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The	impact	of	Science	Literacy	delivery	methods	-	what	works?	
	
Single	mechanism	analysis	report	
Festivals	|	Group	1.	Events,	meetings,	performances	
	
V	2.0	|	10	October	2018	
	
WORKING	PAPER	
	
	
	
	
	
	
	
	
	
	
	
	
	
Team	members	
	
Valentina	De	Col	|	Lead	Researcher,	NIDA	
Kamran	Naim	|	Executive	Director,	NIDA
Carol	Priestley	|	Senior	Advisor,	NIDA
Carol	Usher	|	Manager,	Publicity	&	Dissemination,	NIDA
	
	
	
	
	
	
	
	 	
Attribution	4.0	International	(CC	BY	4.0)	
Co-financed	by	Evergreen	Education	Foundation	(EEF)	and	NIDA
ii	
	
Executive	Summary	
1.	Introduction	
	
1.1	 This	report	presents	a	synthesis	of	the	proven	impact,	strengths	and	weaknesses	of	festivals	
in	delivering	science	literacy.	
1.2		 This	individual	analysis	is	situated	within	the	framework	of	a	broad	study	of	science	literacy	
aimed	to	establish	what	has	been	proven	successful	in	the	field;	with	the	objective	to	
promote	and	adapt	good	practices	and	fill	gaps	in	knowledge	about	‘what	works’.	
1.3		 The	full	study	identified	42	single-mechanism	approaches,	2	composite	approaches	and	1	
related	approach;	‘Festivals’	are	categorized	within	Group	1	relating	to	‘Events,	meetings,	
performances’.	
2.	Methodology	for	resource	discovery	and	analysis	
2.1		 From	October	2017	to	May	2018,	the	research	team	surveyed	existing	resources	through	
retrieval	via	research	databases,	subject	databases,	open	access	repositories	and	through	
contact	with	interested	organisations,	institutions	and	individuals.	
2.2		 The	resources	were	divided	into	impact	assessments	(IAs)	and	descriptive	resources.	For	the	
purposes	of	analysis,	only	those	published	during	the	years	2013	-2018	were	utilised.	Each	
resource	was	read	in	detail,	significant	data	was	extracted	and	entered	into	a	specifically	
developed	database.	An	example	of	the	database	mask	is	included	in	Appendix	A.	
2.3		 Although	the	total	number	of	resources	located	was	not	designed	to	be	exhaustive	or	
definitive,	the	resources	captured	in	this	research	are	limited	to	those	available	in	the	
English	language	and	to	translations	that	had	already	been	made	from	other	languages	into	
English.	
3.	Overview	of	results	
3.1		 Over	2,100	IA	studies	and	descriptive	resources	were	identified	in	the	full	research	process,	
of	which	36	relate	specifically	to	‘Festivals’	of	which	25	were	published	between	2013-2018.	
3.2		 The	subject	coverage	spanned	from	life	and	biological	sciences,	through	interdisciplinary	
approaches	to	general	science.	The	activity	countries	included	Ireland	(2),	New	Zealand	(1),	
Turkey	(1),	United	Kingdom	(8)	and	United	States	of	America	(2).	
3.3		 The	12	impact	assessment	studies	all	referred	to	‘programmatic’	delivery.		Their	audiences	
were	reached	through	educational	institutions	(20%),	research	centres	(13.3%),	
collaborations	between	interested	institutions	(40%)	and	‘others’,	mainly	promoting	
arts/music	over	science	(26.7%).	
3.4		 The	approaches	to	conducting	assessment	within	the	resources	identified	were	
overwhelmingly	mixed-method.	The	data	collection	methods	included	written	or	online	
surveys,	interviews,	case	studies,	observations,	focus/discussion	groups,	phone	calls.	
4.	Discussion	
4.1		 Science	festivals	were	shown	to	be	events	that	combine	science	with	fun	and	entertainment,	
enabling	communication	and	connection	with	audiences.	However,	despite	being	
increasingly	popular,	existing	studies	have	not	fully	addressed	outcomes,	impacts	and	
popularity.	Moreover,	existing	research	has	employed	limited	methodologies	and	have	
focused	on	self-reporting	of	specific,	individual	events,	and	not	on	the	complete	experience.
iii	
	
4.2		 There	are	consistently,	self-reported,	beneficial	impacts	on	awareness,	knowledge	and	
understanding	and	science	festivals	also	appear	to	produce	a	positive	effect	in	terms	of	
engagement,	influence	and	increased	motivation	to	learn	about	new	ideas	or	topics	in	STEM.	
4.3		 The	key	strength	of	festivals	as	a	delivery	mechanism	for	science	literacy	is	that	they	can	
provide	the	general	population	with	a	wide	range	of	activities	in	a	variety	of	formats,	in	an	
informal	and	fun	environment.	They	also	provide	the	opportunity	for	festival	goers	to	
engage	directly	with	scientists.	
4.4		 Weaknesses	included	interception	of	audiences	depending	on	the	location	of	the	venue	and	
on	their	transient	nature	being	time-limited.	
4.5		 Many	science	festivals	have	high	levels	of	intensive	volunteer	participation	by	scientists,	
universities,	technologists	and	engineers.	Synergy	and	support	between	festival	organisers	
and	the	different	collaborators	was	found	to	be	essential.	
4.6		 Improved	or	new	evaluation	methodologies	are	required	and	future	research	should	also	
consider	the	longer-term	impact	of	science	festivals.	
5.	Conclusions	
5.1		 Science	festivals	appear	to	be	a	valuable	environment	for	public	engagement	with	science,	
particular	popular	in	the	UK	but	also	gaining	in	interest	internationally.	Evaluation	studies	
revealed	many	positive	impacts,	although	these	are	primarily	self-reported	by	the	attendees.	
5.2		 The	analysis	of	existing	resources	showed	that	festivals	are	able	to	deliver	broad	scientific	
content	to	the	general	population	through	a	variety	of	formats,	interactions	and	
communication	strategies.	
5.3		 Science	festivals	hold	potential	for	their	cultural	and	community	dimension.	
5.4		 Successful	evaluation	requires	that	methods	are	adapted	to	suit	the	environment	and	
overcoming	substantial	weaknesses	in	the	evaluation	methods	employed	in	this	sector	might	
provide	new	insights	and	reduce	the	risk	of	bias.
iv	
	
CONTENTS	
	
Executive	Summary	.........................................................................................................................	i	
1.	 Mechanisms,	groups	and	approaches	........................................................................................	4	
2.	 Methodology	for	resource	discovery	and	analysis	.....................................................................	5	
2.1.	 Search	method	.......................................................................................................................	5	
2.2.	 Data	extraction	for	the	analysis	.............................................................................................	6	
2.3.	 Limitations	of	the	resource	discovery	....................................................................................	6	
3.	 Overview	of	results	...................................................................................................................	6	
3.1.	 Total	number	of	resources	discovered	..................................................................................	6	
3.2.	 Scientific	subjects	..................................................................................................................	7	
3.3.	 Countries	involved	in	the	studies	...........................................................................................	7	
3.4.	 Educational	delivery	models	..................................................................................................	8	
3.5.	 Target	sectors	........................................................................................................................	8	
3.6.	 Delivery	institutions	...............................................................................................................	8	
3.7.	 Approach	to	data	collection	...................................................................................................	9	
3.8.	 Sampling	technique	and	sample	size	...................................................................................	10	
4.	 Discussion	................................................................................................................................	10	
4.1.	 Contexts	of	use	....................................................................................................................	10	
4.2.	 Impacts	................................................................................................................................	12	
4.2.1.	Awareness,	knowledge	or	understanding	............................................................................	12	
4.2.2.	Engagement	or	interest	........................................................................................................	13	
4.2.3.	Attitude	................................................................................................................................	13	
4.2.4.	Behaviour	.............................................................................................................................	14	
4.2.5.	Skills	......................................................................................................................................	14	
4.2.6.	Others	...................................................................................................................................	14	
4.3.	 Strengths	..............................................................................................................................	14	
4.4.	 Weaknesses	.........................................................................................................................	16	
4.5.	 Costs	and	feasibility	.............................................................................................................	18	
4.6.	 Suggestions	for	improved	methodologies	and	for	future	studies	.......................................	18	
5.	 Conclusions	and	overview	........................................................................................................	20	
APPENDIX	A:	Example	of	data	input	mask	.....................................................................................	22	
APPENDIX	B:	Selected	bibliography	...............................................................................................	24
4	
	
Mechanisms,	groups	and	approaches	1.
During	the	first	part	of	the	Desk	Research	phase	of	this	project	(i.e.	Task	1),	the	research	team	
identified	42	single-mechanism	approaches,	2	composite	approaches	and	1	related	approach	that	
were	relevant	to	the	delivery	and	dissemination	of	scientific	information.	The	list	of	single	
mechanisms	was	further	organised	into	7	thematic	groups,	as	presented	in	Table	1.		
The	subject	of	this	report	is	‘Festivals’,	included	in	Group	1	‘Events,	meetings,	performances’.	
	
Single	mechanism	approach		 Group		
	
Exhibitions,	Expo,	Festivals,	Movies,	Picnics,	
Science	Fairs,	Seminars,	Talks,	TED	Talks,	Theatre,	
Workshops	
	
	
1.	Events,	meetings,	performances	
Colloquia,	Courses,	Curricula,	E-learning,	Webinars	
	
2.	Education	and	training	–	including	online		
Animations,	Books,	Brochures,	Cartoons,	Comics,	
Games,	Graphics,	Posters,	Publications,	Radio,	
Reports,	TV,	Videos	
	
3.	Traditional	publishing	and	journalism	–	
print	and	broadcast		
Competitions,	Experiments,	Makerspaces,	Mobile	
classrooms,	Mobile	laboratories	
	
4.	Activities	and	services		
Blogs,	E-books,	E-zines,	Mobile	Apps,	Podcasts,	Social	
media,	Websites,	Wikis	
	
5.	Online	interactions		
Composite	approaches	 	
	
Multiliteracies	
Multimodalities	
	
Related	approach	 	
	
Citizen	Science	
	
	
Table	1.	Organisation	of	the	delivery	approaches	of	science	literacy	adopted	in	this	research.	
For	the	purposes	of	this	study,	the	definition	of	‘Festivals’	refers	more	specifically	to	‘science	
festivals’	being	events	‘that	showcase	science	and	technology	with	the	same	freshness	and	flair	that	
would	be	expected	from	an	art	or	music	festival.	Events	can	be	varied,	including	lectures,	
exhibitions,	workshops,	live	demonstrations	of	experiments,	guided	tours,	and	panel	discussions.	
There	may	also	be	events	linking	science	to	the	arts	or	history,	such	as	plays,	dramatised	readings,	
and	musical	productions.	The	core	content	is	that	of	science	and	technology,	but	the	style	comes	
from	the	world	of	the	arts’	1
.	
Broadly	construed,	science	festivals	encompass	a	cluster	of	events,	from	university	open	days,	
citywide	events,	national	campaigns,	and	international	awareness	weeks	(Fogg-Rogers	et	al.	2017),	
																																																													
1
	“Science	festival”,	Wikipedia,	Accessed	September	28,	2018,	https://en.wikipedia.org/wiki/Science_festival
5	
	
can	be	of	varying	of	durations,	ranging	from	one	day	to	an	entire	month,	potentially	with	an	
overarching	theme	(Rose	et	al.	2017).	The	objective	of	these	festivals	can	be	briefly	summarised	to	
‘bring	public	audiences	and	scientific	concepts	together’	(Fogg-Rogers	et	al.	2017).	
Methodology	for	resource	discovery	and	analysis	2.
Search	method	2.1.
From	October	2017	to	May	2018,	the	research	team	carried	out	an	extensive	process	of	resource	
discovery	to	survey	existing	works	and	impact	studies	that	could	provide	valuable	evidence	on	the	
impact	of	the	identified	science	delivery	approaches	and	mechanisms.		
The	search	was	carried	out	by	retrieving	documents	and	articles	from	a	wide	range	of	sources,	
including	research	databases,	Google	Scholar,	ResearchGate,	subject	databases	and	open	access	
repositories.	The	use	of	non-boolean	keyword	combinations	returned	a	consistent	number	of	
relevant	results	from	prominent	academic	journals	and	online	library	databases	(e.g.	ERIC,	Frontiers,	
JCOM,	MedLine/PubMed,	Nature,	NCBI,	Wiley	Online	Library,	PLOS,	SAGE,	ScienceDirect,	Springer,	
Web	of	Science).	Moreover,	the	findings	were	complemented	with	relevant	resources	such	as	theses	
and	manuscripts	retrieved	from	university	repositories,	reports	and	case	studies	from	different	
organisations	and	NGOs.	In	addition,	contact	was	made	with	researchers	via	the	ResearchGate	
community	and	single	individuals	from	NIDA’s	Facebook	page	who	expressed	interest	in	the	research	
and	directly	contributed	by	providing	annotated	bibliographies	for	their	fields	of	expertise.	
The	resource	discovery	was	performed	by	combining	the	mechanism	name	with	1	of	the	5	
keywords/synonyms	for	‘impact’	and	1	of	the	10	literacies	and	sub-sector	literacies	identified	by	the	
Team,	one	combination	at	a	time.	The	search	strategy	is	exemplified	in	Table	2.	
	
Approach	 Terms	for	impact	 Literacy	and	sub-sector	literacies	
[single	mechanism]	
e.g.	theatre	
	
Impact	
Impact	assessment	
Assessment	
Performance	measurement	
Outcomes	
Agricultural	Literacy	
Chemistry	Literacy	
Climate	Literacy		
Computer	Literacy	
Earth	Science	Literacy	
Food	safety	Literacy	
Health	Literacy	
Nutrition	Literacy	
Science	Literacy	
Statistical	Literacy	
Table	2.	Search	strategy	using	keywords	combinations.	
This	method	generated	a	total	number	of	50-word	combinations	(to	illustrate	one	single	
example:	‘theatre	impact	science	literacy’)	for	each	of	the	science	delivery	mechanisms	investigated.	
The	articles	and	materials	selected	for	the	analysis	span	between	2013	and	2018	and	were	
initially	sorted	into	two	main	groups:	one	containing	impact	assessments	that	provide	a	qualitative,	
quantitative	or	mixed	method	(both	qualitative	and	quantitative)	research	approaches	to	data	
collection;	and	a	second	including	different	typologies	of	descriptive	resources,	e.g.	reviews,	guides,
6	
	
handbooks,	reports.	Resources	were	organised	by	mechanism	and	the	principal	metadata	(e.g.	title,	
author,	date,	scientific	subject)	saved	on	a	Microsoft	Excel®	spreadsheet	prior	to	database	import.	
Data	extraction	for	the	analysis	2.2.
The	identified	impact	assessments	were	subsequently	uploaded	to	a	Microsoft	Access®	database,	
developed	by	the	Team	to	collect	relevant	information	from	each	study.	An	example	of	the	database	
mask	for	data	entry	is	included	in	Appendix	A.	Each	article	was	read	in	detail,	and	significant	data	
were	extracted,	entered	into	the	database	and	used	as	core	information	to	carry	out	the	analysis.	
Limitations	of	the	resource	discovery	2.3.
The	resource	discovery	was	limited	to	resources	available	in	English	language,	and	studies	in	other	
languages	were	only	included	where	translations	had	already	been	made	to	English2
.	Another	
intrinsic	limitation	lies	within	the	search	methodology,	particularly	on	the	keyword	combinations,	
which	explains	a	low	number	of	articles	for	some	of	the	mechanisms	investigated.	
Moreover,	the	total	number	of	resources	located	is	not	meant	to	be	exhaustive	or	definitive.	It	is	
a	work	in	progress	that	attempts	to	offer	a	synthesis	of	examples	spanning	across	different	literacies	
and	sub-sector	literacies,	with	no	geographical	limitations,	with	the	aim	to	contribute	to	the	
understanding	of	science,	its	applications,	and	to	the	promotion	of	science	literacy.	
Overview	of	results	3.
Total	number	of	resources	discovered	3.1.
Over	2,100	impact	assessment	studies	and	descriptive	resources	were	identified	in	the	full	research	
process,	of	which	25	relate	specifically	to	‘Festivals’.	However,	for	the	purposes	of	analysis	a	decision	
was	taken	to	concentrate	on	those	published	between	2013-2018,	as	presented	in	Table	3,	to	
provide	currency	of	information.	All	of	the	articles	containing	examples	of	impact	assessment	are	
analysed	in	the	following	paragraphs	and	in	Chapter	4,	together	with	all	relevant	information	offered	
by	the	descriptive	documents	that	were	used	to	consolidate	and	complement	the	findings.	
	
Resources	(2013-2018)	 Number	
Impact	assessments	 12	
Descriptive	resources	 5	
Total	no.	of	resources	analysed	 17	
Table	3.	Total	number	of	resources	analysed.	
	 	
																																																													
2
	The	research	and	analysis	methodologies	will,	however,	be	available	from	NIDA	in	English,	French	and	Spanish	in	order	
that	others	may	utilise	and/or	translate	and	adapt,	replicate	and	extend	the	coverage.
7	
	
Scientific	subjects	3.2.
The	main	subjects	of	the	impact	assessments	are	synthesized	in	Table	4.	The	systematic	
categorisation	of	science	branches	was	retrieved	from	Wikipedia3
	and	customized	for	the	purpose	of	
the	research.	
	
Main	subject	area	 Detailed	subject	 References	
General	 	
Jensen	and	Buckley	2014;	
Quagliata	2015;	Sardo	and	
Grand	2015;	Sardo	2016;	
Sardo	and	Grand	2016;	
Fogg-Rogers	2017;	Keçeci	
2017	
Interdisciplinary	
Cultural	studies	 Venugopal	and	
Featherstone	2014	
Environmental	studies	 Herbolzheimer	and	
Featherstone	2014	
Neuroscience	 Fogg-Rogers	et	al.	2015	
Life	/	Biology		 Genetics	 Rose	et	al.	2017	
Physical	 Physics	
Roche,	Stanley,	and	Davis	
2016	
Table	4.	Main	scientific	subjects	of	the	resources	analysed.	
Countries	involved	in	the	studies	3.3.
The	countries	where	the	studies	have	taken	place	are	listed	in	Table	5	and	can	be	visualized	on	the	
world	map	in	Figure	1.	
	
Countries	 No.	of	studies	for	each	country	
United	Kingdom	(UK)	 8	
Ireland,	United	States	of	America	(US)	 2	
New	Zealand,	Turkey	 1	
Table	5.	Number	of	impact	assessment	studies	for	each	country.	
	 	
																																																													
3
	“Branches	of	science”,	Wikipedia,	Accessed	January	26,	2018,	https://en.wikipedia.org/wiki/Branches_of_science
8	
	
	
	
Figure	1.	Geographic	distribution	of	the	impact	assessment	studies	analysed	[Map	generated	with	
traveltip.org].	
Educational	delivery	models	3.4.
The	Team	summarised	specific	models	of	delivery,	whether	formal,	non-formal	or	programmatic	
(namely,	embedded	in	a	programme)	and	included,	for	convenience	of	future	discussion,	a	
distinction	towards	examples	related	to	health	literacy.	
In	the	case	of	‘festivals’,	all	12	impact	assessment	studies	refer	to	the	‘programmatic’	category.	
Target	sectors	3.5.
The	target	sector(s)	addressed	by	each	individual	study	is	presented	in	Table	6.	The	categorisation	
used	was	drawn	from	the	ILO	(International	Labour	Organisation)	Taxonomy4
	list,	which	was	reduced	
and	simplified.	Some	articles	were	attributed	to	more	than	one	target	sectors.	
Delivery	institutions	3.6.
The	delivery	institutions	promoting	‘festivals’	interventions	are	presented	in	Table	7	and	they	were	
identified	by	the	Team	within	a	wide	categorisation.	
	
	 	
																																																													
4
	“ILO	Taxonomy”,	Accessed	January	26,	2018,	
http://www.ilo.org/dyn/taxonomy/taxmain.showSet?p_lang=en&p_set=1
9	
	
	
Main	target	sector	 Sub-divided	target	sector	 References	
Education	&	Training	
(4)	26.7%	
Primary	education	 Quagliata	2015;	Sardo	2016	
Secondary	education	 Quagliata	2015;	Keçeci	2017	
Population	
(11)	73.3%	
General	
Herbolzheimer	and	Featherstone	2014;	
Jensen	and	Buckley	2014;	Fogg-Rogers	et	
al.	2015;	Sardo	and	Grand	2015;	Sardo	
2016;	Sardo	and	Grand	2016;	Fogg-Rogers	
2017;	Rose	et	al.	2017	
Adults	
Venugopal	and	Featherstone	2014;	Roche,	
Stanley,	and	Davis	2016;	Sardo	2016	
Table	6.	Target	sectors	and	relative	percentage	over	the	total	number	of	instances.	
	
Delivery	institution	 	 References	
Educational	institution	
(3)	20.0%	
Institute	of	Technology	 Quagliata	2015	
University	 Jensen	and	Buckley	2014;	Sardo	2016	
Research	centre	
(2)	13.3%	 	
Sardo	and	Grand	2016;	Fogg-Rogers	et	al.	
2015	
Various	
(7)	40.0%	
	
Herbolzheimer	and	Featherstone	2014;	
Jensen	and	Buckley	2014;	Roche,	Stanley,	
and	Davis	2016;	Sardo	2016;	Fogg-Rogers	
2017;	Keçeci	2017;	Rose	et	al.	2017	
Others	
(3)	26.7%	
	
Venugopal	and	Featherstone	2014;	Sardo	
and	Grand	2015;	Sardo	2016	
Table	7.	Delivery	institutions	and	relative	percentage	over	the	total	number	of	instances.	
The	category	‘Various’	comprises	collaborations	between	different	institutions	(e.g.	universities,	
science	museums	and	centres,	local	government	such	city	council,	government-funded	agencies,	
independent	charities,	research	councils,	consortium,	research	institutes),	whereas	‘Others’	includes	
organisations	more	oriented	towards	the	promotion	of	art	and	music	over	science.	
Approach	to	data	collection	3.7.
Of	the	12	impact	assessment	studies,	1	was	primarily	quantitative,	7	used	a	mixed-method	approach	
and	4	were	primarily	qualitative.	
For	these	studies,	data	collection	approaches	involved	written	or	online	surveys	(8	studies),	
interviews	(7),	case	studies	(5),	observations	(5),	focus/discussion	groups	(3),	phone	call	(3),	
experiment	(1)	and	pool	(1).		
Among	the	data	collection	tools	or	scales	employed	there	were	questionnaires	(3	studies),	Likert	
scales	(3),	written	or	graphic	responses	(1).
10	
	
The	statistical	approaches	used	involved	mainly	hypothesis	testing	such	as	t-tests	(2	studies)	and	
ANOVA	(1).	A	few	studies	specified	the	software	tool	or	app	used	for	analysis:	Microsoft	Excel	(2),	
SPSS	20	(1)	and	Atlas.it	(1).	
A	common	approach	of	a	few	studies	(Jensen	and	Buckley	2014;	Sardo	and	Grand	2016;	Fogg-
Rogers	2017;	Fogg-Rogers	et	al.	2017)	was	the	employment	of	different	methods	to	help	with	the	
triangulation	of	data	(see	paragraph	4.6).	As	an	example,	qualitative	responses	on	audience	
motivations	were	triangulated	with	quantitative	data	on	audience	characteristics	to	further	explore	
preferences	for	festival	formats	(Fogg-Rogers	et	al.	2017).	
Sampling	technique	and	sample	size	3.8.
Amongst	the	sampling	techniques	employed	in	the	studies,	were:	convenience	sampling	(7	studies),	
random	sampling	(5),	systematic	sampling	(2)	and	cluster	sampling	(1).	Sample	sizes	ranged	from	20	
to	1179	(382	mean;	256	median)	and	4	studies	have	a	sample	size	under	100	participants.	
Discussion	4.
Contexts	of	use	4.1.
‘Festivals’	are	events	designed	to	appeal	to	a	variety	of	audiences	by	combining	science	with	fun	and	
entertainment	(Rose	et	al.	2017).	They	aim	to	enable	communication	and	connection	with	
audiences,	foster	positive	attitudes	toward	science,	educate	participants	and	build	relationships	
between	science	institutions	and	the	community	(Fogg-Rogers	et	al.	2017;	Rose	et	al.	2017).	Science	
festivals	appear	to	be	increasingly	popular,	ranging	from	local	one-off	celebrations	of	science	to	
week-long	national	activities	(Herbolzheimer	and	Featherstone	2014).	Recent	studies	(Jensen	and	
Buckley	2014;	Fogg-Rogers	2017;	Fogg-Rogers	et	al.	2017;	Grand	and	Sardo	2017)	confirmed	that,	
over	recent	years,	science	festivals	have	grown	internationally	in	numbers,	size,	diversity	and	
popularity	as	a	means	for	the	public	to	access	topical	scientific	and	health	issues	and	interact	with	
researchers.	This	event	format	is	reported	to	be	particularly	employed	in	the	UK-with	34	science	
festivals	identified	alone	in	2014	-	(Fogg-Rogers	et	al.	2017)	as	a	key	way	to	start	engagement	with	
the	public	(Fogg-Rogers	et	al.	2017),	with	a	similar	pattern	emerging	in	the	US	(Wiehe	2014).	An	
example	of	a	popular	UK	format,	the	‘Pint	of	Science’,	exported	for	the	first	time	to	Asia	was	
described	by	Robinson	and	colleagues	(2017).	At	the	European	level,	Eusea	,	the	European	Science	
Events	Association,	is	an	international	knowledge-sharing	platform	in	the	field	of	public	engagement	
through	which	it	is	possible	to	follow	changes	and	evolution	of	science	events	on	a	larger	scale	(Riise	
and	Alfonsi	2014).	
Despite	being	increasingly	popular,	existing	research	on	science	festivals	does	not	seem	to	have	
fully	addressed	outcomes,	impacts	and	popularity,	according	to	several	authors	(Jensen	and	Buckley	
2014;	Riise	and	Alfonsi	2014).	Moreover,	studies	have	implied	very	limited	methodologies	and	have	
focused	on	specific,	individual	events,	and	not	on	the	full	experience	of	attending	science	festivals	as	
a	whole	(Jensen	and	Buckley	2014).	One	reason	that	could	be	identified	is	the	fact	that	the	
evaluation	and	evidence-based	development	of	science	festivals	appears	to	be	difficult	since	they	
need	to	be	feasible	and	appropriate	for	time-pressured	practitioners	and	might	be	challenging	to	
prioritise	in	the	fast-paced	and	competitive	field	of	event	production	(Fogg-Rogers	2017).	In
11	
	
addition,	numerous	other	drivers	can	take	precedence,	including	securing	event	funding,	organising	
staff	and	volunteers,	and	the	precarious	short-term	nature	of	science	communication	contracts	or	
volunteering	roles	(Fogg-Rogers	2017).	Moreover,	small,	one-off	events	may	not	have	the	means	to	
carry	out	a	major	evaluation,	and	those	that	do,	mainly	focus	on	issues	of	process	and	organisation	
based	on	immediate,	quick	responses	from	the	public	(Herbolzheimer	and	Featherstone	2014).		
As	described	by	Jensen	and	Buckley	(2014),	most	prior	studies	of	visitor	responses	at	science	
festivals	have	been	practically-oriented	evaluations	of	outputs	and	attendance,	carried	out	by	
festival	organisers	or,	less	frequently,	by	commissioned	external	evaluators.	Very	few	studies,	
according	to	the	same	authors,	have	focused	on	visitors’	views	and	reached	the	quality	threshold	to	
be	published	in	a	peer-reviewed	journal	(Jensen	and	Buckley	2014).		
The	engagement	formats	within	scientific	themed	festivals	are	varied,	ranging	from	more	
traditional	(e.g.	lectures,	discussions,	debates,	local	museum	activities	and	exhibitions)	to	more	
interactive	and	informal	formats	(e.g.	hands-on	activities,	laboratory	workshops,	shows	and	
demonstrations,	interactive	displays,	community	expo,	music	and	art	performances,	theatre,	films	)	
(Jensen	and	Buckley	2014;	Sardo	2016;	Fogg-Rogers	et	al.	2017;	Rose	et	al.	2017)	and	this	
combination	of	communication	methods	appears	necessary	to	engage	multigenerational	audiences	
(Fogg-Rogers	et	al.	2017).		
The	British	scenario	offers	a	variety	of	cases	of	festivals	developed	in	the	recent	years.	The	
Nottingham	Festival	of	Science	and	Curiosity,	the	Northern	Ireland	Science	Festival	and	Bath	Taps	
into	Science	are	three	examples	of	STEM-themed	(Fogg-Rogers	2017).	There	are	also	the	British	
Science	Festivals	(Roche,	Stanley,	and	Davis	2016);	the	Bristol	Bright	Night	2015	(BBN)	as	part	of	the	
European	Researchers’	Night	(Sardo	2016);	the	UK	Cambridge	Science	Festival,	a	large	regional	
university-led	festival	(Jensen	and	Buckley	2014);	and	the	Bristol	Festival	of	Nature	(BFON),	the	UK's	
biggest	celebration	of	the	natural	world	(Herbolzheimer	and	Featherstone	2014).	
Each	of	these	examples	explored	different	aspects:	from	the	feasibility	of	ongoing	evaluations	for	
three	science	festivals	(Fogg-Rogers	2017),	to	the	measurement	of	adults’	engagement	during	an	
interactive	physics	shows	(Roche,	Stanley,	and	Davis	2016),	the	assessment	of	audiences’	
engagement	and	investigation	of	researchers’	motivations,	challenges	and	perceived	value	of	such	
events	(Sardo	2016),	but	also	interests,	motivations	and	self-reported	benefits	of	visitors	interacting	
with	scientific	researchers	(Jensen	and	Buckley	2014)	or	the	effectiveness	of	the	festival	in	engaging	
a	wide	range	of	attendees	with	a	particular	science-related	topic,	namely	nature	conservation	
(Herbolzheimer	and	Featherstone	2014).	
Still	in	the	UK’s	‘vibrant’	science	festival	landscape,	other	studies	evaluated	the	impact	of	science	
activities	presented	in	a	summer	cultural	festival,	the	Latitude	Festival	in	Suffolk	(UK)	(Sardo	and	
Grand	2015;	2016)	and	the	experience	of	visitors	to	a	science	area	of	an	arts	festival,	the	Green	Man	
festival	(Venugopal	and	Featherstone	2014).	The	few	other	examples	outside	of	the	UK	(Quagliata	
2015;	Fogg-Rogers	et	al.	2017;	Keçeci	2017;	Rose	et	al.	2017)	brought	into	discussion	neuroscience	
aspects	within	the	New	Zealand	population	(the	Brain	Day	Auckland;	Fogg-Rogers	et	al.	2017);	or	the	
impact	on	audiences’	perceptions	of	controversial	science	topics,	namely	human	gene	editing,	in	the	
US	population	(the	Wisconsin	Science	Festival;	Rose	et	al.	2017).	Among	these	international	
examples,	two	science	festivals	were	targeted	to	primary	and	secondary	education	(Quagliata	2015;	
Keçeci	2017),	in	one	case	to	promote	STEM-related	career	interests	during	a	university	festival	in	the	
US	(Quagliata	2015)	and,	in	the	second	case,	to	determine	aims	and	learning	attainments	of	Turkish	
students	participating	in	a	science	festival	(Keçeci	2017).
12	
	
Impacts	4.2.
The	impacts	identified	in	the	studies	were	organised	using	impact	categories	proposed	by	the	
evaluation	framework	of	the	National	Science	Foundation5
.	
However,	it	is	important	to	underline	that,	for	this	mechanism,	it	was	found	that	the	impact	
assessments	mainly	rely	on	self-reported	measures	(e.g.	of	interest,	motivation,	knowledge)	and/or	
perceived	benefits	of	the	attendees.	Moreover,	due	to	the	general	voluntary	participation	to	the	
science	festival	events,	the	attitude	towards	science	was	found	to	be	positive	(e.g.	Sardo	2016),	
representing	a	bias	difficult	to	exclude	from	the	overall	evaluation.	These	aspects	are	more	
extensively	discussed	in	paragraph	4.4,	which	report	the	most	significant	weak	points	identified	by	
different	authors	(e.g.	Jensen	and	Buckley	2014;	Fogg-Rogers	2017;	Rose	et	al.	2017).	
4.2.1. Awareness,	knowledge	or	understanding	
As	stated	in	the	introduction	(4.2),	different	authors	(Jensen	and	Buckley	2014;	Sardo	and	Grand	
2015;	Sardo	2016;	Fogg-Rogers	et	al.	2017;	Keçeci	2017;	Rose	et	al.	2017)	have	described	self-
reported	beneficial	impacts	on	awareness,	knowledge	and	understanding.	In	more	detail,	Jensen	and	
Buckley	(2014)	found	clear	evidence	of	self-reported	benefits	of	attendance	in	a	UK	science	festival	
in	the	domain	of	improved	knowledge	and	understanding	for	a	majority	of	web-based	survey	
respondents.	They	also	affirmed	that	‘while	knowledge	acquisition	is	an	important	benefit	of	science	
festival	attendance	for	some,	the	opportunity	to	encounter	science	in	an	‘exciting’	or	‘inspiring’	
context	is	a	much	more	commonly	perceived	benefit	of	attendance’	(Jensen	and	Buckley	2014).	
Positive	effects	on	knowledge	acquisition	were	observed	throughout	a	health	science	festival	in	New	
Zealand,	perceived	by	the	audience	as	empowering	in	increasing	their	health	literacy,	especially	
since	it	gave	them	control	over	their	own	and	their	family’s	health	care	(Fogg-Rogers	et	al.	2017).	
Nevertheless,	this	latter	study	did	not	investigate	whether	the	audiences	actually	gained	new	
understanding,	or	whether	subsequent	dialogue	and	discussion	helped	them	to	consolidate	this	
knowledge.	However,	the	authors	stressed	that	‘the	notion	that	knowledge	is	empowering	in	itself	is	
central	to	the	concept	of	scientific	and	health	literacy	as	an	asset:	by	being	able	to	inform	and	
influence	individual	and	community	self-efficacy	and	behaviour’	(Fogg-Rogers	et	al.	2017).	During	
the	Bristol	Bright	Night	2015	science	festival	(Sardo	2016),	more	than	the	80%	of	the	children	
reported	that	they	learnt	something	from	the	activities	they	attended	and	this	was	also	supported	
by	teachers’	feedback.	With	the	same	positive	result,	almost	the	70%	of	participants	to	report	on	
human	gene-editing	indicated	an	increased	understanding	of	the	complexities	of	this	topic,	
demonstrated	by	a	gain	in	knowledge	but	also	moral	acceptability	of	technology	(Rose	et	al.	2017).	
Audiences	increased	their	perceptions	of	both	risks	and	benefits	of	the	technology,	probably	as	a	
result	of	an	acquired	familiarity	or	comfort	with	the	topic	(Rose	et	al.	2017).	Students’	learning	
attainments	in	achieving	new	knowledge,	expanding	their	perspectives	of	science,	learning	about	
the	uses	of	technology	and	using	the	information	in	daily	life	were	revealed	by	the	study	of	Keçeci	
(2017)	as	a	result	of	primary	and	secondary	pupils	participating	to	a	science	festival	in	Turkey.	
Moreover,	students	created	awareness	within	the	society	with	the	information	they	received	during	
																																																													
5
	Friedman,	AJ,	Allen,	S,	Campbell,	PB,	Dierking,	LD,	Flagg,	BN,	Garibay,	C,	Korn,	R,	Silverstein,	G	and	Ucko,	DA.	“Framework	
for	evaluating	impacts	of	informal	science	education	projects.	Report	from	a	National	Science	Foundation	Workshop”	
(2008):	114.	http://www.informalscience.org/sites/default/files/Eval_Framework.pdf
13	
	
the	science	festivals	and	they	encouraged	people	to	know	scientific	activities	by	conveying	this	
information	to	the	people	in	their	environment	in	a	clear	and	understandable	way	(Keçeci	2017).	
Finally,	the	evaluation	of	a	science	event	within	a	music	festival	(Sardo	and	Grand	2015)	revealed	
that	participants	learned	something	new	because	it	had	strong	links	to	their	real	life	and	they	
welcomed	the	educational	and	learning	value	of	the	event.	
4.2.2. Engagement	or	interest	
Science	festivals	also	appear	to	produce	a	positive	effect	in	terms	of	engagement	and	interest,	as	
presented	by	different	studies	(Jensen	and	Buckley	2014;	Quagliata	2015;	Sardo	and	Grand	2015,	
2016;	Fogg-Rogers	2017;	Fogg-Rogers	et	al.	2017).	
From	the	pilot	evaluation	of	three	events	in	the	UK	(Fogg-Rogers	2017),	many	respondents	
indicated	a	positive	influence	and	an	increased	motivation	to	learn	about	new	ideas	or	topics	in	
STEM,	although	recognised	having	a	prior	connection	to	STEM	in	some	form.	Similarly,	the	evaluator	
of	another	British	science	festival	(Sardo	2016)	observed	high	levels	of	in-depth	engagement,	as	well	
as	reported	by	the	majority	of	visitors;	the	researchers	involved	in	the	event	were	also	positive	
about	their	experience,	keen	to	participate	in	similar	events	and	particularly	impressed	with	the	
level	of	engagement	and	interest	of	the	visitors	(Sardo	2016).		
Other	significant	self-reported	impacts	of	attending	a	science	festival	were	the	development	of	
increased	interest	and	curiosity	(Jensen	and	Buckley	2014;	Fogg-Rogers	et	al.	2017).	The	on-site	
survey	of	the	UK	Cambridge	Science	Festival	showed,	in	fact,	that	the	self-reported	impact	of	
‘creating	interest’	was	the	most	frequently	reported	by	survey	respondents,	also	connected	to	the	
‘psychological	immediacy	of	the	live,	highly	social,	science	engagement	experience,	which	
distinguishes	science	festivals	from	many	other	science	engagement	contexts’	(Jensen	and	Buckley	
2014).	Likewise,	participants	of	another	health-themed	festival	in	New	Zealand	indicated	a	general	
interest	and	motivation	for	learning,	together	with	a	sense	of	enjoyment	in	the	learning	process,	also	
as	a	result	of	the	interesting	topic	of	neuroscience	(Fogg-Rogers	et	al.	2017).		
In	the	two	studies	(Sardo	and	Grand	2015,	2016)	about	the	Latitude	Festival,	a	UK	music	festival,	
the	authors	observed	a	strong	emotional	response	to	the	events,	which	was	welcomed	as	an	
opportunity	for	personal	reflection	on	their	health	and	well-being	(Sardo	and	Grand	2015)	and	high	
levels	of	enjoyment	and	engagement	with	scientists	and	other	speakers	(Sardo	and	Grand	2016).	
Regarding	the	effects	of	a	science	university	festival	on	young	people,	Quagliata	(2015)	reported	
that	participants’	interests	in	STEM-related	careers	significantly	increased	from	pre-event	to	post-
event.	
4.2.3. Attitude	
Changes	in	attitude	to	science	were	also	observed:	Sardo	(2016)	described	that	audiences	of	Bristol	
Bright	Night	self-reported	a	positive	change,	while	on	the	topic	of	nature	conservation,	
Herbolzheimer	and	Featherstone	(2014)	commented	that	visitors	of	the	festival	felt	positive,	
encouraged	and	inspired.	Likewise,	a	positive	attitude	toward	knowledge	and	nature	was	
documented	in	secondary	school	and	high	school	students	participating	in	science	festivals	in	Turkey	
(Keçeci	2017)	whereas,	in	the	US,	findings	suggested	that	the	university	festival,	in	addition	to
14	
	
stimulating	interest	in	STEM-related	topics,	empowered	youth	to	see	themselves	as	innovators	and	
creators	(Quagliata	2015).	
4.2.4. Behaviour	
In	the	pilot	evaluation	reported	by	Fogg-Rogers	(2017),	many	respondents	of	the	three	UK	science	
festivals	indicated	that	they	would	take	positive	action	to	continue	the	experience	of	attending	
science	festivals	and/or	convince	others	to	do	the	same.	As	a	result	of	the	experience	of	
Herbolzheimer	and	Featherstone	(2014)	aimed	to	engage	the	public	in	nature	conservation,	the	
authors	indicated	a	possible	deeper	long-term	behavioural	change	because	many	visitors	claimed	to	
be	already	adopting	pro-environmental	behaviours	before	their	festival	visit.	
4.2.5. Skills	
In	his	experience	with	Reader’s	Theatre,	Guzielek	(2013)	observed	an	increasing	overall	reading	
fluency	among	primary	school	students	that	participated	in	the	designed	intervention.	
4.2.6. Others	
Varied	other	impacts	were	observed	in	numerous	studies	(Quagliata	2015;	Sardo	and	Grand	2015,	
2016;	Fogg-Rogers	2017;	Fogg-Rogers	et	al.	2017).	The	science	festival	experience	produced	a	sense	
of	entertainment	in	the	attendants	to	three	UK	festivals	(Fogg-Rogers	2017),	enjoyment	in	learning	
about	neuroscience	in	New	Zealand	(Fogg-Rogers	et	al.	2017)	and	in	participating	in	science	activities	
offered	in	a	music	festival	in	the	UK	(Sardo	and	Grand	2015).	Emotional	values	of	pleasure,	novelty,	
and	desire	for	knowledge	were	also	offered	when	attending	science-based	events	at	a	British	
summer	cultural	festival	(Sardo	and	Grand	2016)	and	a	sense	of	fun	in	young	people	joining	a	STEM-
themed	festival	in	the	US	(Quagliata	2015).	Participants’	gained	confidence	when	discussing	and	
interacting	with	health	professionals	or	scientists	as	a	result	of	the	information	they	acquired	during	
the	event	of	the	‘Brain	Day	Auckland’	in	New	Zealand,	where	the	event	was	also	relevant	to	the	
participants’	career	path	or	job	(Fogg-Rogers	et	al.	2017).	
Strengths	4.3.
Science	festivals	are	events	that	can	provide	the	public	with	information	and	conceptual	tools	to	
understand	scientific	developments	in	a	diversity	of	subject	areas	and	public	engagement	formats,	
with	characteristics	of	immediacy	and	interactivity	(Jensen	and	Buckley	2014).	Moreover,	they	
provide	opportunities	for	social	interaction,	learning	and	accessing	scientific	research	as	a	unique	
combination	not	offered	by	other	science	engagement	settings	(Jensen	and	Buckley	2014).	In	fact,	
science	festivals	are	frequently	described	as	having	‘unique’	features	(e.g.	Jensen	and	Buckley	2014;	
Wiehe	2014;	Fogg-Rogers	et	al.	2017;	Rose	et	al.	2017)	both	in	the	way	that	each	festival	is	different	
from	year	to	year	and	also	different	from	other	festivals	(Wiehe	2014).	Festivals	also	provide	a	
particular	context	that	brings	together		diverse	cultural	appeal,	excitement	or	‘buzz’	(including	open	
days,	performances,	talks	and	activities)	with	the	unusual	opportunity	for	the	public	to	interact	with	
active	scientific	researchers	and	experience	a	wide	range	of	different	science	engagement	activities,
15	
	
alongside	more	conventional	methods	of	science	communication	(e.g.	the	ones	in	science	museums,	
science	centres	and	scientists’	presentations	in	schools)	(Jensen	and	Buckley	2014).	As	an	example,	
in	the	intervention	described	by	Fogg-Rogers	and	colleagues	(2017)	about	a	science	festival	in	New	
Zealand	focused	on	neuroscience	topics,	‘lectures’	were	the	format	for	three	consecutive	years	that,	
irrespective	of	age–group	or	gender,	were	significantly	ranked	as	the	main	attraction,	most	highly	
attended	and	most	useful	format,	because	they	provided	practical	advice	and	information	on	health	
disorders	that	built	on	experiential	knowledge.	In	the	same	event,	it	was	also	observed	that	
discussions	and	science	laboratory	experiments	were	the	formats	most	purposefully	not	attended	by	
older	age-groups,	but	by	participants	aged	0	to	18	years	and	35	to	49	years	(Fogg-Rogers	et	al.	2017).	
Of	course,	it	is	important	to	frame	this	reference	in	the	context	of	this	specific	festival	and	that	
audience	preferences	encountered	in	this	study	may	not	be	valid	for	other	topics	(Fogg-Rogers	et	al.	
2017).	In	two	other	examples	(Jensen	and	Buckley	2014;	Sardo	2016),	for	instance,	the	availability	of	
family-friendly	activities	such	as	‘hands-on’	activities	was	positively	valued	by	the	visitors	of	a	
summer	music	festival	(Jensen	and	Buckley	2014)	while,	conversely,	feedback	from	the	Bristol	Bright	
Night	2015	showed	that	although	some	visitors	would	have	welcomed	more	interactive	activities,	
traditional	engagement	formats	such	as	lectures	and	talks	remained	popular	with	some	audiences	
(Sardo	2016).	
From	a	researcher	viewpoint,	science	festivals	can	also	offer	an	interesting	and	relevant	
environment	to	elucidate	audience	preferences	for	engagement,	as	they	feature	a	breadth	of	
formats	offering	a	range	of	engagement	and	learning	styles	(Fogg-Rogers	et	al.	2017).	
It	is	important	to	further	stress	the	unique	features	of	science	festivals,	i.e.	their	potential	of	
interaction	in	distinctive	ways	than	other	public	engagement	events	(Rose	et	al.	2017)	do	not	give,	
for	example,	providing	opportunities	for	the	public	to	engage	on	a	volunteer	basis	and	critically	
discuss	scientific	developments	with	scientists,	science	educators	and	communicators	and	other	
citizens	(Jensen	and	Buckley	2014;	Rose	et	al.	2017).	In	fact,	festivals	have	been	shown	to	be	
increasingly	employed	by	scientists	to	disseminate	research	findings	and	encourage	public	dialogue	
(Fogg-Rogers	et	al.	2017)	and	the	opportunity	to	be	face-to-face	with	members	of	the	public	seems	
to	be	valued	by	both	the	audience	and	the	researchers	involved	(Sardo	2016).	As	observed	by	Fogg-
Rogers	and	colleagues	(2017)	in	their	evaluation	of	a	science	festival	in	the	field	of	neuroscience,	the	
presence	of	researchers	met	the	desire	of	participants	to	hear	first-hand	information	and	opinions	
from	experts	in	the	field,	learn	directly	from	the	people	undertaking	research	and	discover	the	latest	
cutting-edge	developments	in	the	field	within	a	socially	stimulating	and	enjoyable	setting.	The	article	
by	Wiehe	(2014)	also	reported	that	STEM	practitioners	involved	in	science	festivals	increased	their	
confidence	in	interacting	with	public	audiences	and	encouraged	them	to	participate	in	other	
informal	science	education	projects	throughout	the	rest	of	the	year.	
In	the	case	of	a	science	festival	in	the	US	aimed	to	promote	STEM-related	careers	in	young	
people,	the	event	created	opportunities	for	the	participants	to	have	personal	face-to-face	
conversations	with	college	students	whom	they	regarded	as	positive	role	models	and	helped	them	
make	the	connection	between	subjects	taught	in	school	and	other	familiar	surroundings,	as	well	as	
offer	new	career	paths	(Quagliata	2015).		
Taking	these	elements	together,	science	festivals	appear	to	offer	an	exceptional	environment	for	
science	communication,	providing	multiple	levels	of	engagement	where	audiences	can	choose	how	
much	and	when	they	interact	with	science	and	scientists	(Fogg-Rogers	et	al.	2017).	Unlike	other	
events,	science	festivals	also	expose	individuals	to	numerous	scientific	topics	in	just	one	visit,	
providing	many	opportunities	for	broad	public	engagement	concerning	multiple	scientific	topics
16	
	
(Rose	et	al.	2017).	As	observed	by	Jensen	and	Buckley	(2014),	the	results	from	their	focus	in	a	British	
summer	festival	highlighted	the	special	role	of	the	event,	which	was	perceived	as	creating	stronger,	
more	memorable	impressions	by	virtue	of	its	status	as	a	time-limited	‘live	event’.	Along	with	the	
time-limited	nature,	the	location	of	science	festivals	can	also	play	an	important	role.	In	the	case	of	
outdoor	summer	festivals,	for	example	in	the	case	of	a	‘festival-in-a-field’	(held	in	a	wholly,	but	
temporarily,	dedicated	venue,	e.g.	a	farm),	participants	are	physically	isolated,	camping	on-site,	with	
access	and	egress	tightly	controlled.	This	isolation	can	accentuate	the	sense	of	leisure,	differently	
from	the	style	of	‘urban	festivals’	(multiple	permanent	and	temporary	venues,	e.g.	in	a	town	or	city	
center)	where	participants	remain	in	the	normal	urban	social	environment,	attending	events	and	
going	home	afterwards	(Sardo	and	Grand	2016).	However,	especially	in	the	latter	case,	when	events	
are	held	in	mainstream	cultural	venues	or	generic	venues	(e.g.	bar,	library),	they	can	provide	an	
opportunity	to	reach	audiences,	who	may	not	automatically	identify	as	being	interested	in	science,	
and	connect	with	individuals,	who	may	not	have	initially	sought	out	a	science-based	topic	(Fogg-
Rogers	2017).		
Last	but	not	least,	science	festivals	situate	science	in	society	as	a	valuable	cultural	interest	and	
part	of	community	life	(Fogg-Rogers	2017),	where	science	is	not	separated	from	mainstream	culture	
(Sardo	and	Grand	2016),	generating	a	strong	sense	of	community	and	a	celebratory	feeling	
(Herbolzheimer	and	Featherstone	2014).	Moreover,	they	provide	an	outlet	for	people	interested	in	
or	connected	to	STEM	to	celebrate	science	with	others,	as	an	aspect	of	their	identity,	reinforcing	
people’s	interest	as	a	valuable	contribution	to	society	and	connecting	them	into	the	wider	
community	(Fogg-Rogers	2017).	
Weaknesses	4.4.
Some	drawbacks	of	science	festivals	are	associated	with	the	fact	that	science	festivals	can	intercept	
audiences	depending	on	the	location	of	the	venue	(e.g.	bar,	library,	farm)	and	on	timing	(i.e.	time	of	
the	year)	and	weather	conditions	(Sardo	and	Grand	2015;	Fogg-Rogers	2017)	and	duration	of	the	
event.	Particularly	regarding	this	last	aspect,	festival	celebrations	are	inevitably	ephemeral:	they	may	
refresh	content,	change	partners	and	venues,	and	reinvent	their	structures	from	year	to	year	(Wiehe	
2014).	Moreover,	the	time-limited	experience	might	not	be	sufficient	for	people	to	see	everything	
presented	in	the	festival;	however,	transience	is	one	of	festivals’	defining	characteristics	and,	if	
events	are	held	more	frequently,	it	would	be	difficult	task	to	induce	and	sustain	the	same	sense	of	
occasion	and	excitement	(Sardo	2016).	
On	the	organisational	aspects,	the	need	for	encouragement,	support	and	training	of	the	
researchers	for	their	participation	in	science	festival	activities	was	emphasized	in	the	literature	
(Sardo	2016;	Fogg-Rogers	2017),	as	well	as	other	practical	features	like	signage,	description	of	the	
activities,	capacity	(e.g.	rooms)	and	arrangement	(e.g.	stage,	screen	chairs)	(Sardo	and	Grand	2015).	
Finally,	the	evaluation	of	science	festivals	can	be	time-consuming,	can	distract	the	participants	from	
the	festival	experience	(Fogg-Rogers	2017)	and	‘choosing	appropriate	methods	that	will	enable	an	
evaluation	to	meet	its	objectives	is	not	always	straightforward,	given	the	subtle	interplay	of	
objectives,	communication	medium,	and	audiences’	(Grand	and	Sardo	2017).	However,	as	
introduced	previously	(paragraph	4.2),	there	are	substantial	underlying	weaknesses	in	the	
methodologies	and	evaluations	of	science	festivals	that	need	to	be	considered.	As	summarised	in	the	
work	of	Rose	and	colleagues	(2017):	theoretically	and	methodologically	sound	research	and
17	
	
evaluative	efforts	on	the	reach,	outcomes	and	impact	of	public	engagement	practices	lag	behind,	
despite	the	increasing	prevalence	of	public	engagement	events	for	science-related	issues;	specific	
goals	of	these	events	are	often	unclear,	and	the	impact	of	such	events	on	participants’	knowledge	
and	attitudes	has	not	yet	clearly	been	established;	the	potential	impacts	of	a	specific	engagement	
activity	are	highly	dependent	on	the	context	in	which	it	occurs,	including	the	audience	(potential	and	
actual)	and	the	stated	goals	of	the	event.	In	fact,	the	variegated	context	of	science	festivals	raises	a	
number	of	methodological	challenges	such	as:	collecting	data	from	a	transitory	visitor	population	in	
a	crowded	informal	context;	designing	survey	questions	that	can	accommodate	feedback	on	a	broad	
range	of	public	engagement	activities;	and	analysing	the	diversity	of	feedback	on	these	multi-faceted	
experiences	(e.g.	not	all	respondents	may	have	been	exposed	to	the	same	experience)	in	a	way	that	
allows	common	patterns	to	emerge	(Jensen	and	Buckley	2014).		
Many	authors	(Jensen	and	Buckley	2014;	Fogg-Rogers	et	al.	2017;	Rose	et	al.	2017)	observed	the	
following	aspects:	there	is	the	possibility	of	bias	within	the	results	of	a	study	when	participants	may	
have	already	been	interested	in	or	knowledgeable	about	the	topic	addressed	in	the	event	or	when	
efforts	are	based	on	participant	self-reports	after	the	event	or	inferred	based	on	event-generated	
reports	or	recommendations	(Rose	et	al.	2017)	since	participants	who	completed	the	survey	may	be	
the	most	opinionated	or	literate	and	may	not	be	a	true	reflection	of	the	entire	population	(Fogg-
Rogers	et	al.	2017).	Additionally,	there	is	a	limiting	validity	and	over-reliance	of	visitors’	responses	to	
science	festivals	using	only	closed-ended	response	as	these	do	not	allow	for	a	detailed	
understanding	of	processes	of	visitor	reception	of	science	festival	events	(Jensen	and	Buckley	2014);	
visitors	may	have	adapted	their	answers	in	an	attempt	to	please	the	interviewer	(Herbolzheimer	and	
Featherstone	2014);	and	survey	methods	that	allow	individuals	to	self-select	into	a	study,	such	as	
feedback	forms	or	comment	boxes,	may	oversample	those	who	felt	they	experienced	an	extreme	
effect	from	engagement	activities	(Rose	et	al.	2017).	Related	to	this	last	aspect,	at	multi-venue	
events	people	can	be	over-sampled,	as	evaluators	in	one	location	cannot	easily	know	to	whom	
evaluators	at	another	have	spoken.	This	can	be	mitigated	by,	for	example,	giving	interviewees	a	
small	sticker	to	attach	to	their	clothing;	a	simple	signal	that	they	have	been	interviewed	(Grand	and	
Sardo	2017).	
Moreover,	to	better	understand	science	festivals	and	their	potential	outcomes,	it	would	be	
important	to	understand	who	attends	these	events:	a	homogeneous	public	does	not	exist;	rather,	
what	comprises	‘the	public’	is	a	complex	web	of	groups	with	differing	backgrounds,	cultural	
experiences,	political	ideologies,	religious	beliefs,	and	types	and	levels	of	knowledge	(Rose	et	al.	
2017).	‘Each	group	and	individual	hold	different	beliefs	about	the	role	of	science	in	their	lives	and	
requires	different	methods	of	learning,	understanding,	and	engaging	with	science.	As	such,	public	
engagement	activity	organizers	must	approach	each	group	differently	to	achieve	a	specific	goal.	
Without	appropriate	knowledge	of	the	attending	audiences,	organizers	are	in	‘danger	of	aiming	at	
everybody	and	reaching	nobody’’	(Rose	et	al.	2017).	
Another	element	that	should	be	taken	into	account	when	evaluating	the	role	of	science	festivals	
is	their	potential	to	reinforce	an	unrealistic	vision	of	science,	meaning,	for	example,	that	the	
motivations	of	the	volunteer	scientists	participating	in	the	festival	tend	to	be	on	the	side	of	
persuading	people	that	science	is	an	enjoyable	and	worthwhile	activity	and,	the	ways	in	which	this	
message	is	conveyed	and	the	enjoyment-centric	context	of	the	event,	may	frame	science	
inaccurately	(Jensen	and	Buckley	2014).	The	same	authors	(Jensen	and	Buckley	2014)	further	state	
that	‘scientific	practice	is	by	and	large	a	matter	of	painstaking	labour,	and	this	aspect	of	science	is	
heavily	downplayed	in	the	science	festival	context	in	order	to	maintain	the	focus	on	enjoyment	that
18	
	
most	institutions,	including	television	and	museums,	see	as	essential	for	gaining	and	maintaining	a	
broad	public	audience’.	
Compared	to	other	types	of	public	engagement	with	science	events,	science	festivals	appear	as	a	
new	field	and	limited	peer-reviewed	research	has	addressed	or	evaluated	public	engagement	efforts	
occurring	at	these	events	(Rose	et	al.	2017).	Evaluation	mechanisms	are	essential	for	data-driven	
decision-making	about	the	future	of	science	festivals	and	their	role	in	public	engagement	with	
science	(Rose	et	al.	2017);	little	is	known	even	about	why	the	public	visit	such	festivals	and	what	they	
believe	they	gain	from	them	(Jensen	and	Buckley,	2014).	Support	and	tools	appear	to	be	needed	to	
improve	both	event	organisers	practice	and	the	science	festival	experience	for	audiences	(Fogg-
Rogers	2017).	
Costs	and	feasibility	4.5.
As	previously	noted,	science	festivals	normally	offer	a	wide	range	of	potential	experiences	within	a	
time-limited	context.	One	consequence	of	this	temporality	is	that	investments	may	be	made	
activities	that	would	be	hard	to	sustain	for	longer	periods	(Jensen	and	Buckley,	2014).	Many	science	
festivals	have	high	levels	of	intensive	volunteer	participation	by	scientists,	university	students,	
technologists	and	engineers	and	the	number	and	scope	of	the	involvement	of	this	volunteer	
scientific	expertise	plays	a	key	role	in	positive	visitor	impacts	(Jensen	and	Buckley,	2014).	Many	
science	events	face	increasing	funding	challenges	for	several	reasons,	from	general	cuts	in	corporate	
sponsorship	to	the	lack	of	solid	evidence	of	conclusive	impact	from	the	events	(Riise	and	Alfonsi	
2014).	
From	the	participant	perspective,	attending	a	festival	can	be	expensive	(Sardo	and	Grand	2016).	
In	a	‘festival-in-a-field’	typology,	a	dull	or	unenjoyable	event	can	be	seen	as	merely	a	waste	of	time,	
while	in	an	urban	festival,	it	can	be	seen	as	a	waste	of	both	time	and	money,	with	inevitable	effects	
on	participants’	attitudes	to	the	events	(Sardo	and	Grand	2016).	Wiehe	(2014);	others	stressed	the	
importance	of	a	synergy	and	support	between	festival	organisers	and	the	different	collaborators	
(e.g.	founding	institutions,	universities).	
Suggestions	for	improved	methodologies	and	for	future	studies	4.6.
The	observations	formulated	in	paragraph	4.4	already	offer	some	considerations	for	improved	or	
new	methodologies.	Particularly,	three	project	reports	(Sardo	and	Grand	2016;	Sardo	2016;	Fogg-
Rogers	2017)	provide	guides	to	evaluation	(toolkit)	or	practical	suggestions	(Sardo	and	Grand	2015)	
to	help	practitioners	wishing	to	assess	the	impact	of	their	public	science	engagement	activities.	In	
this	context,	the	recent	article	by	Grand	and	Sardo	(2017)	is	particularly	useful	in	drawing	on	their	
experience	of	evaluating	informal	events	in	the	field.	
In	selecting	evaluation	methods,	Fogg-Rogers	(2017)	suggested	that	care	must	be	taken	to	assess	
the	reliability	and	validity	of	the	tests	used,	but	also	the	feasibility	of	sampling	and	data	analysis.	
Some	methods	of	evaluation	may	be	in	fact	more	rigorous	and	it	may	not	be	possible	to	apply	them	
within	the	time	and	funding	constraints	of	many	festival	environments.	Moreover,	evaluation	and	
reflective	practice	methods	need	to	be	quick	and	easy	to	conduct,	adapted	for	each	audience	and	
situation,	and	practitioners	will	need	to	take	both	rigour	and	feasibility	of	methods	into	account	
(Fogg-Rogers	2017).	Moreover,	the	informality	of	the	events	and	venues	in	festivals	should	be
19	
	
reflected	in	the	use	of	unobtrusive	and	minimally	disruptive	evaluation	methods	(Grand	and	Sardo	
2017).	
A	common	feature	of	the	studies	analysed,	across	different	festivals	and	event	styles,	is	the	
combined	use	of	different	methods	to	help	with	the	triangulation	of	data	(e.g.	Jensen	and	Buckley,	
2014;	Sardo	and	Grand	2016;	Fogg-Rogers	2017;	Fogg-Rogers	et	al.	2017).	Methodological	
triangulation,	in	fact,	compensates	for	the	strengths	and	weaknesses	inherent	in	any	one	data	
collection	method	by	using	overlapping	methods	on	the	same	topic	(Jensen	and	Buckley,	2014)	to	
capture	the	audience’	and	presenters’	perspectives	(Sardo	and	Grand	2016).	These	methods	include,	
for	example:	snapshot	interviews;	focus	groups;	questionnaires	with	audience	members	(e.g.	on-
site,	available	for	self-completion	in	the	festival	venue	or	online,	incorporated	into	the	event	booking	
form,	or	by	using	snapshot	interviews	at	events	to	gather	email	data	for	follow-up	online	
questionnaires;	Fogg-Rogers	2017);	comment	cards;	phone	interviews	(Sardo	and	Grand	2016);	
observations	for	practitioners	at	events	(e.g.	to	verify	the	sampling	undertaken	with	the	snapshot	
interviews	and,	as	observation	feedback,	to	verify	if	the	interview	sample	was	a	representative	
cross-section	of	the	audience);	reflective	practice	form	(e.g.	about	festival	aims,	audiences	and	
events)	for	event	organisers	and	semi-structured	interviews	conducted	with	organisers	(Fogg-Rogers	
2017)	or	autonomous	methods	like	graffiti	walls	(to	include	a	wider	range	of	participants,	including	
children,	as	it	offers	the	option	of	drawing	if	writing	skills	are	limited;	Herbolzheimer	and	
Featherstone	2014;	Grand	and	Sardo	2017)	and	feedback	cards	(designed	cards	with	
questions/prompts	on	one	side	and	the	other	side	left	blank	for	responses;	Grand	and	Sardo	2017)	
that	will	help	to	ensure	the	atmosphere	of	the	event	is	unaffected	and	the	disruption	to	participants’	
enjoyment	is	minimized	(Grand	and	Sardo	2017).		
Among	all	the	methods	presented,	snapshot	interviews	were	found	to	be	the	most	effective	
method	to	sample	audiences	at	events	(e.g.	Herbolzheimer	and	Featherstone	2014;	Sardo	and	Grand	
2015,	2016;	Fogg-Rogers	2017)	and	capture	lively	and	immediate	feedback	(Grand	and	Sardo	2017),	
since	it	is	very	difficult	to	get	audiences	to	sit	down	and	find	quiet	spaces	to	conduct	either	a	focus	
group	or	a	questionnaire.	Snapshot	interviews	are	also	easy	to	conduct,	quick	to	complete,	and	
relatively	fast	to	transcribe	and	analyse	(Fogg-Rogers	2017).	They	last	between	ninety	seconds	and	
two	minutes,	using	a	small	number	of	consistent,	clear	and	structured	questions	that	allow	rapid	
answers,	to	capture	short	and	immediate	feedback	from	participants	in	busy	locations	(Sardo	and	
Grand	2015).	Snapshot	interviews	fit	the	informal	and	relaxed	atmosphere	of	festivals	where	people	
welcome	the	opportunity	for	conversations	with	new	people,	can	be	used	with	a	variety	of	settings	
and	audiences	and	combined	with	observations	(Grand	and	Sardo	2017).		
In	reference	to	what	was	reported	by	Rose	and	colleagues	(2017)	(paragraph	4.4)	with	regard	to	
knowing	the	attending	audience	in	their	experience	of	the	Wisconsin	Science	Festival,	their	study	
adopted	two	surveys	based	on	a	randomization	procedure	to	enabled	the	surveyors	to	obtain	a	
more	accurate	and	representative	sample	of	the	festival	audience:	one	for	the	festival	attendees	
(using	a	random	intercept	design)	and	a	second	for	the	Wisconsin	residents	(a	state-representative	
mailed	survey,	addressed	to	randomly	selected	residents)	as		baseline	data.	The	techniques	and	
methodologies	to	gather	data	in	this	study	were	suggested	to	hold	the	potential	to	be	adapted	and	
employed	during	other	events,	with	the	study	variables	providing	a	starting	point	for	other	
researchers	to	build	assessments	of	their	own	science	event	activities	(Rose	et	al.	2017);	‘only	by	
securing	baseline	data	and	checking	if	current	goals	are	being	met,	can	future	work	be	improved	to	
reach	new	audiences	beyond	those	most	commonly	self-selected	to	attend	science	festivals’	(Rose	
et	al.	2017).	On	this	aspect,	pre-visit	and	post-visit	data	on	the	same	visitors	might	also	allow
20	
	
comparison	and	direct	measures	of	impact	instead	of	on-site	survey	data	collected	from	visitors	at	
only	one	point	in	time	(Jensen	and	Buckley	2014).	
In	addition,	Rose	and	colleagues	(2017)	suggested	that	additional	research	has	found	that	the	
most	‘successful’	science	festival	events,	in	terms	of	reaching	and	impacting	audiences	beyond	those	
inherently	interested	in	science	or	the	particular	topic	of	interest,	is	to	target	a	subpopulation	or	one	
‘public’	instead	of	a	wide	range	of	‘publics’	that	may	not	be	inherently	interested	in	science	(Rose	et	
al.	2017),	whereas	other	authors	(Sardo	and	Grand	2016)	proposed	that,	to	engage	with	a	wider	and	
more	diverse	audience,	new	approaches	and	different	types	of	venues	must	be	explored,	such	as	
‘generic	venues’	or	‘unusual	places’,	e.g.	cafés,	parks,	squares,	streets,	shopping	centers,	where	
members	of	the	public	naturally	congregate	for	leisure	(Riise	and	Alfonsi	2014;	Sardo	and	Grand	
2016).	
To	conclude,	future	research	should	also	consider	the	longer-term	impact	of	science	festivals,	
which	hold	the	key	to	understanding	informal	science	engagement’s	role	in	people’s	lives	and	can	
help	assess	the	relative	contribution	of	informal	science	engagement	to	the	development	of	a	
healthy	relationship	between	science	and	society	(Jensen	and	Buckley,	2014).	
Conclusions	and	overview	5.
Science	festivals	appear	to	be	a	valuable	environment	for	public	engagement	with	science	(e.g.	
Venugopal	and	Featherstone	2014)	which	is	gaining	in	interest	and	international	popularity,	
particularly	in	the	UK	(Table	5).	
This	event	format	differs	from	activities	provided,	for	example,	by	science	museums	and	centres	
because	of	its	temporary	nature,	the	focus	on	current	scientific	research	and	the	interactive	
dimension	with	researchers.	Rather	than	being	targeted	on	specific	topics,	science	festivals	appear	
to	be	mainly	employed	to	deliver	broad	scientific	contents	(Table	4)	to	the	general	population	(Table	
6)	and	to	be	embedded	in	programmatic	events,	usually	developed	from	the	synergy	of	different	
types	of	organisations	(Table	7).		
Science	festivals	can	provide	a	wide	range	of	activities	in	different	formats,	from	more	traditional	
(e.g.	lectures,	discussions)	to	interactive	ones	(e.g.	hands-on	activities,	shows)	(Jensen	and	Buckley	
2014;	Sardo	and	Grand	2015;	Rose	et	al.	2017).	They	are	therefore	unique	in	different	ways	since	
they	enable	varying	levels	of	engagement	and	learning	styles	to	take	place	at	the	same	time,	
meeting	audience	requirements	through	a	variety	of	formats,	interactions	and	communications	
(Fogg-Rogers	et	al.	2017).	Therefore,	they	can	provide	participants	with	multifaceted	non-formal	and	
informal	science	education	contexts,	and	also	offer	leisure	experiences,	enabling	learning	for	fun	
(Fogg-Rogers	et	al.	2017).	An	interesting	opportunity	provided	by	festivals	is	the	possibility	for	
members	of	the	public	to	directly	interact	and	engage	with	scientists,	researchers	or	community	
experts	(e.g.	Jensen	and	Buckley	2014;	Sardo	2016;	Fogg-Rogers	et	al.	2017;	Rose	et	al.	2017)	on	
contemporary	scientific	research	(Jensen	and	Buckley	2014).	Researchers’	presence	and	proactivity	
are	key	elements	for	a	successful	event	(Wiehe	2014;	Sardo	2016).	
Science	festivals	also	hold	potential	for	their	cultural	and	community	dimension:	they	are	venues	
for	the	cultural	celebration	of	science	(Venugopal	and	Featherstone	2014;	Sardo	and	Grand	2016)	
and	they	provide	the	platform	for	sharing	knowledge,	interests	and	experiences	as	a	community.	
Although	the	time-limited	feature	of	these	events	can	be	considered	a	disadvantage,	it	is	also	a	
factor	that	makes	them	a	special	and	unique	experience	(Jensen	and	Buckley	2014).	As	Grand	and
21	
	
Sardo	(2017)	observed,	‘public	engagement	with	science	increasingly	happens	in	informal	spaces,	as	
part	of	wider	cultural	activity,	free-form,	and	flowing’.	Successful	evaluation	requires	that	methods	
be	adapted	to	suit	the	environment	(Grand	and	Sardo	2017)	and	this	seems	one	of	the	major,	if	not	
the	major	challenge.
22	
	
APPENDIX	A:	Example	of	data	input	mask
23	
	
	
	
Extracted	from:	
Nicklas,	Theresa,	Sandra	Lopez,	Yan	Liu,	Rabab	Saab,	and	Robert	Reiher.	“Motivational	Theater	to	
Increase	Consumption	of	Vegetable	Dishes	by	Preschool	Children.”	International	Journal	of	
Behavioral	Nutrition	and	Physical	Activity	14	(February	7,	2017):	16.	https://doi.org/10.1186/s12966-
017-0468-0.
24	
	
APPENDIX	B:	Selected	bibliography	
	
Impact	assessment	
	
Fogg-Rogers,	L.,	and	UK	Science	Festival	Network.	“UK	Science	Festival	Network	Pilot	Evaluation	
2017.”	Project	Report.	Bristol,	Uk:	Science	Communication	Unit,	2017.	
http://eprints.uwe.ac.uk/33602.	
Fogg-Rogers,	Laura,	Jacquie	L.	Bay,	Hannah	Burgess,	and	Suzanne	C.	Purdy.	“‘Knowledge	Is	Power’:	A	
Mixed-Methods	Study	Exploring	Adult	Audience	Preferences	for	Engagement	and	Learning	
Formats	Over	3	Years	of	a	Health	Science	Festival.”	Science	Communication	37,	no.	4	(2015):	
419–51.	https://doi.org/10.1177/1075547015585006.	
Herbolzheimer,	Maya,	and	Helen	Featherstone.	“Popularising	Nature:	An	Evaluation	of	the	
Effectiveness	of	the	2009	Bristol	Festival	of	Nature	in	Engaging	with	a	Wide	Range	of	Attendees	
in	Nature	Conservation.”	UWE	Science	Communication	Postgraduate	Papers	2	(2014):	63–74.	
Jensen,	Eric,	and	Nicola	Buckley.	“Why	People	Attend	Science	Festivals:	Interests,	Motivations	and	
Self-Reported	Benefits	of	Public	Engagement	with	Research.”	Public	Understanding	of	Science	
23,	no.	5	(2014):	557–73.	https://doi.org/10.1177/0963662512458624.	
Keçecı̇,	Gonca.	“The	Aims	and	Learning	Attainments	of	Secondary	and	High	School	Students	
Attending	Science	Festivals:	A	Case	Study.”	Educational	Research	and	Reviews	12,	no.	23	
(December	10,	2017):	1146–53.	https://doi.org/10.5897/	ERR2017.3378.	
Quagliata,	Andrew.	“University	Festival	Promotes	STEM	Education.”	Journal	of	STEM	Education	16,	
no.	3	(September	15,	2015).	https://www.learntechlib.org/p/151967/.	
Roche,	Joseph,	Jessica	Stanley,	and	Nicola	Davis.	“Engagement	with	Physics	across	Diverse	Festival	
Audiences.”	Physics	Education	51,	no.	4	(2016):	045007.	https://doi.org/10.1088/0031-
9120/51/4/045007.	
Rose,	Kathleen	M.,	Kaine	Korzekwa,	Dominique	Brossard,	Dietram	A.	Scheufele,	and	Laura	Heisler.	
“Engaging	the	Public	at	a	Science	Festival:	Findings	From	a	Panel	on	Human	Gene	Editing.”	
Science	Communication	39,	no.	2	(2017):	250–77.	https://doi.org/10.1177/1075547017697981.	
Sardo,	Ana	Margarida,	and	Ann	Grand.	“Science	in	Culture:	Audiences’	Perspective	on	Engaging	With	
Science	at	a	Summer	Festival.”	Science	Communication	38,	no.	2	(2016):	251–60.	
https://doi.org/10.1177/1075547016632537.	
Sardo,	M.	“Evaluation	of	the	Bristol	Bright	Night	2015	(BBN15).”	Project	Report.	Bristol,	Uk:	
University	of	the	West	of	England,	2016.	http://eprints.uwe.ac.uk/28806.	
Sardo,	M.,	A.	Grand,	M.	Sardo,	and	A.	Grand.	“Evaluation	of	the	Wellcome	Trust	Strand	at	the	
Latitude	Festival	2015.”	Report	or	Working	Paper,	September	30,	2015.	
http://eprints.uwe.ac.uk/27685/.	
Venugopal,	Sarah,	and	Helen	Featherstone.	“Einstein’s	Garden:	An	Exploration	of	Visitors’	Cultural	
Associations	of	a	Science	Event	at	an	Arts	Festival.”	UWE	Science	Communication	Postgraduate	
Papers	2	(2014):	75–83.
25	
	
Descriptive	resources	
	
Grand,	Ann,	and	Ana	Margarida	Sardo.	“What	Works	in	the	Field?	Evaluating	Informal	Science	
Events.”	Frontiers	in	Communication	2	(2017).	https://doi.org/10.3389/fcomm.2017.00022.	
Riise,	Jan,	and	Leonardo	Alfonsi.	“From	Liquid	Nitrogen	to	Public	Engagement	and	City	Planning:	The	
Changing	Role	of	Science	Events.”	JCOM:Journal	of	Science	Communication	13,	no.	4	(2014).	
https://jcom.sissa.it/archive/13/04/JCOM_1304_2014_C01/JCOM_1304_2014_C03.	
Robinson,	Matthew	T.,	Nattapat	Jatupornpimol,	Sandy	Sachaphimukh,	Maria	Lönnkvist,	Andrea	
Ruecker,	and	Phaik	Yeong	Cheah.	“The	First	Pint	of	Science	Festival	in	Asia.”	Science	
Communication	39,	no.	6	(2017):	810–20.	https://doi.org/10.1177/1075547017739907.	
Schmidt,	Markus,	Angela	Meyer,	and	Amelie	Cserer.	“The	Bio:Fiction	Film	Festival:	Sensing	How	a	
Debate	about	Synthetic	Biology	Might	Evolve.”	Public	Understanding	of	Science	24,	no.	5	(2015):	
619–35.	https://doi.org/10.1177/0963662513503772.	
Wiehe,	Ben.	“When	Science	Makes	Us	Who	We	Are:	Known	and	Speculative	Impacts	of	Science	
Festivals.”	JCOM:Journal	of	Science	Communication	13,	no.	4	(2014).		
https://jcom.sissa.it/archive/13/04/JCOM_1304_2014_C01/JCOM_1304_2014_C02.

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