List of integrated circuit packaging types

Last updated

A standard-sized 8-pin dual in-line package (DIP) containing a 555 IC. Signetics NE555N.JPG
A standard-sized 8-pin dual in-line package (DIP) containing a 555 IC.

Integrated circuits are put into protective packages to allow easy handling and assembly onto printed circuit boards and to protect the devices from damage. A very large number of different types of package exist. Some package types have standardized dimensions and tolerances, and are registered with trade industry associations such as JEDEC and Pro Electron. Other types are proprietary designations that may be made by only one or two manufacturers. Integrated circuit packaging is the last assembly process before testing and shipping devices to customers.

Contents

Occasionally specially-processed integrated circuit dies are prepared for direct connections to a substrate without an intermediate header or carrier. In flip chip systems the IC is connected by solder bumps to a substrate. In beam-lead technology, the metallized pads that would be used for wire bonding connections in a conventional chip are thickened and extended to allow external connections to the circuit. Assemblies using "bare" chips have additional packaging or filling with epoxy to protect the devices from moisture.

Through-hole packages

Through-hole technology uses holes drilled through the printed circuit board (PCB) for mounting the components. The component has leads that are soldered to pads on the PCB to electrically and mechanically connect them to the PCB.

Three 14-pin (DIP14) plastic dual in-line packages containing IC chips. Three IC circuit chips.JPG
Three 14-pin (DIP14) plastic dual in-line packages containing IC chips.
AcronymFull nameRemark
SIP Single in-line package
DIP Dual in-line package 0.1 in (2.54 mm) pin spacing, rows 0.3 in (7.62 mm) or 0.6 in (15.24 mm) apart.
CDIPCeramic DIP [1]
CERDIPGlass-sealed ceramic DIP [1]
QIP Quad in-line package Like DIP but with staggered (zig-zag) pins. [1]
SKDIPSkinny DIPStandard DIP with 0.1 in (2.54 mm) pin spacing, rows 0.3 in (7.62 mm) apart. [1]
SDIPShrink DIPNon-standard DIP with smaller 0.07 in (1.78 mm) pin spacing. [1]
ZIP Zig-zag in-line package
MDIPMolded DIP [2]
PDIPPlastic DIP [1]

Surface mount

AcronymFull nameRemark
CCGACeramic column-grid array (CGA) [3]
CGAColumn-grid array [3]
CERPACKCeramic package [4]
CQGP [5] Ceramic Quad Grid Array Package
LLPLead-less lead-frame packageA package with metric pin distribution (0.5–0.8 mm pitch) [6]
LGA Land grid array [3]
LTCC Low-temperature co-fired ceramic [7]
MCM Multi-chip module [8]
MICRO SMDXTMicro surface-mount device extended technology [9]

Chip on board is a packaging technique that directly connects a die to a PCB, without an interposer or lead frame.

Chip carrier

A chip carrier is a rectangular package with contacts on all four edges. Leaded chip carriers have metal leads wrapped around the edge of the package, in the shape of a letter J. Leadless chip carriers have metal pads on the edges. Chip carrier packages may be made of ceramic or plastic and are usually secured to a printed circuit board by soldering, though sockets can be used for testing.

AcronymFull nameRemark
BCCBump chip carrier [3]
CLCCCeramic lead-less chip carrier [1]
LCCLead-less chip carrier [3] Contacts are recessed vertically.
LCCLeaded chip carrier [3]
LCCCLeaded ceramic-chip carrier [3]
DLCCDual lead-less chip carrier (ceramic) [3]
PLCC Plastic leaded chip carrier [1] [3]

Pin grid arrays

AcronymFull nameRemark
OPGAOrganic pin-grid array
FCPGAFlip-chip pin-grid array [3]
PACPin array cartridge [10]
PGAPin-grid arrayAlso known as PPGA [1]
CPGACeramic pin-grid array [3]

Flat packages

AcronymFull nameRemark
- Flat-pack Earliest version metal/ceramic packaging with flat leads
CFPCeramic flat-pack [3]
CQFPCeramic quad flat-pack [1] [3] Similar to PQFP
BQFPBumpered quad flat-pack [3]
DFNDual flat-packNo lead [3]
ETQFPExposed thin quad flat-package [11]
PQFNPower quad flat-packNo-leads, with exposed die-pad[s] for heatsinking [12]
PQFP Plastic quad flat-package [1] [3]
LQFPLow-profile quad flat-package [3]
QFN Quad flat no-leads package Also called as micro lead frame (MLF). [3] [13]
QFP Quad flat package [1] [3]
MQFPMetric quad flat-packQFP with metric pin distribution [3]
HVQFNHeat-sink very-thin quad flat-pack, no-leads
SIDEBRAZE [14] [15] [ clarification needed ][ clarification needed ]
TQFPThin quad flat-pack [1] [3]
VQFPVery-thin quad flat-pack [3]
TQFNThin quad flat, no-lead
VQFNVery-thin quad flat, no-lead
WQFNVery-very-thin quad flat, no-lead
UQFNUltra-thin quad flat-pack, no-lead
ODFNOptical dual flat, no-leadIC packaged in transparent packaging used in optical sensor

Small outline packages

A small outline integrated circuit (SOIC) is a surface-mounted integrated circuit (IC) package which occupies an area about 30–50% less than an equivalent dual in-line package (DIP), with a typical thickness being 70% less. They are generally available in the same pin-outs as their counterpart DIP ICs.

AcronymFull nameRemark
SOP Small-outline package [1]
CSOPCeramic small-outline package
DSOPDual small-outline package
HSOPThermally-enhanced small-outline package
HSSOPThermally-enhanced shrink small-outline package [16]
HTSSOP Thermally-enhanced thin shrink small-outline package [16]
mini-SOIC Mini small-outline integrated circuit
MSOP Mini small-outline package Maxim uses the trademarked name µMAX for MSOP packages
PSOPPlastic small-outline package [3]
PSONPlastic small-outline no-lead package
QSOPQuarter-size small-outline packageThe terminal pitch is 0.635 mm. [3]
SOIC Small-outline integrated circuitAlso known as SOIC NARROW and SOIC WIDE
SOJ Small-outline J-leaded package
SONSmall-outline no-lead package
SSOP Shrink small-outline package [3]
TSOP Thin small-outline package [3]
TSSOP Thin shrink small-outline package [3]
TVSOPThin very-small-outline package [3]
VSOPVery-small-outline package [16]
VSSOPVery-thin shrink small-outline package [16] Also referred as MSOP = micro small-outline package
WSONVery-very-thin small-outline no-lead package
USONVery-very-thin small-outline no-lead packageSlightly smaller than WSON

Chip-scale packages

According to IPC's standard J-STD-012, Implementation of Flip Chip and Chip Scale Technology, in order to qualify as chip scale, the package must have an area no greater than 1.2 times that of the die and it must be a single-die, direct surface mountable package. Another criterion that is often applied to qualify these packages as CSPs is their ball pitch should be no more than 1 mm. Chip-scale package

Example WL-CSP devices sitting on the face of a U.S. penny. A SOT-23 device is shown (top) for comparison. UNIO WLCSP and SOT23 Device on Penny.jpg
Example WL-CSP devices sitting on the face of a U.S. penny. A SOT-23 device is shown (top) for comparison.
AcronymFull nameRemark
BL Beam lead technology Bare silicon chip, an early chip-scale package
CSP Chip-scale packagePackage size is no more than 1.2× the size of the silicon chip [17] [18]
TCSPTrue chip-size packagePackage is same size as silicon [19]
TDSPTrue die-size packageSame as TCSP [19]
WCSP or WL-CSP or WLCSP Wafer-level chip-scale package A WL-CSP or WLCSP package is just a bare die with a redistribution layer (or I/O pitch) to rearrange the pins or contacts on the die so that they can be big enough and have sufficient spacing so that they can be handled just like a BGA package. [20]
PMCPPower mount CSP (chip-scale package)Variation of WLCSP, for power devices like MOSFETs. Made by Panasonic. [21]
Fan-out WLCSP Fan-out wafer-level packaging Variation of WLCSP. Like a BGA package but with the interposer built directly atop the die and encapsulated alongside it.
eWLB Embedded wafer level ball grid array Variation of WLCSP.
MICRO SMD-Chip-size package (CSP) developed by National Semiconductor [22]
COB Chip on board Bare die supplied without a package. It is mounted directly to the PCB using bonding wires and covered with a blob of black Epoxy. [23] Also used for LEDs. In LEDs, transparent epoxy or a silicon caulk-like material that may contain a phosphor is poured into a mold containing the LED(s) and cured. The mold forms part of the package.
COFChip-on-flexVariation of COB, where a chip is mounted directly to a flex circuit. Unlike COB, it may not use wires nor be covered with epoxy, using underfill instead.
TAB Tape-automated bonding Variation of COF, where a flip chip is mounted directly to a flex circuit without the use of bonding wires. Used by LCD driver ICs.
COGChip-on-glassVariation of TAB, where a chip is mounted directly to a piece of glass - typically an LCD. Used by LCD and OLED driver ICs.

Ball grid array

Ball grid array (BGA) uses the underside of the package to place pads with balls of solder in grid pattern as connections to PCB. [1] [3]

AcronymFull nameRemark
FBGA Fine-pitch ball-grid arrayA square or rectangular array of solder balls on one surface [3]
LBGALow-profile ball-grid arrayAlso known as laminate ball-grid array [3]
TEPBGAThermally-enhanced plastic ball-grid array
CBGACeramic ball-grid array [3]
OBGAOrganic ball-grid array [3]
TFBGAThin fine-pitch ball-grid array [3]
PBGAPlastic ball-grid array [3]
MAP-BGAMold array process - ball-grid array
UCSPMicro (μ) chip-scale packageSimilar to a BGA (A Maxim trademark example) [18]
μBGAMicro ball-grid arrayBall spacing less than 1 mm
LFBGALow-profile fine-pitch ball-grid array [3]
TBGAThin ball-grid array [3]
SBGASuper ball-grid array [3] Above 500 balls
UFBGAUltra-fine ball-grid array [3]

Transistor, diode, small-pin-count IC packages

A drawing of a ZN414 IC in a TO-18 package TO-18, 3 leads, ZN414 (shaded).svg
A drawing of a ZN414 IC in a TO-18 package

Dimension reference

Surface-mount

A general surface mount chip, with major dimensions. SOIC Dimensions.gif
A general surface mount chip, with major dimensions.
C
Clearance between IC body and PCB
H
Total height
T
Lead thickness
L
Total carrier length
LW
Lead width
LL
Lead length
P
Pitch

Through-hole

A general through-hole pin chip, with major dimensions. DIP Dimension Labels.svg
A general through-hole pin chip, with major dimensions.
C
Clearance between IC body and board
H
Total height
T
Lead thickness
L
Total carrier length
LW
Lead width
LL
Lead length
P
Pitch
WB
IC body width
WL
Lead-to-lead width

Package dimensions

All measurements below are given in mm . To convert mm to mils, divide mm by 0.0254 (i.e., 2.54 mm / 0.0254 = 100 mil).

C
Clearance between package body and PCB.
H
Height of package from pin tip to top of package.
T
Thickness of pin.
L
Length of package body only.
LW
Pin width.
LL
Pin length from package to pin tip.
P
Pin pitch (distance between conductors to the PCB).
WB
Width of the package body only.
WL
Length from pin tip to pin tip on the opposite side.

Dual row

ImageFamilyPinNamePackageLWBWLHCPLLTLW
Three IC circuit chips.JPG DIP YDual inline package8-DIP9.2–9.86.2–6.487.627.72.54 (0.1 in)3.05–3.61.14–1.73
32-DIP15.242.54 (0.1 in)
LFCSP NLead-frame chip-scale package0.5
MSOP-sized chip package.jpg MSOP YMini small-outline package8-MSOP334.91.10.100.650.950.180.17–0.27
10-MSOP334.91.10.100.50.950.180.17–0.27
16-MSOP4.0434.91.10.100.50.950.180.17–0.27
MFrey SOIC20.jpg SO
SOIC
SOP
YSmall-outline integrated circuit8-SOIC4.8–5.03.95.8–6.21.720.10–0.251.271.050.19–0.250.39–0.46
14-SOIC8.55–8.753.95.8–6.21.720.10–0.251.271.050.19–0.250.39–0.46
16-SOIC9.9–103.95.8–6.21.720.10–0.251.271.050.19–0.250.39–0.46
16-SOIC10.1–10.57.510.00–10.652.650.10–0.301.271.40.23–0.320.38–0.40
SOT23-6.jpg SOT YSmall-outline transistorSOT-23-62.91.62.81.450.950.60.22–0.38
SSOP YShrink small-outline package0.65
TDFN NThin dual flat no-lead8-TDFN3330.7–0.80.650.19–0.3
TSOP YThin small-outline package0.5
TSSOP Package TSSOP-14 4.4x5mm P0.65mm.wrl.stl
TSSOP Package
TSSOP YThin shrink small-outline package8-TSSOP [26] 2.9-3.14.3-4.56.41.20.150.650.09–0.20.19–0.3
Y14-TSSOP [27] 4.9-5.14.3-4.56.41.10.05-0.150.650.09-0.20.19-0.30
20-TSSOP [28] 6.4-6.64.3-4.56.41.1.05-0.150.650.09-0.20.19-0.30
µSOP YMicro small-outline package [29] µSOP-834.91.10.65
US8 [30] YUS8 package22.33.1.70.5

Quad rows

ImageFamilyPinNamePackageWBWLHCLPLLTLW
Qfj52.jpg PLCC NPlastic leaded chip-carrier1.27
CLCC NCeramic leadless chip-carrier48-CLCC14.2214.222.2114.221.0160.508
Cyrix cx9210 gfdl.jpg LQFP YLow-profile quad flat package0.50
PIC18F8720.jpg TQFP YThin quad flat-packageTQFP-4410.0012.000.35–0.500.801.000.09–0.200.30–0.45
TQFN NThin quad flat no-lead

LGA

Packagexyz
52-ULGA12 mm17 mm0.65 mm
52-ULGA14 mm18 mm0.10 mm
52-VELGA ? ? ?

Multi-chip packages

A variety of techniques for interconnecting several chips within a single package have been proposed and researched:

By terminal count

Example of component sizes, metric and imperial codes and comparison included SMT sizes, based on original by Zureks.svg
Example of component sizes, metric and imperial codes and comparison included
Composite image of a 11x44 LED matrix lapel name tag display using 1608/0603-type SMD LEDs. Top: A little over half of the 21x86 mm display. Center: Close-up of LEDs in ambient light. Bottom: LEDs in their own red light. Macro photo of LED matrix.jpg
Composite image of a 11×44 LED matrix lapel name tag display using 1608/0603-type SMD LEDs. Top: A little over half of the 21×86 mm display. Center: Close-up of LEDs in ambient light. Bottom: LEDs in their own red light.
SMD capacitors (on the left) with two through-hole capacitors (on the right) Photo-SMDcapacitors.jpg
SMD capacitors (on the left) with two through-hole capacitors (on the right)

Surface-mount components are usually smaller than their counterparts with leads, and are designed to be handled by machines rather than by humans. The electronics industry has standardized package shapes and sizes (the leading standardisation body is JEDEC).

The codes given in the chart below usually tell the length and width of the components in tenths of millimeters or hundredths of inches. For example, a metric 2520 component is 2.5 mm by 2.0 mm which corresponds roughly to 0.10 inches by 0.08 inches (hence, imperial size is 1008). Exceptions occur for imperial in the two smallest rectangular passive sizes. The metric codes still represent the dimensions in mm, even though the imperial size codes are no longer aligned. Problematically, some manufacturers are developing metric 0201 components with dimensions of 0.25 mm × 0.125 mm (0.0098 in × 0.0049 in), [32] but the imperial 01005 name is already being used for the 0.4 mm × 0.2 mm (0.0157 in × 0.0079 in) package. These increasingly small sizes, especially 0201 and 01005, can sometimes be a challenge from a manufacturability or reliability perspective. [33]

Two-terminal packages

Rectangular passive components

Mostly resistors and capacitors.

PackageApproximate dimensions, length × widthTypical resistor
power rating (W)
MetricImperial
02010080040.25 mm × 0.125 mm0.010 in × 0.005 in
030150090050.3 mm × 0.15 mm0.012 in × 0.006 in0.02 [34]
0402010050.4 mm × 0.2 mm0.016 in × 0.008 in0.031 [35]
060302010.6 mm × 0.3 mm0.02 in × 0.01 in0.05 [35]
100504021.0 mm × 0.5 mm0.04 in × 0.02 in0.062 [36] –0.1 [35]
160806031.6 mm × 0.8 mm0.06 in × 0.03 in0.1 [35]
201208052.0 mm × 1.25 mm0.08 in × 0.05 in0.125 [35]
252010082.5 mm × 2.0 mm0.10 in × 0.08 in
321612063.2 mm × 1.6 mm0.125 in × 0.06 in0.25 [35]
322512103.2 mm × 2.5 mm0.125 in × 0.10 in0.5 [35]
451618064.5 mm × 1.6 mm0.18 in × 0.06 in [37]
453218124.5 mm × 3.2 mm0.18 in × 0.125 in0.75 [35]
456418254.5 mm × 6.4 mm0.18 in × 0.25 in0.75 [35]
502520105.0 mm × 2.5 mm0.20 in × 0.10 in0.75 [35]
633225126.3 mm × 3.2 mm0.25 in × 0.125 in1 [35]
686327256.9 mm × 6.3 mm0.27 in × 0.25 in3
745129207.4 mm × 5.1 mm0.29 in × 0.20 in [38]

Tantalum capacitors

PackageDimensions (Length, typ. × width, typ. × height, max.)
EIA 2012-12 (KEMET R, AVX R)2.0 mm × 1.3 mm × 1.2 mm
EIA 3216-10 (KEMET I, AVX K)3.2 mm × 1.6 mm × 1.0 mm
EIA 3216-12 (KEMET S, AVX S)3.2 mm × 1.6 mm × 1.2 mm
EIA 3216-18 (KEMET A, AVX A)3.2 mm × 1.6 mm × 1.8 mm
EIA 3528-12 (KEMET T, AVX T)3.5 mm × 2.8 mm × 1.2 mm
EIA 3528-21 (KEMET B, AVX B)3.5 mm × 2.8 mm × 2.1 mm
EIA 6032-15 (KEMET U, AVX W)6.0 mm × 3.2 mm × 1.5 mm
EIA 6032-28 (KEMET C, AVX C)6.0 mm × 3.2 mm × 2.8 mm
EIA 7260-38 (KEMET E, AVX V)7.2 mm × 6.0 mm × 3.8 mm
EIA 7343-20 (KEMET V, AVX Y)7.3 mm × 4.3 mm × 2.0 mm
EIA 7343-31 (KEMET D, AVX D)7.3 mm × 4.3 mm × 3.1 mm
EIA 7343-43 (KEMET X, AVX E)7.3 mm × 4.3 mm × 4.3 mm

[39] [40]

Aluminum capacitors

PackageDimensions (Length, typ. × width, typ. × height, max.)
Cornell-Dubilier A3.3 mm × 3.3 mm × 5.5 mm
Chemi-Con D4.3 mm × 4.3 mm × 5.7 mm
Panasonic B4.3 mm × 4.3 mm × 6.1 mm
Chemi-Con E5.3 mm × 5.3 mm × 5.7 mm
Panasonic C5.3 mm × 5.3 mm × 6.1 mm
Chemi-Con F6.6 mm × 6.6 mm × 5.7 mm
Panasonic D6.6 mm × 6.6 mm × 6.1 mm
Panasonic E/F, Chemi-Con H8.3 mm × 8.3 mm × 6.5 mm
Panasonic G, Chemi-Con J10.3 mm × 10.3 mm × 10.5 mm
Chemi-Con K13 mm × 13 mm × 14 mm
Panasonic H13.5 mm × 13.5 mm × 14 mm
Panasonic J, Chemi-Con L17 mm × 17 mm × 17 mm
Panasonic K, Chemi-Con M19 mm × 19 mm × 17 mm

[41] [42] [43]

Small-outline diode (SOD)

PackageDimensions (Length, typ. × width, typ. × height, max.)
SOD-80C3.5 mm × ⌀ 1.5 mm [44]
SOD-1232.65 mm × 1.6 mm × 1.35 mm [45]
SOD-1283.8 mm × 2.5 mm × 1.1 mm [46]
SOD-323 (SC-76)1.7 mm × 1.25 mm × 1.1 mm [47]
SOD-523 (SC-79)1.2 mm × 0.8 mm × 0.65 mm [48]
SOD-7231.0 mm × 0.6 mm × 0.65 mm [49]
SOD-9230.8 mm × 0.6 mm × 0.4 mm [50]

Metal electrode leadless face (MELF)

Mostly resistors and diodes; barrel shaped components, dimensions do not match those of rectangular references for identical codes. [51]

PackageDimensions
Typical resistor rating
Power (W)Voltage (V)
MicroMELF (MMU), 01022.2 mm × ⌀ 1.1 mm0.2–0.3150
MiniMELF (MMA), 02043.6 mm × ⌀ 1.4 mm0.25–0.4200
MELF (MMB), 02075.8 mm × ⌀ 2.2 mm0.4–1.0300

DO-214

Commonly used for rectifier, Schottky, and other diodes.

PackageDimensions (incl. leads) (Length, typ. × width, typ. × height, max.)
DO-214AA (SMB)5.4 mm × 3.6 mm × 2.65 mm [52]
DO-214AB (SMC)7.95 mm × 5.9 mm × 2.25 mm [52]
DO-214AC (SMA)5.2 mm × 2.6 mm × 2.15 mm [52]

Three- and four-terminal packages

Small-outline transistor (SOT)

PackageAliasesDimensions (excl. leads) (Length, typ. × width, typ. × height, max.)Number of terminalsRemark
SOT-23-3TO-236-3, SC-592.92 mm × 1.3 mm × 1.12 mm [53] 3
SOT-89TO-243, [54] SC-62 [55] 4.5 mm × 2.5 mm × 1.5 mm [56] 4Center pin is connected to a large heat-transfer pad
SOT-143TO-2532.9 mm × 1.3 mm × 1.22 mm [57] 4Tapered body, one larger pad denotes terminal 1
SOT-223TO-2616.5 mm × 3.5 mm × 1.8 mm [58] 4One terminal is a large heat-transfer pad
SOT-323SC-702 mm × 1.25 mm × 1.1 mm [59] 3
SOT-416SC-751.6 mm × 0.8 mm × 0.9 mm [60] 3
SOT-6631.6 mm × 1.2 mm × 0.6 mm [61] 3
SOT-7231.2 mm × 0.8 mm × 0.55 [62] 3Has flat leads
SOT-883SC-1011 mm × 0.6 mm × 0.5 mm [63] 3Is lead-less

Other

  • DPAK (TO-252, SOT-428): Discrete Packaging. Developed by Motorola to house higher powered devices. Comes in three [64] or five-terminal [65] versions.
  • D2PAK (TO-263, SOT-404): Bigger than the DPAK; basically a surface mount equivalent of the TO220 through-hole package. Comes in 3, 5, 6, 7, 8 or 9-terminal versions. [66]
  • D3PAK (TO-268): Even larger than D2PAK. [67] [68]

Five- and six-terminal packages

Small-outline transistor (SOT)

PackageAliasesDimensions (excl. leads) (Length, typ. × width, typ. × height, max.)Number of terminalsLeaded or leadless
SOT-23-6SOT-26, SC-742.9 mm × 1.3 mm × 1.3 mm [69] 6Leaded
SOT-353SC-88A2 mm × 1.25 mm × 0.95 mm [70] 5Leaded
SOT-363SC-88, SC-70-62 mm × 1.25 mm × 0.95 mm [71] 6Leaded
SOT-5631.6 mm × 1.2 mm × 0.6 mm [72] 6Leaded
SOT-6651.6 mm × 1.6 mm × 0.55 mm [73] 5Leaded
SOT-6661.6 mm × 1.2 mm × 0.6 mm [74] 6Leaded
SOT-8861.45 mm × 1 mm × 0.5 mm [75] 6Leadless
SOT-8911 mm × 1 mm × 0.5 mm [76] 6Leadless
SOT-9531 mm × 0.8 mm × 0.5 mm [77] 5Leaded
SOT-9631 mm × 1 mm × 0.5 mm [78] 6Leaded
SOT-11151 mm × 0.9 mm × 0.35 mm [79] 6Leadless
SOT-12021 mm × 1 mm × 0.35 mm [80] 6Leadless
Various SMD chips, desoldered Photo-SMDchips.jpg
Various SMD chips, desoldered
MLP package 28-pin chip, upside down to show contacts 28 pin MLP integrated circuit.jpg
MLP package 28-pin chip, upside down to show contacts

Packages with more than six terminals

Dual-in-line

Quad-in-line

  • Plastic leaded chip carrier (PLCC): square, J-lead, pin spacing 1.27 mm
  • Quad flat package (QFP): various sizes, with pins on all four sides
  • Low-profile quad flat-package (LQFP): 1.4 mm high, varying sized and pins on all four sides
  • Plastic quad flat-pack (PQFP), a square with pins on all four sides, 44 or more pins
  • Ceramic quad flat-pack (CQFP): similar to PQFP
  • Metric quad flat-pack (MQFP): a QFP package with metric pin distribution
  • Thin quad flat-pack (TQFP), a thinner version of LQFP
  • Quad flat no-lead (QFN): smaller footprint than leaded equivalent
  • Leadless chip carrier (LCC): contacts are recessed vertically to "wick-in" solder. Common in aviation electronics because of robustness to mechanical vibration.
  • Micro leadframe package (MLP, MLF): with a 0.5 mm contact pitch, no leads (same as QFN)
  • Power quad flat no-lead (PQFN): with exposed die-pads for heatsinking

Grid arrays

  • Ball grid array (BGA): A square or rectangular array of solder balls on one surface, ball spacing typically 1.27 mm (0.050 in)
    • Fine-pitch ball grid array (FBGA): A square or rectangular array of solder balls on one surface
    • Low-profile fine-pitch ball grid array (LFBGA): A square or rectangular array of solder balls on one surface, ball spacing typically 0.8 mm
    • Micro ball grid array (μBGA): Ball spacing less than 1 mm
    • Thin fine-pitch ball grid array (TFBGA): A square or rectangular array of solder balls on one surface, ball spacing typically 0.5 mm
  • Land grid array (LGA): An array of bare lands only. Similar to in appearance to QFN, but mating is by spring pins within a socket rather than solder.
  • Column grid array (CGA): A circuit package in which the input and output points are high-temperature solder cylinders or columns arranged in a grid pattern.
    • Ceramic column grid array (CCGA): A circuit package in which the input and output points are high-temperature solder cylinders or columns arranged in a grid pattern. The body of the component is ceramic.
  • Lead-less package (LLP): A package with metric pin distribution (0.5 mm pitch).

Non-packaged devices

Although surface-mount, these devices require specific process for assembly.

  • Chip-on-board (COB), a bare silicon chip, that is usually an integrated circuit, is supplied without a package (which is usually a lead frame overmolded with epoxy) and is attached, often with epoxy, directly to a circuit board. The chip is then wire bonded and protected from mechanical damage and contamination by an epoxy "glob-top".
  • Chip-on-flex (COF), a variation of COB, where a chip is mounted directly to a flex circuit. Tape-automated bonding process is also a chip-on-flex process as well.
  • Chip-on-glass (COG), a variation of COB, where a chip, typically a liquid crystal display (LCD) controller, is mounted directly on glass.
  • Chip-on-wire (COW), a variation of COB, where a chip, typically a LED or RFID chip, is mounted directly on wire, thus making it a very thin and flexible wire. Such wire may then be covered with cotton, glass or other materials to make into smart textiles or electronic textiles.

There are often subtle variations in package details from manufacturer to manufacturer, and even though standard designations are used, designers need to confirm dimensions when laying out printed circuit boards.

See also

Related Research Articles

<span class="mw-page-title-main">Dual in-line package</span> Type of electronic component package

In microelectronics, a dual in-line package is an electronic component package with a rectangular housing and two parallel rows of electrical connecting pins. The package may be through-hole mounted to a printed circuit board (PCB) or inserted in a socket. The dual-inline format was invented by Don Forbes, Rex Rice and Bryant Rogers at Fairchild R&D in 1964, when the restricted number of leads available on circular transistor-style packages became a limitation in the use of integrated circuits. Increasingly complex circuits required more signal and power supply leads ; eventually microprocessors and similar complex devices required more leads than could be put on a DIP package, leading to development of higher-density chip carriers. Furthermore, square and rectangular packages made it easier to route printed-circuit traces beneath the packages.

<span class="mw-page-title-main">Printed circuit board</span> Board to support and connect electronic components

A printed circuit board (PCB), also called printed wiring board (PWB), is a medium used to connect or "wire" components to one another in a circuit. It takes the form of a laminated sandwich structure of conductive and insulating layers: each of the conductive layers is designed with a pattern of traces, planes and other features etched from one or more sheet layers of copper laminated onto and/or between sheet layers of a non-conductive substrate. Electrical components may be fixed to conductive pads on the outer layers in the shape designed to accept the component's terminals, generally by means of soldering, to both electrically connect and mechanically fasten them to it. Another manufacturing process adds vias, plated-through holes that allow interconnections between layers.

<span class="mw-page-title-main">Ball grid array</span> Surface-mount packaging that uses an array of solder balls

A ball grid array (BGA) is a type of surface-mount packaging used for integrated circuits. BGA packages are used to permanently mount devices such as microprocessors. A BGA can provide more interconnection pins than can be put on a dual in-line or flat package. The whole bottom surface of the device can be used, instead of just the perimeter. The traces connecting the package's leads to the wires or balls which connect the die to package are also on average shorter than with a perimeter-only type, leading to better performance at high speeds.

<span class="mw-page-title-main">Surface-mount technology</span> Method for producing electronic circuits

Surface-mount technology (SMT), originally called planar mounting, is a method in which the electrical components are mounted directly onto the surface of a printed circuit board (PCB). An electrical component mounted in this manner is referred to as a surface-mount device (SMD). In industry, this approach has largely replaced the through-hole technology construction method of fitting components, in large part because SMT allows for increased manufacturing automation which reduces cost and improves quality. It also allows for more components to fit on a given area of substrate. Both technologies can be used on the same board, with the through-hole technology often used for components not suitable for surface mounting such as large transformers and heat-sinked power semiconductors.

<span class="mw-page-title-main">Pin grid array</span> Type of integrated circuit packaging with the pins mounted on the underside of the package

A pin grid array (PGA) is a type of integrated circuit packaging. In a PGA, the package is square or rectangular, and the pins are arranged in a regular array on the underside of the package. The pins are commonly spaced 2.54 mm (0.1") apart, and may or may not cover the entire underside of the package.

<span class="mw-page-title-main">Flip chip</span> Technique that flips a microchip upside down to connect it

Flip chip, also known as controlled collapse chip connection or its abbreviation, C4, is a method for interconnecting dies such as semiconductor devices, IC chips, integrated passive devices and microelectromechanical systems (MEMS), to external circuitry with solder bumps that have been deposited onto the chip pads. The technique was developed by General Electric's Light Military Electronics Department, Utica, New York. The solder bumps are deposited on the chip pads on the top side of the wafer during the final wafer processing step. In order to mount the chip to external circuitry, it is flipped over so that its top side faces down, and aligned so that its pads align with matching pads on the external circuit, and then the solder is reflowed to complete the interconnect. This is in contrast to wire bonding, in which the chip is mounted upright and fine wires are welded onto the chip pads and lead frame contacts to interconnect the chip pads to external circuitry.

<span class="mw-page-title-main">555 timer IC</span> Integrated circuit used for timer applications

The 555 timer IC is an integrated circuit used in a variety of timer, delay, pulse generation, and oscillator applications. It is one of the most popular timing ICs due to its flexibility and price. Derivatives provide two or four timing circuits in one package. The design was first marketed in 1972 by Signetics and used bipolar junction transistors. Since then, numerous companies have made the original timers and later similar low-power CMOS timers. In 2017, it was said that over a billion 555 timers are produced annually by some estimates, and that the design was "probably the most popular integrated circuit ever made".

<span class="mw-page-title-main">Integrated circuit packaging</span> Final stage of semiconductor device fabrication

Integrated circuit packaging is the final stage of semiconductor device fabrication, in which the die is encapsulated in a supporting case that prevents physical damage and corrosion. The case, known as a "package", supports the electrical contacts which connect the device to a circuit board.

<span class="mw-page-title-main">CPU socket</span> Circuit board-microprocessor connection

In computer hardware, a CPU socket or CPU slot contains one or more mechanical components providing mechanical and electrical connections between a microprocessor and a printed circuit board (PCB). This allows for placing and replacing the central processing unit (CPU) without soldering.

<span class="mw-page-title-main">Quad flat package</span> Surface mount integrated circuit package with "gull wing" pins extending from all sides

A quad flat package (QFP) is a surface-mounted integrated circuit package with "gull wing" leads extending from each of the four sides. Socketing such packages is rare and through-hole mounting is not possible. Versions ranging from 32 to 304 pins with a pitch ranging from 0.4 to 1.0 mm are common. Other special variants include low-profile QFP (LQFP) and thin QFP (TQFP).

<span class="mw-page-title-main">Thin small outline package</span> Thin surface mount IC package

Thin small outline package (TSOP) is a type of surface mount IC package. They are very low-profile and have tight lead spacing.

<span class="mw-page-title-main">Small outline integrated circuit</span> Surface mount variant of DIP

A small outline integrated circuit (SOIC) is a surface-mounted integrated circuit (IC) package which occupies an area about 30–50% less than an equivalent dual in-line package (DIP), with a typical thickness being 70% less. They are generally available in the same pin-outs as their counterpart DIP ICs. The convention for naming the package is SOIC or SO followed by the number of pins. For example, a 14-pin 4011 would be housed in an SOIC-14 or SO-14 package.

<span class="mw-page-title-main">Power module</span>

A power module or power electronic module provides the physical containment for several power components, usually power semiconductor devices. These power semiconductors are typically soldered or sintered on a power electronic substrate that carries the power semiconductors, provides electrical and thermal contact and electrical insulation where needed. Compared to discrete power semiconductors in plastic housings as TO-247 or TO-220, power packages provide a higher power density and are in many cases more reliable.

<span class="mw-page-title-main">Flat no-leads package</span> Integrated circuit package with contacts on all 4 sides, on the underside of the package

Flat no-leads packages such as quad-flat no-leads (QFN) and dual-flat no-leads (DFN) physically and electrically connect integrated circuits to printed circuit boards. Flat no-leads, also known as micro leadframe (MLF) and SON, is a surface-mount technology, one of several package technologies that connect ICs to the surfaces of PCBs without through-holes. Flat no-lead is a near chip scale plastic encapsulated package made with a planar copper lead frame substrate. Perimeter lands on the package bottom provide electrical connections to the PCB. Flat no-lead packages usually, but not always, include an exposed thermally conductive pad to improve heat transfer out of the IC. Heat transfer can be further facilitated by metal vias in the thermal pad. The QFN package is similar to the quad-flat package (QFP), and a ball grid array (BGA).

<span class="mw-page-title-main">TO-3</span> Metal can semiconductor package for power semiconductors

In electronics, TO-3 is a designation for a standardized metal semiconductor package used for power semiconductors, including transistors, silicon controlled rectifiers, and, integrated circuits. TO stands for "Transistor Outline" and relates to a series of technical drawings produced by JEDEC.

A semiconductor package is a metal, plastic, glass, or ceramic casing containing one or more discrete semiconductor devices or integrated circuits. Individual components are fabricated on semiconductor wafers before being diced into die, tested, and packaged. The package provides a means for connecting it to the external environment, such as printed circuit board, via leads such as lands, balls, or pins; and protection against threats such as mechanical impact, chemical contamination, and light exposure. Additionally, it helps dissipate heat produced by the device, with or without the aid of a heat spreader. There are thousands of package types in use. Some are defined by international, national, or industry standards, while others are particular to an individual manufacturer.

<span class="mw-page-title-main">Chip carrier</span> Surface mount technology package for integrated circuits

In electronics, a chip carrier is one of several kinds of surface-mount technology packages for integrated circuits. Connections are made on all four edges of a square package; compared to the internal cavity for mounting the integrated circuit, the package overall size is large.

<span class="mw-page-title-main">Small-outline transistor</span> Family of discrete surface mount transistors

A small outline transistor (SOT) is a family of small footprint, discrete surface mount transistor commonly used in consumer electronics. The most common SOT are SOT23 variations,. SOT23-5 differs from SOT23 in a wider body of 1.6 mm (0.063 in) instead of 1.3 mm (0.051 in). Also, manufacturers offer the nearly identical thin small outline transistor (TSOT/TSOP) package, where lower height is important.

<span class="mw-page-title-main">Chip on board</span> Method of circuit board manufacture

Chip on board (COB) is a method of circuit board manufacturing in which the integrated circuits (e.g. microprocessors) are attached (wired, bonded directly) to a printed circuit board, and covered by a blob of epoxy. Chip on board eliminates the packaging of individual semiconductor devices, which allows a completed product to be less costly, lighter, and more compact. In some cases, COB construction improves the operation of radio frequency systems by reducing the inductance and capacitance of integrated circuit leads.

<span class="mw-page-title-main">Thin shrink small outline package</span> Thin Shrink Small Outline Package

The Thin Shrink Small Outline Package (TSSOP) is a rectangular surface mount plastic integrated circuit (IC) package with gull-wing leads.

References

  1. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 "CPU Collection Museum - Chip Package Information". The CPU Shack. Retrieved 15 December 2011.
  2. "Archived copy" (PDF). Archived from the original (PDF) on 15 August 2011. Retrieved 3 February 2011.{{cite web}}: CS1 maint: archived copy as title (link)
  3. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 39 "Integrated Circuit, IC Package Types; SOIC. Surface Mount Device Package". Interfacebus.com. Retrieved 15 December 2011.
  4. "National Semiconductor CERPACK Package Products". National.com. Archived from the original on 18 February 2012. Retrieved 15 December 2011.
  5. "National Semiconductor CQGP Package Products". National.com. Archived from the original on 21 October 2007. Retrieved 15 December 2011.
  6. "National's LLP Package". National.com. Archived from the original on 13 February 2011. Retrieved 15 December 2011.
  7. "LTCC Low Temperature Co-fired Ceramic". Minicaps.com. Retrieved 15 December 2011.
  8. Frye, R.C.; Gabara, T.J.; Tai, K.L.; Fischer, W.C.; Knauer, S.C. (1993). "Performance evaluation of MCM chip-to-chip interconnections using custom I/O buffer designs". Sixth Annual IEEE International ASIC Conference and Exhibit. Ieeexplore.ieee.org. pp. 464–467. doi:10.1109/ASIC.1993.410760. ISBN   978-0-7803-1375-0. S2CID   61288567.
  9. "National Semiconductor Launches New Generation of Ultra-Miniature, High Pin-Count Integrated Circuit Packages". National.com. Archived from the original on 18 February 2012. Retrieved 15 December 2011.
  10. Meyers, Michael; Jernigan, Scott (2004). Mike Meyers' A+ Guide to PC Hardware. The McGraw-Hill Companies. ISBN   978-0-07-223119-9.
  11. "Conexant Systems, Inc. - Conexant First to Launch DVB-S2 Demodulator and FEC Decoder". ir.conexant.com. Archived from the original on 18 August 2011.
  12. "Press Releases - Motorola Mobility, Inc". Motorola.com. Retrieved 15 December 2011.
  13. "Xilinx new CPLDs with two I/O banks". Eetasia.com. 8 December 2004. Retrieved 15 December 2011.
  14. "Packages". Chelseatech.com. 15 November 2010. Retrieved 15 December 2011.
  15. "Chip-Package SIDEBRAZE DIP". Archived from the original on 20 November 2008. Retrieved 24 October 2009.
  16. 1 2 3 4 "Packaging Terminology". Texas Instruments.
  17. "CSP - Chip Scale Package". Siliconfareast.com. Retrieved 15 December 2011.
  18. 1 2 "Understanding Flip-Chip and Chip-Scale Package Technologies and Their Applications - Maxim". Maxim-ic.com. 18 April 2007. Retrieved 15 December 2011.
  19. 1 2 "Chip Scale Review Online". Chipscalereview.com. Retrieved 15 December 2011.
  20. Application note nxp.com
  21. "Panasonic Industrial Devices".
  22. "Packaging Technology | National Semiconductor – Package Drawings, Part Marking, Package Codes, LLP, micro SMD, Micro-Array". National.com. Archived from the original on 1 August 2010. Retrieved 15 December 2011.
  23. "How Chip-On-Boards are Made - SparkFun Learn".
  24. "TO-226 Package". Archived from the original on 23 August 2010.
  25. 1 2 3 4 5 6 7 AG, Infineon Technologies. "Packaging - Infineon Technologies". www.infineon.com. Retrieved 15 March 2024.
  26. "TSSOP-8 Package Dimensions by Diodes Incorporated" (PDF).
  27. "F Package -- 14-Lead Plastic TSSOP (4.4mm)-- (Reference LTC DWG # 05-08-1650)" (PDF).
  28. "F Package -- 20-Lead Plastic TSSOP (4.4mm) -- (Reference LTC DWG # 05-08-1650)" (PDF).
  29. Package outline maximintegrated.com
  30. "Fairchild's TinyLogic family overview" (PDF). 22 March 2013. Archived from the original (PDF) on 8 January 2015.
  31. Proximity Communication - the Technology, 2004, archived from the original on 18 July 2009
  32. Murata, Tsuneo (5 September 2012). "Murata's world's Smallest Monolithic Ceramic Capacitor - 0201 <millimeter size> size (0.25 mm x 0.125 mm)" (Press release). Kyoto, Japan: Murata Manufacturing Co., Ltd. Archived from the original on 28 December 2015. Retrieved 28 December 2015.
  33. "White Paper 0201 and 01005 Adoption in Industry" (PDF). Retrieved 7 February 2018.
  34. "SMR Series Ultra-Compact Chip Resistors" (PDF). Datasheet. Rohm Semiconductor.
  35. 1 2 3 4 5 6 7 8 9 10 11 "Thick Film Chip Resistors" (PDF). Datasheet. Panasonic. Archived from the original (PDF) on 9 February 2014.
  36. "Thick Film Chip Resistor - SMDC Series" (PDF). Datasheet. electronic sensor + resistor GmbH. Archived from the original (PDF) on 28 December 2015. Retrieved 28 December 2015.
  37. "SMD/BLOCK Type EMI Suppression Filters EMIFIL" (PDF). Catalog. Murata Manufacturing Co., Ltd. Archived from the original on 28 December 2015. Retrieved 28 December 2015.
  38. "POLYFUSE® Resettable Fuses SMD2920" (PDF). Datasheet. Littelfuse . Retrieved 28 December 2015.
  39. "TLJ Series - Tantalum Solid Electrolytic Chip Capacitors High CV Consumer Series" (PDF). Datasheet. AVX Corporation. Archived (PDF) from the original on 28 December 2015. Retrieved 28 December 2015.
  40. "Tantalum Surface Mount Capacitors - Standard Tantalum" (PDF). Catalog. KEMET Electronics Corporation. 6 September 2011. Archived from the original (PDF) on 26 December 2011. Retrieved 28 December 2015.
  41. "SMT Aluminum Electrolytic Capacitors" (PDF). Datasheet. Panasonic. Archived from the original (PDF) on 1 March 2012. Retrieved 28 December 2015.
  42. "Application Guide - Aluminum SMT Capacitors" (PDF). Resources. Cornell Dubilier. Archived (PDF) from the original on 28 December 2015. Retrieved 28 December 2015.
  43. "Surface Mount Aluminum Electrolytic Capacitors - Alchip-MVA Series" (PDF). Nippon Chemi-Con . Retrieved 28 December 2015.
  44. "SOD 80C Hermetically sealed glass surface-mounted package" (PDF). NXP Semiconductors. Archived (PDF) from the original on 23 April 2012. Retrieved 28 December 2015.
  45. "Designer's™ Data Sheet - Surface Mount Silicon Zener Diodes - Plastic SOD-123 Package" (PDF). Motorola . Retrieved 28 December 2015.
  46. "SOD128 plastic, surface mounted package" (PDF). NXP Semiconductors. 2017. Archived (PDF) from the original on 28 December 2015. Retrieved 28 December 2015.
  47. "SOD323 plastic, surface-mounted package" (PDF). NXP Semiconductors. 2019. Archived (PDF) from the original on 19 November 2012. Retrieved 28 December 2015.
  48. "SOD523 Package outline" (PDF). NXP Semiconductors. 2008. Archived (PDF) from the original on 28 December 2015. Retrieved 28 December 2015.
  49. "Comchip CDSP400-G" (PDF). Datasheet. Comchip Technology Corporation. Archived (PDF) from the original on 28 December 2015. Retrieved 28 December 2015.
  50. "SOD923 Microlead ultra small surface-mounted plastic package" (PDF). Datasheet. NXP Semiconductors.
  51. "Professional Thin Film MELF Resistors" (PDF). Vishay Intertechnology. 22 April 2014. Archived (PDF) from the original on 28 December 2015. Retrieved 28 December 2015.
  52. 1 2 3 "Package Outline Dimensions - U-DFN1616-6 (Type F)" (PDF). Diodes Incorporated. Archived (PDF) from the original on 28 December 2015. Retrieved 28 December 2015.
  53. "Package Outline Drawing - P3.064" (PDF). Intersil. Archived (PDF) from the original on 28 December 2015. Retrieved 28 December 2015.
  54. "3-Lead Small Outline Transistor Package [SOT-89] (RK-3)" (PDF). Analog Devices. 12 September 2013. Archived (PDF) from the original on 28 December 2015. Retrieved 28 December 2015.
  55. "Standards for the Dimensions of Semiconductor Devices" (PDF). Electronic Industries Association of Japan. 15 April 1996. Archived (PDF) from the original on 28 December 2015. Retrieved 28 December 2015.
  56. "Package Information - SOT-89" (PDF). RICOH. Archived (PDF) from the original on 28 December 2015. Retrieved 28 December 2015.
  57. 4-Lead Small Outline Transistor Package analog.com
  58. "SOT-233 Molded Package" (PDF). Fairchild Semiconductor. 26 February 2008. Archived (PDF) from the original on 28 December 2015. Retrieved 28 December 2015.
  59. "SOT323 Package outline" (PDF). NXP Semiconductors. 2008. Archived from the original (PDF) on 28 December 2015. Retrieved 28 December 2015.
  60. "SOT416 Package outline" (PDF). NXP Semiconductors. 2010. Archived from the original (PDF) on 28 December 2015. Retrieved 28 December 2015.
  61. "SOT663 Package outline" (PDF). NXP Semiconductors. 2008. Archived (PDF) from the original on 28 December 2015. Retrieved 28 December 2015.
  62. "Mechanical Case Outline SOT-723" (PDF). ON Semiconductor. 10 August 2009. Retrieved 28 December 2015.
  63. "SOT883 Package outline" (PDF). NXP Semiconductors. 2008. Archived (PDF) from the original on 28 December 2015. Retrieved 28 December 2015.
  64. "D-PAK (TO-252AA) Outline Dimensions" (PDF). Vishay Intertechnology. 5 December 2012. Archived from the original (PDF) on 28 December 2015. Retrieved 28 December 2015.
  65. "Mechanical Case Outline - DPAK-5" (PDF). ON Semiconductor. 15 May 2014. Retrieved 28 December 2015.
  66. "D2PAK Outline Dimensions" (PDF). Vishay Intertechnology. 8 July 2015. Archived from the original (PDF) on 28 December 2015. Retrieved 28 December 2015.
  67. "Phase-leg Rectifier Diode" (PDF). IXYS Corporation. 2002. Archived (PDF) from the original on 28 December 2015. Retrieved 28 December 2015.
  68. admin. "D3PAK: Decawatt Package 3 (TO-268, Discrete Package) | MADPCB". Printed Circuit Board Manufacturing, PCB Assembly & PCB Design - MADPCB. Retrieved 8 April 2022.
  69. "P6.064 Package Outline Drawing" (PDF). Intersil. 2010. Archived (PDF) from the original on 28 December 2015. Retrieved 28 December 2015.
  70. "SOT353 Package outline" (PDF). NXP Semiconductors. 2008. Archived from the original (PDF) on 28 December 2015. Retrieved 28 December 2015.
  71. "SOT363 Package outline" (PDF). NXP Semiconductors. 2008. Archived from the original (PDF) on 28 December 2015. Retrieved 28 December 2015.
  72. "SOT563 Package Details" (PDF). Central Semiconductor. 22 May 2015. Archived (PDF) from the original on 28 December 2015. Retrieved 28 December 2015.
  73. "SOT665 Package outline" (PDF). NXP Semiconductors. 2008. Archived from the original (PDF) on 28 December 2015. Retrieved 28 December 2015.
  74. "SOT666 Package outline" (PDF). NXP Semiconductors. 2008. Archived from the original (PDF) on 28 December 2015. Retrieved 28 December 2015.
  75. "SOT886 Package outline" (PDF). NXP Semiconductors. 2017.
  76. "SOT891 XSON6: plastic extremely thin small outline package; noleads" (PDF). NXP Semiconductors. 2016.
  77. "SOT953 Package information" (PDF). Diodes Incorporated. 2017.
  78. "SOT963 Package details" (PDF). Central Semiconductor Corp. 2010.
  79. "SOT1115 Package outline" (PDF). NXP Semiconductors. 2010. Archived from the original (PDF) on 28 December 2015. Retrieved 28 December 2015.
  80. "SOT1202 Package outline" (PDF). NXP Semiconductors. 2010. Archived from the original (PDF) on 28 December 2015. Retrieved 28 December 2015.
  81. "IC Package Types". www.SiliconFarEast.com. Archived from the original on 26 July 2013. Retrieved 28 December 2015.