What Are IEEE Journal of Microelectromechanical Systems?

IEEE Journal of Microelectromechanical Systems (J-MEMS) papers represent the primary archival record for original research in the design, fabrication, and characterization of microelectromechanical systems (MEMS). The journal is a peer-reviewed monthly publication co-sponsored by three IEEE societies: the Electron Devices Society, the Industrial Electronics Society, and the Robotics and Automation Society. It publishes contributions covering theory, modeling, fabrication processes, and reliability evaluation, with a strong editorial preference for papers backed by experimental data. MEMS are miniaturized devices that integrate mechanical and electrical components at the micrometer to millimeter scale, and J-MEMS serves as the principal venue where researchers publish advances from initial concept through production-ready characterization.

The journal's scope encompasses both the fundamental science of small-scale physical phenomena and the engineering of functional devices. Coverage extends into nanotechnologies where they intersect with MEMS design and fabrication, reflecting the continued convergence of micro- and nanoscale engineering that has defined the field since the 1990s.

Device Design and Fabrication Technologies

A central focus of J-MEMS is the development of micro- and nanofabrication processes used to create MEMS devices. The journal covers surface micromachining, bulk silicon etching, deep reactive-ion etching (DRIE), wafer bonding, and more recently additive manufacturing techniques applied at the microscale. Materials properties receive particular attention: articles address silicon, silicon carbide, piezoelectric ceramics, shape-memory alloys, and polymer-based substrates as candidates for structural, sensing, or actuating layers. Topics in tribology, adhesion, and stiction are also covered because they govern the long-term reliability of devices with contacting surfaces. The IEEE Electron Devices Society's MEMS technical committee oversees the journal and coordinates its scope with other J-MEMS-affiliated activities, including the J-MEMS RightNow rapid-communication series.

Sensing, Actuation, and RF MEMS

J-MEMS publishes extensively on sensors and actuators across multiple physical domains. Inertial sensors such as accelerometers and gyroscopes, pressure and flow sensors, chemical and biological sensing platforms, and acoustic transducers all appear in the journal's pages. On the actuation side, articles address electrostatic, thermal, piezoelectric, and magnetic drive mechanisms for valves, pumps, mirrors, and resonators. RF MEMS is a distinct and active sub-area, covering electrostatically actuated switches, tunable capacitors, and resonant filters that serve applications in wireless communication hardware. These components are evaluated for insertion loss, isolation, linearity, and reliability under repeated actuation cycles, metrics central to their adoption in commercial devices.

Biosystems and Environmental Interfaces

A third major area covered by the journal concerns MEMS devices that interact with biological systems or environmental media. Lab-on-a-chip platforms, microfluidic channels, cell sorting arrays, implantable neural probes, and drug delivery systems all draw on fabrication knowledge developed for conventional MEMS. Articles in this area address biocompatibility, packaging in aqueous environments, and the electrical interface between electronic readout circuits and biological signals. Chemical and gas sensors designed for environmental monitoring represent a parallel application track. The full archive of J-MEMS articles, spanning decades of progress in the field, is available through IEEE Xplore, along with publication information for prospective authors documented in the journal's author guidelines.

Applications

IEEE Journal of Microelectromechanical Systems covers research with applications in a range of areas, including:

• Inertial navigation and motion sensing in consumer electronics and aerospace
• RF switching and filtering components in wireless communication hardware
• Microfluidic platforms for point-of-care diagnostics and drug discovery
• Pressure and flow sensing in industrial process control
• Implantable medical devices and neural interfaces
• Environmental chemical and gas sensing systems