Spaceloft* Building & Construction Confidential & - - PDF document
Spaceloft* Building & Construction Confidential & - - PDF document
Spaceloft* Building & Construction Confidential & Proprietary Summary of Contents Introduction to Aspen & Aerogels Key Product Attributes Environmental Profile Solutions -2- Confidential & Proprietary Aspen Turned Aerogels
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Confidential & Proprietary
Introduction to Aspen & Aerogels Key Product Attributes Environmental Profile Solutions Summary of Contents
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Confidential & Proprietary
Aspen Turned Aerogels from a Curiosity Into an Industrial Product
1930s 1993 1995 1997 1999 2001 2003 2005 2007
Plant 1
- pens
Plant 2
- pens
Aspen Aerogels born From the 30’s to the 80’s, many large chemical companies tried to produce aerogels
10 MM sqft capacity 100 MM sqft capacity
Aerogel PUF
Pyrogel 6350 created for the petrochemical processing industry Aerogels invented Aerogels for spacesuits Aerogels offshore Aspen makes fiber- reinforced aerogels
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Aerogel Thermal Performance – With the Flexibility of a Blanket
- Start with a non-woven blanket
– Typically polyester, glass, carbon, or ceramic fiber
- Fill that blanket with a wet gel
- Dry the blanket via
supercritical CO2 extraction
- Roll the blanket onto a spool
Step 1: Fill fibrous batting with a liquid-solid solution Step 2: Extract solvents with supercritical carbon dioxide Step 3: Resulting dry, fiber-reinforced aerogel blanket
Aerogels 95 - 97% air Nano sized porosity Convoluted matrix Thermal Transport Mechanism Conduction,Convection,Radiation Thermal Transport Mechanism Conduction,Convection,Radiation Radiation Need to opacify Convection Limited air movement Features & Benefits Features & Benefits Conduction Low mass minimal conduction
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Confidential & Proprietary
Aerogels Have the Lowest k-Value of Any Industrial Insulation
50 100 150 200 250
- 200
- 100
100 200 300 400 500 600 Temperature (°C) Thermal Conductivity (mW/m-K) Pyrogel XT Perlite Mineral Wool Pipe & Board Calsil Cryogel Z PUR/PIR Mineral Wool Blanket
- 400
- 200
200 400 600 800 1000 1200 Temperature (°F) Thermal Conductivity (Btu-in/hr-ft2-°F) 0.0 0.2 0.4 0.6 0.8 1.0 1.2 1.4 1.6 Cellular glass
Spaceloft
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High Performance Thermal Insulation , Feature . EU certified Thermal conductivity (FIW , Munchen Test Institute) 13,5mW/m-K at mean wall 20°C. Spaceloft Products have an application Range from -200°C to + 200°C Pyrogel Products have a range from
- 200°C to + 650°C
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Ageing in the B&C Environment Spaceloft’s thermal insulation is derived from its nanoporous structure. The performance is passive. There are no blowing agent or vacuum requirements to deliver this performance. This offers a constant design performance independent of time or within the realms
- f the B&C domain temperature or humidity.
- 10%
- 8%
- 6%
- 4%
- 2%
0% 2% 4% 6% 8% 10% 1 2 3 4 5 6 7 8 9 10 11 12
Accelerated Aging Time (Weeks) Conductivity Change
5 10 15 20 25 30 35 40 45 50 55 60 Simulated Service Time (years)
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Accelerated Ageing
- 10 Degree Rule for Arrhenius
Aging:
- 12 weeks of accelerated aging at
90˚C simulates 60-years of service at 10˚C
) ( ) ( ) ( ) ( K e temperatur service K e temperatur test hours time service hours time test
T T t t
s a s a
= = = =
: where , 2
10 / ) ( T s Ta s
t
ta
−
=
Testing Temperature (˚C) Accelerated Aging Time (weeks) Simulated Service Time (years)
90˚C Accelerated Aging
- 10
20 30 40 50 60
- 1
2 3 4 5 6 7 8 9 10 11 12 13
50 40 30 20 10
- 10
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Spaceloft X251 Aging
- Accelerated aging at 90˚C over 12
weeks simulates 60-years of aging at 10˚C
– Arrhenius model predicts no change in thermal conductivity*
- Real time, ambient temperature aging
- ver 52 weeks
- No statistical change in thermal
conductivity *
– Confirms short term model prediction – Additional real time aging data collected as samples age
* Within ±2% test capability
- 10%
- 8%
- 6%
- 4%
- 2%
0% 2% 4% 6% 8% 10%
- 4
8 12 16 20 24 28 32 36 40 44 48 52
Real Time Aging (Weeks) Conductivity Change
- 10%
- 8%
- 6%
- 4%
- 2%
0% 2% 4% 6% 8% 10% 1 2 3 4 5 6 7 8 9 10 11 12
Accelerated Aging Time (Weeks) Conductivity Change
5 10 15 20 25 30 35 40 45 50 55 60 Simulated Service Time (years)
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High Performance Thermal Insulation , Benefit. Ultra thin insulation offering same U value as traditional insulation. Interior solutions with minimum interior space lost. Exterior systems with minimum reveal disruption. Thermal bridging solutions . Flooring solutions
SpaceTherm™
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Confidential & Proprietary
High Performance Thermal Insulation , Benefit. Ultra thin insulation offering same U value as traditional thick insulation. Dry lining with minimum interior space lost.
SpaceTherm™
Property Value Calculator
revision 0705-03
Currency GBP Spaceloft Thickness m 0.02 Competitive Material 8 m Thickness m 0.075 20 mm 75 mm Building Dimensions Height m 2.4 Value per m2 GBP/m2 6000 Length/Width m 8 NB: Calculated area assumes 10% of Wall area uninsulated (Windows,Doors,etc) Competitive Material Spaceloft Gain Additional Internal Area m2 2.38 0.62 1.76 Additional Volume m3 5.14 1.33 3.80 Increased Value GBP 308 2,223 10560
This calculation is for estimation purposes only. Aspen Aerogels accepts no liability for these figures
8 m 8 m 20 mm 75 mm Spaceloft Competitive Material
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Introduction to Aspen Aerogels Key Product Attributes Environmental Profile Solutions Summary of Contents
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Fire Performance Spaceloft* has received a E rating in the Euroclass fire test. The rating is determined by the reinforcement fibre (we rate A1 with PG 6681 (silica fibre) , B with PG 6350 (Carbon fibre)
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Breathability & Hydrophobicity An interesting combination. Spaceloft’s unique chemistry offers both a hydrophobic performance and in the same material an ability to breathe. This allows for the design of both venting concepts and also installation where water would be a problem to traditional insulation materials
Hydrophobic
Water droplet with contact angle >150°C
Vapor permeable
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Breathability & Hydrophobicity Spaceloft 3mm 1548 g / 24 hr sq m 12.74E-6 g / Pa sec sq m 222.9 US Perms Spaceloft 9mm 540 g / 24 hr sq m 4,51E-6 g / pa sec sq m 79 US Perms
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Breathability & Hydrophobicity Hydrostatic Head Test SL 9251 83 cm (mean) SL 3251 61 cm (mean)
Figure 1. Compressive stress-strain plots for three ply stacks of SL9251 samples from lot 267 up to 1.03 MPa (150 psi). 10% compressive strain at 70 kPa : 10% strain is 0.9mm
Compressive Stress Strain Curves. Compressive Stress Strain Curves.
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Acoustics
confidential & proprietary
Features & Benefits Features & Benefits Acoustics.
0.0000 0.0020 0.0040 0.0060 0.0080 0.0100 0.0120 0.0140 0.0160 0.0180 0.0200 Mineral Wool SL 9200C PG 6650 CG 6000C SL 6250C Melamine CG 6000 Fiberglass PG 6350 PG 4250C 5 10 15 20 25 30 Material Loss Coeffient (Damping) Thickness (mm)
0.00 0.10 0.20 0.30 0.40 0.50 0.60 0.70
SL 9200C SL 6250C PG 6350 PG 4250C PG 6650 CG 6000C CG 6000 Melamine Fiberglass Mineral Wool
5 10 15 20 25 30 35
Absorption Coefficient Thickness (mm)
- Key acoustic performance properties –
Absorption, Transmission Loss, Damping
- Aspen aerogel materials demonstrate good
acoustic performance at lower thicknesses than competitive insulation materials.
0.0 5.0 10.0 15.0 20.0 SL 9200C SL 6250C PG 6350 PG 4250C PG 6650 CG 6000C CG 6000 Melamine Fiberglass Mineral Wool 5 10 15 20 25 30 35 Sound Transmission Class Thickness
Spaceloft* is primarily a thermal insulator in certain combinations the acoustic effect is very positive. Transmission loss and damping are SL’s strongest acoustic attributes.
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Health & Safety
2.7 10.5 33.0 53.8 ≥30 99.9 1.2 100.0 Aerogel Dust Sieve #325 (45µm) Sieve #200 (75µm) Sieve #100 (150µm) Pan (-325 mesh) < 45 µm Percent of Material retained on the sieve. Sieving Time (min) Cumulative Total of Actual Weight After Testing (gm) Moisture Content (% by wt.) Sample
- Wt. (gm)
Material Tested
Dust Concerns. Aerogels are susceptible to dustiness Aerogel nanotechnology is based on nano-porosity NOT nano-particulate The pore size is +-20 nano-meters , the dust size is measured in Microns
Dust analysis from Aerogel workshop environment , report by Safety Consulting Engineers inc.
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Health & Safety Aerogel dust is classified as non irritant Epiderm MB# 07-15852.19 test on SL 6251 & PG 6350
Report by MB Research Laboratories
EXECUTIVE SUMMARY
SAMPLE ET-50 (hrs) Expected In vivo Irritancy 07050160 Spaceloft 6251 > 24.0 Non-Irritating 07050162 Pyrogel 6651 x Hitox > 24.0 Non-Irritating 07050161 Pyrogel 6350 > 24.0 Non-Irritating 1.0% Triton X-100 8.9 Moderate to Mild ET-50 (hrs) Expected In vivo Irritancy <0.5 Severe, Probable corrosive 0.5 -- 4 Moderate 4 -- 12 Moderate to Mild 12 -- 24 Very Mild 24 Non-Irritating
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Health & Safety Aerogels do not support mould growth
ASTM C1338 test on SL 9251
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Introduction to Aspen Aerogels Key Product Attributes Environmental Profile Solutions Summary of Contents
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Environmental/Sustainability
Spaceloft* has been rated as silver C2C. Spaceloft* has ZERO Ozone Depleting Potential (ODP). Spaceloft* has a Global Warming Potential of less than 5. Spaceloft* X251 is fully recyclable – Aerogel as fill insulation: used as particulate form insulation. Polyester fibers: returned to industrial PET manufacturing process. The batting reinforcement of Spaceloft* X251 is made of recycled industrial material. Spaceloft* is a relatively low energy to produce material. 5,4 kg of CO2/sq mt 10mm Spaceloft* is fully compliant with RoHS.
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Embodied Energy & Embodied CO2 of Aerogel blankets
Aerogel Raw Materials
35.5 MJ/kg 3.24 kg/kg
Fibrous Reinforcement
12.1 MJ/kg 0.59 kg/kg
Sol Gel Composite Spaceloft X251
Manufacturing
6.3 MJ/kg 0.46 kg/kg
Transport
2.2 MJ/kg 0.14 kg/kg Component Embodied Energy Embodied CO2 MJ/kg kg/kg Silica precursor and other raw materials 35.5 3.2 Batting (fibrous reinforcement) 12.1 0.6 Aspen Aerogels Production Process 3.5 0.4 CO2 for Supercritical Extraction* 2.1
- Pollution control equipment
0.7 0.03 Transport from US to Europe** 2.2 0.14 *CO2 recovered from other external industrial processes **Assumes 6000 km by cargo ship, 500 km by road Total: 56 4.4
Embodied CO2 = 5,4 kg / sq mt of SL 9251 Embodied CO2 = 5,4 kg / sq mt of SL 9251
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EE & ECO2 Comparison
- EE of aerogel is higher than others on a mass basis, but our thermal performance is
superior, such that the energy return/payback is greater.
- Typical CO2 payback time is 2 – 12 month in domestic refurbishment ,
dependant on fuel type and wall construction
Spaceloft X251 12 12.0 53.0 1 4.2 1 4.42 0.35 Fiberglass (recycled glass) 40 3.8 28.0 2 1.4 2 7.37 0.36 Fiberglass (virgin glass) 40 3.8 39.2 2 1.9 2 10.32 0.50 Mineral wool 40 3.8 16.6 2 1.2 2 4.37 0.32 Expanded polystyrene 32 4.5 111.6 3 3.0 2 24.80 0.67 Polyisocyanurate 24 6.0 69.8 3 5.5 2 11.63 0.92
1 Manufacturer data 2 Inventory of Carbon & Energy, University of Bath, UK 3 Comparison of Energy Evaluation of Plastic Products and Their Alternatives for the Building, Construction, and Transportation Industries - The Society of the Plastics Industry
ECO2 (kg of CO2/kg) EE per Ther. Res. (EE/R-value per inch) ECO2 per Ther. Res. (ECO2/R-value per inch) Material Thermal Conductivity (mW/m-K) 1 Thermal Resistance (R-value per inch) 1 EE (MJ/kg)
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Environmental Payback in B&C
dwelling no.beds SL tkmm Gas LPG Electric Oil Coal Wtd ave
Semi-house
3 9 1,431 1,612 2,956 1,803 3,765 1,577
Semi-house
3 18 1,766 1,989 3,658 2,227 4,635 1,947
Semi-house
3 27 1,929 2,173 3,982 2,429 5,042 2,125
Semi-house
3 36 2,029 2,285 4,173 2,553 5,288 2,234
BREDEM CO2 saving calculations
Fuel Types
3 bed semi = 82 sq mt of wall = 82 * 5, 4 KG of embodied CO2 = 445 kg SL 9251 CO2 “payback” = 445/1,577 = 0,3 years = 3,4 months. UK Domestic Energy Model , BRE/EST/Ofgem.
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Confidential & Proprietary
Spaceloft* B&C Summary
Spaceloft* offers the highest passive thermal insulation achievable today. Spaceloft* is a robust material suitable for a variety of B&C applications and installation techniques. Spaceloft* potentially offers solutions for the application areas presently deemed Hard To Treat due to space restriction. Spaceloft* offers an energy & CO2 payback in less than 12 month for typical B&C applications. The longevity of the insulation performance makes Spaceloft& ideally suited to the construction industry. Spaceloft* offers a sustainable, recyclable & environmental responsible solution for the Building & Construction industry
“If you value space you’ll love Spaceloft*”
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Introduction to Aspen Aerogels Key Product Attributes Environmental Profile Solutions Summary of Contents
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Spaceloft B&C Summary Roofs/Loft conversions under tile Walls internal external Floors heated thin cold bridges Terraces Timber Frame Metal Frame
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Case Study. UK Social Housing Project Spaceloft* applied as the SpaceTherm™ laminate from A Proctor Group. CO2 pay back for these appartments 8 months. Insulated apartment on left
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60% reduction in line with Climate Change Bill proposals equates to upgraded U value of 0.84 W/mK
Wall construction
215mm brickwork Spacetherm P (10mm Space Loft SL9251 + 9.5mm plasterboard)
Solid wall (9” brickwork)
60-85 % U value reduction
S tructure Thicknes s mm W/ m2h improvement S
- lid Wall
215 2.1 S W + 1 layer S pacetherm 240 0.8
62%
S W + 2 layer S pacetherm 250 0.49
77%
S W + 3 layer S pacetherm 260 0.35
83%
S W + 4 layer S pacetherm 270 0.29
86%
U value U value es timation
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Case Study. External Cladding NEA sponsored project. Spaceloft* applied as ParaClad™
- f the Parasol company.
CO2 pay back for this park home 4 months. No thermal bridges
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Confidential & Proprietary
Solid wall (9” brickwork)
Wall construction
13mm plaster 215mm brickwork
Material Thickness (mm) Thermal Conductivity (W/mK) Thermal Resistance (m2K/W) Internal Surface Ri 0.130 Plaster 13 0.57 0.023 Brickwork 215 0.77 0.279 Paraclad 13 0.706* External Surface Ro 0.04 Total R 1.178 U Value
0.739
13mm Paraclad ™
* As measured by NPL Sep 17 2007
60% reduction in line with Climate Change Bill proposals equates to upgraded U value of 0.84 W/mK
65% U value reduction
13mm of Paraclad™
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External Rendering Fast Installation Multiple layers Minimum joints Minimum reveal/fitting disruption
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External Rendering
Robust site storage Mushroom & Mesh
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Internal rendering.
Wet Primer Layer 1 Wet Positioning 2 Mechanical Fixation Internal Plaster’s mesh
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Internal Render
Final Plaster Layer Creates Space. Tackles Thermal Bridges
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Internal Render
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Underfloor Underfloor Heating Heating
Cement Slab
Thin set Mortar / Radiant Flooring SpaceLoftTM X251
0.00 0.02 0.04 0.06 0.08 0.10 0.12 0.14 0.16 0.18
P
- w
e r U s a g e
- K
w h / h
- u
r R adiant Floor P
- wer Usage
C
- ntrol Floor
S paceloft 3251 S paceloft 9251
Up to 60% energy savings Fast heating cycle Minimum height disruption Very fast installation
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Renovation of basement : Fast & Cost effective installation
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No disruption to door fittings Renovation of basement : Fast & Cost effective installation
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Thermal Bridging , brick & block Solid cast concrete floor , thermal bridge . Spaceloft applied externally Spaceloft applied internally
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Thermal Bridging : Timber Frame , Spaceloft Insulcap
With Without
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Baseline with Spider R-7.7 hft2 F/Btu Baseline plus 9mm Aerogel R-11 hft2 F/Btu 2007 JM Hot Box Test:
Oak Ridge National Laboratory 42% improvement
Thermal Bridging : Metal Frame , Spaceloft Insulcap
Passive House , High performance terrace/roof Passive House , High performance terrace/roof Baechi Holz Bau , Erlenbach , Switzerland. Timber framed insulated roof to meet Passive House status, 2 layers SL 9251 Construction : December 2007 2 layers of SL 9251 + MF (to protect from bitumen seal process) SL Mineral Fibre Wooden slats Water drain 1 piece 15mt terrace
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Passive House : vertical wall (replacement of VIP)
Blumer & Lehmann , timber frame housing constructor , Gossau , CH Site : Mielen , Zurich , high performance thin wall design , 4 layers SL 9251 Constructed , Dec 2007 Ship lap to avoid Thermal bridging Vault set up Rotary blade
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