Trimble Inc. reserves the right to alter the specification of this product and/or the contents of this
manual without advanced notification.
This manual contains PROPRIETARY information from Trimble Inc. This manual may not be
duplicated, disclosed, copied, or re-transmitted in any form without prior written permission from
Trimble Inc.
This Service manual was prepared as a reference guide for the service personnel of authorized
Trimble service centres to enable them to correctly carry out the task of rendering service and
maintenance on Trimble instruments.
In order to insure that customers are satisfied with Trimble products, proper service and maintenance
must be provided. The service personnel must fully understand the contents of the manual and at the
same time, it is recommended to keep the manual in a place where reference can readily be made.
The information, photographs, drawings and specifications entered in this manual were the best
available at the time of printing. All alterations to this manual will be notified by the issuance of
service information, service bulletins, supplementary pages, exchange pages or revised volumes. It is
therefore recommended that the manual be kept up to date by carefully maintaining a follow-up of
these materials.
This service manual is designed to provide the necessary information for the service, maintenance,
and repair of this product. The manual is divided into the following sections:
1. General Information and Safety: Contains general information about the use of this manual,
contacting Trimble, safety precautions, ESD information, laser safety, etc.
2. General Product Information: Describes basic product description, specifications, warranty,
related documentation, etc.
3. Theory of Operation: Describes the functional operation, mechanical design, electrical
hardware/software operation, optical operation*, and hydraulic operation* of the unit. (* as
required)
4. Troubleshooting: Provides a logical means of determining the source of a malfunction of the
unit.
5. Maintenance and Repair: Describes the steps necessary to operate, test, disassemble, and repair
the unit. Also includes software download information.
6. Assembly Drawings: Reference drawings and exploded views for obtaining assembly and part
information.
7. Adjustments and Verification: Provides the procedures necessary to adjust, calibrate, and
verify the product meets published specifications.
8. Service Software: Documents the hardware and software requirements needed and the
procedures to use service software to repair, upgrade, or reset operation of the product.
9. Replacement Parts: Lists the available service replacement parts and parts ordering
information.
10.Appendix: Provides additional information such as Service Bulletins, updates, notes, software
procedures, etc.
1. General: This manual assumes the basic understanding of mechanical design, electronic
theory, general service procedures, and have attended a Trimble, Inc. service training course
regarding this product.
2. Electronic Test Equipment: This manual assumes the proper knowledge and understanding of
the use of basic electronic test equipment such as volt-ohmmeters, oscilloscopes, generators,
power supplies, etc.
3. Computers: This manual assumes the basic knowledge of using a computer with MS-DOS,
Microsoft Windows, or applicable operating system and corresponding software.
Possible Loss of Warranty
The manufacturer's warranty on Trimble instruments can be voided by improper service or repairs
performed by persons other than authorized technicians. Strict compliance with the instructions in
this manual is necessary to prevent loss of coverage under such warranties. See Warranty terms in the
appendices.
Service Information
Assembly drawings depict the relationship between all assemblies that are deemed "serviceable".
Serviceable is defined as those assemblies that are repairable at the service centre level. The
limitation to “serviceable” assemblies is the tooling involved as well as assembly times.
Removal and Replacement
Refer to the parts ordering section of this manual when replacing parts or making any adjustments.
Torque specifications, adhesives, and procedures specified on assembly drawings are essential for
continued successful operation of this product.
This manual contains certain CAUTIONS, which should be carefully read and followed to minimize
risk of personal injury or damage to the instrument. The lack of cautions with respect to specific
service methods does not mean there are no safety risks involved. The following safety rules have to
be observed:
Note – provides information necessary to properly complete a procedure or information, which will
make the procedure easier to understand.
C
C
Caution – indicates a special procedure or special steps that must be taken in the course of
completing the procedure in which the caution is found. These special procedures are necessary
to avoid damage to the assembly on which work is being done.
Warning – indicates a special procedure or special steps that must be taken in the course of
completing the procedure in which the warning is found. These special procedures are
necessary to avoid injury to the person performing the procedure.
The Trimble S6 was constructed in an ESD-protected environment. Most of the semiconductor
devices in the instrument are susceptible to ESD damage.
ESD is generated in many ways.
For example, it can be the result of simple contact, the separation of materials, or the normal motion
of people working with the device. Depending on the magnitude of the charge, device substrates can
be punctured or destroyed by contact with, or by mere proximity to, a static charge. The result can be
immediate destruction, early failure of the device, or degradation of device performance.
To prevent static damage or destruction:
• Take adequate precautions when you handle or service equipment that contains static-sensitive
devices.
• Only attempt to service the circuitry in a static-sensitive device if you are thoroughly familiar
with industry-accepted techniques for handling such devices.
• Always take adequate measures to prevent the buildup of static charge on work surfaces and on
persons handling the Service Manual.
Setting up an ESD workstation
Fig. 1-1 ESD workstation setup
Electrical earth ground
connection
Mat grounding
Dissipative mat
Pockets
Wrist strap
1. Remove the mat grounding cable from the mat pocket.
2. Snap the end of the mat grounding cable onto the common point ground connection on the mat.
3. Connect the other end of the cable to an electrical earth ground, such as a third wire utility
ground, a cold water pipe, or a ground rod.
4. Use the common point ground connection to plug the wrist strap cable into the mat grounding
cable. Make sure the wrist strap includes a 1 Mohm resistor.
Class I, II, and IIIa laser products are defined by the U.S. Bureau of Radiological Health.
C
This equipment has been tested and found to comply with CEI/IEC 60825-1:2007, 21 CFR 1040.10,
and 1040.11 except for deviations to Laser Notice No. 50, dated June 24, 2007.
If the instrument is equipped with a high power laser, this equipment has been tested and found to
comply with IEC 60825-1 2007, 21 CFR 1040.10, and 1040.11 except for deviations to Laser Notice
No. 50, dated June 24, 2007.
Queries
Address any questions you may have about laser safety to:
Warning – Use of controls or adjustments or performance of procedures other than those
specified herein may result in hazardous LED or laser radiation exposure. As with any bright light
source, such as the sun, electric welding arcs or arc lamps, common sense applies. Avoid direct
eye exposure when the laser is on. For further information regarding safe use of lasers, refer to
the CEI/IEC standard 60825-1:2007.
Trimble Navigation Limited 5475 Kellenburger Road Dayton, OH USA 45424-1099 Attention:
Laser Safety Officer, Quality Assurance Group Phone (937) 233-8921 ext 5824 or (800) 538-7800
Fax (937) 233-9661
Trimble S3 DR / RTS555 DR / RTS655 DR / SPS620 DR / SPS720 DR
The Trimble S3 DR, RTS555 DR , RTS655 DR, SPS620 DR, SPS720 DR Total Stations are CLASS
3R LASER PRODUCT:
The instrument contains visible and invisible laser sources:
• A laser diode for distance measuring in DR mode and laser pointer function operating at 660
nm (visible light), with a beam divergence of 0.4 x 0.4 mrad and an output power of <5 mW,
while the emission is coaxial with the telescope. This mode operates in LASER CLASS 3R.
• The laser diode for distance measuring in prism mode operates at 660 nm (visible light), with
a beam divergence of 0.4 x 0.4 mrad and an output power of <0.017 mW, while the emission is
coaxial with the telescope. This mode operates in LASER CLASS 1.
• An Autolock laser diode operates at 785 nm (infrared, non-visible light), with a beam
divergence of 38.5 mrad and an output power of < 0.35 mW, while the emission is coaxial with
the telescope. This mode operates in LASER CLASS 1.
Laser and LED Information Trimble S3 DR / RTS555 DR / RTS655 DR / SPS620 DR /
SPS720 DR
The Trimble S3 DR, RTS555 DR, RTS 655 DR, SPS620 DR, SPS720 DR Total Stations have been
tested, and complies with the regulations for Class 3R Laser products
The instrument contains visible and invisible laser sources:
• A laser diode for the distance measuring function operating at 870 nm (infrared, non-visible
light), with a beam divergence of 0.40.8 mrad and an output power of <0.48 mW, laser
CLASS 1.
• A laser diode for laser pointer function operating at 630 - 680 nm (visible light), with a beam
divergence of 0.3 mrad and an output power of < 0.8 mW, while the emission is coaxial with
the telescope. This mode operates in LASER CLASS 2.
• The laser diode for distance measuring in prism and DR mode operates at 870 nm (infrared,
non-visible light), with a beam divergence of 0.40.8 mrad and an output power of <0,48 mW.
This mode operates in LASER CLASS 1.
• As an option, an Autolock laser diode operates at 785 nm (infrared, non-visible light), with a
beam divergence of 38.5 mrad and an out put power of <0.35 mW, while the emission is coaxial
with the telescope. This mode operates in LASER CLASS 1.
When operating in prism mode with Autolock and/or distance measurement the accessible radiation
does not exceed the limits of LASER CLASS 1.
Laser and LED Information Trimble S6 DR300+ / VX / SPS DR300+ / RTS DR300+
General Information and safety
The Trimble S6 DR300+ (with Autolock®), VX, SPS DR300+ and RTS DR300+ has been tested and
complies with the regulations for a Class 1 and Class 2 Laser product.
The instrument contains visible and invisible laser sources:
• A laser diode for the distance measuring function operating at 905 nm (infrared, non-visible
light), with a beam divergence of 0.4 x 0.8 mrad and an output power of <1.1 mW, LASER
CLASS 1.
• A laser diode for laser pointer function operating at 630 - 680 nm (visible light), with a beam
divergence of 0.3 mrad and an output power of <0.7 mW, while the emission is coaxial with the
telescope. This mode operates in LASER CLASS 2.
• As an option, an Autolock laser diode operates at 785 nm (infrared, non-visible light), with a
beam divergence of 38.5 mrad and an out put power of <0.35 mW, while the emission is coaxial
with the telescope. This mode operates in LASER CLASS 1.
When operating in prism mode with Autolock and/or distance measurement the accessible radiation
does not exceed the limits of LASER CLASS 1.
Laser and LED Information Trimble S6 DR PLUS / S8 DR PLUS / VX DR PLUS /
SPS DR PLUS / RTS DR PLUS
The Trimble S6 DR PLUS / S8 DR PLUS / VX DR PLUS/ SPS DR PLUS/ RTS DR PLUS has been
tested and complies with the regulations for a Class 1 and Class 2 Laser product.
General Information and safety
Fig. 1-19 Trimble S6 DR PLUS
Distance
measurement
Autolock and
Laser pointer
aperture
The instrument contains visible and invisible laser sources:
• A laser diode for distance measuring in DR- mode and laser pointer function operating at 660
nm (visible light), with a beam divergence of 0.4 x 0.4 mrad and an output power of <1 mW,
while the emission is coaxial with the telescope. This mode operates in LASER CLASS 2.
• The laser diode for distance measuring in prism mode operates at 660 nm (visible light), with
a beam divergence of 0.4 x 0.4 mrad and an output power of <0,017 mW, while the emission is
coaxial with the telescope. This mode operates in LASER CLASS 1.
• As an option, an Autolock laser diode operates at 785 nm (infrared, non-visible light), with a
beam divergence of 38.5 mrad and an output power of < 0.35 mW, while the emission is coaxial
with the telescope. This mode operates in LASER CLASS1.
When operating in prism mode with Autolock and/or distance measurement the accessible radiation
does not exceed the limits of LASER CLASS 1.
Laser and LED Information Trimble S6 High Precision / S8 High Precision / SPS DR
Standard / RTS DR Standard
The Trimble S Series High Precision / DR Standard has been tested and complies with the regulations
for a Class 2 Laser product.
General Information and safety
Fig. 1-26 Trimble S6 High Precision / S8 High Precision / SPS DR Standard / RTS DR Standard
Distance
measurement
Autolock and
Laser pointer
aperture
Tracklight®
aperture
The laser pointer warning label, see Figure 1-5 is located on top of the distance unit cover.
Fig. 1-27 Location of laser pointer warning label on a Trimble S6 High Precision / S8 High Precision
/ SPS DR Standard / RTS DR Standard
Laser pointer
warning label
General Information and safety
Trimble S8 Series High Precision with Long Range FineLock
The Trimble S8 Series High Precision with Long Range FineLock is a CLASS 2 LASER PRODUCT.
The instrument contains visible and invisible laser sources:
• A laser diode for distance measuring in DR- mode and laser pointer function operating at 660
nm (visible light), with a beam divergence of 0.4 x 0.4 mrad and an output power of <1 mW,
while the emission is coaxial with the telescope. This mode operates in LASER CLASS 2.
• The laser diode for distance measuring in prism mode operates at 660 nm (visible light), with
a beam divergence of 0.4 x 0.4 mrad and an output power of <0,017 mW, while the emission is
coaxial with the telescope. This mode operates in LASER CLASS 1.
• An Autolock laser diode operates at 785 nm (infrared, non-visible light), with a beam
divergence of 38.5 mrad and an output power of < 0.35 mW, while the emission is coaxial with
the telescope. This mode operates in LASER CLASS1.
• A Long Range FineLock laser diode operates at 785 nm (infrared, non-visible light), with a
beam divergence of 2,5 mrad and an output power of <0.35 mW, while the emission is biaxial
and eccentric with the telescope axis. This mode operates in LASER CLASS 1.
The Autolock laser diode and the Long Range FineLock laser diode can not operate at the same time.
When operating in prism mode with Autolock and/or distance measurement the accessible radiation
does not exceed the limits of LASER CLASS 1.
Trimble S8 Series High Precision with High Power Laser Pointer
The Trimble S8 Series High Precision with High Power Laser Pointer is a CLASS 3 LASER
PRODUCT.
Fig. 1-28 High Power Laser pointer warning label
Fig. 1-29 High Power Laser pointer aperture label
General Information and safety
The instrument contains visible and invisible laser sources:
• A laser diode for distance measuring in DR- mode and laser pointer function operating at 660
nm (visible light), with a beam divergence of 0.4 x 0.4 mrad and an output power of <1 mW,
while the emission is coaxial with the telescope. This mode operates in LASER CLASS 2.
• The laser diode for distance measuring in prism mode operates at 660 nm (visible light), with
a beam divergence of 0.4 x 0.4 mrad and an output power of <0,017 mW, while the emission is
coaxial with the telescope. This mode operates in LASER CLASS 1.
• An Autolock laser diode operates at 785 nm (infrared, non-visible light), with a beam
divergence of 38.5 mrad and an output power of < 0.35 mW, while the emission is coaxial with
the telescope. This mode operates in LASER CLASS1.
• A laser pointer function operating at 660 nm (visible light), with a full beam divergence of 0,2
mrad (1/e^2) and an output power of <3,5 mW, while the emission is biaxial and eccentric to
the telescope. This mode operates in LASER CLASS 3R.
The laser for the high power laser pointer and the laser for measuring in DR mode may be run at the
same time. This mode is within LASER CLASS 3R.
Laser and LED Information Trimble S6 High Precision / S8 / SPS DR Standard / RTS
DR Standard
The Trimble S Series High Precision / S8 / SPS DR Standard / RTS DR Standard has been tested and
complies with the regulations for a Class 2 Laser product.
The Trimble S8 High Precision with optional High Power Laser Pointer has been tested and complies
with the regulations for a Class 3R laser product.
Fig. 1-30 Trimble S6 High Precision / S8 / SPS DR Standard / RTS DR Standard
General Information and safety
Distance
measurement
Autolock and
Laser pointer
aperture
Fig. 1-31 Location of laser pointer warning label on a Trimble S6 High Precision / S8 / SPS DR
Standard / RTS DR Standard and High Power Laser pointer warning label on a Trimble S8.
Trimble S3 - Product description & Service Information
Trimble S6 - Product description & Service information
Trimble S8 - Product description & Service information
Trimble VX - Product description & Service information
Trimble RTS - Product description & Service information
Trimble SPS - Product description & Service information
Models and serial numbers
Instrument Model Matrix
Product Specifications
Model definition
Trimble S3 - Product description & Service Information
Product description
Trimble S3 Total Station — A Total Station with MagDrive™ Technology
The Trimble S3 Total Station is available as Servo, Autolock or Robotic. The S3 Total Station Servo
and Autolock has a fixed control panel. The Trimble S3 Total Station Robotic has no panel attachment and is used together with a hand held controller e.g. Trimble TSC2.
The Trimble® S3 Total Station is based on the Trimble® S6 Total Station
Differences to Trimble S6 Total Station
All models:
• DR EDM based on High Precision /DR Standard EDM
• MagDrive™ servo technology, 85 degrees per second (S6 115 degrees per second)
• Not upgradable
• No SurePoint
• No Face 2 display/panel (Face 2 display/panel available for some markets on Servo/Autolock
models)
• No pressure sensor
• Optical plummet in tribrach
• Yellow center unit and side covers
Servo/Autolock models:
• Fixed control panel
Robotic models:
• Radio range of 300m
• 10mW 2.4GHz radio
• No panel attachment
Service information
The Trimble S3 Total Station is adjusted and tested in the same procedure as the Trimble S6 Total
Station except for the differences described herein.
Trimble S6 - Product description & Service information
Product description
Trimble S6 — A Servo, Autolock, or Robotic Total Station with MagDrive™ Technology
The Trimble® S6 DR (direct reflex) Total Station offers advanced MagDrive technology for breathtaking speed. It takes the work out of conventional servo or robotic surveying.
For your unsurpassed efficiency, the Trimble S6 is a 100% cable-free robotic total station and rover.
Numerous new features and the latest technologies will catapult your productivity and profitability
forward. And as an entirely upgradable surveying solution, the Trimble S6 will grow with your business.
Advanced MagDrive Technology
Fast. Silent. Precise. The Trimble S6 Total Station redefines these words with exceptional servo performance. The Trimble S6 is engineered with innovative MagDrive™ servo technology that silently
spins the instrument at just 115 degrees per second. For more detailed information, please download
the MagDrive Technology White Paper.
Trimble MultiTrack Target for Both Active and Passive Tracking
Choose from active or passive tracking with the Trimble MultiTrack™ Target, the only target of its
kind in the surveying industry. Active tracking ensures you always locate and lock on to the correct
target. When you're using the Trimble MultiTrack Target, nearby reflective surfaces, such as road
signs, cars, safety vests, and other prisms, will not disrupt your surveys.
Trimble GPS Search for Even Faster Measurements
If MagDrive and MultiTrack speed still aren't enough, the robotic Trimble S6 instrument goes to the
extreme with Trimble® GPS Search. A new function in Trimble field software, GPS Search employs
GPS to quickly locate a lost prism. In just 3 seconds the Trimble S6 can zip to the correct position
and lock onto the robotic rover. For more details, download the GPS Search white paper.
See Trimble S6 Total Station brochure on www.trimble.com for more information.
See White Paper about Direct reflex EDM technology on www.trimble.com for more technical infor-
mation.
See White Paper about MagDrive servo technology on www.trimble.com for more technical infor-
Trimble S8 - Product description & Service information
Product description
The Trimble® S8 Total Station is Trimble's most advanced Autolock and Robotic total station. It's
designed to deliver unsurpassed performance and productivity in land surveying and specialized
engineering applications, such as monitoring and tunnelling.
A Complete System For Engineering Applications
The Trimble S8 Total Station works with Trimble Survey Controller™ field software and Trimble®
4D Control™ processing software to provide a seamless connected, complete solution for engineering jobs.
• Angular accuracy of 0,5” or 1”
• High Precision EDM of 1 mm + 1 ppm or DR Plus EDM of 2 mm + 2 ppm
• Trimble® FineLock™ technology: FineLock technology is a smart tracker sensor with a
narrow field of view that enables the Trimble S8 to detect a target without interference from
surrounding prisms. This is especially useful in engineering applications such as monitoring
and tunnelling where multiple targets with very tight spacing are used.
• Trimble VISION™ on board the Trimble S8 enables users to control the instrument and to see
everything the instrument sees with live video on the controller.
• 10 Hz high-speed synchronized data output makes data collection faster and more accurate,
e.g., during railway monitoring a trolley or ATV, the prism can move more quickly without
compromising accuracy.
• Trimble eProtect™ security uses a 4-digit password to prevent access by unauthorized users.
Optional Features for Specialized Engineering Applications
1. The Long-Range FineLock™ configuration extends 1 cm precision to 2500 meters.
2. For tunnelling, a long-range laser pointer cuts through dusty conditions to provide precision
stakeout for bolts and other assets.
3. Trimble 4D Control™ is a comprehensive software solution designed for engineering
applications. Enabling both real-time and post processor applications, it allows users to
accurately characterize and interrogate data to determine movement over time.
4. The Engineering Option for Trimble Survey Controller expedites data collection for
monitoring applications and leads you through tasks such as marking areas of under and
overcut with the laser pointer.
Difference to Trimble S6
• Trimble FineLock and optional Long-Range FineLock™, see above.
• Optional High Power Laser Pointer (3R laser pointer).
• Tracklight module is replaced by Tracker Long Range or High Power Laser Pointer module.
• 10 Hz high-speed synchronized data output.
• PIN/PUK code security, see “Trimble eProtectTM - PIN/PUK code security” on page 3-59.
• Instrument Remote control, connecting a special cable (53094001) to the instrument makes it
possible to switch the instrument between ON and STANDBY modes via cable/radio
connection.
Trimble VX - Product description & Service information
Product description
Trimble VX Spatial Station can be ordered with or without the scanning option (model code 936).
This option can later be installed in the instrument.
Designed to capture shapes, details, and coordinates, the Trimble VX offers an easy entry into Spatial
Imaging. The instrument is optimized for the acquisition of information using integrated video, scanning and positioning technologies. The Trimble VX Spatial Station is the ideal solution for combining
standard resolution 3D scans and digital imaging with survey-precise coordinate measurements and
2D deliverables:
• Intuitive video overlay provides visual cues on screen to speed data collection
• Spinning 115 degrees per second, MagDrive™ servo movement ensures fast, efficient
measuring.
• Trimble VISION technology, enhances data deliverables with images captured at the jobsite.
• Trimble VX measurements can be complemented with GNSS positioning for more flexibility
in the field.
The Trimble® VX™ Spatial Station for Spatial Imaging integrates state-of-the-art optical, 3D scanning, and digital imaging technology to capture the shape, detail and precise coordinates of any job.
The resulting 2D and 3D enhanced deliverables will satisfy colleagues and clients alike.
Difference to Trimble S6
• Tracklight module replaced by video camera module
• PIN/PUK code security, see “Trimble eProtectTM - PIN/PUK code security” on page 3-59.
Service information
Video camera is focused and calibrated in the instrument.
Trimble RTS - Product description & Service information
Trimble RTS is a product line for the Layout segment within Construction division.
Product description
Trimble RTS555 DR Standard Total Station - WLAN
The Trimble RTS555 DR Standard utilizes 802.11 Wireless Local Area Network (WLAN) technology to create a wireless link between the controller and robotic total station to increase layout convenience and productivity in the field. The wireless solution reduces the number of components
needed, such as the external radio, battery and cable when used with the wireless Trimble LM80 Layout Manager, minimizing the weight and complexity of the system while providing a more ergonomic
and convenient layout solution.
The RTS555 DR Standard includes a WLAN radio in the instrument instead of a 2.4 Radio in the
instrument. This instrument can communicate to a Nomad controller also including a WLAN radio
running application software LM80.
Trimble RTS633 DR 300+ Total Station
Replaces Trimble SPS710 DR300+ Total Station.
Trimble RTS655 DR Standard Total Station
Replaces Trimble SPS610 DR Standard Total Station.
Difference to Trimble S6
• Different style with rugged side covers (same as SPS).
• RTS555 includes a WLAN radio
Service information
WLAN radio is configured in the face 2 panel and not in PASS.
Trimble SPS - Product description & Service information
Trimble SPS is a product line for the Heavy & Highway segment within Construction division.
Product description
Trimble SPSx20 Robotic Total Station
The SPS620 and SPS720 Robotic Total Stations offer a cost-effective solution for construction site
measurement and stakeout operations in Servo, Autolock, or Robotic mode. Both models provide a
robotic operating range of 500 meters, making them ideal for smaller site operations and work on
structures such as bridges or culverts.
The SPS620 and SPS720 use the Trimble DR short-range reflectorless EDM technology for singleshot measurements and operate with TSC2® or Trimble Tablet running the SCS900 Site Controller
Software. The SPS620 provides 5 arc second accuracy in the vertical and horizontal angles. The
SPS720 provides 3 arc second accuracy in the horizontal angle and 2 arc second accuracy in the vertical, and is well suited to more accurate site positioning work.
Trimble SPSx30 Universal Total Stations
Trimble SPS630, SPS730, and SPS930 Universal Total Stations can be ordered with or without the
machine control option (model codes 721/722/723) and OEM option. These options can later be
installed in the instrument.
Trimble SPS630 Universal Total Stations
Trimble SPS630 5” instrument satisfies all site measurement, stakeout, reflectorless measurement,
and grade control needs from a single instrument. Target customers are contractors performing their
own stakeout and site measurement tasks, who may also be somewhat price sensitive.
Applications
• Smaller operations where most of the work is performed close to the instrument
• In partnership with the GCS900-UTS-based system for excavators this system is typically used
on small sites where the machine operates close to the instrument
• Mining and quarry operations, where an instrument is needed for scanning quarry walls or
stockpiles of material
Trimble SPS730 and SPS930 Universal Total Stations
The SPS730 and SPS930 have been designed to operate as a universal total station. The instruments
have a machine control mode that optimizes the angle and distance measurement system through a
synchronization process that also reduces latency (age) of the data. In addition the instruments when
in machine control mode will output data at a higher rate than conventional total stations (20Hz). The
instrument radio system is designed to reduce jitter significantly, the instrument tracking and search
functions are optimized for dynamic tracking applications, and the instrument also features trajectory
prediction helping reacquire lock after the prism is obscured.
When operated in Site Positioning modes (SCS900 Standing, Walking and Vehicle modes) the instrument will also utilize the high update rates and synchronized data, however the radio master is at the
instrument allowing for a one to one operation with the robotic rod controller. When operated in
Machine Control mode, the radio master shifts to the machine control box, so that it can control up
to five instruments on the same radio channel and network. In this mode the radio system is also optimized to eliminate jitter, which provides enhanced positioning control for the machine system
hydraulics.
When used for any machine control application, the instrument should be setup first with the SCS900
software, a station establishment carried out and then perform the shut down process and place the
instrument in Machine Control mode. This process involves placing the station establishment information in the instrument memory, so that it can be transferred to the calling machine control application.
The instrument capability to track moving vehicles and machines is referred to as Advanced Tracking
Sensor (ATS).
ATS capability delivers the following performance benefits for dynamic positioning applications
• Low, fixed and well defined latency of data output from the instrument and over the radio
• Synchronized angle and distance measurements
• 20Hz data update rates
General Product Information
• 16 Channel Target ID - 1-8 for Site Positioning mode and 9-16 for Machine Control mode.
• Optimized search routines designed for tracking a machine with trajectory prediction.
• Radio scanning capability, instrument can be programmed to sequentially scan a series of radio
channel and network ID combinations, allowing it to serve a number of machines, all on
different channels at a single location on demand.
• Radio network capability allowing up to 5 instruments to be operated from a single machine on
the same channel and network ID
Difference to Trimble S6
• Different style with rugged side covers, (same as RTS).
• Second configuration number to activate Site Positioning / Advanced Tracking Sensor (ATS)
function.
Service information
Check Machine Control option / OEM option are available in face2 display at start up.
Trimble S8 is available in Servo, Autolock or Robotic configurations.
Trimble VX model information
Trimble VX is only available in Robotic configuration.
Trimble RTS model information
Trimble RTS555 DR / DR Standard - WLAN available in Robotic configuration.
Trimble RTS655 DR / DR Standard - 2.4 Radio available in Robotic configuration.
Trimble RTS633 DR 300+ / DR PLUS available in Robotic configuration.
Trimble SPS model information
Trimble SPS610 DR Standard available in Autolock or Robotic configurations
Trimble SPS620 DR available in Robotic configuration.
Trimble SPS720 DR available in Robotic configuration.
Trimble SPS710 DR 300+ available in Robotic configuration.
Trimble SPS730 DR 300+ available in Autolock or Robotic configurations.
Trimble SPS930 DR 300+ available in Autolock or Robotic configurations.
Trimble SPS630 DR PLUS available in Autolock or Robotic configurations.
Trimble SPS730 DR PLUS available in Autolock or Robotic configurations.
Trimble SPS930 DR PLUS available in Autolock or Robotic configurations.
The Trimble S3/ S6/S8/VX/SPS/RTS instruments has different functions and specifications but from
a service point the instrument has many common service operations.
The alidade is the base for all instruments, same as for Trimble S3/S6/S8/VX/SPS and RTS.
The centre unit can differs between models.
Centre unit- Distance unit
The Trimble S6 High Precision / Trimble S8 / Trimble RTS 555 DR Standard / Trimble RTS 655 DR
Standard and Trimble SPS610 DR Standard distance units has different specifications but uses the
same hardware and same service operations.
Instrument
Removable handle
Battery / radio side cover
Radio unit
Servo side cover
IPC board
TCU attachment
TCU attachment with USB
Control Panel
Face2 panel & optical plummet
Pressure sensor
Servo drive system
Theory of Operation
Angle Measuring System
Base unit
PSM board
Tilt sensor
Software / Instrument application firmware
Telescope
Distance unit - DR300+ / DR PLUS
Distance unit - High Precision / DR Standard / DR
Tracker system
Tracklight
Servo focus
Video camera (Trimble S8 / VX)
Auto focus
Tracker Long Range - TLR
High Power Laser Pointer - HPL
Service interval
Board definitions
The left side cover of the Trimble S-series can be equipped with a radio / battery side cover or a
battery side cover. The only visual difference is the antenna.
One function of the side cover is to carry the internal battery unit that support the instrument. This
battery unit slides inside the battery lid and when the cover is closed and locked by Snap lock it will
make contact to the connector on the BRC board mounted in the side cover.
The Trimble S instrument is available with an internal radio to support robotic operations. The radio
operates in the public / free 2.4GHz ISM band. The radio utilizes frequency hoping technology in the
2.4GHz band to reduce radio interference and maintain radio communications in even the harshest
RF environment.
Location of radio unit
The radio module is mounted on the BRC board in the left side cover.
Fig. 3-10 Radio unit location
Technical specifications
All models:
• Frequency range - Frequency hopping spread spectrum in the frequency range 2401 to 2470
• Range - 1100m between instrument (1,8m antenna height) to robotic holder (1m antenna
height)
S3 Robotic model:
• Output power - 10mW, set by configuration number.)
• Range - 300m between instrument (1,8m antenna height) to TSC2 (1m antenna height)
Function description
The Georadio 2.4 uses the open ISM band on 2.4 GHz. It applies frequency hopping spread spectrum
technology. The radio meets FCC rules 15.247 and ETSI (European) 300.328 for worldwide license
free operation.
Fig. 3-11 Radio functional diagram
Theory of Operation
Radio module
The radio side cover consists of a radio module and a modem board. The modem board operates as a
link between the radio module and the instrument.
The Radio side cover and External radio are identical but the modem board and radio configuration
is different.
Radio software and configuration
The radio can be configured for different country specific settings.
Radio module
The radio module is WIT2410 from Cirronet. It applies frequency hopping spread spectrum in the
frequency range 2401 to 2470 MHz. The radio handles both data and control at up to 115 Kb/s.
Antenna
The antenna connector on radio side cover and external radio is a reversed polarity TNC-RP-MMCX
connector.
Modem board - BRC board
The BRC board converts the radios RS232 signals to IPC’s USB communication. The board also
contains power supply/supervision, ESD protection.
The KNB board contains "Hall" effect sensors that read the rotation of the magnet. The magnets are
magnetized in 3 sections. The "Hall" sensors create a signal corresponding to the knob movement.
The signal is sent to the IPC board
The KNB board also includes a function for the trigger button and LED indication.
Service
Maintenance - Servo knob calibration
A calibration of the servo and focus knobs are made in the service software if the KNB board is
replaced or removed. The calibration will read the signal from the "Hall" effect sensors during
movement of the magnet (knob) and create a table for optimum performance under different
temperature conditions.
Replacement of spare parts
• Side cover complete
• KNB board
• Trigger key
Theory of Operation
NOTE: The servo knobs can not be replaced. If knobs are broken the cover is replaced.
For information about the firmware in the instrument see page 3-52.
IM - Instrument manager
The IM part contains a micro controller, memory circuits, USB communication and power function.
IM handles the communication inside the instrument to the internal units/boards and external
communication via the base unit connector. The internal and external communication is done by
USB.
The IM function is equivalent to the PVX (excluding power) board in the Trimble 5600 series.
PCS - Position Control system
The PCS part contains same as IM a micro controller, memory circuits, USB communication and
power function.
PCS's main function is to control angle and servo system. It calculates angles with data from the angle
sensors and tilt sensor, converts this to an angle. IPC Also provides power to the horizontal and
vertical servo motors. The board controls the servo motors.
The PCS function is equivalent to the POA/PAC & SRV boards in the Trimble 5600 series.
USB structure
IM communicates to all satellites/units direct or via a hub. There are three hubs in the USB structure,
one in the IPC board, one in the PSM board and one in the SFC board. These hubs helps IM to
communicate with more units.
IM is the host when communicating with internal units. When communicating via the foot connector
IM can be either host or device mode depending on the external unit.
The TCU attachment is the interface between the Trimble S6 instrument and the Trimble CU.
The TCU attachment is not available on the Trimble S3 instruments. The Trimble S3 Robotic Total
Station is equipped with a Face 1 cover instead of the TCU attachment. The Trimble S3 Servo/
Autolock Total Stations is equipped with a fixed control panel.
The TCU attachment is the interface between the Trimble S Series instrument and the Trimble CU.
A USB connector on the side of the TCU attachment allows the user to connect a USB memory stick
to transfer files from and to the TCU.
The TCU attachment is not available on the Trimble S3 instruments. The Trimble S3 Robotic Total
Station is equipped with a Face 1 cover instead of the TCU attachment. The Trimble S3 Servo/
Autolock Total Stations is equipped with a fixed control panel.
The main functionality of the IAB board is to provide an interface between the Quimby CPU board
and the instrument. It also contains a power source to enable the Quimby main board to remain in
suspend while the battery is exchanged in the instrument.
Fig. 3-25 IAB Function diagram
Theory of Operation
Quimby Board
The Quimby board is the CPU and memory board of the control panel. The memory is 128Mb.
KBDQ Board
The function of the KBDQ Board is to detect key press from the 22 keys on the control panel
keyboard.
The Face2 panel is a graphical display with built in backlight. It is controlled with three buttons,
change face, scroll and enter.
When a Control Unit is attached to the instrument, the application software running in the TCU will
have control over the face2 display and keyboard.
The optical plummet allows the instrument to be positioned to an accuracy of 0.3 mm from an
instrument height of 1.5m over a ground mark.
The Face 2 panel is not available on the Trimble S3 instruments (Face 2 panel available on Trimble
S3 Servo/Autolock on some markets). The Trimble S3 Total Station is equipped with a Face 2 cover
instead of the Face 2 panel. The optical plummet is not available on Trimble S3 Total Station and has
been replaced with an optical plummet in the tribrach.
Location of Face2 display & optical plummet
Fig. 3-26 Face 2 display & optical plummet location
The instrument has an internal barometer. This sensor is capable of providing temperature and
atmospheric pressure readings. The sensor also contains a thermometer but it is not used.
The application software in the TCU uses the pressure information to calculate the PPM correction
for the EDM. Note: this correction is not made in the instrument and is available for the application
software.
The Pressure sensor is not available on the Trimble S3 and SPSx20 instruments.
Location of sensor
Fig. 3-30 Pressure sensor location
Function description
The sensor is connected to the PSM board which is responsible for controlling the sensor. Specific
parameters are included in the sensor such as correction values for the barometer.
Service
Maintenance
The Pressure sensor is calibrated from the supplier. A connection test is made after installation.
The Trimble S6 Total Station incorporates a revolutionary servo angle system called MagDriveTM
servo technology. MagDrive servo technology is based on a direct drive and frictionless
electromagnetic drive technique. The direct drive system allows the servo motors to be mounted
directly on the horizontal and vertical axis, removing the need for additional mechanical gearing. The
integration with the angle sensor enhances the speed of the servo motors by providing fast angle
values to be used by the servo processor. MagDrive servo technology provides high accuracy, high
speed turning servo capabilities with low power consumption. The frictionless motion also removes
servo noise and reduces instrument wear. The system provides endless motion in horizontal and
vertical direction including endless fine adjustment without mechanical clutches.
The angle sensor is integrated with the servomotor and built into the servo housing on the same axis.
The motor winding is attached to the angle board and final calculations of angle values are made in
the IPC board. No additional encoder or tachometer will then be needed in the system. The main angle
sensors will give a direct, fast feedback to the servo controller.
With this motor design the transmission of force from the motor to rotate the instrument will take
place non-contacting, frictionless, according to known electro-magnetic field theory. The motor is
designed with a magnet holder containing magnets and soft iron areas distributed in two concentric
cylindrical structures separated by an air gap, in which there is space for the cylinder formed motor
winding. To drive the motor a current is fed through the motor winding generating a force to rotate
the magnet holder and the instrument.
This motor design will create an exceptional performance compared to conventional technique:
• Fast and accurate system
• Very low noice level
• No wear of component
• Low weight and power consumption
The servo system uses the angle system for position angle feedback information and commutation of
electrical phases.
Contains the magnet side of the motor. The magnets are placed in an outer and inner circle of the
motor winding.
The SRC, slip-ring board is attached to the magnet holder providing current and a communication to
the vertical axis (IPC board) and horizontal axis (PSM board).
MSB board incl. motor winding
The motor winding is mounted on the MSB board. All other functions on the MSB board are used by
the angle system.
How it works
The servo motor is an electromagnetic motor that uses the known physics relation between current,
magnetic field and force to move the motor
To drive the motor a current is sent through the motor winding and generates a force to move the
motor (magnet holder or motor winding) forward.
The winding is divided in three phases to make it possible to control the movement of the motor. A
specific servo calibration procedure is made to detect the different magnetic fields for the motor
movement.
The motor has three different working modes:
• Driving mode. Where movement is controlled by servo knobs or system process.
• Friction mode. Where the motor allows the instrument to be turned manually. The magnetic
friction will generate a resistance against movement of the motor.
• Holding mode. Where the motor works as a clutch to lock the instrument position and prevent
movements, e.g when pressing a push-button as long as no positioning commands is given.
Positioning and control of the servo system is made by the processor board. The processor board also
contains firmware for the servo system.
Accelerometer
The horizontal servo system also contains two accelerometers, these accelerometers senses the
movement (vibration) of the instrument and send this information back to the servo system to increase
stability. The accelerometer removes certain frequencies and thereby eliminates undesired vibrations.
The two accelerometers compensates for e.g. mechanical weaknesses in the tripod.
Accelerometer no1 (front accelerometer) is positioned inside the TCU attachment and accelerometer
no2 (side accelerometer) is positioned inside the battery side cover.
Theory of Operation
Calibration
After replacement / removal & assembling of MSB board with motor winding / SRC board with
magnets / Accelerometers a calibration procedure must be made, this is done in PASS
The calibration detects the position of the magnetic field with respect to the electrical field in order
to be able to commutate the current correctly. The data is stored together with the instrument angles
corresponding to the working field.
Trimble total stations have traditionally been leading in producing high measuring efficiency with
servo driven total stations admitting full angle accuracy in single-face measurements. The concept
with measurement and automatic correction of horizontal and vertical collimation errors and tilt axis
errors is still valid. Now, a new step in the direction of improved angle measurement and servo
function has been taken with the design of a new fully integrated servo and angle measuring system.
A new dual-axis level tilt sensor is also part of the system handling traditional levelling errors.
Angle sensor
The purpose of the angel sensor is to generate a vertical and horizontal angle for the instrument. The
angle sensor is based on an optical principle. Glass circles hold a pattern consisting of a coarse code
and a fine code admitting the presentation of an absolute angle value. Several improvements of
previously used principles have been made and are now under patent applications.
Location of angle unit
Fig. 3-35 Angle unit location
Horizontal
angle disc
MSB board
Technical specifications
Vertical angle disc
MSB board
• 1"-2" standard deviation depending on instrument model.
Mechanically the angle unit is located as a fully integrated part inside the servo motor housing. The
motor protects the angle glass disc form dirt and dust. The centre unit, angle disc assembly contains
the optical glass disc. The angle board contains laser transmitter and image area detectors (CMOS
detectors), the angle board also includes the servo motor winding. All together this design creates a
rugged and accurate absolute encoder measuring angles with an accuracy of 0.2 mgon at a rate of
1000 Hz. The angle sensor is designed not only for displaying and storing angle data but also to
support the servo system with fast angle information. Final angle data calculations are made in the
IPC board.
Fig. 3-36 Horizontal angle system parts
Angle disc
Theory of Operation
MSB board incl.
motor winding
Angle disc
A mechanical centre unit holds a glass disc with optical encoder pattern and a mirror. By using two
separate tracks a uniform accuracy and resolution around the circle is obtained. Both tracks are
illuminated with a single laser light source and projected on a CMOS image area sensor. By using
one common sensor for both tracks usual alignment problems are eliminated. The design will be
compact and less parts have to be assembled.
The function of the disc assembly is the same for both horizontal and vertical sensor but the
mechanical axis is different due to how the disc is mounted.
MSB board incl. motor winding
Includes a LED and a detector, CMOS image area sensor.
The angle board is the same for both vertical and horizontal sensor and includes the motor winding.
The horizontal and vertical MSB board MUST be of the of a compatible revision. Reason is that the
horizontal and vertical LED light sources on the MSB boards must be the same as they are driven
with the same parameters. See the table below for compatibility:
33Version 3, 4 & 5 are compatible with each other,
i.e. it is possible to have a horizontal MSB ver. 3
and a vertical MSB ver. 5.
44
55
66Ver. 6 - RoHS is not compatible with earlier
versions.
77Type in ver. 6
Theory of Operation
How it works
The LED light is reflected by a mirror through an encoder glass disc. A pattern from the encoder glass
disc is projected on the detector. The detector, a CMOS image area reads the pattern from the coarse
and fine code on the disc.
Fig. 3-37 Angle system incl. angle disc
Mirror
LED
CMOS detector
Encoder glass disc
The coarse code placed on the inner circle on the glass disc works like a bar code, the CMOS sensor
will identify the coarse position of the circle. The fine code placed on the outer circle of the glass disc
is an incremental code. By reading the coarse and the fine code an angle can be generated.
The information from the CMOS image sensors is sent to the processor board for calculation and
conversion into an angle.
Block diagram
Theory of Operation
Fine code
Fig. 3-39 Angle unit block diagram
Angle unit
Angle disc
CMOS
Detector
MSB board
To make the absolute encoder robust and less sensitive to eccentric mounting errors two CMOS
detectors are positioned with 180 separation at the disk to read the tracks (coarse and fine code). The
final angle value is calculated as the mean value of these two readings and first order errors with same
size but different signs will be eliminated.
High angle accuracy instruments (0,5” & 1”)
Instruments with 0,5” & 1” angle accuracy includes a pre calibrated Horizontal Turning Unit. As long
as the Horizontal Turning Unit is kept together and the parts, SRC board with magnets / Angle disc /
MSB board are not removed the high angle accuracy is still valid.
IPC
board
Angles
Servo
unit
CU
Even if the parts are removed accidentally and assembled together the Horizontal Turning Unit needs
to be calibrated to achieve the high angle accuracy.
The calibration of the Horizontal Turning Unit is made in the factory.
Fig. 3-40 Horizontal Turning Unit High Angle Accuracy
Correction file
The Horizontal Turning Unit unit is calibrated at the factory and includes a correction table, this table
is stored in the IPC board in the instrument. When an angle is produced the correction table will then
improve and calculate the high angle accuracy.
Theory of Operation
The correction file is available on Partners / Service Instrument Constant Search.
Service
When replacing the Horizontal Turning Unit a new correction table needs to be installed in the
instrument.
Each Horizontal Turning Unit has a serial number and the correction table (file) has the same name.
Service
Maintenance
• A centering tool is required when mounting the vertical MSB board incl. motor winding.
• Servo and angle system calibration (PASS)
Replacement of spare parts
• Horizontal angle disc
• Vertical angle disc
• MSB board incl. motor winding (horizontal and vertical are the same)
• Arithmetic averaging for reducing sighting errors.
Automatic correction for deviation of the plumb axis
Deviations in the plumb axis may occur when one (or more) of the tripod legs move as a result of
unstable ground or changes in ground viscosity, such as the heating of road tarmac. Corrections for
this movement are essential to ensure that accurate measurements are obtained.
In contrast to most total stations, MagDrive allows the Trimble S6 to correct not only the horizontal
and vertical angles for mislevelment, but also the aiming errors caused by mislevelment. The
mislevelment correction is applied to the servo drive to re-aim the instrument. For example,
correcting the aiming when extending a vertical line to ensure that a true vertical line can be obtained.
The result is that horizontal and vertical angles are corrected for mislevelment while the instrument
is accurately aimed at the correct location. This ability ensures that mislevelment errors are corrected
to provide accurate angle measurements.
Collimation errors affect measured horizontal and vertical angles. The horizontal collimation error is
the difference between the line of sight and the plane perpendicular to the trunnion axis; the vertical
collimation error is the difference between the vertical circle zero and the plumb k s. Traditionally,
collimation errors were eliminated by observing angles on both instrument faces. In the Trimble S6
the collimation errors can be predetermined by performing a pre-measurement collimation test.
Angular measurements are observed on both instrument faces to enable the collimation errors to be
calculated and the respective correction values to be stored in the instrument. The collimation
correction values are then applied to all subsequent angle measurements. Angles observed on a single
face are therefore corrected for collimation errors, thereby removing the need to measure on both
instrument faces.
Trimble S6 instruments with Autolock technology can automatically lock and track a target. Since
the sighting to the target is performed by the instrument, the affects of horizontal and vertical
collimation are similar to those experienced during manual sighting. To correct for the collimation
errors in the tracker unit, an Autolock collimation test can be performed.
The Autolock collimation test automatically observes angular measurements to a target on both
instrument faces. The Autolock collimation errors are then calculated and the respective correction
values are stored in the instrument The Autolock collimation correction values are then applied to all
subsequent angle measurements observed when Autolock is enabled. Angles observed on a single
face are therefore corrected for collimation errors, thereby removing the need to measure on both
instrument faces.
The trunnion axis tilt error is the difference between the trunnion axis and the plane perpendicular to
the plumb axis. In the Trimble S6 the trunnion axis tilt error can be determined by performing a pre
measurement trunnion axis tilt test. Angular measurements are observed on both instrument faces to
enable the horizontal tilt axis error to be calculated and the respective correction value to be stored in
the instrument. The horizontal tilt axis correction value is then applied to all subsequent horizontal
angles.
Arithmetic averaging for reducing sighting errors
The Trimble S6 automatically reduces sighting errors caused by misaligning the instrument to the
target or by movement during measurement. The sighting errors can be reduced by:
Using Autolock technology. When Autolock is enabled the instrument will automatically lock to and
track the target. Manual sighting errors are therefore reduced.
SurePoint accuracy assurance. When the Trimble S6 is manually aimed at a target the servo motors
are finely tuned to hold the aimed angle. SurePoint ensures that sighting errors due to unintentional
small movements of the instrument are eliminated. SurePoint is not available on the Trimble S3 Total
Station.
Theory of Operation
Automatically averaging angles during distance measurement. When measuring in STD mode
the instrument will take approximately 1.2 seconds to measure the distance. Fully synchronized
angles and distances are averaged over the measurement period to obtain an averaged, highly accurate
measurement.
Using averaging measurement methods in the Trimble field software. Measurement methods are
available, which allow a defined number of measurements to be observed and a resultant averaged
measurement to be stored in addition.