Name: Fabrication of Microscope Stage for Vertical Observation with Temperature Control Function (Video) | JoVE Journal
Uploaded: 2019-07-31T14:00:00.000+00:00
Duration: 6 min 21 s
Description: Learn to fabricate a temperature-controlled microscope stage for vertical observation of biological samples. This method enables researchers to study gravity-dependent dynamics and temperature effects on sample behavior.

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The authors have no acknowledgements.

<ol><li>Drum, R. W. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/pubmed?term=((Electron+Microscope+Observations+of+Diatos%5BTitle%5D)+AND+%22Osterreichische+Botanische+Zeitschrift%22%5BJournal%5D)">Electron Microscope Observations of Diatos.</a> Osterreichische Botanische Zeitschrift. 116, 321(1969).</li>
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<li>Datyner, N. B., Gintant, G. A., Cohen, I. S. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/pubmed?term=((Versatile+Temperature+Controlled+Tissue+Bath+for+Studies+of+Isolated+Cells+using+an+Inverted+Microscope%5BTitle%5D)+AND+%22Pflugers+Archive-+Europian+Journal+of+Physiology%22%5BJournal%5D)">Versatile Temperature Controlled Tissue Bath for Studies of Isolated Cells using an Inverted Microscope.</a> Pflugers Archive- Europian Journal of Physiology. 403, 318-323 (1985).</li>
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<li>Bannon, C. C., Campbell, D. A. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/pubmed?term=((Sinking+towards+destiny%3A+High+throughput+measurement+of+phytoplankton+sinking+rates+through+time-resolved+fluorescence+plate+spectroscopy%5BTitle%5D)+AND+%22PLoS+One%22%5BJournal%5D)">Sinking towards destiny: High throughput measurement of phytoplankton sinking rates through time-resolved fluorescence plate spectroscopy.</a> PLoS One. 12, 16(2017).</li>
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</ol>

The authors have no conflicts to disclose.

Trajectory analysis of moving diatom cells is a useful approach to evaluating diatom motility. However, while a normal inverted microscope observes samples horizontally, it is not suitable for observations of the influence of gravity or floating movement in the vertical direction. Developed and described here is a vertical microscope stage with temperature control and attached to an inverted microscope, which has been rotated by 90&#176;. This microscope stage with temperature control allows observation of temperature-de...

Optical microscopy is a technique employed to increase observable details via magnification of a sample with lenses and visible light. In optical microscopy, light is directed onto a sample, then transmitted, reflected, or fluorescent light is captured by magnifying lenses for observation. Various types of microscope are available that differ in design to accommodate different uses and observation methods. The different designs include an upright microscope, which is structured to illuminate a sample from below for observation from above, and an inverted microscope, which illuminates the sample from above for observation from below. Upright microscopes are the most common and widely used design. Inverted microscopes are often used to observe samples that cannot allow a lens close in distance from above, such as cultured cells adherent to the bottom of a container. Many research groups have reported observations in a wide range of fields using inverted microscopes1,2,3,4,5,6,7. Many additional devices have also been developed that take advantage of the features of inverted microscopes8,9,10,11,12,13.
Currently, in all conventional microscope designs, the microscope stage is horizontal and is therefore unsuitable for the observation of samples producing movement in the vertical plane, (due to gravity, buoyancy, motion, etc.). To make these observations possible, the microscope stage and light path must be rotated to vertical. The vertical stage is required to vertically mount glass slides or sample containers such as a Petri dishes to the stage. To address this, a sideways inverted microscope tilted by 90&#176; has already been devised. However, attaching samples with tape or other adhesives does not yield the necessary long-term immobility. Described here is a device that can achieve the necessary stability. This device permits observation over time of sample movement in the vertical plane. Mounting of a silicon rubber heater has also made it possible to observe the influence of temperature variation on sample behavior. Temperature data is transferred to an internet server by Wi-Fi, and temperature settings and log monitoring can be controlled remotely from a PC or smartphone. To our knowledge, the stage attached to a sideways tilted microscope tilted by 90&#176; has not yet been reported in previous studies.
The microscope stage is composed of three aluminum plates. The middle aluminum plate is mounted to the lower aluminum plate that attaches to the stage. The silicone rubber containing the temperature sensor is attached between the middle and upper aluminum plates. Rubber bands are used to affix the sample. Claws are attached in the left and right four points of the upper aluminum plate to secure the rubber bands. The control circuit of the temperature regulator receives a signal from the temperature sensor embedded in silicone rubber and modulates electric power by the pulse width modulation (PWM) method. The temperature can be gradually increased to 50 &#176;C in 1 &#176;C increments. This device is useful for applications in which vertical sample motions may be temperature-dependent.
This report provides examples of temperature effects on the floating phenomenon of diatoms. As examples of diatom observation studies, measurements of sedimentation velocity of cell clusters, motion analyses, ultrafine structure studies, etc. have been reported14,15,16,17,18,19,20,21,22,23. The specific gravity of diatoms floating in water with photosynthetic organisms is slightly higher than that of water, so they tend to sink; however, they will rise if even slight convection is occurring. To study this phenomenon, a glass slide is affixed vertically to a microscope stage, and the effects of increasing temperature on diatom vertical motion are observed.

<table><tbody><tr><td>AC adapter 12V2A</td><td>Akizuki Denshi Tsusho Co., Ltd.</td><td>AD-D120P200</td><td>Tokyo, Japan</td></tr><tr><td>ADS1015 Substrate</td><td>Akizuki Denshi Tsusho Co., Ltd.</td><td>adafruit PRODUCT ID: 1083</td><td>Tokyo, Japan</td></tr><tr><td>Alminium Plate (Back Side Plate)</td><td>Inoval Co., Ltd.</td><td>W 150mm&amp;times;L 200?&amp;times;T 1.5mm</td><td>Gifu, Japan</td></tr><tr><td>Alminium Plate (Forefront Plate)</td><td>Inoval Co., Ltd.</td><td>W 150mm&amp;times;L 200?&amp;times;T 2mm</td><td>Gifu, Japan</td></tr><tr><td>Alminium Plate (Middle Lower Plate)</td><td>Inoval Co., Ltd.</td><td>W 150mm&amp;times;L 200?&amp;times;T 4mm</td><td>Gifu, Japan</td></tr><tr><td>Alminium Plate (Middle Upper Plate)</td><td>Inoval Co., Ltd.</td><td>W 150mm&amp;times;L 200?&amp;times;T 5mm</td><td>Gifu, Japan</td></tr><tr><td>Aluminum Pedestal (Lower Plate)</td><td>Inoval Co., Ltd.</td><td>D 100mm&amp;times;T 3mm (30&amp;Phi;)</td><td>Gifu, Japan</td></tr><tr><td>Aluminum Pedestal (Upper Plate)</td><td>Inoval Co., Ltd.</td><td>D 100mm&amp;times;T 3mm (30&amp;Phi;)</td><td>Gifu, Japan</td></tr><tr><td>Bold Modified Basal Freshwater Nutrient Solution</td><td>Sigma-Aldrich Co. LLC</td><td>B5282-500ML</td><td>St. Louis, USA</td></tr><tr><td>Controller Case</td><td>Marutsu Elec Co., Ltd.</td><td>pff-13-3-9</td><td>Tokyo, Japan</td></tr><tr><td>CPU</td><td>Akizuki Denshi Tsusho Co., Ltd.</td><td>ESP-WROOM-02D</td><td>Tokyo, Japan</td></tr><tr><td>Inverted microscope</td><td>Olympus Corporation</td><td>CKX 53</td><td>Tokyo, Japan</td></tr><tr><td>Low temperature hardening epoxy resin adhesive</td><td>ThreeBond Co., Ltd.</td><td>TB2086M</td><td>Tokyo, Japan</td></tr><tr><td>Multi-turn semi-fixed volume Vertical type 500 &amp;Omega;</td><td>Akizuki Denshi Tsusho Co., Ltd.</td><td>3296W-1-501LF</td><td>Tokyo, Japan</td></tr><tr><td>OLED module</td><td>Akihabara Inc.</td><td>M096P4W</td><td>Tokyo, Japan</td></tr><tr><td>Pressed Cork (For supporting electrode )</td><td>Tera Co., Ltd.</td><td>W 42mm&amp;times;L 30?</td><td>Ishikawa, Japan</td></tr><tr><td>Pressed Cork (Lower Disk)</td><td>Tera Co., Ltd.</td><td>D 100mm&amp;times;T 0.5mm (20&amp;Phi;)</td><td>Ishikawa, Japan</td></tr><tr><td>Pressed Cork (Upper Disk)</td><td>Tera Co., Ltd.</td><td>D 100mm&amp;times;T 2.5mm (20&amp;Phi;)</td><td>Ishikawa, Japan</td></tr><tr><td>Rotary encoder with switch with 2 color LED</td><td>Akizuki Denshi Tsusho Co., Ltd.</td><td>P-05772</td><td>Tokyo, Japan</td></tr><tr><td>Silicone rubber heater</td><td>Three High Co., Ltd.</td><td>D 100mm&amp;times;T 2.5mm (20&amp;Phi;)</td><td>Kanagawa, Japan</td></tr><tr><td>Substrate</td><td>Seeed Technology Co., Ltd.</td><td>mh5.0</td><td>Shenzhen, China</td></tr><tr><td>Temperature sensor</td><td>Akizuki Denshi Tsusho Co., Ltd.</td><td>NXFT15XH103FA2B050</td><td>Tokyo, Japan</td></tr><tr><td>Three-terminal DC / DC regulator 3.3 V</td><td>Marutsu Elec Co., Ltd.</td><td>BR301</td><td>Tokyo, Japan</td></tr><tr><td>Universal Flexible Arm</td><td>Banggood Technology Co., Ltd.</td><td>YP-003-2</td><td>Hong Kong, China</td></tr><tr><td>USB cable USB-A - MicroUSB</td><td>Akizuki Denshi Tsusho Co., Ltd.</td><td>USB CABLE A-MICROB</td><td>Tokyo, Japan</td></tr><tr><td>Video Canera</td><td>Sony Corporation</td><td>HDR-CX590</td><td>Tokyo, Japan</td></tr></tbody></table>

fabrication of microscope stage for vertical observation with temperature control function

Fabrication of Microscope Stage for Vertical Observation with Temperature Control Function

Samples are usually placed onto a horizontal microscope stage for microscopic observation. However, to observe the influence of gravity on a sample or study afloat behavior, it is necessary to make the microscope stage vertical. To accomplish this, a sideways inverted microscope tilted by 90&#176; has been devised. To observe samples with this microscope, sample containers such as Petri dishes or glass slides must be secured to the stage vertically. A device that can secure sample containers in place on a vertical microscope stage has been developed and is described here. Attachment of this device to the stage allows observation of sample dynamics in the vertical plane. The ability to regulate temperature using a silicone rubber heater also permits observation of temperature-dependent sample behaviors. Furthermore, the temperature data is transferred to an internet server. Temperature settings and log monitoring can be controlled remotely from a PC or smartphone.

Figure 2 shows the temperature distribution of the rubber heater. The surface temperature of the rubber heater was uniform at each temperature. Figure 3 shows the responsiveness of the measured temperature to set temperature changes. The orange line shows the set temperature and blue line shows the change of the sample temperature. The overshoot of the measured value to the setting change is small and the tracking is quick.
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Presented here is a protocol using a temperature-controlled microscope stage that allows a sample container to be mounted on a vertical microscope.

Samples are usually placed onto a horizontal microscope stage for microscopic observation. However, to observe the influence of gravity on a sample or ...

fabrication-microscope-stage-for-vertical-observation-with

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Learn to fabricate a temperature-controlled microscope stage for vertical observation of biological samples. This method enables researchers to study gravity-dependent dynamics and temperature effects on sample behavior.

Fabrication of Microscope Stage for Vertical Observation with Temperature Control Function

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