Metalliteollisuuden Standardisointiyhdistys

 

This document specifies the general requirements for unmanned aircraft docking systems, including the requirements for basic characteristics, functional capabilities, performance criteria, environmental adaptability, electromagnetic compatibility, safety, reliability, maintainability, and testability, as well as the guidelines for marking and packaging. This document applies to the docking systems of civil small multi-copter unmanned aircraft with a maximum take-off mass (MTOM) of level II through level IV as defined in ISO 21895. Docking system supporting other types of unmanned aircraft may also refer to this document. This document does not specify the requirements for vertiports, which are operated under the responsibility of vertiport operators as defined in ISO 5015-2.

 

This document defines terms and expressions used in the field of underwater bioacoustics and biotremology, including sound production by aquatic life (including all life forms that use aquatic habitats), reception of sound by aquatic life, effects of sound on aquatic life, scattering of sound from aquatic life, passive and active acoustic monitoring of aquatic life, and sound mapping.

 

This document specifies the complete specification operator for surface texture (scale-limited surfaces) by areal methods.

 

This document specifies requirements for blackplate product in the form of coils intended for direct use and mostly for the production of electrolytically zinc coated plate, or coils electrolytically coated with either tin (tinplate) or chromium/chromium oxide (ECCS or ECCS-RC). Blackplate can be a single or double reduced product and is specified in nominal thicknesses that are multiples of 0,005 mm from typical 0,10 mm up to 0,60 mm. This document applies to coils in nominal minimum widths of 600 mm. In addition to this document, the general technical delivery conditions of EN 10021 apply. NOTE Standard width coils for specific uses, e.g. tab stock, can be slit into narrow strip for supply in coil form.

 

This document specifies requirements for rubber hoses (including twin hoses) for welding, cutting and allied processes. This document specifies requirements for rubber hoses for normal duty of 2 MPa (20 bar) and light duty [limited to hoses for maximum working pressure of 1 MPa (10 bar) and with bore up to and including 6,3 mm]. This document applies to hoses operated at temperatures -20 °C to +60 °C and used in: — gas welding and cutting; — arc welding under the protection of an inert or active gas; — processes allied to welding and cutting, in particular, heating, brazing, and metallization. This document does not specify requirements for hose assemblies; these are detailed in ISO 8207. This document applies neither to thermoplastics hoses nor to hoses used for high pressure [>0,15 MPa (>1,5 bar)] acetylene.

 

This document specifies methods for explosion prevention and protection in mining by outlining the basic concepts and methodology for the design and construction of equipment, protective systems and components. This document applies to Group I equipment, protective systems and components intended for use in underground parts of mines and those parts of their surface installations at risk from firedamp and/or combustible dust. NOTE Detailed information on specific equipment, protective systems and components is contained in the relevant individual standards. Safety-relevant data regarding flammable materials and explosive atmospheres are required for the design and construction of the explosion protection measures. This document specifies methods for the identification and assessment of hazardous situations that may lead to explosions and describes the design and construction measures appropriate for the required safety. This is achieved by: — risk assessment; — risk reduction. The safety of equipment, protective systems, and components can be achieved by eliminating hazards and/or limiting the risk, i.e.: a) by appropriate design (without using safeguarding); b) by safeguarding; c) by information for use; d) by any other preventive measures. Measures in accordance with a) (prevention) and b) (protection) against explosions are dealt with in Clause 6 of this document; measures according to c) against explosions are dealt with in Clause 7 of this document. Measures in accordance with d) are not described in this document. They are dealt with in EN ISO 12100:2010, Clause 6. The preventive and protective measures described in this document will not provide the required level of protection unless the equipment, protective systems and components are operated in line with their intended use and are installed and maintained according to the relevant codes of practice or requirements. This document is applicable to any equipment, protective systems and components intended to be used in potentially explosive atmospheres. These atmospheres can arise from flammable materials processed, used or released by the equipment, protective systems and components or from materials in the vicinity of the equipment, protective systems and components and/or from the materials of construction of the equipment, protective systems and components. As shot firing can release potentially explosive atmospheres, this document is also applicable to the equipment used for shot firing, apart from the explosives and detonators. This document is applicable to equipment, protective systems and components at all stages of use. This document is not applicable to: — medical devices intended for use in a medical environment; — equipment, protective systems and components where the explosion hazard results exclusively from the presence of explosives or unstable chemical substances; — equipment, protective systems and components where the explosion can result from reaction of substances with oxidising agents other than atmospheric oxygen or by other hazardous reactions or conditions other than atmospheric conditions; — equipment intended for use in domestic and non-commercial environments where explosive atmospheres may only rarely be created and solely as a result of the accidental leakage of fuel gas; — personal protective equipment covered by Regulation (EU) 2016/425; the design and construction of systems containing desired, controlled combustion processes, unless they can act as ignition sources in potentially explosive atmospheres; — mines where firedamp and/or combustible dust are not naturally present and surface installations such as coal preparation plants, power plants, coke oven plants etc. in which an explosive atmosphere can be present, but which are not part of a coal mine. These are covered by EN 1127-1:2019.

 

This part of ISO 25178 specifies the complete specification operator for surface texture (scale limited surfaces) by areal methods.

 

This document is applicable to anthracite used for treatment of water intended for human consumption. This document describes the characteristics of anthracite and specifies the requirements and the corresponding test methods for anthracite. This document gives information on the use of anthracite in water treatment.

 

This document is applicable to reactivated granular activated carbon used for treatment of water intended for human consumption. This document describes the characteristics of reactivated granular activated carbon and specifies the requirements and the corresponding test methods for reactivated granular activated carbon. This document gives information on the use of reactivated granular activated carbon in water treatment.

 

This document is applicable to virgin granular activated carbon used for treatment of water intended for human consumption. This document describes the characteristics of virgin granular activated carbon and specifies the requirements and the corresponding test methods for virgin granular activated carbon. This document gives information on its use in water treatment.

 

This document describes the objectives and procedures for the monitoring of wind turbine structures (Structural Health Monitoring - SHM). It provides guidelines and instructions for the general design of SHM systems for monitoring wind turbine structures and gives an overview of the objectives that can be pursued with SHM and their benefits, in accordance with the principles outlined in iso:proj:88268ISO 16079-1 . In contrast to methods from the field of machine monitoring (described in ISO 16079-2:2020 [1] ), which typically deal with the monitoring of rotating machine components, SHM is primarily used to monitor objects with load-bearing properties (foundation, tower and nacelle mainframe structures). Blade structural monitoring is outside the scope of this document.. This document provides instructions for dealing with the variety of methods and technologies appropriate to wind turbine structures, both on and off-shore. It describes the framework conditions for the efficient use of SHM and refers to possible economic and/or technical application limits. Basic strategies for action are presented and criteria for their optimal implementation are named, in relation to the objectives of SHM. The requirements for technical implementation in SHM systems are listed, depending on the SHM objective. The document also refers to the tasks of integrating monitoring measures into the ongoing construction or operating process of the load-bearing structures and provides information for their consideration in project and process management. This document is aimed at a) Structure owners/End Users (Asset managers) b) Wind Farm Developers c) Operators d) Manufcturers of Wind Turbines e) Designers and Wind Turbine structural components including f) Fabricators of Wind Turbine structural components g) Suppliers of SHM hardware h) Data analysts i) Operations and Maintenance Departments The use of an SHM system makes sense in technical installations and constructions in which either the technical functionality can be improved or an economic benefit can arise. Examples of the advantages that an SHM system can provide are: j) Early fault detection k) Condition following events l) Remaining service life m) Operational optimization n) Fleet monitoring o) operational safety; p) compliance approval (in individual cases); q) asset management, condition-based maintenance (CBM); r) design verification; s) service life extension; and t) risk-based inspection regimes (where permissible) This document includes the foundation, tower and nacelle structures of the wind turbine. The techniques described are applicable to any foundation type, subject to confirmation by the FMECA and FMSA processes. The effects of the blade motion and the aerodynamic forces on the tower are included, but structural assessment of the blades themselves is excluded. Blade condition monitoring is expected to form a future part of the ISO 16079 series of standards. Whilst the monitoring of Offshore Substations (OSS), or other similar ancillary constructions are not explicitly in scope, many of the methods described here are also applicable to SHM for such structures. Figure 1 shows the relationships between various Standards referred to in this document.

 

This document specifies requirements and provides a framework for the digital transformation of Facility Management (FM). It defines the principles, processes and supporting elements for organizations to apply when planning, implementing and improving digitalization within FM. The purpose of this standard is to ensure that FM organizations can adopt digital practices in a consistent and effective manner that improves operational efficiency, enhances decision-making and strengthens resilience. The standard is written as a companion to EN ISO 41001 [5] Facility management — Management systems — Requirements with guidance for use and EN 15221-8 [2] Facility management — Principles and processes. Its role is not to duplicate the management system requirements of EN ISO 41001 [5] or the principles and processes of EN 15221-8 [2], but to provide the digitalization dimension that complements both. NOTE Annex B describes the relationship between this document and other standards. This standard applies broadly. It is relevant to: — organizations of any type, size, or sector engaged in FM; — both in-house FM functions and outsourced FM service providers; — all phases of FM service delivery and the asset life cycle. Certain elements are outside the scope of this document. General FM principles and processes are covered in EN 15221-8 [2], while the management system requirements for FM are addressed by EN ISO 41001 [5]. These exclusions ensure that this document remains focused on digital transformation as a distinct, yet integrated, component of FM.

 

This document lays down safety criteria and inspection procedures for the regular use of wire sling ropes. NOTE 1 The specifications and testing of slings are specified in iso:proj:14308ISO 7531. NOTE 2 The use of wire rope slings is frequently covered by national regulations; these would take precedence over this document.

 

This document specifies minimum requirements for ferrule-secured eye terminations for general-purpose steel wire ropes complying with iso:proj:66635ISO 2408; the ferrules are made of steel, aluminium or copper. The eye termination may be made either as a Flemish eye or a turn back loop. Prototype tests covering the type acceptance of ferrule-secured systems and routine quality control requirements for ferrule-secured eye terminations are also specified in this document.

 

This European Standard is applicable to Dolomitic lime used for treatment of water intended for human consumption. It describes the characteristics of magnesium oxide and specifies the requirements and the corresponding test methods for Dolomitic lime. It gives information on its use in water treatment.

 

This European Standard is applicable to magnesium oxide used for treatment of water intended for human consumption. It describes the characteristics of magnesium oxide and specifies the requirements and the corresponding test methods for magnesium oxide. It gives information on its use in water treatment.

 

This European Standard is applicable to calcium magnesium carbonate used for treatment of water intended for human consumption. It describes the characteristics of calcium magnesium carbonate and specifies the requirements and the corresponding test methods for calcium magnesium carbonate. It gives information on its use in water treatment.

 

This document specifies the classification, requirements and test methods for rinsed and non-rinsed hexavalent chromium-free chemical conversion coatings on aluminium and its alloys. This document applies to hexavalent chromium-free chemical conversion coatings on extruded aluminium and aluminium alloy components, profiles, coils, sheets, as well as cast aluminium alloy parts. Hexavalent chromium-free conversion coatings may serve as a protective coating or as a base for organic coatings (such as paints, rubber, or adhesives). This document does not apply to chemical conversion coatings containing hexavalent chromium, nor does it apply to electrochemical conversion coatings, such as anodic oxidation coatings. When the conversion coating is used as a base for powder or liquid coatings, the overall performance requirements for the complete coating system shall be specified in accordance with iso:proj:77402ISO 18768-1 or iso:proj:77403ISO 18768-2 .

 

This European Standard is applicable to pyrolyzed coal material used for treatment of water intended for human consumption. It describes the characteristics of pyrolyzed coal material and specifies the requirements and the corresponding test methods for pyrolyzed coal material. It gives information on its use in water treatment.

 

This European Standard is applicable to powdered activated carbon used for treatment of water intended for human consumption. It describes the characteristics of powdered activated carbon and specifies the requirements and the corresponding test methods for powdered activated carbon. It gives information on its use in water treatment.