Christopher Chang Phone Number, Email ID, Address, Fanmail, Tiktok and More

Are you a follower of Christopher Chang? Are you searching on google for How to contact him? What is their WhatsApp number, contact number, or email id of Christopher Chang? What is their hometown and residence address of Christopher Chang? Who is the Contact Agent, Manager Christopher Chang? What is your Facebook, Twitter, or Instagram id of Christopher Chang? find out all these things in our article below. Let’s look for Christopher Chang’s autograph details, including his autograph request address, autograph mailing address, and fan mail address.

Christopher Chang

Christopher J. Chang is now the holder of the Class of 1942 Chair at the University of California, Berkeley, where he also serves as a professor in the Chemistry and Molecular and Cell Biology departments. Additionally, Chang is a participant in the Helen Wills Neuroscience Institute, an investigator for the Howard Hughes Medical Institute, an adjunct professor of pharmaceutical chemistry at the University of California, San Francisco, and a faculty scientist at the Chemical Sciences Division of the Lawrence Berkeley National Laboratory.

His contributions to bioinorganic chemistry, molecular biology, and chemical biology have earned him several accolades and prizes. His research interests include molecular imaging sensors for studying redox biology and metals, mainly as they apply to neurology and immunology, as well as green chemistry and metal catalysts for renewable energy cycles. Ames, Iowa, is where Chang was born in 1974. However, he spent his childhood in Indiana.

He received his undergraduate education in chemistry at the California Institute of Technology, where he also majored in computer science. Along with Harry B. Gray, he conducted research at Caltech on the synthesis and characterization of metal salen complexes of manganese and vanadium, as well as the nitrogen and oxygen transfer reactivity of these complexes. After completing his Bachelor of Science and Master of Science degrees in Chemistry in 1997, Chang went on to serve as a Fulbright Scholar in the laboratory of Jean-Pierre Sauvage at the Université Louis Pasteur.

In 1999, he accepted an NSF/Merck Graduate Fellow position and relocated to the Massachusetts Institute of Technology. At the time when Chang was earning his doctorate, he was employed in the laboratory of Daniel G. Nocera. Chang did not leave MIT after receiving his doctorate in inorganic chemistry in 2002; instead, he continued his studies there and became a Jane Coffin Childs Fellow, studying with Stephen J. Lippard. Chang started his self-directed professional life in 2004 by accepting an Assistant Professor of Chemistry position at the University of California, Berkeley.

The chemistry of life and energy are research subjects in our lab. We make strides forward in imaging, proteomics, drug discovery, and catalysis by taking inspiration from the fundamental practices of inorganic, organic, and biological chemistry. For instance, we have developed activity-based sensing as a general platform to identify transition metals, reactive oxygen species, and one-carbon units as new classes of single-atom signals for the allosteric regulation of protein function. Using this platform, we determined the relationship between transition metals, reactive oxygen species, and one-carbon units.

These chemical methods also show different metal and redox disease vulnerabilities, which may serve as targets for novel drug development efforts that are being made to treat neurodegeneration, cancer, and metabolic diseases. Our work in artificial photosynthesis addresses the worldwide concerns posed by climate change. To build molecular electrocatalysts for carbon dioxide collection and conversion as well as nitrogen and phosphorus cycling, we apply design approaches taken from the field of biology. The following is a summary of some representative project areas.

Christopher Chang wiki

Dr. Christopher Chang did not begin his studies at the undergraduate level with a concentration in chemistry. Dr. Chang was a first-year student when he went to the chemistry department and knocked on the faculty members’ doors in hopes of being allowed to undertake research in one of their laboratories. To our good fortune, Dr. Harry Gray took a risk on Dr. Chang and began his career at the Beckman Institute as a first-year employee. He believed that his dogged determination significantly impacted his first research posting. In the end, Dr. Chang spent the remainder of his time as an undergraduate working in the laboratory of Dr. Gray. He attributes his ambition to pursue a career in science to the early opportunities he had to participate in research.

Formaldehyde (FA) is a ubiquitous tiny molecule with many critical functions in human health and illness. FA may be found in a wide variety of everyday products. FA is a major environmental toxin that is classified as a carcinogen. Exposure to FA is also connected to various other serious diseases ranging from neurodegenerative diseases to diabetes and chronic liver and heart disorders. Since FA is the simplest aldehyde and reactive carbonyl species, it is also the most carcinogenic.

Throughout normal physiology, the body simultaneously manufactures this reactive carbonyl species. This happens predominantly via enzymatic demethylation processes and through the one-carbon cycle. We are developing and applying new chemical reagents for selective imaging and proteomics of FA in living systems to identify its molecular sources and targets. Our long-term objective is to understand how and in what context this small reactive molecule contributes to normal physiology and disease.

This application will focus on developing new technologies that will enable highly selective molecular imaging of fatty acids in cellular models to detect sources of decadent acid generation, along with accompanying chemo proteomics methods to identify targets of fatty acids in genetic and cancer models where fatty acid metabolism is impaired. Formaldehyde is a major environmental toxin and carcinogen. Excessive exposure to formaldehyde has been linked to various diseases, including neurodegenerative diseases, diabetes, and chronic liver and heart disorders. On the other hand, the human body naturally produces this reactive carbonyl species as part of its normal physiological functioning.

To identify formaldehyde’s molecular sources and targets, we are developing and applying new chemical reagents for selective imaging of formaldehyde in living systems. Our long-term goal is to understand how and in what context this small reactive molecule contributes to normal physiology and disease. Christopher Chang aims to make cellular imaging more accurate by altering how scientists tag the molecules they are interested in seeing. Most tags emit a continuous fluorescence, each attaches to a target molecule with a particular form.

Conversely, Chang is designing probes that only glow when they undergo a chemical reaction with their respective targets. The production, accumulation, and release of crucial chemicals in the passage of messages inside and between cells may now be seen by scientists thanks to this development. For instance, one of Chang’s tags emits a green light when it combines with hydrogen peroxide, a molecule widespread throughout the brain but whose function is largely unclearChristopher Chang picture


The more vibrant the hue, the higher the concentration of hydrogen peroxide a cell has taken in. This tag has been put to use by Chang in his research on neurons originating from the hippocampus, a part of the brain that plays a critical role in learning and memory. According to the findings of his study, the chemical, which is most often associated with inflicting harm to cells, also plays a vital part in the neurological signaling process. An associate professor of chemistry named Martin Burke has devised a method that may effortlessly and swiftly build varied arrays of tiny molecules by repeatedly employing a single reaction to combine various organic components. This method can be found in his recent publication.

In the first step of the process, he converts a broad range of organic molecules into standardized building blocks. Each block has a boronic acid attached to one end and a halide, like a bromide, connected to the other. A carbon-carbon bond is formed between two molecules in a test tube due to a reaction between the ends. The most important contribution that Burke has made is the discovery of a method that may reversibly block the boronic-acid end. This allows scientists to link various compounds progressively.

In one of her projects, she is developing a technology that will break down the strong polymer lignin, found in large quantities in agricultural waste, into molecules that can be transformed into biofuels. Moreover, Chang is working on a process allowing fluorine to be incorporated into organic compounds. For many contemporary pharmaceuticals, including Lipitor, to carry out their intended tasks, each of their molecules must include at least one fluorine atom. Yet, employing more conventional chemistry methods makes it challenging to incorporate fluorine into compounds.

Nuclear magnetic resonance (NMR) is a method that, when combined with magnetic nanoparticles explicitly created for the purpose, might be a quick and straightforward approach to detecting cancer, germs, and viruses in blood samples. Nevertheless, modern NMR systems need cumbersome and expensive magnets, which renders them unsuitable for applications such as mass cancer screening and other regular diagnostic testing. Therefore, Donhee Ham, an associate professor of the natural sciences, developed a system that is only marginally larger than a cell phone and weighs less than two kilograms. Still, it is sixty times as sensitive as existing tabletop systems that weigh one hundred twenty kilograms and could cost seventy times as much.

Using more minor magnets results in a lower-quality signal, which may be compensated for by using a radio-frequency chip made of silicon. Companies have shown interest in implementing Ham’s technology into diagnostic devices, and the system has been evaluated in conjunction with the Massachusetts General Hospital. An associate professor of medicine named Konrad Hochedlinger came up with a straightforward approach to enhancing the procedure. He began reprogramming by using the same four genes that other researchers had employed before him, and he did it by working with mouse cells.

Nevertheless, he employed a different gene to identify the cells that had been effectively reprogrammed; it was found that cells in which that gene was active appeared and behaved more similarly to embryonic stem cells than those cells created in the past. This method provides a means to get past the difficulties that have held down embryonic stem-cell research, which has the potential to assist researchers in understanding specific illnesses and, ultimately, replacing sick or damaged tissue.

Christopher Chang image

Christopher Chang Phone Number, Email Address, Contact No Information and More Details

Christopher Chang Addresses:

House Address:

Christopher Chang, Ames, Iowa, United States

Fanmail Address / Autograph Request Address:

Christopher Chang,
United States

Christopher Chang Contact Phone Number and Contact Details info

  • Christopher Chang Phone Number: (888) 413-3923
  • Christopher Chang Mobile Contact Number: NA
  • WhatsApp Number of Christopher Chang: NA
  • Personal Phone Number: (888) 413-3923
  • Christopher Chang Email ID: NA

Social Media Accounts of Content Creator ‘Christopher Chang ’

  • TikTok Account: NA
  • Facebook Account (Facebook Profile): NA
  • Twitter Account:
  • Instagram Account: NA
  • YouTube Channel: NA
  • Tumblr Details: NA
  • Official Website: NA
  • Snapchat Profile: NA

Personal Facts and Figures

  • Birthday/Birth Date: 1974
  • Place of Birth: Ames, Iowa, United States
  • Wife/Girlfriend: Michelle Chang
  • Children: NA
  • Age: 49 Years old
  • Official TikTok: NA
  • Occupation: Professor
  • Height: NA


  • Salary of Christopher Chang: $3.92 Million
  • Net worth: $3.92 Million
  • Education: Yes
  • Total TikTok Fans/Followers: Not Known
  • Facebook Fans: Not Known
  • Twitter Followers: 4,874 Followers
  • Total Instagram Followers: Not Known
  • Total YouTube Followers: Not Known

Christopher Chang bio

Christopher Chang Contact Address, Phone Number, Email ID, Website
Phone Number(888) 413-3923
House address (residence address)Ames, Iowa, United States
Official WebsiteNA
Snapchat IdNA
Whatsapp No.Not Available
Personal No.NA
Instagram IdNA
Facebook IdNA
Tinder IdNA
Twitter Id
Email AddressNA
Office NumberNA

See Also: Andrew Chang Phone Number, Email ID, Address, Fanmail, Tiktok and More

Some Important Facts About Christopher Chang:-

  1. Christopher Chang was born in 1974.
  2. His Age is 49 years old.
  3. His birth sign is Libra.

Leave a Comment