Mixed Signal Oscilloscopes
What is a Mixed Signal Oscilloscope?
The design, validation, and manufacturing of modern electronics necessitate the measurement of both analog and digital signals. Mixed signal oscilloscopes enable the simultaneous, time correlated observations and analysis of analog with digital (logic) signals, to establish causal relationships between the various areas of a device's electronics. Yokogawa oscilloscopes are purpose-built tools for troubleshooting electrical anomalies, measuring parametric values, and monitoring cause and effect relationships between signals.
Yokogawa Oscilloscope Design
From our first digital oscilloscope in 1988 and over ten generations since, Yokogawa oscilloscopes have enabled engineers to maintain high sample rates for long observation periods with deep, segmented acquisition memory. Yokogawa oscilloscopes offer extensive signal analysis capabilities, dedicated analysis and decode of serial buses such as I2C, SPI, CAN, LIN, CXPI and FlexRay, improved ergonomics, and value.
- 4-to-8 channel Yokogawa DLM5000 mixed signal oscilloscope
- Responsive touchscreen for easy navigation through analysis features
- DLM3000 Series Mixed Signal Oscilloscope
- Enhanced productivity small footprint touchscreen oscilloscope
- Design and validate advanced serial bus, power supply, and electromechanical systems
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Conditions
Input Channels >= Sampling Rate >= Bandwidth >= ADC Resolution >= Display Size >=
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Model Code
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DLM3022/ DLM3032/ DLM3052
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DLM3024/ DLM3034/ DLM3054
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DLM5034/ DLM5054
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DLM5038/ DLM5058
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Max. Sampling Rate
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2.5 GS/s
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2.5 GS/s
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2.5 GS/s
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2.5 GS/s
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Bandwidth
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DLM3022: 200 MHz DLM3032: 350 MHz DLM3052: 500 MHz
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DLM3024: 200 MHz DLM3034: 350 MHz DLM3054: 500 MHz
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DLM5034: 350 MHz DLM5054: 500 MHz
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DLM5038: 350 MHz DLM5058: 500 MHz
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Analog Input Channels
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2 ch
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4 ch or 3 ch when using logic input
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4ch
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8ch
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Logic Input
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-
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8-bit
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16-bit(std)/32-bit(option)
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16-bit(std)/32-bit(option)
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Vertical Sensitivity
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1 MΩ input: 500 μV/div to 10 V/div, 50 Ω input: 500 μV/div to 1 V/div
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1 MΩ input: 500 μV/div to 10 V/div, 50 Ω input: 500 μV/div to 1 V/div
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1 MΩ input: 500 μV/div to 10 V/div, 50 Ω input: 500 μV/div to 1 V/div
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1 MΩ input: 500 μV/div to 10 V/div, 50 Ω input: 500 μV/div to 1 V/div
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Input Coupling
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AC 1MΩ, DC 1MΩ, DC 50Ω
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AC 1MΩ, DC 1MΩ, DC 50Ω
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AC 1MΩ, DC 1MΩ, DC 50Ω
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AC 1MΩ, DC 1MΩ, DC 50Ω
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Input Impedance
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1 MΩ±1.0%, 50 Ω±1.0%
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1 MΩ±1.0%, 50 Ω±1.0%
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1 MΩ±1.0%, 50 Ω±1.0%
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1 MΩ±1.0%, 50 Ω±1.0%
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Max. Input Voltage
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1 MΩ input: 300 Vrms or less and 400 Vpeak or less, 50 Ω input: 5 Vrms or less and 10 Vpeak or less
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1 MΩ input: 300 Vrms or less and 400 Vpeak or less, 50 Ω input: 5 Vrms or less and 10 Vpeak or less
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1 MΩ input: 300 Vrms or less and 400 Vpeak or less, 50 Ω input: 5 Vrms or less and 10 Vpeak or less
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1 MΩ input: 300 Vrms or less and 400 Vpeak or less, 50 Ω input: 5 Vrms or less and 10 Vpeak or less
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Trigger Types
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Edge, Edge OR, Pulse Width, Timeout, Pattern, Runt, Rise/Fall Time, Interval, Window, Window OR, TV, User Define serial pattern, A Delay B, A to B(N)
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Edge, Edge OR, Pulse Width, Timeout, Pattern, Runt, Rise/Fall Time, Interval, Window, Window OR, TV, User Define serial pattern, A Delay B, A to B(N)
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Edge, Edge OR, Pulse Width, Timeout, Pattern, Runt, Rise/Fall Time, Interval, Window, Window OR, TV, User Define serial pattern, A Delay B, A to B(N)
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Edge, Edge OR, Pulse Width, Timeout, Pattern, Runt, Rise/Fall Time, Interval, Window, Window OR, TV, User Define serial pattern, A Delay B, A to B(N)
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Trigger Types (Option)
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-
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UART/ I2C/ SPI/ FlexRay/ CAN/ CAN FD/ LIN/ SENT/ CXPI
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UART/ I2C/ SPI/ FlexRay/ CAN/ CAN FD/ LIN/ SENT/ CXPI/ PSI5 Airbag
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UART/ I2C/ SPI/ FlexRay/ CAN/ CAN FD/ LIN/ SENT/ CXPI/ PSI5 Airbag
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Vertical Axis Resolution
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8 bits max. 12 bits (High Resolution Mode)
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8 bits max. 12 bits (High Resolution Mode)
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8 bits max. 12 bits (High Resolution Mode)
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8 bits max. 12 bits (High Resolution Mode)
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Sweep Time
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1 ns/div to 500 s/div
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1 ns/div to 500 s/div
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1 ns/div to 500 s/div
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1 ns/div to 500 s/div
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Max. Record Length (St'd)
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125 Mpoints
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125 Mpoints
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125 Mpoints
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125 Mpoints
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Max. Record Length (Optional)
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-
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500 Mpoints
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500 Mpoints
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500 Mpoints
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Internal Media Drive (St'd)
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-
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-
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-
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-
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Internal Storage
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300 MB Flash ROM 60 GB SSD (option)
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300 MB Flash ROM 60 GB SSD (option)
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1.7 GB (Standard) 64 GB (option)
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1.7 GB (Standard) 64 GB (option)
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Interface (St'd)
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USB3.0, Ethernet
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USB3.0, Ethernet
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USB3.0, Ethernet
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USB3.0, Ethernet
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Interface (Optional)
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GP-IB
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GP-IB
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GP-IB
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GP-IB
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Other Features
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USB storage
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USB storage
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USB storage, Two-unit connection function "DLMsync" for synchronous measurement of up to 16 analog channels (/SYN option)
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USB storage, Two-unit connection function "DLMsync" for synchronous measurement of up to 16 analog channels (/SYN option)
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Other Features (Optional)
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Built-in printer, probe power terminals
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Built-in printer, memory expansion, User defined Math, Power supply analysis function, serial bus analysis, probe power terminals
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Built-in printer, probe power terminals, IEEE1588
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Built-in printer, probe power terminals, IEEE1588
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Display
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8.4" XGA color TFT LCD Touch Screen
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8.4" XGA color TFT LCD Touch Screen
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12.1" XGA color TFT LCD Touch Screen
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12.1" XGA color TFT LCD Touch Screen
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External Dimensions (W x H x D) *excluding protrusions
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226 x 293 x 193 mm
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226 x 293 x 193 mm
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426 x 266 x 180 mm
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426 x 266 x 180 mm
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Weight
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Approx. 4.2 kg
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Approx. 4.2 kg
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Approx. 7.3 kg
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Approx. 7.3 kg
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With increased focus on reducing energy consumption and compliance with efficiency standards, this app note provides an overview on the types of measurements needed for efficiency and power quality, and the instruments that take them.
The objective of this paper is to show the close relationship between efficiency and power quality, and provide education on the causes of power quality, types of power quality issues, and provide guidance on measurement considerations.
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Decimation is a technique used to reduce the total number of samples. You can use Xviewer to perform decimation on your waveform data files that have the WDF/WVF/ASCII CSV extension format. Decimation reduces the ...
There are two methods to programmatically determine if the calculations for waveform parameters is completed on the DL series oscilloscopes. Send the :MEAS:WAIT? command. This will ensure that no other commands are ...
We do not have an instruction manual describing the *.WDF file format structure like we did for the *.WVF files.
We provide a list of support options with more details.
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The symbol editor for the DL9000/SB5000/DLM2000 instruments has two operating modes: CAN and LOGIC. The CAN bus symbol definition allows symbolic decode for CAN bus packets. The logic symbol display, on the other ...
Yes, the HDMI pinout carries the I2C on pins 15 and 16 of the HDMI connector cable. The HDCP (content protecting encryption keys) signal is carried on pins 15 and 16.
To use wireless mouses or keyboards on a device, a driver needs to be installed. Yokogawa instruments will not let you install drivers on the device, therefore it is not possible to connect a wireless mouse or ...
Yes, the NAK CAN Bus Trigger is supported on the DLM2000 and DL9000. DL9000: Refer to the IM 701310-51E (page 3-13)DLM2000: Refer to the IM 710105-02E (page 2-16)
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- Inspect and verify time base accuracy
- Aliasing effect to create a "beat waveform."
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No, the DL9000 cannot be upgraded or modified to a SB5000.
The DL/DLM6000 series supports up to 4 Math Channels, which can be accessed by pressing one of the M1-M4 buttons.
If your DLM2000 has firmware version 1.245 or later, then you can use a USB flash drive to upgrade the firmware of your unit. Note:DLM2000 refers to models DLM2024, DLM2022, DLM2034, DLM2032, DLM2052, DLM2054
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The Header Size entry, for a ASCII format data file, denotes the number of header lines in the header part of the ASCII File.
Yes, if all the data cannot fit onto one disk, a message will appear prompting you to enter the next floppy disk. Simply follow the instructions to save the data to multiple floppy disks. The same procedure also ...
Yes, screen image data can be saved in BMP and other formats even if the built-in printer is not installed.
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The display channel colors are fixed to: CH1-yellow, CH2-green, CH3-pink, CH4-blue.
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Yes, please visit our Contact Website and contact your local Yokogawa Representative to request a replacement for part no. A9080ZG.
This comprehensive training module covers the following topics:
- Introduction & Product Familiarization
- Basic Understanding and Operating Features
- Advanced Analysis Features
- Communication Features
Product Overviews
- Yokogawa DLM5000 mixed-signal oscilloscope
- 4-to-8 channels
- Easily navigate through a wealth of analysis features
Test and measurement engineering work groups can have differing priorities and requirements, which often results in multiple instrumentation systems and data file formats, as well as incompatible reporting. This lack of effective communication between groups and instruments causes decreased efficiency and quality and increased spending and time to market. Unify test and measurement instrumentation, software, and data across engineering teams with a suite of solutions that caters to the different needs of engineering work groups, including accurate power data, fast sampling rates, long recordings of multiple different input types, and insights into waveform data.
The Yokogawa DLM3000 oscilloscope features a brand-new computing platform and available power supply analysis functions.
The DLM3000 Automotive Serial Bus features can display up to four simultaneous serial buses and decoded data.
How-tos
The multi-unit synchronization option for the Yokogawa Test&Measurement DL950 ScopeCorder lets you time synchronize up to five DL950 ScopeCorders, for up to 160 channels of voltage, current, temperature, strain measurements, and more. This video walks you through how to set up and connect the multiple DL950 ScopeCorders, take measurements, and pull the data from all of the instruments for analysis with the IS8000 Integrated Test and Measurement Software Platform.
Webinars
- Gain knowledge on the inner workings of harmonics
- Learn best practices for accurately measuring harmonics
- Recognize and distinguish the critical difference between DFT and FFT
- Discover important measurement tradeoffs across various test equipment
Why should you be concerned with your product’s power system voltage and current harmonics?
From an engineering perspective, harmonics produce excessive heat in equipment that causes significant damage and results in inefficient operation. From a business perspective, harmonics lead to reduced system capacity and increased maintenance, downtimes, and costs. To minimize or eliminate these issues and establish acceptable levels of harmonics, numerous power quality standards with specifications and limits for harmonic distortion, such as IEEE 519-2014 and IEC61000-3-2, have been introduced.
During this webinar, attendees will: