Cure monitoring of carbon–epoxy composites by optical fiber-based distributed strain–temperature sensing system

Ito, Y.; Minakuchi, Shu; Mizutani, Tetsuya; Takeda, Nobuo

doi:10.1080/09243046.2012.723363

Cited by 15 publications

(6 citation statements)

References 15 publications

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“…In Reference [62], Ito et al developed a hybrid Brillouin-Rayleigh optical fiber sensing system to monitor composite curing (Figure 11). A single optical fiber was embedded in a carbon fiber reinforced plastics laminate to independently measure temperature change and residual strain during the cooling period of the curing process.…”

Section: Hybrid Sensors Based On Scattering Techniquesmentioning

confidence: 99%

Hybrid Fiber Optic Sensor Systems in Structural Health Monitoring in Aircraft Structures

et al. 2020

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‘Smart’ structural health monitoring of composite materials with optical fiber sensors is becoming more and more important, especially in the aviation industry. This paper presents an overview of hybrid fiber-optic sensing systems based on scattering techniques, fiber Bragg gratings, interferometric techniques, and polarimetric methods in structural health monitoring. The main purpose of this manuscript is to analyze the possibilities of using hybrid sensors based on fiber optics to monitor composite structures, with a particular emphasis on aircraft structures. Since it is difficult to indicate the most comprehensive approach due to different parameters of the described sensors, the review contains a detailed description of available solutions. We hope that this work will allow for a better and faster selection of the right solution for the problem at hand.

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Section: Hybrid Sensors Based On Scattering Techniquesmentioning

confidence: 99%

Hybrid Fiber Optic Sensor Systems in Structural Health Monitoring in Aircraft Structures

et al. 2020

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“…This life cycle monitoring concept was further demonstrated in complex-shaped parts [31,32], and the advanced quality control method based on sensor responses was proposed. A hybrid BrillouinRayleigh system that can separately measure the strain and temperature distribution was also utilized for composite process monitoring [33].…”

Section: Life Cycle Monitoring Of the Practical Composite Panelmentioning

confidence: 99%

Recent advancement in optical fiber sensing for aerospace composite structures

Minakuchi

Takeda

2013

Photonic Sens

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Optical fiber sensors have attracted considerable attention in health monitoring of aerospace composite structures. This paper briefly reviews our recent advancement mainly in Brillouin-based distributed sensing. Damage detection, life cycle monitoring and shape reconstruction systems applicable to large-scale composite structures are presented, and new technical concepts, "smart crack arrester" and "hierarchical sensing system", are described as well, highlighting the great potential of optical fiber sensors for the structural health monitoring (SHM) field.

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“…Electronic skins have been developed to mimic the sensing capabilities of human skin and have numerous applications including robotics, healing process monitoring, wearable electronics, and medical diagnosis. − A number of ongoing studies aimed at developing electronic skins and other similar sensors exploit different physical properties of the materials, namely, resistivity, , capacitive effect, ,− optical effect, − piezoelectricity, − and triboelectricity. ,,− Resistive devices, transducing applied mechanical stimuli into electrical signals, are particularly noteworthy for their simple structure. Moreover, these devices tend to simplify the postacquisition signal processing.…”

Section: Introductionmentioning

confidence: 99%

Bioinspired, High-Sensitivity Mechanical Sensors Realized with Hexagonal Microcolumnar Arrays Coated with Ultrasonic-Sprayed Single-Walled Carbon Nanotubes

Jeong

Kim

et al. 2020

ACS Appl. Mater. Interfaces

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The development of a flexible electronic skin (e-skin) highly sensitive to multimodal vibrations and a specialized sensing ability is of great interest for a plethora of applications, such as tactile sensors for robots, seismology, healthcare, and wearable electronics. Here, we present an e-skin design characterized by a bioinspired, microhexagonal structure coated with single-walled carbon nanotubes (SWCNTs) using an ultrasonic spray method. We have demonstrated the outstanding performances of the device in terms of the capability to detect both static and dynamic mechanical stimuli including pressure, shear displacement, and bending using the principles of piezoresistivity. Because of the hexagonal microcolumnar array, whose contact area changes according to the mechanical stimuli applied, the interlock-optimized geometry shows an enhanced sensitivity. This produces an improved ability to discriminate the different mechanical stimuli that might be applied. Moreover, we show that our e-skins can detect, discriminate, and monitor various intensities of different external and internal vibrations, which is a useful asset for various applications, such as seismology, smart phones, wearable human skins (voice monitoring), etc.

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Cure monitoring of carbon–epoxy composites by optical fiber-based distributed strain–temperature sensing system

Cited by 15 publications

References 15 publications

Hybrid Fiber Optic Sensor Systems in Structural Health Monitoring in Aircraft Structures

Hybrid Fiber Optic Sensor Systems in Structural Health Monitoring in Aircraft Structures

Recent advancement in optical fiber sensing for aerospace composite structures

Bioinspired, High-Sensitivity Mechanical Sensors Realized with Hexagonal Microcolumnar Arrays Coated with Ultrasonic-Sprayed Single-Walled Carbon Nanotubes

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