Example
ValueSet/bodystructure-code
(Turtle)
FHIR
offers
more
than
a
standard
solving
existing
problems
in
interoperability,
it
provides
a
platform
for
the
future.
Interoperability
is
"all
about
the
people";
in
order
to
get
past
the
peak
of
inflated
expectations
to
the
plateau
of
productivity
on
the
hype
cycle
-
Narrative
it
is
imperative
that
there
is
a
shared
vision
of
what
is
trying
to
be
achieved.
Healthcare
is
in
the
midst
of
a
transformation
driven
by
the
convergence
of
biological
and
information
revolutions,
by
economic
imperative
and
social
change.
FHIR's
strength
lies
in
it
being
grounded
in
the
real
world
which
is
changing
rapidly.
This
appendix
offers
a
high-level
view
of
the
disruption
underway
and
helps
place
FHIR
into
a
wider
context.
Just
as
John
Snow
used
a
branch
of
informatics
and
geospatial
analysis
to
identify
the
source
of
cholera
in
London
and
so
prove
the
germ
theory
and
revolutionize
medicine
in
1854,
so
too
will
the
application
of
informatics
and
associated
technology
be
instrumental
in
the
next
big
change
in
healthcare.
In
countries
with
advanced
economies,
health
systems
are
facing
increased
demand
from
aging
populations
and
increased
incidence
of
chronic
disease.
In
many
of
these
countries,
there
is
also
a
shortage
of
skilled
workers.
Mounting
evidence
points
to
avoidable
errors
causing
serious
harm
to
patients.
Indeed,
optimal
care
only
occurs
about
half
the
time
in
even
the
best
performing
health
systems
(1).
Small
incremental
improvements
will
not
be
enough
to
address
the
looming
crisis
in
sustainable
healthcare.
Convergence
of
trends
in
health
care,
biology,
informatics
and
technology
together
with
the
associated
social
changes
and
economic
imperative
is
driving
a
paradigm
shift
(2)
that
may
be
the
answer.
Informatics
has
a
role
in
most
aspects
of
this.
The
figure
below
provides
a
summary
of
the
convergence
of
these
trends
and
the
likely
results
of
disruption
that
will
move
us
from
reactive
to
proactive
healthcare.
In
terms
of
our
understanding
of
physiological
pathways,
informatics
is
now
the
major
tool
of
molecular
biology.
For
example,
the
time
spent
computing
exceeds
chemical
analysis
for
gene
sequencing
by
3
to
1.
Informatics
is
being
used
to
map
neural
networks
and
to
build
the
models
of
systems
biology
(3)
with
ever
increasing
levels
of
precision
and
complexity
that
can't
be
done
without
the
help
of
machines.
Our
understanding
has
changed
so
much
in
recent
times
that
the
American
Academy
of
Science
is
now
arguing
that
it
is
time
for
a
new
taxonomy
(4).
Personalization
is
occurring
both
because
of
social
change
and
increased
biological
knowledge
and
is
being
facilitated
by
cheap
mobile
computing,
sensors
and
devices.
These
social
forces
and
the
enabling
technologies
are
allowing
greater
participation
by
'non-experts'
in
decision
making,
treatment,
discovery
and
knowledge
management.
Greater
knowledge
about
how
we
think
(5),
advances
in
the
information
sciences
and
the
increased
availability
of
computing
power
means
that
our
capacity
to
acquire
knowledge
and
use
it
to
predict
the
course
of
pathology
has
increased
enormously,
and
that
is
fortuitous,
because
the
explosion
of
information
is
impossible
to
deal
with
otherwise.
These
new
capabilities
can
be
used
to
provide
better
advice
and
to
better
prevent
disease
through
discovery,
monitoring
and
treatment.
The
health
system
itself
can
also
benefit
from
what
looks
like
a
second
phase
of
utilization
of
information
technology
through
on-line
care
provision,
real
integrated
measurement
of
quality
and
integration
of
knowledge
in
work-flow.
With
openness
and
transparency
there
is
also
the
prospect
of
co-opetition
(cooperative
competition)
and
with
integrated
outcome
measures
that
pay-for-success
contracting
can
be
used
as
an
economic
lever.
Large
scale
change
in
the
way
healthcare
is
done
is
both
essential
and
inevitable.
It
is
likely
that
this
will
derive
from
the
merging
of
the
knowledge
and
machines
of
the
biological
and
information
revolutions
facilitating
a
shift
from
reactive
treatment
to
proactive
personalized
medicine.
Only
by
such
significant
changes
could
the
needed
quantum
improvement
in
the
effectiveness
and
efficiency
of
healthcare
be
made.
The
development
of
digital
technology
has
disrupted
other
sectors,
notably
media,
retail
and
manufacturing,
and
the
health
sector
is
unlikely
to
remain
immune
(6).
Digitization
of
biology
and
health
will
allow
machines
to
help,
lead
to
a
demystification
of
disease,
the
democratization
of
healthcare,
and
a
move
from
the
treatment
of
disease
to
the
promotion
and
maintenance
of
wellness.
References
-
CareTrack:
assessing
the
appropriateness
of
health
care
delivery
in
Australia
.
Runciman
WB,
Hunt
TD,
Hannaford
NA,
Hibbert
PD,
Westbrook
JI,
Coiera
EW,
Day
RO,
Hindmarsh
DM,
McGlynn
EA,
Braithwaite
J.
2,
16
July
2012,
Med
J
Aust.
2012
Jul
16;197(2):100-5.
PubMed
PMID:
227,
Vol.
197(2),
pp.
100-5
XML
-
Kuhn,
Thomas
S.
The
Structure
of
Scientific
Revolutions
.
Chicago
:
University
of
Chicago
Press,
1962
JSON
Hood,
Leroy.
Institute
of
Systems
Biology
.
[Online]
[Cited:
25
May
2013.]
https://www.systemsbiology.org/leroy-hood
-
TTL
Board
on
Life
Sciences,
Committee
on
A
Framework
for
Developing
a
New
Taxonomy
of
Disease.
Toward
Precision
Medicine;
Building
a
Knowledge
Network
Raw
Turtle
(+
also
see
Turtle/RDF
Format
Specification
)
Definition
for
Biomedical
Research
Value
SetSNOMED
CT
Morphologic
Abnormalities
@prefix fhir: <http://hl7.org/fhir/> .
@prefix rdfs: <http://www.w3.org/2000/01/rdf-schema#> .
# - resource -------------------------------------------------------------------
[] a fhir:ValueSet ;
fhir:id [ fhir:v "bodystructure-code"] ;
fhir:meta [
fhir:lastUpdated [ fhir:v "2023-03-01T23:03:57.298+11:00" ] ;
fhir:profile ( [ fhir:v "http://hl7.org/fhir/StructureDefinition/shareablevalueset" ] )
] ;
fhir:text [
fhir:status [ fhir:v "generated" ]
] ;
fhir:extension ( [
fhir:url [ fhir:v "http://hl7.org/fhir/StructureDefinition/structuredefinition-wg" ] ;
fhir:value [ fhir:v "oo" ]
] [
fhir:url [ fhir:v "http://hl7.org/fhir/StructureDefinition/structuredefinition-standards-status" ] ;
fhir:value [ fhir:v "draft" ]
] [
fhir:url [ fhir:v "http://hl7.org/fhir/StructureDefinition/structuredefinition-fmm" ] ;
fhir:value [ fhir:v "1" ]
] ) ;
fhir:url [ fhir:v "http://hl7.org/fhir/ValueSet/bodystructure-code"], [ fhir:v "http://hl7.org/fhir/ValueSet/bodystructure-code"] ;
fhir:identifier ( [
fhir:system [ fhir:v "urn:ietf:rfc:3986" ] ;
fhir:value [ fhir:v "urn:oid:2.16.840.1.113883.4.642.3.142" ]
] [
fhir:system [ fhir:v "urn:ietf:rfc:3986" ] ;
fhir:value [ fhir:v "urn:oid:2.16.840.1.113883.4.642.3.142" ]
] ) ;
fhir:version [ fhir:v "5.0.0-draft-final"], [ fhir:v "5.0.0-draft-final"] ;
fhir:name [ fhir:v "SNOMEDCTMorphologicAbnormalities"], [ fhir:v "SNOMEDCTMorphologicAbnormalities"] ;
fhir:title [ fhir:v "SNOMED CT Morphologic Abnormalities"], [ fhir:v "SNOMED CT Morphologic Abnormalities"] ;
fhir:status [ fhir:v "draft"], [ fhir:v "draft"] ;
fhir:experimental [ fhir:v "true"], [ fhir:v "true"] ;
fhir:publisher [ fhir:v "FHIR Project team"], [ fhir:v "FHIR Project team"] ;
fhir:contact ( [
fhir:telecom ( [
fhir:system [ fhir:v "url" ] ;
fhir:value [ fhir:v "http://hl7.org/fhir" ]
] )
] [
fhir:telecom ( [
fhir:system [ fhir:v "url" ] ;
fhir:value [ fhir:v "http://hl7.org/fhir" ]
] )
] ) ;
fhir:description [ fhir:v "This value set includes all codes from [SNOMED CT](http://snomed.info/sct) where concept is-a 442083009 (Anatomical or acquired body site (body structure))."], [ fhir:v "This value set includes all codes from [SNOMED CT](http://snomed.info/sct) where concept is-a 442083009 (Anatomical or acquired body site (body structure))."] ;
fhir:jurisdiction ( [
fhir:coding ( [
fhir:system [ fhir:v "http://unstats.un.org/unsd/methods/m49/m49.htm" ] ;
fhir:code [ fhir:v "001" ] ;
fhir:display [ fhir:v "World" ]
] )
] [
fhir:coding ( [
fhir:system [ fhir:v "http://unstats.un.org/unsd/methods/m49/m49.htm" ] ;
fhir:code [ fhir:v "001" ] ;
fhir:display [ fhir:v "World" ]
] )
] ) ;
fhir:copyright [ fhir:v "This resource includes content from SNOMED Clinical Terms® (SNOMED CT®) which is copyright of the International Health Terminology Standards Development Organisation (IHTSDO). Implementers of these specifications must have the appropriate SNOMED CT Affiliate license - for more information contact http://www.snomed.org/snomed-ct/get-snomed-ct or info@snomed.org"], [ fhir:v "This resource includes content from SNOMED Clinical Terms® (SNOMED CT®) which is copyright of the International Health Terminology Standards Development Organisation (IHTSDO). Implementers of these specifications must have the appropriate SNOMED CT Affiliate license - for more information contact http://www.snomed.org/snomed-ct/get-snomed-ct or info@snomed.org"] ;
fhir:compose [
fhir:include ( [
fhir:system [ fhir:v "http://snomed.info/sct" ] ;
fhir:filter ( [
fhir:property [ fhir:v "concept" ] ;
fhir:op [ fhir:v "is-a" ] ;
fhir:value [ fhir:v "49755003" ]
] )
] )
] .
# -------------------------------------------------------------------------------------
Usage
note:
every
effort
has
been
made
to
ensure
that
the
examples
are
correct
and
useful,
but
they
are
not
a
New
Taxonomy
of
Disease
.
Washington,
DC
:
The
National
Academic
Press,
2011
Kahneman,
Daniel.
Thinking,
Fast
and
Slow
.
New
York
:
Farrar,
Straus
and
Giroux,
2011
Topol,
Eric.
The
Creative
Destruction
normative
part
of
Medicine
-
How
the
Digital
Revolution
Will
Create
Better
Health
Care
.
New
York
:
Basic
Books,
2012.
This
page
maintained
by
Michael
Legg
specification.