No part of this publication may be reproduced or used in any form, or by any electrical or mechanical means,
without permission in writing from Zebra. This includes electronic or mechanical means, such as photocopying,
recording, or information storage and retrieval systems. The material in this manual is subject to change
without notice.
The software is provided strictly on an “as is” basis. All software, including firmware, furnished to the user is on
a licensed basis. Zebra grants to the user a non-transferable and non-exclusive license to use each software
or firmware program delivered hereunder (licensed program). Except as noted below, such license may not be
assigned, sublicensed, or otherwise transferred by the user without prior written consent of Zebra. No right to
copy a licensed program in whole or in part is granted, except as permitted under copyright law. The user shall
not modify, merge, or incorporate any form or portion of a licensed program with other program material, create
a derivative work from a licensed program, or use a licensed program in a network without written permission
from Zebra. The user agrees to maintain Zebra’s copyright notice on the licensed programs delivered
hereunder, and to include the same on any authorized copies it makes, in whole or in part. The user agrees not
to decompile, disassemble, decode, or reverse engineer any licensed program delivered to the user or any
portion thereof.
Zebra reserves the right to make changes to any software or product to improve reliability, function, or design.
Zebra does not assume any product liability arising out of, or in connection with, the application or use of any
product, circuit, or application described herein.
No license is granted, either expressly or by implication, estoppel, or otherwise under any Zebra Technologies
Corporation, intellectual property rights. An implied license only exists for equipment, circuits, and subsystems
contained in Zebra products.
ZEBRA and the stylized Zebra head are trademarks of Zebra Technologies Corporation, registered in many
jurisdictions worldwide. All other trademarks are the property of their respective owners.
Zebra Technologies Corporation
Lincolnshire, IL U.S.A.
http://www.zebra.com
Warranty
For the complete Zebra hardware product warranty statement, go to:
-04 Rev A3/2007Updated service information and specifications.
ChangeDateDescription
-05 Rev A1/2008Added new UPC/EAN supplemental options and Bookland ISBN format option,
updated troubleshooting.
-06 Rev A6/2010Updated scanner mount instructions to include MS954; added instructions for
connecting via RS-232, updated power supply part number; updated operating
temperature for MS2204 and MS2204VHD; removed patent information; updated
power supply information.
-07 Rev A6/2014Updated: MS954 specifications and decode zones. Added: MS954 default values
table; various parameters for MS954 manufactured on/after July 1, 2014.
-08 Rev A10/2014Updated MS954 decode zones.
-09 Rev A3/2015Zebra Re-branding
-10 Rev A3/2017Added baud rates for the MS954.
-11 Rev A5/2019Updated Enable and Disable Adaptive Scanning barcodes on page 10-33.
iii
ivMiniScan MSXX04 Series Integration Guide
Table of Contents
Warranty ........................................................................................................................ ii
Revision History............................................................................................................. ii
About This Guide
Introduction .................................................................................................................... xiii
Chapter Descriptions ..................................................................................................... xiii
Notational Conventions.................................................................................................. xiv
Related Documents ....................................................................................................... xv
Service Information........................................................................................................ xv
RS-232 ASCII Character Set ........................................................................................ A-1
USB ASCII Character Set ............................................................................................. A-6
Glossary
Index
Tell Us What You Think...
xiiMiniScan MSXX04 Series Integration Guide
About This Guide
Introduction
The MiniScan MSXX04 Series Integration Guide provides general instructions for mounting, setting up, and
programming the following MiniScan models:
•
MS954
•
MS1204FZY
•
MS2204
•
MS2204VHD
•
MS3204.
NOTE Zebra recommends that an opto-mechanical engineer perform an opto-mechanical analysis prior to
integration.
Chapter Descriptions
This guide includes the following topics:
•
Chapter 1, Getting Started provides an overview of the MiniScan scanners and features, and a block diagram
of the scanner.
•
Chapter 2, Installation describes how to mount and install the MiniScan scanner.
•
Chapter 3, Scanning provides information on scan patterns, scanning, triggering options, and beeper and
LED definitions.
•
Chapter 4, MS1204FZY Specifications provides the technical and scanning specifications for the
MS1204FZY scanner.
•
Chapter 5, MS2204 Specifications provides the technical and scanning specifications for the MS2204
scanner.
•
Chapter 6, MS2204VHD Specifications provides the technical and scanning specifications for the
MS2204VHD scanner.
xivMiniScan MSXX04 Series Integration Guide
•
Chapter 7, MS3204 Specifications provides the technical and scanning specifications for the MS3204
scanner.
•
Chapter 8, MS954 Specifications provides the technical and scanning specifications for the MS954 scanner.
•
Chapter 9, Maintenance and Troubleshooting provides information on maintaining and troubleshooting the
MiniScan scanners.
•
Chapter 10, Parameter Menus describes the programmable parameters, and provides bar codes for
programming and hexadecimal equivalents for host download programming.
•
Chapter 11, Simple Serial Interface (SSI) describes scanner-specific updates to the Simple Serial Interface
(SSI) Programmer’s Guide.
•
Chapter 12, Mounting Templates provides mounting templates for the MiniScan scanners.
•
Appendix A, ASCII Character Sets provides prefix and suffix values to assign for ASCII character data
transmission.
Notational Conventions
The followingconventions are used in this document:
•
Italics are used to highlight chapters and sections in this and related documents.
•
bullets (•) indicate:
• Action items
• Lists of alternatives
• Lists of required steps that are not necessarily sequential
•
Sequential lists (e.g., those that describe step-by-step procedures) appear as numbered lists.
NOTE This symbol indicates something of special interest or importance to the reader. Failure to read the note
will not result in physical harm to the reader, equipment or data.
CAUTION This symbol indicates that if this information is ignored, the possibility of data or material damage may
occur.
WARNING! This symbol indicates that if this information is ignored the possibility that serious personal
injury may occur.
Related Documents
The following documents provide more information for the MiniScan Series scanners.
•
MiniScan Family of Scanners Quick Reference Guide, p/n 72-58809-xx
•
Simple Serial Interface (SSI) Programmer’s Guide, p/n 72-40451-xx
•
Simple Serial Interface (SSI) Developer’s Guide, p/n 72-50705-xx
For the latest version of this guide and all guides, go to: http://www.zebra.com/support.
Service Information
If you have a problem using the equipment, contact your facility’s technical or systems support. If there is a
problem with the equipment, they will contact the Zebra Global Customer Support Center at:
http://www.zebra.com/support.
When contacting Zebra Support, please have the following information available:
About This Guidexv
•
Serial number of the unit
•
Model number or product name
•
Software type and version number.
Zebra responds to calls by E-mail, telephone or fax within the time limits set forth in support agreements.
If your problem cannot be solved by Zebra Support, you may need to return your equipment for servicing and will
be given specific directions. Zebra is not responsible for any damages incurred during shipment if the approved
shipping container is not used. Shipping the units improperly can possibly void the warranty.
If you purchased your business product from a Zebra business partner, contact that business partner for support.
xviMiniScan MSXX04 Series Integration Guide
Chapter 1 Getting Started
CAUTION Use of controls, adjustments or procedures other than those specified here can result in hazardous
laser light exposure.
Introduction
The MiniScan family of fixed-mount scanners is specifically designed for stand-alone applications, and OEM
applications such as kiosks.
Figure 1-1
MSXX04 Series scanners provide easy and flexible integration of bar code scanning into a host device, and
include the following models:
•
MiniScan Family of Scanners
The MS1204FZY offers fuzzy logic for premium scanning performance on all types of 1D bar codes including
poorly printed and low contrast symbols. The MS1204FZY features a compact design for superior
performance and durability in a form factor that easily integrates into OEM devices for embedded
applications such as medical instruments, diagnostic equipment, vending machines, and gaming. As a
fixed-mount scanner, the MS1204FZY is ideal for applications requiring unattended scanning such as
manufacturing, warehouse and shipping, conveyor belts, library and document tracking systems.
1 - 2MiniScan MSXX04 Series Integration Guide
•
The MS2204 and MS2204VHD offer a "smart" raster pattern optimized for 2D applications and poorly printed
1D bar codes. The high scan rate ensures fast and reliable data on all 1D symbols, and 2D codes such as
PDF417, MicroPDF, GS1 DataBar and composite codes. These scanners are perfect for automated data
entry applications that require high-speed scanning, performance, and small size, such as conveyor belts,
manufacturing and warehouse, gas pumps, and security/ID verification.
•
The MS3204 features a high-speed omnidirectional scan pattern that makes it easy and intuitive for
consumers to scan bar codes at the point of activity. The omnidirectional scan pattern reads bar codes
quickly and accurately, minimizing the need for precise positioning of linear 1D bar codes. The MS3204
provides an easy and cost-effective way to enhance existing OEM devices with high-performance 1D and 2D
scanning, making it the ideal solution for applications that require fast, accurate scanning such as kiosks,
ATMs, listening stations, lottery machines, and vending machines.
•
MS954 scanner is extremely compact, provides easy and flexible integration of bar code scanning into a host
device, and offers high-performance scanning on 1D bar codes. The MS954 is ideal for medical instruments
and kiosks.
MS1204FZY, MS2204, MS2204VHD, and MS3204 Features
•
Stand-alone or OEM applications
•
Quick and easy integration for OEM devices
•
Excellent scanning performance on all types of bar codes (MS1204FZY supports 1D bar codes only)
•
Rugged IP54 sealed housing with integrated beeper
•
RS-232
•
Easy programming and configuration
•
Flexible mounting options
•
LEDs and an integrated beeper indicating scanner power status and successful decodes.
MS954 Features
•
Stand-alone or OEM applications
•
Quick and easy integration for OEM devices
•
Excellent scanning performance on 1D bar codes
•
RS-232
•
Easy programming and configuration
•
Flexible mounting options
•
LEDs indicating scanner power status and successful decodes.
Typical Applications
MS1204FZY, MS2204, MS2204VHD, and MS3204 Applications
Fixed Mount Standalone Applications
•
Manufacturing / warehouse
•
Conveyer belts
•
Security / ID verification
•
POS.
OEM Applications
•
Kiosks / ATMs
•
Music listening stations
•
Security / ID verification
•
Lottery terminals / gaming.
Getting Started1 - 3
MS954 Applications
Fixed Mount Standalone Applications
•
Clinical diagnostics
•
Medical instruments
•
Assembly lines.
OEM Applications
•
Kiosks / ATMs
•
Music listening stations
•
Medical instruments
•
Clinical diagnostics
•
Lottery terminals / gaming.
Block Diagrams
The MiniScan block diagrams illustrate the functional relationship of MiniScan components. A detailed description
of each component in the block diagrams follows.
1 - 4MiniScan MSXX04 Series Integration Guide
DB9
flexflex
Decoded
Scan
Engine
Interface Board
Red/
Green
LED
Interface Circuit
RS-232
Interface
External Beeper
Beeper
External Trigger
DB9
flex
Scan
Engine
Interface Board
Red/
Green
LED
Interface Circuit
RS-232
Interface
External Beeper
External Trigger
Decoded
Scan
Engine
MS1204FZY, MS2204, MS2204VHD, and MS3204 Block Diagram
Figure 1-2
MS1204FZY, MS2204, MS2204VHD, and MS3204 Block Diagram
MS954 Block Diagram
Figure 1-3
MS954 Block Diagram
Getting Started1 - 5
Miniscan Block Diagram Descriptions
Decoded Scan Engine - The scan engine emits a beam of laser light that reflects off the bar code to decode.
Black bars absorb light, white spaces reflect light. The scan engine collects the reflected light and processes the
signal through several analog filters. The filtered signal is digitized into a Digitized Barcode Pattern (DBP). The
decoder micro-controller analyzes timing information to decode and transmit the bar code data. Data transmission
occurs using Zebra’s proprietary SSI Interface.
Interface Board - The interface board adapts the scan engine's interface into usable signals and data for the
intended host. It also contains a beeper (MS1204FZY/2204/2204VHD/3204 models only) and red/green LED for
audio/visual feedback, and provides for an external trigger and external beeper.
The MiniScan interface board converts TTL level SSI signals to proper RS-232 levels for connecting to any RS-232
compliant host.
DB9 - The DB9 connector provides an outlet for the various interface signals used between a MiniScan scanner
and the host. It also maintains pin compatibility with the previous generation LS1220 MiniScan host cables.
1 - 6MiniScan MSXX04 Series Integration Guide
Chapter 2 Installation
Introduction
This chapter provides information on unpacking, mounting, and installing the MiniScan scanner.
Unpacking
Remove the MiniScan from its packing and inspect for damage. If the scanner is damaged, call Zebra Support at
the telephone number listed on page xv.
KEEP THE PACKING. It is the approved shipping container and should be used if the equipment needs to be
returned for servicing.
2 - 2MiniScan MSXX04 Series Integration Guide
Note:
Dimensions are in inches [mm].
Threaded Inserts
Mounting
There are three mounting holes (threaded inserts) on the bottom of the MS1204FZY/2204/2204VHD/3204 chassis;
two mounting holes on the MS954.
The following figures provide mounting dimensions for the MiniScan scanner housings. For a mounting template,
see Chapter 12, Mounting Templates.
NOTE Use only non-magnetic M3x.5 screws with a maximum length of 3.6M to mount the MiniScan scanner
chassis.
MS1204FZY/MS2204/MS2204VHD Mounting Dimensions
Figure 2-1
MS1204FZY/MS2204/MS2204VHD Mounting Dimensions
MS3204 Mounting Dimensions
Note:
Dimensions are in inches [mm].
Threaded Inserts
Note:
Dimensions are in inches [mm].
2x M3 - 3.6 mm lg. max.
Threaded Inserts
2x - 0.080 [2.0]
Alignment Holes
Installation2 - 3
Figure 2-2
MS954 Mounting Dimensions
Figure 2-3
MS3204 Mounting Dimensions
MS954 Mounting Dimensions
2 - 4MiniScan MSXX04 Series Integration Guide
Stand base
Wingnut
1. Unscrew the wingnut
from the bottom of the
one-piece scanner
mount.
2. Fit the bottom of the
neck piece into the
opening on the top of the
stand base.
3. Tighten the wingnut
underneath the base to
secure the cup and neck
piece (see the note
below).
4. Bend the neck to the
desired position for
scanning.
Scanner mount
Flat areas
Mounting holes
Mounting the Scanner on the Stand
To mount the scanner on the optional stand:
1.To mount the MS954 to the scanner mount plate, align the scanner so its window faces the short edge of the
plate, and its two threaded inserts align with the stand’s two mounting holes that are closest to the edge of the
plastic. Note that this model requires only two screws for mounting.
To mount all other MiniScan models, place the bottom of the scanner on the stand’s scanner mount, aligning
the scanner’s center threaded insert (beneath the scan window) with the center mounting hole on the front of
the stand. The two rear threaded inserts on the bottom of the scanner align with the proper mounting holes on
the stand.
2.Secure the scanner to the stand using the screws provided with the stand (two for the MS954, three for all
other models).
Assembling the Stand
Figure 2-4
NOTE Before tightening the wingnut under the base, ensure that the flat areas on the flexible neck fit securely in
Assembling the Stand
the grooves in the base.
Installation2 - 5
Two screw-mount holes
Double-sided tape
areas (3 places)
(dimensions = 1” x 2”)
Mounting the Stand (optional)
You can attach the base of the scanner’s stand to a flat surface using two screws or double-sided tape (not
provided).
Screw Mount
1.Position the assembled base on a flat surface.
2.Screw one #10 wood screw into each screw-mount hole to secure the base of the stand.
Tape Mount
1.Peel the paper liner off one side of each piece of tape and place the sticky surface over each of the three
rectangular tape areas.
2.Peel the paper liner off the exposed sides of each piece of tape and press the stand on a flat surface until it is
secure.
Figure 2-5
Mounting the Scanner on the Mounting Bracket
The optional mounting bracket kit consists of a scanner bracket, a mounting bracket, and the hardware required to
mount the scanner. The bracket kit accommodates adjustable angles for optimal positioning of the scanner.
To mount the MiniScan scanner on the bracket, first secure the scanner to the scanner bracket, then attach the
mounting bracket to the wall (see Figure 2-6 on page 2-6):
1.Tilt the scanner bracket forward to access the center scanner mounting hole on the bracket.
2.Place the bottom of the scanner on the scanner bracket, aligning the scanner’s center threaded insert (beneath
the scan window) with the center mounting hole on the scanner bracket.
3.Insert one of the screws provided through the mounting hole and into the scanner’s center threaded insert.
For the MS1204FZY, MS2204, and MS2204VHD, use a #0 Phillips screwdriver; for the MS3204, use a #1
Phillips screwdriver.
Mounting the Stand
NOTE The optional mounting bracket is for the MS1204FZY, MS2204, MS2204VHD, and MS3204 only.
2 - 6MiniScan MSXX04 Series Integration Guide
Scanner Bracket
Mounting Bracket
Ver tica l
Mounting Holes
Horizontal
Mounting Holes
Scanner
Mounting Holes
4.Tilt the scanner bracket in the opposite direction to access the rear scanner mounting holes (which are aligned
with the rear inserts on the bottom of the scanner), then insert the remaining two screws provided through the
two rear mounting holes and into the scanner’s threaded inserts.
5.Secure the mounting bracket to a flat surface by inserting 1/8” or smaller fasteners through the surface and into
the bracket’s mounting holes. There are four mounting holes on the bottom of the mounting bracket for
horizontal mounting, and six holes on the side for vertical mounting.
Figure 2-6
Mounting the Scanner and Bracket
Connecting the MiniScan
1
4
5
2
Trigger or Photo
Sensor (Optional)
To H o st
3
Beeper
(Optional)
Trigger Jack (Optional)
See Figure 2-8
Male jack shown for reference
Note: Due to many variations of
jack and socket styles, identify
terminals as shown before
soldering leads.
To connect the MiniScan to the host, connect the scanner cables in the order shown in Figure 2-7.
Installation2 - 7
Figure 2-7
Figure 2-8
Typical Connection Diagram
Trigger Jack Connector Pins
2 - 8MiniScan MSXX04 Series Integration Guide
Connecting the MSXX04 via RS-232
Because Zebra scan engines use SSI communication protocol that requires hardware handshaking, you cannot
use HyperTerminal in Microsoft Windows with the MSXX04. As an alternative, Zebra offers the SSI Demo program
as a part of the SSISDK, available at no charge from the Zebra website. See Simple Serial Interface Software
Developer's Kit (SSISDK) on page 2-18. Use the SSI Demo program to quickly and easily trigger the MSXX04,
scan a bar code, and view the data on the host screen.
After connecting the MSXX04 to the host, set up the SSI Demo:
1.Insert the SSI Demo CD into the host’s CD drive and double-click on setup.exe to install the program.
Figure 2-9
2.After extracting the files, select Start -> SSI Engine Demo.
SSI Demo Installation Window
Figure 2-10
Scan Engine Demo Window
3.Click Connect.
4.Click Pull Trigger and view the decoded data in the bottom left-hand corner.
Location and Positioning
CAUTION The following location and positioning guidelines do not consider unique application characteristics.
Zebra recommends that an opto-mechanical engineer perform an opto-mechanical analysis prior to
integration.
NOTE Integrate the scanner in an environment no more extreme than the product’s specification, where the
scanner will not exceed its temperature range. For instance, do not mount the scanner onto or next to a
large heat source. When placing the scanner with another device, ensure there is proper convection or
venting for heat. Follow these suggestions to ensure product longevity, warranty, and overall satisfaction
with the scanner.
Using the MiniScan as an Embedded Scanner
You can mount the MiniScan to read symbols automatically presented, or presented in a pre-determined location.
In these applications, MiniScan positioning with respect to the symbol is critical. Failure to properly position the
MiniScan can result in unsatisfactory scanning performance. Zebra also recommends a thermal analysis.
Installation2 - 9
There are two methods of positioning the scanner:
•
Use the Calculating the Usable Scan Length Method on page 2-9 with consistently good quality symbols (see
page 2-10 for the MS954). This provides a mathematical solution to find the usable scan length.
•
The Testing the Usable Scan Length Method on page 2-11 uses real situation testing to adjust the usable
scan length to fit the application conditions.
Calculating the Usable Scan Length Method
Calculate usable scan length as follows (see Figure 2-11 on page 2-10):
L = 1.8 x (D+d+B) x Tan (A/2)
Table 2-1
MS1204FZY (Default)1.1742°
MS1204FZY (Narrow Mode)1.1730°
MS22041.5334°
MS2204VHD1.5334°
Calculation Constants
ConstantsBA
MS32041.9334°
2 - 10 MiniScan MSXX04 Series Integration Guide
MiniScan
Host System
dD
A
Bar
Code
B
1/2 L
1/2 L
L
where:
D = Distance (in inches) from the front edge of the host housing to the bar code.
d = The host housing’s internal optical path from the edge of the housing to the front of the MiniScan scanner.
B = Internal optical path from the scan mirror to the front edge of the MiniScan scanner.
A = Scan angle in degrees.
NOTE This formula determines usable scan length, or 90% of scan line at any working distance. This formula is
based on good quality symbols in the center of the working range and length of bar code.
Calculating the Usable Scan Length Method (MS954 Only)
Calculate the usable scan length as follows (see Figure 2-11):
L = 2.0 x (D+d+B) x Tan (A/2)
Table 2-2
MS954 Calculation Constants
ConstantsBA
MS9540.8747°
MS954 (Narrow Mode)0.8735°
where:
D = Distance (in inches) from the front edge of the host housing to the bar code.
d = The host housing’s internal optical path from the edge of the housing to the front of the MiniScan scanner.
B = Internal optical path from the scan mirror to the front edge of the MiniScan scanner.
A = Scan angle in degrees.
NOTE The MS954 does not require a margin on either side of the bar code to decode. The 47° scan line
provides identical scanning performance to older MiniScan devices (e.g., MS923) with a scan line of 53°.
Consider the width of the scan line at any given distance when designing a system.
Figure 2-11
Usable Scan Length Diagram
Installation 2 - 11
Testing the Usable Scan Length Method
Due to the variety of symbol sizes, densities, print quality, etc., there is no simple way to calculate the ideal symbol
distance. To optimize performance, use the Testing The Usable Scan Length positioning method:
1.Measure the maximum and minimum distances at which the MiniScan can read the symbols.
2.Check the near and far range on several symbols. If they are not reasonably consistent there may be a printing
quality problem that can degrade the performance of the system. Zebra can provide advice on how to improve
the installation.
NOTE Poor quality symbols (from bad printing, wear, or damage) may not decode well when placed in the center
of the depth of field (especially higher density codes). The scan beam has a minimum width in the central
area, and when the scanner tries to read all symbol imperfections in this area it may not decode. After
determining a preliminary spot using good quality symbols, test several reduced quality symbols and
adjust the spot for the best overall symbol position.
3.Locate the scanner so the symbol is near the middle of the near/far range.
4.Center the symbol (left to right) in the scan line whenever possible.
5.Position the symbol so that the scan line is as near as possible to perpendicular to the bars and spaces in the
symbol.
6.Avoid specular reflection (glare) off the symbol by tilting the top or bottom of the symbol away from the scanner.
The exact angle is not critical, but it must be large enough so that if a mirror were inserted in the symbol
location, the reflected scan line would miss the front surface of the scanner. For the maximum allowable angles
refer to the Skew, Pitch and Roll angles listed in each MiniScan Technical Specifications table.
7.If placing an additional window between the scanner and the symbol, determine the optimum symbol location
using a representative window in the desired window position.
8.Give the scanner time to dwell on the symbol for several scans. When first enabled, the MiniScan may take two
or three scans before it reaches maximum performance. Enable the MiniScan before presenting the symbol, if
possible.
2 - 12 MiniScan MSXX04 Series Integration Guide
Scan Beam
Direction of Conveyor Perpendicular to Symbol
W=Symbol Width
F=Field Width
Conveyor Applications
Conveyor applications require setting the conveyor velocity to optimize the scanner’s ability to read symbols. Also
consider the orientation of the symbol with respect to the conveyor direction. Figure 2-12 on page 2-12 illustrates
the relationship of the conveyor velocity with respect to a symbol positioned perpendicular to the conveyor direction
and Figure 2-13 on page 2-13 illustrates the relationship of the conveyor velocity with respect to a symbol
positioned parallel to the conveyor direction.
Symbol is Perpendicular to Conveyor Movement
With the symbol bars perpendicular to the conveyor belt direction (Picket Fence presentation) the relationship is:
V = (R x (F-W)) / N
where: V = Velocity of the conveyor (inches/second)
R = Scan Rate (see technical specifications)
F = 80% of width of scan beam
W = Symbol Width (inches)
N = Number of scans over symbol (minimum of 10 scans)
Figure 2-12
Symbol Perpendicular To Conveyor Movement
Example
R = 640 scans per second
F = 80% of 6 in.
W = 4 in.
N = 10
V = (640 x ((0.8 x 6) - 4))) / 10 = 51.2 in./sec
Installation 2 - 13
Scan Beam
Direction of Conveyor Parallel to Symbol
H=Symbol Height
Symbol is Parallel to Conveyor Movement
With the symbol bars parallel to the conveyor belt direction (ladder presentation) the relationship is:
V = (R x H) / N
where:V = Velocity of the conveyor (inches/second)
R = Scan Rate of scanner (see technical specifications)
H = Symbol height
N = Number of scans over symbol (minimum of 10 scans)
Figure 2-13
Symbol Parallel To Conveyor Movement
Example
Use the previous formula to calculate the number of scans for a specific bar code, scanner, and conveyor speed; a
minimum of 10 scans per symbol is recommended.
R = 640 scans/sec
H = 60 mil
N = 10 scans
V = (640 x .060) / 10 = 3.84 in./sec
Embedded Applications Requiring a Window
Use the following guidelines for applications that require a window in front of the MiniScan.
NOTE Zebra does not recommend placing an exit window in front of the MiniScan; however, the following
information is provided for applications that require such a window.
Window Material
Many window materials that look perfectly clear can contain stresses and distortions that can reduce scanner
performance. For this reason, Zebra highly recommends using only optical glass or cell-cast acrylic with an
anti-reflection coating. Following is a description of acrylic, and CR-39, another popular window material.
Table 2-3 on page 2-14 outlines the suggested window properties.
2 - 14 MiniScan MSXX04 Series Integration Guide
CAUTION Consult an opto-mechanical engineer to recommend an appropriate window material and to
determine if coatings are appropriate for the specific application.
NOTE Do not use polycarbonate material.
Acrylic
When fabricated by cell-casting, acrylic has very good optical quality and low initial cost. However, protect the
surface from the environment as acrylic is susceptible to attack by chemicals, mechanical stresses, and UV light.
Acrylic has reasonably good impact resistance and can be ultrasonically welded.
CR-39
CR-39 is a thermal-setting plastic produced by the cell-casting process, and is commonly used in plastic eye
glasses lenses. CR-39 has excellent chemical and environmental resistance, including good surface hardness.
Typically it does not require hard-coating, but can be hard coated for severe environments. CR-39 has reasonably
good impact resistance and cannot be ultrasonically welded.
Chemically Tempered Float Glass
Glass is a hard material which provides excellent scratch and abrasion resistance. However, unannealed glass is
brittle. Increasing flexibility strength with minimal optical distortion requires chemical tempering. Glass cannot be
ultrasonically welded and is difficult to cut into odd shapes.
Table 2-3
MaterialRed cell-cast acrylic.
Spectral Transmission85% minimum from 640 to 690 nanometers.
Thickness0.059 ± 0.005
Wavefront Distortion (transmission)0.2 wavelengths peak-to-valley maximum over any 0.08 in. diameter within
Clear ApertureTo extend to within 0.04 in. of the edges all around.
Surface Quality60-20 scratch/dig
CoatingBoth sides to be anti-reflection coated to provide 0.5% max reflectivity
Suggested Window Properties
PropertyDescription
the clear aperture.
(each side) from 640 to 690 nanometers at nominal window tilt angle.
Coatings must comply with the hardness adherence requirements of
MIL-M-13508.
Installation 2 - 15
Window Coatings
Table 2-4 lists some exit window manufacturers and anti-reflection coaters.
Anti-Reflection Coatings
Apply an anti-reflection coating to the inside and/or outside of the window to significantly reduce the amount of light
reflected off the window, back into the scan engine. The coating can also improve the range of acceptable window
positions and minimize performance degradation due to signal loss as the light passes through the window. Zebra
highly recommends using anti-reflection coatings on both the inside and outside of the window.
Polysiloxane Coating
Polysiloxane type coatings are applied to plastic surfaces to improve the surface resistance to both scratch and
abrasion. They are usually applied by dipping, then air-drying in an oven with filtered hot air.
Table 2-4
Evaporated Coatings, Inc.
2365 Maryland Road
Willow Grove, PA 19090
(215) 659-3080
Fosta-Tek Optics, Inc.
320 Hamilton Street
Leominster, MA 01453
(978) 534-6511
If placing a window between the MiniScan and the item to scan, observe the following guidelines:
•
Window Clear Opening - Make the clear opening of the window large enough so that the entire scan beam
passes through the window. Cutting off any part of the beam can result in internal reflections and degrade
decode range performance. Ensure that window placement relative to the MiniScan accounts for tolerances
on all parts involved in the assembly.
•
Window Angle - Angle the window at least 2
2-5). Further tilting the window is acceptable and decreases the possibility of a secondary reflection from that
window degrading the scanner's performance.
•
Optical Working Range - Adding a window can reduce the working range of the scanner since there is a
signal loss when passing through window material. To minimize this reduction, use a special coating
described in Window Coatings on page 2-15. To understand the difference, test the scanner in the desired
orientation and see if the difference affects scanner performance.
o
more than the tilt of the window on the scanner (see Table
Table 2-5
Secondary Window Angles
MiniScan Model
MS954
MS1204FZY, MS2204, MS2204VHD
MS3204
MiniScan Exit Window Angle
from Vertical
o
28
o
30
o
35
Minimum Secondary Window
Angle from Vertical
o
30
o
32
o
37
Accessories
Zebra’s Solution Builder (ordering guide) offers the following accessories for the MiniScan scanner.
•
For power connection
• Use Power Supply 50-14000-253R, -256R, -257, -258R, -259R, or PWRS-14000-253R, -256R, -257,
•
RS-232
• Female DB9 with straight connector to RS-232 host (female DB9), with trigger jack and no beeper,
• Female DB9 with straight connector to RS-232 host (female DB9), with trigger jack and beeper,
• Female DB9 with straight connector to RS-232 host (female DB9), p/n 25-58918-XX
• Female DB9 with right angle connector to RS-232 host (female DB9), p/n 25-58919-XX
• Female DB9 with straight connector to RS-232 host (female DB9), with trigger jack and no hardware
Simple Serial Interface Software Developer's Kit (SSISDK)
The Software Developer's Kit, available from Zebra’s website, provides the software tools required to integrate and
communicate with the MiniScan scanners, including:
•
Sample Windows® program with source code
•
DLL with source code for building user applications
•
ActiveX component (including help file) for easy integration into VisualBasic programs
•
Simple Serial Interface documentation.
With over 70 programmable parameters, you can configure MiniScan scanners by scanning bar code menus, or
through the serial interface using Zebra’s Simple Serial Interface protocol.
For Windows
scanner's features and obtain maximum performance.
®
, DOS, and embedded system environments, this enables you to take full advantage of the
Chapter 3 Scanning
Introduction
This chapter provides information on scan patterns, scanning, triggering options, and beeper and LED definitions.
MiniScan Scan Patterns
MS1204FZY / MS954 Scan Pattern
MS1204FZY and MS954 scanners emit a single scan line to quickly decode 1D bar codes.
Figure 3-1
Single Scan Line Scan Pattern
3 - 2MiniScan MSXX04 Series Integration Guide
Stage 1: “Slab” Raster Pattern
Stage 2: Open Raster Pattern
MS2204 and MS2204VHD Scan Patterns
The MS2204 and MS2204VHD generate different scan patterns (Smart Raster and High Density Single Scan Line)
based on the software command received at the interface. You can use the raster pattern to read 1D bar codes and
PDF417 symbols.
NOTE The MS2204 and MS2204VHD also support omnidirectional and semi-omnidirectional scan patterns, but
are not optimized for these patterns.
Smart Raster Scan Pattern
The MS2204 and MS2204VHD can create a single line which opens vertically to read PDF417 symbols using the
Smart Raster feature. This feature autodetects the type of bar code being scanned and adjusts its pattern
accordingly, providing optimal performance on 1D, PDF417, GS1 DataBar, and Composite codes.
Figure 3-2
Raster Scan Pattern
High Density Single Scan Line Scan Pattern
The High Density single scan line appears as a "mini" raster and scans multiple areas of 1D codes to swiftly and
accurately capture data on poorly printed and damaged bar codes.
Figure 3-3
High Density Single Scan Line Scan Pattern
Scanning3 - 3
Stage 1: “Slab” Raster Pattern
Stage 2: Open Raster Pattern
MS3204 Scan Patterns
The MS3204 generates four scan patterns based on the software command received at the interface. These
patterns are Smart Raster, Semi-omnidirectional, Omnidirectional, and High Density Single Scan Line. You can use
the raster pattern to read 1D bar codes and PDF417 symbols. The omnidirectional pattern reads 1D bar codes in
an omnidirectional manner.
Smart Raster Scan Pattern
The MS3204 can create a single line which opens vertically to read PDF417 symbols using the Smart Raster
feature. This feature autodetects the type of bar code being scanned and adjusts its pattern accordingly, providing
optimal performance on 1D, PDF417, GS1 DataBar, and Composite codes.
Figure 3-4
Raster Scan Pattern
Semi-omnidirectional Scan Pattern
The semi-omnidirectional pattern is an alternative to the full omnidirectional pattern that scans highly truncated 1D
and GS1 DataBar bar codes. Present bar codes horizontally with no more than a 20
Figure 3-5
Semi-omnidirectional Scan Pattern
o
tilt.
3 - 4MiniScan MSXX04 Series Integration Guide
Omnidirectional Scan Pattern
The high-speed rotating omnidirectional scan pattern provides aggressive performance on 1D bar codes because
there are no “holes” in the pattern. This ensures fast throughput at the point of activity and the ability to read 1D
symbols in 360
o
of rotation, eliminating the need to orient the bar code in the field of view.
Figure 3-6
Omnidirectional Scan Pattern
High Density Single Scan Line Scan Pattern
The high density single scan line appears as a "mini" raster and scans multiple areas of 1D codes to swiftly and
accurately capture data on poorly printed and damaged bar codes.
Figure 3-7
High Density Single Scan Line Scan Pattern
Scan Angle Selection
The MS1204FZY and MS954 scanners support two pre-set scan angles (see each scanner’s technical
specifications)
Selecting Scan Angle via SSI
To use SSI to select the scan angle, issue the SSI PARAM_SEND command with the NUM_SCAN_ANGLE (191)
parameter number. This is set to the default angle (182), or you can select the alternate angle (181). See the
Simple Serial Interface (SSI) Programmer’s Guide (p/n 72-40451-xx) for more information.
Selecting Scan Angle via Parameter Bar Code
.
You can also set the scan angle by scanning a parameter bar code (see Scan Angle on pa ge 10-18 ). Scanning the
parameter bar code retains that scan angle setting.
Operation in Blink Mode
The scan angle system parameter determines the scan angle during Blink Mode.
Scanning Tips
RIGHT
WRONG
012345
012345
When scanning, make sure the symbol to scan is within the scanning range. See Calculating the Usable Scan
Length Method on page 2-9. Align the bar code with the scan beam. The green decode LED lights to indicate a
successful decode.
Scan the Entire Symbol
•
The scan beam must cross every bar and space on the symbol.
•
The larger the symbol, the farther away the scanner should be positioned.
•
Position the scanner closer for symbols with bars that are close together.
Scanning3 - 5
Position at an Angle
Do not position the scanner exactly perpendicular to the bar code. In this position, light can bounce back into the
scanner's exit window and prevent a successful decode.
Trigger Options
Continuous
The laser is enabled continuously and decode processing is continuously active. You can configure the scanner to
scan and transmit a bar code, and then not decode the same bar code or any bar code for a set period of time. See
Timeout Between Decodes on page 10-25 to customize the application to the rate at which bar codes are
presented.
NOTE This option is not recommended during scanner programming via bar code menus.
Continuous
3 - 6MiniScan MSXX04 Series Integration Guide
Level Trigger
The laser is enabled and decode processing begins when the trigger line activates. Decode processing continues
until a good decode occurs, the trigger is released, or the Laser On Time expires. The laser is disabled once
decode processing completes. The next decode attempt does not occur until the trigger line is released and then
reactivated.
Pulse Trigger
The laser is enabled and decode processing begins when the trigger line activates. Decode processing continues
regardless of the trigger line until a good decode occurs, or until the Laser On Time expires. The laser is disabled
once decode processing completes. The next decode attempt does not occur until the trigger line is released and
then reactivated.
Level
Pulse
Blink
NOTE Only the MS1204FZY and MS954 support this option.
The laser blinks at a 25% duty cycle (reduced to 10% after 30 seconds of inactivity), until a bar code is presented.
When a bar code is presented, the laser remains on until either the bar code is decoded or removed, or the session
timeout expires. Once it decodes the bar code, the scanner does not decode it again until the bar code is removed.
Blink
Host Trigger
An SSI Start Decode message from the host enables the laser and begins decode processing. Decode processing
continues until a good decode occurs, an SSI Stop Decode message is received, or the Laser On Time expires.
The laser is disabled once decode processing completes. The next decode attempt does not occur until the host
sends the next Start Decode message.
Host
Beeper and LED Definitions
Table 3-1 provides beeper definitions, and Table 3-2 provides LED definitions.
Scanning3 - 7
Table 3-1
Standard Use
1 Beep - short high tone A bar code symbol was decoded (if decode beeper is enabled).
1 Beep - long high toneThermal shutdown.
3 Beeps - short high tone
(MS2204/2204VHD/3204 only)
Parameter Menu Scanning
2 Beeps - short high tone Correct entry scanned or correct menu sequence performed.
1 Beep - hi/lo/hi/lo tone Successful program exit with change in the parameter setting.
2 Beeps - lo/hi tone Input error, incorrect bar code, or
Communication
4 Beeps - short high tone Communication error.
4 Beeps - hi/hi/hi/loReceive error.
Beeper Definitions
Beeper SequenceIndication
Power-on or reset. Occurs immediately after the scanner turns on, indicating
that the system software is working properly. If three beeps occur during normal
operation, it is due to a reset and any work in progress is lost. If this occurs
often, contact Zebra Support.
Cancel
code programming sequence; remain in program mode.
scanned, wrong entry, incorrect bar
3 Beeps - lo/hi/loADF transmit error.
Table 3-2
RedScanner is on.
GreenA bar code was successfully decoded.
LED Definitions
LEDIndication
3 - 8MiniScan MSXX04 Series Integration Guide
Chapter 4 MS1204FZY Specifications
Introduction
This chapter provides the technical specifications for the MS1204FZY scanner.
MS1204FZY Electrical Interface
Figure 4-1
MiniScan Connector
4 - 2MiniScan MSXX04 Series Integration Guide
Table 4-1 lists the pin functions of the MS1204FZY interface.
Table 4-1
Pin No.Pin NameType*Function
1TriggerISignals scanner to begin scanning session.
2TXDOSerial data transmit output. Drives the serial data receive input on the
3RXDISerial data receive input. Driven by the serial data transmit output on
4 Not used
5GroundPower supply ground input and signal ground reference.
6PowerI5.0 VDC ± 10%
7CTSIClear-to-send handshaking input line, used only in conjunction with the
8RTSORequest-to-send handshaking output line, used only in conjunction
9Beeper/DownloadI/ODuring normal operation this signal functions as an external beeper
MS1204FZY Electrical Interface
device communicating with the scanner.
the device communicating with the scanner.
RTS line. Optionally used by another device to signal the scanner to
begin transmitting data.
with the CTS line. Optionally used by the scanner to signal another
device that data is available to send.
drive line. This signal can sink 50 mA of current to drive an external
beeper, and is normally pulled up. This signal is also used to begin
Flash Download operation when grounded externally during power up.
*I = Input O = Output
MS1204FZY Mechanical Drawings
Notes:
Unless otherwise specified:
•
Dimensions are in inches,
dimensions in [ ] are mm.
•
User mounting tolerances are not
included.
MS1204FZY Specifications4 - 3
Figure 4-2
MS1204FZY Mechanical Drawing
4 - 4MiniScan MSXX04 Series Integration Guide
Notes:
Unless otherwise specified:
•
Dimensions are in inches,
dimensions in [ ] are mm.
•
User mounting tolerances are
not included.
Figure 4-3
MS1204FZY Mechanical Drawing
MS1204FZY Technical Specifications
Table 4-2 provides the MS1204FZY technical specifications.
MS1204FZY Specifications4 - 5
Table 4-2
Power Requirements
Laser Power1.0 mW ± 0.12 mW,
Scan Rate36 (± 5) scans/sec (bidirectional)
Print ContrastMinimum 25% absolute dark/light reflectance measured at 650 nm.
Scan AngleDefault (Wide): 42° ± 2°
Scan PatternSingle scan line
Skew Tolerance± 50° from normal (see
Pitch Angle± 65° from normal (see
Roll± 20° from vertical (see
MS1204FZY Technical Specifications @ 23°C
ItemDescription
Input Voltage
Scanning Current
Standby Current
V
Noise Level
cc
5.0 VDC ±10%
160 mA ±40 mA
20 mA ±5 mA typical
200 mV peak-to-peak max.
Alternate (Narrow): 30° ± 2°
λ
= 650 nm nominal
Figure 4-4 on page 4-6
Figure 4-4 on page 4-6
Figure 4-4 on page 4-6
)
)
)
Decode Depth of FieldSee
Ambient Light Immunity
Sunlight
Artificial Light
DropMultiple 30” drops
VibrationUnpowered scanner withstands a random vibration along each of the
ESD± 20kV air discharge
SealingIP54
Operating Temperature-4° to 122°F (-20° to 50°C)
Storage Temperature-40° to 158°F (-40° to 70°C)
Humidity5% to 95% non-condensing
Note: Environmental and/or tolerance parameters are not cumulative.
Figure 4-5 on page 4-7
8,000 ft. candles (86,112 lux)
450 ft. candles (4,844 lux)
X, Y and Z axes for a period of one hour per axis, defined as follows:
20 to 80 HzRamp up to 0.04 G^2/Hz at the rate of 3dB/octave.
80 to 350 Hz0.04 G^2/Hz
350 to 2000 HzRamp down at the rate of 3 dB/octave.
Note: Environmental and/or tolerance parameters are not cumulative.
Figure 4-4
Skew, Pitch and Roll
MS1204FZY Decode Zone
In.
cm
MS-120XFZY
5 mil
7.00
7.5 mil
13
mil
3.00
12.50
25.75
34.00
66.75
20 mil * (80% MRD)
40 mil *
75.00
55 mil *
*Minimum distance determined by symbol length and scan angle
W
i
d
t
h
o
f
F
i
e
l
d
Depth of Field
Note: Typical performance at 68˚F (20˚C)
on high quality symbols.
2.20
1.00
2.20
4.00
0
5
10
15
5
10
15
20
25
20
25
0
12.7
25.4
38.1
12.7
25.4
38.1
50.8
63.5
50.8
63.5
100%
UPC
70
177.8
65
165.1
60
152.4
55
139.7
50
127.0
45
114.3
40
101.6
35
88.9
30
76.2
25
63.5
20
50.8
15
38.1
10
25.4
5
12.7
0
0
75
190.5
30
35
76.2
88.9
in
cm
35
30
88.9
76.2
27.25
20 mil * (25%MRD)
3.25
The scanner offers a scan angle of either 30° or 42°. Figure 4-5 shows the 42° symbol decode ranges. These figures
are typical values. Table 4-3 on page 4-8 lists the typical and guaranteed distances for the 42° scan angle for
selected bar code densities. The minimum element width (or “symbol density”) is the width in mils of the narrowest
element (bar or space) in the symbol. The maximum usable length of a symbol at any given range appears below.
To calculate this distance, see Calculating the Usable Scan Length Method on page 2-9.
MS1204FZY Specifications4 - 7
Figure 4-5
MS1204FZY Typical Decode Zone (42o Scan Angle)
4 - 8MiniScan MSXX04 Series Integration Guide
Table 4-3
MS1204FZY Decode Distances (42o Scan Angle)
Symbol Density/
p/n / Bar Code Type /
W-N Ratio
5.0 mil
64-17453-01
Code 39; 2.5:1
7.5 mil
64-17452-01
Code 39; 2.5:1
13 mil
64-05303-01
100% UPC
20 mil
60-01429-01
Code 39; 2.2:1
20 mil
60-02710-01
Code 39; 2.2:1
Bar Code Content/
Contrast
ABCDEFGH
80% MRD
ABCDEF
80% MRD
012345678905
80% MRD
123
80% MRD
123
25% MRD
Guaranteed Working
Typical Working Ranges
1
3
Ranges
3
NearFarNearFar
3.25 in.
8.26 cm
3.00 in.
7.62 cm
2.20 in.
5.59 cm
1.00 in.
2.54 cm
7.00 in.
17.78 cm
12.50 in.
31.75 cm
25.75 in.
65.41 cm
34.00 in.
86.36 cm
4.75 in.
12.07 cm
4.75 in.
12.07 cm
5.25 in.
13.34 cm
9.00 in.
22.86 cm
Note 219.00 in.
48.26 cm
Note 224.00 in.
60.96 cm
(Note 2)
1.00 in.
2.54 cm
27.25 in.
69.22 cm
Note 222.00 in.
55.88 cm
(Note 2)
40 mil
64-17457-01
Code 39; 2.2:1
55 mil
64-17458-01
Code 39; 2.2:1
AB
80% MRD
CD
80% MRD
2.20 in.
5.59 cm
(Note 2)
4.00 in.
10.16 cm
(Note 2)
66.75 in.
169.55 cm
75.00 in.
190.50 cm
Note 249.00 in.
124.46 cm
Note 255.00 in.
139.70 cm
Notes:
1. Contrast measured as Mean Reflective Difference (MRD) at 650 nm.
2. Near ranges on lower densities largely depend on the width of the bar code and the scan angle.
3. Working range specifications: Photographic quality symbols, pitch = 10°, skew = 0°, roll = 0°,
ambient light < 150 ft. candles, and temperature = 23 °C.
Usable Scan Length
The decode zone is a function of various symbol characteristics including density, print contrast, wide-to-narrow
ratio, and edge accuracy. Consider the width of the scan line at any given distance when designing a system.
Calculating the Usable Scan Length Method on page 2-9 describes how to calculate the usable scan length. Table
4-2 on page 4-5 provides the scan angle.
Chapter 5 MS2204 Specifications
Introduction
This chapter provides the technical specifications for the MS2204 scanner.
MS2204 Electrical Interface
Figure 5-1
MiniScan Connector
5 - 2MiniScan MSXX04 Series Integration Guide
Table 5-1 lists the pin functions of the MS2204 interface.
Table 5-1
Pin No.Pin NameType*Function
1TriggerISignals scanner to begin scanning session.
2TXDOSerial data transmit output. Drives the serial data receive input on the
3RXDISerial data receive input. Driven by the serial data transmit output on
4 Not used
5GroundPower supply ground input and signal ground reference.
6PowerI5.0 VDC ± 10%
7CTSIClear-to-send handshaking input line, used only in conjunction with
8RTSORequest-to-send handshaking output line, used only in conjunction
9Beeper/DownloadI/ODuring normal operation this signal functions as an external beeper
MS2204 Electrical Interface
device communicating with the scanner.
the device communicating with the scanner.
the RTS line. Optionally used by another device to signal the scanner
to begin transmitting data.
with the CTS line. Optionally used by the scanner to signal another
device that data is available to send.
drive line. This signal can sink 50mA of current to drive an external
beeper, and is normally pulled up. This signal is also used to begin
Flash Download operation when grounded externally during power
up.
*I = Input O = Output
MS2204 Mechanical Drawings
Notes:
Unless otherwise specified:
•Dimensions are in inches,
dimensions in [ ] are mm.
•User mounting tolerances
are not included.
MS2204 Specifications5 - 3
Figure 5-2
MS2204 Mechanical Drawing
5 - 4MiniScan MSXX04 Series Integration Guide
Notes:
Unless otherwise specified:
•Dimensions are in inches,
dimensions in [ ] are mm.
•User mounting tolerances
are not included.
Figure 5-3
MS2204 Mechanical Drawing
MS2204 Technical Specifications
Table 5-2 provides the MS2204 technical specifications
MS2204 Specifications5 - 5
Table 5-2
MS2204 Technical Specifications @ 23°C
Item Description
Power Requirements
Input Voltage
Scanning Current
Standby Current
V
Noise Level
cc
Laser Power0.95 mW ± 0.1 mW,
5.0 VDC ± 10%
250 ± 30 mA typical
25 ± 5 mA typical
200 mV peak-to-peak max.
Z axes for a period of one hour per axis, defined as follows:
20 to 80 HzRamp up to 0.04 G^2/Hz at the rate of 3dB/octave.
80 to 350 Hz0.04 G^2/Hz
350 to 2000 Hz Ramp down at the rate of 3 dB/octave.
± 8kV indirect discharge
Weight4.73 oz. (134 gm)
Scan Beam
15 mil
Symbol
10 in. (254 mm)
Roll
Angle
Scan Beam
15 mil
Symbol
Pitch
Angle
10 in. (254 mm)
Scan Beam
15 mil
Symbol
Skew
Angle
10 in. (254 mm)
+ 49° from normal
SkewPitch
+ 55° from normal
Roll
+ 20° from normal
Note: Tolerances are
of the working range.
reduced at extreme ends
MS2204 Specifications5 - 7
Figure 5-4
Skew, Pitch and Roll
5 - 8MiniScan MSXX04 Series Integration Guide
In.
cm
0
40 mil Minimum Element Width
55 mil Minimum Element Width
31.0
Depth of Field
24.0
Note: Typical performance at 68˚F (20˚C)
on high quality symbols in normal room light.
Vcc = 5V
5
101520
25
012.725.438.150.8
63.5
7.5 mil
19.0
6 mil
1.5
7.0
2.0
5.25
30
76.2
35
88.9
20 mil Minimum Element Width
0
In. cm
W
i
d
t
h
o
f
F
i
e
l
d
0
2.5
5
7.5
2.5
5
7.5
5.1
10.1
15.2
5.1
10.1
15.2
10
25.4
10
25.4
MS 22XX
*
* Minimum distance determined by symbol length and scan angle.
14.0
13 mil Minimum Element Width
MS2204 Decode Zones
The decode zone is a function of various symbol characteristics including density, print contrast, wide to narrow
ratio, and edge acuity. Typical values appear. Table 5-3 on page 5-9 and Table 5-4 on page 5-11 list the typical and
guaranteed distances for selected bar code densities. The minimum element width (or “symbol density”) is the
width in mils of the narrowest element (bar or space) in the symbol. The maximum usable length of a symbol at any
given range appears below. To calculate this distance, see Calculating the Usable Scan Length Method on page
2-9.
MS2204 1D Decode Zone
Figure 5-5
MS2204 1D Decode Distances
MS2204 1D Decode Distances
MS2204 Specifications5 - 9
Table 5-3
MS2204 1D Decode Distances
Symbol Density/
p/n / Bar Code Type
6.0 mil
60-01755-01
Code 39
7.5 mil
64-17452-01
Code 39
13 mil
64-05303-01
100% UPC
20 mil
64-17456-01
Code 39
40 mil
64-17457-01
Code 39
Bar Code Content/
Contrast
1
123
80% MRD
ABCDEF
80% MRD
012345678905
80% MRD
123
80% MRD
AB
80% MRD
Guaranteed Working
Typical Working Ranges
3
Ranges
NearFarNearFar
2.0 in.
5.08 cm
1.5 in.
3.81 cm
Note 214.0 in.
5.25 in.
13.34 cm
7.0 in.
17.78 cm
2.75 in.
7.00 cm
2.25 in.
5.72 cm
N/A10.5 in.
35.56 cm
Note 219.0 in.
N/A14.0 in.
48.26 cm
Note 224.0 in.
N/A18.0 in.
60.96 cm
3
4.0 in.
10.16 cm
5.0 in.
12.7 cm
26.67 cm
35.56 cm
45.72 cm
55 mil
60-01601-01
A
80% MRD
Note 231.0 in.
78.74 cm
Note 225.0 in.
63.50 cm
Code 39
Notes:
1. Contrast measured as Mean Reflective Difference (MRD) at 650 nm.
2. Near ranges on lower densities largely depend on the width of the bar code and the scan angle.
3. Working range specifications: Photographic quality symbols, pitch = 10°, skew = 0°,
roll = 0°, ambient light < 150 ft. candles, and temperature = 23 °C.
5 - 10 MiniScan MSXX04 Series Integration Guide
In.
cm
0
10 mil Minimum Element Width, 80%
15 mil Minimum Element Width
15.0
Depth of Field
9.0
Note: Typical performance at 68˚F (20˚C) on high quality symbols
in normal room light. Y-module dimension = 3X.
Vcc = 5V
2
4
1012
14
0
5.1
10.1
25.430.5
35.6
6.6 mil
1.5
6.0
16
40.6
6
15.2820.3
3.5
5.6
0
In. cm
W
i
d
t
h
o
f
F
i
e
l
d
0
2.5
5
2.5
5
6.35
12.7
6.35
12.7
10 mil Minimum Element Width, 35%
8.0
3.5
MS-220X
MS2204 2D Decode Zone
Figure 5-6
MS2204 2D Slab/Raster Decode Distances
NOTE Not optimized for omnidirectional mode.
MS2204 2D Decode Distances
MS2204 Specifications 5 - 11
Table 5-4
Symbol Density/
p/n / Bar Code Type
MS2204 2D Slab/Raster Decode Distances
Bar Code Content/
Contrast
1
Typical Working Ranges
Guaranteed Working
3
Ranges
NearFarNearFar
6.6 mil
64-14035-01
ABCDEF
80% MRD
1.5 in.
3.81 cm
6.00 in.
15.24 cm
Note 24.75 in.
PDF417
10 mil
64-14937-01
012345678905
35% MRD
3.5 in.
8.89 cm
8.0 in.
20.32 cm
Note 25.0 in.
PDF417
10 mil
64-14037-01
80% MRD3.5 in.
8.89 cm
9.0 in.
22.86 cm
Note 27.5 in.
PDF417
15 mil
64-14038-01
80% MRD5.6 in.
14.22 cm
15.0 in.
38.10 cm
Note 213.0 in.
PDF417
Notes:
1. Contrast measured as Mean Reflective Difference (MRD) at 650 nm.
2. Near ranges on lower densities largely depend on the width of the bar code and the scan
angle.
3. Working range specifications: Photographic quality symbols, pitch = 10°, skew = 0°,
roll = 0°, ambient light < 150 ft. candles, and temperature = 23 °C.
3
12.07 cm
12.7 cm
19.05 cm
33.02 cm
NOTE Not optimized for omnidirectional mode.
Usable Scan Length
The decode zone is a function of various symbol characteristics including density, print contrast, wide-to-narrow
ratio, and edge acuity. Consider the width of the decode zone at any given distance when designing a system.
Calculating the Usable Scan Length Method on page 2-9 describes how to calculate the usable scan length.
5 - 12 MiniScan MSXX04 Series Integration Guide
Chapter 6 MS2204VHD Specifications
Introduction
This chapter provides the technical specifications for the MS2204VHD scanner.
MS2204VHD Electrical Interface
Figure 6-1
MiniScan Connector
6 - 2MiniScan MSXX04 Series Integration Guide
Table 6-1 lists the pin functions of the MS2204VHD.
Table 6-1
Pin No.Pin NameTy pe *Function
1TriggerISignals scanner to begin scanning session.
2TXDOSerial data transmit output. Drives the serial data receive input on the
3RXDISerial data receive input. Driven by the serial data transmit output on
4 Not used
5GroundPower supply ground input and signal ground reference.
6PowerI5.0 VDC ± 10%
7CTSIClear-to-send handshaking input line, used only in conjunction with the
8RTSORequest-to-send handshaking output line, used only in conjunction
9Beeper/DownloadI/ODuring normal operation this signal functions as an external beeper
MS2204VHD Electrical Interface
device communicating with the scanner.
the device communicating with the scanner.
RTS line. Optionally used by another device to signal the scanner to
begin transmitting data.
with the CTS line. Optionally used by the scanner to signal another
device that data is available to send.
drive line. This signal can sink 50mA of current to drive an external
beeper, and is normally pulled up. This signal is also used to begin
Flash Download operation when grounded externally during power up.
*I = Input O = Output
MS2204VHD Mechanical Drawings
Notes:
Unless otherwise specified:
•Dimensions are in inches,
dimensions in [ ] are mm.
•User mounting tolerances
are not included.
MS2204VHD Specifications6 - 3
Figure 6-2
MS2204VHD Mechanical Drawing
6 - 4MiniScan MSXX04 Series Integration Guide
Notes:
Unless otherwise specified:
•
Dimensions are in inches,
dimensions in [ ] are mm.
•
User mounting tolerances are
not included.
Figure 6-3
MS2204VHD Mechanical Drawing
MS2204VHD Technical Specifications
Table 6-2 provides the MS2204VHD technical specifications.
MS2204VHD Specifications6 - 5
Table 6-2
MS2204VHD Technical Specifications @ 23°C
Item Description
Power Requirements
Input Voltage
Scanning Current
Standby Current
V
Noise Level
cc
Laser Power0.7 mW ± 0.1 mW,
5.0 VDC ± 10%
250 ± 30 mA typical
25 ± 5 mA typical
200 mV peak-to-peak max.
and Z axes for a period of one hour per axis, defined as follows:
20 to 80 HzRamp up to 0.04 G^2/Hz at the rate of 3dB/octave.
80 to 350 Hz0.04 G^2/Hz
350 to 2000 HzRamp down at the rate of 3 dB/octave.
± 8kV indirect discharge
Weight4.73 oz. (134 gm)
Scan Beam
10 mil
Symbol
4 in. (102 mm)
Roll
Angle
Scan Beam
10 mil
Symbol
Pitch
Angle
4 in. (102 mm)
Scan Beam
10 mil
Symbol
Skew
Angle
4 in. (102 mm)
+ 15° from normal
SkewPitch
+ 30° from normal
Roll
+ 4° from normal
Note: Tolerances are
of the working range.
reduced at extreme ends
MS2204VHD Specifications6 - 7
Figure 6-4
Skew, Pitch and Roll
6 - 8MiniScan MSXX04 Series Integration Guide
In.
cm
0
7.5 mil
55 mil
15.0
Depth of Field
5.25
Note: Typical performance at 68˚F (20˚C)
on high quality symbols in normal room light.
Vcc = 5V
2.5
57.510
12.5
012.725.438.150.8
63.5
5 mil
4.75
4 mil
4.1
2.0
3.4
15
76.2
6 mil
0
In. cm
W
i
d
t
h
o
f
F
i
e
l
d
0
2.5
5
7.5
2.5
5
7.5
5.1
10.1
15.2
5.1
10.1
15.2
10
25.4
10
25.4
1.75
1.5
*
* Minimum distance determined by symbol length and scan angle.
MS 2204VHD
MS2204VHD Decode Zones
The decode zone is a function of various symbol characteristics including density, print contrast, wide to narrow
ratio, and edge acuity. Typical values appear. Table 6-3 on page 6-9 and Table 6-4 on page 6-11 list the typical and
guaranteed distances for selected bar code densities. The minimum element width (or “symbol density”) is the
width in mils of the narrowest element (bar or space) in the symbol. The maximum usable length of a symbol at any
given range appears below. To calculate this distance, see Calculating the Usable Scan Length Method on page
2-9.
MS2204VHD 1D Decode Zone
Figure 6-5
MS2204VHD 1D Slab/Raster Decode Distances
MS2204VHD 1D Decode Distances
MS2204VHD Specifications6 - 9
Table 6-3
MS2204VHD 1D Decode Distances
Symbol Density/
p/n / Bar Code Type
4 mil
64-15660-01
Code 39
5 mil
64-18779-01
Code 39
6 mil
64-01755-01
Code 39
7.5 mil
63-04191-01
Code 39
55 mil
60-01601-01
Code 39
Bar Code Content/
Contrast
STI4026
80% MRD
STI5025
80% MRD
123
80% MRD
STI30F4
80% MRD
A
80% MRD
Guaranteed Working
Typical Working Ranges
1
3
Ranges
3
NearFarNearFar
2.0 in.
5.08 cm
1.75 in.
4.45 cm
1.75 in.
4.45 cm
1.50 in.
3.81 cm
Note 215.0 in.
3.4 in.
8.64 cm
4.1 in.
10.41 cm
4.75 in.
12.07 cm
5.25 in.
13.34 cm
38.10 cm
2.75 in.
7.00 cm
2.25 in.
5.72 cm
2.25 in.
5.72 cm
2.00 in.
5.08 cm
2.8 in.
7.11 cm
3.5 in.
8.89 cm
4.0 in.
10.16 cm
4.75 in.
12.07 cm
Note 212.5 in.
31.75 cm
Notes:
1. Contrast measured as Mean Reflective Difference (MRD) at 650 nm.
2. Near ranges on lower densities largely depend on the width of the bar code and the scan angle.
3. Working range specifications: Photographic quality symbols, pitch = 10°, skew = 0°, roll = 0°,
ambient light < 150 ft. candles, and temperature = 23 °C.
6 - 10 MiniScan MSXX04 Series Integration Guide
In.
cm
0
10 mil, 35% MRD
Depth of Field
5.75
Note: Typical performance at 68˚F (20˚C) on high quality symbols
in normal room light. Y-module dimension = 3X.
Vcc = 5V
1
2
56
0
5.1
5.1
25.415.2
4.0 mil
1.90
3.00
3
15.2410.1
3.00
0
In. cm
W
i
d
t
h
o
f
F
i
e
l
d
0
1.25
2.5
1.25
2.5
3.18
6.35
3.18
6.35
6.6 mil
4.75
1.50
MS-2204VHD
MS2204VHD 2D Decode Zone
Figure 6-6
MS2204VHD 2D Slab/Raster Decode Distances
NOTE Not optimized for omnidirectional mode.
MS2204VHD 2D Decode Distances
MS2204VHD Specifications 6 - 11
Table 6-4
Symbol Density/
p/n / Bar Code Type
MS2204VHD 2D Slab/Raster Decode Distances
Bar Code Content/
Contrast
1
Typical Working Ranges
3
Guaranteed Working
Ranges
NearFarNearFar
4 mil
64-17025-01
123
80% MRD
1.90 in.
4.83 cm
3.00 in.
7.62 cm
2.20 in.
5.59 cm
PDF417
6.6 mil
64-14035-01
ABCDEF
80% MRD
1.50 in.
3.81 cm
4.75 in.
12.07 cm
2.00 in.
5.08 cm
PDF417
10 mil
64-14937-01
012345678905
80% MRD
3.00 in.
7.62 cm
5.75 in.
14.61 cm
4.25 in.
10.80 cm
PDF417
Notes:
1. Contrast measured as Mean Reflective Difference (MRD) at 650 nm.
2. Near ranges on lower densities largely depend on the width of the bar code and the scan
angle.
3. Working range specifications: Photographic quality symbols, pitch = 10°, skew = 0°,
roll = 0°, ambient light < 150 ft. candles, and temperature = 23 °C.
3
2.70 in.
6.89 cm
4.50 in.
11.43 cm
5.00 in.
12.72 cm
NOTE Not optimized for omnidirectional mode.
Usable Scan Length
The decode zone is a function of various symbol characteristics including density, print contrast, wide-to-narrow
ratio, and edge acuity. Consider the width of the decode zone at any given distance when designing a system.
Calculating the Usable Scan Length Method on page 2-9 describes how to calculate the usable scan length. The
Usable Scan Length Diagram on page 2-10 provides the scan angle.
6 - 12 MiniScan MSXX04 Series Integration Guide
Chapter 7 MS3204 Specifications
Introduction
This chapter provides the technical specifications for the MS3204 scanner.
7 - 2MiniScan MSXX04 Series Integration Guide
MS3204 Electrical Interface
This section describes the pin functions of the MS3204 scanner.
Figure 7-1
Table 7-1
Pin No.Pin NameType*Function
1TriggerISignals scanner to begin scanning session.
2TXDOSerial data transmit output. Drives the serial data receive input on the
3RXDISerial data receive input. Driven by the serial data transmit output on
4 Not used
5GroundPower supply ground input and signal ground reference.
6PowerI5.0 VDC ± 10%
7CTSIClear-to-send handshaking input line, used only in conjunction with
8RTSORequest-to-send handshaking output line, used only in conjunction
MS3204 Connector
MS3204 Electrical Interface
device communicating with the scanner.
the device communicating with the scanner.
the RTS line. Optionally used by another device to signal the scanner
to begin transmitting data.
with the CTS line. Optionally used by the scanner to signal another
device that data is available to send.
9Beeper/DownloadI/ODuring normal operation this signal functions as an external beeper
drive line. This signal can sink 50mA of current to drive an external
beeper, and is normally pulled up. This signal is also used to begin
Flash Download operation when grounded externally during power
up.
*I = Input O = Output
MS3204 Mechanical Drawings
Notes:
Unless otherwise specified:
•
Dimensions are in inches,
dimensions in [ ] are mm.
•
User mounting tolerances are not
included.
MS3204 Specifications7 - 3
Figure 7-2
MS3204 Mechanical Drawing
7 - 4MiniScan MSXX04 Series Integration Guide
Notes:
Unless otherwise specified:
•
Dimensions are in inches,
dimensions in [ ] are mm.
•
User mounting tolerances are
not included.
Figure 7-3
MS3204 Mechanical Drawing
MS3204 Technical Specifications
MS3204 Specifications7 - 5
Table 7-2
MS3204 Technical Specifications @ 23°C
Item Description
Power Requirements
Input Voltage
Scanning Current
Standby Current
V
Noise Level
cc
Laser Power0.7 mW typical, 0.8 mW maximum,
+5.0 VDC ± 10%
250 ± 30 mA typical
21 ± 5 mA typical
200 mV peak-to-peak max.
8,000 ft. candles (86,112 lux)
450 ft. candles (4,844 lux)
X, Y and Z axes for a period of one hour per axis, defined as follows:
20 to 80 HzRamp up to 0.04 G^2/Hz at the rate of 3dB/octave.
80 to 350 Hz0.04 G^2/Hz
350 to 2000 HzRamp down at the rate of 3 dB/octave.
± 8kV indirect discharge
Laser ClassCDRH Class II, IEC Class 2
Height1.98 in. (5.03 cm)
Width2.41 in. (6.12 cm)
Depth3.60 in. (9.14 cm)
Weight4.97 oz. (141 g)
Scan Beam
20 mil
Symbol
7.0 in. (177.8 mm)
Roll
Angle
Scan Beam
20 mil
Symbol
Skew
Angle
7.0 in. (177.8 mm)
Scan Beam
20 mil
Symbol
Pitch
Angle
7.0 in. (177.8 mm)
+ 15° from normal
SkewPitch
+ 30° from normal
Roll
+4° from normal
Note: Tolerances are
of the working range.
reduced at extreme ends
MS3204 Specifications7 - 7
Figure 7-4
Skew, Pitch and Roll
7 - 8MiniScan MSXX04 Series Integration Guide
Depth of Field
1.00
.25
In.
cm
0
20 mil
Depth of Field
12.5
2.5
57.510
12.5
012.725.438.150.8
63.5
80% UPC
12.5
6 mil
1.00
6.5
.25
3.25
100% UPC
0
cm
W
i
d
t
h
o
f
F
i
e
l
d
0
2.5
6.35
5
12.7
12.7
1.5
1.75
* Minimum distance determined by symbol length and scan angle.
2.5
5
6.35
in.
Note: Typical performance at 68˚F (20˚C)
on high quality symbols in normal room light.
Vcc = 5V
MS3204 Decode Zones
The decode zone is a function of various symbol characteristics including density, print contrast, wide to narrow
ratio, and edge acuity. These figures are typical values. Table 7-3 on page 7-9 and Table 7-4 on page 7-11 list the
typical and guaranteed distances for selected bar code densities. The minimum element width (or “symbol
density”) is the width in mils of the narrowest element (bar or space) in the symbol. The maximum usable length of
a symbol at any given range appears below. To calculate this distance, see Calculating the Usable Scan Length
Method on page 2-9.
Omnidirectional Decode Distances
Figure 7-5
MS3204 Omnidirectional Decode Zone
MS3204 Specifications7 - 9
Table 7-3
Symbol Density/
p/n / Bar Code Type
MS3204 Omnidirectional Decode Distances
Bar Code Content/
Contrast
1
Typical Working Ranges
Guaranteed Working
3
Ranges
NearFarNearFar
6.0 mil
60-01755-01
123
80% MRD
0.25 in.
0.64 cm
3.25 in.
8.3 cm
0.75 in.
1.9 cm
2.25 in.
5.7 cm
Code 39
64-06629-01
80% UPC
13 mil
64-05303-01
0080015
80% MRD
012345678905
80% MRD
1.0 in.
2.5 cm
1.5 in.
3.8 cm
6.5 in.
16.5 cm
12.5 in.
31.2 cm
1.5 in.
3.8 cm
4.5 in.
11.4 cm
Note 29.5 in.
24.1 cm
100% UPC
20 mil 1D
60-02710-03
123
80% MRD
1.75 in.
4.4 cm
12.5 in.
31.8 cm
Note 210.0 in.
25.4 cm
LC 35%
Notes:
1. Contrast measured as Mean Reflective Difference (MRD) at 650 nm.
2. Near ranges on largely depend on the width of the bar code and the scan angle.
3. Working range specifications: Photographic quality symbols, pitch = 15°, skew = 0°, roll = 0°,
ambient light < 150 ft. candles, and temperature = 23 °C, Vcc = 5V.
4. Measured from the front of the scanner.
3
7 - 10 MiniScan MSXX04 Series Integration Guide
In.
cm
0
55 mil 1D
Depth of Field
32.0
Note: Typical performance at 68˚F (20˚C)
on high quality symbols in normal room light.
Vcc = 5V
5
101520
25
012.725.438.150.8
63.5
10 mil PDF 417
14.0
6.6 mil PDF 417
3.5
9.5
1.0
5.25
30
76.2
35
88.9
15 mil PDF 417
0
In. cm
W
i
d
t
h
o
f
F
i
e
l
d
0
2.5
5
7.5
2.5
5
7.5
5.1
10.1
15.2
5.1
10.1
15.2
10
25.4
10
25.4
6.5
1.0
* Minimum distance determined by symbol length and scan angle.
1. Contrast measured as Mean Reflective Difference (MRD) at 650 nm.
2. Near ranges on largely depend on the width of the bar code and the scan angle.
3. Working range specifications: Photographic quality symbols, pitch = 15°, skew = 0°, roll = 0°,
ambient light < 150 ft. candles, and temperature = 23 °C, Vcc = 5V.
4. Measured from the front of the scanner.
3
Usable Scan Length
The decode zone is a function of various symbol characteristics including density, print contrast, wide-to-narrow
ratio, and edge acuity. Consider the width of the decode zone at any given distance when designing a system.
Calculating the Usable Scan Length Method on page 2-9 describes how to calculate the usable scan length. Table
7-2 on page 7-5 provides the scan angle.
7 - 12 MiniScan MSXX04 Series Integration Guide
Chapter 8 MS954 Specifications
Introduction
This chapter provides the technical specifications for the MS954 scanner.
8 - 2MiniScan MSXX04 Series Integration Guide
MS954 Electrical Interface
Figure 8-1
Table 8-1 lists the pin functions of the MS954 interface.
Table 8-1
Pin No.Pin NameTy p e*Function
1TriggerISignals scanner to begin scanning session.
2TXDOSerial data transmit output. Drives the serial data receive input on the
3RXDISerial data receive input. Driven by the serial data transmit output on
4 Not used
5GroundPower supply ground input and signal ground reference.
6PowerI5.0 VDC ± 10%
7CTSIClear-to-send handshaking input line, used only in conjunction with the
8RTSORequest-to-send handshaking output line, used only in conjunction with
MiniScan Connector
MS954 Electrical Interface
device communicating with the scanner.
the device communicating with the scanner.
RTS line. Optionally used by another device to signal the scanner to
begin transmitting data.
the CTS line. Optionally used by the scanner to signal another device
that data is available to send.
9Beeper/DownloadI/ODuring normal operation this signal functions as an external beeper
drive line. This signal can sink 50 mA of current to drive an external
beeper, and is normally pulled up. This signal is also used to begin
Flash Download operation when grounded externally during power up.
*I = Input O = Output
MS954 Mechanical Drawings
Notes:
Unless otherwise specified:
•
Dimensions are in inches,
dimensions in [ ] are mm.
•
User mounting tolerances are
not included.
MS954 Specifications8 - 3
Figure 8-2
MS954 Mechanical Drawing
8 - 4MiniScan MSXX04 Series Integration Guide
Notes:
Unless otherwise specified:
•
Dimensions are in inches,
dimensions in [ ] are mm.
•
User mounting tolerances are not
included.
Figure 8-3
MS954 Mechanical Drawing
MS954 Technical Specifications
MS954 Specifications8 - 5
Table 8-2
Power Requirements
Laser Power1.9 mW typical,
Scan Rate104 (±12) scans/sec (bidirectional)
Print ContrastMinimum 25% absolute dark/light reflectance measured at 650 nm.
Scan AngleDefault (Wide): 47° ± 3°
Scan PatternSingle scan line
Skew Tolerance± 40° from normal (see
Pitch Angle± 65° from normal (see
MS954 Technical Specifications @ 23°C
ItemDescription
Input Voltage
Scanning Current
Standby Current
V
Noise Level
cc
5.0 VDC ±10%
105 mA typical; 130 mA max
27 mA typical; 60 mA max
200 mV peak-to-peak max.
Alternate (Narrow): 35° ± 3°
Note: The MS954 does not require margin on either side of the bar code to decode.
The 47° scan line provides identical scanning performance to older MiniScans (e.g.,
MS923) with a scan line of 53°.
λ
= 655 nm nominal
Figure 8-4 on page 8-6
Figure 8-4 on page 8-6
)
)
Roll± 35° from vertical (see
Decode Depth of FieldSee
Ambient Light Immunity
Sunlight
Artificial Light
DropMultiple 30” drops
VibrationUnpowered engine withstands a random vibration along each of the X, Y, and Z
ESD± 15kV air discharge
Operating Temperature-4° F to 140° F (-20° C to 60° C)
Storage Temperature-40°F to 158° F (-40° C to 70° C)
Humidity95% (non-condensing)
Figure 8-5 on page 8-7
10,000 ft. candles (107,640 lux)
450 ft. candles (4,844 lux)
axes for a period of 1 hour per axis, defined as follows:
20 - 80 Hz: ramp up to 0.04G^2/Hz at the rate of 3dB/octave.
80 - 350 Hz: 00.04 G^2/Hz.
350 - 2000 Hz: ramp down at the rate of 3dB/octave.
± 8kV indirect discharge
Figure 8-4 on page 8-6
and
Figure 8-6 on page 8-9
)
8 - 6MiniScan MSXX04 Series Integration Guide
Scan Beam
13 mil
Symbol
Skew
Angle
5.0 in. (127 mm)
+ 40° from normal
SkewPitch
+ 65° from normal
Roll
+
35° from normal
Note: Tolerances are
of the working range.
reduced at extreme ends
Table 8-2
MS954 Technical Specifications @ 23°C (Continued)
ItemDescription
Laser ClassCDRH Class II, IEC Class 2
Height1.02 in. (2.59 cm) maximum
Width1.93 in. (4.90 cm) maximum
Depth2.31 in. (5.87 cm) maximum
Weight1.67 oz. (47.34 g)
Scan Beam
13 mil
Symbol
Pitch
Angle
Figure 8-4
Skew, Pitch and Roll
Roll
Angle
13 mil
Symbol
Scan Beam
5.0 in. (127 mm)
5.0 in. (127 mm)
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