MOV - Measuring equipment for electromagnetic quantities

This part of IEC 62769 specifies an FDI profile for IEC 62734 (ISA100 WIRELESS) 1.

IEC Corrected version.

IEC Corrected version.

2020-12-03: This AMD will revise Annex ZZ and allow citation of EN 61800-5-1:2007 & its A1:2017

1 Scope and object
This clause of Part 1 is applicable, except as follows:
1.1 Scope
1.1.1 Equipment included in scope
Deletion:
Delete the first paragraph.
Replacement:
Replace the second paragraph (above items a) to c)) with the following new text:
This part of IEC 61010 specifies particular safety requirements for cabinet X-ray systems, which
fall under any of categories a), b) or c) below.
Addition:
Add the two following new paragraphs at the end of the subclause:
Equipment covered by this document can be both PROTECTED EQUIPMENT or PARTIALLY
PROTECTED EQUIPMENT, with X-ray generator voltage up to 500 kV.
A cabinet X-ray system is a system that contains an X-ray tube installed in a cabinet, which,
independently of existing architectural structures except the floor on which it may be placed, is
intended to contain at least that portion of a material being irradiated, provide radiation
attenuation and prevent operator access to the radiation beam, during generation of X-radiation.
These cabinet X-ray systems are used in industrial, commercial, and public environments, for
example, to inspect materials, to analyse materials, and to screen baggage.
1.1.2 Equipment excluded from scope
Addition:
Add the following new items to the list:
aa) Equipment intended to apply X-radiation to humans or animals;
bb) Equipment incorporating an X-ray tube but not incorporating complete shielding against
X-radiation HAZARDS, such as:
– equipment intended to be used within a shielded room which excludes personnel during
operation;
– equipment intended to be used with separate portable or temporary shielding;
– equipment intended to produce an emerging beam of X-radiation.
1.2 Object
1.2.1 Aspects included in scope
Addition:
Add the following new text to the end of the first paragraph:
This part of IEC 61010 specifies requirements for the design and methods of construction of
cabinet X-ray systems to provide adequate protection for OPERATORS, bystanders, trained
service personnel and the surrounding area against unintentionally-emitted X-radiation and from
mechanical HAZARDS related to their conveyors.

1   Scope and object
This clause of Part 1 is applicable except as follows:
1.1.1 Equipment included in scope
Replacement:
Replace the text with the following:
This group safety publication is primarily intended to be used as a product safety standard for the products mentioned in the scope, but shall also be used by technical committees in the preparation of their publications for products similar to those mentioned in the scope of this standard, in accordance with the principles laid down in IEC Guide 104 and lSO/lEC Guide 51.
This part of IEC 61010 specifies safety requirements for equipment having testing or measuring circuits which are connected for test or measurement purposes to devices or circuits outside the measurement equipment itself.
These include measuring circuits which are part of electrical test and measurement equipment, laboratory equipment, or process control equipment. The existence of these circuits in equipment requires additional protective means between the circuit and an OPERATOR.
NOTE These testing and measuring circuits can, for example:
–   measure voltages in circuits of other equipment,
–   measure temperature of a separate device via a thermocouple,
–   measure force on a separate device via a strain gauge,
–   inject a voltage onto a circuit to analyse a new design.
Equipment having these testing and measuring circuits may be intended for performing tests and measurements on hazardous conductors, including MAINS conductors and telecommunication network conductors. See Annex BB for considerations of HAZARDS involved in various tests and measurements.

It is necessary for thermocouple temperature measurement that the electro-motive force (abbreviated
as e.m.f. hereafter) of the thermocouple circuit is precisely measured by a measuring
instrument. A thermocouple is electrically connected to the instrument by a proper pair of
electric cables. IEC 60584-3 standardizes these cables. It specifies identification and manufacturing
tolerances for extension and compensating cables (mineral insulated extension and
compensating cables are not included) provided directly to users of industrial processes.
These tolerances are determined with respect to the e.m.f. versus temperature relationship of
IEC 60584-1. The requirements for extension and compensating cables for use in industrial
process control are specified.
Extension and compensating cables may consist of a single strand (solid) wire or multistranded
wire for which this document is applied. Specification for extension and compensating
conductors of forms of rods, flat wires or strips can be established by agreement between
suppliers and users.

This part of IEC 62769 specifies the FDI Packages. The overall FDI architecture is illustrated
in Figure 1. The architectural components that are within the scope of this document have
been highlighted in Figure 1.

This part of IEC 62769 defines the FDI Information Model. One of the main tasks of the
Information Model is to reflect the topology of the automation system. Therefore, it represents
the devices of the automation system as well as the connecting communication networks
including their properties, relationships, and the operations that can be performed on them.
The types in the AddressSpace of the FDI Server constitute a catalogue, which is built from
FDI Packages.
The fundamental types for the FDI Information Model are well defined in OPC UA for Devices
(IEC 62541-100). The FDI Information Model specifies extensions for a few special cases and
otherwise explains how these types are used and how the contents are built from elements of
DevicePackages.
The overall FDI architecture is illustrated in Figure 1. The architectural components that are
within the scope of this document have been highlighted in this illustration.

This part of IEC 62769 describes the concepts and overview of the Field Device Integration
(FDI) specifications. The detailed motivation for the creation of this technology is also described
(see 4.1). Reading this document is helpful to understand the other parts of this multi-part
standard.

This part of the IEC 61784-3 series explains some common principles that can be used in the
transmission of safety-relevant messages among participants within a distributed network
which use fieldbus technology in accordance with the requirements of IEC 61508 (all parts) 1
for functional safety. These principles are based on the black channel approach. They can be
used in various industrial applications such as process control, manufacturing automation and
machinery.
This part and the IEC 61784-3-x parts specify several functional safety communication
profiles based on the communication profiles and protocol layers of the fieldbus technologies
in IEC 61784-1, IEC 61784-2 and IEC 61158 (all parts). These functional safety
communication profiles use the black channel approach, as defined in IEC 61508. These
functional safety communication profiles are intended for implementation in safety devices
exclusively.
NOTE 1 Other safety-related communication systems meeting the requirements of IEC 61508 (all parts) can exist
that are not included in IEC 61784-3 (all parts).
NOTE 2 It does not cover electrical safety and intrinsic safety aspects. Electrical safety relates to hazards such
as electrical shock. Intrinsic safety relates to hazards associated with potentially explosive atmospheres.
All systems are exposed to unauthorized access at some point of their life cycle. Additional
measures need to be considered in any safety-related application to protect fieldbus systems
against unauthorized access. IEC 62443 (all parts) will address many of these issues; the
relationship with IEC 62443 (all parts) is detailed in a dedicated subclause of this document.
NOTE 3 Implementation of a functional safety communication profile according to this document in a device is not
sufficient to qualify it as a safety device, as defined in IEC 61508 (all parts).
NOTE 4 The resulting SIL claim of a system depends on the implementation of the selected functional safety
communication profile within this system.
NOTE 5 Annex C explains the numbering scheme used for the technology-specific parts (IEC 61784-3-x) as well
as their common general structure.
NOTE 6 Annex D provides a guideline for the assessment and test of safety communication profiles as well as
safety-related devices using these profiles.

This part of IEC 62769 specifies the FDI Server. The overall FDI architecture is illustrated in
Figure 1. The architectural components that are within the scope of this document have been
highlighted in this figure.

This part of IEC 62769 specifies the technology mapping for the concepts described in the
Field Device Integration (FDI) standard. The technology mapping focuses on implementation
regarding the components FDI Client and User Interface Plug-in (UIP) that are specific only to
the WORKSTATION platform/.NET as defined in IEC 62769-4.

IEC 61800-2:2015 applies to adjustable speed electric a.c. power drive systems, which include semiconductor power conversion and the means for their control, protection, monitoring, measurement and the a.c. motors. It applies to adjustable speed electric power drive systems intended to feed a.c. motors from a BDM connected to line-to-line voltages up to and including 1 kV a.c. 50 Hz or 60 Hz and/or voltages up to and including 1,5 kV d.c. input side.
NOTE 1 Adjustable speed electric a.c. power drive systems intended to feed a.c. motors, and with rated converter input voltages above 1 000 V a.c. are covered by IEC 61800-4.
NOTE 2 Adjustable speed electric d.c. power drive systems intended to feed d.c. motors are covered by IEC 61800-1.
NOTE 3 For adjustable speed electric a.c. power drive systems having series-connected electronic power converter sections, the line-to-line voltage is the sum of the series connected input voltages.
Traction applications and electric vehicles are excluded from the scope of this standard. IEC 61800-2:2015 is intended to define the following aspects of an a.c. power drive system (PDS):
- principal parts of the PDS;
- ratings and performance;
- specifications for the environment in which the PDS is intended to be installed and operated;
- other specifications which might be applicable when specifying a complete PDS.
This standard provides minimum requirements, which may be used for the development of a specification between customer and manufacturer. This edition includes the following significant technical changes with respect to the previous edition.
a) Clause 1 (Scope) has been updated,
b) Clause 2 (Normative references) has been updated,
c) Clause 3 (Definitions) has been updated including fundamental definitions to be used across the IEC 61800 series of standards,
d) Clause 4 has been updated with respect to:
1) description of the basic topology for BDM/CDM/PDS (4.2);
2) ratings and performance (4.3 and 4.4);
3) reference to applicable standards within the IEC 61800 series with respect to EMC (IEC 61800-3), Electrical safety (IEC 61800-5-1), Functional safety (IEC 61800-5-2), Load duty aspects (IEC TR 61800-6), Communication profiles (IEC 61800-7 series) and Power interface voltage (IEC TS 61800-8) to avoid conflicting requirements (4.5, 4.6, 4.7, 4.10, 4.11, 4.12);
4) update of requirement for ECO design (4.8);
5) update of requirement for environmental evaluation (4.9);
6) implementation of requirement for explosive atmosphere (4.13).
e) Clause 5 has been updated with test requirement in order to provide a clear link between design requirement and test requirement.
f) Clause 6 has been updated to harmonize the marking and documentation requirement within the IEC 61800 series.
g) Existing Annexes A to G have been deleted and replaced with new Annexes A to C.

This group safety publication is primarily intended to be used as a product safety standard for
the products mentioned in the scope, but shall also be used by technical committees in the
preparation of their publications for products similar to those mentioned in the scope of this
standard, in accordance with the principles laid down in IEC Guide 104 and
lSO/lEC Guide 51.
This part of IEC 61010 specifies safety requirements for equipment having testing or
measuring circuits which are connected for test or measurement purposes to devices or
circuits outside the measurement equipment itself.
These include measuring circuits which are part of electrical test and measurement
equipment, laboratory equipment, or process control equipment. The existence of these
circuits in equipment requires additional protective means between the circuit and an
OPERATOR.
NOTE These testing and measuring circuits can, for example:
– measure voltages in circuits of other equipment,
– measure temperature of a separate device via a thermocouple,
– measure force on a separate device via a strain gauge,
– inject a voltage onto a circuit to analyse a new design.
Equipment having these testing and measuring circuits may be intended for performing tests
and measurements on hazardous conductors, including MAINS conductors and
telecommunication network conductors. See Annex BB for considerations of HAZARDS involved
in various tests and measurements.

This part of IEC 62769 specifies the FDI Client. The overall FDI architecture is illustrated in
Figure 1. The architectural components that are within the scope of this document have been
highlighted in this figure.

This part of IEC 62769 specifies the elements implementing communication capabilities called
Communication Devices (IEC 62769-5).
The overall FDI architecture is illustrated in Figure 1. The architectural components that are
within the scope of this document have been highlighted in this illustration. The document
scope with respect to FDI Packages is limited to Communication Devices. The Communication
Server shown in Figure 1 is an example of a specific Communication Device.

This group safety publication is primarily intended to be used as a product safety standard for
the products mentioned in the scope, but shall also be used by technical committees in the
preparation of their publications for products similar to those mentioned in the scope of this
standard, in accordance with the principles laid down in IEC Guide 104 and lSO/lEC Guide 51.
This part of IEC 61010 specifies safety requirements for measurement equipment for
insulation resistance and test equipment for electric strength with an output voltage exceeding
50 V a.c. or 120 V d.c.
This document also applies to combined measuring equipment which has an insulation
resistance measurement function or an electric strength test measurement function.

This part of IEC 61800 applies to adjustable speed electric DC power drive systems, which
include semiconductor power conversion and the means for their control, protection, monitoring,
measurement and the DC motors.
It applies to adjustable speed electric power drive systems intended to feed DC motors from a
BDM/CDM connected to line-to-line voltages up to and including 1 kV AC 50 Hz or 60 Hz and/or
voltages up to and including 1,5 kV DC input side.
NOTE 1 Adjustable speed electric AC power drive systems intended to feed AC motors are covered by
IEC 61800-2.
NOTE 2 This document can be used as a reference for adjustable speed electric power drive systems, intended to
feed DC motors from a BDM/CDM connected to line-to-line voltages up to and including 1,5 kV AC, 50 Hz or 60 Hz
and/or voltages up to and including 2,25 kV DC input side.
Traction applications and electric vehicles are excluded from the scope of this document.
This document is intended to define the following aspects of a DC power drive system (PDS):
• principal parts of the PDS;
• ratings and performance;
• specifications for the environment in which the PDS is intended to be installed and operated;
• other specifications which might be applicable when specifying a complete PDS.
This document provides minimum requirements, which may be used for the development of a
specification between customer and manufacturer.
Compliance with this document is possible only when each topic of this document is individually
specified by the customer developing specifications or by product standard committees
developing product standards.
For some aspects which are covered by specific PDS product standards in the IEC 61800 series,
this document provides a short introduction and reference to detailed requirements in these
product standards.

1   Scope and object
This clause of Part 1 is applicable except as follows:
1.1.1 Equipment included in scope
Replacement:
Replace the text with the following:
This group safety publication is primarily intended to be used as a product safety standard for the products mentioned in the scope, but shall also be used by technical committees in the preparation of their publications for products similar to those mentioned in the scope of this standard, in accordance with the principles laid down in IEC Guide 104 and lSO/lEC Guide 51.
This part of IEC 61010 specifies safety requirements for measurement equipment for insulation resistance and test equipment for electric strength with an output voltage exceeding 50 V a.c. or 120 V d.c..
This part also applies to combined measuring equipment which has an insulation resistance measurement function or an electric strength test measurement function.

This AB will revise Annex ZZ and allow citation of EN 62477-1:20212/A1:2017

IEC Corrected version.

This AMD will revise Annex ZZ and allow citation of EN 62040-1:2019

2021-05-03: TC - correction of Figure 3e and to correct the formula in 5.3

IEC 61010-2-202:2020 is available as IEC 61010-2-202:2020 RLV which contains the International Standard and its Redline version, showing all changes of the technical content compared to the previous edition.

IEC 61010-2-202:2020 constitutes Part 2-202 of a planned series of standards on industrial-process measurement, control and automation equipment. Safety terms of general use are defined in IEC 61010-1. More specific terms are defined in each part. This part incorporates the safety related requirements of electrically operated valve ACTUATORs and SOLENOIDs. This document does not cover functional safety aspects of electrically operated ACTUATORs and SOLENOIDs.

IEC 62769-101-2:2020 is available as IEC 62769-101-2:2020 RLV which contains the International Standard and its Redline version, showing all changes of the technical content compared to the previous edition.

IEC 62769-101-2:2020 specifies the IEC 62769 profile for IEC 61784 1, CP 1/2 (FOUNDATION™ Fieldbus HSE).

IEC 62769-101-1:2020 is available as IEC 62769-101-1:2020 RLV which contains the International Standard and its Redline version, showing all changes of the technical content compared to the previous edition.

IEC 62769-101-1:2020 specifies the IEC 62769 profile for IEC 61784 1_CP 1/1 (FOUNDATION™ Fieldbus H1) .

This part of IEC 62832 specifies rules of the Digital Factory framework for managing information
of a production system throughout its life cycle. It also defines how information will be added,
deleted or changed in the DigitalFactory by the various activities during the life cycle of the
production system.
These rules include:
– rules to represent a production system with a DigitalFactory;
– rules to represent a PS asset or a role with a DFasset;
– rules to represent a relationship between PS assets with a DFassetLink;
– rules to represent a relationship between roles with a DFassetLink;
– rules to represent the hierarchy of PS assets in a production system;
– rules to check the compatibility between associated PS assets.
NOTE 1 "PS" and "DF" are used in IEC 62832 (all parts) as qualifiers, they are part of the concept names. See
IEC 62832-1:2020, Clause 3.
NOTE 2 Common rules are the base for the exchange of data between and within enterprises, between engineering
tools, and between departments.

This part of IEC 62832 defines the general principles of the Digital Factory framework (DF
framework), which is a set of model elements (DF reference model) and rules for modelling
production systems.
This DF framework defines:
• a model of production system assets;
• a model of relationships between different production system assets;
• the flow of information about production system assets.
The DF framework does not cover representation of building construction, input resources (such
as raw production material, assembly parts), consumables, work pieces in process, nor end
products.
It applies to the three types of production processes (continuous control, batch control and
discrete control) in any industrial sector (for example aeronautic industries, automotive,
chemicals, wood).
NOTE This document does not provide an application scenario for descriptions based on ISO 15926 (all parts),
because ISO 15926 (all parts) uses a different methodology for describing production systems.
The representation of a production system according to this document is managed throughout
all phases of the production system life cycle (for example design, construction, operation or
maintenance). The requirements and specification of software tools supporting the DF
framework are out of scope of this document.

This part of IEC 62832 specifies detailed requirements for model elements of the Digital Factory
framework. It defines the nature of the information provided by the model elements, but not the
format of this information.
NOTE General requirements for the main model elements of the DF reference model are specified in IEC 62832-1.

This part of IEC 62769 defines the protocol-specific definitions (PSDs) as defined in
IEC 62769-7 on generic protocol extensions for the Modbus®1-RTU protocol in accordance
with CPF 15 in IEC 61784-2.

This document applies to all line-commutated high-voltage direct current (HVDC) converter
stations used for power exchange (power transmission or back-to-back installation) in utility
systems. This document presumes the use of 12-pulse thyristor converters but can, with due
care, also be used for 6-pulse thyristor converters.
In some applications, synchronous compensators or static var compensators (SVC) may be
connected to the AC bus of the HVDC converter station. The loss determination procedures
for such equipment are not included in this document.
This document presents a set of standard procedures for determining the total losses of an
HVDC converter station. The procedures cover all parts, except as noted above, and address
no-load operation and operating losses together with their methods of calculation which use,
wherever possible, measured parameters.
Converter station designs employing novel components or circuit configurations compared to
the typical design assumed in this document, or designs equipped with unusual auxiliary
circuits that could affect the losses, are assessed on their own merits.

TAN - // IEC Corrigendum

This part of IEC 62769 specifies an FDI profile of IEC 62769 for generic protocols. That
means that all interfaces are defined, and a host can add support for more protocols without
changing its implementation. Nevertheless, there are some protocol-specific definitions (PSD)
that need to be specified per protocol using this profile. Annex C specifies what PSDs need to
be defined per protocol so that FDI Device Packages, FDI Communication Packages for
Gateways and FDI Communication Servers, FDI Communication Servers, Gateways and
Devices supporting such a protocol can work together in a host not aware about this specific
protocol.
NOTE A host not using an FDI Communication Server but a proprietary mechanism for communication defines its
own means to deal with this profile to support several protocols without changing its implementation. This is
specific to the proprietary way how the communication driver is bound to the host.

This part of IEC 62541 defines the OPC Unified Architecture (OPC UA) Services. The
Services defined are the collection of abstract Remote Procedure Calls (RPC) that are
implemented by OPC UA Servers and called by OPC UA Clients. All interactions between
OPC UA Clients and Servers occur via these Services. The defined Services are considered
abstract because no particular RPC mechanism for implementation is defined in this
document. IEC 62541‑6 specifies one or more concrete mappings supported for
implementation. For example, one mapping in IEC 62541‑6 is to XML Web Services. In that
case the Services described in this document appear as the Web service methods in the
WSDL contract.
Not all OPC UA Servers will need to implement all of the defined Services. IEC 62541‑7
defines the Profiles that dictate which Services need to be implemented in order to be
compliant with a particular Profile.

This part of IEC 62828 establishes specific procedures for testing flow transmitters used in
measuring and control systems for industrial process and for machinery control systems. For
general test procedures, reference is to be made to IEC 62828-1:2017, applicable to all types
of industrial and process measurement transmitters.
This document – together with IEC 62828-1:2017 – is the reference standard for testing every
type of flow transmitter, not only for liquids but also for gases and for steam.
In this document, "industrial flow transmitters" consistently covers all types of flow transmitters
used in measuring and control systems for industrial process and for machinery

This part of IEC 62541 defines the Information Model of the OPC Unified Architecture. The
Information Model describes standardized Nodes of a Server’s AddressSpace. These Nodes
are standardized types as well as standardized instances used for diagnostics or as entry
points to server-specific Nodes. Thus, the Information Model defines the AddressSpace of an
empty OPC UA Server. However, it is not expected that all Servers will provide all of these
Nodes.

This part of IEC 62451 defines the information model associated with Programs in the OPC
Unified Architecture. This includes the description of the NodeClasses, standard Properties,
Methods and Events and associated behaviour and information for Programs.
The complete Address Space model including all NodeClasses and Attributes is specified in
IEC 62541‑3. The Services such as those used to invoke the Methods used to manage
Programs are specified in IEC 62541‑4.

This part of IEC 62541 defines the OPC Unified Architecture (OPC UA) PubSub
communication model. It defines an OPC UA publish subscribe pattern which complements
the client server pattern defined by the Services in IEC 62541-4. IEC TR 62541-1 gives an
overview of the two models and their distinct uses.
PubSub allows the distribution of data and events from an OPC UA information source to
interested observers inside a device network as well as in IT and analytics cloud systems.
This document consists of
• a general introduction of the PubSub concepts,
• a definition of the PubSub configuration parameters,
• mapping of PubSub concepts and configuration parameters to messages and transport
protocols, and
• a PubSub configuration model.
Not all OPC UA Applications will need to implement all defined message and transport
protocol mappings. IEC 62541-7 defines the Profile that dictates which mappings need to be
implemented in order to be compliant with a particular Profile.

This part of IEC 62828 establishes specific procedures for testing level transmitters used in
measuring and control systems for industrial process and machinery control systems. For
general test procedures, reference is to be made to IEC 62828-1:2017, applicable to all types
of transmitters.
Throughout this document, the term "industrial transmitters" covers all types of transmitters
used in measuring and control systems for industrial processes and for machinery.
The requirements of this document are applicable to all level measurement principles.
Detailed description of transmitters is given for two main principles for improved clarity.

This part of IEC 61496 specifies general requirements for the design, construction and testing
of non-contact electro-sensitive protective equipment (ESPE) designed specifically to detect
persons or part of a person as part of a safety-related system. Special attention is directed to
functional and design requirements that ensure an appropriate safety-related performance is
achieved. An ESPE can include optional safety-related functions, the requirements for which
are given in Annex A.
NOTE "Non-contact" means that physical contact is not required for sensing.
This document is intended to be used with a subsequent part of IEC 61496 that provides
particular requirements based on the sensing technology.
EXAMPLE This document and IEC 61496-2 are used for AOPDs; this document and IEC 61496-3 are used for
AOPDDRs.
Where a part covering the sensing technology does not exist, IEC TS 62998-1 is used.
Where the IEC 61496 series does not contain all necessary provisions, IEC TS 62998-1 is
used.
It is an additional possibility to combine those aspects covered by the IEC 61496 series in
addition to IEC TS 62998-1.
This document does not specify the dimensions or configuration of the detection zone and its
disposition in relation to hazards in any particular application, nor what constitutes a
hazardous state of any machine. It is restricted to the functioning of the ESPE and how it
interfaces with the machine.
While a data interface can be used to control optional safety-related ESPE functions
(Annex A), this document does not provide specific requirements. Requirements for these
safety-related functions can be determined by consulting other standards (for example,
IEC 61508 (all parts), IEC 62046, IEC 62061, and ISO 13849-1).
This document can be relevant to applications other than those for the protection of persons,
for example for the protection of machinery or products from mechanical damage. In those
applications, different requirements can be appropriate, for example when the materials that
have to be recognized by the sensing function have different properties from those of
persons.
This document does not deal with requirements for ESPE functions not related to the
protection of persons (e.g. using sensing unit data for navigation).
This document does not deal with electromagnetic compatibility (EMC) emission
requirements.

This part of IEC 61496 specifies requirements for the design, construction and testing of
electro-sensitive protective equipment (ESPE) designed specifically to detect persons as part
of a safety-related system, employing active opto-electronic protective devices (AOPDs) for
the sensing function. Special attention is directed to features which ensure that an
appropriate safety-related performance is achieved. An ESPE can include optional safetyrelated
functions, the requirements for which are given in Annex A of IEC 61496-1:2020 and
of this document.
This document does not specify the dimensions or configurations of the detection zone and its
disposition in relation to hazardous parts for any particular application, nor what constitutes a
hazardous state of any machine. It is restricted to the functioning of the ESPE and how it
interfaces with the machine.
Excluded from this document are AOPDs employing radiation at wavelengths outside the
range 400 nm to 1 500 nm.
This document can be relevant to applications other than those for the protection of persons,
for example, the protection of machinery or products from mechanical damage. In those
applications, additional requirements can be necessary, for example, when the materials that
are to be recognized by the sensing function have different properties from those of persons.
This document does not deal with electromagnetic compatibility (EMC) emission
requirements.

This part of IEC 61804 specifies the EDDL builtin library and provides the profiles of the various
fieldbuses.

This part of IEC 62443 establishes requirements for:
• defining a system under consideration (SUC) for an industrial automation and control
system (IACS);
• partitioning the SUC into zones and conduits;
• assessing risk for each zone and conduit;
• establishing the target security level (SL-T) for each zone and conduit; and
• documenting the security requirements.

This part of IEC 62541 specifies the OPC Unified Architecture (OPC UA) mapping between
the security model described in IEC TR 62541‑2, the abstract service definitions specified in
IEC 62541‑4, the data structures defined in IEC 62541‑5 and the physical network protocols
that can be used to implement the OPC UA specification.

This International Standard establishes basic principles for Life-Cycle-Management of systems
and components used for industrial-process measurement, control and automation. These
principles are applicable to various industrial sectors. This standard provides definitions and
reference models related to the life-cycle of a product type and the life time of a product instance,
It defines a consistent set of generic reference models and terms. The key models defined are:
– Life-Cycle-Model;
– structure model;
– compatibility model.
This document also describes the application of these models for Life-Cycle-Management
strategies. The content is used for technical aspects concerning the design, planning,
development and maintenance of automation systems and components and the operation of
the plant.
The definitions of generic models and terms regarding Life-Cycle-Management are
indispensable for a common understanding and application by all partners in the value chain
such as plant user, product and system producer, service provider, and component supplier.
The models and strategies described in this standard are also applicable for related
management systems, i.e. MES and ERP.

This part of IEC 62541 defines the OPC Unified Architecture (OPC UA) Profiles. The Profiles
in this document are used to segregate features with regard to testing of OPC UA products
and the nature of the testing (tool based or lab based). This includes the testing performed by
the OPC Foundation provided OPC UA CTT (a self-test tool) and by the OPC Foundation
provided Independent certification test labs. This could equally as well refer to test tools
provided by another organization or a test lab provided by another organization. What is
important is the concept of automated tool-based testing versus lab-based testing. The scope
of this standard includes defining functionality that can only be tested in a lab and defining the
grouping of functionality that is to be used when testing OPC UA products either in a lab or
using automated tools. The definition of actual TestCases is not within the scope of this
document, but the general categories of TestCases are within the scope of this document.
Most OPC UA applications will conform to several, but not all, of the Profiles.

This part of IEC 62541 specifies how OPC Unified Architecture (OPC UA) Clients and Servers
interact with DiscoveryServers when used in different scenarios. It specifies the requirements
for the LocalDiscoveryServer, LocalDiscoveryServer-ME and GlobalDiscoveryServer. It also
defines information models for Certificate management, KeyCredential management and
Authorization Services.

This part of IEC 61511, which is a Technical Report,
•   specifies the rationale behind all clauses and the relationship between them,
•   raises awareness for the most common misconceptions and misinterpretations of the clauses and the changes related to hem,
•   explains the differences between Ed. 1 and Ed. 2 of IEC 61511-1 and the reasons behind the changes,
•   presents high level summaries of how to fulfil the requirements of the clauses, and
•   explains differences in terminology between IEC 61508-4:2010 and IEC 61511-1 Ed. 2.

This part of IEC 62714 specifies the integration of logic information as part of an AML model
for the data exchange in a heterogenous engineering tool landscape of production systems.
This document specifies three types of logic information: sequencing, behaviour, and
interlocking information.
This document deals with the six following sequencing and behaviour logic models (covering
the different phases of the engineering process of production systems) and how they are
integrated in AML: Gantt chart, activity-on-node network, timing diagram, Sequential Function
Chart (SFC), Function Block Diagram (FBD), and mathematical expression.
This document specifies how to model Gantt chart, activity-on-node network, and timing
diagram and how they are stored in Intermediate Modelling Layer (IML).
NOTE 1 With this, it is possible to transform one logic model into another one. A forward transformation supports
the information enrichment process and reduces or avoids a re-entry of information between the exchanging
engineering tools.
NOTE 2 Mapping of other logic models, e.g. event-driven logic models like state charts, onto IML is possible.
This document specifies how interlocking information is modelled (as interlocking source and
target groups) in AML. The interlocking logic model is stored in Function Block Diagram (FBD).
This document specifies the AML logic XML schema that stores the logic models by using
IEC 61131-10.
This document specifies how to reference PLC programs stored in PLCopen XML documents.
This document does not define details of the data exchange procedure or implementation
requirements for the import/export tools.