quarzwerk
Quartz Calculator
Nominal Frequency
10.000000 MHz
Ξf = 0.000 ppm β
π Crystal Parameters
MHz
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Loaded from article
pF
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Ξ©
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β‘ Motional Data
fF
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pF
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pF
Manual input (layout dependent)
V
Manual input (IC dependent)
π Frequency Response
Gain (dB)
Phase (Β°)
0.0 dB
Gain @ fβ
-180.0Β°
Phase @ fβ
0 Β΅W
Drive Level
Optimized Circuit Design
18.0
C_ext1
pF
18.0
C_ext2
pF
220
Rs
Ξ©
85
RL
Ξ©
ποΈ Fine-tune C_ext
Move sliders β Graph updates live
18.0 pF
5 pF
100 pF
18.0 pF
5 pF
100 pF
Effektive CL:
12.0 pF
Ξf:
0.000 ppm
Ratio:
1:1.0
β‘ Alternative Values (asymmetric)
Better for startup behavior!
Asymmetric capacitors improve startup behavior. All combinations result in the same effective load capacitance CL.
1:1 (symmetrisch)
18 | 18 pF
1:1.5 recommended
22 | 15 pF
1:2
27 | 13 pF
Startup Safety Margin
420%
β Alle Parameter optimal
quarzwerk Quartz Calculator
quarzwerk
Quartz Calculator
Nominal Frequency
10.000000 MHz
Ξf = 0.000 ppm β
π Crystal Parameters
MHz
Loaded from article
Loaded from article
pF
Loaded from article
Ξ©
Loaded from article
β‘ Motional Data
fF
Loaded from article
pF
Loaded from article
pF
Manual input (layout dependent)
V
Manual input (IC dependent)
π Frequency Response
Gain (dB)
Phase (Β°)
0.0 dB
Gain @ fβ
-180.0Β°
Phase @ fβ
0 Β΅W
Drive Level
Optimized Circuit Design
18.0
C_ext1
pF
18.0
C_ext2
pF
220
Rs
Ξ©
85
RL
Ξ©
ποΈ Fine-tune C_ext
Move sliders β Graph updates live
18.0 pF
5 pF
100 pF
18.0 pF
5 pF
100 pF
Effektive CL:
12.0 pF
Ξf:
0.000 ppm
Ratio:
1:1.0
β‘ Alternative Values (asymmetric)
Better for startup behavior!
Asymmetric capacitors improve startup behavior. All combinations result in the same effective load capacitance CL.
1:1 (symmetrisch)
18 | 18 pF
1:1.5 recommended
22 | 15 pF
1:2
27 | 13 pF
Startup Safety Margin
420%
β Alle Parameter optimal
quarzwerk Quartz Calculator