Oluschinski at 08:21, 4 September 2026

2026-09-04T08:21:40Z

← Older revision		Revision as of 10:21, 4 September 2026
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	{{PSM_Infobox}}		{{PSM_Infobox}}
	<span style="font-size:1.2em;font-weight:bold;">Load framework</span>		<span style="font-size:1.2em;font-weight:bold;">Load framework</span>
	~~__FORCETOC__~~

	Load frames for [[Material Testing Machine \| materials testing machines]] are available in various constructive designs. Depending on the type of installation, a distinction is made between standing and horizontal testing machines. Standing testing machines are available in table-top and standard designs (see illustration). Depending on the nominal load of the testing machine and the required rigidity (see: [[Machine Compliance \| machine compliance]]), there are one, two and four-column versions of the load frame. The load frames can be built as extra-high systems, e.g. for textile testing and when adapting a temperature chamber, or as extra-wide machines, e.g. for [[Fracture Behaviour of Plastics Components \| part and component testing]].		Load frames for [[Material Testing Machine \| materials testing machines]] are available in various constructive designs. Depending on the type of installation, a distinction is made between standing and horizontal testing machines. Standing testing machines are available in table-top and standard designs (see illustration). Depending on the nominal load of the testing machine and the required rigidity (see: [[Machine Compliance \| machine compliance]]), there are one, two and four-column versions of the load frame. The load frames can be built as extra-high systems, e.g. for textile testing and when adapting a temperature chamber, or as extra-wide machines, e.g. for [[Fracture Behaviour of Plastics Components \| part and component testing]].
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	A modern load frame design is realised, for example, at [https://www.zwick.de/ ZwickRoell company] with a patented flexurally rigid hollow chamber profile with guide cylinder, whereby great flexibility is achieved when using lightweight construction. For [[Polymer Testing \| polymer testing]] and the mechanical characterisation of composite materials (GFRP and CFRP), materials testing machines with nominal loads of 200 kN are usually sufficiently dimensioned. Larger universal testing machines in the MN range must be decoupled from the building foundation in order to absorb the elastic impact without loss when test [[Specimen \| specimens]] break.		A modern load frame design is realised, for example, at [https://www.zwick.de/ ZwickRoell company] with a patented flexurally rigid hollow chamber profile with guide cylinder, whereby great flexibility is achieved when using lightweight construction. For [[Polymer Testing \| polymer testing]] and the mechanical characterisation of composite materials (GFRP and CFRP), materials testing machines with nominal loads of 200 kN are usually sufficiently dimensioned. Larger universal testing machines in the MN range must be decoupled from the building foundation in order to absorb the elastic impact without loss when test [[Specimen \| specimens]] break.

	~~'''~~See also~~'''~~		==See also==

	* [[Material Testing Machine \| Material testing machine]]		* [[Material Testing Machine \| Material testing machine]]
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	* [[Polymer Diagnostic \| Polymer diagnostic]]		* [[Polymer Diagnostic \| Polymer diagnostic]]

	~~'''~~References~~'''~~		==References==

	* Dripke, M., Michalzik, G., Bloching, H., Fahrenholz, H.: Mechanische Prüfverfahren und Kenngrößen – kompakt und verständlich. Band 1: Der Zugversuch bei quasistatischer Beanspruchung, Castell Verlag GmbH, Wuppertal (2002), pp. 56–57 (ISBN 3-934255-50-7; see [[~~AMK-Büchersammlung \|~~ AMK-Library]] under C 14)		* Dripke, M., Michalzik, G., Bloching, H., Fahrenholz, H.: Mechanische Prüfverfahren und Kenngrößen – kompakt und verständlich. Band 1: Der Zugversuch bei quasistatischer Beanspruchung, Castell Verlag GmbH, Wuppertal (2002), pp. 56–57 (ISBN 3-934255-50-7; see [[AMK-Library]] under C 14)

	[[Category:Tensile Test]]		[[Category:Tensile Test]]
	[[Category:Stiffness Compliance]]		[[Category:Stiffness Compliance]]

Oluschinski: Created page with "{{Language_sel|LANG=ger|ARTIKEL=Lastrahmen}} {{PSM_Infobox}} Load framework FORCETOC Load frames for materials testing machines are available in various constructive designs. Depending on the type of installation, a distinction is made between standing and horizontal testing machines. Standing testing machines are available in table-top and standard designs (see illustration). Depe..."

2025-12-03T11:44:05Z

Created page with "{{Language_sel|LANG=ger|ARTIKEL=Lastrahmen}} {{PSM_Infobox}} <span style="font-size:1.2em;font-weight:bold;">Load framework</span> __FORCETOC__ Load frames for materials testing machines are available in various constructive designs. Depending on the type of installation, a distinction is made between standing and horizontal testing machines. Standing testing machines are available in table-top and standard designs (see illustration). Depe..."

New page

{{Language_sel|LANG=ger|ARTIKEL=Lastrahmen}}
{{PSM_Infobox}}
<span style="font-size:1.2em;font-weight:bold;">Load framework</span>
__FORCETOC__

Load frames for [[Material Testing Machine | materials testing machines]] are available in various constructive designs. Depending on the type of installation, a distinction is made between standing and horizontal testing machines. Standing testing machines are available in table-top and standard designs (see illustration). Depending on the nominal load of the testing machine and the required rigidity (see: [[Machine Compliance | machine compliance]]), there are one, two and four-column versions of the load frame. The load frames can be built as extra-high systems, e.g. for textile testing and when adapting a temperature chamber, or as extra-wide machines, e.g. for [[Fracture Behaviour of Plastics Components | part and component testing]].

[[file:lastrahmen.jpg|500px]]
{|
|- valign="top"
|width="50px"|'''Fig.''':
|width="600px" |Materials testing machines as table-top model with 0.5 to 20 kN load frame (right) and floor model (left) (factory photos of [https://www.zwick.de/ Zwick company] Z020)
|}

A modern load frame design is realised, for example, at [https://www.zwick.de/ ZwickRoell company] with a patented flexurally rigid hollow chamber profile with guide cylinder, whereby great flexibility is achieved when using lightweight construction. For [[Polymer Testing | polymer testing]] and the mechanical characterisation of composite materials (GFRP and CFRP), materials testing machines with nominal loads of 200 kN are usually sufficiently dimensioned. Larger universal testing machines in the MN range must be decoupled from the building foundation in order to absorb the elastic impact without loss when test [[Specimen | specimens]] break.

'''See also'''

* [[Material Testing Machine | Material testing machine]]
* [[Machine Compliance | Machine compliance]]
* [[Material Parameter | Material parameter]]
* [[Polymer Diagnostic | Polymer diagnostic]]

'''References'''

* Dripke, M., Michalzik, G., Bloching, H., Fahrenholz, H.: Mechanische Prüfverfahren und Kenngrößen – kompakt und verständlich. Band 1: Der Zugversuch bei quasistatischer Beanspruchung, Castell Verlag GmbH, Wuppertal (2002), pp. 56–57 (ISBN 3-934255-50-7; see [[AMK-Büchersammlung | AMK-Library]] under C 14)

[[Category:Tensile Test]]
[[Category:Stiffness Compliance]]

Load Framework - Revision history

Oluschinski at 08:21, 4 September 2026