Nikon Live Cell 2 Manual de usuario

Live Cell 2 guide

NIKON IMAGING CENTRE @ KING’S COLLEGE LONDON

King’s College London

Nikon

Imaging Centre

Nikon Imaging Centre @ King’s College London

Start-up

1. Switch on the numbered components in order and refer to figures 5-10 for details of the controls.

2. Using the joystick, move the stage (fig. 9) so that the objective is centrally positioned. The speed of the XY-

stage can be varied via the XY button above the joystick. A focus wheel can be found on the side of the joystick

unit and the speed of focussing can be changed by pressing Zbutton on the microscope or joystick. The speed

of movement is indicated on the joystick display panel - ^ denoting slow movement.

3. Objective Lenses on the live cell system are 4x, 10x, 20x and 40x dry objectives. Check the correction collar is

set to 0.17 on the 20x and 40x objective lenses for imaging through standard #1.5 coverglass; the collar can

be adjusted for thicker samples. 60x and 100x objectives can be added to the system but are not permanently

installed.

Nikon

Imaging Centre

King’s College London

Nikon

Imaging Centre

King’s College London

Nikon

Imaging Centre

King’s College London

Fig. 1

sCMOS

(monochrome)

camera

Colour

camera

Fig. 2

Fig. 3

Do not

switch off

Fig. 4

Microscope

Switch

Nikon Imaging Centre @ King’s College London

Nikon

Imaging Centre

King’s College London

Objective

selector

Light path

Fig. 5

Intensity

dial

Transmitted

light on/off

Condenser

element

selector

Fig. 6

Fig. 7

Epi-fluorescence

shutter

Epi-fluorescence

filter turret

Fig. 8

PFS

on/off

z-speed

Nikon Imaging Centre @ King’s College London

Incubation Chamber Control

Temperature and CO2control is facilitated through the external Oko-lab Touch controller (Fig. 11) which in turn allows

for monitoring of the incubator status.

1. The home screen shows a readout of the current temperature and CO2concentration (Fig. 12), the coloured

status indicator shows green when the settings are within the normal limits but will change to yellow if the

temperature/CO2concentration drops too low for a significant amount of time. This yellow indicator is

accompanied by an audible alarm which can be silenced by pressing the alarm indicator on the touch screen.

2. Selecting temperature or CO2opens a second window where the set point can be adjusted (Fig. 13) The values

can be changed using the +/- buttons. Confirm the settings by pressing set.

3. For CO2, the valve on the tank needs to be adjusted to ensure that it is entering the system correctly: open the

top valve on the CO2bottle (anticlockwise), then turn the regulator knob (clockwise) to achieve a pressure of

0.3 bar.

Nikon

Imaging Centre

King’s College London

Nikon

Imaging Centre

King’s College London

Fig. 10

Fig. 1

Fig. 9

4-way display selector

(access to x,y,z

information)

XY speed

PFS on/off

z-speed

LED lamp

switch

Lamp

intensity

controls

Fig. 10

Nikon Imaging Centre @ King’s College London

Fig. 11

Fig. 12

Nikon

Imaging Centre

King’s College London

Fig. 13

Press to set CO2

concentration

Nikon Imaging Centre @ King’s College London

Adjusting Kӧhler illumination (Transmitted light)

For transmitted light imaging it is essential to optimise the condenser alignment to ensure that the full numerical

aperture of the microscope system can be realised (to provide an even illumination of the sample). It is therefore

important to ensure that the light passes through the condenser optimally to allow for high quality imaging.

N.B. Kӧhler Illumination adjustment should only be conducted through the eyepiece.

1. Through the eyepiece, focus on your. Fully close the field iris by turning it anticlockwise. (Fig. 14)

2. Using the adjustment knob, move the condenser whilst looking through the eyepiece until you see the

octagonal field iris. Turning the knob towards you to bring the condenser lens close to the sample. Adjust the

condenser focus so that the outline of the field iris is sharp and in focus. (Fig. 15)

3. If required, centre the field iris in the eyepiece using the adjustment screws on the condenser unit.

4. Once centred, open the field iris again so that the field iris edges are just outside of the field of view.

Nikon

Imaging Centre

King’s College London

Field stop iris

diaphragm

Alignment screws (use

allen key if centering

required)

Condenser

focus

Fig. 13

Condenser

lens

Nikon Imaging Centre @ King’s College London

Viewing your sample through the eyepiece:

The light-path and filter settings are stored in Elements using so-called optical

configurations. These are accessed via the OC Panel (Fig.16). The optical

configurations are grouped into categories to control viewing through the eye

port, viewing with the DS-Qi2 (sCMOS) camera (used for epi-fluorescence and

transmitted light imaging) and with the colour DS-U3 camera (e.g. for

histological stainings).

To view your sample through the eye-port, select one of the configurations

from the ‘eyes’ group of configurations. These configurations:

1. Set the light path to EYE

2. Set the filter in the turret to that relevant to the dye being used.

3. Make sure that the fluorescence lamp is turned on and use the

microscope base for control of the fluorescence shutter.

4. Transmitted light imaging can be achieved using the relevant OC and

using the lamp on/off but on the left hand side of the microscope;

intensity can be adjusted using the dial. For transmitted light imaging

you can select from a number of configurations: phase imaging 1 for

objectives up to 20X, phase imaging 2 for the 40X, DIC for 60X and

100X and open for standard brightfield.

Nikon

Imaging Centre

King’s College London

Fig. 15

Fig. 16

Nikon Imaging Centre @ King’s College London

Image Acquisition

As with the settings for viewing the sample through the eye-port, optical

configurations are employed to make changes to the selected filters and the

light path. Further to this, the optical configurations also save the detector

settings which may vary between configurations on multichannel samples.

When starting Elements software the correct camera driver needs to be

selected (note that it is possible to select both). After logging in it is possible to

select the required driver from the dropdown menu: Nikon DS-Qi2 for

brightfield/fluorescence imaging, Nikon DS-U3 for colour imaging (e.g.

histological stainings). (Fig. 17)

Acquiring a colour image –DS-U3 camera.

1. Select the colour camera BF optical configuration from the OC

Panel (Fig. 16 )

2. Focus on the sample and adjust the detector settings so that you

can see the surface.

3. Set the transmitted light to 100%.

4. Move to a blank region of the sample (Fig.19) and select Auto

White in the DS-Fi2 setting window (Fig. 18). This will ensure that

your images have the correct white balance (Fig.20).

5. Move back to your sample to image it with the correct colour

representation. If your Kohler illumination is set correctly

acquisition time for the detector should be <100ms and the gain

should be <10x. Ensure that high quality capture is selected for

your images. (It can be useful to use the Auto Exposure option to

set the exposure time.)

6. Click the capture button or run relevant ND acquisition.

Nikon

Imaging Centre

King’s College London

Fig. 17

Fig. 18

Fig. 19

Fig. 20

Nikon Imaging Centre @ King’s College London

Nikon

Imaging Centre

King’s College London

Channel Settings

1. Select the optical configuration for transmitted light or the fluorescent marker that you want to optimise

settings for (this needs to be done for all channels).

2. Set camera settings to around 100ms exposure and 2X gain then begin live mode.

3. Optimise the exposure settings, keeping the exposure time below 1 second and adjusting the gain so that the

sample is visible and that the background contribution isn’t too high. Ensure that there are no oversaturated

pixels in the image. Oversaturation is indicated through the presence of a dot in the top right-hand side of the

histogram (indicating pixels with 65535 value) or through the saturation indicator (Fig.20). Note that the DS-

Qi2 camera is a low noise sCMOS camera and therefore it is not necessary to use the full 16bit range, especially

if these means setting a very long exposure time.

4. The PE-pad can be used to adjust the intensity of the LED lamp. This defaults to 100% but can be reduced if

the sample is prone to photobleaching or phototoxicity.

5. The camera used for fluorescence imaging has two resolution options which vary the number of pixels in the

image. This can be changed with the channel settings however if a multicolour image is being acquired the

resolution needs to be the same for every optical configuration. Note –higher resolution images will lead to

much larger file sizes.

6. Press capture to take a single channel image. Note - Single channel images are not automatically saved and

will require saving as ND2 or TIFF files.

7. Multichannel acquisition requires the use of the ND acquisition panel. Select the tab and add the number

of channels you require. For each channel select the optical configuration from the drop-down list, ordered so

that the configurations go from longest wavelength to shortest. Press Run Now acquire the multichannel

image.

Live

Capture

Fig. 21

Fig. 22

Fig. 23

Saturation indicator

Mouse x/y

Nikon Imaging Centre @ King’s College London

Multi-dimensional acquisitions

For timelapse, large images, Z-stacks and multipoint imaging, the ND acquisition window is used. This allows files to

be saved whilst image acquisition is running.

Timelapse imaging

1. For timelapse imaging, select the Time tab in ND

acquisition and add a time point into the ND

acquisition menu.

2. Set a frame interval and duration that are

suitable for your samples. From the drop-down

menu in each of these sections the time units can

be adjusted from msec to hours. The interval can

be set to ‘no delay’ which will begin a time loop

immediately after the previous. On the duration

box, the time can also be set to continuous which

will require the user to stop the acquisition after

the desired period.

3. Other ND acquisition modes can be added to the

timelapse (e.g. z-stacks, multipoints) which when

checked and set up in the ND acquisition window

are added to the image sequence. NOTE –

multidimensional parameters will affect the

achievable frame interval of the timelapse.

Clicking ‘timing’ will allow you to see if the

interval is set at an achievable rate.

4. To begin the time lapse image press ‘Run Now’

Multi-points

1. To image multi-points, select the XY menu in ND

acquisition.

2. To add image coordinates click add and click the

arrow point at the coordinates to capture them.

Check the include z box to allow capture of z in

the same way (if PFS is used this can also be set

in the same way).

3. The arrows, shown in red boxes in Fig. 25, are

used to update stored positions.

Nikon

Imaging Centre

King’s College London

Fig. 24

Fig. 25

Tabla de contenidos

Otros manuales de Microscopio de Nikon

Nikon

Nikon A1+ Manual de usuario

Nikon

Nikon SMZ1000 Manual de usuario

Nikon

Nikon ECLIPSE E200 POL Manual de usuario

Nikon

Nikon Eclipse E400 Manual de usuario

Nikon

Nikon Epiphot 300 Manual de usuario

Nikon

Nikon SMZ-2 Manual de usuario

Nikon

Nikon ECLIPSE Ei Manual de usuario

Nikon

Nikon SMZ-1 Manual de usuario

Nikon

Nikon eclipse Ci-S Manual de usuario

Nikon

Nikon Eclipse TS100 Manual de usuario

Nikon

Nikon L-ke Manual de usuario

Nikon

Nikon SMZ800N Manual de usuario

Nikon

Nikon Labophot Manual de usuario

Nikon

Nikon Eclipse 800 Manual de usuario

Nikon

Nikon eclipse Ti-U/B Manual de usuario

Nikon

Nikon LABOPHC-POL Manual de usuario

Nikon

Nikon LABOPHOT-POL Manual de usuario

Nikon

Nikon SMZ25 Manual de usuario

Nikon

Nikon eclipse fn1 Manual de usuario

Nikon

Nikon ECLIPSE Si Manual de usuario

Nikon

Nikon Eclipse E1000M Manual de usuario

Nikon

Nikon SMZ1500 Manual de usuario

Nikon

Nikon SMZ645 Manual de usuario

Nikon

Nikon YS100 Manual de usuario

Manuales populares de Microscopio de otras marcas

Thermo Scientific

Thermo Scientific Nicolet iN10 Guía

National

National DC3-163 Manual de usuario

KERN Optics

KERN Optics OPE-1 Manual de usuario

OPTIKA MICROSCOPES

OPTIKA MICROSCOPES B-150D Manual de usuario

Prior

Prior Lux POL Manual de usuario

Opitec

Opitec Smartscoop 115615 Manual de usuario

KERN

KERN OPO-1 Manual de usuario

Topcon

Topcon SP-1P Manual de usuario

Motic

Motic PA43 Manual de usuario

Leica

Leica DVM5000 Guía del usuario

MshOt

MshOt MZ62 Manual de usuario

KERN Optics

KERN Optics OZR-5 Manual de usuario

VWR

VWR VisiScope 384 Series Manual de usuario

Leica

Leica DI C800 Manual

ThermoFisher Scientific

ThermoFisher Scientific Continuµm Manual de usuario

ThermoFisher Scientific

ThermoFisher Scientific Continuµm Manual de usuario

Olympus

Olympus SZ61 Manual de usuario

Leica

Leica FL560 Manual de usuario