TESLA Model 3
TESLA Model 3 - Image 2
TESLA Model 3 - Image 3
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Panasonic TESLA Model 3

TESLA Model 3
TESLA Model 3 - Image 2
TESLA Model 3 - Image 3

Get everything you need for the lithium-ion battery cell Panasonic TESLA Model 3: Extensive measurement data in the total operation regime, a high-precision, physical battery model with global validity, and a teardown report that contains all details about materials and microstructures.

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Cell Origin extracted from TESLA Model 3 (2017)
Cell Format 21700
Dimen­sions 21 x 70 mm
Weight 68.5 g
Capacity
defin­i­tion
The nominal capacity origi­nates from the manufac­tur­er’s data sheet, if avail­able. When the data sheet is unavail­able, the nominal capacity is estimated. Batemo measured the C/10 capacity by discharging the cell at an ambient temper­a­ture of 25°C from 100% with a constant current of 0.48A (0.1C) until reaching the voltage of 2.5V. The thermal boundary condi­tion is free convection.
 nominal 4.80 Ah
C/10 4.66 Ah
Current
defin­i­tion
All quanti­ties are measure­ment results from the Batemo battery labora­tory.
The contin­uous current is the highest current that completely discharges the cell without overheating it. There­fore, the cell is discharged from 100% state of charge (SOC) at an ambient temper­a­ture of 25°C with a constant current until a residual state of charge of 10% and either the lower voltage limit of 2.5V or 90% of the maximum surface temper­a­ture (54°C) is reached.
The peak current is the current that the cell can supply for 5 minutes. The cell is there­fore discharged from 100% SOC at an ambient temper­a­ture of 25°C with a constant current until it reaches either the lower voltage limit of 2.5V or the maximum surface temper­a­ture of 60°C after 5 minutes. For cells that reach the maximum surface temper­a­ture, the measured current is taken directly as the peak current. For cells that do not reach the maximum surface temper­a­ture after 5 minutes because they reach the lower voltage limit first, the measured current is multi­plied by a correc­tion factor that estimates the current that would have heated the cell to the maximum surface temper­a­ture within 5 minutes.
The thermal boundary condi­tion is free convec­tion. These operating conditions may be outside the cell manufacturer’s specification.
 contin­uous 7.01 A
peak 17.8 A
Energy
defin­i­tion
Batemo measured the C/10 energy by discharging the cell at an ambient temper­a­ture of 25°C from 100% with a constant current of 0.48A (0.1C) until reaching the voltage of 2.5V. The thermal boundary condi­tion is free convection.
 C/10 17.1 Wh
Power
defin­i­tion
All quanti­ties are measure­ment results from the Batemo battery labora­tory.
The contin­uous power is the highest power that completely discharges the cell without overheating it. There­fore, the cell is discharged from 100% state of charge (SOC) at an ambient temper­a­ture of 25°C with a constant current until a residual state of charge of 10% and either the lower voltage limit of 2.5V or 90% of the maximum surface temper­a­ture ( 54°C) is reached.
The peak power is the power the cell can supply for 5 minutes. The cell is there­fore discharged from 100% SOC at an ambient temper­a­ture of 25°C with a constant current until it reaches either the lower voltage limit of 2.5V or the maximum surface temper­a­ture of 60°C after 5 minutes. For cells that reach the maximum temper­a­ture limit, the measured power is directly taken as peak power. For cells that do not reach the maximum surface temper­a­ture after 5 minutes because they reach the lower voltage limit first, the measured power is multi­plied by a correc­tion factor that estimates the power that would have heated the cell to the maximum surface temper­a­ture within 5 minutes.
The thermal boundary condi­tion is free convec­tion. These operating conditions may be outside the cell manufacturer’s specification.
 contin­uous 24.0 W
peak 64.6 W
Energy Density
defin­i­tion
The energy densi­ties result from the C/10 energy, the cell weight and the cell volume.
 gravi­metric 250 Wh/kg
volumetric 707 Wh/l
Power Density
defin­i­tion
The power densi­ties result from the peak power, the cell weight and the cell volume.
 gravi­metric 943 W/kg
volumetric 2.66 kW/l

Panasonic TESLA Model 3 Model

The Batemo Cell Model of the lithium-ion battery cell Panasonic TESLA Model 3 is a high-preci­sion, physical cell model with global validity. As a digital twin it seamlessly integrates into your research, development and battery analytics by basing your decisions on simula­tions. See the details to learn more about the features and capabil­i­ties of the Batemo Cell Model.

Batemo Cell Model Version 1.303
Release Date November 01, 2020

Batemo demon­strates the accuracy and validity of the Batemo Cell Model by comparing battery simula­tion and measure­ment data in the range given below. Valida­tion is exten­sive, exper­i­mental charac­ter­i­za­tion covers the total opera­tional area of the cell: At low and high temper­a­tures, up to the maximal current and in the whole state of charge range.

State of Charge Range 0 … 100%
Current Range
defin­i­tion

The current range are the electrical current limits as used in the Batemo battery labora­tory. Please see the Panasonic TESLA Model 3 data sheet for the precise defin­i­tion of the current safe area of opera­tion of the cell.
 -19 A discharge … 10 A charge (-4.0C … 2.0C)
Voltage Range
defin­i­tion

The voltage range are the electrical voltage limits as used in the Batemo battery labora­tory. Please see the Panasonic TESLA Model 3 data sheet for the precise defin­i­tion of the voltage safe area of opera­tion of the cell.
 2.5 … 4.2 V
Temper­a­ture Range
defin­i­tion

The temper­a­ture range are the thermal limits as used in the Batemo battery labora­tory. Please see the Panasonic TESLA Model 3 data sheet for the precise defin­i­tion of the temper­a­ture safe area of opera­tion of the cell.
 -20 … 60 °C

Moreover, the valida­tion of the Batemo Cell Model is fully trans­parent. The Batemo Cell Data contains the raw measure­ment and simula­tion data. For all exper­i­ments the voltage, temper­a­ture, power and energy accura­cies are calcu­lated. This allows straight-forward evalu­a­tion and analysis of the Batemo Cell Model validity. The graphs show a selec­tion of charac­ter­istic data of the cell Panasonic TESLA Model 3 to evaluate the cell performance.

Discharge Charac­ter­is­tics

Panasonic_TESLAModel3_const

  • Discharge Charac­ter­is­tics: The electrical and thermal discharge behavior is strongly nonlinear.
  • Pulse Charac­ter­is­tics: The shape of different current pulses changes strongly.
  • Energy Charac­ter­is­tics: The graph visual­izes how much energy the cell can deliver when operated at different powers.
  • Power Charac­ter­is­tics: The more power the cell supplies, the shorter it can deliver the power.
  • Thermal Charac­ter­is­tics: The greater the thermal losses, the more the cell heats up, resulting in higher depleted power.

Pulse Charac­ter­is­tics

Panasonic_TESLAModel3_pulse

show exper­i­ment defin­i­tions

Discharge Charac­ter­is­tics
The cell is discharged from 100% SOC with different constant currents at different ambient temper­a­tures. The thermal boundary condi­tion is free convec­tion. The measure­ment stops when reaching either the voltage of 2.5V or the surface temper­a­ture of 60°C.
Pulse Charac­ter­is­tics
The cell is discharged from 100% SOC with current pulses followed by no-load phases at different ambient temper­a­tures. The thermal boundary condi­tion is free convec­tion. The measure­ment stops when reaching either the voltage of 2.5V or the surface temper­a­ture of 60°C. The graph shows a zoomed view of the measure­ment to visualize one of the pulses.
Energy Charac­ter­is­tics
The cell is discharged from 100% SOC with different constant currents at 25°C. The thermal boundary condi­tion is free convec­tion. The measure­ment stops when reaching either the voltage of 2.5V or the surface temper­a­ture of 60°C. The graph shows the derived exchanged energy and average power of the experiment.
Power Charac­ter­is­tics
The cell is discharged from 100% SOC with different constant currents at 25°C. The thermal boundary condi­tion is free convec­tion. The measure­ment stops when reaching either the voltage of 2.5V or the surface temper­a­ture of 60°C. The graph shows the derived exper­i­ment duration and average power of the experiment.
Thermal Charac­ter­is­tics
The cell is discharged from 100% SOC with different constant currents at 25°C. The thermal boundary condi­tion is free convec­tion. The measure­ment stops when reaching either the voltage of 2.5V or the surface temper­a­ture of 60°C. The graph shows the cell surface temper­a­ture at the end and the derived average power of the experiment.

Energy Charac­ter­is­tics

How much energy can it deliver?

Panasonic_TESLAModel3_energy

Power Charac­ter­is­tics

How long can it deliver the power?

Panasonic_TESLAModel3_power

Thermal Charac­ter­is­tics

How hot does it get?

Panasonic_TESLAModel3_thermal

The mean accura­cies give an overview of the Batemo Cell Model accuracy. There­fore, the root mean square of the differ­ence between the measure­ment and simula­tion result is derived for the voltage, the temper­a­ture, the energy and the power. Relative numbers relate the accuracy to the respec­tive absolute value.

Mean Voltage Accuracy 0.027 V 0.9 %
Mean Temper­a­ture Accuracy 0.9 K 1.1 %
Mean Power Accuracy 0.14 W 0.7 %
Mean Energy Accuracy 0.200 Wh 2.4 %

The Batemo Cell Model precisely describes all aspects of the cell. It is the perfect tool for battery system development.

Panasonic TESLA Model 3 Data

Batemo offers an exten­sive, exper­i­mental charac­ter­i­za­tion of the lithium-ion battery cell Panasonic TESLA Model 3. The data contains measure­ment results in the total opera­tional area of the cell. The descrip­tions and graphs below explain and show the avail­able measure­ments. The Batemo Cell Viewer allows easy and fast analysis, evalu­a­tion and compar­ison of the data. See the details to learn more.

Constant Currents

Panasonic_TESLAModel3_validation_const

The cell is discharged from 100% SOC or charged from 0% SOC with different constant currents at different ambient temper­a­tures. The thermal boundary condi­tion is free convec­tion. The measure­ment stops when reaching either the voltage of 2.5V or 4.2V or the surface temper­a­ture of 60°C. The graph shows for which ambient temper­a­tures and charging and discharging constant currents measure­ments are available.

Pulse Currents

Panasonic_TESLAModel3_validation_pulse

The cell is discharged from 100% SOC or charged from 0% SOC with current pulses followed by no-load phases at different ambient temper­a­tures. The thermal boundary condi­tion is free convec­tion. The measure­ment stops when reaching either the voltage of 2.5V or 4.2V or the surface temper­a­ture of 60°C. The graph shows for which ambient temper­a­tures and pulse currents measure­ments are available.

Power Profiles

Ambient
Temper­a­ture		 Avail­able
Profiles
-20 °C profile_check
0 °C profile_check
25 °C profile_check
40 °C profile_check

The cell delivers a typical power profile from 100% SOC at different ambient temper­a­tures. The thermal boundary condi­tion is free convec­tion. The measure­ment stops when reaching either the voltage of 2.5V or the surface temper­a­ture of 60°C. The table summa­rizes for which ambient temper­a­tures the profile is available.

Panasonic TESLA Model 3 Report

Batemo offers a detailed report of the lithium-ion battery cell Panasonic TESLA Model 3. The report covers all impor­tant aspects about the cell. This infor­ma­tion greatly helps you to further evaluate and compare the cell. It is a profound basis for your decisions concerning your battery system design. See the details to learn more.

Perfor­mance Overview
Cell Exterior
Cell Interior
Safety Features
Electrode Microstruc­ture and Material