| You are here Glossary
homepage/Search > Technologies Technologies & instrumentation overview Evolving Terminology for Emerging Technologies Making new technology work may be easier than using it to
discover truth. Roger Brent, "Functional genomics: learning to think about gene
expression data" Current Biology 9: R338-R341, 1999AFM atomic force microscopy: A type of scanning probe microscopy
in which a probe systematically rides across the surface of a sample being
scanned in a raster pattern. The vertical position is recorded as a spring
attached to the probe rises and falls in response to peaks and valleys
on the surface. These deflections produce a topographic map of the sample.
[MeSH] Imaging glossary applied
research: Aimed at gaining knowledge or understanding to determine the means by which a specific, recognized need may be met. In industry, applied research includes investigations oriented to discovering new scientific knowledge that has specific commercial objectives with respect to products, processes, or services. [National Science Foundation, Directorate for Social, Behavioral & Economic Sciences, US definitions for resource surveys 1996]
http://www.nsf.gov/sbe/srs/seind96/ch4_defn.htm
Research glossary automation: Needed to industrialize processes, for higher throughput,
greater reliability and often for cost- effectiveness. Related terms Drug
discovery & development LIMS, robotics bioengineering: Is rooted in physics, mathematics, chemistry, biology, and the life sciences. It is the application of a systematic, quantitative, and integrative way of thinking about and approaching the solutions of problems important to biology, medical research, clinical proactive, and population studies. The NIH Bioengineering Consortium agreed on the following definition for bioengineering research on biology, medicine, behavior, or health recognizing that no definition could completely eliminate overlap with other research disciplines or preclude variations in interpretation by different individuals and organizations. Integrates physical, chemical, or mathematical sciences and engineering principles for the study of biology, medicine, behavior, or health. It advances fundamental concepts, creates knowledge for the molecular to the organ systems levels, and develops innovative biologics, materials, processes, implants, devices, and informatics approaches for the prevention, diagnosis, and treatment of disease, for patient rehabilitation, and for improving health.
[NIH, Office of External Research, Bioengineering Definition Committee, July 24,
1997] http://grants.nih.gov/grants/becon/bioengineering_definition.htm
Biomaterials glossary BioMEMS Biological MicroElectro Mechanical Systems: BioMEMs &
Biomedical Nanotechnology WORLD 2000 encompasses all interfaces and intersections
of the life sciences and clinical disciplines with microsystems and nanotechnology.
Areas of interest include, but are not limited to, micro- and nanotechnology
for drug delivery, tissue engineering, harvesting, manipulation, amplification,
and sequencing of nucleic acids,
proteomics, microfluidics and miniaturized
total analysis systems (microTAS), biosensors, molecular assembly, nanoscale
imaging, and integrated systems. Contributions addressing all stages of
research and development are welcome, from basic science fundamentals and
technology concepts to product development, clinical investigations, and
business and ethical considerations. BioMEMs and Nanotechnology World 2001
Sept. 22-25 2001, Columbus OH Miniaturization
glossary biotechnology: The integration of natural sciences and engineering sciences in order to achieve the application of organisms, cells, parts thereof and molecular analogues for products and services.
[IUPAC Compendium] Related term biotechnology industry Business
of the life sciences glossary CE-MS (Capillary Electrophoresis- Mass
Spectrometry): Separation
is achieved through channels etched on the surface of the capillary (connected
to an external high- voltage power supply) which delivers sample to ESI- MS.
Automatable approach, with great sensitivity. [CHI Proteomics] Chromatography
& electrophoresis glossary combinatorial chemistry: In the early 1990's it was believed that combinatorial chemistry would revolutionize the drug discovery industry. Ten years later the route from design and synthesis of compound libraries to identification of lead structures is still long and costly. Synthesis of an almost unlimited number of organic compounds covering as much of chemistry space as possible is no longer the most cost effective and time saving approach to hit identification. Creating libraries, using biological target structure to inform chemical design, facilitated by quantum advances in
structural genomics and computational capabilities, is a smarter, more efficient way to produce good initial leads. Considering solubility, permeability and other
drug- like properties early in library design and introducing both target and lead structural constraints in
lead development are further ways to ensure more compounds make it to trial.
Exploiting
Molecular Diversity Feb. 11-12, 2002 San Diego CA Drug
Discovery & development glossary detector technologies: Include fluorescence, fluorescence
polarization, colorimetry, mass spectrometry, luminescence, primer
extension and minisequencing. [Michael Phillips,
CHI Nucleic Acids Technologies conference, June 7-9, 2000] Detector instrumentation
includes CCD cameras, lasers. Advances
in Assays, Molecular Labels, Signaling & Detection: Profiling PCR
June 27-28, 2002, Washington DC disruptive technologies: Some technologies are improved in a
linear fashion or incrementally. Others truly change the paradigm.
Clayton Christensen writes about these in The Innovator's Dilemma.
What is particularly interesting about Christensen's analysis (based on
data from the disk drive industry) is that he found disruptive technologies
tended to be much cheaper than existing technologies. Existing companies
were quite capable of developing the technologies (and had). What they
couldn't do was figure out how to market them and whether it made sense
to devote sufficient resources to them (which in many cases would not have
been the responsible thing to do.) Related term nonlinear. Business
of the life sciences glossary emerging technologies: Frequently mentioned examples of emerging
technologies include biomaterials, information technology, telecommunications,
and nanotechnology. Business
of the life sciences glossary enabling technologies: Frequently cited examples of enabling
technologies for drug discovery and development are combinatorial chemistry,
high-throughput screening, microarrays, bioinformatics and computational
biology, nanotechnologies, and imaging (including biosensors and biomarkers)
Business
of the life sciences glossary genetic engineering: Directed modification of the gene complement of a living organism by such techniques as altering the DNA, substituting genetic material by means of a virus, transplanting whole nuclei, transplanting cell hybrids, etc.
[MeSH] Related term recombinant DNA technology. [IUPAC Compendium] Biomaterials
glossary genomics technologies - integrated: The grand challenge of fully
characterizing the genomics/ proteomics of the intact living cell … The
information coming from these projects [Human Genome Project, variety of
plant genome sequencing initiatives, and the completion of an extensive
array of microorganism genomes], massive and complex as it will be, provides
only the starting point for understanding how the cell, the basic unit
of life, interprets the blueprint contained in its genome … What is not
understood is how the cell creates and orchestrates its own physiology
using the information contained in its DNA …. it is unlikely that a useful
understanding of the cell will be possible until a quantitative appreciation
of both rates and equilibria of molecular processes in the living cell
is achieved. [National Center for Research Resources "Integrated Genomics
Technologies Workshop Report" Jan 1999] http://www.ncrr.nih.gov/newspub/genomic.pdfRelated
terms Informatics
Overview hyphenated techniques: Usually involves a combination of chromatography
and/ or mass spectrometry, NMR or other spectroscopy technologies. mass spectrometry: This technique can be used to both measure and analyze molecules under study. It involves introducing enough energy into a target molecule to cause its ionization and disintegration. The resulting fragments are then analyzed, based on the
mass/ charge ratio to produce a "molecular fingerprint."
[CHI Microarrays] A significant force behind progress in proteomics. [CHI Summit Proteomics]
Mass
Spectrometry glossary microarray: Tool for studying how large numbers of genes interact
with each other and how a cell’s regulatory networks control vast batteries
of genes simultaneously. Uses a robot to precisely apply tiny droplets
containing functional DNA to glass slides. Researchers then attach fluorescent
labels to DNA from the cell they are studying. The labeled probes are allowed
to bind to cDNA strands on the slides. The slides are put into a scanning
microscope to measure … how much of a specific DNA fragment is present. [NHGRI,] Roger Brent has compared microarrays to the telescope or microscope
because they enable the observer to see what was previously unobservable. This technology finds itself center stage thanks to the successful decoding
of the human genome. Regardless of its enormous potential, only recently has the
number of application papers surpassed that of review articles. In other words,
we have a technology that works well despite, rather than because of, our
understanding of the subject Microarrays
to Macroresults 3 Advancing Drug Development April 29- May 1, 2002 Boston, MA
Microarrays glossary miniaturization: Desirable for many technologies for overall
cost reduction (including reduction in the amount of reagents and analytes).
Important to remember that building space is often the least available
and most expensive component of a laboratory budget. Miniaturization
glossary multiplex: A sequencing approach that uses several pooled samples,
greatly increasing sequencing speed. [DOE] Gene
amplification & PCR glossary NMR Nuclear Magnetic Resonance: A technology for protein
structure determination. NMR generally gives a lower- resolution structure
than X-ray crystallography does, but it does not require crystallization.
NMR is currently applicable only to smaller proteins. [CHI Structural
Proteomics] NMR
& X-ray crystallography glossary nanoparticles: Nanometer scale particle fabrication is seeing
progress, for a number of applications. Producing nanoparticles by
nanocrystalization is an aspect of molecular nanotechnology. Miniaturization
glossary nonlinear: Advances in genomic technologies are a mix of incremental
improvements to existing technologies (linear) and occasionally, a truly new paradigm or breakthrough. Related terms disruptive technologies,
emerging technologies, complex. PCR Polymerase Chain Reaction: Nucleic acid
amplification and detection have become the most widely used techniques for
conducting biological research. Utilization is applied to an increasing range of
applications including diagnostics in bench- top research to the clinical
arena, genomic screening for drug discovery to toxicology, screening for
contamination, and identification of unknown organisms to even discovery of new
flora and fauna. Microarray development
continues to drive these discoveries. Nucleic-Acid
Based Technologies: Profiling PCR June 24-26, 2002 • Washington, DC
Gene
amplification & PCR glossary platform technologies: A type of corporate partnering that first gained favor in 1996 - “platform technology” deals - in the fields of combinatorial chemistry, gene therapy and genomics. In each of these areas, companies have developed innovative
partnering strategies for granting non- exclusive licenses to several pharmaceutical companies simultaneously, thus permitting varying degrees of access to their early- stage technologies.
Michael Lytton "Platform- Technology Deals Increasingly Will Drive Genomics and Gene Therapy Alliances" Palmer & Dodge]
http://www.palmerdodge.com/about/publicationoutput.cfm?fileID=36 Related terms
target technologies, tool technologies. Business of the
life sciences glossary recombinant DNA technology: A body of techniques for cutting apart and splicing together different pieces of
DNA. When segments of foreign DNA are transferred into another cell or organism, the substance for which they code may be produced along with substances coded for by the native genetic material of the cell or organism. Thus, these cells become "factories" for the production of the
protein coded for by the inserted DNA.
[NIGMS] Related terms biotechnology, gene manipulation, genetic
engineering.
Biomaterials glossary robust: A process which is
relatively insensitive to human foibles and variables in the way (for example,
an assay) is carried out, a statistical term. Drug
discovery & development glossary sample: 1. In statistics, a group of individuals often taken at random from a population for research purposes
2. One or more items taken from a population or a process and intended to provide information on the population or process. 3. Portion of material selected from a larger quantity in some manner chosen so that the portion is representative of the whole.
[IUPAC Tox] Related Terms aliquot, biased sample, random sample, solid phase extraction, split sample.
stratified sample, systematic sample. Drug
discovery & development glossary sample prep: Up- stream sample preparation continues to present
several challenges in the field, from informed consent to production of higher
quality material. The quality of isolated nucleic acid and protein sample is
critical in obtaining data, which is accurate and informative. With clinical
material it is often imperative to obtain a homogenous sample or isolate
individual cells. Sample capture, transportation, storage and handling is as
critical as extraction and purification procedures. Further advances in chip and
other technologies has amplified the need for higher throughput in conjunction
with miniaturization and automation of sample preparation processes. Genomic
Sample Preparation May 2-3, 2002 • Boston,
MA Drug discovery & development
glossary sexy technologies: What makes technologies sexy?
It seems to be a combination of being new, innovative, challenging, affording
clever people a chance to learn new skills (and demonstrate how competitive
and bright they are) and expensive (or otherwise unavailable to everyone).
A quick search of the web identifies high- speed computers, robotics,
nanotechnology,
HDTV, Java, wireless communications and biomaterials as "sexy" by
some criteria. I'd be interested to hear other interpretations and
nuances of this class of technologies. Are there significant differences in what are sexy
technologies to biologists, businesspeople, chemists, computer
scientists and others? Business of the
life sciences glossary single molecule detection: Recent advances in optical imaging and biomechanical techniques have demonstrated that it is possible to
make observations on the dynamic behavior of single molecules, to determine mechanisms of action at the level of an individual molecule, and to explore
heterogeneity among different molecules within a population. These studies have the potential to provide fundamentally new information about biological
processes and are critical for a better understanding of cellular function. ...
Single molecule methods are likely to lead to significant advances in understanding
molecular movement, dynamics, and function. [NIGMS, NICDC, NHGRI, Single
Molecule Detection and Manipulation, Feb. 12, 2001] http://grants.nih.gov/grants/guide/pa-files/PA-01-049.html
Assays, labels,
signaling & detection glossary standards: in Bioinformatics glossary,
Microarrays glossary synchrotrons: Devices for accelerating protons or electrons in
closed orbits where the accelerating voltage and magnetic field strength
varies (the accelerating voltage is held constant for electrons) in order
to keep the orbit radius constant. [MeSH] NMR
& X-ray crystallography Related terms Structural
genomics glossary technologies: Narrower terms include biotechnology, detector
technologies, disruptive technologies, emerging technologies, enabling
technologies, genomic technologies, sexy technologies, technology, technology
transfer webs. Business of the life
sciences glossary technology audit: Business of the life
sciences tissue engineering: The
term "tissue engineering" was coined at an NSF- [National Science
Foundation] sponsored meeting in 1987. At a later NSF- sponsored workshop,
tissue engineering was defined as "...the application of principles and
methods of engineering and life sciences toward fundamental understanding ...and
development of biological substitutes to restore, maintain and improve [human]
tissue functions." This
definition is intended to include procedures where the biological substitutes
are cells or combinations of different cells that may be implanted on a scaffold
such as natural collagen or as synthetic, biocompatible polymers to form a
tissue. ["Tissue Engineering" National Science Foundation] http://www.nsf.gov/od/lpa/nsf50/nsfoutreach/htm/n50_z2/pages_z3/45_pg.htm
Biomaterials glossary zeptomole: 10–21 mole. One-sextillionth. Assays,
labels, signaling & detection glossary Bibliography Encyclopedia of Analytical Instrumentation, Brian Tissue, Chemistry
Hypermedia Project, Virginia Polytechnic Institute, US, 1995- 2000. http://www.chem.vt.edu/chem-ed/ac-meths.html Alpha
glossary index IUPAC definitions are reprinted with the permission of the International
Union of Pure and Applied Chemistry. |