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P/N 130426 Rev. 

D

     

21

Banner Engineering Corp. 

• 

Minneapolis, U.S.A.

www.bannerengineering.com  •  Tel: 763.544.3164

A-GAGE EZ-ARRAY

 

Instruction Manual

Receiver Interface

Because single-edge scan is capable only of measuring the 
height of an opaque object that blocks the bottom channel 
and all channels up to the height of the object, the pertinent 
measurement modes are LBB (last beam blocked) or TBB 
(total beams blocked). When single-edge scan is selected, the 
selected measurement mode will be applied to both analog 
outputs. Selection of OD/ID with single-edge scan will result in 
an error code.

Measurement Modes (S3 and S4)

The measurement modes, determined by switches S3 and S4 
in combination, define what information is calculated by the 
sensor and sent via the analog outputs

. See Section 1.10 for 

measurement mode definitions

. Discrete output 1 will conduct 

when analog output 1 detects a target. (If single-edge scan is 
selected, select measurement mode LBB or TBB.)

During normal operation, the 3-digit diagnostic display reads out 
the numerical value of the specified measuring mode for analog 
output 1. 

Analog Slope (S5)

Switch S5 defines the analog output slope. As the measurement 
mode values increase, the analog output voltage can either 
increase (positive slope, S5 ON) or decrease (negative slope, S5 
OFF). Switch S5 applies the same slope to both analog outputs.

Complementary / Alarm (S6)

Switch S6 defines the operation of discrete output 2. When the 
receiver user interface is used, discrete output 1 is active when 
an object is detected by the sensor (normally open operation). 
In complementary mode (S6 ON), output 2 will always be in the 
opposite state of output 1. In alarm mode (S6 OFF), discrete 
output 2 will be active when the sensor detects a system fault. 
System faults include a failed emitter, mis-wiring of the emitter/
receiver communication wire (the pink wire), and low excess gain 
(if the sensor is configured for high-contrast sensitivity). 

4.2  Alignment / Blanking Button (Electronic Alignment)

The Alignment/Blanking push button is used both to maximize 
the alignment and to access the blanking feature. The electronic 
alignment routine adjusts the emitted light level to maximize 
sensor performance. Perform the procedure at installation 
and again when the emitter and/or receiver is moved. For PC 
interface software alignment instructions, see Section 5.5.

Blanking is used to maintain sensing accuracy in applications 
where a fixed object (for instance a permanently mounted 
bracket) will block one or more beams. The sensor will ignore 
the blanked channels when calculating outputs from the selected 
measurement modes.

Electronic Alignment and Blanking — Receiver Interface

To initiate the electronic alignment procedure, use a small 
screwdriver to press the Alignment/Blanking button for two or 
more seconds. The left-hand digit of the 3-digit display will read 

A

” (representing alignment); the right two digits will show the 

number of beams blocked. The receiver is learning the clear 
condition. Rotate the sensors as required (but do not change 
the distance between them). When the receiver’s 3-digit display 
shows 0 beams blocked, the sensors are adequately aligned. 

Tighten the sensor mounts, then press the Alignment/Blanking 
button again for two seconds to exit alignment mode. If all 
sensor light channels are clear, the EZ-ARRAY stores each 
channel’s signal strength in non-volatile memory and reads 
“ 

-

 

- -

 ” on the 3-digit display. Re-alignment is not required again, 

unless the emitter or receiver is moved.

If any beams are blocked by objects other than the sensing 
target to be measured during run mode, those beams can be 
blanked in alignment mode for more accurate measurement. 
The blocked beams must be either blanked or cleared during 
alignment mode for alignment to proceed (see below). While 
the “

A

” is visible on the receiver display, momentarily (about 0.5 

seconds max.) press the Alignment/Blanking button again. The 

A

” will change to “

n

” to indicate the sensor is ready to “learn” 

the blanking pattern; momentarily press the button again to exit 
the blanking routine. The sensor blanks the blocked beams and 
the display changes to “

A.

”; the period following the lefthand digit 

signifies blanking is active. Press the Alignment/Blanking button 
for two seconds to exit alignment mode. The EZ-ARRAY stores 
each channel’s signal strength in non-volatile memory and reads 

 -. - - 

” on the 3-digit display to denote blanking is in use. 

Flashing “000” on the 3-Digit Display

When returning to run mode, the receiver determines whether 
any unblanked beam channels are obstructed. If any channels 
are obstructed, the new alignment settings are not saved; the 
receiver flashes zeroes on the display three times and sensing 
will continue, using the previously set alignment settings. If this 
occurs, either clear the blocked beams and repeat the alignment 
routine or repeat the alignment routine and blank the blocked 
beams.

4.3  Gain (Sensitivity Adjust) Button

To change the sensitivity (Gain setting), press and hold the 
button for two seconds. The left-hand digit of the 3-digit display 
will read  “

l

”; the right-hand digit will read “

1

” (high excess-gain) 

or “

2

” (low-contrast. The sensitivity level can then be toggled 

between the values 1 and 2. When the desired sensitivity level 
is displayed, hold the Gain push button for 2 seconds and the 
sensor will return to run mode.

Summary of Contents for A-GAGE EZ-ARRAY

Page 1: ...ction profiling and web guiding applications A comprehensive combination of scanning options 14 measurement scan analysis modes 3 scanning methods Selectable beam blanking Selectable continuous or gat...

Page 2: ...continued 13 2 7 Emitter and Receiver Dimensions 14 2 8 Standard Bracket Dimensions 15 3 Installation and Alignment 16 3 1 Mounting the Emitter and Receiver 16 3 2 Mechanical Alignment 17 3 3 Hookups...

Page 3: ...r user interface For more advanced control easy to use PC interface software is available on the included CD to configure the sensors using a PC 1 Overview Installation is easy too The emitter and rec...

Page 4: ...h the light screen Blanking may be set using the receiver interface the teach wire or the PC interface The EZ ARRAY light screen provides a wide selection of sensing and output options including measu...

Page 5: ...in the light screen as well as the total number of beams and totals of beams blocked made and blanked Built in diagnostics can be used to assess emitter and receiver status Outputs In addition to the...

Page 6: ...un Mode L appears on 3 digit display along with number 1 or 2 to designate gain level Toggle Between Gain Settings Number changes from number 1 to 2 back to 1 etc Save Gain Level and Exit When correct...

Page 7: ...t sensitivity is selected or when single edge and double edge scan cannot be used The edge resolution is 5 mm 0 2 When low contrast sensing is selected used when measuring semi transparent objects the...

Page 8: ...s found a binary search is conducted to find the object s bottom edge 5 When the bottom edge is found the sensor continues to step through the array until it finds the next unblocked beam 6 Another bi...

Page 9: ...setting of 15 to 50 When using the receiver interface low contrast sensitivity is always 30 Gain Setting Scan Method EZ ARRAY MODS EZ ARRAY Resolution Low Contrast Straight scan 5 mm 5 mm Single edge...

Page 10: ...n non volatile memory The procedure can be performed using the receiver remote wire the receiver interface or the PC interface see Section 1 5 4 2 or 5 6 The receiver s Alignment push button may be di...

Page 11: ...et in the PC interface in addition to a filter setting to smooth the output and Zero Value to specify the output value when the measurement mode value is zero See Section 5 8 for more information 1 12...

Page 12: ...R900NIXMODQ Receiver EA5R900NUXMODQ Receiver EA5E900Q Emitter EA5R900PIXMODQ Receiver EA5R900PUXMODQ Receiver Current 4 20 mA Voltage 0 10V 900 mm 35 4 180 EA5E1050Q Emitter EA5R1050NIXMODQ Receiver E...

Page 13: ...Cordsets Model Description Pinout MAQDC 815 Straight female connector 8 pin Euro style 5 m 15 long Female Connector Shown MAQDC 830 9 m 30 long MAQDC 850 15 m 50 long Model Description LAT 1 SS Self...

Page 14: ...alues size is tested using a rod Sensor Positional Resolution Straight Scan 5 mm 0 2 Double Edge Scan 2 5 mm 0 1 Single Edge Scan 2 5 mm 0 1 2 6 Specifications 2 4 Accessory Mounting Brackets and Stan...

Page 15: ...imes range from 2 8 to 26 5 ms See Figure 1 8 for all combinations Status Indicators also see Section 1 4 Emitter R ed Status LED ON Red Status OK Flashing at 1 hz Error Receiver 7 Zone Indicators Red...

Page 16: ...7 mm 8 9 260 mm 10 2 199 mm 7 8 150 mm 5 9 EA5 300 379 mm 14 9 412 mm 16 2 351 mm 13 8 300 mm 11 8 EA5 450 529 mm 20 8 562 mm 22 1 501 mm 19 7 450 mm 17 7 EA5 600 678 mm 26 7 704 mm 27 7 650 mm 25 6 6...

Page 17: ...9 4 mm 0 76 38 2 mm 1 50 33 mm 1 30 4 x 45 20 mm 0 79 2 x R 5 mm 0 20 2 x 5 mm 0 20 2 x 15 mm 0 59 2 x 7 mm 0 28 20 mm 0 79 20 mm 0 79 60 mm 20 mm 0 79 17 5 mm 0 69 55 mm 2 17 50 mm 1 97 4 2 mm 0 17 5...

Page 18: ...r and receiver mounting hardware Center mounting brackets must be used with longer sensors if they are subject to shock or vibration In such situations the sensors are designed to be mounted with up t...

Page 19: ...acket hardware See Sections 3 4 and 4 2 for further alignment information Figure 3 2 Sensor mounting mechanical alignment Angled or Horizontal Installations verify that Distance X at the emitter and r...

Page 20: ...nal Inputs Refer to Figures 3 5 and 3 6 for standard hookup information Receiver gray wire The receiver has an input that can be used as a gate input or for remote teach To initiate remote teach align...

Page 21: ...ensor Center each sensor between the noted positions and tighten the end cap mounting screws making sure to maintain the positioning The sensor windows should directly face each other Once optimum opt...

Page 22: ...mode and can be used without the exceptions noted in the other scanning modes Use this scanning mode when using the low contrast sensitivity setting to measure semi transparent materials Double Edge...

Page 23: ...ng outputs from the selected measurement modes Electronic Alignment and Blanking Receiver Interface To initiate the electronic alignment procedure use a small screwdriver to press the Alignment Blanki...

Page 24: ...sensor supply voltage If the error code 2 is removed electrically re align the sensor Section 4 2 If the error code persists contact Banner for further problem solving techniques 3 Reserved for Facto...

Page 25: ...al cable from your receiver to your PC using an RS485 to RS232 adapter such as the model INTUSB485 1 USB serial adapter listed in Section 2 2 Instructions for configuring the adapter are included with...

Page 26: ...Echo Suppression Options are listed To access the Advanced menu select Options Advanced Settings Ctrl U from the Communication Settings menu COM Port selects the computer port used for serial communic...

Page 27: ...see an ongoing realtime display of sensing status Click on Start Sampling the Status window will read Sampling in Progress until Stop Sampling is selected When sampling is not active the Channel Stat...

Page 28: ...alignment failed check for objects that may be blocking one or more beams or physically adjust the sensors until all beams on the Alignment screen s diagnostic display are green then repeat the electr...

Page 29: ...selected Scan Configuration Scan Type Choose between Straight Single Edge or Double Edge Step 1 2 4 8 16 or 32 or Carpet Nap see Section 1 6 for descriptions and scan rates for these scan types Carpe...

Page 30: ...m value and latch this analog value until a reset has occurred see Peak Detect Reset Peak Detect Reset auto or external communication specifies the method by which the analog output peak detect is re...

Page 31: ...sed to smooth the discrete output response Each discrete output can respond after each sensor scan or the response time can be increased by increasing the demodulation Increasing the demodulation incr...

Page 32: ...current sensor pair so that other sensors on the network can be connected Options DPB1 No Echo Suppression Echo Suppression Status Read only indication of current sensor communication status If DPB1...

Page 33: ...e Step 8 Double Edge Step 16 Double Edge Step 32 Carpet Nap Remote Teach Teach functions can be input via Teach wire see Section 1 5 Carpet Nap scan type selected Disabled Carpet Nap Carpet Edge Disab...

Page 34: ...ement Model Selected Either discrete output Normally Open Default for output 1 Normally Closed Default for output 2 Alarm Health Status Mode Selected Discrete output 2 only D02 Type Available for outp...

Page 35: ...ly indication Emitter Power Read only indication Error Code Read only indication DIP Switch S1 Read only indication DIP Switch S2 Read only indication DIP Switch S3 Read only indication DIP Switch S4...

Page 36: ...HIGH byte LOW byte Request Function Code 1 byte 0x03 Starting Address 2 bytes 0x0000 to 0xFFFF Quantity of Holding Registers 2 bytes 0x0001 to 0x007D Response Function Code 1 byte 0x03 Byte Count 1 b...

Page 37: ...40001 is accessed by writing address 40001 0x9C41 directly i e the starting address is not an offset Data is packed as two bytes per register For each register the data is sent in big endian order HI...

Page 38: ...channels 1 5 9 6 Double Edge Step 8 Scanning for Edges of up to 3 objects fires channels 1 9 17 7 Double Edge Step 16 Scanning for Edges of up to 3 objects fires channels 1 17 33 8 Double Edge Step 3...

Page 39: ...6 register address 40003 is set to the two byte value of 0x0003 3 decimal General Configuration The General Configuration contains the general settings for the EZ ARRAY Table A 6 General Configuration...

Page 40: ...Object 1 Last Beam Blocked 17 O2 FBB Object 2 First Beam Blocked 18 O2 LBB Object 2 Last Beam Blocked 19 O3 FBB Object 3 First Beam Blocked 20 O3 LBB Object 3 Last Beam Blocked 21 CARPET NAP Carpet Na...

Page 41: ...response is 24 scans for 98 of signal Table A 23 NULL Output Analog Outputs 1 and 2 Range Description 0 4095 Minimum DAC value of Analog Output MUST be SPAN Output Table A 24 SPAN Output Analog Outpu...

Page 42: ...er Name 40040 LOW BYTE Config 40040 HIGH BYTE RESERVED 40041 Demodulation Count 40042 Hysteresis LOW 40043 Hysteresis HIGH 40044 Threshold LOW 40045 Threshold HIGH A 3 Input Registers A 3 1 Active Mea...

Page 43: ...Address 41 Slave Address 41 Function 04 Function 04 Starting Address HIGH Byte 77 Byte Count 32 Starting Address LOW Byte 24 Register 30500 HIGH Byte 00 Quantity of Registers HIGH Byte 00 Register 305...

Page 44: ...n the EZ ARRAY Each register represents 16 channels Table A 38 Channel States Model Input Register Address MASK Member Name 150 1800 mm 30003 LOW BYTE Channel 1 8 30003 HIGH BYTE Channel 9 16 30025 LO...

Page 45: ...30026 Number of Emitter Channels 30027 Emitter First Bad Channel 30028 Number of Receiver Channels 30029 RESERVED 30030 LOW BYTE DIP Switch 30030 HIGH BYTE ERROR Code 30031 LOW BYTE RESERVED 30031 HIG...

Page 46: ...tter Version Info Input Register Address MASK Member Name 31000 Receiver Part Number 31001 31002 LOW BYTE Receiver Version 31002 HIGH BYTE RESERVED 31003 Emitter Part Number 31004 31005 LOW BYTE Emitt...

Page 47: ...hat runs unobstructed from the emitter to the receiver same as a made or unblocked beam Excess Gain A measurement of the amount of light falling on the receiver from the emitter over and above the min...

Page 48: ...R ARISING UNDER COURSE OF PERFORMANCE COURSE OF DEAL ING OR TRADE USAGE This Warranty is exclusive and limited to repair or at the discretion of Banner Engineering Corp replacement IN NO EVENT SHALL B...

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