What to do if Kojair Biowizard Platinum SF control system alarms for low air flow velocity?
If the Kojair Laboratory Equipment control system alarms for low air flow velocity, you should check that grids on the workspace are not clogged. Also, ensure that a Bunsen burner is not used on the same side as the sensors inside the chamber (normally on the right side), as the flame can immediately trigger an alarm.
What to do if my Kojair Biowizard Platinum SF alarm goes on, lights won’t go on and the fan is out of order?
If the alarm is activated, the lights won't turn on, and the fan isn't working on your Kojair Laboratory Equipment, verify that the power cable is properly connected both to the outlet and to the cabinet socket located on top of the cabinet. Also, check the user interface to ensure that the cabinet’s mode is set to normal.
What to do if Kojair Biowizard Platinum SF Laboratory Equipment outlet is currentless?
If the outlet of your Kojair Laboratory Equipment is currentless, check if the fault current has tripped; the switch is located on the electrical box under the front panel. If the outlet is an accessory, ensure that the current supply is connected with a separate cable to the outlet behind the cabinet, placed on the installation channel.
What to do if Kojair Biowizard Platinum SF control system alarms for low inflow air velocity?
If the Kojair Laboratory Equipment control system alarms for low inflow air velocity, verify that laboratory conditions meet the requirements. If the device is connected to an exhaust duct, confirm that the limit values set by the manufacturer correspond to the exhaust air values.
What to do if Kojair Biowizard Platinum SF Laboratory Equipment alarm goes on but no failure is found?
If the alarm goes on for your Kojair Laboratory Equipment, but no failure is found, check that the front window is at the height of the work opening.
Why is the air flow velocity not stable in Kojair Biowizard Platinum SF?
To stabilize the airflow velocity in your Kojair Laboratory Equipment, ensure that cool air is not entering the cabinet through the front opening.
Procedures for measuring airflow rates using different methods like hotwire anemometer and balometer.
Detailed procedure for measuring downflow velocity using a hotwire anemometer.
Criteria for acceptable downflow velocity measurements for product protection.
Detailed procedure for measuring inflow velocity using a balometer.
Criteria for acceptable inflow air velocity at the front aperture.
Procedure for testing the integrity and seal of HEPA filters using aerosol.
Specific steps for performing aerosol challenge tests on SF, MF, and CW-V cabinets.
Procedure for accessing and testing exhaust filters.
Specific steps for performing aerosol challenge tests on XL cabinets.
Procedure for decontaminating the safety cabinet using hydrogen peroxide.
General guidelines and procedures for replacing cabinet filters.
Procedure for replacing the main control board and restoring system functions.
Steps for updating the core processor firmware using programming tools.
Procedure for updating the Biocontrol software on the display interface.
Steps for updating the Biocontro i software component.
Procedure for updating the main operating software version.
General| Category | Laboratory Equipment |
|---|---|
| Type | Biological Safety Cabinet |
| Class | Class II |
| Inflow Velocity | 0.45 m/s |
| Lighting | Fluorescent |
| Material | Stainless Steel |
| UV Lamp | Optional |
| Certification | EN 12469 |
| Filtration | HEPA |
| Noise Level | ≤65 dB |
| Weight | 250 kg |
| Power Supply | 230V, 50Hz |
| Power Consumption | 600 W |
| Filter Efficiency | 99.995% @ 0.3μm |
| Construction Material | Stainless Steel |
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