21 research outputs found
Construction of Functionalized Annulated Sulfone via SO<sub>2</sub>/I Exchange of Cyclic Diaryliodonium Salts
A straightforward
protocol for diarylannulated sulfone construction
is efficiently established via SO<sub>2</sub>/I exchange of iodoniumÂ(III)
salts. Readily available inorganic Na<sub>2</sub>S<sub>2</sub>O<sub>5</sub> was served as a safe and convenient SO<sub>2</sub> surrogate.
Diverse functionalized diarylannulated sulfones were smoothly achieved
in good to excellent yields with great functional group compatibility.
Organic light emitting diodes (OLEDs) material molecules were subsequently
established via this method in gram scale. The unsymmetrical conjugated
systems with donor-acceptor groups and π-conjugation bridges
motifs, which substantially communicate electron mobility in semiconductor
material molecules, were successfully afforded under the facile conditions
of the exchange strategy
Construction of Functionalized Annulated Sulfone via SO<sub>2</sub>/I Exchange of Cyclic Diaryliodonium Salts
A straightforward
protocol for diarylannulated sulfone construction
is efficiently established via SO<sub>2</sub>/I exchange of iodoniumÂ(III)
salts. Readily available inorganic Na<sub>2</sub>S<sub>2</sub>O<sub>5</sub> was served as a safe and convenient SO<sub>2</sub> surrogate.
Diverse functionalized diarylannulated sulfones were smoothly achieved
in good to excellent yields with great functional group compatibility.
Organic light emitting diodes (OLEDs) material molecules were subsequently
established via this method in gram scale. The unsymmetrical conjugated
systems with donor-acceptor groups and π-conjugation bridges
motifs, which substantially communicate electron mobility in semiconductor
material molecules, were successfully afforded under the facile conditions
of the exchange strategy
Construction of Functionalized Annulated Sulfone via SO<sub>2</sub>/I Exchange of Cyclic Diaryliodonium Salts
A straightforward
protocol for diarylannulated sulfone construction
is efficiently established via SO<sub>2</sub>/I exchange of iodoniumÂ(III)
salts. Readily available inorganic Na<sub>2</sub>S<sub>2</sub>O<sub>5</sub> was served as a safe and convenient SO<sub>2</sub> surrogate.
Diverse functionalized diarylannulated sulfones were smoothly achieved
in good to excellent yields with great functional group compatibility.
Organic light emitting diodes (OLEDs) material molecules were subsequently
established via this method in gram scale. The unsymmetrical conjugated
systems with donor-acceptor groups and π-conjugation bridges
motifs, which substantially communicate electron mobility in semiconductor
material molecules, were successfully afforded under the facile conditions
of the exchange strategy
Construction of Functionalized Annulated Sulfone via SO<sub>2</sub>/I Exchange of Cyclic Diaryliodonium Salts
A straightforward
protocol for diarylannulated sulfone construction
is efficiently established via SO<sub>2</sub>/I exchange of iodoniumÂ(III)
salts. Readily available inorganic Na<sub>2</sub>S<sub>2</sub>O<sub>5</sub> was served as a safe and convenient SO<sub>2</sub> surrogate.
Diverse functionalized diarylannulated sulfones were smoothly achieved
in good to excellent yields with great functional group compatibility.
Organic light emitting diodes (OLEDs) material molecules were subsequently
established via this method in gram scale. The unsymmetrical conjugated
systems with donor-acceptor groups and π-conjugation bridges
motifs, which substantially communicate electron mobility in semiconductor
material molecules, were successfully afforded under the facile conditions
of the exchange strategy
Table1_Safety assessment of cenobamate: real-world adverse event analysis from the FAERS database.XLS
Objective:This study aims to analyze adverse drug events (ADEs) associated with cenobamate from the FAERS database, covering the third quarter of 2020 to the second quarter of 2023.Methods:Data related to cenobamate-associated ADEs from the third quarter of 2020 to the second quarter of 2023 were collected. After standardizing the data, various signal quantification techniques, including ROR, MHRA, BCPNN, and MGPS, were employed for analysis.Results:Among 2535 ADE reports where cenobamate was the primary suspected drug, 94 adverse reactions involving 11 different System Organ Class (SOC) categories were identified through the application of four signal quantification techniques. More specifically, neurological disorders and injuries resultant from complications are frequent adverse reactions associated with cenobamate.Conclusion:Our research findings align with established results, affirming the favorable safety profile of cenobamate. Effective prevention of adverse reactions induced by cenobamate can be achieved through the establishment of efficient blood concentration monitoring and dose adjustments.</p
Table2_Safety assessment of cenobamate: real-world adverse event analysis from the FAERS database.XLS
Objective:This study aims to analyze adverse drug events (ADEs) associated with cenobamate from the FAERS database, covering the third quarter of 2020 to the second quarter of 2023.Methods:Data related to cenobamate-associated ADEs from the third quarter of 2020 to the second quarter of 2023 were collected. After standardizing the data, various signal quantification techniques, including ROR, MHRA, BCPNN, and MGPS, were employed for analysis.Results:Among 2535 ADE reports where cenobamate was the primary suspected drug, 94 adverse reactions involving 11 different System Organ Class (SOC) categories were identified through the application of four signal quantification techniques. More specifically, neurological disorders and injuries resultant from complications are frequent adverse reactions associated with cenobamate.Conclusion:Our research findings align with established results, affirming the favorable safety profile of cenobamate. Effective prevention of adverse reactions induced by cenobamate can be achieved through the establishment of efficient blood concentration monitoring and dose adjustments.</p
Pre-operative corneal surface with the epithelium (green) (a), is reshaped into a regular aspheric surface of desired curvature (b) and the new surface is transferred below the epithelium (c) in a single non-interrupted ablation.
<p>Pre-operative corneal surface with the epithelium (green) (a), is reshaped into a regular aspheric surface of desired curvature (b) and the new surface is transferred below the epithelium (c) in a single non-interrupted ablation.</p
Mean wavefront aberrations 12 months after surgery and pre-operatively (6 mm zone analysis, 96 eyes).
<p>RMS: Root Mean Square; HOA: Higher Order Aberration; SD: Standard Deviation; S3+5+7: Odd Order Aberrations; S4+6+8: Even Order Aberrations.</p
Post-operative uncorrected visual acuity vs. pre-operative best spectacle-corrected visual acuity.
<p>Post-operative uncorrected visual acuity vs. pre-operative best spectacle-corrected visual acuity.</p