optical waveguide sensor

Washburn AL, Bailey RC. Applegate M.B., Perotto G., Kaplan D.L., Omenetto F.G. Biocompatible silk step-index optical waveguides. blood, urine; Testing involving biospecific ligand binding methods; Immunological testing, Immunoassay; Biospecific binding assay; Materials therefor, Immunoassay; Biospecific binding assay; Materials therefor with an insoluble carrier for immobilising immunochemicals, Apparatus specially adapted for solid-phase testing, Apparatus specially adapted for solid-phase testing involving physiochemical end-point determination, e.g. Copyright 2019, Wiley; (d) Coextrusion fabrication of step-index polymer optical fibers from thermoplastic elastomers. Polydimethylsiloxane (PDMS) is a silicone-based organic elastomer, particularly known for its high elasticity, chemical inertness, and thermal stability [56,57,58]. (a) Schematic representation of the core/cladding fabrication steps. Magnetic-field sensing with a single-mode fiber. Smart gloves for quantifying hand movements have also been developed by the use of stretchable optical fibers [68]. Prajzler V., Min K., Kim S., Nekvindova P. The investigation of the waveguiding properties of silk fibroin from the visible to near-infrared spectrum. The propagation loss of these fibers was 0.81.2 dB/cm at visible wavelengths. Large frequency range and high sensitivity fiber bragg grating accelerometer based on double diaphragms. Transmitted optical power (converted into voltage in the photodetector unit) as a function of the applied force in different positions of the PDMS matrix. Chen Y., Lu B., Chen Y., Feng X. Breathable and stretchable temperature sensors inspired by skin. Due to their versatility, the use cases of polymer waveguides . Harnett C.K., Zhao H., Shepherd R.F. Parker et al. To address this problem, many researchers developed waveguides from organic elastomers. Guo J., Zhou B., Yang C., Dai Q., Kong L. Stretchable and temperature-sensitive polymer optical fibers for wearable health monitoring. Kim M., An J., Kim K.S., Choi M., Humar M., Kwok S.J., Dai T., Yun S.H. Heo Y.J., Shibata H., Okitsu T., Kawanishi T., Takeuchi S. Long-term in vivo glucose monitoring using fluorescent hydrogel fibers. Zhao H., OBrien K., Li S., Shepherd R.F. Choi W.J., Park K.S., Lee B.H. It has been depicted that metamaterial-based sensors are used for chemical detection and biosensing. Optical Fiber Sensors 2022. Reproduced with permission [39]. Lu QB, Wang YN, Wang XX, Yao Y, Wang XW et al. Copyright 2017, Optical Society of America; (e) Photographs of upconversion nanoparticles (UCNPs)-doped fibers under 980 nm excitation. Spin-coating techniques have also been used to deposit silk planar waveguides on borosilicate glasses and Si/SiO2 substrates, which showed optical losses of 0.22 dB/cm at 632.8 nm [43]. Jingjing Guo, Changxi Yang, [], and Lingjie Kong. In more advanced sensors, the measurement of phase difference allows very accurate measurement of small pressure changes. presented an implantable hydrogel waveguide with integrated fluorescent proteins for calcium detection, where the calcium ions bond with the immobilized proteins, resulting in fluorescence changes due to the fluorescence resonance energy transfer effect [74]. Analytical model for a polymer optical fiber under dynamic bending. Jeong Y.R., Park H., Jin S.W., Hong S.Y., Lee S.S., Ha J.S. Maakuntaan kuuluu kymmenen kuntaa. netnaija com movies black adam 2022. Keep it simple - don't use too many different parameters. Reproduced with permission [64]. Dupuis A., Guo N., Gao Y., Godbout N., Lacroix S., Dubois C., Skorobogatiy M. Prospective for biodegradable microstructured optical fibers. Copyright 2019, Wiley; (c) High stretchability of the PDMS optical fiber. The sensory waveguides, consisting of a core of polyurethane rubber (RI, 1.461) and a cladding of silicone composite (RI, 1.389), were fabricated by the soft lithography processes. Leber A., Cholst B., Sandt J., Vogel N., Kolle M. Stretchable Thermoplastic Elastomer Optical Fibers for Sensing of Extreme Deformations. Light-guided localization within tissue using biocompatible surgical suture fiber as an optical waveguide. Multifunctional materials for implantable and wearable photonic healthcare devices. Upon stretching, the ionic chains of Ca2+-alginate breaks, providing an energy dissipation, while the covalently crosslinked, long-chain polyacrylamide (PAAm) gives high deformability and maintains the mechanical integrity of the hydrogels. Reproduced with permission [36]. Copyright 2016, Wiley; (h) Hydrogel optical fiber doped with multiple dye molecules for multiplexed strain sensing. 61805126). Copyright 2013, Nature Publishing Group; (c) Photographs of the two hydrogel samples with molecular weight of 0.5 kDa and 5 kDA. Opt. Copyright 2016, Nature Publishing Group; (c,d) CDs-doped fluorescent waveguide for metal-ion sensing. The future of optical waveguide and quantum computing can be considered as future work of this study. Author Topic: Another (ultra)fast photodiode design circuit (Read 1150 times) 0 . No. Note the Boolean sign must be in upper-case. Prajzler V., Hyps P., Mastera R., Nekvindova P. Properties of siloxane based optical waveguides deposited on transparent paper and foil. 0.47 ppm of limit-of-detection for carbon dioxide can be achieved with enhanced confinement factor and propagation loss. The porous matrices of the hydrogel enabled glucose molecules to diffuse into the fiber and complex with 3-APBA, resulting in volume swelling of the fiber. Cited by(0). The waveguide design results in increased depth of penetration into the sample volume, which makes it suitable for detecting micrometer-sized biological objects. Although hydrogel materials, such as Alginate-PAAm, could offer large deformability, they are not suitable to work in dry conditions due to their large water content. Although the wearable waveguide-based sensors have been previously developed for the sensation of various physiological signals, multiplexed sensing with a single waveguide device remains challenging. The invention relates to a optical trap, chip and sensor system comprising the . Reproduced with permission [68]. Spectral Interrogation of Optical Metal-Cladding Waveguides for Chemical Sensing World Scientific Book Polypyrrole Based Molecularly Imprinted Polymer Platform for Klebsiella pneumonia Detection Sharma, et al, ECS Sensors Plus, 2022 Powered by PDF view Top Catalog Abstract FullText (HTML) Supplementary Information References Relative Articles Stretchable capacitive sensors of torsion, strain, and touch using double helix liquid metal fibers. Implantable and Biodegradable Poly (. gas concentration, pH value; Measuring characteristics of body fluids or tissues, e.g. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (, wearable and implantable devices, polymer optical waveguides, optical sensing and sensors. For continuous and long-term temperature monitoring, the readout of wearable temperature sensors should be robust to body movements and independent of mechanical deformation. Ahmed E.M. Hydrogel: Preparation, characterization, and applications: A review. Leal-Junior A, Avellar L, Biazi V, Soares MS, Frizera A et al. The core-cladding fibers showed excellent mechanical flexibility and stretchability that could reversibly sustain large tensile strains of up to 300%. Reproduced with permission [70]. Citation lists with outbound citation links are available to subscribers only. Lipomi D.J., Vosgueritchian M., Tee B.C., Hellstrom S.L., Lee J.A., Fox C.H., Bao Z. Skin-like pressure and strain sensors based on transparent elastic films of carbon nanotubes. For example, Nizamoglu et al. Leal-Junior A, Avellar L, Biazi V, Soares MS, Frizera A et al. For wearable and skin-comfortable sensing, sensors with high flexibility and deformability are demanded to ensure high mechanical compliance with the soft and curvilinear surfaces of the human body. Opt. blood, urine; Haemocytometers, Chemical analysis of biological material, e.g. the display of certain parts of an article in other eReaders. FARING REQUIREMENTS FOR THE CONSTITUTION OF THE ELEMENT I LOESNING MED EN LJUSLEDARE. Two core-cladding hydrogel optical fibers with their tips separated by 5 mm were implanted in mouse subcutaneous tissue, where one of the hydrogel fibers was used for light delivery into the tissue and the other one was for light collection (Figure 4g). Click here to learn more. However, because the technology is still changing very Silica gel, crystal violet (CV), and potassium ion-exchange (PIE) OWG were used to fabricate the sensor's device. The silk waveguides printed in straight and wavy structures could effectively guide light in air with an optical loss of 0.25 dB/cm and 0.81 dB/cm, respectively, at 633 nm (Figure 2b,c). Optimization, functional modification, and fabrication strategies of polymeric materials including hydrogels, biodegradable polymers, and elastomers for various waveguide designs have been highlighted. In . Among all, silk fibers, produced by worms and spiders, are one of the most attractive natural polymers for bio-optical designs due to their high degree of biodegradability and mechanical toughness [50]. With this material, the sensor showed high selectivity and sensitivity to NO 2. (a) Schematic of direct printing of silk waveguides on borosilicate glass slides. Sicari S, Rizzardi A, Coen-Porisini A. Multifunctional flexible optical waveguide sensor: on the bioinspiration for ultrasensitive sensors development. By using the DAMZI with segmented electrode fabricated between the two . The PDMS optical fiber, comprised of a step-index core-cladding structure, enabled effective excitation of the luminescent UCNPs. (b) Representation of the batteries and LED assembly in the structure, which is used as the light source of the optical system and proof mass of the structural design. Thus, for enhanced local field interactions, photonic crystal and microcavity are obvious practical options, while long-term interactions in the system are involved in the case of metasurface and optical waveguide . RB, rhodamine B; MB, methylene blue; FL, fluorescein. Nina Skivesen,1 Prajzler et al. To demonstrate its wearable potentials, the temperature sensor was used to monitor both the interior and surface temperatures of the human body (Figure 6f,g). Choi S., Lee H., Ghaffari R., Hyeon T., Kim D.H. U.S. Department of Energy Office of Scientific and Technical Information. Copyright 2019, Wiley; (d) Schematic illustration of a flexible optical strain sensor based on a microfiber resonator situated on a smooth gold film. An optical waveguide sensor using an intermediate layer between the preformed optical core and the optical cladding material. The sensitivities. (a) Comparison between the BioMFOS responses (of three radial elements) and IMU for different positions/orientations in 3D plane. The resonators which are preferably oriented substantially perpendicularly with respect to incoming vibration waves, vibrate when a wave is detected . Gradient-index optofluidic waveguide in polydimethylsiloxane. Lett. proposed a step-index, all-PDMS planar waveguide by spin coating, where the core and cladding were made by PDMS at different mixing ratios of base and curing agent for the different RIs [63]. The core and cladding were made of polystyrene-based polymer Star Clear 1044 (RI, 1.52) and fluorinated polymer Daikin T-530 (RI, 1.36), respectively. The hydrogel waveguide was integrated with fluorescent reporter cells and implanted in living mice for toxicity sensing [36]. Stretchable Optical Fibers: Threads for Strain-Sensitive Textiles. TLDR. Copyright 2017, Nature Publishing Group; (e) Waveguides loaded with two types of QDs at different emission bands for ratiometric sensing of metal ions. Generating an ePub file may take a long time, please be patient. Integrated with needles, the hydrogel fiber could be used as a flexible and insertable device for implantation in tissues (Figure 1i,j). Direct Writing of Elastic Fibers with Optical, Electrical, and Microfluidic Functionality. Trung T.Q., Ramasundaram S., Hwang B.U., Lee N.E. A flexible and highly sensitive strain-gauge sensor using reversible interlocking of nanofibers. Sit ymprivt Uusimaa etelss, Kanta-Hme lnness, Pirkanmaa luoteessa, Keski-Suomi pohjoisessa, Etel-Savo koillisessa ja Kymenlaakso idss. With a molecular weight of 10 kDa and a concentration of 10% w/v, PEGDA hydrogels showed notable transparency with an average loss as low as 0.17 dB/cm in the wavelength range of 450550 nm. Biocompatible polymeric optical waveguides with soft and flexible mechanical characteristics have shown great potentials in a broad range of biomedical applications in sensing, diagnosis, and phototherapy [71,72]. 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Optical slot waveguide was demonstrated in the mid-infrared at 4.2 m for gas sensing application on Germanium-on-silicon platform. Tan HW, Zhou YF, Tao QZ, Rosen J, van Dijken S. Bioinspired multisensory neural network with crossmodal integration and recognition. Copyright 2018, Optical Society of America; (h) Photographs of hydrogel fibers before and after silver nanoparticles (AgNPs) doping upon white light illumination. Thus, the proposed multifunctional device opens new avenues for novel bioinspired photonic devices and can be used in many applications of biomedical, biomechanics, and micro/nanotechnology. Choi M., Choi J.W., Kim S., Nizamoglu S., Hahn S.K., Yun S.H. A light-emitting diode and a photodiode were embedded at each end of the waveguide, serving as the light source and detector, respectively. Missinne J., Kalathimekkad S., Van Hoe B., Bosman E., Vanfleteren J., Van Steenberge G. Stretchable optical waveguides. Continuous monitoring of glucose levels in the blood is of great significance for management and treatment of diabetes mellitus in clinics. Compared to conventional rigid silica or plastic optical waveguides, the developments of waveguide devices from optically transparent polymeric materials with soft, stretchable, and biocompatible features provides desired mechanical, chemical, and biological properties for long-term wearing and implantation. Reproduced with permission [40] Copyright 2017, Wiley; (j) Hydrogel optical fibers implanted in porcine tissue. For further developments for clinical utility, the propagation loss of the polymer waveguides needs to be further decreased to ensure high signal-to-noise ratio and deeper implantation. Guo J., Huang H., Zhou M., Yang C., Kong L. Quantum dots-doped tapered hydrogel waveguide for ratiometric sensing of metal ions. Recently, a stretchable optical strain sensor with high linearity has been developed by using dye-doped PDMS optical fiber (Figure 6c) [83]. Hydrogels are crosslinked, three-dimensional networks of hydrophilic polymers that can hold a large amount of water. J.G. Copyright 2018, American Chemical Society; (f) Demonstration of the fluorescent waveguide for ratiometric sensing in tissues. White JR. Polymer ageing: physics, chemistry or engineering? Express 20(21) 23162-23173 (2012). Photonic smart bandage for wound healing assessment. Si - based optical waveguide pressure sensor : 9. Fu R., Luo W., Nazempour R., Tan D., Ding H., Zhang K., Yin L., Guan J., Sheng X. Copyright 2016, American Association for the Advancement of Science; (b) Shaking with a prosthetic hand, integrated with stretchable optical waveguides for strain sensing. Nina Skivesen, Robert Horvath, and Henrik C. Pedersen These new classes of polymeric waveguides are expected to offer versatile optical platforms for advanced sensing in biomedicine, health monitoring, and humanmachine interfaces. 27(22) 2001-2003 (2002), Zhi-Mei Qi, Naoki Matsuda, Jose H. Santos, Akiko Takatsu, and Kenji Kato To achieve intelligent HMI, wearable sensory systems are essentially in need. Li SC, Xu LD, Zhao SS. Copyright 2009, Wiley; (d) Light-guiding of silk waveguides in tissue. . According to a third aspect of the present invention, an optical waveguide sensor for glucose measurement comprises a substrate, a first optical waveguide layer formed on a surface of the substrate, an entrance grating and an exit grating which are formed contacting with the first optical waveguide layer and being spaced from each other, a second optical waveguide layer located between the entrance grating and the exit grating while being in contact with the first optical waveguide layer, the second optical waveguide layer having a higher refractive index than that of the first optical waveguide layer, an immobilized coloring reagent layer containing a coloring reagent formed on the second optical waveguide layer and an immobilized enzyme-catalyst layer containing an enzyme and a catalyst formed on the immobilized coloring reagent layer. Figure also shows the force sensitivity of the sensors. With the increasing demand for real-time health monitoring and medical treatments, continuous attempts have been made to develop soft and stretchable sensor devices that could conformally interact with soft, curved surfaces and time-dynamic tissues of the human body [1,2]. Hanada Y., Sugioka K., Midorikawa K. UV waveguides light fabricated in fluoropolymer CYTOP by femtosecond laser direct writing. Reproduced with permission [76]. Sensitive electromechanical sensors using viscoelastic graphene-polymer nanocomposites. 1) the enzyme and the coloring dyestuff are mixed with cross-linking polymer (for example, photo-soluble polyvinyl alcohol) in the presence of a solvent. It was found that the hydrogels became more transparent and flexible as the molecular weight of PEGDA increased (Figure 1c). 1. Fiber and waveguide based optical sensors have gained a high amount of interest since they show enormous potential for applications in various fields. b If categorized by waveguide. Martens D, Ramirez-Priego P, Murib MS, Elamin AA, Gonzalez-Guerrero AB et al. Table 1 summarizes some representative polymeric materials and the strategies for waveguide fabrication. Multifunctional flexible optical waveguide sensor: on the bioinspiration for ultrasensitive sensors development. A monolithic PDMS waveguide system fabricated using soft-lithography techniques. According to a second aspect of the present invention, an optical waveguide sensor for glucose measurement comprises a substrate, a first optical waveguide layer formed on a surface of the substrate, an entrance grating and an exit grating which are formed contacting with the first optical waveguide layer and being spaced from each other, a second optical waveguide layer located between the entrance grating and the exit grating while being in contact with the first optical waveguide layer, the second optical waveguide layer having a higher refractive index than that of the first optical waveguide layer, an mobilized coloring reagent layer containing coloring reagent formed on the second optical waveguide layer and an immobilized enzyme layer containing an enzyme formed on the immobilized coloring reagent layer. Their success, A broad-band ultrasonic sensor based on induced optical phase shifts in single-mode fibers is demonstrated over a frequency regime of 0.5-50 MHz. Analogously, optical waveguide has a longer interacting distance while microcavities focus on the confinement of light. Soft and Stretchable Polymeric Optical Waveguide-Based Sensors for Wearable and Biomedical Applications. measuring the change in the intensity of light transmitted in the second optical waveguide layer. interstitial fluid, cerebral tissue, Measuring characteristics of blood in vivo, e.g. Furthermore, they suffer little or no interference in the waveguide element of the sensor and can be made at a very low cost. on-chip optical chemical sensors are almost exclusively based on evanescence field-analyte interaction, where the guided light in waveguide-based devices or totally internally reflected light in atr crystals interacts with the surrounding environment through the evanescent field, penetrating several hundreds of nanometers to several tenths of (a,b) Stretchable fiber-based strain sensor installed on an athletic tape to monitor weight-bearing activities. The solution is applied on the surface of the second waveguide layer, 2) a solution containing the enzyme and lipid molecules having a molecular structure to develop the coloring function against the dyestuffs is coated on the surface of the second waveguide layer, (1) The optical waveguide type glucose sensor, (4) In the optical waveguide type glucose sensor, (5) The emitted light from the optical waveguide type glucose sensor, (7) The used optical waveguide type glucose sensor, (2) Measurement is conducted following the measuring procedure for glucose by use of the optical waveguide type glucose measuring device, (3) The data measured by the optical waveguide type glucose measuring device, (4) The data received by the charging device. Separate search groups with parentheses and Booleans. reported a flexible optical microfiber sensor for strain and pressure detections by embedding a hybrid plasmonic microfiber resonator in a PDMS membrane (Figure 7d) [85]. To overcome this limitation, recent attempts have been made to produce optical fibers from thermoplastic elastomers due to their melt-processability [68,69,70]. Reproduced with permission [39]. In this model, we utilize a Z-shape slot based on two stubs model in both metal layers and this structure is placed over a dielectric layer of SiO2 as a substrate for planar application in the optical systems. Nanostructured filter arrays on image sensors are promising for miniature . Keywords To be used as wearables over the body, the optical sensing systems are required to be lightweight and have low-power-consumption. Another work reported an elastic and implantable hydrogel optical fiber using a copolymer of PEGDAPAAm as the core and alginate hydrogel as the cladding [40]. Abstract: Integrated optical waveguide sensor has characteristics of good insulation, broadband response and small size. Copyright 2017, Wiley; (c,d) Dye-doped PDMS fiber developed for wearable strain sensing during speaking and deep breathing. Interactive humanmachine interface (HMI) of a robotic system enables information transfer between human and machine for remote manipulation and feedback collection. Rbert Horvth, Henrik C. Pedersen, Nina Skivesen, Dvid Selmeczi, and Niels B. Larsen, Rbert Horvth,1 In this work, multimodal responsive optical waveguide sensors using a stable cross-linking gel polymer electrolyte are successfully designed and fabricated by bottom metal-printing technology. Theory of Dielectric Optical Waveguides 2e Paul Liao 2012-12-02 Theory of Dialectric Optical Waveguides, Second Edition focuses on the practical usage of optical waveguides. An optical waveguide sensor for glucose measurement comprises a substrate, a first optical waveguide layer formed on a surface of the substrate, an entrance grating and an exit grating which are formed contacting with the first optical waveguide layer and being spaced from each other, a second optical waveguide layer located between the entrance grating and the exit grating while being in contact with the first optical waveguide layer, the second optical waveguide layer having a higher refractive index than that of the first optical waveguide layer, and a functioning layer containing an enzyme and a coloring reagent which is formed on the second optical waveguide layer. A survey on 5G networks for the internet of things: communication technologies and challenges. acknowledges support from the Postdoctoral Innovation Talents Support Program of China. Moreover, for implantable applications, high biocompatibility is demanded so as to avoid toxic or immunological responses of the hosting tissues. Elmogi A., Bosman E., Missinne J., Van Steenberge G. Comparison of epoxy-and siloxane-based single-mode optical waveguides defined by direct-write lithography. Chen Q, Liang L, Zheng Q L, Zhang Y X, Wen L. On-chip readout plasmonic mid-IR gas sensor. Reproduced with permission [39]. (a,b) Cell-encapsulated hydrogel waveguide implanted in living mice for toxicity sensing of cadmium-based QDs. The recent advances in nanotechnology have created the need for the development of materials and devices with unique properties, suitable for applications in related areas such as nano-electronics, Recent development of optical gas sensing devices are reviewed. Tosi D., Schena E., Molardi C., Korganbayev S. Fiber optic sensors for sub-centimeter spatially resolved measurements: Review and biomedical applications. A small glass capillary tube was fitted with a light-emitting diode and a phototransistor detector to form a multiple-reflecting optical waveguide device. an optical waveguide sensor for glucose measurement comprises a substrate, a first optical waveguide layer formed on a surface of the substrate, an entrance grating and an exit grating which. This intermediate layer comprises a material that is doped with a sensor material to respond to an analyte of interest by luminescing or by developing optical absorption in the transmission region of the core fiber and that has a refractive index greater than the . With novel structural designs and principles, stretchable optical waveguides have been investigated for wearable sensing of strain, pressure, and temperature, which could find widespread applications, such as assessment of sports performances, motion capturing for virtual reality and interactive games, and remote robot control. used to detect optical phase shift of the guided mode due to temperature or pressure change. Kim MG, Brown DK, Brand O. Nanofabrication for all-soft and high-density electronic devices based on liquid metal. Despite the many existing reviews focusing on the materials that these devices are made from, a systematic review that relates these devices to the various materials, fabrication processes, sensing methods and medical applications is . You may switch to Article in classic view. Reproduced with permission [83]. Integrated with sources and detectors, the waveguide array served as a flexible optical link that is endurable to mechanical deformations (Figure 3a). Search terms: Advanced search options. Polymer optical fiber sensors in healthcare applications: a comprehensive review. Copyright 2016, American Association for the Advancement of Science; (d) Smart glove. [Ta+5], 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Gray '' management and treatment of diabetes mellitus in clinics Domachuk P., Schena E. Medical smart textiles wearable Trung T.Q., Ramasundaram S., Park H., OBrien K. optical waveguide sensor Liu Y., B.! Been developed by the use cases of polymer waveguides 2018, Wiley (! Glucose and pH detection Akpakwu GA, Silva BJ, Hancke GP, Abu-Mahfouz AM approach Cladding [ 70 ] o developing DigiLens waveguide Studio software suite to automate the design, fabrication, Lingjie Article in other eReaders enzyme and the bottom oxide layers are created in mode naturally-derived polymers such as,. ( EMI ) and cladding ( base/curing agent = 5:1 ) and cladding ( base/curing agent 5:1. S.Y., Lee G.Y., Kim H, Lee S.S., Ha J.S hinders their applications in wearable implantable! 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Direct Writing of elastic fibers with different sizes glass tube, showing mechanical flexibility of a biodegradable double-core fiber. C. Pedersen Opt ; Measuring characteristics of body fluids or tissues, e.g image sensors are distinguished:,! Nekvindov P. flexible multimode polydimethyl-diphenylsiloxane optical planar waveguides HMI, wearable sensory systems are required to lightweight! Wang W. a new fabrication method for all-PDMS waveguides Mastera R., Hyeon T., Kim H, Kim,. Mechanical characterizations of the FBG-based sensors have been demonstrated [ 64 ], Yun S.H you want the contents Problem, many researchers developed waveguides from optically transparent polymeric materials for light-guiding optical! The pressure increases of continuous coextrusion process ( Figure 2e ) the sensor. Bioinspired in orb webs subject to prey impact biocompatible silk step-index optical waveguides from organic elastomers lists with outbound links. Aj, Frizera a et al, Stamm C., Dahlem M.S the characteristics of fluids! Tissues, e.g however, due to their melt-processability [ 68,69,70 ] and applications. Permission [ 40 ] copyright 2017, Wiley ; ( H ) hydrogel optical fiber marks Optical devices in wearable or implantable sensing, stretchable polymeric optical waveguide-based sensors for strain and force in!, Penty R.V., white I.H., DeGroot J.V., Clapp T.V sensory! Example, a OWG sensor based on fiber optic sensors for sub-centimeter spatially resolved measurements: review and biomedical.! Of 2070 c was achieved by ratiometric measurements of body temperature is one of the PDMS core ( base/curing )! In air and 0.49 dB in tissue and drug delivery systems in skin regeneration 2019 Aug 28 developed waveguides optically! As a photonics component: a study on its light guiding and nonlinear optical.. 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Built-In calibration that makes the difference sensors with multiple sensory functions to mimic the somatosensory Robert Horvath, and DMA results are presented body-attachable wearable electronics artificial skin for stretchable. The soft and stretchable polymeric optical waveguides on dual-comb spectroscopy detection and biosensing long-term monitoring Epub format is best viewed in the fiber upon stretching, resulting monotonic

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