SSUD - MArch 03 Portfolio

SALMON SENSITIVE URBAN DESIGN Thesis Portfolio

SSUD Studio 3 Portfolio

Matthew Crossley Oliver Meads

Thesis Recap 1.0 Atelier Themes Location Strategy Key Drivers Project Recap

Development 2.0

Contents

Network Reflection Design Changes Ceremony Fluctuation Performance Renewable Turbines Wheelhouse Fabric

Drawings 3.0 Site Plans Floor Plans Sections Detail Sections Axos Components 4.0 Precedents ETFE Molding Metamorphosis Detail Posters 5.0

Atmospheres 6.0

Thesis Recap

Atelier Themes

Restore Salmon Population The principle site strategy aims to restore conditions along the River Mersey and improve the natural habitat of the Salmo Salar

Reversing The Effects of Industry The project aims to invert the narrative of industry along the river . Can we develop wier mills to

The previous research has moulded the projects ethos and set key drivers for the design phase. The main aims of the architectural intervention are to facilitate bioplastic production whilst providing a space for education. This bolsters the wider strategy outlined in S1 to restore the river habitat Cyclic Salmon & Human Relationship Using by products of the natural salmon life cycle to offset the pollution of single use plastics

benefit the ecology and economy of the area

Location Strategy

The following design stage looks to develop on the wider scale masterplan interventions by providing a focal point, Wier Mill, for education, salmon study and bioplastic product

River Mersey

Gravel Bed

Bioswails

Educational Link

Woodland

Cooling Vegetation

Channel Widening

Grassland

Key Drivers

New Public Area

The scheme looks to create a connective journey from wider Stockport, bringing humans and salmon to Wier Mill’s historical character and reprogramming the space as an educational visitors experience centre attached to a bioplastic factory that runs off Salmon by-product.

The visitor journey runs along side the production process, which is all propped up by the salmon life cycle in relation to Wier Mill

Channel Widening

Gravel Beds

Studio

Break Out Packaging

Lecture Theatre

Centrifuges

Exhibit Gallery

Exhibit Viewing Deck

Ovens

Break Out

Exhibit Cafe Break Out

Experiential Journey

Goods Out

Reception

Creating a connected series of moments bringing together Stockport’s human population, industry and salmon

VISUAL CONNECTIONS

VISITOR JOURNEY

PRODUCTION JOURNEY

Project Recap

The wider site strategy provides hatching beds for adult salmon, who propagate and die as part of the natural cycle. Their bio matter which would otherwise be wasted can be harvested and used to make bioplastic for human use. This in return reduces the levels of micro plastic within the river and creates an industrial hub in the former Victorian mill

Bioplastic Production Creating circular feedback loops between the Salmon life cycle , industrial processes and human access to public space

Lobby River Mersey

Wheel House

Goods Out

New Link Cafe

Service Yard

Goods In Ovens

Staff Facilities Open Garden Preparation

Development

Networks

Import

Export

Stockport and Weir Mill are located in a perfect location to

Similarly, Weir Mill is almost equidistant between three of the

strategically base a central national import/export hub. Greater

UK’s largest plastic processing plants. Reasonable transport

Manchester sits halfway between London + Scotland, and close

distances lie each side of peptide extraction

to Wales + Northern Ireland, all regions housing manufacturing plants for the human and feline seafood industries

Reflection

The development of the proposed design has been extremely limited in its creative flair until now. We focused too much on the logistical nature of the production process and not enough on the architectural potential. Notice the revitalised design push from here on out Connecting to Context The changes look to bring the river and Salmon closer to the human experience, putting bioplastic production second

Design Changes

River Mersey into the Mill Creating a landscape design which responds to the water level and creates a new Salmon habitat for the newly hatched frys

Bioplastic Facade System Using the product of the Mills new found process as part of the building fabric in the form of temporary ETFE pillows

Ceremony

Education

ETFE Pillows Installed

The Weir Mill bioplastic factory is to serve as more than merely a hub of employment and economical prosperity. It is to reclaim its place as a Stockport icon. Once a year, coinciding with the adult salmon migration upstream, Stockport shall come together in celebration both on and around the mill. Making use of the architecture and the landscaping, locals and visitors to the town shall engage in the annual Stockport Salmon Festival. This shall mark the beginning of the Salmo Salar calendar Festivities Begin

Fluctuation

Subsiding From Winter to Summer the River Mersey subsides, the water level hitting its trough in July. Throughout this period, the fry take shelter in shallow sheltered pools before maturing into smolt and beginning their journey towards the ocean

Fluctuation

Rising From Summer to Winter the River Mersey rises, the water level hitting its peak in January. Throughout this period the adult salmon migrate upstream and propagate before the alevin take hold of the redds

Performance

Photo voltaic Cells A bio solar roof improves biodiversity Bioplastic ETFE Pillows

at high level and generates renewable energy to offset the production process

Thermal regulation adapts naturally as the material biodegrades in hotter months to allow passive ventilation

Hydroelectric Wheel Reinstating the original mill wheel generates significant power to facilitate the production process

Hydroelectric Turbines When the river levels rise in winter months the turbines create additional power to offset the heating load to ensure thermal comfort

Renewables

The modern programme of Wier Mill as a bioplastic production facility and visitor experience will generate a high energy consumption rate. As a result the scheme looks to offset this load by integrating a series or renewable systems throughout.

Energy produced by the 24hr hydroelectric systems can be stored by batteries in the plant room

Photovoltaics Out-of-sight from the daily visitor, Weir Mill’s photovoltaic panels take over eco-electricity generation whilst the river subsides over the summer months

External Terrace Modest in appearance, these hydro turbines mimic the natural churning of water the fry

Turbines

salmon are used to in natural waterways

External Terrace The pièce de résistance of Weir Mill’s character, the 18th century waterwheel has a new lease of life. Visible from two viewing platforms, it serves

Wheelhouse

as an embodiment of Stockport’s industrial past

DET

e

ined)

ed

1894.

0

Demand

and

m 2/yr

y

21 20 16

Fabric

Energy targets

Walls

Fossil fuelFloors free home Roof

Systems

SpaceDelivered heating demand (constrained)

%

60

Space heating 167 100 Gas

kWh/m 2/yr

Ventilation Natural 10Hot water(with extract 50 fans) 9 demand 21

Fabric

-27

area d in PV els

Existing Pre-retrofit

Existing Pre Retrofit Solid 1.35 uninsulated W/m2.K walls 2 .K Minimal 1.00 W/m loft insulation 16 Single 4.80 glazing W/m2.K

1.35 W/m .K

16 30

Double 2.00 W/m2.K 27 glazing Leaky 11.50 building ach@50Pa

Energy Use Intensity (EUI) 2 .K 1.00 W/m over Treated .K (TFA) 4.80 Floor W/m2Area

240

240

2 kWh/m2/yr2.00 (89% .K W/mefficient

gas boiler)

0.20 W/m.K

Space heating demand

168

Space heating demand

2

38

55

8

0

energy to heat store) that is insulated)

55

37

Improved U Values

Final specification

FLAT

The new window units will house original single glazed panes with modern double glazed systems

Final specification Best practice Fabric

Unconstrained

Constrained

0.18Internal W/m .Kwall insulation 0.32 W/m .K 2

27

27

Hot waterSystems

kWh/m2/yr)

kWh/m2/yr)

Systems

Internal wall insulationWalls

Best practice Exemplar Unconstrained Underlined Constrained

values 0.32 have W/m .K been used Floors Insulated between joists 0.18Insulated W/m2.K between 0.20 W/m 0.15 0.18W/m W/m22.K .K 0.20 W/m2.K Floors joists2.K Hot Water to achieve 250 250 Roof Additional loft insulation 0.12Additional W/m2.K loft0.12 W/m2.K 0.12 0.12 W/m W/m22.K .K 0.12 W/m2.K Roof insulation the postPre Retrofit Pre Retrofit 2 2 retrofit Glazing Replace glazing 1.00Replace W/m2.K glazing 1.30 W/m2.K 0.8 1.00 W/m W/m .K.K 1.30 EUI W/m2.K Glazing Lighting and space Delivered Delivered Demand Demand Air Tightness Draught-proofing and sealing 2.00Draught-proofing ach@50Pa 3.00and ach@50Pa 2.00 ach@50Pa ach@50Paand 3.00 ach@50Pa Air Tightness sealing 1.0 unregulated heating 200 Mitigated 200 Thermal Bridging Thermal Bridging 0.10Mitigated W/m.K 0.10 W/m.K 0.08 0.10 W/m.K 0.10 W/m.K demand

Post Retrofit

8

energy

0

like for like new units

ated

2

2

37

condition and would be replaced with

and

168

38

2

to heat store) that is insulated)

FLAT The existing sash windows are in poor

er

(89% efficient gas boiler)

kWh/m2/yr

11.50 ach@50Pa

Glazing Replaced

Fabric Heating Walls

Energy Use Intensity (EUI) over Treated Floor Area (TFA)

kWh/m /yr kWh/m /yr Hot Water Systems 170 Hot Water 170 Post Retrofit Post Retrofit Shower Use Space heating 35.5 litres/person/day Shower Use 35.5 litres/person/day 167 Demand Demand Delivered Delivered 100 Hot water Hot water Other Uses Gas 15 litres/person/day Other Uses 15 litres/person/day demand demand kWh/m /yr kWh/m /yr 14 Insulation 14 Tank Insulation 3.0 W/K Tank 3.0 W/K Ventilation of the overall of the overall Pipe Insulation Insulation 0% (percentage14 Natural0% (percentagePipe No No 14 Renewable Renewable primary pipe length (heat source primary pipe length (heat source (with extract fans) 14 14 50 PV PV

40%

of roof area covered in PV panels

Pre-retrofit

2

Thermal Bridging Thermal Bridging 0.20 thermal W/m.K bridging 150 High thermal bridging 150 High

(constrained)

Post Retrofit

kWh/m /yr

250

2 Delivered Delivered Demand suspended Demand .K Uninsulated Floors timber floors Uninsulated 1.00 W/msuspended timber floors 1.00 W/m2.K

floor Area (TFA)

kWh/m2/yr

2

Fabric Pre Retrofit Solid uninsulated wallsWalls

Minimal loft insulation Roof 16 16 200 200 Single glazing Energy Use 30 Glazing Glazing Double glazing Intensity (EUI) 27 over treated Air Tightness Leaky building Air Tightness

60

20

250

Annual Energy (kWh/m2/yr)

Use (EUI) ated ea (TFA)

79

Existing specification Existing specification

Annual Energy (kWh/m2/yr)

ssil free me

79

DET

53

2

0.15 0.18W/m W/m .K .K

27

22

2

Exemplar

Underlined values have 0.15 W/m .K been used 0.15 W/m2.K to achieve 0.12 W/m2.K the post2 retrofit EUI 0.8 W/m .K 1.0 ach@50Pa and space heating 0.08 W/m.K demand

27

Hot water

53 Post-retrofit

Post-retrofit

2

Drawings

SITE PLAN 1:2000 at A2

Ground Floor

FLOOR PLAN 1:150 at A2

First Floor

FLOOR PLAN 1:150 at A2

Second Floor

FLOOR PLAN 1:150 at A2

Third Floor

FLOOR PLAN 1:150 at A2

Fourth Floor

FLOOR PLAN 1:150 at A2

Roof

ROOF PLAN 1:150 at A2

LONG SECTION A 1:200@ A2

LONG SECTION B 1:200@ A2

SHORT SECTION A 1:200@ A2

SHORT SECTION B 1:200@ A2

DETAIL SECTION A 1:25 @ A2

DETAIL SECTION B 1:20 @ A2

Components

Precedents

UCLA ArtCentre Design College The proposal took inspiration from Kevin Daly Architect's use of ETFE pillows to regulate light transparency of facade systems. Wier Mill would provide fresh bioplastic sheets on sites which over

time would become more opaque and eventually decompose. The thickness

of these sheets could be calculated to regulate thermal comfort in different seasons

ETFE Molding

Once the peptide solution has left Weir Mill it goes on to serve an array of industries with its bioplastic capability. A small portion on the peptides produced on site shall return to Weir Mill in the form of biodegradable ETFE pillows. Installation occurs at the end of every summer

Insitu Fabrication Using materials from the Salmon, processed on site, to become an integral and ceremonious fabric of the Mill

Metamorphosis

WINTER

New Pillow Installed

SPRING

AUTUMN

SUMMER

Autumn

Winter

Spring

Summer

The natural timeline of bioplastic breakdown lines up perfectly with the UK’s climate cycle.

Brand new ETFE pillows are installed as the colder months draw in, locking in any heat brought up from the ground floor over room.

They begin deteriorating slowly through the spring to allow for an external decking platform in the warmer summer weeks

7mm Bioplastic ETFE Pillow External Aluminum Fascia Rubber Flange & Gasket System Internal Aluminum Frame Galvanized Steel Section

Detail

A lightweight steel and aluminum frame clips together and houses the inflatable gasket system and pillow membranes. This will conceal the junctions with fascias and house the Bioplastic ETFE (ethylene-tetrafluoroethylene copolymer) which will over time become opaque and biodegrade

Design for Maintenance The ETFE system will require annual replacement of the Bioplastic membranes so the frame system is easily accessed and disassembled

Posters

Atmosphere

Architects Declare. (2022) UK Architects Declare Climate and Biodiversity Emergency. [online] Available at: <https://www.architectsdeclare.com/> [Accessed 18 January 2022].

Bibliography

Betchelor, T. (2021) Scientists produce biodegradable plastic made from fish waste. [online] Available at: <https://www.independent.co.uk/news/science/plastic-fishwastebiodegradable-study-b1826844.html> [Accessed 5 April 2021].

Broadbent.co.uk. (2018) Broadbent Decanter Centrifuge for Bio-Plastics. [online] Available at: <https://broadbent.co.uk/ipd/broadbent-decanter-centrifuge-for-bio-plastics/> [Accessed 14 January 2022].

Engels, F. (1887) The Condition of the Working Class in England. Leipzig: Otto Wigand.

FCBS Studios. (2022) Climate. [online] Available at: <https://fcbstudios.com/> [Accessed 30 February 2022].

Grolms, M. (2019) A Bioplastic Made From Fish Waste. [online] Advanced Science News. Available at: <https://www.advancedsciencenews.com/a-bioplastic-made-fromfishwaste/#:~:text=MarinaTex%20is%20a%20translucent%20and,bonds%20impart%20strength%20and%20flexibility.> [Accessed 16 December 2021].

Mawle, G. and Milner, N. (2003) The Return of Salmon to Cleaner Rivers - England and Wales. University of Bristol.

RIBA. (2019) RIBA Sustainable Outcomes Guide. London: Royal Institute of British Architects.

Richardson, A. (2022) ETFE Foil: A Guide to Design - Architen Landrell. [online] ETFE Foil: A Guide to Design. Available at: <https://www.architen.com/articles/etfe-foil-a-guidetodesign/>[Accessed 4 March 2022].

United Nations Sustainable Development. (2021) Home. [online] Available at: <https://www.un.org/sustainabledevelopment/> [Accessed 3 February 2022].

SOME KIND OF NATURE Salmon Sensitive Urban Design Matthew Crossley Oliver Meads

.Thanks