Are you trying to find a multimeter to test and troubleshoot electrical devices and circuits? Do you want to know the best multimeter for your demands and price range? In that case, you’ve found the right location.
Three multimeters—the EXTECH MM560A, the HIOKI DT4282, and the FLUKE 87V MAX—will be compared in this article. We’ll examine their capabilities and assist you choose based on our analysis of their features and performance.
The purpose of a multimeter must first be explained. A multimeter is a tool for measuring many electrical characteristics, including voltage, current, resistance, frequency, capacitance, etc. Testing and debugging electrical devices and circuits can be done with multimeters.
A multimeter, for instance, can be used to determine whether a battery is charged, whether a fuse has blown, whether a wire is broken, whether a switch is functional, etc.
Multimeters come in a wide variety of styles and brands, each with unique features and advantages. But not every multimeter is made equal. Different multimeters have varying degrees of accuracy, dependability, toughness, and versatility.
Different multimeters have different numbers of features, parameters, resolutions, and screens. Some multimeters have unique characteristics that set them apart from the competition.
How can you pick the multimeter that would suit your needs the best? How do you evaluate various multimeters to determine which is the best? How can you tell which multimeter has the best price/quality ratio? These are a few of the queries that this post will address.
The EXTECH MM560A, the HIOKI DT4282, and the FLUKE 87V MAX are the three multimeters that we shall contrast. We’ll evaluate their attributes and effectiveness using several standards.
We will also discuss their merits and downsides as well as how they differ and how they are similar. You’ll know which multimeter is best for you by the time this essay is over.
Compare the multimeters’ features:
You can list and contrast the key characteristics of the multimeters you are evaluating in this paragraph, such as their features, ranges, resolutions, accuracies, displays, etc. To make it simpler to compare the characteristics, you can present them in a table side by side. For instance:
Which multimeter is best for you? Compare the key features of the EXTECH MM560A, HIOKI DT4282, FLUKE 87V MAX.
Functions:
- EXTECH MM560A: 11
- HIOKI DT4282: 10
- FLUKE 87V MAX: 10
Voltage Range:
- EXTECH MM560A: 0.1 mV to 1000 V
- HIOKI DT4282: 0.01 mV to 1000 V
- FLUKE 87V MAX: 0.1 mV to 1000 V
Current Range:
- EXTECH MM560A: 0.01 μA to 20 A
- HIOKI DT4282: 0.01 μA to 10 A
- FLUKE 87V MAX: 0.01 μA to 10 A
Resistance Range:
- EXTECH MM560A: 0.01 Ω to 60 MΩ
- HIOKI DT4282: 0.01 Ω to 1000 MΩ
- FLUKE 87V MAX: 0.1 Ω to 50 MΩ
Frequency Range:
- EXTECH MM560A: 0.001 Hz to 100 MHz
- HIOKI DT4282: 0.001 Hz to 1 MHz
- FLUKE 87V MAX: 0.01 Hz to 200 kHz
Capacitance Range:
- EXTECH MM560A: 0.01 nF to 40 mF
- HIOKI DT4282: 0.01 nF to 10 mF
- FLUKE 87V MAX: 1 nF to 9.999 mF
Special Features:
- EXTECH MM560A: Duty Cycle, Diode Test, Continuity Test, Temperature, Peak Hold
- HIOKI DT4282: Duty Cycle, Diode Test, Continuity Test, Low-Pass Filter
- FLUKE 87V MAX: Duty Cycle, Diode Test, Continuity Test, Built-in Thermometer, IP67 Rating
Hioki multimeter
The table shows that each multimeter has distinct advantages and disadvantages in terms of characteristics.
The EXTECH MM560A, for instance, offers the most features and the widest frequency range, but neither a low-pass filter nor an integrated thermometer are present.
The HIOKI DT4282 provides the best voltage and current resolution and accuracy, but neither a temperature function nor a peak hold function are available. The FLUKE 87V MAX has the lowest resolution and accuracy for resistance and capacitance, but it features an integrated thermometer and an IP67 rating for water and dust resistance.
Compare the multimeters’ performance:
The effectiveness of the multimeters in various conditions and scenarios, such as measuring non-sinusoidal waveforms, removing interference from variable frequency drives, catching transient pulses, etc., can be discussed and contrasted in this paragraph.
You can use graphs, charts, pictures, movies, and other visual aids to support your arguments and give them additional impact. For instance:
How accurately a multimeter measures non-sinusoidal waveforms, such as those produced by motors, inverters, or other devices that cause spikes or distortions in the voltage or current signals, is one of the crucial aspects to take into account when making your decision.
While an average-responding multimeter can only assess the average value of these waveforms and provide inaccurate readings, a genuine RMS multimeter can precisely measure these waveforms by taking into account their shape and amplitude.
Since all three of the multimeters we are contrasting are real RMS multimeters, they can precisely measure non-sinusoidal waveforms.
They handle these waveforms differently, and they display them differently on their screens.
The peak hold function of the EXTECH MM560A allows it to catch transient pulses for up to 250 s, making it suitable for testing motors, inverters, and other spike-producing devices.
The waveform’s peak value and real RMS value can both be seen on the device’s sizable backlit LCD display. However, it lacks a graphical display that can depict the waveform’s shape.
Other multimeters’ accuracy may be impacted by interference from variable frequency drives, which can be removed using the low-pass filter function of the HIOKI DT4282.
Additionally, it contains a sizable backlit LCD display that can display the waveform’s true RMS value as well as its crest factor.
The crest factor, which shows how distorted the waveform is, is calculated as the peak value to real RMS value ratio. However, it lacks a graphical display and a peak hold feature.
The waveform’s shape and amplitude, as well as the true RMS value and the frequency, may all be seen on the FLUKE 87V MAX’s graphical display.
Additionally, a zoom feature is available for enlarging the waveform for greater detail. It does not, however, contain a low-pass filter or a peak hold function.
These examples demonstrate that each multimeter has distinct performance advantages and limitations.
You might discover that one multimeter works better for measuring non-sinusoidal waveforms than another depending on your requirements and preferences.
EXTECH MM560A Multimeter
the HIOKI DT4282, the FLUKE 87V MAX, and the EXTECH MM560A. A multimeter is a tool for measuring many electrical characteristics, including voltage, current, resistance, frequency, capacitance, etc.
Testing and debugging electrical devices and circuits can be done with multimeters.
Based on several factors, we have compared the capabilities and effectiveness of these multimeters. To explain our views and give them a greater visual appeal, we have incorporated tables, graphs, pictures, videos, and other media.
Along with pointing out the similarities and differences between various multimeters, we also discussed their benefits and drawbacks.
We have discovered that there is no apparent winner or loser among the various multimeters; each has its own advantages and disadvantages.
The ideal multimeter for you will rely on your preferences, applications, and financial situation.
For instance, if you require a multimeter that can measure a variety of electrical properties with excellent accuracy and reliability and that can record transient pulses up to 250 s, you might want to go with the EXTECH MM560A.
If you require a multimeter that can measure very low signals with great resolution and accuracy and that can remove interference from variable frequency drives, you might want to go with the HIOKI DT4282.
If you require a multimeter that can detect temperature without carrying a separate instrument and that can endure exposure to water and dust, you might want to go for the FLUKE 87V MAX.
The EXTECH MM560A, the HIOKI DT4282, and the FLUKE 87V MAX are the three multimeters that we compared. We evaluated their attributes and effectiveness using several standards. We have also emphasized their distinctions and similarities, as well as their benefits and drawbacks.
We have discovered that there is no apparent winner or loser among the various multimeters; each has its own advantages and disadvantages. The ideal multimeter for you will rely on your preferences, applications, and financial situation.
For instance, if you require a multimeter that can measure a variety of electrical properties with excellent accuracy and reliability and that can record transient pulses up to 250 s, you might want to go with the EXTECH MM560A.
If you require a multimeter that can measure very low signals with great resolution and accuracy and that can remove interference from variable frequency drives, you might want to go with the HIOKI DT4282.
If you require a multimeter that can detect temperature without carrying a separate instrument and that can endure exposure to water and dust, you might want to go for the FLUKE 87V MAX.
We wish you luck in comparing these multimeters and selecting one after reading this page. You can purchase any of these multimeters at a reduced cost by clicking on the affiliate links provided below.
When someone clicks on these unique links and makes a purchase from the merchant’s website, your commissions and referrals are tracked. Without charging you any more, we will make a tiny commission. This will enable us to continue publishing valuable articles like this one. I appreciate your help.
The multimeters’ affiliate links are provided below:
MM560A by EXTECH: EXTECH MM560A MultiMaster High-Accuracy Multimeter – https://mme-ae.com
HIOKI DT4282:HIOKI DT4282 : A powerful DIGITAL MULTIMETER – https://mme-ae.com
87V MAX FLUKE:FLUKE 87V MAX Epic True-rms Digital Multimeter – https://mme-ae.com
