107TLS016M

Part Overview

The 107TLS016M is an aluminum electrolytic capacitor from Cornell Dubilier / Illinois Capacitor's TLS series, rated for 100 µF capacitance at 16 V with ±20% tolerance. This through-hole axial component is actively produced and suitable for general-purpose applications requiring stable capacitance over extended operational periods. Substitute parts are identified when circuit designs require upgraded voltage ratings, improved thermal performance, or enhanced ripple current handling characteristics while maintaining functional equivalence in footprint and basic electrical parameters.

Substiute Parts

107TLS016M

Cornell Dubilier / Illinois CapacitorIn Stock: 1052107TLS016M Datasheet

Current PartRFQ

107TMA050M

Cornell Dubilier / Illinois CapacitorIn Stock: 5245107TMA050M Datasheet

UpgradeRFQ

Key Parameters

Substitute Part Grouping Explanation

The 107TMA050M qualifies as a functional substitute for the 107TLS016M based on the following equivalence criteria:

Matching Parameters:

• Capacitance: 100 µF (identical)
• Tolerance: ±20% (identical)
• Package / Case: Axial, Can (identical)
• Mounting Type: Through Hole (identical)
• Size / Dimension: 0.315" Dia x 0.630" L (identical)
• Polarization: Polar (identical)
• Product Status: Active (both actively produced)
• RoHS Status: ROHS3 Compliant (both compliant)

Upgrade Parameters:

• Voltage Rating: 50 V (upgraded from 16 V)
• Operating Temperature: -40°C ~ 105°C (upgraded from -40°C ~ 85°C)
• Lifetime @ Temp.: 2000 Hrs @ 105°C (upgraded from 2000 Hrs @ 85°C)
• ESR @ 120Hz: 1.989 Ohm (improved from 2.653 Ohm)
• Ripple Current @ 120 Hz: 155 mA (vs. 180 mA)
• Ripple Current @ 50 kHz: 232.5 mA (additional specification)

Parameter Comparison

Engineering Selection Recommendations

Both the 107TLS016M and 107TMA050M maintain active product status and ROHS3 compliance, ensuring continued manufacturer support and regulatory alignment. The 107TMA050M provides enhanced performance through increased voltage rating (50 V vs. 16 V), extended operating temperature range (-40°C ~ 105°C vs. -40°C ~ 85°C), and improved thermal performance at elevated temperatures (2000 Hrs @ 105°C vs. 2000 Hrs @ 85°C). The 107TMA050M also exhibits lower equivalent series resistance (1.989 Ohm vs. 2.653 Ohm at 120Hz), resulting in reduced power dissipation in ripple current applications. Both components share identical physical dimensions, footprint, and package type, enabling direct mechanical interchange in through-hole PCB layouts. Selection between these parts depends on circuit voltage and thermal operating requirements.

Frequently Asked Questions (FAQ)

Q: Can the 107TMA050M directly replace the 107TLS016M in existing designs? A: Yes, the 107TMA050M is mechanically and electrically compatible for direct substitution. Both components maintain identical capacitance (100 µF), tolerance (±20%), axial package configuration, and through-hole mounting specifications with matching dimensions (0.315" Dia x 0.630" L).

Q: What are the key differences between these two parts? A: The primary differences are voltage rating (50 V vs. 16 V), operating temperature range (-40°C ~ 105°C vs. -40°C ~ 85°C), and equivalent series resistance (1.989 Ohm vs. 2.653 Ohm at 120Hz). The 107TMA050M provides upgraded thermal and electrical performance characteristics.

Q: Are there any constraints on using the 107TMA050M as a substitute? A: No constraints are imposed by the provided electrical and compliance parameters. Both parts are active products with ROHS3 compliance. The higher voltage rating of the 107TMA050M introduces no adverse effects in circuits designed for lower voltages.

Q: Do these components require different PCB layout considerations? A: No. Both components have identical physical dimensions and mounting requirements, requiring no changes to PCB layout or mechanical assembly procedures.

Q: What compliance certifications apply to both parts? A: Both the 107TLS016M and 107TMA050M are ROHS3 compliant and REACH unaffected, meeting the specified regulatory requirements for electronic component use.