Lattice GO

INTRODUCTION

  • The Lattice GO redefines portable X-ray diffraction, delivering laboratory-grade performance in a compact, lightweight system. Designed for versatility, it integrates a specialized X-ray source, Bragg-Brentano diffraction geometry, and an advanced 2D array detector to generate high-quality XRD spectra in minutes.
  • Optimized for field research, on-site quality control, and space-constrained laboratories, the Lattice GO provides high-intensity data with exceptional angular precision, rivaling traditional benchtop systems. Its rugged construction, rapid scanning capability, and user-friendly operation ensure reliable results in any environment.
  • With the Lattice GO, high-resolution diffraction is no longer confined to the lab—bringing powerful material analysis wherever it's needed.
  • Instrument Setup for the Lattice GO

FEATURES

  • Compact and Portable Design
  • A lightweight, space-efficient system suitable for benchtop use or field deployment, making it ideal for laboratories with limited space or on-site analysis.
  • Rapid, In-Situ XRD Analysis
  • Enables immediate diffraction measurements following material synthesis, facilitating real-time screening and informed decision-making.
  • Laboratory-Grade Data Quality
  • Delivers high-intensity diffraction patterns with angular precision comparable to full-scale laboratory diffractometers.
  • Bragg-Brentano Diffraction Geometry
  • A proven configuration for accurate and reproducible powder diffraction analysis, ensuring high data reliability.
  • Advanced X-ray Source
  • Optimized for enhanced signal stability and consistent performance across diverse sample types.
  • High-Resolution 2D Array Detector
  • Provides rapid data acquisition with broad angular coverage, capturing high-fidelity diffraction patterns with excellent signal-to-noise ratio.
  • Optimized Analytical Workflow
  • Enables efficient sample pre-screening, reducing the need for external testing and improving overall analytical throughput.

SPECIFICATIONS

  • X-ray tube 30 W, 30 kV / 1 mA
    X-ray tube target material Cu
    Theodolite Theta / 2theta geometry, the radius of the theodolite is 110 mm
    Detector Photon direct-read two-dimensional array detector
    Maximum scanning range 0° - 130°
    2Theta Minimum step size ±0.01°
    Measure speed 1°C
    Battery Runtime 3 hours
    Volume and Weight L 4.8 in (120 mm) × W 11.9 in (300 mm) × H 11.9 in (300 mm), 26.5 lbs (12 kg)
  • Ruby Standard Sample (NIST1976)
  • Silicon Powder Measurement Data and Rietveld Structure Refinement

APPLICATIONS

  • Mineral Industry:
  • The Lattice GO portable X-ray diffractometer is becoming an essential tool for geological exploration teams, providing rapid, reliable analysis directly in the field. Its ability to perform real-time phase identification and quantitative analysis empowers geologists to make faster, more informed decisions.
  • • On-Site Mineral Analysis
  • Qualitative and quantitative identification of mineral phases to support mineralogical research and exploration.
  • • Geological Feature Evaluation
  • Analyze surrounding rock structures in mineralization zones to understand ore genesis and mineral distribution.
  • • Process Optimization
  • Identify ore formation mechanisms and determine appropriate mining, beneficiation, refining, and smelting methods.
  • • Core Logging Support
  • Detect fine-grained fragments, complex lithologies, and subtle mineral changes to guide drilling and stratigraphic interpretation.
  • • Rapid Ore Quality Assessment
  • Conduct fast, quantitative mineral content analysis on-site to inform mineral trading and field decisions.
  • • Urban Resource Recovery
  • Identify and quantify mineral content from recycled materials for effective urban mining and resource reuse.
  • Sandstone Sample Diffraction Pattern and Standard-Free Quantitative Analysis
  • Zinc Concentrate Diffraction Pattern and Qualitative Analysis
  • Cultural Heritage:
  • The Lattice GO enables non-destructive, on-site analysis of culturally significant materials, making it an invaluable tool for conservation scientists, archaeologists, and museums. Its precision and portability support preservation, research, and authentication of priceless artifacts.
  • • Phase Analysis of Artifact Materials
  • Identify crystalline phases in bronzeware, ironware, ceramics, pigments, and mural base layers.
  • • Corrosion and Weathering Studies
  • Analyze corrosion products and weathering layers to understand degradation mechanisms and guide conservation strategies.
  • • Restoration and Preservation
  • Assist in development of preservation techniques for murals, stone relics, and metal artifacts through material characterization.
  • • Provenance Studies
  • Determine the geographic origin and production techniques of cultural relics using mineralogical fingerprinting.
  • • Authentication and Anti-Counterfeiting
  • Verify authenticity of artifacts by comparing structural signatures to known references.
  • Ancient Ceramic Fragment Diffraction Data and Qualitative Analysis
  • Security and Drug Safety:
  • The Lattice GO brings advanced, non-destructive XRD capabilities to law enforcement and forensic science, enabling rapid, on-site analysis with minimal sample preparation. Delivering real-time results, it supports fast, accurate decision-making in critical situations.
  • On-Site Drug Identification
  • Perform rapid, non-destructive qualitative and quantitative phase analysis of narcotics, new psychoactive substances (NPS), and precursor materials.
  • Criminal Investigation Support
  • Identify and characterize controlled substances in the field to aid forensic investigations and track drug trafficking routes and sources.
  • Non-Destructive Forensic Testing
  • Preserve sample integrity while obtaining precise, high-resolution diffraction data for reliable forensic analysis.
  • Drug and Substance Characterization
  • Conduct on-site qualitative and quantitative analysis of illicit drugs, counterfeit pharmaceuticals, and precursor materials for trafficking detection and source attribution.
  • Trace Evidence Analysis
  • Detect and classify trace compounds such as cyanide, organic contaminants, paper fillers, toxic additives, and soil or mineral fragments from crime scenes or stolen cultural relics.
  • Security Screening at High-Risk Locations
  • Rapidly identify illicit substances, explosives, and hazardous materials at border checkpoints, airports, train stations, and public venues.
  • Explosives and Contaminant Detection
  • Analyze explosive compounds and their decomposition residues, as well as adulterants such as talcum powder and borax in consumer goods and food products.
  • Heroin Hydrochloride XRD Pattern