Atec DL9000 User Manual

Digital Oscilloscopes

쎲 Fast acquisition rate

• Up to 25,000 frames/sec/channel in continuous mode (when the Accumulate function is used)

• Up to 2.5 million frames/sec/channel in N Single mode

쎲 History Memory function

• With a partitioned large-capacity memory, the DL9000 can automatically accumulate and display up to 2,000 waveform frames.

쎲 Bandwidth and Sampling Rate

DL9040/DL9040L DL9140 / DL9140L DL9240 / DL9240L

Analog frequency bandwidth 500 MHz 1.0 GHz 1.5 GHz

Maximum sampling rate 5 GS/s 5 GS/s 10 GS/s

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Bulletin 7013-00E

Capture only the desired data for long periods of time. Make full use of the large-capacity memory to increase development efficiency without acquiring useless data.

Efficient Waveform Measurement

Collective measurement with large-capacity memory

6.25 million waveform data points

Waveform comparison using memory partitioned into up to 2,000 areas

2000 frames

Isolate Abnormal Waveforms

The DL9000 series allows you to measure waveforms for long periods of time using its large-capacity memory. In addition, the memory can be partitioned to capture only the necessary waveforms (History Memory function). The History Memory function retains up to 2,000 waveforms in its internal memory while constantly updating them. Now suppose an abnormal signal occurs. You can view it even if some time has elapsed since the occurrence, as long as the signal is included in the previous 2,000 waveforms. This feature is effective in capturing anomalies that may occasionally occur. Fur thermore, you can compare all 2000 waveforms by overlaying them or view them with (different brightness levels) depending on their frequency of occurrence. This feature displays waveforms similar to how they would appear on analog oscilloscopes.

Fast display updates, even when processing mega-words of data

Yo k ogawa’s proprietary signal-processing IC (Advanced Data Stream Engine [ADSE]) has made the History Memory function and display functions far more advanced than those of conventional scopes. High-speed data processing is achieved using this hardware-based computation.

Maximum update rate in math mode:

60 frames/sec 12 frames/sec

Maximum update rate in parameter measurement mode:

60 frames/sec 16 frames/sec

(1 MW, when adding channels) (5 MW, when adding channels)

(1 MW, when measuring a channel’s maximum value) (5 MW, when measuring a channel’s maximum value)

Note: The above rates can vary depending on the oscilloscope settings.

Advanced Data Stream Engine (ADSE)

The History Memory function allows you to call up a maximum of 2,000 previously acquired waveforms and analyze the retained waveform data.

History Replay Function

You can go back to previously-captured waveforms in History Memory and view them one by one, just like browsing address book entries. Furthermore, you can use the new History Replay function to continuously play back, stop, fast-forward, and rewind captured waveforms like a video recording.

Replay!

REW STOP PLAY FF

Displays waveforms like an analog oscilloscope

The dot density display function varies the brightness of each display pixel, depending on how often waveforms pass through it. The DL9000 can rapidly capture waveforms at an acquisition rate of up to 25,000 waveforms/sec. Thus the oscilloscope can show eye patterns and perform real-time display processing even when capturing repetitive signals. ADSE-driven high-speed signal processing enables the digital oscilloscope to provide analog oscilloscope-like waveform displays.

Overlaid waveforms using dot density display

Single waveform

You can freely change from overlaid

waveforms to any single waveform and

vice versa as the DL9000 retains

up to 2,000 frames of waveform data.

Overlaid waveforms in colors

Single waveform

(full-wave comparison)

Enhanced functions for all signal handling tasks ----- capture, display, search and analysis

Selected z

one

Create a window w around a selected

Waveform Capture

– Filter functions –

To be able to observe signals after filtering out unnecessary components is extremely useful during circuit design. The DL9000 series is equipped with two types of filters, the input stage filters and filters based on high-speed computation. You can filter out unnecessary signal components during signal capture or apply high-speed filtering afterwards.

Filters in the input stage :

Analog filters: 200 MHz/20 MHz Real-time digital filters: 8 MHz/4 MHz/2 MHz/1 MHz/500 kHz/200 kHz/125 kHz/62.5 kHz/32 kHz/16 kHz/8 kHz

Filters based on computation

Select low pass or high pass filters with variable cutoff frequencies

Display filtered waveforms in real time at up to 60 frames/sec. Simultaneously display both pre-filtered and post-filtered waveforms.

Desired filter setting: The lowpass/highpass filter frequencies and cutoff frequency can be set to values from 0.01 Hz to 1.0 GHz.

Example of input stage filtering

Example of computation filtering: PWM waveform analysis

Yellow: PWM waveform Red: Filtering-based trend display of pulse widths

Waveform Search and Display

– Searching for and displaying selected waveforms from the large-capacity memory –

Dual-window Zoom function simultaneously zooms in on two areas

The DL9000 series allows the zooming magnification and position to be set separately for two different areas of a waveform. Thus you can change the timebase scale and view the two windows simultaneously. The waveform on the right shows a measurement example of the time taken from the point of power-on to the point of gate array oscillation. The DL9000 measures the time length from the rising edge occurring immediately after power-on (cursor 1 of Zoom 1), to the start of oscillation (cursor 2 of Zoom 2).

Zoom1/Zoom2

Auto Scroll function for observing the entire waveform

Use the auto scroll function to automatically move the zoom windows through a long acquisition. Selecting the area to be zoomed-in on can be done easily by scrolling forward, backward, fast forwarding or pausing.

A variety of search functions

The DL9000 series has a variety of waveform search functions, enabling you to detect abnormal signals or find specific serial or parallel data patterns. Data search types include:

• State search (based on high/low states of one or more channels)

• Serial pattern search (I

• Zone search

• Waveform window search

• Waveform parameter search (measured parameters, FFT, etc.)

C/SPI/CAN/general-purpose pattern)

Selected z

one

Create a windo around a selected wavefefororm

keys

Zoom1

Zoom2

Example: Search for serial pattern A5 (1010 0101)

Auto Scroll

Waveform Capture

The DL9000 series can be triggered using two or more channels in addition to an edge trigger or TV trigger. You can capture only the desired signals by combining various trigger types and thereby predetermining trigger conditions. Effective filtering helps to shorten the time needed to evaluate and troubleshoot a design.

DL9000 Series’ Trigger Functions

Edge/state triggers

Edge Edge (Qualified: conditional) Edge OR State

Examples of Trigger Application

Trigger-based gating – Edge (Qualified): conditional trigger –

The valid/invalid state of an edge trigger or pulse width trigger can be controlled according to the conditions of any other channel’s state (high/low).

Ch. 1 edge trigger

Ch. 2 state input

(Example: Valid at “High”)

Setup and hold time triggers

To derive setup time/hold time conditions, event delay/event sequence triggers are set as shown in the following figure.

쎲Setup time

Event1

Event2

쎲Hold time

Event1

4 5

Event2

Valid Valid

Setup time

Tr igger

(condition "Less Than": Triggered if the setup time is shorter than the preset time)

Setup time

– Advanced trigger functions –

Pulse width triggers

Pulse width Pulse width (Qualified) Pulse state (Triggered using the length of period

during which the conditions are true)

Invalid Invalid

Tr igger

(condition "Less Than": Triggered if the setup time is shorter than the preset time)

Enhanced triggers

TV (NTSC/PAL (SECAM)/HDTV)

I SPI CAN Serial pattern

Slew rate trigger

The time taken to pass through the voltage level range specified for the window comparator is used to detect the pulse rise/fall time. With pulse state triggers, it is possible to derive trigger conditions, such as “More Than,” “Less Than” and “Between,” by specifying the ranges of rise time/fall time.

Preset window comparator level

Runt pulse trigger

Runt pulses (pulses with levels lower than those of normal pulses) can also be captured in the same way as explained above. A runt pulse stays too long within the range set by the window comparator, as shown in the following figure. It is therefore possible to capture the runt pulse by setting the trigger conditions to a rise time longer than those of normal pulses.

(define patterns up to 128 bits long)

Event interval triggers

Event cycle Event delay Event sequence

– Window comparator and pulse state –

Tr ue

The pulse state trigger is activated according to the length of the period during which the conditions are true.

Short stay in trigger window

Long stay in trigger window

Tr ue

Display of up to 2,000 Overlaid Waveforms using History Memory

Zone search

Define 1 to 4 zones and search for waveforms that fall inside or outside the zone (s).

Waveform Analysis

– Serial bus analysis I2C/SPI/CAN –

Waveform window search

Select a waveform in History Memory and create a window around the waveform by moving up/down/left/right from the waveform. Search for waveforms that fall inside or outside the window.

Waveform parameter search

Select a waveform parameter and define a range for the parameter. Search for waveforms with parameter values inside or outside the set range.

The DL9000 can perform I2C, SPI and CAN bus analysis with the different available options (/F5, /F7 and /F8). Triggers for these bus types are standard features. These functions make it easy to discriminate between partial software failures and physical-layer waveform problems when troubleshooting systems by observing the physical-layer characteristics of signals.

Real-time bus analysis-up to 15 updates/sec

The DL9000 displays protocol analysis results while concurrently capturing bus signals.

Simultaneous analysis of different buses

With the Dual-window Zoom function, the DL9000 can simultaneously analyze and display the waveform of buses running at different speeds.

Serial data bus trigger functions

A variety of trigger conditions can be set, including triggers based on ID-Data combinations and combinations of a serial bus trigger and a regular edge trigger.

Example of High-speed/Low-speed

CAN Bus Analysis Display

CAN 500kbps CAN 125kbps

Example of I

C Bus Analysis Display

Advanced Analysis and Math Functions

IntegTY (M1)

Calculates statistics f

Automatic Waveform Parameter Measurements

You can automatically measure waveform parameters, including max., min., peak-peak, pulse width, period, frequency, rise time, fall time, and duty ratio. You can also calculate the statistics of waveform parameters, such as the average, max., min., and standard deviation, over multiple cycles within an acquisition or over multiple acquisitions.

Trend Displays

The DL9000 graphs the long-term trends of data items obtained by automatic waveform parameter measurements. With the Trend display, you can observe short-term cyclic waveform fluctuations within a single frame, or medium to longterm waveform fluctuations by plotting frame-byframe periods.

Pulse Width Trends of a switching power supply.

Eye Pattern Analysis and Mask Testing

쏆

Eye Pattern Analysis

This function automatically measures the waveform parameters of an eye pattern. Unlike the waveform parameter measurement of earlier DL series oscilloscopes, the DL9000 can calculate parameters based on the eye pattern formed by the crossings of two or more waveforms.

Jitter

Eye Width

Eye Height

쏆

Mask Testing

This function is used to evaluate the signal quality of high-speed data communication. Using Mask Editor software, a mask pattern is generated and loaded into the DL9000.

(The Mask Editor software can be downloaded from Yokogawa Electric’s web page.)

Mask pattern generation using the Mask Editor software

Math Functions (Addition, Subtraction, Integration, Edge Count, and Rotary Count)

You can calculate and display up to 8 math traces. The functions to choose from include: Filtering, +, -, x, Integration, Edge Count and Rotary Count. Since basic arithmetic operations are performed using hardware, the DL9000 can display results in real time.

The figure on the right shows the voltage and current waveforms of a switching power supply. The red math trace M1 has been calculated under the following conditions:

M1 = Ch. 1 (voltage)  Ch. 2 (current) Ch. 1: Differential voltage probe (yellow) Ch. 2: Current probe (green)

Vds

Calculates statistics f

DeDevice loss IntegTY (M1)

Example of a Switching Power Supply’s Waveform Obtained by the Multiplication “Voltage  Current”

or this period

쏆

Real-time Math Traces (Rotary Count)

This function counts and displays the number of edges between 2 input signals (Phases A and B). E.g, if Phase B leads (negative phase sequence), this function counts down. This function can be used to check the rotational angle of a motor.

Phase A leads Phase B leads

Phase A

Phase B

Rotary Count math trace

Histogram Displays

Histograms show waveform behavior, over an extended period time, relative to time (jitter) and voltage (noise). According to an on-screen histogram, you can analyze statistics, including max., min., average, and standard deviation. You can also display waveform parameter histograms, such as voltage P-P, frequency etc., to see how parameters vary over time.

Voltage histogram showing noise

CW CCW CW CCW

Calculation of Phase A and Phase B

(Ch. 1 and Ch. 2) Parameters and

Time histogram showing jitter

After loading the mask pattern to the DL9000, you can perform error rate analysis or go/no-go judgment.

“Rotary Count” Math Traces

Versatile Connectivity

100BaseTX/10BaseT Ethernet

USB-PC connection port

Can be used to control the DL9000 externally or to upload data from the DL9000 to a PC.

100BASE-TX-compliant converter (hub or router)

Remote-control of network drives

E-mail transmission (GO/NOGO action)

DL9000’s Storage Media

• 40-GB built-in hard disk

• 90-MB flash ROM (standard)

(Factory-set option)

Tr ansfer of waveform data/

frame data/setup data

(/C8 option)

(/C10 and /C8 options)

Ethernet

Video OUT

Can be connected to an external monitor

Tr ansfer of waveform data/frame data/setup data Remote-control

USB (Standard on rear panel)

GO/NO-GO I/O

Can be used to output the results of either GO/NO-GO tests or mask tests for communication purposes as a TTL level signal.

Probe power

(Factory-set option)

GPIB interface

Trigger I/O

Separate ports available for external trigger input and output.

A PC card slot is standard. A National Instruments’ PCMCIA-GPIB card is required to be able to use the GPIB interface.

Trigger comparator OUT

Tr igger types not supported by the DL9000 can be realized with external circuits that utilize the trigger comparator outputs of respective channels.

Supports flash ATA cards/hard drives

Mouse

Keyboard

Supports USB storage/memory

Printer

USB Compliance Test Solution

Flexible System Configuration

A DL9240 or DL9240L together with the USB test fixture, test software and probes, allow you to test a USB device, host or hub for compliance to USB-IF specifications.

User-friendly Operability based on PC Software

The test software shows connection methods and test procedures in a wizard form for each tests item. It shows connections, settings and operations necessary for carrying out each test enabling even first-time users to perform test easily.

Collaboration with Xviewer

You can output waveform data from a test result window to analyze failed signals using the Xviewer waveform analysis software.

Example of System Configuration

DL9240 or DL9240L digital oscilloscope (with Ethernet option)

• PBD2000 differential probe (one or two)

• PBA2000 active probe (two or three)

• 701933 current probe (one)

• Test bed PC (English Windows XP)

• 3 1/2-digit or greater DMM

• Pulse generator

• 701985 USB test fixture and software (one)

For more information, see Bulletin 7019-85E, “USB 2.0-compliant Test Solutions.”

Shows connection

methods and test

procedures

Test Software

Shows test results

and generates

test reports

Detailed waveform analysis is possible with the Xviewer Waveform Analysis Software

Software Tools

Xviewer

Xviewer runs on a PC and can be used to view waveforms captured with the DL9000 and to convert binary waveform data to ASCII data. Adding the Math option to Xviewer enables you to freely define computational expressions and to perform waveform math. This software supports FFT calculations with a maximum record length of 2 M words.

(optional software)

Additional details about Yokogawa’s software tools and information for downloading free software and trial versions of nonfree software can be found at:

http://www.yokogawa.com/tm/tm-softdownload.htm

MATLAB Control Tool Kit

With the MATLAB tool kit, you can easily deal with waveform data captured using the DL series oscilloscope in a MATLAB environment. The software can be used to control the DL series’ panel settings or to transfer data from the DL series to MATLAB.

DL Series Library

This API lets you control the DL9000 series from an external program or to transfer the DL9000 series’ data to the external program. The API is available as a DLL and can be accessed from your program.

(Optional software)

(freeware)

Main SpecificationsOptional Accessories

PBA2500 2.5 GHz active probe

This active probe can be used in combination with the DL9000 series to measure signals with an analog bandwidth up to 1.5 GHz.

Bandwidth: DC to 2.5 GHz (-3 dB) Attenuation and DC accuracy:

Input resistance: 100 kΩ (±2%) Input capacitance: Approx. 0.9 pF (typ.) Dynamic range: ±7 V

10:1 (±2%)

PB500 500 MHz passive probe

Input resistance: 10 MΩ ±2%

Input capacitance: Approx. 14 pF (typ.)

Attenuation: Fixed to 1/10 Bandwidth: DC to 500 MHz

Max. Input voltage: ±600 V DC + AC peak

(when used with the DL9000)

(within -3 dB)

701920 ±12 V/500 MHz differential probe

Bandwidth: DC to 500 MHz

Attenuation: 1/10 (fixed) Input impedance (typ.):

Max. allowable differential voltage:

Max. common mode input voltage:

(within -3 dB)

100 kΩ/2.5 pF

±12 V (DC + ACpeak)

±30 V (DC + ACpeak) (Output impedance: 50 Ω)

701921 ±700 V/100 MHz differential probe

Bandwidth: DC to 100 MHz (-3 dB) Attenuation: 1/10 or 1/100 (selectable) Max. allowable differential voltage:

Max. common mode input voltage:

±700 V (DC + ACpeak)

(common to both 1/10 and 1/100 attenuation ratios)

701922 ±20 V/200 MHz differential probe

Bandwidth: DC to 200 MHz (-3 dB) Attenuation: 1/10 (fixed) Max. allowable differential voltage:

Max. common mode input voltage:

Output impedance: 50 Ω

±20 V (DC + ACpeak)

±60 V (DC + ACpeak)

PBD2000 2.0 GHz differential probe

This differential probe is suited for observation of fast differential signals, such as LVDS. Using this probe in combination with the DL9000 series, you can observe differential signals with an analog bandwidth up to 1.5 GHz.

Bandwidth: DC to 2.0 GHz (-3 dB) Attenuation and DC accuracy:

Input capacitance: Approx. 1.1 pF (typ.) Max. differential input voltage:

10:1 (50 Ω)

±5 V

PBL5000 5 GHz low capacitance probe

This wideband low capacitance probe can be used with the 50 ohm input setting.

Connector type: SMA Input resistance: 450 Ω or 950 Ω Input capacitance: Approx. 0.25 pF

Attenuation: 10:1 or 20:1 Bandwidth: DC to 5 GHz (-3 dB) Max. input voltage:20 Vrms, 40 V ACpeak

(typ. 450 Ω),

0.4 pF (typ. 950 Ω)

701975 50 ohm DC block

This DC block is used to remove bias voltage occurring when the PBL5000 probe is used.

Overall length: Approx. 25 mm Connector type: SMA Input impedance: 50 Ω Frequency range: 20 MHz to 6 GHz Max. input voltage:±10 V (DC + ACpeak)

701932 DC to 100 MHz 30 Arms current probe

Bandwidth: DC to 100 MHz (-3 dB) Max. continuous input range:

Amplitude accuracy:

0 to 30 Arms: ±1% of rdg ±1 mV

Up to 50 Apeak:

±2.0% of rdg (DC, 45 to 66 Hz)

Weight: Approx. 240 g

30 Arms

701931 DC to 20 MHz 500 Arms current probe

Bandwidth: DC to 2 MHz (-3 dB) Max. continuous input range:

Amplitude accuracy:

0 to 500 Arms: ±1% of rdg ±5 mV

Up to 700 Apeak:

±2.0% of rdg (DC, 45 to 66 Hz)

Weight: Approx. 520 g

500 Arms

Models

Model name (No.) Max. sampling rate Freq. BW Max. record length DL9040 (701307) 5 GS/s 500 MHz 2.5 MW DL9040L (701308) 5 GS/s 500 MHz 6.25 MW DL9140 (701310) 5 GS/s 1 GHz 2.5 MW DL9140L (701311) 5 GS/s 1 GHz 6.25 MW DL9240 (701312) 10 GS/s 1.5 GHz 2.5 MW DL9240L (701313) 10 GS/s 1.5 GHz 6.25 MW

Basic Specifications

Input channels: 4 (CH1 to CH4) Input coupling: AC, DC, GND, DC50Ω Input impedance: 1 MΩ ±1.0% approx. 20 pF (when using PB500 probe, 10

Voltage axis sensitivity: For 1 MΩ input : 2 mV/div to 5 V/div (steps of 1-2-5) ranges

Maximum input voltage: For 1 MΩ input : 150 Vrms CAT I

DC offset max. setting range: For 1 MΩ input (When probe attenuation set to 1:1)

Ver tical (voltage) axis sensitivity:

DC accuracy1:For 1 MΩ input : ±(1.5% of 8 div + offset voltage accuracy)

Offset voltage axis accuracy1:2 mV/div to 50 mV/div : ±(1% of setting + 0.2 mV)

Voltage standing-wave ratio (VSWR) Frequency characteristics (Attenuation point of -3 dB when inputting a sinewave of amplitude ±2 div or equivalent)

For 50 Ω input

0.5 V/div to 10 mV/div: DC to 500 MHz DC to 1 GHz DC to 1.5 GHz 5 mV/div: DC to 400 MHz DC to 750 MHz DC to 1 GHz 2 mV/div: DC to 400 MHz DC to 600 MHz DC to 750 MHz

For 1 MΩ input (from the probe tip when using the PB500 dedicated passive probe)

5 V/div to 10 mV/div: DC to 500 MHz DC to 500 MHz DC to 500 MHz

5 mV/div to 2 mV/div: DC to 400 MHz DC to 400 MHz DC to 400 MHz Residual noise level3: A/D conversion resolution: 8-bit (25 LSB/div) Bandwidth limit:

Max. sampling rate:

Real time sampling mode:

Interleave mode ON: 5 GS/s 10 GS/s

Interleave mode OFF: 2.5 GS/s 5 GS/s

Repetitive sampling mode: 2.5 TS/s 2.5 TS/s

Maximum record length

Time axis setting range: 500 ps/div to 50 s/div (steps of 1-2-5) Time base accuracy1: ±0.001% Time axis measurement accuracy1: ± (0.01% + 10 ps + 1 sample interval) Max. acquisition rate5:When using 1.25 MW, 60 waveforms/sec/ch

Min. dead time (N single)5: 400 ns or less (equivalent to 2.5 M waveforms/sec)

MΩ ±2.0%, approx. 14 pF) 50 Ω ±1.5%

For 50 Ω input : 2 mV/div to 500 mV/div (steps of 1-2-5)

For 50 Ω input : 5 Vrms or less and 10 Vpeak or less

2 mV/div to 50 mV/div : ±1 V 100 mV/div to 500 mV/div : ±10 V 1 V/div to 5 V/div : ±100 V

For 50 Ω input

2 mV/div to 50 mV/div : ±1 V 100 mV/div to 500 mV/div : ±5 V

For 50 Ω input : ±(1.5% of 8 div + offset voltage accuracy)

100 mV/div to 500 mV/div : ±(1% of setting + 2 mV) 1 V/div to 5 V/div : ±(1% of setting + 20 mV)

: 1.5 or less within frequency bandwidth (typical value4)

1, 2

DL9040/9040L DL9140/DL9140L DL9240/DL9240L

0.4 mV rms or 0.05 div rms, whichever is larger (typical value4)

For each channel, select from FULL, 200 MHz, 20 MHz, 8 MHz, 4 MHz, 2 MHz, 1 MHz, 500 kHz, 250 kHz, 125 kHz,

62.5 kHz, 32 kHz, 16 kHz, and 8 kHz (separately configurable on each of channels CH1 to CH4); Limit implemented with analog (200 MHz, 20 MHz) and digital filters (IIR+ FIR).

DL9040/9040L/9140/9140L DL9240/9240L

DL9040/9140/9240 DL9040L/DL9140L/DL9240L

2.5 MW 6.25 MW

When using 12.5 kW, 9000 waveforms/sec/ch When using 2.5 kW, 25000 waveforms/sec/ch

Trigger Section

Tr igger modes: Auto, Auto Level, Normal, Single, and N Single Tr igger source:

CH1 to CH4: Signals applied to measurement input terminals LINE: Connected commercial power signal (only available with

EXT: Signal input from EXT TRIG IN terminal

Tr igger level range:

CH1 to CH4: ±4 divisions from the screen center EXT: ±2 V (1:1), ±20 V (10:1 when used with a probe)

Tr igger level setting resolution:

CH1 to CH4: 0.01 div EXT:5 mV (1:1), 50 mV (10:1 when used with a probe)

Window comparator: Separately configurable on each of channels CH1 to CH4

Center: ±4 divisions from the screen center Width: ±4 divisions from Center

Edge trigger)

Tr igger level accuracy

CH1 to CH41: ± (0.2 div + 10% of trigger level) EXT1: ±(50 mV + 10% of trigger level)

Tr igger sensitivity:

CH1 to CH41 1 divp-p DC to 500 MHz DC to 1 GHz DC to 1 GHz

EXT where Edge OR1 1 divp-p DC to 50 MHz DC to 50 MHz DC to 50 MHz

Tr igger types:

Edge/State

Edge: Trigger occurs on the edge of a single trigger source. Edge (Qualified): Trigger occurs on the edge of a single trigger source when

Edge OR: Trigger occurs on the OR logic of the edge conditions set

State: Trigger occurs on ENTER/EXIT when the state condition

Width

Pulse: Trigger occurs on a width of a single trigger source. Pulse (Qualified): Trigger occurs on a width of a single trigger source when

Pulse State: Trigger occurs on a width when the state condition is true. Time width setting mode:

Specified time (T1/T2): 1 ns to 10 s, 500 ps resolution Time accuracy: ±(0.2% of setting + 1 ns)

Event Interval

Event Cycle: Trigger occurs when the event cycle is within the specified

Event Delay: After Event 1 occurs, trigger occurs on 1st occurrence of

Event Sequence: After Event 1 occurs, trigger occurs on 1st occurrence of

Time width setting mode: Function identical to the time width setting mode for Width Specified time (T1/T2): 1.5 ns to 10 s, 500 ps resolution Time accuracy: ±(0.2% of setting + 1 ns) Event types: Events can be selected from Edge, Edge Qualified, State,

Enhanced:

TV: Trigger occurs on video signals of various broadcasting system formats

Mode: NTSC, PAL, HDTV, USER Input CH: CH1-CH4 Sync Guard: Hsync 60 to 90% (increments of 1%) Line: 5-1054 (NTSC), 2-1251 (PAL), 2-1251 (HDTV), 2-2048

Field: 1/2/X Frame Skip: 1/2/4/8

I2C: Tr iggers on I2C bus signals

Mode: NON ACK, Every Start, General Call, (Star t byte/HS

SPI: Triggers on SPI (serial peripheral interface) bus signals

Mode: 3 wire, 4 wire

CAN:

Bit rate: 1 Mbps, 500 kbps, 250 kbps, 125 kbps, 83.3 kbps

Input channel: CH1 to CH4: Input through differential probe Mode: SO F, Frame ID, Data field, Remote Frame, Error Frame,

Serial pattern: Triggers on general-purpose serial communication signals.

Max. bit rate: 50 Mbps Max. bit length: 128 bits

100 mVp-p DC to 100 MHz DC to 100 MHz DC to 100 MHz

More than: Trigger occurs upon change in condition when the condition

Less than: Trigger occurs upon change in condition when the condition

Between: Trigger occurs upon change in condition when the condition

Out of Range: Trigger occurs upon change in condition when the condition

Time out: Trigger occurs when the condition is true for duration longer

DL9040/DL9040L DL9140/DL9140L DL9240/DL9240L

Qualification condition is true.

to multiple trigger sources.

is true.

Qualification condition is true.

remains true longer than time T1.

remains true shorter than time T1.

remains true longer than time T1 and shorter than time T2.

remains true shorter than time T1 and longer than time T2.

than time T1.

time range.

Event 2 that satisfies the timing constraints. The trigger process is reset if Event 1 or Event 2 occurs before the timing constraints are satisfied.

Event 2 that satisfies the timing constraints. The trigger process is reset if Event 1 occurs before the timing constraints are satisfied.

Pulse, Pulse Qualified, Pulse State, I2C, CAN, SPI, and Serial trigger types.

(USER)

Mode), ADR&DATA

User (freely settable in 100 bps increments)

Ack etc.

Display

Display: 8.4-inch (21.3 cm) color TFT liquid crystal display Display screen size: 170.5 mm (width)  127.9 mm (height) To tal number of pixels: 1024  768 (XGA) Waveform display resolution: 800  640

Main Specifications

Functions

Waveform Acquisition/Display Functions: Acquisition modes: Selectable from three acquisition modes – Normal, Average

High resolution mode: Vertical resolution is increased to max. 13 bits. Repetitive sampling mode: Allows switching between realtime and repetitive sampling

Interpolate function: Interpolates actual sampled data by up to 1000 times (or

Roll mode: Roll-mode display is enabled during the following time axis

Record length:

DL9040L/9140L/9240L: 2.5 kW, 62.5 kW, 12.5 kW, 25 kW, 62.5 kW, 125 kW, 250

DL9040/9140/9240: 2.5 kW, 62.5 kW, 12.5 kW, 25 kW, 62.5 kW, 125 kW, 250

Accumulation: Accumulates waveforms on the display. Choose Count/

Snapshot: Retains the current displayed waveform on the screen.

and Envelope

in certain time axis settings.

up to 2000 times in High-Res. mode) and increases the time resolution (up to 2.5 TS/s)

range when the trigger mode is Auto, Auto Level or Single: 100 ms/div to 50 s/div

kW, 625 kW, 1.25 MW, 2.5 MW, 6.25 MW

kW, 625 kW, 1.25 MW, 2.5 MW

Time and Inten/Color.

Analysis Functions

Search and Zoom function: Zooms the displayed waveform along the time (Horizontal

Voltage axis zoom factor: 1 to 10 times Time axis zoom factor: 1 time to 1data/div Auto scroll function: Automatically scrolls the zoom window along the time axis Search function: Searches the currently displayed waveform for a specified

Search types: Edge, Edge Qualified, State, Pulse, Pulse Qualified, Pulse,

History memory:

Max data:

History search: Searches for and displays waveforms from the history

Search types: Rect, WAVE, Polygon, Parameter (Measure/FFT/XY) Replay: Automatically replays history waveforms. Display: Selected acquisition (#) or Average (Avg)

Cursor measurements: The following five cursors can be selected: Vertical,

Automatic measurement of waveform parameters:

Items unrelated to cycle which will be derived out of all data in the range.

Items related to cycle which will be derived out of all data in the range.

Items which will be derived from the first encounter from the beginning of the specified range.

Telecom test: Performs mask test and eye pattern measurement

Mask test items: Wave Count, Wave Count%, Sample Point Count, Sample

Eye pattern items: Vtop, Vbase, stop, sbase, Tcrossing1, Tcrossing2,

Computation functions: Computes up to eight traces (CH1-CH4/M1-M4) +, -/*,

Reference functions: Display and analysis (computation and cursors) of up to

Action-on-trigger: Automatically measured waveform parameters and

Modes: OFF, All Condition, (GO/NOGO Zone/Param), GO/NOGO

Actions: Buzzer, Print, Save, Mail All conditions: After EXEC is pressed, the specified action is performed

GO/NOGO zone: Determines whether or not the acquired waveform passes

Zone types: RECT, Polygon, WAVE

GO/NOGO parameter: Determines whether or not the specified parameter of the

Zoom) and voltage (Vertical Zoom) axes. Independent zooming factors can be applied to two zoom areas.

portion occurring beyond a specified time, and displays the zoomed result on the screen.

State, Serial Pattern, I2C (optional), SPI (optional)

DL9040L/9140L/9240L

DL9040/9140/9240: 1000 (2.5 kW), when using histor y

memory that meet specified conditions.

Horizontal, VT, Marker, Serial

Performs automated measurement of the following waveform parameters.

MAX, MIN, HIGH, LOW, P-P, HIGH-LOW, +OVER, -OVER, RMS, MEAN, Sdev, IntegTY

C.rms, C.mean, C.Sdev, C.IntegTY, (1/FREQ), FREQ, COUNT, BURST

+WIDTH, -WIDTH, PERIOD, DUTY, RISE, FALL, DELAY

Point Count%

Vcrossing, Crossing%, Eye Height, Eye Width, Q Factor, Jitter, Duty Cycle Distortion%, Ext Rate dB, Rise, Fall

INTEG, COUNT (EDGE), COUNT (ROTARY), Through, Delay, Moving Avg, LowPass, High Pass, Stuff Bit (CAN option)

four traces (M1-M4) of the saved waveform data. Wavefor ms including history can also be loaded for history

searches or replay. Various parameters can be changed (however waveforms are not affected by T/Div changes).

waveform zones are determined, and the selected action is carried out each time conditions are met.

Telecom Test)

upon each acquisition

through the specified area

acquired waveform is within the specified range

: 2000 (2.5 kW), when using history

1600 (2.5 kW), when in N single mode

800 (2.5 kW), When in N single mode

Param: Choose Measure, FFT, or XY

GO/NOGO telecom test: Performs judgment using the conditions specified in the

ANALYSIS: S electable from XY, FFT, Wave Parameter, Accum

X-Y: displays XY1, XY2 and T-Y simultaneously FFT: supports up to 250 k points FFT Wave parameter: Single wave parameters can be viewed in one of the

Accum histogram: A histogram of the selected area can be displayed for a

Serial bus: I2C, SPI and CAN buses can be analyzed and the analysis

telecom test.

Histogram and Serial Bus

following formats. (Histogram, Trend and List)

continuous signal.

results displayed (optional).

I2C Bus Analysis Functions (optional)

•Applicable bus: I2C bus: Bus speed : Max. 3.4 Mbit/s

•Trigger function (standard): Source : SCL : CH1 to CH4

Type: Selectable from the following five options:

- Address & data: trigger on combination of assigned address & data pattern

- Non-Ack: trigger on non acknowledge condition

- Every start: tr igger on start condition

- General call: trigger on general call and the following byte

- Start byte / HS mode: trigger on Start byte and HS mode

•Analysis function: Signal input: CH1 to CH4, M1 to M4 can be configured Detailed data display mode

Simple display mode: Data (hex representation), R/W, start condition, presence/

Analyzable number of data items:

•Search function: Pattern search: Searches data that agrees with the preset address pattern,

•Analysis result save function: Storage of analysis list data

Address mode : 7 bit/10 bit

SM bus: complies with System Management bus

: SDA : CH1 to CH4

: Time from the reference point, data (simultaneous binary

and hex representations), presence/absence of ACK, R/ W, address or data, start condition

absence of ACK, address or data

40,000 bytes max.

data pattern and acknowledge bit condition.

: The data can be saved to CSV-format files.

SPI Bus Analysis Functions (optional)

•Trigger function: Mode: 3 wire/4 wire Bit order: MSB/LSB Source: Clock signal (SCK) CH1 to CH4

•Analysis function: Analyzable number of data items:

Display of analysis results

- Simple analysis result list

- Detailed analysis result display:

•Search function:

- Pattern search: Waveforms can be searched by specifying data pattern.

•Analysis result save function: Storage of analysis list data

Data 1 (MOSI) CH1 to CH4 Data 2 (MISO) CH1 to CH4 CS signal (SS) CH1 to CH4

40,000 bytes max.

: Analysis results can be displayed using the following 2

methods

: Data (hex representation), CS signal status

Detailed analysis result list, time from the reference point, data (select and show either Binary or Hex data), and CS signal status can be displayed.

When a waveform that agrees with the pattern is found, the zoom box moves to the position of that waveform to show the specified waveform.

: The data can be saved to CSV-format files.

CAN Bus Analysis Functions (optional)

•Applicable bus: CAN version 2.0 A/B

•Bit rate: 1 Mbps, 500 kbps, 500 kbps, 250 kbps, 125 kbps, 83.3

•Trigger function (standard): Source: CH1 to CH4, Input through differential probe Type: SOF trigger

High-speed CAN (ISO11898) Low-speed CAN (ISO11519-2)

kbps, user-defined

Frame ID trigger Data field trigger: Selectable up to 8 bytes Remote Frame trigger Error Frame trigger Ack trigger

Frame ID. Data OR trigger, (Specify up to four ID, Data or Ack trigger conditions to set triggers on a logical OR condition.)

•Analysis function: Analyzable number of frames Analysis result display: Waveform and analysis list display

•Analysis support functions:

•Analysis result save function: Storage of analysis list data

Event Interval trigger

: 3,000 max.

Detailed analysis list display (Analysis display items: Frame type, time from trigger point,

frame ID, DLC, Data, CRC, presence/absence of ACK)

Data search Field jump Stuff bit calculation

: The data can be saved to CSV-format files.

Built-in Printer (/B5 Option)

Printing method Thermal line-dot Paper width 112 mm Effective print width 104 mm (832 dots)

Auxiliary I/O Section

Rear panel I/O signal: Ext. trigger input, ext. trigger output, trigger comparator

Probe interface terminal (front panel)

No. of terminals: 4 Supported probes: PBA2500, PBD2000, PB500

Probe power terminal (/P2 option, rear panel):

No. of terminals: 2 Supported probes: FET probe (700939), current probes (701930, 701931,

output, GO/NO-GO I/O, video output

701932, 701933), and differential probes (701920, 701921,

701922)

Storage

Internal storage media:

Capacity: 90 MB (Flash ROM) Usage: Saving and loading of waveforms and panel settings

Internal Hard Drive (/C8 Option)

Capacity/file system: 40 GB FAT32 File name: Supports long file names of up to 256 ASCII characters

USB Peripheral Connection Ports

Connector: USB-type A connector  2 Supported transmission standards

Supported devices: USB HID Class Ver1.1-compliant mouse/109 keyboard

Max. No. of devices: 4

: LS (Low Speed) mode (1.5 Mbps), FS (Full Speed) mode

(12 Mbps)

USB Printer Class Ver.1.0-compliant printers

EPSON: Ink Jet Printers HP: PCL Ink Jet Printers

USB Mass Storage Class Ver.1.1-compliant mass storage device

USB hub device (1 unit only)

* Please contact your local Yokogawa sales office for model names of verified devices

PC Card Interfaces

Number of slots: 2 (front panel (1), rear panel (1)) Supported cards: GPIB card (National Instruments NI PCMCIA-GPIB card),

Flash ATA memory card (PC card TYPE II), CF card + adapter card, and various hard disk type PC cards

* Please contact your local Yokogawa sales office for model names of verified devices

For detailed specifications, visit our homepage at

http://www.yokogawa.com/tm/DL9000

USB-PC Connection Ports

Connector: USB-type B connector  1 Supported transmission standards Supported class: Operates as a multifunctional device simultaneously

: HS (High Speed) mode, FS (Full Speed) mode

supporting the following two protocols: USBTMC-USB488 (USB Test and Measurement Class Ver.1.0)

A USB bus can be employed to use GPIB commands. Mass Storage Class Ver.1.1 The DL9000's internal storage media, hard disk, PC card,

and USB mass storage device can be accessed (read/ write) from a PC (formatting is not supported).

Ethernet Communication (/C10 and /C8 Options)

Connector type: RJ-45 connector  1 Transmission method: Ethernet (100BASE-TX/10BASE-T) Supported services: DHCP, DNS, Microsoft network file sharing server & client,

FTP server, SNTP client, SMTP client, Firewall functions (network printers will be supported in the near future)

General Specifications

Rated supply voltage: 100 to 120 V AC/200 to 240 V AC (automatically selected) Allowable supply voltage fluctuation range Rated supply frequency: 50/60 Hz Allowable power supply frequency variation Maximum power consumption: 300 VA Withstanding voltage (between power supply and case):

External dimensions: 350 (W)  200 (H)  178 (D) mm (when printer cover is

Weight: Approx. 6.5 kg (including printer) Battery backup: Setup data and clock are backed up by an internal lithium

Battery life: Approximately 5 years (at an ambient temperature of 25°C)

Operating temperature range: 5–40°C

1. Measured value under standard operating conditions after a 30-minute warm-up followed by calibration.

Standard operating conditions:

Ambient temperature: 23 ±5°C

Ambient humidity: 55 ±10%

Error in supply voltage and frequency: Within 1% of rating

2. Value in the case of a repetitive signal

The frequency bandwidth of a single-shot phenomenon is the smaller of the two values, DC to sampling frequency/2.5 or the frequency bandwidth of the repetitive phenomenon.

3. When the input section is shorted, the acquisition mode is set to normal, the interleave mode is OFF, accumulation is OFF, and the probe attenuation is set to 1:1.

4. Typical value denotes a representative or average value and is not strictly guaranteed.

5. The parallel acquisition architecture of the DL9000 series ensures no decrease in acquisition rate for multichannel use.

: 90 to 132 V AC/180 to 264 V AC

:48 to 63 Hz

1.5 kV AC for one minute.

closed; excluding handle and protrusions)

battery

External Dimensions (Common to All Models)

Unit: mm

1110

Model and Suffix Codes of DL9040/9140/9240

Model

Suffix Code

DL9040 digital oscilloscope

701307

500 MHz max. 5 GS/s (2.5 GS/s/ch),

2.5 Mword/ch

DL9040L digital oscilloscope

701308

500 MHz max. 5 GS/s (2.5 GS/s/ch),

6.25 Mword/ch

DL9140 digital oscilloscope

701310

1 GHz max. 5 GS/s (2.5 GS/s/ch),

2.5 Mword/ch

DL9140L digital oscilloscope

701311

1 GHz max. 5 GS/s (2.5 GS/s/ch),

6.25 Mword/ch

DL9240 digital oscilloscope

701312

1.5 GHz max. 10 GS/s (5 GS/s/ch),

2.5 Mword/ch

DL9240L digital oscilloscope

701313

Power cable

-D

-F

-Q

-R

-H

Help menu language

-HE

-HC

-HK

/B5

/P2

/C8

/C9

Options

/C10

/C12

/G2

/G4

/F5

/F7

/F8

1: Please specify this /P2 option if you use either current probes or dierential probes such as 701920 or

701922. 2: Choose either one. 3: Choose either one. 4: Choose either one. UART, I

C, CAN and SPI bus signal triggers are standard.

1.5 GHz max. 10 GS/s (5 GS/s/ch),

6.25 Mword/ch

UL/CSA standard

VDE standard

BS standard

AS standard

GB standard

English Help

Chinese Help

Korean Help

Built-in printer

Probe power connections on rear panel

(2 outputs for 900 MHz FET probe and current probe)

Built-in HDD + Ethernet Interface

Built-in HDD + LXI Compliant Ethernet Interface

Ethernet Interface

LXI Compliant Ethernet Interface

User-dened math function

Power Supply Analysis Function

UART + I

UART + CAN + SPI bus analyzer

UART + I

Description

C + SPI bus analyzer

C + CAN + SPI bus analyzer

Standard Accessories

Power cable

3 prong-to-2 prong adapter

PB500 passive probe

Printer roll paper (when option /B5 is specied)

User's manual (1 set)

Front panel cover

Rubber leg cap

Soft case

Name

Accessories (Optional)

PB500 (10:1 passive probe)

Name

Mini-clip converter

BNC adapter

Grounding lead

PBA2500 (2.5 GHz active probe)

PBL5000 (5 GHz probe)

DC block

FET probe*

100:1 probe

Dierential probe

Dierential probe*

PBD2000 (2 GHz dierential probe)

Dierential probe

Dierential probe*

Current probe*

Printer roll paper

Rack mount kit

* requires /P2 option on the DL9000.

Model

701943

10 MΩ(10:1), 500 MHz, 1.5 m (one per order)

700971

For use with PB500

700972

For use with PB500

700973

For use with PB500

701913

2.5 GHz BW

701974

5 GHz BW

701975

For 50Ω input, SMA connector

700939

900 MHz BW

700978

100 MHz BW

701921

DC to 100 MHz BW/±700V Max.

701922

DC to 200 MHz BW/±20 V Max.

701923

2 GHz BW

700924

DC to 100 MHz BW/±1400 V Max.

701920

DC to 500 MHz BW/±30 V Max.

701933

DC to 50 MHz BW, 30 Arms

701932

DC to 100 MHz BW, 30 Arms

B9988AE

10 m roll, 10 rolls/order

701984-01

EIA standard-compliant

701984-02

JIS standard-compliant

Atec DL9000 User Manual

Specifications and Main Features

Frequently Asked Questions

User Manual