Ball milling is widely used in materials science and chemistry laboratories for various applications. is a technique used for grinding and mixing materials to obtain finely powdered samples. It is used for mechanical alloying, where different elements are mixed to create alloys with desired properties. It is also used for the synthesis of nanoparticles and the refinement of powders.

Application:

• Mechanical alloying to create new alloys with improved properties.
• Synthesis of nanoparticles with controlled size and composition.
• Grinding and homogenization of powders.

• Preparation of composite materials by blending different components.

Features:

The ball milling MM500 is a mixer mill with temperature control, high-speed operation (up to 30 Hz), and the ability to process samples effectively. It accommodates feed sizes up to 10 mm and achieves a final fineness of 0.1 µm. The mill has two grinding stations for jars ranging from 2 ml to 125 ml and offers various options for heating or cooling with thermal fluid or liquid nitrogen. It features temperature and pressure monitoring, aeriation lids for atmosphere control, and supports dry, wet, and cryogenic grinding. The mill is user-friendly with a touch screen interface, low noise levels, and ergonomic jar clamping. It also provides continuous temperature monitoring and control in a range from -100 °C to 100 °C.

Model MM5002 control Serial # 42-2304398

BET (Brunauer-Emmett-Teller) surface area is a measurement technique used to determine the specific surface area of porous materials. It is based on the principle of gas adsorption onto the material's surface. The BET method calculates the surface area by analyzing the adsorption isotherm data and applying the BET equation. This measurement is valuable in characterizing materials such as catalysts, zeolites, activated carbons, and powders. The surface area plays a significant role in determining the material's reactivity, porosity, adsorption capacity, and overall performance.

Application:

• Determine the active surface area of catalysts, which is critical for assessing catalytic activity and efficiency. It aids in catalyst development, optimization, and performance evaluation.
• Used to assess the adsorption capacity and efficiency of materials used as adsorbents or desiccants. It aids in selecting suitable materials for gas separation, purification, and moisture control applications.
• Provides information about the porosity, surface area, and particle size distribution of powders. It is valuable in powder technology, pharmaceutical formulation, and nanoparticle characterization.
• Used to evaluate the effectiveness of surface coatings in terms of coverage, adhesion, and surface roughness. It aids in coating development and quality control.

Features:

The BELSORP MR1 by Microtrac MRB is a surface area and pore size distribution analyzer with features including physisorption and chemisorption measurements, wide surface area measurement range, pore size distribution analysis, high-speed analysis, multipoint BET analysis, advanced data analysis, temperature control, gas compatibility, sample preparation flexibility, and a user-friendly interface.

A compression molding machine fabricates molded products by compressing and curing a preheated polymer or composite material inside a heated mold cavity. It is commonly used for producing high-strength and intricate parts.

Application:

• Production of thermosetting plastic parts, such as electrical components and appliance handles.
•  Manufacturing of composite materials, including fiber-reinforced plastics.
•  Fabrication of high-strength and intricate products in industries like aerospace and automotive.
• Development of custom-made parts with excellent dimensional stability and reproducibility.

Lab Line Platen Press Type P 300 P

• Investigation of thermal expansion behavior and coefficient of materials.
• Study of phase transitions, such as glass transitions and melting points.
• Monitoring sintering and densification processes in ceramics and powders.
• Characterization of materials for thermal stability, compatibility, and reliability.

Features:

Designed to accurately determine the thermal expansion behavior of solids, liquids, powders, and pastes in various applications. It can conduct measurements under different conditions, including vacuum, oxidizing, and reducing atmospheres. With automatic pressure control, the instrument allows for continuous variation of the contact pressure within a range of 10 to 1000 mN, depending on the specific application. This feature ensures precise control of the selected contact pressure throughout the expansion and shrinkage of the sample, enabling accurate thermal expansion measurements.

Model L75 HS 1600 OE Serial# 16334/23

Dip coaters are versatile tools used for depositing thin films onto substrates. They offer precise control, adjustable dip speed, compatibility with various substrates, and programmable functionality. With user-friendly interfaces and optional drying/curing modules, dip coaters are reliable and efficient for thin film deposition.

Application:

• Coating technology: Dip coaters are used for producing coatings such as anti-reflective, protective, optical, and functional coatings.
• Electronics and semiconductors: Dip coaters are employed in lithography processes, PCB production, and thin film transistor manufacturing.
• Energy devices: Dip coaters play a role in the production of solar cells, fuel cells, and batteries by depositing precise thin films.
• Surface engineering: Dip coaters are employed for creating hydrophobic/hydrophilic coatings and modifying surface properties.

Features:

Dip coaters typically offer adjustable dip speed control, substrate size compatibility, coating depth control, compatibility with various coating solutions, programmable functionality, optional drying/curing modules, safety features, and a user-friendly interface. Additional accessories may be available for specific applications.

Model L2006A1-UK Ossila

Injection molding is a widely employed manufacturing process in the plastics industry. An injection molding machine is used to manufacture plastic parts by injecting molten plastic material into a mold cavity under high pressure. It enables the mass production of complex and precise plastic components.

Application:

• Fabrication of complex shapes and precise parts with tight tolerances.
• Rapid prototyping and iterative design processes.

Features:

The maximum injection capacity of 96 cm³, allowing for the production of medium-sized plastic components, with a clamping force of 350 kN, it provides sufficient force to securely hold the mold during the injection process. Digital setting of all stroke positions, time, pressure, speed and temperature values for easy programming and monitoring of the injection molding process. Ensuring consistent quality in the repeatability in the injection molding process, and processing a wide range of materials, including thermoplastics, elastomers, and silicone.

BOY 35 E (350-96)

• Understanding and controlling the behavior of suspensions, emulsions, and powders.
• Research and development of materials with tailored particle size distributions.
• Characterization of nanoparticles and nanomaterials.

Features

You can have an image acquisition technology and accurately detect and count particles, even in trace amounts of contaminants, large particles, and aggregates. Also, detect the bubbles in wet circulation systems, providing valuable information about sample characteristics and potential interferences. Analyzing the effects of factors like stirring, sonication, and the addition of surfactants or stabilizers. Have the capability to analyze the shape distribution of particles, including aspect ratio, roundness, length, and width, providing additional insights into particle morphology.

Model LA-960V2 Serial# 8H04KTFF

Potentiostat modular multichannel system is widely used in various applications such as corrosion studies, battery research, fuel cell analysis, and electrochemical sensor development. The modular design allows for flexibility and scalability, enabling researchers to perform simultaneous measurements on multiple electrodes or conduct parallel experiments. It allows for the precise control and measurement of electrical potentials, currents, and impedance in electrochemical processes.

Application:

investigate and understand the corrosion behavior of materials in various environments.

characterize and test the electrochemical performance of batteries, including charge-discharge processes, cycling stability, and capacity analysis.

Help optimize fuel cell efficiency and understand degradation mechanisms, measure cell performance, and evaluate catalyst materials.

Development and testing of electrochemical sensors for various applications, such as environmental monitoring, biomedical sensing, and chemical analysis. It enables the investigation of sensor response, sensitivity, and selectivity.

The TGA (Thermogravimetric Analyzer) is a type of simultaneous thermal analyzer that combines thermogravimetry and differential scanning calorimetry (DSC) techniques allows for the measurement of weight changes and heat flow of a sample as a function of temperature or time.

Features:

The instrument provides precise characterization of materials with its high sensitivity for weight changes and heat flow measurements., a wide temperature range (up to 1600°C), and the ability to analyze samples under controlled atmosphere conditions such as inert gas or specific gas environments. The instrument is versatile, accommodating various sample types including solids, liquids, and gases.

Application:

• Analysis of Volatile Components: The simultaneous TGA-DSC technique enables the study of volatilization behavior and thermal degradation of volatile components in a sample.
• Phase Transitions and Melting Point Determination: The DSC capability allows for the detection and characterization of phase transitions such as melting, crystallization, and glass transitions, providing valuable information about material properties.
• Kinetic Analysis: The TGA data obtained can be used for kinetic analysis, allowing researchers to determine reaction rates, activation energies, and other kinetic parameters.

Model STA449F3-Jupiter Serial # STA4F3B-0432-M

A Universal Testing Machine (UTM) is an essential tool in materials science, mechanical engineering, and quality control. They allow the evaluation of material behavior under different loading conditions, providing information about mechanical properties, stress-strain relationships, and fracture behavior. UTMs are used for testing a wide range of materials, including metals, plastics, composites, and biomaterials.

Application: Universal Testing Machines are used for:- Determining mechanical properties, such as tensile strength, yield strength, and elongation.- Evaluation of material behavior under different loading conditions, including compression and bending.- Quality control and testing of materials in industries like automotive, aerospace, and construction.- Characterization of biomaterials, composites, and metals for research and engineering applications.

UV-Vis spectroscopy is widely utilized in chemistry, biochemistry, and materials science. It helps in identifying compounds, determining their concentration, and studying their chemical and physical properties. By measuring the absorbance or transmittance of UV and visible light, UV-Vis spectroscopy provides valuable information about the electronic structure, concentration, and purity of substances.

Application:

• Quantitative and qualitative analysis of organic and inorganic compounds.
•  Determination of concentration and purity of substances in chemical and biological samples.
•  Investigation of electronic transitions and identification of chromophores.
•  Monitoring chemical reactions, kinetics, and stability of materials.

Features:

The UV-Vis spectrophotometer offers a safe measurement of life-science samples without sample photodegradation, and fiberoptic measurement probes for accurate and efficient results. The highly focused beam image allows for precise and reproducible measurements of small volumes and precious samples. The instrument can scan the entire wavelength range (190 to 1100 nm) in under three seconds and collect data from single or multiple wavelengths at a high data rate of 80 points per second.

Model Cary-60 Serial # MY23089224

X-ray Diffraction (XRD) is widely employed in materials science, geology, and chemistry for materials characterization. By analyzing the diffraction patterns, XRD provides information about the arrangement of atoms in a crystal lattice, phase identification, crystallinity, and structural changes due to temperature, pressure, or deformation. It is a valuable tool for studying minerals, metals, ceramics, and crystalline compounds.

Application:

• Phase identification and crystal structure determination of materials.
•  Analysis of crystalline materials for quality control and material characterization.
•  Investigation of crystal defects, texture, and residual stress in materials.
•  Study of phase transformations and thermal behavior of materials.