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This document, when used together with ISO 4254-1:2013 and ISO 4254-1:2013/AMD1:2021, specifies the safety requirements and their verification for the design and construction of trailed and self-propelled harvesters for grapes, olives and coffee. It describes methods for the elimination or reduction of hazards arising from the intended use of these machines by one person (the operator) in the course of normal operation and service. In addition, it specifies the type of information on safe working practices to be provided by the manufacturer. When provisions of this document are different from those which are stated in ISO 4254-1:2013 and ISO 4254-1:2013/AMD1:2021, the provisions of this document take precedence over the provisions of ISO 4254-1:2013 and ISO 4254-1:2013/AMD1:2021 for machines that have been designed and built according to the provisions of this document. This document, taken together with ISO 4254-1:2013 and ISO 4254-1:2013/AMD1:2021, deals with all the significant hazards, hazardous situations and events relevant to trailed and self-propelled harvesters for grapes, olives and coffee, when they are used as intended and under the conditions of misuse that are reasonably foreseeable by the manufacturer. It is not applicable to hazards arising from the presence of persons other than the operator, hazards related to vibrations and moving parts for power transmission, except for strength requirements for guards and barriers. This document does not deal with environmental hazards, except noise. In respect of steering of self-propelled machines, it is applicable only to the ergonomic aspects (for example location of the steering wheel); no other aspects related to steering are covered. This document is not applicable to machines manufactured before the date of its publication.

This document specifies conformance testing procedures for implementations of ISO/IEC 15938-17 and provides conformance bitstreams. It also provides the reference software for ISO/IEC 15938-17 as an electronic attachment. The software is an integral part of this International Standard. Requirements established in ISO/IEC 15938-17 take precedence over the behaviour of the reference software. The use of this reference software is not required for making an implementation of an encoder or decoder in conformance to ISO/IEC 15938-17. The reference software is however required for the conformance testing procedures of decoders and bitstreams.

This document provides the specification of the Flow Allocator (FA). It is not strictly speaking a protocol specification. The protocol used here is the Common Distributed Application Protocol (CDAP).[1] This specification uses the objects required to create a flow between two IPC Processes and bind their endpoints to the applications that requested the flow. The contents of these documents include an overview of the Flow Allocator, its service definition, and its specification.

This document specifies requirements and good practice recommendations for the collection and transport of samples intended for medical laboratory examinations. This document is applicable to medical laboratories and service providers, that may be independent from the medical laboratory, involved in laboratory pre-examination processes that include the examination request, patient preparation and identification, sample collection and transport. It may also be applicable to some biobanks. This document does not apply to blood and blood products intended for transfusion e.g. red blood cells, platelets, fresh frozen plasma, but may cover the collection and transport of donor samples for testing.

This document provides the specification of the Error and Flow Control Protocol (EFCP). EFCP provides an inter-process communication service to the Application Process, which may be a (N+1)-IPC Process, with the requested Quality of Service. One or more SDUs are passed on the (N)-port-id to the (N)-DIF to be sent to the destination application process. PDUs transferred by the (N)-DIF are delivered to the (N)-Port-id for the using Application Process. In the following pages it will be described the placement of EFCP within RINA, the components EFCP consists of, and the mechanisms and policies that are involved in EFCP’s work, and the timers and control mechanisms required to manage the connection. EFCP comprises two logical components, the Data Transfer Protocol (DTP), providing tightly bound mechanisms, as defined below, and the Data Transfer Control (DTCP) protocol, which provides loosely bound mechanisms. This document provides the following: the service definition, an overview of EFCP, a description of the placement of EFCP within RINA, the common elements of DTP and DTCP, DTP structure and functions, and DTCP structure and functions. An informative list of all policies in EFCP is provided as well.

This standard provides the reference model for the Recursive Inter-Network Architecture. It describes: the basic concepts of distributed systems, and distributed applications; introduction to distributed management systems; the fundamental structure of distributed Inter-Process Communications; and the Distributed Inter-Process Facility (DIF) operations.

This document provides the specification of the Common Application Connection Establishment Phase (CACEP). CACEP is a protocol exchange over a flow that serves to authenticate flow participants to their mutual satisfaction and to initialize the application naming information and information related to the application protocol that will be used by applications to exchange information (abstract and concrete syntaxes, object model versions, etc.). In case of RINA,[4],[5] the application protocol is CDAP. The main topics covered by this specification are the overview of CACEP, its Specification, the syntax of the PDUs, and the policies available

This standard provides the specification of the Common Distributed Application Protocol (CDAP). CDAP enables distributed applications to deal with communications at an object level, rather than forcing applications to explicitly deal with serialization and input/output operations. CDAP provides the application protocol component of a Distributed Application Facility (DAF).[3] CDAP provides a straightforward and unifying approach to sharing data over a network without having to create specialized protocols. This standard describes the following: an overview of CDAP; the specification of CDAP; a description of policies, in the specific sense introduced in the text; and some notes on CDAP context.

This International Standard addresses light-duty vehicles, e.g. passenger cars, pick-up trucks, light vans and sport utility vehicles (motorcycles excluded) equipped with MALSO systems. It specifies minimum functionality requirements which the driver can generally expect of the device, i.e. detection of and information on the presence of relevant obstacles within a defined (short) detection range. It defines minimum requirements for failure indication as well as performance test procedures; it includes rules for the general information strategy but does not restrict the kind of information or display system. MALSO systems use object-detection devices (sensors) for ranging in order to provide the driver with information based on the distance to obstacles. The sensing technology is not addressed; however, technology affects the performance-test procedures set up in this International Standard (see Clause 7). The current test objects are defined based on systems using ultrasonic sensors, which reflect the most commonly used technology at the time of publishing this International Standard. For other sensing technologies possibly coming up in the future, these test objects shall be checked and changed if required. Visibility-enhancement systems like video-camera aids without distance ranging and warning are not covered by this International Standard. Reversing aids and obstacle-detection devices on heavy commercial vehicles are not addressed by this International Standard; requirements for those systems are defined in ISO/TR 12155.

This document specifies requirements for manufacture, classification, test methods, packaging, marking and issuing of a certificate for stainless steel wire ropes. It is applicable to stainless steel wire ropes (hereafter referred to as ropes) for instruments, mechanical transmission, cable, sling, shock absorber vibration, yacht, architecture and structure.

This document specifies a test procedure for the evaluation of the habitat function of soils by determining effects of soil contaminants and substances on organic matter decomposition. This test is applicable to natural soils and soil materials of unknown quality (e.g. contaminated sites, amended soils, soils after remediation, agricultural or other sites under concern). This document also specifies how to use this method for testing substances under temperate conditions. This document is not applicable to substances for which the air/soil partition coefficient is greater than 1. It is not applicable to substances with vapour pressure exceeding 300 Pa at 25 °C.

This document specifies the measurement of forces by means of load cells carried out for geotechnical monitoring. For measuring forces by means of strain or displacement gauges, see ISO 18674-7. General rules of performance monitoring of the ground, of structures interacting with the ground, of geotechnical fills and of geotechnical works are presented in ISO 18674-1:2015. This document is applicable to: Not subject of this document are devices where the load is purposely applied to geotechnical structures in the wake of geotechnical field tests such as calibrated hydraulic jacks for pull-out tests of anchors or load tests of piles.

This standard is part 8 of the series ISO 18674, as described in ISO 18674-1: Part 1. General rules for the methods and rules for measurement of normal forces and loads from tieback, bracing, struts and other elements like piles in geotechnical engineering or more general in foundation engineering are given

This document, when used together with ISO 4254-1, specifies the safety requirements and theirverification for the design and construction of trailed and self-propelled harvesters for grapes, olivesand coffee.It describes methods for the elimination or reduction of hazards arising from the intended use of thesemachines by one person (the operator) in the course of normal operation and service.In addition, it specifies the type of information on safe working practices to be provided by themanufacturer.

This part of ISO 6742 is applicable to lighting systems used on cycles intended to be used on public roads and, especially, bicycles complying with ISO 4210 and ISO 8098. This part of ISO 6742 specifies requirements and test methods for the performance of lighting systems not powered by the cycle’s movement. It applies to light devices complying with ISO 6742-1. Lighting systems include lighting devices and power not supplied by cycle's movement such as battery.