|
Introduction:
The original Saber family was developed for the US
military around 1989, and is noted for its long, thin shape. The Saber
receiver probably has the best selectivity that has ever been seen on a
portable. These handhelds are tough, popular radios still used by users
in the military / industrial / public
service / commercial and private user environment. The basic
Saber and the more advanced Systems Saber were officially labeled
obsolete and Motorola depot repair for them ended Dec 31st 2005. The
Astro Saber product line was discontinued as of the end of 2002.
Accessories for the Astro Saber will be supported through 2008, and the
Systems Saber and original Saber use many of those. Because of
abandonment of the Saber line, and the upcoming narrow banding rules
they are being replaced by the MTS and XTS series. As a result we are
seeing a LOT of surplused Sabers and they are relatively inexpensive on
the used market plus they are available from several sources. With that
in mind, it's time to discuss the advantages and disadvantages of the
various Saber models, some of which sold for US$3,000 new (or US$4,000
for a trunked, encrypted Astro Saber). Note that "Astro" is Motos name
for a digital radio, and that "Astro" is a proprietary format and NOT
the same as P25. There are later versions of "Astro" that will do P25
(introduced around 1996), but basic "Astro" does not (and the VSELP
versions are not P25... VSLEP has not been produce and supported by
Motorola since late 1995. Since 1996 the only digital mode from
motorola on the Astro line be it portable or mobile has been P25).
Astro25 is the common name for the P25 version of Astro.
There are several series of handheld radios in
Motorola's Saber line. These include the original Saber I, the Saber
IE, the Saber II and the Saber III, the Astro Saber family, the
Saber SI family, Systems Saber family (which offers trunked
models) and the SSE5000. It's not unusual to see the
I / IE / II / III written as 1, 1E, 2 and
3, especially on eBay auctions.
The MX1000, MX2000 and MX3000 are the export version of
the Saber I / II / III, with the only major difference being the model
tags on the case, and the firmware (this means that the Saber
accessories will work). Two changes in the firmware are that (1) they
do not support the non-exportable encryption modules and (2) they can
only be programmed with the MX1000/2000/3000 RSS.
The basic differences:
- The Saber I is the most basic of Sabers. This radio
has 12 channels and it is available as either a Secure Capable or
Non-Secure radio.
- The Saber IE (also known as a 1E) is capable of 24
channels by having two zones of 12 channels each. What is normally the
Secure / Clear switch on top now selects between the two
zones. The top escutcheon on one radio that I own has a single dot for
zone 1 and two dots for zone 2. I have seen others that have an A or B
on the top escutcheon. You could also use the zone selector switch as a
way to select Talk-Around or Direct for each repeater, simplex on the
output frequency, by programming zone one with twelve repeaters and
zone two with the matching talk-around frequency. This way if you're on
any channel, a flip of the switch gives you talk-around. In a Saber IE
secure radio you then have the option of slaving the secure transmit to
specific modes so that you can still use the top switch to select
zones, or assign the switch to secure/clear use and losing the second
zone.
The IE also has the different front shield assembly. It includes a
small memory board and connecting cable, like a display board for a
Saber II or III. The part number for the front assembly should be
NTN5686A. The radio's on-board memory is insufficient to accommodate 24
channels and needs the extra board.
- The Saber II is capable of either four zones of
twelve channels, or ten zones of twelve channels. The difference is in
the front shield assembly. The 2k 48-channel radio, when disassembled,
will have four surface-mount ICs on the back of the front display
board. The 8k 120-channel radio front display board has five
surface-mount ICs. However, there is an exception to this rule. If an
8k radio is programmed as a 2k radio by selecting option H670 Omit
memory - 2k memory option under Radio Feature Options in the RSS, it
will be the same as a 2k radio. It can be restored to an 8k radio with
some trickery, but that's another article!
- The Saber III is basically a Saber II with the full
keypad. It offers multiple channels and zones, analog only, no
trunking.
The full keypad allows you to use some other options such as user
programmable scan and DTMF. Otherwise it's the same radio as a II.
- The Systems Saber is capable of analog trunking
operation and it has increased channel capacity, up to 255 channels.
Yes, there are other feature changes, such as the buttons are
reprogrammable (the ones on the regular Saber are not), but I will not
get into the nitty gritty of the exact differences in this article.
Please note, you must use the Systems Saber RSS to program this radio.
If you use any other software, it will not work, and you may damage the
radio.
- The Astro Saber is a totally different radio. In my
opinion the only thing they share is that they are similar in size and
shape and uses the same battery and battery charger. It will do both
wideband and narrowband analog on a per-channel basis plus added
digital capability. Not all the Astro Sabers are digital, however.
Another article will have to be dedicated to describing it.
The Saber series is very ham-friendly. The Saber II and III have handy
features such as MPL (Multiple PL select), nuisance delete - the
temporary deletion of a busy channel from the scan list (a feature I
think all radios should have since it is so handy), and many more!
Sabers that do features like scan do so via cumbersome
menus, while Systems Sabers do it via direct button presses. Astro
Sabers, unlike Systems Sabers, will remember scan state through a
channel change. Systems Sabers only allow one MDC ID per radio, while
Astro Sabers allow you to enable multiple MDC "systems" and select
which system goes with which channel. This feature is nice if you have
call signs on both the Police and the Fire channels, but different MDC
IDs.
The SSE5000 is a model of Saber manufactured by
Motorola's Special Products Division specifically for the NYPD; I have
no clue of its options.
There is also a version of the Saber which carries an R
suffix (i.e. Saber 1R, Saber 2R). These are ruggedized versions of the
Saber originally built for the Military: the Marine Corps, Navy Seals,
Green Berets, and other units requiring an ultra-rugged radio for field
communications. The cases are completely different and incompatible
with standard Saber case parts and batteries.
The Mobile Vehicular Adapter (MVA) or Convertacom for
the Saber I, II, III or Astro Saber radios is the NTN5487B or C. In
some catalogs it's called the Saber Vehicular Adapter or SVA. It
includes a battery charger, external antenna hookups and on some models
an RF amplifier. The unit
requires the microphone (model NMN6150A) that was made for the unit as
it includes an LCD display and a keypad.
There are several speaker-mics for the Saber, one is the
NMN6128. The UHF Public Safety models have a straight cord and an
antenna on top of the speaker-mic head.
In this writeup we will be discussing the more common
Saber I / IE / II / III series of radios.
First a general explanation of Secure vs. Non-Secure:
"Secure" is a generic name for voice encryption. There
are several methods some of which are exportable, and some of which are
not. You will find terms like Digitally Encryption System (DES),
DES/XL, Digital Voice Privacy (DVP) and DVP/XL.
Encryption also requires the loading of a hexadecimal
encryption key (16 to 24 characters depending on the encryption method
- DES, DVI, DVP, etc.) into the radio with a Key Variable Loader (KVL).
Each radio needs to have the same key if they are going to communicate
with each other. A KVL resembles a handheld radio but with a numeric
display and membrane keypad. There are also Secure modules that offer
Over-The-Air Rekeying (OTAR). This option allows the encryption key to
be updated over the air.
Note that a Secure Saber radio is longer in length;
these are known as Secure-Capable radios and is easily distinguished by
a flat area of the case, about 5/8" in length, between the speaker
grill and the battery. A Non-Secure Saber has the shorter case that
ends at the bottom of the speaker grill. The interior components are
interchangeable except for the metal frame, which of course matches the
case length, and the main board that the modules plug into, which is
also the same length and has the location at the bottom end for the
Secure module to be installed. The use of encryption on a
Secure-equipped Saber is not mandatory and is selectable by a switch on
the top of the radio. The switch is labeled O for Clear Operation and
Ø for Secure Operation. Encryption can also be user enabled,
fully disabled, or required on a per channel basis in the software. You
can also have a Secure capable radio without a Secure module installed
- in this case there is a "Bypass" or dummy module installed containing
nothing but a wire jumper.
Saber Model Number Decoding
The basic differences between a Saber I, IE, II and III
are:
| Radio |
Display |
Keypad |
Channels / Zones |
| Saber I |
No |
No |
12 Channels (one zone) |
| Saber IE |
No |
No |
24 Channels in two Zones |
| Saber II |
Yes |
3 Keys |
48 Channels in 4 zones or
120 Channels in 10 Zones [1] |
| Saber III |
Yes |
Full [2] |
120 Channels |
|
Notes:
1: Two different models of radio - one with 2k of memory, the other
with 8k.
2: The 3 keys of the Saber II plus a 12-button pad that is also used
for DTMF. There is no 16 button DTMF option.
This question has a very roundabout answer; the "Model"
number scheme varies across the Saber line of radios and is not a
reliable source of information about a given radio. To determine the
frequency band / options of a given radio you need to decode the
"Factory ID" number on the label on the back of the Saber. Some Sabers
have model numbers and Factory IDs that are the same. If you have a
recased Saber then there may be no label, or it may be absolutely
irrelevant, as it could be for whatever was in that case originally
(i.e. a completely different radio).
The Factory ID of a VHF Saber is formatted as the letter
H (For Handheld), then two numbers (usually 33 or 43 in high band, or
34 or 44 on UHF), then three letters, then some additional letters or
numbers, then finally a two letter combination of either AN, BN or CN.
The Factory ID can be decoded using the following table.
| Radio Type |
Transmit
Power [1] |
Frequency
Range |
Environmental /
Security [2] |
Feature Set |
H
Hand-
held
or
Z
Special
Product |
3
66-88 MHz:
None made
146-174 MHz:
1 or 2.5 W
438-470 MHz:
1 or 2 W |
2
68-88 MHz |
SA
Non-Submersible /
Non-Secure (Clear) |
G
Two Zone
No Keypad
(Saber IE) |
4
66-88 MHz:
1 or 6 W
136-174 MHz:
2.5 or 6 W
403-512 MHz:
2 or 5 W |
3
136-174 MHz |
YB
Submersible /
Non-Secure (Clear) |
J
3 Keys in 1 Row Keypad
Menu, Select, Enter
(Saber II) |
4
403-512 MHz |
QX
Non-Submersible /
Secure Capable |
K
3 Keys as above plus
5 Rows Numeric and DTMF Keypad
(Saber III) |
| |
YX
Submersible /
Secure Capable |
N
One Zone
(Saber I) |
|
| Core |
Channel
Spacing |
Channel
Selector |
Model
Variation |
Model
Revision[3] |
Model Package |
7
Binary CORE (US) |
1
Wide Band (25/30 kHz) |
0
10 Channel Capable (Int'l) |
9
Model Variation |
A
Original Revision |
N
Model Package |
9
Tone CORE (Int'l) |
5
Narrow Band
(12.5 kHz)
(Int'l) |
3
12 Channel Capable (US) |
|
C
Scan Capable |
|
|
Systems Saber Model Number Decoding
Factory ID
Number
|
Power
|
Frequency
|
Submersible
|
Keypad
|
Display
|
VHF
|
|
|
|
|
|
| H33TUN5170CN |
2.5
|
146-175
|
No
|
No
|
No
|
| H43TUN5170CN |
6
|
136-174
|
No
|
No
|
No
|
| H33YUN5170CN |
2.5
|
146-174
|
Yes
|
No
|
No
|
| H43YUN5170CN |
6
|
136.174
|
Yes
|
No
|
No
|
| H33TUK5170CN |
2.5
|
146-174
|
No
|
3x5
|
Yes
|
| H43TUK5170CN |
6
|
136-174
|
No
|
3x5
|
Yes
|
UHF
|
|
|
|
|
|
| H34TUN5170CN |
1-2
|
403-512
|
No
|
No
|
No
|
| H44TUN5170CN |
2-5
|
403-512
|
No
|
No
|
No
|
| H34YUN5170CN |
1-2
|
403-512 |
Yes
|
No
|
No
|
| H44YUN5170CN |
2-5
|
403-512 |
Yes
|
No
|
No
|
| H34TUK5170CN |
1-2
|
403-512 |
No
|
3x5
|
Yes
|
| H44TUK5170CN |
2-5
|
403-512 |
No
|
3x5
|
Yes
|
Notes:
[1]: Transmit Power: a 3 is the low power version of that band and
split, while a 4 is the high power version of that band and split.
There were no H32 series Sabers made. Two power levels are shown
because each band has its own low and high power values (two different
power amplifier modules). Also the high power radios have adjustable
low and high power levels via the RSS and can be assigned to each
channel. So a high power radio can still have a low power setting.
[2]: Environmental / Security: SA and YB are the short-case
radios. QX and YX are the long-case radios.
[3]: Model Revision: A Saber I is not capable of scan even if it is a C
revision.
The above sample model number H43SAJ7139CN decodes to a
6 Watt VHF Saber with no encryption capability, a 3 key keypad and
display (i.e. a Saber II), with a US binary core, wide band channeling,
12 channels and is Scan Capable.
You can not tell a Saber's bandsplit by the Factory ID,
only the band (Midband, VHF or UHF). To determine the actual frequency
range (bandsplit) within the band you must do one of these:
1) Read the radio with the Motorola RSS (Radio Service Software), or
2) Disassemble the radio and read the part numbers off the actual
modules.
Band Changing:
Modules from a VHF radio are a different design than the modules from a
UHF, so you can not change the band of a radio with a module swap, but
you can change the band split (i.e. the range within the band) by
swapping modules from a radio in another split. More on this later!
Common Frequency Bandsplits Include:
MIDBAND: Two ranges in midband:
These radios are fairly rare and fairly useless to USA amateurs - but
some countries have a 4 meter amateur band. In the USA the
66-72 MHz range is television channel 4, the 72‑76 MHz
frequencies are used as "Operational Fixed / Repeater" frequencies
(essentially commercial point-to-point links), 76‑82 MHz is
television channel 5, 82-88 MHz is television channel 6, and
88‑108 MHz is commercial FM broadcast (which is 76‑90 MHz in
Japan).
VHF ranges:
- 136-150.8 MHz - Government/military surplus and
usually referred to as the government split. Programs up on amateur,
MARS or CAP channels with no problems.
- 146-162 MHz - This will cover the entire USA 144-148
MHz amateur band with modifications to the RSS.
- 146-174 MHz - Wideband split.
- 148-174 MHz - This is a wideband split only found in
low power H33 series Sabers.
- 157-174 MHz - This is the most useless VHF split to
an amateur, but they make good trading radios or parts radios. Also,
these can be changed to a more desirable band split by swapping the
modules. For example if you had a Saber III on this split and a Saber I
on 136‑150 Mhz you could swap the modules around and end up with a
136‑150 Mhz Saber III and a 157‑174 MHz Saber I you could
sell to someone on a commercial channel (perhaps on eBay).
UHF ranges:
- 403-433 MHz - Government / military surplus and
usually referred to as the government split. These are useless for USA
ham use as they will not cover the 440-450 MHz (repeater) segment
of the amateur band. The highest I got one to program and operate was
436 MHz. Beyond that the VCO would unlock and there is no easy way
to fix it. (Note from WA6ILQ: Sabers have been seen as low as
395 MHz but I have no technical info on them.)
- 440-470 MHz - The absolute perfect USA amateur split
radio!
- 458-490 MHz - This split will not extend down to the
ham band, making it a trading radio or a parts radio.
- 482-512 MHz - Again, not useful to an amateur...
Another trading radio or a parts radio.
Using a frequency counter could give you a possible idea of what
frequency range it is, but it's still only a starting point. For
example, if the radio was programmed anywhere between 144-150 MHz it
could be a 136-150, a 146-162 or a 146-174 split radio, since all three
splits cover that range. However, if you find only frequencies in the
150-160 range then chances are it would have to be a mid or high split.
Ebay descriptions can be deceiving... I have seen low
split radios with something in the 154 range programmed in... Yes it
worked, but the radio was a low split and receive sensitivity was very
poor. Also, some ebay sellers have realized that the low split is less
valuable than anything else, and desirable only to hams and CAP and
have started slamming them with mid or high split codeplugs. The radio
will take it because it doesn't know any better until the VCO unlocks,
so they will put a mid or high split codeplug in the radio and then
program it with a few channels that relate to its original bandsplit so
the VCO stays locked. That gives you the appearance of a mid or high
split radio, and it works, until you reprogram it and the VCO unlocks.
Saber Modules:
Think of the Saber radio as a computer: it's a main
board with everything plugged into that. The Saber has five basic
modules and a 16.8 MHz Reference Oscillator plugged into the main
board. A Secure-Capable radio will either have a Bypass module or some
sort of a Secure module installed as well. The Bypass module routes
transmit audio in place of the Secure module. If you end up with a
secure-capable radio that transmits but has no transmit audio, check to
see if there is a bypass or secure module installed (they are
frequently removed before being surplused). If it is missing a simple
wire jumper can be installed to simulate a bypass module.
I have accumulated some of the part numbers and
descriptions of the various modules. If you have any changes or
additions please let
me know; some of the manuals are out of print and no longer available.
I will provide the module numbers and splits as printed in the manuals
that I own. The "x" on the end of each part number stands for the
revision letter of the part: A, B, C, D, etc.
- Reference Oscillator = This is the same component for
the entire series. VHF and UHF all use the same crystal. Also, the
HT600 used the same crystal in case you get a Saber that has had this
removed to disable the radio before sale; not too uncommon a practice.
- NXN6268x, 16.8 MHz. Standard for the series,
however a "XN6269A" was found in the 74-88MHz radio. We suspect that
the rubber stamp at the factory didn't make full contact and left off
the leading "N".
- Synthesizer: The radio's VCO comes in various splits.
The VHF radios use two different splits to cover the entire range,
whereas the UHF has four! I have not been able to locate the part
number of the mid-band synthesizer.
- Unknown = 66-84 MHz
- NLC6241A = 74-88 MHz
- NLD8201x = 136-150.8 MHz
- NLD8210x = 146-178 MHz Used in 146-162, 148-174,
and 157-174 splits.
- NLE9461x = 403-433 MHz "Government" split
- NLE9462x = 440-470 MHz
- NLE9463x = 460-490 MHz
- NLE9464x = 482-512 MHz
- Receiver and 5-Pole Front End Filter: These two
components make up one module: the 5-pole filter is the bottom half of
this module and the receiver is the top half. On the VHF radio, the
same receiver is used for the entire range; the 5-Pole filter
determines the sub-split in use.
- Receiver
- Unknown = 66-84 MHz
- NLC6231A = 74-88 MHz
- NLD8180x = 136-174 MHz. Used for all of the
VHF sub-splits.
- NLE9431x = 403-433 MHz. Govt. split
- NLE9432x = 440-470 MHz.
- NLE9433x = 460-490 MHz.
- NLE9434x = 482-512 MHz.
- NLE9501x = 403-433 MHz. 12.5khz
spacing only!
- NLE9502x = 440-470 MHz. 12.5khz
spacing only!
- 5-Pole Filter
- ???????? = (I don't think the 5-pole filter
module was used in the 66-88MHz radio)
- NFD6091x = 136-150.8 MHz.
- NFD6092x = 146-162 MHz.
- NFE????x = 403-433 MHz.
- NFE????x = 440-470 MHz.
- NFE????x = 460-490 MHz.
- NFE????x = 482-512 MHz.
- 2-Pole Filter = A separate module present in VHF
radios between the receiver and FDS. The UHF radios do not have this
separate filter module.
- Unknown = 66-84 MHz
- NLC6382A = 74-88 MHz
- NLD6111x = 136-150.8 MHz.
- NLD6112x = 146-162 MHz.
- NLD????x = 146-174 MHz.
- Filter, Detector, Switch (FDS) = Responsible for
steering RF between the receiver and transmitter and also selecting the
internal and external antenna connections. (A fancy name for a
solid-state T/R relay!)
- Unknown = 66-84 MHz
- NLC6251A = 74-88 MHz
- NFD6131x = 136-150.8 MHz
- NFD6132x = 146-178 MHz. Used in 146-162, 146-174,
and 148-174 split radios.
- NFE6061x = 403-470 MHz.
- NFE6062x = 470-512 MHz.
- Power Amplifier = The PA modules are where you can
move around a bit. You can put a wide split PA in a narrow split radio
since it still covers the range needed. Also, you can put a low split
PA in a mid split radio to give better performance at the bottom end of
the ham band, provided you will not need full transmit power above 150
MHz, this allows you to have a greater receive bandwidth while
maximizing transmit performance on the ham band.
- Unknown = 66-84 MHz
- NLC6261A = 74-88 MHz
- NLD8121x = 136-150.8 MHz High Power 6W
- NLD8773x = 146-174 MHz High Power 6W
- NLD8122x = 146-162 MHz High Power 6W
- NLD8133x = 146-178 MHz Low Power 2.5W
- NLD8123x = 157-174 MHz High Power 6W
- NLE9471x = 403-433 MHz High Power 5W
- NLE9472x = 440-470 MHz High Power 5W
- NLE9473x = 460-490 MHz High Power 5W
- NLE9474x = 482-512 MHz High Power 5W
- Secure Module
- NTN4711 Non-Smartnet DVP
- NTN4712 Non-Smartnet DES (replaced with NTN1072)
- NTN4713 Non-Smartnet DVP-XL (replaced with
NTN1074)
- NTN4714 Non-Smartnet DES-XL (replaced with
NTN1071)
- NTN4720 Secure BYPASS module - can be either
silver dummy or plastic
- NTN5832 Smartnet DVP
- NTN5833 Smartnet DES (replaced with NTN1072)
- NTN5834 Smartnet DVP-XL (replaced with NTN1073
*cancelled)
- NTN5835 Smartnet DES-XL (replaced with NTN1071)
- NTN5755 Multikey DVP (DVP = Digital Voice Privacy
or Digital Voice Protection)
- NTN5756 Multikey DVP-XL
- NTN5757 Multikey DES (DES = Data Encryption
Standard)
- NTN5758 Multikey DES-XL
- NTN5759 Multikey DVI-XL (DVI = Digital Voice
International)
- NTN5760 OTAR DVP (OTAR = Over The Air Rekeying)
- NTN5761 OTAR DVP-XL
- NTN5762 OTAR DES
- NTN5763 OTAR DES-XL
- NTN7288 Multikey DVP (replaced with NTN5755)
- NTN7289 Multikey DVP-XL (replaced with NTN5756)
- NTN7290 Multikey DES (replaced with NTN5757)
- NTN7991 Multikey DES-XL (replaced with NTN5758)
- NTN7992 Multikey DVP-XL (replaced with NTN5759)
- NTN7298 FASCINATOR (Controlled Cryptographic Item
- CCI)
Under the Hood:
Into the radio...


Here is is with the modules identified

The secure capable radio is longer and uses a different motherboard and
frame

The flip side of the above picture
About Motorola's
Programming Software / Hardware:
The RSS and RIB
Motorola's Radio Service Software, which is
needed for programming and alignment of the Saber line of handhelds can
be licensed and obtained on disk by calling Motorola Parts at
800-422-4210. To purchase the software license you must agree to and
sign a license form attesting that you will not resell the software,
distribute the software or otherwise allow it to be used by unlicensed
users. And the software is not cheap. Repeater-builder has a separate
web page with several in-depth articles on RSS and on the RIB,it can be
found from the Motorola page. A copy of the Motorola RSS license is
linked off that page.
The Part Number for Saber RSS is RVN4002K.
Version 07.01.00 is the newest as of the writing of this document, with
a release date of 12/13/1995. The Part Number for the Saber RSS manual
is 6881062C95. The Systems Saber RSS is RVN4051F version R04.00.00, and
the Systems Saber RSS Manual is part number 6881060C25. The Part Number
for the license form you will be required to sign is RPX4719G. Anyone
programming Sabers needs to have a copy of the appropriate programming
manual.
Note that the Saber, Astro Saber and System
Saber III RSS packages are *NOT* compatible. You need to use the
software specified for your radio. System Sabers have 8K of available
memory that you assign as needed. Once you use all 8K, you are out of
room for anything else. ALL of the programmed information goes there:
Channel frequencies, scan lists, PL codes, DPL codes, MDC codes, single
tone and other signaling all go in that 8K. Yes, that's what was
available in a single EEPROM chip at the time the radio was designed,
but 8K is really NOT enough for what this radio can or should do, and
nobody has come up with a mod to replace the memory chip with a larger
one, or to piggyback a second one onto the board. And if you could pack
16K into a radio you'd still have to convince the RSS to use it.
The hardware required to program a Motorola
Saber includes:
- A low end computer running MS-DOS (486
DX50 - i.e. maximum clock speed of 50MHz, with all cache memory
disabled), and using a faster computer WILL turn good radios
into bricks). Don't even think of running ANY version of Windows - this
has to be a straight DOS computer. We are NOT kidding here. This is one
case where slower is better, and going to a 486-33 or even a 386
wouldn't hurt. The required characteristics of the programming computer
are described in depth on the RSS pages mentioned above. The newest
revision of the Saber software is still too old to have the speed fix
that is mentioned there applied.
I repeat, find an old DOS computer no faster than 50mhz and with a real
COM (serial) port. Desktop or laptop, it doesn't matter, except that
many laptops do not give you the option to switch off the cache memory.
- A Programming Radio Interface Box (the
"RIB", Part Number RLN4008x (where "x" is a letter), or equivalent
replacement).
- The Saber-specific programming cable to
go from the RIB to the radio (Part Number RTK4203C or equivalent
replacement). If you have an extra speaker-mic connector (the one that
goes on the side of the radio) you can make this yourself from that
connector, a length of three-conductor cable, and a DB25F connector
(and a shell for it).
There are many people manufacturing RIBs and
programming cables that work just as well as Motorola's branded
equipment. Be sure that the RIB you purchase is guaranteed to be 100%
compatible with Motorola's RLN4008.
The sections of the radio programmed by the
RSS are the Internal and External COPE and the CORE Options.
- COPE = "Control of Peripheral
Electronics" - This is the subsystem which is the front shield assembly
on Saber IIs and IIIs. It consists of extended memory, display
electronics, keypad functionality, and the DTMF generator. A Saber I
does not have a COPE processor because it does not have the front
display board.
- CORE = "Control of Radio Electronics" -
controls the actual radio transceiver itself. The CORE number is the
main board processor / firmware version.
Changing the Band Limits
in the RSS:
The RSS can easily be hex-edited to allow
out-of-band programming, rather than editing each channel individually.
For example, on the 146-162 MHz and 148-174 MHz splits I
moved the bottom end to 144 MHz. However, if you read a radio that
is programmed as a 146-162 MHz radio it will default to such in
the RSS. You have to create a new codeplug from scratch by selecting
the newly available 144-162 MHz or 144-174 MHz splits, then
filling it with the frequency, tone, etc, information. Once the radio
has been loaded with the new codeplug (i.e. programmed with the new
split) it will continue to be read as such, so you only have to do this
once.
Upgrading Sabers to
Support Additional Features:
The CORE firmware is run by the radios
68HC11 series microprocessor. Options that are determined by the CORE
version (such as QuickCall-II decode, MDC600 or MDC1200 Signaling,
StatAlert and a plethora of other options that most Amateurs have no
interest in, as well as the radio’s scan capability) can not typically
be upgraded without replacement of the CPU board. This is not usually
cost effective as the CPU boards are around $100 US. The common core
versions for Sabers are 5D, 6D and 8D. A 5D is a more basic CORE, a 6D
is capable of QC-II Decoding and Repeater Access Tone Encoding and an
8D CORE is capable of the previous options and StatAlert. There may be
additional options but these are the differences I'm aware of.
A Saber II can be upgraded to a Saber III by
replacing the front panel with one that has a keypad, the DTMF Encoder
and 8k of memory. The process is rather intensive and is not for the
faint of heart as it requires deliberate corruption of the internal
codeplug (flash memory contents) in order to convince the radio to
accept programming with a Factory ID that differs from what it believes
it should be. A separate tutorial will be written on this topic
detailing this process in the near future.
Adding Channels to a
Saber:
Method 1 (Expansion from 12 channels
to 15 channels):
This is accomplished by removing the knob
cover from the channel selector switch, removing the tabbed cover from
the switch post, removing the metal stop tab ring from the switch by
turning the radio over and tapping it on the desk and replacing the
tabbed cover to the switch post and snapping the knob cover back into
place. You must then add the additional channels to the codeplug file
in your RSS Archive directory.
This method will allow 15 channels in a
single zone but be warned, do not fill all of the zones with 15
channels. The codeplug memory does not allocate a chunk of RAM for each
channel and N times a chunk for a zone - each channel takes up a chunk
and if you run out of memory you will end up with weird things
happening in the radio such as duplicate channels across zones that
look just fine on the RSS screens.
Method 2 (Conversion from a Saber I
to a Saber IE):
A Saber IE is the same as a Secure Saber I
except the clear / coded switch is used to switch between two
zones of 12 channels. It also has an additional memory board in the
front shield assembly. The part number for the board and connecting
cable kit is NTN5686A. You would then create a Saber IE codeplug and
flash it to the radio.
Manuals:
Useful manual part numbers:
- 68-81044C05
Saber Theory / Maintenance Manual
- 68-81065C60 Saber I Instruction
Manual
- 68-81065C65 Saber II and III
Instruction Manual
- 68-81048C40
Saber III Operators Manual
- 68-81060C10 System Saber, Saber
ATS Instruction Manual
- 68-81067C10
System Saber, VHF Service Manual
- 68-81066C95
System Saber, UHF Service Manual
- 68-81076C05 Astro Digital Saber
Basic Service Manual
- 68-81076C10 Astro Digital Saber
Detailed Service Manual
- 68-81072C75 Astro Digital Saber I
VHF, UHF, 800 Operators/User Manual
- 68-81072C80 Astro Digital Saber
II, III VHF, UHF, 800 Operators/User Manual
- 68-81098E85 Astro Digital Saber I
VHF, UHF, 800 Service Software Manual
- 68-81060C10C
Systems Saber operating instructions
Accessories / Antennas:
Saber
Parts List and Accessories
Heliflex antennas:
- 85-05816K22 136-150MHz
- 85-05816K21 146-162MHz (will work
OK down to 144MHz)
- 85-05816K23 157-174MHz
- 85-05816K24 403-433MHz
- 85-05816K25 440-470MHz
- 85-05816K26 460-512MHz
Older antennas:
- VHF 136-151MHz Yellow paint
dot
- VHF 151-162MHz Black paint
dot
- VHF 162-174MHz Blue paint
dot
- UHF 403-435MHz Red paint
dot
- UHF 435-470MHz Green paint
dot
- UHF 470-512MHz Black paint
dot
Saber Motor Vehicle
Adapter (MVA), aka Saber Vehicular Adapter (SVA)
SVA Connector Pinouts
Interface Connector
Pin Description
1
Self-test (gnd on power-up)
2,3 V-
5
High on squelch open
11,24 V+
20 Audio+
21 Audio-
Power
Red + Power
Black - Power
Yellow Ignition Sense (disables
battery charger)
Green Headlight Sense (turns
on panel lights in MVA)
LED Function
Red LED Charging
Green LED Charging Complete
Microphone Connector Pinout
Here is the pin out for the SVA Mic input. Pin 1 is to the right as you
look into the connector of the SVA. Color codes relate to microphone
wire color.
Pin
Color Description
1
Red +5V
2
Purple Clock
3
Wht Data
4
Blk Gnd
5
Org Mic
6
Grn PTT
7
Yel LED (Front panel
lighting)
8
Blu Keypad
Other SVA Information
Manuals
SVA Operating Instructions 68P81061C60
SVA Instruction Manual 68P81068C70
Microphones
Mobile (Palm) HMN1035A
Compact (Mini-Mobile) HMN1056A
SVA Display/Keypad (Saber) HMN6150A
SVA Display/Keypad (Systems Saber) HMN6169A
The question has come up many times, "What's the difference between an
Astro Saber SVA and a normal SVA?".
Answer, not much. There's that Astro label on the front panel, and the
cutout on the top rim of the housing that allows you to get a better
grip on the radio top controls. The only other difference is that the
connector body assembly is different and the connector is fully
populated with 12 contacts, while on a standard SVA there are only 7
installed contacts. The main circuit board is apparently the exact same
item in both models.
The part number for the Astro SVA is NTN7227BSP01. Other revisions
exist, in which case the B in that part number is replaced with a C or
a D which is the most current version.
The part number for a standard SVA is NTN5487A.
There is a decal on top of the Astro SVA that gives the following
useful data:
"CAUTION: Inserting the wrong radio may Damage the Adapter. This
Adapter works with ASTRO Digital SABER, SABER and Systems SABER radios
manufactured on or after September 1, 1994. These radios can be
identified by their serial numbers: The 5th character (year) must be
"U" or later (V, W, X, Y, or Z). If 5th character is U, the 6th
character (month) must be "S" or later (T, U, V, W, X, Y, or Z). Use
Adapter ONLY with approved radio models. For radios manufactured prior
to this date please contact: Motorola at 1-800-523-4007 (ext. 112) for
upgrade details."
So, later Saber (non-Astro) radios apparently can be used with an Astro
SVA...hmm. I would not be surprised to find out that the modification
is merely a new housing for Sabers and Systems Sabers that reshuffle
the connector assignment. It's the way I'd do it. That suggests that
Astro speaker-mics might work on newer Sabers.
So there it is...an Astro SVA is a regular SVA with a new connector
body, an Astro decal, and a notch filed in the top of the housing...!
Notes on programming
Sabers out of band.
Motorola RSS writes a dictionary file RPFDATA.DCT that contains the
model and option numbers, and an eight character filename for the
actual programming file. I haven't figured out the whole format of this
file, but programming out of band frequencies is easy. This has been
tried with UHF and VHF Sabers, don't know how far it will go but the
format seems the same for both bands.
1. Program all the channel data, alphanumerics, scan, etc. using a
place-holder frequency near the band edge you want to go beyond.
2. Store this as a personality file, note in RPFDATA.DCT which file it
is.
3. Open the file in an editor (doesn't need to be hex, it's all ASCII
upper-case letters and numbers, but you do need to be able to display a
full 80 character line) and look for the lines that begin with S2. A
typical line would be
S20101081B3200081B32000000...
if you separate it out into the components I've identified so far
S2 01 01 081B3200 081B3200
(a) (b) (c) (d) (e)
(a) means it's a channel entry
(b) means channel {01..0C} up to 12 channels
(c) means zone {01..0A} up to 10 zones
(d) is receive frequency, in Hz, converted to ASCII representation of
hex (081B3200 = 136000000 Hz)
(e) is transmit frequency
4. So you can enter the new transmit and receive frequencies yourself,
by converting the frequency in Hz to ASCII hex (146.94 MHz = 08C22060).
Plug them in instead of the place-holder frequency you entered in the
RSS.
5. Save the file and read it into the RSS. Program the radio *without
looking at the file in the RSS* (although you can print it without the
RSS complaining, don't try to look at it in the channel data window or
it will be reset to discard the out-of- band frequencies).
6. If you don't want to calculate the frequencies in hex, just set up a
different RPF using the band split your frequencies are in, read off
the numbers from that file, and plug them into the file for your radio.
Note that these radios don't really like to go all that far out of
their rated bandsplit. +/- 5MHz is typical.
--------------------------------------------------------------------------------
What are the COPE and CORE?
If you've messed with Saber's, you have seen references to COPE and
CORE. These are as follows:
COPE: Control Of Peripheral Electronics
CORE: Control Of Radio Electronics
The CORE is the main radio system itself. The COPE is the subsystem
which is the front shield assembly on Saber II's and III's. It consists
of extended memory, display electronics, keypad functionality, and the
DTMF generator, essentially.
A Saber I does not have a COPE processor.
--------------------------------------------------------------------------------
Saber Upgrading
CORE version is mask programmed in the CPU so while Saber upgrades are
possible (they can be done in order to have QC II in older Saber2s),
they are neither cheap nor easy as the new processor is around 100
bucks dealer cost and requires a degree of skill in SMT board repair to
swap out.
On the other hand there are a number of other features which can be
enabled via RSS without any hacking at all and some Saber bandsplits
are quite wide indeed! (when I get info on what, I'll let you know)
This should probably be tried only on those Saber II's with an 8k logic
board. These are often only crippled Saber III's and by converting
them, you may be able to get all kinds of features likes scan, extra
channels, etc.
To determine if you have the 8k logic board, you need to observe the
following:
Take apart the radio and look at the display circuit board. If there
are five chips, it's an 8K board. If there are only four chips, it's a
2K board. And no, the fifth chip (a DTMF generator) can not be placed
on the 2K board, and an 8K chip can't replace the 2K chip on that board
because there aren't solder pads for the DTMF chip, and the 2K board
lacks the address line necessary to make an 8K chip work.
Also, an 8K board/shield will have a different speaker/microphone flex
circuit which includes a 3 pin connector that connects to the display
board (to provide a way to get the DTMF tones from the chip to the
radio's circuits.
If you are sure you have an 8k board and want to proceed, read on...
this next one isn't for the faint of heart...
WARNING!!! This modification could do permanent damage to the code
plug, so use it at your own risk!
Start the Saber software
Read the radio
Program the data right back into the radio,BUT, when the first 2 or 3
dots appear on the first line, turn the radio off.
Hit F2 when the error comes up
Turn the radio on , the display should read "ERR 0 81"
Read the radio again, press F2 after each line comes up with a checksum
error
Create a radio personality file (Main Menu - F4 - F3) for the radio you
want it to be (same power level and RF sub-band)
Program the new data into the radio
Reading and programming the radio is back to normal
Thats it!
WARNING!!! This modification could do permanent damage to the code
plug, so use it at your own risk!
Saber Series Error
Codes
--------------------------------------------------------------------------------
In the Saber display radio models, the radios will display error
messages under two conditions:
When the radio is turned on, and there exists an error condition in the
radio, the radio will display an error message of the form ERR x yz for
approximately 2 seconds before attempting to show the default display
which is either the channel name or number (in a channel only radio) or
the zone and channel names or numbers (in a zone radio).
The error message will also be shown on the display and remain on the
display until the radio is turned off (or the radio is reset by the
Saber RSS) under the following conditions:
With the radio turned off, press and hold the MENU, SELECT and ENTER
keys simultaneously
Turn the radio on while still holding the 3 keys pressed down
For a COPE 4 (A&B radio): The display should show a message of the
form ERR x yz. This message should remain on the display even when you
release the 3 keys. If the message does not remain on the display or
does not appear at all, then you have not pressed the keys
simultaneously. You will have to turn off the radio and repeat the
procedure until the message remain on the display.
For a COPE 5 (C radio): A full eight-character display should appear
for this radio unless there really is an error.
The following paragraphs will describe the meaning of the error
messages. The error message has the form ERR x yz, where x is the
address of the device with the error and yz is the error condition.
x can take on one of 3 values:
0 - CORE microprocessor
1 - COPE microprocessor
2 - external EEPROM on display board
yz can take on the following values (note that these values are
hexadecimal numbers):
00 - no error
01 - internal EEPROM checksum error. This means that the data in the
internal EEPROM could be corrupted or the checksum value itself could
be wrong. If several reprogramming attempts do not eliminate this
error, then the related microprocessor must be replaced. Applicable to
COPE and CORE.
02 - RAM read/write error. This means that an error was detected while
the processor was attempting to read from, or write into, the
microcomputer RAM (random access memory, or scratchpad memory). This
indicates that the related microprocessor is faulty and should be
replaced. Applicable to COPE only.
04 - external EEPROM checksum error. This means that the data in the
external EEPROM could be corrupted or the checksum value itself could
be wrong. If several reprogramming attempts do not eliminate this
error, then the external EEPROM must be replaced. Applicable to COPE
only.
08 - blank internal EEPROM. This means that the internal EEPROM is
blank (all locations contain hexadecimal value FF). Reprogram the
radio. If unsuccessful, replace the related microprocessor. Applicable
to COPE only.
10 - ROM checksum error. This means that the read-only-memory (ROM) of
the related microprocessor has an error. Replace the faulty
microprocessor. Applicable to COPE only.
20 - Hardware error. This means that the external EEPROM is faulty.
Replace the external EEPROM and reprogram the radio. Applicable to COPE
only.
The above listing contains the basic errors that can be displayed to
the user. However, if more than one error occurs simultaneously, the
error message is simply an addition of the values of the errors
involved. A few examples will clairify this. Note that since the error
values are hexadecimal, the addition will also result in hexadecimal
values. Some examples of common error messages are given below.
Error message examples:
ERR 0 X1 - The CORE micro. has an internal EEPROM checksum error (x may
be any value).
ERR 1 01 - The COPE micro. has an internal EEPROM checksum error.
ERR 1 03 - The COPE micro. has an internal EEPROM checksum error as
well as a RAM read/write error.
ERR 1 0B - The COPE micro. has a RAM read/write error as well as a
blank internal EPROM and internal checksum error (01 + 02 + 08 = 0B in
hexadecimal).
ERR 1 24 - There is an external EEPROM and hardware error as well as an
external EEPROM checksum error.
ERR 1 30 - The COPE micro. has a ROM checksum error and the external
EEPROM has a hardware error (10 + 20 = 30 in hexadecimal).
ERR 1 00 - The radio has no errors.
ERR 1 0D - The display that comes up for a COPE 5 radio when the
programmer starts writing to the radio.
--------------------------------------------------------------------------------
ERR 081 is easy to recover from.
first you need the following
1. original saber programming cable, this is the cable with the 12 pin
cylindrical connector.
2. Motorola RIB box, using anything else and you could find yourself in
an endless loop of crashing and recovering the radio.
NOTE: If you don't have the original programming cable then you can do
this with a toggle switch connected to whatever UDC connector you have.
3. fresh battery for RIB.
Procedure:
First make up a simple codeplug for the exact model radio that you
have.
Don't try this with a fully channelized codeplug, use a minimal 1 or 2
channel freshly made codeplug using the RSS. Just a simple codeplug
with everything else disabled otherwise you could crash the radio once
it's revived.
Basically with this procedure You will place a short across the radios
OPT SELECT pin while holding the radios PTT and turning on the radio
while holding in PTT. Then continue holding the PTT in and remove the
short from the OPT SELECT pin then release PTT. Finally program in a
simple codeplug.
STEPS REQUIRED
1.A if you have the original saber prog cable with the cylindrical
connector place a toggle switch across pins 3 and 5 of the cylindrical
connector.
1.B If you don't have the original saber prog cable then follow this
step: place a short , using a toggle switch, from the radios UDC
(Universal device connectors) PIN 7 to ground.
You can get ground from the ring on the external antenna connector on
the radios UDC
2.0 Once you have PIN 7 of the UDC shorted using either step 1.A or 1.B
hold in the radios PTT and turn the radio on while still holding in the
radios PTT.
3.0 Continue to hold in the radios PTT and open the toggle switch to
remove the short on the OPT SELECT pin.
4.0 Release the PTT.
5.0 Program in the freshly made minimal codeplug mentioned at the
beginning of this recovery procedure.
Once the radio is alive then you can go back and add some more channels
and turn on some options such as scan etc.
But I recommend going slowly, add some zones and channels. but don't
fill the radio up with all possible channels that it is capable of at
once.
Just Program in a few zones and 1 or 2 scan lists, if you use scan, and
program the radio.
If all goes fine then add some more zones and channels in small steps.
This has worked for me every time I crashed a radio.
Astro
Saber
The available bandsplits
(per the RSS) are:
VHF 136-174 (1W/5W), 174-178 (1W/4W)
VHF1 136-162
VHF2 146-174
VHF3 136-174
VHF4 136-174
UHF-LO403-470 (1W/4W), UHF-HI450-512 (1W/4W) 512-520 (1W/3W)
UHF1 403-433
UHF2 438-470
UHF3 450-482
UHF3.5 450-488
UHF4 482-512
800/900 (3W)
851.010-868.985 RX/806.010-868.985 TX
935.010-940.985 RX/896.010-940.985 TX
--------------------------------------------------------------------------------
Astro Saber Error Codes
Here's a list of the error codes that may be displayed on your Astro
Saber, and their meaning:
Error Code Description Action
01/02 External EEPROM Checksum Non-Fatal Error Reprogram the Codeplug
01/81 Host ROM Checksum Failure Reprogram the FLASH Memory
01/82 External EEPROM Checksum Failure Reprogram the Codeplug
01/84 SLIC Initialization Failure Turn the radio off then on
01/88 MCU (Host uC) External SRAM Failure Turn the radio off then on
01/90 General Hardware Failure Turn the radio off then on
01/92 Internal EEPROM Checksum Failure Reprogram the Codeplug
02/81 DSP ROM Checksum Failure Reprogram the FLASH Memory
02/82 DSP External SRAM1 Failure U402 Turn the radio off then on
02/84 DSP External SRAM2 Failure U403 Turn the radio off then on
02/88 DSP External SRAM3 Failure U414 Turn the radio off then on
02/90 General DSP Hardware Failure
(DSP startup message no received correctly) Turn the radio off then on
02/A0 ADSIC Checksum Failure Turn the radio off then on
09/10 Secure Hardware Failure
09/90 Secure Hardware Failure
001 Synthesizer Out of Lock Reprogram the Codeplug/Replace RF Board
002 Selected Mode/Zone Codeplug Checksum Error Reprogram the Codeplug
Note: If the corrective action does not fix the failure, replace the
controller board.
--------------------------------------------------------------------------------
Astro Saber Test Mode
Getting into test mode is the same as most of the newer handheld
radios. To get into test mode, do the following:
Turn the radio on
Within 10 seconds after "Self Test" is complete, press the Side Button
3 five times in succession
The radio will show a series of displays that will give information
regarding various version numbers and subscriber specific information.
| Name of Display |
Description |
Appears |
| SERVICE |
The literal string indicates the radio has
entered test mode |
Always |
| Radio Host Software Version |
The version of radio firmware is displayed |
Always |
| DSP Software Version |
The version of firmware being used by the DSP |
Always |
| EMC Secure Version |
Version of the encryption hardware |
When the radio is secure equipped |
| Encryption Type 1 |
Type of encryption being used |
When the radio is secure equipped |
| Encryption Type 2 |
Type of encryption being used |
When the radio is secure equipped |
| Model Number |
The radio’s model number as programmed in the
codeplug |
Always |
| Serial Number |
The radio’s serial number as programmed in the
codeplug |
Always |
| ROM Size |
The memory capacity of the flash part |
Always |
| FLASHcode |
The FLASHcodes as programmed as part of the
radio’s codeplug |
Always |
NOTE: All displays are temporary and will expire
without any user intervention. If information is longer than the
physical length of the control-head display, the information will wrap
around to the next display. After the last display, "RF TEST" will be
displayed.
Press Side Button 1 to stop the displays and put the
radio into Control Top and Keypad test mode. The test mode menu "CH
TEST" will be displayed.
Note: Each press of the Side Button 1 will toggle
between CH TEST and RF TEST.
FLASHcode
Decoder Ring
• A FLASHcode looks like this:
000000-000000-0
Digit 12 Digit
1 Checksum
• Each digit is a Hex representation of 4
bits
B4 B3 B2
B1
• B4 has a weight of 8, B3 is 4, B2 is 2, B1 is 1, so
if B4 and B2 in a digit are both enabled, that digit value is 10 or “A”
(in Hex).
• The last digit is a checksum that is dependent on
the value of the previous 12 digits.
• The definitions of the features that each bit
represents are common for all subscribers* that support FLASHport (MTS,
MCS, ASTRO Saber, ASTRO Spectra, ASTRO XTS3000, ASTRO XTS3500). ALL
subscriber products do not support ALL features, however. Consult
price pages for options available for a particular subscriber
• The feature sets for Jedi series portables
(MTS-2000, etc) are slightly different, and annotated as such.
• If two option numbers are separated by a slash,
they represent first portable, then mobile options unless
• otherwise specified.
• Digit 12
B4 H15/H44
H15 is Astro Data/ H44 is VRM500
for MCS2000 only
B3 – H14/G114
Digital ID Display
B2 – H260
250 Modes on W3 and W4 (150 or
160 channels
for MTS2000)
B1 – Q806/G806
ASTRO Digital CAI (IMBE) Operation
Digit 11
B4 – H868/W298
Conventional Multikey and Analog Conventional MDC OTAR
B3 – H869/W969
Multikey Operation
B2 – H451
GE STAR
B1 – H101, G101, H169 Conventional Repeater Access
(Analog Operation Only)(MDC1200 or Singletone)
Digit 10
B4 – H46
One Touch
B3 – H45
SmartNet Type I
B2 – H44/H29(MTS) trunk Data
Operation /H29 150 modes (mts2000)
B1 – G170/H43
Remote Monitor and Radio Trace
Digit 9
B4 – H42
Trunked variable talkgroup ID
B3 – H41
Trunked badge ID
B2 – H40
RAC Software Option (Repeater Access, Single Tone)
B1 – H39
Selective Radio Inhibit
Digit 8
B4 –
Future System Package
B3 –
Future System Package
B2 –
Future System Package
B1 –
Future System Package
Digit 7
B4 – H38/G51
SmartZone Operation
B3 – H37/G50
SmartNet Operation
B2 – H36
StarSite Operation
B1 – H35/G48
Conventional Operation
Digit 6
B4 – H29
Single key Software Encryption
Option
B3 – H07
Multikey software encryption
B2 – H915
International Radio (Internal Option)
B1 – Q181
StatAlert (MDC1200) Features
Digit 5
B4 – Q351
MODAT
B3 – Q352
Soft ID
B2 – Q353
OTACR (Over The Air
Channel Reassignment)
B1 – Q354
OTACS (Over The Air
Channel Steering)
Digit 4
B4 – Q190
Channel change ID
B3 – H270/H738
MDC Status Message
B2 – Q241
ASTRO Ready (Analog Operation Only)
B1 – W947/Q947
APCO Packet Data
Digit 3
B4 – G182
Enhanced Radio Call Protocol
B3 – Q173/G173
SmartZone OmniLink Operation
B2 – Q387
Conventional voting scan
B1 – Q471
(MCS only) messaging (MDC on
trunking)
Digit 2
B4 – Q361/G361
ASTRO 25 Digital Trunking Option
B3 – W357
Scan with VRS
B2 – W995
zone/mode NJSP
B1 –
Future
System Enhancement
Digit 1
B4 –
Future System Enhancement
B3 –
Future System Enhancement
B2 –
Future System Enhancement
B1 –
Future System Enhancement
Other notes: Option Q241, Astro Ready, should actually be named
'Delete all Astro Modes' which
is an accurate description of what it does. A radio with this option
does not have Astro digital mode options!
IMBE radios can NOT have software encryption.
With IMBE radios, MODAT can work on portables, not on mobiles.
You may also want to check out theinteractive
flash code decoder version .
Model Number Chart
| Type of Mount |
Model Series |
Frequency Band |
Power Level |
Physical Package |
Channel Spacing |
Primary Operation |
| D Dash Mount |
04 Astro Series |
A Less than 29 MHz |
A 0-0.7 W |
A RF Modem |
1 5 kHz |
A Conventional/Simplex |
| M Motorcycle Mount |
|
B 29.7-35.99 MHz |
B 0.7-0.9 W |
B RX Only |
2 6.25 kHz |
B Conventional/Duplex |
| T Trunk Mount |
|
C 36-41.99 MHz |
C 1.0-3.9 W |
C Standard Control, no Display |
3 10 kHz |
C Trunked Twin Type |
| H Hand-Held/Portable |
|
D 42-50 MHz |
D 4.0-5.0 W |
D Standard Control, with Display |
4 12.5 kHz |
D Dual Mode Trunked |
| |
|
F 66-80 MHz |
E 5.1-6.0 W |
E Limited Keypad, no Display |
5 15 kHz |
E Dual Mode Trunked/Duplex |
| |
|
G 74-90 MHz |
F 6.1-10 W |
F Limited Keypad, with Display |
6 20/25 kHz |
F Trunked Type I |
| |
|
H Product Specific |
G 10.2-15 W* |
G Full Keypad, no Display |
7 30 kHz |
G Trunked Type II |
| |
|
J 136-162 MHz |
H 16-25 W* |
H Full Keypad, with Display |
9 Variable/Programmable |
H FDMA Digital Dual Mode |
| |
|
K146-178 MHz |
J26-35 W* |
J Limited Controls, no Display |
|
J TDMA Digital Dual Mode |
| |
|
L 174-210 MHz |
K 61-110 W* |
K Limited Controls, Basic Display |
|
K Single Sideband |
| |
|
M 190-235 MHz |
|
L Limited Controls, Limited Display |
|
L GPS Capable |
| |
|
P 336-410 MHz |
|
M Rotary Controls, Standard Display |
|
M ACSB |
| |
|
Q 403-437 MHz |
|
N Enhanced Controls, Enhanced Display |
|
P Programmable |
| |
|
R 438-482 MHz |
|
P Low Profile, no Display |
|
|
| |
|
S 470-520 MHz |
|
Q Low Profile, Basic Display |
|
|
| |
|
T Product Specific |
|
R Low Profile, Basic Display, Full Keypad |
|
|
| |
|
U 806-870 MHz |
|
|
|
|
| |
|
V 825-870 MHz |
|
|
|
|
| |
|
W 896-941 MHz |
|
|
|
|
| |
|
Y 1.0-1.6 GHz |
|
|
|
|
| |
|
Z 1.5-2.0 GHz |
|
|
|
|
*Mobile Applications Only
| Primary System Type |
Feature Level |
Version Letter |
Unique Model Variation |
"SP"Model Suffix |
| A Conventional |
1 Basic |
A Major Change |
C Cenelec |
|
| B Privacy Plus |
2 Limited Package |
|
N Standard Package |
|
| C Clear SmartNet |
3 Limited Plus |
|
|
|
| D Advanced Conventional Stat-Alert |
4 Intermediate Package |
|
|
|
| E Enhances Privacy Plus |
5 Standard Package |
|
|
|
| F Nauganet 888 Series |
6 Standard Plus |
|
|
|
| G Japan SMR |
7 Standard Package |
|
|
|
| H Multi-Channel |
8 Expanded Plus |
|
|
|
| J Coverage Plus |
9 Full Featured/Programmable |
|
|
|
| K MPT1237 Public |
|
|
|
|
| L MPT1237 Private |
|
|
|
|
| M Radiocom |
|
|
|
|
| N Tone Signalling |
|
|
|
|
| P Binary Signalling |
|
|
|
|
| Q PhoneNet |
|
|
|
|
| W Programmable |
|
|
|
|
| X Secure Capable |
|
|
|
|
| Y Secure SmartNet |
|
|
|
|
| |
|
|
|
|
| |
|
|
|
|
| |
|
|
|
|
*Mobile Applications Only
MTX
Lots of good information about mod'ing commercial radios to 900 MHZ
http://www.qsl.net/kb9mwr/projects/900mhz/plan.html
MTVA Vehicular Adapter
Instruction Manual 6881075C95.
If you have the MTSX Convertacom (MTVA), you will notice that there are
two DIP switches located on the bottom rear corner of the MTVA holder.
These are used to select whether the microphone you are using has a
manual PTT or serial data PTT.
For HMN1035 and HMN1056 microphones, set both dip switches toward the
front of the holder. For HMN4044, HMN4047, NMN6209, and NMN6210
microphones, set both dip switches toward the back of the holder.
The pinout of the 6pin power connector on the NTN1340A is:
1 Audio+
2/3 Ground
4 I/P Stage Ground
5 A+
6 Audio Shield
According to the manual the top row is 4 5 6 left to right with a
square over pin 5. The bottom row is 3 2 1.
6 square
5 square with tab over it
4 square with rounded bottom shoulders
3 square with rounded bottom shoulders
2 square with rounded bottom shoulders
1 square
Pinouts as they are in the holder unit schematic diagram for the
NTN1340A:
The 25 pin connector is listed as J100:
Pin1 --- Green Led
Pin2 --- LH Data
Pin3 --- Tx/Rx Data
Pin4 --- LH Busy
Pin5--- Option B+
Pin6--- Hook
Pin7--- Pac-RT-CTRL
Pin8 --- Bat-RC
Pin9 --- Bat-RT
Pin10 --- NC
Pin11 --- B+
Pin12 --- NC
Pin13 --- A+
Pin14 --- Red Led
Pin15 --- Data Mode CTRL
Pin16 --- CTS
Pin17 --- Aux Tx RTS
Pin18 --- NC
Pin19 --- Pac-RT
Pin20 --- NC
Pin21 --- NC
Pin22 --- NC
Pin23 --- Gnd
Pin24 --- Gnd
Pin25 --- PA Sense
Connector J104 goes to the Battery Board it's a 10 pin connector, pins
are:
Pin1 --- Gnd
Pin2 --- Gnd
Pin3 --- Gnd
Pin4 --- Gnd
Pin5 --- Bat-RC
Pin6 --- Bat-RT
Pin7 --- B+
Pin8 --- B+
Pin9 --- B+
Pin10 --- B+
NOTE: The NTN1340A is NOT a complete MVA if you only have the radio
holder portion. You need the control box (with or without integrated
power amplifier) that interfaces to the DB25, otherwise that's all you
have is a radio holder.
XTS
3000
Determining
Manufacture
Date By Serial Number
Most Motorola products follow the same serial number
conventions. As such, this often enables you to determine the
approximate manufacture date for a device.
The serial number convention follows the following
general format:
123ABC4567
Where 123 is an unique three digit code for each model
series, where BC determines
manufacture year and month respectively, and where 4567 is a
unique four digit serial number for the device in question.
To determine the manufacture year and month, refer to
the table below:
| Second Letter |
Year |
Third Letter |
Month |
| A |
1976/2000 |
A-B |
January |
| B |
1977/2001 |
C-D |
February |
| C |
1978/2002 |
E-F |
March |
| D |
1979/2003 |
G-H |
April |
| E |
1980/2004 |
J-K |
May |
| F |
1981/2005 |
L-M |
June |
| G |
1982/2006 |
N-P |
July |
| H |
1983/2007 |
Q-R |
August |
| J |
1984/2008 |
S-T |
September |
| K |
1985/2009 |
U-V |
October |
| L |
1986/2010 |
W-X |
November |
| M |
1987/2011 |
Y-Z |
December |
| N |
1988/2012 |
|
|
| P |
1989/2013 |
|
|
| Q |
1990/2014 |
|
|
| R |
1991/2015 |
|
|
| S |
1992/2016 |
|
|
| T |
1993/2017 |
|
|
| U |
1994/2018 |
|
|
| V |
1995/2019 |
|
|
| W |
1996/2020 |
|
|
| X |
1997/2021 |
|
|
| Y |
1998/2022 |
|
|
| Z |
1999/2023 |
|
|
Battery Date Code
Year/Week as in 411 is
11th week of 2004.
|