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ZETAPLUS20-8D
Transceiver Module, 868 MHz, SPI, UART, Sensitivity -132dBm, 1.8 V to 3.6 V, DIP
⚠️ Reference pricing provided. In case of supply shortages, we will connect you with our trusted procurement partners to ensure your project's continuity.
- Manufacturer: RF SOLUTIONS
- Product type: RF Transceivers - Sub 2.4GHz ISM Band
- Data Rate Max: 500Kbps
- Frequency Max: 868MHz
- Product Range: ZETAPLUS20-8x Series
- RF Modulation: FSK, FM
- Supply Current: 85mA
- Transmit Power: 20dBm
- Sensitivity dBm: -132dBm
- Module Interface: SPI, UART
- Supply Voltage Max: 3.6V
- Supply Voltage Min: 1.8V
- RF Transceiver Applications: Home Automation, Sensor/Mesh RF Networks, Telemetry, Keyless Entry, Health Monitor, RF Data Comms
| Delivery and price | |
|---|---|
| Units per pack | 5 |
| Price | 12.37 € |
| Current stock | 10+ |
| Lead time | 7 days |
## +20dBm Smart RF Transceiver
## Features
- Wire replacement SMARTRADIO
- Upto 4Km range
- Specifications (from the pin of the module)
- Transmit Power +20dBm
- Sensitivity -132dBm
- Max data rate @ 500Kbps
- Easy UART and SPI interface
- Full CRC Error Checking Option
- User Selectable Data Payload
- Best in Class cost performance
- Available as 433/868/915MHz
- 1.8V – 3.6V Operating Voltage
- Low power consumption
- 0.5nA Standby
- <10mA Rx
- 18mA Tx @ 10dBm
- 64 byte Buffer (FIFO)
- Based on Silicon Labs’ Si4468 chipset
- No configuration necessary,
- No external components
- Fast Plug and Play SPI or UART RF Link
- Form factor: 16mm x 18mm SMT or DIL
## Applications
- Home automation
- Sensor / mesh RF networks
- Telemetry
- Keyless entry
- Health monitors
- RF Data comms
## Applications
ZETAPLUS20 makes a radio data link easy. It has a simple interface using either SPI or UART (LV RS232) and provides a plug ‘n’ play RF comms to any application.
With connection to power, comms and antenna, the user can start sending and receiving data immediately. No other external components are required.
With a highly tuned on-board RF matching network ZETAPLUS20 outperforms other modules achieving range far in excess of its competitors for the given power output/power consumption. Specifications are stated from the module I/O (not the pin of the IC on the module).
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## ZETAPLUS20 RF Transceiver
## Pin Description
**==> picture [212 x 117] intentionally omitted <==**
**----- Start of picture text -----**<br>
ANT 1 12 nSEL<br>GND 2 11 SDO<br>JOG | Ol<br>SDN 3 10 SDI<br>oe. . Or<br>Vcc 4 9 SCLK<br>O ° |<br>nIRQ 5 8 UART_RX<br>UART_TX 6 0 e ) = oO 7 GPIO1<br>**----- End of picture text -----**<br>
Data Pin Name Definition Function Flow ~~a ee eeee~~ Antenna pin connection. Keep short and match to 50ohms impedance for best 1 ANT Antenna Pin In/Out performance 2 GND Ground In Supply Ground connection When asserted (active High) ZETAPLUS enters Shutdown. 3 SDN Shutdown In Shutdown state is the lowest current consumption of the device. ~~es~~ 4 Vcc V Supply In Supply Voltage Connection ~~aee~~ Active Low 5 nIRQ Interrupt Output Data packet received in SPI RX mode only ~~ee eee eee eee~~ 6 UART_TX UART Transmit Out UART (LV RS232) Data appears on this output ~~aee~~ Gen Purpose I/ 7 GPIO1 In / Out This is not yet implemented O ~~ee eee eee eee~~ 8 UART_RX UART Receive In UART Data Receive Pin (LV RS232) ~~aee~~ 9 SCLK Serial clock In SPI Clock In ~~ee ee ee eee~~ 10 SDI Serial data In In SPI Data In ~~ee ee ee ee~~ Serial data 11 SDO Out SPI Data Out Out SPI Device Select (Active Low) Serial inter12 nSEL In Only used in SPI mode. If SPI is not used pull high or face select ~~Oe~~ leave disconnected
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## ZETAPLUS20 RF Transceiver
## Ordering information
|Part Number|Description|
|---|---|
|ZETAPLUS20-8S|FM Transceiver module, 868MHz (marked Blue Dot) SMT|
|ZETAPLUS20-8D|FM Transceiver module, 868MHz (marked Blue Dot) DIP|
|ZETAPLUS20-9S|FM Transceiver module 915MHz (marked Yellow Dot) SMT|
|ZETAPLUS20-9D|FM Transceiver module 915MHz (marked Yellow Dot) DIP|
## Block Diagram
**==> picture [477 x 131] intentionally omitted <==**
**----- Start of picture text -----**<br>
Vcc<br>Control<br>XTAL<br>SDI<br>GND<br>LNA<br>SDO<br>SPI<br>SCLK<br>nIRQ<br>PA & RF PA<br>ANT Matching UART UART _RX<br>UART _T X<br>**----- End of picture text -----**<br>
## Using ZETAPLUS20
Using ZETAPLUS20 is easy, communication can be via SPI interface or UART (LVTTL). The module will automatically communicate to its host in the same way that it was addressed, i.e. if ZETAPLUS20 receives communications on its SPI interface, then it will reply on the SPI. If comms was last received on the UART interface then it will reply on the UART interface.
Using SPI , to Transmit data simply load the correct decimal byte values into the SPI TX register. When ZETAPLUS20 receives RF data from another ZETAPLUS20 module it will output this using SPI, the nIRQ line will be pulled low, this shows that data will be ready to be read from the SPI register to the host.
Using UART (LVTTL) to Transmit load the correct decimal byte values into the UART TX register, When ZETAPLUS20 receives RF data from another ZETAPLUS module it will output the data via the UART-TX output pin of the module to the host.
GP
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## ZETAPLUS20 RF Transceiver
## Application schematic- ZETAPLUS20 and PIC16F886 (SPI)
**==> picture [516 x 273] intentionally omitted <==**
**----- Start of picture text -----**<br>
1 28<br>SDN<br>ANT 1 12 nSEL 2 27<br>nSEL<br>GND 2 )O . 11 SDO |<br>3 26<br>— NIRQ<br>SDN 3 10 SDI<br>L b. [I] [a] fo x 4 25<br>Vcc 4 9 SCLK<br>nIRQ 5 ry oD a ee 8 UART_RX 5 24<br>UART_TX 6 x6) ae = Ox 7 GPIO1 6 23<br>Ke) ~~ Ol Ke<br>7 (oe) 22<br>LL<br>8 ice) 21<br>9 20<br>VDD<br>10 19<br>PLEASE NOTE: Pins 3, 5 and 12 can PLEASE NOTE: Pins 3, 5 and 12 can be connected to any 11 18<br>be connected to any I/O. Shown to I/O. Shown to port A of a PIC microprocessor as an example 12 17<br>port A of a PIC microprocessor as<br>an example. 13 16 SDO<br>SCLK 14 15 SDI<br>| |<br>**----- End of picture text -----**<br>
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## ZETAPLUS20 RF Transceiver
## Application schematic- ZETAPLUS20 and PIC16F886 (UART)
**==> picture [487 x 259] intentionally omitted <==**
**----- Start of picture text -----**<br>
1 28<br>RA0<br>ANT 1 12 nSEL 2 27<br>GND 2 11 SDO<br>3 26<br>l d a0 4 oat<br>SDN 3 10 SDI<br>4 25<br>Vcc 4 9 SCLK<br>nIRQ 5 OT 0 baal 8 UART_RX 5 24<br>5 o o 8 ~<br>UART_TX 6 7 GPIO1 6 23<br>7 ' 22<br>8 21<br>9 20<br>VDD<br>10 19<br>PLEASE NOTE: Pins 3 can be 11 18 UART_RX<br>PLEASE NOTE: Pins 3 can be connected to any<br> I/O. Shown to port A of a PIC microprocessor as an exampleconnected to any I/O. Shown to port 12 17 UART_TX<br>A of a PIC microprocessor as an<br>example. 13 16<br>14 15<br>**----- End of picture text -----**<br>
## UART Configuration
## UART Configuration:
Baud rate: 19200, Data bits: 8, Parity: none, Stop bits: 1.
Note: all UART I/O are at Low level and must not exceed 5V. If used at 5V using a level shift is advised.
## UART RX (in)
Data is received by ZETAPLUS20 on this pin. A 50ms timeout exists to avoid lock-up if not all required data bytes are received - in this scenario the packet would be aborted and no data sent.
## UART TX (out)
Data is output from this pin ZETAPLUS20.
When in receive mode and an RF packet is received the data is automatically sent output on this pin.
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## ZETAPLUS20 RF Transceiver
## SPI and UART Commands
## Operating Mode (ATM)
|Value|Name|Description|
|---|---|---|
|1|RX|ZETAPLUS enters RX mode using last RX configured settings|
|2|Ready|Ready is a low power awake state which can be used for fast<br>entry to RX or switching between TX and RX. Time to RX or<br>TX from READY <1ms|
|3|Sleep|Low power sleep mode with register retention.|
## Example: Place the ZETAPLUS20 into receive mode
|Command|A|T|M|1|
|---|---|---|---|---|
|Decimal byte value|65|84|77|1|
Receive Mode Config (ATR) Channel Setting, Packet Length
|Value|Name|Description|
|---|---|---|
|0-15|Channel|Set in 250KHz increments starting at (FREQ dependent):<br>At 433MHz: 0=433.92<br>At 868MHz: 0=869.50<br>At 915MHz: 0=915|
|1-65|Packet Length|Length of data packet to be sent in 8 bit bytes|
## Example: Enter receiver mode on channel 2 with a packet length of 10 bytes **.**
Command A T R 2 10 Decimal byte value 65 84 82 2 10
## Note
When a valid packet is received in SPI mode the U_IRQ pin will go low indicating data is ready to be read over SPI.
## Transmit Mode Config: (ATS) CHANNEL, PACKET LENGTH, DATA
|Value|Name|Description|
|---|---|---|
|0-15|Channel|Set in 250KHz increments starting at (FREQ dependent):<br>At 433MHz: 0=433.92<br>At 868MHz: 0=869.50<br>At 915MHz: 0=915|
|1-64|Packet length This defines the data payload. In 8 bit bytes.|Packet length This defines the data payload. In 8 bit bytes.|
||Data|Your data to be transmitted. ZETAPLUS will then return to<br>the state is was in prior to ATS command.|
## Example: send a 13 byte packet on channel 2
Command A T S 2 13 DATA Decimal byte value 65 84 83 2 13 Your 13 bytes
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## ZETAPLUS20 RF Transceiver
Sync bytes (ATA) SYNC1, SYNC2, SYNC3, SYNC4
|Value|Name|Description|
|---|---|---|
|1-4|SYNC1-4|The sync bytes appear directly after the pre-amble in the<br>transmitted RF data. They can be used as a form of<br>addressing to discriminate between valid and spurious data.<br>Set these bytes and the ZETAPLUS will only pass on data<br>which contains the correct sync bytes.<br>NOTE: the sync byte function of this module will use reverse<br>order bytes: ie.2D will be sent as B4, D4 will be sent as 2B<br>2 D = B 4 , D 4 = 2 B<br>0010 1101 = 1011 0100, 1101 0100 = 0010 1011|
## Example: Set the sync bytes to 12 34 56 78
## Host Interface Baud Rate (ATH)
|Command|Name|Description|
|---|---|---|
|1-6|Host Baud rate|This controls the data rate between ZETAPLUS and the<br>host microcontroller<br>0 = 9.6 kbps<br>1 = 19.2 kbps (default)<br>2 = 28.8 kbps<br>3 = 38.4 kbps<br>4 = 57.6 kbps|
Example: Set the Host baud rate to 57K6:
Command A T H 4 Decimal byte value 65 84 110 4
## RF Baud Rate (ATB)
|Value|Name|Description|
|---|---|---|
|1-6|RF Baud rate|RF Baud rate<br>Sets the data rate of the RF signal between ZETAPLUS Modules, it<br>is recommended that this is set to at least double the Host Baud<br>Rate.<br>1 = 4.8 kbps<br>2 = 9.6 kbps<br>3 = 38.4 kbps<br>4 = 128.0 kbps<br>5 = 256.0 kbps<br>6 = 500.0 kbps|
Example: Set the RF baud rate to 500kbps GFSK:
Command A T B 6 Decimal byte value 65 84 66 6
Notes: 1. Using a higher RF Baud rate increases the data Bit Error rate (BER) at longer range. GP Page 7 DS-ZETAPLUS20-a
## ZETAPLUS20 RF Transceiver
## RF Output Power (ATP)
|Value|Name|Description|
|---|---|---|
|1-127|RF TX output|Power output in increments from 1-127|
|Example: Set the power outputs to 32:|Example: Set the power outputs to 32:|Example: Set the power outputs to 32:|Example: Set the power outputs to 32:|Example: Set the power outputs to 32:|
|---|---|---|---|---|
|Command|A|T|P|15|
|ASCII|65|84<br>65|84<br>80|32|
## NOTE:
Although the RF Output power can be set at a specific value the actual output power is not a linear function, The output power can vary depending on other factors such as supply voltage, impedance miss-match from module to antenna.
The adjustment resolution of the TX output power is very fine (step size < 0.1 dB) when operating near the maximum power setting, but becomes coarser as the output power level is reduced.
## Enable Data Error Checking (ATE)
|Value|Name|Description|
|---|---|---|
|0 - 1|CRC Error Check|Enables CRC Error Checking of Received data and only<br>passes valid data to the host.<br>0 =Disable Error Checking (Power on Default Value)<br>1 =Enable Error Checking|
## Example: Enable RF Error Checking
|Command|A|T|E|1|
|---|---|---|---|---|
|Decimal byte value|65|84|69|1|
## RSSI (ATQ)
|Value|Name|Description|
|---|---|---|
|0—255|RF Signal Strength|ZETAPLUS20 responds with the Received Signal<br>Strength Value.<br>Example reply: 35 81 56<br>#Q followed by one byte RSSI value (0-255)|
## Example: Retrieve settings
|Command<br>A|T|Q|
|---|---|---|
|Decimal byte value65|84|81|
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## ZETAPLUS20 RF Transceiver
## Retrieve Currant Configuration and Settings (AT?)
|Value|Name|Description|
|---|---|---|
|N/A|Configuration and set-<br>tings|ZETAPLUS20 Reports its current device settings<br>Example reply:<br>#? FOLLOWED BY 8 BYTE AS BELOW<br>OPERATING MODE (MODE:- 1= RX<br>2=READY)<br>RF BAUD RATE (1-19 )<br>RF POWER OP (1-127)<br>SYNC BYTE 1<br>SYNC BYTE 2<br>SYNC BYTE 3<br>SYNC BYTE 4<br>CHANNEL NUMBER (0-15 )<br>EXAMPLE 35 63 1 1 127 45 210 0 0 0|
## Example: Retrieve settings
Command A T ? Decimal byte value 65 84 63
## Firmware Version (ATV)
|Command|Name|Description|
|---|---|---|
|N/A|Firmware Version|Use this command to determine the firmware version of<br>the ZETAPLUS20 module .<br>Example reply: # V 1 . 0 0<br>EXAMPLE 35 86 31 46 30 30|
## Example: Check firmware version
Command A T V Decimal byte value 65 84 86
## Reset to Power On Defaults (ATD)
|Command|Name|Description|
|---|---|---|
|N/A|Firmware Version|Resets the configuration of ZETAPLUS20 Power On<br>Status|
## Example:
Command A T D Decimal byte value 65 84 68
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## ZETAPLUS20 RF Transceiver
## Ping-Pong (Walk test)
Using two ZETAPLUS20 module a test signal can be sent to ‘Ping’ ‘Pong’ between the two providing a site check of signal strength for a specific application.
In this mode one ZETAPLUS20 transmits a special ‘Ping’ signal, which is received by another ZETAPLUS20 module which outputs the message #RZYXWVUTSRQ (#R followed by the last 10 letters of the alphabet in reverse) to its host, and then automatically reply's back the ’Pong’ message. The originating ZETAPLUS20 module receives back the ‘Pong’ and outputs #T followed by the received Signal Strength Indication (RSSI) value.
If no ‘Pong’ reply packet is received back from the receiver within 200ms the RSSI value will be 0.
## Transmitter
The example below sets the ZETAPLUS20 to transmit a ping signal. The transmitter will output every 200ms the RSSI value of a valid packet through its UART RX pin.
## ATT#000
## Channel number (byte value)
The below screen shots shows a terminal window and the received data on the RX pin. The image shows the data packet that is output when a successful ping-pong takes place on the transmitter. The below image shows the values output by the transmitter during the walk test when no packet is received back from the receiver.
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## ZETAPLUS20 RF Transceiver
## Receiver
To configure the ZETAPLUS20 into receiver mode for the ping-pong walk test, the following string needs to be input on the TX pin.
**==> picture [114 x 11] intentionally omitted <==**
**----- Start of picture text -----**<br>
ATR#000#010<br>**----- End of picture text -----**<br>
Channel number (byte value)
10 byte payload (this is the only byte value that will force the ZETAPLUS20 into ping-pong)
The image below shows a terminal window with a successful packet received, here you can see the HEX values for #RZYXWVUTSRQ (This being RSSI followed by the TEN BYTES and the #R showing receiver).
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## ZETAPLUS20 RF Transceiver
## Communication with the ZETAPLUS20 via SPI interface.
Maximum SPI data rate: 1.4Mhz
Data is sent over the SPI bus on the ZETAPLUS20 codec in standard SPI format using the correct command set. A 50ms timeout exists to avoid lock-up if not all requested data bytes are sent - in this scenario the packet would be aborted and no data sent.
When in receive mode and an RF packet is received the U_IRQ pin will go low indicating SPI data is ready to be read.
The following two pages show example timing diagrams for the SPI bus communication.
## Selecting preferred communication method.
Only one communication method can be used at a time. Switching from SPI to UART and vice versa is possible however please note that ZETAPLUS20 will respond using the comms that it was last addressed in.
For example if you enable receive mode via SPI ZETAPLUS20 will revert to SPI communication from there on unless you access the device via UART ZETAPLUS20 will then revert to UART communication from then on.
Note: SDI and SDO from the Master device not the ZETAPLUS
Above is the first byte of SPI data following U_IRQ going low after an RF packet has been received.
Sequence:-
1. IRQ goes low indicating a packet has been received.
2. Read byte over SPI bus.
3. If IRQ remains low then more data is still available to read. Repeat line 2 above.
The first two bytes read should be #R followed by the packet length & RSSI value then the packet data.
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## ZETAPLUS20 RF Transceiver
Note: SDI and SDO from the Master device not the ZETAPLUS.
Above is the complete SPI & IRQ Timing diagram for #R<RSSI> <Packet > plus 12 byte data packet.
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## ZETAPLUS20 RF Transceiver
## Mechanical dimensions
## Surface Mount Package
**==> picture [517 x 581] intentionally omitted <==**
**----- Start of picture text -----**<br>
3.00 PCB pad Layout<br>JO) - ot 7 =<br>lh tee<br>ee ! = =i -<br>O=O o 9 gl 0 CeoT |= |=<br>yO a<br>2.00<br>mz = =<br>1.00<br>13.00<br>D 1.00<br>16.50 17.50<br>7:: fu e Or [+ —<br>P-DIP Package<br>w oo Oe<br>+) Ol] 5<br>o aott j o A E=<br>) [Oo] 2 =<br>m 9 6<br>D 1.00 13.00<br>eT 16.50<br>Se<br>0.65<br>1.20<br>2.54 2.54<br>19.25<br>2.54<br>19.25<br>1.00<br>11.75 2.50<br>6.00<br>**----- End of picture text -----**<br>
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## ZETAPLUS20 RF Transceiver
## Electrical Characteristics
## Recommended operating conditions
|Recommended operating conditions<br>~~a~~||
|---|---|
|Symbol<br>Test condition<br>Min<br>Typ.<br>Max<br>Unit<br>~~a~~||
|Ambient Temperature<br>–40<br>Supply Voltage<br>I/O Drive Voltage<br>VGPIO<br>~~ee~~<br>~~ae~~<br>~~ee ee~~<br>5<br>5<br>~~ee~~<br>~~ee~~<br>~~ee~~<br>8<br>8<br>~~es~~<br>~~ee~~<br>~~ee~~<br>~~ee~~<br>8<br>6||
|DC characteristics||
|Parameter<br>Symbol<br>Test<br>Min Typ.<br>Max Unit<br>Supply voltage<br>range<br>Vcc<br>1.8<br>3.3<br>3.8<br>Power saving<br>modes<br>Iready<br>Ready to receive instruction from<br>host<br>—<br>6<br>—<br>mA<br>ISleep Module asleep with shutdown pin active.<br>—<br><1<br>uA<br>RX mode current<br>Module is in RF Data receive mode<br>—<br>16<br>—<br>mA<br>~~CT~~<br>COSSSC‘idRSC“‘CCCCCCCOncition<br>~~=] ST STS~~<br>~~ee ee~~<br>~~ee ee~~<br>~~err~~||
|TX mode current<br>+20 dBm output power, 868 MHz<br>—<br>85<br>11<br>0<br>mA<br>+13 dBm outputpower, 868 MHz<br>—<br>24<br>—<br>mA<br>~~eee~~<br>~~—~~<br>~~a~~||
## DC characteristics
## Important European compliance information for module datasheets
This RF Solutions radio module meets the essential requirements of the European Radio Equipment Directive 2014/53/EU and has been tested to European Harmonised Standards and CE marked where space allows. A copy of the EU Declaration of Conformity can be located on the RF Solutions Website, www.rfsolutions.co.uk/certification-i59.
When using the module in an end product, continued compliance can only be assured by incorporating the module in accordance with RF Solutions specific installation instructions and in accordance with the published information on the RF Solutions product data sheet. The antenna gain specification must be adhered to at all times.
Article 3.1a and 3.1b of the EU Radio Equipment Directive 2014/53/EU should be assessed in the final product.
Failure to follow this guidance may result in a non-compliant product being place on the European Market, for which RF Solutions cannot accept any responsibility.
Further guidance may be obtained from RF Solutions Technical Support. Charges may apply to customer specific product evaluation.
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## ZETAPLUS20 RF Transceiver
## AC Characteristics
**==> picture [515 x 685] intentionally omitted <==**
**----- Start of picture text -----**<br>
|||||||||
|---|---|---|---|---|---|---|---|
|QQ|Parameter|Symbol|Test condition|Min|Typ|Max|Unit|
|433.92|+250|
|TX frequency range|869.5|Khz|
|MHz|
|915.0|(x16)|
|a|ee|GO|
|(G)FSK data rate|DRFSK|0.1|500|kbps|
|TX Output power range|–20|+20|dBm|
|a|re|ee|se|
|TX RF output level|
|variation vs. temperature|DPRF_TEMP|–40 to +85 °C|dB|
|a|ee|ee|ee|
|TX RF output level|
|Variation vs. frequency|DPRF_FREQ|Measured across 850-870 MHz|0.5|dB|
|Transmit modulation|Gaussian filtering bandwidth|
|filtering|time product|0.5|
|pot|||POUT|= +13 dBm,|
|POB-TX1|Frequencies < 1|–54|dBm|
|Spurious emissions|GHz|
|1–12.75 GHz, excluding harmon-|
|POB-TX2|ics|–42|dBm|
|P2HARM|Using reference design TX|–42|dBm|
|Harmonics||||matching|network & filter with|p=]|
|P3HARM|max|power. Harmonics reduce|–42|dBm|
|a|oF|1|of||-]|||
|(BER <|
|PRX-_2|(100bps, GFSK, BT =|–132|dBm|
|0.5,|DF=±100Hz|)|
|(BER <|
|0.|1%)|
|RX sensitivity|PRX-_40|(40 kbps, GFSK, BT =|–109|dBm|
|0.5,|
|DF = ±25 kHz|)|
|(BER <|
|0.|1%)|
|PRX-_128|(100 kbps, GFSK, BT =|–104|dBm|
|0.5,|
|DF = ±50 kHz,|)|
|RX channel bandwidth|BW|60|kHz|
|BER variation vs power|
|Level2|PRX_RES|Up to +5 dBm Input Level|0.1|ppm|
|a|ee|ee|eee|
|Blocking 200 kHz–1 MHz 200KBLOCK|Desired ref signal 3 dB above|–79|dB|
|ity, BER < 0.1%. Interferer|
|Blocking 1 MHz offset|1MBLOCK|is CW|desired modulated with|–68|dB|
|po|ae|1.2|ps|p=|[||[[=]]|
|DF = 5.2 kHz GFSK with BT =|
|Blocking 8 MHz offset|8MBLOCK|–86|dB|
|RX BW = 58|
|kHz|
|Rejection at the image fre-|
|quency|
|Image rejection|ImREJ|–45|dB|
|IF = 868|
**----- End of picture text -----**<br>
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## ZETAPLUS20 RF Transceiver
## ZETAPLUS20 module re-flow guide
|Profile feature|Value (lead free)|
|---|---|
|Ramp up rate|3oC /s|
|Pre-heat temperature<br>- Temperature Min (TSmin)<br>- Temperature Max (Tsmax)<br>- Pre-heat time|1500C<br>2000C<br>60-100s|
|Peak temperature (TP)|2400C|
|Time at TP|10-20sec|
|Ramp down rate|60C/s|
|Time from 250C to peak|8 mins max.|
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## ZETAPLUS20 RF Transceiver
## ZETAPLUS20 module Version Identification
**==> picture [257 x 96] intentionally omitted <==**
**----- Start of picture text -----**<br>
Frequency of Operation<br>Red 433MHZ<br>Blue 868MHz<br>Brown 915MHz<br>Test<br>Green Pass<br>**----- End of picture text -----**<br>
**==> picture [117 x 156] intentionally omitted <==**
**----- Start of picture text -----**<br>
Firmware Version<br>Firmware versions<br>Uses std Colour Coding<br>Colour Dot Rev<br>Brown 1<br>Red 2<br>Orange 3<br>Yellow 4<br>Green 5<br>Blue 6<br>Violet 7<br>Grey 8<br>White 9<br>**----- End of picture text -----**<br>
## ZETAPLUS REVISION CHANGE HISTORY
|Part|New Revision|Change / Fix|
|---|---|---|
|ZETAPLUS20-8<br>ZETAPLUS20-9|ZETAPLUS20-9<br>1|Initial Version|
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## ZETAPLUS20 RF Transceiver
## Simplified Declaration of Conformity (RED)
BG - С настоящото RF Solutions Limited декларира, че този тип радиосъоръжение дефинирани в този документ е в съответствие с Директива 2014/53/ЕС. Цялостният текст на ЕС декларацията за съответствие може да се намери на следния интернет адрес: www.rfsolutions.co.uk
CS - Tímto RF Solutions Limited prohlašuje, že typ rádiového zařízení definované v tomto dokumentu je v souladu se směrnicí 2014/53/EU. Úplné znění EU prohlášení o shodě je k dispozici na této internetové adrese: www.rfsolutions.co.uk
DA - Hermed erklærer RF Solutions Limited , at radioudstyrstypen defineret i dette dokument er i overensstemmelse med direktiv 2014/53/EU. EU -overensstemmelseserklæringens fulde tekst kan findes på følgende internetadresse: www.rfsolutions.co.uk
DE - Hiermit erklärt RF Solutions Limited , dass der Funkanlagentyp in diesem Dokument definiert der Richtlinie 2014/53/EU entspricht. Der vollständige Text der EU-Konformitätserklärung ist unter der folgenden Internetadresse verfügbar: www.rfsolutions.co.uk
EL - Με την παρούσα ο/η RF Solutions Limited , δηλώνει ότι ο ραδιοεξοπλισμός ορίζεται σε αυτό το έγγραφο πληροί την οδηγία 2014/53/ΕΕ. Το πλήρες κείμενο της δήλωσης συμμόρφωσης ΕΕ διατίθεται στην ακόλουθη ιστοσελίδα στο διαδίκτυο: www.rfsolutions.co.uk
EN - Hereby, RF Solutions Limited declares that the radio equipment type defined within this document is in compliance with Directive 2014/53/ EU. The full text of the EU declaration of conformity is available at the following internet address: www.rfsolutions.co.uk
ES - Por la presente, RF Solutions Limited declara que el tipo de equipo radioeléctrico definido dentro de este documento es conforme con la Directiva 2014/53/UE. El texto completo de la declaración UE de conformidad está disponible en la dirección Internet siguiente: www.rfsolutions.co.uk
ET - Käesolevaga deklareerib RF Solutions Limited , et käesolev raadioseadme tüüp määratletud selles dokumendis vastab direktiivi 2014/53/EL nõuetele. ELi vastavusdeklaratsiooni täielik tekst on kättesaadav järgmisel internetiaadressil: www.rfsolutions.co.uk
FI - RF Solutions Limited vakuuttaa, että radiolaitetyyppi määratletud selles dokumendis on direktiivin 2014/53/EU mukainen. EUvaatimustenmukaisuusvakuutuksen täysimittainen teksti on saatavilla seuraavassa internetosoitteessa: www.rfsolutions.co.uk
FR - Le soussigné, RF Solutions Limited , déclare que l'équipement radioélectrique du type défini dans ce document est conforme à la directive 2014/53/UE. Le texte complet de la déclaration UE de conformité est disponible à l'adresse internet suivante: www.rfsolutions.co.uk
HR - RF Solutions Limited ovime izjavljuje da je radijska oprema tipa definirani u ovom dokumentu u skladu s Direktivom 2014/53/EU. Cjeloviti tekst EU izjave o sukladnosti dostupan je na sljedećoj internetskoj adresi: www.rfsolutions.co.uk
HU - RF Solutions Limited igazolja, hogy a dokumentumban meghatározottak szerint típusú rádióberendezés megfelel a 2014/53/EU irányelvnek. Az EU-megfelelőségi nyilatkozat teljes szövege elérhető a következő internetes címen: www.rfsolutions.co.uk
IT - Il fabbricante, RF Solutions Limited , dichiara che il tipo di apparecchiatura radio definito all'interno di questo documento è conforme alla direttiva 2014/53/UE. Il testo completo della dichiarazione di conformità UE è disponibile al seguente indirizzo Internet: www.rfsolutions.co.uk
LT - Aš, RF Solutions Limited , patvirtinu, kad radijo įrenginių tipas apibrėžta šiame dokumente atitinka Direktyvą 2014/53/ES. Visas ES atitikties deklaracijos tekstas prieinamas šiuo interneto adresu: www.rfsolutions.co.uk
LV - Ar šo RF Solutions Limited deklarē, ka radioiekārta kas definēts šajā dokumentā atbilst Direktīvai 2014/53/ES. Pilns ES atbilstības deklarācijas teksts ir pieejams šādā interneta vietnē: www.rfsolutions.co.uk
MT - B'dan, RF Solutions Limited , niddikjara li dan it-tip ta' tagħmir tar-radju definit f'dan id-dokument huwa konformi mad-Direttiva 2014/53/UE. Ittest kollu tad-dikjarazzjoni ta' konformità tal-UE huwa disponibbli f'dan l-indirizz tal-Internet li ġej: www.rfsolutions.co.uk
NL - Hierbij verklaar ik, RF Solutions Limited , dat het type radioapparatuur gedefinieerd in dit document conform is met Richtlijn 2014/53/EU. De volledige tekst van de EU-conformiteitsverklaring kan worden geraadpleegd op het volgende internetadres: www.rfsolutions.co.uk
PL - RF Solutions Limited niniejszym oświadcza, że typ urządzenia radiowego zdefiniowane w tym dokumencie jest zgodny z dyrektywą 2014/53/UE. Pełny tekst deklaracji zgodności UE jest dostępny pod następującym adresem internetowym: www.rfsolutions.co.uk
PT - O(a) abaixo assinado(a) RF Solutions Limited declara que o presente tipo de equipamento de rádio definido neste documento está em conformidade com a Diretiva 2014/53/UE. O texto integral da declaração de conformidade está disponível no seguinte endereço de Internet: www.rfsolutions.co.uk
RO - Prin prezenta, RF Solutions Limited declară că tipul de echipamente radio definit în acest document este în conformitate cu Directiva
2014/53/UE. Textul integral al declarației UE de conformitate este disponibil la următoarea adresă internet: www.rfsolutions.co.uk
SK - RF Solutions Limited týmto vyhlasuje, že rádiové zariadenie typu definované v tomto dokumente je v súlade so smernicou 2014/53/EÚ. Úplné EÚ vyhlásenie o zhode je k dispozícii na tejto internetovej adrese: www.rfsolutions.co.uk
SL - RF Solutions Limited potrjuje, da je tip radijske opreme opredeljeno v tem dokumentu skladen z Direktivo 2014/53/EU. Celotno besedilo izjave EU o skladnosti je na voljo na naslednjem spletnem naslovu: www.rfsolutions.co.uk
SV - Härmed försäkrar RF Solutions Limited att denna typ av radioutrustning definieras i detta dokument överensstämmer med direktiv 2014/53/ EU. Den fullständiga texten till EU-försäkran om överensstämmelse finns på följande webbadress: www.rfsolutions.co.uk
RF Solutions Ltd. Recycling Notice Meets the following EC Directives: DO NOT
Discard with normal waste, please recycle. ROHS Directive 2011/65/EU as amendment by 2015/863/EU Specifies certain limits for hazardous substances.
WEEE Directive 2012/19/EU
Waste electrical & electronic equipment. This product must be disposed of through a licensed WEEE collection point. RF Solutions Ltd., fulfils its WEEE obligations by membership of an approved compliance scheme.
Disclaimer:
Whilst the information in this document is believed to be correct at the time of issue, RF Solutions Ltd does not accept any liability whatsoever for its accuracy, adequacy or completeness. No express or implied warranty or representation is given relating to the information contained in this document. RF Solutions Ltd reserves the right to make changes and improvements to the product(s) described herein without notice. Buyers and other users should determine for themselves the suitability of any such information or products for their own particular requirements or specification(s). RF Solutions Ltd shall not be liable for any loss or damage caused as a result of user’s own determination of how to deploy or use RF Solutions Ltd’s products. Use of RF Solutions Ltd products or components in life support and/or safety applications is not authorised except with express written approval. No licences are created, implicitly or otherwise, under any of RF Solutions Ltd’s intellectual property rights. Liability for loss or damage resulting or caused by reliance on the information contained herein or from the use of the product (including liability resulting from negligence or where RF Solutions Ltd was aware of the possibility of such loss or damage arising) is excluded. This will not operate to limit or restrict RF Solutions Ltd’s liability for death or personal injury resulting from its negligence.
Updated at February 9, 2023
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