Hioki BT3554-50, BT3554-51, BT3554-52 User's Manual

BT3554-50
BT3554-51 BT3554-52
Instruction Manual
BATTERY TESTER
EN
Jan. 2021 Edition 1 BT3554F961-00 21-01H

Battery Tester Quick Guide

Let’s start by measuring a fresh battery
To evaluate whether batteries have deteriorated, measure the internal resistance of a fresh battery. Deteriorated batteries will have about 1.5 to 2 times (values for reference purposes) as high internal resistance as a fresh one. Use these values as guidelines when determining deterioration evaluation values.
Example: Changes in the internal resistance and voltage
associated with battery deterioration
Resistance has doubled . . .
Deteriorated
Internal resistance: 0.5 m Voltage: 2.0 V (Example values)
Deterioration
evaluation value
of resistance
Initial value × 2
Initial value × 1.5
BT3554F961-00
FAIL
WARNING
PASS
Initial value
Fresh
Need
replacing
1.0 m
Ω
(Doubled)
Ω
1.8 V (Decreased by 10%)
Internal resistance
Available charge amount
PassPassPassPass Fail
Basic instruction on how to use the instrument
Connect the test lead to the
1
instrument.
Turn on the instrument.
2
Set the date and time when using
the instrument for the rst time.
(p. 43)
Choose a resistance range.
3
(p. 47)
Choose a voltage range.
4
(p. 47)
Enable the automatic hold and
5
automatic memory functions.
(The segments will appear.)
and
When the measured values become stable, the display will automatically freeze them. See “3.6 Automatic Hold Function” (p. 59).
Immediately after the display freezes measured values, the instrument will automatically save them. See “5.3 Automatic Memory Function” (p. 87).
(Black) (Red)
Hold down for at least 1 s.
Connect the test lead to a battery under measurement.
6
Saved in internal memory.
+
(Black)(Red)
Convenient functions
Comparator function
You can set threshold values to evaluate battery deterioration using the comparator function. (p. 67)
Example of setting deterioration evaluation values
PASS WARNING FAIL
Fresh In use
Acceptance value
Resistance: 0.5 m Voltage: 2.0 V
Hold down for at least 1 s.
Warning threshold
0.75 m
Ω
(Fresh battery’s value × 1.5)
1.8 V (Fresh battery’s value × 0.9)
Ω
Downloading measured values to your computer
You can connect the instrument and your computer using the accompanying USB cable to download measured values. (p. 103)
Need
replacing
Rejection value
1.0 m
Ω
(Fresh battery’s value × 2)
Prole information (p. 82)
1 2
Where this battery has been installed?
3
Prole information
comes in handy.
How can I help you?
4
Prole information?
Let me know the details.
Hiokichi-kun
Hioki’s corporate mascot
The use of prole information lets you save measured data
associating with detail information.
Concept of a data set to be saved
Prole
information
Measured data Memory number A.001
Prole number 1 Location information HIOKI 1F UPS ROOM Device information UPS 1-1 Battery number 1
Date and time 2020/4/20 13:00:00
Resistance value Voltage value Temperature Comparator threshold values Comparison result PASS, WARNING, or FAIL
(yyyy/mm/dd hh:mm)
m
. . . 
,  mΩ,  V
m
Ω
Ω
V °C
Measurement recording prompt (p. 95)
1 2
Let’s get down to work.
3
The memory contains 49 data sets only . . .
One short!
The 50th battery. That’s it.
4
I have to start from scratch again.
The measurement recording prompt uses voice prompts and the display to inform you of the battery number you are to measure next. You can get your jobs done neatly, which will no longer require you to start all over again.
Voice prompt
Display
No. 1, pass.
Next battery, No. 2.

Contents

Battery Tester Quick Guide
Introduction .........................................................................1
Verifying Package Contents ..............................................2
Options ................................................................................ 3
Safety Information .............................................................. 7
Operating Precautions ..................................................... 11
1 Overview 21
1.1 Evaluating Battery Deterioration .................21
1.2 Overview ........................................................24
1.3 Features .........................................................26
1.4 Names and Functions of Parts ....................28
1.5 Outer Dimension Drawing ............................ 36
2 Preparing for Measurement 37
2.1 Installing/Replacing LR6 Alkaline
Batteries ......................................................... 37
2.2 Attaching the Z5041 Protector ..................... 38
2.3 Connecting the Z3210 Wireless Adapter
(Option) ..........................................................39
2.4 Connecting the Test Lead ............................. 40
Bundling up the Pin Type Lead and the 9466
Remote Control Switch ............................................. 41
2.5 TurningOn/O󰀨theInstrument ..................... 42
2.6 Setting the Date and Time ............................43
2.7 Attaching the Neck Strap .............................44
i
Contents
3 Measurement 45
3.1 Inspection Before Measurement .................. 46
3.2 Setting the Measurement Ranges ...............47
3.3 Noise-Frequency Reduction Function ........49
3.4 Adjusting the Zero Point
(Zero Adjustment) .........................................50
How to short-circuit various test lead ........................ 51
Performing zero adjustment ...................................... 54
Troubleshooting on zero adjustment .........................56
Canceling the zero adjustment .................................56
3.5 Using the Hold Function ............................... 57
Disabling the hold function ........................................ 57
Freezing measured values using the 9466
Remote Control Switch ............................................. 58
3.6 Automatic Hold Function .............................59
3.7 Determining Battery-Deterioration
Evaluation Values ..........................................61
3.8 Measuring Batteries (Inspection) ................62
Measurement error ...................................................65
Warning display ........................................................65
3.9 Measuring Temperature ................................ 66
4 Comparator Function (Evaluation
Based on Threshold Values) 67
4.1 Overview ........................................................67
4.2 Enabling the Comparator Function ............. 68
4.3 Setting Threshold Values for the
Comparator .................................................... 69
Comparison table for the comparator .......................76
4.4 Setting the Comparator Buzzer ...................78
4.5 Canceling the Comparator Function ........... 79
ii
Contents
5 Memory Function 81
5.1 Overview ........................................................81
Memory structure ...................................................... 81
Prole information ..................................................... 82
5.2 Saving Data in the Memory ..........................85
5.3 Automatic Memory Function ........................ 87
5.4 Disabling the Memory Function ................... 89
5.5 Reading Out Saved Data ..............................90
5.6 Deleting Measured Data ...............................92
Deleting a single measured data set ........................92
Deleting all data contained in a unit .......................... 93
Deleting entire data ................................................... 94
6 Measurement Recording Prompt
Function 95
6.1 Preliminary Preparation ................................ 96
Transferring the prole information to the
instrument ................................................................. 96
6.2 Visual Prompt From the Instrument ............98
6.3 Visual Prompt and Voice Prompt ............... 101
7 Communications Function 103
7.1 Communicating With a Computer .............105
7.2 Communicating With a Mobile Device ......106
Enabling/disabling the wireless communications
function ...................................................................108
7.3 Excel® Direct Entry Function
(HID Connection) ......................................... 109
iii
Contents
8 Other Features 113
8.1 Backlight ...................................................... 113
Turning on/o󰀨 the backlight ..................................... 11 3
Enabling/disabling automatic backlighing
shuto󰀨 ..................................................................... 113
8.2 Automatic Power Saving Function
(APS) ............................................................ 114
8.3 Instrument’s Battery Level Indicator ......... 116
8.4 System Reset ............................................... 117
Default settings (Factory-congured settings) ........ 118
9 Specications 119
9.1 GeneralSpecications ............................... 11 9
9.2 BasicSpecications ...................................121
9.3 AccuracySpecications ............................. 123
9.4 FunctionSpecications .............................. 125
9.5 Default Settings and Resettable
Settings ........................................................ 137
10 Maintenance and Service 139
10.1 Repair, Inspection, and Cleaning ...............139
10.2 Troubleshooting ..........................................141
Before returning the instrument for repair ............... 141
10.3 Error Messages ...........................................144
10.4 FAQ ...............................................................146
10.5 Replacing the Fuse .....................................147
10.6 Replacing the Tip Pin of the Test Lead ..... 148
10.7 Disposing the Instrument
(Removing the Lithium Battery) ................. 151
iv
Contents
11 Appendix 153
11.1 E󰀨ectsofExtendingtheTestLeadand
Induced Voltage ........................................... 153
How to reduce induced voltages ............................. 153
11.2 E󰀨ectsofEddyCurrents ............................154
11.3 AC Four-Terminal Method
Measurement ............................................... 155
11.4 E󰀨ectsofCurrentDensity .......................... 157
When an object under measurement is wide or
thick ........................................................................157
11.5 Synchronous Detection .............................. 160
11.6 Calibration ...................................................162
Calibrating the resistance measurement unit .........162
Calibrating the voltage measurement unit .............. 163
Index 165
WarrantyCerticate
v
Contents
vi

Introduction

Introduction
Thank you very much for choosing the Hioki BT3554-50, BT3554­51, BT3554-52 Battery Tester. To ensure your ability to get the most out of this instrument over the long term, please read this manual carefully and keep it available for future reference.
Model
number
(Order code)
BT3554-50
BT3554-51 9465-10 Pin Type Lead
BT3554-52 L2020 Pin Type Lead
Hereafter, the model number is referred to as the one that appears on the product, BT3554-50.
Model name printed on
the instrument
BT3554-50
Standard accessory lead
None
Trademarks
• Android, Google Play, and Google Chrome are trademarks of Google, Inc.
IOS is a registered trademark of Cisco Systems, Inc. and/or its a󰀩liates in the United States and certain other countries.
• Other products and company names are trade names, registered trademarks, or trademarks of their respective owners.
1

Verifying Package Contents

Verifying Package Contents
When you open the package, carefully inspect the instrument to ensure that everything is in good condition, and that no damage occurred during shipping. In particular, check the accessories, panel switches, and connectors. If the instrument seems to have been
damaged or does not work as specied, contact your authorized
Hioki distributor or reseller.
Conrm that these contents are provided.
Instruction Manual Application Software CD* (SF4000 GENNECT ONE)
LR6 Alkaline batteries ×8
The latest version can be downloaded from our website.
*:
2
USB cable
Zero-adjustment board
Z5050 Fuse Set
Pin Type Lead 9465-10 (For BT3554-51) L2020 (For BT3554-52) Not included
(For BT3554-50)
BT3554-50 Battery Tester (With the Z5041 Protector attached)
C1014 Carrying Case
Neck strap (p. 44)

Options

Options
The options listed below are available for the instrument. To order
an option, contact your authorized Hioki distributor or reseller.
Options are subject to change. Please check Hioki’s website for the latest information. Please check Hioki’s website for the latest information.
Model 9465-10 Pin Type Lead
This pin type lead has a four­terminal structure.
Model L2020 Pin Type Lead
This pin type lead has a four­terminal structure and can be used for hard-to-reach measurement targets.
Model 9465-90 Tip Pin
The 9465-90 is a replacement tip pin for the 9465-10 and L2020 Pin Type Lead.
2.7 mmφ1.27 mm
φ
3
Options
Model 9772 Pin Type Lead
This pin type lead has parallel arranged pins. The pins possess high-strength wear-resistant. This lead, having the pins that can be inserted into a hole 5 mm in diameter, lets you perform measurement without removing terminal covers. You can also perform measurement in virtually any location because the pins can be inserted diagonally in hard-to­reach places.
Model 9772-90 Tip Pin
The 9772-90 is a replacement tip pin for the 9772 Pin Type Lead.
Model 9460 Clip Type Lead with Temperature Sensor
Using the 9460 lets you measure resistance, voltage, and temperature simultaneously.
4.3 mm
2.5 mm
9.15 mm
1.8 mm
φ
Clip (Black)
Temperature sensor
4
Mini plug (Connect to TEMP.SENSOR)
Options
Model 9466 Remote Control Switch
Attaching the 9466 to the test lead
lets you freeze displayed values
during measurement.
Supported models:
• Model 9465-10 Pin Type Lead
• Model 9772 Pin Type Lead
• Model L2020 Pin Type Lead
Model 9467 Large Clip Type Lead
The 9467 can clip on thick rodlike terminals of measurement targets. You can perform four-terminal measurement just by clipping the lead on to the target.
Approx. φ29 mm
Model 9451 Temperature Probe
(Cable length: 1.5 m) Connect the 9451 to the TEMP. SENSOR terminal on the top face of the instrument.
Mini plug φ2.5 mm (Connect to EXT.HOLD)
Switch
5
Options
Model 9451S Temperature Probe
Order code: 9451-01 (Cable length: 0.1 m) Connect the 9451S to the TEMP. SENSOR terminal on the top face of the instrument.
Model Z5038 0 Adj Board
(For the 9465-10, L2020, and
9772) Hook-and-loop fasteners are separately necessary to stick the Z5038 to the carrying case. Please use commercially available hook­and-loop fasteners.
Model Z5050 Fuse Set
Always use the specied fuse.
Model Z3210 Wireless Adapter
Model C1014 Carrying Case
Model Z5041 Protector
6

Safety Information

Safety Information
This instrument is designed to conform to IEC 61010 Safety Standards, and has been thoroughly tested for safety prior to shipment. However, using the instrument in a way not described in this manual may negate the provided safety features. Carefully read the following safety notes before using the instrument.
DANGER
Mishandling the instrument could result in bodily injury or even death, as well as damage to the instrument. Familiarize yourself with the instructions and precautions in this manual before use.
WARNING
Electricity can potentially cause serious events such
as an electric shock, heat generation, re, and an arc ash due to a short-circuit. If you have not used any
electrical measuring instruments before, you should be supervised by a technician who has experience in electrical measurement.
Protective gear
Performing measurement using this instrument involves live-line work. To prevent an electric shock, use appropriate protective insulation and adhere to applicable laws and regulations.
WARNING
7
Safety Information
Symbols and abbreviations
In this document, the severity levels of risk and hazard are classied
as follows.
Indicates an imminently hazardous situation
DANGER
WARNING
CAUTION
IMPORTANT
that will result in death of or serious injury to the operator.
Indicates a potentially hazardous situation that
may result in death of or serious injury to the operator.
Indicates a potentially hazardous situation
that may result in minor or moderate injury to the operator or damage to the instrument or malfunction.
Indicates information or content that is particularly important from the standpoint of operating or maintaining the instrument.
Indicates useful advice concerning instrument performance and operation.
Indicates a high voltage hazard. Failure to verify
safety or improper handling of the instrument could lead to an electric shock, burn, or death.
Indicates an action that must not be performed.
Indicates an action that must be performed.
HOLD
[HOLD]
8
Indicates a control key.
Indicates elements on the display.
Symbols on the instrument
Indicates the presence of a potential hazard. When the symbol
is printed on the instrument, refer to a corresponding topic in the Instruction Manual.
Indicates a fuse.
Indicates a grounding terminal.
Indicates DC (Direct Current).
Indicates the power button that switches the instrument between
on and o󰀨 states.
Symbols for various standards
Indicates that the product is subject to the Waste Electrical and Electronic Equipment (WEEE) Directive in EU member nations. Dispose of the product in accordance with local regulations.
Indicates that the product complies with standards imposed by EU directives.
Safety Information
9
Safety Information
Character expression
The instrument’s display expresses the alphanumeric characters as follows.
A B C D E F G H I J K L M N O P Q R S T U V W X Y Z
1 2 3 4 5 6 7 8 9 0
Some di󰀨erent expressions are used as below:
Indicates that the saved data has been deleted.
Indicates that the comparator buzzer is set to
FAIL.
Indicates that the A/D converter communications error occurs.
Accuracy labeling
The instrument accuracy is expressed by dening a percentage of
the reading and a limit value for errors in terms of digits.
reading Display value
Indicates the value displayed by the instrument. Limit values for reading errors are expressed as a percentage of the reading (“% of reading”).
digits Resolution
Indicates the minimum display unit (in other words, the smallest digit that can have a value of 1) for a digital measuring instrument. Limit values for digit errors are expressed using digits.
10

Operating Precautions

Operating Precautions
Observe the following precautionary information to ensure that the instrument can be used safely and in a manner that allows it to
perform as described in its specications. Use of the instrument should conrm not only to its specications, but also to the specications of all accessories, options, LR6
Alkaline batteries, and other equipment in use.
Installing the instrument
CAUTION
Installing the instrument in inappropriate locations could cause a malfunction of the instrument or an accident.
• Exposed to direct sunlight or high temperature
• Exposed to corrosive or combustible gases
Exposed to a strong electromagnetic elds or electrostatic charges
• Near induction heating systems (such as high-frequency induction heating systems and IH cooking equipment)
• Susceptible to vibration
• Exposed to water, oil, chemicals, or solvents
• Exposed to high humidity or condensation
• Exposed to high concentrations of dust particles
Do not place the instrument on an unstable or uneven surface. Doing so could cause the instrument to fall or turn over, causing bodily injury or damage to the instrument.
11
Operating Precautions
Preliminary checks
DANGER
If the test lead or the instrument is damaged, there is a risk of an electric shock. Perform the following inspection before use:
• Check that the insulation of the test lead is neither ripped nor torn and that no metal parts are exposed.
Replace the test lead with a one specied by Hioki.
• Check the instrument for any damage that may have occurred during storage or shipping, and
perform functional checks before use. If you nd
any damage to the instrument, please contact your authorized Hioki distributor or reseller.
Precautions for Transportation
During shipment of the instrument, handle it carefully so that it is not damaged due to a vibration or shock.
12
Handling the instrument
To prevent an electric shock, do not remove the instrument’s case. The internal components of the instrument carry high voltages and may become very hot during operation.
To avoid damage to the instrument, do not subject it to vibration or mechanical shock during transportation and handling. Exercise particular care to avoid subjecting the instrument to mechanical shock, for example by dropping.
Operating Precautions
DANGER
CAUTION
13
Operating Precautions
Precautions for measurement
DANGER
To prevent an electric shock, be careful to avoid shorting live lines with the test lead tip.
WARNING
• Do not use the instrument to measure circuits that
exceed its ratings or specications. Damage to the
instrument can cause an electric shock.
• Do not measure any voltage that would exceed the instrument’s maximum input voltage (terminal-to­terminal) or maximum rated line-to-ground voltage of 60 V.
Maximum input voltage
(terminal-to-terminal)
60 V DC
• Do not measure AC voltage.
Maximum rated
voltage to earth
60 V DC
14
Operating Precautions
WARNING
• Connect the test lead correctly.
• Wear gloves of rubber or similar material during measurement.
• Ventilate the rooms where batteries have been installed before measuring batteries to prevent explosions. Sparks may occur when a test lead is connected to a battery to be measured, which can
ignite any accumulated inammable gases such as
hydrogen.
CAUTION
After measuring a high-voltage battery, rst short-circuit the test lead to discharges the DC elimination capacitor connected across the lead before continuing to measure a low-voltage battery. Otherwise the low-voltage battery may be subject to an excess voltage, causing damage to the battery.
• To avoid damage to the instrument, do not apply voltage to the EXT.HOLD and TEMP.SENSOR terminal.
15
Operating Precautions
IMPORTANT
• Do not place the test lead in contact with the measurement terminals of a leaky battery. Doing so may cause a degradation in the instrument functionality due to exposure to electrolyte from the leaky battery.
• Subjecting the test lead to an excessive common-mode voltage could cause the following issues: (1) Unstable measured values (2) Wire-break detection display ([−−−−]) Attaching ferrite cores around the test lead or placing the
instrument some distance away from the oor may have a lightening the e󰀨ect.
16
Operating Precautions
IMPORTANT
If there is a potential di󰀨erence between the SOURCE− terminal and SENSE − terminal or between the SOURCE + terminal and SENSE + terminal, the instrument cannot perform
correct measurement.
SOURCE +SOURCE −
SENSE +SENSE −
OK
SENSE +SENSE −
SOURCE +SOURCE −
NO
17
Operating Precautions
Handling the test lead
Do not subject the pin type lead tip to force when it is in contact with the battery under measurement at a tilted angle.
CAUTION
Avoid subjecting the temperature probe tip to physical shock, and avoid sharp bends in the lead. These may damage the probe or break a wire.
IMPORTANT
Use only the Hioki-specied test lead. Using another test lead
may result in incorrect measurements due to loose connections or other reasons. Besides, Hioki does not guarantee the accuracy and proper operation.
Zero-adjustment board
To prevent short-circuit accidents, do not place the zero-adjustment board on top of a battery under measurement.
18
OK
NO
WARNING
Instrument’s batteries and fuse
WARNING
• To avoid an electric shock, disconnect the test lead from the object under measurement before open the cover to replace the LR6 Alkaline batteries or fuse.
• To prevent instrument damage or an electric shock, use only the screw for securing the fuse cover in place that is originally installed. If you have lost the
screw or nd that the screw is damaged, please
contact your Hioki distributor for a replacement.
• Use a fuse only specied by Hioki. Failure to observe this could damage the instrument, resulting in bodily injury. Specied fuse: Model Z5050 Fuse Set (216.630, Littelfuse Inc., fast-acting, rating: 250 V / F 630 mA, interrupting rating: 1500 A)
• Do not short-circuit, recharge ,or disassemble
LR6 Alkaline batteries, or dispose of them in re.
Batteries may explode if mistreated.
• Do not use the instrument with the fuse holder short-circuited. Failure to observe this could damage the instrument, resulting in bodily injury.
Operating Precautions
19
Operating Precautions
CAUTION
Poor performance or damage from LR6 Alkaline battery leakage could result. Observe the cautions listed below:
• Do not mix old and new LR6 Alkaline batteries, or
di󰀨erent types of LR6 Alkaline batteries.
• Be careful to observe the battery polarity during installation.
• Do not use LR6 Alkaline batteries after their recommended expiry date.
• Do not allow weak LR6 Alkaline batteries to remain in the instrument.
• Replace LR6 Alkaline batteries only with ones of the
specied type.
• Remove the LR6 Alkaline batteries from the instrument if they are to be stored for a long time.
Handle and dispose of LR6 Alkaline batteries in accordance with local regulations.
Precautions related to use of the CD
• Exercise care to keep the recorded side of the disc free of dirt and scratches. When writing text on the disc’s label, use a pen or marker with a soft tip.
• Keep the disc inside a protective case and do not expose to direct sunlight, high temperature, or high humidity.
• Hioki is not liable for any issues your computer system experiences in the course of using this disc.
20

Overview

1

1.1 Evaluating Battery Deterioration

IMPORTANT
To evaluate whether batteries have deteriorated, rst measure the
internal resistance of a fresh or non-defective battery. If a battery has deteriorated, the internal resistance will increase
by 50 to 100 percent (value for reference purposes) from its initial
value.
The graph below shows the relation between the amount of battery
charge available and the initial value of internal resistance in a lead­acid battery. “CS,” “HS,” and “MSE” denote lead-acid battery types according to Japanese Industrial Standard (JIS). The internal resistance of an MSE (sealed stationary lead-acid battery) can be graphically read at approximately 1 m and approximately 0.13 mΩ (1000 Ah).
)
(m
Ω
CS Clad-type stationary
lead-acid battery
HS High-rate-discharge
paste-type stationary lead-acid battery
MSE Sealed stationary lead-
acid battery
CS
HS
Internal resistance value
MSE
(100 Ah)
Ω
Lead-acid battery capacity
(Ah)
21
Evaluating Battery Deterioration
• For an MSE (sealed stationary lead-acid battery), the warning
threshold (WARNING) of the internal resistance is dened as about 1.5 times its initial value. The rejection value (FAIL) varies depending on the manufacturer.
Initial values of internal resistance may vary among batteries under measurement with the same capacity, depending on the model or manufacturer. Use the graph on the previous page for
reference purposes.
Warning thresholds (WARNING) and rejection values (FAIL) of
internal resistance vary depending on the manufacturer.
Source: Battery technician certication textbook, Battery Association
of Japan (BAJ)
The battery measurement values can be compared with the present threshold values using the comparator function to determine the scope in which the values fall
within: PASS, WARNING, or FAIL.
See “4 Comparator Function (Evaluation Based on
Threshold Values)” (p. 67).
Changes in the internal resistance of open (liquid) stationary
lead-acid batteries, including CS and HS, and alkaline lead-acid batteries, may be smaller than sealed lead-acid batteries. Thus, it is sometimes di󰀩cult to determine whether such batteries have been
deteriorated.
22
Evaluating Battery Deterioration
Measuring lithium-ion batteries
The instrument measures internal resistance and voltage of batteries using AC having a frequency of 1 kHz. The internal resistance of lithium-ion batteries can also be measured; however, that of a packed battery will include the protective resistance, which is installed in packed batteries. Besides, the instrument may not be
able to diagnose and evaluate the deterioration of such batteries
because changes in the internal resistance of lithium-ion batteries due to deterioration may be smaller than lead-acid batteries.
23
Overview

1.2 Overview

The instrument measures internal resistance, voltage, and terminal temperature of lead-acid, nickel-cadmium, nickel-hydrogen, and other types of batteries, enabling you to determine if batteries have
deteriorated.
To measure terminal temperature, the 9460 Clip Type Lead with Temperature Sensor (option) is required. To measure an ambient temperature, the 9451/9451S Temperature Probe (option) is required.
After measurement, connecting the instrument to your computer with the accompanying USB cable enables measured data transfer to the computer. Also, you can browse through and record measured data on your smart phone or tablet using the wireless communications function.
24
Using the wireless communications function
requires the Z3210 Wireless Adapter.
Measured data
Measured data
Prole information
Threshold values setting
Overview
Threshold values setting
Prole information
25
Features

1.3 Features

Facilitated data management
Measured data can be saved in connection with
prole information.
The instrument can save up to 6000 data sets consisting of presently measured data (resistance, voltage, temperature, comparison result). This equates to up to 12 units, each of which
consisting of 500 cell cubicles.
The instrument can be populated 100 sets of prole information (comments, such as location information and device information, and the buttery number information). Saving measured data in connection with prole information makes it possible for you to manage measurement locations, UPSs, and batteries easily.
Measurement recording prompt
The instrument and your mobile device with GENNECT Cross installed, using the display and voice prompts, respectively, can inform you of comparison results and the battery number you are to measure next. This enables you to record measured data quickly.
Automatic hold function and automatic memory
function
When these functions are enabled, the instrument can automatically, at the instance when the display freezes measured values, save the measured values in its internal memory. This can lead to increased operational e󰀩ciency.
Measurement without the need for UPS system
shutdown
The instrument uses high-precision AC low-resistance measurement technology and noise reduction technology. Time
26
Features
required for measurement will be reduced since the instrument is capable of measuring live wires without requiring a UPS system
shutdown.
Reliable measured values
The instrument is capable of obtaining reliable measured values without being a󰀨ected by wire resistance of the test lead or contact resistance because it uses the AC four-terminal method to measure internal resistance.
Simultaneous display of resistance, voltage, and
temperature
Without switching functions, the instrument can display battery internal resistance, voltage, and terminal temperature simultaneously. To measure terminal temperature, the 9460 Clip Type Lead with Temperature Sensor (option) is required. To measure an ambient temperature, the 9451/9451S Temperature
Probe (option) is required.
Comparator function
The comparator function enables you to set threshold values
for internal resistance and voltage. This can evaluate whether
batteries have deteriorated more easily.
Computer interface
Measured data can be transferred to your computer.
Wireless communications function
Connecting the Z3210 Wireless Adapter (option) enables you
to browse through and record measured values with your smart
phone and tablet.
You can utilize the measurement recording prompt in sync with your mobile device with GENNECT Cross installed.
27
Names and Functions of Parts

1.4 Names and Functions of Parts

Front (1)
Display (p. 32)
Operation keys
SOURCE − SOURCE +
SENSE −
SENSE +
28
Names and Functions of Parts
Key name Pressing once
Enables/disables comparator buzzer.
Enables/disables comparator.
Allows you to set
comparator number.
Enables/disables automatic hold. Enables/disables automatic memory.
Starts measurement recording prompt.
Allows you to modify
various setting values.
Switches settings. Moves digit focus.
Enables memory
function.
Saves measured values.
Conrms your entry.
Freezes measured value.
Disable hold function.
Holding down
for at least 1 s.
Turns on/o󰀨 instrument.
Allows you to
conrm and set date and time.
Allows you to
set comparator
threshold values.
Stops
measurement recording prompt.
Disables memory
function.
Turning on instrument
while holding
down
Enables/disables
Z3210 HID setting.
Disables wire-
break detection.
Displays serial
number.
Enables/disables automatic power
saving.
29
Names and Functions of Parts
Front (2)
Display (p. 32)
Operation keys
SOURCE − SOURCE +
SENSE −
SENSE +
30
Names and Functions of Parts
Turning on instrument
while holding
down
Resets system.
Enables/disables automatic backlighing shuto󰀨.
Shows all LCD
segments.
Key name Pressing once
Loads/cancels saved measured values.
Deletes various settings.
Performs zero adjustment.
Turns on/o󰀨 backlight.
Switches resistance ranges.
Switches voltage ranges.
Holding down
for at least 1 s.
Deletes latest saved data.
Cancels zero adjustment.
Enables/
disables wireless
communications.
Enables/disables
noise-frequency reduction.
(While pressing
key)
the
Enables/disables
noise-frequency reduction.
(While pressing
key)
the
How to toggle the temperature measurement units
While holding down the , , and keys, turn on the
1
instrument.
Holding down the key for 3 s to toggle between Celsius
2
and Fahrenheit.
Press the key to conrm your choice.
3
31
Names and Functions of Parts
Display
Data number
Measured resistance value and its unit
Measured voltage value and its unit
Wireless
communications
function enabled.
Freezes measured
values.
Input overows.
Comparator buzzer
enabled.
Communicating through USB.
Instrument’s battery
level
Measurement recording prompt
enabled.
32
Measured temperature
value and its unit
Memory deleted.
Chosen memory number occupied.
Chosen memory number contains prole information.
Prole number
Zero adjustment
enabled
Noise-frequency reduction enabled.
Function being set.
Names and Functions of Parts
Measurement
recording voice
prompt enabled.
Automatic hold
enabled.
Automatic memory
enabled.
Automatic power
saving enabled.
Next battery number to be measured and
recorded
(When measurement recording prompt
enabled)
Memory number to
be saved
Memory number to
be loaded
Comparator number
Comparator
threshold values being set.
Comparator
enabled.
PASS judgment
given.
WARNING result given.
FAIL judgment given.
When all segments on the display are shown, segments other than
those listed above also appear, which are not used.
33
Names and Functions of Parts
Top
EXT.HOLD
terminal
USB terminal
TEMP.SENSOR terminal
EXT.HOLD terminal Connect the 9466 Remote Control Switch (option)
USB terminal Connect the USB cable here.
TEMP.SENSOR
terminal
34
here.
Connect the mini plug of the 9460 Clip Type Lead with Temperature Sensor (option) here. Connect the 9451/9451S Temperature Probe here.
Rear
Names and Functions of Parts
Fuse cover (
Screw
Serial
number*
Battery cover (
* The serial number consists of nine digits. The rst two (from the
left) indicate the year of manufacture, and the next two indicate the month of manufacture. Required for production control. Do not peel o󰀨 the label.
p. 19, p. 147)
p. 19, p. 147)
35
Outer Dimension Drawing

1.5 Outer Dimension Drawing

60.6 ±3 mm
199 ±3 mm
132 ±3 mm
36

Preparing for Measurement

2

2.1 Installing/Replacing LR6 Alkaline Batteries

When using the instrument for the rst time, insert eight LR6 Alkaline batteries. Before attempting measurement, check the
instrument’s battery level. If the instrument’s batteries are running
low, replace the LR6 Alkaline batteries with fresh ones.
When the segment blinks, which indicates that the instrument’s batteries are running low, replace them as soon as
possible.
Turn o󰀨 the instrument and
1
remove the test lead.
1
Remove the battery cover on
2
the rear of the instrument.
Ensure correct polarity and
3
insert eight LR6 Alkaline batteries.
Install the battery cover.
4
The batteries can continuously provide power to the instrument with the Z3210 not installed for
about 8.3 hours (with the Z3210
installed for communications,
about 8.2 hours).
4
3
2
37
Attaching the Z5041 Protector

2.2 Attaching the Z5041 Protector

If the Z5041 Protector has been removed from the instrument, attach it by following the instruction below.
Turn o󰀨 the instrument and
1
remove the test lead.
Insert the instrument into the
2
Z5041 Protector.
Observe the proper orientation.
Push the instrument into the
3
Protector in the direction of the
arrow.
OK
NO
38
(Completed)
Connecting the Z3210 Wireless Adapter (Option)

2.3 Connecting the Z3210 Wireless Adapter (Option)

Installing the Z3210 Wireless Adapter (option) in the instrument lets you use the wireless communications function. See “7.2 Communicating With a Mobile Device” (p. 106).
WARNING
Turn o󰀨 the instrument and remove the test lead. Failure to do so could cause an electric shock.
CAUTION
After touching any metallic part, such as a doorknob, to eliminate static electricity from your body, connect/ disconnect the Z3210. Failure to do so could cause static electricity to damage
the Z3210.
Turn o󰀨 the instrument and
1
remove the test lead.
Remove the Z5041 Protector
2
while pressing down it as shown.
Remove the protective cap with
3
a athead screw driver.
Insert the Z3210, observing the
4
correct orientation, as far as it
will go.
Attach the Protector.
5
2
2
3
4
Store the removed protective cap.
When removing the Z3210, install the protective cap.
39
Connecting the Test Lead

2.4 Connecting the Test Lead

WARNING
To avoid an electric shock, be sure to connect the test lead properly.
This section describes how to connect the test lead to the instrument. Connect the test lead’s connectors to all four terminals: the SOURCE terminals (positive and negative) and the SENSE terminals (positive and negative).
(Black)
(Red)
Align the  marks
of the same color.
SOURCE
SENSE
(Red)(Black)
When using the 9460 Clip Type Lead with Temperature Sensor (option), connect the mini plug to the TEMP.SENSOR terminal. See “3.9 Measuring Temperature” (p. 66).
40
Connecting the Test Lead

Bundling up the Pin Type Lead and the 9466 Remote Control Switch

You can bundle up the Pin Type Lead (the 9465-10, 9772, L2020) and the 9466 Remote Control Switch (option). Attach the Remote Control Switch to the probe of the Pin Type Lead. Bundle up the two cables using the spiral tubes.
Model 9465-10
Model L2020
(1) Model 9466 Remote Control Switch
(2) Probe
(3) Spiral tube (small)
Bundle up the cables at the center of the lead between the probe and probe-side junction with the spiral tube.
(4) Junctions
(5) Spiral tubes (large)
Bundle up the cables between the junctions if you wish.
(1) (2) (3) (4)
(4)(5)
41
Turning On/O󰀨 the Instrument
2.5 Turning On/O󰀨 the Instrument
Hold down the key for at least 1 s to turn on/o󰀨 the instrument.
Conrm the date and time settings when using the instrument for the rst time.
Hold down for at least 1 s.
When the segment blinks, which indicates that the
instrument’s batteries are running low, replace them as soon as
possible.
See “9.5 Default Settings and Resettable Settings” (p. 137).
42
Setting the Date and Time

2.6 Setting the Date and Time

The instrument can show the date and time. Conrm the date and time settings when using the instrument for the rst time. The time is displayed using a 24-hour clock. The instrument’s calendar can automatically recognize leap years.
1
2
3
You can also set the date and time using GENNECT ONE or GENNECT Cross.
(Hold down for at least 1 s.) Let the date and time
appear.
Holding down the key at least 1 s again will hide the date and time.
Enter the date and time (in the yyyy/mm/dd hh:mm format).
Conrm your entry.
Date and time will not be set if you switch over the display from the clock setup mode without
pressing the ENTER key.
43
Attaching the Neck Strap

2.7 Attaching the Neck Strap

You can hang the instrument from your neck using the neck strap. Attach the neck strap as described below.
Turn o󰀨 the instrument and
1
remove the test lead.
Pass the webbing through the
2
openings of the instrument and x the webbing with the tri­glide slides. (There are two openings on each of the left and right side)
Adjust the length of the neck
3
strap.
You can put the instrument in the carrying case with the neck strap attached.
Check that the neck strap is not
4
removed even if you pull it.
Face the
webbing through
the tri-glide outside.
44

Measurement

3
To ensure safe operation, be sure to read “Operating Precautions” (p. 11) before starting the measurements.
There is a considerable di󰀨erence in the battery’s internal resistances between a full-charge state and a discharge state.
To improve evaluation accuracy, perform measurements under
a constant condition (for example, in a full-charge state).
• Terminals of lead-acid batteries (objects under measurement)
have a high resistance. Thus, resistance values may di󰀨er
between contact locations, the case side and the tip of the terminals. Place the test lead into contact with the terminals at
the same location every time. See “11.4 E󰀨ects of Current Density” (p. 157).
Use the 9460 Clip Type Lead with Temperature Sensor (option) to measure the temperature of the battery terminals.
Otherwise, use a non-contact thermometer, such as a radiation
thermometer, for safety.
If terminals are covered with an insulating layer, the measurement current cannot ow su󰀩ciently, resulting in
measurement failure. In such a case, clean the terminals to
remove the insulation layer before measurement.
45
Inspection Before Measurement

3.1 Inspection Before Measurement

Check the instrument for any damage that may have occurred during storage or shipping, and perform functional checks before use. If you nd any damage to the instrument, please contact your authorized Hioki distributor or reseller.
Inspection item Checking method
Has the fuse blown?
Has the test lead
broken?
Place the test lead into contact with the zero­adjustment board. If the resistance readout remains the [−−−−] segments, the fuse may
have blown or the test lead may have broken.
Replace the fuse or test lead with a new one.
Does the instrument’s battery level
remain enough?
Inspecting batteries to be measured
46
The display, in the top right, includes the battery level indicator
batteries. If the indicator exhibits , the
batteries should be replaced early. Please have spare LR6 Alkaline batteries ready.
If terminals are covered with an insulating
layer, the measurement current cannot ow su󰀩ciently, resulting in measurement failure.
In such a case, clean the terminals to remove
the insulation layer before measurement.
for the instrument’s
Setting the Measurement Ranges

3.2 Setting the Measurement Ranges

This section describes how to set resistance and voltage measurement ranges.
Resistance ranges
Voltage ranges
Temperature range
Press the
key repeatedly to cycle through the ranges.
3 mΩ, 30 mΩ, 300 mΩ, 3
6 V, 60 V
(Single range) Since the instrument has a single temperature measurement range, setting the temperature range is not required.
key or V key to display the present settings. Press the
Ω
Ω
47
Setting the Measurement Ranges
Resistance ranges
3.000 m
3.000
Ω
Ω
30.00 m
300.0 m
Ω
Ω
Voltage ranges
6.000 V 60.00 V
After a certain period of inactivity, the instrument will conrm your entry and the display will return to measurement mode.
48
Noise-Frequency Reduction Function

3.3 Noise-Frequency Reduction Function

Enabling the noise-frequency reduction function can reduce the e󰀨ects of noise exhibited in measurement environments, resulting in
smaller variation in measured values. Resistance measured values will become more stable.
(Noise reduction technology)
Noise-frequency reduction
function disabled
When the segment pops up:
The noise-frequency reduction function is enabled.
When the segment is blinking:
The noise frequencies are being avoided.
Disabling the noise-frequency reduction function
Cycling the instrument will disable the function.
Noise-frequency reduction
function enabled
It may take longer to perform measurement with the noise-
frequency reduction function enabled.
This time, the instrument will blink the
It may not be possible to avoid all noise depending on the noise frequency.
segment.
49
Adjusting the Zero Point (Zero Adjustment)

3.4 Adjusting the Zero Point (Zero Adjustment)

When the zero adjustment function executed, the instrument will
regard the measured values (correction values) as zero to display
subsequent measurement results.
Only if an accessory or optional test lead is used, the instrument can meet the accuracy specications even without executing the
zero adjustment. However, execute the zero adjustment in the following cases:
When you wish to increase measurement accuracy For the 3 m on whether zero adjustment has been performed.
See “9.3 Accuracy Specications” (p. 123).
When using a test lead, including Hioki product, that is not an accessory or option of the instrument or whose length has been
extended
IMPORTANT
Use only the Hioki-specied test lead. Hioki does not guarantee the accuracy and proper operation if any test lead not specied by the company is used.
• Performing zero adjustment adjusts the zero points of all ranges.
Even after the instrument has been turned o󰀨, the correction values will be retained and with the zero adjustment function remaining enabled.
After replacing the test lead, always perform zero adjustment prior to measurement.
Always use the included or optional zero-adjustment board when performing zero adjustment.
• Keep the test lead short-circuited during zero adjustment.
Keep the tips of the test lead away from any metal components.
range, the accuracy specications di󰀨er depending
Ω
50
Adjusting the Zero Point (Zero Adjustment)

How to short-circuit various test lead

For Pin Type Lead
Use the included or optional zero-adjustment board. The zero
adjustment can be achieved based on the AC four-terminal method.
Choose two holes on the zero-
1
adjustment board whose interval is nearly equal to the distance between the two terminals on a battery to be measured.
Press the test lead against the zero-adjustment board in a
2
vertical direction.
Model 9465-10 or Model L2020 Pin Type Lead
Model 9772 Pin Type Lead
Insert the pins with the marked (engraved) side of the probe facing you.
51
Adjusting the Zero Point (Zero Adjustment)
Keep the zero-adjustment board at least 10 cm away from the instrument.
Always use the accompanying or optional zero-adjustment board when performing zero adjustment.
• Insert the pin tips into the hole on the zero-adjustment board
and place each of the SOURCE and SENSE terminals into contact with the hole on the board. (See the gure below.)
SOURCE
SENSE
Do not place the zero-adjustment board on top of the battery
or any metal. Electromagnetic induction e󰀨ect could result in unstable measurement values. In such a case, keep the zero­adjustment board away from any metal.
If zero adjustment is performed with the Pin Type Lead short- circuited at the tips or using a metal sheet other than the zero­adjustment board intended for this purpose, the instrument
cannot adjust the zero point accurately.
When the distance between the terminals on the battery (target under measurement) is more than that between the holes on the zero-adjustment board, use the outermost holes to perform zero adjustment.
Consider the zero-adjustment board to be a consumable. It is recommended to replace it with a new one after the use of
around 700 times.
52
Adjusting the Zero Point (Zero Adjustment)
For Clip Type Lead
Engage the red and black clips together, and then perform zero
adjustment.
Model 9460 Clip Type Lead with Temperature Sensor
(Red) (Black)
Model 9467 Large Clip Type Lead
(Red) (Black)
SOURCE (+) SOURCE (−)
SENSE (+) SENSE (−)
SOURCE (+) SOURCE (−)
SENSE (+) SENSE (−)
53
Adjusting the Zero Point (Zero Adjustment)

Performing zero adjustment

Check if the test lead has been
1
connected properly.
Disconnect the test lead from the
measurement target if connected.
Press the 0ADJ key.
2
The instrument will be put
on standby for acquiring the
correction value.
While the [0AdJ] segment is
3
blinking, short-circuit the test lead using the zero-adjustment board.
See “How to short-circuit various
test lead” (p. 51).
Failure to short-circuit the test
lead while the display is blinking
will result in an error.
(Black)
1
Blinks for
about 10 s.
For Pin Type Lead
(Red)
2
54
Adjusting the Zero Point (Zero Adjustment)
The instrument will automatically start obtaining correction
values.
When the zero adjustment has been completed, the instrument
will display the [0ADJ] segment and return the display to
measurement mode.
3 mΩ range 30 mΩ range
• Keep the test lead short-circuited until the zero adjustment is completed.
The zero adjustment will start even if the key is pressed after the test lead has been short-circuited.
Zero adjustment
completed
300 mΩ range
3
range, voltage range
Ω
55
Adjusting the Zero Point (Zero Adjustment)

Troubleshooting on zero adjustment

Check item Solution
Has the fuse blown? Check if the fuse has blown. (p. 147)
Do the obtained
correction values exceed 300 counts in either resistance or voltage range?
Did you short-circuit the test lead properly
while the instrument
was in standby for
obtaining correction values?
Reconnect the test lead to the instrument.
The test lead may be broken. Replace
the fuse or test lead with a new one.
Remove dirt from the zero-adjustment board.
While the instrument is in standby for
obtaining correction values (for about 10 s), short-circuit the test lead using the zero-adjustment board to perform zero adjustment.

Canceling the zero adjustment

Press the 0ADJ key for at least 1 s with the zero adjustment function enabled to cancel the zero-adjustment.
Zero adjustment enabled Zero adjustment disabled
56
Hold down for at least 1 s.
Using the Hold Function

3.5 Using the Hold Function

This section describes how to freeze measured values on the
display using the hold function. Press the HOLD key. The [HOLD] segment will appear and the display will freeze measured values.
When a warning display appears or the voltage readout exhibits the [----] segments, the instrument cannot freeze the displayed value.
When you change any settings, the instrument will disable the hold function.
Turning o󰀨 the instrument will disable the hold function.
Using the automatic hold function can automatically freeze measured values after they have stabilized. See “3.6 Automatic Hold Function” (p. 59).
Hold function disabled Hold function enabled

Disabling the hold function

Press the HOLD key again to disable the hold function.
57
Using the Hold Function

Freezing measured values using the 9466 Remote Control Switch

Model 9466
The 9466 Remote Control Switch
(option) is available for the operation
in the same way as when using the
HOLD key.
Disconnect the test lead
1
from the battery under measurement.
Insert the mini-plug of the 9466
2
Remote Control Switch into the EXT.HOLD terminal.
Remote Control Switch
NO
Top of the
instrument
Connect the connectors of the
3
test lead to the instrument.
Press the PRESS button on the
4
9466 Remote Control Switch.
The instrument will freeze measured values.
(Black) (Red)
Disabling the hold function
Press the PRESS button on the 9466 Remote Control Switch or the
HOLD key on the instrument.
58
Automatic Hold Function

3.6 Automatic Hold Function

This section describes how to automatically freeze measured values after they have stabilized. Press the A HOLD/MEMO key several times to display the [AUTO
HOLD] segment.
Automatic hold Automatic memory
Automatic hold and
Disabled
To disable the hold function, press the HOLD key or the PRESS button on the 9466 Remote Control Switch.
automatic memory
59
Automatic Hold Function
The automatic hold will not work in the following cases:
• When the resistance readout exhibit the [−−−−] segments
• When the [OVER] segment and the maximum display value of
the resistance are blinking
Using the automatic memory function in combination with the automatic hold function can automatically freeze and
save measurement values.
Canceling the automatic hold function
Press the A HOLD/MEMO key several times to hide the [AUTO
HOLD] segment.
60
Determining Battery-Deterioration Evaluation Values

3.7 Determining Battery-Deterioration Evaluation Values

To evaluate whether batteries have deteriorated, rst, measure the internal resistance of a fresh or non-defective battery, and then decide the battery-deterioration evaluation values. Deteriorated batteries will have about 1.5 to 2 times (values for reference purposes) as high internal resistance, generating only
0.9 times as high voltage as a fresh one. Use these values as guidelines when determining deterioration evaluation values.
Example of deterioration evaluation values
PASS WARNING FAIL
Resistance:
Voltage:
The above values will vary depending on the manufacturer and battery model. See “1.1 Evaluating Battery Deterioration” (p. 21).
New fuse In use
Initial value
0.5 m
Ω
Warning
threshold
0.75 m
2.0 V 1.8 V
Need
replacing
Rejection value
Ω
1.0 m
Ω
61
Measuring Batteries (Inspection)

3.8 Measuring Batteries (Inspection)

Prepare for measurement. (p. 37)
1
Set the resistance and voltage ranges. (p. 47)
2
Perform zero adjustment. (p. 50)
3
Connect the test lead to a battery under measurement.
4
Place all pins into contact
with the battery.
Read the measured values.
5
62
(Red)
+
(Black)
Internal resistance of the battery
Voltage value
Measuring Batteries (Inspection)
Use the measured values to evaluate whether the battery
6
has deteriorated. Example:
Voltage
Initial value
(2.0 V)
Present
value
(1.8 V)
PASS
WARNING
Initial value
(0.5 mΩ)
Present value
(1.0 m
As shown above, this battery needs replacing.
Ω
FAIL
)
Resistance
63
Measuring Batteries (Inspection)
To freeze measured values
To save measured values.
To load the saved data to your computer
To set threshold values to evaluate whether a battery has deteriorated
See “3.5 Using the Hold Function”
(p. 57).
Measurement values can be saved
by pressing the MEMO key while the display is freezing the values.
See “5.2 Saving Data in the Memory” (p. 85).
See “7 Communications
Function” (p. 103).
Based on the deterioration
evaluation values, you can set
threshold values to evaluate whether batteries have
deteriorated.
See “4 Comparator Function
(Evaluation Based on Threshold
Values)” (p. 67).
64
Measuring Batteries (Inspection)

Measurement error

Even if the [−−−−] segments appear and the [OVER] segment
blinks on the display (at the same time, the maximum display value blinks), this does not indicate an error.
[−−−−] • If the resistance readout exhibits the [----] segments,
Blinking the
[OVER] segment
and maximum display value
IMPORTANT
When measuring contact resistances of relays or connectors, be
aware that the instrument will generate an open-terminal voltage
of 5 V at maximum. The open-terminal voltage may damage the
oxidized coating on the contacts of targets under measurement, leading to incorrect measurements.
the test lead may be open-circuited.
Otherwise, the instrument cannot perform measurement because of a failure, such as no current
ows due to a broken test lead.
The test lead may not be connected correctly to the target under measurement.
• The resistance of the target under measurement
signicantly exceeds the measurement range.
Resistance, voltage, or temperature may exceed each measurable range.

Warning display

If an overvoltage is input, the instrument will show the [OVER]
segment and the blinking maximum display value on the display, backlight the display in red, and produce beeps.
65
Measuring Temperature

3.9 Measuring Temperature

Use the 9460 Clip Type Lead with Temperature Sensor (option) to measure battery temperature. Use the 9451/9451S Temperature Probe (option) to measure an
ambient temperature. See “Options” (p. 3).
Connect the connectors
1
of the 9460 Clip Type Lead with Temperature Sensor to the instrument.
Connect the mini-plug of the
2
9460 Clip Type Lead with Temperature Sensor to the TEMP.SENSOR terminal.
Connect the mini-plug of the 9451/9451S Temperature
Probe to the TEMP.SENSOR terminal.
The instrument will detect the temperature sensor and
automatically display the
temperature.
You can toggle between the two temperature measurement units:
Celsius and Fahrenheit.
See “How to toggle the temperature measurement units” (p. 31).
(Black) (Red)
NO
Top of the
instrument
66
Comparator Function
(Evaluation Based on
4
Threshold Values)

4.1 Overview

The comparator function compares measured values of batteries with the preset threshold values to evaluate batteries on a three­level basis consisting of PASS, WARNING, and FAIL.
Comparator threshold values
Set the resistance warning threshold, resistance rejection value, and voltage warning threshold. Up to 200 comparison conditions can be set. For information about how to set the thresholds, see “1.1 Evaluating Battery Deterioration” (p. 21).
Comparator buzzer
The instrument with the default settings will produce beeps when the comparator yields the WARNING or FAIL result. See “4.4 Setting the Comparator Buzzer” (p. 78).
Voltage
PASS
Initial value
Warning threshold
WARNING
FAIL
FAIL
Initial value
Warning
threshold
Rejection
value
Resistance
67
Enabling the Comparator Function

4.2 Enabling the Comparator Function

1
2
3
When the comparator function is enabled, the measurement
range will switch over to that specied in the comparator setting
with the chosen number.
Press the key.
A blinking comparator number will appear.
Press the COMP key again to return to normal measurement mode.
Choose a comparator number.
You can choose a number from between 1 and 200.
Conrm your entry.
The comparator function will be enabled.
68
Setting Threshold Values for the Comparator

4.3 Setting Threshold Values for the Comparator

This section describes how tot set threshold values for the comparator (resistance warning threshold, resistance rejection value, voltage warning threshold).
You can set the threshold values through GENNECT ONE or GENNECT Cross. See GENNECT ONE (contained in the accompanying CD) or User Manual on GENNECT Cross.
Example: Threshold values for a battery that initially has
an internal resistance of 0.4 a voltage of 2 V.
Resistance warning threshold: 0.6 Ω (1.5 times the initial value) Resistance rejection value: 0.8 Ω (2 times the initial value) Voltage warning threshold: 1.8 V *: The initial values mean the resistance value a fresh battery or
non-defective battery has and the initial voltage value such a battery can generate.
and generates
Ω
69
Setting Threshold Values for the Comparator
Choosing a comparator number
1
2
3
Hold down the key for at least 1 s.
A blinking comparator number will appear.
Press the COMP key again to return to normal measurement mode.
Choose a comparator number.
You can choose a number from between 1 and 200.
Conrm your entry.
The display will return to range setup mode.
70
Setting the range
1
Choose a resistance range.
(The decimal point position will move.)
Setting Threshold Values for the Comparator
2
3
Choose a voltage range.
(The decimal point position will move.)
Conrm your entry.
The resistance warning threshold and the [WARNING] segment will blink.
71
Setting Threshold Values for the Comparator
Setting the threshold values
1
2
3
4
5
6
Set the resistance warning threshold.
Conrm your entry.
The resistance rejection value and the [FAIL] segment will blink.
Set the resistance rejection value.
Conrm your entry.
The voltage warning threshold and the [WARNING] will blink.
Set the voltage warning threshold.
Conrm your entry.
72
Setting Threshold Values for the Comparator
7
Set the voltage evaluation method.
When you have chosen the
[PoL], reversely connecting the
red and black wires of the test lead will cause the [WARNING] result.
[WARNING]
(Black)(Red) (Red)(Black)
Voltage
evaluation
method
[AbS]
(Default setting)
[PoL]
Comparison method
Evaluates absolute voltage values, regardless of whether they are positive or negative.
The [WARNING] result will be given for the negative voltage value. If the test lead is placed into contact in reverse polarity with a battery (the red and black probes with the negative and positive terminals, respectively), the [WARNING] result will be given.
Data to be
saved
Signed (minus sign only)
Signed (minus sign only)
You can set the evaluation method using version 1.8 or later of GENNECT Cross.
73
Setting Threshold Values for the Comparator
8
If you set the resistance rejection value that is less than the resistance warning threshold, the warning threshold will change to the same value as the resistance rejection value.
Conrm your entry.
The display will return to measurement mode with the comparator function enabled. The settings are now saved.
74
Setting Threshold Values for the Comparator
When a PASS judgment is given
Voltage
Initial value
Voltage
warning
threshold
PASS
Measured
value
WARNING
FAIL
FAIL
When a WARNING result is given
Voltage
Initial value
Voltage
warning
threshold
When a FAIL judgment is given
Voltage
Initial value
Voltage
warning
threshold
Initial value
PASS
WARNING
Initial value
PASS
WARNING
Initial value
Resistance
warning
threshold
Measured value
Resistance
warning
threshold
Resistance
warning
threshold
Resistance rejection value
FAIL
FAIL
Resistance rejection value
FAIL
Measured
FAIL
value
Resistance rejection value
Resistance
Resistance
Resistance
75
Setting Threshold Values for the Comparator

Comparison table for the comparator

The instrument will show a result and produce beeps as shown in the following table:
Resistance
warning threshold
Resistance
rejection value
Resistance
Voltage (high) PASS WARNING FAIL
Voltage warning threshold
Voltage (low) WARNING WARNING FAIL
The boundary conditions are as follows:
Resistance
PASS
Voltage
WARNING
Resistance
warning
threshold
Voltage
<
warning
threshold
76
(low)
<
Resistance
WARNING
Voltage
PASS
Resistance
(medium)
Resistance
rejection value
Resistance
(high)
Resistance
<
FAIL
Setting Threshold Values for the Comparator
Examples of how to read the comparator output table
Example 1:
If the measured resistance is less than or equal to the resistance warning threshold, and the measured voltage is more than or equal to the voltage warning threshold, the [PASS] segment will appear.
Example 2:
If the measured resistance exceeds the resistance warning threshold but is less than or equal to the resistance rejection value, and the measured voltage exceeds the voltage warning threshold, the instrument will show the [WARNING] segment and produce beeps.
When the resistance warning threshold and resistance are set to the same value, the boundary conditions are as shown below:
Resistance
PASS
Resistance
warning threshold
Resistance
=
rejection value
Resistance
<
FAIL
77
Setting the Comparator Buzzer

4.4 Setting the Comparator Buzzer

This section describes how to set the instrument to produce beeps according to the comparison result. The comparator buzzer can be set in the following states: By default, the instrument has been set to produce beeps when the comparator gives a WARNING result or a FAIL judgment.
Disabled
Sounds for PASS
Sounds for FAIL judgments
The instrument will not produce beeps regardless of comparison results.
The instrument will produce beeps when the comparator gives a PASS judgment.
The instrument will backlight the display in red and produce beeps when the comparator gives a WARNING result or a FAIL judgment.
When you press the key, the present comparator buzzer setting
will appear. Press the key repeatedly to cycle through the settings.
Disabled
Sounds for PASS
After a certain period of inactivity, the instrument will conrm your
entry and the display will return to measurement mode.
The key tone cannot be set.
78
Sounds for FAIL
Canceling the Comparator Function

4.5 Canceling the Comparator Function

When the comparator is enabled, pressing the COMP key can disable the comparator function.
Comparator function enabled Comparator function disabled
• The range keys cannot be used while the comparator function is enabled.
• If there are no measurement values, the [−−−−] segments will appear and the comparator will not work.
Even when the instrument is turned o󰀨, the comparator settings are saved; the comparator will be enabled when the instrument is turned on again.
79
Canceling the Comparator Function
80

Memory Function

5

5.1 Overview

The instrument can store up to 6000 data sets consisting of presently measured values*. After measurement, you can browse and send saved data to your computer or mobile device. The internal-memory structure is as follows:
*: Date and time, resistance, voltage, temperature, comparator
threshold values, and comparison results

Memory structure

Unit label (12 units) Memory number (500 cells)
A 001 . . . 499 500
B 001 . . . 499 500
C 001 . . . 499 500
D 001 . . . 499 500
(Display example)
E 001 . . . 499 500
F 001 . . . 499 500
G 001 . . . 499 500
H 001 . . . 499 500
J 001 . . . 499 500
L 001 . . . 499 500
N 001 . . . 499 500
P 001 . . . 499 500
81
Overview
Prole information
The instrument can be populated 100 sets of prole information
(comments, such as location information and device information, and the battery numbers of batteries under measurement). You
can save measured data in connection with prole information
previously registered.
Concept for registering prole information in the memory
Prole information
Prole number*
Location information*
Device information*
Battery number*
*1: Can be chosen from between 1 and 100. *2: Any comment can be registered. Strings at most 72 bytes *3: The number assigned to the battery under measurement. Can be chosen
from between 1 and 500.
Prole number
1
2
3
4
5
1
2
2
3
Memory number
A.001
B.001
C.001
D.001
E.001
1
HIOKI 1F UPS ROOM
Measured data to be saved
UPS 1-1 Memory number
Start 1
End 50
 
HIOKI 1F UPS ROOM
A.050 B.050 C.050 D.050 E.050
A.001 A.050
82
Overview
You can save measured data associating with prole information
previously registered. This makes the control of information, including the UPSs equipped with batteries under measurement and their locations, easier.
Concept of a data set to be saved
Prole
information
Measured data Memory number A.001
Prole number 1
Location information HIOKI 1F UPS ROOM
Device information UPS 1-1
Battery number 1
Date and time 2020/4/20 13:00:00
Resistance value
Voltage value
Temperature
Comparator threshold values
Comparison result PASS, WARNING, or FAIL
(yyyy/mm/dd hh:mm)
m
.
.
.
,  mΩ,  V
m
Ω
Ω
V
°C
When you choose a memory number that has already been assigned to a prole information set, the [PROFILE] segment will appear.
83
Overview
How to register prole information
Computer Use GENNECT ONE to register.
The prole information can be transferred via
the USB interface.
Smart phone / Tablet
Operating the instrument only cannot register or delete prole information.
Details of prole information transferred to the instrument cannot be seen on the instrument’s display.
To transfer prole information registered in the instrument to your computer or start phone
You can load the information on GENNECT ONE or GENNECT Cross. See GENNECT ONE (contained in the accompanying CD) or User Manual on GENNECT Cross.
Use version 1.8 or later of GENNECT Cross to register.
The prole information can be wirelessly
transferred. The instrument requires the Z3210 Wireless Adapter to be connected.
84
Saving Data in the Memory

5.2 Saving Data in the Memory

Pressing the MEMORY key stores the present measurement values. For information about handy features, see “5.3 Automatic Memory Function” (p. 87)
1 2
3
4
Enable the memory function.
Choose a memory number.
After a certain period of inactivity, the instrument will
conrm your entry and return
the display to measurement mode. When the memory function is enabled, you can always choose a memory number.
Conrm your entry.
[USED]
[PROFILE]
Freeze the measured values.
When showing the [−−−−] segments on the display, the instrument cannot freeze the values.
Measured values has already been saved. (The data will be overwritten)
Prole information has already been
registered.
85
Saving Data in the Memory
5
• Holding down the CLEAR key for at least 1 s can delete the data saved most recently. However, you can delete immediately after the data has been saved only. Every time you hold down the key for at least 1 s, the instrument will delete the data that is the latest at the time and
return the display to the rst memory number in the unit to
display the contents.
• While the measurement recording prompt is operating, the instrument will return the memory number corresponding to the
rst battery number to display the contents.
Save measured values.
The instrument will assign the chosen number to the measured values and save them.
After the data has been saved, the subsequent available memory number will appear.
The hold function will be disabled.
86
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