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MLG1005S6N8HT000
TDK Corporation
FIXED IND 6.8NH 600MA 250MOHM SM
123954 Pcs New Original In Stock
6.8 nH Unshielded Multilayer Inductor 600 mA 250mOhm Max 0402 (1005 Metric)
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5.0 / 5.0
- (238 Ratings)
MLG1005S6N8HT000
Product Overview
6647415
DiGi Electronics Part Number
MLG1005S6N8HT000-DGManufacturer
TDK Corporation
MLG1005S6N8HT000
Description
FIXED IND 6.8NH 600MA 250MOHM SMInventory
123954 Pcs New Original In Stock
6.8 nH Unshielded Multilayer Inductor 600 mA 250mOhm Max 0402 (1005 Metric)
Quantity
Minimum 1
Minimum 1
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MLG1005S6N8HT000 Technical Specifications
Category
Fixed Inductors
Packaging
Cut Tape (CT)
Series
MLG
Product Status
Active
Type
Multilayer
Material - Core
Ceramic, Non-Magnetic
Inductance
6.8 nH
Tolerance
±3%
Current Rating (Amps)
600 mA
Current - Saturation (Isat)
-
Shielding
Unshielded
DC Resistance (DCR)
250mOhm Max
Q @ Freq
8 @ 100MHz
Frequency - Self Resonant
3.5GHz
Ratings
-
Operating Temperature
-55°C ~ 125°C
Inductance Frequency - Test
100 MHz
Mounting Type
Surface Mount
Package / Case
0402 (1005 Metric)
Supplier Device Package
0402 (1005 Metric)
Size / Dimension
0.039" L x 0.020" W (1.00mm x 0.50mm)
Height - Seated (Max)
0.022" (0.55mm)
Datasheet & Documents
HTML Datasheet
MLG1005S6N8HT000-DG
Environmental & Export Classification
RoHS Status
ROHS3 Compliant
Moisture Sensitivity Level (MSL)
1 (Unlimited)
REACH Status
REACH Unaffected
ECCN
EAR99
HTSUS
8504.50.8000
Additional Information
Other Names
445-181366-1
445-181366-2
MLG1005S6N8HT000-DG
Standard Package
10,000
Alternative Parts
PART NUMBER
MANUFACTURER
QUANTITY AVAILABLE
DiGi PART NUMBER
UNIT PRICE
SUBSTITUTE TYPE
Reviews
5.0/5.0-(Show up to 5 Ratings)
Dec 02, 2025
친환경 포장과 저렴한 가격이 정말 마음에 들어요.
Dec 02, 2025
商品がすぐに届き、その品質も期待以上でした。とても満足しています！
Dec 02, 2025
The products feel solid and well-engineered; I appreciate their long-lasting quality, even after heavy use.
Dec 02, 2025
The packaging is environmentally friendly and arrived in excellent condition thanks to their efficient shipping.
Dec 02, 2025
First-time shopping here was a great experience thanks to their professionalism.
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Frequently Asked Questions (FAQ)
When designing a high-frequency RF filter, what are the potential practical risks of using the TDK MLG1005S6N8HT000 6.8 nH inductor if my target impedance matching requires precise tuning at 2.4 GHz?
The primary risk with the TDK MLG1005S6N8HT000 at 2.4 GHz lies in its Self-Resonant Frequency (SRF) of 3.5 GHz. While seemingly above your operating frequency, parasitic capacitances can cause the inductor to behave capacitively before reaching its SRF, especially with trace inductance and other components. This can lead to unexpected impedance shifts and detuning. To mitigate this, ensure your layout minimizes parasitic capacitance and consider simulating the MLG1005S6N8HT000 within your full circuit model to verify its performance margin at 2.4 GHz. If borderline, a higher SRF inductor might be necessary for robust impedance matching.
How can I be confident that the TDK MLG1005S6N8HT000 is a suitable replacement for an older, unspecified 6.8 nH chip inductor in a noisy DC-DC converter output filter, considering potential power derating issues?
Replacing an unspecified inductor with the TDK MLG1005S6N8HT000 requires careful consideration of its current handling and thermal performance. While the MLG1005S6N8HT000 has a 600 mA rating, its 250 mOhm DC resistance (DCR) will generate heat. If the original inductor had a significantly lower DCR or was rated for higher current, the MLG1005S6N8HT000 might experience excessive heating and premature failure under load. To ensure suitability, measure the actual current draw of your DC-DC converter's output filter and calculate the power dissipation (I² * DCR) for the MLG1005S6N8HT000. If this dissipation results in a temperature rise exceeding the component's operating limits or your system's thermal budget, a lower DCR inductor is required, even if inductance and current rating appear similar.
What are the key design uncertainties when integrating the TDK MLG1005S6N8HT000 into a miniaturized IoT device's RF front-end operating near its 600 mA current limit, especially regarding signal integrity?
The main uncertainty when pushing the TDK MLG1005S6N8HT000 near its 600 mA current limit in an IoT RF front-end is the impact on signal integrity due to self-heating and potential saturation effects (though saturation is not explicitly detailed, it's a general inductor concern). Even with a 600 mA rating, sustained operation at or near this limit can cause a temperature rise, potentially altering the inductor's inductance value (though typically minor for ceramic cores) and increasing its DCR. More critically, if the peak RF current approaches the unspecified saturation current (Isat), the inductance will drop significantly, leading to impedance mismatch and signal distortion. It's crucial to confirm the peak RF current your device will encounter and ensure it's well below the effective saturation point of the MLG1005S6N8HT000, potentially requiring over-specifying the inductor or implementing current limiting.
I'm considering using the TDK MLG1005S6N8HT000 (6.8 nH, 600mA) to replace a competing 0402 inductor, perhaps an onsemi CL05C6N8DB5NNN (also 6.8 nH, 500mA). What practical trade-offs should I evaluate for reliability and performance in a mobile application?
When comparing the TDK MLG1005S6N8HT000 to a competitor like the onsemi CL05C6N8DB5NNN, the key trade-off lies in current handling and potential reliability differences. The MLG1005S6N8HT000 offers a higher 600 mA rating versus the CL05C6N8DB5NNN's 500 mA, which could be beneficial if your application experiences transient current spikes. However, you must investigate the DCR of both components. If the MLG1005S6N8HT000 has a higher DCR, it will dissipate more power at the same current, potentially leading to higher operating temperatures and reduced long-term reliability, especially in a constrained mobile environment. Also, compare their Q factor at your operating frequency; a higher Q generally indicates lower losses and better performance. Ensure the operating temperature range and MSL rating of both are suitable for your mobile application's environmental conditions.
What are the potential pitfalls and design considerations when using the TDK MLG1005S6N8HT000 in a multi-layer ceramic bypass filter circuit where stable performance across a wide temperature range (-55°C to 125°C) is critical?
The main design consideration when using the TDK MLG1005S6N8HT000 in a demanding temperature range for a bypass filter is the stability of its inductance and DCR. While the ceramic, non-magnetic core offers good temperature characteristics compared to some other materials, it's not entirely immune to variation. As temperatures fluctuate from -55°C to 125°C, the inductance of the MLG1005S6N8HT000 can drift slightly, and its DCR will change (typically increasing with temperature). For applications requiring extremely tight impedance control across the entire operating temperature, it's essential to characterize the inductor's performance at the temperature extremes. You might need to incorporate wider tolerance components or active compensation circuits if the MLG1005S6N8HT000's inherent variation proves detrimental to your bypass filter's effectiveness.
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MLG1005S6N8HT000 CAD Models
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