Preparation of aligned Eu(DBM)3phen/PS fibers by electrospinning and their luminescence properties

[Display omitted] •The super-long aligned luminescent composite fibers were prepared by electrospinning.•In an effort to aligning the fibers, two key techniques were employed simultaneously.•One was to make use of high molecular weight polystyrene (Mw=4.4×105).•The other was the usage of a low speed...

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Published inJournal of colloid and interface science Vol. 400; pp. 175 - 180
Main Authors Yu, Hongquan, Li, Tao, Chen, Baojiu, Wu, Yanbo, Li, Yue
Format Journal Article
LanguageEnglish
Published Amsterdam Elsevier Inc 15.06.2013
Elsevier
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Abstract [Display omitted] •The super-long aligned luminescent composite fibers were prepared by electrospinning.•In an effort to aligning the fibers, two key techniques were employed simultaneously.•One was to make use of high molecular weight polystyrene (Mw=4.4×105).•The other was the usage of a low speed rotating collecting drum (>0.5m/s)•The fibers with smaller diameter exhibited better photoluminescence stability. Electrospinning is a technique employed to prepare nanofibers of polymer, ceramics, and composite that are used in the high electrostatic field. Alignment is an important step toward the exploitation and applications of these fibers. In the present report, super-long aligned luminescent composite Eu(DBM)3phen/PS fibers (DBM=dibenzoylmethane, phen=1,10-phenanthroline, PS=polystyrene) were prepared via an electrospinning method. The key to the success of this method was the usage of high molecular weight PS (Mw=4.4×105) in the electrospinning solution and the low speed (>0.5m/s) collecting drum. Luminescent properties of the composite fibers were systemically studied in comparison with that of the corresponding pure europium complex Eu(DBM)3phen. The results showed that the fluorescence lifetime of 5D0 state and the luminescent intensity of Eu3+ in Eu(DBM)3phen/PS composite fibers increased gradually with the fiber diameter. The composite fibers with smaller diameter exhibited better photoluminescence stability than that of the pure complex Eu(DBM)3phen.
AbstractList Electrospinning is a technique employed to prepare nanofibers of polymer, ceramics, and composite that are used in the high electrostatic field. Alignment is an important step toward the exploitation and applications of these fibers. In the present report, super-long aligned luminescent composite Eu(DBM)3phen/PS fibers (DBM=dibenzoylmethane, phen=1,10-phenanthroline, PS=polystyrene) were prepared via an electrospinning method. The key to the success of this method was the usage of high molecular weight PS (Mw=4.4×10(5)) in the electrospinning solution and the low speed (>0.5 m/s) collecting drum. Luminescent properties of the composite fibers were systemically studied in comparison with that of the corresponding pure europium complex Eu(DBM)3phen. The results showed that the fluorescence lifetime of (5)D0 state and the luminescent intensity of Eu(3+) in Eu(DBM)3phen/PS composite fibers increased gradually with the fiber diameter. The composite fibers with smaller diameter exhibited better photoluminescence stability than that of the pure complex Eu(DBM)3phen.Electrospinning is a technique employed to prepare nanofibers of polymer, ceramics, and composite that are used in the high electrostatic field. Alignment is an important step toward the exploitation and applications of these fibers. In the present report, super-long aligned luminescent composite Eu(DBM)3phen/PS fibers (DBM=dibenzoylmethane, phen=1,10-phenanthroline, PS=polystyrene) were prepared via an electrospinning method. The key to the success of this method was the usage of high molecular weight PS (Mw=4.4×10(5)) in the electrospinning solution and the low speed (>0.5 m/s) collecting drum. Luminescent properties of the composite fibers were systemically studied in comparison with that of the corresponding pure europium complex Eu(DBM)3phen. The results showed that the fluorescence lifetime of (5)D0 state and the luminescent intensity of Eu(3+) in Eu(DBM)3phen/PS composite fibers increased gradually with the fiber diameter. The composite fibers with smaller diameter exhibited better photoluminescence stability than that of the pure complex Eu(DBM)3phen.
Electrospinning is a technique employed to prepare nanofibers of polymer, ceramics, and composite that are used in the high electrostatic field. Alignment is an important step toward the exploitation and applications of these fibers. In the present report, super-long aligned luminescent composite Eu(DBM)3phen/PS fibers (DBM = dibenzoylmethane, phen = 1,10-phenanthroline, PS = polystyrene) were prepared via an electrospinning method. The key to the success of this method was the usage of high molecular weight PS (Mw = 4.4 X 105) in the electrospinning solution and the low speed (>0.5 m/s) collecting drum. Luminescent properties of the composite fibers were systemically studied in comparison with that of the corresponding pure europium complex Eu(DBM)3phen. The results showed that the fluorescence lifetime of 5D0 state and the luminescent intensity of Eu3+ in Eu(DBM)3phen/PS composite fibers increased gradually with the fiber diameter. The composite fibers with smaller diameter exhibited better photoluminescence stability than that of the pure complex Eu(DBM)3phen.
[Display omitted] •The super-long aligned luminescent composite fibers were prepared by electrospinning.•In an effort to aligning the fibers, two key techniques were employed simultaneously.•One was to make use of high molecular weight polystyrene (Mw=4.4×105).•The other was the usage of a low speed rotating collecting drum (>0.5m/s)•The fibers with smaller diameter exhibited better photoluminescence stability. Electrospinning is a technique employed to prepare nanofibers of polymer, ceramics, and composite that are used in the high electrostatic field. Alignment is an important step toward the exploitation and applications of these fibers. In the present report, super-long aligned luminescent composite Eu(DBM)3phen/PS fibers (DBM=dibenzoylmethane, phen=1,10-phenanthroline, PS=polystyrene) were prepared via an electrospinning method. The key to the success of this method was the usage of high molecular weight PS (Mw=4.4×105) in the electrospinning solution and the low speed (>0.5m/s) collecting drum. Luminescent properties of the composite fibers were systemically studied in comparison with that of the corresponding pure europium complex Eu(DBM)3phen. The results showed that the fluorescence lifetime of 5D0 state and the luminescent intensity of Eu3+ in Eu(DBM)3phen/PS composite fibers increased gradually with the fiber diameter. The composite fibers with smaller diameter exhibited better photoluminescence stability than that of the pure complex Eu(DBM)3phen.
Electrospinning is a technique employed to prepare nanofibers of polymer, ceramics, and composite that are used in the high electrostatic field. Alignment is an important step toward the exploitation and applications of these fibers. In the present report, super-long aligned luminescent composite Eu(DBM)3phen/PS fibers (DBM=dibenzoylmethane, phen=1,10-phenanthroline, PS=polystyrene) were prepared via an electrospinning method. The key to the success of this method was the usage of high molecular weight PS (Mw=4.4×10(5)) in the electrospinning solution and the low speed (>0.5 m/s) collecting drum. Luminescent properties of the composite fibers were systemically studied in comparison with that of the corresponding pure europium complex Eu(DBM)3phen. The results showed that the fluorescence lifetime of (5)D0 state and the luminescent intensity of Eu(3+) in Eu(DBM)3phen/PS composite fibers increased gradually with the fiber diameter. The composite fibers with smaller diameter exhibited better photoluminescence stability than that of the pure complex Eu(DBM)3phen.
Electrospinning is a technique employed to prepare nanofibers of polymer, ceramics, and composite that are used in the high electrostatic field. Alignment is an important step toward the exploitation and applications of these fibers. In the present report, super-long aligned luminescent composite Eu(DBM)₃phen/PS fibers (DBM=dibenzoylmethane, phen=1,10-phenanthroline, PS=polystyrene) were prepared via an electrospinning method. The key to the success of this method was the usage of high molecular weight PS (Mw=4.4×10⁵) in the electrospinning solution and the low speed (>0.5m/s) collecting drum. Luminescent properties of the composite fibers were systemically studied in comparison with that of the corresponding pure europium complex Eu(DBM)₃phen. The results showed that the fluorescence lifetime of ⁵D₀ state and the luminescent intensity of Eu³⁺ in Eu(DBM)₃phen/PS composite fibers increased gradually with the fiber diameter. The composite fibers with smaller diameter exhibited better photoluminescence stability than that of the pure complex Eu(DBM)₃phen.
Author Yu, Hongquan
Li, Yue
Li, Tao
Wu, Yanbo
Chen, Baojiu
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Keywords Sonochemical method
Low speed rotating drum
Continuous
Electrospinning
Aligned composite fibers
Super-long
Fluorescence lifetime
Photoluminescence stability
Europium complex
High molecular weight polymer
Speed
Stability
Sonochemistry
Fiber
Luminescence
Photoluminescence
Fluorescence
Polymer
Composite material
Lifetime
Preparation
Molecular mass
Language English
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CC BY 4.0
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Snippet [Display omitted] •The super-long aligned luminescent composite fibers were prepared by electrospinning.•In an effort to aligning the fibers, two key...
Electrospinning is a technique employed to prepare nanofibers of polymer, ceramics, and composite that are used in the high electrostatic field. Alignment is...
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SubjectTerms Aligned composite fibers
Alignment
Ceramics
Chemistry
Continuous
Electrospinning
Electrostatic fields
europium
Europium complex
Exact sciences and technology
Fibers
fluorescence
Fluorescence lifetime
General and physical chemistry
High molecular weight polymer
light intensity
Low speed rotating drum
Luminescence
Molecular weight
nanofibers
photoluminescence
Photoluminescence stability
Physical chemistry of induced reactions (with radiations, particles and ultrasonics)
polymers
Polystyrene resins
Sonochemical method
Super-long
Ultrasonic chemistry
Title Preparation of aligned Eu(DBM)3phen/PS fibers by electrospinning and their luminescence properties
URI https://dx.doi.org/10.1016/j.jcis.2013.03.017
https://www.ncbi.nlm.nih.gov/pubmed/23578517
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