About Compound Bar Pendulum (Iron) labcare
The company was established in 1986 at Ambala Cantt., Haryana, India, with the modern manufacturing facility of laboratory equipments. Most of the Products are manufactured to specification defined by international standards. All have a reputation for quality which is second to none. Company manufacturing units is highly equipped with latest equipment and tools to manufacturer flawless laboratory products, most competitive prices and viability of quality products are our main objects.
Our products are already matchless in the industry due to continuous improvement in quality & workmanship. our innovative nature plays a vital role to improve the things. we also keep improving the quality in tune with the latest development in the international market.
Precision Measurement for Physics StudiesThe Labcare Compound Bar Pendulum is tailored for laboratory experiments that require exceptional measurement accuracy. With precisely marked graduations and a length accuracy of 0.5 mm, students and researchers can reliably assess gravitational acceleration and pendulum properties. Its knife-edged, polished suspension points guarantee minimal friction, while its sturdy, powder-coated surface resists corrosion, maintaining measurement integrity over time.
Engineered for Safety and VersatilityDesigned with safety and user convenience in mind, the pendulum features easy-grip ends for comfortable handling during setup and experimentation. Compatible with most standard laboratory stands, its robust construction and temperature resistance up to 80C make it versatile for various educational settings. Delivered pre-assembled in protective foam packaging, it is ready for immediate use in any laboratory environment.
FAQs of Compound Bar Pendulum (Iron) labcare:
Q: How does the Compound Bar Pendulum (LC-823) facilitate accurate measurement of gravitational acceleration in the laboratory?
A: The pendulums precisely graduated bar and knife-edged mountings enable users to conduct experiments that accurately determine the acceleration due to gravity. The uniform mass distribution and finely marked positions allow for exact length adjustments, ensuring experimental precision.
Q: What laboratory stands and equipment are compatible with this compound bar pendulum?
A: This pendulum is designed to be fully compatible with standard laboratory stands used in high school and college physics labs, ensuring broad applicability and ease of integration into existing laboratory setups.
Q: When should this compound bar pendulum be used in physics education?
A: It is best utilized during experiments focused on rotational dynamics, specifically for determining a bars moment of inertia, radius of gyration, and for measuring the acceleration due to gravitycommon in both high school and undergraduate physics courses.
Q: Where can this pendulum be installed or suspended for experimentation?
A: The pendulum can be suspended from any robust, stable laboratory stand capable of supporting its weight (approx. 2.5 kg). Its knife-edged mountings and pre-assembled structure streamline setup in most standard laboratory environments.
Q: What is the process for using the compound bar pendulum in an experimental setup?
A: Begin by mounting the pendulum securely using its knife edges on a laboratory stand. Adjust the suspension point according to the graduated markings, then release the bar to oscillate and record timings as needed for your experiment.
Q: Is the pendulum safe and convenient for frequent student use?
A: Yes, the pendulums easy-grip ends, polished knife edges, and protected packaging make it safe for repeated handling by students. Its rigid, corrosion-resistant build ensures longevity, reducing the need for frequent maintenance or replacement.
Q: What are the main benefits of choosing the Labcare LC-823 Compound Bar Pendulum for laboratory applications?
A: This pendulum offers high precision, durable construction, and excellent corrosion resistance. Its pre-assembled, user-friendly design is ideal for educational environments, enabling accurate and repeatable demonstrations of compound pendulum principles.