For your convenience, any updates to this manual will be available to download free of charge
www.southbendlathe.com
Scope of Manual
This manual helps the reader understand the machine, how to prepare it for operation, how to control
it during operation, and how to keep it in good working condition. We assume the reader has a basic
understanding of how to operate this type of machine,
CNC controls and commands
is a process that happens through training and experience. If you are not an experienced operator of
this type of machinery, read through this entire manual, then learn more from an experienced
operator, schooling, or research before attempting operations. Following this advice will help you
avoid serious machine damage, personal injury, and get the best results from your work.
We've made every effort to be accurate when documenting this machine. However, errors sometimes
happen or the machine design changes after the documentation process—so
exactly match your machine.
contact our
We highly value customer feedback on our manuals. If you have a moment, please share your
experience using this manual. What did you like about it? Is there anything you would change to
make it better? Did it meet your expectations for clarity, professionalism, and ease-of-use?
South Bend Lathe, Inc.
C
P.O. Box 2027
Bellingham, WA 98227
Email: manuals@southbendlathe.com
. As with all machinery of this nature, learning the nuances of operation
Manual Feedback
If a difference between the manual and machine leaves you in doubt,
customer service for clarification.
and that the reader is experienced with using
the manual may not
/O Technical Documentation Manager
Updates
through our website at:
Customer Service
We stand behind our machines. If you have any service questions, parts requests or general questions
about the machine, feel free to contact us.
South Bend Lathe Co.
P.O. Box 2027
Bellingham, WA 98227
Phone: (360) 734-1540
Parts Department: (417) 886-2954
Fax: (360) 676-1075 (International)
Fax: (360) 734-1639 (USA Only)
Email: cs@southbendlathe.com
About This Machine
Full View Identification (Left)
Full View Identification (Right)
Controls Identification (Left)
Controls Identification (Right)
Control Panel Close-Up Identification
Lubrication System
Coolant System
Main Electrical Box
Electrical Control Box (Internal)
Electrical Control Box (External)
Accessories
Machine Labels (Left)
Machine Labels (Right)
"Most boys should learn a trade in order that
they may become skilled workmen. The trained
workman is always in demand...When a boy has
learned a trade, becomes a skilled mechanic,
he has excellent equipment with which to begin
life's battle, but he need not stop there. George
Westinghouse, the Wright Brothers, Henry Ford,
and the Studebaker Brothers were mechanics,
and it was their mechanical training that
made their success possible." —Machine Shop
Equipment, 2nd Ed., 1920, by the O'Brien
Brothers, founders of South Bend Lathe.
The first South Bend milling machine debuted in
the 1950's. During that time, the milling machine
and the already well-established South Bend
lathes created the foundation of many tool rooms
and school shops across America and beyond
her borders. Many young people in those days
came of age on South Bend equipment, becoming
world-class machinists, mechanical engineers,
inventors, and manufacturing visionaries.
A lot has changed in the world since then. Those
same school shops have mostly been replaced
by computer labs. The technology in the rotary
dial phone, television set, mechanical calculator,
computer, and camera of that decade could
barely fit into one large room together—now
they fit into a tiny box that is no bigger than a
box of breath mints. And the average production
machinist spends more time at a computer than
at a machine. Technology has been much refined
and the world operates on a much faster pace.
But some things haven't changed. The same
human ingenuity and passion that created the
best mechanical technology of today still exists
within us. The core machines of the modern shop,
like this South Bend milling machine, are still
fundamentally important.
Capabilities
This Milling Machine is built for any industrial
setting, tool room, or school shop and is built
for many years of service. Large workpieces
can be supported and is perfect for face milling,
end milling, planing, slot or keyway cutting,
dovetailing, routing, drilling, reaming, and
boring to name a few. With the movable ram and
tilting head, all these tasks can be performed on
horizontal, vertical, and angled surfaces.
Features
This CNC milling machine features 3-axis
table movement with built-in X-, Y-, and Z-axis
servo motors. It is constructed with high-grade
Meehanite castings, and the saddle and knee
ways are Turcite coated and built with wide
square ways for maximum support and accuracy
throughout the full range of movement.
To ensure quality work results, we have
equipped this mill with premium spindle
bearings that are rated to extreme tolerances.
The spindle taper is NT40 and has servo motor
downfeed with a variable feed rate between
0-0.98 FPM and spindle travel of 3.5".
The machine uses a Delta VFD-B inverter with
a 5HP induction motor to provide true variable
spindle speed from 50-5000 RPM.
The headstock is mounted on a wide dovetail
movable ram with 20" of travel on the column
and 320° rotating capability. The headstock itself
can swivel 90° left/right or 45° forward/back so it
can be positioned for nearly any setup needed.
To reduce the time spent doing daily lubrication,
this milling machine is outfitted with an
electronic lubrication system that automatically
lubricates the most critical areas.
When you think about it, the greatest mechanical
technology of the future will be what we create
today. As the owner of a South Bend milling
machine, you are now part of a great legacy.
What will you create with yours?
-2-
A quality Fagor 8055i control panel with
excellent electrical components and attention to
detail give dependable CNC milling operations.
Last but not least, this milling machine includes
a circulating coolant system with the pump and
reservoir in the column base.
For Machines Mfd. Since 5/19Model SB1063
INTRODUCTION
Full View Identification (Left)
Coolant Hose
w/Flow Lever
Sliding
and
Rotating
Ram
Work Lamp
Control Box
Support Arm
Master
Control Box
Spindle Feed Motor
and Stop Assembly
X-Axis Table
Lock
Z-Axis Knee
Automatic
Oiler
Lock
Z-Axis
Motor
Assembly
Coolant Return Drain Screen
Front Way
Cover
Y-Axis Handwheel
Y-Axis Table
Lock
Catch Pan
Z-Axis Handcrank
Z-Axis Ballscrew Housing
Figure 1. Left side machine view.
-3-
Model SB1063
INTRODUCTION
Full View Identification (Right)
For Machines Mfd. Since 5/19
Power
Drawbar
Air Motor
Headstock
Assembly
Dial Indicator
Mounting Rod
Rear Way Cover
Spindle
Motor
Spindle Drive
Ram Slide
Jack Bolt
Machine Status
Indicator Lights
Belt Access
Cover
Red
Yellow
Green
Computer
Interface
Connection
Z-Axis Table
Travel Limit
Switch
Y-Axis
Assembly
Knee
Assembly
X- & Y- Table Travel
Limit Switch System
Figure 2. Right side machine view.
Handheld
Controller
Electrical
Cabinet
X-Axis Handwheel
X-Axis
Coolant
Return Hose
Coolant Tank with Rear Drain Plug
and Pump Motor Access Plate
Motor Assembly
-4-
For Machines Mfd. Since 5/19Model SB1063
INTRODUCTION
Controls Identification (Left)
Power Drawbar Electric
Over Air Controls
Spindle
Brake Lever
Headstock
Tilt Bolt
Ram Rotation
Scale
Figure 3. Left side controls.
-5-
Model SB1063
INTRODUCTION
Controls Identification (Right)
Spindle
Speed Range
Selector
Removable
Spindle
Downfeed
Lever
For Machines Mfd. Since 5/19
Belt Tension
Adjustment
Lever
Machine
Lifting Eye
Ram Slide
Lock Lever
Downfeed
Scale
Rotation
Tilt Bolt
Quill Lock
Lever
Headstock
Tilt Scale
Ram Slide
Scale
Coolant Flow
Control Lever
-6-
Figure 4. Right side controls.
For Machines Mfd. Since 5/19Model SB1063
INTRODUCTION
Control Panel Close-Up Identification
A
A
For Training and CNC
Operations, Refer to
Included CD Fagor
Manuals
Figure 5. Control panel close-up details.
Serious personal injury could occur if
you connect the machine to power before
completing the setup process. DO NOT
connect power until instructed to do so later
in this manual.
Untrained users have an increased risk
of seriously injuring themselves with this
machine. Do not operate this machine until
you have understood this entire manual and
received proper training.
-7-
Model SB1063
INTRODUCTION
Controls & Components
A
USB Port
For Machines Mfd. Since 5/19
H
B
C
D
E
Figure 6. Control panel close-up details.
F
G
Controls & Components
These controls are largely independent of the
CNC interface and most will be used in Machine Start-Up testing without using CNC programs.
Refer to Fagor CD Manuals for CNC testing.
A. Control Panel: This is the master location
for entering CNC commands and serves as
user interface with machine during milling
operation.
B. TABLE UP Button: Moves work table up until
upper limit switch is tripped.
C. TABLE DOWN Button: Moves work table
down until lower limit switch is tripped.
JI
E. MAN (DRO) Button: Shuts down all servo-
driver power and releases the spindle
and quill lock so you can use the spindle
downfeed lever.
F. COOLANT Button: Toggles coolant pump
ON/OFF.
G. O.T REL Button: If axis over travel trips
limit switch, alarm message displays and all
axis motors stop. The O.T REL button resets
motors to resume operations.
Note: Pressing ESC clears alarm, and
pressing Servo On initalizes jog mode for
table to be moved back into the safe area.
K
L
D. LIGHT Button: Toggles work light ON/OFF.
-8-
H. Handheld Controller: Attached to the control
box, it controls manual feed of X-, Y-, and
Z-axes and has speed multiplying dial
functions.
For Machines Mfd. Since 5/19Model SB1063
INTRODUCTION
N
R
Q
Red
OM
P
Yellow
Green
S
T
Figure 7. Controls and components.
-9-
Model SB1063
INTRODUCTION
For Machines Mfd. Since 5/19
I. Servo ON Button: Takes machine table axis
out of Manual Mode and puts machine back
into CNC Mode for electronic control of servo
motors.
J. Power OFF (O) Button: Powers OFF all
items.
K. Power ON (I) Button: Powers ON all items.
L. EMERGENCY STOP Button: Stops all motors
on machine immediately.
M. Power Drawbar Controls:
The UP button threads drawbar into the
tooling and seats the tooling with spindle.
The DOWN button unthreads drawbar from
tooling and unseats tooling from spindle for
removal.
N. Drawbar Motor Air and Lubrication System:
This is a two-part electric over air control
system. Up/Down buttons open and close
air valve to supply regulated filtered air to
drawbar motor. The oiler also adds a drop
of oil to the air every time the button is
pressed.
Q. Machine Status Indicator Light: When
illuminated, a red, yellow, or green light
indicates the operation mode of the machine.
Refer to the Fagor Manual for all the various
modes of operation indicated.
R. Master Electrical Safety Switch:
This switch toggles power to all machine
systems and most electronic components
in electrical box. However, when switched
to OFF, the input side is still live, so for all
electrical work, this machine must still be
disconnected from power first.
S. Work Lamp ON/OFF Switch: When switch is
in ON position; work light can be turned ON
and OFF at control panel.
T. VFD Controller: This control is only used
for initial VFD setup at the factory and
troubleshooting by authorized and trained
technicians. The machine operator will never
need to use this control and, tampering with
VFD settings can void warranty.
Note: The oil is for the drawbar motor only
and does not reach the tooling arbors. Arbor
and spindle mating surfaces must still be
maintained by you.
O. Automatic Electronic Lubricator:
Automatically lubricates machine on timed
basis. Manual Override button will lubricate
on command.
Note: Lubrication volume and frequency can
be set manually by referring to the list of
locations in the Maintenance Section of this
manual and the oiler instructions.
Width (side-to-side) x Depth (front-to-back) x Height..................................................... 124 x 105-1/2 x 93-1/2 in.
Footprint (Length x Width)....................................................................................................................... 47 x 38 in.
Length x Width x Height............................................................................................................... 106 x 79 x 100 in.
Must Ship Upright................................................................................................................................................ Yes
3814 lbs.
Machine
4015 lbs.
Electrical
Power Requirement................................................................................................................. 220V, 3-Phase, 60 Hz
Full-Load Current Rating....................................................................................................................................
Horsepower............................................................................................................................................ 1/8 HP
Power Transfer ............................................................................................................................ Direct Drive
Horsepower............................................................................................................................................... 1 HP
Power Transfer ................................................................................................................................ Belt Drive
Horsepower............................................................................................................................................ 1/2 HP
Power Transfer ................................................................................................................................ Belt Drive
Ram Travel............................................................................................................................................... 20 in.
Turret or Column Swivel (Left /Right)............................................................................................... 320 deg.
Head Tilt (Left/Right)........................................................................................................................... 90 deg.
Head Tilt (Front/Back)..........................................................................................................................
Drilling Capacity for Cast Iron.................................................................................................................
Drilling Capacity for Steel.................................................................................................................. 15/16 in.
Tapping Capacity.................................................................................................................................... 3/4 in.
End Milling Capacity.............................................................................................................................. 3/4 in.
Face Milling Capacity......................................................................................................................
Table Width....................................................................................................................................... 12-1/2 in.
Table Thickness................................................................................................................................... 3-3/8 in.
Number of T-Slots...........................................................................................................................................
T-Slots Centers.................................................................................................................................... 3-1/4 in.
Number of Longitudinal Feeds............................................................................................... Variable Speed
X-Axis Table Power Feed Rate............................................................................................................ 16 FPM
Number of Vertical Spindle Speeds........................................................................................
Range of Vertical Spindle Speeds............................................................................................ 50 - 5000 RPM
Quill Diameter..................................................................................................................................... 4-1/8 in.
Base.................................................................................................................................................... Cast Iron
Stand.................................................................................................................................................. Cast Iron
Country of Origin ...........................................................................................................................................
Approximate Assembly & Setup Time ..........................................................................................................
Serial Number Location ...............................................................................................................
ISO 9001 Factory ...................................................................................................................................................
Machine ID Label
Taiwan
1 Year
1 Hour
No
Features
3-Axis Servo Driven
Fagor Control Panel with Hand-Held Controller
Manual/Servo Mode
Power Drawbar
Powered Lubrication System
Coolant Recycling System
Auxiliary Worklight
Included Accessories
Tool Box Including the Following Items:
Flat-Head, Philip Head Screwdrivers
Closed-End Wrench 19/21mm
Open-End Wrench 12/14mm
10-Pc. Hex Wrench Set: 1.5, 2, 2.5, 3, 4, 5, 5.5, 6, 8 & 10mm
Bottle for Oil
-13 -
Model SB1063
Operating all machinery and machining equipment can be dangerous or relatively safe depending
on how it is installed and maintained, and the operator's experience, common sense, risk awareness,
working conditions, and use of personal protective equipment (safety glasses, respirators, etc.).
The owner of this machinery or equipment is ultimately responsible for its safe use. This
responsibility includes proper installation in a safe environment, personnel training and usage
authorization, regular inspection and maintenance, manual availability and comprehension,
application of safety devices, integrity of cutting tools or accessories, and the usage of approved
personal protective equipment by all operators and bystanders.
The manufacturer of this machinery or equipment will not be held liable for injury or property
damage from negligence, improper training, machine modifications, or misuse. Failure to read,
understand, and follow the manual and safety labels may result in serious personal injury, including
amputation, broken bones, electrocution, or death.
The signals used in this manual to identify hazard levels are as follows:
Owner’s Manual: All machinery and machining
Trained/Supervised Operators Only: Untrained
SAFETY
For Machines Mfd. Since 5/19
Understanding Risks of Machinery
Death or catastrophic
harm WILL occur.
Death or catastrophic
harm COULD occur.
Moderate injury or fire
MAY occur.
Machine or property
damage may occur.
Basic Machine Safety
equipment presents serious injury hazards
to untrained users. To reduce the risk of
injury, anyone who uses THIS item MUST
read and understand this entire manual
before starting.
Personal Protective Equipment:
servicing this item may expose the user
to flying debris, dust, smoke, dangerous
chemicals, or loud noises. These hazards
can result in eye injury, blindness, longterm respiratory damage, poisoning,
cancer, reproductive harm or hearing loss.
Reduce your risks from these hazards
by wearing approved eye protection,
respirator, gloves, or hearing protection.
Operating or
users can seriously injure themselves
or bystanders. Only allow trained and
properly supervised personnel to operate
this item. Make sure safe operation
instructions are clearly understood. If
electrically powered, use padlocks and
master switches, and remove start switch
keys to prevent unauthorized use or
accidental starting.
Guards/Covers:
moving parts during operation may cause
severe entanglement, impact, cutting,
or crushing injuries. Reduce this risk by
keeping any included guards/covers/doors
installed, fully functional, and positioned
for maximum protection.
Accidental contact with
-14-
For Machines Mfd. Since 5/19Model SB1063
Entanglement:Loose clothing, gloves, neckties,
rotate.
Chuck Keys or Adjusting Tools:
Tools used to
our Technical Support for assistance.
SAFETY
jewelry or long hair may get caught in
moving parts, causing entanglement,
amputation, crushing, or strangulation.
Reduce this risk by removing/securing
these items so they cannot contact moving
parts.
Mental Alertness: Operating this item with
reduced mental alertness increases the
risk of accidental injury. Do not let a
temporary influence or distraction lead to a
permanent disability! Never operate when
under the influence of drugs/alcohol, when
tired, or otherwise distracted.
Safe Environment:
powered equipment in a wet environment
may result in electrocution; operating near
highly flammable materials may result in a
fire or explosion. Only operate this item in
a dry location that is free from flammable
materials.
Electrical Connection: With electically powered
equipment, improper connections to the
power source may result in electrocution
or fire. Always adhere to all electrical
requirements and applicable codes when
connecting to the power source. Have all
work inspected by a qualified electrician to
minimize risk.
Disconnect Power: Adjusting or servicing
electrically powered equipment while it
is connected to the power source greatly
increases the risk of injury from accidental
startup. Always disconnect power
BEFORE any service or adjustments,
including changing blades or other tooling.
Operating electrically
adjust spindles, chucks, or any moving/
rotating parts will become dangerous
projectiles if left in place when the machine
is started. Reduce this risk by developing
the habit of always removing these tools
immediately after using them.
Work Area:
the risks of accidental injury. Only operate
this item in a clean, non-glaring, and welllighted work area.
Properly Functioning Equipment:
maintained, damaged, or malfunctioning
equipment has higher risks of causing
serious personal injury compared to
those that are properly maintained.
To reduce this risk, always maintain
this item to the highest standards and
promptly repair/service a damaged or
malfunctioning component. Always follow
the maintenance instructions included in
this documentation.
Unattended Operation:
equipment that is left unattended while
running cannot be controlled and is
dangerous to bystanders. Always turn the
power OFF before walking away.
Health Hazards: Certain cutting fluids and
lubricants, or dust/smoke created when
cutting, may contain chemicals known to
the State of California to cause cancer,
respiratory problems, birth defects,
or other reproductive harm. Minimize
exposure to these chemicals by wearing
approved personal protective equipment
and operating in a well ventilated area.
Clutter and dark shadows increase
Poorly
Electrically powered
Secure Workpiece/Tooling:
cutting tools, or rotating spindles can
become dangerous projectiles if not
secured or if they hit another object during
operation. Reduce the risk of this hazard
by verifying that all fastening devices are
properly secured and items attached to
spindles have enough clearance to safely
Loose workpieces,
Difficult Operations:
operations with which you are unfamiliar
increases the risk of injury. If you
experience difficulties performing the
intended operation, STOP! Seek an
alternative method to accomplish the
same task, ask a qualified expert how the
operation should be performed, or contact
Attempting difficult
-15 -
Model SB1063
SAFETY
For Machines Mfd. Since 5/19
Additional Milling Machine Safety
You can be seriously injured or killed by getting clothing, jewelry, or long hair entangled with rotating
cutter/spindle. You can be severely cut or have fingers amputated from contact with rotating cutters.
You can be blinded or struck by broken cutting tools, metal chips, workpieces, or adjustment tools
thrown from the rotating spindle with great force. To reduce your risk of serious injury when operating
this machine, completely heed and understand the following:
Understanding Controls: Make sure you
understand the function and proper use of all
controls before starting. This will help you
avoid making mistakes that result in serious
injury.
Avoiding Entanglement. DO NOT wear loose
clothing, gloves, or jewelry, and tie back long
hair. Keep all guards in place and secure.
Always allow spindle to stop on its own. DO
NOT stop spindle using your hand or any
other object.
Wear Face Shield. Always wear a face shield
in addition to safety glasses. This provides
more complete protection for your face than
safety glasses alone.
Use Correct Spindle Speed. Follow
recommended speeds and feeds for each size
and type of cutting tool. This helps avoid tool
breakage during operation and ensures best
cutting results.
Inspect Cutting Tool. Inspect cutting tools for
sharpness, chips, or cracks before each use.
Replace dull, chipped, or cracked cutting
tools immediately.
Properly Secure Cutter. Firmly secure cutting
tool or drill bit so it does not fly out of
spindle during operation.
Power Disruption. In the event of a local power
outage during operation, turn spindle switch
OFF to avoid a possible sudden startup once
power is restored.
Clean Machine Safely. Metal chips or shavings
can be razor sharp. DO NOT clear chips
by hand or compressed air that can force
chips farther into machine—use a brush or
vacuum instead. Never clear chips while
spindle is turning.
Secure Workpiece To Table. Clamp workpiece
to table or secure in a vise mounted to
table, so workpiece cannot unexpectedly
shift or spin during operation. NEVER hold
workpiece by hand during operation.
Properly Maintain Machine. Keep machine
in proper working condition to help ensure
that it functions safely and all guards and
other components work as intended. Perform
routine inspections and all necessary
maintenance. Never operate machine with
damaged or worn parts that can break or
result in unexpected movement during
operation.
Disconnect Power First. To reduce risk of
electrocution or injury from unexpected
start- up, make sure mill/drill is turned
OFF, dis- connected from power, and all
moving parts have come to a complete stop
before changing cutting tools or starting
any inspection, adjustment, or maintenance
procedure.
Remove Chuck Key & Spindle Tools. Always
remove chuck key, drawbar wrench, and
other tools used on the spindle immediately
after use. This will prevent them from being
thrown by the spindle upon startup.
-16 -
For Machines Mfd. Since 5/19Model SB1063
PREPARATION
Preparation OverviewRequired for Setup
The purpose of the preparation overview is to
help you gather your resources and the machine
for installation and operation. Steps for these
items are covered further later in this section.
The typical preparation process is as follows:
Unpack machine inventory the shipment.
1.
2. Inspect the machine for shipping damage.
3. Clean the machine and its components.
4. Review Precautions Against Product
Damage in the Fagor Operators Manual,
and if location is acceptable;
Electrician verifies the power source
5.
voltage, phase, and ground is within
specification listed in this manual and the
Fagor Operators Manual. Refer to Power
Requirements on Page 23 of that manual.
• If required, surge protection is installed.
6. Move the machine to its operating location.
7. Fasten and shim machine to the floor, or use
optional feet and bolts and adjust until level.
The items listed below are required to
successfully set up and prepare this machine for
operation.
For Lifting
• A forklift or other power lifting device rated
for at least 5000 lbs.
• Lifting chain and safety hook rated for at
least 5000 lbs.
• One or more assistants.
For Power Connection
• A power source that meets the minimum
circuit requirements for this machine.
Refer to Page 23 for details.
• A qualified electrician to ensure a safe and
code-compliant connection to the power
source.
For Assembly
• Cotton rags
• Applicable PPE for assembly and solvents
• Mineral spirits
• Safety glasses
• Oil can with applicable machine oil
• Grease gun with applicable grease
• Stiff grease brush
• Floor mounting hardware as needed
• Basic shop hand tools
Install loose components as required.
8.
9. Fill coolant and lubrication oil reservoirs as
applicable according to Lubrication section
starting on Page 36.
Make remaining adjustments and
10.
inspections to ensure machine is ready for
operation.
Connect machine to power.
11.
12. Read and understand Fagor Operating
Manual, anditsMonitor Information
Layout on Page 28.
Complete machine Test Run in this manual.
13.
Clean and make sure all tools are accounted
14.
for and put away.
-17-
Model SB1063
This item was carefully packaged to prevent
damage during transport. If you discover any
damage, please immediately call Customer
Service at
need to file a freight claim, so save the containers
and all packing materials for possible inspection
by the carrier or its agent.
PREPARATION
For Machines Mfd. Since 5/19
Unpacking
(360) 734-1540 for advice. You may
Inventory
Inspect the machine for damage and inventory
your shipment for the following items.
Included Documentation List
(Packed Inside of Electrical Box Door)
Fagor Binder Printed Manual:
Fagor CNC 8055 M Programming Manual Ref.
1010, Soft: V01.0X
Machine Feet Bolt and Nut Kit ..................... 1
L.
A
B
C
E
F
D
Fagor CD:
Fagor Manual Man_8055.pdf 8055 M
• Installation Manual
• Operating Manual
• Programming Manual
• Error Solution
• Examples Manual
Delta Printed Manual:
Delta VFD-B Printed
Delta Packet:
• Delta VFD-B Instruction Sheet
• Delta VFD-B Parameter Manual
Delta CD:
Delta AC Motor Drives VFD Series User Manual
VFD-B
Power Drawbar Printed Manual:
Air Power Drawbar Operation Manual, PD-150PD-200
G
I
J
L
Figure 8. Shipping inventory.
H
K
H
-18 -
For Machines Mfd. Since 5/19Model SB1063
GAS
PREPARATION
Cleaning & Protecting
Unpainted surfaces are coated at the factory with
a heavy-duty rust preventative for protection
during shipment and storage. This long-term
coating works very well, but can be timeconsuming to thoroughly remove.
Be patient and do a careful job when cleaning
and removing the coating. The time you spend
doing this will reward you with smooth-sliding
parts and a better appreciation for the proper
care of the unpainted surfaces.
Although there are many ways to successfully
remove the rust preventative, we have cleaned
thousands of machines and found the following
process to be the best balance between efficiency
and minimized exposure to toxic fumes or
chemicals.
Before cleaning, gather the following:
• Disposable rags
• Cleaner/degreaser (certain citrus-based
degreasers work extremely well and they
have non-toxic fumes)
• Safety glasses and disposable gloves
Note: Automotive degreasers, mineral
spirits, or WD•40 can be used to remove rust
preventative. But before using these products,
test a small amount on an inconspicuous
area to make sure they will not stain the
metal or cause paint to become discolored or
peal. Do not use on plastics.
Many cleaning solvents are
toxic if inhaled. Minimize
your risk by only using
these products in a well
ventilated area.
Avoid chlorine-based solvents, such as
acetone or brake parts cleaner that may
damage painted surfaces. Always follow the
manufacturer’s instructions when using any
type of cleaning product.
Basic steps for removing rust preventative:
1. Put on safety glasses and disposable gloves.
2. Coat all surfaces that have rust preventative
with a liberal amount of your cleaner or
degreaser and let them soak for a few
minutes.
Tip: Placing rags that are saturated
with your cleaner over areas with heavy
concentrations of the rust preventative
coating for a period of time is an excellent
way to soften the thick deposits for easy
removal.
Wipe off the surfaces. If your cleaner or
3.
degreaser is effective, the rust preventative
will wipe off easily.
Gasoline and petroleum
products have low flash
points and can explode
or cause fire if used for
cleaning. Avoid using these
products to remove rust
preventative.
Tip: To clean off thick coats of rust
preventative on flat surfaces, such as beds or
tables, use a plastic paint scraper to scrape
off the majority of the coating before wiping it
off with your rag. (Do not use a metal scraper
or it may scratch the surface.)
Repeat Steps 2–3 as necessary until clean,
4.
then coat all unpainted surfaces with a
quality metal protectant or light oil to
prevent rust.
-19 -
Model SB1063
Weight Load
equipment that may be installed on the machine,
PREPARATION
For Machines Mfd. Since 5/19
Location
Physical Environment
Location is important for safe operation and
longevity of machine and parts. For best results,
operate this machine in an environment that
is free from vibration, excessive moisture,
hazardous or flammable chemicals, airborne
abrasives, and extreme conditions. The
ambient working temperature requirement
is: 41°F to 104°F (+5°C to +40°C) and the
storage temperature is -13°F to 158°F (-25°C
to +70°C). The relative humidity for both is
below 90% (non-condensing). Make sure that all
environmental conditions listed in the Fagor Operating Manual are met. For the list; refer
to Precautions Against Product Damage.
Electrical Installation
Place this machine near an existing power
source. Make sure all power cords are protected
from traffic, material handling, moisture,
chemicals, or other hazards. Make sure to leave
access to a means of disconnecting the power
source or engaging a lockout/tagout device.
Lighting
Machine lighting is adequate for safe operation.
Refer to the Machine Specifications for the
weight of your machine. Make sure that the
surface upon which the machine is placed will
bear the weight of the machine, additional
and the heaviest workpiece that will be used.
Additionally, consider the weight of the operator
and any dynamic loading that may occur when
operating the machine.
Space Allocation
Consider the largest size of workpiece that will
be processed through this machine and provide
enough space around the machine for adequate
operator material handling or the installation
of auxiliary equipment. With permanent
installations, leave enough space around
the machine to open or remove doors/covers
as required by the maintenance and service
described in this manual.
Children or untrained
people may be seriously
injured by this machine.
Only install in an access
restricted location.
Keep in mind that actual
mounting footprint for
machine is larger than
the machine base because
of the overhanging electrical
box feet.
4 Hard Point
Base Mounting Loc.
2 Electrical Box
Support Feet
62"
Wall
Min.
30"
Wall
Min.
72"
24"
+
Figure 9. Clearances.
= Power connection
= Air connection
Minimum ceiling height
with 3" clearance for
spindle motor cooling
airflow is 8 feet.
63"
46"
49"
-20-
For Machines Mfd. Since 5/19Model SB1063
Lifting & Moving
This machine and its
parts are heavy! Serious
personal injury may occur
if safe moving methods are
not used. To reduce the
risk of a lifting or dropping
injury, ask others for help
and use power equipment.
The method of lifting and moving the mill
described below requires at least two other
people for assistance and a hoist or forklift with a
lifting strap or chain rated for at least 5000 lbs.
PREPARATION
Verify that lifting eye is threaded completely
3.
into ram where all threads are engaged with
casting.
Attach lifting strap or chain to lifting eye
4.
located on top of the ram; or attach lifting
straps under ram, as shown in Figure 11.
Lifting
Web Straps
To lift and move mill:
1. Position ram and headstock so lifting eye
is centered with the column as illustrated
in Figure 10 (refer to Ram Movement on
Page 31 and Headstock Movement on
Page 29 for detailed instructions).
To prevent unexpected movement during
2.
lifting and moving; after re-positioning ram
and headstock, make sure they are locked in
place.
IMPORTANT: Before lifting mill, make sure
four turret lock bolts (two on each side of ram,
Figure 11) are torqued to 47 ft/lbs.
Lifting Eye
Figure 11. Optional lifting using web straps.
5. Unbolt mill from shipping pallet.
6. With your assistants steadying mill to keep
it from swaying and rotating, slowly lift mill
a couple of inches.
— If mill tips forward or backward, lower
it to ground and adjust ram or table to
balance load. Make sure to re-tighten lock
levers and bolts before lifting mill again.
— If mill lifts evenly, continue to move it to
its permanent location.
Turret
Lock Bolts
Figure 10. Ram and head position before moving.
-21-
Model SB1063
Leveling machinery helps precision components,
such as bed ways, remain straight and flat
during the lifespan of the machine. Components
on an unleveled machine may slowly twist due to
the dynamic loads placed on the machine during
operation.
For best results, use a precision level that
is at least 12" long and sensitive enough to
show a distinct movement when a 0.003" shim
(approximately the thickness of one sheet of
standard newspaper) is placed under one end of
the level.
See the figure below for an example of a high
precision level.
PREPARATION
For Machines Mfd. Since 5/19
Leveling & Mounting
Although not required, we recommend that
you level your machine and mount it to the
floor. Because this is an optional step and floor
materials may vary, mounting hardware is not
included.
We strongly recommend securing your
machine to the floor if it is hardwired to the
power source. Consult with your electrician to
ensure compliance with local codes.
Leveling
Bolting to Concrete Floors
To prevent the Model SB1063 from tipping
and causing a crushing hazard when heavy
workpieces are mounted off-center, we strongly
recommend that you bolt the mill to a concrete
floor or pad.
There are many different methods of securing
the mill to the floor. Lag shield anchors and lag
bolts are available in the sizes required for this
mill. Also, cutting the floor and pouring footings
with embedded J-bolts is another method.
Research options and select the best choice that
fits your specific conditions.
Note: This machine has an oversized electrical
box with a control arm mounted to the top. Below
the electrical box are two additional support legs
(see Figure 13). These adjustable legs are only to
be used as supports and should not be fastened to
the floor or be used as jack bolts to help level the
mill.
Figure 12. Typical precision level.
Figure 13. Electrical box support feet.
Assembly
This machine has been fully assembled and
tested at the factory for break-in and conversion
to CNC operation. No assembly is required;
however, retain the tool box, its tools, and
the manual downfeed handle from the initial
non-CNC configuration. Spindle feed is CNC
operated only.
-22-
For Machines Mfd. Since 5/19Model SB1063
PREPARATION
Power RequirementsPower Connection
Make sure the incoming power source
1.
meets the requirements stated in Power
Electrocution or fire
may occur if machine is
ungrounded, incorrectly
connected to power, or
connected to an undersized
circuit. Use a qualified
electrician to ensure a safe
power connection.
Grounding Instructions
In the event of certain types of malfunctions or
breakdowns; correct machine grounding provides
a safe path for electricity to go instead of through
YOU as electric shock or electrocution.
Requirements.
Make sure that all installation conditions
2.
are met as outlined in the Fagor Operating
Manual, Precautions Against Product
Damage of the Fagor Manual.
To ensure the Delta VFD Drive will operate
3.
correctly, only an electrician or qualified
personnel can hardwire this machine to the
power source.
Using an extension cord and plug is not
4.
recommended.
This machine must be correctly grounded in
accordance with all local codes and ordinances
before any machine test run or operation.
Once the machine is set up and assembled as
previously described in this manual, it is ready to
be connected to the power source.
Required Power Source
With Conversion Kit
Phase Converter Allowed
Full Load Amp Draw
Nominal Voltage Range
Frequency
Minimum Circuit Size
Power Cord
Plug/Receptacle
Minimum Extension Cord Size
Maximum Extension Cord Length
disconnect, or a direct piping connection.
However, if a direct connection is used, an
ON/OFF valve should be installed at that
location so the incoming air can be shut off at
the machine for service.
Set the regulator air pressure according
4.
to the requirement indicated in the Power
Drawbar Manual.
IMPORTANT:If shop air has excessive
moisture, you must add an additional water
separator assembly.
There are a series of steps that must be
followed to when turning the machine ON.
Before connecting the machine to power as
instructed on the next page, make sure the
main power switch located on the electrical
box remains OFF. This will disable power to
the control panel until it is required in the Test
Run on Page 24.
-23-
Model SB1063
PREPARATION
For Machines Mfd. Since 5/19
Test Run
After all preparation steps have been completed,
the machine and its safety features must be
tested by a person who has existing experience
and training using CNC machinery to ensure
correct operation.
If you discover a problem with the machine or
its safety features, do not operate it further
until you have resolved the problem. Refer to
the Troubleshooting section on Page 48 for
solutions to common problems that may occur.
If you need additional help, contact our Tech
Support at (360) 734-1540.
During the test run, you will verify the proper
operation of the following controls and machine
systems:
PART 1:
• Main power switch
• Power ON button
• EMERGENCY STOP button
• Table Up/Down button operation
• Control panel operation
• X-axis table movement
• Y-axis table movement
• Z-axis table movement
• Manual spindle travel
• Power drawbar lubrication
• Power drawbar operation
• Coolant pump system
• Electronic oiler operation
• Work lamp operation
• Power OFF button
Test Run the Mill
1. Read and follow safety instructions at the
beginning of this manual, take required
safety precautions, and make sure machine
is set up and adjusted properly.
Next review and understand Self Teaching
2.
Manual located on the supplied Fagor CD.
With CD inserted, click on Man_8055.pdf
and following list of documentation will be
available:
8055 M
• Installation Manual
• Operating Manual
• Programming Manual
• Error Solution
• Examples Manual
3. Connect compressed shop air to air regulator
shown in Figure 31 on Page 37.
Verify that air regulator is set to required
4.
PSI listed in the Drawbar Manual.
Turn master power switch on electrical box
5.
to ON position.
• Red power light (see Figure 14) illuminates on front of the control panel,
indicating that master power switch is
operational and machine is fully
powered up.
PART 2:
• Fagor CNC Testing. Refer to desired Fagor
test sequence and/or operation listed below
Fagor Binder Printed Manual:
Fagor CNC 8055 M Programming Manual Ref.
1010, Soft: V01.0X
Fagor CD:
Fagor Manual Man_8055.pdf 8055 M
• Installation Manual
• Operating Manual
• Programming Manual
• Error Solution
• Examples Manual
-24-
Green
Light
Figure 14. Initial controls.
6.
Press POWER (I) button (see Figure 14) on
control panel.
• Red power light will go out, and green
ON button light will illuminate, indicating machine is ready for
commands.
Red
Light
For Machines Mfd. Since 5/19Model SB1063
PREPARATION
• Control panel screen will boot up then display main screen.
• When boot-up is finished, the screen will
display main screen.
7. Loosen Z-axis locks.
Press EMERGENCY STOP button (see
8.
Figure 14).
Figure 15. Basic push button controls.
13.
Verify that machine goes into Manual DRO
Mode; flip plastic switch cover open and
press MAN button (see Figure 15).
• MAN button will illuminate white
indicating machine is in manual
mode.
14. Press JOG or F4 button (see Figure 5) and
machine will change to Manual DRO mode.
All servo motors will turn OFF allowing for
manual ballscrew rotation.
While in this manual mode; loosen
corresponding lock levers and manually
operate following controls:
• X-axis handwheel
• Y-axis handwheel
• Z-axis table up/down handcrank
Note: Trying to move handwheels before
machine is put into manual mode will
generate an error message on screen. Once
mill is put in manual mode error message
will go away.
9. Press TABLE UP and TABLE DOWN
buttons (see Figure 15). The buttons should
be inoperative indicating that EMERGENCY
STOP button successfully shuts OFF all
motor functions.
Note: The control panel and rest of
machine stays live.
Rotate EMERGENCY STOP button
10.
clockwise until it pops out. Wait and allow
control panel to boot up again.
Press TABLE UP button. Table should raise.
11.
12. Press TABLE DOWN button. Table should
lower.
Note: If table moves opposite to controls used,
phase polarity must be corrected.
• To do this; turn machine OFF, disconnect it from power, and swap position of any two L1, L2, or L3 power wires on offending motor.
Refer to Air Regulator, Filter, Lubricator
15.
instructions on Page 37 and verify correct
volume of oil is injected in drawbar motor
supply air.
Verify power drawbar system operates
16.
by quickly pushing Drawbar DOWN and
Drawbar UP buttons (see Figure 7, View L).
To prevent a dry-run of pump and damage,
1 7.
verify coolant tank is full (refer to Coolant
Reservoir on Page 41).
Point coolant nozzle toward chip pan, and
18.
test pump operation by pushing COOLANT
button (see Figure 15). During operation,
adjust coolant flow by moving flow lever (see Figure 1) to various positions.
Refer to CESH Electronic Oiler on Page
19.
37 and verify that oiler is set to distribute
an adequate amount of oil for the number of
mechanical repettions.
-25-
Model SB1063
Press Manual Oil button (see Figure 30,
20.
Item B). The light should illuminate, oil
pump heard, and oil distribution indicated at
ways. Do not hold button for longer than four
minutes or oil pump can overheat.
Turn work lamp ON at back of lamp shroud
21.
(see Figure 7, View R), and then press
LIGHT button shown in (see Figure 15).
PREPARATION
For Machines Mfd. Since 5/19
Inspections &
Adjustments
The following list of adjustments were performed
at the factory before the machine was shipped:
Gib Adjustment
........................................Page 44
• Light should illuminate.
22. Press POWER (O) button to shut machine OFF shown in Figure 14 on control panel.
• Red power light will illuminate.
• Control panel screen will turn off.
• Green POWER (I) button light (see
Figure 14) will go out indicating that
POWER OFF (O) button is functional and
machine is powered but not ready for
commands.
23. "Congratulations! The Test Run is complete.
Proceed to your desired machine operations
outlined in the Fagor CNC Manual(s).
Be aware that machine components can shift
during the shipping process. Pay careful
attention to the adjustments above during
operation of the machine. If you find that
the adjustments are not set according to the
procedures in this manual or your personal
preferences, re-adjust them.
Spindle Break-In
The high-quality bearings and gears used in the
mill are manufactured to very close tolerances.
The spindle bearings and associated drive
system have been broken-in at the factory and no
pre-load break-in is required.
Since the mill head was rotated parallel to
the table for shipping purposes, you will need
to tram the spindle with the table if your first
operation requires 90° alignment.
-26-
For Machines Mfd. Since 5/19Model SB1063
The purpose of this overview is to first provide
the machine operator with a minds-eye picture of
the basic physical milling machine functions. The
s
CNC control panel
those
CNC procedures in the Fagor Operati
anual.
Note:
it is not intended to be an instructional guide for
performing actual machine operations.
To learn more about specific operations and
machining techniques, seek training from people
experienced with this type of machine, and do
additional research outside of this manual.
Operation Overview
econd purpose is to introduce and link typical
concepts and modes with
operations, so the user can find applicable
ngM
Due to the generic nature of this overview,
To reduce the risk of
serious injury when using
this machine, read and
understand this entire
manual before beginning
any operations.
In a typical milling operation, the operator
does the following:
1. Examines the workpiece to make sure it is
suitable for milling.
Firmly clamps workpiece to table.
2.
Installs correct cutting tool for operation.
3.
4. Loosens the applicable X-, Y-, or Z-axis table
and knee locks.
OPERATION
Note: Controller will reject program if told to
go further than the global coordinate system.
Puts on personal protective gear and makes
7.
sure workpiece and table are clear of all
tools, cords, and other items.
Starts the machine, coolant pump, and
8.
completes milling operations.
Turns machine OFF.
9.
Removes workpiece and cleans machine.
10.
Loose hair, clothing, or
jewelry could get caught
in machinery and cause
serious personal injury.
Keep these items away
from moving parts at all
times to reduce this risk.
During operation, small
metal chips may become
airborne, leading to serious
eye injury. Wear safety
glasses to reduce this risk.
Uses CNC control panel or manual controls
5.
to confirm correct positioning of cutting tool
and workpiece for operation.
If X-, Y-, or Z-axis will be used during
operation, operator confirms tool paths,
specifications, and associated machine
settings.
Verifies working envelope does not exceed
6.
axis position and travel.
-27-
Model SB1063
OPERATION
For Machines Mfd. Since 5/19
Table Movement
The table is driven in the X-, Y-, and Z-axes
by servo motors that are connected where
the handwheels are fastened. These servo
motors are the physical interface between CNC
digital commands and actual mechanical table
movement.
The milling machine is equipped with a Fagor
control panel that has an additional handheld
controller connected. The CNC system can be
switched between Servo Mode and Manual Mode
for different types of table movement. Refer to
the Fagor manual for complete details.
Always keep the table locked in place
unless table movement is required for your
operation. Unexpected movement of the table
during operations could damage the cutter or
workpiece.
While the X- and Y-axis handwheels are springloaded outward to the disengaged position, make
it a habit to also use the folding handcrank
lever feature (see Figure 16) to help eliminate
entanglement when the table is being power fed.
Table & Knee Locks
Refer to Figures 17–18 for the locations of the
locks used to secure the table in place.
2 X-Axis
2 Y-Axis
Table Locks
Figure 17. X- and Y-axes table lock locations.
2 Z-Axis
Knee Locks
Table Locks
Figure 16. Handwheel with folding handcrank lever for
power-fed safety.
-28-
Figure 18. Z-axis knee lock locations.
For Machines Mfd. Since 5/19Model SB1063
OPERATION
Headstock Movement
The mill head tilts 45° forward and back, and
rotates 90° left and right, as shown in Figures 19–21.
Always lock headstock firmly in place after
tilting or rotating it. Unexpected movement
of headstock during operations could cause
damage to cutter or workpiece.
45°
Tilt Bolt
Tilting Head
1. DISCONNECT MILL FROM POWER!
Loosen the three tilt lock bolts on the right
2.
side of the ram adapter shown in Figure 21.
Tilt Bolt
1 of 3
Lock Bolts
Figure 21. Head tilting controls.
Use one hand to apply pressure to the head
3.
in the direction of tilt, then slowly rotate the
tilt bolt. Rotating this bolt clockwise will tilt
the head back.
ON
OFF
Figure 19. Head tilts 45° forward and back.
90°
Tilt Bolt
Figure 20. Head tilts 90° left-and-right.
When the head is in the correct position
4.
for your operation, re-tighten all three lock
bolts.
-29-
Model SB1063
OPERATION
For Machines Mfd. Since 5/19
Rotating Head
1. DISCONNECT MILL FROM POWER!
2. Loosen four rotation lock bolts on face of
head shown in Figure 22.
Rotation Bolt
1 of 4 Lock
Bolts
Figure 22. Head rotating controls.
Use one hand to apply pressure in direction
3.
of rotation, then slowly turn rotation bolt.
ON
OFF
Tramming Spindle
When your operation requires that the spindle
axis be precisely perpendicular to the table, you
must tram or square the spindle with the table to
ensure the spindle is exactly 90° to the table.
This procedure involves mounting a dial test
indicator to the quill or spindle, rotating it
around the table, and adjusting the head position
so that the spindle axis is 90° to the table X- and
Y- axes, as illustrated in Figure 23.
Spindle
Z-Axis
Y-Axis
90º
90º
X-Axis
Table
Re-tighten lock bolts when head is in desired
4.
position.
Figure 23. Spindle axis perpendicular to table X- and
Y-axes.
We encourage you to research the many
variations of spindle tramming to find the one
that works best for you.
-30-
For Machines Mfd. Since 5/19Model SB1063
OPERATION
Ram Movement
The ram travels forward and backward 20" and
rotates horizontally 320° on its turret.
Always lock ram firmly in place after moving
it. Unexpected movement of ram and head
during operations could cause damage to
cutter or workpiece.
Rotating Ram
1. DISCONNECT MILL FROM POWER!
2. Loosen four lock bolts on top of turret (see
Figure 25).
1 of 4 Lock Bolts
ON
OFF
Adjustment Bolt
Figure 24. Ram forward and backward movement
controls.
Make sure there are no obstructions to ram
3.
travel, especially with spindle tool around
workpiece, then slowly rotate adjustment
bolt (see Figure 24) to move ram. Rotating
bolt clockwise will move ram backward.
Re-tighten lock levers.
4.
Rotation Scale
Figure 25. Ram rotation lock bolts.
In the next step, take care not to entangle or
stretch electrical cabling as you move ram
around turret.
Push on head to manually rotate it. Use
3.
rotation scale (see Figure 25) to determine
correct position for your operation
Re-tighten four lock bolts.
4.
-31-
Model SB1063
OPERATION
For Machines Mfd. Since 5/19
Downfeed Control
When the machine is set to the CNC mode,
the quill and spindle become locked with the
servo-driven ballscrew. As a result, the manual
downfeed lever is disabled and should be
removed.
When the machine is placed in Manual mode;
the quill and spindle are unlocked and can be
controlled manually. For this operation, the
downfeed lever can be easily reinstalled as
shown below.
To install downfeed lever:
1. DISCONNECT MILL FROM POWER!
2. Position downfeed lever at top of spindle
stroke.
Align index pin with closest index hole (see
3.
Figure 26).
Auto-Downfeed System
Spindle downfeed movement is controlled by
toggling from CNC mode to Manual mode.
When in CNC mode, the quill is locked with
the ballscrew and the feed lever cannot pull the
quill down. The opposite is true when in Manual
mode.
Spindle Brake
When pushed, the spindle brake lever (see
Figure 27) activates a switch that turns the
spindle motor OFF and engages drum-type brake
pads to stop spindle rotation.
Spindle
Brake Lever
Slide hub onto shaft until detent pin engages
4.
with its associated detent on shaft.
ON
OFF
Index
Holes
Detent
Index
Pin
Detent
Pin
Hub
Figure 27. Location of spindle brake lever.
Spindle brake is typically used in an
emergency situation where you need to stop
spindle in a hurry. Overuse of spindle brake
will lead to excessive wear of brake pads and
drum.
Figure 26. Downfeed handle hub, detents, and pin.
-32-
For Machines Mfd. Since 5/19Model SB1063
OPERATION
Changing Tooling
The mill is equipped with an NT40 spindle taper
and a
carefully to prevent it from falling when
drawbar releases it.
With a sequence of several short presses,
3.
push drawbar DOWN button (see Figure
28) to loosen and unseat arbor and tooling.
Remove arbor and tooling.
4.
Note: Debris or oily substances can prevent
tooling and spindle from properly mating.
This condition can cause excessive vibration,
poor cutting results, or tool/workpiece
damage.
Using a thick rag, hold tooling or arbor so
3.
they are seated in the spindle bore and lugs
are splined with spindle slots.
With a sequence of several short presses,
4.
push drawbar UP button (see Figure 28) to
tighten and lock arbor and tooling in place.
ON
OFF
Figure 28. Drawbar controls.
-33-
Model SB1063
MAINTENANCE
For Machines Mfd. Since 5/19
Maintenance Schedule
ON
OFF
Regular maintenance will ensure proper care
of the equipment. We strongly recommend that
all operators make a habit of following the daily
maintenance procedures.
For optimum performance from this machine,
this maintenance schedule must be strictly
followed. Use the Monthly Maintenance Chart
on Page 35 to ensure this is done.
Ongoing
To maintain a low risk of injury and maximize
efficient machine operation, periodically evaluate
the listed items below. If a problem is found,
immediately shut the machine down, disconnect
it from power, and fix the problem before
continuing operations.
Always disconnect
machine from power before
performing maintenance or
serious personal injury may
result.
Before Beginning Operations
• Make sure the electric box door is closed and
properly latched.
• Check the coolant reservoir in the base. Fill
it or clean it out if necessary.
• Verify that oiler lubrication reservoirs are
full enough for the operation.
• Loosen or tighten applicable table and
spindle lock levers for the upcoming
operation.
Daily, After Operations
• Push the EMERGENCY STOP button.
• Turn the main power switch to the OFF
position.
• Vacuum/clean all chips and swarf from table,
slides, and base.
• Wipe down all unpainted or machined
surfaces with a high-quality rust
preventative compound.
• Wipe away excess flood oil from areas that
are auto lubricated.
• Loose mounting bolts or fasteners.
• Worn, frayed, cracked, or damaged wires.
• EMERGENCY STOP button not working
correctly.
• Missing belt or chip guards.
• Reduction in braking speed or efficiency.
• Coolant not flowing correctly.
• Worn or damaged tooling.
• Any other unsafe condition.
-34-
For Machines Mfd. Since 5/19Model SB1063
MAINTENANCE
Use this chart to keep track of the maintenance performed on the mill. Cross out
or initial the “Day” box for each item on the list. If the box is blacked out, mainte-
nance is not required for that item on that day.
Make copies of this page to use each month. Keep each charts as a maintenance
South Bend Lathe Co.® Monthly Maintenance Chart for Model SB1063 Milling Machine
Gears
(360) 734-1540 • FAX: (360) 676-1075
-35-
Model SB1063
MAINTENANCE
For Machines Mfd. Since 5/19
Cleaning
Regular cleaning is one of the most important
steps in taking good care of this machine. In
most shops, each operator is responsible for
cleaning the machine immediately after using it
or at the end of the day. We recommend that the
cleaning routine be planned into the workflow
schedule, so that adequate time is set aside to do
the job right.
Typically, the easiest way to clean swarf from the
ways and table is to use a wet/dry shop vacuum
that is dedicated for this purpose only. The small
chips left over after vacuuming can be wiped up
with a slightly oiled rag. Avoid using compressed
air to blow off chips, as it may drive them deeper
into moving surfaces and could cause sharp chips
to fly into your face or hands.
All visible swarf should be removed daily from
the mill during cleaning.
Lubrication
The mill has numerous moving metal-tometal contacts that require regular and proper
lubrication to ensure efficient and long-lasting
operation, and to protect your investment.
Other than the lubrication points covered in
this section, all other bearings are internally
lubricated and sealed at the factory. Simply leave
them alone unless they need to be replaced.
Before performing any lubrication task other
than using the electronic oiler, DISCONNECT
THE MILL FROM POWER! Always clean away
grime before lubricating.
IMPORTANT: For all lubrication tasks, first
clean the debris and grime from the oil cup or
grease fitting and the immediate area to prevent
contamination of the oil cups, grease fittings, or
new lubricant.
Unpainted & Machined Surfaces
Besides the ways, all other unpainted and
machined surfaces should be wiped down daily
to keep them rust-free and in top condition. This
includes any surface that is vulnerable to rust
if left unprotected (especially any parts that
are exposed to water-soluble cutting fluids).
Typically, a thin film of oil is all that is necessary
for protection.
Use the schedule and information in Figure 29
as a daily guide for lubrication tasks.
The following recommended lubrication
schedule is based on light-to-medium usage.
Keeping in mind that lubrication helps to
protect the value and operation of the mill,
these lubrication tasks may need to be
performed more frequently depending on
usage.
Frequency
Lubrication Task
Quill3–4 hrs.39
Table Ways and
Ballscrews
Speed Range Bearing
Sleeve
(Hours of
Operation)
Auto Oiler37
Before Every
Use
Page
Ref.
38
-36-
Headstock Gearing40 hrs.38
Ram Ways40 hrs.39
Head Rack and Pinion6 Months39
Figure 29. Recommended lubrication tasks,
schedules, and instruction page references.
For Machines Mfd. Since 5/19Model SB1063
MAINTENANCE
CESH Electric Lubricator
Required Oil Viscosity ........32-68cSt at 40 Deg. C
Lubricant Type
(ISO VG 32-68)
Manual Auto Frequency ....... 10 Sec every 60 Min
CNC Auto Frequency
Reservoir Capacity
The electronic oiler (see Figure 30) is connected
to metal tubes that direct oil to critical wear
points at ways and ballnuts for the spindle, table,
saddle, and knee.
A. Lubrication Adjustment: Using Interval Time
Knob, 10 second pump cycle can be adjusted
to intervals shown on the dial.
B. Manual Oiling: When pressing Feed Oil
Button for manual lubrication, do not push
and hold button for longer than four minutes
or you will overload lubricator pump. If
temperature reaches 100 Deg. F, sensor will
stop motor for about 5 minutes to allow for
cooling.
.......................... Syncon® R&O Oil
.............. 10 Sec every 5 Min
..................................... 2 Liters
Air Regulator, Filter, Lubricator
Required Oil Viscosity ........32-68cSt at 40 Deg. C
Lubricant Type
(ISO VG 32-68)
Drop Frequency ......3 Drops Per Drawbar Change
Reservoir Capacity
Air Regulator, Filter, Lubricator (see Figures 31–33) provide the following functions that
support Air Power Drawbar Motor:
Amount ................................................ Fill Oil Cup
Check/Add Frequency
Lift the oil cup cap shown in Figure 36 to fill it
with lubricant.
Quill Oil Cup
Figure 36. Quill oil cup location.
..............4 hrs. of Operation
Headstock Rack & Pinion Gear
The interaction between the cast iron surfaces of
these devices (see Figures 38-39) produces a dry
powder that provides an adequate lubrication.
However, if the machine is operated in an area
prone to rust, a light coat of grease will help keep
surface rust at bay.
Do not pack with grease or apply any other
lubricant that could attract abrasives and
cause caking that would interfere with smooth
movement.
Move the ram back and forth as necessary
to access the full length of the ways (see
Figure 37), then use a clean shop rag to apply a
thin coat of lubricant.
Note: Do not get any oil on the ram rack (refer to
the next subsection).
............40 hrs. of Operation
Ram Ways
(Both Sides)
Figure 38. Headstock slide rack and pinion assembly
(pinion hidden).
Rack and
Worm Gear
Figure 37. Ram ways exposed for lubrication.
Figure 39. Headstock tilt rack and worm assembly.
-39-
Model SB1063
MAINTENANCE
Air Filters
The mill has numerous electrical components
enclosed inside of the electrical box that generate
substantial heat. To ensure efficient and longlasting operation this heat must be removed.
The electrical box is fitted with two exhaust
cooling fans and two inlet vents that have filters
to keep the inside of the electrical box clean.
These filters require periodic inspection and
cleaning.
Before performing any task on the electrical box
or its fans, DISCONNECT THE MILL FROM
POWER!
For Machines Mfd. Since 5/19
4.
Working from outside of the electrical cabi-
net (see Figure 41), use a vacuum nozzle to
remove collected dust from inlet vent filters.
If the filters are extremely clogged, remove
the four screws and the external covers also
shown in Figure 41 and clean like exhaust
fan filters.
Screwdriver Standard #2
Solution of Mild Dish Soap and Water
...................................... 1
..................
As Required
To clean air filters:
1. Use a thin bladed tool to carefully pry-off
snap-on filter cover (see Figure 40).
ON
OFF
Figure 41. Air filter external covers.
Figure 40. Air filter element.
2. Wash filter pad in warm soapy water, pat
dry with towel.
Reinstall exhaust filter and filter cover.
3.
-40-
For Machines Mfd. Since 5/19Model SB1063
MAINTENANCE
Coolant Reservoir
Hazards
As cutting fluid ages, heavy metals and
dangerous microbes can accumulate and create
a poison hazard. The risk of exposure to this
hazard can be greatly reduced by replacing old
cutting fluid on a monthly basis, as indicated
in the maintenance schedule or according to
manufacturer's recommendations.
The important thing to keep in mind when
working with the cutting fluid is to minimize
exposure to your skin, eyes, and respiratory
system by wearing the proper PPE (personal
protective equipment), such as splash-resistant
safety glasses, long-sleeve gloves, protective
clothing, and a NIOSH approved respirator.
BIOLOGICAL & POISON
HAZARD!
Use the correct personal
protection equipment
when handling cutting
fluid. Follow federal, state,
and fluid manufacturer
requirements for proper
disposal.
A small amount of coolant is lost during normal
operation. Keep the coolant reservoir filled to
the point where the strainer screen is slightly
submerged under the surface of the coolant. By
doing so a quick visual check can be made before
every use. Under all circumstances (as checked
with a dip wire), the coolant should never fall
below a 2" level in the base reservoir. Change
or service coolant according to manufacturer's
instructions.
Checking Coolant Level
1. Clean away debris and grime from coolant
drain screen on base of mill (see Figure 42),
and verify that screen is slightly submerged.
Drain
Screen
Figure 42. Location of the coolant drain screen.
Running coolant pump without adequate
coolant in reservoir may permanently damage
coolant pump and is not covered under
warranty.
If coolant level in reservoir is less than 2",
2.
pour more coolant through screen and into
reservoir until drain screen is seen to be
slightly submerged.
The coolant reservoir holds approximately five
gallons (19 liters) of fluid.
-41-
Model SB1063
MAINTENANCE
For Machines Mfd. Since 5/19
Changing Coolant
Tools Needed Qty
Cleaning Solution .................................... As Reqd.
out reservoir tank with a cleaner that is
soluble with coolant used.
Thoroughly flush and clean around base of
10.
pump intake.
Tip: Placing a series of magnets at bottom of
coolant reservoir can help naturally remove
fine metal chips and flakes from being
recirculated through cooling system when
cutting.
6. Remove coolant reservoir access panel from
rear of column.
Remove pump mounting screws and move
7.
pump out of way (see Figure 43).
ON
OFF
Figure 43. Rear access of coolant pump.
2 Pump
Mounting
Cap Screws
When reservoir and pump are clean and dry,
11.
reinstall pump (if removed), access panel,
and drain plug.
Refill reservoir through catch pan with
12.
coolant until drain screen stays slightly
submerged.
-42-
For Machines Mfd. Since 5/19Model SB1063
Machine Storage
To avoid control box damage, and rust or
corrosion damage to metal surfaces, you must
properly prepare the mill for storage if it will not
be operated for any length of time.
You also must make certain that the storage
environment temperature will maintain between
-13°F to 158°F (-25°C to +70°C), and the relative
humidity will not exceed 90% (non-condensing).
MAINTENANCE
Tip: If mill will be out of service for less than a
year, use way oil or good grade of mediumweight machine oil (not motor oil or WD-40)
in place of rust preventative.
Painted surfaces may be cleaned and waxed
6.
with any quality automotive car wax.
• If machine will be out of service for year or
longer, drain oiler and blow out oil lines with
compressed air.
To prepare mill for storage:
1. DISCONNECT MILL FROM POWER!
2. Lubricate as directed in Maintenance
section beginning on Page 36.
Remove all coolant as directed in Changing
3.
Coolant section on Page 42.
Blow out coolant lines with compressed air.
4.
5. Thoroughly clean all unpainted, bare metal
surfaces, then coat them with quality rust
preventative. Take care to ensure these
surfaces are completely covered but that rust
preventative is kept off painted surfaces.
• If machine will be out of service for year or
longer, loosen the belts to prevent them from
stretching during storage. Post a reminder
on mill that belts need to be re-installed or
tensioned before resuming operations.
• If machine will be out of service for year
or longer, place a few moisture-absorbing
desiccant packs inside electrical and control
panel boxes.
Cover and place the machine in dry area
7.
that is out of direct sunlight and away from
hazardous fumes, paint, solvents, or gas.
Fumes and sunlight can bleach or discolor
paint and plastic parts.
-43-
Model SB1063
SERVICE
For Machines Mfd. Since 5/19
Adjusting Gibs
Gibs are tapered lengths of metal between two
sliding surfaces. Gibs control the gap between
these surfaces and how accurately they slide.
Correctly adjusting the gibs is critical to
producing good milling results.
Tight gibs make table movement more accurate
but stiff. Loose gibs make moving the table less
accurate but easier. The goal of gib adjustment
is to remove unnecessary play without causing
the ways to bind and the ballscrews to wear
prematurely.
Gibs are adjusted with a screw at each end.
The screws are adjusted in unison to move the
gib back and forth to increase or decrease the
gap between the ways. The process of properly
adjusting the gibs is a trial-and-error process
based on how much preload they apply to the
ways.
ON
OFF
Table Gib &
Adjustment Screw
Figure 45. Typical table gib and adjustment screw
underneath the left side of the table.
Left-Center Gib
Adjustment Screw
Refer to Figures 45–47 to identify the locations
of the table, saddle, and knee gibs, and the
adjustment screws for each.
The saddle and knee have three gibs each—two
on each side, and one that is left of center. Adjust
the gibs on the sides first, then adjust the leftcenter gib.
To adjust gibs:
1. DISCONNECT MILL FROM POWER!
2. Remove small parts, such as way wipers and
covers, to access gib adjustment screws.
Loosen all table and knee locks, and clean
3.
and lightly oil ways.
Center table on saddle.
4.
5. Loosen one gib adjustment screw and tighten
opposing screw same amount to move gib.
Side Gib
Adjustment Screw
(1 of 2)
Figure 46. Typical saddle gib adjustment screws.
Left of Center Gib
Side Gib
Adjustment Screw
(1 of 2)
Adjustment Screw
Use handwheel crank to move the table and
6.
knee until you feel a slight drag.
Reinstall small parts, such as way wipers
7.
and covers that were removed to access gib
adjustment screws.
-44-
Figure 47. Typical knee gib adjustment screws.
For Machines Mfd. Since 5/19Model SB1063
SERVICE
5. Re-tighten motor mount cap screws.
Adjusting X-, Y-, and
If it has been a long period of time and belt
Z- Ballscrew Backlash
This milling machine uses ballscrew technology
for X-, Y-, and Z-axes movement. Unlike a
standard half-nut and lead screw design, the
ballscrew design requires no periodic adjustment
and should last the life of the machine.
has not been inspected, or it is suspected
that there is a belt problem, vent cover
can be removed (see Figure 49) for belt
inspection and belt changes.
Main Belt Tensioning
Power is transferred from the motor to the
spindle with a heavy-duty cogged or synchronous
belt. With normal use, the belt will gradually
stretch over time. When it does, perform the
following procedure to re-tension it.
with moderate force until no slop exists.
Correct adjustment is zero deflection with
only slight pulley preload.
Tension
Adjustment
Lever
ON
OFF
Replacement
Power is transferred from servo motor to X- and
Y-axis ballscrews with cogged or synchronous
belts. With normal use, belts will gradually
require adjustment or replacement. When they
do, follow these procedures.
Eliminate workpiece binding; use vise or clamps as
required for proper workpiece alignment control.
3.
Inspect/replace stripped or damaged bolts/nuts and
re-tighten with thread locking fluid.
4.
Re-align/replace shaft, pulley, set screw, and key as
required.
5.
Re-tighten/replace mounting bolts in floor; relocate/
shim machine.
6.
Replace dented fan cover or fan.
7.
Replace loose pulley/shaft.
8.
Test by rotating shaft; rotation grinding/loose shaft
requires bearing replacement.
9.
Rebuild gearbox for bad gear(s)/bearing(s).
-48-
For Machines Mfd. Since 5/19Model SB1063
TROUBLESHOOTING
SymptomPossible CausePossible Solution
Workpiece chatters
or vibrates during
operation.
Table hard to
move.
Bad surface finish.
1.
Table/saddle/knee locks not tight.
2.
Workpiece not securely clamped to
table or mill vise.
3.
Tool not secure or is damaged.
4.
Spindle speed too fast/feed rate too
slow.
5.
Gibs are too loose.
1.
Table/saddle/knee locks are
tightened down.
2.
Chips have loaded up on the ways.
3.
Ways are dry and in need of
lubrication.
4.
Gibs are too tight.
1.
Wrong spindle speed/feed rate.
2.
Dull/damaged tool; wrong tool for
operation.
3.
Wrong spindle rotation direction for
tool.
4.
Workpiece not securely clamped to
table or mill vise.
5.
Gibs are too loose.
1.
Tighten all locks on mill that are not associated
with necessary table movement for the operation.
2.
Check that clamping is tight and sufficient for the
operation; make sure mill vise is clamped tight to
table.
3.
Properly secure the tool; replace if damaged.
4.
Use correct spindle speed and feed rate.
5.
Properly adjust gibs (Page 44).
1.
Loosen the locks needed for movement.
2.
Frequently clean away chips from the ways that
build up during operation.
3.
Troubleshoot the automatic oiler/refill (Page 37).
4.
Properly adjust gibs (Page 44).
1.
Use correct spindle speed and feed rate.
2.
Sharpen/replace tool; use correct tool for operation.
3.
Check for proper spindle rotation direction for tool.
4.
Check that clamping is tight and sufficient for the
operation; make sure mill vise is clamped tight to
table.
5.
Properly adjust gibs (Page 44).
Machine is loud
when cutting;
overheats or bogs
down in the cut.
Breaking tooling.
1.
Excessive depth of cut.
2.
Dull tooling.
3.
Feed rate too fast.
1.
Spindle speed/feed rate too fast.
2.
Tooling getting too hot.
3.
Excessive depth of cut.
4.
Workpiece not securely clamped to
table or mill vise.
5.
Gibs are too loose.
1.
Decrease depth of cut and allow chips to clear.
2.
Use sharp tooling.
3.
Decrease feed rate.
1.
Use correct spindle speed and feed rate.
2.
Use coolant; reduce spindle RPM/feed rate.
3.
Correct tool path to decrease depth of cut and allow
chips to clear.
4.
Check that clamping is tight and sufficient for the
operation; make sure mill vise is clamped tight to
table.
5.
Properly adjust gibs.
-49-
Model SB1063
Shock Hazard: It is extremely dangerous to
Wire Connections:
Modifications:
Motor Wiring:
junction box.
Circuit Requirements: Connecting the machine
power inverters store an electrical charge for
our Technical Support at (360) 734-1540.
ELECTRICAL
For Machines Mfd. Since 5/19
Electrical Safety Instructions
These pages are accurate at the time of printing. In the constant effort to improve, however, we may
make changes to the electrical systems of future machines. Study this section carefully. If you see
differences between your machine and what is shown in this section, call Technical Support at (360)
734-1540 for assistance BEFORE making any changes to the wiring on the machine.
perform electrical or wiring tasks while the
machine is connected to the power source.
Touching electrified parts will result in
personal injury including but not limited to
severe burns, electrocution, or death. For
your own safety, disconnect machine from
the power source before servicing electrical
components or performing any wiring tasks!
All connections must be
tight to prevent wires from loosening during
machine operation. Double-check all wires
disconnected or connected during any wiring
task to ensure tight connections.
Using aftermarket parts or
modifying the wiring beyond what is shown
in the diagram may lead to unpredictable
results, including serious injury or fire.
The motor wiring shown in these
diagrams is current at the time of printing,
but it may not match your machine. Always
use the wiring diagram inside the motor
to an improperly sized circuit will greatly
increase the risk of fire. To minimize
this risk, only connect the machine to a
power circuit that meets the minimum
requirements given in this manual.
Capacitors/Inverters: Some capacitors and
up to 10 minutes after being disconnected
from the power source. To reduce the risk of
being shocked, wait at least this long before
working on capacitors.
Wire/Component Damage: Damaged wires
or components increase the risk of serious
personal injury, fire, or machine damage. If
you notice that any wires or components are
damaged while performing a wiring task,
replace those wires or components before
completing the task.
Experiencing Difficulties: If you are
experiencing difficulties understanding the
information included in this section, contact
BLACK
BLUE
BROWN
BLACK
G R AY
NOTICE:
-50-
WIRING DIAGRAM COLOR KEY
BLUE
WHITE
GREEN
G R AY
BgGb
G R AY
BLACK
The photos and diagrams included in this section are best viewed in color. You can
see them in color at www.southbendlathe.com.
RED
LIGHT
BLUE
ORANGE
G R AY
WHITE
GwLgYb
PINK
PURPLE
TURQUIOSE
LIGHT
GREEN
WHITE
YEL LOW
GREEN
YEL LOW
YEL LOW
BROWN
For Machines Mfd. Since 5/19Model SB1063
ELECTRICAL
Wiring Overview
A
Electrical Cabinet
Power Supply
Connection
(Page 53)
Spindle Motor
(Page 56)
B
220 VAC
3-PH
C
(Refer to Factory
Wiring Schematics on
Page 86)
Work Lamp
J
K
(Page 61)
Drawbar Control
(Page 60)
Drawbar Oiler
L
Control Unit
(Page 60)
Spindle Brake
(Page 56)
Spindle Speed
Range Switch
(Page 56)
Z-Axis Table
Elevation Motor
(Page 57)
Table Elevation
Handwheel Limit
Switch (Page 57)
Knee Limit Switches
(Page 58)
Coolant Pump
(Page 58)
D
M
Auto Oiler
(Page 55)
E
N
Spindle Limit
Switches (Page 59)
F
G
MMMO
P
X- and Y-Axis Limit
Switches (Page 55)
H
X-Axis Servo Motor
R
S
Y-Axis Servo Motor
Z-Axis Servo Motor
T
CNC Control
Unit
(Refer to Fagor
Manual Wiring
Schematics, and
Pages 54, 86)
I
Q
CNC Control Unit
(Refer to Fagor Manual
Wiring Schematics, and
Pages 54, 86)
Hand-Held Controller
(Refer to Fagor Manual
Wiring Schematics)
-51-
Model SB1063
Wiring Visual Index
Spindle Motor
(Page 53)
Spindle Brake
(Page 53)
Auto Oiler
(Page 53)
C
D
Drawbar Control
(Page 53)
K
ELECTRICAL
For Machines Mfd. Since 5/19
Machine Mode
Indicator Lamp
(Page 55)
M
I
Coolant Pump
(Page 58)
and
Drawbar Oiler
Control Unit
(Page 60)
Table Elevation
Handwheel Limit
Switch (Page 54)
G
Spindle Speed
Range Switch
F
Z-Axis Table
Elevation Motor
(Page 57)
Control Panel Switch
Wiring (Pages 54, 86)
(Page 56)
CNC Control Unit
(Refer to Fagor Manual
Q
Wiring Schematics, and
Page 86)
Q
Master Power
Switch
(Page 53)
B
E
-52-
Spindle Limit
Switches (Page 59)
X- and Y-Axis Limit
Switches (Page 55)
Knee Limit Switches
(Page 58)
N
Cooling Fans
PO
(Page 61)
A
H
Electrical Cabinet
(Refer to Factory
Wiring Schematics on
Page 86)
For Machines Mfd. Since 5/19Model SB1063
Machine Electrical
Box Master Power Switch (QS1)
ELECTRICAL
General Component Wiring
Figure 57. Electrical cabinet wiring with
equipment number tags.
Figure 58. Master power switch (QS1).
Incoming
220V Three-Phase Power
B
(Phase Converter Not Allowed)
Gn
Ground
L1L2L3
W09
RST
Main Electrical
Cabinet (see Figure 57)
A
-53-
Model SB1063
Control Panel Switch Box (as seen from behind)
ELECTRICAL
For Machines Mfd. Since 5/19
upper electrical panel wiring
General Component Wiring (Cont.)
(See Figure 59)
Emergency
Stop Button
RENY
P6
P6
R9PDNVO
2W MAX
250V MAX
P6
NC
22
N6 N6
170M IND. CONT.
E0. AC15
P6
NC1
2
I 1
01 01
Q
R9PDNVO
2W MAX
250V MAX
331
NO
21
N6N6
DC24
RENY
P6
Coolant
Pump
Servo ON
Button
RENY
R9PDNVO
2W MAX
250V MAX
NO
X1
23
X2
442
6
X1X1
5
X2X2
I 3
IDEC LB-T10
AC-12 125V 0.1A
DC-12 30V 0.1A
LED AC/DC 1W 24V
X1
03
X3
P6
IDEC LB-T10
AC-12 125V 0.1A
DC-12 30V 0.1A
LED AC/DC 1W 24V
X1
05
N6
X3
N6N6N6
29
N6N6N6
Work
Light
IDEC LB-T10
AC-12 125V 0.1A
DC-12 30V 0.1A
LED AC/DC 1W 24V
02
X1
14
IDEC LB-T10
AC-12 125V 0.1A
DC-12 30V 0.1A
LED AC/DC 1W 24V
X1
X3
Table
15
Up
IDEC LB-T10
AC-12 125V 0.1A
DC-12 30V 0.1A
LED AC/DC 1W 24V
I 2
X1
X3X3
16
14
16
Table
DownMANO.T
IDEC LB-T10
AC-12 125V 0.1A
DC-12 30V 0.1A
LED AC/DC 1W 24V
X1
X3
P6P6
15
P6
P6P6
(See Figure 60)
To Fagor
Control Panel
(see Figure 6
View A)
To Electrical
Cabinet
(see Figure 57)
A
Figure 60. Control panel switches.Figure 59. Control panel switches.
-54-
For Machines Mfd. Since 5/19Model SB1063
Table Y-Axis Home
DC-13 6A 24V
DC-13 6A 24V
220VAC = 2A
ELECTRICAL
General Component Wiring (Cont.)
Figure 61. X-Axis limit switch (LS1).
Table X-Axis Home
Limit Switch (LS2)
P6
P6
EUCHNER
SN02D12-502-MC1688
ID.-NR.: 070090
AC-15 6A 230V
I70
26
O
Figure 62. Y-Axis limit switch (LS2).
Limit Switch (LS1)
26
P6
EUCHNER
SN02D12-502-MC1688
ID.-NR.: 070090
AC-15 6A 230V
27
I71
P
To Electrical
Cabinet
(see Figure 57)
Automatic Electric
Oiler (M13)
110 VAC 1.6A 50/60Hz
A
Figure 63. Automatic oiler (M13).
110VAC = 3A
Fuse
M1
I 76
P6
OV
(see Figure 57)
Q
To Electrical
Cabinet
A
-55-
Model SB1063
Ground
15A/250VAC
ELECTRICAL
For Machines Mfd. Since 5/19
General Component Wiring (Cont.)
(See Figure 65)
Spindle Motor (M3)
220VAC 3PH
X1
U
P6
P6
Spindle Brake
Switch (LS7)
D
(See Figure 64)
Z1
Y1
81
T2
V
W
81
T2
P6
P6
25
25
COM
NO
NC
Moujen
Electric Co.
MJ2-1701
P6
25
C
To Electrical
Cabinet (see Figure 57)
Figure 64. Spindle brake switch (LS7).
A
Spindle Speed
Range Switch (LS6)
E
(See Figure 66)
COM
P6
NO
NC
Moujen
Electric Co.
MJ2-1302
15A/250VAC
Figure 66. Spindle speed range switch (LS6).
Figure 65. Spindle motor wiring (220V) (M3).
-56-
For Machines Mfd. Since 5/19Model SB1063
Ground
ELECTRICAL
General Component Wiring (Cont.)
Z-Axis Table Motor (M2)
220VAC 3-PH
SVSU
SW
F
Figure 67. Z-axis motor wiring (220V) (M2).
To Electrical
Cabinet
(see Figure 57)
A
Elevation Crank
Safety Switch
(LS8)
NO NO34
1
9
G
Figure 68. Z-axis crank safety switch (LS8).
-57-
Model SB1063
Limit Switch
ELECTRICAL
For Machines Mfd. Since 5/19
General Component Wiring (Cont.)
Figure 69. Z-axis limit switches (LS9 & LS10).
H
To Electrical
Cabinet
(see Figure 57)
A
13
11
12
10
NC
NO
COM
Moujen Ele. Co.
MJ2-1308
15A/250V
NC
NO
COM
Moujen Ele. Co.
MJ2-1308
15A/250V
Coolant Pump (M1)
220VAC 3PH
Up Knee
(LS10)
Down Knee
Limit Switch
(LS9)
Figure 70. Coolant pump motor wiring (220V) (M1).
Br
Yl
U1V1W1
I
To Electrical
Cabinet
(see Figure 57)
A
Ground
-58-
For Machines Mfd. Since 5/19Model SB1063
Spindle Ballscrew
ELECTRICAL
General Component Wiring (Cont.)
Compartment
Z-Axis
Negative
Limit Switch
(LS5)
27
28
10A @ 250VAC
V-106-1A5
Omron
10A @ 250VAC
V-106-1A5
Omron
Z-Axis Home
Limit Switch
(LS3)
10A @ 250VAC
V-106-1A5
Omron
P6
I 72
29
Figure 71. Spindle limit switches (LS3 & LS5).
N
To Main Electrical
Cabinet (see Figure 57)
A
Z-Axis
Positive
Limit Switch
(LS4)
Part of Electrical
Cabinet
(see Figure 57)
A
Figure 72. Cooling fans (M9 & M10).
81T2
Upper Fan
(M9)
81T2
Lower Fan
(M10)
-59-
Model SB1063
Ground
ELECTRICAL
For Machines Mfd. Since 5/19
General Component Wiring (Cont.)
Main
Electrical Box
16
2
A
Fuse
4A-250VAC
5 X 20 MM
Electric Over Air
Drawbar Lubricator
Control Unit
(SOL.1)
24 VAC
L
Figure 73. Power drawbar air and oil controller
(SOL.1).
Power Drawbar
Switch Panel
Up
Button
Down
Button
K
Bl
Gr
Br
Figure 74. Power drawbar control switches.
-60-
For Machines Mfd. Since 5/19Model SB1063
ELECTRICAL
General Component Wiring (Cont.)
Machine Mode
Indicator Lamp
A
33
31
32
N6
Q
32
N6
31
33
Electrical
Fagor Control
Panel Box
Cabinet
Figure 75. Machine mode indicator light.
Figure 76. Machine mode indicator light pigtail.
-61-
Model SB1063
Electrical Schematics
ELECTRICAL
For Machines Mfd. Since 5/19
-62-
For Machines Mfd. Since 5/19Model SB1063
ELECTRICAL
-63-
Model SB1063
ELECTRICAL
For Machines Mfd. Since 5/19
-64-
For Machines Mfd. Since 5/19Model SB1063
ELECTRICAL
-65-
Model SB1063
ELECTRICAL
For Machines Mfd. Since 5/19
-66-
For Machines Mfd. Since 5/19Model SB1063
ELECTRICAL
-67-
Model SB1063
ELECTRICAL
For Machines Mfd. Since 5/19
-68-
For Machines Mfd. Since 5/19Model SB1063
ELECTRICAL
-69-
Model SB1063
ELECTRICAL
For Machines Mfd. Since 5/19
-70-
For Machines Mfd. Since 5/19Model SB1063
ELECTRICAL
-71-
Model SB1063
ELECTRICAL
For Machines Mfd. Since 5/19
-72-
For Machines Mfd. Since 5/19Model SB1063
ELECTRICAL
-73-
Model SB1063
ELECTRICAL
For Machines Mfd. Since 5/19
-74 -
For Machines Mfd. Since 5/19Model SB1063
ELECTRICAL
-75-
Model SB1063
ELECTRICAL
For Machines Mfd. Since 5/19
-76-
For Machines Mfd. Since 5/19Model SB1063
ELECTRICAL
-77-
Model SB1063
ELECTRICAL
For Machines Mfd. Since 5/19
-78-
For Machines Mfd. Since 5/19Model SB1063
ELECTRICAL
-79-
Model SB1063
ELECTRICAL
For Machines Mfd. Since 5/19
-80-
For Machines Mfd. Since 5/19Model SB1063
ELECTRICAL
-81-
Model SB1063
ELECTRICAL
For Machines Mfd. Since 5/19
-82-
For Machines Mfd. Since 5/19Model SB1063
ELECTRICAL
-83-
Model SB1063
ELECTRICAL
For Machines Mfd. Since 5/19
-84-
For Machines Mfd. Since 5/19Model SB1063
ELECTRICAL
-85-
Model SB1063
Headstock
PARTS
For Machines Mfd. Since 5/19
1
2
1A
15
16
17
9
21
27
26
18
7
19
28
3
8
9
20
23
29
10
22
30
5
6
4
11
12
13
14
24
25
31
32
88
89
119
118
116
116
91
90
113
60
117
114
92
119
115
93
94
28
107
95
60
108
60
107
103
110
109
59
86
78
111
104
96
87
97
105
106
98
15
99
112
100
101
NOTE: Items shown are for reference purposes and
all parts may not be available as single items.
102
42
43
34A
33
44
35
37
37
39
40
41
36
38
58
34
57
46
45
56
55
45
47
54
53
50
48
50
50A
60
49
51
52
61
63
62
35
64
59
120
85
83
84
18
60
65
66
67
68
69
70
9
19
18
16
15
71
35
73
68A
72
75
74
76
78
79
Reference View
77
76
81
82
80
-86-
For Machines Mfd. Since 5/19Model SB1063
PSB10630068A
PARTS
Headstock Parts List
REF PART #DESCRIPTIONREF PART #DESCRIPTION
1APSB10630001A LEVER HAN DLE AND HUB AS SEMBLY50PSB10630050 FEED REVERSE GEAR