XD Vision, s.r.o., Vyšehradská 8 851 06 Bratislava Slovakia

+421 43 5111272 obchod@xdvision.sk www.xdvision.sk

4XVÍCE ENERGIE

NA VAŠICH CESTÁCH

Lithiové baterie – vaše spokojenost

Váš obchodní partner:

Více magazín

2/2016 a 3/2016

6/2016 a 10/2016

Více

4X VÍCE ENERGIENA VAŠICH CESTÁCH

Lithiové baterie – vaše spokojenost

Kontaktujte naše obchodní zástupce na:

Model name SAES 5000 Stand Alone Energy Station

Nominal capacity 5 kWp Base fo 20´ container

Nominal speed of wind 12 m/s 43,2 km/h

Start-up speed 1.6 m/s 5,76 km/h

Electro-magnetic brake 108-218 km/s 30-60,5 m/s

Height of the generator 5,5 m 216,53 in

Diameter 3,5 m 137,79 in

Max. rotor revolutions 100

Type of the generator NdFeB Neodymium magnet

Output voltage 230 VAC Depends on the country

Weight of the generator 420 Kg 924 ib

Noise level 40 dB

Horizontal wind turbine MVE 5000

Photovoltaic modules 3 kW Base for 20´ container

Battery technology LiFeUP4 Lithium-iron-fosfate

Power Bank Adjustable capacity 3000/6000/12000 Ah

BMS LTW-BMS Fully configurable + remote management capability

Weight of SAES system 4989 kg For 20´ container in libras 10 975,8 ib

Alternative equipment Sewage treatment, diesel or gas generator, transmitter, link

Product specification

SAES 5000 Stand Alone Energy Station

DESCRIPTION:

Hybrid installation (solar and windenergy)Backed up by Hydrogen Cell Cube IPrinciple of operation:Power from the wind generator and solarpanels charges the battery. Gained power

is then used to power appliances.

GRID OFF TECHNOLOGY FOR AHYBRID COMBINATION, EXPLOITING

THE ENERGY OF THE WIND ANDSOLAR

Product specification

SAES 5000

HYDROGEN CELL

Model name Cube I Hydrogen cell

Fuel H2 Hydrogen

Hydrogen Supply Pressure 5 – 13,6 Bars

Hydrogen Consumption < 1.7 Nm /h³

Cooling air inlet/outlet 700 Nm /h³

Venting of Hydrogen 10Nm /h1³ H2 input pressure relief device

Hydrogen concentration < 25% LEL In exhaust air, average per minute

Dimension 850x470x850 In milimeters

Weight 125 kg In kilograms

Max Output Current 82 A

System Efficiency Up to 47%

Permissible ambiente temperature +3°C to +40°C

Permissible storage temperature +3°C to +50°C

Reaction Chamber Exhaust Air < 65 Nm /h³

DESCRIPTION:

hydrogen-powered fuel cell system that

generates electricity without any emissions

whatsoever. It converts the energy stored in

hydrogen directly into electrical power - safely

and extremely efficiently. The advantages

include:

? Very high overall efficiency

? Quiet and smooth operation

? Comprehensive range of safety

features

Cube I Cell is especially suited to autonomous power supplies used in

remote locations. The safety and reliability of the system takes top

priority.

DRAWING:

Product specification

SAES 5000

CONNECTION ON THE FRONT OF THEDEVICE:

? Terminals fo DC battery

? USB

? Varios interfaces for flexible systém

integration

MEDIA INTERFACES:

1. Reaction condensate air outlet DN50

2. Comressed hydrogen supply

3. Hdydrogen venting connection

4. Reaction condensation Swagelok

5. Cooling air inlet/outlet

ADVANTAGES:

? Cube I Cell system boasts high system efficiency and the

perfect safety strategy. When in use, the system

? operates quietly and with minimal vibrations. It is extremely

user-friendly and straightforward to maintain owing to

? comprehensive remote system monitoring and an ingenious

connection package for operation independently of the

indoor air

? Simple, user-friendly operation and maintenance

In combination with water purifier you can achieve fully

closed system.

battery cell Lithium Iron Ultra Phosphate

Model name LTW-B-3,2V100Ah LiFeUP4

Nominal voltage 3.2 V Opera!ng voltage under load is 3.0 V

Capacity 100 Ah +/- 5%

Internal Resistance < 0,4 mΩ

Opera!ng voltage min 2,6 - max 3,65 V At 80% DOD

Discharge Termina!on Voltage 2.5 V The cells is damaged if voltage drops below this level

Charging Voltage Limit 3.7 V The cells is damaged if voltage exceeds this level

Standard Charge Current 33,3 A 0,5C Constant Current

Standard Discharge Current 33,3 A 0,5C Constant Current

Life cycles > 6000 0.5C, 80% DDC

Maximum Con!nuous

Discharge Current

300 A 5C Constant Current

Maximum Instantaneous

Discharge Current

1000 A 10C >15sec

3C Discharge Capacity ≥ 98 Ah Nominal Capacity 98 %

Working Temp. charging -5°C ~ 55°C The battery temperature should not increase this level

Working Temp. discharging -20°C ~ 80°C The battery temperature should not increase this level

Storage thermal Ambient -20°C ~ 45°C The battery temperature should not increase this level

Atmospheric Pressure 86~106 KPa

Rela!ve Humidity 25%~85% RH

Shell Material AL / plas!k flame retardants

Size (L×W×H) 36 × 230 × 218 mm millimeters (tolerance +/- 1 mm)

Weight 3360g grams (tolerance ±50g)

DESCRIPTION:

New chemical composi!on of the cells -Lithium Iron Ul-

tra Phosphate (LiFeUP4)

- cells with higher capacity range, thanks to an innova!ve

method of production.

Lithium Iron Ultra Phosphate technology has two impor-

tant advantages over other

lithium-ion batteries, these are thermal and chemical sta-

bility. Both of which characteristics

improve safety of batteries.

Safety and reliability are key aspects of any facility for

storing energy in batteries.

LTW-B-3,2V/100Ah

Battery specification

www.ltw-battery.com

www.mw-kw.cz

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DIMENSION DRAWING

Solar Ba�ery specifica� on

www.ltw-battery.com

www.mw-kw.cz

xxxxx

NEWNNNNEEEEWWWWNEWTECHNOLOGYTECHNOLOGY

Your seller:

in 25°C 100% 100% 100%

50% 100% 100%

25% 100% 100%

12% 100% 100%

6% 100% 100%

3% 100% 100%

0% 100% 100%

0% 90% 100%

in 30°C

in 36°C

in 41°C

in 47°C

in 53°C

in 60°C

in 70°C

in 80°C 0% 80% 100%

Lead AcidOK up 25°C

Remaining Lifecycles at different Temperatures

LiFePO4OK up 60°C

LTW LiFeUP4OK up 80°C

TEMPERATURE DEPENDENCESBoundaries of Lifecycle Shortering

0

10%

1000 2000 3000 4000 5000 6000 7000 8000

20%

30%

40%

50%

60%

70%

80%

90%

De

pth

of

Dis

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arg

e (

DO

D)

LiFePO4

LTW Battery

LTW Battery helps to safe our environment and money.

Each LTW Battery saves approximately 3 kg of CO2.

Which corresponds to compare burnout:

LTW SAVING

3600 cycles

80% DOD

2200 cycles

80% DOD

500 cycles

250 cycles

Charge / Discharge Cycles

LTW Battery Cycle Life Comparsion(Discharge current of 0,5 C)

100%

AMG Lead Acid Deep Cycle

Lead Acid

1V/1Ah = 0,0001 kg CO2

1 m3 natural gas = 2,62 kg CO2

1 kg coal = 1,92 kg CO2

1 l gasoline = 2,29 kg CO2

1 l of diesel = 2,60 kg CO2

COMPARISON GRAPH OF DENSITY OF

ENERGY BY WEIGHT OF DIFFERENT

BATTERY TYPES

COMPARISON GRAPH

OF LIFECYCLES OF LTW

AND LEADEN

BATTERIES IN

DIFFERENT DEPTHS OF

DISCHARGING

LTW-B-3,2V/100Ah

Battery specification

www.mw-kw.cz

www.ltw-battery.com

Solar module

Model name LTW-P60/260 LTW Solar panel made by Wande

Maximum power 260 W Pmpp at standard test condi!ons

Posi!ve power tolerance 0+5W At standard test condi!ons

Open Circuit Voltage 37.7 V Voc at standard test condi!ons

Short circuit current 8.92 A Isc atstandard test condi!ons

Maximum power voltage 30.4 V Vmpp at standard test condi!ons

Maximum power current 8.54 A Impp at standard test condi!ons

Module efficiency 15.98% At standard test condi!ons

Maximum power 192 W Electrical characteristics at normal operating temperature

Maximum power voltage 28.2 V Electrical characteristics at normal operating temperature

Maximum power current 6.81 AElectrical characteristics at normal operating temperature

Open circuit voltage 34.9 VElectrical characteristics at normal operating temperature

Short circuit current 7.12 AElectrical characteristics at normal operating temperature

Voltage Temperature Coefficient -0.32%/°C

Current Temperature Coefficient +0.036%/°C

Power Temperature Coefficient -0.44%/°C

Cells 6 x 10 pieces Polycrystalline solar cells series strings (156mm x 156mm)

Cell encapsula!on EVA Ethylene-Vinyl-Acetate

Frame Aluminum Anodized aluminum profile

Size 1640 × 992× 35mm millimeters (tolerance +/- 1 mm)

DESCRIPTION:

LTW panels made by Wande

Power: 260W

The panels have the highest conversion efficiency in the

market.

The panels are certificated to withstand wind up to

(2400 Pa) and snow load (5400 Pa).

They have excellent performance under weak light.

Excellent temperature coefficient enables better output

in hot climates

Efficiency: 15.98%

LTW-P60/260

Solar Panel

www.ltw-battery.com

www.mw-kw.cz

LTW&P60/260

Solar Ba�ery specifica� on

www.ltw-battery.com

www.mw-kw.cz

xxxxx

Your seller:

DIMENSIONS

LTW-P60/260

Solar Panel

www.mw-kw.cz

Product specification

SAES 5000

OTHER ACCESORRIES THAT CAN BE DELIVERED:

Diesel generator of performance according to the customer‘s requirementsWater treatment of specification according to the customer‘s requirements

Water pumping device with possibility of external water pipes solution3 kW Hydrogen cell or other technology regarding customer‘s specification and solar

panels charges the battery. Gained power

ADVANTAGES:The solar energy serves as a stable supply during insufficient wind conditions.

Wind energy serves as a reliable source of power when the sun can not provide enough energy.“Windsolar” system = ideal solution for independent energy supply.

INSTALLATION OVERVIEW:

LiFePO4 Battery specification

LTW technologie baterií oproti olověným technologiím. - Porovnání technických a provozních parametrů.

Základní analýza LTW baterií:

- Chemický základ LiFePO4 + SMART kontrolér – Vyšší nominální napětí na 1 článek u LTW oproti nižšímu napětí olova. -- 3.2V vs. 2.0V olovo. – Vysoká energetická hustota LTW. -- Hustota na váhu 3x vyšší, hustota na objem 6x vyšší. – Menší rozměry a nižší hmotnost -- šetří prostor v bateriových boxech. – Široký rozsah provozní teploty při zachování max. parametrů -25°C až +60°C . – Podporuje rychlé nabíjení a vybíjení. -- Vysoká efektivita (97% LTW vs. 75% olovo). – Dlouhá životnost. -- Větší počet Cyklů (5000 cyklů LTW vs. 500 olovo). – Hluboká vybíjecí tolerance -- 95% LTW vs. 50% olovo. – LTW baterie umožní rozložit náklady na dlouhou dobu oproti krátkodobému olovu. – Dlouhá doba mezi pravidelnými servisními zásahy (36+ měs. LTW vs. 6 měs. olovo) – Časový rámec výměny baterií LTW 5-7 let. Olověné baterie výměna 1.5 - 2 roky.

Graf porovnává hustotu energie na váhu u článků různých typů.

www.ltw-battery.com www.ltw-battery.com www.ltw-battery.com

LiFePO4 Battery specification

Tabulka hlavních rozdílů:

• Nominální napětí článku OLOVO 2.0V

LiFePO4 3.2V

LTW 3,2V

• Rozmezí provozního napětí 1.8 - 2.1V 2.6 – 3.7V 2.5 – 3.6V • Hustota energie na váhu Wh/kg 35 – 40 115 119 • Hustota energie na objem Wh/liter 70 140 150 • Objem 1 kWh baterie 14 Litrů 6,5 Litrů 6,4 Litrů • Váha 1 kWh baterie 25kg 8,7kg 8,5kg

• Objem 1 MWh baterie (1/2 z 20’ kontejneru)

• Váha 1 MWh baterie

14 285 Litrů

25 000kg

6 500 Litrů

8 700kg

6400 Litrů

8 500kg

Graf porovnává životnost LTW baterií vs. OLOVĚNÉ při různých hloubkách vybíjení.

www.ltw-battery.com www.ltw-battery.com www.ltw-battery.com

LiFePO4 Battery specification

Tabulka teplotních závislostí:

– Teplotní hranice krácení životnosti

Lead Acid OK to 25°C

LiFePO4 OK to 60°C

LTW OK to 80°C

Zbývající % životnosti při různých teplotách 100% při 25°C 100% 100%

50% při 30°C 100% 100% 25% při 36°C 100% 100% 12% při 41°C 100% 100% 6% při 47°C 100% 100% 3% při 53°C 100% 100% 0% při 60°C 100% 100% 0% při 70°C 90% 100% 0% při 80°C 80% 100%

Graf porovnává životnost v počtech cyklů LTW baterií vs. olověné gelové a olověné kyselinové baterie.

www.ltw-battery.com www.ltw-battery.com www.ltw-battery.com

LiFePO4 Battery specification

Porovnání schopnosti přijímat energii - nabíjení:

Porovnání schopnosti vydávat energii - vybíjení:

www.ltw-battery.com www.ltw-battery.com www.ltw-battery.com