Product Description:
The KLCG50 (Low Cost Gyro 50) has a single-axis angular velocity
sensor that uses micro-electro-mechanical system (MEMS) technology.
This sensor comes mounted on a small PC board, making it perfect
for embedded applications where versatility in installation is
required. Only one DC voltage input is necessary for the sensor to
measure the angular rate. Notably, this complete unit is priced
very affordably.
Robustness is also one of its greatest strengths, which makes it
indispensable in applications that demand optimal performance
characteristics. The LCG50 provides all the above benefits while
being matched in performance with more expensive, instrument-grade
rate sensors.
For users searching for an ideal sensor solution for their
applications, the KLCG50 provides an accessible solution that can
perform without compromising on quality. Ultimately, its technical
specifications and versatility make it a worthy consideration for
applications in a range of industries.
Features:
● Proven MEMS Technology
● DC Voltage Output
● Wide Bandwidth
● Analog Voltage Output
● Low Power Consumption
● High Reliability
● Wide Operating Temperature Range
● Small Size
● Fast Start-Up
● DC in DC out
● Temperature Sensor Output
Technical Parameters:
| Parameter | KLCG50-00020-100 | KLCG50-00100-100 | KLCG50-00250-100 | KLCG50-00500-100 |
| Power Requirements |
| Input Voltage | +5.0 Vdc |
| Input Current | < 8 mA @ +5.0 Vdc |
| Performance |
| Standard Range Full Scale | ± 20°/sec. | ± 100°/sec. | ± 250°/sec. | ± 500°/sec. |
| Scale Factor Calibration(at 22°C) | 50 mV/°/sec ± 15% | 16 mV/°/sec ± 15% | 6.4 mV/°/sec ± 15% | 3.2 mV/°/sec ± 15% |
| Scale Factor over Temperature | < 0.1%/°C |
| Bias Calibration(at 22°C) | +2.5 Vdc ± 0.6 Vdc | +2.5 Vdc ± 0.6 Vdc | +2.5 Vdc ± 0.6 Vdc | +2.5 Vdc ± 0.6 Vdc |
| Bias Variation over Temperature | 10°/sec. | 8°/sec. | 10°/sec. | 20°/sec. |
| G Sensitivity(Typical) | < 0.05°/sec/g |
| Start-Up Time(Typical) | < 2.0 sec. |
| Bandwidth(-3 dB) | > 50 Hz |
| Non-Linearity(% Full Range) | < 0.05% |
| Output Noise(DC to 100Hz) | ≤ 0.005°/sec./√ Hz | ≤ 0.005°/sec./√ Hz | ≤ 0.006°/sec./√ Hz | ≤ 0.01°/sec./√ Hz |
| Scale Factor(Temperature Sensor) | 6.25 mV/°C Typical |
| Output Voltage at 0°C(Temperature Sensor) | +424 mV Typical |
| Environments |
| Operating Temperature | -40°C to +85°C |
| Storage Temperature | -55°C to +100°C |
| Vibration Operating | 5 grms |
| Vibration Survival | 10 grms |
| Shock | 500g PK ½ sine 2msec |
| Weight | < 0.4 oz. [12 grams] |
Physical object drawing
Applications:
Vehicle lnstrumentation
Vehicle instrumentation refers to the devices installed in a
vehicle to monitor and measure its performance. It includes things
like speedometers, odometers, fuel gauges, and temperature gauges.
Modern instrumentation systems often integrate with the vehicle's
computer to provide real-time data and alerts about potential
issues. These systems are critical for ensuring the safe and
efficient operation of vehicles in a variety of industries, from
transportation to motor sports.
Robotics
Robotics is the field of study and practice concerned with the
design, construction, operation, and use of robots. Robots are
machines capable of performing a variety of tasks, from simple
repetitive actions to complex calculations and decision-making
processes. Robotics has applications in numerous industries,
including manufacturing, healthcare, and space exploration. It also
has the potential to revolutionize the way we interact with
technology and each other.
Flight Testing
Flight testing is the process of evaluating the performance and
safety of aircraft in flight. It involves conducting a series of
tests to measure characteristics such as speed, altitude, and
maneuverability, as well as the behavior of key systems like
engines and avionics. Flight testing is essential for ensuring that
aircraft meet regulatory and industry standards for safety and
performance, as well as for identifying areas for improvement and
innovation.
Guidance & Control Systems
Guidance and control systems are technologies used to navigate and
direct vehicles and equipment. They incorporate a variety of
sensors, processors, and actuators to collect data, calculate
trajectories, and make adjustments to ensure that vehicles follow
the desired path and perform their intended function. Guidance and
control systems are used in a wide range of applications, from
aerospace and naval operations to factory automation and autonomous
vehicles.
Short Term Navigation
Short term navigation is the process of determining a vehicle's
current location and course over a limited timeframe. It typically
involves the use of sensors and positioning technologies such as
GPS and inertial measurement units. Short term navigation is
important for a variety of applications, including aviation, marine
transportation, and land-based navigation.
Ride Control - Stabilization
Ride control and stabilization systems are designed to enhance the
comfort, stability, and safety of vehicles. They use a variety of
technologies, including shock absorbers, active suspension systems,
and advanced sensor and control systems to reduce the effects of
bumps, wind, and other forces on the vehicle. Ride control and
stabilization systems are used in a range of applications, from
high-performance vehicles to heavy equipment and industrial
machinery.
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:
The Electronic Gyroscope Sensor is meticulously packaged in an
anti-static bag to ensure protection against electrostatic
discharge (ESD). The sensor is then securely encased in a
custom-fit, high-density foam mold, which provides superior shock
absorption during transit. This foam is placed within a durable,
branded cardboard box that shields the sensor from environmental
factors and potential damage while in transit.
The exterior of the box features clear labeling with the product
name, handling instructions, and a barcode for easy tracking. All
our packages are sealed with tamper-evident tape, offering an
additional layer of security.
For shipping, the Electronic Gyroscope Sensor is dispatched via a
trusted courier service to ensure timely and safe delivery. We
include insurance for the full value of the product, offering peace
of mind and protection for your investment. Tracking information is
provided as soon as the package is dispatched, allowing for
real-time monitoring of the shipment until it arrives at its
destination.
