Chemistry Electrophilic Addition.wmv A video made by Natalie, and a couple of other people in my Chemistry class. It is a demonstration of an electrophilic addition reaction, with ethene and bromine as an example. Please enjoy. No copyright infringement intended on the songs :)
3a. Alkenes - Electrophilic Addition Reaction Visit for notes on this topic. Thanks for watching! Electrophilic addition reaction, generalised for halogens and hydrogen halides. Part of a set of tutorials on alkenes, suitable for AS chemistry, International Baccalaureate or equivalent. Content includes bonding, shape, EZ isomerism, electrophilic addition and polymerisation.
Organic Reactions and Pharmaceuticals, Lec 22, Chemistry 14D, UCLA Course Description: Chemistry 14D: Organic Reactions and Pharmaceuticals is a class that provides an in depth ***ysis of organic reactions, nucleophilic and electrophilic substitutions and additions; electrophilic aromatic substitutions, carbonyl reactions, catalysis, molecular basis of drug action, and organic chemistry of pharmaceuticals. About the Professor: Professor Hardinger has been a faculty member in the UCLA Department of Chemistry and Biochemistry since 1997. His professional career began at Drexel University in Philadelphia, which afforded a BS in Chemistry in 1982. He then moved to Purdue University, and earned a PhD in Organic Chemistry in 1988. Two subsequent years as a postdoctoral scholar at Renssalear Polytechnic Institute were followed by appointment in 1990 as assistant professor at California State University. In 1997 he achieved the "forbidden transition" and moved to UCLA as Lecturer followed by promotion to Senior Lecturer in 2004. At UCLA his main teaching interests have been introductory organic chemistry courses in the physical science majors series as well as the life science majors series. His professional interests include development of new teaching tools and methods, both in print and electronic media. An introductory organic chemistry textbook (Organic Chemistry - A Thinking Student's Approach) is currently in development. Course Webpage: www.chem.ucla.edu Note: Some clips and images may have been blurred or removed to avoid copyright ...
Organic Reactions and Pharmaceuticals, Lec 2, Chemistry 14D, UCLA Course Description: Chemistry 14D: Organic Reactions and Pharmaceuticals is a class that provides an in depth ***ysis of organic reactions, nucleophilic and electrophilic substitutions and additions; electrophilic aromatic substitutions, carbonyl reactions, catalysis, molecular basis of drug action, and organic chemistry of pharmaceuticals. About the Professor: Professor Hardinger has been a faculty member in the UCLA Department of Chemistry and Biochemistry since 1997. His professional career began at Drexel University in Philadelphia, which afforded a BS in Chemistry in 1982. He then moved to Purdue University, and earned a PhD in Organic Chemistry in 1988. Two subsequent years as a postdoctoral scholar at Renssalear Polytechnic Institute were followed by appointment in 1990 as assistant professor at California State University. In 1997 he achieved the "forbidden transition" and moved to UCLA as Lecturer followed by promotion to Senior Lecturer in 2004. At UCLA his main teaching interests have been introductory organic chemistry courses in the physical science majors series as well as the life science majors series. His professional interests include development of new teaching tools and methods, both in print and electronic media. An introductory organic chemistry textbook (Organic Chemistry - A Thinking Student's Approach) is currently in development. Course Webpage: www.chem.ucla.edu Note: Some clips and images may have been blurred or removed to avoid copyright ...
Electrophile in Nikita Side Room. Circus, Hollywood 10-04-08
Organic Reactions and Pharmaceuticals, Lec 13, Chemistry 14D, UCLA Course Description: Chemistry 14D: Organic Reactions and Pharmaceuticals is a class that provides an in depth ***ysis of organic reactions, nucleophilic and electrophilic substitutions and additions; electrophilic aromatic substitutions, carbonyl reactions, catalysis, molecular basis of drug action, and organic chemistry of pharmaceuticals. About the Professor: Professor Hardinger has been a faculty member in the UCLA Department of Chemistry and Biochemistry since 1997. His professional career began at Drexel University in Philadelphia, which afforded a BS in Chemistry in 1982. He then moved to Purdue University, and earned a PhD in Organic Chemistry in 1988. Two subsequent years as a postdoctoral scholar at Renssalear Polytechnic Institute were followed by appointment in 1990 as assistant professor at California State University. In 1997 he achieved the "forbidden transition" and moved to UCLA as Lecturer followed by promotion to Senior Lecturer in 2004. At UCLA his main teaching interests have been introductory organic chemistry courses in the physical science majors series as well as the life science majors series. His professional interests include development of new teaching tools and methods, both in print and electronic media. An introductory organic chemistry textbook (Organic Chemistry - A Thinking Student's Approach) is currently in development. Course Webpage: www.chem.ucla.edu Note: Some clips and images may have been blurred or removed to avoid copyright ...
Glycosidic Bond Formation Glycosidic bond formation involves the coupling of a nucleophilic hydroxyl group with a CO electrophile (in this case, a phosphate).
Organic Reactions and Pharmaceuticals, Lec 7, Chemistry 14D, UCLA Course Description: Chemistry 14D: Organic Reactions and Pharmaceuticals is a class that provides an in depth ***ysis of organic reactions, nucleophilic and electrophilic substitutions and additions; electrophilic aromatic substitutions, carbonyl reactions, catalysis, molecular basis of drug action, and organic chemistry of pharmaceuticals. About the Professor: Professor Hardinger has been a faculty member in the UCLA Department of Chemistry and Biochemistry since 1997. His professional career began at Drexel University in Philadelphia, which afforded a BS in Chemistry in 1982. He then moved to Purdue University, and earned a PhD in Organic Chemistry in 1988. Two subsequent years as a postdoctoral scholar at Renssalear Polytechnic Institute were followed by appointment in 1990 as assistant professor at California State University. In 1997 he achieved the "forbidden transition" and moved to UCLA as Lecturer followed by promotion to Senior Lecturer in 2004. At UCLA his main teaching interests have been introductory organic chemistry courses in the physical science majors series as well as the life science majors series. His professional interests include development of new teaching tools and methods, both in print and electronic media. An introductory organic chemistry textbook (Organic Chemistry - A Thinking Student's Approach) is currently in development. Course Webpage: www.chem.ucla.edu Note: Some clips and images may have been blurred or removed to avoid copyright ...
Alkene Reaction Mechanisms - Major/Minor Products (The BASICS part II) Just a look into the basics (easy to understand version) of alkene reaction mechanisms (organic reactivity), extended from the first video which had a bit on alkene reactions. This has more about the major and minor products including Markovnikov's rule. This video is the second of the basics videos is the first. Feedback/criticisms/requires/suggestions are all welcome for possible further videos. Thanks Rayne
Organic Reactions and Pharmaceuticals, Lec 19, Chemistry 14D, UCLA Course Description: Chemistry 14D: Organic Reactions and Pharmaceuticals is a class that provides an in depth ***ysis of organic reactions, nucleophilic and electrophilic substitutions and additions; electrophilic aromatic substitutions, carbonyl reactions, catalysis, molecular basis of drug action, and organic chemistry of pharmaceuticals. About the Professor: Professor Hardinger has been a faculty member in the UCLA Department of Chemistry and Biochemistry since 1997. His professional career began at Drexel University in Philadelphia, which afforded a BS in Chemistry in 1982. He then moved to Purdue University, and earned a PhD in Organic Chemistry in 1988. Two subsequent years as a postdoctoral scholar at Renssalear Polytechnic Institute were followed by appointment in 1990 as assistant professor at California State University. In 1997 he achieved the "forbidden transition" and moved to UCLA as Lecturer followed by promotion to Senior Lecturer in 2004. At UCLA his main teaching interests have been introductory organic chemistry courses in the physical science majors series as well as the life science majors series. His professional interests include development of new teaching tools and methods, both in print and electronic media. An introductory organic chemistry textbook (Organic Chemistry - A Thinking Student's Approach) is currently in development. Course Webpage: www.chem.ucla.edu Note: Some clips and images may have been blurred or removed to avoid copyright ...
Organic Reactions and Pharmaceuticals, Lec 1, Chemistry 14D, UCLA Course Description: Chemistry 14D: Organic Reactions and Pharmaceuticals is a class that provides an in depth ***ysis of organic reactions, nucleophilic and electrophilic substitutions and additions; electrophilic aromatic substitutions, carbonyl reactions, catalysis, molecular basis of drug action, and organic chemistry of pharmaceuticals. About the Professor: Professor Hardinger has been a faculty member in the UCLA Department of Chemistry and Biochemistry since 1997. His professional career began at Drexel University in Philadelphia, which afforded a BS in Chemistry in 1982. He then moved to Purdue University, and earned a PhD in Organic Chemistry in 1988. Two subsequent years as a postdoctoral scholar at Renssalear Polytechnic Institute were followed by appointment in 1990 as assistant professor at California State University. In 1997 he achieved the "forbidden transition" and moved to UCLA as Lecturer followed by promotion to Senior Lecturer in 2004. At UCLA his main teaching interests have been introductory organic chemistry courses in the physical science majors series as well as the life science majors series. His professional interests include development of new teaching tools and methods, both in print and electronic media. An introductory organic chemistry textbook (Organic Chemistry - A Thinking Student's Approach) is currently in development. Course Webpage: www.chem.ucla.edu Note: Some clips and images may have been blurred or removed to avoid copyright ...
Electrophile To download: For more please visit: /samuelpinajr
Organic Reactions and Pharmaceuticals, Lec 3, Chemistry 14D, UCLA Course Description: Chemistry 14D: Organic Reactions and Pharmaceuticals is a class that provides an in depth ***ysis of organic reactions, nucleophilic and electrophilic substitutions and additions; electrophilic aromatic substitutions, carbonyl reactions, catalysis, molecular basis of drug action, and organic chemistry of pharmaceuticals. About the Professor: Professor Hardinger has been a faculty member in the UCLA Department of Chemistry and Biochemistry since 1997. His professional career began at Drexel University in Philadelphia, which afforded a BS in Chemistry in 1982. He then moved to Purdue University, and earned a PhD in Organic Chemistry in 1988. Two subsequent years as a postdoctoral scholar at Renssalear Polytechnic Institute were followed by appointment in 1990 as assistant professor at California State University. In 1997 he achieved the "forbidden transition" and moved to UCLA as Lecturer followed by promotion to Senior Lecturer in 2004. At UCLA his main teaching interests have been introductory organic chemistry courses in the physical science majors series as well as the life science majors series. His professional interests include development of new teaching tools and methods, both in print and electronic media. An introductory organic chemistry textbook (Organic Chemistry - A Thinking Student's Approach) is currently in development. Course Webpage: www.chem.ucla.edu Note: Some clips and images may have been blurred or removed to avoid copyright ...
Electrophilic aromatic substitution (1) Organic chemistry: Electrophilic aromatic substitution (EAS) of benzene—halogenation, nitration, sulfonation, Friedel-Crafts alkylation and alkanoylation. Electron-withdrawing and electron-donating groups—activators vs. deactivators, ortho/para-directors vs. meta-directors. This is a recording of a tutoring session, posted with the students' permission. These videos are offered on a "pay-what-you-like" basis. You can pay for the use of the videos at my website: www.freelance- For a list of all the available video series, arranged in suggested viewing order, go to my website. For a playlist containing all the videos in this series, click here: (1) General mechanism for electrophilic aromatic substitution (EAS). Halogenation (2) Continued. Nitration (3) Sulfonation. Friedel-Crafts alkylation and alkanoylation (4) Continued (5) Activating vs. deactivating substituents (6) Continued. Digression on nomenclature (7) Activators and deactivators, continued (8) Ortho/para-directors and meta-directors (9) Continued (10) Continued. Directing effects for disubstituted benzenes (11) Continued (12) Some aromaticity and Huckels rule problems tags: educational college student education MCAT exam test
You Keep the Electrons (EAS) Organic Chemistry Song Organic Chemistry Song for CHMB42 "You Keep the Electrons" A Song about Electrophilic Aromatic Substitution Based on the song Breakeven by The Script: Lyrics We were a benzene, but something came near A strong electrophile and your electrons grab it A carbocation forms and a base pulls me off And when our bond breaks, you keep the electrons Im still attached, but Im barely holding Just hoping that nothing comes and takes me But I gotta leave cause youre nonaromatic And when our bond breaks, you keep the electrons, electrons, oh What am I supposed to do when an electrophile gets close to you? What am I supposed to say when you act as a nucleophile and I go away? I've been substituted, yeah I've been substituted I am still bonded, but now to some base Just been pulled off against my own will Cause I got one bond and you, too many And when our bond breaks, you keep the electrons, electrons, oh What am I supposed to do when an electrophile gets close to you? What am I supposed to say when you act as a nucleophile and I go away? I've been substituted, yeah I've been substituted, yeah Ive been substituted (Ones still attached, while the other ones leaving) Ive been substituted (Cause when our bond breaks, you keep the electrons) Oh, there are halogens, nitro groups, alkyl subs too, Sulfonic acid, acyl groups too I was taken away by the presence of base, oh Now you left me with this base and no way to return We were a benzene, but something came near A strong ...
Reaction Mechanisms / Organic Reactivity - THE BASICS (I) - Use of Arrows (electron transfer) - Electrophiles / Nucleophiles - Basic Alkene Mechanism (Carbocations/Intermediate) Go to 5:00 for this. Look at Part II for further Alkene Mechanisms of Major/Minor products for a more difficult reaction. This is just a little video on the very basics of organic chemistry's reaction mechanisms, i tried to make it short but i almost hit 10 minutes. I realised there wasn't any very basic videos on youtube on this, so i decided to make one. Feel free to comment and leave feedback/criticisms. Requests are also welcome as i can make other related videos if desired:) Thanks for watching Rayne
Live demo mix on ableton live using an apc40 My first little live mix, or whatever you want to call it.. Was produced entirely in ableton 8. Song 1= electrophile Song 2= don't stop remix.. Download link: /samuelpinajr if you like even a bit of this video/music, rate and sub...thanks :]
EAS phenol using OH+ as electrophile for IIT by Guru Sir @Ranchi
Organic Reactions and Pharmaceuticals, Lec 11, Chemistry 14D, UCLA Course Description: Chemistry 14D: Organic Reactions and Pharmaceuticals is a class that provides an in depth ***ysis of organic reactions, nucleophilic and electrophilic substitutions and additions; electrophilic aromatic substitutions, carbonyl reactions, catalysis, molecular basis of drug action, and organic chemistry of pharmaceuticals. About the Professor: Professor Hardinger has been a faculty member in the UCLA Department of Chemistry and Biochemistry since 1997. His professional career began at Drexel University in Philadelphia, which afforded a BS in Chemistry in 1982. He then moved to Purdue University, and earned a PhD in Organic Chemistry in 1988. Two subsequent years as a postdoctoral scholar at Renssalear Polytechnic Institute were followed by appointment in 1990 as assistant professor at California State University. In 1997 he achieved the "forbidden transition" and moved to UCLA as Lecturer followed by promotion to Senior Lecturer in 2004. At UCLA his main teaching interests have been introductory organic chemistry courses in the physical science majors series as well as the life science majors series. His professional interests include development of new teaching tools and methods, both in print and electronic media. An introductory organic chemistry textbook (Organic Chemistry - A Thinking Student's Approach) is currently in development. Course Webpage: www.chem.ucla.edu Note: Some clips and images may have been blurred or removed to avoid copyright ...
Organic Reactions and Pharmaceuticals, Lec 4, Chemistry 14D, UCLA Course Description: Chemistry 14D: Organic Reactions and Pharmaceuticals is a class that provides an in depth ***ysis of organic reactions, nucleophilic and electrophilic substitutions and additions; electrophilic aromatic substitutions, carbonyl reactions, catalysis, molecular basis of drug action, and organic chemistry of pharmaceuticals. About the Professor: Professor Hardinger has been a faculty member in the UCLA Department of Chemistry and Biochemistry since 1997. His professional career began at Drexel University in Philadelphia, which afforded a BS in Chemistry in 1982. He then moved to Purdue University, and earned a PhD in Organic Chemistry in 1988. Two subsequent years as a postdoctoral scholar at Renssalear Polytechnic Institute were followed by appointment in 1990 as assistant professor at California State University. In 1997 he achieved the "forbidden transition" and moved to UCLA as Lecturer followed by promotion to Senior Lecturer in 2004. At UCLA his main teaching interests have been introductory organic chemistry courses in the physical science majors series as well as the life science majors series. His professional interests include development of new teaching tools and methods, both in print and electronic media. An introductory organic chemistry textbook (Organic Chemistry - A Thinking Student's Approach) is currently in development. Course Webpage: www.chem.ucla.edu Note: Some clips and images may have been blurred or removed to avoid copyright ...
Codeine Tutorial - Professor Dave's Organic Chemistry Tutorials Organic reactions and mechanisms applied to the synthesis of codeine. Find out about nucleophiles and electrophiles, curly arrows, leaving groups, relative reactivities, chemoselectivity.
Organic Chemistry EC By Laurie Siu. For Professor Neil Garg of Chem 14D, UCLA. Original Song: Us by Regina Spektor. SORRY THAT I CAN'T SING! Lyrics: Intro: This is a story of nucleophile meets electrophile The nucleophile, compelled to donate a pair of electrons The electrophile, compelled to accept a pair. Neil drew a reaction on the board And made a clicker quiz for us. Now we know how to do a SN2 The nuc attacks the E And the leaving group just leaves, just leaves An inversion also takes place. 'Cause there was a backside attack This is a SN2. what UCLA makes us do. But don't forget about SN1. Dissociation, water attacks, and deprotonation. This is where A carbocation intermediate forms But there's also some competition under basic conditions Thru elimination Alkene formation E1 has weak bases And E2 has strong bases Then Chem 14d had their midterm 2 with alcohol and ether synthesis which includes epoxides too under basic and acidic conditions Alkene reactions had a lot of additions with conditions. Make sure to memorize all the reagents All of these same alkene additons can also be done with alkynes too Along with hydration And catalytic hydrogenation Alkenes and epoxidation dihydroxylation and ozonolysis Look out for Markovnikov and anti or syn Diels alder forms a cyclohexene and rxns with benzene use EAS Consider all that we have learned see how it works with carbonyls He'll mix these up and synthesize we must Know indigo and Sarain A 'Cause you might use it on final's day Plus extra ...
Organic Reactions and Pharmaceuticals, Lec 6, Chemistry 14D, UCLA Course Description: Chemistry 14D: Organic Reactions and Pharmaceuticals is a class that provides an in depth ***ysis of organic reactions, nucleophilic and electrophilic substitutions and additions; electrophilic aromatic substitutions, carbonyl reactions, catalysis, molecular basis of drug action, and organic chemistry of pharmaceuticals. About the Professor: Professor Hardinger has been a faculty member in the UCLA Department of Chemistry and Biochemistry since 1997. His professional career began at Drexel University in Philadelphia, which afforded a BS in Chemistry in 1982. He then moved to Purdue University, and earned a PhD in Organic Chemistry in 1988. Two subsequent years as a postdoctoral scholar at Renssalear Polytechnic Institute were followed by appointment in 1990 as assistant professor at California State University. In 1997 he achieved the "forbidden transition" and moved to UCLA as Lecturer followed by promotion to Senior Lecturer in 2004. At UCLA his main teaching interests have been introductory organic chemistry courses in the physical science majors series as well as the life science majors series. His professional interests include development of new teaching tools and methods, both in print and electronic media. An introductory organic chemistry textbook (Organic Chemistry - A Thinking Student's Approach) is currently in development. Course Webpage: www.chem.ucla.edu Note: Some clips and images may have been blurred or removed to avoid copyright ...
Organic Reactions and Pharmaceuticals, Lec 5, Chemistry 14D, UCLA Course Description: Chemistry 14D: Organic Reactions and Pharmaceuticals is a class that provides an in depth ***ysis of organic reactions, nucleophilic and electrophilic substitutions and additions; electrophilic aromatic substitutions, carbonyl reactions, catalysis, molecular basis of drug action, and organic chemistry of pharmaceuticals. About the Professor: Professor Hardinger has been a faculty member in the UCLA Department of Chemistry and Biochemistry since 1997. His professional career began at Drexel University in Philadelphia, which afforded a BS in Chemistry in 1982. He then moved to Purdue University, and earned a PhD in Organic Chemistry in 1988. Two subsequent years as a postdoctoral scholar at Renssalear Polytechnic Institute were followed by appointment in 1990 as assistant professor at California State University. In 1997 he achieved the "forbidden transition" and moved to UCLA as Lecturer followed by promotion to Senior Lecturer in 2004. At UCLA his main teaching interests have been introductory organic chemistry courses in the physical science majors series as well as the life science majors series. His professional interests include development of new teaching tools and methods, both in print and electronic media. An introductory organic chemistry textbook (Organic Chemistry - A Thinking Student's Approach) is currently in development. Course Webpage: www.chem.ucla.edu Note: Some clips and images may have been blurred or removed to avoid copyright ...
Organic Reactions and Pharmaceuticals, Lec 23, Chemistry 14D, UCLA Course Description: Chemistry 14D: Organic Reactions and Pharmaceuticals is a class that provides an in depth ***ysis of organic reactions, nucleophilic and electrophilic substitutions and additions; electrophilic aromatic substitutions, carbonyl reactions, catalysis, molecular basis of drug action, and organic chemistry of pharmaceuticals. About the Professor: Professor Hardinger has been a faculty member in the UCLA Department of Chemistry and Biochemistry since 1997. His professional career began at Drexel University in Philadelphia, which afforded a BS in Chemistry in 1982. He then moved to Purdue University, and earned a PhD in Organic Chemistry in 1988. Two subsequent years as a postdoctoral scholar at Renssalear Polytechnic Institute were followed by appointment in 1990 as assistant professor at California State University. In 1997 he achieved the "forbidden transition" and moved to UCLA as Lecturer followed by promotion to Senior Lecturer in 2004. At UCLA his main teaching interests have been introductory organic chemistry courses in the physical science majors series as well as the life science majors series. His professional interests include development of new teaching tools and methods, both in print and electronic media. An introductory organic chemistry textbook (Organic Chemistry - A Thinking Student's Approach) is currently in development. Course Webpage: www.chem.ucla.edu Note: Some clips and images may have been blurred or removed to avoid copyright ...
4. Alkenes - Markovnikov's rule Visit for notes on this topic. Thanks for watching! Markovnikov's rule; explanation of the regioselectivity of hydrogen halides adding across a double bond. Part of a set of tutorials on alkenes, suitable for AS chemistry, International Baccalaureate or equivalent. Content includes bonding, shape, EZ isomerism, electrophilic addition and polymerisation.
Organic Reactions and Pharmaceuticals, Lec 18, Chemistry 14D, UCLA Course Description: Chemistry 14D: Organic Reactions and Pharmaceuticals is a class that provides an in depth ***ysis of organic reactions, nucleophilic and electrophilic substitutions and additions; electrophilic aromatic substitutions, carbonyl reactions, catalysis, molecular basis of drug action, and organic chemistry of pharmaceuticals. About the Professor: Professor Hardinger has been a faculty member in the UCLA Department of Chemistry and Biochemistry since 1997. His professional career began at Drexel University in Philadelphia, which afforded a BS in Chemistry in 1982. He then moved to Purdue University, and earned a PhD in Organic Chemistry in 1988. Two subsequent years as a postdoctoral scholar at Renssalear Polytechnic Institute were followed by appointment in 1990 as assistant professor at California State University. In 1997 he achieved the "forbidden transition" and moved to UCLA as Lecturer followed by promotion to Senior Lecturer in 2004. At UCLA his main teaching interests have been introductory organic chemistry courses in the physical science majors series as well as the life science majors series. His professional interests include development of new teaching tools and methods, both in print and electronic media. An introductory organic chemistry textbook (Organic Chemistry - A Thinking Student's Approach) is currently in development. Course Webpage: www.chem.ucla.edu Note: Some clips and images may have been blurred or removed to avoid copyright ...
Electrophilic Aromatic Substitution
Organic Reactions and Pharmaceuticals, Lec 20, Chemistry 14D, UCLA Course Description: Chemistry 14D: Organic Reactions and Pharmaceuticals is a class that provides an in depth ***ysis of organic reactions, nucleophilic and electrophilic substitutions and additions; electrophilic aromatic substitutions, carbonyl reactions, catalysis, molecular basis of drug action, and organic chemistry of pharmaceuticals. About the Professor: Professor Hardinger has been a faculty member in the UCLA Department of Chemistry and Biochemistry since 1997. His professional career began at Drexel University in Philadelphia, which afforded a BS in Chemistry in 1982. He then moved to Purdue University, and earned a PhD in Organic Chemistry in 1988. Two subsequent years as a postdoctoral scholar at Renssalear Polytechnic Institute were followed by appointment in 1990 as assistant professor at California State University. In 1997 he achieved the "forbidden transition" and moved to UCLA as Lecturer followed by promotion to Senior Lecturer in 2004. At UCLA his main teaching interests have been introductory organic chemistry courses in the physical science majors series as well as the life science majors series. His professional interests include development of new teaching tools and methods, both in print and electronic media. An introductory organic chemistry textbook (Organic Chemistry - A Thinking Student's Approach) is currently in development. Course Webpage: www.chem.ucla.edu Note: Some clips and images may have been blurred or removed to avoid copyright ...
3b. Alkenes - Electrophilic Addition Mechanism Visit for notes on this topic. Thanks for watching! Electrophilic addition mechanism, including explanation of the curly arrow, and why particular bonds form and break. Part of a set of tutorials on alkenes, suitable for AS chemistry, International Baccalaureate or equivalent. Content includes bonding, shape, EZ isomerism, electrophilic addition and polymerisation.
nucleophilic attack nucleophiles and electrophiles react the same torwards electrons and girls do with guys with money
5. Alkenes - Polymerisation Visit for notes on this topic. Thanks for watching! Brief outline of how alkenes polymerise into long chain alkanes. Part of a set of tutorials on alkenes, suitable for AS chemistry, International Baccalaureate or equivalent. Content includes bonding, shape, EZ isomerism, electrophilic addition and polymerisation.
TenMinMix1 Here's a very basic mix of 3 of my originals.. the last being the newest as of the date uploaded.. and is still not fully completed.. Tracklist: 1) SamisSane - 5ml of Methanol 2) SamisSane - Electrophile 3) SamisSane - Evaporate Slowly Not Available for Download Yet.... stay tuned though Hope you enjoy and sub for future videos... Happy Valentines Day!
Electrophilic Aromatic Substitution The mechanism of electrophilic aromatic substitution and the effect of electron withdrawing/donating substituents. What better way to elucidate substituent effects on the doughnut cloud of pi electrons than by comparison to actual doughnuts! Featuring Homer Simpson as an electrophile (doughnut-phile).
Electrophile in Nikita Side Room. Circus, Hollywood 10-04-08
Heteroaromatic Rings as Electrophiles How can heterocycles act as electrophiles or acids? Learn more in this video.
Electrophile in Nikita Side Room. Circus, Hollywood 10-04-08
Organic Reactions and Pharmaceuticals, Lec 24, Chemistry 14D, UCLA Course Description: Chemistry 14D: Organic Reactions and Pharmaceuticals is a class that provides an in depth ***ysis of organic reactions, nucleophilic and electrophilic substitutions and additions; electrophilic aromatic substitutions, carbonyl reactions, catalysis, molecular basis of drug action, and organic chemistry of pharmaceuticals. About the Professor: Professor Hardinger has been a faculty member in the UCLA Department of Chemistry and Biochemistry since 1997. His professional career began at Drexel University in Philadelphia, which afforded a BS in Chemistry in 1982. He then moved to Purdue University, and earned a PhD in Organic Chemistry in 1988. Two subsequent years as a postdoctoral scholar at Renssalear Polytechnic Institute were followed by appointment in 1990 as assistant professor at California State University. In 1997 he achieved the "forbidden transition" and moved to UCLA as Lecturer followed by promotion to Senior Lecturer in 2004. At UCLA his main teaching interests have been introductory organic chemistry courses in the physical science majors series as well as the life science majors series. His professional interests include development of new teaching tools and methods, both in print and electronic media. An introductory organic chemistry textbook (Organic Chemistry - A Thinking Student's Approach) is currently in development. Course Webpage: www.chem.ucla.edu Note: Some clips and images may have been blurred or removed to avoid copyright ...
Organic Reactions and Pharmaceuticals, Lec 27, Chemistry 14D, UCLA [Finished] Course Description: Chemistry 14D: Organic Reactions and Pharmaceuticals is a class that provides an in depth ***ysis of organic reactions, nucleophilic and electrophilic substitutions and additions; electrophilic aromatic substitutions, carbonyl reactions, catalysis, molecular basis of drug action, and organic chemistry of pharmaceuticals. About the Professor: Professor Hardinger has been a faculty member in the UCLA Department of Chemistry and Biochemistry since 1997. His professional career began at Drexel University in Philadelphia, which afforded a BS in Chemistry in 1982. He then moved to Purdue University, and earned a PhD in Organic Chemistry in 1988. Two subsequent years as a postdoctoral scholar at Renssalear Polytechnic Institute were followed by appointment in 1990 as assistant professor at California State University. In 1997 he achieved the "forbidden transition" and moved to UCLA as Lecturer followed by promotion to Senior Lecturer in 2004. At UCLA his main teaching interests have been introductory organic chemistry courses in the physical science majors series as well as the life science majors series. His professional interests include development of new teaching tools and methods, both in print and electronic media. An introductory organic chemistry textbook (Organic Chemistry - A Thinking Student's Approach) is currently in development. Course Webpage: www.chem.ucla.edu Note: Some clips and images may have been blurred or removed to avoid copyright ...
Organic Reactions and Pharmaceuticals, Lec 25, Chemistry 14D, UCLA Course Description: Chemistry 14D: Organic Reactions and Pharmaceuticals is a class that provides an in depth ***ysis of organic reactions, nucleophilic and electrophilic substitutions and additions; electrophilic aromatic substitutions, carbonyl reactions, catalysis, molecular basis of drug action, and organic chemistry of pharmaceuticals. About the Professor: Professor Hardinger has been a faculty member in the UCLA Department of Chemistry and Biochemistry since 1997. His professional career began at Drexel University in Philadelphia, which afforded a BS in Chemistry in 1982. He then moved to Purdue University, and earned a PhD in Organic Chemistry in 1988. Two subsequent years as a postdoctoral scholar at Renssalear Polytechnic Institute were followed by appointment in 1990 as assistant professor at California State University. In 1997 he achieved the "forbidden transition" and moved to UCLA as Lecturer followed by promotion to Senior Lecturer in 2004. At UCLA his main teaching interests have been introductory organic chemistry courses in the physical science majors series as well as the life science majors series. His professional interests include development of new teaching tools and methods, both in print and electronic media. An introductory organic chemistry textbook (Organic Chemistry - A Thinking Student's Approach) is currently in development. Course Webpage: www.chem.ucla.edu Note: Some clips and images may have been blurred or removed to avoid copyright ...
PreMedPearlyGrl: @DoctorMojito the FeBr3 forms a strong enough electrophile with it so you don't need heat for it to react with the benzene
electrophile: @sherissesz I agree. It is. I would definitely benefit from weight work. It just irks me, this sense of superiority strong men have.
sherissesz: @electrophile I figure it's all about balance.
shailee_patel: @Sarah_Para at the beginning, he was like 'sagar, is an electrophile an electron pair donor?' .. sagar didnt reply :L
AllTimeEmilyxo: Electrophile - accepts a pair of electrons, attracted to electron rich atom
Jesse20594: @Gunzzzy LOOOOL.. only if the gene reacts with a bulky base and the condon develops a sigma bond which attracts an electrophile
eenyusni: Come attack me , Mr. electrophile ! http://t.co/qOUDEhQX
le_datcan: Electrophile = electron which molests young undeveloped electron
jmcolberg: @electrophile @lpvmagazine I'm afraid you don't get the point here. Enjoy your ebooks.
Hanaraisi: "@Elaf_Alzadjali: Alcohol is nucleophile and Carboxylic acid is electrophile la? ☺" This gives me a brain attack :)
citrigasm: @h3ymaddie or electrophile. The term electrophilic addition sounds really rapey
Elaf_Alzadjali: Alcohol is nucleophile and Carboxylic acid is electrophile la? ☺
EMW__: @DrKnowze 'Are you an electrophile? Because I've got a lone pair right here you can bond with' creepy but ambi***ual! #rajsunichatuplines
yida95: 1. generation of electrophile. 2. electrophilic attack. 3. loss of proton. 4. regeneration of catalyst. SIAN
kidheee: @cazkooner dont be coming at me like an electrophile, i know im electric #kidhee
dinophobe: b) HNO3 sucks too, but at least after all the *** (being forced to be a base, becoming an electrophile) you MAKE something of yourself.
danielpunkass: @electrophile I’m still working my way up to longer-distance runs. Sticking with 5K-ish runs to coddle my legs a bit.
BenEvans_27: @LoraRoberts @thomasnewbery makes the halogen act as an electrophile ;)
SuperScienceGrl: @simplecoffee if you're adding a ***y electrophile onto a big nucleophilic molecule, easier to think of littler guy attacking IMO
PemiBlue: @electrophile I love that it's infinitely interpretable. Had a friend who heard musicians' names—to him that line above was "I, Dee, Cline."
j_stew11: This electrophile is ***ly positive so much that when it walks past benzene, benzene is like woah what was that #chemlectures #daymade
indysrini: Life of Pi (Bond)- Attacked by an electrophile,
Free_Radical1: @onesleepynerd @ChemProfCramer Try acronym, e.g. Organic Nucleophile/Electrophile Reactivity: Incorporating Non-Gaussian...
Punk_Princess3: every time I read nucleophile or electrophile in my chemistry notes I keep thinking it says paedophile #Awkward #ChemistrySucks
Amit_Jani: Sweating more than an electrophile next to a triple bond... #chemistryjokes
caillemillner: @electrophile Nooo, Nathan! Pinterest is where I keep all my girly secrets, like clothes. I want you to think I'm a serious person. ;)
6x6pix: @electrophile There should not have been an "all" in that last tweet ;-)