This safety data sheet (SDS) is applicable to lithium iron phosphate batteries manufactured by Dakota Lithium.
Download safety data sheet for LiFePO4 batteries here.
For other brands of lithium batteries please contact your battery manufacturer and request a safety data sheet.
For technical questions or help with your Dakota Lithium product contact support@dakotalithium.com
Dakota Lithium is an ISO 9001:2015 certified lithium battery manufacturer. More on certifications, quality, and reliability is available here.
Product Name: LiFePO4 Rechargeable Battery
Chemical System: LiFePO4
IMPORTANT NOTE: The battery cell should not be opened or exposed to heat as exposure to the following ingredients contained within could be harmful under some circumstances.
Weight % | Component | CAS No. | PEL | TLV |
40 | Lithium Iron Phosphate – LiFePO4 | 15365-14-7 | 10.0 mg/m3 (as iron fume) | 5.0 mg/m3 |
30 | Graphite (C) | 7440-44-0 | 2.5 mg/m# (as dust) | 2.0 mg/m3 (as dust) |
10 | Organic Electrolyte | N.A. | None Established | None Established |
5 | Aluminum | 7429-90-5 | None Established | None Established |
5 | Copper | 7440-50-8 | None Established | None Established |
Weight % listed is based on approximate percent of the average weight of the battery
For the battery cell, chemical materials are stored in a hermetically sealed Aluminum laminated case, designed to withstand temperatures and pressures encountered during normal use. As a result, during normal use, there is no physical danger of ignition or explosion and chemical danger of hazardous materials’ leakage. However, if exposed to a fire, added mechanical shocks, decomposed, added electric stress by miss-use, the gas release vent will be operated. The battery cell case will be breached and hazardous materials may be released.
Moreover, if heated strongly by the surrounding fire, hydrogen fluorite gas may be emitted.
Most important hazards and effects
Human health effects:
Environmental effects: Do not throw out it into the environment.
Specific hazards:
If the electrolyte contacts with water, it will generate detrimental hydrogen fluoride.
Since the leaked electrolyte is inflammable liquid, do not bring close to fire.
Spilled internal cell materials
Inhalation: Make the victim blow his/her nose, gargle. Seek medical attention if necessary.
Skin contact: Remove contaminated clothes and shoes immediately. Wash extraneous matter or contact region with soap and plenty of water immediately.
Eye contact: Do not rub in eyes. Immediately flush eyes with water continuously for at least 15 minutes. Seek medical attention immediately.
Ingestion: Make the victim vomit. Seek medical attention.
Suitable extinguishing media: Plenty of water, carbon dioxide gas, nitrogen gas, chemical powder fire extinguishing medium and fire foam.
Specific hazards: Corrosive gas may be emitted during fire.
Specific methods of fire-fighting: When the battery burns with other combustibles, use the fire- extinguishing method which corresponds to the combustible items. Extinguish a fire from an up- wind position as much as possible to avoid inhalation.
Special protective equipment for firefighters:
Respiratory protection: Respiratory equipment or, if not available, dust mask.
Hand protection: Protective gloves.
Eye protection: Goggles or protective glasses designed to protect against liquid splashes
Skin and body protection: Protective clothing.
Spilled internal cell material, including leaked material from a battery cell, is to be dealt with carefully.
Precautions for human body:
Remove spilled materials with protective equipment (protective glasses and protective gloves).
Do not inhale the gas as much as possible. Moreover, avoid touching as much as possible.
Environmental precautions:
Do not throw out into the environment.
Method of cleaning up:
The spilled solids are put into a container.
The leaked materials should be wiped off with dry cloth.
Prevention of secondary hazards:
Avoid re-scattering.
Do not bring the collected materials close to fire.
Handling
Prevention of user exposure: Not necessary under normal use.
Prevention of fire and explosion: Not necessary under normal use.
Precaution for safe handling: Do not damage or remove the external casing.
Specific safe handling advice:
Storage
Storage conditions: Avoid direct sunlight, high temperature, and high humidity. Store in cool, dry place (temperature: 20 – 35°C, humidity: 45 – 85%).
Incompatible products: Conductive materials, water, seawater, strong oxidizers and strong acids. Packing material: Insulating and tear-proof materials are recommended.
Engineering measures: Use adequate ventilation and recommended personal equipment.
Control parameters:
Common chemical name /
General name |
ACGIH (2002)
TLV-TWA |
BEI |
Lithium Iron Phosphate | – | |
Aluminum | 10 mg/m3 (metal coarse particulate)
5 mg/m3 (inflammable powder) 5 mg/m3 (weld fume) |
– |
Carbon | 2 mg/m3 | – |
Copper | 0.2 mg/m3 (fume) | – |
Polyvinylidene Fluoride (PVDF) | – | |
Organic Electrolyte | – |
ACGIH: American Conference of Governmental Industrial Hygienists Inc.
TLV-TWA: Threshold Limit Value-Time Weighted Average concentration.
BEI: Biological Exposure Indices.
Respiratory protection: Respirator with air cylinder, dust mask. Hand protection: Protective gloves.
Eye protection: Goggles or protective glasses designed to protect against liquid splashes.
Skin and body protection: Working clothes with long sleeves and long trousers.
Appearance
Physical state: Solid
Form: Prismatic
Color: Metallic color (without casing)
Smell: Odorless
pH: N/A
Specific temperatures/temperature ranges at which changes in physical state occur: N/A
Flash point: N/A
Explosion properties: N/A
Density: N/A
Solubility with indication of the solvent(s): Insoluble in water
Stability: Stable under normal use. Hazardous reactions occurring under specific conditions
Conditions to avoid: When a battery cell is exposed to an external short-circuit, is crushed, deformed, or exposed to high temperature above 100°C, it will generate heat and possibly ignite. Do not place it in direct sunlight or high humidity.
Materials to avoid: Conductive materials, water, seawater, strong oxidizers and strong acids.
Hazardous decomposition products: Acrid or harmful gas is emitted during fire.
The information of the internal cell materials is as follows:
Lithium Iron Phosphate (LiFePO4)
Acute toxicity: No applicable data.
Local effects: Unknown.
Sensitization: The nervous system of respiratory organs may become sensitive.
Chronic toxicity/Long term toxicity: No applicable data.
Skin causticity: Although it is very rare, a rash of the skin and allergic erythema may result.
Aluminum
Local effects: Aluminum itself has no toxicity. When it goes into a wound, dermatitis may be caused. Chronic toxicity/Long term toxicity: By the long-term inhalation of coarse particulate or fume, it is possible to cause lung damage (aluminum lungs).
Graphite
Acute toxicity: Unknown. Local effects: When it goes into the eyes, it stimulates the eyes; conjunctivitis, thickening of corneal epithelium or edematous inflammation palpebra may be caused. Chronic toxicity/Long term toxicity: Since the long-term inhalation of high levels of graphite coarse particulate may become a cause of a lung disease or a tracheal disease. Carcinogenicity: Graphite is not recognized as a cause of cancer by research organizations and natural toxic substance research organizations of cancer.
Copper
Acute toxicity: 60-100mg sized coarse particulate causes a gastrointestinal disturbance with nausea and inflammation. TDLo, hypodermic – Rabbit 375mg/kg Local effects: Coarse particulate stimulates the nose and throat. Eyes will become red and painful if contact is made. Sensitization: Sensitization of the skin may be caused by long-term or repetitive contact. Reproductive effects: TDLo, oral – Rat 152mg/kg
Organic Electrolyte
Acute toxicity: LD50, oral – Rat 2,000mg/kg or more
Local effects: Unknown.
Skin irritation study: Rabbit – Mild
Eye irritation study: Rabbit – Very severe
Persistence/degradability: Do not bury or throw out into the environment.
Recommended methods for safe and environmentally preferred disposal:
In the case of transportation, avoid exposure to high temperature and prevent the formation of any condensation.
Prevent falling, dropping and breakage.
Prevent collapse of cargo piles and water damage.
The container must be handled carefully.
Please refer to Section 7-HANDLING AND STORAGE.
The transport of Lithium ion batteries is subject to international regulation which can differ if the batteries are transported by air, sea or road. There are a range of fines for companies (including OEMs) who do not comply with these regulations.
All Tracer Power batteries, covered in this document, have met the requirements of the UN Manual of Tests and Criteria, Fifth Revised Edition (ST/SG/AC.10/11/Rev.5 section 38.3 entitled “Lithium Metal and Lithium ion Batteries”) and can therefore be transported.
The UN numbers, and proper shipping names, of Lithium Ion batteries, are as follows:
UN3480 – Lithium ion batteries
UN3481 – Lithium ion batteries contained in equipment or packed with equipment
Lithium ion batteries which have been transportation tested but have a possible stored energy of >100Wh must be transported as Class 9 dangerous goods which impose strict packaging, labeling and documentation requirements on those shipping the product. Special training and certification is required for those wishing to ship class 9 dangerous goods.
There are restrictions on the number and size of Lithium ion batteries which can be taken on board aircraft (as carry on or checked in luggage).
Please contact Dakota Lithium for full details of transport requirements.
Regulations specifically applicable to the product:
IATA-DGR (air transportation)
IMO-IMDG Code (sea transportation)
US Department of Transportation 49 Code of Federal Regulations [USA]
Wastes Disposal and Public Cleaning Law [Japan] Law for Promotion of Effective Utilization of resources [Japan]
The information contained in this Safety data sheet is based on the present state of knowledge and current legislation.
This safety data sheet provides guidance on health, safety and environmental aspects of the product and should not be construed as any guarantee of technical performance or suitability for particular applications.