Information service
33 Telecommunications. Audio and video engineering
New standards
EVS-EN IEC 61753-042-02:2026
Fibre optic interconnecting devices and passive components - Performance standard - Part 042-02: Plug-pigtail-style and plug-receptacle-style OTDR reflecting devices for category C - Controlled environments
Scope: This part of IEC 61753 contains the minimum initial performance, test and measurement requirements and severities for plug-pigtail style and plug-receptacle style OTDR reflecting devices to meet the requirements of category C-Controlled environments, as specified in Annex A of IEC 61753-1 [1]1. These devices are utilized for out-of-band OTDR testing of an optical fibre system.
Annex B provides information concerning these devices.
Annex B provides information concerning these devices.
Base documents: IEC 61753-042-02:2026; EN IEC 61753-042-02:2026
Replaces: EVS-EN 61753-042-2:2014
EVS-EN IEC 61754-4:2022/A1:2026
Fibre optic interconnecting devices and passive components - Fibre optic connector interfaces - Part 4: Type SC connector family
Scope: Amendment to EVS-EN IEC 61754-4:2022
Base documents: IEC 61754-4:2022/AMD1:2026; EN IEC 61754-4:2022/A1:2026
EVS-EN 319 412-2 V2.5.1:2026
Electronic Signatures and Trust Infrastructures (ESI); Certificate Profiles; Part 2: Certificate profile for certificates issued to natural persons
Scope: The present document specifies requirements on the content of certificates issued to natural persons. This profile builds on IETF RFC 5280 for generic profiling of Recommendation ITU-T X.509 | ISO/IEC 9594-8.
This profile supports the requirements of EU Qualified Certificates as specified in the Regulation (EU) No 910/2014 as well as other forms of certificate. The scope of the present document is primary limited to facilitate interoperable processing and display of certificate information. This profile therefore excludes support for some certificate information content options, which can be perfectly valid in a local context but which are not regarded as relevant or suitable for use in widely deployed applications.
The present document focuses on requirements on certificate content. Requirements on decoding and processing rules are limited to aspects required to process certificate content defined in the present document. Further processing requirements are only specified for cases where it adds information that is necessary for the sake of interoperability.
Certain applications or protocols impose specific requirements on certificate content. The present document is based on the assumption that these requirements are adequately defined by the respective application or protocol. It is therefore outside the scope of the present document to specify such application or protocol specific certificate content.
This profile supports the requirements of EU Qualified Certificates as specified in the Regulation (EU) No 910/2014 as well as other forms of certificate. The scope of the present document is primary limited to facilitate interoperable processing and display of certificate information. This profile therefore excludes support for some certificate information content options, which can be perfectly valid in a local context but which are not regarded as relevant or suitable for use in widely deployed applications.
The present document focuses on requirements on certificate content. Requirements on decoding and processing rules are limited to aspects required to process certificate content defined in the present document. Further processing requirements are only specified for cases where it adds information that is necessary for the sake of interoperability.
Certain applications or protocols impose specific requirements on certificate content. The present document is based on the assumption that these requirements are adequately defined by the respective application or protocol. It is therefore outside the scope of the present document to specify such application or protocol specific certificate content.
Base documents: ETSI EN 319 412-2 V2.5.1
EVS-EN IEC 61000-4-30:2026/AC:2026
Electromagnetic compatibility (EMC) - Part 4-30: Testing and measurement techniques - Power quality measurement methods
Scope: Corrigendum to EN IEC 61000-4-30:2025
Base documents: IEC 61000-4-30:2025/COR1:2026; EN IEC 61000-4-30:2025/AC:2026-08
CEN/TR 18358:2026
Electronic fee collection - Interferences on CEN DSRC devices from radio local area network devices operating in the 5 GHz frequency range - Results of a test campaign
Scope: This document contains test results on RLAN interference to CEN DSRC devices, including the setup and execution of the tests, along with the main findings
Base documents: CEN/TR 18358:2026
IEC PAS 61850-90-19:2026
Communication networks and systems for power utility automation - Part 90-19: Use of Role Based Access Control (RBAC) with IEC 61850
Scope: IEC PAS 61850-90-19:2026 document takes over the IEC 61850 data model specific definitions such as the definition of permissions and their assignment to roles from IEC 62351-8.
The general requirements for Role-Based Access Control (RBAC) are defined in IEC 62351-8. This part of IEC 61850, which is a Publicly Available Specification, applies those requirements to the IEC 61850 environment, including the RBAC modelling considerations, the impacts on IEC 61850 models and protocols, and the resulting engineering process requirements.
Additionally, the binding of permissions to objects is defined to allow an interoperable implementation regarding the semantic of roles. This is achieved by an assignment to unique data objects based on the SCL description. Note that for this, IEC 61850-6:2009+AMD1:2018+AMD2:2024 is a prerequisite as it defined a unique identification of objects in SCL.
The general requirements for Role-Based Access Control (RBAC) are defined in IEC 62351-8. This part of IEC 61850, which is a Publicly Available Specification, applies those requirements to the IEC 61850 environment, including the RBAC modelling considerations, the impacts on IEC 61850 models and protocols, and the resulting engineering process requirements.
Additionally, the binding of permissions to objects is defined to allow an interoperable implementation regarding the semantic of roles. This is achieved by an assignment to unique data objects based on the SCL description. Note that for this, IEC 61850-6:2009+AMD1:2018+AMD2:2024 is a prerequisite as it defined a unique identification of objects in SCL.
Base documents:
IEC TS 63614-2:2026
Multimedia systems and equipment for metaverse - Part 2: Classification
Scope: IEC TS 63614-2:2026 describes the classifications and challenging technical issues to consider for standardization of multimedia systems and equipment for metaverse in the perspectives of content, platform, network, and device.
Base documents:
IEC 60728-114:2026
<p>Cable networks for television signals, sound signals and interactive services - Part 114: Optical transmission systems using RFoG technology</p>
Scope: IEC 60728-114:2026 describes the system and equipment specification of FTTH/FTTB (fibre to the home/fibre to the building) networks where information is transmitted in both forward and return path directions using RF subcarrier multiplexing technology, and where the return path transmission uses additionally time division multiple access technique imposed by the transmission of the return path signals using a TDMA (e.g. TDMA mode of DOCSIS) protocol. Such systems are called RF over glass (RFoG) and consist of an RFoG optical network unit (R-ONU), an optical distribution network based on xPON structure, and an RFoG optical return path receiver. This document specifies the basic system parameters and methods of measurement for RFoG systems in order to assess the system performance and its performance limits.
The detailed description of physical layer is out of the scope of this document and it does not include IP transport technologies.
The detailed description of physical layer is out of the scope of this document and it does not include IP transport technologies.
Base documents:
Replaced standards
EVS-EN 61753-042-2:2014
Fibre optic interconnecting devices and passive components - Performance standard - Part 042-2: Plug-pigtail-style and plug-receptacle-style OTDR reflecting devices for category C - Controlled environments
Scope: IEC 61753-042-2:2014 contains the minimum initial performance, test and measurement requirements and severities which plug-pigtail style and plug-receptacle style OTDR reflecting devices need to satisfy in order to be categorized as meeting the requirements of category C-Controlled environments, as defined in Annex A of IEC 61753-1:2007. They are for out-of-band OTDR testing of an optical fibre system. Annex B of this standard provides information concerning this device.
Keywords: plug-pigtail style and plug-receptacle style OTDR reflecting devices, category C-Controlled environments
Keywords: plug-pigtail style and plug-receptacle style OTDR reflecting devices, category C-Controlled environments
Base documents: IEC 61753-042-2:2014; EN 61753-042-2:2014
Replaced: EVS-EN IEC 61753-042-02:2026
Drafts
prEN 319 142-1 V1.3.0
Electronic Signatures and Trust Infrastructures (ESI);
PAdES digital signatures;
Part 1: Building blocks and PAdES baseline signatures
Scope: The present document specifies PAdES digital signatures. PAdES signatures build on PDF signature mechanisms defined in the ISO 32000 series. For documents conforming to ISO 32000-1 PAdES utilizes an extended, alternative signature encoding. For documents conforming to ISO 32000-2, these signature structures are incorporated natively by default within the core standard. Both approaches support digital signature formats equivalent to the signature format CAdES as specified in ETSI EN 319 122-1, by incorporation of signed and unsigned attributes, which fulfil certain common requirements (such as the long term validity of digital signatures) in a number of use cases.
The present document specifies formats for PAdES baseline signatures, which provide the basic features necessary for a wide range of business and governmental use cases for electronic procedures and communications to be applicable to a wide range of communities when there is a clear need for interoperability of digital signatures used in electronic documents.
The present document defines four levels of PAdES baseline signatures addressing incremental requirements to maintain the validity of the signatures over the long term, in a way that a certain level always addresses all the requirements addressed at levels that are below it. Each level requires the presence of certain PAdES attributes, suitably profiled for reducing the optionality as much as possible.
Procedures for creation, augmentation, and validation of PAdES digital signatures are out of scope and specified in ETSI EN 319 102-1. Guidance on creation, augmentation and validation of PAdES digital signatures including the usage of the different attributes defined in the present document is provided in ETSI TR 119 100. The present document aims at supporting electronic signatures in different regulatory frameworks.
NOTE: Specifically but not exclusively, PAdES digital signatures specified in the present document aim at supporting electronic signatures, advanced electronic signatures, qualified electronic signatures, electronic seals, advanced electronic seals, and qualified electronic seals as per Regulation (EU) No 910/2014.
The present document specifies formats for PAdES baseline signatures, which provide the basic features necessary for a wide range of business and governmental use cases for electronic procedures and communications to be applicable to a wide range of communities when there is a clear need for interoperability of digital signatures used in electronic documents.
The present document defines four levels of PAdES baseline signatures addressing incremental requirements to maintain the validity of the signatures over the long term, in a way that a certain level always addresses all the requirements addressed at levels that are below it. Each level requires the presence of certain PAdES attributes, suitably profiled for reducing the optionality as much as possible.
Procedures for creation, augmentation, and validation of PAdES digital signatures are out of scope and specified in ETSI EN 319 102-1. Guidance on creation, augmentation and validation of PAdES digital signatures including the usage of the different attributes defined in the present document is provided in ETSI TR 119 100. The present document aims at supporting electronic signatures in different regulatory frameworks.
NOTE: Specifically but not exclusively, PAdES digital signatures specified in the present document aim at supporting electronic signatures, advanced electronic signatures, qualified electronic signatures, electronic seals, advanced electronic seals, and qualified electronic seals as per Regulation (EU) No 910/2014.
Base documents: Draft ETSI EN 319 142-1 V1.3.0
prEN 302 186 V2.2.19
Satellite Earth Stations and Systems (SES);
Aircraft Earth Stations (AESs) operating in the 11/12/14 GHz frequency bands;
Harmonised Standard for access to radio spectrum
Scope: The present document specifies technical characteristics and methods of measurements for Aircraft Earth Station (AES) with both transmit and receive capabilities for provision of aeronautical mobile satellite service, in the frequency bands given in Table 1.
Table 1: Frequency bands for the AES equipment specified in the present document
Mode of Operation; Frequency Band
AES transmit; 14,00 GHz to 14,50 GHz
AES transmit; 12,75 GHz to 13,25 GHz
AES receive; 10,70 GHz to 12,75 GHz
The AES has the following characteristics:
• These AESs are equipment for installation on aircraft.
• The AESs transmit in the 14,00 GHz to 14,50 GHz band, receive within the range from 10,70 GHz to 12,75 GHz , referred to as "14 GHz AES" in the present document, are operating in one or more frequency ranges of the Fixed-Satellite Service and Aeronautical Mobile-Satellite Service.
• The AESs transmit in the 12,75 GHz to 13,25 GHz band and receive within the range from 10,70 GHz to 12,75 GHz , referred to as "13 GHz AES" in the present document, are operating in one or more frequency ranges of the Fixed-Satellite Service.
NOTE 1: When the term "AES" used in the present document without stating 13 GHz AES or 14 GHz AES, it is a reference to both 14 GHz AES and 13 GHz AES. When referring to AES in the 13 GHz band, the AES acronym in this case is taken as equivalent to Earth Station In Motion, as referred to in the Radio Regulations (RR) No. 5.496A (ESIM).
• The AES can consist of a number of modules from the antenna subsystem to the user interfaces.
• The AES uses linear polarization.
• The AES system uses digital modulation.
• The 14 GHz AES operates through a GSO satellite at least 3° away from any other geostationary satellite operating in the same frequency band and covering the same area.
• The 13 GHz AES operates with a GSO satellite network whose frequency assignments are from the List of Appendix 30B of the Radio Regulations.
• The antenna of the AES is directional, with means of tracking the satellites, which can be achieved by using either an active phase array or reflective type configuration consistent with the AES to be brought to the market.
• These AESs are operating as part of a satellite network used for the distribution and/or exchange of information between users.
• These AESs are controlled and monitored by a Network Control Facility (NCF). The NCF is outside the scope of the present document.
• When on the ground, the 14 GHz AES does not transmit at elevation angles below 7° with respect to the local horizontal plane, except at locations where transmissions below 7° are permitted by the local Administration; (the minimum elevation angle is also limited as per clause 4.2).
The technical requirements in the present document are in two major categories:
• emission limits: to protect other radio services and systems from harmful interference generated by the AES in normal use;
• AES Control and Monitoring Functions (CMFs): to protect other radio services and systems from unwanted transmissions from the AES. The CMF in each AES is capable of answering to commands from the Network Control Facility (NCF) for its supporting satellite network.
The present document applies to the AESs with their ancillary equipment and its various ports, and when operated within the boundary limits of the operational environmental profile defined for its intended AES use as to be brought to the market.
The technical requirements for the 14 GHz AES in regard to the Power Flux Density (PFD) limits to protect Fixed Service (FS) and Radio Astronomy Service (RAS) are based on annexes B and C of Recommendation ITU-R M.1643 and ECC Report 26. Furthermore, in relation to the protection of the Fixed Satellite Service (FSS) the technical requirements of the AES take into account annex A of Recommendation ITU-R M.1643.
The technical requirements for the 13 GHz AES in regards to the PFD limits on earth for the protection of FS are based on the ECC Decision (19)04.
NOTE 2: The relationship between the present document and essential requirements of article 3.2 of Directive 2014/53/EU is given in annex A.
The present document does not cover equipment compliance with relevant civil aviation regulations. In this respect, an AES, for its installation and operation on board an aircraft is subject to additional national or international civil aviation airworthiness certification requirements.
Table 1: Frequency bands for the AES equipment specified in the present document
Mode of Operation; Frequency Band
AES transmit; 14,00 GHz to 14,50 GHz
AES transmit; 12,75 GHz to 13,25 GHz
AES receive; 10,70 GHz to 12,75 GHz
The AES has the following characteristics:
• These AESs are equipment for installation on aircraft.
• The AESs transmit in the 14,00 GHz to 14,50 GHz band, receive within the range from 10,70 GHz to 12,75 GHz , referred to as "14 GHz AES" in the present document, are operating in one or more frequency ranges of the Fixed-Satellite Service and Aeronautical Mobile-Satellite Service.
• The AESs transmit in the 12,75 GHz to 13,25 GHz band and receive within the range from 10,70 GHz to 12,75 GHz , referred to as "13 GHz AES" in the present document, are operating in one or more frequency ranges of the Fixed-Satellite Service.
NOTE 1: When the term "AES" used in the present document without stating 13 GHz AES or 14 GHz AES, it is a reference to both 14 GHz AES and 13 GHz AES. When referring to AES in the 13 GHz band, the AES acronym in this case is taken as equivalent to Earth Station In Motion, as referred to in the Radio Regulations (RR) No. 5.496A (ESIM).
• The AES can consist of a number of modules from the antenna subsystem to the user interfaces.
• The AES uses linear polarization.
• The AES system uses digital modulation.
• The 14 GHz AES operates through a GSO satellite at least 3° away from any other geostationary satellite operating in the same frequency band and covering the same area.
• The 13 GHz AES operates with a GSO satellite network whose frequency assignments are from the List of Appendix 30B of the Radio Regulations.
• The antenna of the AES is directional, with means of tracking the satellites, which can be achieved by using either an active phase array or reflective type configuration consistent with the AES to be brought to the market.
• These AESs are operating as part of a satellite network used for the distribution and/or exchange of information between users.
• These AESs are controlled and monitored by a Network Control Facility (NCF). The NCF is outside the scope of the present document.
• When on the ground, the 14 GHz AES does not transmit at elevation angles below 7° with respect to the local horizontal plane, except at locations where transmissions below 7° are permitted by the local Administration; (the minimum elevation angle is also limited as per clause 4.2).
The technical requirements in the present document are in two major categories:
• emission limits: to protect other radio services and systems from harmful interference generated by the AES in normal use;
• AES Control and Monitoring Functions (CMFs): to protect other radio services and systems from unwanted transmissions from the AES. The CMF in each AES is capable of answering to commands from the Network Control Facility (NCF) for its supporting satellite network.
The present document applies to the AESs with their ancillary equipment and its various ports, and when operated within the boundary limits of the operational environmental profile defined for its intended AES use as to be brought to the market.
The technical requirements for the 14 GHz AES in regard to the Power Flux Density (PFD) limits to protect Fixed Service (FS) and Radio Astronomy Service (RAS) are based on annexes B and C of Recommendation ITU-R M.1643 and ECC Report 26. Furthermore, in relation to the protection of the Fixed Satellite Service (FSS) the technical requirements of the AES take into account annex A of Recommendation ITU-R M.1643.
The technical requirements for the 13 GHz AES in regards to the PFD limits on earth for the protection of FS are based on the ECC Decision (19)04.
NOTE 2: The relationship between the present document and essential requirements of article 3.2 of Directive 2014/53/EU is given in annex A.
The present document does not cover equipment compliance with relevant civil aviation regulations. In this respect, an AES, for its installation and operation on board an aircraft is subject to additional national or international civil aviation airworthiness certification requirements.
Base documents: Draft ETSI EN 302 186 V2.2.19
prEN 301 447 V2.1.12
Satellite Earth Stations and Systems (SES);
Satellite Earth Stations on board Vessels (ESVs) operating in the 4/6 GHz frequency bands allocated to the Fixed Satellite Service (FSS);
Harmonised Standard for access to radio spectrum
Scope: The present document specifies technical characteristics and methods of measurements for Earth Stations located on board Vessels (ESVs) which have the following characteristics:
• The ESV is comprised of all the equipment, electrical and mechanical, from the antenna itself to the interface with other communications equipment on board (usually referred to as the terrestrial interface).
• The ESV transmits in the frequency range from 5 925 MHz to 6 425 MHz allocated to the Fixed Satellite Services (FSS) (Earth-to-space).
• The ESV receives one or more frequencies within the range from 3 700 MHz to 4 200 MHz allocated to the Fixed Satellite Services (FSS) (space-to-Earth).
• The ESV transmits a single carrier.
• The ESV uses linear or circular polarization.
• The ESV operates through a geostationary satellite at least 2° away from any other geostationary satellite operating in the same frequency band and covering the same area.
The ESV transmits at elevations greater or equal to the minimum elevation angle defined for the intended use of the ESV:
• The ESV antenna diameter is not smaller than 2,4 m.
• The ESV is designed for transmission and reception of radio-communications signals in accordance with any of the frequency bands specified above.
• The ESV is designed for unattended operation.
• The ESV is operating within a satellite network (e.g. star, mesh or point-to-point) used for the distribution and/or exchange of information between users.
• The ESV is controlled and monitored by a Network Control Facility (NCF). The specifications associated to the NCF are outside the scope of the present document.
The present document applies to the ESV with its ancillary equipment and its various telecommunication ports, and when operated within the boundary limits of the operational environmental profile as defined for the intended use of the ESV including all equipment as brought to the market defined for the intended use of the ESV.
The present document is intended to cover the provisions of Directive 2014/53/EU (RE Directive) article 3.2.
NOTE: The relationship between the present document and essential requirements of article 3.2 of the Directive 2014/53/EU is given in Annex A.
• The ESV is comprised of all the equipment, electrical and mechanical, from the antenna itself to the interface with other communications equipment on board (usually referred to as the terrestrial interface).
• The ESV transmits in the frequency range from 5 925 MHz to 6 425 MHz allocated to the Fixed Satellite Services (FSS) (Earth-to-space).
• The ESV receives one or more frequencies within the range from 3 700 MHz to 4 200 MHz allocated to the Fixed Satellite Services (FSS) (space-to-Earth).
• The ESV transmits a single carrier.
• The ESV uses linear or circular polarization.
• The ESV operates through a geostationary satellite at least 2° away from any other geostationary satellite operating in the same frequency band and covering the same area.
The ESV transmits at elevations greater or equal to the minimum elevation angle defined for the intended use of the ESV:
• The ESV antenna diameter is not smaller than 2,4 m.
• The ESV is designed for transmission and reception of radio-communications signals in accordance with any of the frequency bands specified above.
• The ESV is designed for unattended operation.
• The ESV is operating within a satellite network (e.g. star, mesh or point-to-point) used for the distribution and/or exchange of information between users.
• The ESV is controlled and monitored by a Network Control Facility (NCF). The specifications associated to the NCF are outside the scope of the present document.
The present document applies to the ESV with its ancillary equipment and its various telecommunication ports, and when operated within the boundary limits of the operational environmental profile as defined for the intended use of the ESV including all equipment as brought to the market defined for the intended use of the ESV.
The present document is intended to cover the provisions of Directive 2014/53/EU (RE Directive) article 3.2.
NOTE: The relationship between the present document and essential requirements of article 3.2 of the Directive 2014/53/EU is given in Annex A.
Base documents: Draft ETSI EN 301 447 V2.1.12
prEN IEC 60793-2-40:2026
Optical fibres - Part 2-40: Product specifications - Sectional specification for category A4 multimode fibres
Scope: This part of IEC 60793 is applicable to category A4 optical multimode fibres and the related subcategories A4a, A4b, A4c, A4d, A4e, A4g, A4h and A4i. These fibres have a plastic core and plastic cladding and may have step-index, multi-step index or graded-index profiles. The fibres are used in information transmission equipment and other applications employing similar light transmitting techniques, and in fibre optic cables. Table 1 summarizes some of the salient characteristics and applications of these fibres.
In addition to the applications shown in Table 1, other applications for A4 fibres include, but are not restricted to, the following: support for short reach, high bit-rate systems in telephony, distribution and local networks, carrying data, voice and/or video services and on-premises intrabuilding and interbuilding fibre installations, including local area networks (LANs), private branch exchanges (PBXs), video, various multiplexing uses and miscellaneous related uses, such as consumer electronics, industrial and mobile networks.
Three types of requirements apply to A4 fibres:
– general requirements, as defined in IEC 60793-2;
– specific requirements common to category A4 multimode fibres covered in this document and which are given in Clause 4;
– particular requirements applicable to individual fibre sub-categories and implementations or specific applications which are defined in this document, in the normative family specification annexes.
In addition to the applications shown in Table 1, other applications for A4 fibres include, but are not restricted to, the following: support for short reach, high bit-rate systems in telephony, distribution and local networks, carrying data, voice and/or video services and on-premises intrabuilding and interbuilding fibre installations, including local area networks (LANs), private branch exchanges (PBXs), video, various multiplexing uses and miscellaneous related uses, such as consumer electronics, industrial and mobile networks.
Three types of requirements apply to A4 fibres:
– general requirements, as defined in IEC 60793-2;
– specific requirements common to category A4 multimode fibres covered in this document and which are given in Clause 4;
– particular requirements applicable to individual fibre sub-categories and implementations or specific applications which are defined in this document, in the normative family specification annexes.
Base documents: 86A/2715/CDV; prEN IEC 60793-2-40:2026
prEN IEC 62087-1:2026
Audio, video, and related equipment - Determination of power consumption - Part 1: General
Scope: This part of IEC 62087 specifies the general requirements and test equipment for other parts of IEC 62087. Requirements for specific types of equipment are specified in additional parts of this standard and may supersede the requirements specified in this part.
Moreover, this part of IEC 62087 defines the different modes of operation which are relevant for determining power consumption.
This standard is only applicable for equipment which can be powered by an external power source. Equipment that includes a non-removable main battery is not covered by this standard.
Equipment may include any number of auxiliary batteries.
In order to assess compliance of a specific model of equipment with its declared power value, a verification procedure for power measurements is provided in Annex B.
Moreover, this part of IEC 62087 defines the different modes of operation which are relevant for determining power consumption.
This standard is only applicable for equipment which can be powered by an external power source. Equipment that includes a non-removable main battery is not covered by this standard.
Equipment may include any number of auxiliary batteries.
In order to assess compliance of a specific model of equipment with its declared power value, a verification procedure for power measurements is provided in Annex B.
Base documents: 100/4514/CDV; prEN IEC 62087-1:2026
prEN IEC 62087-3:2026
Audio, video, and related equipment - Determination of power consumption - Part 3: Television sets
Scope: This part of IEC 62087 specifies the determination of the power, luminance, and related characteristics of television sets as applicable to the determination of active mode and non-active mode power consumption. Television sets include, but are not limited to, those with selfemitting, backlit, or projection technologies.
This document is limited to television sets that can be connected to an external power source.
Television sets that include a non-removable, main battery are not covered by this document.
Television sets can include any number of auxiliary batteries.
This document is limited to television sets that can be connected to an external power source.
Television sets that include a non-removable, main battery are not covered by this document.
Television sets can include any number of auxiliary batteries.
Base documents: 100/4517/CDV; prEN IEC 62087-3:2026
prEN IEC 62087-2:2026
Audio, video, and related equipment - Determination of power consumption - Part 2: Signals and media
Scope: This part of IEC 62087 specifies the signals used to determine the power consumption and related characteristics of audio, video, and related equipment, such as television sets and computer monitors. In addition, this part specifies equipment, interfaces, and accuracy related
to signal generation.
to signal generation.
Base documents: 100/4515/CDV; prEN IEC 62087-2:2026
EN 55016-1-6:2015/prA3 (Frag 4):2026
Amendment 3 - Fragment 4: NSA
Scope: Amendment to EN 55016-1-6:2015
Base documents: CIS/A/1514/CDV; EN 55016-1-6:2015/prA3 (Frag 4):2026
prEN 302 977 V2.1.13
Satellite Earth Stations and Systems (SES);
Vehicle-Mounted Earth Stations (VMES) operating in the 14/12 GHz frequency bands;
Harmonised Standard for access to radio spectrum
Scope: The present document specifies technical characteristics and methods of measurements for Vehicle-Mounted Earth Stations (VMES). The VMES system overview is presented below.
• The VMES may transmit and receive data when the vehicle is in motion and also when the vehicle is stationary.
• The VMES operates on wheeled or tracked vehicles and, therefore, may be subject to occasional disturbances and interruptions in the satellite link.
• The VMES is operating as part of a satellite network (e.g. star, mesh or point-to-point) used for the distribution and/or exchange of information.
• The VMES is comprised of all the equipment, electrical and mechanical, from the antenna itself to the interface with other communications equipment on a vehicle (usually referred to as the terrestrial interface).
• The VMES transmits on single carrier in the frequency range 14,00 GHz to 14,50 GHz.
NOTE 1: For the purposes of the present specification, OFDM modulation is considered as a single carrier.
• The VMES receives in one or more frequencies within the range from 10,70 GHz to 12,75 GHz.
• The VMES uses linear or circular polarization.
• The VMES is designed to operate through a geostationary satellite (or a cluster of co-located geostationary
satellites) that is at least 3° away from any other geostationary satellite operating in the same frequencies and over the same coverage area.
NOTE 2: Satellites may be spaced closer than 3°. In such cases, the satellite operator will inform the VMES client of the requirements of the system coordination agreements.
• The VMES transmits at elevations greater than or equal to 7° relative to the local horizon.
• The VMES is designed for unattended operation.
• The VMES is designed for both mobile and stationary operation. In the case of stationary operation, the VMES should not be accessible to the general public and operated safely.
• The VMES is controlled and monitored by an Antenna Control Facility (ACF). This function may be performed centrally (e.g. for a network of VMESs with a central hub) or it could be performed within the VMES for autonomous control. The ACF is outside the scope of the present document.
The present document applies to the VMES with its ancillary equipment and its various telecommunication ports, and when operated within the boundary limits of the operational environmental profile as defined for its intended use and when installed as required by its intended use or in the user documentation.
NOTE 3: The relationship between the present document and essential requirements of article 3 of Directive 2014/53/EU 2 is given in Annex A.
• The VMES may transmit and receive data when the vehicle is in motion and also when the vehicle is stationary.
• The VMES operates on wheeled or tracked vehicles and, therefore, may be subject to occasional disturbances and interruptions in the satellite link.
• The VMES is operating as part of a satellite network (e.g. star, mesh or point-to-point) used for the distribution and/or exchange of information.
• The VMES is comprised of all the equipment, electrical and mechanical, from the antenna itself to the interface with other communications equipment on a vehicle (usually referred to as the terrestrial interface).
• The VMES transmits on single carrier in the frequency range 14,00 GHz to 14,50 GHz.
NOTE 1: For the purposes of the present specification, OFDM modulation is considered as a single carrier.
• The VMES receives in one or more frequencies within the range from 10,70 GHz to 12,75 GHz.
• The VMES uses linear or circular polarization.
• The VMES is designed to operate through a geostationary satellite (or a cluster of co-located geostationary
satellites) that is at least 3° away from any other geostationary satellite operating in the same frequencies and over the same coverage area.
NOTE 2: Satellites may be spaced closer than 3°. In such cases, the satellite operator will inform the VMES client of the requirements of the system coordination agreements.
• The VMES transmits at elevations greater than or equal to 7° relative to the local horizon.
• The VMES is designed for unattended operation.
• The VMES is designed for both mobile and stationary operation. In the case of stationary operation, the VMES should not be accessible to the general public and operated safely.
• The VMES is controlled and monitored by an Antenna Control Facility (ACF). This function may be performed centrally (e.g. for a network of VMESs with a central hub) or it could be performed within the VMES for autonomous control. The ACF is outside the scope of the present document.
The present document applies to the VMES with its ancillary equipment and its various telecommunication ports, and when operated within the boundary limits of the operational environmental profile as defined for its intended use and when installed as required by its intended use or in the user documentation.
NOTE 3: The relationship between the present document and essential requirements of article 3 of Directive 2014/53/EU 2 is given in Annex A.
Base documents: Draft ETSI EN 302 977 V2.1.13
prEN 301 908-26 V1.0.0
IMT cellular networks;
Harmonised Standard for access to radio spectrum;
Part 26: Aerial User Equipment (UE)
Scope: 1.0 General The present document specifies technical characteristics and methods of measurements for the following equipment:
• Aerial User Equipment (UE) for Evolved Universal Terrestrial Radio Access (E-UTRA) and New Radio (NR).
NOTE: The relationship between the present document and essential requirements of Directive 2014/53/EU is given in annex A.
1.1 Operating bands The aerial UE is capable of operating in all, or any part of the E-UTRA and NR frequency bands given in Table 1.1-1.
Table 1.1-1: E-UTRA and NR aerial UE operating bands
Band designation for operation as: E-UTRA; NR; Uplink (UL) operating band aerial UE transmit FUL_low to FUL_high; Downlink (DL) operating band aerial UE receive FDL_low to FDL_high; Duplex Mode;
1; n1; 1 920 MHz to 1 980 MHz; 2 110 MHz to 2 170 MHz; FDD;
3; n3; 1 710 MHz to 1 785 MHz; 1 805 MHz to 1 880 MHz; FDD;
7 (see note 3); n7 (see note 3); 2 500 MHz to 2 570 MHz; 2 620 MHz to 2 690 MHz; FDD;
8; n8; 880 MHz to 915 MHz; 925 MHz to 960 MHz; FDD;
20 (see note 3); n20 (see note 3); 832 MHz to 862 MHz; 791 MHz to 821 MHz; FDD;
28 (see notes 1 and 3); n28 (see notes 1 and 3); 703 MHz to 748 MHz; 758 MHz to 803 MHz; FDD;
38 (see note 3; n38 (see note 3); 2 570 MHz to 2 620 MHz; 2 570 MHz to 2 620 MHz; TDD;
N/A; n91 (see notes 2 and 3); 832 MHz to 862 MHz; 1 427 MHz to 1 432 MHz; FDD;
N/A; n92 (see notes 2 and 3); 832 MHz to 862 MHz; 1 432 MHz to 1 517 MHz; FDD;
N/A; n93 (see note 2); 880 MHz to 915 MHz; 1 427 MHz to 1 432 MHz; FDD;
N/A; n94 (see note 2); 880 MHz to 915 MHz; 1 432 MHz to 1 517 MHz; FDD;
N/A; n109 (see notes 2 and 3); 703 MHz to 733 MHz; 1 432 MHz to 1 517 MHz; FDD;
NOTE 1: In Europe, according to Commission Implementing Decision (EU) 2016/687 of 28 April 2016 and ECC Decision (15)01, radio equipment in band 28 is only allowed between 703 MHz and 736 MHz (FUL_low = 703 MHz and FUL_high = 736 MHz) for the transmitter and between 758 MHz and 791 MHz (FDL_low = 758 MHz and FDL_high = 791 MHz) for the receiver.
NOTE 2: Variable duplex operation does not enable dynamic variable duplex configuration by the network, and is used such that DL and UL frequency ranges are supported independently in any valid frequency range for the band.
NOTE 3: For those bands, mechanisms to ensure no-transmit zones for the aerial UEs are not considered in the current version of the present document.
NOTE: The relationship between the present document and essential requirements of article 3.2 of Directive 2014/53/EU is given in annex A.
The present document covers requirements for E-UTRA and NR aerial UE from 3GPP™ Releases 18 defined in ETSI TS 136 101 and ETSI TS 138 101-1, respectively. This includes the requirements for E-UTRA and NR aerial UE operating bands from 3GPP™ Release 18 defined in ETSI TS 136 101 and ETSI TS 138 101-1.
The requirements for NR aerial UE in the present document apply to the combination of channel bandwidths, SCS and operating bands shown in Table 1.1-2. The channel bandwidths are specified for both the TX and RX path.
Table 1.1-2: Channel Bandwidths for each NR band
NR band / SCS / UE Channel bandwidth;
NR Band; SCS kHz; 5 MHz; 10 MHz (notes 1, 2); 15 MHz (note 2); 20 MHz (note 2); 25 MHz (note 2); 30 MHz; 35 MHz; 40 MHz; 45 MHz; 50 MHz
NOTE 1: 90 % spectrum utilization may not be achieved for 30 kHz SCS. NOTE 2: 90 % spectrum utilization may not be achieved for 60 kHz SCS. NOTE 3: This aerial UE channel bandwidth applies only to downlink. NOTE 4: This aerial UE channel bandwidth is optional in this version of the present document.
NOTE 5: For the 20 MHz bandwidth, the minimum requirements are specified for NR UL carrier frequencies confined to either 713 MHz to 723 MHz or 728 MHz to 738 MHz.
NOTE 6: This aerial UE channel bandwidth is applicable only to uplink.
• Aerial User Equipment (UE) for Evolved Universal Terrestrial Radio Access (E-UTRA) and New Radio (NR).
NOTE: The relationship between the present document and essential requirements of Directive 2014/53/EU is given in annex A.
1.1 Operating bands The aerial UE is capable of operating in all, or any part of the E-UTRA and NR frequency bands given in Table 1.1-1.
Table 1.1-1: E-UTRA and NR aerial UE operating bands
Band designation for operation as: E-UTRA; NR; Uplink (UL) operating band aerial UE transmit FUL_low to FUL_high; Downlink (DL) operating band aerial UE receive FDL_low to FDL_high; Duplex Mode;
1; n1; 1 920 MHz to 1 980 MHz; 2 110 MHz to 2 170 MHz; FDD;
3; n3; 1 710 MHz to 1 785 MHz; 1 805 MHz to 1 880 MHz; FDD;
7 (see note 3); n7 (see note 3); 2 500 MHz to 2 570 MHz; 2 620 MHz to 2 690 MHz; FDD;
8; n8; 880 MHz to 915 MHz; 925 MHz to 960 MHz; FDD;
20 (see note 3); n20 (see note 3); 832 MHz to 862 MHz; 791 MHz to 821 MHz; FDD;
28 (see notes 1 and 3); n28 (see notes 1 and 3); 703 MHz to 748 MHz; 758 MHz to 803 MHz; FDD;
38 (see note 3; n38 (see note 3); 2 570 MHz to 2 620 MHz; 2 570 MHz to 2 620 MHz; TDD;
N/A; n91 (see notes 2 and 3); 832 MHz to 862 MHz; 1 427 MHz to 1 432 MHz; FDD;
N/A; n92 (see notes 2 and 3); 832 MHz to 862 MHz; 1 432 MHz to 1 517 MHz; FDD;
N/A; n93 (see note 2); 880 MHz to 915 MHz; 1 427 MHz to 1 432 MHz; FDD;
N/A; n94 (see note 2); 880 MHz to 915 MHz; 1 432 MHz to 1 517 MHz; FDD;
N/A; n109 (see notes 2 and 3); 703 MHz to 733 MHz; 1 432 MHz to 1 517 MHz; FDD;
NOTE 1: In Europe, according to Commission Implementing Decision (EU) 2016/687 of 28 April 2016 and ECC Decision (15)01, radio equipment in band 28 is only allowed between 703 MHz and 736 MHz (FUL_low = 703 MHz and FUL_high = 736 MHz) for the transmitter and between 758 MHz and 791 MHz (FDL_low = 758 MHz and FDL_high = 791 MHz) for the receiver.
NOTE 2: Variable duplex operation does not enable dynamic variable duplex configuration by the network, and is used such that DL and UL frequency ranges are supported independently in any valid frequency range for the band.
NOTE 3: For those bands, mechanisms to ensure no-transmit zones for the aerial UEs are not considered in the current version of the present document.
NOTE: The relationship between the present document and essential requirements of article 3.2 of Directive 2014/53/EU is given in annex A.
The present document covers requirements for E-UTRA and NR aerial UE from 3GPP™ Releases 18 defined in ETSI TS 136 101 and ETSI TS 138 101-1, respectively. This includes the requirements for E-UTRA and NR aerial UE operating bands from 3GPP™ Release 18 defined in ETSI TS 136 101 and ETSI TS 138 101-1.
The requirements for NR aerial UE in the present document apply to the combination of channel bandwidths, SCS and operating bands shown in Table 1.1-2. The channel bandwidths are specified for both the TX and RX path.
Table 1.1-2: Channel Bandwidths for each NR band
NR band / SCS / UE Channel bandwidth;
NR Band; SCS kHz; 5 MHz; 10 MHz (notes 1, 2); 15 MHz (note 2); 20 MHz (note 2); 25 MHz (note 2); 30 MHz; 35 MHz; 40 MHz; 45 MHz; 50 MHz
NOTE 1: 90 % spectrum utilization may not be achieved for 30 kHz SCS. NOTE 2: 90 % spectrum utilization may not be achieved for 60 kHz SCS. NOTE 3: This aerial UE channel bandwidth applies only to downlink. NOTE 4: This aerial UE channel bandwidth is optional in this version of the present document.
NOTE 5: For the 20 MHz bandwidth, the minimum requirements are specified for NR UL carrier frequencies confined to either 713 MHz to 723 MHz or 728 MHz to 738 MHz.
NOTE 6: This aerial UE channel bandwidth is applicable only to uplink.
Base documents: Draft ETSI EN 301 908-26 V1.0.0