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MIC5206-3.6YMM
Microchip Technology
IC REG LINEAR 3.6V 150MA 8MSOP
5134 Pcs New Original In Stock
Linear Voltage Regulator IC Positive Fixed 1 Output 150mA 8-MSOP
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5.0 / 5.0
- (403 Ratings)
MIC5206-3.6YMM
Product Overview
1322497
DiGi Electronics Part Number
MIC5206-3.6YMM-DGManufacturer
Microchip Technology
MIC5206-3.6YMM
Description
IC REG LINEAR 3.6V 150MA 8MSOPInventory
5134 Pcs New Original In Stock
Linear Voltage Regulator IC Positive Fixed 1 Output 150mA 8-MSOP
Quantity
Minimum 1
Minimum 1
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MIC5206-3.6YMM Technical Specifications
Category
Power Management (PMIC), Voltage Regulators - Linear, Low Drop Out (LDO) Regulators
Packaging
Tube
Series
-
Product Status
Active
Output Configuration
Positive
Output Type
Fixed
Number of Regulators
1
Voltage - Input (Max)
16V
Voltage - Output (Min/Fixed)
3.6V
Voltage - Output (Max)
-
Voltage Dropout (Max)
0.35V @ 150mA
Current - Output
150mA
Current - Quiescent (Iq)
150 µA
Current - Supply (Max)
2.5 mA
PSRR
-
Control Features
Enable, Error Flag
Protection Features
Over Current, Over Temperature, Reverse Polarity
Operating Temperature
-40°C ~ 125°C
Mounting Type
Surface Mount
Package / Case
8-TSSOP, 8-MSOP (0.118", 3.00mm Width)
Supplier Device Package
8-MSOP
Base Product Number
MIC5206
Datasheet & Documents
HTML Datasheet
MIC5206-3.6YMM-DG
Environmental & Export Classification
RoHS Status
ROHS3 Compliant
Moisture Sensitivity Level (MSL)
1 (Unlimited)
REACH Status
REACH Unaffected
ECCN
EAR99
HTSUS
8542.39.0001
Additional Information
Standard Package
100
Reviews
5.0/5.0-(Show up to 5 Ratings)
грудня 02, 2025
梱包の破損のリスクがなく、安心してお任せできます。
грудня 02, 2025
Products arrive in pristine condition, reflecting their high manufacturing standards.
грудня 02, 2025
DiGi Electronics consistently offers innovative and well-made products.
грудня 02, 2025
Fast and efficient shipping helps us maintain a competitive edge.
грудня 02, 2025
Customer support staff showed genuine care and professionalism.
грудня 02, 2025
The reliability of their product quality is unmatched, giving me peace of mind with each purchase.
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Frequently Asked Questions (FAQ)
Can I use the MIC5206-3.6YMM to replace a dropout voltage-sensitive LDO like the MCP1700-3602E/MB in a 4.0V battery-powered system, and what are the risks?
Replacing the MCP1700-3602E/MB (0.4V dropout at 250mA) with the MIC5206-3.6YMM (0.35V dropout at 150mA) may seem feasible due to its slightly better dropout, but the MIC5206-3.6YMM is limited to 150mA output current and has a higher quiescent current (150 µA vs. 1.6 µA). In a 4.0V battery system, while both can regulate down to ~3.95V input, the MIC5206’s higher IQ significantly reduces battery life in sleep modes. Additionally, the MIC5206 lacks ultra-low-power optimization, making it unsuitable for long-life, low-duty-cycle applications. Only consider this swap if current draw stays below 150mA and power efficiency is not critical—otherwise, stick with the MCP1700 or consider the TPS79936 for better IQ and performance.
What design risks should I consider when using the MIC5206-3.6YMM in a high-temperature industrial environment near its 125°C limit?
Operating the MIC5206-3.6YMM near its 125°C junction temperature limit requires careful thermal management. The 8-MSOP package has limited thermal dissipation (~160°C/W junction-to-ambient), so even modest power dissipation (e.g., 100mA × 1V drop = 0.1W) can raise junction temperature by ~16°C above ambient. In a 100°C ambient environment, this pushes the junction close to 116°C—leaving little margin. Without a copper pour or thermal vias, thermal runaway risk increases. Always include a solid ground plane under the package, monitor actual board temperatures, and derate output current above 85°C ambient. Consider adding a small heatsink or switching to a package with better thermal performance like the SOT-223 if sustained high loads are expected.
How does the MIC5206-3.6YMM compare to the NCP1117-3.6 in terms of reverse polarity protection and system reliability?
Unlike the NCP1117-3.6, which lacks built-in reverse polarity protection, the MIC5206-3.6YMM includes integrated reverse polarity protection, a critical advantage in field-deployed or user-accessible systems where incorrect power connection is a risk. This feature prevents damage during installation or maintenance, improving system robustness. However, the NCP1117 supports higher output current (1A vs. 150mA) and has a lower typical dropout (1.2V vs. 0.35V), but at the cost of added external protection circuitry. If your design requires >150mA or operates from higher input voltages, the NCP1117 may be preferable—but you must add a series diode or MOSFET for reverse protection. For low-current, fault-tolerant designs, the MIC5206-3.6YMM simplifies BOM and enhances reliability.
Can I parallel two MIC5206-3.6YMM regulators to increase output current beyond 150mA, and what are the stability concerns?
Paralleling two MIC5206-3.6YMM regulators is not recommended due to lack of current-sharing features and tight output voltage tolerances (±2.5%). Even minor mismatches in output voltage can cause one regulator to source most of the load current, leading to thermal imbalance and potential overstress. Additionally, the fixed 3.6V output and internal feedback loop prevent external ballast resistors or active current sharing. If higher current is needed, use a single regulator rated for the required load, such as the MIC29152-3.6 (1.5A, adjustable/fixed options) or the TPS7A3333 (3A LDO). For redundancy or load sharing, consider regulators with enable/sync capabilities and external current monitoring instead.
What layout practices are critical when designing with the MIC5206-3.6YMM in a noise-sensitive analog circuit, and how does its PSRR limitation affect performance?
Although the MIC5206-3.6YMM datasheet does not specify PSRR, typical performance for this class of LDO is moderate (~40–50 dB at 1 kHz), which may be insufficient for high-precision analog circuits like ADCs or sensors. To mitigate noise, place input and output capacitors (1µF ceramic, X5R/X7R) as close as possible to the pins, use a solid ground plane, and avoid routing high-di/dt traces near sensitive analog sections. The enable pin should be driven cleanly to prevent partial turn-on states. For ultra-low-noise applications, consider adding a pre-filter (LC or π-filter) before the MIC5206 or upgrading to a high-PSRR LDO like the ADP7118 (90 dB at 10 kHz). Always validate noise performance on prototype boards using a spectrum analyzer or oscilloscope with AC coupling.
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MIC5206-3.6YMM CAD Models
Microchip Technology MIC5206-3.6YMM PCB symbols & footprints
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