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The Magneto Optical Cryostat is a state-of-the-art scientific instrument designed to facilitate advanced research in the field of quantum materials. It offers exceptional temperature stability, high magnetic field capabilities, and precise optical access, making it an ideal choice for studies requiring controlled cryogenic environments combined with magnetic field manipulation. This cryostat is engineered to meet the demanding needs of researchers investigating the fundamental properties and behaviors of quantum materials under extreme conditions.
One of the standout features of this Magneto Optical Cryostat is its remarkable temperature stability. For temperatures at or below 20 K, it maintains an impressive stability of ±0.2%, ensuring that experimental conditions remain consistent and reliable throughout the duration of sensitive measurements. For temperatures above 20 K, the device offers even greater precision with a stability of ±0.02%. This level of control is crucial for experiments involving quantum materials, where minute temperature fluctuations can significantly impact the observed phenomena.
Vibration control is another critical aspect of this cryostat's design. The sample stage vibration is limited to ≤±20 nm, minimizing mechanical disturbances that could otherwise compromise the integrity of high-precision optical and magnetic measurements. This low vibration environment supports high-resolution data acquisition and enhances the reproducibility of experimental results.
The sample space within the cryostat is generously sized, featuring an 89 mm diameter and an 88 mm height. This ample volume accommodates a variety of sample sizes and experimental setups, providing researchers with the flexibility required to explore diverse quantum materials and complex experimental configurations. The spacious sample chamber also facilitates the integration of additional instrumentation and measurement devices as needed.
Central to the cryostat's functionality is its conical split-coil superconducting magnet, oriented vertically to deliver a high magnetic field with exceptional uniformity and stability. The magnet produces a field strength of ±1 T with a uniformity of ±0.3% within a 3 cm spherical area, ensuring consistent magnetic conditions throughout the sample region. The magnetic field variation speed is calibrated to reach 0.7 T in under 30 minutes, allowing for efficient adjustment of experimental parameters without compromising stability. This high magnetic field capability is indispensable for probing the magnetic and electronic properties of quantum materials, enabling researchers to uncover new insights into their behavior under strong magnetic influences.
Optical access is facilitated by a carefully designed arrangement of optical windows. The cryostat features one top window with a diameter of 50 mm and a clear aperture of 44 mm, along with seven side windows each measuring 40 mm in diameter with a clear aperture of 26 mm. These windows provide extensive optical pathways for laser beams, spectroscopy, and other optical measurement techniques crucial for examining quantum materials. The large and clear apertures ensure minimal optical distortion and maximum transmission, thereby enhancing the accuracy of optical experiments conducted within the cryogenic and high magnetic field environment.
In summary, the Magneto Optical Cryostat combines superior temperature stability, minimal vibration, a spacious sample chamber, and a high magnetic field generated by a conical split-coil superconducting magnet with excellent uniformity. Coupled with multiple high-quality optical windows, it provides a versatile and robust platform for advanced research into the properties of quantum materials. This instrument is particularly suited for scientists seeking to explore the interplay between temperature, magnetic fields, and optical properties in quantum systems, making it an invaluable tool for pushing the frontiers of condensed matter physics and material science.
| Magnetic Field | Conical Split-coil Superconducting Magnet, Vertical Direction, ±1 T Strength, ±0.3% Uniformity; 3 cm Spherical Area, Field Variation Speed 0.7 T ≤30 Minutes |
| Optical Windows | 1 Top Window (50 mm Diameter, 44 mm Clear Aperture), 7 Side Windows (40 mm Diameter, 26 mm Clear Aperture) |
| Electrical Channels | 16 DC Lines, 4 20 GHz RF Lines, Up To 80 Cables Supported |
| Sample Space | 89 mm Diameter, 88 mm Height |
| Temperature Range | 1.7 K - 350 K |
| Vibration | Sample Stage Vibration ≤±20 Nm |
| Temperature Stability | ±0.2% For Temperatures ≤20 K; ±0.02% For Temperatures >20 K |
| Optical Viewing Angle | Top Window 70° Full Viewing Angle, Side Windows 13° Full Viewing Angle |
The Truth Instruments MO Cryo, a state-of-the-art Magneto Optical Cryostat, is designed to meet the demanding needs of advanced scientific research and industrial applications. Originating from China, this MO-Cryostat offers exceptional performance with a temperature range spanning from 1.7 K to 350 K, making it ideal for experiments requiring precise thermal control. Its outstanding temperature stability—±0.2% for temperatures ≤20 K and ±0.02% for temperatures >20 K—ensures highly reliable and reproducible results, essential for sensitive measurements.
One of the primary application occasions for the MO Cryo is in Raman spectroscopy cryostat setups. The device’s large sample space, with an 89 mm diameter and 88 mm height, accommodates a wide variety of sample sizes and configurations, facilitating the study of material properties under varying temperature conditions. The inclusion of multiple optical windows—one top window with a 50 mm diameter (44 mm clear aperture) and seven side windows each with 40 mm diameter (26 mm clear aperture)—provides versatile optical access for laser excitation and signal collection, crucial for high-resolution Raman spectroscopy and other optical characterization techniques.
The vibration control of the sample stage, maintained at ≤±20 Nm, minimizes mechanical disturbances during measurement, enhancing the sensitivity and accuracy of experimental data. This low vibration environment is particularly beneficial when performing delicate magneto-optical studies or spectroscopic analysis where mechanical noise can compromise data integrity.
Additionally, the MO Cryo is engineered with a fast cooldown feature, significantly reducing the time required to reach cryogenic temperatures. This advantage is vital in research and industrial workflows where time efficiency and throughput are critical. The rapid cooldown capability combined with precise temperature stability allows researchers to conduct temperature-dependent studies more effectively, accelerating the pace of discovery and development.
In summary, the Truth Instruments MO Cryo Magneto Optical Cryostat is perfectly suited for a variety of scenarios including low-temperature physics research, magnetic and optical material analysis, and Raman spectroscopy applications. Its robust design, precise temperature control, ample optical access, and fast cooldown capability make it an indispensable tool for scientists and engineers striving for excellence in cryogenic experimentation.
Q1: What is the brand and model of the Magneto Optical Cryostat?
A1: The Magneto Optical Cryostat is manufactured by Truth Instruments and the model number is MO Cryo.
Q2: Where is the MO Cryo Magneto Optical Cryostat made?
A2: The MO Cryo Magneto Optical Cryostat is made in China.
Q3: What applications is the MO Cryo Magneto Optical Cryostat suitable for?
A3: The MO Cryo is ideal for magneto-optical experiments, low-temperature physics research, and materials science studies requiring precise temperature control and magnetic field application.
Q4: What temperature range can the MO Cryo Magneto Optical Cryostat achieve?
A4: The MO Cryo typically operates within a wide temperature range, often from a few Kelvin up to room temperature, enabling versatile experimental conditions.
Q5: Does the MO Cryo support integration with optical measurement systems?
A5: Yes, the MO Cryo is designed to facilitate optical access for magneto-optical measurements, making it compatible with various optical instruments and setups.