Rainbow actuators and sensors: A new smart technology

被引:51
|
作者
Haertling, GH
机构
关键词
ferroelectrics; piezoelectrics; electrostrictors; actuators; sensors; Rainbow devices; PLZT; smart structures; actuator arrays; pre-stressed structures;
D O I
10.1117/12.267101
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
Recent developments in the technology of ferroelectric, piezoelectric, electrostrictive and antiferroelectric ceramic actuators have clearly demonstrated that the materials required for future applications such as positioners, levelers, pumps, vibration-free structures and variable-focus elements will need to be more sophisticated (multifunctional and smart), more economical and possess a higher degree of performance than presently available. One recently developed method for producing considerably higher-than-normal displacement in these materials is known as the RAINBOW (Reduced and INternally Biased Oxide Wafer) technology. This acronym denotes the basic active structure of the Rainbow device which is produced by a special high temperature chemical reduction process. In its most basic sense, a Rainbow can be considered to be a pre-stressed, monolithic, axial-mode bender; however, because of its unique dome or saddle-shaped configuration, it is able to produce much higher displacements (up to several mm depending on size) and sustain moderate loads (up to 10 kg depending on thickness) than normal benders such as unimorphs and bimorphs. The technology of producing and characterizing such Rainbows as well as methods for increasing their utility by means of stacked actuators for increased linear displacement and matrix arrays for enhanced coverage in wide-area applications such as smart skins, autoleveling structures and deformable coatings are described.
引用
收藏
页码:81 / 92
页数:12
相关论文
共 50 条
  • [31] Distributed machining control and monitoring using smart sensors/actuators
    Desforges, X
    Habbadi, A
    Geneste, L
    JOURNAL OF INTELLIGENT MANUFACTURING, 2004, 15 (01) : 39 - 53
  • [32] A mixed-mode smart transducer interface for sensors and actuators
    Chen, SC
    Lee, K
    SOUND AND VIBRATION, 1998, 32 (04): : 24 - 27
  • [33] Dynamics and control of smart structures using piezoelectric actuators and sensors
    Tong, LY
    Sun, DC
    COUPLING OF FLUIDS, STRUCTURES AND WAVES IN AERONAUTICS, PROCEEDINGS, 2003, 85 : 115 - 128
  • [34] Modeling and control of smart structures with bonded piezoelectric sensors and actuators
    Akella, Padma
    Chen, Xin
    Cheng, Weiying
    Hughes, Declan
    Wen, John T.
    Smart Materials and Structures, 1994, 3 (03) : 344 - 353
  • [35] Distributed machining control and monitoring using smart sensors/actuators
    Xavier Desforges
    Abdallah Habbadi
    Laurent Geneste
    François Soler
    Journal of Intelligent Manufacturing, 2004, 15 : 39 - 53
  • [36] Advancements in sensors and actuators technologies for smart cities: a comprehensive review
    Oroos Arshi
    Surajit Mondal
    Smart Construction and Sustainable Cities, 1 (1):
  • [37] Smart Composite Repairs using PZT Discs as Actuators/Sensors
    Chapuis, B.
    Terrien, N.
    Royer, D.
    Deom, A.
    PROCEEDINGS OF THE FOURTH EUROPEAN WORKSHOP ON STRUCTURAL HEALTH MONITORING 2008, 2008, : 665 - 672
  • [38] A RESTful middleware for AI controlled sensors, actuators and smart devices
    Dipsis, Nikos
    Stathis, Kostas
    JOURNAL OF AMBIENT INTELLIGENCE AND HUMANIZED COMPUTING, 2020, 11 (07) : 2963 - 2986
  • [39] Piezoelectric and electrostrictive bimorph actuators acid sensors for smart microsystems
    Gaucher, P
    THIRD INTERNATIONAL CONFERENCE ON INTELLIGENT MATERIALS - THIRD EUROPEAN CONFERENCE ON SMART STRUCTURES AND MATERIALS, 1996, 2779 : 610 - 615
  • [40] Static shape control of smart beams with laminated sensors and actuators
    Lin, CC
    Hsu, CY
    STRUCTURAL HEALT H MONITORING: CURRENT STATUS AND PERSPECTIVES, 1997, : 636 - 649