The future advancements in wireless communication and the network technology is facing new challenges under different circumstances. These challenges are emerging out as revolutionary invention roadmaps. This study strives to contribute in wireless communication and networking systems. A rectangular microstrip patch antenna is proposed. Initially, some common mediums of communication such as WIFI/WLAN and Bluetooth were targeted. The successful execution leads us to target the commons bandwidth of wireless communication i.e. 2.4 and 5 GHz. The dielectric substrate material used for this purpose was FR4 with 1.6 × 38 × 39.8 mm dimensions (thickness × width × height). The design and simulation on HFSS V15.0 revealed the peak at 2.4 and 5 GHz. These results were also verified through 3D polar plot. After successful simulation, the next step was fabrication. DipTrace circuit design tool was used to generate Gerber file and was printed it on glossy paper followed by printing of antenna on substrate. To remove copper surrounding, FeCl3 and butyl solutions were used followed by soldering of SMA, for successful transmission. The simulation results were empirically verified by using VNA (Vector Network Analyzer). The proposed antenna shows significant negative environmental effect on its transmission. The return loss is quantified as -13dB and -27dB at 2.4 and 5 GHz, respectively. In addition, it promises swift and economic transmission of data with minimum noise attenuation requirement.

1.
T.
Suganthi
,
D. S.
Robinson
,
G.
Kanimolhi
, and
T.
Nagamoorthy
,
Int. J. Innov. Sci. Eng. Technol.
1
,
245
249
(
2014
).
2.
J. B.
Gopalakrishnan
 et al.,
"Radiation Pattern Reconfigurable FM Antenna
” (
Conference Series, IOP Publishing
,
2019
) pp.
012054
.
3.
M.
Chandran
 et al.,
"An IoT Based Smart Parking System
" (
Journal of Physics: Conference Series
,
2019
) pp.
012044
4.
S. Binti
Zahir
 et al., "
Smart IoT Flood Monitoring System
" (
Journal of Physics: Conference Series
,
2019
) p.
012043
, 2019/12
5.
N.
Chater
,
T.
Mazri
, and
M.
Benbrahim
,
"Design and simulation of microstrip patch array antenna for electronic scanning Radar application
," (
International Conference on Wireless Technologies, Embedded and Intelligent Systems (WITS), IEEE
2017
) pp.
1
5
.
6.
D.
Tatarnikov
,
A.
Astakhov
,
S.
Emelianov
, and
A.
Stepanenko
, Google Patents (
2012
)
7.
S.
Burlakoti
and
P.
Rai
,
Kathford Journal of Engineering and Management
,
1
,
11
14
(
2018
).
8.
S. E.
Mendhe
and
Y. P.
Kosta
,
"Broadband multilayer stacked rectangular micro strip patch antenna using edge coupled patches
," (
2nd International Conference on Emerging Technology Trends in Electronics, Communication and Networking
,
2014
) pp.
1
3
,
9.
J.-R.
Lin
,
T.
Talty
, and
O. K.
Tonguz
,
"An empirical performance study of Intra-vehicular Wireless Sensor Networks under WiFi and Bluetooth interference
,"
in 2013 IEEE Global Communications Conference (GLOBECOM), IEEE
,
2013
) pp.
581
586
.
11.
Y.
Rahayu
,
T. A.
Rahman
,
R.
Ngah
, and
P.
Hall
,
"Ultra wideband technology and its applications
,"
in 2008 5th IFIP International Conference on Wireless and Optical Communications Networks (WOCN’08), IEEE
,
2008
) pp.
1
5
.
12.
Information on: https://www.emtalk.com/mpacalc.php (accessed April 27,
2020
).
13.
D.
Kaushal
and
T.
Shanmuganantham
,
"Microstrip slotted caterpillar patch antenna for S, Ku and K-band applications
,"
Materials Today: Proceedings
2018
) pp.
10738
10746
.
14.
H.
Werfelli
,
K.
Tayari
,
M.
Chaoui
,
M.
Lahiani
, and
H.
Ghariani
,
"Design of rectangular microstrip patch antenna
," (
2nd International Conference on Advanced Technologies for Signal and Image Processing (ATSIP): IEEE
,
2016
) pp.
798
803
.
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