battery (bat) · (bat) bat – 2016/pw i table of content ... batteries are composed of materials...
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EXPERIMENT MODULE
CHEMICAL ENGINEERING EDUCATION LABORATORY
BATTERY
(BAT)
CHEMICAL ENGINEERING DEPARTMENT
FACULTY OF INDUSTRIAL TECHNOLOGY
INSTITUT TEKNOLOGI BANDUNG
2018
INSTRUCTIONAL LABORATORY CHEMICAL ENGINEERING DEPT.
FTI - ITB
BATTERY MODULE (BAT)
BAT – 2018/PW 2
Contributor:
Dr. Isdiriayani Nurdin, Hary Devianto, Ph.D, Dr. Ardiyan Harimawan, Jeffrey Pradipta Wijana,
Robby Sukma Dharmawan, Dr. Pramujo Widiatmoko
INSTRUCTIONAL LABORATORY CHEMICAL ENGINEERING DEPT.
FTI - ITB
BATTERY MODULE (BAT)
BAT – 2016/PW i
TABLE OF CONTENT
TABLE OF CONTENT .................................................................................................................... i
LIST OF FIGURE ........................................................................................................................... iii
LIST OF TABLE ............................................................................................................................. iv
CHAPTER I INTRODUCTION ...................................................................................................... 1
CHAPTER II PURPOSE AND TARGET OF EXPERIMENT ....................................................... 2
2.1. Purpose .............................................................................................................................. 2
2.2. Target ................................................................................................................................. 2
CHAPTER III EXPERIMENTAL DESIGN ................................................................................... 3
3.1. Devices and Measurements ............................................................................................... 3
3.2. Materials ............................................................................................................................ 3
3.3. Experiment Condition ....................................................................................................... 3
CHAPTER IV WORK PROCEDURE ............................................................................................. 4
4.1. Experiment Steps ............................................................................................................... 4
BIBLIOGRAPHY ............................................................................................................................ 8
APPENDIX A RAW DATA TABLE .............................................................................................. 9
A.1. Determination of Resistor Resistor Value ......................................................................... 9
A.2. Determination of Voltage and Current of Battery ............................................................. 9
A.3. Battery Capacity Determination ........................................................................................ 9
A.4. Determination of Secondary Battery Efficiency ............................................................. 10
APPENDIX B CALCULATION PROCEDURE .......................................................................... 11
B.1. Determination of Resistor Resistance Value ................................................................... 11
B.2. Determination of Voltage and Current of Battery ........................................................... 11
B.3. Battery Capacity Determination ...................................................................................... 11
B.4. Determination of Secondary Battery Efficiency ............................................................. 11
INSTRUCTIONAL LABORATORY CHEMICAL ENGINEERING DEPT.
FTI - ITB
BATTERY MODULE (BAT)
BAT – 2018/PW ii
APPENDIX C ................................................................................................................................. 12
C.1. Resistor Resistance Value ............................................................................................... 12
APPENDIX D ................................................................................................................................ 13
INSTRUCTIONAL LABORATORY CHEMICAL ENGINEERING DEPT.
FTI - ITB
BATTERY MODULE (BAT)
BAT – 2018/PW iii
LIST OF FIGURE
Figure 4.1 The process of determining the value of resistor resistance ........................................... 4
Figure 4.2 Battery voltage and current determination procedures ................................................... 5
Figure 4.3 Battery capacity determination procedure ...................................................................... 6
Figure 4.4 Battery efficiency determination procedures .................................................................. 7
INSTRUCTIONAL LABORATORY CHEMICAL ENGINEERING DEPT.
FTI - ITB
BATTERY MODULE (BAT)
BAT – 2018/PW iv
LIST OF TABLE
Table A.1 Resistor resistance ........................................................................................................... 9
Table A.2 Value of battery voltage and current ............................................................................... 9
Table A.3 Value of battery capacity ................................................................................................. 9
Table A.4 Secondary battery efficiency ......................................................................................... 10
Table C.1 Resistor resistance value based on color ....................................................................... 12
INSTRUCTIONAL LABORATORY CHEMICAL ENGINEERING DEPT.
FTI - ITB
BATTERY MODULE (BAT)
BAT 1
CHAPTER I
INTRODUCTION
An electric battery is a device consisting of one or more electrochemical cells that work by
converting stored chemical energy into electrical energy. Each battery consists of a negative
electrode (anode) as the site of the oxidation reaction, the positive electrode (cathode) as the site
of the reduction reaction, the electrolyte as the ion medium for moving from the anode to the
cathode during the discharging process (and back to the anode during recharging) allowing
current to flow from the battery to provide electrical energy.
Battery can be categorized into two, the first is the primary battery ("disposable" battery) used
once and discarded, while the second is a secondary battery (rechargeable battery) after which it
is emptied then can be recharged several times.
Batteries are composed of materials such as metals, carbon, polymers and even air. The most
common are lead acid batteries used in vehicles and lithium ion batteries used for portable
electronics. Batteries are available in various shapes and sizes, from mini cells used for electric
hearing aids and watches, to battery sized bedrooms that provide standby power for
telecommunication processes and computer data centers.
Recent battery research and development is significant. Batteries are expected to provide
solutions for energy storage in the transition from fossil fuels to alternative energy, both for
transportation and electricity production as well as to enable various portable devices of all types.
INSTRUCTIONAL LABORATORY CHEMICAL ENGINEERING DEPT.
FTI - ITB
BATTERY MODULE (BAT)
BAT – 2018/PW 2
CHAPTER II
PURPOSE AND TARGET OF EXPERIMENT
2.1. Purpose
This practicum aims to understand the phenomena of the process of discharging and recharging
the battery electrochemically and its use in simple electrical circuits.
2.2. Target
At the end of the practicum, praktikan is expected to identify:
1. Potential diagram - current from a particular electrical load.
2. Differences in series electric circuits, parallel, or combination of series and parallel.
3. Discharging and recharging process from secondary battery.
INSTRUCTIONAL LABORATORY CHEMICAL ENGINEERING DEPT.
FTI - ITB
BATTERY MODULE (BAT)
BAT – 2018/PW 3
CHAPTER III
EXPERIMENTAL DESIGN
3.1. Devices and Measurements
The tools used in the experiment are as follows:
1. Secondary AA battery and accumulator 12 V
2. Power supply
3. Resistors 10, 20, and 50
4. Amperemeter
5. Voltmeter
6. Ohmmeter
7. Copper wire + crocodile clips
3.2. Materials
The materials used in the experiment are:
1. AA Battery
2. AAA Battery
3. Battery R
4. Battery D
5. Battery 9 V
6. Resistors
3.3. Experiment Condition
Experimental conditions consist of fixed experiment variables and varied variables.
1. Variables
a) Room air pressure (660 - 700 mmHg)
b) Room Temperature (23 - 28oC)
2. Varied variable
a) Configuration of series, parallel, and series-parallel circuit
b) Voltage and current for battery and accumulator
INSTRUCTIONAL LABORATORY CHEMICAL ENGINEERING DEPT.
FTI - ITB
BATTERY MODULE (BAT)
BAT – 2018/PW 4
CHAPTER IV
WORK PROCEDURE
4.1. Experiment Steps
Experimental procedures include determination of resistor value, battery voltage and current
procedures with variations of circuit configuration, and determination of capacity and efficiency
of secondary battery.
1. Determination of resistor value of resistor
Create a resistor circuit
Connect Resistor Circuit with Ohmmeter
Data Processing and Compare data with
Literature
Start
Finish
Literature Data
Figure 4.1 The process of determining the value of resistor resistance
INSTRUCTIONAL LABORATORY CHEMICAL ENGINEERING DEPT.
FTI - ITB
BATTERY MODULE (BAT)
BAT – 2018/PW 5
2. Determination of voltage and current of battery with variation of circuit configuration
in closed circuit.
The voltage determination is performed by using a voltmeter which is paralleled
to the load to be measured, whereas the determination of the current is performed
by using a series amperemeter with the load to be measured.
Create a closed electrical circuit
Connect Electrical circuit with voltmeter and
amperemeter
Data is collected
Start
Finish
Literature Data
Data
Change the electrical circuit configuration
Data processing and Compare to literature
Figure 4.2 Battery voltage and current determination procedures
INSTRUCTIONAL LABORATORY CHEMICAL ENGINEERING DEPT.
FTI - ITB
BATTERY MODULE (BAT)
BAT – 2018/PW 6
3. Battery capacity determination
Create a closed electrical circuit
Connect Electrical circuit with voltmeter and
amperemeter
Read the value of current and voltage every time interval that has been determined for 1 hour
Start
Finish
Literature Data
Data
Data processing and Bandignkan to the
literature
Data is collected
Figure 4.3 Battery capacity determination procedure
INSTRUCTIONAL LABORATORY CHEMICAL ENGINEERING DEPT.
FTI - ITB
BATTERY MODULE (BAT)
BAT – 2018/PW 7
4. Determination of secondary battery efficiency
efficiency calculations are performed based on the slope ratio of the discharging
curve on the slope of the charging curve.
Create a closed electrical circuit
Connect Electrical circuit with voltmeter and
amperemeter
Read the value of current and voltage every time interval that has been determined for 1 hour
Start
Finish
Data
Data processing and Compare to literature
Change the electrical circuit by adding a power
supply / adapter
Adjust the strong value of the current so that its value is equal to the discharge position
Data is collected
Figure 4.4 Battery efficiency determination procedures
INSTRUCTIONAL LABORATORY CHEMICAL ENGINEERING DEPT.
FTI - ITB
BATTERY MODULE (BAT)
BAT – 2018/PW 8
BIBLIOGRAPHY
Bagotsky, V.S., 2006, Fundamental of Electrochemistry, 2nd Ed., John Wiley & Sons Inc.
Prentice, G., 1991, Electrochemical Engineering Principles, Prentice-Hall International, Inc.
Rahn, C. D., Wang, C.-Y., 2013, Battery Systems Engineering, John Wiley & Sons Inc.
INSTRUCTIONAL LABORATORY CHEMICAL ENGINEERING DEPT.
FTI - ITB
BATTERY MODULE (BAT)
BAT – 2018/PW 9
APPENDIX A
RAW DATA TABLE
A.1. Determination of Resistor Resistor Value
Table A.1 Resistor resistance
No. Electric Circuit
Scheme
Value of Resistance
Based on Calculation (Ω)
Measured Resistance
Value (Ω) Error (%)
A.2. Determination of Voltage and Current of Battery
Table A.2 Value of battery voltage and current
No. Electric Circuit
Scheme
Value of Resistance Based
on Calculation (Ω)
Measured Voltage Value
(V) Measured Current (A)
A.3. Battery Capacity Determination
Table A.3 Value of battery capacity
No. Battery Type and Connected
Resistor Time (minute)
Measured Voltage
Value (V) Measured Current (A)
INSTRUCTIONAL LABORATORY CHEMICAL ENGINEERING DEPT.
FTI - ITB
BATTERY MODULE (BAT)
BAT – 2018/PW 10
A.4. Determination of Secondary Battery Efficiency
Table A.4 Secondary battery efficiency
No. Battery Type and Connected
Resistor Time (minute)
Voltage value when
discharging (V)
Voltage value during
charging (V)
INSTRUCTIONAL LABORATORY CHEMICAL ENGINEERING DEPT.
FTI - ITB
BATTERY MODULE (BAT)
BAT – 2018/PW 11
APPENDIX B
CALCULATION PROCEDURE
B.1. Determination of Resistor Resistance Value
Series:
Parallel:
B.2. Determination of Voltage and Current of Battery
Series:
Parallel:
B.3. Battery Capacity Determination
B.4. Determination of Secondary Battery Efficiency
INSTRUCTIONAL LABORATORY CHEMICAL ENGINEERING DEPT.
FTI - ITB
BATTERY MODULE (BAT)
BAT – 2018/PW 12
APPENDIX C
SPECIFICATION AND LITERATURE DATA
C.1. Resistor Resistance Value
Table C.1 Resistor resistance value based on color
Color Color 1 Color 2 Color 3 Color 4
Black - 0 -
Brown 1 1 0
Red 2 2 00
Orange 3 3 000
Yellow 4 4 0000
Green 5 5 00000
Blue 6 6 000000
Violet 7 7 0000000
Grey 8 8
White 9 9
Gold Tolerance 5%
Silver Tolerance10%
INSTRUCTIONAL LABORATORY CHEMICAL ENGINEERING DEPT.
FTI - ITB
BATTERY MODULE (BAT)
BAT – 2018/PW 13
APPENDIX D
JOB SAFETY ANALYSIS CONTROL SHEET
No Material Material properties Repressive act
1 Used
batteries
• Toxic
wastes, need
separate
treatment
• A leak may
occur
• Prepare a special battery
dump
• Make sure to keep a
used battery in a dry place
Accidents that may occur Repressive act
Short circuit - Immediately disconnect one of the
cable connections in the circuit.
- Check the tool that causes short-
circuiting.
Electric shock - Immediately switch off the device
connected to the AC current source.
Safety equipment
Gloves Laboratory coat Goggle
Assistant Advisor Lab TK Coordinator