lithium iron phosphate



Similar documents
Sony s Energy Storage System. The Sony Lithium Ion Iron Phosphate (LFP) advantage

SAFETY PERFORMANCE OF A LARGE FORMAT, PHOSPHATE BASED LITHIUM-ION BATTERY

Lithium Iron Phosphate High Current Rechargeable Lithium Ion Batteries

The Lithium-Ion Battery. Service Life Parameters

MAKING LITHIUM-ION SAFE THROUGH THERMAL MANAGEMENT

A Comparison of Lead Acid to Lithium-ion in Stationary Storage Applications

The Future of Battery Technologies Part I

Comparative safety study of Lithium ion Batteries

RECYCLING AND UPCYCLING SPENT LITHIUM-ION BATTERIES

Automotive Lithium-ion Batteries

Rechargeable Batteries in a Consumer Electronics World Tony Olson, January 2009

IMPACT IMPACT. LifeSaver Series. IPT Lithium Polymer. When safety & budgets depend on your battery.

IMPACT LifeSaver Series IPT Lithium Polymer IMPACT LifeSaver Series Impact Power Technologies, LLC

Maritime Battery Technology , Lindholmen

Inside the Nickel Metal Hydride Battery

A comparative analysis of Lithium Iron Phosphate and Lead-Acid (flooded, gel and AGM) battery technology for marine applications

鋰 電 池 技 術 及 產 業 發 展 趨 勢

Lithium Iron Phosphate Batteries

Smart Batteries and Lithium Ion Voltage Profiles

Electric Battery Actual and future Battery Technology Trends

Storage Battery System Using Lithium ion Batteries

Evolion Li-ion battery. Saft s proven ultra-compact solution for telecom applications

LEAD CRYSTAL. User Manual. Valve-regulated lead-crystal batteries Energy storage Cells

As you learned in the previous activity, energy is either potential energy or kinetic energy. Each can take many forms.

PROGRAMME OF WORK FOR THE BIENNIUM Work on the inclusion of ultra capacitors in the UN Model Regulations

Power Management: SCM

MATERIAL SAFETY DATA SHEET

Solar Cars. QuickTime and a TIFF (Uncompressed) decompressor are needed to see this picture. Energy Law Natalie Boulahanis nboulahanis@kentlaw.

Torfino Enterprises, Inc.

Ultracapacitors Help P21 To Provide Fuel Cell Based Backup Power For Telecoms

Lithium Battery Testing Under UN/DOT 38.3

SELECTION GUIDE FIFTH EDITION

Managing A123 Cells with FMA Cell Balancing Technologies

SODIUM-METAL HALIDE BATTERIES FOR STATIONARY APPLICATIONS

Clean and energy-efficient vehicles Advanced research and testing Battery systems

Tel.X Ni-Cd battery. The compact maintenance-free solution for telecom networks

Table Of Contents

What are the technical features and performance of the AccuCell system?

A Guide to the Safe Use of Secondary Lithium Ion Batteries in Notebook-type Personal Computers

Performance Testing of Lithium-ion Batteries of Various Chemistries for EV and PHEV Applications

DESIGN AND SIMULATION OF LITHIUM- ION BATTERY THERMAL MANAGEMENT SYSTEM FOR MILD HYBRID VEHICLE APPLICATION

Battery Recycling and You

Building Battery Arrays with Lithium-Ion Cells

LITHIUM-ION ENERGY MODULES HEM & HPM SERIES

How Batteries Work by Marshall Brain

The Tesla Roadster battery pack is comprised of about 6800 of these cells, and the entire pack has a mass of about 450kg.

In The fastest growing battery system, lithium ion (Li-ion) batteries are used where high-energy density and

PRODUCT SAFETY DATA SHEET

SPECIALTY CARBON BLACKS. High Performance Materials for Advanced Lead Acid Batteries

High capacity battery packs

Handbook. We aim to bequeath a beautiful Earth for our future generations.

Second International Renewable Energy Storage Conference November 2007 Bonn/Germany. Overview on current status of lithium-ion batteries

CLEAN ENERGY COUNCIL INTRODUCTION TO THIS REPORT

Application Note: Use of Low Resistivity Surface Mount PPTC in Li-ion Polymer Battery Packs

Sodium Sulfur Battery. ENERGY STORAGE SYSTEM for Reducing CO2 Emissions

Practical Examples of Galvanic Cells

Energizer Non-Rechargeable Batteries: Frequently Asked Questions

Solar Home System Kit Quality Standards

Lithium-ion battery technology: Getting the most from Smart Batteries

Nickel Metal Hydride (NiMH) Handbook and Application Manual

Designing Applications with Lithium-Ion Batteries

Battery Cell Balancing: What to Balance and How

HYDROTHERMAL SYNTHESIS AND CHARACTERIZATION OF LiMnPO 4 CATHODE MATERIALS. Bilen Aküzüm 1

Carbon Dioxide Membrane Separation for Carbon Capture using Direct FuelCell Systems

TRANSPORT OF DANGEROUS GOODS

Batteries in HP notebooks

Overview of Lithium Battery. Safety

Solar Powered Wireless Sensors & Instrumentation: Energy Harvesting Technology Reduces Operating Cost at Remote Sites

Li-Polymer Battery Technology Specification

Optimising the daily operation of industrial trucks

#178 Maintenance and Care of 3M Powered Air Purifying Respirator (PAPR) Battery Packs

Sunica.plus Ni-Cd batteries. The robust daily cycling solution for off-grid solar PV systems

Saft Li-ion battery systems for hybrid and electric vehicles. Increasing energy efficiency and meeting environmental challenges

Freque. Antigravity Batteries. battery cannot. limitations. difference. NOT use the. or racing and hard use. rider to put

Lithium Ion Battery Specifications

The Copernican Moment for Electronic Devices

Remote Power Systems

Temperature Compensated Charging of Lead Acid Batteries

Tel.X Ni-Cd battery. The compact solution for stationary applications

Safety data sheet for product

Saft Reliable energy for the internet of things. A wide range of energy solutions for sensing devices

GAIA Li-Ion Batteries: Evolution or Revolution?

Vincenzo Esposito. Università di Roma Tor Vergata

Comparison of Recent Trends in Sustainable Energy Development in Japan, U.K., Germany and France

Ni-Cd Memory: myth or fact?

Development of Grid-stabilization Power-storage Systems Using Lithium-ion Rechargeable Batteries

European Batteries For the long run. Martti Tuomas Alatalo May, 2010

Generating Current Electricity: Complete the following summary table for each way that electrical energy is generated. Pros:

How To Safely Use A Lithium Ion Cell

Experimental Analysis of Batteries under Continuous and Intermittent Operations

Specifying higher-quality durable power tools

How To Understand The Chemistry Of A Lithium Ion Battery

Saft stationary batteries. A wide offer of reliable, long-life solutions

SUBAT. "Sustainable Batteries. Action 8.1.B.1.6 Assessment of Environmental Technologies for Support of Policy Decision.

BAO TONG USA dba TYSONIC BATTERY. SPECIFICATION SHEET FOR 9V NI-MH RECHARGEABLE BATTERY TY-9V-200mAH

High Energy Rechargeable Li-S Cells for EV Application. Status, Challenges and Solutions

Safely Transporting Lithium Batteries by Air JANUARY 2015

Transcription:

S a y G o o d b y e t o o l d b at t e r y t e c h n o l o g y. Say hello to the Hipower LiFePo4 battery. Presents the latest power solution...hipower LiFePo4 Through exciting innovation and research, we have been able to develop the most advanced battery source the world has seen: Hipower LiFePo4 batteries. The latest in Lithium Chemistry has brought affordability and flexibility to standard and emerging applications. After developing the latest process for treatment of the lithium cathodes with non-toxic enhancers, conductivity has been increased over 10 million times, providing a safe, efficient, rapid-charge power source that is available in standard and custom dimensions. Hipower LiFePo4 batteries enjoy a flexibility of design that allows for custom battery packs, tailored to meet the design requirements of industry professionals and providing freedom from typical battery size restrictions. Due to the vulnerability of fossil fuel, and environmental concerns, the alternative energy fields and related industries are rapidly growing at strong rates. In response, renewable energy has attracted more and more attention. This has caused a strong demand of smart, affordable rechargeable batteries. However, the existing lithium ion cell systems, including lithium cobalt oxide and lithium manganese oxide still suffer from low discharge rates, safety concerns, and short cycle life. To solve those issues, a new battery technology, Lithium Iron Phosphate, has been successfully developed using state of the art technology to prepare lithium in the proper environment. Hipower LiFePo4 batteries provide a rechargeable, clean, fast and efficient power source that out-performs all others for practical & economical use. Finally a real-life solution is available for energy demands! Hipower LiFePo4 batteries come in many varied sizes including: 3.0V single cells with capacities from 18650, to 5AH, 10AH, 20AH, 40AH, and 60AH capacities. Our New Hipower LiFePo4 100AH will be available in June 2007. We also can work with the client to provide specific modules in accordance with the application s needs. CellTech-Harring A/S Rugmarken 9 DK-5320 Farum

Why choose HiPower LiFePo4 Batteries? H i g h P e r f o r m a n c e : Provides a High Theoretical capacity of 170mah/g and a High Practical capacity as high as 165mah/g. Extremely Safe/Stable Chemistry High intrinsic safety, non-explosive & will not catch fire under collision, due to over-charging, or from a short circuit. High thermal stability of phases up to 500 C. Long Service Life Over 6-7 years-up to 2000 cycles(80%dod) Rapid Charging Ability 2C fast charge 85% within half hour No memory effect Nickel Batteries exhibit memory problems High Discharge Rate Capability Among the best for all high power output demands Extraordinary Long Cycle Life 2000 cycles (80%DOD) Achieves up to 2000 cycles per life-over 7 times the life of Lead Acid and 3 times of NIMH and 3-4Times of LI-ION,LI-MN battery Environmentally Friendly Non-toxic, non-contaminating-no rare metals, UL, CE, SGS/ROHS approved wide working temperature range from -45 C +70C (Extremely cold and extremely hot weather will not affect its performance) Flexible Form Factor Small in size and light in weight, 1/3 weight of Lead Acid and 65% weight of NIMH. 2/3 size of Lead Acid. Superior Features Friendly to the Environment Easy to dispose of.no Heavy Metals Long Shelf Life and Faster Recharge time High Energy Efficiency with no memory effect No Toxic leaks-temperature Tolerant Smart Monitoring and internal Cell Balancing Inherently resistant to harsh conditions 1/3 the weight with twice the run-time Performance & Longevity reduces Costs 3 Year Warranty 2000 life cycles Standard & Custom Design CellTech-Harring Rugmarken 9 DK-3520 Farum

Intelligent & Efficient Chemistry LiFePO4 was first introduced as a potential cathode material for Lithium batteries in 1999. Under its pure form, the Olivinestructured material showed specific capacities up to170 mah/g. Introducing Nano-painting of LiFePO4 with a Carbon electronic conductor, HiPower Lithium produced cathode material with specific capacities as high as 165 mah/g, very close to the maximum theoretical capacity of 170 mah/g.

COMPARISON DATA AMONG VARIOUS LITHIUM BASE BATTERIES FEATURES LiFePO4 LiCoO2 LiMn2O4 NIMH SAFETY AND ENVIRONMENTAL CONCERNS Safest: no explosion, no smoke, no fire under abused working condition and the most environmentally friendly. Non-toxic, no rare metal, fire resistant, easily disposed of Not stable very dangerous Acceptable but also be explosive and on fire under abused working condition Not stable will be on fire even just under high temperature CYCLE LIFE POWER WEIGHT DENSITY Best among all the listed groups-up to 2000 times ( 80% DOD condition ) Acceptable 65% weight of NIMH Acceptable (< 500 times ) Unacceptable ( around 300 times ) Best Acceptable Low LONG TERM COST Most Economical High Acceptable High THERMAL PERFORMANCE Excellent (-45 C~ -70 C) Decays beyond +55 C ~ -20 C Decays extremely fast over +50 C Below 500 times Decays faster in high temperature REMARKS Lead Acid: though lower in cost and safety acceptable; it is extremely toxic, the worst for the environment, short cycle life, heavy in weight, not the best choice for many reasons. Nickel Hydride: exhibits low Power Weight Density, decays faster in high temperature, has memory effect, not suitable for high output usage. The Lithium Iron Phosphate Battery has been proven as the most environmental friendly battery. It is the safest with longest life cycle and most suitable for high output usage. It is also the best for storage and back-up applications.

VARIOUS LITHIUM Technologies There are three types of lithium ion strategies based on different cathode materials. They are: Lithium cobalt oxide, Lithium manganese oxide, and Lithium iron phosphate types. Although Lithium cobalt oxide has the advantage of high energy density, it suffers from safety concerns. Lithium manganese oxide has been evaluated for applications requiring high demands, and has outperformed the previous Lithium strategies. Also, its poor high temperature performance is a major drawback. Lithium iron phosphate has the best safety characteristics, long cycle life (up to 2000 cycles), and substantial availability. It is well suited for high discharge rate requirements such as the demands of the Military, Electrical Vehicles, Power tools, Mobile needs, UPS (Interrupt/Back-Up) and Solar energy systems. Safety First The safety characteristics inherent to LiFePo4 technology result from the incorporation of phosphates as the cathode material. Phosphates are extremely stable in overcharge or short circuit conditions and have the ability to withstand high temperatures without decomposing. When abuse does occur, phosphates are not prone to thermal runaway and will not burn. As a result, Hipower LiFePo4 batteries possess safety characteristics that are fundamentally superior to those of Lithium-ion batteries made with other cathode materials. Hipower Lithium batteries do not contain any heavy metals, and does not exhibit the "memory effect" of Nickel-Cadmium and Nickel-metal Hydride solutions. Hipower LiFePo4 technology demonstrates excellent shelf life, long cycle life and is maintenance free. We all use and take for granted the benefits of lithium-ion energy storage systems in our cell phones, notebooks, PDA's, consumer appliances and other devices. However, recent recalls by the US Consumer Protection Commission have brought to light the potential hazards of lithium-ion batteries. Just imagine what could happen to a large lithium-ion battery if an electric/ hybrid electric vehicle were rear-ended or if a manufacturing defect or other abuse caused a thermal event in a mission critical telecom backup system. The results could be devastating. Hipower LiFePo4 Batteries bring to market the only safe large format lithium-ion rechargeable battery technology. Please call us regarding your particular needs, and would be honored to provide you with smart alternatives. Flexibility Another key benefit of our LiFePo4 technology is its flexibility, both in terms of battery application and cell design. It can be used in wound cylindrical, wound prismatic and polymer battery construction types and manufactured to fit smaller applications, According to different applications, Hipower LiFePo4 batteries can be easily modified to meet the specific requirements of varied applications-extremely flexible in design capabilities. Current Trends We are currently supplying Hipower LiFePo4 lithium batteries for the electrical bicycle and scooter industry, as well as some emerging 4 wheel alternative vehicles. With over 3,000,000 electric bicycles in use with standard lead acid batteries, it is apparent that the short life span and toxicity from disposal of SLA batteries is a severe problem. Weighing over 12 Kgs, lasting only 6-12 months, and having total energy density of 360 watt hours, the standard 36 volt/10ah SLA battery pack has not proven effective as a smart, clean power source. Furthermore, these conditions have lead to many cities restricting the use of the electric bicycle. The choice is clear for the cleanest, smartest Lithium Power Option, the Hipower LiFePo4 Lithium battery. Options give you Power! Our latest generation product, the UPS power station, is by far the best solution to sensitive and crucial energy provision. Nothing comes close to the stability and hi-discharge capabilities of our Hipower LiFePo4 batteries, clearly the best choice for industry professional. Ideal for both military backup supply, our batteries provide the highest quality assurance for high-level commercial use. The advantages of traditional Lithium-ion coupled with the safety features of phosphates, makes Hipower LiFePo4 the technology for the future. Our LiFePo4 Lithium-ion technology utilizes natural, phosphate-based material and offers the greatest combination of performance, safety, cost, reliability and environmental characteristics. TEL + 45 7025 2201 FAX + 47025 2202

Technical Data (+25 C) 10Ah Cell PAT. LiFePO4 (+25 C) 20Ah Cell PAT. C-LiFePO4 (+25 C) 35Ah Cell PAT. LiFePO4

Technical Data (+25 C) 40Ah Cell PAT. LiFePO4 (+25 C) 60Ah Cell PAT. LiFePO4

Wide Applications Electric Vehicles: Autos, Bicycles, Hybrid and Scooters Emergency Power: UPS Power tools: Construction, Gardening, and Agricultural Environmental friendly, energy saving and safe substitute for lead acid, Ni-Cd, Ni-hydride, lithium co b a lt ox i d e o r l i t h i u m m a n g a n e s e ox i d e c e l l s. Medical and Handicap Products Other green and renewable energy systems Remote Control Products Solar and Wind Power: Energy Storage systems Military Equipment and AviationApplications

Hipower LiFePo4 Lithium battery is safe even under high heat and abused tests ------ it shows that hipower Lifepo4 battery does not have the security hidden danger When phosphate batteries are overcharged over 3A 5V, the temperature of the battery does not surpass 55 C-the battery is extremely safe. After heat tests for 7-8 hours reached 300 C in a hot box process, battery temperature remained nearly the equivalent of the surrounding temperature of hot box, and thermal runaway does not occur- after extrusion or acupuncture, the battery temperature did not surpass 110 C. The safety of the lithium battery is guaranteed by using LiFePO4 as an anode pole. LiFePO4 is one kind of phosphate gathering anion, the P-O chemical bond is extremely strong, material is thermodynamically stable, do not worry about it can release the oxygen, simultaneously LiFePO4's olivine crystal structure decides its crystal lattice deformation smaller in the sufficient electric discharge process, its material structure is stable and safe, and also its cycle life are extremely long. These characteristics also can make LiFePO4 withstand oxidation and acidic environment, the battery has more electrolyte choice, the battery performance can be optimized. Summary Hipower LiFePo4 Lithium Iron. As a new anode material for Lithium-ion batteries, LiFePO4, was first introduced in 1997, and has continually improved until the present as the very best option for smart, clean power. It has drawn attention from world experts due to its reliable safety, long life, low environmental impact, and its charge and discharge characteristics. HiPower Hipower LiFePo4 Lithium batteries (LiFePO4) are by far the best options for smart, clean power. As the leader in this type of technology and subsequent applications, HiPower has capitalized on the flexibility in design capabilities, and have been honored with many World Patents. Useful for consumer, commercial and military applications, our Hipower LiFePo4 batteries use no heavy metals, making these the premiere Green Power Source. They have extremely long life yielding up to 2000 cycles, high effective discharge capabilities, low internal resistance, and extreme stability. Hipower LiFePo4 batteries are maintenance free, have no memory effect, and withstand large fluctuations in temperature. Hipower LiFePo4 batteries are replacing the lead acid, hydrogen, nickel metal hydride, and existing lithium cobalt/manganese based methods as the smartest and most economical power option. Through intelligent design and application of these new technologies, together we can help our planet remain green, and enjoy a great quality of life.