Documentation

600PCS 10pF-10uF 50V Multilayer Ceramic Capacitor Kit with Plastic Box | ShillehTek Product Manual
Documentation / 600PCS 10pF-10uF 50V Multilayer Ceramic Capacitor Kit with Plastic Box | ShillehTek Product Manual

600PCS 10pF-10uF 50V Multilayer Ceramic Capacitor Kit with Plastic Box | ShillehTek Product Manual

Overview

A 600-piece ceramic capacitor assortment in a labelled plastic storage case — essentially every value you need for high-frequency bypassing, RC filters, oscillator timing, and signal-coupling work, from 10 pF picofarads up to 10 µF microfarads, all rated 50V. Ceramic caps are non-polarised, physically tiny, and have very low ESR, which makes them the right choice for digital decoupling next to microcontroller pins, RF filtering, and any application where the dielectric losses of an electrolytic would matter.

Each compartment of the included case is labelled with its capacitance, so you can find a 100 nF (0.1 µF) for decoupling or a 22 pF for a crystal oscillator without sorting through hundreds of identical-looking yellow lozenges. Multilayer construction (MLCC) and through-hole leads make these compatible with breadboards, perfboard, and conventional PCB pads.

This is the companion kit to the electrolytic-capacitor assortment — together they cover the full capacitance range from picofarads up through hundreds of microfarads, which is everything an Arduino, ESP, RF, audio, or analog signal-conditioning project needs.

At a Glance

Total Pieces
600
Type
Multilayer ceramic (MLCC)
Capacitance Range
10 pF – 10 µF
Voltage Rating
50V DC
Polarity
Non-polarised (use either way)
Storage
Labelled plastic box, multiple compartments

Specifications

Parameter Value
Total Pieces 600 capacitors
Type Multilayer ceramic (MLCC), through-hole leads
Polarity Non-polarised — insert in either direction
Capacitance Range 10 pF (10 picofarads) to 10 µF (10 microfarads)
Voltage Rating 50V DC (all values)
Tolerance ±5% to ±20% (varies by class)
Dielectric Class Mostly Class 2 (X7R or Y5V); small values may be Class 1 (NP0/C0G)
Body Yellow / brown lozenge, ~5-7 mm wide
Lead Spacing ~2.5 mm
Operating Temperature -30°C to +85°C typical
Storage Plastic case with labelled compartments

Reading the Cap

Ceramic capacitors use a 3-digit code printed on the body:

Marking Capacitance
"103" 10 × 10³ pF = 10 nF = 0.01 µF
"104" 10 × 10&sup4; pF = 100 nF = 0.1 µF
"105" 10 × 10&sup5; pF = 1 µF
"106" 10 × 10&sup6; pF = 10 µF
"22" (no third digit) 22 pF
"100" (with no multiplier code) 10 pF (= 10 × 10&sup0;)
"472" 47 × 10² pF = 4.7 nF

The first two digits are the significant figures; the third is the power-of-10 multiplier. Read in picofarads, then divide by 1000 for nanofarads or 1,000,000 for microfarads.

Common Use Cases

Application Typical Value(s)
IC bypass (decoupling) — place next to Vcc pin 0.1 µF (100 nF / "104")
Crystal oscillator load capacitor (16-22 MHz) 22 pF or 18 pF
Crystal oscillator load capacitor (32 kHz) 10 pF
RC low-pass filter (audio) 1 nF / 4.7 nF / 10 nF + suitable R
RC high-pass filter (block DC) 1 µF / 4.7 µF
Coupling between op-amp stages 0.1 µF
RF / WiFi module shielding 1 nF + 100 pF in parallel
I2C bus snubber (slow rise time) 10 pF on each line if needed
Local LED current ripple smoothing 0.1 µF across the LED supply rail
The 100 nF rule: Every IC on your PCB should have a 0.1 µF (100 nF / "104") ceramic cap as close as possible to its Vcc pin. This shunts high-frequency switching noise straight to ground before it can travel down the supply rail and disturb other chips. Without it, even simple Arduino circuits can develop strange intermittent bugs.

Frequently Asked Questions

Are these polarised?
No — ceramic caps are not polarised. Insert them either way; they work the same. (This is one of the things that makes them easier to use than electrolytics.)
What's the difference between ceramic and electrolytic?
Ceramic: small (typically pF to a few µF), non-polarised, low ESR, great for high-frequency. Electrolytic: large (typically µF+), polarised, higher ESR, great for bulk smoothing at low frequencies. Most projects use both: a big electrolytic for ripple smoothing + a small ceramic next to each IC for HF noise.
Why does the value change when I bring my finger near the cap?
If you're measuring with a multimeter on a bare cap, your finger adds capacitance to ground. This is a normal physics effect. In a finished circuit it doesn't matter because the cap is part of the larger circuit ground network.
My DMM reads 0.1 µF as 0.08 µF. Is the cap bad?
Probably not — ceramic caps have wide tolerances (±20% is normal for the higher-capacitance values). 0.08 µF is well within tolerance for a 0.1 µF cap. The capacitance also drifts with temperature and bias voltage on Class 2 dielectrics. For precision applications use Class 1 (NP0 / C0G) caps, which are tighter.
Can I use a 50V cap on a 5V rail?
Yes — the 50V rating is the maximum. Running a 50V cap at 5V is well within spec and arguably better (less voltage stress = longer life, less capacitance drop with bias).
My code "104" cap reads 100 nF, not 100 µF. Why?
"104" means 10 × 10⁴ pF = 100,000 pF = 100 nF = 0.1 µF. Not 100 µF — that's "107" (which is unusual for ceramic; you'd typically use an electrolytic above 10 µF).