roadmap past, present and future - linx consulting · april 2016 spcc p.gargini paolo gargini ....
TRANSCRIPT
April 2016 P.GarginiSPCC
Paolo GarginiPaolo Gargini Chairman ITRS2.0Chairman ITRS2.0
Fellow IEEE, Fellow IFellow IEEE, Fellow I--JSAPJSAPIntel Fellow (1995Intel Fellow (1995--2012)2012)
Roadmap Past, Present and
Future
11
April 2016 P.GarginiSPCC
Multiple StoriesMultiple Stories1.1. IntroductionIntroduction2.2. 1998. ITRS 1.01998. ITRS 1.0
1.1. Equivalent ScalingEquivalent Scaling
3.3. 2000. NNI. 2000. NNI. 4.4. 2005. Nanoelectronics Research Initiative (NRI)2005. Nanoelectronics Research Initiative (NRI)5.5. 20052005--6. MPU power limits6. MPU power limits6.6. 2006. More than Moore2006. More than Moore
1.1. Heterogeneous IntegrationHeterogeneous Integration
7.7. 2010.First Selection of post CMOS devices2010.First Selection of post CMOS devices8.8. 2011. Equivalent scaling fully in production2011. Equivalent scaling fully in production9.9. 2014. Scaling acceleration2014. Scaling acceleration10.10. 20142014--15.ITRS 2.015.ITRS 2.011.11. 2015. Post CMOS map of devices2015. Post CMOS map of devices12.12. 2016. IRDS2016. IRDS13.13. 20172017--2021.3D POWER Scaling2021.3D POWER Scaling
22
April 2016 P.GarginiSPCC
International Electron Device Meeting, December 1975
Second Update of Moore’s Law
2
4
7
9
13
1
3
56
8
101112
141516
0
191817
20
1961
1959
1960
1962
1963
1964
1965
1966
1967
1968
1969
1970
1971
1972
1973
1974
1975
1976
1977
1978
1979
1980
1965
1975
Log 2
of th
e nu
mbe
r of
com
pone
nts p
er in
tegr
ated
func
tion
Year
2X/Year
2X/2Year
33
April 2016 P.GarginiSPCC 44
April 2016 P.GarginiSPCC 5
MooreMoore’’s Law and Dennards Law and Dennard’’s s Scaling Laws ConvergenceScaling Laws Convergence
50% AREA READUCIONGENERATION TO GENERATION
50%
=> 30% LINEAR FEATURE REDUCTION
S=0.7
April 2016 P.GarginiSPCC
First Age of Scaling(Self-aligned Silicon Gate)
Phase 1
66
April 2016 P.GarginiSPCC
IC Industry at a GlanceIC Industry at a Glance (1975(1975--2003)2003)
Driver Cost/transistor -> 50% Reduction
How 2x Density/2 years (Moore)
Method Geometrical Scaling (Dennard)
77
April 2016 P.GarginiSPCC 8
The Incredible Shrinking Silicon The Incredible Shrinking Silicon Technology of the 90Technology of the 90’’ss
0.35 0.35 µµ
GateGate
SalicideSalicide
SpacerSpacer
SalicideSalicide
1995 0.250.25
Salicide
GateGate SpacerSpacer
Salicide
1997 0.180.18µµ
GateGate SpacerSpacer
Salicide
Salicide
1999
April 2016 P.GarginiSPCC
Gate Dielectric ScalingGate Dielectric Scaling
1
2
3To
x eq
uiva
lent
(nm
)
4 8 12
Monolayers
4
0
1999
2001
2003
2005
1997 NTRS
You Are Here!
Silicon substrate
1.2nm SiO2
Gate
99
From My Files
April 2016 P.GarginiSPCC 1010
April 2016 P.GarginiSPCC
Multiple StoriesMultiple Stories1.1. IntroductionIntroduction2.2. 1998. ITRS 1.01998. ITRS 1.0
1.1. Equivalent ScalingEquivalent Scaling
3.3. 2000. NNI. 2000. NNI. 4.4. 2005. Nanoelectronics Research Initiative (NRI)2005. Nanoelectronics Research Initiative (NRI)5.5. 20052005--6. MPU power limits6. MPU power limits6.6. 2006. More than Moore2006. More than Moore
1.1. Heterogeneous IntegrationHeterogeneous Integration
7.7. 2010.First Selection of post CMOS devices2010.First Selection of post CMOS devices8.8. 2011. 2011. Equivalent scaling fully in productionEquivalent scaling fully in production9.9. 2014. Scaling acceleration2014. Scaling acceleration10.10. 20142014--15.ITRS 2.015.ITRS 2.011.11. 2015. Post CMOS map of devices2015. Post CMOS map of devices12.12. 2016. IRDS2016. IRDS13.13. 20172017--2021.3D POWER Scaling2021.3D POWER Scaling
1111
April 2016 P.GarginiSPCC
Tutorial for SEMI P.Gargini
1998 ITRS Update
• Participation extended to: EECA, EIAJ, KSIA, TSIA at WSC on April 23,1998
• 1st Meeting held on July 10/11,1998 in San Francisco
• 2nd meeting held on December 10/11,1998 at SFO• 50% of tables in 1997 NTRS required some changes• 1998 ITRS Update posted on web in April 1999
1212
April 2016 P.GarginiSPCC
ITRS 1.0
1313
1998
April 2016 P.GarginiSPCC
Second Age of Scaling(Equivalent Scaling)
Phase 2
1414
April 2016 P.GarginiSPCC
The Ideal MOS TransistorThe Ideal MOS Transistor
From My Files
Fully SurroundingMetal Electrode
High-KGate Insulator
Fully Enclosed,DepletedSemiconductor
Low ResistanceSource/Drain
DrainSourceMetal Gate Insulator
Band EngineeredSemiconductor
1515
April 2016 P.GarginiSPCC 16
ITRS 7/11/1998
April 2016 P.GarginiSPCC
IC Industry at a GlanceIC Industry at a Glance (2003(2003-->2021)>2021)
Driver Cost/transistor-> 50% Reduction
How 2x Density/2 years (Moore)
Method Equivalent Scaling ( ITRS1.0)
1717
April 2016 P.GarginiSPCC 18
1991 Micro Tech 2000Workshop Report
1994NTRS1992NTRS 1997NTRS
The Start of the ITRS
Japan KoreaEurope Taiwan USA
http://www.itrs2.net
2001 ITRS1999 ITRS1998 ITRSUpdate
2000 ITRSUpdate
2002 ITRSUpdate
April 2016 P.GarginiSPCC 19
High-k/Metal-Gate(year 2000)
April 2016 P.GarginiSPCC
Four year pace of introduction of Equivalent Scaling into production
2020
April 2016 P.GarginiSPCC
Incubation TimeIncubation TimeEarly
InventionFocusedResearch
IntroductionManufacturing
Strained Silicon 1992 1998 2003
HKMG 1996 1998 2007
Raised S/D 1993 1998 2009
MultiGates 1988 2000 2011<11 years
DrainSourceMetal Gate Insulator
1998
2121
April 2016 P.GarginiSPCC 2222
April 2016 P.GarginiSPCC 2323
April 2016 P.GarginiSPCC 2424
April 2016 P.GarginiSPCC
IEEE, ISSCC: Transistor’s 60th year commemorative supplement
2525
April 2016 P.GarginiSPCC
April 2016 P.GarginiSPCC
Multiple StoriesMultiple Stories1.1. IntroductionIntroduction2.2. 1998. ITRS 1.01998. ITRS 1.0
1.1. Equivalent ScalingEquivalent Scaling
3.3. 2000. NNI. 2000. NNI. 4.4. 2005. Nanoelectronics Research Initiative (NRI)2005. Nanoelectronics Research Initiative (NRI)5.5. 20052005--6. MPU power limits6. MPU power limits6.6. 2006. More than Moore2006. More than Moore
1.1. Heterogeneous IntegrationHeterogeneous Integration
7.7. 2010.First Selection of post CMOS devices2010.First Selection of post CMOS devices8.8. 2011. Equivalent scaling fully in production2011. Equivalent scaling fully in production9.9. 2014. Scaling acceleration2014. Scaling acceleration10.10. 20142014--15.ITRS 2.015.ITRS 2.011.11. 2015. Post CMOS map of devices2015. Post CMOS map of devices12.12. 2016. IRDS2016. IRDS13.13. 20172017--2021.3D POWER Scaling2021.3D POWER Scaling
2727
April 2016 P.GarginiSPCC 2828
April 2016 P.GarginiSPCC
NRI Funded UniversitiesNRI Funded Universities Finding the Next Switch Finding the Next Switch
UC Los AngelesC BerkeleyUC IrvineUC Sana BarbaraStanfordU DenverPortland StateU Iowa
Notre Dame PurdueIllinois-UC Penn StateMichigan UT-DallasCornell GIT
UT-Austin Rice Texas A&MUT-Dallas ASU Notre DameU. Maryland NCSU Illinois UC
ColumbiaHarvardPurdueUVAYaleUC Santa BarbaraStanfordNotre DameU. Nebraska/LincolnU. MarylandCornellIllinois UCCaltechUC BerkeleyMITNorthwesternBrownU Alabama
SUNY-Albany GIT HarvardPurdue RPI ColumbiaCaltech MIT NCSUYale UVA
Over 30 Universities in 20 States
SPIN
TUNNEL FET
GRAPHENESPIN LOGIC
GRAPHENE
2929
April 2016 P.GarginiSPCC
Dec 2010
3030
April 2016 P.GarginiSPCC 3131
April 2016 P.GarginiSPCC
April 2016 P.GarginiSPCC 3333
April 2016 P.GarginiSPCC 3434
April 2016 P.GarginiSPCC 3535
April 2016 P.GarginiSPCC
Multiple StoriesMultiple Stories1.1. IntroductionIntroduction2.2. 1998. ITRS 1.01998. ITRS 1.0
1.1. Equivalent ScalingEquivalent Scaling
3.3. 2000. NNI. 2000. NNI. 4.4. 2005. Nanoelectronics Research Initiative (NRI)2005. Nanoelectronics Research Initiative (NRI)5.5. 20052005--6. MPU power limits6. MPU power limits6.6. 2006. More than Moore2006. More than Moore
1.1. Heterogeneous IntegrationHeterogeneous Integration
7.7. 2010.First Selection of post CMOS devices2010.First Selection of post CMOS devices8.8. 2011. Equivalent scaling fully in production2011. Equivalent scaling fully in production9.9. 2014. Scaling acceleration2014. Scaling acceleration10.10. 20142014--15.ITRS 2.015.ITRS 2.011.11. 2015. Post CMOS map of devices2015. Post CMOS map of devices12.12. 2016. IRDS2016. IRDS13.13. 20172017--2021.3D POWER Scaling2021.3D POWER Scaling
3636
April 2016 P.GarginiSPCC
MM+MtM=Heterogeneous IntegrationMM+MtM=Heterogeneous Integration2006
More than Moore: Diversification
Mor
e M
oore
: M
inia
turiz
atio
n
Combining SoC and SiP: Heterogeneous IntegrationBas
elin
e C
MO
S:
CP
U, M
emor
y, L
ogic
BiochipsSensorsActuators
HVPowerAnalog/RF Passives
130nm
90nm
65nm
45nm
32nm
22nm
16 nm...V
Information Processing
Digital contentSystem-on-chip
(SoC)
Beyond CMOS
Interacting with people and environment
Non-digital contentSystem-in-package
(SiP)
2006
3737
April 2016 P.GarginiSPCC 38
On January 9, 2007 Steve Jobs announced the iPhone at the Macworld convention, receiving substantial media attention,[16] and that it would be released later that year. On June 29, 2007 the first iPhone was released.
iPhoneJune 2007
April 2016 P.GarginiSPCC 39
TabletApril 2010
A WiFi-only model of the tablet was released in April 2010, and a WiFi+3G model was introduced about a month later
April 2016 P.GarginiSPCC 4040
April 2016 P.GarginiSPCC
Multiple StoriesMultiple Stories1.1. IntroductionIntroduction2.2. 1998. ITRS 1.01998. ITRS 1.0
1.1. Equivalent ScalingEquivalent Scaling
3.3. 2000. NNI. 2000. NNI. 4.4. 2005. Nanoelectronics Research Initiative (NRI)2005. Nanoelectronics Research Initiative (NRI)5.5. 20052005--6. MPU power limits6. MPU power limits6.6. 2006. More than Moore2006. More than Moore
1.1. Heterogeneous IntegrationHeterogeneous Integration
7.7. 2010.First Selection of post CMOS devices2010.First Selection of post CMOS devices8.8. 2011. Equivalent scaling fully in production2011. Equivalent scaling fully in production9.9. 2014. Scaling acceleration2014. Scaling acceleration10.10. 20142014--15.ITRS 2.015.ITRS 2.011.11. 2015. Post CMOS map of devices2015. Post CMOS map of devices12.12. 2016. IRDS2016. IRDS13.13. 20172017--2021.3D POWER Scaling2021.3D POWER Scaling
4141
April 2016 P.GarginiSPCC
2D 3D
4242
April 2016 P.GarginiSPCC
22 nm Tri-Gate Transistor
Gates Fins
Mark Bohr, Kaizad Mistry, May 2011 4343
April 2016 P.GarginiSPCC
How many more technology generationscan
Equivalent Scaling be extended for ?
Question
4444
April 2016 P.GarginiSPCC
Multigate FET Offers a Simple Way for Scaling and Improving Performance
5 4 3
Semicon Japan, December 6, 2013
4545
April 2016 P.GarginiSPCCMark Bohr, August 11, 2014
4646
April 2016 P.GarginiSPCCMark Bohr, August 11, 2014
4747
April 2016 P.GarginiSPCC
Fin FETMoore’s Law Acceleration
4848
April 2016 P.GarginiSPCCMark Bohr, August 11, 2014
4949
April 2016 P.GarginiSPCC 5050
April 2016 P.GarginiSPCC
5
7
10Te
chno
logy
Nod
e (n
m)
2017 2015 2013
14
2019
2013 ITRS5151
2021
3
1
Technology Node ScalingTechnology Node ScalingToday’s Challenge
April 2016 P.GarginiSPCC 52
April 2016 P.GarginiSPCC
Micron/ Intel 20-nm 64G MLC NAND Flash
5353
April 2016 P.GarginiSPCC
NAND Relative Wafer Cost
5454
April 2016 P.GarginiSPCC 5555
April 2016 P.GarginiSPCC 5656
April 2016 P.GarginiSPCC 5757
April 2016 P.GarginiSPCC 5858
April 2016 P.GarginiSPCC
Vertical Logic Architecture
5959
April 2016 P.GarginiSPCC
3DMoore’s Law Acceleration
6060
April 2016 P.GarginiSPCC
3D Architecture
6161
April 2016 P.GarginiSPCC
Multiple StoriesMultiple Stories1.1. IntroductionIntroduction2.2. 1998. ITRS 1.01998. ITRS 1.0
1.1. Equivalent ScalingEquivalent Scaling
3.3. 2000. NNI. 2000. NNI. 4.4. 2005. Nanoelectronics Research Initiative (NRI)2005. Nanoelectronics Research Initiative (NRI)5.5. 20052005--6. MPU power limits6. MPU power limits6.6. 2006. More than Moore2006. More than Moore
1.1. Heterogeneous IntegrationHeterogeneous Integration
7.7. 2010.First Selection of post CMOS devices2010.First Selection of post CMOS devices8.8. 2011. Equivalent scaling fully in production2011. Equivalent scaling fully in production9.9. 2014. Scaling acceleration2014. Scaling acceleration10.10. 20142014--15.ITRS 2.015.ITRS 2.011.11. 2015. Post CMOS map of devices2015. Post CMOS map of devices12.12. 2016. IRDS2016. IRDS13.13. 20172017--2021.3D POWER Scaling2021.3D POWER Scaling
6262
April 2016 P.GarginiSPCC
Third Age of Scaling(3D Power Scaling)
Phase 3
6363
April 2016 P.GarginiSPCC
IC Industry at a GlanceIC Industry at a Glance (2021(2021-->203X)>203X)
Driver Cost/transistor & power reduction
How 2x Density/2 years (Moore)
Method 3D Power Scaling (ITRS2.0)
6464
April 2016 P.GarginiSPCC
The Different Ages of ScalingThe Different Ages of Scaling (Different methods for different times) (Different methods for different times)
①①
Geometrical Scaling (1975Geometrical Scaling (1975--2003)2003)①①
Reduction of horizontal and vertical physical dimensions in Reduction of horizontal and vertical physical dimensions in conjunction with improved performance of planar transistors conjunction with improved performance of planar transistors
②②
Equivalent Scaling (2003~2021)Equivalent Scaling (2003~2021)①①
Reduction of only horizontal dimensions in conjunction with Reduction of only horizontal dimensions in conjunction with introduction of new materials and new physical effects. New introduction of new materials and new physical effects. New vertical structures replace the planar transistorvertical structures replace the planar transistor
③③
3D Power Scaling (2021~203X)3D Power Scaling (2021~203X)①①
Transition to complete vertical device structures. Transition to complete vertical device structures. Heterogeneous integration in conjunction with reduced Heterogeneous integration in conjunction with reduced power consumption become the technology driverspower consumption become the technology drivers
6565
April 2016 P.GarginiSPCC
More Moore Beyond Moore
More than Moore
Heterogeneous Integration
System Integration
Customized FunctionalityOP
SYSTEM
APPLETS
Outside System Connectivity
Beyond 2020
ITRS 2012
6666
April 2016 P.GarginiSPCC
1991 Micro Tech 2000Workshop Report
1994NTRS1992NTRS 1997NTRS
21th Anniversary of TRS
Japan KoreaEurope Taiwan USA
http://www.itrs2.net
2001 ITRS1999 ITRS1998 ITRSUpdate
2000 ITRSUpdate
2002 ITRSUpdate
2004 ITRSUpdate
2006 ITRSUpdate2003 ITRS 2005 ITRS 2007 ITRS
2008 ITRSUpdate
2010 ITRSUpdate2009 ITRS 2012 ITRS
Update2011 ITRS
2013 ITRS
6767
April 2016 P.GarginiSPCC
Dec 2015 P.Gargini RC4
Beyond 2020
Outside System Connectivity Outside System Connectivity
System Integration System Integration
Heterogeneous Integration Heterogeneous Integration
Beyond Moore Beyond CMOS
More than Moore Heterogeneous Components
More Moore More Moore
Manufacturing Factory Integration
Themes Focus Teams April 2014
3 Dec 2015 P.Gargini RC4
More Moore Beyond Moore
More than Moore
Heterogeneous Integration
System Integration
Customized Functionality O P S Y S T E M
A P P L E T S
Outside System Connectivity
Beyond 2020
ITRS 2012
2
April 2014
From ITRS to ITRS 2.0
6868
April 2016 P.GarginiSPCC 6969
ITRS 2.0
http://www.itrs2.net
April 2016 P.GarginiSPCC 7070
April 2016 P.GarginiSPCC
Q: How do we get back to Q: How do we get back to exponential performance scaling?exponential performance scaling?
IEEE Rebooting Computing InitiativeIEEE Rebooting Computing Initiative
7171
April 2016 P.GarginiSPCC 7272
April 2016 P.GarginiSPCC
April 2016 P.GarginiSPCC 7474
April 2016 P.GarginiSPCC
April 2016 P.GarginiSPCC 7676
April 2016 P.GarginiSPCC
NAND FlashYear of Production 2015 2016 2020 2022 2024 2028 20302D NAND Flash uncontacted poly 1/2 pitch – F (nm) 15 14 12 12 12 12 12
3D NAND minimum array 1/2 pitch - F(nm) 80nm 80nm 80nm 80nm 80nm 80nm 80nm
Number of word lines in one 3D NAND string 32 32-48 64-96 96-128 128-192 256-384 384-512
Dominant Cell type (FG, CT, 3D, etc.) FG/CT/3D FG/CT/3D FG/CT/3D FG/CT/3D FG/CT/3D FG/CT/3D FG/CT/3D
Product highest density (2D or 3D) 256G 384G 768G 1T 1.5T 3T 4T
3D NAND number of memory layers 32 32-48 64-96 96-128 128-192 256-384 384-512
Maximum number of bits per cell for 2D NAND 3 3 3 3 3 3 3
Maximum number of bits per cell for 3D NAND 3 3 3 3 3 3 3
7777
April 2016 P.GarginiSPCC
DRAM TECHNOLOGYYEAR OF PRODUCTION 2015 2017 2019 2021 2024 2027 2030Half Pitch (Calculated Half pitch) (nm) 24 20 17 14 11 8.4 7.7
DRAM cell size (µm2) 0.00346 0.00240 0.00116 0.00078 0.00048 0.00028 0.00024
DRAM cell FET structure RCAT+Fi n RCAT+Fin VCT VCT VCT VCT VCT
Cell Size Factor: a 6 6 4 4 4 4 4
Array Area Efficiency 0.55 0.55 0.5 0.5 0.5 0.5 0.5
Vint (support FET voltage) [V] 1.1 1.1 1.1 1.1 0.95 0.95 0.95
Support min. Vtn (25C, Gm,max , Vd =55mV) 0.40 0.40 0.40 0.40 0.37 0.37 0.37
Minimum DRAM retention time (ms) 64 64 64 64 64 64 64
DRAM soft error rate (fits) 1000 1000 1000 1000 1000 1000 1000
Gb/1chip target 8G 8G 16G 16G 32G 32G 32G
7878
April 2016 P.GarginiSPCC 7979
April 2016 P.GarginiSPCC 8080
April 2016 P.GarginiSPCC
ConclusionsConclusions
““Geometrical ScalingGeometrical Scaling”” led the IC Industry for 3 decadesled the IC Industry for 3 decades
ITRS 1.0ITRS 1.0
Cooperative and distributed research and manufacturing methods Cooperative and distributed research and manufacturing methods highlighted by highlighted by ITRS ITRS emerged as cost effective means of reducing costs emerged as cost effective means of reducing costs since the midsince the mid--90s90s
FCRP, NRI, Sematech, IMEC and Government organizations actively FCRP, NRI, Sematech, IMEC and Government organizations actively cooperated in cooperated in advanced researchadvanced research
““Equivalent ScalingEquivalent Scaling”” saved the Semiconductor Industry since saved the Semiconductor Industry since the beginning of the previous decadethe beginning of the previous decade
Preliminary evaluation of postPreliminary evaluation of post--CMOS candidates published in 2010CMOS candidates published in 2010
ITRS 2.0ITRS 2.0
““3D Power Scaling3D Power Scaling”” is the next phase of (accelerated) is the next phase of (accelerated) scalingscaling
Post CMOS devices and emerging architectures are being Post CMOS devices and emerging architectures are being jointly evaluatedjointly evaluated-->ITRS/IEEE RC>ITRS/IEEE RC-->IRDS>IRDS
8181