• Systems for fast, accurate and non-destructive measurement of elastic moduli and damping of materials.

  • Creative technology...

    We offer advanced measurement systems based on Impulse Excitation Technique for materials characterization.

    Creative technology...

    We offer advanced measurement systems based on Impulse Excitation Technique for materials characterization.

  • …and exceptional customer support!

    We provide excellent services and support to our customers.
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  • Systems
  • Supports
  • Excitation
  • Acquisition
  • Processing

Sonelastic® Systems

For Impulse Excitation Technique application, all Sonelastic® Systems include at least a specimen support, an impulse device, an acoustic sensor and the Sonelastic® Software. Below are shown typical systems for small-, medium- and large-sized specimens, which can be customized and automated with accessories.

Sonelastic, configuration for small samples.
Sonelastic, configuration for medium samples.
Sonelastic, configuration for large samples.
Customized
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Sample Supports

The function of the supports on the Impulse Excitation Technique and Sonelastic® Systems is to prop the specimen under its nodal lines while allowing the free vibration. In order to ensure the greatest possible flexibility of geometries, dimensions and modes of vibration ATCP provides a wide range of support options.
If our standard supports fail to meet your requirements, the highly qualified ATCP team will develop a custom model to meet your needs.

Sonelastic Support SB-AP
Sonelastic Support SA-BC
Sonelastic Support SX-PD
Sonelastic Support SA-AG
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Devices por impulse excitation

The impulse device function in the Impulse Excitation Technique is to excite the specimen with a mechanical impulse without emitting sounds or noises within the measurement frequency range. Sonelastic® Systems have several impulse devices options that meet this requirement for small and medium-size specimens in the various geometries compatible with the supports. Besides manual models, there are automatic options that simplify the excitation and allow measurement automation in dependence of time.

Manual Impulse Device for the Impulse Excitation Technique
Automatic Device IED for the Impulse Excitation Technique

Acoustic sensors

The sensor function in the Impulse Excitation Technique is to capture the specimen acoustic response to impulse excitation with the high immunity to ambient noise. Sonelastic® Systems have directional sensors options for 70 Hz - 96 kHz frequency range that meet this requirement. Sonelastic® Systems also have modules and cards for signals acquisition and digitization, and accessories for holding the acoustic sensors.

Acoustic Sensor Microphone CA-DP for the Impulse Excitation Technique
Acoustic Sensor Base for the Impulse Excitation Technique
Acoustic Sensor CA-DP-USB-ADAC for the Impulse Excitation Technique
Acoustic Sensor CA-DP Tripod for the Impulse Excitation Technique

Sonelastic® Software

Sonelastic® Software main functions in the Impulse Excitation Technique are to analyze the specimen acoustic response, detect the frequencies and calculate the elastic moduli and damping. Additionally, Sonelastic® Software is able to calculate the speed of P-waves and S-waves, estimate frequencies and perform automatic measurements in dependence of time.

Software Sonelastic
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  • Applications

    Sonelastic® Systems are able to test any material with elastic modulus ranging from 0.5 to 1,000 GPa. It non-destructively and simultaneously characterizes the Young’s modulus, Shear modulus, Poisson´s ratio and Damping ratio of ceramics, concretes, composites, biomaterials and metals.
    Ceramic materials
    Ceramics
    and Refractories
    Concrete and cementitious
    Concrete
    and Cementitious
    Composites and woods
    Composites
    and Woods
    Biomaterials and Polymers
    Biomaterials
    and Polymers
    Metals and alloys
    Metals
    and Alloys
     

  • Improving Finite Element Analysis (FEA)

    The knowledge of the elastic moduli exact values is crucial for accurate finite element analysis and reliable modeling. Sonelastic® Systems enables you to measure the Young’s modulus, the Shear modulus, the Poisson´s ratio and damping of any rigid material. It is also possible to measure the main elastic coefficients of composites and others anisotropic materials.
    Finite element models
    Finite element models
    Finite element models
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Basics

  • The Impulse Excitation Technique +

    This IET is based on the natural frequencies of vibration. After a mild mechanical impact, the sample emits… Read More

  • Related standards overview +

    Sonelastic® Systems are in agreement with ASTM E1876, C1259, C215 and related standards, for both room and high temperatures… Read More

  • Related papers overview +

    References related to the equations and calculations used by the Sonelastic® Software. Some references related to the techniques employed in… Read More

  • Elastic moduli +

    An overview of the elastic moduli and the relevance of these properties for science and materials engineering. Read More

  • Damping +

    A brief overview about damping and the relevance of its properties to science and materials engineering. Read More
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Technical-scientific informative papers

  • ITC-05 Characterization of woods +

    Elastic moduli characterization of wood and wood products using the Impulse Excitation Technique. Read More

  • ITC-06 Characterization of composites +

    Elastic Moduli characterization of composites using the Impulse Excitation Technique. Read More

  • ITC-07 Characterization of concrete +

    Estimation of the static modulus of elasticity of concrete using the Impulse Excitation Technique Read More
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Tables of materials properties

  • Ceramics +

    Values of Young's modulus (modulus of elasticity) and Poisson's ratio at room temperature for ceramics and semiconductor materials used in engineering. Read More

  • Composites +

    Values of Young's modulus (modulus of elasticity) and Poisson's ratio at room temperature for several composites used in engineering. Read More

  • Ferrous metals +

    Values of Young's modulus (modulus of elasticity) and Poisson's ratio at room temperature for several ferrous metals used in engineering. Read More

  • Non-ferrous metals +

    Values of Young's modulus (modulus of elasticity) and Poisson's ratio at room temperature for several non-ferrous metals used in engineering. Read More
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What customers have to say about ATCP

  • Prof. Dr. RODRIGUES, J. A.(GEMM/DEMA/UFSCar)REFRACTORIESATCP has a good technological base and scientific knowledge compatible with the area it operates. The Sonelastic products have quality and good performance, besides the attractive prices when compared to equivalents. The company’s director is always willing to discuss clients’ specific needs.
  • Prof. Dr. Alexandre L. S. Borges(ICT/SJC-UNESP)BIOMATERIALSSonelastic is frequently used by our post-graduation students and researchers. Determining properties is something which can be easily done; however, because we use highly stiff materials, the specimen’s dimensions need to be big and this makes the research a bit more expensive. For the characterization of polymers used for restorations and cementation, Sonelastic is sensational because small dimensions (20x7x2mm) can give us both Young’s modulus and Poisson’s ration. The equipment is easy to use and a short 30-minute training is enough to allow post-grad students to use it independently.
  • Prof. Dr. Salomão, R.(Mat. Eng. Depart./EESC-USP)REFRACTORIESIn my research group, we use Sonelastic to measure elastic modulus of porous ceramic structures used as thermal insulators. The equipment is very easy to use, and maintain, and it is accurate (in comparison to destructive techniques). The technical support provided by ATCP is certainly one of the best I have experienced. Besides, as a Materials Science teacher, I often use Sonelastic as a didactic aid to explain mechanical properties of materials, effects of thermal treatments and thermal shocks, and non-destructive tests.
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