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to System 10
GENERAL
PAGE
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System 10 . . .
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. . in the factory
A
major manufacturer of automobile parts uses System 10 to perform 100%
audit of parts, with automatic rejection of nonconforming parts right off
the line. The long-term cost-effectiveness of such systems allows
many companies to install multiple test stations throughout their plants. |

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A
system for high-speed multispindle torque monitoring reduces production
costs and improves productivity for a major transmission manufacturer. |
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This
system of eight "satellite" System 10 mainframes linked to a
central "host" mainframe monitors and controls a group of large
turbo air compressors that are used to simulate flight conditions for jet
engine testing (pressures must be developed to simulate air speeds of over
200 MPH). Over 400 transducer signals are received, including
displacement, force, flow, torque, and temperature. The System 10
network interacts with a computer and PLC to generate all control signals
necessary to maintain safe and effective compressor operation. |
Photo
courtesy General Electric Co. |
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. . in the air
Jet
engine performance is carefully monitored by this airborne System
10.
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. . in the lab
A
well-known racing team gathers and displays data during wind-tunnel
experiments, in an effort to optimize aerodynamic response and other
important race-car characteristics. |

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. . on the road
A
manufacturer of automobile brakes uses an on-board DC-powered mainframe to
make sure that brake systems comply with Federal Motor Vehicle Safety
Standards.
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. . and even
on the track
The
above-mentioned racing team gives System 10 its toughest test by mounting
a Model 10KU in the race car itself,
to provide continuous monitoring of critical structural and performance
variables while the car is racing. |

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A
few highly successful System 10 applications are depicted below. For a
list of some additional typical applications, click
here.
Click
on the respective
arrow to go to the application of interest.
Note that most of the
typical applications listed for 3000 Series,
3500 Series, and 4000
Series instruments are equally suited for System 10, especially
when you require a larger number of data points, mixed sensor inputs, and
greater overall functionality (cross-channel computations, archiving,
large-scale display, extensive data communications, etc.).
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Monitoring
the Performance of a Carpet Shearing Blade
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Measuring
Tire Contact Pressure and Slip
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Real-Time
Process Control
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Integrated
Pump Testing System
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Aerospace
Strength and Durability Testing
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Bearing
Test Stand
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Life-Cycle
Testing of Pressure Switches
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Suspension
Testing
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View
/ download
System 10 Technical Application Notes

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Monitoring
the Performance of a Carpet Shearing Blade [Back
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Using
a Model 10K4TD mainframe (an earlier LCD version of the present Model
10K4T-DA) to receive input from a pair of high-resolution laser
displacement sensors, this system continuously displays and controls the
amount of carpet material removed by a shearing machine. Providing
immediate feedback and alarming, it automatically alerts the operator when
the blade becomes worn or damaged. For full details, see Daytronic Application
Note No. 10K/4K.1.1.
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Measuring
Tire Contact Pressure and Slip [Back
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This
system uses a Model 10KN9 to
accurately measure the local triaxial contact pressure and tangential slip
in the contact patch of a tire. Because of the stability of
temperature-compensated high-frequency pressure and slip sensors, the system
can be used at realistic vehicle speeds. Or it may be used at slow
speeds for detailed study of the causes of uneven tread wear. An
optional History Card can be
installed if local storage of data records is required, with real-time SPC
made possible by the Model 10BSPCA History
SPC Option Card. For full details (with reference to the older
Model 10KN7), see Daytronic Application
Note No. 10K.3.1.
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Real-Time
Process Control [Back
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The above figure is a generalized block diagram for a Model
10KN6 system that enables enhanced operator process control, while
providing real-time control charting of critical process variables, along
with the ability to build a historical database
for troubleshooting quality concerns after the fact and for identifying
long-term process trends. For full details, see Daytronic Application
Note No. 10K.2.1.
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Integrated
Pump Testing System [Back
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(click on
image to enlarge)
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The
above block diagram represents a large System 10 "satellite"
network for monitoring the performance of standard and
custom-designed positive displacement pumps at a hydraulics lab
facility. All test data is acquired with minimal time skew.
Local nodes are responsible for monitoring all data for limit violations and
controlling the precise test sequence at each stand. Providing
both local and central display of all measured and calculated parameters,
the system consists of (1) nine independent Model 10K4TD data-collection
"satellites" (earlier LCD versions of the present Model
10K4T-DA), each dedicated to a given test stand; (2) a Model 10K2C
"satellite" (an earlier LCD version of the present Model
10K2D) dedicated to the power control center for all test-stand
motors; (3) a "host" Model 10KN3
containing an IEEE-488 Auxiliary Interface
Card, to accumulate all network data and transfer it at high speed
to the lab's central PC; (4) System 10-interactive third-party Graphic User
Interface (GUI) software resident in the central PC for graphic
presentation, archiving, analysis, and reporting of all network data; and
(5) a Programmable Logic Controller for sequencing the test process at each
individual stand. For
full details, see Daytronic Application
Note No. 10K.1.1.
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Aerospace
Strength and Durability Testing [Back
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(click on
image to enlarge)
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In
this extensive system for aerospace structural testing, multiple Model
10KN6-4 mainframes are linked via RS422 interface to a Model
10K488 Data Concentrator, which is in turn linked to the host
computer via IEEE-488 bus. The entire system can handle as many as
4864 separate strain-gage input channels, acquiring test data at high speed
with virtually no channel-to-channel time skew (a condition that is
absolutely essential for the integrity of such large data sets). For
full details, see Daytronic Application
Note No. 10K.4.1.
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Bearing
Test Stand [Back
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This
system involves precise feedback loops for sequential actuation of the
pneumatic cylinder that houses the bearing under test, and for continuous
control of flywheel rotation.
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Life-Cycle
Testing of Pressure Switches [Back
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This
system monitors the long-term performance of fluid pressure switches in a
special environmental chamber, using a Model
10A60-4 Quad Voltage Conditioner Card and the analog track/hold
function of multiple specially modified Model
10A79-4 cards for real-time capture of switch "make" and
"break" pressures. The peak capture cards
operate in a strictly event-controlled mode. The graphs show the
behavior of the peak cards' "B" and "A" outputs,
respectively, where time "t1" is the moment at which the switch
closes and "t2" is the moment the switch opens. For
full details, see Daytronic Application
Note No. 10K.5.1.
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Suspension
Testing [Back
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This
system monitors dynamic stresses in a single-wheel suspension.
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