TOP OF THE CLASS - Buro Happold · use per person and 60% total roof coverage for biodiverse green...
Transcript of TOP OF THE CLASS - Buro Happold · use per person and 60% total roof coverage for biodiverse green...
E D U C A T I O N S E C T O R P O R T F O L I O
TO P O F T H E C L A S SC A N O U R E N G I N E E R I N G P A S S T H E T E S T A N D D E L I V E R
O U T S T A N D I N G E D U C A T I O N A L V E N U E S ?
H E R E A R E F I V E E X A M P L E S W H E R E I T H A S(and many, many more to explore)
C O N T E N T S
3 The Forum - University of Exeter, UK
8 David Attenborough Building - University of Cambridge, UK
17 Edward P. Evans Hall - Yale School of Management, New Haven, CT, USA
24 Washington University in St. Louis - Olin Business School, MO, USA
32 The Music Centre - Monkton Combe School, Bath, UK
37 Is your campus fit enough to achieve your ambitions?
38 Our Education projects across the world
24
3
32
178
38
LO C AT I O N : Exeter, UK C L I E N T: University of Exeter A R C H I T E C T: Wilkinson Eyre
T H E F O R U M
A M U L T I A W A R D W I N N I N G C O N N E C T O R O F D I S P A R A T E C A M P U S B U I L D I N G S
3 Sector Portfolio3 Sector Portfolio B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
T H E F O R U M | U N I V E R S I T Y O F E X E T E R , U K
A C A M P U S T R A N S F O R M E D
Designed around the theme of assembly and open debate, the Forum is a central part of the University of Exeter’s campus, forming a new, high profile front door to the university. The Forum project saw several structures built or refurbished and unified under a flowing gridshell roof. As well as unifying these buildings and hosting a dramatic new reception, the roof shelters a range of state-of-the-art teaching and discussion spaces.
As a central feature of the Forum, the vision for the roof was to create an enclosed street that links all of the facilities. Engineered to increase the appeal of the university by providing world class facilities that attract the very best students and talent, this project is also exemplary in its energy efficiency. Despite an increase in the area of over 130%, the scheme only consumes 40% more energy than that previously used by the old library alone.
K E Y F A C T S :• State-of-the-art development of the University of Exeter’s campus• Connects several facilities under an extensive curved
gridshell roof• Raised the status of the university on all major league tables;
reaching 7th in The Times ‘Good University Guide’ and awarded the Sunday Times ‘University of the Year 2012/13’
• The investment resulted in the university scoring very highly (85.7%) in the National Student Services Survey
• Received 9 industry awards including RIBA National Award, Higher Education/Research Building of the Year at the prestigious World Architecture Festival in 2013, Civic Trust Award and Green Apple Award
A C A M P U S T R A N S F O R M E D
4 Sector Portfolio B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
T H E F O R U M | U N I V E R S I T Y O F E X E T E R , U K
5 Sector Portfolio
A stunning new centrepiece…This remarkable new development will provide so many new facilities and opportunities for everyone associated with the University of Exeter for many years to come.”
Professor Sir Steve Smith Vice Chancellor, University of Exeter
B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
T H E F O R U M | U N I V E R S I T Y O F E X E T E R , U K
The roof incorporates extensive acoustic absorption to allow for a wide variety of uses in the street space.
A real time digital auralisation demonstrated the acoustic environment to the client. This allowed them to hear the effects of issues such as heavy rain on the ETFE roof panels to a rock concert in the adjacent Great Hall.
The client set our design teams very tough sustainability targets: to beat Part L energy guideline figures by 10% and to achieve 10% renewable energy on site, with the aim to achieve the sought-after BREEAM ‘Excellent’ rating on completion.
The Result:With annual Part L CO2 emissions of over 27% belowbuilding regulations requirements, at only 13.7kg/m2, and an EPC rating of 36(B), the energy performance exceeds the brief by a large margin, achieving the BREEAM ‘Excellent’ rating.
At over 3200m2 in area, spanning up to 27m and with over 2000 individual beams, the largest freeform timber gridshell roof in the UK provides a beautiful response to the constraints of the site and saves over 65 tonnes of CO2 when compared to a steel structure.
65t
6 Sector Portfolio
T H E F O R U M | U N I V E R S I T Y O F E X E T E R , U K
B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
E N G I N U I T Y T M P R O C E S SFor this project we used our Enginuity Process to create a collaborative team that focussed on delivering Integrated Design.
Click to see the team of BuroHappold specialists that worked together.
Building services engineering (MEP) Structural
engineering
Bridge engineering and civil structures
Fireengineering
Ground engineering
Infrastructure and utilities engineering
Sustainability
Security and technology
Acoustic design
Inclusive design
People movement
Smart space
I N T E G R A T E D D E S I G N
7 Sector Portfolio B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
T H E F O R U M | U N I V E R S I T Y O F E X E T E R , U K
LO C AT I O N : Cambridge, UK C L I E N T: University of Cambridge A R C H I T E C T: Nicholas Hare Architects
D A V I D A T T E N B O R O U G H B U I L D I N G
A S U S T A I N A B I L I T Y F R A M E W O R K W I T H F I R S T C L A S S H O N O U R S
8 Sector Portfolio B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
D AV I D A T T E N B O R O U G H B U I L D I N G | U N I V E R S I T Y O F C A M B R I D G E , U K
IMA
GE
: N
icho
las
Har
e A
rchi
tect
s ©
Ala
n W
illia
ms
Phot
ogra
phy
MA
IN I
MA
GE
: ©
Nic
hola
s H
are
Arc
hite
cts
This 1960’s brutalist icon is being reinvented into a dynamic multi-disciplinary academic and research building. It provides a vibrant hub for the newly established Cambridge Conservation Initiative (CCI), research areas for the University’s Department of Zoology, a refurbished lecture theatre and a new café. Named in honour of Sir David Attenborough, the transformed building will be a focal point for world leading conservation research.
K E Y F A C T S :• Major refurbishment of a 16,000m2 late 1960s
university building• 82% of embodied carbon saved through advising client
to retain existing building• Development of innovative bespoke sustainability
framework, pushing far beyond BREEAM• Extensive stakeholder engagement on wide range of
sustainability issues during design, construction and operation
• Low energy strategy reducing operational energy use by 40%, equivalent to £150,000/year savings
• Biodiversity roof covering 60% of roof area, developed with the client, tailored to attract regional priority species
R E F U R B I S H M E N T A N D R E I N V E N T I O N
9 Sector Portfolio B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
D AV I D A T T E N B O R O U G H B U I L D I N G | U N I V E R S I T Y O F C A M B R I D G E , U K
MA
IN I
MA
GE
: ©
Nic
hola
s H
are
Arc
hite
cts
It is expected that 80% of all current university building stock will still be with us in 2050. That’s why this approach is critical to how we, as engineers, contribute to future buildings (and cities) across the UK and beyond.”
Andy Keelin Group Director, Building Services BuroHappold Engineering
The energy strategy was developed to maximise the passive design potential of the building, promoting excellent daylight and natural ventilation. Thermal modelling was undertaken against current and future weather files to ensure comfortable internal conditions. Efficient systems and intelligent controls are used throughout. Rooftop photovoltaics and a combined heat and power (CHP) system provide renewable energy to the building.
10 Sector Portfolio B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
D AV I D A T T E N B O R O U G H B U I L D I N G | U N I V E R S I T Y O F C A M B R I D G E , U K
IMA
GE
: ©
Nic
hola
s H
are
Arc
hite
cts
11 Sector Portfolio
D AV I D A T T E N B O R O U G H B U I L D I N G | U N I V E R S I T Y O F C A M B R I D G E , U K
IMA
GE
: ©
Nic
hola
s H
are
Arc
hite
cts
Daylight linking systems control LED lights in perimeter rooms, together with presence and absence detection elsewhere, by dulling or switching off during times when sufficient natural lighting is available.
Along with photovoltaic panels on the roof, these measures will significantly reduce running costs for the building.
Daylightlinking
Rooftop Solar PV Panels
Daylight linking
NaturalDaylight
NaturalDaylight
NaturalDaylight
NaturalDaylight
NaturalDaylight
Daylight linking
Daylight linking
Daylight linking
Daylight linking
Daylight linking
Low energy lighting and controls in Basement
12 Sector Portfolio
D AV I D A T T E N B O R O U G H B U I L D I N G | U N I V E R S I T Y O F C A M B R I D G E , U K
IMA
GE
: ©
Nic
hola
s H
are
Arc
hite
cts
To keep the building cool in summer and warm in winter, we have maximised the use of existing concrete throughout the spaces. This is supported by a robust natural ventilation parametric model to optimise control, performance and resilience.
Exposedthermalmass
Exposed thermal mass
13 Sector Portfolio
D AV I D A T T E N B O R O U G H B U I L D I N G | U N I V E R S I T Y O F C A M B R I D G E , U K
IMA
GE
: ©
Nic
hola
s H
are
Arc
hite
cts
On the roof, a new light-weight structure has been built, with ‘phase change materials’ integrated into ceiling tiles - these innovative materials absorb and release heat just like the concrete, at a fraction of the thickness.
Phase change material ceiling tiles
Phase change materials integrated into ceiling panels
14 Sector Portfolio
D AV I D A T T E N B O R O U G H B U I L D I N G | U N I V E R S I T Y O F C A M B R I D G E , U K
BuroHappold pioneered a bespoke Sustainability Framework which aimed to reach beyond BREEAM by setting ambitious project specific targets across 10 headline themes and 50 sub-themes. Headline targets included a 40% reduction in operational carbon emissions, 30% reduction in water use per person and 60% total roof coverage for biodiverse green roofs.
A comprehensive evidence handbook was produced setting design, construction and post occupancy targets, developed through fully facilitated stakeholder engagement workshops with all building users, the University Estates Energy, Environment and Facilities Management teams. The framework was presented to the Cambridge City Council Planning Authority who fully supported its unique and robust approach to sustainability.
B E S P O K E S U S T A I N A B I L I T Y F R A M E W O R K
WAT
ER
E
DUCATION A
ND OUTREACH
BIODIVERSITY AND ECOLOGY ENERGY AND CARBON
B1 B2 B3 B4 E1 E2 E3 E4 E5 E6 E7 E8 E
9
Wa1
W
a2
Wa3
W
a4
EO
1
EO2
EO3
E
O4
EO5 E
O6
Local b
iod
iversity
Zo
olo
gy co
llection
Pro
cure
men
t in
op
erat
ion
Mo
nito
ring
of
bio
div
ersi
ty
Fabr
ic p
erfo
rman
ce
Vent
ilatio
nN
ew s
yste
m e
ffici
ency
Smal
l pow
er a
nd li
ghtin
g
Low carbon te
chnologies
Energy use in constru
ction
Total carbon savings
Energy use in operation
Commissioning and optimisation
Design of collaborative spaces
Design for accessibility
Publicising sustainable site operationsCollaboration across user groupsNOx emissions and refrigerantsExternal light pollution
Construction pollution
Embodied carbon
Environmental im
pact of new m
aterials
Responsible sourcing
Re-use of m
aterials
Designing for robustness
Desig
n out w
aste
Pro
vision o
f waste facilitiesC
ons
truc
tio
n w
aste
Op
erat
iona
l was
te
Cyc
le fa
cilit
ies
Acc
ess
and
way
findi
ng
Park
ingCon
stru
ctio
n tra
nspo
rt
Monito
ring tr
avel c
hoices
Reducing deliverie
s in operatio
n
User control
Day-lighting
Acoustic performance
Considerate construction
Improved food choices
Reduce water demand
Rainwater harvesting potential
Water use in construction
Water use in operation
Facilities for school groups
Visitor education
Museum
visitor numbers
Dem
onstrating project value to industry
Academ
ic case studiesB
uilding performance evaluation
HE
ALT
H A
ND
WE
LLBE
ING
TRANSPORT AND MOBILITY
WASTE
MATERIALS
POLL
UTI
ON
CO
LLA
BO
RA
TIO
N A
ND
INC
LUS
ION
W4
T1
T2
T3
T4
T5
T6
HW
1
HW
2
HW
3H
W4
HW
5
W3 W2 W1M5
M4
M3
M2
M
1
P3
P2
P1
CI4
CI3
CI2
CI1
Bespoke Sustainability Framework
WAT
ER
E
DUCATION A
ND OUTREACH
BIODIVERSITY AND ECOLOGY ENERGY AND CARBON
B1 B2 B3 B4 E1 E2 E3 E4 E5 E6 E7 E8 E
9
Wa1
W
a2
Wa3
W
a4
EO
1
EO2
EO3
E
O4
EO5 E
O6
Local b
iod
iversity
Zo
olo
gy co
llection
Pro
cure
men
t in
op
erat
ion
Mo
nito
ring
of
bio
div
ersi
ty
Fabr
ic p
erfo
rman
ce
Vent
ilatio
nN
ew s
yste
m e
ffici
ency
Smal
l pow
er a
nd li
ghtin
g
Low carbon te
chnologies
Energy use in constru
ction
Total carbon savings
Energy use in operation
Commissioning and optimisation
Design of collaborative spaces
Design for accessibility
Publicising sustainable site operationsCollaboration across user groupsNOx emissions and refrigerantsExternal light pollution
Construction pollution
Embodied carbon
Environmental im
pact of new m
aterials
Responsible sourcing
Re-use of m
aterials
Designing for robustness
Desig
n out w
aste
Pro
vision o
f waste facilitiesC
ons
truc
tio
n w
aste
Op
erat
iona
l was
te
Cyc
le fa
cilit
ies
Acc
ess
and
way
findi
ng
Park
ingCon
stru
ctio
n tra
nspo
rt
Monito
ring tr
avel c
hoices
Reducing deliverie
s in operatio
n
User control
Day-lighting
Acoustic performance
Considerate construction
Improved food choices
Reduce water demand
Rainwater harvesting potential
Water use in construction
Water use in operation
Facilities for school groups
Visitor education
Museum
visitor numbers
Dem
onstrating project value to industry
Academ
ic case studiesB
uilding performance evaluation
HE
ALT
H A
ND
WE
LLBE
ING
TRANSPORT AND MOBILITY
WASTE
MATERIALS
POLL
UTI
ON
CO
LLA
BO
RA
TIO
N A
ND
INC
LUS
ION
W4
T1
T2
T3
T4
T5
T6
HW
1
HW
2
HW
3H
W4
HW
5
W3 W2 W1M5
M4
M3
M2
M
1
P3
P2
P1
CI4
CI3
CI2
CI1
Bespoke Sustainability Framework
15 Sector Portfolio
D AV I D A T T E N B O R O U G H B U I L D I N G | U N I V E R S I T Y O F C A M B R I D G E , U K
E N G I N U I T Y T M P R O C E S SFor this project we used our Enginuity Process to create a collaborative team that focussed on delivering Efficient and Green Design.
Click to see the team of BuroHappold specialists that worked together.
E F F I C I E N T A N D G R E E N D E S I G N
Building services engineering (MEP)
Sustainability
Computational analysis
Fireengineering
Acoustic design
Lighting design
16 Sector Portfolio B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
D AV I D A T T E N B O R O U G H B U I L D I N G | U N I V E R S I T Y O F C A M B R I D G E , U K
LO C AT I O N : New Haven, CT, USA C L I E N T: Yale University A R C H I T E C T: Foster + Partners
E D W A R D P. E V A N S H A L LYA L E S C H O O L O F M A N A G E M E N T
F U T U R I S T I C F O R M S T O I N S P I R E T H E L E A D E R S O F T O M O R R O W
B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
E D W A R D P. E VA N S H A L L | YA L E U N I V E R S I T Y, U S A
17 Sector Portfolio
Yale University’s new School of Management offers students 242,000ft2 of state-of-the-art classrooms, faculty offices, student and community spaces, a media library and a 350-seat auditorium. This magnificent building welcomed its first students in January 2014, providing them with excellent facilities and inspiring surroundings that are conducive to study, collaborative learning, interaction and the development of ideas.
K E Y F A C T S :• First consolidated home for the School of
Management• Awarded Best New Building Over $100 Million by
Structural Engineers Association of New York• Achieved LEED Gold standard for Sustainability• Teaching spaces support every style of learning and
connect classrooms to the environment• Allows for expansion of school’s executive education
program offering
C R E A T I N G A S E N S E O F C O N N E C T I O N
18 Sector Portfolio
E D W A R D P. E VA N S H A L L | YA L E U N I V E R S I T Y, U S A
B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
BuroHappold performed detailed structural fire engineering studies proving that the supporting columns of the intricate atrium structure could easily surpass fire resistance expectations from local building codes. With the majority of columns already passing fire resistance requirements without the need for additional applied fire proofing, we were able to achieve a high quality finish, along with reduced future maintenance requirements and also a significant cost saving - all without comprimising on safety.
Heat from building
Heat from building
Heat from building
Temperatureprofile
19 Sector Portfolio
E D W A R D P. E VA N S H A L L | YA L E U N I V E R S I T Y, U S A
20 Sector Portfolio B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
1
Custom designed steel sleeve connections integrate the facade’s vertical elements with the floor’s structural steel. This allows the entire facade weight to hang from the roof, with the bottom support used only to resist wind and earthquake forces.
This creative approach, which minimises the size of the hanger elements, ensured that the design followed the architect’s vision for unobstructed views of the spacious courtyard.
Roof
Level 2
Level 1
Side elevationExterior columns support floor and roof construction
Full facade weight supported from roof, via ‘hangers’
Structural steel floor
Hangers supported at roof use custom designed steel sleeve connections
3
4
5
Glazing2 1
23
4
5
Faceted curvedcourtyard facade
21 Sector Portfolio B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
Designed in BIMA strikingly modern building, the design of the glass facade and large open courtyard creates a teaching and learning environment that enriches the Yale School of Management community.
To create a unifying effect, the building’s open layout allows people to see one another across the campus, creating a sense of connection.
To achieve this complex architectural vision, our team used cutting-edge BIM technology to design a system that uses structural steel to provide unobstructed views of the courtyard from the interior and of the uniquely shaped classroom pods from the exterior.
22 Sector Portfolio
E D W A R D P. E VA N S H A L L | YA L E U N I V E R S I T Y, U S A
B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
E N G I N U I T Y T M P R O C E S SFor this project we used our Enginuity Process to create a collaborative team that
focussed on delivering Site, Campus and Portfolio Development.Click to see the team of BuroHappold specialists that worked together.
Structural engineering Building
services engineering (MEP)
Sustainability
S I T E , C A M P U S A N D P O R T F O L I O D E V E L O P M E N T
Fire engineering
23 Sector Portfolio
E D W A R D P. E VA N S H A L L | YA L E U N I V E R S I T Y, U S A
B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
O L I N B U S I N E S S S C H O O L | W A S H I N G T O N U N I V E R S I T Y, S T . L O U I S , U S A
LO C AT I O N : St. Louis, MO, USA C L I E N T: Washington University in St. Louis A R C H I T E C T: Moore Ruble Yudell Architects & Planners / Mackey Mitchell Architects
W A S H I N G T O N U N I V E R S I T Y I N S T . L O U I SO L I N B U S I N E S S S C H O O L
A P A S S I V E F I R E S T R A T E G Y F O R S P A C E S T H A T I G N I T E I D E A S
24 Sector Portfolio24 Sector Portfolio B U R O H A P P O L D E N G I N E E R I N G EDUCATION
As one of the top business degree programs in the United States and an institution of leaders, Olin Business School set a challenging brief. This included a systems design approach for the building, with energy efficient measures and a minimum LEED Gold certification target.
K E Y F A C T S :• Features a 3-story, soaring glass atrium• Owner savings of $1M• Achieved LEED Gold Standard• Pioneering passively smoke vented atriums (one of
the first in U.S.)
P A S S I V E D E S I G N S T R A T E G Y A C T I V E LY P AY S B A C K
25 Sector Portfolio B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
O L I N B U S I N E S S S C H O O L | W A S H I N G T O N U N I V E R S I T Y, S T . L O U I S , U S A I M A G E : M a c k e y M i t c h e l l A r c h i t e c t s
26 Sector Portfolio B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
O L I N B U S I N E S S S C H O O L | W A S H I N G T O N U N I V E R S I T Y, S T . L O U I S , U S A
Daylighting analysis of the atrium verified the optimal frit pattern on the vertical glazing and skylight to create the balance between the amount of cooling required to meet thermal comfort conditions and passive solar heating.
Computational Fluid Dynamics Modeling of the atrium verified thermal comfort can be maintained with a displacement air system and radiant floor heating and cooling - these initiatives contributed to the project’s 20% overall energy savings over ASHRAE 90.1.
Thermal comfort
27 Sector Portfolio B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
O L I N B U S I N E S S S C H O O L | W A S H I N G T O N U N I V E R S I T Y, S T . L O U I S , U S A
Smoke exhaustinlet air
Smoke exhaustinlet air
Displacement ventilationvia �oor grilles
Displacement ventilationin forum raked seating
Low level displacementat columns
Radiant �oor coolingand heating
As one of the first passively smoke vented atriums in America, our design saved the owner approximately $1m by eliminating costly mechanical equipment and emergency generators from the project scope. (Passive smoke exhausted via operable roof panels).
High level stratified air will be exhausted from the atrium and used in a total heat recovery process to precondition the building ventilation air.
Passive ventilation
Heat recovery
28 Sector Portfolio
O L I N B U S I N E S S S C H O O L | W A S H I N G T O N U N I V E R S I T Y, S T . L O U I S , U S A
B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
An integrated design approach led to a successful design process for the atrium. BuroHappold modeling studies allowed the following opportunities to be validated and implemented:
Computational Fluid Dynamics Modeling was used to demonstrate a passive atrium smoke exhaust approach. The passive approach uses natural ventilation rather than mechanical equipment to purge smoke during a fire scenario.
Wind and temperature effects on the passive smoke management system were accounted for within each fire scenario modeled. The wind effects were established based upon data of the prevailing directions and speed for both a winter and summer condition for the St Louis area. A total of four environmental condition simulations were presented for each scenario.
The passive smoke model passed all requirements of the International Building Code and National Fire Protection Association and was accepted by the State Fire Marshall.
CFD Modeling
29 Sector Portfolio B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
O L I N B U S I N E S S S C H O O L | W A S H I N G T O N U N I V E R S I T Y, S T . L O U I S , U S A
Exit Modeling
The purpose of the smoke control system is to provide a tenable environment to enable evacuation of the building occupants.
Egress time is calculated to the point where occupants reach a place of relative safety and away from the effects of the fire i.e. last occupant crosses the boundary of the atrium into an egress stair or directly to the exterior.
30 Sector Portfolio B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
O L I N B U S I N E S S S C H O O L | W A S H I N G T O N U N I V E R S I T Y, S T . L O U I S , U S A
E F F E C T I V E D E S I G N F O R C O N S T R U C T I O N A N D F I T O U T
Mechanical engineering
Fire protection
Energy modelling
Daylight modelling
Passive smoke modelling
Egress modelling
Code consulting
E N G I N U I T Y T M P R O C E S SFor this project we used our Enginuity Process to create a collaborative team
that focussed on delivering Effective Design for Construction and Fitout.Click to see the team of BuroHappold specialists that worked together.
B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N31 Sector Portfolio
O L I N B U S I N E S S S C H O O L | W A S H I N G T O N U N I V E R S I T Y, S T . L O U I S , U S A
M O N K T O N C O M B E S C H O O L | B A T H , U K
LO C AT I O N : Bath, UK C L I E N T: Governors of Monkton Combe School A R C H I T E C T: Nick Shipp Architects
T H E M U S I C C E N T R EM O N K T O N C O M B E S C H O O L
D I R E C T I N G A M U S I C A L M A S T E R P I E C E
32 Sector Portfolio B U R O H A P P O L D E N G I N E E R I N G EDUCATION
Monkton Combe’s newly appointed Director of Music found their existing facility cold, undersized and uninspiring.
The brief required an exceptional solution to create an outstanding new home for the school’s muscial future; a mixture of small practice rooms, a rehearsal hall for a full orchestra, multiple recording studios, storage space for instruments, offices and a teaching classroom, all to be housed within the footprint of the existing building.
K E Y F A C T S :• ‘Shattered’ timber panels scatter sound around
the space• The David Bowerman Hall can be tailored to
specific events• Mixed use of space inspiring creativity
Our cutting edge engineering solutions led the way for the inspirational architectural forms, allowing the functional to work in absolute harmony with the aesthetic.
33 Sector Portfolio B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
M O N K T O N C O M B E S C H O O L | B A T H , U K
The more uneven and textured the surfaces, the more they will scatter sound. In the David Bowerman Hall we used many and varied angles for the wall panelling.
Specularreflection
Diffusereflection
Our acoustics team led the architectural design and many aspects of their unique solutions are not only functional but also carry a strong architectural theme. This has resulted in visually inspiring rooms such as the David Bowerman Hall, where the walls and ceiling are clad with a distinctive ‘shattered’ pattern of timber panels that diffuse sound, giving the room a beautifully enveloping sound, as well as an inspiring appearance.
Room sound/music
Diffuse reflection/ Scattered outgoing
directions
Uneven/Quadratic Residue Diffuser surface
Plain hard wall surface
Room sound/music Specular reflection/
single outgoing direction
34 Sector Portfolio B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
M O N K T O N C O M B E S C H O O L | B A T H , U K
Variable AcousticsElectrically operated acoustic banners make it possible to tailor the room’s acoustics to specific events by optimising the balance between clarity and reverberance. The banners allow increased absorption of sound within the room, which returns less reflected sound - this may suit a rock concert scenario where a fuller, flatter sound is required, whilst a classical music event may require enhanced diffuse reflection for a more enveloping sound.
The results have been enthusiastically greeted by musicians and audiences.
35 Sector Portfolio B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
M O N K T O N C O M B E S C H O O L | B A T H , U K
B U I L D I N G P E R F O R M A N C E O P T I M I S A T I O N
Acoustic design Building
services engineering (MEP)
Sustainability
Design project management
E N G I N U I T Y T M P R O C E S SFor this project we used our Enginuity Process to create a collaborative team
that focussed on delivering Building Performance Optimisation.Click to see the team of BuroHappold specialists that worked together.
B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N36 Sector Portfolio
M O N K T O N C O M B E S C H O O L | B A T H , U K
We love exceeding your targetsAt the University of Sheffield Advanced Manufacturing Research Centre, our roof light and window design achieves 97% internal natural lighting, saving energy. We also introduced two wind turbines to reduce emissions, these provide most of the site’s energy and will have repaid AMRC’s investment within nine years.
When 5,000 students demand quality teaching in quality teaching spaces, you have to find ways to make new builds pay their way. The Napier Sighthill Campus at the University of Edinburgh is one example where the energy strategy paves the way for spending more money on teaching than on running costs. Wherever possible, we optimised the passive control of spaces through a detailed analysis of the orientation of the building and solar shading, saving on energy costs.
I S Y O U R C A M P U S F I T E N O U G H T O A C H I E V E Y O U R A M B I T I O N S ?
Research has shown a clear link between the design of the campus and campus buildings with the recruitment, retention and satisfaction of staff and students. In an increasingly competitive education landscape our engineering has helped a number of universities and private schools achieve a competitive advantage, accommodating ambitious growth plans. We have also undertaken an extensive piece of research (Universities Challenged) to inform our designs, which has revealed some quite unexpected insights (please contact us to learn more).
Sensitive design that creates inviting spacesAt the Bard Center (USA) the brief required us to open up a lab, teaching and office spaces to create a dynamic faculty. To do this required some ingenuity and our simple but stylish answer was to create a backbone for the building, a spine that could house crucial fume hoods that were accessible for maintenance and monitoring, but hidden to create expansive sightlines and promote interaction.
An environmental slantAt the Scottish Centre for Regenerative Medicine we thought outside the ‘black box’ to create the first BREEAM ‘excellent’ status lab in Europe. Low carbon targets and sustainable solutions were engineered into the building framework reducing the carbon footprint by 18%.
Award winning engineering design that achieves a lot more than glowing praiseRIBA awards don’t come easily but when they do, the engineering has to equal the architectural ambition. In Denmark our fire engineers provided an industry first for the country at the Syddansk University. We implemented a bespoke, high pressure water mist system, capable of rapidly extinguishing a fire, ensuring the safety of visitors to the Alsion campus.
Similarly, Burntwood School, UK - was a recipient of the RIBA Stirling prize. Our engineering design helped to express the unique architectural vision. Yet it combined a functional and considered environmental statement that exploited the thermal mass of the structure to manage the heating, cooling and ventilation demands.
Whatever the scale of your campus and its assets…We know how to think big. In Kuwait City there is an ambition to build one of the world’s largest educational campuses by uniting five disparate sites into one, to create Kuwait University. Our masterplan and infrastructure design revealed multiple ways to integrate and overcome the necessary, if unglamorous, elements required to make a ‘mini city’. Utilities such as transportation, fire and evacuation, drainage and water management form a complex system which will operate at the highest efficiency levels.
CO2down 18%
37 Sector Portfolio B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
O U R E D U C A T I O N P R O J E C T S W O R L D W I D EC L I C K T O R E V I E W P R O J E C T I N F O R M A T I O N
+Yale University 1 / 2+Harvard Allston Science Complex
+Columbia University+Duke University
+Fashion Institute of Technology
+Lynn University+Hawaii Preparatory Academy
+Arizona State University+Claremont McKenna College
+University of California 1 / 2 / 3+California State University
+University of Oregon+Washington University, St. Louis 1 / 2+Middlebury College
California+Institute ofTechnology
Emerson+ College
+Brandeis University 1 / 2+The New School University Center
+MacArthur Elementary School
+North Shore CommunityCollege
King Abdullah University for Science and Technology +
+FDG Griebnitzsee University+The Cardinal Stefan Wyszynski University
Institute of Diplomatic Studies and Consular Affairs++Kuwait University City
Kings College Nad Al Sheba Campus+
La Mare De Carteret+ School
+Appleton Tower+Ashworth Laboratories+Bardsey Island+Bristol Brunel Academy+Building Schools for the Future+Burntwood School+Camden Building Schools for the Future Programme+City of London Academy+City of Westminster College+Class of Your Own (Beechen Cliff - Bath)+Chobham Academy+Coventry University+Data Technology Institute+English Institute of Sport+Glasgow Caledonian University
+Harrow School+Hayesfield School+Hazelwood School+Holland Park School+Institute of Pharmacy and Biomedical Sciences+John Wheatley College+Joseph Rowntree School+Langley Academy+Langside College+London School of Economics+Michael Faraday Primary School+Michael Uren Biomedical Engineering Hub+Monkton Combe School+Monkton School+Napier University
+Newcastle University+Port Glasgow Joint School Campus+Queen’s University+Salford University+Somerset College of Art and Design+St. Bartholomew’s School+St. Mary’s Church of England School+St. Anthony’s College+The Jessop Wing+Thomas Deacon Academy +Tottenham Hotspur University Technical College+University of Bristol 1+University of Bristol 2+University of Buckinghamshire+University of Cambridge
+University of Edinburgh+University of Exeter+University of Glamorgan+University of Glasgow+University of Lincoln+University of London+University of Portsmouth+UniAversity of Stirling+University of the West of England+University of the West of Scotland+University of York+Wales Institute of Sustainable Education+Wells Cathedral School+Wiltshire College+Worcester College
38 Sector Portfolio B U R O H A P P O L D E N G I N E E R I N G E D U C A T I O N
CONTAC T USMike Entwisle, Partner | Email: [email protected]
www.burohappold.com
Copyright © 1976-2016 BuroHappold Engineering. All Rights Reserved
W E M A K E T H E V I S I O N V I A B L E