Solar PV Modules:
 | ||||
manufacturer with
|
type
|
guarantee
|
power
| |
classification
|
in years
|
output
| ||
Yingli 240 P - 29b
|
poly
|
10
|
240 W
| |
Yingli 245 P - 29b
|
poly
|
10
|
245 W
| |
Yingli 250 P - 29b
|
poly
|
10
|
250 W
| |
Yingli 255 P - 29b
|
poly
|
10
|
255 W
| |
Yingli Panda 205 W Black
|
mono
|
10
|
205 W
| |
Yingli Panda 260 W
|
mono
|
10
|
260 W
| |
Yingli Panda 265 W
|
mono
|
10
|
265 W
| |
Yingli Panda 270 W
|
mono
|
10
|
270 W
| |
Yingli 290 P -35b
|
poly
|
10
|
290 W
| |
Tianwei TW 245 P60
|
poly
|
10
|
245 W
| |
Renesola 245 JC 245M/24 Bb
|
poly
|
10
|
245 W
| |
Renesola 250 Virtus 2
|
poly
|
10
|
250 W
| |
Renesola 260 Virtus 2
|
poly
|
10
|
260 W
| |
LDK 200 W mono
|
mono
|
10
|
200 W
| |
Visel VS240P-60
|
poly
|
12
|
240 W
| |
Eco Future 250 P60
|
poly
|
10
|
250 W
| |
Zhong Jing Solar 195 W
|
mono
|
10
|
195 W
| |
Conergy 240 Power Plus
|
poly
|
10
|
240 W
| |
Conergy Eco Pro 250
|
poly
|
10
|
250 W
| |
Q-Cells Qpeak Wht. 3.0 270
|
mono
|
12
|
270 W
| |
Q-Cells Qpro 3.0 260 EU
|
poly
|
12
|
260 W
| |
Q-Cells Qpro G2 240
|
poly
|
12
|
240 W
| |
BYD P6-30-3BB-255
|
poly
|
12
|
255 W
| |
Jinko JKM 250 P-60
|
poly
|
10
|
255 W
| |
Sharp ND-R245 A5
|
poly
|
10
|
245 W
| |
Sharp NA-E 135
|
10
|
135 W
| ||
Trina TSM 240 PC 05
|
poly
|
10
|
240 W
| |
Trina TSM 245 PC 06
|
poly
|
10
|
245 W
| |
Trina 195 W Comax All Black
|
mono
|
10
|
195 W
| |
Hyundai HiS S 215 MF
|
mono
|
10
|
215 W
| |
Hyundai HiS S 220 MF
|
mono
|
10
|
220 W
| |
Eoplly 195 mono
|
mono
|
10
|
195 W
| |
Sunowe 195
|
mono
|
10
|
195 W
| |
Sunowe 245
|
poly
|
10
|
245 W
| |
ZN-Shine ZXP6 235
|
poly
|
10
|
235 W
| |
ZN-Shine ZXP6 240
|
poly
|
10
|
240 W
| |
ZN-Shine ZXP6 245
|
poly
|
10
|
245 W
| |
ZN-Shine ZXP6 250
|
poly
|
10
|
250 W
| |
Canadian Solar CS6P 245 W
|
poly
|
10
|
245 W
| |
EGing EGM 190
|
mono
|
10
|
190 W
| |
REC 245 W PE Serie
|
poly
|
10
|
245 W
| |
REC 255 W PE Serie
|
poly
|
10
|
255 W
| |
REC 260 W PE Serie
|
poly
|
10
|
260 W
| |
Jetion JT 245Ple
|
poly
|
12
|
245 W
| |
JA Solar JAP 255 Wp black
|
mono
|
10
|
255 W
| |
Bosch c-SI M48 195Wp
|
mono
|
10
|
195 W
| |
Bosch c-SI M 48 200 Wp
|
mono
|
10
|
200 W
| |
Bosch c-SI M60 270 3BB
|
mono
|
10
|
270 W
| |
Bosch c-SI M60+ 285 3BB
|
mono
|
10
|
285 W
| |
Inverter:
| ||||
manufacturer
|
type
|
power output
|
price
|
date of
|
delivery
| ||||
Power One
|
PVI 3.0 OUTD-S
|
3000 W
|
in Stock
| |
Power One
|
PVI 3.6 OUTD-S
|
3600 W
|
in Stock
| |
Power One
|
PVI 4.2 OUTD-S
|
4200 W
|
in Stock
| |
Power One
|
PVI 6.0 OUTD- FS-TL
|
6000 W
|
in Stock
| |
Power One
|
PVI 8.0 OUTD- FS- TL
|
8000 W
|
in Stock
| |
Power One
|
PVI 10.0 TL-OUTD-S-FS
|
10000 W
|
in Stock
| |
Power One
|
PVI 12.5 TL-OUTD-S-FS
|
12500 W
|
in Stock
| |
Power One
|
Trio 20.0 -TL OUTD-S2
|
20000 W
|
in Stock
| |
Power One
|
Trio 20.0 -TL OUTD-S2F
|
20000 W
|
in Stock
| |
Power One
|
Trio 20.0-TL-OUTD-S2X
|
20000 W
|
in Stock
| |
Power One
|
Trio 27.6-TL-OUTD-S2
|
27600 W
|
in Stock
| |
Power One
|
Trio 27.6-TL-OUTD-S2F
|
27600 W
|
in Stock
| |
Power One
|
Trio 27.6-TL-OUTD-S2X
|
27600 W
|
in Stock
| |
SMA
|
SB 1300 TL - 10
|
1200 W
|
in Stock
| |
SMA
|
SB 1600 TL - 10
|
1600 W
|
in Stock
| |
SMA
|
SB 2100 TL
|
2100 W
|
in Stock
| |
SMA
|
SB 2500 TLST-21
|
2500 W
|
in Stock
| |
SMA
|
SB 3000 TL-21
|
3000W
|
in Stock
| |
SMA
|
SB 3600 TL-21
|
3600W
|
in Stock
| |
SMA
|
SB 4000 TL-21
|
4000W
|
in Stock
| |
SMA
|
SB 5000 TL-21
|
5000W
|
in Stock
| |
SMA
|
STP 5000TL-20
|
5000 W
|
in Stock
| |
SMA
|
STP 6000TL-20
|
6000 W
|
in Stock
| |
SMA
|
STP 7000TL-20
|
7000 W
|
in Stock
| |
SMA
|
STP 8000TL-20
|
8000 W
|
in Stock
| |
SMA
|
STP 9000TL-20
|
9000 W
|
in Stock
| |
SMA
|
STP 10000 TL-10
|
10000 W
|
in Stock
| |
SMA
|
STP 12000 TL-10
|
12000 W
|
in Stock
| |
SMA
|
STP 15000 TL-10
|
15000 W
|
in Stock
| |
SMA
|
STP 17000 TL-10
|
17000 W
|
in Stock
| |
Samil Power
|
SolarLake 10000 TL
|
10000 W
|
in Stock
| |
Samil Power
|
SolarLake 12000 TL
|
12000 W
|
in Stock
| |
Samil Power
|
SolarLake 15000TL
|
15000 W
|
in Stock
| |
Samil Power
|
SolarLake 17000 TL
|
17000 W
|
in Stock
| |
Refu
|
REFUsol 008K
|
8000W
|
in Stock
| |
Refu
|
REFUsol 010K
|
10000 W
|
in Stock
| |
Refu
|
REFUsol 013K
|
13000 W
|
in Stock
| |
Refu
|
REFUsol 017K
|
17000 W
|
in Stock
| |
Refu
|
REFUsol 020K
|
20000 W
|
in Stock
| |
Kostal
|
PIKO 3.0
|
3000 W
|
in Stock
| |
Kostal
|
PIKO 3.6
|
3600 W
|
in Stock
| |
Kostal
|
PIKO 4.2
|
4200 W
|
in Stock
| |
Kostal
|
PIKO 5.5
|
5500 W
|
in Stock
| |
Kostal
|
PIKO 7.0
|
7000 W
|
in Stock
| |
Kostal
|
PIKO 8.3
|
8300 W
|
in Stock
| |
Kostal
|
PIKO 10.1
|
10000 W
|
in Stock
| |
Kaco
|
Powador 9,0 TL3 INT
|
7500 W
|
in Stock
| |
Kaco
|
Powador 10,0 TL3 INT
|
9000 W
|
in Stock
| |
Kaco
|
Powador 12,0TL3 INT
|
10000 W
|
in Stock
| |
Kaco
|
Powador 14,0 TL3 INT
|
12500 W
|
in Stock
| |
Kaco
|
Powador 18,0 TL3 INT
|
15000 W
|
in Stock
| |
Kaco
|
Powador 30,0 TL3-XL-INT
|
25000 W
|
one week
| |
Kaco
|
Powador 33,0 TL3-XL-INT
|
27500 W
|
one week
| |
Kaco
|
Powador 36.0 TL3-XL-INT
|
30000 W
|
one week
| |
Kaco
|
Powador 39,0TL3-XL-INT
|
33300 W
|
one week
| |
Kaco
|
Powador 40.0TL3-XL-INT
|
36000 W
|
one week
| |
Kaco
|
Powador 60.0TL3-XL-INT
|
50000 W
|
on request
| |
Steca
|
Grid 3000
|
3000 W
|
in Stock
| |
Steca
|
Grid 3600
|
3600 W
|
in Stock
| |
Steca
|
Grid 4200
|
4200 W
|
in Stock
| |
Steca
|
Grid 8000+ 3ph
|
8000 W
|
in Stock
| |
Steca
|
Grid 10000+ 3ph
|
10000 W
|
in Stock
| |
Fronius
|
IG Plus 55 V-3
|
5000W
|
in Stock
| |
Fronius
|
IG Plus 60 V-3
|
6000W
|
in Stock
| |
Fronius
|
IG Plus 80 V-3
|
7000W
|
in Stock
| |
Fronius
|
IG Plus 100 V-3
|
8000W
|
in Stock
| |
Fronius
|
IG Plus 120 V-3
|
10000W
|
in Stock
| |
Fronius
|
IG Plus 150 V-3
|
12000 W
|
in Stock
| |
Danfoss
|
TLX +
|
6000 W
|
in Stock
| |
Danfoss
|
TLX +
|
8000 W
|
in Stock
| |
Danfoss
|
TLX +
|
10000 W
|
in Stock
| |
Danfoss
|
TLX +
|
12500 W
|
in Stock
| |
Danfoss
|
TLX +
|
15000 W
|
in Stock
| |
Danfoss
|
TLX Pro +
|
6000 W
|
in Stock
| |
Danfoss
|
TLX Pro +
|
8000 W
|
in Stock
| |
Danfoss
|
TLX Pro +
|
10000 W
|
in Stock
| |
Danfoss
|
TLX Pro +
|
12500 W
|
in Stock
| |
Danfoss
|
TLX Pro +
|
15000 W
|
in Stock
| |
| Orion Air Conditioning & Refrigeration Ltd Millennium Studios Bedford Technology Park Thurleigh, Bedfordshire MK44 2YP Tel: +44 (0)845 567 70 80 Fax: +44 (0)1234 780148 Mail: info@orionair.co.uk | ||||
Sunday, 15 September 2013
Solar PV Panels And Inverter Sales
Monday, 9 September 2013
Space Heating Options: Deciding Which Space Heater Is Best For You
Space Heating Options: Deciding Which Space Heater Is Best For You
What Is The Best Heater For Home Space Heating
There are many types of space heaters for the homes user. A home user generally does not have huge heating requirements and will usually only want a heater to plug into their local socket for convenient hassle free heating. Electric heaters are the main chose for spot heating a room and most popular are oil filled radiators, fan heaters, Smaller ceramic heaters, and halogen heaters. Smaller ceramic heaters are robust and compact, and have become a very efficient way of heating but lack large outputs of a fan heater or oil filled radiator. A halogen heater is effective, fast to heat and also has the byproduct of giving of light which maybe useful to some users. The most popular is the oil filled radiator and probably the most comfortable to live with as the heat is radiant so does not tend to dry the air. Convection heaters are compact and generally wall mounted for a compact and reliable form of heating.
Heaters For Commercial Users Such As Offices And Work Areas
A commercial user wanting to heat a warehouse (+100kW heating requirement) will need to decide which fuel is best to use, the space heaters efficiency balanced against building energy supplies i.e. gas , electricity or oil. The main thing to consider when purchasing the space heater is the power source of your heater. If you have a large area that requires electric space heating such as a open plan office then the first thing to look at is the incoming mains. Electric heaters are limited as they have a low efficiency, usually they will consume around 4.1A@240V of electrical power to produce 1 kW of heat. Most commercial premises have three phase incoming mains which is useful for spreading the load of the electric heaters. Propane and gas style heaters are compact and have a large capacity heat output when compared to the foot print of a similar electric space heater.
Most electric space heaters have a power requirement of single phase models: 3 kW, 5kW(max), where any electric heater over 6kW requiring a three phase 415V electrical supply. With mains gas a heating requirement for a building of 30kW is not a problem, but for a electric heater that would be 125A which can take a huge chunk of a commercial buildings electric energy supply incomer of 100A per phase. This is why many commercial buildings with limited electricity supplies use air heat pumps such as air conditioning and gas. For a spot heating large areas, direct electric heating such as fan heaters and oil filled radiators can be un-economical use of power but are useful for localized heating.
Most electric space heaters have a power requirement of single phase models: 3 kW, 5kW(max), where any electric heater over 6kW requiring a three phase 415V electrical supply. With mains gas a heating requirement for a building of 30kW is not a problem, but for a electric heater that would be 125A which can take a huge chunk of a commercial buildings electric energy supply incomer of 100A per phase. This is why many commercial buildings with limited electricity supplies use air heat pumps such as air conditioning and gas. For a spot heating large areas, direct electric heating such as fan heaters and oil filled radiators can be un-economical use of power but are useful for localized heating.
How Much Space Heating Power Is Required For My Area
How much heating power is require for a area is worked out by a simple calculation. A basic rule of thumb is a minimum of 33watts(W) per meters cubed (m3). So if a area is 10 Meters x 5 Meters x 3 Meters the total cubic metering of the room will be 150 meters cubed. Therefore 150 x 33 = 4950 Watts of heating required. If you would like a figure in BTU times the final kW heating requirement by 3412.
Another Example: An area(A) of 250 m3 requires (A)250x33(W)= 8.25 Kw (x 3412= 28000 Btu)
We have a huge range of industrial space heaters for sale from 2kW to 100kW. Brands including unters, Broughton and Kroll all renowned for their high quality and outstanding reliability. These include single and three phase units.
Another Example: An area(A) of 250 m3 requires (A)250x33(W)= 8.25 Kw (x 3412= 28000 Btu)
We have a huge range of industrial space heaters for sale from 2kW to 100kW. Brands including unters, Broughton and Kroll all renowned for their high quality and outstanding reliability. These include single and three phase units.
Please take a look at our range of electric space heaters:
Saturday, 7 September 2013
Installation instructions suitable for the Forgen Wind Turbine 500NT and 1000NT series
Installation instructions suitable for the Forgen Wind Turbine 500NT and 1000NT series
The Forgen can be supplied with 3 standard mount system options:
Option 1 – Bracket and Wedge (standard system) (used to fit to a vertical flat surface)
- Remove the bracket and wedge from box.
- Slacken the “Security “ hex screw in the mounting bracket with key provided and slide out the tapered mounting plate.
- Secure the mounting plate to the surface or frame; this surface must be rigid or well supported, as there can be strong sideways forces exerted during gale conditions.
- Slide the mounting bracket over the wedge and secure by tightening the hex grub screw.
- Offer the spindle of the Forgen vawt through the hole in the bracket and tighten using the two nuts provided.
The fitting is designed to clamp directly onto a scaffold size pole of 50mm or 2” pole. Secure the fitting by tightening the 3 stainless steel clamping screws.
Note: Ensure the mount is securely fitted to the spindle of the Forgen
Option 3 – Side Mounting (used in extreme environments of cold temperature and high winds)
Option 3 is for our ‘extreme conditions’ (LT) option. This has a side mounting with a bearing assembly being fitted into the head of the rotor. The machine is attached to the side of a building, mast or other fixture with suitable bolts
General
- Run the twin core cable through to a position convenient for a switch box, connecting Block (if either are to be fitted) or direct to the battery.
- Output from the Forgen is DC and suitably self-regulating for 6, 12 or 24 with no manual adjustment needed.
- The Brown wire from the Forgen is Positive (+) and must be connected to the positive Terminal of the battery via the fuse and switch box, if fitted.
- The Blue wire is Negative (-) and must be connected to the negative terminal of the battery.
To avoid risk of damage to the generator, it is recommended that a 3 amp in line fuse is fitted into the positive line of the Forgen 500 and a 5 amp in line fuse for the Forgen 1000. This will prevent any circuit damage, In the event of the battery being incorrectly connected.
Warranty
The Forgen product carries a two-year Manufacturers mechanical parts warranty from the date of purchase.
- The warranty will be invalidated if the machine is dismantled other than by Goodridge authorised service engineers or dealers
- The Machine is incorrectly mounted
- The machine is incorrectly wired
- The machine is used for purposes other than that for which it was designed
Sunday, 4 August 2013
Ceramic Fuel Cells Limited (AIM / ASX: CFU), today released its quarterly cashflow report for the period ended 30 June 2013
RNS Number : 5357K
Ceramic Fuel Cells Limited
31 July 2013
31 July 2013
Cashflow Report for the June Quarter
Ceramic Fuel Cells Limited (AIM / ASX: CFU), today released its quarterly cashflow report for the period ended 30 June 2013.
Highlights
-- Successful capital raising of GBP 5.0m (AUD 7.6m)
-- Increased sales volume - 48 units sold this quarter bringing the total for the year as a whole to 147
-- Expansion of sales channels -- Large capacity furnace ramp-up nearing finalisation with excellent results. -- Cash position at 30 June 2013 AUD 10.0m (GBP 6.0m)
-- Ceramic Fuel Cells will release its preliminary results for the year ended 30 June 2013 by 31 August 2013
Operational Review
Introduction
CFU makes small scale generators that use proprietary fuel cell technology to convert natural gas into electricity and heat for homes and small commercial buildings. CFU has commercialised its technology into products and is now focused on selling these products to commercial customers in Europe.
During the quarter the Company successfully completed a GBP 5.0m (AUD 7.6m) fund raising. This was completed in May and resulted in the issue of GBP 4.3m (AUD 6.6m) of convertible loan notes and GBP 0.7m (AUD 1.0m) of ordinary shares. In addition to this the company also received AUD 5.2m (GBP 3.1) of funds in June 2013 in relation to a tax credit arising from its Australian research and development activities undertaken in fiscal year 2012.
Market Developments and Sales
The Government in the German state of North Rhine Westphalia (NRW) has established a funding program of up to EUR250 million to support deployment of large and small scale CHP. The programme is due to run until the end of 2017. Within this programme a significant amount has been specifically set aside for innovative and highlyefficient
mCHP technologies less than 50kW electrical output, which the Company's products have been classed as. In mid March 2013 the Company's units were approved for a capital subsidy under the programme. The subsidy is paid to commercial customers who receive an amount of between EUR9,000 and EUR13,000 per unit, dependent on the size of their business.
mCHP technologies less than 50kW electrical output, which the Company's products have been classed as. In mid March 2013 the Company's units were approved for a capital subsidy under the programme. The subsidy is paid to commercial customers who receive an amount of between EUR9,000 and EUR13,000 per unit, dependent on the size of their business.
The NRW subsidy is in addition to the German Federal Government feed-in tariff for mCHP products.
The Company believes that these measures can bring the net price of a BlueGen unit down to a level where commercial customers, with an appropriate level of energy use, can achieve a payback period of between 5 and 7 years. As such, we expect this subsidy programme to be a significant driver of sales in the future.
use, can achieve a payback period of between 5 and 7 years. As such, we expect this subsidy programme to be a significant driver of sales in the future.
In response to this opportunity the Company has been seeking to expand both its direct and indirect sales channels during the quarter.
The Company's sales channel strategy, in regards to indirect sales, is to grow distribution through partnering with utilities, installers and established distribution companies.
In March 2013 the Company entered into a letter of intent to form a strategic partnership with Alliander AG, a distribution grid operator in Germany. As a first step in this arrangement, up to 600 BlueGen systems are to be installed across Alliander's regional grids in Germany by 2015.
Under this arrangement Alliander has announced an initial promotion in relation to the first 100 units to be installed in the City of Heinsberg. Alliander will augment the existing government feed-in tariff and state capital subsidy discussed above with an additional feed-in tariff amount of 10 Euro cents per kWh (capped at EUR5,000 over the life of the unit) and an additional upfront capital subsidy of up to EUR4,000 per unit (depending on the customer's electricity usage profile). This is expected to make a highly attractive investment return for customers participating in the promotion.
of Heinsberg. Alliander will augment the existing government feed-in tariff and state capital subsidy discussed above with an additional feed-in tariff amount of 10 Euro cents per kWh (capped at EUR5,000 over the life of the unit) and an additional upfront capital subsidy of up to EUR4,000 per unit (depending on the customer's electricity usage profile). This is expected to make a highly attractive investment return for customers participating in the promotion.
In May 2013 the company entered into a distribution partnership with Novogaz SA, a subsidiary of Holdigaz Group. Under the agreement, the two partners will join forces in distributing BlueGen units to the growing market for micro CHP's in the French-speaking part of Switzerland. This move increases the cooperation between the two partners that started in 2010 when BlueGen units and integrated systems were installed in a field testing exercise.
.
The Company is also in the process of growing its direct sales force in both Germany and the UK. Unfortunately this growth was constrained during the quarter due to the requirement to complete the funding exercise discussed above. The Company plans to further increase its sales force which, in turn, is expected to generate increased sales growth.
Sales volume increased during the final quarter of the year to 48 units. This compared to only 9 units in the previous quarter which had been negatively impacted by delays in the announcement of the capital subsidy to be granted to the Company's units under the NRW scheme discussed above. This had had the effect of delaying purchasing decisions by customers as they awaited the implementation of the scheme.
As a result of this delay and the resulting poor third quarter of sales, the overall sales volume for the year at 147 was slightly down on last year's result of 169 units.
Unit sales booked to revenue
-----------------------------------------
Quarter Qtr unit FY unit
sales sales
------ ------------ --------- --------
FY11 61
-------------------- --------- --------
September
2011 8
------------------- --------- --------
December
2011 59
------------------- ---------
March 2012 26
------------------- ---------
FY12 June 2012 76 169
------ ------------ --------- --------
September
FY13 2012 47
------ ------------ ---------
December
2012 43 147
------------------- ---------
March 2013 9
------------------- ---------
June 2013 48
------------------- --------- --------
In the UK the Company is focusing on a number of key market sectors. One of these is the social housing sector(1) where the benefits of using BlueGen are particularly strong. Earlier this year the company signed a distribution agreement with iPower Energy Limited ("iPower") an Energy services company (ESCo) operating in this sector. In late March the two companies received the go ahead for the first housing association project. This project involves participating tenants of Housing Solutions, a housing association located in Maidenhead, England. In the initial phase 10 BlueGen units are being deployed with each unit serving on average 5 flats. The tenants in the project will benefit from cheaper, lower carbon electricity and will be guaranteed a minimum discount of 10% against the best locally available standard electricity price. (Many tenants are likely to be paying higher than the standard electricity price in the area and therefore the effective discount will be greater).
iPower expects to replicate this project model with other housing associations across the UK. (1) In the UK this sector accounts for approximately 4.0 million dwellings or 17.5% of the UK housing stock of approximately 22.8 million dwellings as at 31 March 2011 (
source: Dept of Communities and Local Government
).
Manufacturing
The Company has built an assembly plant in Heinsberg, Germany, to manufacture fuel cell stacks, the core of the Gennex fuel cell module, and to assemble complete BlueGen units. The individual fuel cell components are shipped to the Heinsberg plant (together with other components) to be assembled into fuel cell stacks.
Since late December 2012 the Company has been working with the supplier of its large capacity furnace to increase the yield of the furnace to the level required by CFU. During March 2013 the Company started to use the furnace for production again and during the June quarter the furnace was taken through a phased ramp-up process. The testing and ramp-up work have now been largely completed and the results have been excellent. The Company expects to have a combined capacity of approximately 30 fuel cell stacks per week or 1,500 fuel cell stacks per year, based on current operating procedures.
The plant's production throughput can be increased above 1,500 units per year without additional capital spending, by operational efficiencies (such as improving processes and production flow, reducing furnace cycle times, loading and unloading times, robot optimisation), more flexible work practices (the plant is currently operating on a single shift); and by continuing to outsource the manufacturing and assembly of components and sub-assemblies. Modest investments in multiple tooling will also increase production levels.
times, loading and unloading times, robot optimisation), more flexible work practices (the plant is currently operating on a single shift); and by continuing to outsource the manufacturing and assembly of components and sub-assemblies. Modest investments in multiple tooling will also increase production levels.
To further increase production (funds permitting) the Company intends to make further capital expenditures to increase furnace capacity to around 3,000 - 3,500 stacks per year. It is expected that this capital expenditure would be approximately AUD1.5m (GBP 0.9m)
In June 2013 the plant in Heinsberg successfully completed its annual review for ISO 9001 and CE accreditation.
Financial Review
June Quarter Cash Flows
Net operating cash outflow for the June quarter was AUD 1.1 (GBP 0.6m). This includes the receipt of AUD 5.2m (GBP 3.1m) in relation to a tax credit arising from the Company's Australian research and development activities undertaken in fiscal year 2012. If this amount was to be excluded then the net operating cash outflow for the quarter would have been AUD 6.2m (GBP 3.7m) which compares favourably to AUD 6.6m (GBP 4.0m) in the previous quarter
Net investing cash flows for the quarter were an outflow of AUD 0.2m (GBP 0.1m).
Net financing cash flows for the quarter were an inflow of AUD 6.9m (GBP 4.1m). In May 2013 the company received AUD 7.0m (GBP 4.6m), net of costs, in relation to the issue of ordinary shares and convertible loan notes as discussed above. A further AUD 0.3m (GBP 0.2m) will be received as part of this fund raising in the next quarter.
Cash on hand at 30 June 2013 was AUD 10.0m (GBP 6.0m).
Refer to link for quarterly cashflow report.
http://www.rns-pdf.londonstockexchange.com/rns/5357K_-2013-7-31.pdf
Monday, 8 July 2013
Ceramic Fuel Cells Limited Results of Extraordinary General Meeting
RNS Number : 4625I
Ceramic Fuel Cells Limited
03 July 2013
3 July 2013
Results of Extraordinary General Meeting
Ceramic Fuel Cells Limited (AIM / ASX: CFU), a leading developer of generators that use fuel-cell technology to convert natural gas into electricity and heat for homes and other buildings, announces that, at the Company's Extraordinary General Meeting held on 2 July 2013, all resolutions were duly passed.
to convert natural gas into electricity and heat for homes and other buildings, announces that, at the Company's Extraordinary General Meeting held on 2 July 2013, all resolutions were duly passed.
Details of the resolutions and the proxies received in respect of each resolution passed are as follows:
1) Approval of issue of loan notes to Mr Alasdair
Locke
The instructions given to validly appointed
proxies in respect of the resolution were
as follows:
For Against Abstain Proxy's discretion
------------ ------------ ---------- -------------------
242,869,561 50,046,247 2,890,390 6,264,695
------------ ------------ ---------- -------------------
The motion was carried as an ordinary resolution
on the taking of a poll, the voting details
being:
For Against Abstain
------------ ------------ ----------
252,411,798 54,351,891 3,142,015
------------ ------------ ----------
2) Approval of financial assistance in connection
with the issue of secured convertible loan
notes
The instructions given to validly appointed
proxies in respect of the resolution were
as follows:
For Against Abstain Proxy's discretion
------------ ------------ ---------- -------------------
252,749,284 40,573,981 2,619,109 6,152,019
------------ ------------ ---------- -------------------
The motion was carried as a special resolution
on the taking of a poll, the voting details
being:
For Against Abstain
------------ ------------ ----------
262,178,845 44,879,625 2,870,734
------------ ------------ ----------
3) Ratification of issue of New Ordinary Shares
and Loan Notes
The instructions given to validly appointed
proxies in respect of the resolution were
as follows:
For Against Abstain Proxy's discretion
------------ ------------ ---------- -------------------
253,028,480 39,889,118 3,083,924 26,143,553
------------ ------------ ---------- -------------------
The motion was carried as an ordinary resolution
on the taking of a poll, the voting details
being:
For Against Abstain
------------ ------------ ----------
283,984,442 44,194,,762 3,335,549
------------ ------------ ----------
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