Institut national de la recherche scientifique INRS-EMT, and Ãcole Polytechnique*, Montréal, CANADA. Bouraima Boukari, Djilali Hammou, Emilia Moldovan, ...
IEEE International Microwave Symposium, Boston, Massachusetts, June 11-16, 2009
MHMICs on Ceramic Substrate for Advanced Millimeter Wave Systems Bouraima Boukari, Djilali Hammou, Emilia Moldovan, Ke Wu*, Renato G. Bosisio*, and Serioja O. Tatu Institut national de la recherche scientifique INRS-EMT, and École Polytechnique*, Montréal, CANADA ABSTRACT This paper presents the simulation fabrication and measurement results of several new passive millimeter wave circuits integrated on a thin ceramic substrate, having a relative permittivity of 9.9 and a thickness of 127 μm. The work is focused on the design and experimental characterization of a Wilkinson power divider, a 90° ring hybrid coupler, a rate-race coupler, and several six-port architectures. Experimental results show the wideband characteristics over the V and W millimeter wave bands, allowing therefore their use as circuits for high data-rate wireless communication systems and radar sensors. Equivalence between conventional and six-port mixer
q
50 Ω
+ 4
p/2
Millimeter wave passive circuits dedicated to high data rate communication systems
4.5 mm
Microphotograph of the ring hybrid coupler in a S12 configuration measurement 0
dB(S(1,3)) dB(S(1,2)) dB(MHMIC_H90..S(1,3)) S param. (dB) Mag. dB(MHMIC_H90..S(1,2))
LO
3
S21 -3
S31 -6
Measured Simulated -9 60
61
62
63
64
Frequency (GHz) freq, GHz
-15
S11 -30
S11
-45
Measured Simulated
-60 60
61
62
63
64
4
3 50 Ω 5.4 mm
Millimeter-wave circuit measurement set-up
dB(MOM_simple_rat_race_mom..S(1,2)) dB(MOM_simple_rat_race_mom..S(1,4)) dB(MOM_simple_rat_race_mom..S(1,3)) S param. (dB) Mag. dB(S(1,3)) dB(S(1,2))
Microphotograph of the “rate race” coupler in a S14 configuration measurement 0
S21
-3
S31 -6
Measured Simulated -9 60
61
62
63
64
Frequency (GHz) freq, GHz
unwrap(phase(MHMIC_rat_race..S(1,2)))-unwrap(phase(MHMIC_rat_race..S(1,3))) dB(S(5,5)) dB(S(4,4)) (deg.) diff. Phase Outputs (phase(S(1,4))) unwrap phase(S(1,2))(dB) param. S Mag. dB(MHMIC_six_port_11111..S(4,4)) Mag. S param. (dB) dB(MHMIC_rat_race..S(4,4))
2
1 3 50 Ω 4
2 6
Circuit of 25.4 mm x25.4 mm under two port measurement setup using WR12/150 μm coplanar pico-probes
7.1 mm
Microphotograph of the six-port in a S51 configuration measurement
S55
-30
120 90 60 30
Measured Simulated
0 60
61
62
Measured Simulated
S55 -40 60
61
62
63
64
freq, GHz Frequency (GHz)
63
64
0
S52
-5
S51
-10
Measured Simulated
-15 60
61
62
63
64
Frequency (GHz) freq, GHz
Frequency (GHz) freq, GHz
0 -15
S11 -30 -45
S11 Measured Simulated
-60 60
61
62
0 -15
S56
-30
S56
-45
Measured Simulated
-60 60
61
62
63
64
freq, GHz Frequency (GHz) 120 90 60 30
Measured Simulated
0 60
61
62
63
64
freq, GHz Frequency (GHz)
Six-port architecture based on “rat-race” and ring hybrid couplers, measurement and simulation results
63
64
Frequency (GHz) freq, GHz 180
120
0 Measured Simulated
-10
S55
-20
S55
-30 -40 60
61
62
63
64
Frequency (GHz) freq, GHz
6.9 mm 60
Measured Simulated 0 60
61
62
63
64
Frequency (GHz) freq, GHz
MHMIC six-port architectures 5
-20
freq, GHz Frequency (GHz)
Rate race microstrip coupler and its measurement and simulation results 1
-10
dB(MHMIC_six_port_rat_race11111..S(2,2)) unwrap(phase(MHMIC_six_port_11111..S(1,3)))-unwrap(phase(MHMIC_six_port_11111..S(1,2)))-180 dB(MOM_simple_rat_race_mom..S(2,2)) (deg.) diff. Phase Outputs phase(S(5,1))-phase(S(5,2))-180 Mag. S param. (dB) dB(S(5,5)) dB(MHMIC_six_port_rat_race11111..S(2,2)) Mag. S param. (dB)
4
-
2
0 -10 -20
S66 S66
-30
Measured Simulated
-40 60
61
62
freq, GHz Frequency (GHz)
63
64
Microphotograph of the six-port in a S56 configuration measurement 0 Measured Simulated
-10 -20
S66 -30
S66
-40 60
61
62
63
64
freq, GHz Frequency (GHz) 120 90 60 30
Measured Simulated
0 60
61
62
freq, GHz Frequency (GHz)
63
64
dB(S(5,7)) dB(MHMIC_six_port_11111..S(1,4)) Mag. S param. (dB)
RF
2
1
0
dB(MHMIC_six_port_rat_race11111..S(1,3)) dB(S(5,2)) dB(S(5,1)) dB(MHMIC_six_port_11111..S(1,2)) Mag. S param. (dB)
6
+
0
dB(MHMIC_six_port_11111..S(1,1)) S param. (dB) Mag. dB(S(5,5))
q
Sixport
i
MHMIC_six_port_rat_race11111..S(1,2)))-unwrap(phase(MHMIC_six_port_rat_race11111..S(1,3))) Outputs Phase diff. (deg.) dB(MHMIC_six_port_rat_race11111..S(4,4)) unwrap(phase(S(5,2)))-unwrap(phase(S(5,1)))-180 param. (dB) Mag. S dB(S(7,7))
3
RF
-
dB(S(4,4))
1
dB(S(5,2)) dB(S(5,1)) dB(MHMIC_six_port_11111..S(1,3)) dB(MHMIC_six_port_11111..S(1,2)) Mag. S param. (dB)
LO 5
Six-port architecture based on 4 ring hybrid couplers, measurement and simulation results
Ring hybrid microstrip coupler and its measurement and simulation results phase(MHMIC_H90..S(1,2))-phase(MHMIC_H90..S(1,3)) diff. (deg.) dB(hybrid_coplanar_coupler_charge4_mom..S(1,1)) Outputs Phase unwrap (phase(S(1,3))) phase(S(1,2))Mag. S param. (dB)
i
MHMIC couplers
0
S51
-5
S52 -10 Measured Simulated
-15 60
61
62
63
64
freq, GHz(GHz) Frequency 0 Measured Simulated
-10 -20
S56
-30
S56
-40 60
61
62
freq, GHz Frequency (GHz)
63
64
IEEE International Microwave Symposium, Boston, Massashuset, June 11-16, 2009
MHMICs on Ceramic Substrate for Advanced Millimeter Wave Systems Bouraima Boukari, Djilali Hammou, Emilia Moldovan, Ke Wu*, Renato G. Bosisio*, and Serioja O. Tatu Institut national de la recherche scientifique INRS-EMT, and École Polytechnique*, Montréal, CANADA
S21 Mesured Simulated
Frequency (GHz)
Mag. S Param (dB)
3
300μm
Mesured Simulated
S15
Frequency (GHz)
Mesured Simulated
Frequency (GHz)
Six-port for double-balanced mixer and its simulation and measurement results 5
1
4
Mesured Simulated
2
3
S22
S22
Mesured Simulated
6
Frequency (GHz)
Frequency (GHz)
Six-port block schematic for IQ down-conversion
S11
Six-port block schematic for double-balanced mixer
Mesured Simulated
S11
Mag. S Param (dB)
Microphotograph of the Six-port for balanced mixer
S66
Mesured Simulated
S66
Mesured Simulated
S35
S45 Mesured Simulated
Frequency (GHz) Frequency (GHz)
S25
Frequency (GHz) Mesured Simulated
Mesured Simulated
Frequency (GHz)
Frequency (GHz)
Phase difference (deg)
Mag. S Param (dB)
S31
S66
S65
S65 Mesured Simulated
Frequency (GHz)
Microphotograph of the Wilkinson power divider in a S13 configuration measurement S21
Frequency (GHz)
S66
Frequency (GHz)
Frequency (GHz)
Phase difference (deg)
3
Mesured Simulated
Mesured Simulated
Mesured Simulated
Mag. S Param (dB)
50 Ω
1
S31
S21
S65
S11
Mag. S Param (dB)
2
Mag. S Param (dB)
Microstrip Wilkinson power divider and its measurement and simulation results
Mag. S Param (dB)
125μm
Microphotograph of the rate race coupler in a S12 configuration measurement
S11
Phase difference (deg)
2
Mesured Simulated
Frequency (GHz)
Frequency (GHz)
Rate race microstrip coupler and its measurement and simulation results 1
S65
Frequency (GHz)
4
50μm
Microphotograph of the six-port in a S51 configuration measurement
Mesured Simulated
Frequency (GHz)
Micro-photograph of the GSG Pico probe and the input/output circuit measurement including the microstrip/coplanar transition
S11
Mag. S Param (dB)
Mag. S Param (dB)
S31
S11
6
Mag. S Param (dB)
1
Microphotograph of the 900 hybrid coupler in a S12 configuration measurement
Mesured Simulated
2
Mag. S Param (dB)
2
3
3
Phase difference (deg)
4
4
S11
1
4
S11
Mag. S Param (dB)
2
5
Mag. S Param (dB)
Mag. S Param (dB)
1
3
Calibration standards integrated on the same substrate as the circuits
Six-port for IQ down-conversion and its simulation and measurement results
hybrid microstrip coupler and its measurement and simulation results
Phase difference (deg)
Circuits for millimeter-wave wideband data communication and radar applications
90o
Mesured Simulated
Frequency (GHz)
CONCLUSIONS New millimeter wave passive MHMICs, including different six-port architectures are designed and fabricated in microstrip technology. Simulation and measurement results show that the proposed circuits are wideband components which can be used for V and W band applications, such as high data-rate communications and radar sensors. For example, multi-carrier ultra wideband communication systems, such as 4 QPSK modulated carriers at 500 Mb/s per carrier, are currently under consideration. In addition, for radar applications, homodyne and heterodyne FMCW radar sensors using the proposed six-port circuits are also investigated.