6 Inch Silicon Wafers for Research and Production in Stock

6 inch (150mm) silicon wafers are a standard substrate size for semiconductor R&D, MEMS, sensors, and process development because they balance usable area with broad tool compatibility. Researchers commonly choose 150mm wafers based on grade (prime or test), surface finish (SSP or DSP), crystal orientation, and the resistivity range needed for device performance and measurement repeatability. To support cleanroom workflows, UniversityWafer supplies in-stock 6 inch silicon wafers with flexible specifications and fast quoting for both single-wafer prototyping and small production lots.

Large Selection of 6 Inch Silicon Wafers In stock

You can buy as few as one wafer or large volumes. We cater to researchers needing high-quality but affordable substrate for their experiments. The price of silicon wafers is based on specs and quantity.

Researcher:

I was looking for Fe (iron) doped Silicon wafers. I checked the website but not able to find them. Can you please help me out if you have Iron coated silicon wafers? Can I get the quote for 2 iron coated wafers? I am also looking for Patterned substrates with Cu and Si stripe dimensions of ~160 micrometre and ~60 micrometres.

Please reference #255361 for specs and pricing.

Get Your 6 Inch Silicon Wafer Quote FAST! Or, buy online and start researching today!





 

Below Are Just Some of the 6 Inch Silicon Wafers that We Carry

We have a large selection of standard and hard to find specs in stock. We work with the researcher to provide the best specs for their research.

Wafer Dopings:

  • Undoped, Boron (B), Gallium (Ga), Arsenic (As), Antimony (Sb), Degenerately Doped

Wafer Types

Wafer Oris

  • (100), (111), (110), (112), (531), (510), (311), (211)

6 inch silicon wafers

What is The Cost of 6 Inch (150mm) Silicon Wafers

Taiwan-based manufacturers are reporting soaring demand for 6 Inch Silicon Wafers. The rise in demand for 5G, AI, and cloud computing is driving a small increase in production costs. Plessey LEDs have undergone a final process to develop a patented technology, available in production quantities. In 2019, FBK fabricated three-dimensional pixels on six-inch silicon wafers using 150-mm-thick SOI wafers.

China is the largest consumer of 6 Inch Silicon Wafers, with demand expected to increase seven-fold over the next decade. The growth of 4G and future technologies will drive future wafer prices.

6 Inch Silicon Substrated Used for Spin Coating Optical Adhesives

A government researcher requested: "SSP... using these wafers for spincoating optical adhesives, the other specs (type, dopant) aren't that important to us".

  • Diameter: 6", Doping: Any, Ori: (100), Resistivity: >100 ohm-cm, Thickness: 1000um, Quantity: 25

Reference #194619 for specs and pricing.

Where Can You Buy 6 Inch Silicon Wafers Online?

Here are just some of the ongoing sales. Swipe left/right on mobile to see all columns.

Item Type/dop Orient. Diam. Thck (μm) Pol Resistivity Ohm-cm
TS006P/B[100]6"525 ±15P/EMCZ 0.01--0.02
SEMI Prime, 1 SEMI Flat 57.5mm @ <011>±0.5°, Oxygen=(11--13)ppma
TS004P/B[100]6"675 ±15P/EMCZ 0.01--0.02
SEMI Prime, 1 SEMI Flat 57.5mm @ <011>±0.5°, Oxygen=(3--9)ppma
TS005P/B[100]6"675 ±15P/EMCZ 0.01--0.02
SEMI Prime, 1Flat 57.5mm @ <001>±0.5°
K667P/B[100]6"900C/CFZ >1,000
SEMI Prime, 1Flat (57.5mm), Empak cst
7038P/B[111] ±0.5°6"875P/EFZ >10,000
SEMI Prime, 1Flat (57.5mm), Empak cst
6898P/B[111] ±0.5°6"1,000P/EFZ >5,000
SEMI Prime, 1Flat (57.5mm), Empak cst
7208N/Ph[100] ±1°6"1,000 ±50P/PFZ >9,500
SEMI Prime, 1Flat (57.5mm), Empak cst, Lifetime>6,000μs
E239N/Ph[100]6"825C/CFZ 7,000--8,000
SEMI, 1Flat, Lifetime=7,562μs, in Open Empak cst
F907N/Ph[100]6"3,000P/PFZ >4,800
SEMI Prime, 1Flat (57.5mm), Individual cst, Lifetime>7,000μs
7212N/Ph[100] ±1°6"450P/PFZ 4,300--8,300
SEMI Prime, 1Flat (57.5mm), Empak cst
7233N/Ph[100] ±1°6"675P/PFZ 4,300--8,300
SEMI Prime, 1Flat (57.5mm), Empak cst
L625N/Ph[100--6°]6"625P/EFZ >3,500
SEMI Prime, 1Flat (57.5mm), Empak cst
E700N/Ph[100--6°]6"675P/PFZ >3,500
SEMI Prime, 1Flat (57.5mm), Empak cst
F700N/Ph[100--6°]6"790 ±10C/CFZ >3,500
SEMI, 1Flat, Empak cst
4982N/Ph[100--6°]6"675P/PFZ >1,000
SEMI Prime, Notch on <010>, Laser Mark, Empak cst
D982N/Ph[100--6°]6"675BROKENFZ >1,000
SEMI notch Broken, Empak cst
7122N/Ph[100]6"500 ±10P/PFZ 50--70
SEMI Prime, 1Flat, Empak cst
G122N/Ph[100]6"500 ±10P/PFZ 50--70
SEMI Prime, 1Flat, Empak cst
5325N/Ph[100]6"725P/PFZ 50--70
SEMI Prime, 1Flat (57.5mm), Lifetime=15,700μs
7053N/Ph[100]6"2,000P/PFZ 50--70
SEMI Prime, 1Flat (57.5mm)
6883N/Ph[100]6"625 ±5P/PFZ 40--90
SEMI Prime, 1Flat (57.5mm), TTV <3μm
G883N/Ph[100]6"650 ±5P/PFZ 40--90
SEMI Prime, 1Flat (57.5mm), TTV<3μm
F883N/Ph[100]6"675 ±5P/PFZ 40--90
SEMI Prime, 1Flat (57.5mm), TTV<3μm
S5622N/Ph[100]6"1,300 ±10E/EFZ 0.01--0.05
SEMI notch, Empak cst
G228N/Ph[111] ±0.5°6"300 ±15BROKENFZ >6,000
Test, Broken into pieces, ranging 65% to 5%
N445N/Ph[112--5.0°]6"875 ±10E/EFZ >3,000
SEMI, 1Flat (47.5mm), TTV<4μm, Surface Chips
G343N/Ph[112--5°]6"1,000 ±10C/CFZ >3,000
SEMI, 1 JEIDA Flat (47.5mm), TTV<4μm, Lifetime>1,000μs
7116Intrinsic[100]6"675P/PFZ >65,000
SEMI notch Prime, Empak cst
M526Intrinsic[100] ±0.1°6"720 ±10P/PFZ >10,000
SEMI Prime, 1Flat (57.5mm), TTV<3μm
7117Intrinsic[111] ±0.5°6"875P/PFZ >10,000
SEMI Prime, 1Flat (57.5mm), Empak cst
F613P/B[110] ±0.5°6"300P/P20--25
SEMI TEST -- scratched, can be repolished, 2Flats
G458P/B[110] ±0.5°6"390 ±10C/C>10
2Flats, Empak cst
TS002P/B[110] ±0.25°6"625 ±15P/E10--20
SEMI Prime, 1 JEIDA Flat (47.5mm) @ <111>, TTV<3μm, Bow<5μm
TS007P/B[110] ±0.25°6"625 ±15P/E10--20
SEMI Prime, 1 JEIDA Flat 47.5mm @ <111>±0.5°, LaserMark, TTV<2μm
TS072P/B[110] ±0.25°6"625 ±15P/E10--20
SEMI Prime, 1 JEIDA Flat (47.5mm) @ <111>±0.5°, TTV<3μm
6427P/B[110] ±0.5°6"675P/E0.01--0.02
Prime, PFlat @ [111]±0.25°, SF @ [111]±5°
TS054P/B[100]6"675P/E15--25
SEMI Prime, 1Flat (57.5mm), TTV<5μm
4980P/B[100]6"220P/P10--30
SEMI 1Flat, TEST grade (scratches), TTV<4μm
L405P/B[100]6"1,000P/P10--15
SEMI Prime, 1Flat, Empak cst
7066P/B[100]6"675P/P5--10
SEMI Prime, 1Flat (57.5mm)
6287P/B[100]6"675P/E5--10
SEMI Prime, 1Flat (57.5mm)
6751P/B[100]6"1,000P/E5--10
SEMI Prime, 1Flat (57.5mm)
7030P/B[100]6"1,000P/E5--10
SEMI Prime, 1Flat (57.5mm)
E964P/B[100]6"475P/P1--30
SEMI Prime, 1Flat (57.5mm)
5964P/B[100]6"500P/P1--30
SEMI Prime, 1Flat (57.5mm), TTV<5μm
D964P/B[100]6"500P/P1--30
SEMI Prime, 1Flat (57.5mm), TTV<5μm
5354P/B[100--9.7°]6"525P/P1--100
SEMI Prime, 1Flat (57.5mm) at <110>±0.1°
B420P/B[100]6"675P/P1--5
SEMI Prime, 1Flat, Soft cst
6358P/B[100--6°]6"675P/E1--30
SEMI Prime, 1Flat (57.5mm)
N698P/B[100]6"675P/E1--100
SEMI Prime, 1Flat (57.5mm)
6404P/B[100]6"800E/E1--50
SEMI, 1Flat (57.5mm), TTV<5μm
F162P/B[100]6"2,000 ±50P/P1--35
SEMI Prime, 1Flat (57.5mm), Individual cst
E162P/B[100]6"2,000 ±50P/E1--35
SEMI Prime, 1Flat (57.5mm), Back-Side polished with small scratches
7047P/B[100]6"400P/P0.5--1.0
SEMI Prime, 1Flat (57.5mm)
S5821P/B[100]6"275P/P0.01--0.05
SEMI Prime, 1Flat (57.5mm), TTV<2μm
TS104P/B[100]6"625 ±15P/EOx0.01--0.02
SEMI Prime, JEIDA Flat 47.5mm, Back-side LTO
TS055P/B[100]6"675 ±15P/E0.01--0.02
SEMI Prime, 1Flat (57.5mm)
TS103P/B[100]6"525 ±15P/E0.007--0.015
SEMI Prime, 1Flat (57.5mm), TTV<5μm
6005P/B[100]6"320P/E0.001--0.030
JEIDA Prime, Empak cst
6484P/B[100]6"675P/E0.001--0.005
SEMI Prime, 1Flat (57.5mm)
TS108P/B[111--3°]6"625 ±15P/E0.01--0.02
SEMI Prime, 1Flat (57.5mm), TTV<8μm
J668P/B[111] ±0.5°6"675E/E0.010--0.025
SEMI, 1Flat (57.5mm), TTV<5μm
TS105N/As[111--1.5°]6"675P/EOx0.001--0.002
SEMI Prime, 1Flat, Back-side LTO, TTV<6μm
5814N/Ph[100]6"925 ±15E/E5--35
JEIDA Prime, TTV<5μm
B728N/Ph[100]6"675P/E2.7--4.0
SEMI Prime, Empak cst
TS063N/Ph[100]6"525P/E1--3
SEMI Prime, 1Flat (57.5mm)
TS075N/Ph[100]6"525P/E1--3
SEMI Prime, Flat: JEIDA 47.5mm, Oxygen=(10--14)ppma
TS076N/Ph[100]6"525P/E1--3
SEMI Prime, Flat: JEIDA 47.5mm, Oxygen=(10--14)ppma
6971N/Ph[100--25°]6"675P/P1--100
SEMI notch Prime, TTV<1μm
6965N/Ph[100]6"675 ±10P/E1--10
SEMI Prime, 1Flat (57.5mm)
7170N/Ph[100] ±1°6"675P/E1--20
Prime, 2 SEMI Flats, Back-side Acid etched
C716N/Ph[100--28°]6"700P/P1--100
SEMI Notch Prime, TTV<2μm
S5913N/Ph[100] ±1°6"800P/E1--10
SEMI Prime, 1Flat (57.5mm)
F859N/Ph[100--25°]6"800C/C1--100
SEMI notch Prime, Empak cst
E089N/Ph[100]6"1,910 ±10P/P1--100
SEMI Prime, 1Flat (57.5mm), TTV<2μm
F089N/Ph[100]6"1,910 ±10P/P1--100
SEMI Prime, 1Flat (57.5mm), TTV<5μm
G844N/Ph[100]6"5,000P/P1--35
SEMI Prime, 1Flat (57.5mm), Individual cst
L066N/Sb[100]6"675P/E0.01--0.02
SEMI Prime, 1Flat (57.5mm)
C673N/Sb[100]6"675P/E0.008--0.020
SEMI Prime, 1Flat (57.5mm)
2533N/As[100]6"1,000L/L0.0033--0.0037
SEMI, 1Flat(57.5mm), in individual wafer cassettes
E533N/As[100]6"1,000L/L0.0033--0.0037
SEMI, 1Flat(57.5mm)
TS018N/As[100]6"575 ±15P/P0.001--0.005
SEMI Prime, 2Flats (PF @ <110>), Laser Mark
4204N/As[100]6"675P/EOx0.001--0.005
SEMI Prime, 1Flat, Back-side LTO, TTV<4μm
5541N/Ph[100]6"675P/EOx0.001--0.002
SEMI Prime, 1Flat, with strippable Epi layer
TS101N/As[100]6"675 ±15P/EOx0.001--0.005
SEMI Prime, 1Flat (57.5mm), TTV<5μm, LTO
TS037N/Ph[111--1.5°]6"675P/E3--12
SEMI Prime, 1Flat (57.5mm)
6559N/Ph[111] ±0.5°6"675P/E1--100
Prime, NO Flats, Empak cst
TS112N/As[111--4°]6"508P/E0.0038--0.0042
SEMI Prime, 1Flat (57.5mm), Back-side LTO
TS034N/As[111--4°]6"625 ±15P/EOx0.0024--0.0035
SEMI Prime, 1Flat, Back-side LTO
TS109N/As[111--4°]6"508 ±15P/E0.0023--0.0026
SEMI Prime, 1Flat (57.5mm), TTV<8μm
TS102N/As[111--4°]6"675P/E0.001--0.005
SEMI Prime, 1Flat, TTV<4μm, Bow<10μm, Warp<20μm
TS107N/As[111--2.5°]6"625 ±15P/EOx0.001--0.004
SEMI Prime, JEIDA Flat (47.5mm), Back-side LTO

How to Make the Most of 6 Inch Silicon Wafers

Several manufacturers have begun developing six-inch and eight-inch wafers. While larger silicon wafers are cheaper to produce, they aren't yet mainstream and can be of lower quality than four-inch counterparts. Choosing the right orientation will maximize the efficiency of semiconductor production. It is important to identify the type of silicon wafer needed; the best wafers are mirror-like and have uniform surfaces.

During manufacturing, it is important to select the proper orientation to help maximize efficiency. Making 6 inch silicon wafers is highly efficient, allowing for more precision and uniformity in the final product. A six-inch silicon wafer is more expensive than a one-inch wafer but allows for more flexibility during machining.