2023
Sup237
General 32-bit ECG Waveform
This supplement defines a new ECG Waveform SOP Class
(based on the existing General ECG SOP Class) with
fewer constraints.
This High-Resolution SOP class permits 32 bits per
sample. The already available General ECG SOP
class can store waveform with 16 bits per sample.
In clinical neurophysiology it is common practice to
acquire ECG data together with the routine scalp EEG
or in case of a sleep study.
This supplement was voted ready to go out for Letter
Ballot review and voting.
This supplement was voted ready as Final Text and will
be incorporated into the standard in the next
publication (2023c).
View slideset »
Sup235
High-Throughput JPEG 2000 (HTJ2K) Compression
This supplement adds the HTJ2K Transfer Syntax to
Part 5.
HTJ2K speeds-up JPEG 2000 by an order of magnitude
at the expense of slightly reduced coding
efficiency.
HTJ2K retains JPEG 2000's advanced features, with
reduced quality scalability, while being faster and
much more efficient than traditional JPEG.
This is achieved by replacing the Part 1 block coder
with an innovative block coder for today's
vectorized computing architectures.
Detailed information is available at
jpeg.org.
This supplement is voted ready as Final Text and
will be incorporated in publication 2023e.
View slideset »
Sup234
DicomWeb Storage Commitment
This supplement adds storage commitment
functionality to DICOMweb.
This is an extension to the existing DICOMweb
services, mimicking the storage commitment service
that is already available using DIMSE.
The storage commitment service is typically used
when an image acquisition system wants to free up
storage space for new studies and asks an archive
system of taking over the storage responsibility for
the images previously being sent from the
acquisition device to the archive.
A design goal for this supplement is to relatively
easy create proxies for Storage Commitment with
combinations of DIMSE and DICOMWeb
communication.
The DICOMweb variant of Storage Commit extends the
DIMSE variant.
In DICOMweb it is possible to provide the study and
series context to the referenced instances; this
provides more information for finding these
instances at the server side.
This supplement is incorporated into the standard as
Final Text in the publication 2024a.
View slideset »
Sup231
Variable Modality LUT Softcopy Presentation State
This supplement defines a new Variable Modality LUT
Softcopy Presentation State SOP Class for both
grayscale and pseudo-color.
This new SOP class differs from existing SOP classes
in that it allows the Modality LUT to be controlled
for each image or frame.
This is intended for modalities in which the dynamic
range varies between images or frames, resulting in
each referenced image having a different Modality
LUT.
In DICOM, Presentation States are intended to be a
complete specification of the presentation to
provide consistent presentation.
An aspect of this is that PS3.4 N.2.1.1 requires the
Modality LUT in the image be ignored in the presence
of a GSPS object, even if no Modality LUT is
explicitly defined in the GSPS. Further, the GSPS
only supports one Modality LUT.
This is problematic in cases such as PET or MR, in
which the dynamic range of the measured values
varies between images.
Without this new SOP Class, the GSPS creator would
be forced to render multiple GSPS objects, one for
Modality LUT change.
This supplement was voted ready as Final Text and
will be incorporated into the standard in the next
publication (2023b).
View slideset »
Sup229
Photoacoustic Imaging
This Supplement introduces a new IOD and a new
storage SOP Class for encoding and storing
photoacoustic images.
Photoacoustic (PA) imaging enables imaging optical absorption in
biological tissues with acoustic resolution.
Contrast is generated through absorption by chromophores that range
from intrinsic absorbers such as hemoglobin and melanin to extrinsic
agents such as indocyanine green (ICG) or diverse types of
nanoparticles.
In principle, excitation at multiple wavelengths allows the modality
to discriminate individual chromophores.
Prospective applications in the space of clinical imaging range from
classification of breast cancer lesions through screening of sentinel
lymph nodes to assessment of inflammation.
Photoacoustic Imaging is in widespread use in preclinical research
labs and is currently being translated to clinical applications in
first commercial implementations.
Many (but not all) PA implementations integrate active pulse/echo
ultrasound in a hybrid imaging system to capitalize on
well-established contrast for anatomical information.
The scope of this IOD is to define the a Photoacoustic (PA) images and
processed images that may be derived from a combination of these PA
images. Complementary images such as pulse/echo ultrasound are
represented by their native DICOM IODs.
Albeit fusing PA images with US images for display is the presently
most common scenario, the particulars of the fusion are beyond the
scope of this IOD, but examples are provided.
PA images represent image output generated by the input of one or more
optical excitation wavelengths. PA images may result from excitation
by light pulses at one or more wavelengths.
A closely related but out of scope imaging modality
is Thermoacoustic imaging (TAI) which uses microwave
radiation to excite the tissue (in contrast to light
pulses).
This supplement was voted ready as Final Text and
will be incorporated into the standard in the next
publication (2023c).
View slideset »
Sup226
Confocal Microscopy
This Supplement to the DICOM Standard introduces two
new IODs (Confocal Microscopy IOD, Confocal
Microscopy Tiled Pyramidal Image IOD).
These IODs are intended to be applicable to all
application of confocal microscopy.
An acquisition context module specific to cutaneous
confocal microscopy is defined.
Cutaneous confocal microscopy is a non-invasive
imaging technique that allows examination of the
skin at resolutions comparable to histology without
performing biopsy.
Cutaneous confocal microscopy may be done in-vivo or
on ex-vivo tissue.
In-vivo cutaneous reflectance confocal microscopy
(RCM) is used for the early diagnosis of a range of
cutaneous diseases with an emphasis on melanoma and
pigmented lesions.
In-vivo cutaneous RCM is most often used as an
adjunct to clinical and dermoscopic imaging of a
skin lesion as opposed to a stand-alone imaging
technique.
In addition to diagnostic applications, in-vivo
cutaneous RCM may be used for the pre-operative
mapping of margins of ill-defined tumors, which
allows more accurate surgical plan and reduces
surgical morbidity.
The cutaneous RCM microscope uses a diode laser as a
source of monochromatic and coherent light and
scanning and focusing optical lens to penetrate the
skin and illuminate a small tissue spot. Reflected
light forms an image on a photodetector.
Ex-vivo cutaneous confocal microscopy allows the
microscopic examination of freshly excised
tissue.
The ex-vivo cutaneous confocal microscopy can work
in reflectance mode or fluorescence mode.
When using the fluorescence mode, the entire
surgical specimen is dipped in a solution of a
fluorescent agent and subsequently rinsed to remove
excess of fluorescent agent.
This supplement is voted ready as Final Text and
will be incorporated in publication 2023e.
View slideset »
2022
Sup230
TLS Security Update 2021
This Supplement adds two new Secure Transport
Connection Profiles and retires several others.
The IETF recently updated the Best Current Practice
document called BCP-195. The new document no longer
allows downgrading to TLS 1.0 or 1.1, which
necessitates DICOM retiring Secure Transport
Connection Profiles that are based on those
protocols.
The new version of BCP-195 is more in
line with DICOM's B.10 Non-Downgrading BCP 195
Secure Transport Connection Profile.
In addition, the Japanese government has modified
their guidelines for "high-security type" devices,
hence the old Extended BCP 195 profile (B.11) is
also now out of date, needs to be retired, and a new
profile created that reflects the new revisions.
Supplement 230 was voted to be incorporated into the standard as Final Text in publication 2022e.
View slideset »
Sup227
Elastography SR Template
This supplement to the DICOM Standard introduces
an SR section template for Ultrasound Elastography results
and a General Ultrasound Report within which it can be
used.
Ultrasound elastography is used on tissues including
liver, breast, prostate, and tendon. In shear wave
elastography (SWE), the ultrasound system measures shear
wave speed (SWS) and derives a value for elasticity (in
kPa) from that.
Some systems also assess viscosity (which can be
correlated to inflammation) by generating a value such as
shear wave dispersion slope.
In strain elastography (SE), elasticity/stiffness is
assessed qualitatively by comparing the compression of
tissue in a target region to that of tissue in a nearby
reference region.
This supplement is added into the standard in publication
2022c.
View slideset »
Sup225
Multi-Fragment Video Transfer
This supplement adds new video transfer syntaxes to remove
the restriction that the video cannot be broken up into
multiple fragments.
The affected transfer syntaxes are:
- MPEG2 Main Profile / Main Level Video Compression
- MPEG2 Main Profile / High Level Video Compression
- MPEG-4 AVC/H.264 High Profile / Level 4.1 Video Compression
- MPEG-4 AVC/H.264 High Profile / Level 4.2 Video Compression
A significant motivation for this supplement is the appearance of videos of size larger than 2^32-2 bytes (eg procedure video recordings).
Supplement 225 was voted to be incorporated into the standard as Final Text in publication 2022b.
View details »
View slideset »
Sup223
Archive Inventory
This Supplement introduces a new Repository Query SOP
Class to obtain an inventory of a repository system, a
composite Inventory IOD that is the equivalent persistent
instantiation of such an inventory, an Inventory Creation
SOP Class to initiate asynchronous creation of Inventory
SOP Instances, and SOP Classes to transfer, query and
retrieve Inventory SOP Instances.
There are considerable use cases for these new services:
Porting large DICOM repositories from one image management
system (PACS or VNA) to another.
Migration approaches need to operate at large scales, and
handle both on-premises and remote (e.g., cloud-based)
storage.
Migration often occurs when either the source system or
the destination, or both, are in clinical operation, but
systems designed and configured to handle the throughput
of regular operations might not have capacity for the
additional massive input/output requirements of migration.
Healthcare institutions merge previously disparate
repositories into an enterprise repository.
Research use cases, including artificial intelligence and
machine learning, where bulk access to the archive is
desirable, and such uses might leverage some of the same
mechanisms developed for migration.
PACS audit and quality control may also utilize some of
the standardized functionality developed for migration,
such as an archive inventory and metadata to identify the
data produced by a particular unit or by a particular
modality.
A key requirement for migration (and other use cases) is
the ability to have an inventory of all studies, series,
and instances from an archive.
This Supplement specifies a new Repository Query SOP Class
that includes features supporting a sequential set of
queries intended to produce a complete repository
inventory. These features include well-defined behavior
for queries that reach a system limit for number of
responses, and an ability to resume at the next record in
a subsequent query.
The current Query Service (DIMSE or equivalent DICOMweb)
has limitations on number of responses and the synchronous
protocol require the use of a possibly very large number
of partial query requests, with undefined behavior when
query limits are exceeded.
This Supplement also specifies an Information Object
Definition capable of encoding an inventory of all
studies, series, and instances in a repository. This is
functionally equivalent to a query response that returns
an inventory of the entire repository database, or a
subset thereof as specified by key attributes.
The Supplement further defines a mechanism to remotely
initiate the production of the inventory through a DICOM
network service and allow production to proceed
asynchronously.
Only inventory of patient-related studies, series and
instances is defined. Inventory of non-patient objects is
out of scope for this Supplement.
This supplement is not in itself a complete standard for
migration.
This supplement is added into the standard in publication
2022c.
View slideset »
Sup213
2G-RT: Enhanced RT Image
The Supplement addresses imaging within Radiotherapy treatment
sessions and acquiring patient positioning information.
The supplement adds three IODs. Two for supporting projection images
and one IOD supporting acquisition instructions for images and other
artifacts to be used for patient positioning.
The Enhanced RT Image covers the images with a smaller number of
frames, where the per-frame functional group macros are populated for
all frames.
The Enhanced Continuous RT Image covers images which are continuously
acquired, resulting in high number of frames due to a high frame
rate. With frame level attributes not being repeated for each frame
this image type is more efficiently and sparsely populated.
Both IODs represent projection images of the patient geometry in
relation to the treatment device equipment. They may be used to guide
the positioning of the patient in respect to the treatment delivery
device to ensure delivery of the therapeutic dose to the intended
region. They may also be used to verify the position of the patient
when acquired prior, during or after the delivery of the therapeutic
radiation.
The Supplement additionally specifies a new IOD to convey parameters
instructing devices on how to acquire images or other artifacts used
for patient position verification in Radiotherapy treatment delivery
sessions.
RT Patient Position Acquisition Instruction contains the definition of
the procedures, devices, and related parameters to be used for the
assessment and/or verification of the patient position. The technical
parameters can be defined on any level of detail as needed by a
specific device.
Procedures can be paired to represent related operations like e.g. a
paired orthogonal MV and kV image acquisition.
The scope of therapeutic radiation whose position is verified is
specified by referencing SOP Instances identifying objects like RT
Radiation Set IOD of RT Radiation IODs.
Supplement 213 was voted to be incorporated into the standard as Final Text in publication 2022e.
View slideset »
Sup209
Revision of DICOM Conformance Statement
This Supplement provides updates to part PS3.2 of the
DICOM standard, redefining the content and structure of
the DICOM Conformance Statement to better meet the needs
of all user groups, for example service, R&D, testing,
sales, healthcare provider IT personnel.
Comparability is better facilitated for different products' DICOM
functionality by providing essential information in tables.
Ambiguities and inconsistencies will be less frequent between
different vendor documentations.
Web services and security are additionally addressed in the
conformance statement.
A detailed template is provided. Vendors are encouraged to populate
this template for their products. Template-based comparison of
products is advantageous in many situations.
Supplement 209 was voted to be incorporated into the standard as Final Text in publication 2022e.
View slideset »
2021
Sup222
Whole Slide Imaging Annotation
This Supplement to the DICOM Standard specifies a new
DICOM Information Object and Storage SOP Class for storing
Microscopy Bulk Simple Annotations (points, open
polylines, closed polygons and simple geometric shapes
without relationships), which is referred to as the
Microscopy Bulk Simple Annotations IOD.
Microscopy Bulk Simple Annotations are usually created by
machine algorithms from high resolution images of entire
tissue sections, e.g., encoded as DICOM Whole Slide
Microscopy images.
These annotations are distinct from
alternative representations appropriate for different
use-cases, such as segmented bit planes (which are encoded
in DICOM Segmentation Images), and more tractable size
human or machine generated contour-based annotations on
selected high-power fields or lower resolution or gross
specimen images (which are encoded in DICOM Structured
Reports using standard templates like TID 1500).
No new image encoding mechanism is introduced. The
annotations are either 2D image relative (frame or Total
Pixel Matrix) or in a 3D Frame of Reference that is shared
with a Microscopy Image Storage instance.
No new composition mechanism is added. The annotations are
basic ("simple") and it is anticipated that in future
mechanisms such as the Radiotherapy Conceptual Volume
mechanism may be re-used to describe boolean
relationships, etc., that reference instances of bulk
simple annotations, or embed more complex relationships.
Supplement 222 was voted to be incorporated into the standard as Final Text.
View slideset »
Sup220
MR Prostate Imaging Structured Report
This supplement to the DICOM standard introduces a DICOM
Structured Reporting template for encoding the
radiologist's interpretation of a patient's prostate MR
imaging study.
The primary purpose of the templates is to support linking
of the annotations of findings with the measurements
derived from those findings and qualitative evaluations
associated with those findings.
In addition, the template provides the means to
communicate image-related information that is important to the
assessment of prostate MRI (e.g., Prostate Specific Antigen testing
history and prostate biopsies).
The main use cases motivating the development of the
templates are the following:
- Interoperability between the radiology workstations used for
annotation of prostate MRI and MRI-Ultrasound fusion and targeting
workstations used for sampling suspected locations using targeted
biopsy approaches;
- Interoperability with the machine learning tools that automate the
process of identifying suspected prostate cancer locations;
- Collection of structured data to support training of the machine
learning tools for automated detection and grading of prostate cancer
in MRI;
- Aggregation of structured MRI interpretation documents across
institutions;
- Integration of structured machine-readable information annotating clinical findings in MRI longitudinally and across radiology, urology and pathology subspecialties.
While the organization of the templates is not restricted to a specific prostate MRI interpretation protocol, it is primarily designed to support Prostate Imaging - Reporting and Data System (PI-RADS), which is a prostate MRI structured reporting and scoring guidelines developed through an international collaboration of the American College of Radiology (ACR), European Society of Uroradiology (ESUR), and AdMetech Foundation.
Supplement 220 was voted to be incorporated into the standard as Final Text. View details »
View slideset »
Sup214
Cone-beam CT Radiation Dose SR
This supplement creates a new DICOM SR IOD with the
necessary flexibility to address cone-beam CT (CBCT)
acquisitions.
CBCT is used in multiple fields (e.g., dentistry,
radiotherapy, interventional radiology, image guided
surgery), and there are different methodologies for
describing the dose associated with each application
(typically borrowing from either XA or CT).
However, the underlying data acquisition, reconstruction,
and testing parameters for image quality and dose
evaluation are similar.
The proposed supplement defines a generic framework for
the description of radiation dose amongst the different
CBCT applications.
It retains the capability to store legacy dosimetric
values (e.g., CTDI, DAP), while allowing for reduced
dependence on modality-specific conditions for populating
fields.
This generic radiation description is capable of
representing acquisition types that already exist in the
standard (Angiography, Mammography, CR/DR, CT).
There are two fundamental inclusions in the proposed supplement:
- Decoupling of irradiation events and dose descriptions
(allowing dose-related characteristics to span multiple
irradiation events, or breaking irradiation events into
smaller time periods). For characteristics that remain
constant (e.g., focal spot size), a value can be encoded
once for the 90 entire SR. For characteristics that change
within irradiation events (e.g., tube current), multiple
values can be encoded for improved understanding of dose
distributions.
- Improved geometric description of the system. Describe the spatial relationship of different system components with respect to one another for modeling of spatial distributions of dose.
Radiotherapy treatment dose and radiopharmaceutical dose are out of scope.
Supplement 214 was voted to be incorporated into the standard as Final Text. View details »
View slideset »
Sup212
XA Protocol
This Supplement defines a pair of storage SOP Classes to distribute
defined XA protocols and to record performed XA protocols.
The two storage SOP Classes are:
- XA Defined Procedure Protocol Storage SOP Class that describes desired values (and/or value ranges) for various parameters, which includes acquisition, reconstruction and storage tasks. Defined Protocols are independent of a specific patient. Defined Protocols are typically specific to a certain acquisition equipment model and/or version (identified by device attributes in the protocol), but model-non-specific protocols are not prohibited.
- XA Performed Procedure Protocol Storage SOP Class that describes the values actually used in a performed procedure. Performed protocols are patient-specific.
The SOP Classes address details including:
- patient preparation & positioning
- equipment characteristics
- acquisition technique
- reconstruction technique
- preliminary image handling such as filtering, enhancement
- results data storage (auto-sending)
The primary goal is to set up the acquisition (and reconstruction) equipment, not to script the entire behavior of the department, or the angiographic suite. The protocol object supports simple textual instructions relevant to the protocol such as premedication, patient instructions, etc. Formal coding and management of instructions may be handled with other objects and services such as the Contrast Injection SR or the Modality Worklist (MWL).
It is expected that the vast majority of protocol objects will be specific to a certain model and version of acquisition equipment. There is no requirement that an equipment be able to run a protocol from another equipment.
Supplement 212 was voted ready as Final Text. It is incorporated into the standard in the update "2021a". View details »
View slideset »
Sup160
2G-RT: Patient Setup & Delivery
This Supplement specifies two IODs to support workflow
management and patient setup for Radiotherapy treatment
delivery sessions. The IODs are designed as part of the
2nd Gen. Radiotherapy object framework.
This Supplement introduces an RT Radiation Set Delivery
Instruction IOD, which specifies the RT Radiations to be
applied for treatment delivery, the order in which they
are applied, and parameters related to the upcoming RT
Treatment Session.
This Supplement introduces an RT Treatment Preparation IOD
to specify setup devices, setup procedures and parameters
related to the setup of the patient prior to the delivery
of therapeutic radiation.
The 1st Gen. RT Plan IOD contained a Patient Setup Module
with a similar content. However, this content may change
between the treatment sessions, while most of the content
of the RT Plan, defining the treatment parameters, remains
the same.
This caused unnecessary proliferation of RT Plan SOP
Instances, and compromised fraction counting within a
series of dosimetrically uniform treatments. Therefore,
the 2nd Gen. RT Radiation Set and RT Radiation IODs use a
separate IOD for this purpose.
Supplement 160 was voted as Final Text and will be
incorporated into the standard with the 2021d publication.
View slideset »
2020
Sup221
Dermoscopy
This Supplement to the DICOM Standard introduces a new IOD
and a new storage SOP Class for encoding and storing dermoscopic
images.
Dermoscopy is a diagnostic technique that enables
visualization of the morphological structures of the
skin. Dermoscopy (also known as dermatoscopy and
epiluminescence microscopy) is a non-invasive, in vivo
skin examination that has demonstrated to be an important
aid in the early recognition of malignant melanoma and
other skin tumors. Dermoscopy is also used for non-skin
cancer disease conditions (e.g., inflammatory disease).
A dermoscope is hand-held device that consists of
magnifier and light source. Emitted light can be polarized light or
non-polarized. Dermoscopic examination can be by direct contact with
skin or noncontact. Dermoscopy using non-polarized light require
direct contact between the skin and the device.
For direct contact dermoscopy an immersion medium is
placed on the skin surface and a glass plate on the dermoscope is
placed directly against the skin. Non-contact dermoscopy does not
require the dermoscope to be in contact with the skin surface.
Three techniques are used in dermoscopy: polarized
non-contact dermoscopy, polarized contact dermoscopy, and
non-polarized contact dermoscopy.
Supplement 221 was voted ready as Final Text. It is
incorporated into the standard in the update "2020e".
View slideset »
Sup217
Neurophysiology Waveform
This Supplement introduces SOP Classes for storage of neurophysiology
waveforms by adding the related neurophysiology IODs and the necessary
neurophysiology waveform context groups.
This Supplement adds the following SOP Classes:
- To store routine electroencephalography (EEG) data recording the electrical activity of the brain collected on the skull surface using electrode positions of the international 10/10 or 10/20 localization scheme.
- To store electromyography (EMG) data recording the electrical activity of skeletal muscles.
- To store electrooculography (EOG) data collected near the eyes recording eye movement.
- To store electroencephalography (EEG) data acquired during a polysomnography (PSG) study.
- To store respiratory data recorded using more than a single channel.
- To store information about a patient's position continuously.
Supplement 217 was voted into Final Text and to become part of the standard. View details »
View slideset »
Sup208
Encapsulated Additional Models 3D Manufacturing
Supplement 208 extends the DICOM Standard to better address
medical 3D manufacturing and uses of Virtual Reality,
Augmented Reality, and Mixed Reality.
These extensions fall in three areas:
- Support for a new 3D model type: Object File (OBJ)
- Identification of models for assembly into a larger object
- Capturing a preferred color for manufacturing or display of a model OBJ Encapsulation
The supplement incorporates not just Object Files (OBJ), and also any supporting Material Library Files (MTL) and texture map files (JPG or PNG) on which an OBJ may rely.
As with Encapsulated STL, the new Encapsulated OBJ, Encapsulated MTL and texture image IODs allow 3D manufacturing models to be exchanged between various types of equipment using DICOM messages. This adds the ability to store, query and retrieve complete OBJ models as DICOM Instances.
Updates are addressed by storing new instances, with reference back to earlier instances in a manner similar to the IOD for STL encapsulation.
This supplement was voted to be ready as final text. It is now being incorporated into the standard. View details »
View slideset »
Sup199
RT Radiation Records
The SOP Classes in this document are defined to record how a
Radio Therapy treatment was performed.
The following IODs are introduces:
- RT Radiation Record Set Storage
- RT Radiation Salvage Record Storage
- Tomotherapeutic Radiation Record Storage
- C-Arm Photon Electron Radiation Record Storage
- Robotic-Arm Radiation Record Storage
This comprises acquired machine values, measured dose values, overrides, etc.
In addition, recording of a manual implementation of a radiation is covered.
This supplement is based on the real-world model and specifications defined in supplement 147. References, definitions etc. not present in this supplement can be found in supplement 147. Additional information is found in Supplement 175 and 176.
Supplement 199 was voted into Final Text and to become part of the standard. View details »
View slideset »
Sup176
2nd Gen. Other non C-Arm RT Treatment
The scope of this supplement is the introduction of new RT
Radiation IODs for non-C-Arm treatment devices.
This supplement adds support for instances of the following RT
devices:
- Tomotherapeutic Radiation
- Robotic Radiation Storage
This supplement was voted to be ready as final text. It is now being incorporated into the standard. View details »
View slideset »
2019
Sup203
Thumbnail Service over DICOMweb
This supplement adds thumbnail handling to web services in
part 18 of the DICOM standard.
This supplement defines Thumbnail resources on the WADO-RS
Study, Series, Instance, and Frame resources in the DICOM
RESTful web services standard. These resources provide
representative images that reflect the content of the parent
resources. The origin server determines the pixel content of
the Thumbnail.
The primary use cases are Thumbnails for image viewers, or
EMR/EHRs, e.g., as referenced from HL7 FHIR Imaging Study
resources.
This resource allows a web client to retrieve a representative
image without having to retrieve a full study structure.
This supplement was voted as Final Text. It will be part of
the next edition of the standard.
Sup202
Realtime Video
This supplement adds realtime video handling to the DICOM standard.
It describes several new DICOM IODs and associated
transfer syntaxes for the transport of real-time video, and/or audio,
and associated medical data. These are referred to collectively as
DICOM Real-Time Video (DICOM-RTV).
The supplement defines an new IP-based DICOM Service for the
broadcasting of real-time video to subscribers with a quality of
service which is compatible with the communication inside the
operating room (OR).
Professional video (e.g., TV studios) equipment providers and users
have defined in SMPTE (ST 2110 family of standards). ST 2110-10 uses a
multicast model rather than a peer-to-peer communication
model. DICOM-RTV builds upon ST 2110.
DICOM-RTV restricts real-time communication to uncompressed video.
This supplement was voted as Final Text. It will be part of
the next edition of the standard.
Sup183
Webservices Redocumentation
This supplement re-documents PS3.18 Web Services.
The goals of this re-documentation are:
- Factor out text that is common to multiple services and in doing so 1) ensure uniformity and 2) make clearer and concise for readers.
- Use a uniform format and style for documenting DICOM web services, making it easier to navigate and more efficient for readers implementing multiple services
- Bring the Standard into conformance with current Web Standards, especially [RFC7230 - 7234], and [RFC3986 - 3987].
- Use the Augmented Backus-Naur Form (ABNF) defined in [RFC5234] and [RFC7405] to specify the syntax of request and response messages.
- Use consistent terminology throughout the Standard.
- Use a consistent format for documenting services and transactions.
This supplement was voted as Final Text and will be part of the next edition of the standard. View details »
Sup175
2nd Gen. C-Arm RT Treatment
This Supplement introduces the RT Radiation Set and representation of the C-Arm techniques.
An RT Radiation Set IOD defines a Radiotherapy Treatment Fraction as a collection of instances of RT Radiation IODs.
Further this supplement adds support for C-Arm Photon-Electron Radiation instances.
RT Radiation IODs represent different treatment modalities.
This supplement was voted as Final Text and will be part of the next edition of the standard.