IO0111 OVEN, VACUUM DRYING, 'VACUCELL' WITH 'EVO' CONTROLLER

The VACUCELL® is designed for drying of materials, parts and samples
up to constant weight with the option of a vacuum or with a protective atmosphere of inert gas.

The VACUCELL® line is noise-free and  incorporates a fine heating control. It also
offers even and safe drying of oxidation-sensitive or powder materials in laboratories, as well as irregular shaped products.


The Vacucell has an excellent temperature regulation control and together with an efficient vacuum system makes it ideal for demanding and precice tests and processes.



The Vacucell is also available with a "Vacustation" base with or without a vacuum pump.

Vaccell-EVO-range

APPLICATIONS

MMM Ovens - _0009_Layer 1
Pharmaceutical Industry

Drying of primary materials and
finished products without air access.

MMM Ovens - _0008_Layer 2
Cosmetic Industry

Extraction of scent concentrates
for perfumes production

MMM Ovens - _0007_Layer 3
Redevelopment Technologies

Low-temperature drying of devices
and electronic components, archive
paper prints after natural disasters
(like floods, fire extinguishing with water).

MMM Ovens - _0006_Layer 4

Aerospace Industry

Fine drying of precise components
of titan and duralumin after
washing, before assemblage
in clean premises, drying of rocket
fuels components without oxygen
access.

MMM Ovens - _0005_Layer 5

Electronic Industry

Low-temperature drying of
electronics boards at 80°C.

MMM Ovens - _0004_Layer 6
Manufacture of Health Products

and Sanitary Means
Testing of contact lens,
low-temperature drying of primary
materials for implants.

MMM Ovens - _0003_Layer 7
Plastic Processing Industry

PET analyses, nano-compounds
obtaining.

MMM Ovens - _0002_Layer 8
Chemical Industry

Fine drying of labile compounds
without oxygen access

MMM Ovens - _0001_Layer 9

Tobacco Industry

Drying of tobacco samples in
quality control laboratories.

MMM Ovens - _0000_Layer 11
Petrochemical Industry

Division of hydrocarbons, drying
of temperature – instable
resins and solvents under lower
temperatures in vacuum.

TECHNICAL DATA

Internal space - chamber, stainless steel
DIN 1.4301 (AISI 316 Ti)
volumeL2255111
widthmm340400540
depthmm260320410
heightmm300430480
External dimensions
(including door and handle, feet)
widthmax. mm560620760
depthmax. mm500560650
heightmax. mm780910960
Package – dimensions
(three-layer carton)
widthmm510990990
depthmm690830830
height (inc palette)mm87013001300
Weightnettkg68101133
bruttkg91186218
ShelvesShelvesMax No578
standard equipmentpc222
minimal distance between screensmm404747
storage areamm280×236340×296480×386
Maximal loadfor a shelfkg202525
inside the device - in totalkg354565
Number of outer metal doorspc111
Electric datamax powerW80012001800
Protective systemIP20IP20IP20
Working temperaturefrom 5°C above ambient temperatureto°C250250250
Temp. deviations acc. to DIN 12 880 from working temperature (Al racks, pressure 5-10 mbar) **)in space at 100°C± °C223
in space at 200°C± °C567
in time± °C0,40,40,4
Temp. deviations acc. to DIN 12 880 from working temperature (stainless racks, pressure 5-10 mbar) **)in space at 100°C± °C101011
in space at 200°C± °C1823*
in time± °C0,511
Time of rise onto 98% voltage 230 V –Al racks, pressure 5-10 mbaronto temp. 100°Cmin6065110
onto temp. 200°Cmin8086130
Time of rise onto 98% voltage 230 V – stainlessonto temp. 100°Cmin130140170
onto temp. 200°Cmin170180220
Heat emissionat 100°CW150260370
at 200°CW300520750
Vacuum connectionvacuum connectorDN mm (KF)161616
max. attainable vacuummbar<5·10-4<5·10-4<5·10-4
max. attainable vacuummbar5.10-45.10-45.10-4
chamber leakagembar.I.s-1<5.10-3<5.10-3<5.10-3
Measuring access portDN mm (KF)404040
Connection (including hose terminal ∅ 12 mm)
for inert gas or air
DN mm (KF)
16
16
16
 

Note: All technical data are related to 22°C ambient temperature and ± 10% voltage swing (if not specified). *) Not measured **) Heat transport to sample in shelves under vacuum is performed through shelves leads; that is why the above stated temperature variations apply to temperatures on shelves surfaces; the measuring sensors must be in perfect heat-conductive contact with the shelf surface. Samples placed on shelves must also be in perfect contact with shelves, the temperature of samples depends mainly on their physical characteristics and on contact with the shelf. The values may differ depending on specific charge and media parameters. Change in the design and make reserved.

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