Bently Nevada ADRE 408 DSPi Specifications

ADRE Sxp and 408 DSPi

Datasheet

Bently Nevada Machinery Condition Monitoring

Description

ADRE Sxp Software and the 408 DSPi (Dynamic Signal
Processing Instrument) make up a highly scalable system for
multi-channel signal processing and data acquisition.

Unlike other general-purpose computer-based data
acquisition systems, ADRE Sxp and the 408 DSPi are
specifically designed for real-time highly parallel signal
processing and presentation. This extremely versatile system
incorporates the functionality of many types of
instrumentation, such as oscilloscopes, spectrum analyzers,
filters, signal conditioners, and digital recorders into a single
platform. The system is designed specifically for secure
corporate network environments, allowing it to operate
remotely across a LAN/WAN, or store data in full “stand­alone” mode without an additional/external computer.
Additional equipment is seldom, if ever, needed. The system’s
real-time display capability permits it to continuously display
data independently of data being stored to permanent
memory. For established ADRE system users, ADRE Sxp also
supports all previous ADRE for Windows databases.

172179 Rev. AC

An ADRE Sxp data acquisition system consists of:

l 408 Dynamic Signal Processing Instrument(s).
l ADRE Sxp client software, ADRE Quick Configuration

software.

l A computer system capable of running ADRE Sxp

software.

The 408 DSPi is fully portable or can be rack mounted allowing
convenient operation in test stands, on-site, or at remote
locations. The 408 DSPi’s highly configurable design supports
virtually all standard and non-standard input types including
both dynamic transducer signals (such as those from
proximity probes, velocity transducers, accelerometers, force

ADRE Sxp and 408 DSPi
Datasheet 172179 Rev. AC

hammers, dynamic pressure sensors), and
static signals (such as process variables from
transmitters and distributed control systems).
For rotating machinery applications, users can
provide a Keyphasor or other speed input
signal (such as that from a magnetic or optical
transducer) to drive synchronous sampling
and order tracking. For structural analysis
needs, impact testing using force hammers is
supported. The system also supports multiple
triggering modes for automated data
acquisition, allowing you to use the system as
a data or event logger without an operator
present.

The Client-Server architecture allows multiple
software clients to operate and simultaneously
view data from single/multiple 408 DSPi
systems simultaneously, permitting users to
independently view data in the fundamental
measurement units of their choice. Software
installation and configuration are quick and
easy, allowing mass configuration of multiple
channels with minimal user intervention.
Configuration templates and software further
simplifies the process, allowing the user to
install the software, produce a configuration,
and begin capturing data in minutes.

408 DSPi Overview

Each 408 DSPi supports up to 4 sampling cards
for up to 32 channels of data acquisition. The
408 DSPi base system uses internal clocks and
simulated speed/Keyphasor signals to support
both asynchronous and synchronous
sampling for all channels. Speed Input/Trigger
cards support up to 3 independent speed input
channels for external speed inputs. Each Speed
Input/Trigger card uses 1 available slot, and the
408 DSPi can use a maximum of 2 Speed
Input/Trigger cards simultaneously providing
up to 6 physical speed inputs and 6 simulated
speed inputs. The user can assign any speed
input (KPH) to any channel in a 408 DSPi. Most
signal processing and sampling parameters
can be changed “on-the-fly” without
interrupting data collection.

The 408 DSPi architecture provides flexible
hardware configuration. Users can insert
sampling cards into the chassis as required.
Slots 1 through 4 support all standard sampling

cards. Slot 5 is intended specifically for the
Digital Replay card as well as future option
cards.

The standard Dynamic Sampling and Speed
Input/Trigger cards provide full support for
structural analysis and impact testing. Data
can be analyzed natively or exported to 3rd
party applications if desired.

The 408 DSPi front panel controls and displays
basic functions and data. Users can directly
initiate manual samples and triggering from
the front panel without using ADRE Sxp
software. The front panel LEDs indicates
sampling and trigger status and activity. Users
can download multiple sampling
configurations to the 408 DSPi and later select
them for use from the front panel.

8-Channel Dynamic Sampling
Card (168905 – AA)

The 8-channel dynamic sampling card is an
extremely powerful and flexible signal
processing engine. Along with the analog
front-end conditioning, the user can configure
most transducer inputs, with positive or
negative bias, while maintaining maximum
signal input range. An array of DSP processors
and 24-bit ADCs provide maximum resolution.
Input signals can be either AC or DC coupled,
and users can independently define upper and
lower input voltage levels along with full-scale
range and transducer scale factor.

The sampling card can provide a variety of
data depending on the configuration and user
needs. Each channel can provide multiple
“static” variables including:

l Direct amplitude.
l Bandpass amplitude.
l 1X and 2X Amplitude and Phase, and up

to 4 additional user defined nX vectors
including amplitude and phase.

l Average & instantaneous gap or bias

voltages.
l Multiple speed values.
l Adate/time stamp.

2/33

ADRE Sxp and 408 DSPi
Datasheet 172179 Rev. AC

In addition to the static data, each channel can
provide up to 4 user-defined dynamic
waveforms. Users can configure waveforms for
simultaneous Synchronous and/or
Asynchronous sampling, with different
sampling rates and/or frequency spans. The
sampling card supports up to 2 different
synchronous sampling rates simultaneously.
Time-Synchronous Averaging can also be
enabled for all synchronous waveforms. In
addition, the card can also sample and store
the raw time-continuous data for each
channel. All channels within the system are
always sampled simultaneously, are
synchronized, and are initiated based on a set
of user defined events.

3-Ch Speed Input/Trigger Card
(168906 – AA)

The 3-channel speed input/trigger card
supports a variety of transducer inputs and
signal conditioning needs including; proximity,
magnetic, optical, and laser pickups.
Transducer power for both optical pickup and ±
24Vdc proximity is also available if needed. For
impact testing applications, the force hammer
output can be connected directly to this card
providing level triggering and full dynamic
waveform capture. The card integrates a rich
set of configurable analog signal conditioning
tools including: input gain, voltage clamping,
inversion, rising or falling edge trigger,
auto/manual threshold, and hysteresis. The
user can associate a programmable speed
input (Keyphasor) multiplier/divider for each
channel independently, define discrete values
for events per revolution, or, a final ratio,
whichever is more convenient. Each channel
can have up to three separate “stages” of
multiplier/divider ratios. Trigger/speed input
channels provide full dynamic sampling,
complete with static and waveform data,
available for real-time viewing and storage.

Each channel also includes a buffered output,
allowing the user to select either raw,
conditioned analog, or TTL outputs. The
buffered outputs are independent of the signal
being used for processing.



Digital Replay Card 
(168907 – AA – BB - CC)

The Digital Replay Card provides simultaneous
synchronous and asynchronous internal
digital reprocessing and playback of all
channels in the 408DSPi. The replay card
maintains exceptional accuracy and precision
in the signal reprocessing that far surpasses
the capabilities of other equipment and
reprocessing techniques. The digital replay
card can play back raw data for all channels
simultaneously including Keyphasor/speed
and dynamic sampler inputs. Users can modify
all sampling parameters on a KPH channel
when replayed, and fully manage and re­condition the gain, inversion, clamping, and
other characteristics of Keyphasor signals. This
provides the ability to control triggering edges
and thresholds as reprocessing and analysis
requires. On standard dynamic channels, users
can modify most sampling parameters. As an
example, users may add or modify waveform
assignments, variable generation, filtering
options, frequency span, and Keyphasor
assignments that did not exist in the original
configuration reprocessing the data.
Additionally, users may add or modify all
sampling criteria and triggering parameters.
Full scale range, coupling, and transducer type
cannot be altered for standard dynamic
channels. The Digital Replay card occupies Slot
#5 of the 408 DSPi and does not reduce the
number of channels available for data
collection.

With the addition of Analog Output Replay Card
the user may send up to 32 channels of
recorded signals through data ports to
auxiliary equipment. These signals are analog
recreations of the original data observed by
ADRE. The Replay Module can be ordered with or
without the Analog Output Replay Card.
Existing Replay Cards can be modified to
include the Analog Output feature by sending
the cards to Product Repair at Bently Nevada.





3/33

ADRE Sxp and 408 DSPi
Datasheet 172179 Rev. AC

Transducer Power Supply Card
(168908 – AA – BB)

The transducer power supply card provides
power for a wide variety of displacement,
velocity, acceleration including ICP accels, force
hammers, and other transducer types used in
field and test stand applications. This card can
simultaneously power up to 32 transducers in
various combinations, and provides direct
physical connections for up to 16 transducers,
eight ± 24 Vdc transducer systems and eight
constant current transducer systems. Field
connection cable and adapter accessories
accommodate additional transducer
connections.

In addition to ± 24 Vdc selections, the card
provides ± positive and negative bias selections
for constant current applications, all of which
can be used simultaneously, to provide a
highly flexible power source for most any need.
Users can configure transducer power bias in
blocks of four (4) directly from the card without
the need for special tools, jumpers, or software.

Networking Overview

The 408 DSPi is a secure network appliance that
supports DHCP or fixed IP addressing based on
your network environment needs. When
installed on a LAN/WAN in DHCP mode, the
DHCP server or router will assign an IP address
to the 408 DSPi. When the user makes a direct
connection between the 408 DSPi and client
computer in DHCP mode, an IP address will be
automatically assigned. The 408 DSPi also
supports fixed IP addressing. The user can
assign a fixed IP address on one Ethernet port
while simultaneously running DHCP on the
second Ethernet port. In some instances,
primarily when navigating corporate security
infrastructures, firewalls, or VPNs (Virtual Private
Networks), specific router configuration may be
necessary. Contact your local product support
representative for details specific to your needs.

Each output provides individual short-circuit
protection, current regulation, and indicators
for power status and voltage/current selection
(complete card status is provided within ADRE
Sxp client software). Also, this card can occupy
a dedicated option slot and leave all
transducer input slots available.

Field wiring cable accessories allow the user to
conveniently connect both power and signals
to the 408DSPi. These accessories support most
voltage and constant current transducer
applications without the need for additional
bulky equipment. Field wiring accessories and
cables must be ordered separately.

4/33

ADRE Sxp and 408 DSPi
Datasheet 172179 Rev. AC

Specifications

408 DSPi

Typical specifications are provided for
a temperature of +25 °C ± 3 °C (+77 °F
± 5.4 °F ) except where noted.

Data Storage
Capacity

Communication Dual 1000/100Mb RJ45

Internal Cloc Battery-Backed Real-Time

Signal Conditioning - General

Internal - 480GB or 960GB

Ethernet Ports
Protocol - TCP/IP
DHCP or Fixed IP addressing
LAN/WAN compatible

clock (RTC) accuracy is ± 2
seconds / month

DC

0.35 to 50 V
Configurable
Full Scale
Range

Status
Indication

Boot, Selftest, OK/Not OK,
Activity, A/D over range

Direct Measurement Accuracy

Filter values @ 0 db points unless
specified otherwise.

2

Dynamic Sampling Card Amplitude

vs. Frequency Cumulative Error

Non-RMS, Non-Integrated Amplitude

AC Coupled
–
Hi Mode

AC Coupled

- Low Mode

1.6 Hz to 50 kHz
± 1.25% of Full Scale Range

N/A

2

8 Channel Dynamic Sampling Card

Slot Position Slots 1 through 4

24 Bit A/D converters

Input Impedance

Single Ended 742kΩ

Differential 1.484 MΩ between sig+ and sig-

4-20 mA 511Ω

Inputs

Single-

8

ended

Differential 4

4-20 mA 8

Maximum

-25 to 25 V
Signal Input
Range:

AC

0.7 to 10 V
Configurable
Full Scale
Range

DC Coupled
–
Hi Mode

DC Coupled

- Low Mode

1 Hz to 50 kHz
± 1% of Full Scale Range

± .011V below 1 V pp

0.167 Hz to 20 kHz
± 1% of Full Scale Range


± .011V below 1 V pp

Non-Integrated, RMS Amplitude

Acceleration
AC/DC

10 Hz to 50 kHz

± 1% of Full Scale Range
Coupled Hi
Mode

Velocity

AC/DC
Coupled Hi

10 Hz to 50 kHz

± 1% of Full Scale Range
Mode

AC Coupled

N/A
Low Mode

Acceleration 3 Hz to 50 kHz

± 1% of Full Scale Range

2

2

2

2

2

5/33

ADRE Sxp and 408 DSPi
Datasheet 172179 Rev. AC

DC Coupled
Low Mode

Velocity DC
Coupled
Low Mode

3 Hz to 50 kHz
(-3db @ 3Hz )
± 1% of Full Scale Range

2

Non-RMS Integrated, RMS Integrated
Amplitude

Acceleration
AC Coupled

10 Hz to 20 kHz
± 1% of Full Scale Range

2

Hi Mode

Velocity AC
Coupled Hi

3 Hz to 20 kHz
± 1% of Full Scale Range

2

Mode

Direct Measurement Update Rates

Valid KPH or
Simulated

0 to Peak / Peak to Peak values
updated every 4 KPH periods.

KPH present

Invalid KPH
or No KPH
present

High Mode – 2 sec sliding
window
Low Mode – 12 sec sliding
window
100ms update rate

Integrated
Values

High Mode – 2 sec sliding
window
Low Mode – 2 sec sliding
window
100ms update rate

Bandpass Measurement Accuracy

Bandpass Filter Selections (Typical)

Butterworth 2 Pole ( -40 db/decade )

4 Pole ( -80 db/decade )
6 Pole ( -120 db/decade )
8 Pole ( -160 db/decade )

Range High Pass 1 Hz to 25.5kHz

Low Pass 10 Hz to 50kHz
Min separation between

HPF and LPF 2 Pole – 10.24 x HPF

4 Pole - 3.24 x HPF
6 Pole - 2.25 x HPF
8 Pole – 1.96 x HPF

Options HPF < 10 Hz ( 2 Pole )

HPF ≥ 10 Hz ( 2, 4, 6, 8 Pole)
LPF ≥ 10 Hz ( 2, 4, 6, 8 Pole)

-3db Corner
Frequencies

HPF & LPF - 1 Hz Increments,

-3db ± 5%

Bandpass Measurement Update Rates

Valid KPH or
Simulated KPH
present

Invalid KPH or

0 to Peak / Peak to Peak
values updated every 4 KPH
periods.

100ms update rate
No KPH
present

Integrated 2 sec sliding window

Non-

2 sec sliding window
Integrated

Filtered Measurements

Specifications are exclusive of filter
corner settings and transition regions.
Filter values specified @ -3 db points.

Non-RMS,
Non­Integrated
Amplitude

Non-RMS
Integrated,
RMS
Integrated
Amplitude

1 Hz to 50 kHz
± 1% of Full Scale Input

1 Hz to 20 kHz
± 1% of Full Scale Input

Filter
Bandwidth

Selectable

1.2 cpm, 12 cpm, 120 cpm

(0.02 Hz, 0.2 Hz, 2 Hz)

User enabled

2

Auto­switching
tracking filters

120 cpm < to > 12 cpm @ 600

rpm

12 cpm < to > 1.2 cpm @ 60

rpm
transition

2

Filter Settling
Time to 95 / 99
% of final value

6/33

120 cpm < 0.477 / .796 sec

12 cpm < 4.77 / 7.96 sec

1.2 cpm < 47.7 / 79.6 sec

ADRE Sxp and 408 DSPi
Datasheet 172179 Rev. AC

nX Amplitude
and Phase
Accuracy

nX Resolution
and Range

1 to 120k rpm
± 1% of Full Scale Range

2

± 3˚ of Input (Steady State)

0.01X Increments

0.01X to ((sample/rev)/2-1)X

Below Minimum Amplitude

DC Coupled ≤ 0.015 Vpp

AC Coupled ≤ 0.5% of full scale

Gap Voltage Measurements

Measurement
Ranges

0 V to 24 Vdc

-24 V to 0 Vdc

-12 to 12 Vdc

-24 to 24 Vdc
Upper and Lower voltage
range fully programmable
between -25 to 25 Vdc

Amplitude ± 0.17% of FSR @ -25 to 25 V

± 0.26% of FSR @ 0 to ± 25 V
± 0.26% of FSR @ -12.5 to 12.5 V
(FSR = Full Scale Range)

Resolution Measured 366.2 µV @ 24 V

FSR

Response to 95%/99% of Final Value

Instantaneous
Gap

0.95 / 1.59 sec.

-3db ± 5% @ 0.5 Hz

61.035 µV ( 1 to 5 Vdc )

Response to

0.95 / 1.59 sec.
95%/99% of
Final Value

Low-pass filter -3db ± 5% @ 0.5 Hz

4 – 20 mA Input

Input Range 0 - 41.6 mA max

Amplitude ±1% of Full Scale Input

Resolution 244 nA / bit

Response to

5.3 / 8.84 sec
95%/99% of
Final Value

Low-pass filter -3db ± 5% @.09 Hz

Dynamic
Waveform
Data

Filtering associated with
asynchronously sampled
dynamic waveform data
specific to anti-alias filters.
Synchronously sampled
waveform data is not anti­alias filtered.

Asynchronous
Sampling
Rates

128 to 128kHz ( 2.56 x
Frequency Span, 50, 100, 250,
500, 1k, 2.5k, 5k, 10k, 25k, 50k Hz
)

Anti-Alias -80 db Minimum

Average Gap 5.3 / 8.84 sec,

-3db ± 5% @ .09 Hz

Process Variable Measurements

Voltage Inputs 0 to 10 Vdc( Typical )

1 to 5 Vdc Typical )

Measurement
Range

-25 to 25 Vdc ( Upper and
Lower voltage range fully
programmable)

Amplitude ± 0.12% of FSR @ 25V

± 0.30% of FSR @ 10V
± 0.75% of FSR @ 1-5V
(FSR = Full Scale Range)

Resolution 152.588 µV ( 0 to 10 Vdc )

AC Coupled 1 Hz to 50 kHz

Amplitude ±1% of Full Scale Range

Phase ±3˚ of Input

DC Coupled DC Hz to 50 kHz

Amplitude ±1% of Full Scale Range

Phase ±3˚ of Input

Output Up to 4 simultaneous

asynchronous waveforms
per channel

Synchronous
Sampling

7/33

Samples/rev (16, 32, 64, 128,
256, 360, 512, 720, 1024, 2048)

2

2

ADRE Sxp and 408 DSPi
Datasheet 172179 Rev. AC

Rates Synch sample rate X rpm ≤

32 kHz

Hardware
Generated
Time
Synchronous
Averaging

DC Frequency
Support

Output Up to 2 simultaneous

Up to 2048 samples per
waveform, up to 512 Averages
i.e. (8 revs @ 256
samples/rev),
(4 revs @ 512 samples/rev)

937 rpm (15.62Hz) @ 2048x

1.87k rpm (31.25Hz) @ 1024x

2.66k rpm (44.4Hz) @ 720x

3.75k rpm (62.5Hz) @ 512x

5.3k rpm (88.8Hz) @ 360x

7.5k rpm (125Hz) @ 256x
15k rpm (250Hz) @ 128x
30k rpm (500Hz) @ 64x
60k rpm (1kHz) @ 32x
120k rpm (2kHz) @ 16x
(AC Frequency support from
1 Hz)

synchronous waveforms per
channel



Amplitude
error vs.
frequency

Phase error vs.
frequency

0 % from 0 to 10kHz
(± 4) % from 10kHz to 50kHz

(-0.5) to (-2.8) deg from 0 to
5kHz
(-2.8) to (-6.6) deg from 5kHz
to 10kHz

Frequency dependent
amplitude and phase
errors added to fixed
range specifications.

Keyphasor /Speed Measurements:

3 Channel Speed Input (KPH) / Trigger
Dynamic Sampling Card

Slot Position Slots 1 through 4

Accuracy 1 – 120k rpm, (+/- 0.00915)%

of Period Input, (+/- 11) rpm
@ 120k rpm Input

Hardware Generated Spectra

Spectral Lines 6400, 3200, 1600, 800, 400, 200,

100 lines, selectable. One
asynchronous spectrum per
channel.
Windowing provided on
spectrum up to 800 lines,
Rectangular, Hanning, Flat­Top, Exponential

Free Running
Spectrum

Zoom
Spectrum

Center
Frequency

Zoom Factors 2, 5, 10, 20, 50

Spectral Lines 100, 200, 400, 800

2Dynamic Sampling Card Amplitude
vs. Frequency Cumulative Error

1 per channel

1 asynchronous spectrum
per channel.

Configurable in 1 Hz
increments

Simulated
Keyphasor
Accuracy

Inputs

Total Inputs 3 speed inputs per card

Supported
Transducers

Proximity inputs

Input Range -25 to +25 Vdc

Coupling AC or DC

1 – 120k rpm (+/- 0.02) % of
Period Input

Keyphasor card not
required to provide
simulated
Keyphasor (up to 6
simulated
Keyphasors)

(single ended), maximum 2
cards per system.

Proximity, magnetic, or
optical transducers. One
“powered” optical input
(Channel 3 only)

8/33

ADRE Sxp and 408 DSPi
Datasheet 172179 Rev. AC

Input

128.9 kΩ

Impedance

Buffered
Transducer

3 channels, user selectable
output

Outputs

Output Types Raw, Analog Conditioned,

TTL
± 22V output maximum
20 µS min duty cycle for TTL
output

Output

330Ω

Impedance

Output Drive

6100 pf (min)

Capacitance

Load Resistance ≥ 10k Ω

Output

Short circuit protected

Protection

Raw Outputs Amplitude and Delay

AC Error -0.91% to 0.42%

DC Error ± 60 mV

Signal Delay 0.66 µS (0.48 deg @ 2kHz)

Conditioned Outputs Amplitude and Delay

AC Error -1.05% to 0.39%

DC Error - 0.35 V to +60 mV

Direct
Measurement

Filter values specified @ 0
db points

(KPH) Accuracy

Non-RMS, Non -Integrated Amplitude

AC Coupled ­High Mode

AC Coupled -

1.6 Hz to 20 kHz
± 1.25% of Full Scale Range

N/A

Low Mode

DC Coupled ­High Mode

1 Hz to 20 kHz
± 1% of Full Scale Range3±
.011V below 1 V pp

DC Coupled ­Low Mode

0.167 Hz to 20 kHz
± 1% of Full Scale Range3±
.011V below 1 V pp

Bandpass
Measurement
(KPH) Accuracy

Specifications are exclusive
of filter corner settings and
transition regions. Filter
values for bandpass
specified @ -3 db points

Non-RMS, Non ­Integrated

1 Hz to 20 kHz
± 1% of Full Scale Range

Amplitude

Gap Voltage (KPH) Measurements

Measurement
Range

0 to 25 Vdc

-25 to 0 Vdc

-12.5 to 12.5 Vdc

-25 to 25 Vdc

3

3

Signal Delay 2.0 µS ( 4.0 µS Optical )

(1.4/2.8 deg @ 2kHz)

Transducer
Power

-24 Vdc, 57.6 mA max (-

22.77 Vdc max, -24.48 Vdc
min)

+24 Vdc, 29 mA max
(+24.48Vdc max, +23.13Vdc
min)

+5 Vdc, 250 mA max (+5.2
Vdc max, +4.25 Vdc min,
optical transducer power,
Channel 3 only)

Amplitude ± 0.20% of FSR @ -25 to 25 V

± 0.28% of FSR @ 0 to ± 25 V
± 0.28% of FSR @ -12.5 to 12.5
V
(FSR = Full Scale Range)

Resolution Measured 381.47 µV @ 25 V

range

Response to 95%/99% of Final Value

Instantaneous
Gap

0.95 / 1.59 sec.

-3db ± 5% @ 0.5 Hz

Average Gap 5.3 / 8.84 sec,

-3db ± 5% @ .09 Hz

9/33

ADRE Sxp and 408 DSPi
Datasheet 172179 Rev. AC

Status
Types

Boot Status
Self-test
Over/Under Speed
Activity
Edge Pulse

Detection Error detection indicated if

change in rotative speed
between consecutive
Keyphasor pulses is greater
than 25%, or shaft rotative
speed is less than 1 rpm, or
greater than 120k rpm

Keyphasor
Index

While the shaft is stopped,
the Keyphasor Index is used
to assist with positioning a
shaft relative to a reference
position. Manual threshold
must be selected for speeds
below 1 rpm.

Triggering Automatic or Manual Mode

Selectable, positive or
negative edge of signal
input.

Duty Cycle

Maximum
Trigger Error
with Sine Wave
Input

Input Multiplier /
Divider

3

Speed Input KPH Card Amplitude

vs. Frequency Cumulative Error:



Amplitude error
vs. frequency

Input ≤ 1kHz: < 0.5 deg,
1kHz – 20 kHz: < 1 deg

3 stages per input channel,
8 digits pre decimal, 12 digits
post decimal per stage,
configurable ratio or real
number in software.

Frequency
dependent
amplitude and
phase errors added
to fixed range
specifications.

+ 1% to (-1.5) % from 0.1Hz to
20kHz

Speed/Dynamic
Frequency

DC Coupled: DC to 20kHz
AC Coupled: 1Hz to 20kHz

Range

Auto
Threshold

1 rpm – 120k rpm (0.0167 Hz –
2kHz), min voltage required
at low freq

Manual
Threshold

1 rpm to 120k rpm (0.0167 Hz
to 2kHz) -25 Vdc to 25 Vdc,

0.10 Vdc increments

Input Clamping -25 to 25 Vdc, 0.01 V

increments, positive and
negative

Waveform

Inverting or non-inverting

Transformation

Hysteresis 0.2 to 2.0 V, 0.2 V increments

0.2 to 1.0 V, 0.2 V increments
(Optical )

AC Gain 1, 2, 5, 10

Minimum Input 1 μS pulse

Phase error vs.
frequency

(-1.5) to (-2.5) deg from 0 to
2kHz
(-2.5) to (-12) deg from 2kHz
to 10kHz

Data Collection Trigger/Event

Triggers

Amplitude Any variable, “or”, per

channel. (amplitude, phase,
nX, Direct, Bandpass, Gap,
Process Variable)

Rpm Upper and lower level, per

speed input

Time User-programmable,

recurring, scheduled

External
Contact

High or low voltage input ,
“normally open”, “normally
closed” logic selectable in
software

High Voltage 90 V to 240 V (AC or DC)

10/33