
D2O
D1O
D1O
IC1
+
+
–
–
+
+
–
–
MC34051
D2O
D1O
D2EN
D2I
D1EN
D1I
CN3CN1
RD (+)
RD (–)
CS (+)
CS (–)
RS (–)
RS (+)
SD (–)
SD (+)
RS-422A Interface BoardMain Logic Board
CN9IC10
A15
B15
A10
B12
B14
A15
B15
A10
B12
B14
Gate
Array
ERROR
ACK
IC5
CPU
RXD0
TXD0
RXD1
Fig. 2-3 RS-422A Interface
Data flow from host to printer passes from the RD terminal to the IC1 on the interface board and is input to the CPU.
The IC1 converts the RS-422A and TTL voltage levels.
The CPU converts the input serial data to parallel data and stores that data in the memory buffer memory. It also converts
the internal parallel data to serial data and outputs that to the IC1.
– 19 –
2-1-3.Parallel Interface
DATA 1
DATA 2
DARA 3
DATA 4
DATA 5
DARA 6
DATA 7
DATA 8
CN3
A4
B4
A5
B5
A6
B6
A7
B7
CN1
CN9
A4
B4
A5
B5
A6
B6
A7
B7
IC10
IC5
CD0
CD1
CD2
CD3
CD4
CD5
CD6
CD7
STROBE
BUSY
ACK
ERROR
SELECTED
PAPER OUT
A13
A12
B12
A10
A11
B11
A13
A12
B12
A10
A11
B11
CSTB
BUSY
ACK
ERROR
SELECT
POUT
Gate Array
LS05
IC1
Parallel Interface BoardMain Logic Board
Fig. 2-4 Parallel Interface
CPU
The host computer sends eight bits of data for DATA 1 - 8 to the CN3 connector when the BUSY signal is LOW (printer
is ready).
The data passes through the interface board and gate array, then moves into the CPU.
Printer signals from the CPU (ACK, ERROR, SELECTED, PAPER OUT, etc.) pass through the gate array and are output
the appropriate connector pins.
– 20 –
2-2.Editing and Printing
2-2-1.Editing
The CPU reads data sequentially from RAM and edits it in accordance with program instructions stored in EPROM. The
edited data undergoes parallel-to-serial conversion in the gate array, and is then output to the thermal head’s drive
controller.
2-2-2.Thermal Head
The thermal head contains 640 heat elements. Printing is carried out by switching these elements ON or OFF as required.
(Note that Line Mode supports 600-dot printing only. Heat elements numbered 1 to 20 and 621 to 640 are always off.
(Off data is always being transmitted.)) The thermal head has a built-in dedicated drive controller. The controller consists
of a shift register, a latch circuit, and a driver circuit, as illustrated below.
The drive controller receives serial data (SI) from the drive control board in sync with the CLOCK signal. The controller
latches the incoming data (LATCH), then outputs it to the heat elements in sync with the trailing edge of the STROBE
signals. A data value of LOW corresponds to a heat-element value of ON.
COM
STROBE5
STROBE4
STROBE3
STROBE2
STROBE1
LATCH
CLOCK
Latch
SI
Shift Resistor
Fig. 2-5 Thermal-Head Drive Circuit
– 21 –
CLOCK
LATCH
STROBE1
STROBE2
STROBE3
STROBE4
STROBE5
SI
t
COMMON
24V
Fig.2-6 Timing Chart
2-2-3.Head Current Control
Heat buildup in the head during operation can cause print quality to degrade. To maintain uniform printing quality, the
printer varies the energizing time (time that STROBE remains LOW) in accordance with the head temperature.
The thermal head’s surface temperature is calculated based on the resistance value of an attached thermistor. Energizing
time is reduced at higher temperatures, as indicated in the Figure 2-6.
STROBE1, STROBE2, STROBE3
STROBE4, STROBE5,
tt
600
500
400
300
Head Energizing Time t (µsec)
1020304050
Thermistor Temp. °C
Fig. 2-7 Head Energizing Control
– 22 –
2-3.Feed-Motor Drive Circuit
This printer employs a paper feed motor and a stepping motor. The motor rotates through a certain angle each time it
receives a pulse from the drive circuit. This printer employs a 4-phase stepping motor and controls the paper feed motor
with a phase 1-2 excitation method. The following diagram illustrates the phase 1-2 excitation method. Diagram 2-8
shows the feed-motor drive circuit.
1
2
3
4
ON
ON
ON
ON
Step
12345678
ON
Forward Feed
Reverse Feed
Fig. 2-8 Motor Control by Phase 1-2 Excitation
IC5
CPU
PA4
PA0
PA2
PA3
PA1
DQ2
B
M-GND
TA1
Q2
+5V+24V
CN4
D1
1
2
3
4
5
6
E
Paper Feed Motor
1
M
3
4
2
Fig. 2-9 Feed-Motor Drive Circuit
Voltage to the motor is controlled to produced the required action, as follows.
ModeVoltageAction
OperatingVM (+24V)Drives the motor
VL (+5V)
IdleVL (+5V)Holds the motor
Voltage is controlled by PA4 pin of the CPU, which goes HIGH or LOW to switch transistors DQ2 and Q2 ON and OFF.
When Q2 is ON, the paper feed motor receives VM (+24V). When Q2 is OFF, VL (+5V) is supplied to the motor via
diode D1.
– 23 –
2-4.Power-On Reset Circuit
Immediately following power-on the printer executes a power-on reset, initializing all circuit elements. The power-on
reset serves as protection against operational errors. The power-on RESET signal is maintained for approximately 160ms.
The reset circuit is illustrated below.
C2
+5V
IC4
VCC
RESET
CD
+
GND
RESET IC
+5V
DD3
CPU
RES
IC5 : CPU
RESO
Protection
Circuit
+5V
VCC
S-RAM
IC1
+5V
Fig. 2-10 Power-On Reset Circuit
(1)At power on, voltage-detector circuit IC4 (M51953BL) outputs a LOW signal from its OUT terminal.
The following formula is used by capacitor C2 (0.47µF).
IC10
RESET
Gate
Array
T = 0.34 × C2 (pF) [µs] = 160ms
(2)The LOW signal resets the CPU and the mechanism drive circuits.
(3)The LOW signal sets S-RAM into backup status.
– 24 –
2-5.+5V Line Voltage Detector Circuit
The voltage-detection IC detects momentary drops or unstable levels in the +5V line voltage.
The following illustrates the equivalence circuit of the voltage detector IC (Fig. 2-9 IC4).
V
CC
1
–
+
GND
SµA typ
3
Cd
5
–
4
OUT
R1
R2
1.25V
Fig. 2-11 Equivalence Circuit for Voltage Detecting IC
The following operation timing chart shows control is performed by the voltage detector IC output. If the +5V line voltage
falls below 4.25V, the IC produces a reset signal from its OUT terminal, resetting the CPU and the gate array.
VCC Voltage
4.25V
0.8V
Output
Voltage
tdtd
t
td = 0.34 × Cd (pF) [µs]
Fig. 2-12 Operation Timing Chart
t
– 25 –
3.Printer Mechanism
3-1.Thermal Head
TSP400 series printers employ thermal line printing. The thermal head consists of a horizontal line of 640 heat elements.
These elements print one line of dots at a time as the paper passes over the head. The head is fixed in position; only the paper
moves.
The printer prints a dot by heating the corresponding heat element. The heated element causes a chemical reaction in the
coloring layer of the thermal paper, resulting in the formation of a visible dot.
Thermal Printing Head
Heat Element
Coloring Layer
Thermal Paper
Printed Point
Platen Roller
Fig. 2-13 Principle of Thermal Printing
3-2.Paper-Feed Mechanism
The paper-feed mechanism is comprised of the paper-feed motor, gear train, platen, and thermal head. The paper-feed motor
drives the gear train, which in turn rotates the platen. The platen carries the thermal paper past the thermal head.
The paper-feed motor is a PM (permanent magnet) type, 4-phase 48-pole stepping motor. A single step feeds the paper
approximately 0.125mm.
Thermal Head
Thermal Paper
Platen Roller
Paper-feed Motor
Gear Train
Fig. 2-14 Paper-Feed Mechanism
– 26 –
3-3.Sensor
(1)Paper-Out Sensor
The paper-out sensor is located at the paper entry slit. The detector consists of a reflective photosensor. The
photosensor’s phototransistor remains ON while paper is present. It goes OFF when paper runs out, generating
output of a paper-out signal.
(2)Black-Mark Sensor
This detector senses black marks indicating print start positions. The detector is useful only with specially marked
paper. Like the paper-out detector, the black-mark detector consists of a reflective photosensor. The photosensor’s
phototransistor goes OFF when a black mark appears.
The Paper Near-end Sensor detects the amount of paper remaining on the roll. When the roll paper no longer exists
at the set position, the reflective photosensor turns OFF and outputs a no paper signal.
GND
+5V
Detection Signal
R
Paper
R
(Reflective Photosensor)
Paper
Black Mark
Fig. 2-17 Paper Near-end Sensor
– 27 –
(4)Head-Up Detector
This detector consists of a leaf switch indicating whether the head is closed (in contact with the platen) or open
(separated from the platen). The leaf switch is closed when the head is closed; it opens when the head is opened.
+5V
Detection Signal
GND
R
Leaf Switch
Fig. 2-18 Head-Up Detector
– 28 –
CHAPTER 3
PARTS REPLACEMENT AND RELATED ADJUSTMENTS
This chapter describes disassembly and reassembly procedures.
Please take note of the following.
1.ALWAYS disconnect the power cord from the AC outlet before beginning a disassembly or reassembly
procedure.
2.Except where otherwise stated, the reassembly procedure is the reverse of the disassembly procedure.
3.Coat screw heads with locking sealant after completion of reassembly.
4.Refer to Chapter 4 Section 2 for important information about lubrication requirements.
Proper maintenance is necessary to maintain printer performance and forestall potential problems. Please carry out
maintenance as described below.
1-1.Cleaning
(1)Surface dirt
Clear away dirt with a soft cloth. If necessary, apply a small quantity of alcohol to the cloth to improve cleaning
power. NEVER use thinner, trichlene, or ketone solvents, as these can cause damage to plastic components.
When cleaning, take care to avoid damaging or moistening of electronic parts, mechanical parts, and wires.
(2)Internal dust
For best results, use an electric vacuum cleaning device to remove dust from the inside of the printer. Note that such
cleaning may also remove lubrication; when you have finished cleaning, check lubrication levels and apply
lubricant as necessary.
1-2.Checks
There are two types of maintenance checks. Simple “daily checks” can be performed by users during the course of daily
operation. “Periodic checks” must be carried out by qualified service personnel.
(1)Daily checks
• Check whether dirt or other foreign matter has worked its way into the printer, and remove as necessary.
• Check the thermal head for excessive dirt. If the head is very dirty, clean it with a cotton stick or a soft cloth
soaked in alcohol.
(2)Periodic checks
Periodic checks and lubrication should be carried out once every six months or once every million lines of printing.
• Check the integrity of springs.
• Clear dust from areas around the detectors.
– 36 –
2.Lubrication
Proper lubrication is essential for maintaining the printer’s performance level and preventing breakdowns or other problems.
2-1.Lubricants
Choice of lubrication can significantly affect the printer’s performance, longevity, and low-temperature characteristics. We
recommend the following lubricant for the TSP400 series.
TypeNameManufacturer
GreaseMolykote EMDow Corning
2-2.Application Method
If you are lubricating parts during disassembly or reassembly, be sure to wash or wipe the parts thoroughly to remove all
dirt and dust prior to lubricating.
Remember that cleaning can remove necessary lubrication. Always lubricate after cleaning, disassembly, or replacement.
2-3.Lubrication Points
Apply lubricants at the following locations. (Refer to Diagram 4-1.)
No.Location
[1]Contact area of pressure bar and pressure pin
[2]Contact area of gear 15×50×0.5 and gear shaft
[3]Contact area of gear 58×0.5 and gear shaft
[4]Contact area of gear 15×50×0.5 and PF motor gear
[5]Contact area of gear 58×0.5 and platen gear
[6]Contact area of head stay and head base frame
[7]Contact area of head clamp and clamp pin
[8]Contact area of head clamp and head stay R
– 37 –
[1]
[8]
B
[7]
[6]
[6]
C
D
C
C
D
[1]
A
B
A
[4]
[2]
[3]
Fig. 4-1 Lubrication Points
– 38 –
[5]
CHAPTER 5
PARTS LIST
HOW TO USE PARTS LIST
(1)DRWG. NO.
This column shows the drawing number of the illustration.
(2)REVISED EDITION MARK
This column shows a revision number.
Part that have been added in the revised edition are indicated with "#"
Part that have been abolished in the revised edition are indicated with "*"
#1:First edition → Second edition *1:First edition → Second edition
(3)PARTS NO.
Parts numbers must be notified when ordering replacement parts. Parts described as "NPN" have no parts number
and are not in stock, unavailable.
(4)PARTS NAME
Parts names must be notified when ordering replacement parts.
(5)Q’TY
This column shows the number of the part used as indicated in the figure.
(6)REMARKS
This column is used for general comments. It also indicates EPROM seal numbers. A"*" within a seal number
indicates the version number.
(7)RANK
Parts marked “S” are service parts. Service parts are recommended to be in stock for maintenance.
14-2.Parts List ..................................77
7.RS-232C Interface Board (Ver. 1) ...65
7-1. Circuit Diagram.........................65
7-2. Parts List ...................................66
8.RS-232C Interface Board (Ver. 2) ...67
8-1. Circuit Diagram.........................67
8-2. Component Layout...................68
8-3. Component Layout...................68
15. Presenter Sensor Board..................78
15-1.Circuit Diagram........................78
15-2.Parts List ..................................78
1.Printer Assembly
1-1.Disassembly Drawing
38
2
28
D
18
23
K
C
17
J
I
10
9
B
6
2
D
11
3
12
C
26
L
13
15
16
2
31
3736
19
24
B
J
20
E
F
G
H
5
30
13
16
21
A
22
25
I
A
1
2
4
32
29
33
34
18
14
27
E
G
H
F
7
35
8
L
27
K
39
– 40 –
1-2.Parts List
Printer Assembly
DRWG.NO. REV. PARTS NO.PARTS NAMEQ’TYREMARKSRANK
101903059 SCREW TR 3-5 FL3S
2*101903077 SCREW TAT 3-5 CT-FL41S
#101903101 SCREW TAT 3-6 CT-FL41S
330721610 CUTTER CABLE UNITTUP41TUP452,TUP482VER.1
432000050 FRAME RTUP41
532002211 BOTTOM FRAMETUP41
632005120 PAPER FRAME LTUP41
732041130 SNOUT HOLDER LTUP41TUP482
832041140 SNOUT HOLDER RTUP41TUP482
902040402 FLANGED NUT NHW41S
1031303211 ARM SHAFTTUP41
1132000060 FRAME LTUP41
1237427400 TRANSIT BOARD UNITTUP41S
1330510510 SPRING E050-035-02352S
1432003211 FRONT FRAMETUP41
1532005020 CUSHION FRAME LTUP41
1633390010 CUSHION SHAFTTUP42
1783390020 ROLL PAPER SHAFTSP3121
1837422500 PUSH SWITCH UNITTUP41
1904991401 SCREW DBLC-J25SAF2RS232,RS422S
2032003020 REAR PLATETUP41
2137407800 RS232C IF BOARD UNITTSP41RS232 VER.1
#137427620 INTERFACE BOARD R232 UNIT T4V21RS232 VER.2
37407810 RS422 IF BOARD UNITTSP41RS422
37407820 PARALLEL IF BOARD UNITTSP41PARALLEL VER.1
#137427610 INTERFACE BOARD PARA UNIT T4V21PARALLEL VER.2
2237420310 PAPER FRAME R UNITTUP41
2337420510 COVER FRAME UNITTUP41
2437427000 MAIN LOGIC BOARD UNITTUP41VER.1S
37427030 MAIN LOGIC BOARD UNITT4V21VER.2S
2537427300 NE BOARD UNITTUP41S
2638405400 TMP452W-24N1S
2701903090 SCREW TAT 3-8 CT-FL2TUP482S
2833490210 ARMTUP41
2932005311 MECHANISM FRAMETUP41
3032005010 CUSHION FRAME RTUP41
3182020361 ROM COVERSP3121
3230093010 ESD GUARD SHEETTUP41
3309990713 FERRITE CORE TFC-16-8-161
3430721650 POWER CABLE UNITTUP41
3538511201 PR112-241TUP482
3632021010 SERIAL IF PLATETSP41RS232,RS422
#133910031 PAPER GUIDE BTMP41S
1033903010 FRICTION PLATETMP41S
1133490010 HEAD POSITION LEVERTSP42
1237419000 HEAD UNITTMP41S
13NPNHEAD FRAME UNITTMP41
13-181360850 PAPER GUIDE ROLLERBMP41
13-2*181370920 HEAD UNIT HOLDER SHAFTBMP41
#131303010 HEAD UNIT HOLDER SHAFTTMP41
13-382902330 HEAD CLAMPBMP41
13-481370910 PRESSURE STAYBMP41
13-509991391 HEAT-SHRINK TUBE A-6.0 GRN1
13-682401370 PRESSURE LEVERBMP42
13-782401360 HEAD STOPPER LEVERBMP42
13-880994252 GUARD SHEETBMP41
13-904310401 OILESS BUSHING F4X7X32
13-1080511070 SPRING E040-040-01592S
13-1180510840 SPRING E055-060-01801S
13-1204020015 STOP RING SE3.04S
13-1304020016 STOP RING SE4.02S
13-1402040301 FLANGED NUT NHW32S
13-1509991372 HEAT-SHRINK TUBE 4.01S
1480705031 CABLE UNIT 26X290CCBMP41
1530510410 SPRING E065-070-02382S
1630520210 SPRING C075-080-01652S
1704012003 ROLL PIN SP2.0X81S
1804020010 STOP RING SE2.01S
1904991204 FASTENER T18S8S
2000630404 SCREW TR 3-42S
2101903077 SCREW TAT 3-5 CT-FL5S
2201914035 SCREW TAT 4-10 PT-FL1S
2300820304 SCREW TR 2-32S
2401903090 SCREW TAT 3-8 CT-FL1S
2532041110 CUTTER HOLDER LTSP41
2632041120 CUTTER HOLDER RTSP41
2732045220 GUIDE BAC31
2804020016 STOP RING SE4.05S
<Note 1> The unit of resistor and resistor array is "Ω", and no indication of wattage means 1/6W, 1/8 respectively.
<Note 2> The unit of capacitor and capacitor array is "F", and no indication of Voltage means 50V.
<Note 3> The coimponents in the parentheses are not installed in the board.
<Note 4> ★-Not mounted on old type