NEXT GENERATION LITHIUM ENERGY STORAGE.. COMPANY OVERVIEW Research & Development/Sales/Distribution/Manufacturing Product Development Auxiliary power.

Slides:



Advertisements
Similar presentations
Midsize Lithium Ion Battery Pack Patrick Montalbano © 2012 RIT Winter Student Research and Innovation Symposium Introduction Design, Construction,
Advertisements

1 Washington, Oct. 2nd 2013 Informal working group: Large Lithium batteries testing RECHARGE & SAFT.
A call to action Global warming Environmental pollution Geopolitics
Design for Prius C Plug-In Conversion
PH 0101 Unit-5 Lecture-61 Introduction A fuel cell configuration Types of fuel cell Principle, construction and working Advantage, disadvantage and application.
VSE Corporation Proprietary Information
Supercapacitor Energy Storage System for PV Power Generation
EET Electronics Survey Chapter 17 - Batteries.
Batteries Basics. The basics Voltage – Voltage is an electrical measure which describes the potential to do work. The higher the voltage the greater its.
Variable Frequency Drives VFD Basics
Lead Acid vs. Lithium Ion
Meridian Lithium Iron Power Pack Power for the AMX 4 Computer and Tethered Panel.
Rethinking Lithium Energy Storage and Battery Architecture Roland Pitts Founding Scientist Planar Energy Devices Orlando, FL
TI Confidential – Selective Disclosure BMS Deep Dive Battery Charger Design (1S): Key considerations and system design limitations Miguel Aguirre.
IPS Rev 1.0 Ken Lutz University of California, Berkeley
Photovoltaic Solar Cells and Solar Energy Systems for Home Usages Mohammad Anisuzzaman.
Solar Home UPS 850VA & 1400VA India’s first Sine wave inverter with in built Solar Charge Controller and Controlled DC Load Output. Simultaneous Charging.
To develop a small scale solar powered system that will power a DC load, which incorporates power management techniques, DC-DC conversion and a user interface.
Internet of Things: Batteries A Short Review Dr. Eng. Amr T. Abdel-Hamid NETW 1010 Fall 2013.
Phaseo Power Supplies ACE Expert Training Presentation 2009.
The Lithium-Ion Battery Service Life Parameters
Care and Feeding of Rechargeable Batteries Introduction Rechargeable (or secondary) Can be charged and discharged many times, versus one time use of "primary"
Lecture 28 October 30, Stand Alone PV San Luis Valley Solar Data (09/11/2010) Good Day [1] 3.
Enabling Asset Security & Management BPS P Batteries and Power Supplies.
No part of this publication may be reproduced, stored in a retrieval system, or transmitted in any form or by any means – electronic, mechanical, photocopying,
Solar Lightings Solar Module. Charge Controller. Battery. Inverter. Loads Accessories.
ADVANCED BATTERY TECHNOLOGY HYBRID 3 AUXILIARY ALT POWER UNITS Paul Baumann:
Station Battery Solar AC Source Home Batteries Battery Chargers.
Battery Technology November, range: function of energy density of the battery. Compare 12,000 (theo.) / 2600 Wh/kg with the lead-acid.
Lead Acid vs. Nickel Metal Hydride.  Discover Clean & Green series  Absorbed Glass Mat (AGM) Valve Regulated Lead Acid (VRLA)  Low self discharge rates.
Confidential & Proprietary. What happens when Wind /Solar do not meet requirements? What next?
As presented to July Battery Management Systems for Electric Vehicles.
Sustainable Energy Systems Engineering Peter Gevorkian Ch 2: Solar Power Generation Design Brevard Community College EST1830 Bruce Hesher.
Rechargeable batteries!
Chevy Volt. Volt Overview Extended-Range Electric Vehicle Available for mass purchase in 2010 as a 2011 model year Designed to meet the needs of 75% of.
Energy Storage Solutions & Applications Vikas K. Tyagi
Technician License Course Chapter 5 Amateur Radio Equipment Lesson Plan Module 12: Power Supplies and Batteries & RF Interference (RFI)
Overview Introduction History Why electric car? Different parts Motor Controller Batteries used in electric cars Obstacles Future References 1.
Page 1 May 2010 © Siemens AG 2010 Industry / Drive Technologies Innovative Hybrid Drive Systems for Commercial Vehicles Industry – Drive Technologies Innovative.
PV off Grid Design Eng. Laith Basha
Photovoltaic Batteries Battery Components Configuration Manufacturers.
Maccor, Inc West 40 th Street Tulsa, Oklahoma USA Telephone: Facsimile: Web:
Lecture 13: Energy Storage Energy Law and Policy Fall 2013.
Prepared for: ERCOT September 8, Ask Yourself….. What would you attempt to do if you knew you could not fail? 2.
Lithium-Ion Battery By QingjieBao. A lithium-ion battery (sometimes Li-ion battery or LIB) is a family of rechargeable battery types in which lithium.
Delivering Innovative Solutions Sun Power Technologies is committed to developing innovative, integrated power electronics solutions for the markets that.
Introduction to our offer May 2010
Batteries and DC Power Supplies EGR Batteries 2EGR 101.
Alternative Portable Power Systems. Amateur Radio Considerations Radio communications during power outage Remote operation Extra points during contesting.
Lithium Iron Phosphate Lithium Ferrous Phosphate Lithium Ferrophosphate LiFePO, LiFePO4, Li-Iron, LiFe, LFP 4 types of cells (3.2V/cell). Many multi-cell.
Mid Semester Presentation. Team Members Chapman, Jonathan Duties: Recharging Circuit Major: Electrical Engineering Dang, Quoc Duties: Power Circuit, Website.
Aircraft Electrical Systems Objectives (a) Explain the difference between Primary & Secondary cells (b) Compare Lead Acid & Nickel Cadmium batteries (c)
Mid Semester Presentation February 24, Team Members Chapman, Jonathan Duties: Recharging Major: Electrical Engineering Dang, Quoc Duties: Cell Monitoring.
1 Battery Comparison NanoSafe™ Possesses Disruptive Combination of Features No Other Battery Type Comes Close.
Product Introduction Reported by Jerry Huang
ERGA'S HYBRID BAKU
Batteries and Generators and Inverters…Oh My! A Discussion of Backup Power for Handhelds and BaseStations.
Lithium-Ion Battery By QingjieBao.
Battery Basics for The Radio Operator J&K Communications, Inc.
Clarkson University Electric Knights E54
93E Eaton 93E kVA UPS Sales Presentation.
Photovoltaic Systems Engineering Session 22 Solar+Storage Systems
Energy. Anytime. Anywhere.
Lithium-Ion Battery For Low Temperature Application Presentation
Electrochemical Storage of Renewable Energy
TrinaBess Energy Storage
Photovoltaic Systems Engineering Session 16 Solar+Storage Systems
Introduction Purpose To describe the features and capabilities of two new coin cell supercapacitor series from CDE. Objectives Explain advantages of supercapacitors.
Electric Double Layer Capacitors aka Coin Cell Supercapacitors
BabyCart Facilitates power and oxygen to transport incubator
Presentation transcript:

NEXT GENERATION LITHIUM ENERGY STORAGE.

COMPANY OVERVIEW Research & Development/Sales/Distribution/Manufacturing Product Development Auxiliary power units Large scale energy storage systems Off grid lighting Military development projects Next generation lithium-ion batteries

THE SAFEST, MOST COMPACT, HIGHEST DENSITY ENERGY LITHIUM PACK AVAILABLE FOR THE ENERGY STORAGE INDUSTRY. Unlimited Application Possibilities Only True Modular System available for 'Plug-n-Play' Superior charging recovery time (<2hrs = full charge)

Lithium Polymer vs. AGM ( Lead Acid ) Component Integration Sophisticated Proprietary Software Plug-n-Play ENERGY STORAGE INTEGRATION OBJECTIVES

Sophisticated BMS ( Battery Management System ) Avoid Catastrophic Power Failures Superior performance Very few large safe lithium systems Long prototype lead times and high costs ADVANCED BATTERY CONSIDERATIONS

PRODUCT FEATURES Zero Emissions, Zero Ventilation necessary Completely recyclable Eco-friendly, eco-compliant - No lead, acid, or heavy metals Conforms with EPA's new GREEN rules 100 total Lithium Ah (amp hours) = up to 200 Lead Acid Ah Up to 75% lighter in weight than a lead acid equivalent 4000 cycles to 80% DOD without harm to battery Solid state battery management system, first in class

PRODUCT FEATURES Safe & Stable Automatic internal thermal controlled Multiple layers of redundancy Fully monitor each cell to conform to highest specifications Same cell technology used in Ford Focus all electric car No thermal build up w/large format cell reduces connection/ failure points in every pack Wide range of DC input voltages from 12 – 600 VDC 115, 230, 480 volts AC connection compatibility Intelligent sleep mode, eliminates self discharge Military grade construction & performance standards

PRODUCT OPTIONS Inverter/Charger compatible Options available for battery monitoring display Remote monitoring via cell, Wifi or inverter Custom design available Scalable: 1.5 Kwh - 10Kwh packs Packs can be configured to megawatt energy storage systems Limitless system size: series or parallel to meet voltage and capacity needs Stackable - Racking system options

Superior Life Cycles Cell Cycle Life: 10,000 Higher Discharge Power Less Charging Time Less Self Discharge Rate Less Weight and Size High Temperature/ Low Temperature / Maintenance Free Configurable in 12V to 800V Widely accepted -48V Standard in Telephony Industry LITHIUM VS. LEAD ACID BATTERIES

Xfinergy: Lithium 12V, 6kWh,139lbs Lead Acid Equivalent (900lbs) Xfinergy: Lithium 48V, 6kWh,145lbs Lead Acid Equivalent (>1000lbs)

Item Cell Types Lead AcidNi-CdNi-MH Lithium High Power Lithium High Energy Energy DensityWh/kg Power DensityW/kg CELL CHEMISTRY ENERGY DENSITY COMPARISON Ni-Cd Lead Acid Ni-MH Lithium High Energy

HOW MUCH DO BATTERIES REALLY COST? Replacement cost Life cycles Depth of discharge (DOD) at each cycle Lifetime kWh Cumulative Efficiency / Performance factor True Cost per kWh

TRUE COST COMPARISON LEAD ACID VS. LITHIUM At all times, the lithium outperforms the AGM at a lower amortized cost In any application that will fully utilize the capacity of the batteries, lithium is more cost effective Battery Pack Size Chemistry Purchase Cost Lifetime Cycles Cost with Life Cycles In - Efficiency True Cost 20kWh Pb-Ld AGM 12 x 4D $5, cycles 80% DOD (400 x 6kWh) 6,400 Wh $0.84/Wh 15%$0.97/Wh 20kWh Lithium ( Volume ) $36, cycles 80% DOD (4000 x 6kWh ) 64,000Wh $0.55/Wh 2%$0.56/Wh

Cylindrical Type Prismatic Type Stacking Type S L P B TYPE New technology for SLPB process o. Size flexibility o. Z-folding structure Li-ion Mass production High Energy density (using steel can) Li-Polymer Ultra High power High safety Low weight (using Al Film) Continuous Automated Cell Assembly Processes Improved Safety High Discharge Rate Capability (20C-rate continuous) Faster Recharge Rate Various Capacity Prismatic (6mAh to 240Ah cell in production) Automation for better quality and cost control COMBINING PROCESS ADVANTAGES OF LI-ION AND LI-POLYMER

LITHIUM BATTERY SPECIFICATIONS: 12V 6kwh 139lbs 400Ah = 600Ah Lead Acid 4000 cycles 80%DOD Charge 115V AC / 230V AC Lightweight, Modular 12V- 800V Configurable RECENT INNOVATIONS ACB 3209 JMEC 1

MANUFACTURING ENVIRONMENT Scalable Low equipment cost Plug n’ Play Product flexibility