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1/25
Collaboration between University andMentor GraphicsHyperLynx SI
Raul Blecic and Adrijan Baric
University of ZagrebFaculty of Electrical Engineering and ComputingIC&EMC Lab
Zagreb, June 10th 2015
2/25
Contents
1 IntroductionAbout IC&EMC Lab at FER
2 HyperLynx SIMentor Graphics tools at IC&EMC LabExample - LIN (Local Interconnect Network)Example - design of RF amplifierMore applications
3 Conclusion
Electronic Design SIMULATION DAY — June 10th 2015 Blecic and Baric — University of Zagreb, FER, IC&EMC Lab
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Introduction HyperLynx SI Conclusion Contact
1 IntroductionAbout IC&EMC Lab at FER
2 HyperLynx SI
3 Conclusion
Electronic Design SIMULATION DAY — June 10th 2015 Blecic and Baric — University of Zagreb, FER, IC&EMC Lab
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Introduction HyperLynx SI Conclusion Contact
About IC&EMC Lab at FER
About IC&EMC Lab at Faculty of Electrical Engineering and Computing,University of Zagreb:
Members:
• Prof. dr. sc. Adrijan Baric,
• Prof. dr. sc. Zeljko Butkovic,
• Associate prof. dr. sc. Igor Krois,
• Assistant prof. dr. sc. Vladimir Ceperic,
• Senior assistant, dr. sc. Tvrtko Mandic,
• Niko Bako, dipl. ing. (PhD student),
• Raul Blecic, dipl. ing. (PhD student),
• Josip Bacmaga, mag. ing. el. (PhD student),
• Marko Magerl, mag. ing. el. (PhD student),
• Hrvoje Stimac, mag. ing. el. (researcher).
Electronic Design SIMULATION DAY — June 10th 2015 Blecic and Baric — University of Zagreb, FER, IC&EMC Lab
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Introduction HyperLynx SI Conclusion Contact
About IC&EMC Lab at FER
Industrial partners:
• ON Semiconductor, Belgium,
• Bosch, Germany,
• Philips, Germany,
• Infineon, Germany,
• NXP, Netherlands/Belgium,
• ams, Unterpremstaetten, Austria,
• Henkel, Belgium,
• CRP, Italy,
• Hanita, Israel,
• Cadence, France,
• CamSemi, Cambridge, UK,
• Locus d.o.o. Zagreb, Croatia.
Electronic Design SIMULATION DAY — June 10th 2015 Blecic and Baric — University of Zagreb, FER, IC&EMC Lab
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Introduction HyperLynx SI Conclusion Contact
About IC&EMC Lab at FER
Collaboration with universities:
• KU Leuven, Belgium,
• IMEC, Belgium,
• Portland State University, Oregon, USA,
• INSA, Toulouse, France,
• University of Cambridge, UK.
Electronic Design SIMULATION DAY — June 10th 2015 Blecic and Baric — University of Zagreb, FER, IC&EMC Lab
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Introduction HyperLynx SI Conclusion Contact
1 Introduction
2 HyperLynx SIMentor Graphics tools at IC&EMC LabExample - LIN (Local Interconnect Network)Example - design of RF amplifierMore applications
3 Conclusion
Electronic Design SIMULATION DAY — June 10th 2015 Blecic and Baric — University of Zagreb, FER, IC&EMC Lab
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Introduction HyperLynx SI Conclusion Contact
Mentor Graphics tools at IC&EMC Lab
Usage of Mentor Graphics tools at IC&EMC Lab:
• Design of printed circuit boards:
• Xpedition Enterprise,• PADS.
• Analysis of printed circuit boards:
• HyperLynx SI.• 2-D field solver.
• SPICE simulations:
• Eldo,• EZwave.
Electronic Design SIMULATION DAY — June 10th 2015 Blecic and Baric — University of Zagreb, FER, IC&EMC Lab
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Introduction HyperLynx SI Conclusion Contact
Mentor Graphics tools at IC&EMC Lab
Simple PCB design in Xpedition PCB:
• high-frequency characterisation of RF transistors.
Electronic Design SIMULATION DAY — June 10th 2015 Blecic and Baric — University of Zagreb, FER, IC&EMC Lab
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Introduction HyperLynx SI Conclusion Contact
Mentor Graphics tools at IC&EMC Lab
Complex PCB design in Xpedition PCB:
• system for characterisation of power transistors.
Electronic Design SIMULATION DAY — June 10th 2015 Blecic and Baric — University of Zagreb, FER, IC&EMC Lab
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Introduction HyperLynx SI Conclusion Contact
Example - LIN (Local Interconnect Network)
Example - LIN (Local Interconnect Network)
• Communication between components in vehicles:
• speed up to 20 kbit/s,• automotive - tests up to 1 GHz.
Simple analytical solution does not exist:
PCB during measurements:
Electronic Design SIMULATION DAY — June 10th 2015 Blecic and Baric — University of Zagreb, FER, IC&EMC Lab
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Introduction HyperLynx SI Conclusion Contact
Example - LIN (Local Interconnect Network)
Analysis in HyperLynx SI:
HyperLynx SI (boardsim): HyperLynx SI (linesim):
Netlist is generated from HyperLynx SI:
• models of passive components and connectors added to the netlist,
• complete test case is simulated in Eldo.
Electronic Design SIMULATION DAY — June 10th 2015 Blecic and Baric — University of Zagreb, FER, IC&EMC Lab
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Introduction HyperLynx SI Conclusion Contact
Example - LIN (Local Interconnect Network)
Comparison to measurements - return and insertion loss:
• very good agreement up to 3 GHz.
Return loss (S11):
0 0.5 1 1.5 2 2.5 3−40
−30
−20
−10
0
Frequency, f [GHz]
Magnitude[dB]
MeasurementsCircuit model
0 0.5 1 1.5 2 2.5 3−200
−100
0
100
200
Frequency, f [GHz]
Phase
[deg]
MeasurementsCircuit model
Insertion loss (S12):
0 0.5 1 1.5 2 2.5 3−40
−30
−20
−10
0
Frequency, f [GHz]
Magnitude[dB]
0 0.5 1 1.5 2 2.5 3−200
−100
0
100
200
Frequency, f [GHz]
Phase
[deg]
Analyzed path:
P2
P1
Electronic Design SIMULATION DAY — June 10th 2015 Blecic and Baric — University of Zagreb, FER, IC&EMC Lab
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Introduction HyperLynx SI Conclusion Contact
Example - LIN (Local Interconnect Network)
Comparison to measurements - coupling:
• good agreement up to 3 GHz.
Return loss (S11):
0 0.5 1 1.5 2 2.5 3−6
−4
−2
0
Frequency, f [GHz]
Magnitude[dB]
MeasurementsCircuit model
0 0.5 1 1.5 2 2.5 3−200
−100
0
100
200
Frequency, f [GHz]
Phase
[deg]
MeasurementsCircuit model
Coupling (S12):
0 0.5 1 1.5 2 2.5 3−70
−60
−50
−40
−30
Frequency, f [GHz]
Magnitude[dB]
0 0.5 1 1.5 2 2.5 3−200
−100
0
100
200
Frequency, f [GHz]
Phase
[deg]
Analyzed path:
P2
P1
Electronic Design SIMULATION DAY — June 10th 2015 Blecic and Baric — University of Zagreb, FER, IC&EMC Lab
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Introduction HyperLynx SI Conclusion Contact
Example - design of RF amplifier
Example - design of RF amplifier:
• 2.5-GHz amplifier,
• GaN transistorNitronex NPTB00004,
• VDS = 14 V,
• ID = 50 mA.
Designed in Xpedition PCB: Analyzed in HyperLynx SI (boardsim):
Electronic Design SIMULATION DAY — June 10th 2015 Blecic and Baric — University of Zagreb, FER, IC&EMC Lab
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Introduction HyperLynx SI Conclusion Contact
Example - design of RF amplifier
Extracted to HyperLynx SI (linesim):
• each interconnect is modelled by a transmission line element.
Netlist is generated from HyperLynx SI:
• models of components added to the netlist (transistor, passivecomponents and connectors),
• complete test case is simulated in Eldo.
Electronic Design SIMULATION DAY — June 10th 2015 Blecic and Baric — University of Zagreb, FER, IC&EMC Lab
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Introduction HyperLynx SI Conclusion Contact
Example - design of RF amplifier
Comparison to measurements - return loss and gain:
Return loss (S11):
0 1 2 3 4 5 6−30
−20
−10
0
Frequency, f [GHz]
Magnitude[dB]
MeasurementsCircuit model
0 1 2 3 4 5 6−200
−100
0
100
200
Frequency, f [GHz]
Phase
[deg]
Gain (S21):
0 1 2 3 4 5 6−60
−40
−20
0
20
Frequency, f [GHz]
Magnitude[dB]
MeasurementsCircuit model
0 1 2 3 4 5 6−200
−100
0
100
200
Frequency, f [GHz]
Phase
[deg]
Circuit model consists of:
• transistor model,
• model ofinterconnects,
• ideal model of passivecomponents.
Electronic Design SIMULATION DAY — June 10th 2015 Blecic and Baric — University of Zagreb, FER, IC&EMC Lab
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Introduction HyperLynx SI Conclusion Contact
Example - design of RF amplifier
Comparison to measurements - return loss and gain:
Return loss (S11):
0 1 2 3 4 5 6−30
−20
−10
0
Frequency, f [GHz]
Magnitude[dB]
MeasurementsCircuit model
0 1 2 3 4 5 6−200
−100
0
100
200
Frequency, f [GHz]
Phase
[deg]
Gain (S21):
0 1 2 3 4 5 6−60
−40
−20
0
20
Frequency, f [GHz]
Magnitude[dB]
MeasurementsCircuit model
0 1 2 3 4 5 6−200
−100
0
100
200
Frequency, f [GHz]
Phase
[deg]
Circuit model consists of:
• transistor model,
• model ofinterconnects,
• model of passivecomponents whichincludes packageparasitics.
Electronic Design SIMULATION DAY — June 10th 2015 Blecic and Baric — University of Zagreb, FER, IC&EMC Lab
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Introduction HyperLynx SI Conclusion Contact
Example - design of RF amplifier
Comparison to measurements - return loss and gain:
• very good agreement up to 4 GHz.
Return loss (S11):
0 1 2 3 4 5 6−30
−20
−10
0
Frequency, f [GHz]
Magnitude[dB]
MeasurementsCircuit model
0 1 2 3 4 5 6−200
−100
0
100
200
Frequency, f [GHz]
Phase
[deg]
Gain (S21):
0 1 2 3 4 5 6−60
−40
−20
0
20
Frequency, f [GHz]
Magnitude[dB]
MeasurementsCircuit model
0 1 2 3 4 5 6−200
−100
0
100
200
Frequency, f [GHz]
Phase
[deg]
Circuit model consists of:
• transistor model,
• model ofinterconnects,
• model of passivecomponents whichincludes packageparasitics,
• model of RFconnectors.
Electronic Design SIMULATION DAY — June 10th 2015 Blecic and Baric — University of Zagreb, FER, IC&EMC Lab
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Introduction HyperLynx SI Conclusion Contact
More applications
More applications of Mentor Graphics tools at IC&EMC Lab:
• HyperLynx PI:
• analysis of the impedance profile of the power distribution network.
Test case:
Simulation results:
1 MHz 10 MHz 100 MHz 1 GHz0.001
0.01
0.1
1
10
100
Electronic Design SIMULATION DAY — June 10th 2015 Blecic and Baric — University of Zagreb, FER, IC&EMC Lab
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Introduction HyperLynx SI Conclusion Contact
More applications
More applications of Mentor Graphics tools at IC&EMC Lab:
• Electromagnetic properties of interconnects:
• analysis (Z0, coupling),• visualization (field distribution, loss vs frequency),• extraction of RLGC matrices from geometry,• extraction of S-parameter matrix of boards.
Field distribution: Loss vs frequency:
Electronic Design SIMULATION DAY — June 10th 2015 Blecic and Baric — University of Zagreb, FER, IC&EMC Lab
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Introduction HyperLynx SI Conclusion Contact
More applications
• Xpedition PCB:
• design of PCBs.
• HyperLynx SI:
• signal integrity and EMC analysis of PCBs.
• HyperLynx PI:
• power integrity analysis of PCBs.
• FloTHERM and HyperLynx Thermal:
• thermal analysis of PCBs, packages and ICs.
• HyperLynx 3D EM:
• 3D analysis of interconnects,• integrated within the HyperLynx environment.
• HyperLynx DRC:
• PCB design verification,• design rule checks for EMI/EMC, signal and power integrity.
• Calibre:
• DRC, LVS, PEX,• industry standard for verification of IC designs.
Electronic Design SIMULATION DAY — June 10th 2015 Blecic and Baric — University of Zagreb, FER, IC&EMC Lab
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Introduction HyperLynx SI Conclusion Contact
1 Introduction
2 HyperLynx SI
3 Conclusion
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Introduction HyperLynx SI Conclusion Contact
Mentor Graphics - more than PCB design:
• PCB design (Xpedition Enterprise/PADS),
• analysis of signal integrity (HyperLynx SI),
• analysis of power integrity (HyperLynx PI),
• analysis of thermal properties of PCBs (FloTHERM and HyperLynxThermal),
• EM analysis of PCBs (HyperLynx 3D EM),
• PCB design verification (HyperLynx DRC),
• IC design verification (Calibre).
Poveznica na HyperLynx: http://www.mentor.com/pcb/hyperlynx/
Electronic Design SIMULATION DAY — June 10th 2015 Blecic and Baric — University of Zagreb, FER, IC&EMC Lab
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Introduction HyperLynx SI Conclusion Contact
Prof. dr. sc. Adrijan Baric
University of ZagrebFaculty of Electrical Engineering and ComputingUnska 3, 10000 ZagrebCroatia
Tel +385 1 6129 913Email [email protected]://www.fer.unizg.hr/icdt
Electronic Design SIMULATION DAY — June 10th 2015 Blecic and Baric — University of Zagreb, FER, IC&EMC Lab