ABOUT MAD CITY LABS, INC.
Mad City Labs, Inc is a leading manufacturer of flexure based nanopositioning systems capable of sub-nanometer positioning resolution. Our product line covers the entire spectrum of nanopositioning capabilities while maintaining a leadership role in multi-axis stages for high speed optical microscopy imaging. Mad City Labs design engineers use 3D CAD and finite element analysis to produce nanopositioners which combine long ranges of motion with exceptional linearity, orthogonality, and stability. Our in-house CNC machining centers provide complete control of mechanical assembly production and allow Mad City Labs to design and fabricate custom systems with minimal engineering costs and short lead times. We deliver the tools for nanotechnology in 30 to 45 days and provide the highest level of customer service and satisfaction in the industry. We provide innovative and practical solutions for today’s demanding biotechnology and nanotechnology applications. Applications for nanopositioners include super resolution microscopy, high speed confocal imaging, AFM, NSOM, scanning probe microscopy, fiber positioning, single molecule spectroscopy, single molecule/particle tracking, high resolution optical alignment, SR optical microscopy, sub-diffraction limit microscopy, nanoscopy and lithography.
HOT PRODUCTS
The Nano-ZL-IX5 series are advanced Z-axis nanopositioning systems specifically designed for compatibility with Evident Scientific IX85 and FLUOVIEW™ inverted microscopes.
The MadAFM sample scanning atomic force microscope is powered by industry-leading closed-loop nanopositioners to ensure high-resolution performance, true decoupled motion, and virtually undetectable out-of-plane motion.
Mad City Labs offers a complete product line of high precision piezo nanopositioners, micropositioners, single molecule microscopes, and atomic force microscopes (AFM).
The MadAFM atomic force microscope is designed for ease of use and simple installation and equipped with industry-leading closed-loop nanopositioners for precision movement of the sample and probe.
The QS-PLL is an atomic force microscope (AFM) controller designed for use with resonant probes, such as tuning forks, and Mad City Labs nanopositioners and micropositioners. The controller integrates motion control and phase lock loop (PLL) control thus streamlining the hardware interface.
The Nano-HS3M is a high speed, 3 axis piezo nanopositioning system with picometer positioning resolution. The inclusion of PicoQ® sensor technology provides absolute, repeatable position measurement under closed loop control. The ultra-low noise floor and the high resonant frequency of the Z-axis makes it ideal for high speed performance. The Nano-HS3M has been used as a tip scanner for Mad City Labs AFM.
The MicroMirror TIRF microscope is a unique single molecule microscope. Spatial separation of the excitation and emission beams and the use of broadband micromirrors leads to superior signal-to-noise ratios for multi-wavelength TIRF microscopy. The open access to the excitation and emission optical pathways makes this the ideal platform to implement a range of biophysical techniques simultaneously.
The Nano-LPS Series comprises ultra-low profile 3 axis nanopositioning systems with sub-nanometer precision under closed loop control. Designed for single molecule microscopy, super resolution microscopy, and nanoscopy applications, the Nano-LPS incorporates the exclusive PicoQ sensor technology which ensures high stability and low noise performance. The Nano-LPS is ideal for researchers seeking to add nanometer precision to their microscopy research.
CONTACT INFORMATION
Mad City Labs, Inc.
2524 Todd Drive
Madison, WI 53713
UNITED STATES
Phone: 608 298-0855
FEATURED DOWNLOADS AND ARTICLES
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![Principles of a do-it-yourself quantum scanning microscope]( "Building A Do-It-Yourself Quantum Scanning Microscope")
A DIY quantum scanning microscope is a viable option for users who prefer to modify the experiment setup or cannot reserve adequate time on a shared instrument.
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![mad city labs]( "The Quantum Future Of Biosensing")
While practical quantum computing applications remain far away, quantum biosensing applications with real-world impact in areas like immunotherapy and diagnostics are near at hand.
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![MCL - Hancock Lab microscope]( "Clean, New, Bioenergy Sources: One Molecule At A Time")
Conversion of cellulose to bioethanol has huge potential to positively impact the global energy crisis, helping enable a shift away from fossil fuel dependency.
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![Mad City Labs - emissions]( "Improving The Sensitivity Of Multicolor Microscopy Techniques")
Single molecule fluorescence (or Förstner) resonance energy transfer (smFRET) is used to measure distances at the 1-10 nanometer scale in single molecules, typically biomolecules.
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![GettyImages-1323866956]( "Positioning At The Nanoscale (And Below): Trust In Proven Performance")
Through a deep knowledge of sensing technologies, technically adept personnel, and experience across a bevy of applications, Mad City Labs helps our customers operate smaller and more cost-effectively than any competitor.
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![MCL cc2]( "Understanding Magnetic Tweezers Use In Single Molecule Microscopy")
Magnetic tweezer experiments often seek to measure changes in the extension or relaxation of a polymer, a functionality useful, for example, in exploring how different enzymes manipulate polymer structures.
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![Mad City Labs - Ingenuity + Instrumentation]( "Ingenuity & Instrumentation: Creating A Novel 4D Microscopy Method")
A team of Duke University researchers sought to explore the viral infection process before the virus has bonded to tissue, understanding how viruses navigate the epithelial space, through mucus and the periciliary layer.
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![cc]( "Building Active Feedback Control: Methods At The Nanoscale")
Active feedback control can be accomplished in either a closed-loop or an open-loop system, using various combinations of software and hardware and depending on the demands of the experiment.
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![pos]( "Modular Motion Control")
The MMP series of micropositioners from Mad City Labs has a modular design and can be incorporated into many configurations suitable for microscopy, inspection, and imaging applications. The series is designed to be compatible with many optomechanical components and controlled via (supplied) LabView software.
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![Picture1]( "Confirming Picometer Performance Of Nanopositioning Systems")
Deciphering nanopositioner specifications across vendors can be difficult due to variations in definitions, units, and data presentation. Transparency, achievability, and verifiability are key for specifications.
