Integrated Conceptual Overview
This describes a compact, vertical planetary ball mill specifically configured as a mineral crushing and grinding machine for laboratories. It highlights the use of agate components to pulverize soil and geological samples without contamination, making it a precision instrument for geochemistry and materials analysis.
1. Core Technology: "Planetary Ball Mill"
Principle: As established, this uses high-energy impacts from balls inside jars that rotate on their own axis while revolving around a central point. This is the most efficient method for rapid fine-grinding of brittle materials like minerals and soils.
2. Primary Application & Configuration: "Micro Soil Agate Sample Pulverizer"
This phrase is the most application-specific part of the description.
"Micro Soil" / "Sample": Indicates the mill is designed for processing small quantities of soil, sediment, or rock—typical in research where only a few grams are available for analysis.
"Agate": This is the critical specification. It means the grinding jars and balls are made from Agate (a natural form of SiO₂).
Why Agate for Soil? Agate is exceptionally hard (~7 Mohs) and, most importantly, chemically inert. For soil and mineral analysis, avoiding metallic contamination (e.g., from iron or chromium in steel jars) is paramount for accurate results in techniques like ICP-MS (Inductively Coupled Plasma Mass Spectrometry). Agate ensures the sample's elemental composition remains pure.
"Pulverizer": A term often used in geology and mining for a machine that reduces a sample to a fine, homogeneous powder.
3. Physical Design & Scope: "Small Vertical Laboratory Mineral Crushing and Grinding Machine"
"Small Vertical Laboratory": Confirms this is a space-saving, benchtop instrument with a vertical orientation for a compact footprint and stable operation.
"Mineral Crushing and Grinding": Defines its purpose. While "crushing" often refers to coarse size reduction and "grinding" to fine, a planetary ball mill is capable of both in a single process, taking small rock chips and turning them into a fine powder.
Typical Workflow and Importance
Scenario: Preparing a rock sample for geochemical analysis.
Crushing: A small rock core is first broken into smaller chips (~1-5 mm) using a hydraulic press or hammer.
Loading: These chips are placed into an Agate grinding jar with several Agate grinding balls.
Pulverizing: The jar is sealed and mounted on the vertical planetary mill. It runs at high speed for a set time.
Result: The output is an ultra-fine, perfectly homogeneous powder where every particle is representative of the original rock.
Analysis: This powder is then used for precise analysis via XRF, XRD, or ICP-MS to determine its elemental and mineralogical composition.
The use of Agate is non-negotiable in this workflow to prevent the introduction of trace metals that would completely invalidate the analytical results.
Product Images
Front View
Side View
Operation View
Grinding Mechanism
