Contents in this manual may change without prior notice due to
improvements in product features and specifications.
13th
FSM-100M/P series.
FSM-100M+/P+ series.
Please grip the handles firmly so the splicer will not be dropped
when it is removed from the carrying case.
It may cause personal injury and equipment damage.
Z-Unit fixture
Handle
Warning and Caution
《
Removing the splicer from the carrying case, after transportation.》
(1) Open the lid of the carrying case.
(2) Detach the Z-unit fixture from both sides of the splicer.
(3) Take the splicer out of the carrying case by holding the left and right handles.
・Before placing the splicer in the carrying case, please turn off the power using
the ON/OFF button. Detach the power supply cord before placing splicer in
carrying case.
・If the power is turned off without using the ON/OFF button, the splicer may not
be ready for transportation. Please do not insert the Z-Unit fixture by force as
this may cause equipment damage.
・Insert the Cleaning Stick into the Dust Box and clean. Take out the dust and debris
which has stuck to the end of the stick
・Dust can spread to sensitive machine parts during transportation. As a result, the
splicer might not operate smoothly and repairs may be needed.
・Do not detach the belt & Z-Unit fixture.
Case of FSM-100M+/P+
・ Tighten the Fixing Screws when the
indicator is aligned with 「10」on the
scale. Please confirm that the “Lock
function” has been activated.
・ The splicer might break down during
transportation if the “Lock function”
has not been activated.
Indicator
Fixing Screw
Warning and Caution
《
Placing the splicer in the carrying case, before transportation.》
Caution:
Transport the splicer in the following order. Otherwise, it may cause equipment
damage. Moreover, the guarantee may not be applied in this case.
(1) Turn off the power to the splicer.
(2) Remove the electrodes.
(3) Insert the Cleaning Stick into the Dust Box and
clean the area.
Remove the dust adhering to the Cleaning
Stick.
(4) Replace the electrodes.
(5) Place the splicer in the carrying case.
(6) Insert Z-Unit fixture and turn until tightened.
(7) Close the lid of the carrying case.
Warning and Caution
Table of Contents
Table of Contents ..............................................................................................................2
Warning and Caution .......................................................................................................1
The following alert symbols are used in
this instruction manual and machine to
indicate warnings and caution for safe
use. Understand the meanings of these
symbols.
WARNING
There is a possibility of death or serious
injury resulting from improper use by
ignoring this indication.
CAUTION
There is a possibility of personal injury
or physical loss resulting from improper
use by ignoring this indication.
Symbol means “Pay attention”
Pay attention to hot surface!
Symbol means “Must not do”
You must not disassemble!
Symbol means “Must do”
You must disconnect a plug!
!
!
Follow all safety instructions
Stop using if unit malfunctions
Instruction Manual
Read and understand all safety
instructions.
Ask our service centers for repair as
soon as possible.
Read this instruction manual carefully
before operating this machine.
Store this instruction manual in a safe
place.
Images / letters in the screen
shown in this manual may differ
from the actual image on the
monitor on the splicer.
The FSM-100 Series has been designed for splicing Silica-based optical fibers. Do not
attempt to use this machine for other applications.
Fujikura Ltd. gives careful consideration and regard to personal injury. Misuse of the
machine may result in electric shock, fire and/or serious personal injury.
Warning and Caution
1
WARNINGS
Disconnect the AC power cord from the DC inlet or the wall socket (outlet)
immediately if user observes the following or if the splicer receives the following
faults:
Fumes, bad smell, noise, or over-heating occurs.
Liquid or foreign matter falls into cabinet.
Splicer is damaged or dropped.
If this occurs, ask our service center for repair. Leaving the splicer in a damaged
state may cause equipment failure, electric shock or fire and may result in personal
injury, death or fire.
Use only a proper power source.
AC generators commonly produce abnormally high AC output voltage or
irregular frequencies. Measure the output AC voltage with a circuit tester
before connecting the AC power cord. Such abnormally high voltage or
frequency from a generator may cause fuming, electric shock or equipment
damage and may result in personal injury, death or fire. Make sure the
generator is regularly checked and serviced. When using an AC generator with
AC output voltage of AC220~240V especially, Fujikura Ltd. recommends the
following measures to correct the condition.
(1) Connect a step-down transformer between the generator and the AC adapter
in order to lower the AC voltage from AC220~240V to AC100~120V.
(2) Or, use an AC generator with AC output voltage of AC100V.
Do not disassemble or modify the splicer. In particular, do not remove or bypass
any electrical or mechanical device (e.g. a fuse or safety switch) incorporated into
the design and manufacturing of this equipment. Modification could cause damage
that may result in personal injury, death, electric shock or fire.
Use the supplied AC power cord. Do not place heavy objects on the AC power
cord. Use of an improper cord or a damaged cord may cause fuming, electric shock
or equipment damage and may result in personal injury, death or fire.
The splicer uses a three-prong (core) AC cord that contains an earthed ground
safety mechanism. The splicer MUST be Grounded. Use only the supplied
three-prong (core) AC power cord. NEVER use a two-prong (core) power cord,
extension cable or plug.
!
Warning and Caution
2
WARNINGS
Never operate the splicer in an environment where flammable liquids or vapors
exist. Risk of dangerous fire or explosion could result from the splicer’s electrical
arc in such an environment.
Do not use compressed gas or canned air to clean the splicer. They may contain
flammable materials that could ignite during the electrical discharge.
Do not touch the electrodes when the splicer is on and power is supplied to the
unit. The electrodes generate high voltage and high temperatures that may cause a
severe shock or bum.
Note Arc discharge stops when wind protector is opened. Turn the splicer off and
disconnect the AC power cord before replacing electrodes.
Safety glasses should always be worn during fiber preparation and splicing
operation. Fiber fragments can be extremely dangerous if they come into contact
with the eyes, skin, or are ingested.
Don’t touch the splicer, AC power cord, or AC plugs with wet hands. This may
result in electric shock.
Do not operate splicer near hot objects, in hot temperature environments, in dusty /
humid atmospheres or when water-condensation is present on the splicer. This
may result in electric shock, splicer malfunction or poor splicing performance.
!
Warning and Caution
3
CAUTIONS
Do not store splicer in any area where temperature and humidity are extremely
high. Possible equipment failure may result.
Do not touch protection sleeve or tube-heater during heating or immediately after
completion of heating. These surfaces are very hot and touching these may result
in skin burn.
Do not place the splicer in an unstable or unbalanced position. The splicer may
shift or lose balance, causing the unit to fall. Possible personal injury or
equipment damage may result.
The splicer is precision adjusted and aligned. Do not allow the unit to receive a
strong shock or impact. Possible equipment failure may result. Use supplied
carrying case for transportation and storage. The carrying case protects the
splicer from damage, moisture, vibration and shock during storage and
transportation.
Follow the below listed instructions for handling electrodes.
Use only specified electrodes.
Set the new electrodes in the correct position.
Replace the electrodes as a pair.
Failure to follow the above instructions may cause abnormal arc discharge. It can
result in equipment damage or degradation in splicing performance.
Do not use any chemical other than pure alcohol (99% or greater) to clean the
objective lens, V-groove, mirror, LCD monitor, etc., of the splicer. Otherwise
blurring, discoloration, damage or deterioration may result.
The splicer requires no lubrication. Oil or grease may degrade the splicing
performance and damage the splicer.
The equipment must be repaired or adjusted by a qualified technician or
engineer. Incorrect repair may cause fire or electric shock. Should any problems
arise, please contact the authorized distributor.
!
Warning and Caution
4
RECYCLING and DISPOSAL
In European Union
In accordance with the European Parliament Directive 2002/96/EC, electrical
parts and materials that can be re-used and/or recycled have been identified in
order that the use of new resources and the amount of waste going for landfill can
be minimized.
In the European Union, do not discard this product as unsorted municipal
waste. Contact your local authorities.
In other countries
[Recycling]
To recycle this product, disassemble it first, sort each part separately by material
components and follow your local recycling regulations.
[Disposal]
This product can be disposed of in a similar manner as standard electric products.
Follow your local disposal regulations.
Notes
LCD (Liquid Crystal Display) monitor
The splicer is equipped with a LCD monitor, manufactured in a high qualitycontrolled factory environment. However, some black dots may appear, or
red/blue/green dots may remain on the screen. The screen brightness may not appear
uniform depending on the viewing angle. Note that these symptoms are not defects,
but are the nature of LCD.
Warning and Caution
5
Fiber Combination
G652SM
Fiber
Both sides
G655NZDS
Fiber
Both sides
EDF special
Either side
LDF
Both sides
Clad Diameter
125µm
125µm
125µm
400µm
1000µm
Recommended
Splice Mode
SM
AUTO1
NZ
AUTO1
BASIC 1
SM 400
SM 1000
Auto Stuff Control
ON
ON
ON
ON
ON
Electrode Gap
1mm
1mm
1mm
3mm
3mm
V Height Shift
0µm
0µm
0µm
0µm
0µm
Arc Calibration
Method
See Section 2-1
STD
(Standard)
STD
(Standard)
STD
(Standard)
SP
(Special)
Alignment Mode
Core
Core
Core
CLAD
CLAD
Focus Settings
0.25
Auto
Auto
Auto
Auto
Fiber Type Compare
See Section 3-1
A more accurate splice becomes possible by
using the memory function of the core
profile data specific to each fiber.
OFF
OFF
Auto Arc Calibration
See Section 2-2 & 3-2
SM mode
Memorized
mode
OFF
OFF
OFF
A more accurate calibration can be realized
by memorizing the calibration factor
obtained by the fiber data learning function.
OFF
OFF
Auto Time Comp
See Section 2-6
ON
OFF
OFF
OFF
OFF
Arc Center
Compensation
See Section 4
ON
ON
OFF
OFF
OFF
Axis Offset
Core
Core
Core
CLAD
OFF
Core Bending
ON
ON
ON
ON
OFF
MFD Mismatch
See Section 2-3
OFF
OFF
WSI/CSI
OFF
OFF
Note
The splicer calibrates the arc
power at each splice.
Please
change the
arc time at
the splice
mode for a
special fiber.
This mode is for Large
Diameter Fiber
splicing.
Please execute SP arc
calibration.
Quick Start Guide
1. Splice Mode Selection
A variety of splice modes are already installed in the FSM-100M/P and
FSM-100M+/P+. Some typical splice modes are shown below.
1-1. FSM-100M / FSM-100P
SM1000: FSM-100M+/P+ Only
6
Fiber Combination
PANDA
Both sides
Excluding
PANDA
Both and Either
side
LDF
PMF
PM Fiber
Clad Diameter
125µm
125µm
400µm
125µm
Recommended
Splice Mode
PANDA 1
PM AUTO 1
PANDA 4
PANDA8
Auto Stuff Control
ON
ON
ON
ON
Electrode Gap
1mm
1mm
3mm
1mm
V Height Shift
0µm
0µm
0µm
0µm
Arc Calibration
Method
See Section 2-1
STD
(Standard)
STD
(Standard)
SP
(Special)
Depend on
fiber type
Alignment Mode
Clad
Clad
Clad
Clad
Focus Settings
0.32
Auto
Auto
Auto
Fiber Type Compare
See Section 3-1
-
Auto Arc Calibration
See section 2-2
OFF
OFF
OFF
OFF
Auto Time Comp
See Section 2-6
OFF
OFF
OFF
OFF
Arc Center
Compensation
See Section 4
OFF
OFF
OFF
OFF
θAlignment
See Section 2-4
PAS
IPA
PANDA
EV
Axis Offset
Clad
Clad
Clad
Clad
Core Bending
OFF
OFF
OFF
OFF
MFD Mismatch
OFF
OFF
OFF
OFF
Note
The PANDA
fiber is spliced
accurately at
the shortest
time.
If clamping on
the coating,
alignment time
is longer.
All PM fibers can
be aligned by
using the data of
the fiber prepared
beforehand,
although it is
longer.
Moreover, it is
applied to splice
dissimilar fiber
types.
This mode is
for Large
Diameter
Fiber splicing.
Please
execute SP arc
calibration.
This mode is
for PM Fiber
splicing with
end-view
observation
system.
Note
FSM-100P+Only
1-2. FSM-100P / 100P+
Quick Start Guide
The splice setting of the FSM-40F/PM series and the FSM-45F/PM series can be
converted into the FSM-100 series. Please refer to the Excel file that exists in CD.
7
Parameter
Arc Calibration
Special Arc
Calibration
No Calibration
Arc Calibration
Method
STD(Standard)
If STD is not selected, it
doesn't operate.
SP(Special)
If SP is not selected, it
doesn't operate.
NC
(No Calibration)
No calibration
function
Electrode Gap
1.0mm
Existing value
Existing value
V Height Shift
0µm
Existing value
Existing value
Clad Diameter
125µm
Existing value
Existing value
Arc Center
Compensation
Installed
Installed
Not Installed
Calibration
Result
In all modes when STD
is selected, the result of
the arc calibration is
updated to the arc
power.
The result of the arc
calibration is updated to
the arc power in
selected mode.
However, it is necessary
to optimize the arc
power according to the
fiber.
-
Other Setting
[Electrode Gap 1.0mm]
[V Height Shift 0µm]
[Clad Diameter 125µm]
When the arc calibration
is executed, each
parameter automatically
sets above mentioned.
Please execute Special
Arc Calibration when
needed to execute the
calibration in other
settings.
[Electrode Gap]
[V Height Shift]
[Clad Diameter]
The arc calibration is
executed without
changing each setting of
the splice mode that has
been selected.
-
Quick Start Guide
2. Convenient Functions
2-1. Arc Method and Arc Calibration
The relation between the arc method and the arc calibration is shown below.
8
Quick Start Guide
2-2. Auto Arc Calibration
This function calibrates the arc power at splice. Whenever this function is on, the arc
power is automatically corrected. The correction value is used in the next splice.
See section [Function Introduction][Auto Arc Calibration]
2-3. Estimate WSI/CSI
WSI or CSI can be selected for the method of estimating the MFD mismatch.
WSI method is suitable for fiber without depressed cladding like fluorine.
CSI method is suitable for fiber with depressed cladding.
※ WSI (Warm Splice Image)
※ CSI (Cold Splice Image)
See section [Function Introduction][MFD Mismatch]
2-4. IPA Data (FSM-100P/P+ Only)
The splicer aligns theta by using the memorized IPA data of each fiber.
PAS is recommended for PANDA fiber alignment. This alignment method is fast and
accurate.
Please use the IPA mode when the standard alignment is not accurate.
2-5. End-View Observation System (FSM-100M+/P+ Only)
Optical fiber is observed in axial direction by a means of a mirror for fine alignment.
Uniquely structured fibers, such as PM, multi-core or non-circular fibers can now be
more precisely aligned. However, conventional PAS (Profile Alignment System) is
recommended for PANDA fiber splicing for fast and accurate alignment.
In the case that certain fibers show poor theta alignment with PAS, use IPA or
end-view observation system.
See section [Function Introduction] [End-View observation syst]
2-6. Auto Time Comp.
(ECF/AUTO Control)
This function is used for G652 SMF splicing.
Arc power is optimized according to core concentricity-error.
If [ECF] is set to "OFF", this function is not available.
See section [Function Introduction][Auto Time Comp.]
9
Quick Start Guide
3. Fiber Data Learning
3-1. Fiber Type Compare
The feature of each fiber core profile can be memorized.
See section [Function Introduction][Fiber Type Compare]
3-2. Auto Arc Calibration
The arc brightness of each fiber can be memorized as a calibration value.
See section [Function Introduction][Auto Arc Calibration]
3-3. IPA Data
The feature of IPA of each optical fiber can be memorized.
See section [Function Introduction][IPA Data (FSM-100P/100P+ Only)]
10
•When splicing large diameter fibers, enter correct cladding diameter.
Software automatically decides the adjusting method based on the
numerical value.
•There is a possibility to generate axis offset when a correct numerical value
is not input.
•Please use the proper fiber holder to place the large diameter fiber on the
V-groove.
Coating Diameter
Clad Diameter
Cleave Length
Quick Start Guide
4. Input Fiber Data
In the FSM-100 series, the V-groove and clamp are adjusted automatically for a
variety of fibers.
Each parameter can be changed in the [Fiber Information]. (Left/Right)
Input Data
The input value is displayed in the Sub-monitor.
See section [Editing Splice Mode]
11
Name
Model
Qty
Note
FSM-100
M P M+
P+
Splicer Main Body
FSM-100M
1pc
-
●
FSM-100P
●
FSM-100M+
●
FSM-100P+
●
Heater
Sleeve Heater
1pc
Either the Sleeve
Heater or the Fiber
Straightener
▲ ▲ ▲
▲
Fiber
Straightener
▲ ▲ ▲
▲
Fiber Holder
FH-100-250
1pair
-
● ● ●
●
FH-100-400
1pair
-
- ● -
●
FH-100-250-EV
1pair
For End-View
Observation System
-
-
●
●
FH-100-400-EV
1pair
- - -
●
AC Adapter
ADC-15
1pc
● ● ●
●
AC Power Cord
for AC Adapter
ACC-01~04
1pc
Depend on country
● ● ●
●
Spare Electrodes
ELCT2-25
1pair
● ● ●
●
ELCT3-25-LDF
1pair
-
-
●
●
End-view Light
Source
EV-LS01
2pc
-
-
●
●
Electrode Cleaner
EC-01
1pc
-
-
●
●
Splicing Report
SR-01-E
1pc
● ● ●
●
Instruction Manual
M-100MP-E
1pc
● ● ●
●
Warnings and
Cautions
W-100MP-E
1pc
● ● ●
●
USB Cable
USB-01
1pc
USB(A)-USB(Mini-
B)
0.9m
● ● ●
●
Dust Cleaning Stick
DCS-01
1pc
● ● ●
●
Carrying Case
CC-27
1pc
Key, Z-Unit fixture
● ● ●
●
Rubber Pads
RP-01
1pair
Vibration reduction
-
-
●
●
Description of Products
1. Splicer Components
The components comprising the FSM-100 series are shown in below.
12
Name
Model
Note
Fiber Holder
FH-100-060
60μm
Applicable Diameter: 55~71μm
FH-100-100
100μm
Applicable Diameter: 94~117μm
FH-100-125
125μm
Applicable Diameter: 118~39μm
FH-100-150
150μm
Applicable Diameter: 140~169μm
FH-100-180
180μm
Applicable Diameter: 170~199μm
FH-100-210
210μm
Applicable Diameter: 200~239μm
FH-100-250
250μm
Applicable Diameter: 240~289μm
FH-100-300
300μm
Applicable Diameter: 290~339μm
FH-100-350
350μm
Applicable Diameter: 340~389μm
FH-100-400
400μm
Applicable Diameter: 390~489μm
FH-100-500
500μm
Applicable Diameter: 490~589μm
FH-100-600
600μm
Applicable Diameter: 590~689μm
FH-100-700
700μm
Applicable Diameter: 690~789μm
FH-100-800
800μm
Applicable Diameter: 790~889μm
FH-100-900
900μm
Applicable Diameter: 890~1000μm
FH-100-****
****um
Applicable Diameter: 1000~2000μm
FH-40-LT900
900μm
Loose Tube
Fiber holder placement for fibers with cladding larger than 250µm
• Please change the direction of the fiber holder as shown below when the size of
the fiber cladding is larger than 250µm. Better alignment and splicing
performance will be achieved for such large diameter fibers (LDF) when there is a
longer distance between the fiber holder clamps and the splicer’s alignment
V-grooves.
•Fiber holder position can be reversed on FSM-100M/P. Use this function to allow
fiber holder to be placed as far as possible from v-groove so that the fiber ends are
aligned accurately.
AAA: Coating diameter
of the fiber.
BB: Length of the Sleeve
Standard Sleeve
FP-03
FP-03 (L=40)
FH-100-XXX-EV fiber holder
FH-100-XXX fiber holder
Description of Products
End View Holder
Use FH-100-XXX-EV for “end-view observation”. This fiber holder has a mirrored part
so that LED light is bounced through to the fiber for “end-view observation”.
The FH-100-XXX-EV fiber holder has a mirrored part so that the LED light transmits
through. There are a variety of FH-100-XXX-EV fiber holders to accommodate 60 to
2000 um coating diameter fibers.
Fiber Protection Sleeves
14
Monitor
Monitor
USB Terminal
DC Inlet
Peripherals port
Wind Protector Release Lever
Wind Protector
Fiber Holder
Fiber Clamp
V-groove
Objective Lens
Electrode Cover
Fiber Holder
V-groove
Objective Lens
Heater
Heater Clamp
Heater Clamp
Electrode
Membrane Switch
-unit (Only P)
-unit (Only P)
Membrane Switch
Membrane Switch
Membrane Switch
3. Description and Function of Splicer
Description of Products
15
ARC Key
X/Y Key
SET Key
RESET Key
HEAT Key
ON/OFF Key
HELP Key
MENU Key
ESCAPE Key
ENTER Key
UP/DOWN Key
LEFT/RIGHT Key
Heater
GPIB Terminal
Z-Unit fixture hole
Handle
Fiber hold lever
Description of Products
16
•During extended operation using the AC adapter, the surface of the AC
adapter will become warm. This is normal and will not result in any loss of
performance.
•Make sure the power source is 100 → 240 VAC, 50 or 60 Hz. When
connecting to an AC generator, always check the output voltage of the
generator with a circuit tester before connecting the AC power cord.
•Make sure the AC power cord is free from damage, etc.
USB
Terminal
Peripherals Port
DC Inlet
Basic Operation
1. Attaching Power Supply to Splicer
Only the ADC-15 is acceptable for the power supply of the FSM-100 Series.
(1) Confirm voltage before operation.
(2) Connect the AC adapter.
Connect the DC cord of the AC adapter to the DC inlet of the splicer.
(3) Connect the AC power cord to the AC adapter.
Plug the AC power cord into the AC adapter inlet. Make sure the plug is fully
seated and in the correct position.
(4) Connecting the AC power cord to the AC power source.
Plug the AC power cord into the wall socket (outlet). Make sure the plug is fully
seated and in the correct position.
17
Main Monitor
Sub Monitor
Main Monitor
Sub Monitor
Version No, Serial No
Displayed.
Main Monitor
Sub Monitor
The check item is
displayed before splice.
Maintenance before
splice is recommended.
Basic Operation
2. Turning Splicer “ON”
Pressing ON/OFF turns on the power to the splicer and the following image is
displayed on the monitor.
All of the motors go to their home position and are reset.
The startup sequence of screens is [Fiber Set Diagram] and [READY].
18
Additional Date Area
Fiber Set Diagram
Main Monitor (Left)
Currently selected splice mode and heater mode.
Splice Mode
Currently selected splice mode.
Heater Mode
Currently selected heater mode.
Calendar (Additional Date Area)
Present date and time is displayed.
※ About Additional Date Area
Item to be displayed on READY screen is selectable.
Basic Operation
→ See section [Setting Menu][Maintenance Settings]
Cleave Limit
The threshold of the cleave angle limit is
displayed.
Proof Test
Proof test status [ON or OFF] is displayed.
Arc Count
Arc count is displayed.
19
•If [Dust Check] or [Arc Calibration] is needed at once after turning
on the power supply, see section [Machine Settings].
A
B C D
Basic Operation
Sub Monitor (Right)
Each setting of the selected [Splice Mode] is displayed.
[Electrode Gap], [V Height Shift], [Cleave Length], [Coating Diameter], [Clad
Diameter], [Fiber Holder]These setting are displayed.
The setting of [Cleave Length] and [Coating
Diameter] and [Clad Diameter] is displayed.
[Use holder]・・・C
The setting of [Fiber Holder] is displayed.
When setting is changed by [Edit
Splice Mode], the display on the
monitor is changed.
Confirm the setting by the display
before splice.
When setting is changed by [Edit Splice
Mode], the display on the monitor is
changed.
Confirm the setting by the display before splice.・・・D
20
Fiber Protection Sleeve
Pass Fiber
Fiber
•Close the lid of the fiber holder while pressing down with a finger on the
coating (refer to figure below).
•Select a suitable fiber holder based on the fiber coating diameter.
Fiber length 25 from 35 mm.
No curving at the fiber.
Example of curved fiber (09NY).
Basic Operation
3. Cleaning Optical Fiber
Clean optical fiber with alcohol-moistened gauze or lint-free tissue approximately
100mm from the tip. Dust particulates from the fiber-coating surface can enter inside
the protection sleeve and might result in a future fiber break or attenuation increase.
4. Placing Protection Sleeve over Fiber
Place the protection sleeve over the fiber.
5. Setting the Fiber onto the Fiber Holder
Set the fiber onto the fiber holder with 25 to 35 mm protruding from the end of the fiber
holder and then close the fiber holder lid.
21
• See the JS-02-900 instruction manual for more details.
JS Spacer
Basic Operation
6. Stripping and Cleaving Fiber
6-1. Stripping
Using Jacket Stripper JS-02-900
The 900μm-coated fiber is stripped with the JS-02-900.
(1) Attachment of the JS spacer.
Attach the JS spacer for 3~5mm cleave length.
Rotate stripper upright on base and then fix the spacer with the two
screws. Do not attach the spacer with an inclination.
(2) Fiber stripping.
Slide the holder base inwards so that it touches the fiber base, then place
the fiber holder (with the fiber) into the holder base. After verifying that
the fiber position is in the center of the blade, close the holder clamp.
Pull the holder base slowly to strip the fiber coating.
22
Hold this point firmly during theheating
and sliding.
Slide the fiber holder base and clamp
gently.
• Be sure to attach the washers for the two screws at the end of
the rods.
•An AC adapter is needed to use the HJS-02.
• See the HJS-02 instruction manual for more details.
HJS Spacer
Unscrew a
screw.
Basic Operation
Using Hot Jacket Stripper HJS-02
The 250μm and 400μm coated fiber is stripped with the HJS-02.
.
(1) Attachment of the HJS spacer.
Attach the HJS spacer for 3→5mm cleave length.
(2) To attach the HJS spacer, remove
the fiber holder base by
loosening two screws.
(3) Attach the HJS spacer to the fiber
holder base by two long screws
as below.
(4) Attach the fiber holder base to the HJS-02 by two screws as below.
(5) Fiber Stripping.
Set the fiber holder onto a hot jacket stripper. Then, strip the coating.
23
•After this operation, handle the fiber with care so as not to damage or
contaminate the bare glass.
•Use a high quality alcohol, greater than 99% pure.
Basic Operation
6-2. Cleaning Optical Fiber
Clean the bare part of the fiber with alcohol-moistened gauze or lint-free tissue.
24
• See the CT-30 instruction manual for more details.
6-3. Fiber Cleaving
(Use of the CT-30)
(1) To unlock the cutting lever, press it gently and slide the stopper.
(2) Push the slide button until it locks. Set the stripped optical fiber on the
cleaver.
(3) Press down on the cutting lever.
(4) Release the pressure on the cutting lever. A spring will return it to its
open position. The scrap collector rollers drive the fiber scrap into the
fiber scrap container box automatically when the cutting lever is raised.
(5) When storing the cleaver, press the cutting lever down until the stopper
can slide into place to lock the anvil lever.
Basic Operation
25
How to use CT-100 cleaver with FSM-100M/P series.
• If 250um or larger cladding diameter fiber is used, reverse fiber holder as
show below.
•Set fiber holder at “18mm” in the cleaver for 9mm cleave length splicing,
which is the standard cleave length for FSM-100M/P.
Check if the fiber holder is pushed
forward by the holder stopper
Fiber Holder Stopper
Basic Operation
6-4. Fiber Cleaving
(How to use CT-100 Cleaver)
(1) Confirm the power is supplied and push the right lever forward. The clamp
unit will move to home position.
*Clamp will not move if it is already at the home position.
*Even if the power is supplied after pushing the right lever, clamp unit will move to the home
position.
(2) Push the left lever forward and set the prepared optical fiber with the fiber
holder
26
LED
Status of the cleaving
ON
Cleaving
OFF
Error, Power off
Blinking three times
Finished
Holder Clamp
Fiber Clamp
Cleave switch
& LED
Basic Operation
(3) Pull back the left lever to firmly clamp the optical fiber with the holder clamp.
If the fiber is thin and does not require much tension for cleaving, this action
can be skipped.
(4) Pull back the right lever to clamp optical fiber with the fiber clamp.
(5) Press the “Cleave Button” to perform cleaving.
LED in the cleave button shows the status of the cleaving as shown in Table
7-1.
Table 7-1. LED in the cleave button
(6) Tilt the left lever back to take the fiber holder off the cleaver.
(7) Tilt the right lever and take the fiber scrap out of the claver. The clamp unit
automatically comes back to home position.
27
• See CT-100 instruction manual for detail.
In case of cleaving an optical fiber which has a stress applying region, such as a
PANDA fiber.
There is a possibility of a cleave failure as show below after cleaving the optical
fiber which has a stress applying region, such as a PANDA fiber. Please lower the
tension slightly and cleave the optical fiber again.
e.g.) PANDA Fiber cladding diameter: 125um
Tension:240gf→150gf
If the optical fiber is cleaved correctly, the end face is shown like below.
※There is a possibility of not cleaving an optical fiber instantly, when a cleaving
blade is in touch with the optical fiber. Adjust tension accordingly and check
cleave quality.
Tension:240gf
Tension:150gf
Basic Operation
e.g.) PANDA Fiber cladding diameter: 125um
28
Confirm the splice setting by
the display.
Guide Pin
Guide Pin
Fiber Holder
Holder Base
Holder Base
Fiber Clamp
Case of FSM-100M/P
Set the fiber holder in reverse direction
Basic Operation
7. Placing Fiber Holders onto Splicer
7-1. How to load fiber holder to FSM-100M/P
(1) Open the wind protector.
(2) Lift up the left and right fiber clamps. Lower the fiber holder with guide holes
onto the base guide pins and position the fiber holder onto the fiber holder base.
Fiber holder placement for fibers with cladding diameter larger than 250µm:
Please reverse the direction of the fiber holder in the splicer as shown below when
the fiber cladding is larger than 250um. Better alignment and splicing performance
will be achieved for such large diameter fibers (LDF) when there is a longer distance
between the fiber holder clamps and the splicer’s alignment V-grooves.
(3) Set the optical fiber on both sides in the same manner.
(4) The fiber clamp is lowered at the same time the wind protector is closed.
29
• Observe fiber position in the V-groove. The fiber should rest in the bottom
of the V-groove. Reload the fiber holder if it does not rest property.
• Care should be taken to prevent damage or contamination of the fiber
end-face. Fiber end-face contact on any item including the V-groove bottom
may result in poor quality splices.
• The fiber end-face should rest between the V-groove tip and electrode
centerline. It is not necessary that the fiber end-face be exactly at the
midpoint.
Fiber hold lever
Basic Operation
(5) Use "Fiber hold lever", when you make splice which θ unit drives. It
prevents the fiber from snagging and cutting.
30
Move Z-slide unit back as much
as possible when LDF is spliced.
Open/Close LED unit lid
How to load LDF to FSM-100M+ /P+
•When the cladding diameter of the fiberis over 250um, adjust z-slide
holder. Allow as much distance as possible between fiber holder and
v-groove. This is to reduce fiber angle at splice point, which may increase
splice loss.
• Z-Slide is fixed to the position [10] of the scale with the screw when
shipping. This “Locking function” is used for transportation. When you
move the Z-slide unit the first time after the splicer is delivered, you need
to loosen the fixing screw enough and release the “Locking function”.
7-2. How to load fiber holder to FSM-100M+/P+
(1) Open the wind protector.
(2) Open the LED unit lid.
(3) Loosen the fixing screw of Z-slide unit and move them back when LDF is
loaded.
Basic Operation
31
Case of FSM-100M+/P+
Guide Pin
Guide Pin
Fiber Holder
Holder Stage
Scale Plate
Scale Plate
Fixing Screw
LED Unit
LED Unit
Fixing Screw
Holder Stage
Indicator
Indicator
Fiber hold lever
Basic Operation
(4) Set fiber holder using guide pins as shown below.
(5) Follow the same to set the other fiber.
(6) Close the LED unit lid.
(7) Fiber clamps move over the fiber automatically by closing the wind
protector.
(8) Use "Fiber hold lever", when you make splice which θ unit drives. It prevents
the fiber from snagging and cutting.
32
Chip
Lip
Incline
Core Axis Offset
Clad Axis Offset
Fiber Angle
Cleave Angle
Confirm the
cleave angle and
Basic Operation
8. Splicing Procedure
To assure a good splice, the optical fiber is observed with the image processing
system equipped in the FSM-100M/P/M+/P+. However, there are some cases when
the image processing systems cannot detect small particles and defects. Visual
inspection with the monitor is often necessary for better splicing evaluation.
Procedure below describes standard operating procedure.
(1) Press SET, the fibers loaded in the splicer move forward toward each other.
The fiber forward motion stops at a certain position shortly after the
cleaning arc is performed. Next, the cleave angle and end-face quality are
checked. If the measured cleave angle is greater than its set threshold, the
buzzer will sound and an error message warns the operator. The splicing
procedure pauses. If no error message is displayed, the below stated
end-face conditions are used for visual inspection. If defects are observed,
remove the fiber from the splicer and repeat fiber preparation. These visual
defects may cause a faulty space.
(2) After fiber inspection, the fibers are aligned core-to-core or cladding-to-
cladding depending on the splice mode. Cladding axis offset and core axis
offset measurements can be displayed.
・The pause after cleave angle check and fiber alignment can be disabled.
・The cleave angle threshold can be changed. See [Checking or Editing
Splice Mode] for details.
・The cleave angle error message can be ignored by pressing the SET key
to go on to the next step. To disable the cleave angle error; see
[Configurations] for details.
33
Both main monitor and sub monitor
display the image of the arc
discharge.
Confirm there is no burning dust.
If a set value of the Arc Power is too low, the arc discharge may be abnormal.
In this case, the following action is recommended.
• Increase the value of the Arc Power. Moreover, adjust the V height Shift, and
keep away the fiber from the arc discharge.
Or
•In the sequence of arc discharge, for example, Prefuse and Main Arc, set the
higher value of the Prefuse Arc power for the stable arc discharge during the
Main Arc.
When the value of the Arc Power is too low even if the above-mentioned
action is done, the arc discharge may be abnormal.
Basic Operation
(3) After completion of fiber alignment, the arc discharge is performed to splice the
fibers. During arc discharge, observe the fiber image on the monitor screen. If
some part of the image exhibits an extremely bright glow (hot spot), which is
created by burning contaminants located on the surface or end-face of the glass,
there is a possibility that the fiber core will be deformed. Although deformation
can be detected by the loss estimation function, a re-splice is recommended.
34
•The splice point sometimes looks a bit fatter than other parts. This is
considered a normal splice and does not affect splice loss.
•To change the threshold for estimated splice loss or cleave angle, see
the [Checking or Editing Splice Mode] for details.
•To change the “Loss Est.” or “Angle Offset” and to change the
threshold of loss error, Angle Offset error, or core angle error, see the
[Checking or Editing Splice Mode].
•Error messages, such as “High estimated splice loss”, “Splice angle”,
“Fat”, “Thin” and “Bubble” can be ignored. This function can be set to
“disabled”. See the [Splice Setting] for details.
Splice loss may be improved in some
cases by additional arc discharges.
Press ARC key for an additional arc
discharge (re-arc). Splice loss
estimate and splice check are
performed again.
Basic Operation
(4) Estimated splice loss is displayed upon completion of splicing. Splice loss is
affected by certain factors stated on the next page. These factors are taken into
account to calculate, or estimate, splice loss. The calculation is based on certain
fiber dimensional parameters, such as MFD.
If either the measured cleave angle or the estimated splice loss exceeds its set
threshold, an error message is displayed. If the spliced fiber is detected as
abnormal, such as “Fat”, “Thin” or “Bubble”, an error message is displayed. If
no error message is displayed but the splice image looks poor by visual
inspection, it is strongly recommended to repeat the splice from the beginning.
35
Main Monitor (L)
Sub Monitor (R)
PAS (X)
Estimate Loss Data
PAS (Y)
Splice Error
Main Monitor
(L)
Sub Monitor
(R)
WSI (X)
Arc Information
WSI (Y)
Axis Offset Data
Main Monitor
(L)
Sub Monitor
(R)
PAS (X)
PAS (Y)
X/Y
X/Y
Basic Operation
9. Display after the finished splice.
The default display setting is the following. The display can be switched
with X/Y button.
36
Main Monitor
(L)
Sub Monitor
(R)
WSI (X)
WSI (Y)
Main Monitor
(L)
Sub Monitor
(R)
PAUSE Image
(X)
PAUSE Image
(Y)
•The display setting is programmable. See section [Editing Splice Mode].
X/Y
X/Y
Basic Operation
37
Open the lid of the fiber
holder.
Take out the fiber from
the splicer.
Push the SET button.
The instruction animation is
started for the next splice.
The wind protector is
opened after the splice.
In the case of the splice with theta
alignment, the instruction animation is
started after the wind protector is
opened and SET button is pushed.
Basic Operation
When the wind protector is opened after the splice, the instruction animation is
automatically displayed.
Take out the fiber from the splicer as shown in the instruction.
38
A current splice setting is displayed in the
sub monitor.
The MENU key can change the splice
setting.
Place the fiber on both sides.
Close the wind protector.
Push SET key.
The splice is started
automatically.
The instruction animation is displayed for the next splice.
Basic Operation
39
Basic Operation
10. Fiber Image
Zoom in and out of the fiber image
The magnification of the PAS and WSI fiber image can be changed by the UP
DOWN key.
The fiber image at the gap set
Check the contamination and cleave shape, etc.
Image of spliced fiber
Check the image after fiber is spliced.
WSI image
Check the burning dust during arc discharge.
40
Edit display of mode title.
Edit display of password.
Basic Operation
How to enter Mode title / Comments / Password
Character list below is displayed by selecting Mode Title / Comments / Password.
(1) Move the cursor by pressing , and press ENT key to input the
selected character. Move the cursor to ⇐ and press ENT key to highlight
the character, and then enter the proper character over it.
(2) Move cursor to [ENTER] and press ENT key on completion of entering
characters. In the case of Password input, the next screen image is
displayed if the correct password was entered. If the password is incorrect,
the previous screen image is displayed.
At the time of shipment from factory, the password is set at “0”.
41
Symptom
Cause
Remedy
Core axial offset
Dust on V-groove or
fiber clamp chip
Clean V-groove and fiber clamp chip.
Core angle
Dust on V-groove or
fiber clamp chip
Clean V-groove and fiber clamp chip.
Bad fiber end-face
quality
Check if fiber cleaver is functioning properly.
Core step
Dust on V-groove or
fiber clamp chip
Clean V-groove and fiber clamp chip.
Core curve
Bad fiber end-face
quality
Check if fiber cleaver is functioning properly.
Prefuse power too
low or prefuse time
too short
Increase [Prefuse Power] and/or [Prefuse
Time].
MFD Mismatch
Arc power too low
Increase [Arc Power] and/or [Arc Time].
Basic Operation
Splice loss increase: Cause and remedy
42
Symptom
Cause
Remedy
Combustion
Bad fiber end-face
quality
Check the cleaver
Dust still present
after cleaning fiber
or cleaning arc
Clean fiber thoroughly or increase [Cleaning
Arc Time]
Bubbles
Bad fiber end-face
quality
Check if fiber cleaver is functioning properly
Prefuse power too
low or prefuse time
too short
Increase [Prefuse Power] and/or [Prefuse
Time]
Separation
Fiber stuffing too
small
Perform [Motor Calibration]
Prefuse power too
high or prefuse time
too long
Decrease [Prefuse Power] and/or [Prefuse
Time]
Fat
Fiber stuffing too
high
Decrease [Overlap] and perform [Motor
Calibration]
Thin
Arc power not
adequate
Perform [ArcCalibration]
Some arc parameters
not adequate
Adjust [Prefuse Power], [Prefuse Time] or
[Overlap]
Line
Some arc parameters
not adequate
Adjust [Prefuse Power], [Prefuse Time] or
[Overlap]
•A vertical line sometimes appears at the splice point when MM fibers, or
dissimilar fibers (different diameters), are spliced. This does not affect splice
quality, such as splice loss or tensile strength.
Basic Operation
43
• Be careful not to contact the electrode tips.
•Do not use excessive force when cleaning the V-groove.
The V-groove arm may get damaged.
V-groove Va side
V-groove Vb side
Maintenance of Splicing Quality
1. Cleaning and Checking before Splicing
Critical cleaning points and maintenance checks are described below.
1-1. Cleaning V-grooves
If contaminants are present in the V-grooves, proper clamping may not occur,
resulting in higher splice loss. The V-grooves should be frequently inspected and
periodically cleaned during normal operation.
(1) Press MENU select [V-Groove Cleaning] from [Maintenance Menu].
(2) Open the wind protector, move the V-groove by the UP DOWN.
(3) Clean the bottom of the V-groove with an alcohol-moistened thin cotton swab.
Remove excess alcohol from the V-groove with a clean dry swab.
44
Fiber Clamp Chip
Cotton Swab
Cleaning Fiber Clamp Chips
Clean this area with
Cotton Swab.
The wind protector is opened
while pulling the wind protector
release lever on the wind
protector hinge side forward.
WPM-08
Wind Protector
mirrors
Maintenance of Splicing Quality
1-2. Cleaning Fiber Clamp Chips
If contaminants are present on the clamp chips, proper clamping may not occur,
resulting in poor quality splices. The fiber clamp chips should be frequently
inspected and periodically cleaned during normal operation. To clean the clamp
chips do the following.
(1) Open the wind protector.
(2) Clean the surface of the chip clamp with an alcohol-moistened thin cotton swab.
Remove excess alcohol from the chip clamp with a clean dry swab.
1-3. Cleaning Wind Protector Mirrors
If the wind protector mirrors become dirty, the fiber core position may be
incorrect due to decreased optical path clarity, resultinginhigher splice loss.
Clean the wind protector mirror installed in
the wind protector.
Remove the stopper.
45
Cotton Swab
Wind Protector Mirror
Cleaning Wind Protector Mirrors
Blade Cover
Fiber Clamp
Blade
CT-30 Series
CT-100
Fiber Clamp
V-groove clamp
Blade
Maintenance of Splicing Quality
(1) Clean the mirror surface with an alcohol- moistened thin cotton swab.
Remove excess alcohol from the mirror surface with a clean dry swab.
(2) Mirror should appear clean with no
streaks or smudges.
(3) Turn on the power and make sure no
smudges or streaks are visible on the
monitor screen. Press X/Y key to change
the screen and check the state of the lens
surface on both the X- and Y-screens.
Perform dust check.
In addition, [Dust Check] test is
recommended.
1-4. Cleaning Fiber Cleaver
If the circular blade or clamp pads of the fiber cleaver become contaminated the
cleaving quality could degrade. This may lead to fiber surface or end-face
contamination, resulting in higher splice loss.
Clean the circular blade or clamp pads with a cotton swab moistened with alcohol.
Clean the circular blade, clamp and V-grooves with a cotton swab moistened with
alcohol.
* Move cotton swabs along the white arrows shown in the picture below.
1-5. Arc Calibration
Arc Calibration is recommended before splice. See section [Arc Calibration].
46
•Fujikura recommends cleaning the objective lens when replacing
electrodes.
• Remove electrodes before cleaning objective lens.
• Do not hit or touch tip of electrode when cleaning it.
Objective Lens
Maintenance of Splicing Quality
2. Periodic Checking and Cleaning
In order to maintain the splicing quality of the splicer, periodic inspection
and cleaning are recommended.
2-1. Cleaning Objective Lenses
If the objective lens’ surface becomes dirty, normal observation of the core
position may be incorrect, resulting in higher splice loss or poor splicer
operation. Therefore, clean both lenses at regular intervals. Otherwise, dirt may
accumulate and become impossible to remove.
To clean the objective lenses do the following:
(1) Before cleaning the objective lenses, always turn off the splicer.
(2) Gently clean lenses’ (X-axis and Y-axis) surface with an
alcohol-moistened thin cotton swab. Using the cotton swab, start at the
center of the lens and move the swab in a circular motion until you
spiral out to the edge of the lens surface. Remove excess alcohol from
the lens surface with a clean dry swab.
(3) The lens surface should be clean and free of streaks or smudges.
(4) Turn on the power and make sure no smudges or streaks are visible on the
monitor screen. Press X/Y key to change the screen and check the state of
the lens surface on both the X- and Y-screens. Perform dust check.
2-2. Electrode Replacement
See section [Replace Electrodes].
2-3. Diagnostic Test
See section [Diagnostic Test].
47
•Make sure the wind protector mirror is inserted the correct way. If not,
the fiber cannot be observed correctly.
•Wind protector mirror Fujikura part number is WPM-08.
Right Side
Black Line
Reverse Side
No Black Line
Pull Wind Protector Mirror
Wind Protector Mirror
Wind Protector
Mirror Latches
Latch off with Finger
Maintenance of Splicing Quality
2-4. Replace Wind Protector Mirror
Replace the wind protector mirror if it cannot be cleaned or if it remains clouded.
To replace, do the following.
(1) Turn the splicer power off.
(2) Open the wind protector. Pull and unlock wind protector mirror latch with
fingers. While still pulling on mirror latch, use other hand’s fingers to pull on
wind protector mirror frame. The frame should raise and rotate back. Pull out
the mirror from its frame.
(3) Insert the new mirror into the frame. The clear glass side should face upward
while inserting mirror into the frame. Look into the mirror obliquely to
identify. If it is the correct side, the black line can be seen.
48
Manual Rotation with the FSM-100M/M+
Rotation requires opening the fiber holder lid,
rotating the fiber, closing the lid and recording the
image; rotation angles are random.
1. Fiber Type Compare
1-1. The Fiber identification function
Using the fiber identification function ensures repeatable results for production
splicing supplications. The fiber identification function identifies fiber that is
about to be spliced from core profile data that is stored in splicer memory.
Therefore, it is necessary to install the core profile data of the fiber into splicer
memory beforehand. This fiber identification function can prevent accidental
splicing with the wrong splicer mode and parameters (not optimized for that
particular fiber), and also prevents splicing the wrong fibers.
Installation of the core profile of the fiber
MENU → [Fiber Data Learning] → [Fiber Type Compare]
Put the cleaved fiber on the left side.
With the FSM-100P/P+:
The core profile of the fiber is installed automatically. (The fiber will be rotated
during the process.)
With the FSM-100M/M+:
If the message is displayed on the screen, set the fiber again. Before resetting the
fiber, note that the fiber should be rotated inside the fiber holder.
Select the memory area at the [Select Where to Save] screen, assign a fiber name and
save. Data can be deleted by pushing the MENU key.
Function Introduction
49
Setting
Description
Ignore
LR
If the combination of the fiber is corresponding to the settings for the
fiber types, splicing will proceed regardless of left/right fiber placement.
(Ex.: Left: SM/Right: LEAF or Left: LEAF/Right:SM)
Judge
LR
Even if the combination of fibers is correct, the splicer will only enable
splicing is the fibers are placed with the correct left/right orientation.
(Ex.: Only Left: SM, Right: LEAF when the setting is an above figure)
[Fiber Type Compare]
Set the [Fiber Type Compare] function to
enable the fiber identification function.
The fiber will then be identified from the core
profile of the fiber as compared to the data in
splicer memory.
[Fiber Data L/R]
Selection the appropriate core profile
for both the left and right fibers.
Function Introduction
1-2. Using the core profile of the fiber
The splicing time can be shortened by using the core profile of the fiber.
Enter [Edit Splice Mode] for the splice mode and edit [Fiber Data L/R].
Load the core profile data of the fiber on screen.
50
Please change the [SP Arc Calibration Ref] to [None] when [SP (Special)]
is selected as [Arc Calibration Method].
Auto Arc Calibration doesn’t perform when [None] is not selected.
Function Introduction
2. Auto Arc Calibration
2-1. [Auto Arc Calibration]
This function is used to analyze the Arc Brightness of the optical fiber during the
arc discharge and use the brightness data to automatically correct the arc power
value. It is necessary to “teach” the splicer the proper brightness for a particular
fiber type. This is easily accomplished using the procedure below.
2-2. Registration of Auto Arc Calibration data
MENU →[Fiber Data Learning] →[Auto Arc Calibration]
Put the cleaved fiber on the right and left.
51
Function Introduction
Select the memory area in the [Select Where to Save] screen, assign the appropriate
name (based on fiber type) and save.
If “FINISH” is displayed, press the ENT key to save the data.
2-3. Using the Auto Arc Calibration data
Enter [Edit Splice Mode] for the appropriate splice mode and select [Auto Arc
Calibration].
Select the proper [Auto Arc Calibration] profile from the drop-down menu for the
fiber being spliced in this splice mode.
52
The calibration value is
displayed.
Function Introduction
2-4. Auto Arc Calibration
This function calibrates the arc power during the splice. Whenever this function is
on, the arc power is automatically corrected based on fiber image brightness data.
The arc power correction value is applied prior to the next splice.
After the splice, arc information is displayed by pressing the X/Y key.
53
The fiber is rotated.
And, fiber information is
memorized.
Function Introduction
3. IPA Data (FSM-100P/100P+ Only)
3-1. IPA Data
The splicer aligns theta by using the memorized IPA data of each fiber.
PAS is recommended for the PANDA fiber alignment. The alignment of high speed
and accuracy is enabled.
Please use the IPA mode when PANDA alignment is impossible.
Method of acquiring Fiber Profiling Data
The fiber to memorize the profile data is set on the left side with glass clamping.
On the right side, the PM fiber that profiled data is already memorized in the
splicer with glass clamping. More accurate align can be done by connecting
with the light source and the power meter and executing this IPA data. To
acquire more accurate IPA data, use the light source and PER meter for precise
alignment.
(1) Select the IPA Data in the Fiber Data Learning menu.
Select the saving area for the IPA data and input the data name.
Execute the acquiring of IPA data according to the guidance.
54
Push MENU
Rough
5.0deg
Fine
0.2deg
FSM-100P/P+
Light Source
PER Meter
Fiber
Fiber
Function Introduction
(2) After data acquisition of the profile, the fiber is aligned by the splicer. To align
more precisely, use the light source and PER meter for manual alignment. To push
△ Step forward the fiber rotates. The rough tuning or fine-tuning is selectable by
pushing MENU. Search the most suitable fiber angle by the measured value of the
PER meter.
(3) After the manual alignment is fulfilled with light source and PER meter, push ENT
key to save the IPA data to the splicer.
When the IPA is selected in the [Alignment Mode],
The splicer aligns the fiber with referring to the IPA data.
55
The value will be updated
afterwards
Function Introduction
4. Arc Center Compensation
4-1. Arc Center Compensation Function
This function is used to analyze the arc brightness of fiber during arc discharge,
which is used to establish the arc discharge center position.
MENU →[Edit Splice Mode] → [Arc Center Compensation] → [ON].
During arc discharge the arc centers about the fibers and is saved. See screens
below.
56
The corrected time is
displayed on the screen.
Function Introduction
5. Auto Time Comp.
5-1. Auto Time Comp. Function
This function is used for G652 SMF splicing.
Arc power is optimized according to core concentricity-error.
If [ECF] is "OFF", this function is not available.
MENU →[Edit Splice Mode] →[Auto Time Comp.] ON.
[Alignment Mode] Only the Core value is displayed.
Arc discharge time is optimized and displayed on the screens below.
57
Function Introduction
6. MFD Mismatch
6-1. MFD Mismatch Estimation Function
This function is the estimation of MFD Mismatch Loss after splicing. MFD
Mismatch Loss is caused by mismatch of MFD (Mode Field Diameter) between
different kinds of fibers.
If you splice the same kind of fibers, this function is not available.
(1) MENU →[Edit Splice Mode] →[MFD Mismatch] WSI or CSI.
WSI (Warm Splice Image) means that estimating the MFD Mismatch Loss by
an image during arc. And CSI (Cold Splice Image) means that estimating by an
image after finished splicing.
WSI method is suitable for fiber without depressed cladding like fluorine.
CSI method is suitable for fiber with depressed cladding.
(2) When you use this function, you need to set two parameters, [MFD Mismatch
Offset] and [MFD Mismatch Sensitivity].
[MFD Mismatch Offset] means the standard value of estimating the MFD Mismatch
Loss.
[MFD Mismatch Sensitivity] means the sensitivity of the MFD Mismatch Loss.
You need to optimize these parameters according to the following steps, because
[MFD Mismatch Offset] and [MFD Mismatch Sensitivity] depend on property of
fibers.
(2) Next, splice the fiber by using suitable setting. Input the value of MFD
Mismatch after splicing as the MFD Mismatch Offset in the Edit Splice Mode.
59
+2sec
-4sec
Optimized condition
[MFD Mismatch Sensitivity]
= 0.50
[Minimum Loss] = 0.16
Function Introduction
(3) Next, splice the fibers under various
conditions to acquire the data.
Measured splice loss and estimated
MFD Mismatch data are needed under
conditions as the following.
Conditions:
Main Arc Time +/-4000ms, +/-3000ms,
+/-2000ms, +/-1000ms (8 splicing data)
(4) Optimize the MFD Mismatch Sensitivity
so that the dotted line in the graph
becomes same tendency to the sampled
data.
(5) Finally, optimize the value of Minimum
Loss so that almost all of the sampled
data is in the range of the dotted line in
the graph.
60
End-View Mirror
Fiber End Face of End-View
Function Introduction
7. End-View observation system
The cleaved ends of the optical fiber are observed in the axial direction by a means of a
mirror that directs the fiber end image into the camera system. This allows precise
alignment and splicing of uniquely structured fibers, such as PM, multi-core,
non-circular (hexagonal, octagonal, etc.) or micro-structured “holey” fibers. This
system is available only in the FSM-100M+ and FSM-100P+ models.
(1) Select the [Edit Splice Mode] → [θ Alignment] → [Alignment Method] then
[EV].
(2) Press SET key, then fibers move forward and stop at certain position after
cleaning arc. When [EV] is selected, End view observation is performed for
theta alignment.
61
Selection
Description
Reset All
All motors are reset
None
No motors are reset except the
End-View mirror motor
(necessary to protect the mirror)
Only θ Motors
Only θ motors are reset
Follow Splice
Mode Settings
Motor reset is controlled by the
[Clamp Action], and the [Sweep
Initial Position], [Except Z
stages] and [Z Stages] stage
positions settings in the
[Fundamental Settings] section
of the [Edit Splice Mode] menu.
The [Jump Back to READY]
function must be enabled in
the [Splice Settings] menu
Reset Selection Menu
Function Introduction
8. Selective Reset Function
Normally, when the RESET key is pressed, the splicer resets all motors to the home
position and returns to the [READY] condition. This will happen if the RESET key is
pressed just briefly (for example, for 1 second or less). If the operator presses the
RESET key continuously for 3 seconds a reset selection menu appears as shown below.
This menu allows various options for selectively controlling which motors reset to
home position and which motors remain stationary and do not move during the reset
operation. This can be very useful for special splicer operations. The reset options are
shown at the bottom of the screen.
NOTE: In certain conditions, the End-View mirror motor of the FSM-100M+/P+ splicer
models will be reset regardless of the reset menu selection. This may be required in order to
protect the End-View mirror.
9. Jump Back to READY
During splicer operation, when the splicer reaches [PAUSE1], [PAUSE2], [PAUSE θ],
and [FINISH], it is possible to jump back to the “READY” condition without resetting
any motors. This action is taken by pressing the LEFT arrow key.
This function is normally disabled. To enable it, the [Jump back to Ready] parameter on
page 3 of the [Splice Settings] menu must be enabled, as shown below.
62
Function Introduction
10. Theta Alignment by Rotating 1 Fiber Only (FSM-100P+ Only)
Normally, when PM fibers or other fibers are rotationally aligned by the splicer theta
motors, both right and left fibers rotate in order to perform the alignment. However, in
some cases a fiber may have a component that may be damaged by θ rotation (such as a
pump combiner) or a fiber may have only a short available length that cannot withstand
rotational motion for θ alignment, and might be damaged or even broken by rotation. In
this case, it is helpful if that fiber is held stationary in the splicer and the only the
opposite fiber is rotated.
With conventional PAS theta alignment, it is always necessary to rotate the fiber so the
camera system can observe the side images of the fiber at different rotational position.
However, with the End-View system in the FSM-100P+, it is possible to observe the
End-View image of one fiber without rotating it, analyze the image and determine
relative angular orientation of the polarization axis (or other fiber features), and rotate
the opposite fiber to match the angle orientation of the stationary fiber. The [EV Lock]
Alignment Method is used to perform this operation.
The [EV Lock] Alignment Method is selected for the fiber that will not be rotated.
Therefore, the opposite side fiber must be rotated to match. Therefore, [EV Lock] may
be selected for either the right or left fiber, but not for both fibers. If [EV Lock] is
selected for one fiber, the opposite side fiber may be aligned to it using [EV] or the
[PAS] theta alignment method.
Lock] for the fiber to be held stationary. Select [θ Alignment] → [Alignment
Method] and then either [EV] or [PAS] for the opposite fiber.
(2) Press the SET key. Both fibers move forward and stop after the cleaning arc.
End-View analysis will be performed for the stationary fiber.
(3) The opposite fiber will be analyzed and rotated to match the orientation of the
stationary fiber, using the selected [Alignment Method] ([EV] or [PAS]).
(4) After theta and X/Y alignment, the fibers will be spliced together.
63
Function Introduction
11. Synchronized θL and θR Motor Drive (FSM-100P/100P+ Only)
In some cases it may be useful to simultaneously rotate the left and right fibers in order
to inspect the fiber orientation before splicing or to inspect a completed splice without
risk of inducing torsion which might break the splice point. In the FSM-100P and
FSM-100P+ splicers it is possible to manually rotate the θL and θR motor in unison.
In any situation in which motors may be selected for operation, it is possible to select
θLR in order to perform synchronized operation of the left and right theta motors.
Motors driving operation may be performed by accessing [Motor Drive] in the
[Maintenance Menu] in the [PAUSE1], [PAUSE2], [PAUSE θ], and [FINISH] state.
Motor operation is also possible when using the [Precise Motor Drive] function, or
whenever performing manual splicing operations such as when [Gap Set] or the fiber
[Alignment Mode] are set to [Manual].
Operation is the same as manual operation of any individual motor. Use the Left/Right
arrow keys to select θLR. Use the UP/DOWN arrow keys to rotate the left/right fibers
in unison.
64
Select [Yes] for [Splice Before Shaping]
Function Introduction
12. Splice Before Fiber Shaping
The FSM-100 series splicers have three operating modes, [Basic] splicing mode, [Full]
splicing mode (with many more parameters and capabilities than [Basic] splicing
mode), and [Fiber Shaping] mode. The operating mode is selectable for any
programmable splice mode in the [Edit Splice Mode] menu.
Normally the [Fiber Shaping] mode has been used for shaping a single fiber, such as
creating a ball lens on the end of a fiber. For more complicated operations that first
involve performing a splice between and left and right fiber, followed by a fiber
shaping operation, the [Full] splicing mode can be used. For example, and coreless
fiber can initially be spliced to a single mode fiber, and then the splice point can be
moved to one side so that a second arc can be used to cut off most of the coreless fiber
and generate a ball lens with the remaining section of coreless fiber. This results in a
pure silica glass ball lens on the end of a single mode fiber. However, performing this
operation using the [Full] splicing mode may cause many problems due to error
messages when the splicer inspects the splice quality for splice loss and defects, and
this also results in a slower process.
These problems are avoided by using the [Fiber Shaping] mode to perform all
operations. If a splice must be performed prior to the fiber shaping operation, First
setup a splice mode by selecting [Fiber Shaping] as the [Operating Mode] in the
[Fundamental Settings] of the [Splice Mode Edit] menu. Next, select [Yes] for the
[Splice Before Shaping] parameter. The [Splice Before Shaping] parameter is also in
[Fundamental Settings] of the [Splice Mode Edit] menu, but the [Splice Before
Shaping] parameter only appears after [Fiber Shaping] has been selected as the
[Operating Mode].
65
Function Introduction
13. Help Key
During splicer operation, when the splicer reaches [PAUSE1], [PAUSE2], [PAUSE θ],
and [FINISH], a [How to operate] menu is displayed as shown below when the HELP
key is pressed. This menu shows options for the next step in splicer operation.
66
If the strength of arc discharge has changed due to significant change of
atmospheric pressure, an error may occur during arc calibration. To solve
this problem, perform [Stabilize Electrode].
Arc Calibration
1. The necessity of arc calibration
Atmospheric conditions such as temperature, humidity, and pressure are constantly
changing, which creates variability in the arc temperature. This splicer is equipped
with temperature and pressure sensors that are used in a constant feedback monitoring
control system to maintain the arc power at a constant level. Changes in arc power due
to electrode wear and glass adhesion cannot be corrected for automatically. Also the
center position of arc discharge may shift left or right. In this case, the fiber splicing
position has to be shifted in relation to the arc discharge center. It is necessary to
perform an arc power calibration to eliminate either of these issues.
This machine has two kinds of calibration functions. [Arc Calibration] & [Special
Arc Calibration]. Generally, the standard [Arc Calibration] is used for normal 125
µm fibers spliced under standard arc settings (such as 1 mm electrode gap). For large
diameter fibers, other fibers that require a larger electrode gap or other special
conditions such as V Height Shift (vertical displacement of the fiber location up or
down relative to the electrodes), or small or heat-sensitive fibers, the [Special Arc
Calibration] should be used. This is summarized in the table below. Please refer to
the previous section [Function Introduction] for details concerning [Auto Arc
Calibration], [Arc Center Compensation], and [Auto Time Comp.] which are related
functions.
67
Item
Arc Calibration
Special Arc Calibration
Arc Calibration
Method
STD (Standard)
If STD is not selected, it doesn’t
operate.
SP (Special)
If SP is not selected, it doesn’t
operate.
Electrode Gap
1.0 mm
Any Edited Value
V Height Shift
0 µm
Any Edited Value
Clad Diameter
125 µm
Any Edited Value
Arc Center
Compensation
Calibration Provides Correction
Calibration Provides Correction
Calibration Result
Arc power is calibrated. The result is
applied to all splice modes that utilize
the standard [STD] Arc Calibration.
Special Arc Calibration [SP] result is
used to calculate and set appropriate
arc power only for the selected splice mode. Further arc power optimization
may be required for best performance.
[Electrode Gap]
[V Height Shift]
[Clad Diameter]
[Electrode Gap]: 1 mm only
[V Height Shift]: 0 µm only
•Use well prepared fibers for arc calibration. Dust on the fiber surface
affects arc calibration.
Select [STD (standard)] as [Arc Calibration Method].
Special Arc Calibration doesn’t work when [SP (Special)] or [NC] is
selected.
Arc Calibration
2. Arc Calibration Mode
(1) Select [Arc Calibration] in [Maintenance Menu] to display [Arc Calibration]
screen.
69
Fibers are spliced with an
intentional axis offset for arc
power calibration.
Arc discharge is
performed without
fibers in the view screen
to detect the center of
arc discharge and adjust
the gapset position.
Arc Calibration
(2) Place prepared fibers in the splicer.
(3) The following is performed after pressing ENT key.
Axial offset decreases by the surface tension effect when multiple re-arcs are
performed. During the process, the change of axial offset amount is
measured and this is taken into consideration to calibrate arc power.
70
•In some cases, multiple iterations of arc calibration are needed until the
calibration process is successfully completed and the “Test Finish”
message is displayed. Arc calibration can be considered almost
completed if multiple iterations are completed without receiving the
message
•A maximum number of tests can be set so that “Test Finish” message is
displayed specific number of arc calibrations are performed. See the
[Maintenance Settings] for detail.
(4) The calibration result is displayed after completion.
“Test Finished” message
After arc power and splicing position
calibration are successfully completed press
the ENT key to exit.
“Test Again” message
Arc power and splicing position calibration
are completed but further calibration is
strongly recommended, as the difference
between the previous arc calibrations may
be too large. Press ENT key to perform arc
Arc Calibration
calibration, or ESC key to exit and stop arc
calibration.
71
Select [SP (Special)] as [Arc
Calibration Method].
Special Arc Calibration doesn’t
work when [STD (Standard)] or
[NC] is selected.
Select [None] as [SP arc Calibration
Ref] to perform Special Arc
Calibration.
Special Arc Calibration doesn’t
work when [None] is not selected.
Arc Calibration
3. Special Arc Calibration Mode
(1) Select [Special Arc Calibration] in [Maintenance Menu] to display
[Special Arc Calibration] screen.
72
Cleave angle threshold does not link to the parameter “Cleave Limit” in
splicing modes. Cleave angle threshold is independently set for arc
calibration. See the [Maintenance Settings] to change cleave angle
threshold.
•Use the assigned fiber.
•Use glass clamping.
•Use cleaned fibers for arc calibration. Dust affects arc calibration.
Right and left fibers
advance.
The electrical discharge
is observed.
(2) Place prepared fibers in the splicer.
(3) Press ENT and perform the following.
During additional electrical discharges, the electrical discharge power is
adjusted after measuring the round end face shape.
Arc Calibration
73
Arc Calibration
(4) The calibration result is displayed after completion.
“Test Finished” message
Indicates that the standard electrical discharge calibration and the calibration of
the connecting location have ended accurately. Press ENT
“Test Again” message
Indicates that the standard electrical discharge calibration and the
calibration of the connecting location have ended and the arc discharge
power could not be calibrated.
When ENT is pushed, the standard electrical discharge
calibration is executed again.
ESC ends this function.
74
"Uneven Melt At Fiber End" message
If [Uneven Melt Detection Thr.] is set, this message appears when uneven
melt of the fiber at the fiber end is detected.
The value at the bottom of the screen shows defference of melt amount
between upper and lower side of the fiber. Positive value means the upper
side melted more than the lower side and negative value means the lower
side melted more than the upper side.
If this error occurs, perform [Stabilize Electrodes] or [Replace Electrodes].
If these functions don’t solve the problem, please consult with your nearest
authorized distributor.
Arc Calibration
75
Display the Splice Mode
Select the area which
Display the data base when
fiber type is selected
Splice Mode
The optimum splice setting for a specific fiber combination consists of the splicing
parameters listed below. In other words, the optimum splicing parameters depend on
the fiber combinations and are different from fiber to fiber.
Parameters for controlling arc discharge / heating.
Parameters for calculating estimated splice loss.
Parameters for controlling fiber alignment and splicing procedures.
Threshold for error messages.
A series of optimum splice parameters for major fiber combinations are already
stored. These parameters are stored in the database area and can be copied to the
user-programmable area. These splice parameters can be edited for a specific
fiber combination. When the [Fiber Type] is selected from the splice setting of
“Database area”, the factory default settings are overwritten on the splice mode
being edited. When operating Mode is selected and it changes to Full, Basic, and
Fiber Shaping displayed menu composition changes. When you want to do a
detailed setting select [Full] mode.
76
MENU
Decide
ENT
ENT
•When [Auto Stuff Control] is set to [OFF], Splice Mode is displayed in yellow.
The displayed color can select [Yellow letters] or [White letters].
See Section[Machine Settings]
Splice Mode
1. Splice Mode Selection
Select an appropriate splice mode for type of fiber to be spliced.
(1) Press MENU key at [READY] state to open [Splice Menu]. Select [Select
Splice Mode] is displayed.
(2) Move cursor by pressing , and press ENT key to select [Splice Mode].
(3) Please confirm whether the selection is correct on the READY screen.
77
Parameter
Description
Select Splice Mode
Refers to selected condition parameter.
Pause1
Pauses after Gap Set are measured.
Pauseθ
Pauses after θ when “ON".
Pause2
Pauses after ECF function when “ON”.
Auto Start
When [Auto Start] is "ON", the selected operation
starts automatically after the fibers have been loaded
and the wind protector closed.
Memory
Refers to a previously stored result.
For the FSM-100P/P+,
Pauseθ is displayed.
For the FSM-100M/M+
Pauseθ is not displayed and
is not available because
those splicers do not have θ
rotation capability
Splice Mode
2. Splice Option
This parameter is a set value common to all modes.
(1) Press MENU key at [READY], [PAUSE] or [FINISH] state.
(2) Move cursor by pressing , keys to a parameter to be changed.
(3) Press ENT key to select parameter and change the parameter.
Splice Menu Parameter
78
Splice Mode
3. Editing Splice Mode
Splicing parameters in each splice mode can be modified. Arc power and arc time
are considered the two most vital parameters. To edit these parameters do the
following:
(1) In [Select Splice Mode], move cursor to a splice mode to be
modified. Press MENU key to display [Edit Splice Mode] menu.
(2) Move cursor by pressing , keys to a parameter to be
changed.
(3) Press ENT key to select Parameter. Press Left/Right key to
change its value. Press ENT key to accept changed values.
79
ARC
Discharge
ZR Motor
Motion
I
E
F
J
M₁
K
L
C
T
A
B
O
N P G
H
W
D
Q
R
M₂
U
V
S
Special Function
Step1
Special Function
Step2
Rearc
A: Prefuse Power B: Arc Power C: Arc Power (Special Function Step1)
D: Arc power (Special Function Step2) E: Cleaning Arc Time
F: Prefuse Time G: Prefuse On Time H: Prefuse Off Time
I: Forward Time related to Overlap J: Arc Time
K: On-Time (Special Function Step1) L: Off-Time (Special Function Step1)
M1: Start Time (Special Function Step1) M2: Finish Time (Special Function
Step1)
N: Taper Wait O: Taper Length P: Taper Speed
Q: Start Time (Special Function Step2) R: Start Time (Special Function Step2)
S: Acceleration T: Rearc Time U: Rearc On Time
V: Rearc Off Time W: Rearc power
Splice Mode
Below is a figure showing the arc discharge conditions (relationship between “Arc
power” and “Motor motion”). The conditions can be edited by changing the splicing
parameters listed below. Depending on splice mode, certain parameters cannot be
changed.
80
Parameter
Description
Fundamental Settings
Fiber Type
A list of splice modes stored in the splicer database is displayed.
Upon inputting the appropriate mode, the selected splice mode
stored in database area is copied to a selected splice mode in
user-programmable area.
※The parameter doesn't exist according to the model because this
chapter explains in the Full mode.
Mode Title 1
Title for a splice mode expressed in up to nine characters.
Mode Title 2
Detail explanation for a splice mode expressed up to 15 characters.
Operating Mode
[Full] [Basic] [Fiber Shaping] selected [Edit Splice Mode] of The
composition of the parametrical expression changes.
Use [Full] mode when you want to do a detailed
setting
The Basic mode doesn't include the Special
Function mode.
The Fiber Shaping mode can be used for the
roller end face processing etc.
Auto Stuff Control
[Prefuse Power] and [Prefuse Time] change to the recommended
value when [ON] is selected and the splicer controls [Stuff Speed]
at the optimum speed.
This function doesn't operate when [OFF] is selected.
White display indicates [ON]. Yellow display indicates [OFF].
• The menu composition changes when the mode is
changed and selected with Operating Mode.
Edit
display
•The splice loss will be inconsistent for specific types of fiber
combinations when not using [Auto Stuff Control] function.
Splice Mode
In other splice modes in the user-selectable database, the user can select one from a
series of factory-set splicing modes for various splicing combinations. Below are the
descriptions of the various parameters used in these modes.
81
Parameter
Description
Fundamental Settings
Electrode Gap
Sets the gap between electrodes
"3mm" is recommended for
splicing larger than 400μm
cladding diameter fiber.
A change in the parameter is
confirmed by the display.
V Height Shift
Sets height of V-groove.
Arc Calibration
Method
Select STD (Standard) or SP (Special) or NC (No Calibration)
STD (Standard)
Arc power is updated by arc calibration in all modes, and is
highlighted in white on the display.
SP (Special)
Arc power is updated by arc calibration in a selected mode, and is
highlighted in yellow on the display.
NC (No Calibration)
This item is highlighted in red.
Uneven Melt
Detection Thr.
Sets the detection threshold of "Uneven Melt At Fiber End" error.
For more detail, refer to [Special Arc Calibration Mode]
SP Arc
Calibration Ref
The splicer displays the parameter when [SP (Special)] is selected as
[Arc Calibration Method].
The parameter indicates Splice Mode number to refer to SP arc
power, or [None].
When [None] is selected, the splicer refers to SP arc power in the
same Splice Mode.
When a splice mode number is selected, the splicer refers to SP arc
power of the referenced splice mode.
Mode # option list for [SP Arc Calibration Ref] includes only the
modes that use [SP (Special)] as [Arc Calibration Method] as well as
[None] as [SP Arc Calibration Ref].
Auto Arc
Calibration
This function calibrates the arc power at splice. Whenever this
function is on, the arc power is automatically corrected. The
correction value is used in the next splice. Select fiber data.
[Fiber Data Learning]→[Auto Arc Calibration]
Arc Center
Compensation
The center of the arc discharge is calculated and the [Gapset Position]
is automatically adjusted by selecting ON.
Splice Mode
82
Parameter
Description
Fundamental Settings
Fiber Type
Compare
[Fiber Type Compare]: Fiber image data is used to ensure that the
correct types of fiber are loaded for a particular splice mode.
[Ignore LR]: The splicer ensures the correct fiber types have been
loaded, but ignores left/right fiber position
[Judge LR]: The splicer confirms correct fiber type and also ensures
that the fibers are set on the correct side of the splicer
[Fiber Data]: Select and link appropriate fiber recognition data from
the [Fiber Type Compare] database.
See section [Function Introduction][Fiber Type Compare]
Fiber Data L
[Fiber Data Learning]→ [Fiber Type Compare]: Load fiber data.
Fiber Data R
Precise Motor
Drive
This function enables enhanced motor movement precision for certain
manual operations. When this function is ON, if the X/Y motor is
moved, the PAS camera system measures the exact fiber movement to
ensure the movement distance is correct. When [Precise Motor Drive]
is ON, the Precise Motor Drive menu appears just after automatic X/Y
alignment.
Proof Test
Selects Proof Test settings.
Electrode Wear
Coef.
Sets an increasing ratio of [Electrodes Time Used]. The value is
determined by multiplying the arc time and this coefficient and is
added to [Electrodes Time Used] on every arc discharge.
Splice Before
Shaping
If this parameter is set to [Yes], a splice of a left and right fiber will be
performed (according to the programmed splice mode parameters) at
the first step when [Fiber Shaping] has been selected as the [Operating
Mode].
Splice quality will not be inspected, loss estimation will not be
performed and error messages such as “Thin Fiber”, “Fat Fiber” (etc.)
will not appear. Instead, the splicer will proceed to the [Fiber Shaping]
steps as programmed in the [Special Function] parameters.
This capability is useful for various special activities, such as an
automated operation to splice a coreless fiber to a SM fiber, and then
automatically generate a ball lens with the coreless fiber.
NOTE: This parameter only appears if [Fiber Shaping] has been
selected as the [Operating Mode].
Clamp Action
This parameter determines what action is taken by Va and clamp
motors during [Reset] or when the wind protector is opened.
[Auto]: Fiber clamps and Va motors reset automatically
NOTE: [Auto] is the default condition
[Fixed]: Fiber clamps and Va motors remain stationary at the preset
positions determined by left/right fiber data (such as fiber cladding and
coating diameter) unless these motors have been moved manually
Splice Mode
83
Parameter
Description
Stage Positions at Start
Sweep Initial
Position
When the splicer resets or an operator changes the splice mode, the
sweep motor moves to the indicated position.
Except Z Stages
These parameters determine what action is taken by Z Stage motors
and all other motors (with the exception of End-View mirror motor, Va
and clamp motors) during [Reset] or when the splice mode setting is
changed.
[Predefined]: Motors move back to predefined “home” positions
automatically
NOTE:
[Predefined] is the default condition
[Keep]: Motors remain stationary at their present positions even if set
to that position manually or by other operations such as automatic
alignment. The present motor position will be maintained if [Reset] is
performed or if the wind protector is opened.
When the operator sets a value except [Center] to [Sweep Initial
Position], the splicer doesn’t display [Z stages] and executes as
[Predefined].
Z Stages
Splice Mode
84
Parameter
Description
Fiber Information
Left
Fiber
Right
Fiber
Coating
Diameter
Sets the fiber coating diameter.
Clad
Diameter
Sets the fiber cladding diameter.
The change in the parameter can be confirmed by the display.
[Coating Diameter] [Clad Diameter]
Core
Diameter
Sets the fiber core diameter.
MFD
•When the MFD settings of the left and right fibers are different,
the ratio of the one MFD to the other MFD is used for estimating.
Normally, the fiber entered in the parameter [MFD-L] can be
placed on either the left or the right side.
•If the [Gapset Pos.] is shifted from “Center,” the operator may be
required to place the correct fiber in the specified side.
•When splicing the left and right fibers with the same MFD, both
the parameters [Left Fiber MFD] and [Right Fiber MFD] must be
set to the same value.
Cleave
Length
Sets the cleave length (bare fiber part length).
Setting of the Left Fiber is changed.
Setting of the Right Fiber is changed.
≪FSM-100M+/P+ only≫
•Use adequate electrodes according to the fiber diameter.
Splicing 501um and over fiber: Use ELCT3-25-LDF electrodes
Splicing 500um and under fiber: Use ELCT3-25 electrodes
•Perform [Stabilize Electrodes] and [Arc Calibration] when
exchanging electrodes.
• To prevent the electrode unit from damage by hitting the fiber
and electrode unit, set [Electrode Gap] to 1.5mm or larger when
splicing 800um and larger fibers.
Splice Mode
85
Parameter
Description
Gapsetting
Gap Set
[Splicing] [L Only] [R Only] [Manual] changes Gap Set
Cleaning Arc
Power Note1
Sets the Cleaning Arc Power.
[STD] or [SP] or [NC] is selected automatically in Arc Calibration
Method.
Cleaning Arc
Time Note1
Adjusts duration of the cleaning arc. The arc power of [Cleaning Arc] is the
power set in the field [Prefuse Power].
Gap
Sets the end-face gap between the left and the right fibers at the time of
aligning and prefusion discharge. When splicing fibers of small outside
diameter, fusing by prefusion discharge can be reduced by diminishing this
gap. Adjusting the prefuse power and prefuse time is usually easier method.
Gapset Position
Sets the relative position of the splicing location to the center of electrodes.
Splice loss may be improved in the case of dissimilar fiber splicing by
shifting [Gapset Position] towards a fiber whose MFD is bigger than the
other fiber MFD.
Parameter
Description
Cleaning Arc
Cleaning Arc
Power
Sets the Cleaning Arc Power
[STD] or [SP] or [NC] is selected automatically in Arc Calibration Method.
Cleaning Arc
Time
Adjusts duration of the cleaning arc. The arc power of [Cleaning Arc] is the
power set in the field [Prefuse Power].
Electrode swing
Set ON or OFF. 2 items below are needed when ON is selected.
Swing home
position
This is to set swing home position.
Swing stroke
This is to set electrode swing stroke
Both left and right
fibers move to the gap
set position.
Left fiber moves to the
gap set postion.
Right fiber moves to
the gap set position.
Splice
L Only
R Only
Splice Mode
Note 1: FSM-100M/P only
86
FSM-100M
+/P+
Only
Parameter
Description
θAlignment [FSM-100P /P+ Only]
Angle Offset
Sets Angle Offset.
After theta alignment, one fiber rotates to the Angle Offset position:
Selectable between 0 and 360 degrees.
Example: Select 45º to generate a depolarizer, or select 90º degrees to
align the slow axis of one fiber to the fast axis of the other fiber.
Left Fiber / Right Fiber [FSM-100P/P+ Only]
Alignment
Method
Can be set to [PAS] [P-Meter], [EV], [EV Lock] or [OFF].
NOTE 1: [EV] and [EV Lock] are available only with the FSM-100P+.
NOTE 2: A different alignment method can be selected for the right
and left fibers. For example, [PAS] can be selected for the right fiber
and [EV] can be selected for the left fiber.
NOTE 3: When splicing a PM fiber to a non-PM fiber such as SM, it
may be useful to perform θ alignment with the PM fiber. This will help
to provide a consistent and uniform X/Y image of the completed fiber
splice because the PM fiber will always be aligned relative to the
splicer X/Y cameras. There will be no actual benefit for optical quality,
but confusion on a production line may be reduced because of
consistent splice appearance. To perform a splice by this method, select
[PAS] or [EV] for the PM fiber, and select [OFF] for the SM fiber.
NOTE 4:Special [EV Lock] Alignment Method: [EV Lock] is a special alignment method useful for critical needs.
When [EV Lock] is selected, the End-View system image
processing will be used to analyze the rotational orientation of the
fiber. However, the fiber using [EV Lock] as the [Alignment
Method] will not rotate. It will remain stationary. Instead, the
opposite side fiber will be rotated to match the stationary rotational
position of the [EV Lock] fiber.
Since the fiber with [EV Lock] alignment will not be rotated, the
opposite fiber must be rotated to match. Therefore, [EV Lock] may
be selected for either the right or left fiber, but not for both fibers.
If [EV Lock] is selected for one fiber, the opposite side fiber may be
aligned to it using [EV] or the [PAS] method
Use of the [EV Lock] can be very beneficial if one fiber has a
component that may be damaged by θ rotation (such as a pump
combiner) or if one fiber has only a short fiber length that cannot
withstand rotational motion for θ alignment. In this case, select [EV
Lock] for the fiber that might be damaged by rotation, and select
another alignment method for the other fiber.
Splice Mode
87
Parameter
Description
Left Fiber / Right Fiber [FSM-100P/P+ Only]
Alignment
Mode
When [PAS], [Powermeter], [EV] or [EV Lock] is selected as the
[Alignment Method], the following screen image is displayed to enable
selection of an [Alignment Mode] to correspond to the [Alignment
Method].
Select [Panda], [IPA], [B1500T], [Angle], [D-Shape], [Panda2], [Ecc]
or [Manual] when [PAS] is selected as the [Alignment Method].
Select [Max], [Min] or [Manual] when [Powermeter] is selected as the
[DC-Panda], or [Octagon] when [EV-Lock] is selected as the
[Alignment Method].
NOTE 1: [EV] and [EV Lock] are available only with the FSM-100P+
NOTE 2: If [PAS] is selected as the [Alignment Method], many Panda
type fibers as listed below are very quickly and accurately aligned using
[Panda] as the [Alignment Mode]. Some other low-contrast Panda fibers
as well as fibers listed below under “IPA” are best aligned using [IPA] as
the [Alignment Mode].
If the alignment
mode is OFF,
“OFF” is shown on
the display.
Splice Mode
88
Parameter
Description
Left Fiber / Right Fiber [FSM-100P/P+ Only]
Correction
Angle
The splicer rotates both left and/or right fibers through an additional
correction angle if one is programmed for either fiber.
NOTE: A correction angle may sometimes be useful to improve
alignment accuracy for a particular type of PM fiber or for a particular
fiber production lot.
IPA Settings [FSM-100P /P+ Only]
Rotation Step
Angle
Sets rotation step angle of IPA operation.
Can be selected the resolution between 1 and 10 degrees.
Total Rotation
Angle
Sets total rotating angle of IPA operation.
Can be set to [180°] or [360°].
Left Fiber / Right Fiber [FSM-100P/P+ Only]
Method
Can be set to [Auto], [Diff.Fiber] or [Same Fiber].
Reference
Model
Can be set to [Find Best], [*PANDA], [*BOWTIE], [*PANDA-S1],
[*PANDA-S2], or [IPA Data] registered by [Fiber Data Learning].
For the details, see section [IPA Data].
Additional θ Alignment [FSM-100P/P+ Only]
θ Motor Drive
[EV]
If [θ Motor Drive [EV]] is set to "ON", "θ Motor Drive [EV]" screen
appears after gap set or θ alignment. At "θ Motor Drive [EV]" screen
rotational position of the fiber can be adjusted manualy while the fiber
end is shown on the screen.
Focus Control
If [Focus Control] is set to "ON", focus is adjusted automaticaly when
the "θ Motor Drive [EV]" screen appears or the view for the fiber is
changed on "θ Motor Drive [EV]" screen.
• The IPA Settings of [θ Alignment] and [Angle Offset Estimation] are common
settings. If the IPA Settings of [θ Alignment] are changed, the settings for
[Angle Offset Estimation] are also automatically changed to the same settings.
•θAngle Adj. can be used, even if [θ Align] is “OFF”.
Splice Mode
89
Parameter
Description
XY Alignment
Alignment
Method
Selects XY Alignment [OFF], [PAS], [EV] or [P-Meter]
Note : [EV] is able to be only FSM-100M+/P+
Only for Alignment Mode: [Core]
Set the ECF ON or OFF.
Set the axial offset ratio for ECF.
Attenuation
Set the Attenuation ON or OFF.
If Attenuation is ON, the following setting is ready to edit.
Unit Of Align
Target
Sets the units for align target for attenuation splice.
XY
Individually
Set the XY Individually ON or OFF.
*Only if the [μm] is selected, the setting of XY Individually is available.
Align Target
Align Target units [μm], [dB], and [dBm].
*The setting of XY Individually is available in the following conditions
Unit Of Align Target:[dB] [dBm] [μm]
XY Individually: [OFF]
XY Alignment: [PAS]
Selects Alignment Mode
[Core], [Clad] or [Manual]
Alignment Method:
[P-Meter]
Selects Alignment Mode
[Max], [Min] or [Manual]
Splice Mode
90
[Attenuation]
Parameter
Description
XY Individually
Sets XY Individually ON or OFF.
Offset Direction X
[XY Individually] ON,- [Offset Direction X] and [Offset Direction
Y] are available.
Select the direction of X and Y offset.
Offset Direction Y
Align Target X
[XY Individually ON, - [Align Target X] and [Align Target Y] are
available.
Set the target value of X and Y.
Align Target Y
Attenuation
Unit Of Align Target
XY Individually
Offset Direction
Align Target
ON
OFF
Attenuation Parameter composition
Align Target Y
OFF
ON
μm
dB
dBm
No Function
Align Target X
Offset Direction
[Unit Of Align Target]: [μm]
XY Individually: [OFF]
XY Individually: [ON]
Splice Mode
91
Parameter
Description
Focus Settings
Focus LX
Views a fiber in one of the four focus settings.
The focus moves toward the core when the [Focus] value is increased.
“Auto” focus is strongly recommended, focusing independently if
they are different fiber types (dissimilar fiber splicing).
Focus LY
Focus RX
Focus RY
Prefuse
Prefuse Power
Prefuse arc power adjustment. If [Prefuse Power] is set too low, axial
offsets may occur if the cleave angles are off. If [Prefuse Power] is set
too high, fiber the end faces are exposed to excessive heat and splice
losses may be high.
Arc Calibration Method [STD] [SP] or [NC] are selected automatically.
Prefuse Time
Sets duration of the prefuse arc, which until the fibers begins stuffing.
Longer [Prefuse Time] is equivalent to higher [Prefuse Power].
Prefuse On
Time
During prefuse discharge, the heat supplied by the arc can be reduced by
changing the duty cycle, time on to time off of the discharge. The period
in which prefuse discharge is turned on is set in this field.
Prefuse Off
Time
Sets the time prefuse discharge is off.
Electrode
swing Note:1
Set On or OFF. Below 2 items are needed when ON is selected.
Swing home
position Note:1
This is to set swing home position.
Swing stroke
Note:1
This is to set electrode swing stroke
Overlap
Overlap
Sets the overlap amount for stuffing. [Overlap] should be small when the
[Prefuse Power] is weak or the [Prefuse Time] is short and large when
the [Prefuse Power] is strong or the [Prefuse Time] is long.
Stuff Speed
Set the Stuff Speed at the splice.
Setting is not available when [Auto Stuff Control] is [ON].
•Adjust the prefuse power by adjusting the [Prefuse On Time]
and [Prefuse Off Time].
Splice Mode
Note1: FSM-100M+/P+ Only
92
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