Thank you for purchasing this Topcon product. The materials
available in this Manual (the “Manual”) have been prepared by
Topcon for owners of Topcon products, and are designed to assist
owners with the use of the receiver and its use is subject to these
terms and conditions (the “Terms and Conditions”).
Please read these Terms and Conditions carefully.
Terms and Conditions
USE This product is designed to be used by a professional. The user
should have a good knowledge of the safe use of the product and
implement the types of safety procedures recommended by the local
government protection agency for both private use and commercial
job sites.
COPYRIGHT All information contained in this Manual is the
intellectual property of, and copyrighted material of Topcon. All
rights are reserved. Do not use, access, copy, store, display, create
derivative works of, sell, modify, publish, distribute, or allow any
third party access to, any graphics, content, information or data in this
Manual without Topcon’s express written consent and may only use
such information for the care and operation of the receiver. The
information and data in this Manual are a valuable asset of Topcon
and are developed by the expenditure of considerable work, time and
money, and are the result of original selection, coordination and
arrangement by Topcon.
P/N 7010-0982
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TRADEMARKS HiPer II™, TRU™, Topcon Tools™, Topcon
Link™, and FC2500™ are trademarks or registered trademarks of
Topcon. Windows® is a registered trademark of Microsoft
Corporation. The Bluetooth® word mark and logos are owned by
Bluetooth SIG, Inc. and any use of such marks by Topcon is used
under license. Other product and company names mentioned herein
may be trademarks of their respective owners.
DISCLAIMER OF WARRANTY EXCEPT FOR ANY
WARRANTIES IN AN APPENDIX OR A WARRANTY CARD
ACCOMPANYING THE PRODUCT, THIS MANUAL AND THE
RECEIVER ARE PROVIDED “AS-IS.” THERE ARE NO OTHER
WARRANTIES. TOPCON DISCLAIMS ANY IMPLIED
WARRANTY OF MERCHANTABILITY OR FITNESS FOR ANY
PARTICULAR USE OR PURPOSE. TOPCON AND ITS
DISTRIBUTORS SHALL NOT BE LIABLE FOR TECHNICAL OR
EDITORIAL ERRORS OR OMISSIONS CONTAINED HEREIN;
NOR FOR INCIDENTAL OR CONSEQUENTIAL DAMAGES
RESULTING FROM THE FURNISHING, PERFORMANCE OR
USE OF THIS MATERIAL OR THE RECEIVER. SUCH
DISCLAIMED DAMAGES INCLUDE BUT ARE NOT LIMITED
TO LOSS OF TIME, LOSS OR DESTRUCTION OF DATA, LOSS
OF PROFIT, SAVINGS OR REVENUE, OR LOSS OF THE
PRODUCT’S USE. IN ADDITION TOPCON IS NOT
RESPONSIBLE OR LIABLE FOR DAMAGES OR COSTS
INCURRED IN CONNECTION WITH OBTAINING
SUBSTITUTE PRODUCTS OR SOFTWARE, CLAIMS BY
OTHERS, INCONVENIENCE, OR ANY OTHER COSTS. IN ANY
EVENT, TOPCON SHALL HAVE NO LIABILITY FOR
DAMAGES OR OTHERWISE TO YOU OR ANY OTHER
PERSON OR ENTITY IN EXCESS OF THE PURCHASE PRICE
FOR THE RECEIVER.
LICENSE AGREEMENT Use of any computer programs or software
supplied by Topcon or downloaded from a Topcon website (the
“Software”) in connection with the receiver constitutes acceptance of
these Terms and Conditions in this Manual and an agreement to abide
by these Terms and Conditions. The user is granted a personal, nonexclusive, non-transferable license to use such Software under the
vi
HiPer II Operator’s Manual
Terms and Conditions
terms stated herein and in any case only with a single receiver or
single computer. You may not assign or transfer the Software or this
license without the express written consent of Topcon. This license is
effective until terminated. You may terminate the license at any time
by destroying the Software and Manual. Topcon may terminate the
license if you fail to comply with any of the Terms or Conditions.
You agree to destroy the Software and manual upon termination of
your use of the receiver. All ownership, copyright and other
intellectual property rights in and to the Software belong to Topcon.
If these license terms are not acceptable, return any unused software
and manual.
CONFIDENTIALITY This Manual, its contents and the Software
(collectively, the “Confidential Information”) are the confidential and
proprietary information of Topcon. You agree to treat Topcon’s
Confidential Information with a degree of care no less stringent that the
degree of care you would use in safeguarding your own most valuable
trade secrets. Nothing in this paragraph shall restrict you from
disclosing Confidential Information to your employees as may be
necessary or appropriate to operate or care for the receiver. Such
employees must also keep the Confidentiality Information confidential.
In the event you become legally compelled to disclose any of the
Confidential Information, you shall give Topcon immediate notice so
that it may seek a protective order or other appropriate remedy.
WEBSITE; OTHER STATEMENTS No statement contained at the
Topcon website (or any other website) or in any other advertisements
or Topcon literature or made by an employee or independent
contractor of Topcon modifies these Terms and Conditions (including
the Software license, warranty and limitation of liability).
SAFETY Improper use of the receiver can lead to injury to persons or
property and/or malfunction of the product. The receiver should only
be repaired by authorized Topcon warranty service centers. Users
should review and heed the safety warnings in an Appendix.
MISCELLANEOUS The above Terms and Conditions may be
amended, modified, superseded, or canceled, at any time by Topcon.
The above Terms and Conditions will be governed by, and construed
P/N 7010-0982
vii
in accordance with, the laws of the State of California, without
NOTE
TIP
NOTICE
CAUTION
reference to conflict of laws.
Manual Conventions
This manual uses the following conventions:
ExampleDescription
FileExitClick the File menu, and click Exit.
ConnectionIndicates the name of a dialog box or screen.
FrequencyIndicates a field on a dialog box or screen, or a tab
within a dialog box or screen.
EnterPress or click the button or key labeled Enter.
Further information to note about the configuration,
maintenance, or setup of a system.
viii
Supplementary information that can help to
configure, maintain, or set up a system.
Supplementary information that can have an affect
on system operation, system performance,
measurements, or personal safety.
Notification that an action has the potential to
adversely affect system operation, system
performance, data integrity, or personal health.
HiPer II Operator’s Manual
Manual Conventions
WARNING
DANGER
Notification that an action will result in system
damage, loss of data, loss of warranty, or personal
injury.
Under no circumstances should this action be
performed.
P/N 7010-0982
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Notes:
x
HiPer II Operator’s Manual
Introduction
The HiPer II receiver is a multi-frequency GNSS receiver, built to be
the most advanced and compact receiver of its kind for the surveying
and construction markets.
The HiPer II can receive and process GNSS signals on the L1 and L2
frequencies of both the GPS and GLONASS satellite navigation
systems. This multi-frequency and multi-constellation capability
improves the accuracy and reliability of the survey points and
positions that are produced by the HiPer II system, especially under
difficult jobsite conditions. The HiPer II possesses several other
features, including advanced multipath mitigation, which helps
provide reception under-canopy and in low signal strength areas. The
receiver provides the functionality, accuracy, availability, and
integrity needed for fast and easy data collection.
P/N 7010-0982
Figure 1-1. HiPer II Receiver
1-1
Introduction
Principles of Operation
Surveying with a professional-grade GNSS receiver can provide users
with accurate and precise positioning; a fundamental requirement for
any surveying project.
This section gives an overview of existing and proposed Global
Navigation Satellite Systems (GNSS) and receiver functions so that
basic operating principles can be applied.
GNSS Overview
Currently, two Global Navigation Satellite Systems (GNSS) offer
line-of-sight radio navigation, positioning, and timing services on a
global, all-weather scale to any user equipped with a GNSS tracking
receiver:
• GPS - the Global Positioning System maintained and operated by
the United States Department of Defense. For information on the
status of this system, visit the US Naval Observatory website
(http://tycho.usno.navy.mil/) or the US Coast Guard website
(http://www.navcen.uscg.gov/).
• GLONASS - the GLobal NAvigation Satellite System maintained
and operated by the Russian Federation Ministry of Defense. For
information on the status of this system, visit the Coordinational
Scientific Information Center website (http://www.glonassianc.rsa.ru/).
Despite the numerous technical differences in the implementation of
these systems, both satellite positioning systems have three essential
components:
• Space - GPS and GLONASS satellites orbit approximately
12,000 nautical miles above Earth, and are equipped with an
atomic clock and a radio. These satellites broadcast ranging
signals and various digital information (ephemerides, almanacs,
time and frequency corrections, and so forth).
• Control - Ground stations located around the Earth that monitor
the satellites and upload data, including clock corrections and
1-2
HiPer II Operator’s Manual
Principles of Operation
new ephemerides (satellite positions as a function of time), to
ensure the satellites transmit data properly.
• User - The community and military that use GNSS receivers to
calculate positions.
Calculating Absolute Positions
When calculating an absolute position, a stationary or moving
receiver determines its three-dimensional position with respect to the
origin of an Earth-Center Earth-Fixed coordinate system. To calculate
this position, the receiver measures the distance (called pseudoranges) between it and at least four satellites. The measured pseudoranges are corrected for clock differences (receiver and satellites) and
signal propagation delays due to atmospheric effects. The positions of
the satellites are computed from the ephemeris data transmitted to the
receiver in navigation messages. When using a single satellite system,
the minimum number of satellites needed to compute a position is
four. In a mixed satellite scenario (GPS and GLONASS), the receiver
must lock onto five or more satellites to account for the different time
scales used in these systems and to obtain an absolute position.
Calculating Differential Positions
DGPS, or Differential GPS, is a relative positioning technique where
the measurements from two or more remote receivers are combined
and processed using sophisticated algorithms to calculate the
receivers' relative coordinates with high accuracy. DGPS
accommodates various implementation techniques that can be
classified according to the following criteria:
• The type of GNSS measurements used, either code-phase
differential measurements or carrier-phase differential
measurements
• If real-time or post-mission results required. Real-time
applications can be further divided according to the source of
differential data and communication link used.
With DGPS in its most traditional approach, one receiver is placed at
a known surveyed location and is referred to as the reference receiver
or base station. Another receiver is placed at an unknown location and
P/N 7010-0982
1-3
Introduction
is referred to as the remote receiver or rover. The reference station
collects the code-phase and carrier-phase measurements from each
GNSS satellite in view.
• For real-time applications, these satellite measurements and the
reference station coordinates are then combined to form industry
standard RTCM
1
messages that are broadcast to the remote
receiver(s) using a data communication link. The remote receiver
applies the transmitted measurement information to its observed
measurements of the same satellites.
• For post-mission applications, the simultaneous measurements
from reference and rover stations are recorded to the receiver's
memory card (not sent over a communication link). Later, the
data is downloaded to a computer, combined, and processed.
Using this post-processing technique, the spatially correlated
errors - such as satellite orbital errors, ionospheric errors and
tropospheric errors - can be significantly reduced, thus improving
the position solution accuracy. This is particularly true when the
remote receiver is stationary.
Other differential positioning methods and systems also exist,
including, maritime radio beacons, commercial geostationary
satellites (as with the OmniSTAR service) and satellite based
augmentation systems (WAAS, EGNOS, MSAS). For use of these
other systems additional hardware and/or subscription fees may be
required that are separate from the HiPer II system.
The Real-time Kinematic (RTK) method is the most common method
of precision real-time surveying. RTK operation requires at least two
receivers collecting simultaneous GNSS data and a reliable lowlatency communication link between the receivers. As with DGPS
1. [RTCM FOOTNOTE] The Radio Technical Commission for Maritime
Services (RTCM) defines global standards for communication
messages and protocols that are used in the GNSS positioning industry.
In support of this standards-based approach, Topcon recommends use
of the latest RTCM message formats (v3 or greater) for all RTK
and DGPS communication needs. Several legacy correction message
formats are also provided by Topcon GNSS products in order to support
interoperability with older GNSS systems, but their use is now
deprecated.
1-4
HiPer II Operator’s Manual
Principles of Operation
described earlier, one of the receivers is usually at a known location
(Base) and the other is at an unknown location (Rover). The Base
receiver collects precise carrier phase measurements, generates RTK
corrections and transmits this data to the Rover receiver. The Rover
processes this transmitted data with its own carrier phase
observations to compute its relative position with high accuracy, thus
achieving an RTK accuracy of up to 10mm horizontal and 15mm
vertical.
Essential Components for Quality Surveying
Achieving quality positioning results from the HiPer II requires an
understanding of the following elements:
• Accuracy - The accuracy of a position that is delivered by a
GNSS receiver primarily depends upon the observed satellite
geometry (Geometric Dilution of Precision, or GDOP) and the
measurement (ranging) errors.
– Differential positioning techniques (DGPS and RTK) can be
used to almost completely remove all major GNSS error
sources, such as atmospheric and orbital errors.
– The more satellites that are in view, the stronger the signal,
the lower the GDOP number will be, leading to the highest
positioning accuracy. For DGPS and RTK operations, it is
important to consider that the GDOP is dependent on the
number of common satellites in view at both the Base and the
Remote receivers.
– The quality of observed measurements can also affect
accuracy, and for this reason Topcon GNSS products use
sophisticated and patented techniques to produce highly
precise measurements. However, these measurements can
still be adversely affected by nearby natural and man-made
objects that block, interrupt, reflect, or partially obscure
satellite signals.
• Availability -
While a low number of satellites may adversely
affect accuracy, if very few satellites are visible this may result in
no position being available at all. A minimum of 4 GPS or 4
P/N 7010-0982
1-5
Introduction
GLONASS, or 5 GPS+GLONASS (mixed) satellites must be
visible at all times.
• Integrity - Fault tolerance and redundancy allow a position
solution to have greater integrity, increasing its reliability for the
user. Several factors combine to provide fault tolerance,
including:
faulty GNSS satellites and removes them from the position
calculation. This is a built-in and valuable feature of the
HiPer II receiver.
– Five or more visible satellites for only GPS or only
GLONASS; six or more satellites for a mixed scenario. As
the total number of satellites increases, so does the
measurement redundancy and the inherent reliability of the
position.
– Satellite Based Augmentation Systems (WAAS, EGNOS,
and so on) creates and transmit, along with DGPS
corrections, data integrity information (for example, satellite
health warnings).
– Current ephemerides and almanacs.
Conclusion
This overview simply outlines the basics of satellite positioning. For
more detailed information, visit the Topcon website.
1-6
HiPer II Operator’s Manual
Principles of Operation
HiPer II Receiver
When power is turned on and the receiver self-test completes, the
receiver's 72 channels initialize and will begin tracking all visible
satellites. Each of the receiver's channels can be used to track any one
of the available GPS or GLONASS signals. The number of channels
on the HiPer II allows the receiver to track all visible global
positioning satellites at any time and location.
The internal micro-centered GNSS antenna delivers a stable and lownoise signal to the receiver sub-system. This wide-band signal is
down-converted, filtered, digitized, and assigned to different
channels. The receiver processor controls the process of signal
tracking.
Once a specific satellite signal is locked into a receiver channel, it is
demodulated and necessary signal parameters (carrier and code
phases) are measured. Also, broadcast navigation data is retrieved
from the navigation frame.
Once the receiver successfully locks on to four or more satellites, its
absolute position in WGS84, along with the time offset between the
receiver clock and GPS time are computed. This information and the
measurement data can be optionally stored on the SD/SDHC card,
later downloaded onto a computer, and then processed using a postprocessing software package. Even when the receiver operates in
RTK mode, raw data measurements can still be recorded to the
receiver's storage card; this allows the operator to perform postmission verification of real-time results obtained in the field.
The HiPer II comes in one of the following configurations:
• with a Digital UHF TX/RX radio modem
• with a Digital UHF TX/RX radio modem and a GSM/GPRS
module
• with a Digital UHF TX/RX radio modem and a CDMA module
(for US customers)
P/N 7010-0982
1-7
Introduction
Depending on your options, capabilities of the HiPer II receiver
include:
• Use of satellite-based augmentation systems (SBAS) such as
WAAS/EGNOS/MSAS for improved positioning accuracy
during autonomous operation.
• Configurable internal long-range radio for DGPS and RTK
communications.
1-8
HiPer II Operator’s Manual
Principles of Operation
HiPer II Features
The HiPer II receiver’s advanced design reduces the number of cables
required for operation, allowing for more reliable and efficient
surveying. The HiPer II receiver includes one data port, a power port,
an LED Display Panel for viewing the current receiver status, and
also includes:
• Detachable battery
•Data port
• Interface for controlling and viewing data logging (LED display)
• External memory card slot
• Bluetooth wireless technology module
• Internal radio modem
• Optional GSM/GPRS module
• Optional CDMA module (only with the Digital UHF radio
modem)
• External UHF/GSM Antenna
• Audible Annunciator (including voice commands)
P/N 7010-0982
1-9
Introduction
Battery
The HiPer II receiver comes equipped with two detachable Li-Ion
batteries (Figure 1-2) for powering the receiver and one CDC68
charger.
The battery is capable of running for more than 7.5 hours on a single
charge (only static observation).
The battery compartment door provides access to the main battery.
The receiver can also be powered using an external power source.
Use one BDC58 rechargeable battery at a time to power the receiver.
The HiPer II also contains an internal backup battery, which
maintains an internal RTC. The backup battery is automatically
charged from the main battery.
1-10
Figure 1-2. HiPer II Battery and Charger
HiPer II Operator’s Manual
Principles of Operation
Inserting and Removing the Battery
• First, before removing the battery, always turn off power to the
instrument. If the battery is removed while the power is switched
on, uncontrolled system shutdown will occur and file data may be
lost as a result.
• When inserting or removing the battery, make sure that moisture,
dust, or other foreign particles do not come in contact with the
inside of the instrument.
• Remove batteries from the surveying instrument or charger
before placing into storage.
• Store the battery in a dry room where the temperature is within
the following ranges. For long-term storage, the battery should be
charged at least once every six months.
Table 1-1. Battery Storage Time
Storage PeriodTemperature
1 week or less-20°C to +50°C
1 week to 1 month-20°C to +45°C
1 month to 6 months-20°C to +40°C
6 months to 1 year-20°C to +35°C
• The BDC58 uses the latest advances in high density lithium-ion
battery technology. However, like all batteries, it still generates
power using a chemical reaction and as a result, has a limited
lifetime. Even when the battery is in storage and not used for long
periods, the battery capacity deteriorates with the passage of time.
This may result in the operating time of the battery shortening
despite having been charged correctly. In this event, a new
battery is required.
P/N 7010-0982
1-11
Introduction
Press and Hold
Both Battery
Compartment Buttons
(One on Each Side)
Slide Battery
to the Right to
Remove
To Remove the Battery:
1. Turn the HiPer II over.
2. Push the battery buttons on both sides of the battery compartment
cover, and lift the battery cover.
Figure 1-3. Remove Battery Compartment Cover
3. Slide the battery to the right, and separate the battery from the
connector.
4. Lift up the battery, and remove it from the receiver.
1-12
Figure 1-4. Remove Battery
HiPer II Operator’s Manual
Principles of Operation
NOTE
Slide Battery
to the Left to
Lock in Place
To Insert the Battery:
1. Remove the battery cover.
2. Gently slide the bottom of the battery along the battery guides
until it snaps into place (Figure 1-5 on page 1-13).
Figure 1-5. Remove Battery Compartment Cover
Charging the Battery
To charge the battery, use the included charger. It takes
approximately 4 hours to completely charge one battery, and 8 hours
to completely charge two batteries.
The battery is shipped from the factory without
power. Fully charge the Battery before surveying.
The Li-Ion batteries used in the battery packs should run at no less
than 80% capacity after 500 charging cycles. These batteries do not
need to be drained before recharging.
It takes approximately 4 hours to completely charge one battery, and
8 hours to charge two batteries using the included CDC68 charger.
P/N 7010-0982
1-13
Introduction
1. Connect the power cable to the charger and plug the charger into
the wall outlet.
2. Mount the battery in the charger by matching the grooves on the
battery with the guides on the charger.
Figure 1-6. Insert Battery onto Charger
3. When charging begins, the lamp light blinks.
4. The lamp light is solid when charging is complete.
1-14
HiPer II Operator’s Manual
5. Remove the battery and unplug the charger.
NOTE
NOTE
NOTE
Figure 1-7. Remove Battery
Slots 1 and 2:
The charger starts charging the battery mounted
first. If two batteries are placed in the charger, the
battery in slot 1 is charged first, and then the battery
in slot 2.
Principles of Operation
P/N 7010-0982
Charging lamp:
• The charging lamp is off when the charger is
outside the charging temperature range or when
the battery is mounted incorrectly. If the lamp is
still off after the charger falls within its charging
temperature range and the battery is mounted
again, contact a local dealer.
Charging time per battery (at 25°C):
• BDC58: about 4 hours (Charging can take
longer than the times stated above when
temperatures are either especially high or low.)
1-15
Introduction
Receiver
Health
Available Power Bar
MemoryCapacityBar
Wireless Status
Radio
Status
Serial PortStatus
File Status
BatteryStatus
Timer
Receiver
Health
Available Power Bar
Tracking Status (STAT)
Memory Capacity Bar
Wireless Status
Radio
Status
Serial Port
Status
File Status
Position Status Bar
Battery Status
Power
Button
LED Display Panel
The HiPer II LED Display Panel is used to display and indicate the
receiver’s current operational status. The display offers a compact but
valuable summary of the most important receiver information for the
typical user.
The LED display table below describes the meaning of the LED icons
used in this section.
LED ICON KEY
DISPLAYSOLIDBLINKINGDARK
Boot During the boot process the display indicates boot progress.
1-16
Figure 1-8. HiPer II LED Display Panel
HiPer II Operator’s Manual
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