Confronta offerte su Amazon
& Spedizione GRATUITA
86% positive negli ultimi 12 mesi
+ 5,84 € di spedizione
95% positive per tutta la durata
+ 3,99 € di spedizione
89% positive negli ultimi 12 mesi

Scarica l'app Kindle gratuita e inizia a leggere immediatamente i libri Kindle sul tuo smartphone, tablet o computer, senza bisogno di un dispositivo Kindle. Maggiori informazioni
Leggi immediatamente sul browser con Kindle per il Web.
Con la fotocamera del cellulare scansiona il codice di seguito e scarica l'app Kindle.

Segui l'autore
OK
The Code Breaker Copertina flessibile – 12 maggio 2022
Prezzo Amazon | Nuovo a partire da | Usato da |
Formato Kindle
"Ti preghiamo di riprovare" | — | — |
Audiolibro Audible, Edizione integrale
"Ti preghiamo di riprovare" |
13,95 €
| — | — |
Copertina rigida
"Ti preghiamo di riprovare" | 27,28 € | 12,16 € |
CD audio, Edizione integrale
"Ti preghiamo di riprovare" | 34,44 € | — |

Opzioni di acquisto e componenti aggiuntivi
The best-selling author of Leonardo da Vinci and Steve Jobs returns.
In 2012, Nobel Prize winning scientist Jennifer Doudna hit upon an invention that will transform the future of the human race: an easy-to-use tool that can edit DNA.
Known as CRISPR, it opened a brave new world of medical miracles and moral questions. It has already been deployed to cure deadly diseases, fight the coronavirus pandemic of 2020, and make inheritable changes in the genes of babies.
But what does that mean for humanity? Should we be hacking our own DNA to make us less susceptible to disease? Should we democratise the technology that would allow parents to enhance their kids?
After discovering this CRISPR, Doudna is now wrestling these even bigger issues.
THE CODE BREAKERS is an examination of how life as we know it is about to change – and a brilliant portrayal of the woman leading the way.
- Lunghezza stampa560 pagine
- LinguaInglese
- EditoreSimon & Schuster Ltd
- Data di pubblicazione12 maggio 2022
- Dimensioni13 x 3.36 x 19.8 cm
- ISBN-101398518603
- ISBN-13978-1398518605
Spesso comprati insieme

I clienti che hanno visto questo articolo hanno visto anche
- The Song of the Cell: An Exploration of Medicine and the New HumanSiddhartha MukherjeeCopertina flessibile
- Code Breaker -- Young Readers Edition: Jennifer Doudna and the Race to Understand Our Genetic CodeWalter IsaacsonCopertina flessibile
Dettagli prodotto
- Editore : Simon & Schuster Ltd (12 maggio 2022)
- Lingua : Inglese
- Copertina flessibile : 560 pagine
- ISBN-10 : 1398518603
- ISBN-13 : 978-1398518605
- Peso articolo : 386 g
- Dimensioni : 13 x 3.36 x 19.8 cm
- Posizione nella classifica Bestseller di Amazon: n. 601 in Medicina pre-clinica
- n. 12,382 in Biografie e autobiografie (Libri)
- n. 62,488 in Libri in inglese
- Recensioni dei clienti:
Informazioni sull'autore

Scopri di più sui libri dell'autore, guarda autori simili, leggi i blog dell’autore e altro ancora
Recensioni clienti
Le recensioni dei clienti, comprese le valutazioni a stelle dei prodotti, aiutano i clienti ad avere maggiori informazioni sul prodotto e a decidere se è il prodotto giusto per loro.
Per calcolare la valutazione complessiva e la ripartizione percentuale per stella, non usiamo una media semplice. Piuttosto, il nostro sistema considera cose come quanto è recente una recensione e se il recensore ha acquistato l'articolo su Amazon. Ha inoltre analizzato le recensioni per verificarne l'affidabilità.
Maggiori informazioni su come funzionano le recensioni dei clienti su AmazonLe recensioni migliori da altri paesi

This book is 481 pages long but is an easy and exhilarating book written by an experienced hand. Issacson, however, openly declares that he tells the story primarily from Jennifer Doudna’s point of view. He has done his best to be an impartial reporter and recorder of the story, yet it is obvious, and perhaps unavoidable, that some characters are cast in poorer light against Doudna, who Issacson shines the light of sainthood upon.
Before the race to discover how CRISPR might be used on human genes, they first have to discover CRISPR – the acronym for Clustered Regularly Interspaced Short Palindromic Repeats. As it appears, scientific discoveries are made a step at a time, almost always by different scientists. The Japanese Yoshizumi Ishino was the first to discover the repeat structures in a bacteria. It was Francisco Mojica who realised what these do, and it was he who came up with the name CRSPR. Then came Jennifer Doudna and Emmanuelle Charpentier.
In brief, they discovered how bacteria defend themselves against their old enemy, the virus. The bacteria cut up some of the DNA from the virus and then implant them on themselves so that they can identify the invading virus when they attacked again.
The story continues to the crucial race to discover how exactly the bacteria cut up the virus DNA. That was main work of Doudna and Charpentier. They discovered the process through the RNA and how the TRACR RNA helps identity then guide the bacteria’s protein enzyme to the target. All that is exciting, yet the book’s attraction lies in many other aspects.
We see how fame and money (the scientists get millions of dollars from prizes) change or perhaps reveal the dark side of even the seemingly nicest of people. We see how quiet, unassuming, dedicated scientists turn to ego-sensitive, prize-grabbing people. We may also question the way the patent system works. Reading between the lines of this book (remember, Isaacsson is a little beholden to Doudna for the backbone of his story) we might get a slightly different take.
Ethical issues involve not only the big question as to whether we should allow genetic editing in humans, but also the subsidiary question, of when we are ready for it. Thus enters the Chinese scientist He Jiankui who used CRISPR to edit the genes of a pair of twins so that they are genetically resistant to the HIV virus. Yet He Jiankui created an uproar in the West, and the worldwide outrage led to him being found guilty of conducting experiments without official approval and was sentenced to three years jail. He rushed ahead before the all-clear signal.
But now, with the COVID pandemic, scientists are open to using gene editing as an answer. Furthermore, even Doudna is working on other diseases that can be cured. They include the sickle cell disease, Alzheimer’s, and also cancer. There are also problems that the present system has not yet addressed – gene-editing as a medical magic wand seems destined to be available only for the rich.
We also learn from this book that the US military, DARPA (Defense Advanced Research Projects Agency) was so very much interested in gene technology in the last six years or so that it invested US$65m into research involving CRISPR and genetic engineering specifically for military purposes. Doudna is in one of the seven teams involved with DARPA funded research.
The moral and ethical issues are enough to keep one thinking long after the last page is turned. One big question is how different are the modern-day eugenics different from the eugenics of the early 20th century?

There is a key difference between this book and Isaacson’s biography of Steve Jobs. I did not learn anything new from the latter as I was aware of most of the key events in the life of Jobs and in the history of Apple; however the insights that he provided into Jobs’ personality and the behind-the-scenes happenings at Apple made it an extremely interesting read. The Code Breaker, on the other hand, was extremely informative given my limited knowledge of gene editing; however, in its quest for being informative, the book ends up being somewhat tedious.
Doudna has led an extremely laudable professional life. However, her personal life has been largely commonplace, and while Isaacson tries his hardest to create a sense of excitement around it, he fails to do so. He focuses all his efforts on this front in the third part of the book — Gene Editing — where he chronicles the intense rivalry between Feng Zhang and Doudna, tracing their race to get credit, important prizes and patents. But this attempt falls short.
The most interesting part of the book for me was the section where Isaacson explores the moral or ethical issues around gene-editing. This is best exemplified by the question, “would it be wrong to do so or would it be wrong not to do so”. Isaacson discusses where boundary lines should be drawn — somatic editing versus germline editing (the latter is hereditary), the use for treatment of diseases versus for enhancement of human characteristics, the types of diseases that should be edited out, disadvantages that are disabling versus those that are simply so because of societal constructs (such as homosexuality) and finally whether the individual or the community should control this. From this part onwards, the book is less about Doudna and more about the science.
The book ends on an optimistic note, while discussing the Covid-19 disease and the race to find a vaccine, on how reprogrammable RNA vaccines could pave a way for finding faster cures to diseases and pandemics in the future.
Pros: Helps understand the science of biogenetics, interesting debate on the ethical aspects
Cons: Drags in parts


The book covers, in chronological order, a time span of 160 years from Darwin's publication 'On the Origin of Species' in 1859 to the development of mRNA vaccines against the coronavirus in 2020.
A fascinating aspect is that the book is not written in the abstract but through the personalities of scientists involved in the race for gene editing, their cooperation, rivalries, patents, forming companies, therapies, prizes, moral issues and the corona virus.
The main rivalry was between Jennifer Doudna and her research associates at Berkeley and Feng Shang at the Broad Institute in Cambridge Massachusetts. The winner was Doudna who shared with Emmanuelle Charpentier the Nobel prize for chemistry in 2020.
A starting point leading to the discovery of the gene editing system is the year 1990 when Francisco Mojica in sequencing genome regions of archaea (a kind of bacteria), spotted fourteen identical DNA sequences which repeated at regular intervals and between them were 'spacer' segments. They seemed to be palindromes, meaning they read the same backward and forward. Searching the literature, he found that Yoshimuzi Ishino studying E. Coli, a very different bacteria, similarly spotted these repeated sequences and spacer segments. This convinced Mojica that the phenomenon must have some important biological significance. Mojica coined the acronym CRISPR, for 'clustered regularly interspersed short palindromic repeats.' In most organisms that had CRISPRs, the repeated sequences were flanked by one of several genes, which encoded directions for making an enzyme. These were named 'CRISPR - associated or Cas enzymes. What fascinated Mojica were the spacers, those regions of normal looking DNA segments that were nestled in between the repeated CRISPR segments. He took the spacer sequences of E. Coli and run them through databases. What he found was intriguing: the spacer segments matched sequences that were in viruses that attacked E. coli. He found the same thing when he looked at other bacteria with CRISPR sequences; their spacer segments matched those of viruses that attacked that bacteria. Mojica found that bacteria with CRISPR spacer sequences seemed to be immune from a virus that had the same sequence. But bacteria without the spacer were in fact infected. It was a pretty ingenious defense system, but there was something even cooler: it appeared to adapt to new threats. When new viruses came along, the bacteria that survived were able to incorporate some of that virus DNA and that create, in its progeny, an acquired immunity to that new virus.
Mojica published a paper with his findings which was the beginning of a wave of articles providing evidence that CRISPR was, indeed, an immune system that bacteria adapted whenever they got attacked by a new type of virus.
By 2009 there was consensus that the Cas 9 was the most interesting of the CRISPR - associated enzymes. Researchers had shown that if you deactivated Cas 9 in bacteria, no longer cut up the invading viruses. They had also established the essential role of another part of the complex: CRISPR RNA, known as crRNA. These are small snippets of RNA that contain some genetic coding from a virus that had attacked the bacteria in the past. This crRNA guides the Cas enzymes to attack that virus when t tries to invade again. These two elements are the core of the CRISPR system: a small snippet of RNA that acts as a guide and an enzyme that acts as scissors. But there was one additional element of the CRISPR - Cas9 system that played an essential role, in fact, two roles. It was dubbed as 'trans - activating CRISPR RNA' or tracrRNA, pronounced 'tracer - RNA.' First, it facilitates the making of crRNA sequence that carries the memory of a virus that previously attacked the bacteria. Then it serves as a handle to latch on the invading virus so that crRNA can target the right spot for the Cas9 enzyme to chop.
As I have indicated in the beginning of the review the CRISPR - Cas9 system has been adapted from bacteria to edit human genes.
The distinguished Israeli author, Yuval Noah Harari, has aptly remarked that Homo sapiens has become Homo Deus.
