ISO 15830-3:2005
(Main)Road vehicles — Design and performance specifications for the WorldSID 50th percentile male side-impact dummy — Part 3: Electronic subsystems
Road vehicles — Design and performance specifications for the WorldSID 50th percentile male side-impact dummy — Part 3: Electronic subsystems
ISO 15830-3:2005 specifies requirements for electronic components of the WorldSID 50th percentile side impact dummy, a standard anthropomorphic dummy for side impact testing of road vehicles. It is applicable to impact tests involving: passenger vehicles of categories M1 and goods vehicles of categories N1, impacts to the side of the vehicle structure, and impact tests involving the use of an anthropometric dummy as a human surrogate for the purpose of evaluating compliance with vehicle safety standards.
Véhicules routiers — Conception et spécifications de performance pour le mannequin mondial (WorldSID), 50e percentile homme, de choc latéral — Partie 3: Sous-systèmes électroniques
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Standards Content (Sample)
INTERNATIONAL ISO
STANDARD 15830-3
First edition
2005-12-01
Road vehicles — Design and
performance specifications for
the WorldSID 50th percentile male
side-impact dummy —
Part 3:
Electronic subsystems
Véhicules routiers — Conception et spécifications de performance pour
e
le mannequin mondial (WorldSID), 50 percentile homme, de choc
latéral —
Partie 3: Sous-systèmes électroniques
Reference number
ISO 15830-3:2005(E)
©
ISO 2005
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ISO 15830-3:2005(E)
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ii © ISO 2005 – All rights reserved
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ISO 15830-3:2005(E)
Contents Page
Foreword .vi
Introduction.vii
1 Scope.1
2 Normative references.1
3 Terms and definitions .1
4 Electrical subsystems requirements.2
4.1 Permissible sensors.2
4.1.1 General .2
4.1.2 Locations and specifications .2
4.1.3 Sensor specifications and mass.3
4.2 Permissible internal data acquisition system (DAS) .7
4.2.1 General .7
4.2.2 DAS characteristics.7
4.2.3 DAS mass and mass distribution .8
5 Methods.8
5.1 Calculation of IR-TRACC distances from the IR-TRACC voltage outputs.8
Annex A (normative) Load cell characteristics.10
A.1 Load cell capacities.10
A.2 Load cell sign conventions .10
Annex B (informative) Conventions for examplar permissible load cells and angular displacement
sensors.15
B.1 Overview.15
B.2 Repeatability and reproducibility.15
B.3 Durability.15
B.4 Sensitivity.15
B.5 Handling.15
B.6 Calibration.17
B.7 Load cell connector pin codes.17
B.8 Universal neck load cell (W50-71000).19
B.9 Sacro-iliac load cell (W50-71130).19
B.10 Lumbar load cell (W50-71120).20
B.11 Pubic symphysis load cell (W50-71051).20
B.12 Femoral neck load cell (W50-71080).20
B.13 Universal leg load cell (W50-71010).20
B.14 Shoulder load cell (W50-71090) .20
B.15 Universal arm load cell (W50-71070) .20
B.16 Elbow load cell (W50-71060) .20
B.17 Knee contact load cell (W50-71020) .21
Annex C (informative) Conventions for examplar permissible accelerometers.22
C.1 Overview.22
C.2 Linear accelerometer connector pin codes.22
C.3 Rotational accelerometer connector pin codes .22
Annex D (informative) Information regarding sensor output polarities .24
D.1 Overview.24
D.2 Sensor output polarity diagrams .24
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ISO 15830-3:2005(E)
Figures
Figure A.1 — Universal neck load cell. 11
Figure A.2 — Sacro-iliac load cell. 11
Figure A.3 — Sacro-iliac load cell, right side, top, and left side views . 11
Figure A.4 — Lumbar load cell . 12
Figure A.5 — Pubic symphysis load cell. 12
Figure A.6 — Femoral neck load cell. 12
Figure A.7 — Universal leg load cell. 13
Figure A.8 — Shoulder load cell. 13
Figure A.9 — Universal arm load cell . 13
Figure A.10 — Elbow load cell. 14
Figure A.11 — Knee contact load cell . 14
Figure B.1 — Robert A. Denton WorldSID instrumentation. 16
Figure B.2 — Connector wiring, 31-pin, 6 channels. 17
Figure B.3 — Connector wiring, 21-pin, 3 channels (shoulder). 17
Figure B.4 — Connector wiring, 15-pin, 2 channels (elbow load cell). 18
Figure B.5 — Connector wiring, 15-pin, 1 channel (side exit, pubic) . 18
Figure B.6 — 1-channel connector to G5 DAS. 18
Figure B.7 — 2-channel connector to G5 DAS. 19
Figure B.8 — 3-channel connector to G5 DAS. 19
Figure C.1 — Linear accelerometer wiring . 23
Figure D.1 — Head accelerometers . 25
Figure D.2 — Upper neck load cell. 26
Figure D.3 — Lower neck load cell. 27
Figure D.4 — Thorax accelerometers. 28
Figure D.5 — Rib displacement. 29
Figure D.6 — Shoulder load cell. 30
Figure D.7 — Arm accelerometers . 31
Figure D.8 — Arm sensors . 32
Figure D.9 — Pelvis accelerometers . 33
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ISO 15830-3:2005(E)
Figure D.10 — Lumbar spine load cell .34
Figure D.11 — Sacro-iliac load cell .35
Figure D.12 — Pubic load cell.36
Figure D.13 — Femoral neck load cells .37
Figure D.14 — Femur instrumentation .38
Figure D.15 — Knee load cells.39
Figure D.16 — Tibia instrumentation.40
Figure D.17 — Tilt sensor channel orientations .41
Tables
Table 1 — Permissible WorldSID sensor locations and specifications.2
Table 2 — DAS mass distribution.8
Table A.1 — WorldSID load cell capacities.10
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ISO 15830-3:2005(E)
Foreword
ISO (the International Organization for Standardization) is a worldwide federation of national standards bodies
(ISO member bodies). The work of preparing International Standards is normally carried out through ISO
technical committees. Each member body interested in a subject for which a technical committee has been
established has the right to be represented on that committee. International organizations, governmental and
non-governmental, in liaison with ISO, also take part in the work. ISO collaborates closely with the
International Electrotechnical Commission (IEC) on all matters of electrotechnical standardization.
International Standards are drafted in accordance with the rules given in the ISO/IEC Directives, Part 2.
The main task of technical committees is to prepare International Standards. Draft International Standards
adopted by the technical committees are circulated to the member bodies for voting. Publication as an
International Standard requires approval by at least 75 % of the member bodies casting a vote.
Attention is drawn to the possibility that some of the elements of this document may be the subject of patent
rights. ISO shall not be held responsible for identifying any or all such patent rights.
ISO 15830-3 was prepared by Technical Committee ISO/TC 22, Road vehicles, Subcommittee SC 12,
Passive safety crash protection systems.
ISO 15830 consists of the following parts, under the general title Road vehicles — Design and performance
specifications for the WorldSID 50th percentile male side impact dummy:
⎯ Part 1: Terminology and rationale
⎯ Part 2: Mechanical subsystems
⎯ Part 3: Electronic subsystems
⎯ Part 4: User's manual
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ISO 15830-3:2005(E)
Introduction
This first edition of ISO 15830 (all parts) has been prepared on the basis of the existing design, specifications
th
and performance of the WorldSID 50 percentile adult male (PAM) side impact dummy. The purpose of ISO 15830
is to document the design and specifications of this side impact dummy in a form suitable and intended for
worldwide regulatory use.
th
In 1997, ISO/TC22/SC12 initiated the WorldSID 50 PAM dummy development, with the aims of defining a
global-consensus side impact dummy, having a wider range of human-like anthropometry, biofidelity and
injury monitoring capabilities, suitable for regulatory use. Participating in the development were research
institutes, dummy and instrumentation manufacturers, governments, and vehicle manufacturers from around
the world.
With regard to potential regulatory, consumer information or research, and development use of ISO 15830, the
respective parties will need to define which of the permissive elements defined in Part 3 are to be used in a
given application.
In order to apply ISO 15830 properly, it is important that all four parts be used together.
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INTERNATIONAL STANDARD ISO 15830-3:2005(E)
Road vehicles — Design and performance specifications for
the WorldSID 50th percentile male side-impact dummy —
Part 3:
Electronic subsystems
1 Scope
th
This part of ISO 15830 specifies requirements for electronic components of the WorldSID 50 percentile side
impact dummy, a standard anthropomorphic dummy for side impact testing of road vehicles. It is applicable to
impact tests involving:
⎯ passenger vehicles of categories M1 and goods vehicles of categories N1,
⎯ impacts to the side of the vehicle structure, and
⎯ impact tests involving the use of an anthropometric dummy as a human surrogate for the purpose of
evaluating compliance with vehicle safety standards.
2 Normative references
The following referenced documents are indispensable for the application of this document. For dated
references, only the edition cited applies. For undated references, the latest edition of the referenced
document (including any amendments) applies.
ISO 6487, Road vehicles — Measurement techniques in impact tests — Instrumentation
ISO 15830-1, Design and performance specifications for the WorldSID 50th percentile male side impact
dummy — Part 1: Terminology and rationale
ISO 15830-2:2005, Design and performance specifications for the WorldSID 50th percentile male side impact
dummy — Part 2: Mechanical subsystems
SAE J211-1:2003, Instrumentation for impact test — Part 1: Electronic instrumentation
SAE J2570:2001, Performance specifications for anthropomorphic test device transducers
SAE J1733, Sign convention for vehicle crash testing
3 Terms and definitions
For the purposes of this document the terms and definitions given in ISO 15830-1 apply.
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ISO 15830-3:2005(E)
4 Electrical subsystems requirements
4.1 Permissible sensors
4.1.1 General
NOTE All sensors are specified as “permissible” (i.e., optional), because the decision to use or not to use a given
sensor is to be left to the individual relevant regulatory authorities, consumer information organisations and research or
test laboratories. In this way, a given regulation (or laboratory protocol) can indicate which of the permissible sensors
described in this International Standard must be used in a given test.
The following sensors may be installed in the dummy. If installed, they shall comply with the specifications
given in Table 1. If these sensors are not installed, then structural or mass replacements shall be installed in
the dummy.
4.1.2 Locations and specifications
Table 1 — Permissible WorldSID sensor locations and specifications
Body region Sensor Sensor Mounting specification Maximum
specification number of
channels
Head Linear accelerometer 4.1.3.2 ISO 15830-2:2005, 4.1 3
Head Rotational accelerometer 4.1.3.3 ISO 15830-2:2005, 4.1 3
Head Tilt sensor (about x and y axes) 4.1.3.4 ISO 15830-2:2005, 4.1 2
Head Upper neck load cell 4.1.3.5 ISO 15830-2:2005, 4.1 6
Neck Lower neck load cell 4.1.3.5 ISO 15830-2:2005, 4.2 6
Neck T1 linear accelerometer 4.1.3.2 ISO 15830-2:2005, 4.2 3
Shoulder Rib linear accelerometer 4.1.3.2 ISO 15830-2:2005, 4.3 3
Shoulder IR-TRACC 4.1.3.6 ISO 15830-2:2005, 4.3 1
Shoulder Load cell (F , F , F ) 4.1.3.7 ISO 15830-2:2005, 4.3 3
x y z
Full arm Upper arm load cell 4.1.3.8 ISO 15830-2:2005, 4.4 6
Full arm Lower arm load cell 4.1.3.8 ISO 15830-2:2005, 4.4 6
Full arm Elbow load cell (M , M ) 4.1.3.9 ISO 15830-2:2005, 4.4 2
x y
Full arm Elbow angular displacement 4.1.3.10 ISO 15830-2:2005, 4.4 1
Full arm Elbow linear accelerometer 4.1.3.2 ISO 15830-2:2005, 4.4 3
Full arm Wrist linear accelerometer 4.1.3.2 ISO 15830-2:2005, 4.4 3
Thorax Upper rib linear accelerometer 4.1.3.2 ISO 15830-2:2005, 4.3 3
Thorax Middle rib linear accelerometer 4.1.3.2 ISO 15830-2:2005, 4.3 3
Thorax Lower rib linear accelerometer 4.1.3.2 ISO 15830-2:2005, 4.3 3
Thorax Upper rib IR-TRACC 4.1.3.6 ISO 15830-2:2005, 4.3 1
Thorax Middle rib IR-TRACC 4.1.3.6 ISO 15830-2:2005, 4.3 1
Thorax Lower rib IR-TRACC 4.1.3.6 ISO 15830-2:2005, 4.3 1
Spine T4 linear accelerometer 4.1.3.2 ISO 15830-2:2005, 4.3 3
Spine T12 linear accelerometer 4.1.3.2 ISO 15830-2:2005, 4.3 3
Spine Rotational accelerometer (about x- and z-axes) 4.1.3.3 ISO 15830-2:2005, 4.3 2
Spine Tilt sensor (about x- and y-axes) 4.1.3.4 ISO 15830-2:2005, 4.3 2
Abdomen Upper rib linear accelerometer 4.1.3.2 ISO 15830-2:2005, 4.3 3
2 © ISO 2005 – All rights reserved
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ISO 15830-3:2005(E)
Body region Sensor Sensor Mounting specification Maximum
specification number of
channels
Abdomen Lower rib linear accelerometer 4.1.3.2 ISO 15830-2:2005, 4.3 3
Abdomen Upper rib IR-TRACC 4.1.3.6 ISO 15830-2:2005, 4.3 1
Abdomen Lower rib IR-TRACC 4.1.3.6 ISO 15830-2:2005, 4.3 1
Lumbar spine/pelvis Lumbar load cell 4.1.3.11 ISO 15830-2:2005, 4.6 6
Lumbar spine/pelvis Pelvis linear accelerometer 4.1.3.2 ISO 15830-2:2005, 4.6 3
Lumbar spine/pelvis Pubic load cell (F ) 4.1.3.12 ISO 15830-2:2005, 4.6 1
y
Lumbar spine/pelvis Sacro-iliac load cell 4.1.3.13 ISO 15830-2:2005, 4.6 6
Lumbar spine/pelvis Tilt sensor (about x- and y-axes) 4.1.3.3 ISO 15830-2:2005, 4.6 2
Upper leg Femoral neck load cell (F , F F ) 4.1.3.14 ISO 15830-2:2005, 4.7 3
x y z
Upper leg Mid femur load cell 4.1.3.14 ISO 15830-2:2005, 4.7 6
Upper leg Knee lateral outboard contact force load cell 4.1.3.16 ISO 15830-2:2005, 4.7 1
Upper leg Knee lateral inboard contact force load cell 4.1.3.16 ISO 15830-2:2005, 4.7 1
Upper leg Knee angular displacement 4.1.3.17 ISO 15830-2:2005, 4.7 1
Lower leg Upper tibia load cell 4.1.3.15 ISO 15830-2:2005, 4.8 6
Lower leg Lower tibia load cell 4.1.3.15 ISO 15830-2:2005, 4.8 6
Lower leg Ankle angular displacement 4.1.3.18 ISO 15830-2:2005, 4.8 3
Spine box Air temperature sensor 4.1.3.19 ISO 15830-2:2005, 4.3 1
4.1.3 Sensor specifications and mass
4.1.3.1 General
All load cells, accelerometers and angular displacement transducers shall comply with SAE J2570, and load
cells shall comply with the capacities and sign conventions in Annex A.
Sensor sign convention should comply with SAE J1733 and all deviations shall be noted.
4.1.3.2 Tri-axial linear accelerometers
⎯ If measured, tri-axial linear accelerations shall be measured using Endevco accelerometer, model 7268C-
)
1
2000M1 .
⎯ Tri-axial linear accelerometer assemblies shall have a mass of 8 g ± 1 g (not including cable).
4.1.3.3 Rotational accelerometers
)
2
⎯ If measured, rotational accelerations shall be measured using Endevco accelerometer, model 7302BM4 .
)
1
Accelerometer model 7268C-2000M1 is a product supplied by Endevco Corp. San Juan Capistrano, California, USA.
This information is given for the convenience of users of this International Standard and does not constitute an
endorsement by ISO of the product named. Alternative products may be used if they can be shown to lead to the same
results.
)
2
Accelerometer model 7302BM4 is a product supplied by Endevco Corp. San Juan Capistrano, California, USA. This
information is given for the convenience of users of this International Standard and does not constitute an endorsement by
ISO of the product named. Alternative products may be used if they can be shown to lead to the same results.
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ISO 15830-3:2005(E)
⎯ Rotational accelerometers shall have a mass of 35 g ± 4 g (not including cable).
4.1.3.4 Tilt angle sensors
4.1.3.4.1 Head tilt sensor
)
3
⎯ If measured, head tilt angles shall be measured using either IES tilt sensor, model IES/1401 AT , or MSC
)
4
Automotive Gmbh tilt sensor, model 260D/GP-X .
⎯ Head tilt sensors shall have a mass of less than 25 g (not including cable).
4.1.3.4.2 Thorax and pelvis tilt sensor
⎯ If measured, thorax and pelvis tilt angles shall be measured using either IES tilt sensor, model IES/1401
) )
5 4
T , or MSC Automotive Gmbh tilt sensor, model 260D/GP-X .
⎯ Thorax and pelvis tilt sensors shall have a mass of less than 25 g (not including cable).
4.1.3.5 Universal neck load cell
⎯ If measured, upper and lower neck forces and moments shall be measured using Denton load cell, model
)
6
W50-71000 .
⎯ Upper and lower neck load cells shall have a mass of 346 g ± 20 g (not including attachment bolts or
plug) or 361 g ± 25 g (including mating plug and 450 mm of cable).
4.1.3.6 Infra-Red Telescoping Rod for the Assessment of Chest Compression (IR-TRACC)
)
7
⎯ If measured, rib deflections shall be measured using FTSS IR-TRACC, model IF-363 .
⎯ IR-TRACCs shall have a mass of 117 g ± 15 g (including the connector and 300 mm of cable).
Calculation of IR-TRACC displacements shall be performed as described in 5.1.
)
3
Head tilt sensor model IES/1401 AT is a product supplied by Robert A. Denton Inc., Rochester Hills Michigan, USA.
This information is given for the convenience of users of this International Standard and does not constitute an
endorsement by ISO of the product named. Alternative products may be used if they can be shown to lead to the same
results.
)
4
Tilt sensor model 260D/GP-X is a product supplied by MSC Automotive Gmbh. This information is given for the
convenience of users of this International Standard and does not constitute an endorsement by ISO of the product named.
Alternative products may be used if they can be shown to lead to the same results.
)
5
Thorax and pelvis tilt sensor model IES/1401 T is a product supplied by Robert A. Denton Inc., Rochester Hills
Michigan, USA. This information is given for the convenience of users of this International Standard and does not
constitute an endorsement by ISO of the product named. Alternative products may be used if they can be shown to lead to
the same results.
)
6
Load cell model W50-71000 (see ISO 15830-2:2005, Annex C) is a product supplied by Robert A. Denton Inc.,
Rochester Hills Michigan, USA. This information is given for the convenience of users of this International Standard and
does not constitute an endorsement by ISO of the product named. Alternative products may be used if they can be shown
to lead to the same results.
)
7
IR-TRACC model IF-363 (see ISO 15830-2:2005, Annex C) is a product supplied by First Technology Safety Systems,
Inc., Plymouth Michigan, USA. This information is given for the convenience of users of this International Standard and
does not constitute an endorsement by ISO of the product named. Alternative products may be used if they can be shown
to lead to the same results.
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ISO 15830-3:2005(E)
4.1.3.7 Shoulder load cell
)
8
⎯ If measured, shoulder forces shall be measured using Denton load cell, model W50-71090 .
⎯ Shoulder load cell shall have a mass of 176 g ± 13 g (not including cable and mating connector).
4.1.3.8 Arm load cell
⎯ If measured, upper and lower arm forces and moments shall be measured using Denton load cell, model
)
9
W50-71070 .
⎯ Upper and lower arm load cells shall have a mass of 385 g ± 30 g (not including cable and mating
connector).
4.1.3.9 Elbow load cell
)
10
⎯ If measured, elbow moments shall be measured using Denton load cell, model W50-71060 .
⎯ Elbow load cell shall have a mass of 300 g ± 22 g (not including cable and mating connector).
4.1.3.10 Elbow rotational potentiometer
⎯ If measured, elbow angular displacement shall be measured using Denton potentiometer, model W50-
)
11
61027 .
⎯ Elbow potentiometer shall have a mass of 15 g ± 2 g (not including cable and mating connector).
...
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