Landmark® Servohydraulic Test Systems

From complex thermomechanical fatigue studies to standard tension and compression tests, MTS Landmark systems deliver accurate, repeatable results. Robustly manufactured with SureCoat® technology that extends actuator rod longevity 10x over conventionally chrome-plated rods, these systems will perform reliably for years. SHOW UPDATE

Applications

Test Specimens

Test Standards

Key Product Features

Industry Standard

A proven leader in servohydraulic testing technology UPDATE

Accurate / Repeatable Results

Superior frame stiffness and alignment produces accurate results

Unmatched Expertise

Applications expertise and service and support

Versatile

A wide array of test capabilities for low- to high-force applications

Featured Case Studies

Full Product Information

Floor-Standing Load Frame Specifications

 

LOAD FRAME

DIAGRAM

 

 

 

MODEL

 

 

 

SPECIFICATIONS¹

DETAIL

UNITS

370.10

 

370.25

 

370.50

 

 

 

 

Actuator

Actuator

Actuator

Actuator

Actuator

Actuator

 

 

 

integral

integral to

integral

integral to

integral

integral to

 

 

 

to Base

Crosshead

to Base

Crosshead

to Base

Crosshead

Force capacity

 

kN

1000

100

250

250

500

500

(rated dynamic force)

 

(kip)

(22)

(22)

(55)

(55)

(110)

(110)

Available actuator ratings₁ (nominal)

kN

15, 25, 50, 100

15, 25, 50, 100

100, 250

100, 250

250, 500

250, 500

 

 

(kip)

(3.3, 5.5, 11, 22)

(3.3, 5.5, 11, 22)

(22, 55)

(22, 55)

(55, 110)

(55, 110)

Actuator dynamic stroke₁

 

mm

100, 150, 250

100, 150, 250

150, 250

150, 250

150

150

 

 

(in)

(4, 6, 10)

(4, 6, 10)

(6, 10)

(6, 10)

(6)

(6)

Min vertical test space -

A

mm

140

70

231

159

427

345

standard height₂

 

(in)

(5.5)

(2.8)

(9.1)

(6.3)

(16.8)

(13.6)

Max vertical test space -

A

mm

1283

1213

1621

1549

2085

2002

standard height₃

 

(in)

(50.5)

(47.8)

(63.8)

(61.0)

(82.1)

(78.8)

Min vertical test space -

A

mm

363

292

485

413

NA

NA

extended height₂

 

(in)

(14.3)

(11.5)

(19.1)

(16.3)

NA

NA

Max vertical test space -

A

mm

1753

1683

2129

2058

NA

NA

extended height₃

 

(in)

(69.0)

(66.3)

(83.8)

(81.0)

NA

NA

Working height₄

B

mm

922₈, ₁₅

922₁₅

922₈, ₁₅

922₁₅

922₁₅

922₁₅

 

 

(in)

(36.3)

(36.3)

(36.3)

(36.3)

(36.3)

(36.3)

Column spacing

C

mm

533

533

635

635

762

762

(test space width)

 

(in)

(21.0)

(21.0)

(25.0)

(25.0)

(30.0)

(30.0)

Column diameter

D

mm

76.2

76.2

76.2

76.2

101.6

101.6

 

 

(in)

(3.00)

(3.00)

(3.00)

(3.00)

(4.00)

(4.00)

Base width

E

mm

1018

1018

1112

1112

1351

1351

 

 

(in)

(40.1)

(40.1)

(43.8)

(43.8)

(53.2)

(53.2)

Base depth

F

mm

698

698

737

737

896

896

 

 

(in)

(27.5)

(27.5)

(29.0)

(29.0)

(35.3)

(35.3)

Diagonal clearance -

G

mm

2580₈, ₁₁, ₁₅

2649₁₁, ₁₅

3084₈, ₁₁, ₁₅

3155₁₁, ₁₅

3629₁₁, ₁₅

3699₁₁, ₁₅

standard height₅

 

(in)

(101.6)

(104.3)

(121.4)

(124.2)

(142.9)

(145.6)

Diagonal clearance -

G

mm

3084₈, ₁₁, ₁₅

3153₁₁, ₁₅

3589₈, ₁₁, ₁₅

3660₁₁, ₁₅

NA

NA

extended height₅

 

(in)

(121.4)

(124.1)

(141.3)

(144.1)

NA

NA

Overall height -

H

mm

2588₈, ₁₂, ₁₅

3028₉, ₁₅

3095₈, ₁₄, ₁₅

3490₁₀, ₁₅

3688

3961

standard height₆

 

(in)

(101.9)

(119.2)

(121.8)

(137.4)

(145.2)

(155.9)

Overall height -

H

N/m

3058₈, ₁₃, ₁₅

3498₉, ₁₅

3603₈, ₁₄, ₁₅

3998₁₀, ₁₅

NA

NA

extended height₆

 

(in)

(120.4)

(137.7)

(141.8)

(157.4)

NA

NA

Stiffness₇

 

N/m

467 x 10⁶

467 x 10⁶

473 x 10⁶

473 x 10⁶

777 x 10⁶

777 x 10⁶

 

 

(lbf/in)

(2.66 x 10⁶)

(2.66 x 10⁶)

(2.7 x 10⁶)

(2.7 x 10⁶)

(4.44 x 10⁶)

(4.44 x 10⁶)

Weight

 

kg

635

820

875

1095

1570

1760

 

 

(lb)

(1400)

(1800)

(1925)

(2410)

(3455)

(3875)

 

 

 

 

 

 

 

 

 

1.All load frame specifications listed in this chart are based upon the actuator ratings and dynamic stroke values indicated by bold text.

 

 

2.Min Vertical Test Space: Span between force transducer and piston rod face when fully retracted at beginning of the dynamic stroke; crosshead down, no alignment fixture.

3.Max Vertical Test Space: Span between force transducer and piston rod face when fully retracted at beginning of the dynamic stroke; crosshead up, no alignment fixture.

4.Working Height: Floor to top of work surface; includes standard FabCell isolation.

 

 

 

 

 

5.Diagonal Clearance: Column height (far side) to tip of foot with FabCell; tie bar or enclosure not included.

 

 

 

6.Overall Height: From floor, including standard FabCell isolation, to the highest point on crosshead; crosshead fully raised (most common stroke length).

 

7.Measured at typical testing height with hydraulic wedge grips and cylindrical dog-bone specimen.

 

 

 

 

Typical testing heights per model: Model 370.10 = 750 mm (29.5 in); Model 370.25 = 900 mm (35.5 in); Model 370.50 = 1250 mm (49.2 in)

 

 

8.Add 178 mm (7 in) to dimensions B, G, & H for 250 mm (10 in) stroke actuators integral to base.

 

 

 

 

9.Add 229 mm (9 in) to dimension H for 250 mm (10 in) stroke actuators integral to crosshead.

 

 

 

 

10. Add 203 mm (8 in) to dimension H for 250 mm (10 in) stroke actuators integral to crosshead.

 

 

 

 

11. For frames with an optional tie bar add 51 mm (2 in) to dimension G.

 

 

 

 

 

12. For 370.10 frames with standard columns, optional tie bar and actuator integral to base add 14 mm (.53 in) to dimension H.

 

 

13. For 370.10 frames with extended columns, optional tie bar and actuator integral to base add 51 mm (2 in) to dimension H.

 

 

14. For 370.25 frames with standard or extended columns, optional tie bar and actuator integral to base add 14 mm (.53 in) to dimension H.

 

15. For load frames with optional pneumatic /elastomeric vibration isolation mounts, add 62 mm (2.44 in) to dimensions B, G, and H.

 

 

 

LOAD FRAME

DIAGRAM

 

MODEL

SPECIFICATIONS1

DETAIL

UNITS

370.10 200 Hz Elastomer

Force capacity

 

kN

100

(rated dynamic force)

 

(kip)

(22)

Available actuator ratings₁ (nominal)

kN

15, 25

 

 

(kip)

(3.3, 5.5)

Actuator dynamic stroke₁

 

mm

100

 

 

(in)

(4)

Min vertical test space -

A

mm

0

standard height₂

 

(in)

0

Max vertical test space -

A

mm

788

standard height₃

 

(in)

(31.0)

Working height₄

B

mm

922

 

 

(in)

(36.3)

Column spacing

C

mm

533

(test space width)

 

(in)

(21.0)

Column diameter

D

mm

76.2

 

 

(in)

(3.00)

Base width

E

mm

1018

 

 

(in)

(40.1)

Base depth

F

mm

698

 

 

(in)

(27.5)

Diagonal clearance₅

G

mm

2079₈

 

 

(in)

(81.8)

Overall height₆

H

mm

2065₉

 

 

(in)

(81.3)

Stiffness₇

 

N/m

467 x 10⁶

 

 

(lb/in)

(2.66 x 10⁶)

Weight

 

kg

635

 

 

(lb)

(1400)

 

 

 

 

1.All load frame specifications listed in this chart are based upon the actuator ratings and dynamic stroke values indicated by bold text.

2.Min Vertical Test Space: Span between force transducer and piston rod face when fully retracted at beginning of the dynamic stroke; crosshead down, no alignment fixture.

3.Max Vertical Test Space: Span between force transducer and piston rod face when fully retracted at beginning of the dynamic stroke; crosshead up, no alignment fixture.

4.Working Height: Floor to top of work surface; includes standard FabCell isolation.

5.Diagonal Clearance: Column height (far side) to tip of foot with FabCell; tie bar or enclosure not included.

6.Overall Height: From floor, including standard FabCell isolation, to the highest point on crosshead; crosshead fully raised (most common stroke length).

7.Measured at crosshead height of 750 mm (29.5 in).

 

8.For frames with an optional tie bar add 51 mm (2 in) to dimension G.

9.For 370.10 200 Hz elastomer frames with an optional tie bar add 28 mm (1.1 in) to dimension H.


Related Products, Parts or Accessories

CONTACT US TODAY

Ready for a quote or need more information? We're here to help.

Request A Quote

Resources

 
Article

Cryogenic Testing

Solutions for testing in cryogenic environments.

 
Vidéo

Landmark Autotuning

Save time, improve test system performance and increase accu…

 
Étude de cas

Université d’État de Floride

L’université fait progresser les essais des barres d’armatur…

 
Article

Cryogenic Testing

Solutions for testing in cryogenic environments.

 
Article

1D, 2D & 3D Non-Contacting Extensometers

Top considerations for choosing a non-contacting extensomete…

 
Article

High-Temp Intro

Common high-temp testing challenges and solutions.

 
Article

TMF Testing

MTS engineer outlines thermomechanical fatigue testing chall…

 
Article

Load Frame Life Extension

An actuator remanufacture can extend the life of your older …

 
Article

Safety Primer for Landmark Systems

How to meet PLc, PLd or PLe safety requirements.

 
Vidéo

Accurate Small Specimen Testing

Our smallest grips for your smallest specimens.

 
Étude de cas

Empa

Research institute uses TMF to verify turbine service life p…

 
Article

29 Tips to Protect Against Dust & Debris When Testing Composites

Keep dust and debris from damaging test equipment with these…

 
Article

Nos solutions pour vos essais à haute-température

Notre équipe d'experts discute des options pour les e…

 
Article

Augmenter la durée de vie des composants et gagner en légèreté

Les chercheurs de l’université Lehigh s’appuient sur la conc…

 
Article

Des groupes hydrauliques écoénergétiques pour les essais de matériaux

Notre plus petit groupe hydraulique est parfait pour les app…

 
Article

Revêtement SureCoat pour systèmes LandMark et Bionix

La technologie exclusive de finition de tige d’actionneur am…

 
Article

Fabrication additive 101

Les experts de MTS partagent leurs connaissances sur la fabr…

 
Article

Nouvel extensomètre optique

Mesure et contrôle de la déformation sans contact simplifiés…

 
Article

PL-C, PL-D ou PL-E ?

Comment choisir le bon niveau de performance de sécurité ?

 
Communiqué de presse

Implants rachidiens imprimés en 3D

MTS aide le fabricant de dispositifs médicaux à développer d…