Agilent Technologies Infi niiVision
6000 Series Oscilloscopes
Data Sheet
Engineered for the best signal visibility
If you haven’t purchased an Agilent scope lately,
why should you consider one now?
Agilent has been the fastest growing oscilloscope supplier since 1997(source: Prima
.
Data, 2007)
advanced technology that will allow you to see more subtle signal detail and more
infrequent events than any other scope on the market. See the Infi niiVision 6000
Series oscilloscope—the industry’s best for signal viewing.
Wonder why? Agilent engineers developed the Infi niiVision 6000 Series with
There is no better way to experience
the superiority of the Infi niiVision 6000
Series scopes than to see it.
Contact Agilent today to request an
evaluation.
Or visit:
www.agilent.com/fi nd/mso6000
The Infi niiVision 6000 Series offers bandwidths up to 1 GHz. Each model, equipped with a 6.3” XGA LCD display, comes in
a whisper-quiet package that weighs only 11 pounds.
Choose from sixteen Infi niiVision 6000 Series models. Agilent provides an easy 5-minute DSO-to-MSO upgrade kit for
previously purchased 6000 Series DSOs.
2
What gives the Infi niiVision 6000 Series the best signal visibility?
1. High resolution
Oscilloscopes are visual tools and high-resolution screens make the
product better.
tant as general purpose scopes need to display digital and serial signals
in addition to traditional scope channels.
View up to 20 channels simultaneously with serial protocol. See subtle
signal detail with up to 256 levels of intensity.
2. Fastest architecture
See a display more representative of the actual signals under test than
with any other scope. The Infi niiVision 6000 Series shows jitter, infrequent
events, and subtle signal detail that other scopes miss. Turn knobs and the
instrument responds instantly and effortlessly. Need to also view digital
channels? The instrument stays responsive. Decoding serial packets? Offering the industry’s only hardware-accelerated serial bus decode, Agilent’s
Infi niiVision series delivers serial debug without compromising analog
measurements.
High resolution displays have become increasingly impor-
Infi niiVision scopes incorporate acquisition memory, waveform processing, and display memory in an
advanced 0.13 µ ASIC. This patented 3rd generation technology, known as MegaZoom III, delivers up to
100,000 waveforms (acquisitions) per second with responsive deep memory always available.
3. Insightful applications
Customize your general purpose scope. A wide range of application packages provide meaningful insight into your application-specifi c problems. (See pages 8-9 and 13-14 for more detail.)
• Serial with hardware-accelerated decode
▪ I2C, SPI
2
S
▪ I
▪ CAN/LIN
▪ RS-232/UART
• Battery option
▪ DSO/MSO offl ine analysis
▪ Core-assisted FPGA debug
▪ Vector signal analysis
▪ Segmented memory
▪ Mask testing
▪ Power measurement
▪ Secure environment
3
Your design has analog, digital and serial signals ... shouldn’t your scope?
Analog: Up to 1 GHz bandwidth and up to
4 GSa/s sample rate
Digital: 16 digital timing channels with
mixed signal triggering
The Infi niiVision 6000 Series scope channels provide faster identifi cation of
your most elusive problems –
Revolutionary high-resolution display.
Engineered with an XGA display and 256 levels
of intensity grading, see a precise representation of the analog characteristics of the
signals you’re testing. Equipped with the industry’s fastest uncomprimised update rate
at 100,000 waveforms/sec update rate, you’ll capture critical signal detail and see
infrequent events that traditional scopes miss.
MegaZoom III technology. MegaZoom III responsive deep memory captures long,
non-repeating signals and maintains high sample rates, allowing you to quickly zoom
in on areas of interest. Sample rate and memory depth go hand-in-hand. Deep memory
in oscilloscopes sustains a high sample rate over longer time spans.
Capture a mix of analog or digital signals. Compare multiple cycles of digital signals
with slower analog signals –
16 high-speed timing channels with up to 2 GSa/s deep memory. Use the timing
channels to evaluate control signal relationship. Or capture and view data buses up
to 16 bits wide. Trigger on and display individual signals or bus waveforms in hex or
binary.
Mixed signal trigger.
Trigger across any combination of analog and digital signals simultaneously. See precise analog measurements timed with exact digital content, all in one box.
Applications for digital channels.
Designing with Altera or Xilinx FPGAs? Use the FPGA dynamic probe for rapid internal
FPGA measurements. Using I2C, SPI, or RS-232? Use the analog or digital signals from
a 4-channe model to acquire and decode these serial buses.
Serial: Hardware-accelerated decode
and trigger for I
2
S
and I
4
2
C, SPI, RS-232, CAN, LIN
Capture long streams of serial data and gain fast insight into your problems. Agilent
6000 Series oscilloscopes provide the best serial protocol capabilities in their class
Serial bus triggering and decoding.
Display responsive, on-screen decode of serial bus traffi c. Isolate specifi c events with
pinpoint accuracy. Show decode to validate serial bus activity in real time.
Quickly fi nd infrequent errors.
Hardware-accelerated decoding increases your probability of capturing elusive events.
Agilent oscilloscopes can help you catch that intermittent problem before it becomes
an intermittenn customer complaint or quality concern.
Easily capture enough serial data to see all of the details.
Use deep memory to capture serial data stream over a long period of time.
Listing Display Window
Shows a tabular view of all captured packets that match on screen waveform data.
Other useful features
High resolution mode. Offers up to 12
bits of vertical resolution in real-time,
single-shot mode. This is accomplished
by serially fi ltering sequential data points
and mapping the fi ltered results to the
display when operating at time base settings greater than 10-μs/div.
Help is at your fi ngertips. An embedded
help system – available in 11 languages
– gives you quick answers if you don’t
understand a feature. Simply press and
hold the corresponding front-panel key,
and a screen pops up to explain its function.
Waveform math with FFT. Analysis functions include subtract, multiply, integrate,
square root, and differentiate, as well as
fast Fourier transforms (FFT).
Peak detect. 250 ps on 500-MHz and 1GHz models, 500 ps on 350-MHz models
and 1 ns on 100-MHz models helps you
fi nd narrow glitches.
AutoProbe interface. Automatically sets
probe attenuation factors and provides
power for selected active probes, including the award-winning 1130A 1.5-GHz
Infi niiMax differential active probe and
1156A 1.5-GHz single-ended active probe
systems.
5-digit hardware counter. Measures
frequency up to the bandwidth of the
scope.
Trig Out and Reference Clock In/Out.
Provides an easy way to synchronize
your scope to other instruments. Use the
Trig Out port to connect your scope to a
frequency counter for more accurate frequency measurements or to cross trigger
other instruments.
Autoscale. Displays all analog and digital
active signals, and automatically sets the
vertical, horizontal and trigger controls.
23 automatic measurements with
statistics
measurements with 5 additional statistics
beyond the current value. Fast update
rate provides statistical data for enabled
measurements such as mean, min, max,
standard deviation and count. Pressing
[QuickMeas] brings up the last four automated measurements selected. Cursors
automatically track the most recently
selected measurement.
Analog HDTV/EDTV trigger. The 6000
Series comes standard with analog
HDTV/EDTV triggering for standards
like 1080i, 1080p, 720p and 480p as well
as standard video triggering on any line
within a fi eld, all lines, all fi elds and odd
or even fi elds for NTSC, SECAM, PAL and
PAL-M video signals.
Bus mode display (on MSO models).
Quick and easy read-out of hexadecimal
or binary representation of logic signals.
Easy software upgrades. System
software is stored in fl ash ROM that can
be upgraded from the scope’s built-in
USB port or LAN. You can fi nd the latest
system and IntuiLink software at: www.
agilent.com/fi nd/mso6000sw
Get up to 4 simultaneous
Press and hold a key for instant help.
Measurement statistics allow you
to have confi dence in your measurements. Statistics can show that a
measurement is not only correct at
one moment, but that it has stabilized
and has a low variance over time,
giving it a higher statistical validity.
Digital signals can be displayed individually or as overlayed bus values.
5
Why does a fast update rate matter?
While bandwidth, sample rate and memory depth are key criteria
for deciding which scope to purchase, an equally important char-
acteristic is update rate.
What is update rate?
Update rate is how many waveforms acquisitions per seconds
you scope can acquire, process, and display. Oscilloscope “deadtime” is the time it takes for a scope to process and then display
an acquired waveform before re-arming it’s triggering for the next
acquisition. For traditional scopes, this time is often orders of
magnitude greater than acquisition time on fast time-per-division
settings.
If a glitch occurs during the scope’s dead-time, it won’t be
captured. The key to improving the probability of capturing a
signal anomaly during the scope acquisition time is to minimize
dead-time.
Oscilloscope vendors usually specify what their scope’s “bestcase” waveform update rates are. Some scope architectures
suffer from factors that can seriously degrade the “best-case”
update rates spec. Agilent’s 6000 Series architecture delivers the
world’s fastest update rate when using:
Improves instrument responsiveness
•
Why is update rate important?
1. Responsiveness. If you rotate the timebase control, you ex-
2. Signal detail. Fast waveform update rates improve the
3. Certainty. Fast waveform update rates improve the scope’s
Update rates directly affect a scope probability of capturing and
displaying infrequent and random events. Slow update rates will
cause a scope to miss subtle or infrequent signal details.
Analog channels
•
Deep memory
pect the oscilloscope to respond immediately – not seconds
later after the scope fi nishes processing data.
display quality of the waveform that you see on screen.
probability of capturing random and infrequent events.
•
Analog and digital
•
Serial decode
Improves scope display quality
Improves probability of capturing
infrequent events
6
How update rate affects signal visibility
Capturing random and infrequent events on an oscilloscope is all about statistical probabilities. The key to improving the probability of capturing a signal anomaly is to minimize dead-time and take more pictures of the signal in a given timeframe. Here is
an example with Tek and Agilent scopes both connected to a target with a glitch that occurs 25 times per second.
?
?
?
Tek MSO4104
•
Product data sheet: 50,000 waveforms per second.
•
Update rate = 18 waveforms per second with
10 Mpts and digital channels turned on. Resulting
measurement shown.
•
Probability of capturing the infrequent glitch = 0.09%
after running for 10 seconds.
•
Average time to capture just one glitch = 128 minutes.
Infrequent
signal activity
Critical
signal jitter
Agilent MSO6104A
•
Product data sheet: 100,000 waveforms per second.
•
Update rate = 95,000 waveforms per second with auto
memory and digital channels turned on. Resulting
measurement shown.
•
Probability of capturing the infrequent glitch = 99%
after
running for 10 seconds.
•
Average time to capture just one glitch = 1.5 seconds.
Memory*Scope settingsMeasured update rates
Te k
Initial setup
Change timebase
Add digital channels
Increase memory setting
Turn on serial decode
* Agilent and LeCroy memory depth selection was automatically selected. Memory depth = display window times sample rate with up to 8 Mpts for Agilent.
** Tek measurements taken with version 2.13 fi rmware.
10 Kpts
10 Kpts
10 Kpts
10 Mpts
10 Mpts
Timebase setting
20 ns/div
10 ns/div
20 ns/div
20 ns/div
20 ns/div
Digital Channels
-
-
On
On
On
Serial Decode
-
-
-
-
On
TEK MSO4104A**
55,000
2,700
125
35
0.2
LeCroy WR 104Xi
27
27
27
27
25
Agilent MSO6104A
95,000
95,000
95,000
95,000
95,000
Seeing subtle signal detail and infrequent events requires a scope with fast waveform update rates. Don’t take a scope vendor’s
banner waveform update rate specifi cation at face value. Test it yourself. It’s actually pretty easy to characterize a scope’s
update rate. Run a moderately fast signal (e.g. 50 Mhz) into a scope channel. Measure the scope’s average trigger output signal
frequency. This is your scope’s update rate for the specifi ed timebase setting. Test the update rate of the scope under various
setup conditions. Setup conditions that Agilent suggests varying include timebase range, memory depth, and number of channels, including analog, digital, as well as channels assigned for serial decoding.
7
Software applications
View on-screen serial decode of an I2C packet.
Trigger on and decode RS-232/UART
transmission.
I2C/SPI serial trigger and decode (N5423A or Option LSS on new scope purchases)
2
This application displays real-time time-aligned decode of I
C and SPI serial buses.
Hardware-accelerated decode means the scope stays responsive and fast.
This application requires a 4-channel DSO or 4-channel MSO and can use any combinatio of the scope or logic acquisition channels.
For more information:
www.agilent.com/fi nd/I
2
C-SPI
RS-232/UART serial decode and trigger (N5457A or Option 232 on new scope purchases)
Does your design include RS-232 or another type of UART? This application eliminates
the need to manually decode bus traffi c. Using data captured on the scope or logic
channels, the application lets you easily view the information sent over a RS-232 or
other UART serial bus.
Display real-time time-aligned decode of transmit and receive lines. The application
also enables triggering on RS-232/UART conditions.
This application requires a 4-channel DSO or 4-channel MSO and can use any combination of the scope or logic acquisition channels.
For more information:
www.agilent.com/fi nd/RS-232
Mask testing uncovers an infrequent signal
anomaly.
Use segmented memory to optimize
available memory.
Mask testing (N5455A or Option LMT)
Agilent’s mask test option (Option LMT or N5455A) for Infi niiVision Series oscilloscopes provides a fast and easy way to test your signals to specifi ed standards,
and uncover unexpected signal anomalies, such as glitches. Mask testing on other
oscilloscopes is based on software-intensive processing technology, which tends
to be slow. Agilent’s Infi niiVision scopes can perform up to 100,000 real-time
waveform pass/fail tests per second. This provides testing throughput signifi cantly faster than other mask test solutions, making valid pass/fail statistics available
almost instantly.
For more information: www.agilent.com/fi nd/masktest
Segmented memory (N5454A or Option SGM on new scope purchases)
Segmented memory optimizes available memory for data streams that have long dead
times between activity. The application excels at analyzing signal activity associated
with laser pulses, serial buses, and bursty signals such as radar. View an overlay of
all signal segments, including MSO channels and serial decode, while highlighting the
current segment. Quickly move between segments to view signal detail associated
with a specifi c segment.
This application works with all DSO and MSO models.
For more information: www.agilent.com/fi nd/segmented
8
Software applications
On-screen serial decode of an SPI packet
I2S triggering and decode(Option SND or N5468A)
Find and debug intermittent errors and signal integrity problems faster on I2S audio
protocol devices. This application offers powerful triggering and our unique hardwareaccelerated decode and lister window so you can more easily fi nd errors you could
miss using other serial bus decode tools.
This application requires a 4 channel DSO or MSO model
For more information: www.agilent.com/fi nd/I2S
CAN/LIN triggering and decode (N5424A or Option AMS on new scope purchases)
Trigger on and decode serially transmitted data based on CAN and LIN protocols. This
application not only provides triggering on complex serial signals, but it also provides
unique hardware-accelerated capabilities. Hardware-accelerated triggering and decode
means the scope stays responsive and fast.
This application requires a 4-channel DSO or 4-channel MSO and can use any combination of scope or logic acquisition channels.
Trigger on and decode CAN serial packets.
Debug and validate your FPGA designs
faster and more effectively with the FPGA
dynamic probe and an Agilent MSO.
Use your scope to quickly make and
analyze power measurements.
For more information: www.agilent.com/fi nd/CAN-LIN
FPGA dynamic probe application (N5406A for Xilinx, N5434A for Altera)
Give your MSO internal FPGA visibility. Agilent’s MSO FPGA dynamic probe provides
internal FPGA visibility and quick instrument setup using an innovative core-assisted
debug approach. Measurement tasks that previously took hours can be done in a few
mouse clicks. In a few seconds, easily measure a different set of internal signals without changing your FPGA design.This application works with all MSO models.
Need to make power measurements with your scope? Agilent’s power application provides a full suite of power measurements that run on a PC connected to an Infi niiVision 6000 Series oscilloscope. Make more accurate power supply effi ciency measurements by using an U1880A deskew fi xture to deskew your voltage and current probes.
This application works with all DSO and MSO models.
For more information: www.agilent.com/fi nd/power-app
9
Software applications and other accessories
Vector signal analysis software (89601A)
Expand the measurement capability of your scope with the 89601A vector signal
analysis software. This advanced DSP based software takes the digitized signal data
provided by the scope and provides FFT based spectrum analysis and wide bandwidth
Expand the capability of your scope with
89601A vector analysis software.
View and analyze previously acquired
scope data on a PC-based offl ine tool.
digital modulation analysis for wireless communication signals like WCDMA and
cdma2000, and wireless networking signals like 802.11 WiFi and 802.16 WiMax
Take advantage of the super wide bandwidth of your scope to capture and evaluate
radar signals.
For more information: www.agilent.com/fi nd/6000-vsa
Offl ine viewing and analysis (B4610A)
Need to view and analyze scope data away from your scope? Need to share measurement data with geographically dispersed team members? Save your scope data to
a USB or network drive and import the data into a PC-based offl ine viewer. Pan and
zoom. Use searching and fi ltering to gain insight on analog and digital buses. Email the
data to team members who can use the same tool at their PCs.
For more information: www.agilent.com/fi nd/Infi niiVisionOffl ine
TM
.
Secure environment mode ensures nonvolatile memory is cleared on power off.
The evaluation kit helps you discover the
power of Infi niiVision 6000 Series scopes.
10
Secure environment mode (Option SEC or N5427A)
Option SEC – secure environment mode provides the highest level of security by
ensuring internal nonvolatile memory is clear of all setup and trace settings in compliance with National Industrial Security Program Operation Manual (NISPOM) Chapter
8 requirements. When this option is installed, it will store setup and trace settings to
internal volatile memory only.
Volatile memory will be cleared during the power off cycle of the instrument. So you
can move the instrument out of a secure area with confi dence.
For more information: Option SEC Secure
Environment Mode Option for Agilent 6000 Series Oscilloscopes Data Sheet
Evaluation kit (N2918A)
The evaluation kit includes a variety of signals that demonstrate MegaZoom III
technology with its fast deep memory, superior waveform update rate, high defi nition
display and mixed analog, digital and serial abilities.
Using this scope evaluation kit along with the easy-to-follow user’s guide, you can
quickly become familiar with how to effectively operate an Infi niiVision 6000 Series
scopes.
Battery power option (Option BAT – factory installed)
Agilent 6000 Series oscilloscopes provide an optional internal rechargeable lithium ion
battery that will enable 2+ hours without line power. Specifi cally designed for applications where line power is not available or where you need to take your scope with you
but you need more power than a handheld scopemeter provides. New oscilloscopes
equipped with this option can also be operated off of the N5429A 12-V automotive
adapter. The Agilent 6000 Series oscilloscopes offer the only high-performance scope
with battery option on the market.
For more information: www.agilent.com/fi nd/6000_BAT
Probes and accessories
Agilent offers a complete family of innovative passive and active probes for the
InfiniiVision 6000 Series scopes to get your job done easily and accurately. Choosing
the correct probe for your application will help to ensure you are acquiring the signals
you expect. Below is a general guide on how to choose the type of probe. For the
most up-to-date information about Agilent’s accessories, please visit our Web site
at www.agilent.com/find/scope_probes.
DSO603xA, MSO603xA
DSO605xA, MSO605xA
Probe typeKey characteristicsDSO601xA, MSO601xA
Passive probes: most common type of probe, rugged and economical with bandwidth generally lower than 600 MHz
10070C
10073C
10074C
1:1 20 MHz with probe ID
10:1 500 MHz with probe ID
10:1 150 MHz with probe ID
Recommended*
Compatible*
Included*
High voltage passive probe: view up to 30 kVDC + peak AC voltage referenced to earth ground
10076A
N2771A
100:1, 4 kV, 250 MHz probe with ID
1000:1, 30 kV, 50 MHz probe
Recommended
Recommended
Single-ended active probes: contains small, active amplifier and enables the probe input capacitance to be very low resulting in high
input impedance on high frequencies. Least intrusive of all probes.
1156A
1144A
1145A
1.5 GHz AutoProbe interface
800 MHz (requires 1142A – power supply)
750 MHz 2-ch (requires 1142A – power supply)
Incompatible*
Incompatible
Incompatible
Active differential probes: use to look at signals that are referenced to each others instead of earth ground and to look at small signals in
the presence of large DC offsets or other common mode signals such as power line noise.
1130A
1.5 GHz InfiniiMax amplifier with AutoProbe interface (requires one
Incompatible
or more InfiniiMax probe head – E2675A, E2668A, E2669A)
N2772A
1141A
20 MHz, 1.2 kVDC + peak AC max (requires N2773A power supply)
200 MHz, 200 VDC + peak AC max (requires 1142A power supply)
Recommended
Compatible
Current probes: sense the AC or DC current flowing through a conductor and convert it to a voltage that can be viewed and measured on
an oscilloscope. Compatible with 1 MΩ scope input.
1146A
1147A
N2780A
N2781A
N2782A
N2783A
100 kHz, 100 A, AC/DC
50 MHz, 30 A, AC/DC with AutoProbe interface
2 MHz, 500 A, AC/DC (use with N2779A power supply)
10 MHz, 150 A, AC/DC (use with N2779A power supply)
50 MHz, 30 A, AC/DC (use with N2779A power supply)
100 MHz, 30 A, AC/DC (use with N2779A power supply)
MSO probes: offer the best performance and access to the industry’s broad range of logic analyzer probing accessories
01650-61607**
40-pin, 16-channel logic probe
Recommended with
MSO6000 models
54620-68701
Logic probe with 2x8 flying leads (includes 20 IC clips and five
ground leads)
Recommended and
included with MSO6000
models
* Recommended is a suggestion from Agilent scope and probing experts that this probe works well with this scope.
Compatible indicates that the probe and scope will work together but that there are other choices that will work better.
Included means that this probe ships with this scope.
Incompatible is a warning that the probe will not work with the indicated scope.
** With the addition of 40-pin logic cable, the Agilent MSO accepts numerous logic analyzer accessories such as Mictor, Samtec, flying leads or soft touch connectorless probe.
For more comprehensive information, refer to the Agilent InfiniiVision Series Oscilloscopes Probes and Accessories Data Sheet and
Selection Guide (Agilent publication numbers 5968-8153EN/ENUS and 5989-6162EN).
Recommended with
MSO6000 models
Recommended and
included with MSO6000
models
11
Connectivity
The 6000 Series scopes come with the most comprehensive connectivity tools in
their class.
LXI class C
LAN eXtensions for Instrumentation (LXI) is a standards-based architecture for test
systems. By specifying the interaction of system components, LXI enables fast and effi cient test system creation and reconfi guration. The 6000 Series oscilloscopes follow
specifi ed LAN protocols and adhere to LXI requirements such as a built-in Web control
server, IVI-COM driver, and easy-to-use SCPI commands. The standard Agilent I/O
Library Suite makes it easy to confi gure and integrate instruments in your system.
IntuiLink toolbars and IntuiLink Data Capture
IntuiLink gives you a quick way to move oscilloscope screen shots and data into
Microsoft® Word and Excel. These toolbars can be installed from www.agilent.
com/fi nd/intuilink.
View Scope logic analyzer and oscilloscope correlation
View Scope enables simple and free time-correlated measurements between a 6000
Series oscilloscope and an Agilent 16900, 16800, 1690, or 1680 Series logic analyzer.
Scope and logic waveforms are integrated into a single logic analyzer waveform
display for easy viewing analysis – all with a simple point-to-point LAN connection.
You can also cross-trigger the instruments, automatically de-skew the waveforms, and
maintain marker tracking between the instruments.
Agilent Remote Front Panel running in
a Web browser
National Instrument drivers
Infi niiVision 6000 Series oscilloscopes are supported by LabVIEW plug-and-play and
IVI-C drivers.
6000L Series, the most space efficient and affordable LXI Class C compliant
oscilloscope.
View 6000 Series signals on an external monitor
12
using the always-on XGA video output.
Use IntuiLink to import scope screen
shots and data into Microsoft Word
and Excel.
Use ViewScope to time-correlate
oscilloscope and logic analyzer
measurements.
Agilent Infi niiVision Portfolio
Agilent’s Infi niiVision lineup includes 5000, 6000 and 7000 Series oscilloscopes. These share a number of advanced
hardware and software technology blocks. Use the following selection guide to determine which best matches your
specifi c needs.
Largest display,
shallow depth
Bandwidth7000 Series6000A Series6000L Series5000 Series
The fastest way to debug your analog, digital and serial designs
High-resolution color display with XGA resolution and 256
levels of intensity reveals subtle details that other scopes
won’t show you.
Built-in USB port makes it easy to save your work and
update your system software quickly.
Intensity knob allows you to see the right level of waveform
detail, just like an analog scope.
Free IntuiLink data capture PC software makes
transferring waveform data or screen image to a PC fast
and easy. Built-in web viewer via LAN allows for remote
measurements and viewing.
Built-in help in eleven languages – Simply press and
hold the front-panel key of interest for a few seconds,
and a help screen pops up to explain its function.
Rear panel inputs/outputs
Trig Out port provides an easy way to synchronize
your scope to other instruments.
14
An XGA video output port allows you to
connect to a large external monitor.
Built-in 10-MHz reference in/out port lets you synchronize
multiple measurement instruments in a system.
Standard USB, LAN and GPIB ports
provide PC and printer connectivity.
Built-in storage compartment allows you to
store probes and power cord for easy access
and transportation.
Quickly pan and zoom for analysis with MegaZoom III’s
instant response and optimum resolution.
QuickMeas shows up to four automated measurements
with the push of a button.
Save screen images to a connected USB storage device with
automated file names.
Autoscale lets you quickly display any active signals,
automatically setting the vertical, horizontal and trigger
controls for the best display, while optimizing memory.
Standard serial triggering includes I
2
C, SPI, and USB
(optional CAN/LIN, and RS-232 advanced triggering and
decode).
Standard analog HDTV/EDTV triggering supports triggering
on 1080i, 1080p, 720p, 480p HDTV/EDTV standards.
AutoProbe interface automatically configures the
attenuation ratio of the probe and provides probe power
for Agilent’s active probes (available on 300 MHz to 1 GHz
models only).
Maximum sample rate and resolution is achieved on every
measurement. The scope automatically adjusts memory
depth as you use it, so you get maximum sample rate and
resolution on every measurement. You don’t even have to
think about it.
Dedicated front-panel controls make it easy to
access the most common scope controls, including
vertical and horizontal scaling.
InfiniiVision 6000 Series 2-channel model
15
Performance characteristics
Acquisition: scope channels
Sample rate MSO/DSO601xA/603xA: 2 GSa/sec each channel
MSO/DSO605xA/610xA: 4 GSa/sec half channel*, 2 GSa/sec each channel
Equivalent-time sample rate: 400 GSa/s (when real-time mode is turned off)
* Half channel is when only one of channel 1 or 2 is turned on, and only channel 3 or 4 is turned on.
** A pod is a group of eight digital channels, either 0-7 or 8-15.
16
Performance characteristics (continued)
Vertical system: scope channels
Scope channels MSO/DSO6xx2A: Ch 1 and 2 simultaneous acquisition
MSO/DSO6xx4A: Ch 1, 2, 3 and 4 simultaneous acquisition
Bandwidth (–3dB)* MSO/DSO601xA: DC to 100 MHz
MSO/DSO603xA: DC to 300 MHz
MSO/DSO605xA: DC to 500 MHz
MSO/DSO610xA: DC to 1 GHz
AC coupled MSO/DSO601xA: 3.5 Hz to 100 MHz
MSO/DSO603xA: 3.5 Hz to 300 MHz
MSO/DSO605xA: 3.5 Hz to 500 MHz
MSO/DSO610xA: 3.5 Hz to 1 GHz
MSO/DSO601xA: 1 mV/div to 5 V/div (1 MΩ)
MSO/DSO603xA and MSO/DSO605xA: 2 mV/div to 5 V/div (1 MΩ or 50 Ω)
MSO/DSO610xA: 2 mV/div to 5 V/div (1 MΩ), 2 mV/div to 1 V/div (50 Ω)
Maximum input CAT I 300 Vrms, 400 Vpk; transient overvoltage 1.6 kVpk
CAT II 100 Vrms, 400 Vpk
With 10073C or 10074C 10:1 probe: CAT I 500 Vpk, CAT II 400 Vpk
Offset range ±5 V on ranges <10 mV/div; ±20 V on ranges 10 mV/div to 200 mV/div;
±75 V on ranges >200 mV/div
Channel-to-channel isolation DC to max bandwidth >40 dB
Standard probes MSO/DSO601xA: 10:1 10074C shipped standard for each scope channel
MSO/DSO603xA/605xA/610xA: 10:1 10073C shipped standard for each scope channel
Probe ID MSO/DSO601xA: Auto probe sense
MSO/DSO603xA/605xA/610xA: Auto probe sense and AutoProbe interface
Agilent- and Tektronix-compatible passive probe sense
* Denotes warranted specifications, all others are typical. Specifications are valid after a 30-minute warm-up period and ±10 °C from firmware calibration temperature.
1 1 mV/div is a magnification of 2 mV/div setting for 100 MHz models and 2 mV/div is a magnification of 4 mV/div setting for 300 MHz to 1 GHz models. For vertical accuracy
calculations, use full scale of 16 mV for 1 mV/div sensitivity setting and 32 mV for 2 mV/div sensitivity setting.
17
Performance characteristics (continued)
Vertical system: scope channels (continued)
ESD tolerance ±2 kV
Noise, RMS, input shorted MSO/DSO601xA: 0.50% FS or 250 µV, whichever is greater
MSO/DSO603xA: 0.50% FS or 300 µV, whichever is greater
MSO/DSO605xA: 0.50% FS or 360 µV, whichever is greater
MSO/DSO610xA: 0.65% FS or 360 µV, whichever is greater
DC vertical gain accuracy*
1
±2.0% full scale
DC vertical offset accuracy ≤200 mV/div: ±0.1 div ±2.0 mV ±0.5% offset value;
>200 mV/div: ±0.1 div ±2.0 mV ±1.5% offset value
Single cursor accuracy
1
±{DC vertical gain accuracy + DC vertical offset accuracy + 0.2% full scale (~1/2 LSB)}
Example: for 50 mV signal, scope set to 10 mV/div (80 mV full scale), 5 mV offset, accuracy = ±{2.0% (80 mV) + 0.1 (10 mV) + 2.0 mV + 0.5% (5 mV) + 0.2% (80 mV)} =
± 4.785 mV
Dual cursor accuracy*
1
±{DC vertical gain accuracy + 0.4% full scale (~1 LSB)}
Example: for 50 mV signal, scope set to 10 mV/div (80 mV full scale), 5 mV offset,accuracy = ±{2.0% (80 mV) + 0.4% (80 mV)} = ±1.92 mV
* Denotes warranted specifications, all others are typical. Specifications are valid after a 30-minute warm-up period and ±10 °C from firmware calibration temperature.
1 1 mV/div is a magnification of 2 mV/div setting for 100 MHz models and 2 mV/div is a magnification of 4 mV/div setting for 300 MHz to 1 GHz models. For vertical accuracy
calculations, use full scale of 16 mV for 1 mV/div sensitivity setting and 32 mV for 2 mV/div sensitivity setting.
Vertical system: digital channels (MSO6000A or MSO-upgraded DSO6000A only)
Number of channels 16 logic timing channels – labeled D15 - D0
Threshold groupings Pod 1: D7 - D0
Pod 2: D15 - D8
Threshold selections TTL, CMOS, ECL and user-definable (selectable by pod)
User-defined threshold range ±8.0 V in 10 mV increments
Maximum input voltage ±40 V peak CAT I; transient overvoltage 800 Vpk
Threshold accuracy* ±(100 mV + 3% of threshold setting)
Input dynamic range ±10 V about threshold
Minimum input voltage swing 500 mV peak-to-peak
Input capacitance ~8 pF
Input resistance 100 kΩ ±2% at probe tip
Channel-to-channel skew 2 ns typical, 3 ns maximum
* Denotes warranted specifications, all others are typical. Specifications are valid after a 30-minute warm-up period and ±10 °C from firmware calibration temperature.
18
Performance characteristics (continued)
Horizontal
Range MSO/DSO601xA: 5 nsec/div to 50 sec/div
MSO/DSO603xA: 2 nsec/div to 50 sec/div
MSO/DSO605xA: 1 nsec/div to 50 sec/div
MSO/DSO610xA: 500 psec/div to 50 sec/div
Resolution 2.5 psec
Time scale accuracy* ≤ ± (15 + 2*(instrument age in years)) ppm
Vernier 1-2-5 increments when off, ~25 minor increments between major settings when on
Delay range Pre-trigger (negative delay): Greater of 1 screen width or 1 ms (with 8 Mpts memory option)
Post-trigger (positive delay): 1 s to 500 seconds
Analog delta-t accuracy Same channel: ±0.0015% reading ±0.1% screen width ±20 ps
Channel-to-channel: ±0.0015% reading ±0.1% screen width ±40 ps
Same channel example (MSO/DSO605xA):For signal with pulse width of 10 µs, scope set to 5 µs/div (50 µs screen width),
delta-t accuracy = ±{0.0015% (10 µs) + 0.1% (50 µs) + 20 ps} = 50.17 ns
Logic delta-t accuracy Same channel: ±0.005% reading ±0.1% screen width ±(1 logic sample period, 1 ns)
Channel-to-channel:
±0.005% reading ±0.1% screen width ±(1 logic sample period) ±chan-to-chan skew
Same channel example:For signal with pulse width of 10 µs, scope set to 5 µs/div (50 µs screen width),
delta-t accuracy = ±{0.005% (10 µs) + 0.1% (50 µs) + 1 ns} = 51.5 ns
Modes Main, delayed, roll, XY
XY Bandwidth: Max bandwidth
Phase error @ 1 MHz: <0.5 degrees
Z Blanking: 1.4 V blanks trace (use external trigger on MSO/DSO6xx2A,
channel 4 on MSO/DSO6xx4A)
Reference positions Left, center, right
Segmented memory rearm time 8 µs (minimum time between trigger events)
* Denotes warranted specifications for units manufactured after January 1, 2008. Specifications are valid after a 30 minute warm-up period and within 10 °C of firmware
Edge Trigger on a rising, falling, alternating or either edge of any source
Pattern Trigger at the beginning of a pattern of high, low, and don’t care levels and/or a rising or
falling edge established across any of the analog and digital channels, but only after a
pattern has stabilized for a minimum of 2 nsec.
The scope channel’s high or low level is defined by that channel’s trigger level. The logic
channel’s trigger level is defined by the threshold for the pod, 0 - 7 or 8 - 15.
Pulse width Trigger when a positive- or negative-going pulse is less than, greater than, or within a
specified range on any of the source channels.
Minimum pulse width setting: 5 ns (MSO/DSO601xA/603xA scope channels)
2 ns (MSO/DSO605xA/610xA scope channels)
2 ns (logic channels on MSO6000A or
MSO-upgraded DSO6000A)
Maximum pulse width setting: 10 s
TV Trigger using any scope channel on most analog progressive and interlaced video standards
including HDTV/EDTV, NTSC, PAL, PAL-M or SECAM broadcast standards. Select either
positive or negative sync pulse polarity. Modes supported include Field 1, Field 2, all fields,
all lines, or any line within a field. TV trigger sensitivity: 0.5 division of sync signal. Trigger
holdoff time can be adjusted in half field increments.
C, SPI, RS-232,
Sequence Arm on event A, trigger on event B, with option to reset on event C or time delay.
CAN Trigger on CAN (Controller Area Network) version 2.0A and 2.0B signals. Trigger on the start
of frame (SOF) bit (standard). N5424A option supports triggering on remote frame ID (RTR),
data frame ID (~RTR), remote or data frame ID, data frame ID and data, error frame, all errors,
acknowledge error and overload frame.
LIN Trigger on LIN (Local Interconnect Network) sync break at beginning of message frame
(standard). N5424A option supports triggering on frame ID.
USB Trigger on USB (Universal Serial Bus) start of packet, end of packet, reset complete, enter
suspend, or exit suspend on the differential USB data lines. USB low speed and full speed
are supported.
2
I
C Trigger on I2C (Inter-IC bus) serial protocol at a start/stop condition or user defined frame
with address and/or data values. Also trigger on missing acknowledge, address with no acq,
restart, EEPROM read, and 10-bit write.
SPI Trigger on SPI (Serial Protocol Interface) data pattern during a specific framing period.
Supports positive and negative Chip Select framing as well as clock Idle framing and
user-specified number of bits per frame.
RS-232/UART This application eliminates the need to manually decode bus traffic. Using data captured on
the scope or digital channels, the application provides the ability to easily view the information
sent over a RS-232 serial bus. Display real-time time-aligned decode of transmit and receive
lines. This application also enables triggering on RS-232/UART conditions.
2
I
S This application provides triggering on audio bus protocol channels for audio left, right,
either as well as =, ≠, >,< entered data values and within and out of range values. It provides
the ability to easily view the audio packets on the waveform and in a listing window.
Duration Trigger on a multi-channel pattern whose time duration is less than a value, greater than a
value, greater than a time value with a timeout, or inside or outside of a set of time values.
Minimum duration setting: 2 ns
Maximum duration setting: 10 s
20
Performance characteristics (continued)
Trigger system (continued)
Nth edge burst Trigger on the Nth edge of a burst that occurs after an idle time that you specify. Max edge
count: 65,536.
Autoscale Finds and displays all active scope and logic (for MSO6000A series MSO) channels, sets edge
trigger mode on highest-numbered channel, sets vertical sensitivity on scope channels and
thresholds on logic channels, time base to display ~1.8 periods. Requires minimum voltage
>10 mVpp, 0.5% duty cycle and minimum frequency >50 Hz.
Scope channel triggering
Range (internal) ±6 div from center screen
Sensitivity* <10 mV/div: greater of 1 div or 5 mV; ≥10 mV/div: 0.6 div
Coupling AC (~3.5 Hz on MSO/DSO601xA, ~10 Hz on MSO/DSO603xA/605xA/610xA),
DC, noise reject, HF reject and LF reject (~50 kHz)
Digital (D15 - D0) channel triggering (MSO6000A or MSO-upgraded DSO6000A only)
Threshold range (user defined) ±8.0 V in 10 mV increments
Threshold accuracy ±(100 mV + 3% of threshold setting)
Maximum input CAT I 300 Vrms, 400 Vpk, CAT II 100 Vrms, 400 Vpk ±15 V
With 10073C 10:1 probe: CAT I 500 Vpk, CAT II 400 Vpk
5 Vrms with 50-Ω input
Range DC coupling: trigger level ±1 V and ±8 V ±5 V
Sensitivity For ±1 V range setting: DC to 100 MHz, 100 mV; MSO/DSO6014A:
MSO/DSO6032A/6052A/6102A: DC to 100 MHz: 500 mV
>100 MHz to bandwidth of oscilloscope: 200 mV MSO/DSO6034A/6054A/6104A:
For ±8 V range setting: DC to 100 MHz, 250 mV; DC to 500 MHz: 500 mV
MSO/DSO6032A/6052A/6102A:
>100 MHz to bandwidth of oscilloscope: 500 mV
Coupling AC (~3.5 Hz), DC, noise reject, HF reject and LF reject (~50 kHz)
Probe ID MSO/DSO601xA: Auto probe sense
MSO/DSO603xA/605xA/610xA: Auto probe sense and AutoProbe interface
Agilent- and Tektronix-compatible passive probe sense
* Denotes warranted specifications, all others are typical. Specifications are valid after a 30-minute warm-up period and ±10 °C from firmware calibration temperature.
21
Performance characteristics (continued)
Display system
Display 6.3-inch (161 mm) diagonal color TFT LCD
Throughput of scope channels Up to 100,000 waveforms/sec in real-time mode
Resolution XGA – 768 vertical by 1024 horizontal points (screen area);
640 vertical by 1000 horizontal points (waveform area)
256 levels of intensity scale
Controls Waveform intensity on front panel. Vectors on/off; infinite persistence on/off,
8 x 10 grid with intensity control
Built-in help system Key-specific help displayed by pressing and holding key or softkey of interest.
Language support for 11 languages including English, German, French, Russian, Japanese,
Traditional Chinese, Simplified Chinese, Korean, Spanish, Portuguese and Italian.
Real-time clock Time and date (user adjustable)
Measurement features
Automatic measurements Measurements are continuously updated. Cursors track last selected measurement.
Up to four measurements can be displayed on screen at any one time.
Voltage (scope channels only) Peak-to-peak, maximum, minimum, average, amplitude, top, base, overshoot, preshoot, RMS,
standard deviation (AC RMS), Ratio (dB)
Time Frequency, period, + width, – width and duty cycle on any channel.
Rise time, fall time, X at max Y (time at max volts), X at min Y (time at min volts), delay, and
phase on scope channels only.
Counter Built-in 5-digit frequency counter on any channel. Counts up to the scope’s bandwidth (1 GHz
max). The counter resolution can be increased to 8 digits with an external 10-MHz reference.
Threshold definition Variable by percent and absolute value; 10%, 50%, 90% default for time measurements
Cursors Manually or automatically placed readout of horizontal (X, ∆X, 1/∆X) and vertical (Y, ∆Y).
Tracking Cursors provides an additional mode for cursor positioning beyond the current
manual method. When cursor tracking is enabled, changing a cursor’s x-axis position
results in the y-axis cursor tracking the corresponding y-axis (voltage, current, etc.) value.
Additionally logic or scope channels can be displayed as binary or hex values.
Waveform math f (g(t))
g(t): { 1, 2, 3, 4, 1-2, 1+2, 1x2, 3-4, 3+4, 3x4}
f(t): { 1-2, 1+2, 1x2, 3-4, 3+4, 3x4, FFT(g(t)), differentiate d/dt g(t), integrate ∫ g(t) dt, square
root √g(t) } Where 1,2,3,4 represent analog input channels 1, 2, 3, and 4
Note: Channels 3 and 4 only available on MSO/DSO6xx4A models
Measurement statistics Statistical data for enabled measurements such as mean, min, max, standard deviation
and count
22
Performance characteristics (continued)
Storage
Save/recall (non-volatile) 10 setups and traces can be saved and recalled internally.
Optional secure environment mode ensures setups and traces are stored to internal volatile
memory so data is erased when power is removed. Compliant to NISPOM Chapter 8
requirements.
Storage type and format USB 1.1 host ports on front and rear panels
Image formats: BMP (8-bit), BMP (24-bit), PNG (24-bit)
Data formats: X and Y (time/voltage) values in CSV format, ASCII XY and binary format
Trace/setup formats: Recalled
FFT
Points Fixed at 1000 points
Source of FFT 1, 2, 1+2, 1-2, 1x2, MSO/DSO6xx4A: 3, 4, 3+4, 3-4, 3x4;
where 1, 2, 3, 4 represent the analog channel inputs 1, 2, 3, and 4
Probe comp output Frequency ~1.2 kHz; Amplitude ~2.5 V
23
Performance characteristics (continued)
General characteristics (continued)
Trigger out When Triggers is selected (delay ~17 ns)
0 to 5 V into high impedance
0 to 2.5 V into 50 Ω
When Source Frequency or Source Frequency/8* is selected
0 to 580 mV into high impedance
0 to 290 mV into 50 Ω
Max frequency output: 350 MHz (in source frequency mode when terminated in 50 Ω)
125 MHz (in source frequency/8 mode when terminated in 50 Ω)
10 MHz ref in/out TTL out, 180 mV to 1 V amplitude with 0 to 2 V offset
Kensington lock Connection on rear panel for security
Power requirements
Line voltage range 100-120 V, 50/60/400 Hz; 100-240V, 50/60 Hz auto ranging
Line frequency 50/60 Hz, 100-240 VAC; 400 Hz, 100-120 VAC
Power usage 120 W max
Battery option – BAT 100-240 V, 50/60 Hz
2+ hours between charges, battery-low indicator at 20%
Battery capacity after repeated charging: 80% after 300 cycles
Non-operating temperature: –20 °C to 60 °C
Operating temperature: 0 °C to 50 °C
Power consumption is 67-75 Watts with optional N5429A DC Power adapter
Environmental characteristics
Ambient temperature Operating -10 °C to +55 °C; non-operating –40 °C to +70 °C
Humidity Operating 95% RH at 40 °C for 24 hr; non-operating 90% RH at 65 °C for 24 hr
Altitude Operating to 4,570 m (15,000 ft); non-operating to 15,244 m (50,000 ft)
Vibration Agilent class B1 and MIL-PRF-28800F; class 3 random
Shock Agilent class B1 and MIL-PRF-28800F; class 3 random; (operating 30g, 1/2 sine,
11 ms duration, 3 shocks/axis along major axis, total of 18 shocks)
Pollution degree Normally only dry non-conductive pollution occurs.
Occasionally a temporary conductivity caused by condensation must be expected.
Indoor use Rated for indoor use only
Other
Measurement categories CAT I
Regulatory information Safety IEC 61010-1:2001 / EN 61010-1:2001
Canada: CSA C22.2 No. 1010.1:1992
UL 61010B-1:2003
Supplementary information The product herewith complies with the requirements of the Low Voltage Directive
73/23/EEC and the EMC Directive 89/336/EEC, and carries the CE-marking accordingly.
The product was tested in a typical configuration with HP/Agilent test systems.
* Source Frequency/8 is supported on 300 MHz to 1 GHz 6000 Series only.
24
Ordering information
Maximum Scope Digital
Model Bandwidth sample rate Memory depth channels channels
DSO6012A 100 MHz 2 GSa/s 8 Mpts 2
MSO6012A 100 MHz 2 GSa/s 8 Mpts 2 16
DSO6014A 100 MHz 2 GSa/s 8 Mpts 4
MSO6014A 100 MHz 2 GSa/s 8 Mpts 4 16
DSO6032A 300 MHz 2 GSa/s 8 Mpts 2
MSO6032A 300 MHz 2 GSa/s 8 Mpts 2 16
DSO6034A 300 MHz 2 GSa/s 8 Mpts 4
MSO6034A 300 MHz 2 GSa/s 8 Mpts 4 16
DSO6052A 500 MHz 4 GSa/s 8 Mpts 2
MSO6052A 500 MHz 4 GSa/s 8 Mpts 2 16
DSO6054A 500 MHz 4 GSa/s 8 Mpts 4
MSO6054A 500 MHz 4 GSa/s 8 Mpts 4 16
DSO6102A 1 GHz 4 GSa/s 8 Mpts 2
MSO6102A 1 GHz 4 GSa/s 8 Mpts 2 16
DSO6104A 1 GHz 4 GSa/s 8 Mpts 4
MSO6104A 1 GHz 4 GSa/s 8 Mpts 4 16
Accessories included:
Model number DSO60xxA MSO60xxA
Standard 3-year warranty ● ●
Standard 1-year warranty on MSO/DSO6000A-BAT option ● ●
10073C or 10074C 10:1 divider passive probe with readout per scope channel ● ●
16 channel flying lead set logic probe (two pods with eight channels each) ●
Built-in help language support for English, French, German, Russian, simplified ● ●
Chinese, traditional Chinese, Korean, Spanish, Portuguese, Japanese and Italian
Interface language support ● ●
GUI menus: English, simplified Chinese, traditional Chinese, Korean, Japanese
Choose one of ABA (printed users guide in English), ABJ (printed users guide in ● ●
Japanese) or AB2 (printed users guide in simplified Chinese)
Documentation CDs/PDFs of Programmer’s reference guide, ● ●
User’s guide and Service guide
Agilent I/O libraries suite 15.0 ● ●
Localized power cord ● ●
Front panel cover ● ●
Note: IntuiLink Data Capture software available free on web at www.agilent.com/find/intuilink
25
Ordering information (continued)
Options
Product Description
DSO to MSO upgrade* N2914A* for DSO/MSO601xA, DSO/MSO603xA N2915A* for DSO/MSO605xA, DSO/MSO610xA
SEC Secure Environment Mode - Provides compliance with National Industrial Security
Program Operating Manual (NISPOM) Chapter 8 requirements
(factory-installed option only for new purchase)
A6J ANSI Z540 compliant calibration
*Includes a 54620-68701 logic cable kit, a label and an upgrade license to activate the MSO features. Installs in less than 5 minutes.
Serial data analysis applications
Option number – user installed Option number – factory installed Description
N5424A AMS CAN/LIN automotive triggering and decode
(4 and 4+16 channel models only)
N5423A LSS I
models only)
N5457A 232 RS-232/UART triggering and decode
(4 and 4+16 channel models only)
2
C/SPI serial decode option (for 4/4+16 channel
N5468A SND I2S Triggering and Decode (4 and 4+16 channel models only)
User installed
PC-assisted applications Description
N5406A FPGA dynamic probe for Xilinx (MSO models only)
N5434A FPGA dynamic probe for Altera (MSO models only)
B4610A Offline viewing and analysis of MSO/DSO data on a PC
U1881A Power measurement and analysis application
E2690B ASA’s Oscilloscope tools
Other
Option number – user installed Option number – factory installed Description
N5454A SGM Segmented memory
BAT Re-chargeable battery option
N5455A LMT Mask limit testing
26
Ordering information (continued)
Accessories
Options Description
N2916B Rackmount kit for 6000 Series oscilloscope
N2917B
Transit case with foam molding customized for InfiniiVision 6000 Series
Publication Title Publication Type Publication Number
Agilent Technologies Oscilloscope Family Brochure Brochure 5989-7650EN
Agilent Technologies Probes and Accessories Selection guide 5989-6162EN
Agilent Technologies InfiniiVision 5000, 6000 and 7000 Series Oscilloscope Probes and Accessories Data sheet 5968-8153EN/EUS
N5433A I2C and SPI Triggering and Hardware-Accelerated Decode Options for Data sheet 5989-5126EN
InfiniiVision 5000, 6000 and 7000 Series Oscilloscopes
CAN/LIN Measurements (Option AMS) for Agilent’s InfiniiVision Series Oscilloscopes Data sheet 5989-6220EN
Agilent Technologies InfiniiVision 7000 Series Oscilloscopes Data sheet 5989-7736EN
RS-232/UART Triggering and Hardware-Accelerated Decode Options for Data sheet 5989-7832EN
InfiniiVision 5000, 6000 and 7000 Series Oscilloscopes
N5434A FPGA Dynamic Probe for Altera with InfiniiVision 6000 and 7000 Series MSOs Data sheet 5989-5965EN
N5406A FPGA Dynamic Probe for Xilinx with InfiniiVision 6000 and 7000 Series MSOs Data sheet 5989-1848EN
Segmented Memory Option for InfiniiVision 5000, 6000 and 7000 Series Oscilloscopes Data sheet 5989-7833EN
Offline Viewing and Analysis for InfiniiVision 5000, 6000 and 7000 Series Oscilloscopes Data sheet 5989-7834EN
Power Application for InfiniiVision 6000 and 7000 Series Oscilloscopes Data sheet 5989-7835EN
Agilent 81150A Pulse Function Arbitrary Noise Generator Data sheet 5989-6433EN
Agilent 33220A 20 MHz Function/Arbitrary Waveform Generator Data sheet 5988-8544EN
Agilent 16900 Series Logic Analysis Mainframes Data sheet 5989-0421EN
Agilent 16800 Series Portable Logic Analyzers Data sheet 5989-5063EN
VSA for InfiniiVision 5000, 6000 and 7000 Series Oscilloscopes Application note 5989-1679EN
N5455A Mask/Waveform Limit testing for InfiniiVision oscilloscopes Data sheet 5990-3269EN
Testing Waveforms to a Six Sigma Standard Using Hardware- Application note 5990-3200EN
Accelerated Mask Testing
Agilent Triggering and Hardware-based Decode (Option SND) for Agilent InfiniiVision Oscilloscoopes Date sheet 5990-4198EN
27
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Revised: October 1, 2008
Agilent Technologies Oscilloscopes
Multiple form factors from 20 MHz to >90 GHz | Industry leading specs | Powerful applications
Product specifi cations and descriptions
in this document subject to change
without notice.