Moore Industries IPT Installation Manual

Page 1
April 2016
170-701-00 F
Current to Pressure
IPT
Current to Pressure
Transmitter
IPT
All product names are registered trademarks of their respective companies.
Page 2

Table of Contents

Introduction 1
Description 1
Instrument Air and Filtration Information 3
Application Information 5
Calibration 7
Installation 11
Theory of Operation 12
Maintenance 14
Troubleshooting 16
Drawings 16
i
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IPT

Introduction

This manual contains calibration and installation information for the Moore Industries' Current-to­Pressure Transmitter (IPT). Along with a description of the IPT, this manual contains information regarding instrument air, filtration, applications and recommendations. Related tables and illustrations are provided for reference purposes.
This manual contains notes and cautions that must be observed to prevent equipment damage or minor inconveniences during calibration or installation of the IPT. The following definitions describe these cap­tions:
A
NOTE
shall contain technical or literary information of a helpful nature. This information is intended to aid the reader's understanding of the subject being discussed and/or minimize inconveniences while performing technical tasks.
A
CAUTION
serious nature that if ignored may cause equipment damage.
shall contain technical information of a

Description

Individual IPTs consist of two parts: the transmitter section and an interlocking pneumatic mounting block, which snaps onto a rail. Units that are ordered without a mounting block will clip onto an RIR or SIR (rack or surface mounted header), which supplies air to each unit using only one pneumatic supply pipe. Both mounting blocks and supply headers contain self-sealing valves. Therefore, the IPT can be removed and replaced without disturbing the pneu­matic connections or causing accidental venting of the supply or output air.
Operation can be montiored or calibration performed by using the electrical input and optional pneumatic output test jacks. A red LED display, which indicates the presence of an electrical input signal, is also provided.
Table 1 contains the IPT equipment specifications, including inputs, outputs, power requirements, and performance characteristics.
Model Number. The IPT model number describes
the equipment type, functional characteristics, operat­ing parameters, any options ordered, and housing. If all other documentation is missing, this number is used to identify equipment characteristics. The model number for the IPT is located on a label on the side of the unit.
The IPT is a compact 2-wire current-to-pressure transmitter that converts a standard process current signal to a pneumatic output. In its compact alumi­num housing, the IPT snaps onto standard mounting rails or optionally onto a header (RIR or SIR). Be­cause of the extremely low dynamic mass of the transducer element, the unit can be mounted in any position and it is also very insensitive to shock and vibration.
Serial Number. Moore Industries maintains a
complete history on every unit it sells and services. This information is keyed to the serial number. When service information is required on the IPT, it is necessary to provide the factory with this number. The serial number is located near the model number.
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IPT
Characteristic Specification
Performance Accuracy: Less than 0.5% of span including the combined effects of
Table 1. IPT Equipment Specifications
Input Current: 4-20mA or 10-50mA Output Pressure: 0.2-1 BAR, 1-0.2 BAR, 3-15 psig, 3-27 psig,
15-3 psig, 20-100 kPa, or 100-20 kPa
Zero: Adjusts zero to ±3% of span Span: For 20mA input, adjusts 3-15 psig output to 15 psig ±1%
linearity, hysteresis and repeatability -- defined as independent linearity per SAMA standard PMC 20.1 - 1973. (For 3-27 psig or 10-50 mA, error not to exceed 1% of span).
Step Response: 0.3 seconds into 100 ml (6 cu. in.) at 90% of span Supply Pressure Effect: Maximum 0.3% / 1.4 psig (0.3% / 0.1 Bar) Mounting Position Effect: Negligible, unit can be mounted in any position
but should be calibrated in final orientation Shock and Vibration Effect: Less than 0.5% for acceleration up to 10 g's and frequency up to 80 Hz
RFI Effect: Negligible Air Capacity: 1.6 SCFM, minimum Air Supply: Instrument air only, filtered and regulated, 20 psig nominal,
30 psig without damage. For 3-27 psig output, 35 psig nominal, 40 psig without damage. Air Consumption: Dead ended 0.1 SCFM (0.18 kg/hr)
Front Panel LED: Red light emitting diode indicates presence of electrical input signal
Zero and Span: Multiturn potentiometers +T, -T: Electrical test jacks for calibration; accepts 2mm (0.080 in) dia. x 12.7mm
(0.50 in) long phone tip plugs (handles should be less than 8mm or 0.32 in. in diameter
Operating Range: Temperature Effect: Less than 0.055%/°F (0.1%/°C)
Weight 20 oz. (0.57 grams)
Note: See Installation Section for physical dimensions.
–40°C to +85°C (–40°F to +185°F).
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IPT

Instrument Air and Filtration Information

NOTE
For optimum performance, the selection and
use of a good quality air filtration system is
essential. Most users find that it is much less
expensive and troublesome to design a system
that includes good air filtration than deal with
downtime and repairs later.
To assure the maximum service life of an IPT, two things are important: a clean, dry air supply and a closed-loop application. Good air quality involves removing solids, oil and water from the air after compression. The cleaner the air, the longer the time before servicing is needed.
Oversizing elements avoids performance abberations and reduces maintenance time. Redundancy should be used where possible to avoid shutdown during maintenance.
Solids: Random solid dirt, such as pipe scale and
rust, is rarely a problem in compressed air instrument systems. A good filter removes these solids. How­ever, if there is a desiccant dryer in the line, a high­efficiency sub-micron filter is recommended to remove the highly abrasive sub-micron particles produced by the dryer. A high-efficiency filter is desirable in any system, and is often a feature of coalescing-type filters.
Liquid Oil: Liquid oil is the most common problem in
compressed air instrument systems. A coalescing filter removes sub-micron liquid droplets from the air, and is usually supplied with an automatic drain.
A coalescing filter works by trapping oil and water droplets in a bed of microfibers. The droplets run together at fiber cross-over points, form large liquid drops, and are forced by air flow to a drain. A filter system consisting of a general purpose first-stage filter (about 5 micron) and a high-efficiency coalesc­ing final filter is recommended to obtain contaminant­free air.
The exact location of the first-stage filter is not important; it can be located just ahead of each final filter, or a single first-stage filter can be located on a main line to protect a number of final filters on branch lines. Each final filter (coalescing) should be located just ahead of each pressure regulator. In a new plant installation, an oilless compressor may be used to eliminate this problem.
Water: The amount of water in an air system de-
pends on temperature, pressure and the relative humidity of the air. Therefore, this amount varies widely with geographical location and weather.
Sufficient water must be removed to lower the dew point of the air to a temperature below ambient. The dew point (at line pressure) is expressed as the temperature at which any moisture in the system begins to condense.
Water may be removed using a number of tech­niques, including coalescing filters, refrigeration dryers and desiccant dryers. In addition, a variety of combinations and modular systems may be used for special circumstances.
Care must be taken in the selection and location of the filter, because cooling downstream of the filter can cause more condensation of water. A coalescing filter should be installed immediately upstream of the pressure regulator. This type of filter removes most of the water before the air enters the regulator. Air leaving the regulator continues to dry due to the expansion of the air.
For systems subjected to freezing temperatures, the portion of the system that runs outdoors should have a dryer installed. The dryer reduces the dew point below the lowest expected outdoor temperature. A desiccant dryer is used with a coalescing filter up­stream to keep the desiccant dryer from being damaged by oil or being overloaded with excessive condensed water. Another high-efficiency coalescing filter is recommended downstream of the dryer, to remove the desiccant fines.
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IPT
ISA Specifications: The Instrument Society of
America standard ISA-S73, 1975 (ANSI MC11.1-
1975) covers the air quality requirements for instru­ment grade air for use in pneumatic installations.
The dew point in outdoor installations must be at least
7.8°C (18°F) below the minimum local ambient temperature. For indoor installations, the dew point must be at least 7.8°C (18°F) below the minimum interior temperature or 2°C (35°F), whichever is greater. Although the ISA standard calls for a 35°F dew point, this is often unnecessary indoors, and may be unsatisfactory outdoors under freezing conditions.
Table 2. Recommended Filters for the IPT Air Supply
5 MICRON GENERAL PURPOSE PRE-FILTERS*
Max. No. MII Part No. Port Size Max. Flow of IPTs Female NPT @ 100 PSIG
Filters that exceed the ISA specification provide very inexpensive protection. Although the ISA specifica­tion calls for particle size not to exceed 3 microns and oil content not to exceed 1ppm, most filter manufacturers supply a line of coalescing filters that remove particles down to sub-micron sizes (often
0.01 micron) while also removing oil to below ISA 1ppm specification (often to 0.01ppm).
2 800-802-42** 1/4 18 7 800-803-42 3/8 50 17 800-804-42 1/2 50 30 800-805-42 1/2 150
0.01 MICRON COALESCING FINAL FILTERS*
2 800-806-42** 1/4 4 7 800-807-42 3/8 15 17 800-808-42 1/2 35 30 800-809-42 1/2 60 62 800-810-42 1 125
* All filters are based on maximum (full) air flow from the IPT. ** These filters do not have sight glasses on the bowls.
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IPT

Application Information

The IPT properly. In a closed loop, it is possible to measure the controlled variable, to determine if a deviation from the desired value exists, and to automatically provide feedback for actuator loading pressure.
The IPT cannot operate in an open loop. An open loop has inherent limitations that are not consistent with precise control, such as: long term drift of the loop dynamics, load fluctuations that require constant adjustments of the actuator loading pressure, and quality variations because of inconsistencies between operating personnel. A controlled variable cannot be directly measured in an open loop; this prevents compensating adjustments to the system input. If an IPT is installed in an open loop, it appears to drift due to the lack of corrective feedback.

Recommendations

Any approach to providing good instrument air quality should evaluate the worst case air flow and ambient temperature of the location. This is required to determine sizing of the air system elements. A knowledge of yearly humidity cycles is also important for this evaluation.
must be
installed in a closed loop to operate
The IPT requires periodic maintenance. The fre­quency of the service depends on the environment in which the unit operates and the quality of the instru­ment air supplied. Service in the field is limited to visual inspection and cleaning of the input nozzle filter screen on the IPT and servicing of the compressed instrument air filtration system. The unit may be returned to the factory for complete disassembly, cleaning, and servicing on a periodic basis.
The use of coalescing filters with retention of 0.01 micron particles and droplets is recommended; they remove all undesirable traces of oil and water drop­lets. Proper placement with respect to the regulator(s) may eliminate the need for dryers, except when coalescing filters are exposed to freezing (keeping in mind that the dew point of the purified air must be kept below worst case ambient).
Figures 1 and 2 illustrate typical non-redundant systems with multiple branch lines. They both work in any environment above freezing and differ only in the placement of the general purpose first-stage filter. Gages, valves, and differential pressure indicators (for filter service monitoring) are not shown. It is recommended that filters with integral service life indicators or differential pressure indicators be used to help ensure proper servicing, as well as redun­dancy to avoid shutdown during servicing.
CAUTION
Before placing IPTs in service, all pneu-
matic lines and mounting blocks or headers
(SIRs or RIRs) should be "blown down" to
purge contamination and condensation
deposited during piping and installation.
Also blow down lines to loads, since all
output air vents back through the IPT, and
there are never filters installed to trap these
contaminants (normally only present at start-up). It is recommend this be done for at least an hour, longer if there is evidence
of water or oil coming through.
Figures 1 and 2 differ in the method used to remove water. The use of a desiccant type dryer (figure 2) requires upstream filtration to prevent oil contamina­tion of the dessicant, as well as downstream filtration, to prevent desiccant fines from introducing new contamination.
The service life of an IPT is directly proportional to the cleanliness and dryness of its air supply. The small additional cost of providing high-qulaity air ensures a longer, more trouble-free service life for the unit.
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IPT

Calibration

This section provides information necessary to adjust and calibrate the IPT. Each unit is calibrated and checked at the factory prior to shipment. Before installation, every IPT should be checked by the user for proper operation. Generally, these checks, which are specified under Calibration Procedures, require little or no adjustment.

Adjustments

The IPT has Zero and Span adjustments located on the front panel of the unit. They are represented symbolically on the front panel by the following markings:
represents Zero
represents Span
The type of potentiometer used with these adjust­ments usually require 22 turns of the shaft to move the wiper from one end of its range to the other. It is equipped with a slip clutch at each end to prevent damage if the adjustment is turned beyond the wiper stop. Usually a slight change can be felt when the clutch is at the end of a range (i.e., it is slipping). However, if this change is not felt, either end can be reached by turning the shaft 22 turns in the desired direction. Turning these potentiometers clockwise causes the related output to increase in quantity or become more positive; while turning them counter­clockwise causes the related output to decrease in quantity or become more negative.
The Span potentiometer provides an adjustment range of ±1 percent of full scale.
The Zero adjustment consists of a conical-tipped machine screw that displaces a torque arm on the flapper pivot. This controls the gap between the flapper and the nozzle to establish the zero-air bleed rate. The adjustment screw provides a control range of ±3 percent of full scale.
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IPT

Calibration Equipment

Table 3 lists the equipment required to calibrate the IPT. This equipment is not supplied with the unit and must be provided by the user.
Table 3. Calibration Equipment
Equipment Characteristics Purpose
Adjustable current source 0-50mA output Simulate input signal
Dc milliammeter Accurate to ±0.05% Measure input signal
Instrument air supply Filtered Air supply
Air pressure gauge Accurate to ±2% Measure air supply pressure
Air pressure gauge Accurate to ±0.1% Measure output pressure
Phone tip probes (2) Must have 2,03mm (.080 in.) Easy access to input
diameter tips, .5 inch long signal (optional)
Pneumatic test coupler For IPTs with optional test Easy monitoring of output MII P/N 163-202-00 jacks pressure (optional)
Pneumatic load Volume of 7.5 cubic inches Provide standard load for
(approx. 120 milliliters) test purposes (per IEC
specification #770)
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IPT

Calibration Setup

Figure 3 is an illustration of a typical calibration setup, including optional equipment. To check or calibrate the IPT, connect the unit as shown in this illustration. Refer to Calibration Procedures.

Calibration Procedure

There are two options shown in figure 3 for monitoring the output of the IPT. The input current may be measured by placing a milliammeter in series with the input terminals as indicated by M1 or connected across the electrical test jacks (+T and -T) as indi­cated by M2.
CAUTION
When measuring the input current using the
electrical test jacks, the milliammeter used
must have an internal impedance of less than
10ý. Even with 10ý internal impedance, the
readings can have a variation of as much as
±.02% of full scale.
1. For zero adjustment, connect an adjustable current source to the electrical input terminal block. Set the current input signal to zero percent (e.g., 4mA for a 3-15 psig unit, 20mA for a 15-3 psig unit or 10mA for 3-15 psig unit with 10-50mA input).
NOTE
Observe that the red LED indicator on the
front panel is illuminated at 4mA input
current and glows somewhat brighter with
increasing current.
2. Using an air pressure gauge to measure the input air supply pressure, connect a filtered air supply to the pneumatic supply port located on the bottom or rear of the unit.
CAUTION
Coupler must be kept lubricated to prevent
damage to O-rings in test jacks. Teflon lubri-
cant is recommended. If grease is used, keep
out of air passage.
If the unit is not supplied with the output test jacks, use an air pressure gauge to measure the output air supply pressure (e.g., read 3 psig for a 3-15 psig unit or 15 psig for a 15-3 psig unit).
CAUTION
To avoid damaging their housings, use a
screwdriver with a head no wider than
0.1 inch (2.54mm) to adjust the Zero-
adjustment screw and Span potentiometer.
CAUTION
The Zero-adjustment screw must not be
backed out to the point where the slotted head
presses against the underside of the front
panel. It can put an excessive stress on the
transducer frame and may disengage the
screw from the flapper tension arm. If this
happens, the IPT must be returned to the
factory for realignment.
4. Any deviation in the output pressure can be corrected by using the Zero-adjustment screw in a range of ±3 percent.
5. For the Span adjustment, increase the input signal to 100 percent (20mA or 50mA).
6. Any deviation in the output pressure (e.g., 15 psig for a 3-15 psig unit or 3 psig for a 15-3 psig unit), can be corrected by the Span potentiometer over the range of ±1 percent.
7. Repeat steps 1 through 6 (as applicable) until no further adjustments are required.
3. If the unit is supplied with the optional front­access pneumatic-output test jack, insert the pneumatic coupler into the receptacle. This avoids having to disturb any operating connec­tions or fittings.
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IPT

Installation

Installation of the IPT is divided into three phases: mounting, electrical connections, and pneumatic connections. In most cases, it is easier to mount the IPT before completing the electrical and pneumatic connections.

Mounting

Individual IPTs consist of two parts: the transmitter and the mounting block. Units without a mounting block snap onto a header. IPTs with a mounting block are rail mounted. When mounting the IPT, ensure that the unit is mounted in an area free of dust, moisture, and corrosive elements. Figure 4 shows the mounting dimensions for both mounting styles.
CAUTION
It is recommended that mounting blocks and
headers be purged of any debris prior to
mounting the IPT. Insert a small diameter,
blunt tip probe into the fitting and unseat the
ball-check valves for a few minutes with the
filtered instrument air supply in operation.
Rack- or surface-mounted IPTs should be ordered with a Moore Industries' rack-mounted header (RIR) or a surface-mounted header (SIR). This eliminates the need for an interlocking mounting block and rail. 5, 10 or 15 units can be snapped onto one header, allowing multiple units to receive supply air from one supply pipe. To mount an IPT onto a header, push the unit into place until the retaining lever snaps up flush beneath the handle. To remove an IPT, press down on the retaining lever and lift the unit out by the handle.
NOTE
Check valves in the headers prevent the loss of supply or output air during mounting or removal
of IPTs.
Rail-mounted IPTs must use a pneumatic mounting block. Pneumatic mounting blocks are 1.39 inches wide. Using a 0.17 inch wide gage between blocks provides a uniform spacing in a minimum rail length.

Electrical Connections

There are two terminals on the IPT for connecting input current. The connections can be front access or rear access.
Both the front and rear access electrical terminals are compression screw sockets that accept 22 to 14 AWG hookup wire. To complete these connections, use a slotted screwdriver with a head approximately
0.125 inch (3mm) in width to secure the wire leads to the IPT. The screws tighten down, which provides electrical contact between the wire and the terminal. Loosen each screw prior to inserting the wire being terminated. Strip and then tin the end of each wire with 60/40 solder. Then, while holding the uninsu­lated end of the wire in place, tighten the screw of the corresponding terminal.
The Removable Terminal Block (RTB) option adds a 2-piece wire connector to the IPT. This alows the input wiring to be unplugged without the use of tools, while maintaining polarity. The plug has screw-clamp connections and accepts 22 to 14 AWG wire. The wire should be stripped 0.5 inch (12.7mm).

Pneumatic Connections

Supply air must be clean, dry instrument air. It is recommended that all particles larger than 1 micron be removed. Use of 1/4 inch tubing allows sufficient air for one unit. When using RIR or SIR headers, up to 30 IPTs may be run from a 3/4 inch NPT pipe without degrading performance, provided the air supply pressure is sufficient. Output tubing should be 1/4 inch, though larger tubing may be desirable for exceptionally long runs. Purge the output tubing and the controlled device before connecting to the IPT or RIR/SIR.
CAUTION
Output air cycles back through the IPT.
Contamination in the output line or
controlled device may easily enter and
damage the IPT.
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IPT

Maintenance

Because instrument air continuously flows through IPT passageways, the air lines must be kept clean. Depending on the purity of the air supply, the filter and two internal orifices of the IPT assembly must be cleaned at regular intervals to maintain specified performance. The two orifices should be cleaned at least once a year. Initial random checks can help establish a satisfactory maintenance interval geared to the user's air supply purity.
The supply air filter screen should be removed and flushed with trichloroethance (TCE) and then air dried before replacement.
1. Remove the IPT from the mounting block by pressing down on the locking lever and pulling straight out to disengage the pneumatic fittings.
2. To remove the supply air filter screen, first slide the nozzle retainer clip to the right and then pull the nozzle out of the main body.
3. Remove the filter screen and flush with TCE and air dry before reinstalling.
4. Slide the nozzle back into the main body.
3. Without pulling the wires loose on the printed circuit board attached to the front panel, slide out the front panel.
4. Remove the screw on the bottom of the front panel to free the printed circuit board.
5. Insert a blade screwdriver between the rear panel and the IPT. Separate the rear panel from the IPT.
6. Squeeze and slide back the clamp from the tubing barb and pull the tubing from the tubing barb (only on units with optional test jacks).
To access the orifices in the IPT, remove the bottom mounting screw and the two screws at the rear of the unit. The orifices are located in the subassembly. See figure 6.
CAUTION
Use care not to damage the rubber
gaskets between the subassemblies.
Clean the orifices with a 0.004 - 0.005 inch diameter steel wire. Push the wire through the hole. Refer to figure 7 for orifice locations.
To clean its orifices, the IPT assembly must be removed from the extruded aluminum case. To remove the assembly, proceed as follows:
1. Remove the 6 screws securing the right side cover and remove the cover.
2. Remove the bottom 4 screws securing the left side cover and remove the cover. Turn the unit over. The test point connector and the test point jack are now free.
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IPT
Troubleshooting
Many components of the IPT have been thermally aged, tested, and selected using a computer-aided design program. This usually makes field repair unnecessary. It is therefore recommended that any unit found to be performing below specifications be returned to the factory in accordance with the instruc­tions found on the back cover of this manual.
If a problem is suspected with the IPT, review the following steps:
1. Make sure that all connections are clean and tight.
2. Verify that bench instruments used to take measurements have the proper range and accuracy and are currently certified.
3. Check that the bleed-air port (located in a slot on the left side panel) is not restricted.
4. Using a test jumper, connect one end to the metal case and the other end to an "IN" terminal while observing the output pressure. The output pressure should not change.
5. If a change in the relationship between the input and the output occurs, try to correct it by readjust­ing the Zero and Span controls.
6. If the response time lengthens or if the span drops, this may indicate a blockage due to air supply contamination. Clean the orifices and the supply air filter as described in the Maintenance section.
Drawings
The current revision of the IPT schematic is shown in figure 8.
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Page S-1
P/N 170-730-01 A
This supplement contains information about the IPT with the -EPS option. If your unit does not have this option, please disregard this supplement.
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Supplement
The specifications and ordering information for the IPT with the -EPS option are shown below.
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Figure 1. IPT Step Response
17
15
13
11
PSIG
9
7
5
3
50 100 150 200 250 300 350
0
MILLISECONDS
Specifications subject to change
Figure 2. IPT Air Capacity
4
3
AIR CAPACITY
(SCFM)
2
1
4 8 12 16 20 24 28 32 36
15 PSIG
7 PSIG
OUTPUT AT 100%
(PSIG)
The Interface Solution Experts
30 PSIG
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IPT
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:yficeps,gniredronehW ]gnisuoH[noitpO-noitangiseDsseccA-/erusserPylppuS/tuptuO/tupnI/tinU :elpmaxerebmunledoM ]NID[SPE-1AF-/ISP04-02/GISP51-3/AM02-4/TPI
noitamrofnIgniredrO
ylppuS
erusserPerusserP
erusserPerusserP
erusserP
GISP02-0 GISP51-3GISP51-3
GISP51-3GISP51-3
GISP51-3
GISP6.61-3GISP6.61-3
GISP6.61-3GISP6.61-3
GISP6.61-3
GISP81-3GISP81-3
GISP81-3GISP81-3
GISP81-3 GISP71-1GISP71-1
GISP71-1GISP71-1
GISP71-1 GISP03-6GISP03-6
GISP03-6GISP03-6
GISP03-6 GISP72-3GISP72-3
GISP72-3GISP72-3
GISP72-3
RAB1-2.RAB1-2.
RAB1-2.RAB1-2.
RAB1-2.
APK001-02APK001-02
APK001-02APK001-02
APK001-02
2MCGK1-2.2MCGK1-2.
2MCGK1-2.2MCGK1-2.
2MCGK1-2.
APM01.-20.APM01.-20.
APM01.-20.APM01.-20.
APM01.-20.
tuptuOesreveR
GISP0-02 GISP3-51GISP3-51
GISP3-51GISP3-51
GISP3-51
GISP3-6.61GISP3-6.61
GISP3-6.61GISP3-6.61
GISP3-6.61
GISP3-81GISP3-81
GISP3-81GISP3-81
GISP3-81 GISP1-71GISP1-71
GISP1-71GISP1-71
GISP1-71 GISP6-03GISP6-03
GISP6-03GISP6-03
GISP6-03 GISP3-72GISP3-72
GISP3-72GISP3-72
GISP3-72
RAB2.-1RAB2.-1
RAB2.-1RAB2.-1
RAB2.-1
APK02-001APK02-001
APK02-001APK02-001
APK02-001
2MCGK2.-12MCGK2.-1
2MCGK2.-12MCGK2.-1
2MCGK2.-1
APM20.-01.APM20.-01.
APM20.-01.APM20.-01.
APM20.-01.
elbaliavaoslasegnarmotsuC
ISP04-02
RAB8.2-4.1RAB8.2-4.1
RAB8.2-4.1RAB8.2-4.1
RAB8.2-4.1
GK8.2-4.1GK8.2-4.1
GK8.2-4.1GK8.2-4.1
GK8.2-4.1
APK082-041APK082-041
APK082-041APK082-041
APK082-041
APM82.-41.APM82.-41.
APM82.-41.APM82.-41.
APM82.-41.
sseccA
snoitangiseDsnoitangiseD
snoitangiseDsnoitangiseD
snoitangiseD
1-SelbaTeeS SPE- dednetxE
snoitpO gnisuoH
NID munimulaelyts-NID
ecnamrofreP
snoitacificepS
)RIS(ro
ITW erusolcnethgit-retaW
P* semoctinusetacidni)xiffus(
.g.e( PITW )
mm23nostnuomgnisuoh
dna)53005NE(epyt-G
)22005NE(taHpoTmm53
citamuenpagnisusliar
tinu-itlumrokcolbgnitnuom
)RIR(redaehylppusria
.noitinifedR3AMENrep
ssecca01AF-ro
)noitangised
,9AF-,8AF-,7AF-seriuqer(
-Udnaetalpesabahtiwdeppiuqe
epiphcni-2anognitnuomrofstlob
Table S-1. Access Designations
tupnItnerruC
noitacoLnoitacoL
noitacoLnoitacoL
noitacoL
tnorF tnorF tnorF tnorF tnorF tnorF tnorF tnorF tnorF tnorF tnorF tnorF
mottoB
raeR
mottoB
raeR
mottoB raeR enoN enoN enoN enoN
mottoB raeR
dnatuptuOcitamuenP
*noitacoLylppuS*noitacoLylppuS
*noitacoLylppuS*noitacoLylppuS
*noitacoLylppuS
skcolbgnitnuomhtiwstinunoylnoelbacilppA*
tseTcitamuenP
noitacoLkcaJnoitacoLkcaJ
noitacoLkcaJnoitacoLkcaJ
noitacoLkcaJ
enoN enoN
tnorF
tnorF enoN enoN enoN
tnorF enoN
tnorF
tnorF
tnorF
tnerruCdnaDEL
skcaJtseTskcaJtseT
skcaJtseTskcaJtseT
skcaJtseT
seY seY seY seY
enoN
enoN seY seY
enoN
enoN
enoN
enoN
sseccA
snoitangiseDsnoitangiseD
snoitangiseDsnoitangiseD
snoitangiseD
1AF­2AF­3AF­4AF­5AF­6AF­7AF­8AF­9AF-
01AF­11AF­21AF-
The Interface Solution Experts
Page 23
RETURN PROCEDURES
To return equipment to Moore Industries for repair, follow these four steps:
1. Call Moore Industries and request a Returned Material Authorization (RMA) number. Warranty Repair –
If you are unsure if your unit is still under warranty, we can use the unit’s serial number to verify the warranty status for you over the phone. Be sure to include the RMA number on all documentation.
Non-Warranty Repair – If your unit is out of warranty , be prepared to giv e us a Purchase Order n umber when you call. In most cases, we will be able to quote you the repair costs at that time. The repair price you are quoted will be a “Not To Exceed” price, which means that the actual repair costs may be less than the quote. Be sure to include the RMA number on all documentation.
2. Provide us with the following documentation:
a ) A note listing the symptoms that indicate the unit needs repair b ) Complete shipping information for return of the equipment after repair c) The name and phone number of the person to contact if questions arise at the factory
3. Use sufficient packing material and carefully pack the equipment in a sturdy shipping
container.
4. Ship the equipment to the Moore Industries location nearest you.
The returned equipment will be inspected and tested at the factory. A Moore Industries representative will contact the person designated on your documentation if more information is needed. The repaired equipment, or its replacement, will be returned to you in accordance with the shipping instructions furnished in your documentation.
WARRANTY DISCLAIMER
THE COMPANY MAKES NO EXPRESS, IMPLIED OR STATUTORY WARRAN­TIES (INCLUDING ANY WARRANTY OF MERCHANTABILITY OR OF FITNESS FOR A PARTICULAR PURPOSE) WITH RESPECT TO ANY GOODS OR SER­VICES SOLD BY THE COMPANY. THE COMPANY DISCLAIMS ALL WARRAN­TIES ARISING FROM ANY COURSE OF DEALING OR TRADE USAGE, AND ANY BUYER OF GOODS OR SERVICES FROM THE COMPANY ACKNOWL­EDGES THAT THERE ARE NO WARRANTIES IMPLIED BY CUSTOM OR USAGE IN THE TRADE OF THE BUYER AND OF THE COMPANY, AND THAT ANY PRIOR DEALINGS OF THE BUYER WITH THE COMPANY DO NOT IM­PLY THAT THE COMPANY WARRANTS THE GOODS OR SERVICES IN ANY WAY.
ANY BUYER OF GOODS OR SERVICES FROM THE COMPANY AGREES WITH THE COMPANY THAT THE SOLE AND EXCLUSIVE REMEDIES FOR BREACH OF ANY WARRANTY CONCERNING THE GOODS OR SERVICES SHALL BE FOR THE COMPANY, AT ITS OPTION, TO REPAIR OR REPLACE THE GOODS OR SERVICES OR REFUND THE PURCHASE PRICE. THE COMPANY SHALL IN NO EVENT BE LIABLE FOR ANY CONSEQUENTIAL OR INCIDENTAL DAMAGES EVEN IF THE COMPANY FAILS IN ANY ATTEMPT TO REMEDY DEFECTS IN THE GOODS OR SERVICES , BUT IN SUCH CASE THE BUYER SHALL BE ENTITLED TO NO MORE THAN A REFUND OF ALL MONIES PAID TO THE COMPANY BY THE BUYER FOR PURCHASE OF THE GOODS OR SERVICES.
ANY CAUSE OF ACTION FOR BREACH OF ANY WARRANTY BY THE COMPANY SHALL BE BARRED UNLESS THE COMPANY RECEIVES FROM THE BUYER A WRITTEN NOTICE OF THE ALLEGED DEFECT OR BREACH WITHIN TEN DAYS FROM THE EARLIEST DATE ON WHICH THE BUYER COULD REASONABLY HAVE DISCOVERED THE ALLEGED DE­FECT OR BREACH, AND NO ACTION FOR THE BREACH OF ANY WAR­RANTY SHALL BE COMMENCED BY THE BUYER ANY LATER THAN TWELVE MONTHS FROM THE EARLIEST DATE ON WHICH THE BUYER COULD REASONABLY HAVE DISCOVERED THE ALLEGED DEFECT OR BREACH.
RETURN POLICY
For a period of thirty-six (36) months from the date of shipment, and under normal conditions of use and service, Moore Industries ("The Company") will at its option replace, repair or refund the purchase price for any of its manu­factured products found, upon return to the Company (transportation charges prepaid and otherwise in accordance with the return procedures established by The Company), to be defective in material or workmanship. This policy extends to the original Buyer only and not to Buyer's customers or the users of Buyer's products, unless Buyer is an engineering contractor in which case the policy shall extend to Buyer's immediate customer only. This policy shall not apply if the product has been subject to alteration, misuse, accident, ne­glect or improper application, installation, or operation. THE COMPANY SHALL IN NO EVENT BE LIABLE FOR ANY INCIDENTAL OR CONSE­QUENTIAL DAMAGES.
Tel: (818) 894-7111 • FAX: (818) 891-2816 Tel: (02) 8536-7200 • FAX: (02) 9525-7296
© 2006 Moore Industries-International, Inc.
United States • info@miinet.com
Australia • sales@mooreind.com.au
Belgium • info@mooreind.be
Tel: 03/448.10.18 • FAX: 03/440.17.97
Tel: 86-21-62491499 • FAX: 86-21-62490635
The Netherlands • sales@mooreind.nl
Tel: (0)344-617971 • FAX: (0)344-615920
Specifications and Information subject to change without notice.
China • sales@mooreind.sh.cn
United Kingdom • sales@mooreind.com
Tel: 01293 514488 • FAX: 01293 536852
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