SFS Suomen Standardit

 

This document provides reference software for ISO/IEC 23090-05 as an electronic attachment.

 

 

This document specifies the dimensions, tolerances and the required characteristics of a quick release, self retaining, positive locking, double acting pin with button handle for aerospace application.

 

This document specifies requirements for the verification process of quantitative and qualitative sustainability information, including reporting on environmental, social, governance (ESG) and other sustainability aspects. It applies to the set of rules and procedures for carrying out verification by providing elements of a verification programme, such as process, evidence-gathering activities, reporting. This document addresses uncertainty in values and how to address these uncertainties. It addresses primary and secondary sources of data and how they relate to the strength of verification evidence. For the verification of quantitative information, it details the approach for continuous and discrete forms of data and the types of evidence gathering activities that can be applicable to each. Continuous data can be further categorized ratio and interval data. Verification approaches include an assessment of data collection, data editing, data transformation, data control processes as well as numerical techniques that aid in verification analytical testing. For verification of qualitative information, it details the approach for binary, ordinal, and nominal forms of data and the types of evidence gathering activities that can be applicable to each. Verification approaches include an assessment of data collection, data editing, data transformation, data control processes as well as numerical techniques that aid in verification analytical testing

 

This document specifies a method [1] for the quantitative determination of saxitoxin (STX), decarbamoyl saxitoxin (dcSTX), neosaxitoxin (NEO), decarbamoyl neosaxitoxin (dcNEO), gonyautoxin 1 and 4 (GTX1,4; sum of isomers), gonyautoxin 2 and 3 (GTX2,3; sum of isomers), gonyautoxin 5 (GTX5 also called B1), gonyautoxin 6 (GTX6 also called B2), decarbamoyl gonyautoxin 2 and 3 (dcGTX2,3; sum of isomers), N sulfocarbamoyl gonyautoxin 2 and 3 (C1,2; sum of isomers) and N-sulfocarbamoyl gonyautoxin 1 and 4 (C3,4; sum of isomers) in (raw) mussels, oysters, scallops and clams. Laboratory experience has shown that this document can also be applied to other marine invertebrates [2], [3] and processed products of those species, however, no complete interlaboratory validation study according to ISO 5725 2:1994 has been carried out so far. The method described was validated in an interlaboratory study [4], [5] and was also verified in a European Union Reference Laboratory for Marine Biotoxins (EURLMB)-performance test aiming the total toxicity of the samples [6]. Toxins which were not available in the first interlaboratory study [4], [5] as dcGTX2,3 and dcNEO were validated in two additional interlaboratory studies [7], [8]. The lowest validated levels [4], [5], [8], are given in µg toxin (free base)/kg shellfish tissue and also as µmol/kg shellfish tissue and are listed in Table 1. [Table 1] A quantitative determination of GTX6 was not included in the first interlaboratory study but several laboratories detected this toxin directly after solid phase extraction with ion-exchange (SPE-COOH) clean-up and reported a mass concentration of 30 µg/kg or higher in certain samples. For that reason, the present method is applicable to quantify GTX6 directly, depending on the availability of the standard substance. Whenever GTX6 standard is not commercially available, it is possible to determine GTX6 after hydrolysis of Fraction 2 of the SPE-COOH clean-up, described in 6.4, as NEO. The indirect quantification of GTX6 was validated in two additional interlaboratory studies [7], [8]. A study to compare direct and indirect GTX6 quantification was conducted at the EURLMB [16]. A quantitative determination of C3,4 was included in the first interlaboratory study. The present method is applicable to quantify C3,4 directly, depending on the availability of the standard substance. If no standard substances are available, C3,4 can only be quantified as GTX1,4 if the same hydrolysis protocol used for GTX6 (6.4) is applied to Fraction 1 of the SPE-COOH clean-up [10]. A study to compare direct and indirect C3,4 quantification was conducted at the EURLMB [16].

 

This document specifies general principles and requirements for the validation and verification process of sustainability information, including reporting on environmental, social, governance (ESG) and other sustainability aspects. It provides general principles and requirements for determining the categorization of quantitative and qualitative information. These principles and requirements contribute to the set of rules and procedures that are provided in validation/verification programmes. This document can also be used as the basis for validation and verification activities that support other conformity assessment schemes. NOTE: This document can be applied by validation and verification bodies according to ISO/IEC 17029. It can contribute to schemes operated by inspection bodies according to ISO/IEC 17020 or certification bodies according to ISO/IEC 17065.

 

This document provides a guideline to the implementation of the specific space profiles for VSEs specified in the ISO/IEC 29110-6-1 through a set of development processes. Industry and large organisations recognize the value of VSEs, i.e., enterprises, organisations (e.g., government agency, non-profit organisation), projects or departments with up to 25 people, in contributing with emerging new technology that bigger organisations cannot use them as easily nor incorporate them in their solutions as fast. But often these VSEs are not ready to comply with the stringent requirements for space projects. The purpose of this document is to ultimately achieve the process capacity to participate in the development of critical software in the space domain. But not all software in the space domain can be addressed. For example, for software embedded in products that can be fatal to human life, additional safeguards will be required. VSE in space domain can demonstrate the quality in their processes in a stepwise approach to eventually participate in space projects in a faster and feasible way This document is targeted at small suppliers, developers, managers, and quality assurance managers of software products in the space domain. The document may also be used by a single party through a self-imposed set of processes. This document does not prescribe a specific system or software life cycle model, development methodology, model or technique. The users of this document select the processes to be deployed and map them onto the specific project life cycle model. The parties are also responsible for selecting and applying the software development methods and for performing the activities and tasks suitable for the software project. This document is not intended to conflict with any organization's policies, procedures, and standards or with any national laws and regulations. Any such conflict should be resolved before using this document. The processes in this document are contained in Clauses 6, 7, 8 and 9 presented in their correspondent groups as per the ISO/IEC 29110-6-1 respectively. It is recognised that specific projects or organizations may not need to use all the processes provided by this document. Therefore, implementation of this document typically involves selecting a set of processes suitable to the organization or project and will so be reflected in the project plan of each project.

 

 

This document provides management guidelines to the organisational profile specified in ISO/IEC 29110-4-2 through organizational management, product portfolio management, resource management and process management processes. This document applies to VSEs that develop software or works thru operating processes. This document is intended to be used with any processes, techniques and methods that enhance the VSEs’ customer satisfaction, quality and productivity.

 

 

This document specifies the performance requirements for the limited flame spread properties of all materials, all material assemblies, and protective clothing in order to reduce the possibility of the clothing burning when in occasional and brief contact with small flames and thereby constituting a hazard. Additional requirements for clothing are also specified, including design requirements, mechanical requirements, marking, instructions and information supplied by the manufacturer. When protection against heat hazards is necessary, in addition to protection against flame, this document is not applicable International Standards such as ISO 11612[2] are used instead. A classification system is given for materials, material assemblies, and garments which are tested according to ISO 15025:2016, Procedure A.

 

This document specifies a method for determining the total content of the following cyclosiloxanes in chemicals for the leather tanning industry: — octamethylcyclotetrasiloxane (D4); — decamethylcyclopentasiloxane (D5); — dodecamethylcyclohexasiloxane (D6); This method requires the use of Gas chromatography (GC) equipped with a single quadrupole mass spectrometer (MS) to identify and quantify the cyclosiloxanes

 

ISO 14116:2015 specifies the performance requirements for the limited flame spread properties of all materials, all material assemblies, and protective clothing in order to reduce the possibility of the clothing burning when in occasional and brief contact with small flames and thereby constituting a hazard. Additional requirements for clothing are also specified, including design requirements, mechanical requirements, marking, and information supplied by the manufacturer. When protection against heat hazards is necessary, in addition to protection against flame, this International Standard is not appropriate. International Standards such as ISO 11612 are to be used instead. A classification system is given for materials, material assemblies, and garments which are tested according to ISO 15025, Procedure A.

 

This document specifies performance requirements for protective clothing made from flexible materials, which are designed to protect the wearer’s body, except the hands, from heat and/or flame. For protection of the wearer’s head and feet, the only items of protective clothing falling within the scope of this document are gaiters, hoods, and overboots. However, concerning hoods, requirements for visors and respiratory equipment are not given. The performance requirements set out in this document are applicable to protective clothing which could be worn for a wide range of end uses, where there is a need for clothing with limited flame spread properties and where the user can be exposed to radiant or convective or contact heat or to molten metal splashes. This document is not applicable to protective clothing that is specified by other International Standards (see Introduction).

 

ISO 11612:2015 specifies performance requirements for protective clothing made from flexible materials, which are designed to protect the wearer's body, except the hands, from heat and/or flame. For protection of the wearer's head and feet, the only items of protective clothing falling within the scope of ISO 11612:2015 are gaiters, hoods, and overboots. However, concerning hoods, requirements for visors and respiratory equipment are not given. The performance requirements set out in ISO 11612:2015 are applicable to protective clothing which could be worn for a wide range of end uses, where there is a need for clothing with limited flame spread properties and where the user can be exposed to radiant or convective or contact heat or to molten metal splashes.

 

This document contains provisions for seismic design and assessment of offshore structures. Recommendations for the effects of seismic events on floating structures are introduced. Design and assessment of earthquake-induced ground motions are specifically addressed. Other geologically induced hazards such as liquefaction, slope instability, faults, tsunamis, mud volcanoes and shock waves are briefly covered. Provisions for site-specific probabilistic seismic hazard analysis are provided for offshore structures in high seismic areas and for offshore structures with high consequence levels.

 

This document defines a gain map used in HDR digital photography applications, for dynamic range conversion between two image representations. This includes the definition of the gain map metadata and its attributes, how to specify the gain map and associated metadata, and how to apply the gain map using this metadata.

 

This document provides the minimum requirements for the knowledge and skills requirements of assessment body personnel performing testing activities and validating activities for a conformance scheme using ISO/IEC 19790 and ISO/IEC 24759.