Luminescence
This is a 5-slides on luminescence. It contains introductory and basic description of different examples of luminscence. Since, this is a community of inorganic chemists, only inorganic compounds are discussed as examples.
This is a 5-slides on luminescence. It contains introductory and basic description of different examples of luminscence. Since, this is a community of inorganic chemists, only inorganic compounds are discussed as examples.
In this activity, students will compare and contrast two closely related structures, [Pd(dcpf)PR3]2+ (dcpf = 1,1'-bis(dicyclohexylphosphino)ferrocene; R = Me or Ph). They will be required to obtain the cif files from the supporting information of a paper. They will then make a variety of measurments in the two stuctures. These measurements can be made using a variety of different freely available programs. Instructions are provided for Mercury 3.3 and Olex2. Finally, students will be required to provide a rationale for the differences in the two structures.
In this case study, information is presented to students in the form of a dialog between a physician and two parents who have just learned that their child has thalassemia (Cooley’s Anemia). The treatment for this disorder requires a lifetime commitment to whole blood transfusion and chelation therapy (both administered on a daily to weekly basis); the biggest obstacle to long term survival is patient non-compliance.
These slides describe the recent literature on the structure of the iron sulfur cluster of nitrogenase active site, FeMo-co. Included are: a comparison of industrial vs. biological ammonia production, several crystal structures from the literature including the unknown until recently hypervalent carbon atom in the center, and a brief mention of the troubling sterics of the active site as crystallized.
In my sophomore level inorganic course, I have experimented with the idea of a living syllabus as a way to develop my own specific learning objectives and to help the students connect the material to the tasks that will be expected of them in assessing their learning.
This spoof of the song "Isn't It Ironic" (by Alanis Morissette) summarizes the properties of ionic compounds in verse. Suitable for General Chemistry classes as well as Inorganic Chemistry, although a reference is made to the Born-Meyer equation.
This learning object consists of a bibliography of materials concerning bioinorganic chemistry which have appeared in C&E News over approximately the past 15 years (1999-2014). Many come from the Science and Technology Concentrates, some from News of the Week, others are full articles, and a few are letters to the editor. They cover a wide variety of bioinorganic topics. Also included are citations for the articles from the primary literature paper referred to in the respective C&E News articles.
These Five Slides About examine the structure and function of the iron binding and transport protein transferrin. Students learn that transferrin also acts as an iron buffer and as a potential antimicrobial agent. The structure of the protein is explored in detail; it consists of a single polypeptide (80kDa) folded into two lobes, each of which can bind a single iron in a high affinity region. Changes in the protein as a result of iron uptake is discussed. The iron binding region and the requirement of a bidentate synergistic anion (carbonate) are examined.
Over several decades of teaching General Chemistry I have utilized various methods to get students to draw appropriate Lewis Dot Structures. About 10 years ago I learned about a process which I call the "Account Ledger Method". In this method all valence electrons are assumed to initially belong to the molecule (and placed in a ledger) and not to specific individual atoms. As the molecule is put together those electrons are distributed systematically and removed from the ledger.
This is a problem set based on the article "Energetic Cuprous Azide Complex: Synthesis, Crystal Structure and Effection on the Thermal Decomposition of HMX" in the Journal of Chemical Crystallography. It has been used in a Chemistry Capstone course for both Chemistry and Biochemistry majors during the first semester senior year. Biochemistry majors are not required to take Inorganic Chemistry and Chemistry majors may be currently taking Inorganic chemistry.