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WIKA CTB9400, CTB9500 is a genuine calibration technology engineered for demanding industrial applications. Manufactured to original WIKA quality standards. Specifications: Product Category: Calibration Technology; Product Type: Calibration baths; ...
Glorient offers competitive supply of WIKA CTB9400, CTB9500. Competitive pricing, fast quotation.
WIKA CTB9400, CTB9500 - high-precision industrial measurement instrument.
WIKA is a global market leader in pressure and temperature measurement technology. With over 75 years of experience, WIKA instruments are trusted in process industries worldwide. Glorient is a professional supplier of genuine WIKA products with competitive pricing and fast worldwide delivery.
| Product Category | Calibration Technology |
| Product Type | Calibration baths |
| Summary | Stationary version |
| Applications | Calibration applications in laboratories, control rooms and instrument test workshops; Calibration of short temperature sensors, especially in the pharmaceutical and food industries; Simultaneous calibration of multiple sensors |
| Key Features | Controller with 5.7" colour touchscreen and menu navigation in 11 different languages; 2 USB interfaces (host and slave), Ethernet and RS-232 interfaces; Accurate and reliable temperature control; 5-point calibration of the control sensor possible (optional) |
| Description | Calibration in the bath WIKA temperature-controlled oil baths are the ideal temperature source for calibrating temperature probes in workshops and laboratories. During calibration, the device under test and the reference thermometer are exposed to the same temperature in the calibration bath. Once the temperature has stabilised, the system reads the temperature of the device under test or measures its output signal, and then compares the reading with the measured value of the reference thermometer. In order to achieve a low measurement uncertainty during the comparison, a temperature-controlled unit is required that provides a homogeneous spatial temperature distribution and a constant temperature over the calibration temperature range. The calibration bath fully meets these requirements. In addition to the calibration bath itself, the bath liquid also plays an important role. To ensure a homogeneous temperature distribution, the selected liquid should have high thermal conductivity and low viscosity. Furthermore, the liquid should be inert, have a low vapour pressure, not undergo chemical decomposition, be non-flammable and retain its inherent properties over a wide temperature range. In practice, silicone oil has long been recognised for this purpose. Temperature range: -45 ... +300 °C [-49 ... +572 °F] Two versions of the calibration bath are available: CTB9400 with a temperature range of 28 ... 300 °C [82.4 ... 572 °F]; CTB9500 with a temperature range of -45 ... +200 °C [-49 ... +392 °F]. The instruments are mainly used for calibrating thermometers in calibration laboratories, control rooms and instrument test workshops. Ease of use The calibration bath has a temperature-controlled chamber with a usable depth of 200 mm [7.87"]. The maximum immersion depth of the device under test is 200 mm [7.87"], which reduces heat conduction errors and thus the measurement uncertainty. |
TRN | 1000-6A | 111.12 | 151.10, 151.12 | 230.25 | 65-120 | A46 | BLM | CPC4000 | DTG-30 | F1122 | F1818 | s FLM-TB, FLM-TH | GCx-06 | magWIK | TC10-3 | TC59-V | 300-2.75I | s 432.30, 433.30 | 700.04 | 830.1E | 910.15 | 910.32.100 | 990.18, 990.19, 990.20, 990.21 | 990.41 | A2G-500 | BV | CPP7000-X | CTD9100-375 | DA, DA10
| Product Category | Calibration Technology |
| Product Type | Calibration baths |
| Summary | Stationary version |
| Applications | Calibration applications in laboratories, control rooms and instrument test workshops; Calibration of short temperature sensors, especially in the pharmaceutical and food industries; Simultaneous calibration of multiple sensors |
| Key Features | Controller with 5.7" colour touchscreen and menu navigation in 11 different languages; 2 USB interfaces (host and slave), Ethernet and RS-232 interfaces; Accurate and reliable temperature control; 5-point calibration of the control sensor possible (optional) |
| Description | Calibration in the bath WIKA temperature-controlled oil baths are the ideal temperature source for calibrating temperature probes in workshops and laboratories. During calibration, the device under test and the reference thermometer are exposed to the same temperature in the calibration bath. Once the temperature has stabilised, the system reads the temperature of the device under test or measures its output signal, and then compares the reading with the measured value of the reference thermometer. In order to achieve a low measurement uncertainty during the comparison, a temperature-controlled unit is required that provides a homogeneous spatial temperature distribution and a constant temperature over the calibration temperature range. The calibration bath fully meets these requirements. In addition to the calibration bath itself, the bath liquid also plays an important role. To ensure a homogeneous temperature distribution, the selected liquid should have high thermal conductivity and low viscosity. Furthermore, the liquid should be inert, have a low vapour pressure, not undergo chemical decomposition, be non-flammable and retain its inherent properties over a wide temperature range. In practice, silicone oil has long been recognised for this purpose. Temperature range: -45 ... +300 °C [-49 ... +572 °F] Two versions of the calibration bath are available: CTB9400 with a temperature range of 28 ... 300 °C [82.4 ... 572 °F]; CTB9500 with a temperature range of -45 ... +200 °C [-49 ... +392 °F]. The instruments are mainly used for calibrating thermometers in calibration laboratories, control rooms and instrument test workshops. Ease of use The calibration bath has a temperature-controlled chamber with a usable depth of 200 mm [7.87"]. The maximum immersion depth of the device under test is 200 mm [7.87"], which reduces heat conduction errors and thus the measurement uncertainty. |
