A method for manufacturing a conveniently installable diamond roller.

Oct 28,2021

The article relates to the technical field of grinding tools with grinding wheels, particularly a diamond roller that is easy to install. The diamond roller is a tool used for shaping and dressing grinding wheels during mass production grinding. Its working principle is as follows: a conventional ceramic grinding wheel is shaped and dressed by the diamond roller installed on the grinding machine, and then after the wheel has been dressed, it grinds the parts, transferring the profile, precision, and dimensions of the diamond roller onto the surface of the parts being processed by the wheel. Currently, each collar of the diamond roller device has multiple collection through-holes communicating with exhaust ring holes for ceramic particles to enter. In the installation process of the diamond roller described in this technical solution, in order to facilitate fitting the roller onto the shaft, the diameter length of the shaft hole is slightly larger than that of the shaft, creating a certain gap between them. When advancing axially along the shaft, if an operator applies force along a non-shaft direction, it can easily cause misalignment of the roller. At this point, using tools like a wooden hammer to readjust can make it difficult for operators to control their applied force and align axially with that of the shaft. Therefore, there is a need for an easy-to-install diamond roller. To address these shortcomings in technology, technicians have provided an easy-to-install diamond roller that reduces operational difficulty during installation and facilitates fitting. The purpose of this invention is achieved through the following technical solution: an easy-to-install diamond roller includes a wheel body and an axial hole passing through it; each mounting hole has two fastening blocks arranged oppositely; opposite sides within each mounting hole have docking grooves that are arranged relative to each other forming an installation position for fitting onto a shaft; additionally, there are drive components radially arranged along mounting holes to drive two fastening blocks closer or further apart. Using this technical method during installation on a shaft involves first fitting the roller onto it and then pushing it down. When stuck, drive components move two fastening blocks closer within their mounting holes; through fasteners' driving force on the shaft, it positions itself within docking grooves formed by two fastening blocks thus realigning itself correctly. Once positioned appropriately, drive components bring both fasteners radially closer until their docking grooves tightly contact with outer walls of shafts securing its position relative to them. Compared to previous methods where adjustments were necessary multiple times for alignment without additional tools reducing operational difficulty while improving efficiency in installation. In summary, this utility model includes at least one beneficial technical effect: 1. During installation of diamond rollers there’s no need for repeated adjustments as axial alignment can be maintained reducing operational difficulty while enhancing efficiency; 2. The design features an annular rubber layer inside mounting holes which increases friction between diamond rollers and shafts thereby enhancing connection firmness.

  The article relates to the technical field of grinding tools with grinding wheels, particularly one that is easy to install.Diamond grinding wheelThe diamond grinding wheel is a tool used for shaping and dressing grinding wheels during mass production. Its working principle is as follows: a conventional ceramic grinding wheel is shaped and dressed using a diamond grinding wheel installed on the grinder, and then the parts are ground after the wheel has been shaped, allowing the profile, precision, and dimensions of the diamond wheel to be replicated onto the surface of the parts being processed by the grinding wheel. Currently, each ring of the diamond grinding wheel device is equipped with multiple collection through-holes communicating with exhaust ring holes for ceramic particles to enter.

       Diamond grinding wheel

  In the installation process of the diamond grinding wheel described in the above technical solution, in order to facilitate fitting the wheel onto the shaft, the diameter of the shaft hole will be slightly larger than that of the shaft, creating a certain gap between them. When advancing along the axial direction of the shaft, if an operator applies force along a non-shaft direction, it can easily cause misalignment of the wheel. At this point, using tools like a wooden hammer to readjust can make it difficult for operators to control applied force and align axially with respect to each other. Therefore, there is a need for an easy-to-install diamond grinding wheel. To address these shortcomings in technology, technicians have provided an easy-to-install diamond grinding wheel that reduces operational difficulty during installation.

 

  In summary, this utility model includes at least one beneficial technical effect:

 

  1. When installing a diamond grinding wheel, there is no need for multiple adjustments; thus, its axial alignment can remain consistent with that of the shaft, reducing operational difficulty and improving installation efficiency.

 

  2. The installation hole is designed with an annular rubber layer which can enhanceDiamond grinding wheelthe friction between it and the shaft, thereby increasing grip strength and ensuring a firm connection between the wheel and shaft.

 

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Using diamond grinding wheels to dress the grinding wheel, the profile is opposite to the required wheel profile, and it moves in the same direction as the wheel being dressed, shaping the wheel into the desired form. The dedicated grinding machine for lock clamps uses diamond wheels to dress the grinding wheel, which is then used to grind valves. The diamond wheels we use are coated with a layer of uniformly distributed diamond particles on a steel substrate through electroplating. When using them, two points must be noted: First, when loading and unloading the diamond wheel, gently tap with a copper rod to prevent diamond particles from falling off. Second, before dressing the grinding wheel with the diamond wheel, it is essential to adjust the relative position of the diamond wheel and grinding wheel in manual mode. For example: The automatic compensation amount for J4-048 lock clamp grinder is 0.01mm with a compensation amount of 50mm. To meet this compensation amount, a grinding wheel grit size of 120# is generally selected. When grinding lock clamp grooves, we dress the grinding wheel once every 20 products, taking 30 seconds for dressing time and maintaining a dressing line speed ratio of 0.59. Sampling tests show that surface roughness Ra is between 0.63 and 1.25μm, and shape and positional accuracy are within 0.03mm, fully meeting customer requirements. Practice has proven that one diamond wheel can produce 60,000 to 80,000 qualified products. The precision of lock clamp grooves mainly relies on the accuracy of the diamond wheels. As a core component of lock clamp groove grinders, the design of its profile is particularly important. Using diamond wheels produced by Dongjin in Henan for dressing grinding wheels ensures high precision and long service life while achieving good surface roughness in workpiece processing, making it especially suitable for mass production.

Mar 18,2022


Researchers in Australia have made breakthrough progress using the power of diamonds, potentially revolutionizing the way the human body accepts biomedical implants. Researchers from RMIT University successfully coated 3D printed titanium implants with diamonds. This is the use of 3D printed diamond implants for biomedical and orthopedic applications, involving surgeries related to the human musculoskeletal system. Although titanium provides a fast, accurate, and reliable material for medical-grade and patient-specific implants, our bodies sometimes reject this material due to compounds on titanium that prevent effective interaction between tissues and bones with biomedical implants. Synthetic diamonds offer a cost-effective solution to this problem. This breakthrough was achieved by biomedical engineer Dr. Kate Fox and her team at RMIT's School of Engineering. The coating was produced using a microwave plasma process at the Melbourne Nano Manufacturing Centre. The combination of titanium scaffolds with diamonds forms a biomaterial. "This technology will take several more years to launch; many steps need to be taken before it can be used by patients," Fox said. "But what we have done is a key step in a long and incredible journey." Postdoctoral researcher Aaqil Rifai is collaborating with Fox on this new technology research, stating, "Diamonds are very effective because carbon is a major component of the human body. Carbon has incredible biocompatibility." Rifai added, "Our bodies easily accept diamonds and use them as platforms for complex material interfaces." In addition to orthopedics, diamonds are also used to coat cardiovascular stents—catheters that help keep heart arteries open—as well as in bionics and prosthetics. Currently, researchers are focusing on how to apply this technology in orthopedics. "3D printing is a groundbreaking revolution in modern times. Through 3D printing, we can design specific medical-grade implants. This technology is fast, accurate, reliable, and labor-saving," Rifai said: "The scalability of 3D printing is rapidly increasing; therefore, we can foresee that diamond coatings will become increasingly common in orthopedics in the near future." Diamonds are one of the special materials found in nature with properties such as hardness, low friction coefficient, high elastic modulus, high thermal conductivity, high insulation properties, wide bandgap, high sound propagation rate, and good chemical stability. Although natural diamonds possess these characteristics, they have only existed as gemstones; their variability and rarity greatly limit their applications. However, CVD diamond films prepared by Luoyang Yuxin Diamond combine these excellent physicochemical properties at a lower cost than natural diamonds and can be fabricated into various geometric shapes with broad application prospects in industries such as electronics, optics, and mechanics.

Aug 16,2021


In June 2020, China's foreign exchange for bearing imports was $368 million, an increase of 10.13% month-on-month and a year-on-year increase of 34.64% compared to June last year, with an increase of 26.47 percentage points from the previous month's growth rate of 8.17%. The number of bearing imports reached 191 million sets, a month-on-month increase of 3.74%, a year-on-year increase of 26.61% compared to June last year, and an increase of 22.61 percentage points from the previous month's growth rate of 4%. As of June 2020, China had accumulated foreign exchange for imports totaling $1.907 billion, which is a year-on-year increase of 12.37%. This is an increase of 4.27 percentage points from last month's rate of 8.1%. The number of imported bearings was 1.151 billion sets, an increase of 15.31% compared to the same period last year, and an increase of 2.02 percentage points from last month's growth rate of 13.29%. From the perspective of imported bearing categories, the foreign exchange for tapered roller bearings increased by 45.98% year-on-year, becoming the main driver for bearing import foreign exchange; followed by bearing parts with a year-on-year growth rate of 25.3%, other ball bearings with a growth rate of 23.24%, cylindrical roller bearings with a growth rate of 15.39%, and spherical roller bearings with a growth rate of 13.73%. It is not difficult to see that under the new situation, significant changes are occurring in the structure of the bearing market. From the perspective of importing countries, foreign exchange from Japan reached $490 million, ranking first with a year-on-year growth rate of 4.61%. Germany ranked second with $420 million in foreign exchange for imports but had a remarkable growth rate of 28.31%. Surprisingly, Taiwan's import foreign exchange for bearings reached $137 million, ranking third with an astonishing year-on-year growth rate of 346%. This indicates that as China's economic structure adjusts, significant changes are also occurring in the market for importing countries for bearings.

Aug 27,2021


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