Scanning Probe Microscope

Scanning Probe Microscopy (SPM) works by scanning a probe across the surface of a sample and detecting changes in the interaction force or current between the tip and the surface, thereby forming an image of the surface topography. It is used to observe nanoscale structures, surface roughness, and electrical properties of materials, enabling direct acquisition of surface information in fields such as materials science and biological sample analysis.
Selection
When selecting a scanning probe microscope, the sample properties should be considered. For instance, conductivity determines whether atomic force or scanning tunneling mode should be chosen. The probe type should be matched according to resolution requirements. Environmental factors, such as operation in air or liquid, affect the instrument configuration. Budget and operational complexity require a balance between automatic and manual functions.

Terms

Standards

Instruments

With 60 frames per second scanning speed and 2 megapixel images, autofocus function without manual adjustment, working distance adjustable range 22.5mm-226mm, built-in 30 LED lights to provide Balanced Illuminant.

$ 1203.00

Heavy-duty stainless steel structure ensures stable support, equipped with 3 strong magnets for firm adsorption, maintaining the vertical state of Microscope, suitable for various metal surface fixing needs.

$ 339.00

Provides 40x magnification and a 0.60 numerical aperture to ensure high resolution and long working distances for a variety of Microscope applications.

$ 138.00

Using electromagnetic wave scanning technology, high frequency scanning depth 50mm, Measurement range 0-99.9%, Response Time 1 second, no contact can be measured without damage to the internal moisture content of the object.

$ 225.00

Measurement range of 1~ 125mm with accuracy of +/- 0.03mm, support A/B scanning and 100000 Data storage, built-in temperature compensation to ensure stable measurement.

$ 1865.00

Made of aluminum, Dimension 150 * 220 * 290mm, support 360 ° swirl/spin adjustment and arm adjustable, suitable for a variety of Microscope models.

$ 154.00

Measurement accuracy of +/- 2% F. S, viscosity range of 1~ 2000000mPa · s, with automatic scanning function and automatic stop measurement, support multi-rotor specifications and eight Rotation speed switching.

$ 559.00

Using microcomputer drive technology and imported stepper motor, Rotation speed is accurate and stable, viscosity range 1~ 100000mPa · s, with automatic scanning function, can automatically recommend rotor and Rotation speed combination, improve measurement efficiency.

$ 465.00

Using professional mechanical design and microcomputer control technology, Measurement accuracy of +/- 2% F. S, with automatic scanning function to intelligently select rotor and Rotation speed, support RS-232 communication and temperature sensor interface expansion.

$ 520.00

Using electromagnetic wave scanning technology implementation nondestructive detection, Measurement range 0-70%, Response Time only 1 second, support 10 kinds of material code selection and temperature compensation function.

$ 167.00

Adopt imported stepper motor to ensure smooth speed, measurement accuracy of +/- 1% F.S, repRoducibility of +/- 0.5% F.S., support automatic scanning function to help select the appropriate Rotor speed, suitable for accurate measurement of low viscosity fluids.

$ 620.00

Using electromagnetic wave scanning technology, measurement depth of 60mm, accuracy +/- 0.5%, Response Time of 1 second, no damage to the surface of the object, support 10 kinds of measurement code selection, automatic temperature compensation.

$ 169.00

Using microcomputer drive technology and imported stepper motor, speed range 0.3-60 rpm, viscosity measurement range 1-2000000mPa · s, with automatic scanning function, can automatically prompt the best Rotor speed combination to ensure High Accuracy and repeability.

$ 514.00

Using microcomputer drive technology, equipped with imported stepper motor, Speed range 6/12/30/60rpm, viscosity measurement range 1~ 100000mPa · s, with automatic scanning function, can automatically prompt the appropriate Rotor speed combination to ensure High Accuracy and Repeatability.

$ 507.00

Using microcomputer drive technology and imported stepper motor, Speed range 0.3-60 rpm, viscosity measurement range 1-2000000mPa · s, with automatic scanning function to help select the right Rotor speed, ensure High Accuracy and Repeatability.

$ 469.00

Articles

Differential Scanning Calorimetry measures the phase transition temperature of liquid crystal polymers.
This article introduces the method of determining the phase transition temperature of liquid crystal polymers using a differential scanning calorimeter. The differential scanning calorimeter analyzes the phase transition behavior of materials by comparing the heat difference between the sample and a reference material, recording the heat flow curve during temperature changes.
Differential Scanning Calorimetry measures the heat of curing reaction of thermosetting polymers.
Differential scanning calorimetry is a commonly used technique for studying the curing reactions of thermosetting polymers. It measures the heat released by a sample during heating to obtain key parameters such as reaction enthalpy and curing temperature.
Four-probe resistivity tester measures the sheet resistance of conductive polymer films.
This article introduces the method of measuring the sheet resistance of conductive polymer films using a four-probe resistivity tester. Sheet resistance is an important parameter for evaluating the conductivity of films.
Differential Scanning Calorimetry for Measuring the Degree of Cure of Polymer Optical Waveguide Materials
This article introduces a method for determining the degree of curing in polymer optical waveguide materials using a differential scanning calorimeter. The degree of curing is a key indicator affecting material performance, and this instrument quantitatively analyzes it by measuring the thermal effects during the curing reaction.
Differential Scanning Calorimetry for Measuring Compatibility of Plastic Blends
Differential scanning calorimetry assesses the compatibility of plastic blends by measuring the heat flow changes during heating or cooling processes.
DSC analyzer measures the glass transition of degradable films.
This article explains how to use a differential scanning calorimeter to measure the glass transition temperature of a degradable film. It first clarifies that the glass transition is the process by which a material changes from a glassy state to a highly elastic state, which appears as a baseline shift on the curve.
Differential Scanning Calorimetry for Measuring the Melting Temperature of Thin Films
Differential scanning calorimetry analyzes thermal transitions in materials by measuring the heat flow difference between the sample and a reference. When determining the melting temperature of thin films, the sample must be uniformly prepared, with a mass between 3 and 10 milligrams. Testing is typically conducted at heating rates ranging from 5 to 20°C/min under a nitrogen protective atmosphere.
Comparison of Selection Parameters for Stylus and Laser Roughness Measuring Instruments
Stylus-type roughness measuring instruments perform contact scanning to measure two-dimensional profile parameters in accordance with standards such as ISO 4287, while laser-based instruments utilize non-contact optical principles and refer to ISO 25178.
Differential scanning calorimetry for determining the glass transition temperature of epoxy resin
Differential scanning calorimetry analyzes the thermal properties of materials by measuring the heat flow difference between the sample and a reference material.
Differential Scanning Calorimetry Study on the Curing Reaction Kinetics of Epoxy Resin
This article introduces the method of using differential scanning calorimetry to study the curing reaction kinetics of epoxy resins.
Differential Scanning Calorimetry Study on the Compatibility of Resin Blends
This article introduces how to use differential scanning calorimetry to study the compatibility of resin blends. Differential scanning calorimetry analyzes the thermal properties of materials by measuring the heat changes in the sample during heating.
Application of Initial Tack Tester in the Detection of Pressure-Sensitive Hot Melt Adhesives
The initial tack tester is a device used to measure the initial adhesive properties of pressure-sensitive hot melt adhesives, primarily by employing the rolling ball method or probe method to assess the adhesive force at the moment of contact.
The role of DSC thermal analyzer in the detection of hot melt adhesive crystallinity
The crystallinity of hot melt adhesive directly affects its properties such as bonding strength. Differential scanning calorimetry captures the thermal effect peaks corresponding to melting and crystallization by measuring the heat flow changes of the sample during heating and cooling processes.
Differential Scanning Calorimetry for Determining the Melting Point and Glass Transition Temperature of Hot Melt Adhesives
This article introduces the method of determining the melting point and glass transition temperature of hot-melt adhesives using a differential scanning calorimeter. Differential scanning calorimetry analyzes the thermal transition characteristics of materials by measuring the energy difference between the sample and a reference material.
Differential Scanning Calorimetry Analysis of Coating Curing Reactions
Differential Scanning Calorimetry (DSC) is a technique that analyzes the thermal behavior of materials by measuring the energy difference between a sample and a reference material.