SI82396AB-IS1 - SILICON LABS - Datasheet.Directory

Si8239x Data Sheet

4.0 A ISODrivers with 2.5 V VDDI and Safety Features

The Si8239x combines two isolated drivers with either an independent input control or a

single input into a single package for high power applications. All drivers operate with a

2.5 V input VDD and a maximum drive supply voltage of 24 V.

The Si8239x isolators are ideal for driving power MOSFETs and IGBTs used in a wide

variety of switched power and motor control applications. These drivers utilize Silicon

Laboratories' proprietary silicon isolation technology, supporting up to 5 kVRMS with-

stand voltage. This technology enables high CMTI (100 kV/µs), lower prop delays and

skew, reduced variation with temperature and age and tighter part-to-part matching.

It also offers some unique features such as an output UVLO fault detection and feed-

back, and automatic shutdown for both drivers, an EN (active high) pin, a safe delayed

start-up time of 1 ms, fail-safe drivers with default low in case of VDDI power-down, and

dead time programmability. The Si8239x family offers longer service life and dramatical-

ly higher reliability compared to opto-coupled gate drivers.

Automotive Grade is available for certain part numbers. These products are built using

automotive-specific flows at all steps in the manufacturing process to ensure the robust-

ness and low defectivity required for automotive applications.

KEY FEATURES

• Two isolated drivers in one package

•Up to 5 kVRMS isolation

• Up to 1500 VDC peak driver-to-driver

differential voltage

• Enhanced output UVLO safety

• Status feedback to controller

• Both outputs drive low on UVLO

• EN pin for enhanced safety

• Extended VDDI: 2.5 V – 5.5 V

• PWM and dual driver versions

• 4.0 A peak output

• High electromagnetic immunity

• Extended start-up time (1ms) for safe

initialization sequence

• 30 ns propagation delay

• Transient immunity: 100 kV/µs

• Programmable dead time

• 10–200 ns

• 40–600 ns

• Deglitch option for filtering noise

• Wide operating range

• –40 to +125 °C

• RoHS-compliant packages

• SOIC-16 wide body

• SOIC-16 narrow body

• AEC-Q100 qualified

• Automotive-grade OPNs available

• AIAG compliant PPAP documentation

support

• IMDS and CAMDS listing support

Industrial Applications

•Power Delivery Systems

• Motor Control Systems

• Isolated DC-DC Power Supplies

• Lighting Control Systems

• Solar and Industrial Inverters

Safety Approvals (Pending)

• UL 1577 recognized

• Up to 5000 Vrms for 1 minute

• CSA component notice 5A approval

• IEC 60950-1

• VDE certification conformity

• VDE 0884-10

• EN 60950-1 (reinforced insulation)

• CQC certification approval

• GB4943.1

Automotive Applications

•On-board chargers

• Battery management systems

• Charging stations

• Traction inverters

• Hybrid Electric Vehicles

• Battery Electric Vehicles

silabs.com | Building a more connected world. Rev. 1.01

Table of Contents

1. Ordering Guide ..............................3

2. System Overview ..............................6

2.1 Typical Performance Characteristics ......................7

2.2 Family Overview and Logic Operation During Startup ................8

2.2.1 Device Behavior ...........................9

2.3 Power Supply Connections .........................11

2.4 Power Dissipation Considerations .......................12

2.5 Layout Considerations ...........................13

2.6 Undervoltage Lockout Operation .......................13

2.6.1 Device Startup ...........................14

2.6.2 Undervoltage Lockout .........................15

2.6.3 Control Inputs ............................16

2.6.4 Enable Input ............................16

2.6.5 Delayed Startup Time .........................16

2.6.6 RDY Pin..............................16

2.7 Programmable Dead Time and Overlap Protection .................17

2.8 De-glitch Feature .............................17

3. Applications............................... 18

3.1 High-Side/Low-Side Driver .........................18

3.2 Dual Driver ...............................19

4. Electrical Characteristics ..........................20

5. Top-Level Block Diagrams .........................29

6. Pin Descriptions .............................32

7. Package Outline: 16-Pin Wide Body SOIC.................... 33

8. Land Pattern: 16-Pin Wide Body SOIC .....................35

9. Package Outline: 16-Pin Narrow Body SOIC ...................36

10. Land Pattern: 16-Pin Narrow Body SOIC.................... 37

11. Top Markings ..............................38

11.1 Si8239x Top Marking (16-Pin Wide Body SOIC) ..................38

11.2 Top Marking Explanation (16-Pin Wide Body SOIC).................38

11.3 Si8239x Top Marking (16-Pin Narrow Body SOIC) .................39

11.4 Top Marking Explanation (16-Pin Narrow Body SOIC) ................39

12. Revision History............................. 40

silabs.com | Building a more connected world. Rev. 1.01 | 2

1. Ordering Guide

Table 1.1. Si8239x Ordering Guide

Ordering Part

Number

Configuration Output

UVLO

Enhanced

UVLO

Status

Delayed

Startup

Time

Dead-Time

Setting

Deglitch Package

Type

Isolation

Rating

Si82390AD-IS Dual, VIA, VIB 6 V Yes Yes Yes N/A No SOIC-16 WB 5 kVrms

Si82390BD-IS Dual, VIA, VIB 8 V Yes Yes Yes N/A No SOIC-16 WB 5 kVrms

Si82390CD-IS Dual, VIA, VIB 12 V Yes Yes Yes N/A No SOIC-16 WB 5 kVrms

Si82395AD-IS Dual, VIA, VIB 6 V No Yes Yes N/A No SOIC-16 WB 5 kVrms

Si82395BD-IS Dual, VIA, VIB 8 V No Yes Yes N/A No SOIC-16 WB 5 kVrms

Si82395CD-IS Dual, VIA, VIB 12 V No Yes Yes N/A No SOIC-16 WB 5 kVrms

Si82397AD-IS Dual, VIA, VIB 6 V No No Yes N/A No SOIC-16 WB 5 kVrms

Si82397BD-IS Dual, VIA, VIB 8 V No No Yes N/A No SOIC-16 WB 5 kVrms

Si82397CD-IS Dual, VIA, VIB 12 V No No Yes N/A No SOIC-16 WB 5 kVrms

Si82391AD-IS Dual, VIA, VIB 6 V Yes Yes No N/A No SOIC-16 WB 5 kVrms

Si82391BD-IS Dual, VIA, VIB 8 V Yes Yes No N/A No SOIC-16 WB 5 kVrms

Si82391CD-IS Dual, VIA, VIB 12 V Yes Yes No N/A No SOIC-16 WB 5 kVrms

Si82393CD-IS HS/LS,

VIA/VIB

12 V Yes Yes No N/A Yes SOIC-16 WB 5 kVrms

Si82396AD-IS Dual, VIA, VIB 6 V No Yes No N/A No SOIC-16 WB 5 kVrms

Si82396BD-IS Dual, VIA, VIB 8 V No Yes No N/A No SOIC-16 WB 5 kVrms

Si82396CD-IS Dual, VIA, VIB 12 V No Yes No N/A No SOIC-16 WB 5 kVrms

Si82394AD-IS HS/LS, PWM 6 V No Yes Yes 10–200 ns No SOIC-16 WB 5 kVrms

Si82394BD-IS HS/LS, PWM 8 V No Yes Yes 10–200 ns No SOIC-16 WB 5 kVrms

Si82394CD-IS HS/LS, PWM 12 V No Yes Yes 10–200 ns No SOIC-16 WB 5 kVrms

Si82398AD-IS HS/LS, PWM 6 V No Yes No 10–200 ns No SOIC-16 WB 5 kVrms

Si82398BD-IS HS/LS, PWM 8 V No Yes No 10–200 ns No SOIC-16 WB 5 kVrms

Si82398CD-IS HS/LS, PWM 12 V No Yes No 10–200 ns No SOIC-16 WB 5 kVrms

Si82390AB-IS1 Dual, VIA, VIB 6 V Yes Yes Yes N/A No SOIC-16 NB 2.5

kVrms

Si82390BB-IS1 Dual, VIA, VIB 8 V Yes Yes Yes N/A No SOIC-16 NB 2.5

kVrms

Si82390CB-IS1 Dual, VIA, VIB 12 V Yes Yes Yes N/A No SOIC-16 NB 2.5

kVrms

Si82392BB-IS1 HS/LS,

VIA/VIB

8 V No Yes No N/A No SOIC-16 NB 2.5

kVrms

Si82395AB-IS1 Dual, VIA, VIB 6 V No Yes Yes N/A No SOIC-16 NB 2.5

kVrms

Si82395BB-IS1 Dual, VIA, VIB 8 V No Yes Yes N/A No SOIC-16 NB 2.5

kVrms

Si8239x Data Sheet

Ordering Guide

silabs.com | Building a more connected world. Rev. 1.01 | 3

Ordering Part

Number

Configuration Output

UVLO

Enhanced

UVLO

Status

Delayed

Startup

Time

Dead-Time

Setting

Deglitch Package

Type

Isolation

Rating

Si82395CB-IS1 Dual, VIA, VIB 12 V No Yes Yes N/A No SOIC-16 NB 2.5

kVrms

Si82394AB4-IS1 HS/LS, PWM 6 V No Yes Yes 40–600 ns Yes SOIC-16 NB 2.5

kVrms

Si82394BB4-IS1 HS/LS, PWM 8 V No Yes Yes 40–600 ns Yes SOIC-16 NB 2.5

kVrms

Si82394CB4-IS1 HS/LS, PWM 12 V No Yes Yes 40–600 ns Yes SOIC-16 NB 2.5

kVrms

Si82394AD4-IS HS/LS, PWM 6 V No Yes Yes 40–600 ns Yes SOIC-16 WB 5 kVrms

Si82394BD4-IS HS/LS, PWM 8 V No Yes Yes 40–600 ns Yes SOIC-16 WB 5 kVrms

Si82394CD4-IS HS/LS, PWM 12 V No Yes Yes 40–600 ns Yes SOIC-16 WB 5 kVrms

Si82391AB-IS1 Dual, VIA, VIB 6 V Yes Yes No N/A No SOIC-16 NB 2.5

kVrms

Si82391BB-IS1 Dual, VIA, VIB 8 V Yes Yes No N/A No SOIC-16 NB 2.5

kVrms

Si82391CB-IS1 Dual, VIA, VIB 12 V Yes Yes No N/A No SOIC-16 NB 2.5

kVrms

Si82396AB-IS1 Dual, VIA, VIB 6 V No Yes No N/A No SOIC-16 NB 2.5

kVrms

Si82396BB-IS1 Dual, VIA, VIB 8 V No Yes No N/A No SOIC-16 NB 2.5

kVrms

Si82396CB-IS1 Dual, VIA, VIB 12 V No Yes No N/A No SOIC-16 NB 2.5

kVrms

Si82398AB4-IS1 HS/LS, PWM 6 V No Yes No 40–600 ns Yes SOIC-16 NB 2.5

kVrms

Si82398BB4-IS1 HS/LS, PWM 8 V No Yes No 40–600 ns Yes SOIC-16 NB 2.5

kVrms

Si82398CB4-IS1 HS/LS, PWM 12 V No Yes No 40–600 ns Yes SOIC-16 NB 2.5

kVrms

Si82398AD4-IS HS/LS, PWM 6 V No Yes No 40–600 ns Yes SOIC-16 WB 5 kVrms

Si82398BD4-IS HS/LS, PWM 8 V No Yes No 40–600 ns Yes SOIC-16 WB 5 kVrms

Si82398CD4-IS HS/LS, PWM 12 V No Yes No 40–600 ns Yes SOIC-16 WB 5 kVrms

Note:

1. All products are rated at 4 A output drive current max, VDDI = 2.5 V – 5.5 V, EN (active high).

2. All packages are RoHS-compliant with peak reflow temperatures of 260 °C according to the JEDEC industry standard classifica-

tions and peak solder temperatures.

3. “Si” and “SI” are used interchangeably.

4. An "R" at the end of the part number denotes tape and reel packaging option.

Si8239x Data Sheet

Ordering Guide

silabs.com | Building a more connected world. Rev. 1.01 | 4

Automotive Grade OPNs

Automotive-grade devices are built using automotive-specific flows at all steps in the manufacturing process to ensure robustness and

low defectivity. These devices are supported with AIAG-compliant Production Part Approval Process (PPAP) documentation and fea-

ture International Material Data System (IMDS) and China Automotive Material Data System (CAMDS) listings. Qualifications are com-

pliant with AEC-Q100, and a zero-defect methodology is maintained throughout definition, design, evaluation, qualification, and mass

production steps.

Table 1.2. Ordering Guide for Automotive Grade OPNs5, 6, 7

Ordering Part

Number

Configuration Output

UVLO

Enhanced

UVLO

Status

Delayed

Startup

Time

Dead-Time

Setting

Deglitch Package

Type

Isolation

Rating

Si82394AD-AS HS/LS, PWM 6 V No Yes Yes 10-200 ns No SOIC-16 WB 5 kVrms

Si82394AD4-AS HS/LS, PWM 6 V No Yes Yes 40-600 ns Yes SOIC-16 WB 5 kVrms

Si82396CB-AS1 Dual, VIA, VIB 12 V No Yes No N/A No SOIC-16 NB 2.5

kVrms

Note:

1. All products are rated at 4 A output drive current max, VDDI = 2.5 V – 5.5 V, EN (active high).

2. All packages are RoHS-compliant with peak reflow temperatures of 260 °C according to the JEDEC industry standard classifica-

tions and peak solder temperatures.

3. “Si” and “SI” are used interchangeably.

4. An "R" at the end of the part number denotes tape and reel packaging option.

5. Automotive-Grade devices (with an "–A" suffix) are identical in construction materials, topside marking, and electrical parameters

to their Industrial-Grade (with a "–I" suffix) version counterparts. Automotive-Grade products are produced utilizing full automotive

process flows and additional statistical process controls throughout the manufacturing flow. The Automotive-Grade part number is

included on shipping labels.

6. Referring to Section 11 “Top Markings”, the Manufacturing Code represented by either “RTTTTT” or “TTTTTT” contains as its first

character a letter in the range N through Z to indicate Automotive-Grade.

7. Additional Ordering Part Numbers may be available in Automotive-Grade. Please contact your local Silicon Labs sales represen-

tative for further information.

Si8239x Data Sheet

Ordering Guide

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2. System Overview

The operation of an Si8239x channel is analogous to that of an optocoupler and gate driver, except an RF carrier is modulated instead

of light. This simple architecture provides a robust isolated data path and requires no special considerations or initialization at start-up.

A simplified block diagram for a single Si8239x channel is shown in the following figure.

Figure 2.1. Simplified Channel Diagram

A channel consists of an RF Transmitter and RF Receiver separated by a semiconductor-based isolation barrier. Referring to the

Transmitter, input A modulates the carrier provided by an RF oscillator using on/off keying. The Receiver contains a demodulator that

decodes the input state according to its RF energy content and applies the result to output B via the output driver. This RF on/off keying

scheme is superior to pulse code schemes as it provides best-in-class noise immunity, low power consumption, and better immunity to

magnetic fields. See the following figure for more details.

Figure 2.2. Modulation Scheme

Si8239x Data Sheet

System Overview

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2.1 Typical Performance Characteristics

The typical performance characteristics depicted in the following figures are for information purposes only. Refer to the Electrical Char-

acteristics table for actual specification limits.

Figure 2.3. Rise/Fall Time vs. Supply Voltage Figure 2.4. Propagation Delay vs. Supply Voltage

Figure 2.5. Rise/Fall Time vs. Load Figure 2.6. Propagation Delay vs. Load

Figure 2.7. Propagation Delay vs. Temperature Figure 2.8. Supply Current vs. Supply Voltage

Figure 2.9. Supply Current vs. Supply Voltage Figure 2.10. Supply Current vs. Temperature

Si8239x Data Sheet

System Overview

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Figure 2.11. Output Sink Current vs. Supply Voltage Figure 2.12. Output Source Current vs. Supply Voltage

Figure 2.13. Output Sink Current vs. Temperature Figure 2.14. Output Source Current vs. Temperature

2.2 Family Overview and Logic Operation During Startup

The Si8239x family of isolated drivers consists of high-side/low-side and dual driver configurations.

Si8239x Data Sheet

System Overview

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2.2.1 Device Behavior

The following are truth tables for the Si8239x families.

Table 2.1. Si82390/1/3 Drivers Enhanced UVLO and Status

VIA VIB EN1VDDI VDDA VDDB VOA VOB RDY Notes

H L H P2P P H L H

L H H P P P L H H

H H H P P P H / L4H / L4H

L L H P P P L L H

X X L/NC P P P L L H Device disabled

XXXUP2P P L L UD3Fail-safe output when

VDDI unpowered

X X H P P UP L UD L VOA, VOB are actively

driven low if either

VDDA or VDDB is UP

X X H P UP P UD L L

Note:

1. The EN pin needs to be pulled down with a 100 kΩ resistor externally to GND.

2. The chip can be powered through the VIA,VIB input ESD diodes even if VDDI is unpowered. It is recommended that inputs be left

unpowered when VDDI is unpowered. The EN pin has a special ESD circuit that prevents the IC from powering up through the

EN pin.

3. UD = undetermined if same side power is UP.

4. VOA = VOB = L for Si82393 only

Table 2.2. Si82392/5/6 Drivers with UVLO Status

VIA VIB EN1VDDI VDDA VDDB VOA VOB RDY Notes

H L H P P P H L H

L H H P P P L H H

H H H P P P H / L4H / L4H

L L H P P P L L H

X X L/NC P P P L L H Device disabled

XXXUP2P P L L UD3Fail-safe output when

VDDI unpowered

H X H P P UP H UD L VOA depends on

VDDA state

L X H P P UP L UD L

X H H P UP P UD H L VOB depends on

VDDB state

X L H P UP P UD L L

Si8239x Data Sheet

System Overview

silabs.com | Building a more connected world. Rev. 1.01 | 9

VIA VIB EN1VDDI VDDA VDDB VOA VOB RDY Notes

Note:

1. The EN pin needs to be pulled down with a 100 kΩ resistor externally to GND.

2. The chip can be powered through the VIA,VIB input ESD diodes even if VDDI is unpowered. It is recommended that inputs be left

unpowered when VDDI is unpowered. The EN pin has a special ESD circuit that prevents the IC from powering up through the

EN pin.

3. UD = undetermined if same side power is UP.

4. VOA = VOB = L for Si82392 only

Table 2.3. Si82397 Dual Drivers with No UVLO Status

VIA VIB EN1VDDI VDDA VDDB VOA VOB Notes

H L H P P P H L

L H H P P P L H

H H H P P P H H

L L H P P P L L

X X L/NC P P P L L Device disabled

XXXUP2P P L L Fail-safe output when

VDDI is unpowered

H X H P P UP H UD3VOA depends on VDDA

state

L X H P P UP L UD

X H H P UP P UD H VOB depends on VDDB

state

X L H P UP P UD L

Note:

1. The EN pin needs to be pulled down with a 100 kΩ resistor externally to GND.

2. The chip can be powered through the VIA,VIB input ESD diodes even if VDDI is unpowered. It is recommended that inputs be left

unpowered when VDDI is unpowered. The EN pin has a special ESD circuit that prevents the IC from powering up through the

EN pin.

3. UD = undetermined if same side power is UP.

Table 2.4. Si82394/8 PWM Input HS/LS Drivers with UVLO Status

PWM EN1VDDI VDDA VDDB VOA VOB RDY Notes

H H P P P H L H See Dead-time note and

Figure 2.18 Dead Time

Waveforms for High-

Side/Low-Side Drivers on

page 17 for timing

L H P P P L H H

X L/NC P P P L L H Device disabled

X X UP2P P L L UD3Fail-safe output when

VDDI unpowered

H H P P UP H UD L VOA depends on VDDA

state

L H P P UP L UD L

Si8239x Data Sheet

System Overview

silabs.com | Building a more connected world. Rev. 1.01 | 10

PWM EN1VDDI VDDA VDDB VOA VOB RDY Notes

H H P UP P UD L L VOB depends on VDDB

state

L H P UP P UD H L

Note:

1. The EN pin needs to be pulled down with a 100 kΩ resistor externally to GND.

2. The chip can be powered through the PWM input ESD diodes even if VDDI is unpowered. It is recommended that inputs be left

unpowered when VDDI is unpowered. The EN pin has a special ESD circuit that prevents the IC from powering up through the

EN pin.

3. UD = undetermined if same side power is UP.

2.3 Power Supply Connections

Isolation requirements mandate separating VDDI from the driver supplies. The decoupling caps for these supplies must be placed as

close to the VDD and GND pins of the Si8239x as possible. The optimum values for these capacitors are 1 μF and 0.1 μF for VDDI and

10 μF and 0.1 μF for each driver supply. Low effective series resistance (ESR) capacitors, such as Tantalum, are recommended.

Si8239x Data Sheet

System Overview

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2.4 Power Dissipation Considerations

Proper system design must assure that the Si8239x operates within safe thermal limits across the entire load range. The Si8239x total

power dissipation is the sum of the power dissipated by bias supply current, internal parasitic switching losses, and power dissipated by

the series gate resistor and load. Equation 1 shows Si8239x power dissipation.

PD=VDDI *IDDI +2*VDD2*IDD2+f*CL*VDD2

(

Rp+Rg

)

+f*CL*VDD2

(

Rn+Rg

)

+ 2 * f*Cint *VDD2

Equation 1.

Note: Where:

•PD is the total Si8239x device power dissipation (W)

• IDDI is the input side maximum bias current (from table 4.1, 3.8 mA)

• IDD2 is the driver side maximum bias current (from table 4.1, 6.5 mA)

• Cint is the internal parasitic capacitance (370 pf)

• VDDI is the input side VDD supply voltage (2.5 V to 5. 5V)

• VDD2 is the driver side supply voltage (10 V to 24 V)

• f is the switching frequency (Hz)

• CL is the load capacitance (F)

• RG is the external gate resistor (Ω)

• RP is the RDS(ON) of the driver pull-up device (2.7 Ω)

• Rn is the RDS(ON) of the driver pull-down device (1 Ω)

Example calculation (using IDDx values from Table 4.1 for Si82397)

VDDI = 5 V

VDD2 = 12 V

f = 350 kHz

RG = 22 Ω

CL = 2 nF

PD= 5 * .0021 + 2 * 12 * .0025 + 350000 *

(

2 * 10−9

)

* 144 *

(

2.7

2.7 + 22

)

+ 350000 *

(

2 * 10−9

)

* 144 *

(

1 + 22

)

+ 2 * 350000 *

(

370 * 10−12

)

* 144

PD = 0.123 W is the total dissipated power by the Si8239x package.

From this, the driver junction temperature can be calculated using Equation 2.

Tj=TA+PD*θja

Equation 2.

Note: Where:

•Tj is the junction temperature (°C)

• TA is the ambient temperature (°C)

• PD is the power dissipated in the package (W)

• Θja is the thermal resistance of the package (100 °C/W from table 4.7)

For this example, assume that TA is 25 °C.

Tj= 25 + 0.123 * 100

Si8239x Data Sheet

System Overview

silabs.com | Building a more connected world. Rev. 1.01 | 12

Tj is 37.3 °C.

Equation 2 can be rearranged to determine the maximum package power dissipation for a given ambient temperature.

PDmax =

(

Tjmax −TA

θja

)

Note: Where:

• PDmax is the maximum allowed power dissipation (W)

• Tjmax is the maximum allowed junction temperature (150 °C from table 4.8)

• TA is the ambient temperature (25 °C in this example)

• Θja is the thermal resistance of the package (100 °C/W from table 4.7)

PDmax = 1.25 W

Substituting values used in this example back into Equation 1, establishes a relationship between the maximum capacitive load and

switching frequency.

The following figure shows the relationship between the capacitive load and the switching frequency for four different driver supply vol-

tages. In the figure, the points along the load line represent the package dissipation-limited value of CL as a function of switching fre-

quency.

Figure 2.15. Max Load vs. Switching Frequency

2.5 Layout Considerations

It is most important to minimize ringing in the drive path and noise on the Si8239x VDD lines. Care must be taken to minimize parasitic

inductance in these paths by locating the Si8239x as close to the device it is driving as possible. In addition, the VDD supply and

ground trace paths must be kept short. For this reason, the use of power and ground planes is highly recommended. A split ground

plane system having separate ground and VDD planes for power devices and small signal components provides the best overall noise

performance.

2.6 Undervoltage Lockout Operation

Device behavior during start-up, normal operation and shutdown is shown in Figure 2.16 Si82391/2/3/6/8 Device Behavior during Nor-

mal Operation and Shutdown on page 15, where UVLO+ and UVLO- are the positive-going and negative-going thresholds respective-

ly. Note that outputs VOA and VOB default low when input side power supply (VDDI) is not present.

Si8239x Data Sheet

System Overview

silabs.com | Building a more connected world. Rev. 1.01 | 13

2.6.1 Device Startup

Outputs VOA and VOB are held low during power-up until VDD is above the UVLO threshold for time period tSTART. Following this,

the outputs follow the states of inputs VIA and VIB.

Si8239x Data Sheet

System Overview

silabs.com | Building a more connected world. Rev. 1.01 | 14

2.6.2 Undervoltage Lockout

Undervoltage Lockout (UVLO) is provided to prevent erroneous operation during device startup and shutdown or when VDD is below its

specified operating circuits range. The input (control) side, Driver A and Driver B, each have their own undervoltage lockout monitors.

The Si8239x input side enters UVLO when VDDI < VDDIUV–, and exits UVLO when VDDI > VDDIUV+. The driver outputs, VOA and

VOB, remain low when the input side of the Si8239x is in UVLO and their respective VDD supply (VDDA, VDDB) is within tolerance.

Each driver output can enter or exit UVLO independently for the Si82394/5/6/7/8 products. For example, VOA unconditionally enters

UVLO when VDDA falls below VDDAUV– and exits UVLO when VDDA rises above VDDAUV+. For the Si82390/1/3 products, when

either VDDA or VDDB falls under VDDxUV–, this information is fed back through the isolation barrier to the input side logic which forces

VOB or VOA to be driven low respectively under these conditions. If the application is driving a transformer for an isolated power con-

verter, for example, this behavior is useful to prevent flux imbalances in the transformer. Please note that this feature implies that it can

only be implemented when the VDDA and VDDB power supplies are independent from each other. If a bootstrap circuit is used for

Si82390/1/3, it will prevent the IC from powering up. Do not use the Si82390/1/3 in conjunction with a bootstrap circuit for driver power.

Figure 2.16. Si82391/2/3/6/8 Device Behavior during Normal Operation and Shutdown

Si8239x Data Sheet

System Overview

silabs.com | Building a more connected world. Rev. 1.01 | 15

Figure 2.17. Si82390/4/5/7 Device Behavior during Normal Operation and Shutdown

2.6.3 Control Inputs

VIA, VIB, and PWM inputs are high-true, TTL level-compatible logic inputs. A logic high signal on VIA or VIB causes the corresponding

output to go high. For PWM input versions (Si82394/8), VOA is high and VOB is low when the PWM input is high, and VOA is low and

VOB is high when the PWM input is low.

2.6.4 Enable Input

When brought low, the EN input unconditionally drives VOA and VOB low regardless of the states of VIA and VIB. Device operation

terminates within tSD after EN = VIL and resumes within tRESTART after EN = VIH. The EN input has no effect if VDDI is below its

UVLO level (i.e., VOA, VOB remain low). The EN pin should be connected to GNDI through a 100 kΩ pull-down resistor.

2.6.5 Delayed Startup Time

Product options Si82390/4/5/7 have a safe startup time (tSTARTUP_SAFE) of 1ms typical from input power valid to output showing

valid data. This feature allows users to proceed through a safe initialization sequence with a monotonic output behavior.

2.6.6 RDY Pin

This is a digital output pin available on all options except the Si82397. The RDY pin is “H” if all the UVLO circuits monitoring VDDI,

VDDA, and VDDB are above UVLO threshold. It indicates that device is ready for operation. An “L” status indicates that one of the

power supplies (VDDI, VDDA, or VDDB) is in an unpowered state.

Si8239x Data Sheet

System Overview

silabs.com | Building a more connected world. Rev. 1.01 | 16

2.7 Programmable Dead Time and Overlap Protection

All high-side/low-side drivers (Si82394/8) include programmable dead time, which adds a user-programmable delay between transitions

of VOA and VOB. When enabled, dead time is present on all transitions. The amount of dead time delay (DT) is programmed by a

single resistor (RDT) connected from the DT input to ground per the equation below. Note that the dead time pin should be connected

to GND1 through a resistor between the values of 6 kΩ and 100 kΩ and a filter capacitor of 100 pF in parallel as shown in Figure

3.1 Si82394/8 Application Diagram on page 18. It is highly recommended it not be tied to VDDI. See Figure 2.18 Dead Time Wave-

forms for High-Side/Low-Side Drivers on page 17 below.

Figure 2.18. Dead Time Waveforms for High-Side/Low-Side Drivers

2.8 De-glitch Feature

A de-glitch feature is provided on some options, as defined in the Ordering Guide. The de-glitch basically provides an internal time de-

lay during which any noise is ignored and will not pass through the IC. It is about 30 ns; so, for these product options, the prop delay will

be extended by 30 ns.

Si8239x Data Sheet

System Overview

silabs.com | Building a more connected world. Rev. 1.01 | 17

3. Applications

The following examples illustrate typical circuit configurations using the Si8239x.

3.1 High-Side/Low-Side Driver

The following figure shows the Si82394/8 controlled by a single PWM signal.

Figure 3.1. Si82394/8 Application Diagram

In the above figure, D1 and CB form a conventional bootstrap circuit that allows VOA to operate as a high-side driver for Q1, which has

a maximum drain voltage of 1500 V. VOB is connected as a conventional low-side driver. Note that the input side of the Si8239x re-

quires VDDI in the range of 2.5 to 5.5 V, while the VDDA and VDDB output side supplies must be between 6.5 and 24 V with respect to

their respective grounds. The boot-strap start up time will depend on the CB cap chosen. Also note that the bypass capacitors on the

Si8239x should be located as close to the chip as possible.

Si8239x Data Sheet

Applications

silabs.com | Building a more connected world. Rev. 1.01 | 18

3.2 Dual Driver

The following figure shows the Si82390/1/5/6/7 configured as a dual driver. Note that the drain voltages of Q1 and Q2 can be refer-

enced to a common ground or to different grounds with as much as 1500 Vdc between them.

Si82392/5/6/7

VIA

VDDA

VOA

GNDA

VOB

VDDB

GNDB

CONTROLLER

VIB

OUT 1

OUT 2

I/O

VDDB

GNDI

VDDI

1 µF

0.1 µF

0.1 µF C5

10 µF

RDY

I/O

RPD

VDDB

1 µF

1500 V max

(Not present

on Si82397)

Figure 3.2. Si82392/5/6/7 Application Diagram

Si82390/1/3

VIA VDDA

VOA

VOB

VDDB

GNDB

CONTROLLER

VIB

OUT 1

OUT 2

I/O

VDDB

GNDI

VDDI

1 µF

0.1 µF

10 µF

RDY

I/O

RPD

VDDA

0.1 µF

10 µF

Figure 3.3. Si82390/1/3 with Enhanced UVLO Feature Application Diagram

Because each output driver resides on its own die, the relative voltage polarities of VOA and VOB can reverse without damaging the

driver. A dual driver can operate as a dual low-side or dual high-side driver and is unaffected by static or dynamic voltage polarity

changes. The Si82390/1/3 come equipped with an enhanced UVLO feature as described in 2.6.2 Undervoltage Lockout. This feature is

intended for systems which provide VDDA and VDDB as independent isolated power supplies. Si82390/1/3 are not recommended for

use with bootstrap configuration for driver supply since the driver output will not be asserted unless both VDDA and VDDB are above

the UVLO threshold.

Si8239x Data Sheet

Applications

silabs.com | Building a more connected world. Rev. 1.01 | 19

4. Electrical Characteristics

Table 4.1. Electrical Characteristics1,2

Parameter Symbol Test Condition Min Typ Max Unit

DC Specifications

Input-side Power Supply Voltage VDDI 2.5 3.3 5.5 V

Driver Supply Voltage VDDA, VDDB Voltage between VDDA and

GNDA, and VDDB and

GNDB

6.5 — 24 V

Input Supply Quiescent Current EN = 0 IDDI(Q) Si82390/1/2/3/4/5/6/8 — 2.8 3.8 mA

Si82397 — 1.5 2.1 mA

Output Supply Quiescent Current, per

channel EN = 0

IDDA(Q),

IDDB(Q)

Si82390/1/2/3/4/5/6/8 — 4.2 6.5 mA

Si82397 — 1.5 2.5 mA

Input Supply Active Current IDDI Si82390/1/2/3/5/6 VIA, VIB

freq = 1 MHz

— 5.0 7.2 mA

Si82394/8: PWM freq = 1

MHz

— 5.2 7.3

Si82397: VIA, VIB freq = 1

MHz

— 3.7 5.6

Output Supply Active Current, per

channel

IDDA/B Si82390/1/2/3/4/5/6/8: Input

freq = 1 MHz, no load

— 7.1 16.0 mA

Si82397: Input freq = 1 MHz,

no load

— 4.4 12.4

Input Pin Leakage Current, VIA, VIB,

PWM

IVIA, IVIB, IPWM –10 — +10 µA

Input Pin Leakage Current, EN IENABLE –10 — +10 µA

Logic High Input Threshold VIH TTL Levels 2.0 — — V

Logic Low Input Threshold VIL TTL Levels — — 0.8 V

Input Hysteresis VIHYST 400 450 — mV

Logic High Output Voltage VOAH, VOBH IOA, IOB = –1 mA VDDA,

VDDB –

0.04

— — V

Logic Low Output Voltage VOAL, VOBL IOA, IOB = 1 mA — — 0.04 V

Output Short-Circuit Pulsed Source

Current

IOA(SCL),

IOB(SCL)

See Figure 4.1 IOL Sink Cur-

rent Test on page 23

— 4.0 — A

Output Short-Circuit Pulsed Source

Current

IOA(SCH),

IOB(SCH)

See Figure 4.2 IOH Source

Current Test on page 23

— 2.0 — A

Output Sink Resistance RON(SINK) — 1.0 — Ω

Output Source Resistance RON(SOURCE) — 2.7 — Ω

VDDI Undervoltage Threshold VDDIUV+ VDDI rising 2.15 2.3 2.5 V

VDDI Undervoltage Threshold VDDIUV– VDDI falling 2.1 2.2 2.4 V

Si8239x Data Sheet

Electrical Characteristics

silabs.com | Building a more connected world. Rev. 1.01 | 20

Parameter Symbol Test Condition Min Typ Max Unit

VDDI Lockout Hysteresis VDDIHYS 80 100 — mV

VDDA, VDDB Undervoltage Threshold VDDAUV+,

VDDBUV+

VDDA, VDDB rising V

6 V 5.0 6.0 7.0

8 V 7.2 8.6 10.0

12 V 9.2 11.1 12.8

VDDA, VDDB Undervoltage Threshold VDDAUV–,

VDDBUV–

VDDA, VDDB falling V

6 V 4.7 5.8 6.7

8 V 6.6 8.0 9.3

12 V 8.7 10.1 11.6

VDDA, VDDB Lockout Hysteresis VDDAHYS,

VDDBHYS

UVLO = 6 V

UVLO = 8 V

UVLO = 12 V

200

450

600

280

600

1000

—

AC Specifications

UVLO Fault Shutdown Time Enhanced

Mode

Si82390/1/3 only

VDDAUV– to VOB low

VDDBUV– to VOA low

— 120 — ns

UVLO Fault Shutdown Time VDDAUV– to VOA low

VDDBUV– to VOB low

— 10 — ns

UVLO fault to RDY t_FLT — 92 — ns

Minimum Pulse Width — 30 — ns

Propagation Delay tpHL, tpLH Si82390/1/2/3/5/6/7 (with no

de-glitch)

20 30 40 ns

VDDA/B = 12 V tpHL Si82394/8 (with no de-glitch) 20 30 40 ns

CL = 0 pF tpLH Si82394/8 (with no de-glitch;

measured with 6 kΩ RDT re-

sistor; includes minimum

dead time)

35 45 55 ns

tpHL Si82394xx4/8xx4 (have de-

glitch)

60 77 95 ns

tpLH Si82394xx4/8xx4 (have de-

glitch and measured with 6

kΩ RDT resistor; includes

minimum dead time and de-

glitch delay)

99 116 135 ns

Pulse Width Distortion |tPLH – tPHL| PWD VDDA/B = 12 V

CL = 0 pF

— 2.7 5.60 ns

Programmed Dead Time for product

options with 40–600 ns dead time set-

ting range

DT RDT = 6 kΩ

RDT = 15 kΩ

RDT = 100 kΩ

450

590

130

750

Si8239x Data Sheet

Electrical Characteristics

silabs.com | Building a more connected world. Rev. 1.01 | 21

Parameter Symbol Test Condition Min Typ Max Unit

Output Rise and Fall Time tR,tFCL = 200 pF — — 12 ns

Shutdown Time from Enable False tSD All options with no de-glitch — — 60 ns

All options with de-glitch — — 113

Restart Time from Enable True tRESTART All options with no de-glitch — — 60 ns

All options with de-glitch — — 95

Device Start-up Time Input Time from VDDI_ =

VDDI_UV+ to VOA, VOB =

VIA, VIB

— —

Si82390/4/5/7 tSTART_SAFE 1 ms

Si82391/2/3/6/8 tSTART 40 µs

Device Start-up Time

Output

tSTART_OUT Time from VDDA/B = VDDA/

B_UV+ to VOA, VOB = VIA,

VIB

— 60 — µs

Common Mode Transient Immunity CMTI VIA, VIB, PWM = VDDI or 0

VCM = 1500 V

35 100 — kV/µs

Note:

1. 2.5 V < VDDI < 5.5 V; 6.5 V < VDDA, VDDB < 24 V; TA = –40 to +125 °C.

2. Typical specs at 25 °C, VDDA = VDDB = 12 V for 5 V and 8 V UVLO devices, otherwise 15 V.

Si8239x Data Sheet

Electrical Characteristics

silabs.com | Building a more connected world. Rev. 1.01 | 22

The following figures depict sink current, source current, and common-mode transient immunity test circuits, respectively.

Figure 4.1. IOL Sink Current Test

Figure 4.2. IOH Source Current Test

Si8239x Data Sheet

Electrical Characteristics

silabs.com | Building a more connected world. Rev. 1.01 | 23

Figure 4.3. CMTI Test Circuit

Table 4.2. Regulatory Information1,2,3

CSA

The Si8239x is certified under CSA Component Acceptance Notice 5A. For more details, see File 232873.

60950-1: Up to 600 VRMS reinforced insulation working voltage; up to 1000 VRMS basic insulation working voltage.

VDE

The Si8239x is certified according to VDE 0884-10. For more details, see File 5006301-4880-0001.

VDE 0884-10: Up to 891 Vpeak for basic insulation working voltage.

60950-1: Up to 600 VRMS reinforced insulation working voltage; up to 1000 VRMS basic insulation working voltage.

The Si8239x is certified under UL1577 component recognition program. For more details, see File E257455.

Rated up to 5000 VRMS isolation voltage for basic protection.

CQC

The Si8239x is certified under GB4943.1-2011. For more details, see certificates CQCxxx (TBD).

Rated up to 600 VRMS reinforced insulation working voltage; up to 1000 VRMS basic insulation working voltage.

Note:

1. Regulatory Certifications apply to 2.5 kVRMS rated devices which are production tested to 3.0 kVRMS for 1 sec.

2. Regulatory Certifications apply to 5.0 kVRMS rated devices which are production tested to 6.0 kVRMS for 1 sec.

3. For more information, see Ordering Guide.

Si8239x Data Sheet

Electrical Characteristics

silabs.com | Building a more connected world. Rev. 1.01 | 24

Table 4.3. Insulation and Safety-Related Specifications

Parameter Symbol Test Condition Value Unit

WBSOIC-16 NBSOIC-16

Nominal Air Gap

(Clearance)1

L(1O1) 8.0 4.01 mm

Nominal External

Tracking (Creepage)

L(1O2) 8.0 4.01 mm

Minimum Internal

Gap (Internal Clear-

ance)

0.014 0.014 mm

Tracking Resistance

(Proof Tracking In-

dex)

PTI IEC60112 600 600 V

Erosion Depth ED 0.019 0.019 mm

Resistance (Input-

Output)2

RIO 1012 1012 Ω

Capacitance (Input-

Output)2

CIO f = 1 MHz 1.4 1.4 pF

Input Capacitance3CI4.0 4.0 pF

Note:

1. The values in this table correspond to the nominal creepage and clearance values as detailed in 7. Package Outline: 16-Pin Wide

Body SOIC and 9. Package Outline: 16-Pin Narrow Body SOIC. VDE certifies the clearance and creepage limits as 4.7 mm mini-

mum for the NB SOIC-16 and 8.5 mm minimum for the WB SOIC-16 package. UL does not impose a clearance and creepage

minimum for component level certifications. CSA certifies the clearance and creepage limits as 3.9 mm minimum for the NB SO-

IC16 and 7.6 mm minimum for the WB SOIC-16 package.

2. To determine resistance and capacitance, the Si8239x is converted into a 2-terminal device. Pins 1–8 are shorted together to

form the first terminal,and pins 9–16 are shorted together to form the second terminal. The parameters are then measured be-

tween these two terminals.

3. Measured from input pin to ground.

Table 4.4. IEC 60664-1 (VDE 0884) Ratings

Parameter Test Condition Specification

WB SOIC-16 NB SOIC-16

Basic Isolation Group Material Group I I

Installation Classification Rated Mains Voltages < 150 VRMS I-IV I-IV

Rated Mains Voltages < 300 VRMS I-IV I-III

Rated Mains Voltages < 400 VRMS I-III I-II

Rated Mains Voltages < 600 VRMS I-III I-II

Si8239x Data Sheet

Electrical Characteristics

silabs.com | Building a more connected world. Rev. 1.01 | 25

Table 4.5. IEC 60747-5-5 Insulation Characteristics

Parameter Symbol Test Condition Characteristic Unit

WB SOIC-16 NB SOIC-16

Maximum Working

Insulation Voltage

VIORM 891 560 V peak

Input to Output Test

Voltage

VPR Method b1 (VIORM x

1.875 = VPR, 100%

Production Test, tm

= 1 sec, Partial Dis-

charge < 5 pC)

1671 1050 V peak

Transient Overvolt-

age

VIOTM t = 60 sec 6000 4000 V peak

Pollution Degree

(DIN VDE 0110, See

Table 4.1 Electrical

Characteristics1,2 on

page 20)

2 2

Insulation Resist-

ance at TS, VIO =

500 V

RS>109>109Ω

Note:

1. Maintenance of the safety data is ensured by protective circuits. The Si8239x provides a climate classification of 40/125/21.

Table 4.6. IEC Safety Limiting Values1

Parameter Symbol Test Condition WB SOIC-16 NB SOIC-16 Unit

Safety Temperature TS150 150 °C

Safety Input Current ISθJA = 100 °C/W (WB

SOIC-16), 105 °C/W

(NB SOIC-16)

VDDI = 5.5 V,

VDDA = VDDB = 24 V,

TJ = 150 °C, TA = 25 °C

50 50 mA

Device Power Dissi-

pation2

PD1.2 1.2 W

Note:

1. Maximum value allowed in the event of a failure. Refer to the thermal derating curve in Figure 4.4 WB SOIC-16, NB SOIC-16

Thermal Derating Curve, Dependence of Safety Limiting Values with Case Temperature per VDE 0884-10 on page 28.

2. The Si8239x is tested with VDDI = 5.5 V, VDDA = VDDB = 24 V, TJ = 150 ºC, CL = 100 pF, input 2 MHz 50% duty cycle square

wave.

Si8239x Data Sheet

Electrical Characteristics

silabs.com | Building a more connected world. Rev. 1.01 | 26

Table 4.7. Thermal Characteristics

Parameter Symbol Min Typ Max Unit

IC Junction-to-Air Thermal

Resistance (WB SOIC-16)

θJA --- 100 --- °C/W

IC Junction-to-Air Thermal

Resistance (NB SOIC-16)

θJA --- 105 --- °C/W

Junction Temperature Tj --- --- 150 °C

Table 4.8. Absolute Maximum Ratings1

Parameter Symbol Min Max Unit

Ambient Temperature

under Bias

TA–40 +125 °C

Storage Temperature TSTG –65 +150 °C

Junction Temperature TJ— +150 °C

Input-side Supply Volt-

age

VDDI –0.6 6.0 V

Driver-side Supply Volt-

age

VDDA, VDDB –0.6 30 V

Voltage on any Pin with

respect to Ground

VIO –0.5 VDD + 0.5 V

Peak Output Current

(tPW = 10 µs, duty cycle

= 0.2%)

IOPK — 4.0 A

Lead Solder Tempera-

ture (10 s)

— 260 °C

ESD per AEC-Q100 HBM — 4 kV

CDM — 2 kV

Maximum Isolation (Input

to Output) (1 s) WB SO-

IC-16

— 6500 VRMS

Maximum Isolation (Out-

put to Output) (1 s) WB

SOIC-16

— 2500 VRMS

Maximum Isolation (Input

to Output) (1 s) NB SO-

IC-16

— 4500 VRMS

Maximum Isolation (Out-

put to Output) (1 s) NB

SOIC-16

— 2500 VRMS

Note:

1. Permanent device damage may occur if the absolute maximum ratings are exceeded. Functional operation should be restricted to

the conditions as specified in the operational sections of this data sheet. Exposure to absolute maximum rating conditions for ex-

tended periods may affect device reliability.

Si8239x Data Sheet

Electrical Characteristics

silabs.com | Building a more connected world. Rev. 1.01 | 27

Figure 4.4. WB SOIC-16, NB SOIC-16 Thermal Derating Curve, Dependence of Safety Limiting Values with Case Temperature

per VDE 0884-10

Si8239x Data Sheet

Electrical Characteristics

silabs.com | Building a more connected world. Rev. 1.01 | 28

5. Top-Level Block Diagrams

UVLO

VDDA

VOA

GNDA

VOB

ISOLATION

VDDB

GNDB

UVLO

VIA

ISOLATION

UVLO

GNDI

VIB

VDDI

RDY

Si82390/1/3

Figure 5.1. Si82390/1/3 Dual Isolated Drivers with Enhanced UVLO Safety

Si8239x Data Sheet

Top-Level Block Diagrams

silabs.com | Building a more connected world. Rev. 1.01 | 29

UVLO

VDDA

VOA

GNDA

VOB

ISOLATION

VDDB

GNDB

UVLO

VIA

ISOLATION

UVLO

GNDI

VIB

VDDI

RDY

Si82392/5/6

Figure 5.2. Si82392/5/6 Dual Isolated Drivers with RDY Pin

Figure 5.3. Si82394/98 Single-Input High-Side/Low-Side Isolated Drivers

Si8239x Data Sheet

Top-Level Block Diagrams

silabs.com | Building a more connected world. Rev. 1.01 | 30

Figure 5.4. Si82397 Dual Isolated Drivers

Si8239x Data Sheet

Top-Level Block Diagrams

silabs.com | Building a more connected world. Rev. 1.01 | 31

6. Pin Descriptions

VDDA

VOA

GNDA

VDDB

VOB

GNDB

Si82394/8

VDDI

PWM

GNDI

RDY

VDDI

Si82397

VDDA

VOA

GNDA

VDDB

VOB

GNDB

VDDI

VIA

VIB

GNDI

VDDI

Si82390/91/3

Si82392/5/96

VDDA

VOA

GNDA

VDDB

VOB

GNDB

VDDI

VIA

VIB

GNDI

RDY

VDDI

Figure 6.1. Si8239x SOIC-16

Table 6.1. Pin Descriptions

Pin Name Description

GNDI Input-side ground terminal.

PWM PWM input

VIA Non-inverting logic input terminal for Driver A.

VIB Non-inverting logic input terminal for Driver B.

VDDI Input-side power supply terminal; connect to a source of 2.5 to 5.5 V.

EN Device ENABLE. When low or NC, this input unconditionally drives outputs VOA, VOB LOW. When high, device is ena-

bled to perform in normal operating mode. It is strongly recommended that this input be connected to external logic level

to avoid erroneous operation due to capacitive noise coupling.

DT Dead time programming input. The value of the resistor connected from DT to ground sets the dead time between output

transitions of VOA and VOB.

NC No connection.

GNDB Ground terminal for Driver B.

VOB Driver B output (low-side driver).

VDDB Driver B power supply voltage terminal; connect to a source of 6.5 to 24 V.

GNDA Ground terminal for Driver A.

VOA Driver A output (high-side driver).

VDDA Driver A power supply voltage terminal; connect to a source of 6.5 to 24 V.

RDY Power ready on secondary side for Driver A and Driver B (both UVLO thresholds for VDDA and VDDB need to be

crossed). High state indicates UVLO thresholds crossed, low state indicates UVLO low condition. No reset is necessary.

Si8239x Data Sheet

Pin Descriptions

silabs.com | Building a more connected world. Rev. 1.01 | 32

7. Package Outline: 16-Pin Wide Body SOIC

The following figure illustrates the package details for the Si8239x in a 16-Pin Wide Body SOIC. The table lists the values for the dimen-

sions shown in the illustration.

Figure 7.1. 16-Pin Wide Body SOIC

Table 7.1. Package Diagram Dimensions

Symbol Millimeters

Min Max

A — 2.65

A1 0.10 0.30

A2 2.05 —

b 0.31 0.51

c 0.20 0.33

D 10.30 BSC

E 10.30 BSC

E1 7.50 BSC

e 1.27 BSC

L 0.40 1.27

h 0.25 0.75

Si8239x Data Sheet

Package Outline: 16-Pin Wide Body SOIC

silabs.com | Building a more connected world. Rev. 1.01 | 33

Symbol Millimeters

Min Max

θ 0° 8°

aaa — 0.10

bbb — 0.33

ccc — 0.10

ddd — 0.25

eee — 0.10

fff — 0.20

Note:

1. All dimensions shown are in millimeters (mm) unless otherwise noted.

2. Dimensioning and Tolerancing per ANSI Y14.5M-1994.

3. This drawing conforms to JEDEC Outline MS-013, Variation AA.

4. Recommended reflow profile per JEDEC J-STD-020 specification for small body, lead-free components.

Si8239x Data Sheet

Package Outline: 16-Pin Wide Body SOIC

silabs.com | Building a more connected world. Rev. 1.01 | 34

8. Land Pattern: 16-Pin Wide Body SOIC

The following figure illustrates the recommended land pattern details for the Si8239x in a 16-Pin Wide-Body SOIC. The table lists the

values for the dimensions shown in the illustration.

Figure 8.1. 16-Pin Wide Body SOIC PCB Land Pattern

Table 8.1. 16-Pin Wide Body SOIC Land Pattern Dimensions

Dimension Feature (mm)

C1 Pad Column Spacing 9.40

E Pad Row Pitch 1.27

X1 Pad Width 0.60

Y1 Pad Length 1.90

Note:

1. This Land Pattern Design is based on IPC-7351 pattern SOIC127P1032X265-16AN for Density Level B (Median Land Protru-

sion).

2. All feature sizes shown are at Maximum Material Condition (MMC) and a card fabrication tolerance of 0.05 mm is assumed.

Si8239x Data Sheet

Land Pattern: 16-Pin Wide Body SOIC

silabs.com | Building a more connected world. Rev. 1.01 | 35

9. Package Outline: 16-Pin Narrow Body SOIC

The following figure illustrates the package details for the Si8239x in a 16-Pin Narrow-Body SOIC. The table lists the values for the

dimensions shown in the illustration.

Figure 9.1. 16-Pin Narrow Body SOIC

Table 9.1. Package Diagram Dimensions

Dimension Min Max Dimension Min Max

A — 1.75 L 0.40 1.27

A1 0.10 0.25 L2 0.25 BSC

A2 1.25 — h 0.25 0.50

b 0.31 0.51 θ 0° 8°

c 0.17 0.25 aaa 0.10

D 9.90 BSC bbb 0.20

E 6.00 BSC ccc 0.10

E1 3.90 BSC ddd 0.25

e 1.27 BSC

Note:

1. All dimensions shown are in millimeters (mm) unless otherwise noted.

2. Dimensioning and Tolerancing per ANSI Y14.5M-1994.

3. This drawing conforms to the JEDEC Solid State Outline MS-012, Variation AC.

4. Recommended card reflow profile is per the JEDEC/IPC J-STD-020 specification for Small Body Components.

Si8239x Data Sheet

Package Outline: 16-Pin Narrow Body SOIC

silabs.com | Building a more connected world. Rev. 1.01 | 36

10. Land Pattern: 16-Pin Narrow Body SOIC

The following figure illustrates the recommended land pattern details for the Si8239x in a 16-Pin Narrow-Body SOIC. The table lists the

values for the dimensions shown in the illustration.

Figure 10.1. 16-Pin Narrow Body SOIC PCB Land Pattern

Table 10.1. 16-Pin Narrow Body SOIC Land Pattern Dimensions

Dimension Feature (mm)

C1 Pad Column Spacing 5.40

E Pad Row Pitch 1.27

X1 Pad Width 0.60

Y1 Pad Length 1.55

Note:

1. This Land Pattern Design is based on IPC-7351 pattern SOIC127P600X165-16N for Density Level B (Median Land Protrusion).

2. All feature sizes shown are at Maximum Material Condition (MMC) and a card fabrication tolerance of 0.05 mm is assumed.

Si8239x Data Sheet

Land Pattern: 16-Pin Narrow Body SOIC

silabs.com | Building a more connected world. Rev. 1.01 | 37

11. Top Markings

11.1 Si8239x Top Marking (16-Pin Wide Body SOIC)

11.2 Top Marking Explanation (16-Pin Wide Body SOIC)

Line 1 Marking: Base Part Number

Ordering Options

See Ordering Guide for more informa-

tion.

Si8239 = ISOdriver product series

Y = Output configuration: 0, 1, 3, 4, 5, 6, 7, 8

0, 1, 5, 6, 7 = Dual drivers

3 = Dual input (VIA, VIB) High Side/Low Side drivers

4, 8 = PWM input High side/Low side drivers

U = UVLO level: A, B, C

A = 6 V; B = 8 V; C = 12 V

V = Isolation rating: B, D

B = 2.5 kV; D = 5.0 kV

D = Dead time setting range: none, 4

none = 10–200 ns; 4 = 40–600 ns

Line 2 Marking: YY = Year

WW = Workweek

Assigned by the Assembly House. Corresponds to the year

and workweek of the mold date.

TTTTTT = Mfg Code Manufacturing Code from Assembly Purchase Order form.

Line 3 Marking: Circle = 1.5 mm Diameter

(Center Justified)

“e4” Pb-Free Symbol

Country of Origin

ISO Code Abbreviation

TW = Taiwan

Si8239x Data Sheet

Top Markings

silabs.com | Building a more connected world. Rev. 1.01 | 38

11.3 Si8239x Top Marking (16-Pin Narrow Body SOIC)

11.4 Top Marking Explanation (16-Pin Narrow Body SOIC)

Line 1 Marking: Base Part Number

Ordering Options

See Ordering Guide for more informa-

tion.

Si8239 = ISOdriver product series

Y = Output configuration: 0, 1, 2, 4, 5, 6, 7, 8

0, 1, 5, 6, 7 = Dual drivers

2 = Dual input (VIA, VIB) High side/Low side drivers

4, 8 = PWM input High side/Low side drivers

U = UVLO level: A, B, C

A = 6 V; B = 8 V; C = 12 V

V = Isolation rating: B, D

B = 2.5 kV; D = 5.0 kV

D = Dead time setting range: none, 4

none = 10–200; 4 = 40–600

Line 2 Marking: YY = Year

WW = Workweek

Assigned by the Assembly House. Corresponds to the year

and workweek of the mold date.

TTTTTT = Mfg Code Manufacturing Code from Assembly Purchase Order form.

Si8239x Data Sheet

Top Markings

silabs.com | Building a more connected world. Rev. 1.01 | 39

12. Revision History

Revision 1.01

July 2018

•Added Automotive-grade information including features, applications, and Ordering Guide table.

Si8239x Data Sheet

Revision History

silabs.com | Building a more connected world. Rev. 1.01 | 40

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