9 research outputs found
LetsTalkShots: personalized vaccine risk communication
IntroductionVaccine hesitancy is a global health threat undermining control of many vaccine-preventable diseases. Patient-level education has largely been ineffective in reducing vaccine concerns and increasing vaccine uptake. We built and evaluated a personalized vaccine risk communication website called LetsTalkShots in English, Spanish and French (Canadian) for vaccines across the lifespan. LetsTalkShots tailors lived experiences, credible sources and informational animations to disseminate the right message from the right messenger to the right person, applying a broad range of behavioral theories.MethodsWe used mixed-methods research to test our animation and some aspects of credible sources and personal narratives. We conducted 67 discussion groups (n = 325 persons), stratified by race/ethnicity (African American, Hispanic, and White people) and population (e.g., parents, pregnant women, adolescents, younger adults, and older adults). Using a large Ipsos survey among English-speaking respondents (n = 2,272), we tested animations aligned with vaccine concerns and specific to population (e.g., parents of children, parents of adolescents, younger adults, older adults).ResultsDiscussion groups provided robust feedback specific to each animation as well as areas for improvements across animations. Most respondents indicated that the information presented was interesting (85.5%), clear (96.0%), helpful (87.0%), and trustworthy (82.2%).DiscussionTailored vaccine risk communication can assist decision makers as they consider vaccination for themselves, their families, and their communities. LetsTalkShots presents a model for personalized communication in other areas of medicine and public health
Dimeric and Tetrameric Supramolecular Aggregates of Single-Molecule Magnets via Carboxylate Substitution
[Mn<sub>3</sub>]<sub>2</sub> and [Mn<sub>3</sub>]<sub>4</sub> supramolecular
aggregates of weakly exchange-coupled Mn<sup>III</sup><sub>3</sub> single-molecule magnets (SMMs) with <i>S</i> = 6 have
been prepared by carboxylate substitution on [Mn<sub>3</sub>OÂ(O<sub>2</sub>CMe)<sub>3</sub>(mpko)<sub>3</sub>]<sup>+</sup> [mpkoH = methylÂ(pyridine-2-yl)
ketone oxime)] with the dicarboxylic acids α-truxillic acid
and fumaric acid, respectively. The method opens up a new approach
to Mn<sub>3</sub> SMM aggregates of various size and topology
Controlled Dimerization of Mn<sub>12</sub> Single-Molecule Magnets
Controlled dimerization
of Mn<sub>12</sub> single-molecule magnets (SMMs) was achieved via
a synthetic route involving a competition between bridging and terminal
ligands, namely, diols and alcohols. The reaction using a 1:1 ratio
of the competing ligands resulted in the isolation of a new family
of covalently linked dimers of Mn<sub>12</sub> SMMs. This is the first
step toward the controlled growth of SMM oligomeric arrays
Introducing Dimensionality to the Archetypical Mn<sub>12</sub> Single-Molecule Magnet: a Family of [Mn<sub>12</sub>]<sub><i>n</i></sub> Chains
The
[Mn<sub>12</sub>O<sub>12</sub>(O<sub>2</sub>CR)<sub>16</sub>(L<sub>4</sub>)] family (R = various; L = terminal ligand) of clusters holds
a special place in molecular magnetism; they are the most well-studied
single-molecule magnets (SMMs). Targeted linkage of these SMMs has
now been achieved for the first time. The resulting chain structures
have been confirmed crystallographically, and the magnetic properties,
up to 1.14 GPa, and high-field electron paramagnetic resonance spectra
have been collected and analyzed