Munkahelyek építészete 6.-angol
Transcript of Munkahelyek építészete 6.-angol
Dobai János DLA associate professor Bartók István DLA associate professor
Architecture of Workplaces 1. Lecture 6
Subsystems of space separation constructions of Industrial buildings
Subsystems: natural lighting (side lights, skylights) openings, gates partition walls foundations floor finishes loading ramps canopies
One receives 80% of the information from the surroundings via sight, while the energy for sight consumes 25% of the organism’s energy. Wrong lighting = getting tired quickly = low efficiency Natural lighting: sunlight > energy sparing lighting Artificial lighting: because of necessity 3 shifts technology circumstance architectural reason: „deep”, or internal room Requirements of correct lighting: adequate strenght (brightness) ordered to the work’s type (lux = light flux on 1m2) 150-500lux without dazzle = free from vision desorder due to a strong light difference evenness adequate shadiness = object cognition, spatiality adequate colour effect = real colour cognition constant
Turbine assembly workshop, Glasgow, Clydebank, round 1910
Model of natural light The light arriving from day sky is uneven, between 100-30% light flux (sign: Φ, unit: lumen lm) The light flux of 1 100W lamp: ~ 1388 lm
Dimensioning of natural lighting The calculated rate of light flux on the particular point (working surface) (sign: E, unit: lux lx) E= Φ/A (lumen/m2)
working surface
The position of opening and the lighting graph (drawing rules) natural lighting modulus (sign: e% = Eb/Ek *100) The ratio of the external and internal lighting value = shows the efficiency of the lighting system 1. from a side wall it is impossible to light a depth of round 15m 2. the skylight ensures 3-5 times more efficient lighting 3. great openings = great differences
Side lights: windows, lighting side walls visual contact with the surroundings openability (ventilation, escaping) ability of shading thermal and sound insulation architectural aspects transparent, translucent materials: glass, glass brick, profile glass, polycarbonate sheet Skylights: more efficient than the window (3-5 x) punctual, linear question of water diversion orientation cleanability ability of shading condensation of moisture (if flatter than 30%: drops) openability (ventilation, heat and smoke vent) transparent, translucent materials: glass, glass brick, profile glass, polycarbonate sheet
Lighting surface of polycarbonate profiles
Lighting surface of polycarbonate profiles (shading)
Kaufmann Wood Estate, Bobingen, Germany Florian Nagler, 1999 Polycarbonate sheet
Kaufmann Wood Estate, Bobingen, Germany Florian Nagler, 1999 Polycarbonate sheet
Commercial Estate, Valbonne, France Comte & Vollenweider, 2007 Polycarbonate sheet and glass
Leban Dance Theatre, London, Herzog & de Meuron, 2001
Nanogel (fibreglass) filled polycarbonate panel facade
Extension of Nelson-Atkins Museum, Kansas City, USA, Steven Holl, 2010
Profile glass board filled with fibreglass felt
Detail of a profile glass facade
Detail of a glass/profile glass facade
wall of glass blocks Light Metal Works Székesfehérvár, Farkas Ipoly, Menyhárd István, 1958-1959 profile glass facade
Maison de Verre, Paris, Pierre Chareau, 1928-32 wall of glass blocks
Erco High Bay Storage, Lüdenscheid, Germany Schneider + Schumacher, 2001
Transparent and translucent glass panes
Position of skylight /roof pitch
Plastic skylight stave (on the ridge)
Plastic skylight staves (in pitch direction)
Hall with skylight = more even lighting Plastic skylight stave on the ridge
Steel storage, Lauchringen, Germany Michael Jockers, 1993 skylight on the ridge
Skylight staves in pitch direction
In a big surface hall natural lighting can only be ensured by skylights
Plastic skylight domes - punctual > no problem with water diversion
Punctual skylights in a monolithic reinforced concrete structure
Skylight stave with opening element – heat and smoke vent
Shed roof (on reinforced concrete structure) Oriented shed skylight
Oriented shed skylight
Printing hall, Tours, France, Jean Prouve, 1950
Oriented shed skylight
Shedroof (on steel structure), using the structural height of the main truss
Shedroof (on steel structure), using the structural height of the main truss
Shedroof (on steel structure), using the structural height of the truss
Steel structure, skylight placed on the grid- traditional (tipical structure of warm plants ensuring natural ventilation)
Light Metal Works, Székesfehérvár Farkas Ipoly, Menyhárd István, 1958-1959
Railway engine depot, Basel, Switzerland Herzog & de Meuron, 1995
Skylights: profile-glass covered „light-trusses”
Trumpf Laser Factory, Ditzingen, Germany Barkow Leibinger, 2000
Lozenge-shaped skylights between folding roof surfaces
Warehouse A 12, Gennevilliers, France Manuelle Gautrand, 1999
Polycarbonate panels and lozenge-shaped skylights between folding roof surfaces
Cartier Watch Factory, Villeret, Switzerland, Jean Nouvel, 1992
Glazed roof and facade with louvres for solar protection
Partition walls of industrial buildings: Halls Multi-storey buildings aspects: can be joint only to the bearing structure! big clearance – stability accepting roof deflection mechanical withstand – hurtling building physical – technology requirements (eg. thermal insulation, acoustic) changeability, transferring of openings fire protection requirements > masonry: element size limit > assembled: frame+cladding
High-bay partition wall
High-bay partition wall – during construction
Built in (box with gallery) > different comfort circumstances (noise, temperature, humidity etc.)
Built in (box with gallery) > different comfort circumstances (noise, temperature, humidity etc.)
Openings of industrial buildings: Gates Traffic, loading Size: technology – subject, mean of transport, traffic Aspects: big opening > big gate hungs functioning + place demand mechanical withstand – hurtling building physical – technology requirements changeability, transferring of openings fire protection requirements lockability – safety Rollershutter gate:to be rolled Section gate: small car moving on rail (the whole surface must be located) Folding gate: foldable hungs Sliding gate: hanging or standing on rails, possibly made of elements Tilting door: horizontally turning leaves (place demand of the leaves) Telescopic gate: stripes sliding in one another Quick gate: lightweight, quick movement (defined by the technology)
Rollershutter lattice
Rollershutter gate (corrugated sheet)
Section gate (the whole surface must be located)
Truck dockage gate (level difference bridge)
Swinging gate – quick (internal, opened by the forklift)
Vertical sliding gate Kaufmann Wood Estate, Bobingen, Germany Florian Nagler, 1999
Industrial tilting door Knorr-Bremse headquarters, Itupeva - São Paulo, Brasil, LoebCapote Arquitetura, 2013
Articulated industrial tilting door, 2 leaves
Telescopic industrial gate
Truck dockage gate Erco High Bay Storage Lüdenscheid, Germany, Schneider + Schumacher, 2001
Bestseller Logistics Centre North, Haderslev, Denmark, C.F. Møller A., 2012 Truck dockage gate
(Hangar) sliding gate: size, allocation, statics, moving of gate hungs
Industrial sliding gate: extra size and function
Special „tiltng door” Santiago Calatrava
Canopies – loading ramps 1.
Loading ramp - road
Loading ramp - railway
Lashing rain protection
Lashing rain protection
headroom headroom
Canopies 2.
Cantilevering slab, shell
Ribbed slab, shell
Structure ribbed above
Canopy, loading dock / truck dockage gates
Canopy
Ricola Chocolate factory, plant building Mulhouse, Switzerland Herzog & de Meuron, 1993
Ricola Chocolate factory, plant building Mulhouse, Switzerland Herzog & de Meuron, 1993
Cantilevering building as „canopy”
Vehicle Depot, Davos, Switzerland Gigon & Guyer, 1999
Cantilevering building as „canopy”, truck dockage gates
Bestseller Logistics Centre North, Haderslev, Denmark, C.F. Møller A., 2012
Foundations of industrial buildings: Halls Multi-storey buildings pillars = point loads, vertical and horizontal loads technology = horizontal loads, thermal effect shallow foundation deep foundation ground relations, ground water, static function, joints usually reinforced concrete pin-connected, sleeve, welded, bolted joints strip foundation, beam foundation = inverted beam foundation slab = inverted mushroom slab ribbed foundation slab Machine bases to break the transmission of vibrations, movements or fastening
Foundation, tie beam
reinforced concrete cup/bucket foundation for restraining placed on distribution layer, foundation
Foundation detail of a steel frame pillar (the pillar has to be bolted) hinge (pin) connection
Floor finishes of industrial buildings requirements: load bearing, danger of punching > thick concrete – today rather rare > thin, flexible reinforced concrete surface, cleanability question of paving water proofing: ground water, moisture, technology proof thermal insulation: thermal bridges, cold stores technology: construction, dilatation
Cement screed
Synthetic resin floor finish, industrial suspended ceiling and partition wall
Synthetic resin floor finish, monolithic concrete walls and pillars
Thank you for your attention.