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American Committee for the Weizmann Institute of Science


Wet scans

Researchers have developed a method to preserve biological samples without distorting them, allowing for clearer views of lipids and other materials. The breakthrough, enabled by a unique polymer capsule, has potential applications in advancing studies of biological materials.

SourceAmerican Committee for the Weizmann Institute of Science·JournalProceedings of the National Academy of Sciences·DateApr 19, 2004

'Smart bomb' delivery destroys tumors in mice

Scientists have developed a method that uses allicin, found in garlic, to selectively kill cancer cells in mice. The method involves injecting an antibody and enzyme combination that targets specific receptors on cancer cells, triggering the production of lethal allicin molecules that destroy tumors while leaving healthy cells intact.

SourceAmerican Committee for the Weizmann Institute of Science·JournalMolecular Cancer Therapeutics·DateDec 29, 2003

Weizmann Institute scientists report why taste and smell differ among individuals

Weizmann Institute scientists found that around 50 genes are optional, affecting a person's unique pattern of active olfactory receptors. This high level of genetic variation impacts how thousands of aromas and flavors are perceived. The study also shows varying levels of obliteration among different ethnic groups.

NMR - The movie

A team led by Prof. Lucio Frydman has found a way to perform multidimensional NMR with a single scan, significantly speeding up molecular studies and enabling the observation of rapid changes in molecules like protein folding. The new method uses a 'slicing' approach, simultaneously performing measurements on multiple thin slices of a ...

SourceAmerican Committee for the Weizmann Institute of Science·JournalProceedings of the National Academy of Sciences·DateFeb 24, 2003

Genes, neurons, and the Internet found to have some identical organizing principles

Researchers discovered identical organizing principles in genetic, neural, and food networks, revealing potential strategies for information processing and filtering noise. The study's findings have significant implications for understanding complex systems and could lead to breakthroughs in fields like medicine and electronics.

New witchweed-fighting method, presented by CIMMYT and Weizmann Institute scientist

A new herbicide-resistant maize technology has been developed to combat Striga hermonthica, or witchweed, which infests approximately 20-40 million hectares of farmland in sub-Saharan Africa. The method, tested for over ten crop seasons, shows promising results, increasing yields up to four-fold in fields highly infested with witchweed.

Bone marrow transplants may be improved due to the uncovering of a key mechanism

Researchers discovered that degradation of SDF-1 protein is crucial for stem cell mobilization in bone marrow transplants. G-CSF growth factor triggers this process by reducing SDF-1 levels, allowing stem cells to flow into the bloodstream. The findings may lead to improved collection of stem cells for clinical transplantations.

Brittlestars use crystal lenses to spot approaching predators unique “visual” system is the first of its kind to be discovered in animals inhabiting the earth today

Brittlestars, also known as serpent stars, possess a unique 'visual' system that enables them to detect shadows and escape from predators. Their skeletal elements feature crystal lenses that transmit light to their nervous system, allowing them to respond to light changes.

Vaccination following spinal cord injury: Innovative Weizmann Institute approach limits paralysis

Weizmann Institute scientists propose a novel vaccination method to prevent secondary degeneration after partial spinal cord injury, leading to significant recovery of movement in rats. The treatment protected nerve fibers and showed potential effectiveness in other central nervous system disorders.

SourceAmerican Committee for the Weizmann Institute of Science·JournalJournal of Clinical Investigation·DateAug 17, 2001

Scientists discover enzymes capable of duplicating damaged genetic material (DNA) and creating new mutations

A team of scientists has discovered a group of enzymes capable of duplicating damaged genetic material, allowing cells to 'compromise' and replicate with a certain 'sloppiness'. This mechanism increases genetic diversity and enables natural selection, driving the evolutionary process.

SourceAmerican Committee for the Weizmann Institute of Science·JournalProceedings of the National Academy of Sciences·DateNov 5, 2000

Weizmann Institute scientists develop a novel system for analyzing genetic data that mimics the human capacity for unsupervised learning

The team designed a unique mathematical system for analyzing genetic data based on a computer algorithm that clusters information into relevant categories. The algorithm mimics unassisted learning, categorizing tissue samples into separate clusters according to their gene expression profiles.

SourceAmerican Committee for the Weizmann Institute of Science·JournalProceedings of the National Academy of Sciences·DateOct 15, 2000

New theory on the mystery of the origin of life proposed by Weizmann Institute scientists

Researchers suggest that early life forms could have emerged from heterogeneous lipid assemblies, with information stored in composition rather than sequence. This model offers a solution to the long-standing question of how lipid assemblies could carry and propagate information.

SourceAmerican Committee for the Weizmann Institute of Science·JournalProceedings of the National Academy of Sciences·DateJun 4, 2000

Scientists control properties of semiconductor devices using organic molecules, for the first time

Weizmann Institute scientists developed a new method to incorporate organic molecules into electronic devices, controlling their properties and predicting behavior. The approach overcomes challenges in detecting electrical properties of organic molecules, enabling a feasible way to harness their diversity.

Weizmann Institute scientists devise an approach for 'recruiting' an immune system response to partial spinal cord injuries

Researchers hope to achieve a treatment that prevents total paralysis after partial spinal cord injury by adding T-cells to the immune response. In laboratory animal tests, rats with partial spinal cord injuries regained motor activity in their paralyzed legs, while untreated rats developed increasing paralysis.