Really neat tool. So good I ordered more. The only slight 'bug' is not being able to disable the auto shut-off when current drops below 50mA, but for most 'bench cases' that's easily worked around. e.g. If driving a low-power MCU, you could add a 'fake load' resistor to your breadboard to keep current at >=50mA, and simply subtract that from your observations. Two 150R in parallel across the 5V rail would use 66.7mA and dissipate 167mW per resistor, so 1/4W would be fine. A single 100R resistor would use 50mA and dissipate 250mW, so it might work, but has no tolerance margin.

Really neat tool. So good I ordered more. The only slight 'bug' is not being able to disable the auto shut-off when current drops below 50mA, but for most 'bench cases' that's easily worked around. e.g. If driving a low-power MCU, you could add a 'fake load' resistor to your breadboard to keep current at >=50mA, and simply subtract that from your observations. Two 150R in parallel across the 5V rail would use 66.7mA and dissipate 167mW per resistor, so 1/4W would be fine. A single 100R resistor would use 50mA and dissipate 250mW, so it might work, but has no tolerance margin.

Really neat tool. So good I ordered more. The only slight 'bug' is not being able to disable the auto shut-off when current drops below 50mA, but for most 'bench cases' that's easily worked around. e.g. If driving a low-power MCU, you could add a 'fake load' resistor to your breadboard to keep current at >=50mA, and simply subtract that from your observations. Two 150R in parallel across the 5V rail would use 66.7mA and dissipate 167mW per resistor, so 1/4W would be fine. A single 100R resistor would use 50mA and dissipate 250mW, so it might work, but has no tolerance margin.

Ürün yapmasi gerekeni yapiyor. Yalandan daha fazla para vermeyin diger ürünlere.

Ürün yapmasi gerekeni yapiyor. Yalandan daha fazla para vermeyin diger ürünlere.

Ürün yapmasi gerekeni yapiyor. Yalandan daha fazla para vermeyin diger ürünlere.