GRM188C80E107ME01D
Product Specifications
GRM188C80E107ME01D - Murata 100uF 2.5V X6S MLCC, 0603 (Industry's First 100uF in 0603)
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The GRM188C80E107ME01D is Murata's industry-first 100uF MLCC in 0603 size, achieving breakthrough capacitance density through advanced fine-particle X6S dielectric and sub-micron layer lamination technology. Rated at 2.5V with ultra-low ESR and ESL inherent to monolithic ceramic construction, it enables single-component bulk decoupling on low-voltage FPGA/ASIC core rails (1.0V, 1.2V, 1.8V) where board space is at a premium. The 1.6x0.8mm footprint eliminates the need for multiple smaller capacitors or larger tantalum electrolytics — a single GRM188C80E107ME01D replaces 10x 10uF 0603 MLCCs or 2-3 tantalum capacitors, dramatically reducing BOM count and PCB area in power-dense embedded designs.
Key Performance Highlights
Technical Specifications
| Manufacturer | Murata Manufacturing Co., Ltd. |
| Part Number | GRM188C80E107ME01D |
| Product Series | GRM (General-Purpose Chip MLCC) |
| Capacitance | 100 uF (107 = 10 x 10^7 pF) |
| Tolerance | +/-20% (M code) |
| Rated Voltage (DC) | 2.5 V |
| Temperature Characteristic | X6S (EIA standard) |
| Capacitance Change (vs Temp) | +/-22% over -55C to +105C |
| Operating Temperature | -55C to +105C |
| Case Size (Inch) | 0603 (EIA 0603) |
| Dimensions (L x W x T) | 1.6 mm x 0.8 mm x 0.8 mm |
| Mounting Type | Surface Mount (SMD/SMT) |
| Termination | Tin (Sn) over Nickel (Ni) barrier |
| Packaging | Tape & Reel (standard for SMD placement) |
| RoHS | RoHS Compliant |
Product Details
Breakthrough 100uF in 0603 — Design Implications
Murata's achievement of 100uF in a single 0603 MLCC represents a generational leap in capacitance density. Previously, achieving 100uF required either larger 0805/1206 MLCCs or multiple 0603 10-22uF devices in parallel — consuming significant PCB area on already-crowded power rails.
Key benefit: Replace 10x 10uF 0603 capacitors or 2-4 tantalum capacitors with a single GRM188C80E107ME01D. The ultra-low ESR (typically < 10 milliohms) and ESL (< 0.2 nH) of MLCC construction provide superior high-frequency bypassing compared to tantalum. For FPGA core rails switching at MHz frequencies, the combination of high capacitance + low ESL delivers cleaner power with fewer components.
DC Bias Note: Like all Class II MLCCs, effective capacitance decreases under DC bias. At 2.5V (the rated voltage), expect effective capacitance of approximately 50-70uF. For critical designs, use Murata's SimSurfing online tool to simulate exact capacitance vs DC bias for your specific operating voltage.
Key Applications
FPGA / ASIC Core Rail Decoupling - Bulk bypass on 1.0V/1.2V/1.8V core supplies
Point-of-Load DC-DC Output Filtering - High-capacitance output capacitor for buck converters
MCU / SoC Power Pins - Local bulk decoupling replacing multiple smaller MLCCs
DDR Memory VTT Termination - Bulk capacitance for DDR termination voltage rails
Pulsed-Load Energy Storage - RF PA burst supply, LED flash driver reservoir
Portable / Battery-Powered Devices - Maximum capacitance in minimum PCB area
MLCC Dielectric Comparison (Class II)
| Dielectric | Temp Range | Cap Change | Density | Best Use |
|---|---|---|---|---|
| X6S (this part) | -55 to +105C | +/-22% | Highest | Bulk decoupling, non-critical filtering |
| X5R | -55 to +85C | +/-15% | High | General purpose, consumer electronics |
| X7R | -55 to +125C | +/-15% | Medium | Industrial/automotive, tight tolerance |
| X7S | -55 to +125C | +/-22% | Medium-High | Automotive under-hood |
X6S provides the highest capacitance density among common Class II dielectrics — enabling the 100uF milestone in 0603. The trade-off is wider capacitance tolerance vs temperature.
Why Source GRM188C80E107ME01D from Superb Automation?
Frequently Asked Questions
How did Murata pack 100uF into a 0603 capacitor?
Through advanced nano-scale dielectric powder, sub-micron layer stacking, and optimized internal electrode design. Murata's material science and precision lamination technology enable dielectric layers thinner than 1 micron, dramatically increasing the number of layers — and therefore capacitance — within the same 0603 footprint.
Is the effective capacitance really 100uF in my circuit?
At 0V DC bias, yes — 100uF. Under DC bias, Class II MLCCs lose capacitance. At the full 2.5V rated voltage, effective capacitance is typically 50-70uF. For your exact operating voltage, simulate using Murata's free SimSurfing online tool (enter part number, set DC bias, view C vs V curve). Always verify effective capacitance under your operating conditions.
Can this replace a tantalum capacitor?
Yes, in most low-voltage designs. Advantages: much lower ESR (milliohms vs ohms), lower ESL, non-polarized, no voltage derating requirement, no fire hazard on failure. Disadvantage: DC bias capacitance reduction (tantalums maintain stable C vs V). For 1.0-1.8V core rails, this MLCC is an excellent tantalum replacement.
What is the X6S temperature range?
X6S operates from -55C to +105C with capacitance change within +/-22%. This covers most consumer, industrial, and some automotive cabin applications. For higher temperature (125C+) or tighter tolerance (+/-15%), consider X7R. For the highest density at moderate temperatures, X6S is the optimal choice.
How many of these can replace a 100uF tantalum on my 1.2V rail?
One GRM188C80E107ME01D provides comparable bulk capacitance to a 100uF tantalum (considering DC bias derating). For a 1.2V rail (~50% of rated 2.5V), effective capacitance is ~70-80uF. A single MLCC replaces 1 tantalum + saves significant PCB area + provides lower ESR. For better high-frequency performance, pair with a 0.1uF 0402 MLCC in parallel directly at the IC power pin.