2. Process Control Parameters

2.1. NMOS-Specs

Tip

VGS ≤ 1.65 V @ 125°C

NMOS - Process Control Parameters

Parameter

Name

Unit

Min

Target

Max

Meas.Cond.

Comment

Threshold Voltage Short Channel Device

VTN10x013

V

0.43

0.50

0.55

A.a1

WxL = 10 x 0.13 µm²

Threshold Voltage Long Channel Device

VTN10x10

V

0.16

0.20

0.24

A.a1

WxL = 10 x 10 µm²

Threshold Voltage Small Channel Device

VTN015x013

V

0.4

0.54

0.68

A.a1

WxL = 0.15 x 0.13 µm²

Saturation Current Short Channel Device

IDSN013

µA/µm

380

480

600

A.b1

WxL = 10 x 0.13 µm²

Off-Current Short Channel Device

IOFFN013

LOG10 (A/µm)

-10

-9

A.c1

WxL = 10 x 0.13 µm²

Drain Induced Barrier Lowering 0.1/1.2V

DIBLN013

mV/V

20

50

80

A.d1

WxL = 10 x 0.13 µm²

Sub Threshold Slope

SSN013

mV/dec

76

82

88

A.e

WxL = 10 x 0.13 µm²

Breakdown Voltage

BVDSSN013

V

2.0

2.7

A.f1

WxL = 10 x 0.13 µm²

Effective Channel Length

LEFFN013

µm

0.10

0.14

0.19

A.g1

WxL = 10 x 0.13 µm²

Effective Channel Width

WEFFN015

µm

0.09

0.15

0.22

A.h1

WxL = 0.15 x 0.13 µm²

Miller Capacitance NMOS

CMILLERN

fF/µm

0.32

0.36

0.40

A.k1

Junction Capacitance NMOS

CJUNCTIONN

fF/µm²

0.9

0.95

1.0

A.k

Junction Breakdown

BVNPW

12

A.f3

2.2. PMOS-Specs

Tip

VGS ≤ 1.65 V @ 125°C

PMOS - Process Control Parameters

Parameter

Name

Unit

Min

Target

Max

Meas.Cond.

Comment

Threshold Voltage Short Channel Device

VTP10x013

V

-0.53

-0.47

-0.41

A.a1

WxL = 10 x 0.13 µm²

Threshold Voltage Long Channel Device

VTP10x10

V

-0.41

-0.36

-0.31

A.a1

WxL = 10 x 10 µm²

Threshold Voltage Small Channel Device

VTP015x013

V

-0.58

-0.48

-0.38

A.a1

WxL = 0.15 x 0.13 µm²

Saturation Current Short Channel Device

IDSP013

µA/µm

-270

-215

-170

A.b1

WxL = 10 x 0.13 µm²

Off-Current Short Channel Device

IOFFP013

LOG10 (A/µm)

-10.3

-9.3

A.c1

WxL = 10 x 0.13 µm²

Drain Induced Barrier Lowering 0.1/1.2V

DIBLP013

mV/V

25

50

75

A.d1

WxL = 10 x 0.13 µm²

Sub Threshold Slope

SSP013

mV/dec

-87

-81

-75

A.e

WxL = 10 x 0.13 µm²

Breakdown Voltage

BVDSSP013

V

-2.9

-2.2

A.f1

WxL = 10 x 0.13 µm²

Effective Channel Length

LEFFP013

µm

0.07

0.10

0.13

A.g1

WxL = 10 x 0.13 µm²

Effective Channel Width

WEFFP015

µm

0.17

0.24

0.31

A.h1

WxL = 0.15 x 0.13 µm²

Miller Capacitance

CMILLERP

fF/µm

0.31

0.35

0.39

A.k1

Junction Capacitance

CJUNCTIONP

fF/µm²

0.8

0.85

0.9

A.k

Junction Breakdown

BVPNW

V

-12

A.f3

2.3. iNMOS-Specs

Tip

VGS ≤ 1.65 V @ 125°C

INMOS - Process Control Parameters

Parameter

Name

Unit

Min

Target

Max

Meas.Cond.

Comment

Threshold Voltage Short Channel Device

VTNI10x013

V

0.43

0.50

0.55

A.a1

WxL = 10 x 0.13 µm²

Saturation Current Short Channel Device

IDSNI013

µA/µm

380

480

600

A.b1

WxL = 10 x 0.13 µm²

Off-Current Short Channel Device

IOFFNI013

LOG10 (A/µm)

-10

-9

A.c1

WxL = 10 x 0.13 µm²

Drain Induced Barrier Lowering 0.1/1.2V

DIBLNI013

mV/V

20

50

80

A.d1

WxL = 10 x 0.13 µm²

Sub Threshold Slope

SSNI013

mV/dec

76

82

88

A.e

WxL = 10 x 0.13 µm²

Breakdown Voltage

BVDSSNI013

V

2.0

2.7

A.f1

WxL = 10 x 0.13 µm²

2.4. HV-NMOS-Specs

Tip

VGS ≤ 3.3V (Maximum) @ 27°C for LG ≥ 0.6 µm

HV-NMOS - Process Control Parameters

Parameter

Name

Unit

Min

Target

Max

Meas.Cond.

Comment

Threshold Voltage Short Channel Device

VTNHV10x045

V

0.63

0.70

0.77

A.a2

WxL = 10 x 0.45 µm²

Threshold Voltage Long Channel Device

VTNHV10x10

V

0.65

0.69

0.73

A.a2

WxL = 10 x 10 µm²

Threshold Voltage Small Channel Device

VTNHV030x045

V

0.59

0.67

0.75

A.a2

WxL = 0.30 x 0.45 µm²

Saturation Current Short Channel Device

IDSNHV045

µA/µm

480

560

640

A.b2

WxL = 10 x 0.45 µm²

Off-Current Short Channel Device

IOFFNHV045

LOG10 (A/µm)

-12.5

-11.0

A.c2

WxL = 10 x 0.45 µm²

Drain Induced Barrier Lowering 0.1/1.8V

DIBLNHV045

mV/V

0

15

30

A.d2

WxL = 10 x 0.45 µm²

Sub Threshold Slope

SSNHV045

mV/dec

72

84

96

A.e

WxL = 10 x 0.45 µm²

Breakdown Voltage

BVDSSNHV045

V

5.3

6.1

A.f2

WxL = 10 x 0.45 µm²

Effective Channel Length

LEFFNHV045

µm

0.26

0.31

0.36

A.g2

WxL = 10 x 0.45 µm²

Effective Channel Width

WEFFNHV030

µm

0.23

0.28

0.33

A.h2

WxL = 0.30 x 0.45 µm²

Miller Capacitance

CMILLERNHV

fF/µm

0.42

0.45

0.48

A.k1

Junction Capacitance

CJUNC- TIONNHV

fF/µm²

0.74

0.80

0.86

A.k

Junction Breakdown

BVNPWhv

V

12

A.f3

2.5. HV-PMOS-Specs

Tip

VGS ≤ 3.3V (Maximum) @ 27°C for LG ≥ 0.5 µm

HV-PMOS - Process Control Parameters

Parameter

Name

Unit

Min

Target

Max

Meas.Cond.

Comment

Threshold Voltage Short Channel Device

VTPHV10x04

V

-0.71

-0.65

-0.59

A.a2

WxL = 10 x 0.4 µm²

Threshold Voltage Long Channel Device

VTPHV10x10

V

-0.78

-0.70

-0.64

A.a2

WxL = 10 x 10 µm²

Threshold Voltage Small Channel Device

VTPHV03x04

V

-0.71

-0.64

-0.57

A.a2

WxL = 0.3 x 0.4 µm²

Saturation Current Short Channel Device

IDSPHV04

µA/µm

-290

-240

-190

A.b2

WxL = 10 x 0.4 µm²

Off-Current Short Channel Device

IOFFPHV04

LOG10 (A/µm)

-12.5

-11.5

A.c2

WxL = 10 x 0.4 µm²

Drain Induced Barrier Lowering 0.1/3.3V

DIBLPHV04

mV/V

0

5

15

A.d2

WxL = 10 x 0.4 µm²

Sub Threshold Slope

SSPHV04

mV/dec

-102

-92

-82

A.e

WxL = 10 x 0.4 µm²

Breakdown Voltage

BVDSSPHV04

V

-6.3

-5.3

A.f2

WxL = 10 x 0.4 µm²

Effective Channel Length

LEFFPHV04

µm

0.24

0.30

0.36

A.g2

WxL = 10 x 0.4 µm²

Effective Channel Width

WEFFPHV03

µm

0.26

0.33

0.40

A.h2

WxL = 0.3 x 0.4 µm²

Miller Capacitance

CMILLERPHV

fF/µm

0.32

0.35

0.38

A.k1

Junction Capacitance

CJUNCTION- PHV

fF/µm²

0.74

0.80

0.86

A.k

Junction Breakdown

BVPNWhv

V

-12

A.f3

2.6. HV-iNMOS-Specs

Tip

VGS ≤ 3.3V (Maximum) @ 27°C for LG ≥ 0.6 µm

HV-iNMOS - Process Control Parameters

Parameter

Name

Unit

Min

Target

Max

Meas.Cond.

Comment

Threshold Voltage Short Channel Device

VTNIHV10x045

V

0.63

0.70

0.77

A.a2

WxL = 10 x 0.45 µm²

Saturation Current Short Channel Device

IDSNIHV045

µA/µm

480

560

640

A.b2

WxL = 10 x 0.45 µm²

Off-Current Short Channel Device

IOFFNIHV045

LOG10 (A/µm)

-12.5

-11.0

A.c2

WxL = 10 x 0.45 µm²

Drain Induced Barrier Lowering 0.1/1.8V

DIBLNIHV045

mV/V

0

15

30

A.d2

WxL = 10 x 0.45 µm²

Sub Threshold Slope

SSNIHV045

mV/dec

72

84

96

A.e

WxL = 10 x 0.45 µm²

Breakdown Voltage

BVDSSNIHV045

V

5.2

6.1

A.f2

WxL = 10 x 0.45 µm²

2.7. Rsil-Specs

Tip

Rsil utilizes salicided, n-doped gate polysilicon as resistor material.

Rsil - Process Control Parameters

Parameter

Name

Unit

Min

Target

Max

Meas.Cond.

Comment

Sheet Resistance

RSNRSIL

Ω

6.2

7.0

7.8

A.i

Line Width Delta

DWRSIL

nm

-20

10

40

A.i

Temperature Coefficients

TC1NRSIL

ppm/K

3100

A.af

Temperature Coefficients

TC2NRSIL

ppm/K²

0.3

A.af

Matching Coefficient

MATRSIL1

nm

6

A.ac

Matching Coefficient

MATRSIL2

nm

1.4

A.ac

Metal-to-Body- Resistance

RCRSIL

4.5

A.ae

Max. Current Density

Is limited by contacts, please refer chapter 2.9

2.8. Rppd-Specs

Tip

Rppd utilizes unsalicided, p-doped gate polysilicon as resistor material. For realizing precision resistors, a line width of 2µm or higher is recommended.

Rppd - Process Control Parameters

Parameter

Name

Unit

Min

Target

Max

Meas.Cond.

Comment

Sheet Resistance

RSRPPD

Ω

235

260

285

A.i

Line Width Delta

DWRPPD

nm

-24

6

36

A.i

Temperature Coefficients

TC1NRPPD

ppm/K

170

A.af

Temperature Coefficients

TC2NRPPD

ppm/K²

0.4

A.af

Matching Coefficient

MATRPPD

nm

15

A.ac

Metal-to-Body- Resistance

RCRPPD

Ω*µm

35

A.ae

Temperature Coefficient Metal-toBody-Resistance

TC3NRPPD

ppm/K

-950

Max. Current Density

IMRPPD

mA/μm

1.2

11 years @105°C

2.9. Rhigh-Specs

Tip

Rhigh utilizes unsalicided, partially compensated gate polysilicon as resistor material.

Rhigh - Process Control Parameters

Parameter

Name

Unit

Min

Target

Max

Meas.Cond.

Comment

Sheet Resistance

RSRHIGH

Ω

1160

1360

1560

A.i

Line Width Delta

DWRHIGH

nm

-80

-40

0

A.i

Temperature Coefficients

TC1NRHIGH

ppm/K

-2300

A.af

Temperature Coefficients

TC2NRHIGH

ppm/K²

2.1

A.af

Matching Coefficient

MATRHIGH

nm

48

A.ac

Metal-to-Body- Resistance

RCRHIGH

Ω*µm

80

A.ae

Max. Current Density

IMRHIGH

mA/μm

0.6

11 years @105°C

2.10. Schottky_nbl1-Specs

Tip

This Schottky barrier diode utilizes Nbulay as cathode.

Schottky_nbl1 - Process Control Parameters

Parameter

Name

Unit

Min

Target

Max

Meas.Cond.

Comment

Reverse current density

IRNBL1

µA/µm²

-1

-0.1

0

0.3 x 1.0 µm² @ -2.5 V

Diode Voltage

VFNBL1

V

0.34

0.39

0.44

0.3 x 1.0 µm² @ 100 µA/µm²

2.11. S-Varicap-Specs

Tip

Thick Gate Oxide

S-Varicap - Process Control Parameters

Parameter

Name

Unit

Min

Target

Max

Meas.Cond.

Comment

Capacitance -3

SVAR_m3

fF/µm²

20.5

23

25.5

10x(3.74x0.3)µm² @15.8GHz

Capacitance 0

SCVAR_0

fF/µm²

32

35.3

37.5

10x(3.74x0.3)µm² @15.8GHz

Capacitance +3

SCVAR_3

fF/µm²

37.5

39.5

41.5

10x(3.74x0.3)µm² @15.8GHz

Q Factor -3

QFACTOR_m3

50

62

75

10x(3.74x0.3)µm² @15.8GHz

Q Factor 0

QFACTOR_0

35

43

50

10x(3.74x0.3)µm² @15.8GHz

Q Factor 3

QFACTOR_3

35

43

50

10x(3.74x0.3)µm² @15.8GHz

2.12. MIM Capacitor-Specs

MIM Capacitor - Process Control Parameters

Parameter

Name

Unit

Min

Target

Max

Meas.Cond.

Comment

Specific Area Capacitance

CMIMA

fF/µm²

1.35

1.5

1.65

A.k

Specific Capacitance MIM Perimeter

CMIMP

aF/µm

40

A.l

Breakdown Voltage

BVMIM

V

15

23

A.y

Voltage Coefficients

VCMIM1

ppm/V

-26

A.ah

Voltage Coefficients

VCMIM2

ppm/V²

5

A.ah

Temperature Coefficient

TCMIM1

ppm/K

3.6

A.ad

Temperature Coefficient

TCMIM2

ppm/K²

0.002

A.ad

Matching Coefficient

KCMIM

nm

2.13. Resistances, Line Width Deltas, Temperature Coefficients

Resistances, Line Width Deltas, Temperature Coefficients - Process Control Parameters

Parameter

Name

Unit

Min

Target

Max

Meas.Cond.

Comment

Substrate Resistivity

RSBLK

Ωcm

37.5

50

62.5

Specification: WAFPR3763

Salicided GatPoly (n+)

refer section 2.13

Unsalicized GatPoly (n+)

refer section 2.14

Unsalicided GatPoly (p+)

refer section 2.15

Metal1 Snake Sheet Resistance

SNAKEM1

90

115

145

width = 0.16 µm

Unsalicided nSD-Activ Sheet Resistance

RSNSD0

Ω

55

67

79

Unsalicided pSD-Activ Sheet Resistance

RSPSD0

Ω

69

79

89

Metal2 Snake Sheet Resistance

SNAKEM2

70

88

110

width = 0.20 µm

Metal3 Snake Sheet Resistance

SNAKEM3

70

88

110

width = 0.20 µm

Metal4 Snake Sheet Resistance

SNAKEM4

70

88

110

width = 0.20 µm

Metal5 Snake Sheet Resistance

SNAKEM5

70

88

110

width = 0.20 µm

TopMetal1 Snake Sheet Resistance

SNAKETM1

14

18

22

width = 1.5 µm

TopMetal2 Snake Sheet Resistance

SNAKETM2

7.5

11

14.5

width = 2.0 µm

Metal1 Sheet Resistance

RSMET1

85

110

135

A.i

Metal2 Sheet Resistance

RSMET2

73

88

103

A.i

Metal3 Sheet Resistance

RSMET3

73

88

103

A.i

Metal4 Sheet Resistance

RSMET4

73

88

103

A.i

Metal5 Sheet Resistance

RSMET5

73

88

103

A.i

TopMetal1 Sheet Resistance

RSTM1

15

18

21

A.i

TopMetal2 Sheet Resistance

RSTM2

7.5

11

14.5

A.i

Metal1 Line Width Delta

DWMET1

nm

-64

-24

16

A.i

Metal2 Line Width Delta

DWMET2

nm

-56

-16

24

A.i

Metal3 Line Width Delta

DWMET3

nm

-56

-16

24

A.i

Metal4 Line Width Delta

DWMET4

nm

-56

-16

24

A.i

Metal5 Line Width Delta

DWMET5

nm

-50

-20

34

A.i

TopMetal1 Line Width Delta

DWTM1

nm

-300

-100

100

A.i

TopMetal2 Line Width Delta

DWTM2

nm

-340

-140

140

A.i

Metal1 Sheet Resistance Temperature Coefficient

TC1RSMET1

ppm/K

3400

A.af

Metal2 Sheet Resistance Temperature Coefficient

TC1RSMET2

ppm/K

3500

A.af

Metal3 Sheet Resistance Temperature Coefficient

TC1RSMET3

ppm/K

3500

A.af

Metal4 Sheet Resistance Temperature Coefficient

TC1RSMET4

ppm/K

3500

A.af

Metal5 Sheet Resistance Temperature Coefficient

TC1RSMET5

ppm/K

3500

A.af

TopMetal1 Sheet Resis- tance Temperature Coef- ficient

TC1RSTM1

ppm/K

3700

A.af

TopMetal2 Sheet Resis- tance Temperature Coef- ficient

TC1RSTM2

ppm/K

3800

A.af

2.14. Contact & Via Resistances

Contact & Via Resistances - Process Control Parameters

Parameter

Name

Unit

Min

Target

Max

Meas.Cond.

Comment

Metal1 to Silicide on nSD-Activ

RCM1NSD

Ω/CNT

8

17

22

V = 1 V

93740 contact chain

Metal1 to Silicide on pSD-Activ

RCM1PSD

Ω/CNT

8

17

22

V = 1 V

93740 contact chain

Metal1 to Silicide on GatPoly (n+)

RCM1NPLY

Ω/CNT

8

15

20

V = 1 V

98566 contact chain

Metal1 to Silicide on GatPoly (p+)

RCM1PPLY

Ω/CNT

8

15

20

V = 1 V

98566 contact chain

Metal2 - Metal1

RVIA1

Ω/VIA

5

9

20

V = 1 V

103840 contact chain

Metal3 - Metal2

RVIA2

Ω/VIA

5

9

20

V = 1 V

103840 contact chain

Metal4 - Metal3

RVIA3

Ω/VIA

5

9

20

V = 1 V

103840 contact chain

Metal5 - Metal4

RVIA4

Ω/VIA

5

9

20

V = 1 V

103840 contact chain

TopMetal1 - Metal5

RTV1

Ω/VIA

1

2.2

4

V = 1 V

3276 contact chain

TopMetal2 - TopMetal1

RTV2

Ω/VIA

0.5

1.1

2.2

V = 1 V

1140 contact chain

2.15. Maximum Current Densities

Tip

(11 years @105°C)

Maximum Current Densities - Process Control Parameters

Parameter

Name

Unit

Min

Target

Max

Meas.Cond.

Comment

Metal1

IMAXM1

mA

0.36

A.v

w = 0.16 … 0.36 µm

Metal1

JMAXM1

mA/µm

1

A.v

w > 0.36 µm

Metal2

IMAXM2

mA

0.6

A.v

w = 0.2 … 0.3 µm

Metal2

JMAXM2

mA/µm

2

A.v

w > 0.3 µm

Metal3

IMAXM3

mA

0.6

A.v

w = 0.2 … 0.3 µm

Metal3

JMAXM3

mA/µm

2

A.v

w > 0.3 µm

Metal4

IMAXM4

mA

0.6

A.v

w = 0.2 … 0.3 µm

Metal4

JMAXM4

mA/µm

2

A.v

w > 0.3 µm

Metal5

IMAXM5

mA

0.6

A.v

w = 0.2 … 0.3 µm

Metal5

JMAXM5

mA/µm

2

A.v

w > 0.3 µm

TopMetal1

JMAXM6

mA/µm

15

A.v

TopMetal2

JMAXM7

mA/µm

16

A.v

Contact

JMAXCNT

mA/Cnt

0.3

A.v

Via1

JMAXVIA1

mA/Via

0.4

A.v

Via2

JMAXVIA2

mA/Via

0.4

A.v

Via3

JMAXVIA3

mA/Via

0.4

A.v

Via4

JMAXVIA4

mA/Via

0.4

A.v

TopVia1

JMAXTVIA1

mA/Via

1.4

A.v

TopVia2

JMAXTVIA2

mA/Via

10

A.v

2.16. Layer Thickness Values

Layer Thickness Values - Process Control Parameters

Parameter

Name

Unit

Min

Target

Max

Meas.Cond.

Comment

Shallow Trench Isolator Thickness

TSTI

nm

400

A.ag

Gate Polysilicon Thickness

TGATPOLY

nm

150

160

170

A.w

Thickness of Gate Oxide

TGOXNW

nm

2.25

2.45

2.65

A.x

Thickness of Gate Oxide HV-MOS

TGOX1NW

nm

6.8

7.3

7.8

A.x

Thickness of Gate Oxide

TGOXPW

nm

2.45

2.65

2.85

A.x

Thickness of Gate Oxide HV-MOS

TGOX1PW

nm

7.0

7.5

8.0

A.x

Metal1 Layer Thickness

TMET1

nm

420

A.ag

Metal2 Layer Thickness

TMET2

nm

490

A.ag

Metal3 Layer Thickness

TMET3

nm

490

A.ag

Metal4 Layer Thickness

TMET4

nm

490

A.ag

Metal5 Layer Thickness

TMET5

nm

490

A.ag

TopMetal1 Layer Thickness

TTM1

nm

2000

A.ag

Isolator Thickness between Metal1 and Activ

TILD0

nm

640

A.w,A.ag

Isolator Thickness between Metal2 and Metal1

TILD1

nm

540

A.w,A.ag

Isolator Thickness between Metal3 and Metal2

TILD2

nm

540

A.w,A.ag

Isolator Thickness between Metal4 and Metal3

TILD3

nm

540

A.w,A.ag

Isolator Thickness between Metal5 and Metal4

TILD4

nm

540

A.w,A.ag

Isolator Thickness between TopMetal1 and Metal5

TILDTM1

nm

850

A.w,A.ag

MIM Capacitor Dielectric Thickness

TISMIM

nm

40

A.w

MIM Capacitor Top Plate Thickness

TMIMTOP

nm

150

A.ag

Thickness Values of Passivation Layers

TPASS1

nm

1500

A.ag

Oxide layer SiN layer

Thickness Values of Passivation Layers

TPASS2

nm

400

A.ag

Oxide layer SiN layer

TopMetal2 Layer Thickness

TTM2

nm

3000

A.ag

Isolator Thickness between TopMetal2 and TopMetal1

TILTM2

nm

2800

A.w,A.ag

2.17. Parasitic Capacitances

Parasitic Capacitances - Process Control Parameters

Parameter

Name

Unit

Min

Target

Max

Meas.Cond.

Comment

Metal1 - Activ Area Capacitance

CAMET1ACT

aF/µm²

49

59

69

A.aq

A = 250·1200 µm²

Metal1 - Substrate Area Capacitance

CAMET1SUB

aF/µm²

31

37

43

A.aq

A = 250·1200 µm²

Metal1 - Metal2 Area Capacitance

CAMET1/2

aF/µm²

54

68

82

A.aq

A = 250·1200 µm²

Metal2 - Metal3 Area Capacitance

CAMET2/3

aF/µm²

54

68

82

A.aq

A = 250·1200 µm²

Metal3 - Metal4 Area Capacitance

CAMET3/4

aF/µm²

54

68

82

A.aq

A = 250·1200 µm²

Metal4 - Metal5 Area Capacitance

CAMET4/5

aF/µm²

54

68

82

A.aq

A = 250·1200 µm²

TopMetal1 - Metal5 Area Capacitance

CATOPMET1

aF/µm²

36

42.5

49

A.aq

A = 250·1200 µm²

TopMetal2 - TopMetal1 Area Capacitance

CATOPMET2

aF/µm²

10

13

16

A.aq

A = 250·1200 µm²