Product Description:
The KS3ARG03D series are high-precision solid state angular rate
sensors, commonly known as gyroscopes, crafted for precise
measurement of angular velocity. These sensors integrate advanced
micromechanolectronic systems (MEMS) technology, which have been
produced utilizing a state-of-the-art bipolar metal oxide
semiconductor (BIMOS) technology production process. This process
includes a unique spherical grid array for current carrier welding,
enhancing their reliability and structural ruggedness.
One notable feature of the KS3ARG03D series is its built-in
Self-Test functionality. This critical aspect allows for Built-In
Test (BIT) capabilities, facilitating real-time in-system
diagnostic checks to ensure continual sensor performance integrity
and reliability.
Operating Principle
The operational dynamics of the KS3ARG03D series angular rate
sensors are rooted in the principles of resonator gyro technology.
Each sensor contains a pair of polysilicon sensitivity structures
with high-frequency resonating frames. These frames are
electrostatically excited, inducing a state of resonance that is
essential for velocity detection.
At the outermost parts of these frames lies a pair of capacitive
structures that respond to Coriolis forces produced when the sensor
experiences angular rotation. The reaction of these capacitances to
Coriolis forces results in the generation of electrical signals.
These signals are subsequently sent through amplification and
modulating stages, which culminate in the production of an
electrical output directly proportional to the measured angular
rate.
Features:
● zero bias calibration
● temperature drift compensation
● wide measurement range
● wide bandwidth
● non-linear correction
● wide operating temperature range
● small size, light weight
● high impact acceleration resistance
Dimensions
Technical Parameters:
| Parameter | KS3ARG03D |
| Power supply parameter |
| power | DC5(V) |
| power dissipation | ≤1.1(W @5V DC) |
| Product performance |
| range | ±500(triaxial)(deg/s) |
| Zero-bias | ≤±0.05(In 500°/s)(deg/s) |
| Zero-bias stability | ≤0.2(deg/h) |
| Zero-bias repeatability | ≤1(deg/s) |
| nonlinearity | ≤0.02(%FR) |
| Mean time between failures | 10(Kh MTBF) |
| electrical interface | RS422 |
| data updating rate(can set) | 2000(Hz@460800) |
| Size | 45×39×20(mm) |
| Weight | ≤50(g) |
| Environment |
| Operating temperature | -40~+80℃ |
| Storage temperature | -55~+85℃ |
| Vibration | 6.06(g @ 20~2000 Hz) |
| Shock | 5000(g , 0.1 ms, 1/2 Sine) |
Applications:
Technological Innovations
Intelligent Automobiles
The advent of intelligent automobiles has revolutionized the way we
think about personal transportation. These vehicles incorporate
advanced technologies to offer enhanced safety, efficiency, and
convenience to users. From self-driving capabilities to predictive
maintenance, the modern intelligent automobile is a testament to
the strides made in vehicular technology.
Geological Exploration
Geological exploration has benefited immensely from technological
advancements. Modern methods enable explorers to analyze and
understand the Earth's subsurface with greater accuracy. Techniques
such as remote sensing and geophysical surveys have opened new
possibilities in the search for natural resources and the study of
geological phenomena.
Robotics
Robots are at the forefront of industrial automation and
technological progress. Today's robots can perform tasks with
precision and repeatability, ranging from manufacturing to surgical
assistance. Their role continues to evolve, as they become more
adaptable and capable of handling complex and creative tasks
previously thought to be exclusive to humans.
Missile Guidance and Control
Missile guidance and control systems are a crucial component in
modern defense. They utilize precise navigation and targeting
technologies to ensure the effective deployment of missiles. The
sophistication of these systems is paramount in the accuracy and
reliability of missile operations.
Aircraft Stability Control
Aircraft stability control is a vital aspect of aeronautics,
ensuring the safe and controlled flight of airplanes. This involves
a series of mechanisms and systems that maintain an aircraft's
orientation and control its response to external factors and pilot
inputs. The enhancement of these controls has improved flight
safety significantly.
Strapdown Inertial Navigation
Strapdown inertial navigation represents a navigation technique
wherein sensors are mounted directly to the vehicle's frame. This
approach allows for a more rugged and reliable system that can
withstand different operational environments. The technology is
extensively used in various sectors, such as maritime, aerospace,
and defense.
Antenna and Camera Stability
Maintaining the stability of antennas and cameras is essential for
clear communication and accurate imaging, respectively.
Technologies have been developed to counteract motion and
vibration, providing stable platforms for these devices. This is
critical in fields such as broadcasting, surveillance, and
photography.
Support and Services:
Welcome to our Technical Support and Services for the Gyroscope
Sensor. Our dedicated team is here to assist you with any technical
issues or inquiries you may have regarding the use, installation,
or maintenance of your gyroscope sensor. We are committed to
providing you with the best possible support to ensure your product
functions optimally.
Our support includes detailed product documentation, frequently
asked questions (FAQs), and troubleshooting guides designed to help
you resolve common issues quickly. For more complex or specific
concerns, our technical support team is ready to provide
personalized assistance.
If you require further assistance, please refer to the 'Contact Us'
section of our website (contact information excluded as per
request) where you can find additional resources and support
channels to get in touch with our professional technical support
team.
Thank you for choosing our Electronic Gyroscope Sensor. We look
forward to serving you and ensuring the success of your projects
Packing and Shipping:
Product Packaging for Electronic Gyroscope Sensor:
The Electronic Gyroscope Sensor is securely packaged in an
anti-static bag to prevent any electrostatic discharge damage. The
sensor is then encased in high-density foam, which conforms to its
shape for added protection against impacts and vibrations during
transit. The foam is placed inside a sturdy, corrugated cardboard
box that is sealed with tamper-evident tape. A label indicating
that the contents are fragile is prominently displayed on the
exterior of the box. Each package includes a user manual and
installation guide.
Shipping Information for Electronic Gyroscope Sensor:
All orders of the Electronic Gyroscope Sensor are shipped within 24
hours of order confirmation, excluding weekends and holidays. We
offer standard and expedited shipping options to accommodate your
needs. Tracking information will be provided so that you can
monitor your shipment's progress. Please ensure the shipping
address is accurate and someone is available to receive the
package, as we are not responsible for lost or stolen items once
they have been delivered. In the case of international shipments,
the recipient is responsible for all customs duties and taxes.
