(1) When using the drilling rig to drill, the driver should be placed in the drilling position, so that the front end is against the rock, and the distribution should be careful to let the drilling rig move forward, so that the drill bit touches the rock; When opening the hole, first quietly let the drilling rig drive, when the drill rod is in place in the rock, it is allocated to the full open position.
(2) Before starting the drilling rig, check whether the charging pressure of the accumulator is normal; Check whether the scouring water pressure and the lubricating air pressure can be; Check whether there is sufficient lubricating oil in the lubricator, and whether the oil supply is appropriate; Check the reverse tendency of the oil pump motor. (3) If the drilling rig cannot open the hole smoothly, it should first assign the rock drill to retreat, and then let the rock drill move forward to open the hole from the beginning.
(4) When replacing the drill bit, the drill bit should be gently pressed against the rock, so that the motor of the drill can be reversed to complete the sensitive unloading head.
(5) The inspection of hydraulic components can only be prevented under the condition of pole cleaning, and after the connecting tissue is removed, it must be quickly plugged with the cleaning tightly matched plug. Before the repaired rock drill is used from scratch, it is necessary to circulate the hydraulic oil into the oil circuit to wash the components of the hydraulic system.
(6) The oil level and oil supply of the lubricator should be checked regularly; The gear with reverse structure is regularly filled with high-temperature grease; Check the oil level in the lubricating oil tank regularly and remove the dirt in the oil tank
One of the critical factors in perforation operations is the design and execution of well perforations, which must be meticulously planned to enhance productivity while minimizing environmental impact. The 3 32 specification could denote an innovative approach to perforation spacing, hole size, or the percentage of holes that reach desired depth, tailored to specific geological conditions. With the oil and gas industry placing more emphasis on efficiency and extraction rates, having precise perforation measurements can significantly influence output.
In recent years, the demand for efficient drilling solutions has soared, especially in industries requiring rigorous digging and excavation. One of the most critical components of a drilling operation is the drill bit, and among the various types available, spiral drill bits stand out for their innovative tooth design. This article discusses the features, benefits, and applications of spiral drill bit teeth, providing insights into why they are increasingly favored in various drilling applications.
In conclusion, water well drilling, or forage, is not merely a technical operation; it is a crucial element in addressing the world's water challenges. By providing communities with direct access to groundwater, it supports health, agricultural productivity, and economic stability. As we face increasing pressure on our water resources, investing in modern, sustainable drilling practices will play a pivotal role in ensuring that future generations have access to the clean water they need to thrive. It is incumbent upon governments, organizations, and individuals alike to recognize the significance of this practice and to advocate for policies that enhance water security through responsible well drilling initiatives.
Submarine hammer drilling, often referred to as underwater percussion drilling, is an advanced technique utilized primarily in marine construction and resource exploration. This method combines the principles of traditional drilling with hydraulic and pneumatic operations, enabling the effective penetration of hard substrates beneath the sea floor. In this article, we will explore the processes, equipment, advantages, and applications of submarine hammer drilling.
Recent advancements include the development of smart slurry pumps equipped with sensors that monitor pump performance in real-time. These sensors can provide data on flow rates, pressure levels, and wear patterns, allowing for predictive maintenance and minimizing unexpected failures. Moreover, advances in materials science have led to the creation of more resilient pump components, extending service life and reducing the frequency of replacements.