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遺伝子編集ニュース

51 stories held Section: Research すべての見出しは元の出版社にリンクしています ここに掲載されているものは私たちが執筆したものではありません
これらの見出しはこのサイトの外へ移動します

CRISPR Decoded は独自のニュースを報道していません。以下の見出しはすべて、隣に記載された出版社に帰属し、新しいタブでその出版社のウェブサイトが開きます。そちらの利用規約、ペイウォール、トラッキングが適用されます。送信前にご確認いただきます。

Phys.org — Molecular Biology

A quick squeeze helps CRISPR turn skin cells into neurons more efficiently

Human cells hold about two meters (6.6 feet) of DNA, folded and compacted to fit inside a nucleus. That packing is essential for life, but it creates a problem for scientists. Some of the genes that control a cell's identity are buried so deep in tightly packed DNA that gene-targeting tools such as…

Medical Xpress — Genetics

New CRISPR approach targets gene fusions found in 1 in 5 cancers

Peter Mac scientists have developed a way to precisely target the "unique molecular fingerprint" created when two genes become abnormally fused together, a discovery that could…

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Expanding the Possibilities of Next-Generation Sequencing

Sequencing by expansion (SBX) and Roche’s AXELIOS 1 platform introduce a new approach to single-molecule sequencing, designed to give researchers flexibility across sequencing workflows…

Oct 4, 2026
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Current Challenges in CAR T Manufacturing

Predictive cell intelligence can be used to reveal cellular states and emerging cellular trajectories earlier in the manufacturing process and to support more informed bioprocessing…

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Targeted Lentiviral Delivery Without Vector Reengineering

Rather than requiring genetic modification of the viral glycoprotein, G-Link uses a modular protein adaptor to blind native VSV-G tropism and redirect delivery after vector production. The…

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Deaf people excluded from gene-editing debate | Letter

There is no majority support for use of gene editing on non-life-threatening conditions, writes Tom Lichy of the British Deaf Association Your editorial ( The Guardian view on gene-edited…

ジャーナリズムではありません。社内制作のコンテンツです

CRISPR Decodedブリーフ

当サイト独自のデータベースレコードをもとにAIの支援で作成した短い要約です。他のメディアが報道したものではなく、署名もありません。そのため、上のニュースとは明確に分けて掲載しています。

How to read the evidence levels on this site

CRISPR Decoded organises its 92 pages across four evidence levels, and the distinction matters because it signals how much human data sits behind any claim. Laboratory research, covering 5 pages, describes work done entirely in cells or computer models. No human has received anything at this stage. Preclinical research, covering 12 pages, adds animal studies but still involves no human trials. Both levels indicate that a technology or disease application is at an exploratory stage, and according to CRISPR Decoded records, conditions such as Parkinson's disease sit at laboratory research while Duchenne muscular dystrophy remains preclinical. Clinical research is the largest category, with 59 pages. It covers every phase of human trials, from first-in-human Phase I studies through to Phase III registrational programmes. Being in clinical research means human data exists, but it does not mean a therapy is proven safe, effective or available. Approved treatment, covering 16 pages, is reserved for therapies that have cleared regulatory review. According to CRISPR Decoded records, only one gene editing therapy, Casgevy, holds that status, making the approved category the narrowest and most consequential distinction of all.

16h ago

The hardest unsolved problems

Approved gene editing treatments exist today for sickle cell disease and beta thalassemia, and the records of CRISPR Decoded point to a shared reason: both diseases involve blood stem cells that can be removed from a patient, edited outside the body, and returned. This ex vivo approach sidesteps one of the hardest problems in the field, namely delivering editing machinery reliably to cells inside a living person. Casgevy, a CRISPR-Cas9 therapy, reached approval on exactly this basis. Conditions that require editing inside the body face a steeper path. The liver is relatively accessible via lipid nanoparticles, which is why ATTR amyloidosis and hereditary angioedema have reached Phase III. Tissues such as muscle, the central nervous system and the lung are harder to reach, and Duchenne muscular dystrophy, Huntington's disease and cystic fibrosis remain preclinical in these records. A 2025 death in the MAGNITUDE liver-targeting trial also illustrated a further constraint: an irreversible in vivo edit cannot be withdrawn if something goes wrong, raising the safety threshold regulators apply.

16h ago

What has changed most recently

According to CRISPR Decoded records, the most recent developments span 2023 to 2026 and range from a landmark approval to the first positive Phase 3 result for in vivo gene editing. In November 2023, the UK MHRA authorised Casgevy, a CRISPR-Cas9 therapy, for sickle cell disease and beta thalassemia, with FDA authorisation following in December 2023 and January 2024. This represents an approved treatment, the highest evidence level recorded. In 2025, results from PM359 in chronic granulomatous disease provided the first clinical evidence for prime editing, rated clinical research: prime-edited stem cells engrafted and restored immune function. That same year, a participant in the Phase 3 MAGNITUDE trial of nexiguran ziclumeran died following severe liver injury, prompting a voluntary pause and an FDA clinical hold. The hold on MAGNITUDE was later lifted. In 2026, Intellia reported positive Phase 3 results, clinical research evidence, for lonvoguran ziclumeran in hereditary angioedema, described in CRISPR Decoded records as the first successful registrational trial of in vivo gene editing, with a licence application signalled for later that year.

16h ago

Where gene editing actually stands today

As reflected in CRISPR Decoded records, one gene editing treatment has reached regulatory approval: Casgevy, a CRISPR-Cas9 therapy for sickle cell disease and beta thalassemia, authorised first by the UK MHRA in November 2023 and subsequently by the FDA. Two approved lentiviral gene-addition therapies, Lyfgenia and Zynteglo, address the same blood disorders but use a different mechanism and are not gene editing. Four gene editing programmes have reached Phase III. Nexiguran ziclumeran targets ATTR amyloidosis, lonvoguran ziclumeran targets hereditary angioedema and reported the first positive Phase III result for in vivo gene editing, risto-cel uses base editing for sickle cell disease, and BEAM-302 applies base editing to alpha-1 antitrypsin deficiency. Several earlier-stage trials cover cancer, familial hypercholesterolemia, chronic granulomatous disease and diabetes. A significant portion of the broader landscape remains preclinical or at discovery stage, including programmes for Duchenne muscular dystrophy, cystic fibrosis, hemophilia, Huntington's disease, Parkinson's disease and Alzheimer's disease, underlining how much of gene editing's potential has not yet been tested in humans.

16h ago

これらの見出しの出典

CRISPR Decoded が収集しているすべての出版社と、現在保持している記事数。

出版社収録記事数最新
GEN — Genetic Engineering News 65 Oct 27, 2026
Endpoints News 50 Oct 27, 2026
Nature Genetics 30 Oct 26, 2026
STAT 24 Oct 27, 2026
Phys.org — Molecular Biology 20 Oct 27, 2026
Medical Xpress — Genetics 15 Oct 22, 2026
Science Daily — Gene Therapy 6 Sep 7, 2025
The Guardian — Genetics 6 Sep 21, 2026
Science Daily — Genes 5 Oct 7, 2026
Science Daily 2 Aug 17, 2026
New Scientist 2 Sep 25, 2026
FDA 2 Sep 17, 2026
MIT Technology Review 2 Aug 14, 2026

見出し、出版社名、リンクのみ。記事は記載された出版社の所有物です。日付は各フィードが報告する公開日で、UTC表示です。画像が表示される場合は出版社のサーバーから配信され、出版社に帰属します。