Micro Manipulator
Micro Manipulator - Related Videos
09:29
Utilization of Plasmonic and Photonic Crystal Nanostructures for Enhanced Micro- and Nanoparticle Manipulation
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2011
Plasmonic tweezers and photonic crystal nanostructures are shown to produce useful enhancements in the efficiency and orientation control of optically trapping micro- and nano-particles.
13:27
Osteopathic Manipulative Treatment as a Useful Adjunctive Tool for Pneumonia
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Cited by 50 •
2014
Pneumonia is one of the top ten leading causes of death in the U.S. Osteopathic manipulative techniques (OMT) may be utilized as an adjunctive therapy in the treatment of pneumonia to enhance biomechanical and immune function; and ultimately, to reduce hospital stay, duration of antibiotics, incidence of respiratory failure, and mortality. In this video-article, we will review randomized controlled studies on the use of OMT in pneumonia patients, as well as demonstrate specific hands-on...
10:02
Mechanical Manipulation of Neurons to Control Axonal Development
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Cited by 10 •
2011
Application and direct measurements of forces on neurons in the 2-1000 microdyne range are achieved with high precision using calibrated glass needles. This methodology can be used to control and measure several aspects of axonal development, including axonal initiation, axonal tension, velocity of axonal elongation, and force vectors.
08:18
Visualizing Motion Patterns in Acupuncture Manipulation
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Cited by 6 •
2016
Here, we present a protocol for using the Acupuncture Manipulation Education System (AMES) in the training of acupuncture manipulation skills using phantom acupoints.
05:08
Manipulating an Independent Variable through Embodiment
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2023
Source: Laboratories of Gary Lewandowski, Dave Strohmetz, and Natalie Ciarocco—Monmouth University In any experiment, the researcher attempts to manipulate participants in one group to have different thoughts, experiences, or feelings than the other groups in the study. Some manipulations are overt, while others can be quite subtle. Embodiment is a growing research area focused on the theory that subtle physical experiences can unconsciously influence a person’s thoughts. For example if a...
FAQs
Precision comes from converting the operator’s control input into very small movements of a mounted tool. In a micromanipulator, that movement can be directed along multiple axes, allowing the researcher to approach a microscopic target rather than relying on unrestricted hand motion. This controlled translation supports repeatable positioning and helps make single-cell procedures more reliable.
Multiple-axis movement matters because microscopic tasks often require more than a single straight displacement. Separate directional adjustments let the mounted instrument be positioned relative to an observed cell or other object, while fine adjustment supports delicate contact or penetration. The result is greater control over where an intervention occurs and limited disturbance to the cell.
Mechanical and motorized micromanipulators differ in how operator input reaches the tool. A mechanical system transmits control through physical components, whereas a motorized system uses a motorized control system to produce the movement. Both serve the same experimental need: precise positioning under microscopic observation. The distinction concerns the movement mechanism, not the biological target.
A glass micropipette can serve as the mounted tool directed toward a selected microscopic object. Fine movement allows its tip to approach or penetrate a cell membrane with limited disturbance, making controlled handling possible at the single-cell level. This combination is particularly relevant when the experiment requires microinjection, cell transfer, or targeted sampling.
Under microscope viewing, the researcher mounts a tool such as a glass micropipette, observes the microscopic target, and uses the control system to move the tool in small increments. Multiple-axis positioning brings the tool into the required relationship with the object; fine adjustment then supports the intended intervention. This workflow links visual guidance with controlled physical manipulation.
Applications include microinjection, cell transfer, embryo handling, and targeted sampling. In each case, the instrument helps translate a deliberate movement into controlled manipulation of a microscopic object. These capabilities are valuable in cell biology, developmental research, reproductive science, and electrophysiology, where work may need to be performed on individual cells or other very small biological targets.
By constraining movement to small, controllable adjustments, the instrument reduces dependence on hand steadiness alone. Researchers can position a tool more consistently while viewing the target through the microscope, which supports repeatable handling and interventions. That reproducibility is important for comparing results across procedures involving microinjection, cell transfer, embryo handling, or targeted sampling.
In electrophysiology, precise tool positioning matters because the work can involve targeted manipulation or sampling at the cellular scale. A micromanipulator supplies controlled movement while the researcher watches through a microscope, helping place the mounted tool where the experiment requires. Its value in this context comes from combining visual observation, fine adjustment, and single-cell control.