Metalliteollisuuden Standardisointiyhdistys

 

This document specifies safety requirements for earth-moving machinery when used for demolition applications. This document is only applicable to the following earth-moving machinery types as described in EN ISO 6165:2022: - hydraulic excavators; - cable excavators. This document does not provide safety requirements for machinery used in conjunction with explosives for the demolition application. This document does not provide requirements for main electrical circuits and drives of machinery when the primary source of energy is an external electrical supply. This document does not provide performance requirements for safety related functions of control system(s). This document deals with significant hazards, hazardous situations and events relevant to earth-moving machinery, when used for demolition application and under conditions foreseen but also taking into account any reasonably foreseeable misuse thereof (see Annex A). The following significant and relevant hazards are not covered in this document: - laser; - lightning. This document is not applicable to earth-moving machinery which are manufactured before the date of publication of this document by CEN. NOTE For travelling on public roads, national traffic regulations apply (e.g. braking, steering, lighting, towing, etc.) until harmonized requirements are available.

 

This document establishes general principles of presentation to be applied to construction drawings for general arrangement and assembly, mainly within the field of building and architectural drawings.

 

This document describes a method for measuring adhesion strength between microcircuits and substrates by scratching with the wedged-shape diamond stylus. Using the traditional adhesion test, it is difficult to evaluate the adhesion strength of the microcircuits with a narrower scratching stylus. During the test, applying stylus force is constant or progressive and normal to the surface. This yields adhesive and/or cohesive failures of the microcircuit coating-substrate system. This test method is suitable for evaluating copper microcircuits up to a width of tens of micrometres. It is also applicable for evaluating fine patterns of other widths and materials. Forces in the range of 0,1 N to 30 N are used in this document. Although the proposed procedure may apply to other force ranges, an appropriate calibration is required to quantify the normal forces at which failures occur.

 

This document establishes the general Safety Launch Collision Avoidance (Safety LCOLA) requirements for the avoidance of collision between the collection of newly launched objects resulting from a space launch (including launch system stages payloads or released objects) and human-inhabited or human-habitable space stations and space vehicles. The document specifies the requirements for analysis of launch times and procedures for identifying safe launch opportunities and describes the assessment and constraints for collision avoidance risk evaluation metrics (collision probability and encounter distance).

 

The purpose of this part of the Standard is to present a data model to represent the specification and reporting of irrigation water and product applications in an irrigation system. The scope includes planning and preparation phases (represented by documents called Plan, Recommendation and Work Order) as well as the recording of as-applied water and products (known as a Work Record). The scope of this document does not, however, include representing the Observations and Measurements that drive tactical decision-making in irrigation (and the creation of Recommendations and Work Orders); that material, corresponding to an irrigation-specific implementation of the ISO 19156 standard, is covered in Part 2 of this standard. This standard should enable a developer to unambiguously represent the data being communicated in various parts of the farmer's business process associated with irrigation field operations in terms of a set of classes based on the ISO 11783 standard, with the understanding that not all farming businesses will necessarily require or support all the documents described above. The Standard is meant to support the exchange of data. The classes and structures described herein are not meant to specify internal structure or the object model of an Farm Management Information System (FMIS) or similar system, nor necessarily a serialization format for the data. While it is easy to draw parallels between an data model and a database schema, the data model defined here is not specifically meant to be construed as a database schema or as the internal structure of an FMIS. The standard does not specify any type of “summary” report. This is intentional. The information contained in a collection of standard compliant documents will be sufficient to create a summary of irrigation applications. Actual summarization of irrigation requires aggregation, and the method or scope of aggregation is often derived from specific reporting requirements. The Standard is neutral regarding reporting requirements because these requirements are typically derived from a regional, basin, or administrative unit scale and are, therefore, out of scope. It is important to note that Standard-compliant documents are intended for documenting operations or use of equipment, not the design of equipment. Many characteristics of an irrigation system are relevant for documenting the system’s design but not necessarily for documenting its use. For example, the pipe diameter of a pivot lateral is typically included in its specification. Documenting how much water the pivot applied does not require knowledge of the pipe diameter. Documentation of engineering design is out of scope for the Standard.

 

The purpose of this part of the standard is to enable the representation and exchange of observations and measurements (O&M) data (e.g., weather, soil moisture, crop scouting, crop quality measurements, food product properties), currently stored in a variety of proprietary original equipment manufacturer (OEM) formats, using an industry-wide data model that can be used by agrifood systems in general and digital agriculture (e.g, irrigation) data analysis and prescription-making programs in particular. This implementation is based on the ISO 19156 Standard for Observations and Measurements. The scope of this standard is primarily discrete observations of environmental (or other agrifood-related) variables along with the metadata, data quality elements and semantic resources necessary for their use in agrifood systems. This standard should enable a developer to represent observations and measurements accurately and unambiguously in terms of a set of objects adapted from the ISO 19156 standard.

 

This Standard enables the exchange at scale of agricultural field operations data. This includes: These data are currently stored and represented in a variety of proprietary original equipment manufacturer (OEM) formats. This standard seeks to provide an industry-wide data model that can be used for unambiguous data exchange by actors in the agrifood industry.

 

This document specifies the method for non-destructive thickness measurement via the magnetic type of electrodeposited nickel coatings, also called “e-nickel”, on magnetic or non-magnetic substrates. It can be that the method is not applicable to autocatalytic (electroless) nickel coatings depending on their chemical composition since this coating is often non-magnetic. For the purposes of this document, two types of substrates are distinguished: Not all instruments are applicable to both types of coating. The effective measuring ranges of instruments using the principle of magnetic attraction are up to 50 µm for type A coatings, and up to 25 µm for type B coatings. For instruments using the principle of reluctance, the effective ranges are much greater, up to 1 mm or even more. This method is applicable for both types of coatings.

 

This document specifies the geometry of bevel gears. The term bevel gears is used to mean straight, skew, spiral, zerol bevel and hypoid gear designs. If the text pertains to one or more, but not all, of these, the specific forms are identified. The manufacturing process of forming the desired tooth form is not intended to imply any specific process, but rather to be general in nature and applicable to all methods of manufacture. The geometry for the calculation of factors used in bevel gear rating, such as ISO 10300 (all parts), is also included. This document is intended for use by an experienced gear designer capable of selecting reasonable values for the factors based on his/her knowledge and background. It is not intended for use by the engineering public at large. Annex A provides a structure for the calculation of the methods provided in this document.

 

 

ISO 5821:2009 specifies the dimensions and tolerances of resistance spot welding electrode caps, where a female taper is used to fix the cap to an electrode adaptor. ISO 5821:2009 applies only to electrode caps for which the electrode force given for diameters 13 mm, 16mm and 20 mm (taper 1:10) and for diameters 12,7 mm, 15,8 mm and 19,1 mm (taper 1:9,6) is not exceeded.

 

This second edition cancels and replaces the first edition (i. e. ISO 2361:1972). Specifies the method of using coating thickness instruments of the magnetic type ror non-destructive measurements of the thickness. The method may nkot be applicable to autocatalytic (electroless) nickel coatings. For the purpose of this Standasd, two types of nickel coating are disringuished: coatings on magnetic substrates and on non-magnetic substrates.

 

This document defines, extending the requirements of ISO 14300-1, the principles and requirements for integrated risk management on a space project. It explains what is needed to implement a project-integrated risk management policy by any project actor, at any level (i.e. customer, first-level supplier, or lower-level suppliers). This document contains a summary of the general risk management process, which is subdivided into four basic steps and nine tasks. This document is applicable to all the space project phases, as defined in ISO 14300-1.

 

This document specifies the requirements of parameters for the physical and the link layer for systems using radio to remotely read meters. The primary focus is to use the Short Range Device (SRD) unlicensed bands. The standard encompasses systems for walk-by, drive-by and fixed installations. As a broad definition, this document can be applied to various application layers.

 

document specifies the terms and definitions, the test conditions and the test methods of air-sourced and water-cooled roof-top units, driven by electric compressor(s), which may be equipped with a supplementary heater using electrical resistance or combustion of fossil fuel. This document covers roof-top units with 2, 3 or 4 dampers, including several features as the free-cooling, mixing air flows (on both sides) and heat recovery. This document deals with roof-top units providing space heating and/or cooling for comfort application. Process applications are not covered by this document. This document provides the part load conditions and the calculation methods taking into account roof-top units features for the determination of seasonal energy efficiency SEER and SEERon, seasonal space cooling energy efficiency ?s,c, seasonal coefficient of performance SCOP, SCOPon and SCOPnet, seasonal space heating energy efficiency ?s,h and the overall annual efficiency. Such calculation methods may be based on calculated or measured values. In case of measured values, this document covers the test methods for determination of capacities, EER and COP values during active mode at part load conditions. It also covers test methods for the determination of power input during thermostat-off mode, standby mode, off-mode and crankcase heater mode. A roof-top unit that is not using at least the thermodynamic cycle for space heating is considered as a cooling only unit. Roof-top units equipped with additional air heating and/or cooling heat exchangers will be rated without operation of these heat exchangers.

 

This document applies to hot rolled and cold rolled non-coated steel flat products made of multiphase steels for cold forming. It covers cold rolled products of thicknesses t < 3 mm and hot rolled products of thicknesses t = 6,5 mm. These products are delivered in sheet, hot rolled strip, slit hot rolled strip, cold strip, slit cold rolled strip or cut lengths obtained from slit wide strip. Flat products of multiphase steels for cold forming can be delivered with an electrolytic zinc coating according to EN 10152.

 

ISO 26203-1:2018 specifies methods for testing metallic sheet materials to determine the stress-strain characteristics at high strain rates. This document covers the use of elastic-bar-type systems. The strain-rate range between 10-3 and 103 s-1 is considered to be the most relevant to vehicle crash events based on experimental and numerical calculations such as the finite element analysis (FEA) work for crashworthiness. In order to evaluate the crashworthiness of a vehicle with accuracy, reliable stress-strain characterization of metallic materials at strain rates higher than 10-3 s-1 is essential. This test method covers the strain-rate range above 102 s-1. NOTE 1 At strain rates lower than 10-1 s-1, a quasi-static tensile testing machine that is specified in ISO 7500-1 and ISO 6892-1 can be applied. NOTE 2 This testing method is also applicable to tensile test-piece geometries other than the flat test pieces considered here.

 

This document specifies the requirements for the safety of persons and property, provides guidance for the protection of the environment, and establishes procedures for the design, construction, testing, marking and documentation, operation, maintenance, and repair of refrigerating systems and heat pumps and the recovery of refrigerants. This document specifies the classification and selection criteria applicable to the refrigerating systems. These classification and selection criteria are used in ISO 5149-2, ISO 5149-3, and ISO 5149-4. This document is applicable to: This document is applicable: This document does not apply to systems containing refrigerants which do not have a safety group classification in accordance with ISO 817.

 

This document specifies the design, construction, and installation of refrigerating systems, including piping, components, materials, and ancillary equipment directly associated with such systems, which are not covered in ISO 5149-1, ISO 5149-3, or ISO 5149-4. It also specifies requirements for testing, commissioning, marking, and documentation. Requirements for secondary heat-transfer circuits are excluded except for any safety devices associated with the refrigerating system. This document is applicable to new refrigerating systems, extensions or modifications of already existing systems, and for used systems, being transferred to and operated on another site. This document is applicable to: This document does not cover “motor vehicle air conditioners”. It does not apply to goods in storage, with respect to spoilage or contamination.

 

This document specifies requirements for the installation site for safety, which could be needed because of, but not directly connected with, the refrigerating system and its ancillary components. This document is applicable: