This guide provides a Professional RF engineer a catalog of antennas, parts, and accessories to complete a
customized RF instillation of Motorola Solutions Enterprise Access Points. This guide specifically addresses
the antennas used for 2.4 GHz, 5.2 GHz and dual band antenna implementations for Wireless Local Area Networks (WLANs).
It’s important to understand that antenna and accessory selection should be qualified by on-site verification
with the actual components used. Signal attenuation is cumulative with each connection and component
added between the antenna and the radio, so careful study and planning should be used to verify the given
arrangement ensures a compliant installation.
NOTE: Illustrations displayed in this guide are samples and can differ from the actual
antenna.
Document Conventions
The following conventions are used in this document to draw your attention to important information:
NOTE: Indicate tips or special requirements.
About This Guide
CAUTION: Indicates conditions that can cause equipment damage or data loss.
!
WARNING! Indicates a condition or procedure that could result in
personal injury or equipment damage.
viii Enterprise Wireless LAN Antenna Specification Guide
Notational Conventions
The following additional notational conventions are used in this document:
• Italics are used to highlight the following:
• Chapters and sections in this and related documents
• Dialog box, window and screen names
• Drop-down list and list box names
• Check box and radio button names
• Icons on a screen.
• GUI text is used to highlight the following:
• Screen names
• Menu items
• Button names on a screen.
• bullets (•) indicate:
• Action items
• Lists of alternatives
• Lists of required steps that are not necessarily sequential
• Sequential lists (those that describe step-by-step procedures) appear as numbered lists.
Antenna Selection and Description
1.1 Antenna Selection
While several antennas may work in a given environment, some will provide better coverage than others.
Using the right antenna in the right location will maximize both the performance and coverage of your
network. Understanding the key characteristics that describe how an antenna sends and receives radio
frequency signals is critical to finding the ideal antenna for your deployment. This guide supports the
antennas used for AP-5131, AP-5181, AP-7131 and AP-6511 model access points, AP650 and AP300 (nonintegrated antenna) model access port and the RFS4011 Integrated Services Controller.
Motorola Solutions Enterprise Wireless LAN products operate in the 2.4 GHz and 5 GHz ISM bands allocated
for unlicensed use. Access point and access port products available today support either the 802.11b/g/n or
the 802.11a/n standard, or both. Wireless devices conforming to the 802.11b/g standard operate in the 2.4
GHz ISM band, while 802.11a devices operate in the 5 GHz band. The antennas in this guide are grouped
according to the frequency band they support. Some antennas are designed to operate within either band.
These antennas (described as "Dual-band") may be connected to radios operating in either the 2.4 or 5 GHz
bands, although a single antenna may not be connected to two radios at the same time.
1-2 Enterprise Wireless LAN Antenna Specification Guide
1.1.1 Connector Types and Definitions
There are combinations of antenna types and cables required to provide a satisfactory connection to the AP.
One confusing factor is “reverse polarity”. Reverse polarity is the FCC's requirement for each WLAN
manufacturer to have unique access point connectors. Motorola Solutions had previously standardized our
offerings for access points/ports:
• 2.4 GHz is Reverse polarity BNC female (RP-BNC-F)
• 5 GHz is reverse polarity SMA female (RP-SMA-F)
• Dual Band is reverse polarity SMA female (for AP-5131), and N-Female (for AP-5181).
NOTE: Reverse polarity presents confusion because of a lack of a standardized definition
from connector manufactures. Reverse polarity provides a center element, which should
not be confused with a male connector. A male connector is defined by the outer jacket of
the connector rather than the center element.
The following are the connectors used within this guide:
Figure 1.1 RP-BNC-F
Figure 1.2 RP-BNC-M
Antenna Selection and Description 1-3
Figure 1.3 RP-SMA-F
Figure 1.4 RP-SMA-M
1-4 Enterprise Wireless LAN Antenna Specification Guide
Additionally, antennas deployed outdoors and industry standard accessories (like lightening arrestors) use
Type-N connectors (as displayed below). Therefore, with the combinations devices required
(access points/ports, antennas, cable extensions, and lightening arrestors), various adapter cables are
required to connect an antenna to an access point/port.
Figure 1.5 Type N-F
Figure 1.6 Type N-M
1.1.2 Indoor and Outdoor Antennas
One important aspect of an antenna is whether it is weather sealed to protect it from the environment
Because of this extra protection, outdoor antennas are typically more expensive than those rated for indoor
use. Outdoor antennas can be used for indoor applications, such as freezers and cooler where moisture is
common. Outdoor antennas can be used for indoor applications, but indoor applications should not be used
in outdoor applications.
One common distinction of outdoor antennas is the connector. Since lightning protection is always advised
for outdoor antennas, these antennas typically have Type N Male to directly attach the lightning arrestor.
This is true of 2.4 GHz, 5 GHz, and dual-band outdoor antennas.
1.1.3 Spectrum and Part Number Designations
The antennas listed in this document are ultimately referenced by part number. A numerical sequence is used
within each antenna’s part number to identify the spectrum supported by the antennas.
• The antenna part numbers with a 2499 indicates a 2.4 GHz antenna. For more information on the 2.4 GHz
antenna suite, see 2.4 GHz Single Band Antenna Suite on page 3-1.
• The antenna part numbers with a 5299 indicates a 5 GHz antenna. For more information on the 2.4 GHz
antenna suite, see 5.2 Ghz Single Band Antenna Suite on page 4-1.
Antenna Selection and Description 1-5
• The antenna part numbers with a 2452 indicates a dual band antenna (2.4GHz and 5 GHz). For more
information on the 2.4 GHz antenna suite, see 2.4GHz - 5.2GHz Dual Band Antenna Suite on page 5-1.
1.1.4 Extended AP to Antenna Cable Lengths
Most indoor antennas are intended to be mounted directly to the AP's connectors. Some mounting
arrangements call for positioning the AP a significant distance away from the antenna due to serviceability
or other reason. In these situations, various adapters and cable extensions are required.
In these situations be mindful of:
• The connector on the AP
• The connector on the antenna
• The spectrum being implemented
• Signal loss due to multiple connectors and long cable lengths
Combinations of these attributes present different parts required to complete the connection. The Product
Compatibility matrix addresses the parts required to make a proper connection. For more information, see
FCC Compliance on page 2-1.
1-6 Enterprise Wireless LAN Antenna Specification Guide
1.2 Antenna Selection Criteria
In addition to antenna frequency, there is other criteria to consider when selecting an antenna.
1.2.1 Antenna Pattern
1.2.1.1 Omni-Directional
Signal radiates from the antenna in all directions on the horizontal plane.
1.2.1.2 Directional
Signal radiates in a specific direction, typically described as a beam of given width, expressed in degrees in
the horizontal and vertical plane. For more information, see Azimuth 3dB Beamwidth on page 1-7 and
Elevation 3dB Beamwidth on page 1-7.
1.2.2 Antenna Type
1.2.2.1 Panel
A panel antenna is a flat antenna mounted to a wall or other vertical surface and radiates RF energy (radio
waves) directionally away from the wall. They usually have gain greater than 5 dBi and are not suitable for
omni-directional situations. Ideally suited for long hallways.
1.2.2.2 Patch
A patch antenna is a flat antenna mounted on the ceiling but whose pattern is omni-directional. Most of the
energy goes out horizontally to the sides of the antenna and equal in all directions.
1.2.2.3 Dipole
A dipole antenna is a tubular antenna that can be either a pipe shape, a straight flexible rod or a paddle. This
antenna has an omni-directional pattern when placed in a vertical position. It usually has 2 dBi of gain.
1.2.2.4 Dipole Array
Essentially a dipole, a dipole array is two or more dipoles that are placed one on top of the other, requiring
a longer tube to hold them. The advantage of a dipole array is that it has higher gain.
1.2.2.5 Parabolic Grid
A parabolic grid antenna is a very directional, dish-like antenna. Its parabolic reflector focuses the RF energy
like a flashlight. Most of the time the radiating element is a dipole, but when combined with the dish, it
becomes very directional with gain up to 24 dBi. Usually used in long point-to-point systems.
1.2.2.6 Yagi
A yagi antenna is a antenna that has an internal structure resembling that of typical antennas used for TV
reception (a series of rods perpendicular to a main rod, making a triangular shape). This is a directional
antenna with less gain than the PGA, typically around 13 dBi. It may be used in either point-to-point
situations, or to cover a very long, narrow area in point-to-multi-point situations.
1.2.3 Antenna Performance Characteristics
1.2.3.1 Frequency
The frequency band within which the antenna performs at the stated specifications
1.2.3.2 Gain (dBi)
The relative amplification of the antenna with respect to an equivalent isotropic antenna, expressed on the
decibel logarithmic scale.
1.2.3.3 Cable loss (dB)
The signal strength loss introduced by the cable connected to the antenna expressed on the decibel
logarithmic scale.
1.2.3.4 Net gain (dBi)
The resulting amplification of the antenna paired with its cable.
1.2.3.5 Polarization
The orientation of the electrical field which the antenna is optimized to receive. If the transmitting and
receiving antennas are both linear polarized, then turning one 90° so that they are cross polarized will reduce
the range significantly.
Antenna Selection and Description 1-7
1.2.3.6 VSWR
Voltage Standing Wave Ratio (VSWR) is the ratio of maximum voltage to minimum voltage along the line.
Expresses the degree of match between the transmission line and the terminating element (antenna). When
VSWR is 1:1 the match is perfect, a VSWR of 1.5:1 corresponds to 96% power efficiency.
1.2.3.7 Azimuth 3dB Beamwidth
Width of the antenna beam on the horizontal plane expressed in degrees.
1.2.3.8 Elevation 3dB Beamwidth
Height of the antenna beam on the vertical plane expressed in degrees.
1.3 Antenna Accessories for Enterprise WLANs
Motorola Solutions offers a complete selection of antennas and accessories to ensure optimal coverage and
performance for wireless LANs. Regardless of the size or layout of your environment, from a small office or
storefront to campus-wide, multiple-site, indoor and outdoor deployments, Motorola Solutions offers the
antennas, cables and accessories designed to fit your needs.
By combining this portfolio with a broad line of wireless switches, access ports, access points, client
connectivity cards, ruggedized mobile voice/data devices and network management software, as well as
wireless mobility planning and deployment services, Motorola Solutions offers comprehensive end-to-end
wireless enterprise LAN solutions, giving you secure, reliable access to your critical business data and
applications at the point of activity. For more information on Motorola Solutions's wireless products, visit
www.motorolasolutions.com.
1-8 Enterprise Wireless LAN Antenna Specification Guide
1.3.1 Choosing the Right Antenna and accessories for your WLAN
It is important to consider a number of factors when choosing an antenna and accessories for your Motorola
Solutions enterprise WLAN. To choose the right components, you'll need to know:
• Where is the antenna to be installed, and what type of coverage is required. Knowing the intended radio
band is central. Determine if the intended radio coverage area supports dual 2.4/5.2 band traffic. Has the
antenuation of the coverage been discerned in respect to known barriers.
• The band (802.11b/g/n or 802.11a/n) your network supports
• Which Motorola Solutions AP to use
• Whether you will be deploying the network indoors or outdoors
• The distance between AP and antenna, to determine extender cable length, if any
• The serviceablity requirement for each AP and antenna deployment
Review the chart to determine which antennas suit your needs. Using the part numbers provided, determine
which of the antennas will work with your hardware in your environment.
Product Compatibility
To find the right antenna and accessories for your deployment:
• Find your access point or access port model at the top of the chart (refer to the chart on the following
page). Follow that column down to find the antennas, cables and lightning arrestors compatible with
that model access port or access point. Write those part numbers down.
• Follow the row antenna across the table to the columns for the lightning arrestors and cables you wrote
down to confirm that they compatible with the antenna you've chosen and determine if an adaptor is
required to connect the two selected parts.
2.1 FCC Compliance
Motorola Solutions enterprise Access Points are approved by the FCC with the understanding that these
devices are Professionally Installed. Under FCC regulations, this allows the Professional Installers the
flexibility to configure the Access Points for each specific customers needs and insure a compliant
installation. The antennas offered in our portfolio have different coverage patterns and antenna gains to
meet the needs of different installation requirements and require careful planning. The Access Point
transmitter power must be adjusted by the professional installer based on the specific antenna and other
installation components used in the installation to ensure compliant operation.
A professional installer must:
• Have a good understanding of RF theory
• Be able to calculate a link budget for a given transmitter configuration. For example, Conducted Output
Power + Cabling Losses + Mechanical Connection Losses + Antenna Gain = Output Power (This output
power should be equal or lower than the Maximum Power as listed on the FCC Grant for a transmitter)
• Be familiar with both the mechanical and software tools required to configure and adjust the transmitter
being installed
• Understand basic FCC regulations for the site specific location and installation requirements of the
various radio products being installed
• Understand basic antenna operational theory and standard industry antenna installation practices
• Be certified by local authorities to install electrical devices.
2-2 Enterprise Wireless LAN Antenna Specification Guide
WARNING! OPERATING A TRANSMITTER THAT IS CONFIGURED FOR
INDOOR USE IN AN OUTDOOR ENVIORNMENT IS AGAINST FCC
REGULATIONS AND SUBJECT TO FCC ENFORCEMENT ACTIONS
AGAINST BOTH THE INSTALLER AND THE OPERATOR.
2.1.1 Outdoor Access Point Installations
The FCC regulations for the indoor and outdoor installation are different; the professional installer must
configure the Access Point transmitters accordingly. Products that are specifically intended to be placed
outdoors are configured at the factory for compliant outdoor operation. Motorola Solutions recommends
professional installers review the following to assess the legality of outdoor deplyments:
• If a transmitter is placed indoors but the antenna is placed outdoors, the FCC interprets this as an outdoor
installation
• If a transmitter is placed indoors and the antenna is oriented to intentionally radiate outdoors, the FCC
interprets this as an outdoor installation
• If the transmitter is placed on a loading dock or inside a covered stadium with a retractable cover, the FCC
views this as an outdoor installation
The Federal Communications Commission (FCC), the National Telecommunications and Information Administration (NTIA) and the Federal Aviation Administration (FAA) have an ongoing investigation of
interference caused to Terminal Doppler Weather Radar (TDWR) systems operating in the 5600-5650 MHz band.
TDWRs are used to detect wind shear and other weather conditions near airports.
The interference at most locations was attributed to fixed wireless transmitters operating outdoors in the
vicinity of airports at high elevations that are line-of-sight to the TDWR installations (5 GHz network equipment).
In some instances, the interference was caused by equipment that was not properly certified or configured. In
other instances, equipment was FCC certified nonetheless caused interference. The FCC has taken appropriate
enforcement action in each of these cases.
If everything is determined to be compliant - the FCC orders the interfering transmitter turned off or adjustments
be made such that there is no more interference; any non-compliance determined is resolved with an
enforcement action.
On 14 OCTOBER 2010 the FCC published the following notice that requests that devices operating in the 5.4 GHz
band located near the appended list of airports register these devices. A voluntary WISPA sponsored database
has been developed that allows operators and installers to register the location information of the UNII devices
operating outdoors in the 5470 - 5725 MHz band within 35 km of any TDWR location.
NOTE: Motorola Solutions strongly encourages the voluntary registration of all outdoor
installations at http://www.spectrumbridge.com/udia/home.aspx
.
Product Compatibility 2-3
2.2 FCC Approval Statement
Federal Communications Commission
Office of Engineering and Technology
Laboratory Division
Interim Plans to Approve UNII Devices Operating in the 5470 - 5725 MHz Band with Radar
Detection and DFS Capabilities
The FCC, NTIA, FAA and industry are working to resolve interference to Terminal Doppler Weather Radar
(TDWR) systems used near airports that has occurred from some outdoor wireless systems operating in the
5470 MHz – 5725 MHz band. These wireless devices are subject to Section 15.407 of our rules and when
operating as a master device they are required to implement radar detection and DFS functions. We are
continuing our work to develop long-term equipment authorization test procedures that will ensure that the
devices comply with our rules that include protecting the TDWR operations. In the interim, the Commission
will now allow certification of wireless master devices with radar detection function and with DFS capability,
if they meet the following conditions:
• Devices will not transmit on channels which overlap the 5600 – 5650 MHz band.
1
• Devices intended for outdoor use will be further restricted, as follows:
• Devices must be professionally installed when operating in the 5470 – 5725 MHz band.
• Grantees must provide owners, operators and all such installers with specific instructions in their
user’s manual on requirements to avoid interference to TDWRs and information that meets the
following instructions:
2
• Any installation of either a master or a client device within 35 km of a TDWR location shall be
separated by at least 30 MHz (center-to-center) from the TDWR operating frequency (as shown in
the attached table)
1
The devices subject to the requirements in this KDB can select the initial channel for operation to avoid
3, 4
, and 5.
TDWRs and apply the Uniform Channel Spreading requirements (see FCC 06-96 in ET Docket 03-122 released
June 30, 2006) on the remaining available frequency band of operation. All the other test procedures
including the test radar patterns remain the same at the present time. A revision to the measurement
procedure with modification to the Uniform Channel Spreading requirement and other changes will be
released in the future. The Commission will also address the issue of any field upgrade option at that time.
2
The grantee must identify the specific expertise and the training required by the installers for installing
these types of devices.
3
In some instances it is possible that a device may be within 35 km of multiple TDWRs. In this case the
device must ensure that it avoids operation within 30 MHz for each of the TDWRs. This requirement applies
even if the master is outside the 35 km radius but communicates with outdoor clients which may be within
the 35 km radius of the TDWRs.
4
The requirement for ensuring 30 MHz frequency separation is based on the best information available to
date. If interference is not eliminated, a distance limitation based on line-of-sight from TDWR will need to
be used. In addition, devices with bandwidths greater than 20 MHz may require greater frequency
separation.
• Procedures for the installers and the operators on how to register the devices in the industry-sponsored
database with the appropriate information regarding the location and operation of the device and
installer information is included.
6
• Devices must meet all of the other requirements specified in Section 15.407, and it is prohibited to
include configuration controls (e.g. country code settings or other options to modify DFS functions) to
change the frequency of operations to any frequency other than those specified on the grant of
certification for US operation.
7
2-4 Enterprise Wireless LAN Antenna Specification Guide
• All applications for equipment authorization must clearly show compliance with all of the technical
requirements under worst case parameters, under user or operator control, based on frame rates,
listen/talk ratios and user data transfer conditions.
All the devices subject to the DFS requirements must be submitted to the Commission’s Laboratory Division
for pre-grant testing and equipment authorization.
8
The applicant must ensure that all equipment
authorization applications subject to this interim procedure include appropriate attestations that the device
has no option to change the DFS parameters and that transmissions are disabled at least in the 5600 – 5650
MHz band. The application must include the user’s manual with the appropriate installation and operations
requirements for the installers and operators.
We are continuing to evaluate additional measures that may need to be taken to further ensure against
interference caused by 5 GHz outdoor wireless systems located near airports. While manufacturers have an
obligation to ensure that their equipment complies with FCC rules, and must take steps to ensure their
devices are unlikely to cause harmful interference, Section 15.5 of the Commission’s rules also places an
obligation on users of devices to avoid causing interference and to correct any interference that may occur.
We encourage the manufacturers to include information for the users, including the operators and installers,
to ensure that they understand that it is incumbent on them to cooperate with manufacturers to implement
any changes necessary to facilitate compliance.
5
Devices may be optionally designed not to transmit on channels which overlap 5570 – 5680 MHz instead
of requiring installers to perform site-by-site adjustments. In that case it is still required that the devices
should be installed professionally and the procedures for registering the device in the industry database
should be included in the Users Manual.
6
A voluntary WISPA sponsored database has been developed that allows operators and installers to register
the location information of the UNII devices operating outdoors in the 5470 – 5725 MHz band within 35 km
of any TDWR location (see http://www.spectrumbridge.com/udia/home.aspx). This database may be used
by government agencies in order to expedite resolution of any interference to TDWRs.
7
For example, device software must not have any country code options or software configuration settings
which allow an end user to modify the DFS operation or impact the performance of DFS. See KDB 594280.
8
The TCBs are not permitted to approve transmitters with radar detection capabilities. See KDB 628591.
9 The manufacturers may consider taking steps providing clear instructions to operators and installers of
devices as to the need to comply with rules for use of the band, guidance on registration of devices and any
other processes that are designed to avoid interference. They may use methods that include, but are not
limited to, instructions in manuals, notification on product web pages and service bulletins issued for
products in the field.
TDWR Location Information*
TERRAIN
ELEVATION
STATE CITYLONGITUDELATITUDEFREQUENCY
AZPHOENIXW 112 09 46N 33 25 145610 MHz102464
CODENVERW 104 31 35N 39 43 39 5615 MHz564364
FLFT LAUDERDALEW 080 20 39N 26 08 365645 MHz7113
FLMIAMIW 080 29 28N 25 45 275605 MHz10113
FLORLANDOW 081 19 33N 28 20 375640 MHz7297
FLTAMPAW 082 31 04N 27 51 355620 MHz1480
FLWEST PALM
BEACH
W 080 16 23N 26 41 175615 MHz20113
(MSL) [ft]
ANTENNA
HEIGHT ABOVE
TERRAIN [ft]
Product Compatibility 2-5
STATE CITYLONGITUDELATITUDEFREQUENCY
TERRAIN
ELEVATION
(MSL) [ft]
ANTENNA
HEIGHT ABOVE
TERRAIN [ft]
GSATLANTAW 084 15 44N 33 38 485615 MHz962113
ILMCCOOKW 087 51 31N 41 47 505615 MHz64697
ILCRESTWOODW 087 43 47N 41 39 055645 MHz663113
ININDIANAPOLISW 086 26 08N 39 38 145605 MHz75197
KSWICHITAW 097 26 13N 37 30 265603 MHz127080
KYCOVINGTON
W 084 34 48N 38 53 535610 MHz94297
CINNCINNATI
KYLOUISVILLEW 085 36 38N 38 02 455646 MHz617113
LANEW ORLEANSW 090 24 11N 30 01 185645 MHz297
MABOSTONW 070 56 01N 42 09 305610 MHz151113
MDBRANYWINEW 076 50 42N 38 41 435635 MHz233113
MDBENFIELDW 076 37 48N 39 05 235645 MHz184113
MDCLINTONW 076 57 43N 38 45 325615 MHz24997
MIDETROITW 083 30 54N 42 06 405615 MHz656113
MNMINNEAPOLISW 092 55 58N 44 52 175610 MHz104080
MOKANSAS CITYW 094 44 31N 39 29 555605 MHz104064
MOSAINT LOUISW 090 29 21N 38 48 205610 MHz55197
MSDESOTO
W 089 59 33N 34 53 455610 MHz371113
COUNTY
NCCHARLOTTEW 080 53 06N 35 20 145608 MHz757113
NCRALEIGH
W 078 41 50N 36 00 075647 MHz400113
DURHAM
NJWOODBRIDGEW 074 16 13N 40 35 375620 MHz19113
NJPENNSAUKENW 075 04 12N 39 56 575610 MHz39113
NVLAS VEGASW 115 00 26N 36 08 375645 MHz199564
NYFLOYD BENNETT
W 073 52 49N 40 35 205647 MHz897
FIELD
OHDAYTONW 084 07 23N 40 01 195640 MHz92297
OHCLEVELANDW 082 00 28N 41 17 235645 MHz817113
OHCOLUMBUSW 082 42 55N 40 00 205605 MHz1037113
OKAERO. CTR
W 097 37 31N 35 24 195610 MHz128580
TDWR #1
2-6 Enterprise Wireless LAN Antenna Specification Guide
TERRAIN
ELEVATION
STATE CITYLONGITUDELATITUDEFREQUENCY
OKAERO. CTR
TDWR #2
OKTULSAW 095 49 34N 36 04 145605 MHz712113
OKOKLAHOMA
CITY
PAHANOVERW 080 29 10N 40 30 055615 MHz1266113
PRSAN JUANW 066 10 46N 18 28 265610 MHz59113
TNNASHVILLEW 086 39 42N 35 58 475605 MHz72297
TXHOUSTON
INTERCONTL
TXPEARLANDW 095 14 30N 29 30 595645 MHz3680
TXDALLAS LOVE
FIELD
TXLEWISVILLE
DFW
W 097 37 43N 35 23 345620 MHz129397
W 097 30 36N 35 16 345603 MHz119564
W 095 34 01N 30 03 545605 MHz15497
W 096 58 06N 32 55 335608 MHz54180
W 096 55 05N 33 03 535640 MHz55431
(MSL) [ft]
ANTENNA
HEIGHT ABOVE
TERRAIN [ft]
UTSALT LAKE CITYW 111 55 47N 40 58 025610 MHz421980
VALEESBURGW 077 31 46N 39 05 025605 MHz361113
WIMILWAUKEEW 088 02 47N 42 49 105603 MHz820113
2.3 FCC USA Compaibility Matrix
The following (on the next page) displays Motorola Solutions FCC approved AP radio, antenna, cable and
accessory combinations for use in the United States:
2-10 Enterprise Wireless LAN Antenna Specification Guide
2.4 GHz Single Band Antenna Suite
3.1 Supported 802.11b/g/n Antenna Suite
Motorola Solutions supports numerous single-band 2.4 GHz 802.11b/g/n antennas to suit the requirements of your
unique access point or access port deployment. Check the Motorola Solutions Web site periodically, as newly
supported 802.11b/g/n antennas will be added to this document as they are released. For more information, go to