Antenova-SRFL029-200

Part #Antenova-SRFL029-200
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Antenova-SRFL029-200
Moseni Antenna for LTE applications  
Part No. SRFL029  
flexiiANT

®  

Product Specification  
1. Features  
Antenna for 4G LTE applications including MIMO systems.  
LTE 700, GSM850, GSM900, DCS1800, PCS1900, WCDMA2100, LTE B7  
(2500-2690 MHz), LTE B40 (2300
–
2400 MHZ)  
1.13mm diameter RF cable with I-PEX MHF connector  
Self-adhesive mounted  
Quick and simple integration minimizes design cycle  
Available in two standard cable lengths, 100mm and 150mm. Other lengths  
are available.  
2. Description  
Moseni is intended for use with 4G LTE applications. This product specification  
shows the performance of this antenna in all workable bands. Moseni offers easy  
integration with plug and play simplicity.  
3. Applications  
Smart meters  
Network devices  
Femto / Pico base stations  
Telematics  
Remote monitoring  
Machine to Machine  
POS (Point of Sale) terminals  
Antennas for Wireless Applications  
Product Specification Moseni SRFL029-PS-1.
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Page 1  

Moseni  
Part No. SRFL029  
4. Part
 
Number  
Moseni: SRFL029  
5. General
 
Data  
Product name  
Part Number  
Moseni  
SRFL029  
698-798MHz  
824-960MHz  
Frequency  
1710-2170MHz  
2300-2400MHz  
2500-2690MHz  
Polarization  
Linear  
Operating temperature  
Environmental condition test  
Impedance with matching  
Weight  
-40°C to +85°C  
ISO 16750-4
 
5.1.1 / 5.1.2  
50 Ω  
< 0.5 g  
Antenna type  
FPC Self-adhesive 3M 468P  
110.0 x 20.0 x 0.15 (mm)  
I-PEX MHF1 (20278-112R-13)  
Dimensions (Antenna)  
Connection  
Antennas for Wireless Applications  
Product Specification Moseni-SRFL029-PS-1.
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Page 2  

Moseni  
Part No. SRFL029  
6. RF
 
Characteristics  
698
–
798 MHz  
824
–
960 MHz  
3.50dBi  
-1.70dBi  
>60%  
1710 – 2170 MHz  
3.80dBi  
Peak gain  
3.50dBi  
-1.60dBi  
>60%  
Average gain  
-1.40dBi  
>65%  
Average efficiency  
Maximum return loss  
Maximum VSWR  
-5.0dB  
3.50:1  
-8.0dB  
-5.5dB  
2.40:1  
3.30:1  
2300
–
2400 MHz  
4.50dBi  
2500
–
2690 MHz  
4.60dBi  
Peak gain  
Average gain  
-0.70dBi  
>80%  
-0.50dBi  
>80%  
Average efficiency  
Maximum return loss  
Maximum VSWR  
-12dB  
-16dB  
1.40:1  
1.70:1  
All data
measured in a loaded condition adhered to a 1.6mm  
thick plastic carrier free space.  
An RF choke was used to prevent cable radiation.  
Antennas for Wireless Applications  
Product Specification Moseni-SRFL029-PS-1.
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Page 3  

Moseni  
Part No. SRFL029  
7. RF
 
Performance  
7.1 Return Loss  
[dB]  
5
Atyune  
0
1
5
-5  
4
–
1
0  
9
10  
–
1
5  
8
3
6
2
–
2
0  
7
[MHz]  
–
2
5  
600 700 800 900
 
1000 1100 1200 1300 1400 1500 1600 1700 1800 1900 2000 2100 2200 2300 2400 2500 2600 2700 2800  
MARKERS: MHz  
dB  
MHz  
dB  
MHz  
dB  
MHz  
dB  
MHz  
dB  
SRFL029.S1P – S11  
1: 698
 
–
5
.24  
2: 798
 
–
2
0.33  
3: 824
 
–
1
6.12  
4: 960
 
–
8
.00  
5: 1710
 
–
5
.57  
6: 2170
 
–
1
7.50  
7: 2500
 
–
2
2.67  
8: 2690
 
–
1
6.02  
9: 2300
 
–
1
2.06  
10: 2400
 
–
1
3.53  
7.2 VSWR  
[]  
Atyune  
10  
9
8
7
6
5
4
1
5
3
4
2
1
9
10  
3
2
8
6
7
[MHz]  
600 700 800 900
 
1000 1100 1200 1300 1400 1500 1600 1700 1800 1900 2000 2100 2200 2300 2400 2500 2600 2700 2800  
MARKERS: MHz  
SRFL029.S1P  
MHz  
MHz  
MHz  
MHz  
–
S11  
1: 698  
2: 798  
3.41  
1.21  
3: 824  
4: 960  
1.37  
2.32  
5: 1710  
6: 2170  
3.23  
1.31  
7: 2500  
8: 2690  
1.16  
1.38  
9: 2300  
10: 2400  
1.67  
1.53  
Antennas for Wireless Applications  
Product Specification Moseni-SRFL029-PS-1.
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Page 4  

Moseni  
Part No. SRFL029  
7.3 Antenna patterns  
7.3.1 698
 
MHz
–
798 MHz  
dBi  
3D pattern at 745 MHz  
Drag to rotate pattern and PCB by using Adobe Reader  
(Click to Activate)  
Antennas for Wireless Applications  
Product Specification Moseni-SRFL029-PS-1.
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Page 5  

Moseni  
Part No. SRFL029  
7.3.2  
824 MHz
–
960 MHz  
dBi  
3D pattern at 890 MHz  
Drag to rotate pattern and PCB by using Adobe Reader  
(Click to Activate)  
Antennas for Wireless Applications  
Product Specification Moseni-SRFL029-PS-1.
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Page 6  

Moseni  
Part No. SRFL029  
7.3.3  
1710 MHz
–
2170 MHz  
dBi  
3D pattern at 1990 MHz  
Drag to rotate pattern and PCB by using Adobe Reader  
(Click to Activate)  
Antennas for Wireless Applications  
Product Specification Moseni-SRFL029-PS-1.
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Page 7  

Moseni  
Part No. SRFL029  
7.3.4  
2300 MHz
–
2400 MHz  
dBi  
3D pattern at 2350 MHz  
Drag to rotate pattern and PCB by using Adobe Reader  
(Click to Activate)  
Antennas for Wireless Applications  
Product Specification Moseni-SRFL029-PS-1.
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Page 8  

Moseni  
Part No. SRFL029  
7.3.5  
2500 MHz
–
2690 MHz  
dBi  
3D pattern at 2600 MHz  
Drag to rotate pattern and PCB by using Adobe Reader  
(Click to Activate)  
Antennas for Wireless Applications  
Product Specification Moseni-SRFL029-PS-1.
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Page 9  

Moseni  
Part No. SRFL029  
8. Antenna
 
Dimensions  
8.1 Dimensions FPC section  
L
W
T
Length  
Width  
Thickness  
110.0 ±0.2 (mm)  
20.0 ±0.2 (mm)  
0.15 (mm) nominal  
All dimensions in mm  
8.2 Dimensions assembled  
L
SRFL029
-100  
L
SRFL029
-150  
L
Standard cable length for this  
antenna (other lengths are  
available, MOQs apply)  
189 ±2.0 (mm)  
239 ±2.0 (mm)  
Antennas for Wireless Applications  
Product Specification Moseni-SRFL029-PS-1.
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Page 10  

Moseni  
Part No. SRFL029  
8.3 I-PEX Connector MHF1 (20278-1121R-13)  
I-PEX  
Copper Alloy  
Ag  
Material  
Plating  
Front  
Back  
Side  
5.0  
2
.0  
All dimensions in mm  
8.4 Assembly  
Antennas for Wireless Applications  
Product Specification Moseni-SRFL029-PS-1.
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Moseni  
Part No. SRFL029  
9. Electrical
 
Interface  
9.1 Host Interface  
The host PCB requires the mating connector which is the I-PEX MHF (UFL)  
receptacle. The location should be close to the chip/modules pin for the RF. Any  
feed from this receptacle should be maintained at 50
Ω
impedance.  
9.2 Transmission Line  
All transmission lines should be designed to have a characteristic impe
dance of 50Ω.  
• The length of the transmission lines should be kept to a minimum  
• Any other parts of the RF system like transceivers, power amplifiers, etc, should  
also be designed to have an impedance of 50 Ω  
Once the material for the PCB has been chosen, (PCB thickness and dielectric  
constant), a coplanar transmission line can easily be designed using any of the  
commercial software packages for transmission line design. For the chosen PCB  
thickness, copper thickness and substrate dielectric constant, the program will  
calculate the appropriate transmission line width and gaps on either side of the feed.  
A DC blocking capacitor should be placed in line to protect the RF front end.  
10. Mechanical
 
Fixing  
The antenna uses 3M 468MP adhesive on the reverse side of the FPC. The antenna  
has an easy access split line to peel off to reveal the adhesive side. It is designed for  
a one time fix to a clean smooth surface.  
FPC back side  
Split line for  
easy peel  
Antennas for Wireless Applications  
Product Specification Moseni-SRFL029-PS-1.
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Page 12  

Moseni  
Part No. SRFL029  
10.0 Antenna Integration Guide  
10.1 Placement  
For placing the FPC antenna within a device, the host PCB size is not a factor like  
with PCB mounted antennas. However the placement still needs to follow some  
basic rules, as any antenna is sensitive to its environment.  
Use six spatial directions, as shown below as a guide.
 
The antenna FPC section  
should ideally maintain a minimum of three directions free from obstructions to be  
able to operate effectively. The other directions will have obstacles in their paths –  
these directions still require a minimum clearance. These minimum clearances are  
further defined in this section. The plastic case is not included in this, only metal  
objects/components that will obstruct or come in close proximity to the antenna.  
Six spatial directions relative to FPC  
Antennas for Wireless Applications  
Product Specification Moseni-SRFL029-PS-1.
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Page 13  

Moseni  
Part No. SRFL029  
10.2 Orientation of FPC  
The orientation of the FPC with respect to the host PCB should be defined  
depending on the unit. The proximity of the GND will have an influence on the  
antenna so the PCB location relative to the antenna should be considered.  
The FPC will normally be placed in one of the three following options for orientation.  
In each option a distance (d) is the critical dimension to consider. The diagram below  
shows the minimum value of (d) for each. Other obstructions may increase this  
dimension.  
1) Vertical
 
mounted  
FPC  
Cable +Connector  
d ≥ 3mm  
PCB  
2) Co-planar to PCB  
d ≥ 15mm  
3) Planar to PCB (Same plane)  
d ≥ 3mm  
Antennas for Wireless Applications  
Product Specification Moseni-SRFL029-PS-1.
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Moseni  
Part No. SRFL029  
11. Hazardous
 
Material Regulation Conformance  
The antenna has been tested to conform to RoHS requirements. A certificate of  
conformance is available from Antenova’s website.  
12. Packaging  
The antennas are stored in individual plastic (PE) bags, and then stored within a  
second bag of 100 pcs.  
Single antenna per bag  
100 units per second bag (Labelled)  
12.1 Optimal Storage Conditions  
Temperature  
Humidity  
-10ºC to 40ºC  
Less than 75% RH  
Shelf life  
18 Months  
Storage place  
Away from corrosive gas and direct sunlight  
Antennas
should be stored in unopened sealed manufacturer’s  
plastic packaging.  
Packaging  
The shelf life of the antenna is 18 months, provided the bag of 100 pieces remains factory  
sealed.  
Antennas for Wireless Applications  
Product Specification Moseni-SRFL029-PS-1.
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Page 15  

12.2 Label Information  
Antennas for Wireless Applications  
Product Specification Moseni SRFL029-PS-1.
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Page 16  

Quality statements  
Antenova’s products conform to REACH and RoHS legislation. For our statements  
regarding these and other quality standards, please see

Antenna design, integration and test resources  
Product designers
–
the details contained in this datasheet will help you to complete  
your embedded antenna design. Please follow our technical advice carefully to  
obtain optimum antenna performance.  
It is our goal that every customer will create a high performing wireless product using  
Antenova’s antennas. You will find a wealth of design resources, calculators and  
case studies to aid your design at our website.  
Antenova’s design laboratories are equipped with the latest antenna design tools  
and test chambers. We provide antenna design, test and technical integration  
services to help you complete your design and obtain certifications.  
If you cannot find the antenna you require in our product range, please contact us to  
discuss creating a bespoke antenna to meet your requirement exactly.  
Contacts  
Join our online antenna design community:
ask.antenova.com  
Order antenna samples and evaluation boards at:

Request a quotation for antennas by volume

Global Headquarters:  
Antenova Ltd, 2

nd

Floor Titan Court, 3 Bishop Square,  
Hatfield, AL10 9NA
 
+44 (0) 1223 810600  
Copyright

®

Antenova Ltd.
All Rights Reserved. Antenova

®

, gigaNOVA

®

, RADIONOVA

®

, the Antenova product  
family names and the Antenova logos are trademarks and/or registered trademarks of Antenova Ltd. Any other  
names and/or trademarks belong to their respective companies. The materials provided herein are believed to be  
reliable and correct at the time of printing. Antenova does not warrant the accuracy or completeness of the  
information, text, graphics or other items contained within this information. Antenova further assumes no  
responsibility for the use of this information,
and all such information shall be entirely at the user’s risk.  
Antennas for Wireless Applications  
Product Specification Moseni SRFL029-PS-1.
6
released May 2016 updated
Nov
2019 Page
 
17