PRICES include / exclude VAT
Homepage>ISO Standards>ISO 18312-2:2012-Mechanical vibration and shock — Measurement of vibration power flow from machines into connected support structures-Part 2: Indirect method
Sponsored link
download between 0-24 hoursReleased: 2012
ISO 18312-2:2012-Mechanical vibration and shock — Measurement of vibration power flow from machines into connected support structures-Part 2: Indirect method

ISO 18312-2:2012

ISO 18312-2:2012-Mechanical vibration and shock — Measurement of vibration power flow from machines into connected support structures-Part 2: Indirect method

Format
Availability
Price and currency
English PDF
Immediate download
155.00 EUR
English Hardcopy
In stock
155.00 EUR
Standard´s number:ISO 18312-2:2012
Pages:19
Edition:1
Released:2012
Language:English
DESCRIPTION

ISO 18312-2:2012


This part of ISO 18312 specifies a method for evaluating the vibration power emitted by machines or pipelines (referred to hereinafter as machines) on to supporting structures to which the machines are connected through vibration isolators. This part of ISO 18312 also specifies the method for evaluating the vibration power components emitted in the six degrees of freedom of a Cartesian coordinate system at each joint, i.e. three translations and three rotations. The vibration power is determined by processing the signals from two sets of velocity (or acceleration) transducers mounted at the isolator connection points, one set on the machine side (input) and the other on the foundation side (output). This method is applicable for machines under the assumption that their vibration can be characterized by a stationary random process. The components of emitted vibration power are computed using the cross-spectra of the two sets of velocity in narrow band (or one third-octave) and the dynamic stiffness characteristics of the isolator over the frequency range of interest. The upper frequency limits of this method are established in this part of ISO 18312. This part of ISO 18312 can be used for: a) evaluating a machinery system from isolator design concept; b) obtaining data for preparation of technical requirements for allowable machine vibration power emission; c) determining appropriate and cost-effective vibration control procedures; d) solving diagnostics issues.