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2023

  • Serra, J. M., et al. “Modulating redox properties of solid-state ion-conducting materials using microwave irradiation.” Materials Horizons 10.12 (2023): 5796-5804.
  • Dilissen, Nicole, et al. “Temperature dependency of the dielectric properties of hydrated and ordinary Portland cement and their constituent phases at 2.45 GHz up to 1100° C.” Cement and Concrete Research 165 (2023): 107067.
  • Kwak, Yeonsu, et al. “Microwave-assisted, performance-advantaged electrification of propane dehydrogenation.” Science Advances 9.37 (2023).
  • Vicente-Jurado, Diana, et al. “Effect of Extrusion Compression Ratio and Particle Size of Rice on the Sectional Expansion Index of Third-Generation Snacks.” Biology and Life Sciences Forum. Vol. 26. No. 1. MDPI, 2023.
  • Sánchez, Juan R., et al. “Microwave calorimeter for dielectric and thermal analysis of materials.” Energy 263 (2023): 125909.
  • Paradisi, Enrico, et al. “On the use of microwaves during combustion/calcination of N-doped TiO2 precursor: An EMW absorption study combined with TGA-DSC-FTIR results.” Materials Letters 338 (2023): 133975.
  • García-Baños, Beatriz, et al. “Evaluation of microwave synthesis of ceramic pigments based on in situ dielectric characterization.” Materials 16.8 (2023): 2976.
  • Selvam, Esun, et al. “Plastic waste upgrade to olefins via mild slurry microwave pyrolysis over solid acids.” Chemical Engineering Journal 454 (2023): 140332.
  • Baker-Fales, Montgomery, et al. “Temperature-dependent complex dielectric permittivity: a simple measurement strategy for liquid-phase samples.” Scientific Reports 13.1 (2023): 18171.
  • López-García, Andrés, et al. “Microwave-Driven Exsolution of Ni Nanoparticles in A-Site Deficient Perovskites.” ACS nano 17.23 (2023): 23955-23964.
  • Pérez-Botella, Eduardo, et al. “Challenges in the microwave heating of structured carbon adsorbents.” Chemical Engineering Journal 476 (2023): 146632.
  • Moratal, Sheila, et al. “Fast-low temperature microwave sintering of ZrSiO4–ZrO2 composites.” Ceramics International 49.13 (2023): 21652-21657.

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2022

  • Gutiérrez-Cano, José D., et al. “High-Resolution Detection of Rock-Forming Minerals by Permittivity Measurements with a Near-Field Scanning Microwave Microscope.” Sensors 22.3 (2022): 1138.
  • Gutiérrez-Cano, José D., et al. “Improved open-ended coaxial probe for temperature-dependent permittivity measurements of foodstuff at radio frequencies.” Journal of Food Engineering 316 (2022): 110823.
  • Lagunas-Chavarría, Anggel, et al. “Effect of microwave-assisted synthesis and sintering of lead-free KNL-NTS ceramics.” Materials 15.11 (2022): 3773.
  • García-Baños, Beatriz, et al. “Focusing dielectric slabs for the optimization of heating patterns in single mode microwave applicators.” Applied Thermal Engineering 201 (2022): 117845.
  • Pérez-Campos, Rafael, et al. “Dynamic permittivity measurement of ground-tire rubber (GTR) during microwave-assisted Devulcanization.” Polymers 14.17 (2022): 3543.
  • García-Banos, Beatriz, et al. “Dielectric and optical evaluation of high-emissivity coatings for temperature measurements in microwave applications.” Measurement 198 (2022): 111363.
  • Moratal, Sheila, et al. “Microwave sintering study of strontium-doped lanthanum manganite in a single-mode microwave with electric and magnetic field at 2.45 GHz.” Journal of the European Ceramic Society 42.13 (2022): 5624-5630.
  • Robinson, John, et al. “Unravelling the mechanisms of microwave pyrolysis of biomass.” Chemical Engineering Journal 430 (2022): 132975.

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2021

  • Chen, Weiqi, et al. “Intensified microwave-assisted heterogeneous catalytic reactors for sustainable chemical manufacturing.” Chemical Engineering Journal 420 (2021): 130476.
  • Malhotra, Abhinav, et al. “Temperature homogeneity under selective and localized microwave heating in structured flow reactors.” Industrial & Engineering Chemistry Research 60.18 (2021): 6835-6847.
  • Lagunas-Chavarría, A., et al. “Effect of synthesis and sintering temperatures on K0. 5Na0. 5NbO3 lead-free piezoelectric ceramics by microwave heating.” Journal of Materials Science: Materials in Electronics 32.11 (2021): 15279-15290.
  • Guillén Pineda, René M., et al. “Fabrication and characterization of Nb2O5‐doped 3Y‐TZP materials sintered by microwave technology.” International Journal of Applied Ceramic Technology 18.6 (2021): 2033-2044.
  • Gutiérrez-Cano, José D., et al. “Detection of anti-counterfeiting markers through permittivity maps using a micrometer scale near field scanning microwave microscope.” Sensors 21.16 (2021): 5463.
  • Penaranda-Foix, Felipe L., et al. “Directional coupler calibration for accurate online incident power measurements.” IEEE Microwave and Wireless Components Letters 31.6 (2021): 624-627.
  • Guillen, Rene M., et al. “Dielectric, mechanical and thermal properties of ZrO2–TiO2 materials obtained by microwave sintering at low temperature.” Ceramics International 47.19 (2021): 27334-27341.
  • Moratal, Sheila, et al. “Study of colored on the microwave sintering behavior of dental zirconia ceramics.” Journal of Asian Ceramic Societies 9.1 (2021): 188-196.

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Bespoke microwave equipment on-demand

To meet the specific needs of your application, ITACA-DIMAS designs and develops bespoke measurement solutions for microwave processes tailored to industrial conditions. These solutions may include specialized microwave reactors, supplementary components for signal treatment and data processing, calibration procedures, and user-friendly control software.

The equipment is designed to be simple, affordable, and robust while retaining essential functionality, making it particularly relevant for research activities focused on investigating microwave processing methods.

Additionally, ITACA-DIMAS offers cost-effective, stand-alone, highly precise dielectric measurement systems and microwave reactors suitable for various types of materials.

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Manufacturing Microwave Components

High frequency microwave components require sophisticated and precise manufacturing technology to ensure high yield performance.

With decades of expertise in CNC precision technology and manufacturing, ITACA-DIMAS is equipped with cutting-edge CNC resources, ensuring high precision across a variety of machining needs. Utilizing the latest in CAD/CAM technology, our design engineering team offers quick turn prototype services to produce early-stage samples for engineering evaluation and product functional validation.

These mechanical design facilities coupled with the high-speed machine tools within the area enable us to produce components with complex geometries achieving precision within 5 microns.

This combination of expertise and technology ensures that our high-frequency microwave components meet the accurate standards required for their applications.

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