Texturing Methods of Abrasive Grinding Wheels: History
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Contributor:
Sharlane Costa
,
Mário Pereira
,
João Ribeiro
,
Delfim Soares

Creating textures on abrasive wheels is a strategy that allows a significant improvement in grinding operations. The reduction of the internal stresses in the workpiece and the temperature during the grinding operation generates an increase in the dimensional accuracy of the workpiece and a longer tool life. Textured abrasive wheels can be produced in many different ways. Depending on the processing method, the dimensional accuracy of the tool and its applicability is changed. 

  • textured grinding wheel
  • grooved grinding wheel
  • texturing method
  • grooves
  • grinding wheel

1. Introduction

Abrasive grinding wheels are widely used in industry for the roughing and surface finishing of components through a chip-removal process [1][2]. This requires very high cutting forces which, together with the friction between the tool and the workpiece to be worn, generate high amounts of heat [3][4]. Excess heat can cause several problems, both in the part to be machined—a poor surface finish and change to its microstructure, in particular—and in the tool, especially its premature wear [5][6].

2. Texturing Methods of Abrasive Grinding Wheels

2.1. Machined Grooves

By machining a standard grinding wheel with another type of tool, such as a diamond disc, a milling cutter, or single- or multi-point tools, machined grooves can be formed. The machining tool is controlled manually, by an electromagnetic shaker or a servomotor. In other cases, the tool is static, and the grinding wheel movement is controlled.
The principle of the method is shown in Figure 1, where, in this case, a single-point diamond dressing tool is used to create a helically formed groove on the working surface of the grinding wheel with a groove depth of ag and a groove width of bg [7]. The main disadvantage of the method is the wear of the grooving tool.
Figure 1. Production principle for machined grooves; groove patterns and geometries [7].
Table 1 summarizes the main subject of each published work on machined grooves; the groove geometries investigated in these works and the types of tools used for production are summarized in Table 2.
Table 1. Summary of publications on machined grooves.
Author and Year Summary
Oliveira et al., (2010) [8] The work presented a texturing method based on an electro-mechanical exciter connected to the dressing tool which receives a synchronized signal from a control program that engraves patterns on the grinding wheel.
Gavas et al., (2011) [9] A study of the influence of grooves and work material type on workpiece surface roughness was developed.
Tawakoli et al., (2011) [10] Dry and wet grinding with grooved grinding wheels with 25, 50, and 100% active areas was evaluated.
Aurich et al., (2013) [11] Evaluation of three types of grinding wheel: with internal lubricant supply channels and with and without channels and external lubrication.
Mohamed et al., (2013) [7] A single-point diamond dressing instrument was used to cut grinding wheels with a shallow circumferential groove, with different active areas (50, 70, and 100%).
Nadolny et al., (2013) [12] The kinematic parameters of microdiscontinuities were presented. The construction of a particular device that enables the obtainment of macrodiscontinuities with specific and defined surface shapes was also detailed.
Silva et al., (2013) [13] A characterization and dimensional evaluation of the textures produced by the method described by Oliveira et al. [8] was presented.
Köklü et al., (2014) [14] Study of the surface and dimensional qualities generated by varied-angle grooves as well as one of the key metrics of surface integrity residual stress.
Mohamed et al., (2014) [15] A grinding wheel grooving method that can both groove and re-groove a grinding wheel was presented.
Gavas et al., (2015) [16] The influence of different helically angled grinding wheels on surface roughness and roundness in diverse workpieces.
Denkena et al., (2015a) [17] A novel approach for grinding wheel structures was presented. The approach is founded on the kinematics of fly cutting.
Denkena et al., (2015b) [18] Presented a novel approach for the patterning of grinding wheels. The designs were manufactured with a patterning tool equipped with one to four diamonds and a normal dressing spindle.
Wójcik et al., (2017) [19] A study of the influence of the grinding wheel modification (grooves) on workpiece surface roughness and residual stresses.
Azarhoushang et al., (2017) [20] Grooved grinding wheel for dry grinding in three different conditions (30, 60, and 75% passive area).
Caydas et al., (2017) [21] The purpose of the study was to determine the effects of the number of helically grooved wheels, workpiece rotation speed, and depth of cut on surface roughness in cylindrical grinding.
Liu et al., (2017) [22] An analytical model representing the textures of grooved wheels based on ridge width, ridge length, texture angle, and ridge function parameters was constructed.
Silva et al., (2017) [23] Discussion of the possibilities and limitations of structuring surfaces using two kinds of grooved grinding wheels. Workpieces were structured using a patterned grinding wheel, specially conditioned during the dressing operation.
Mohamed et al., (2017) [24] Investigation of the ability of circumferentially grooved grinding wheels to create parallel ridges on a workpiece.
Cao et al., (2018) [25] The effects of dressing and grinding settings on a collection of microstructural texturing models were discussed. The structural surface characteristics and the corresponding theoretical models were validated by experimental results.
Daneshi et al., (2018) [26] The mathematical modeling of the process kinematics was used to simulate cylindrical plunge grinding by structured wheels (with 30, 60, and 70% passive area). Attention was given to the problem of transferring the texture from the grinding wheel to the workpiece.
Silva et al., (2018) [27] Describes the creation of a patterning system for grinding wheels based on modal vibration analysis. The design, modeling, and simulation of the texturing device were described.
Dewar et al., (2018) [28] The performances of non-grooved and grooved vitrified grinding wheels were compared using cylindrical plunge grinding trials. The grooving method used was the one developed in [15].
Forbrigger et al., (2018a) [29] A profile grinding wheel grooving robot attachment was created, as well as a mechanism for assessing and adjusting for the robot’s kinematic error.
Forbrigger et al., (2018b) [30] Helical grooves were used on profile grinding wheels. A generalized approach for computing the grooving factor for any grooved/textured profile grinding wheel was also presented.
Denkena et al., (2019) [31] The wear behavior of chemical-vapor-deposited thick-film diamonds (CVD-Ds) in patterning grinding wheels was studied. CVD-D inserts were utilized as the structuring tool’s cutting edges.
Patel et al., (2019) [32] Using cylindrical plunge grinding with grooved and non-grooved wheels, the relationship between workpiece surface roughness and speed ratio was carefully investigated.
Riebel et al., (2020) [33] An experimental study of the relationship between grinding wheel groove depth and width in relation to grinding performance.
Table 2. Grooving tools and machined groove geometries and dimensions.
Author and Year Grooving Tool Groove Geometry
Form Angle (deg) Depth (mm) Width (mm)
Oliveira et al., (2010) [8] Single-point Helical, zigzag, and cross linear - 0.002–0.025 2
Gavas et al., (2011) [9] Disc Helical 90.52 3 5
Tawakoli et al., (2011) [10] Disc Helical 90 0.1 0.6
Aurich et al., (2013) [11] Milling cutter Slits 15 - -
Mohamed et al., (2013) [7] Single-point Helical - 0.1 0.5–1.08
Nadolny et al., (2013) [12] Single-point Helical - 0.5 1.7
Silva et al., (2013) [13] Single-point Slits - 0.005 1.5
Köklü et al., (2014) [14] Disc Helical 15, 30, 45 3 2.6
Mohamed et al., (2014) [15] Multi-point Helical - 0.1–0.36 0.92–1.60
Gavas et al., (2015) [16] Disc Helical 15, 30, 46 3 2.6
Denkena et al., (2015a) [17] Multi-point Slits - 0.020–0.2 0.2–0.5
Denkena et al., (2015b) [18] Single-point and multi-point Slits - 0.020–0.1 0.2–0.5
Wójcik et al., (2017) [19] Disc Helical 15 4 3
Azarhoushang et al., (2017) [20] Disc Helical - ~0.0058–0.0135 ~0.2640–0.353
Caydas et al., (2017) [21] Disc Helical 45 3 3
Liu et al., (2017) [22] Single-point Helical 5.16 1.55 ~0.1
Silva et al., (2017) [23] Single-point Slits and zigzag - 0.005 0.587–10.35
Mohamed et al., (2017) [24] Single-point Helical 10–90 ~0.005–0.025 ~5
Cao et al., (2018) [25] Multi-point Helical - 0.02–0.05 ~0.12
Daneshi et al., (2018) [26] Disc Helical - ~0.0135 ~0.353
Silva et al., (2018) [27] Disc Slits - 0.005 0.0012–0.006
Dewar et al., (2018) [28] Single-point Helical 90 0.102 0.884
Forbrigger et al., (2018a) [29] Single-point Helical - ~5 5
Forbrigger et al., (2018b) [30] Single-point Helical 89.8 0.1–0.2 0.96–0.99
Denkena et al., (2019) [31] CVD-D insert Slits - - 0.156–0.488
Patel et al., (2019) [32] Single-point Helical - 0.102 1.15
From Table 1, it can be gathered that the majority of the authors who study the machined groove method have published works evaluating the influence of groove parameters (such as angle, size, and geometry) on grinding operations. In addition, there are authors who have published novel grooving strategies using other types of tools to create grooves [31][33] or which involve the use of dedicated software, using the finite element method (FEM) to obtain the numerical vibration mode shape of the grinding wheel during texturing [27] or to develop test geometries in order to compensate for kinematic errors [29]. It is also clear that the use of mathematical models has gained attention in recent years. These models can be used, for example, to simulate the profiles of grooves both in the grinding wheel and in the profile generated in the workpiece [24][25].
In a general context, grooves produced by mechanical methods have simple geometries. Table 2 shows that the most commonly used geometry is the helical geometry, followed by slit geometries (discontinuous lines). Zigzag and linear cross-shaped grooves (like a mesh) were also produced. Although some authors have named the geometries of the grooves differently, this work sought to group geometrically similar grooves (not necessarily by the names given by the authors); for example, Silva et al. [23] described the shape of the grooves as “Round dimples and chevrons”; however, in the present discussion, the grooves were classified as “slits and zigzag”, respectively. An example of each geometry is shown in Figure 2. The largest groove width produced by this method was 5 mm and the smallest was 0.0012 mm, while the depth varied between 5.0 and 0.002 mm.
Figure 2. Machined grooves in (a) slit form [17], (b) helical form, (c) zigzag form, and (d) cross linear form [8].
Table 2 also shows that the most used tools for grooving are single-point tools and cutting discs. All grooves produced by cutting discs have helical geometries, except for the work carried out by Silva et al. [27], who produced grooves with a slit form on the surface of an abrasive wheel. Figure 3a illustrates the texturing process for a grinding wheel using a cutting disc (dressing form roller) [26]. The individual setup of the dressing kinematic parameters, including the form of the dresser, the dressing depth of cut (aed), and the dressing feed (fad), creates the required structures on the wheel surface. As shown in Figure 3b, the wheel is initially flattened under standard dressing conditions (step 1). The appropriate structure is then formed by treating the wheel surface with an overlap ratio less than one (Ud < 1) (step 2).
Figure 3. Illustration of the texturing process of the grinding wheel: (a) flattening the grinding wheel with standard dressing, followed by specific conditioning to form macrostructures on the wheel’s surface (b) [26].
A cutting disc does not provide the accuracy and flexibility suitable for producing more complex grooves. Using a single-point diamond tool, it is possible to produce grooves with more detail, such as zigzag forms. Grooves produced with diamond tools, whether single-point or multi-point, have conical profiles characteristic of the tips of the grooving tools, as shown in Figure 1. However, to analyze groove width and depth separately, it is necessary to be able to generate a groove the width of which is independent of its depth. In order to create a rectangular section groove, Riebel et al. [33] adapted a polycrystalline diamond tool. These tools are manufactured with diamond grits inserted in a metallic matrix. The original had a cylindrical shape with a diameter of 3.2 mm, while the adapted tool was in the form of a “shank” or a rectangular prism, the 1.7 mm edge of which was used to groove a grinding wheel. The deepest grooves fashioned in the study took nearly 200 passes of the cutting tool to achieve their full depth; thus, any inaccuracy in position synchronization between the groover and the wheel would result in an error in the final groove geometry [33].
In general, machining is the most commonly used method among researchers, possibly due to the low costs and versatility. However, when the process is carried out manually, the finishing of the part is usually not well-controlled, so this process has been automated, which can make the method more expensive. The main disadvantage of the method is the intensive wear of the texturing tool. Most of the published work on machined grooves is aimed at evaluating the influence of groove parameters (such as angle, size, and geometry) on grinding operations. Despite being a simple and conventional method, new strategies, such as the application of software to compensate for kinematic errors, have also been shown to be a field of interest for the authors, as has the use of mathematical models.

2.2. Engineered Grooves

On monolayer grinding wheels, instead of removing grains on the wheel surface, it is possible to create grooves by placing the abrasive grits in a pre-defined pattern [34]. Grinding wheels with ordered grain distributions are called engineered wheels, where the texture depth is the height of the abrasive particle and the width is the space between each grain or agglomerate (Figure 4) [35]. Despite their inherent advantages in grinding, it is difficult to manufacture designed wheels with tiny grains because abrasive grains are always positioned manually or via the use of a template, which is strongly reliant on grain size [36].
Figure 4. Topography of a monolayer abrasive grinding wheel with an arrangement pattern [35].
The main subject of each published work on engineered grinding wheels is summarized in Table 3; the groove geometries investigated in these works are summarized in Table 4.
Table 3. Summary of publications on engineered grooves.
Author and Year Summary
Yuan et al., (2010) [36] An electroplated wheel with a controlled abrasive cluster was presented, and its performance in dry grinding carbono–epoxy composites was compared to that of a standard grinding wheel.
Wang et al., (2015) [37] Models of the grinding wheel’s kinematics and elastic and plastic deformation were created. The surface topographies of three different engineered grinding wheels were also evaluated by numerical simulations.
Yu et al., (2016a) [38] The dynamic cutting-point density model was constructed using a grinding wheel with an abrasive phyllotactic pattern, which may be applied to other manufactured grinding wheels with ordered, distributed abrasive grains.
Yu et al., (2016b) [39] The surface roughness model using a grinding wheel with an abrasive phyllotactic pattern and a wheel with a general grain structure pattern was established. The model was also validated through experiments with various grinding parameters.
Yu et al., (2016c) [40] The wear of abrasive particles on two differently designed grinding wheels was evaluated. One grinding wheel with a random distribution of grains was compared to an engineered one with a bio-inspired phyllotactic pattern.
Zhang et al., (2017) [41] A spiral, orderly, distributed fiber tool was proposed. The flow field of cutting fluid was simulated by 3D fluid simulation software. Cutting experiments were used to validate the modeling results.
Ding et al., (2017) [42] A model of surface topology reconstruction for the textured monolayer CBN wheels was established. Grinding-wheel wear experiments were conducted to investigate the evolution and influence of grain protrusion height nonuniformity in textured monolayer wheels.
Lyu et al., (2017) [43] A mathematical model of the engineered grinding wheels was developed to predict the temperature in the grinding zone. The simulations were validated through surface grinding experiments with various grinding parameters.
Yu et al., (2018) [44] The grinding fluid in the grinding zone was simulated for a bionic grinding wheel based on computational fluid dynamics (CFD) software.
Zhang et al., (2018) [35] A wheel topography model was developed that can be integrated with a workpiece model, a kinematic model, and a calculation model of undeformed chip thickness of a single grain to obtain the distribution of undeformed chip thicknesses.
Yu et al., (2019a) [45] Research and trials to determine the best grain arrangement on the grinding wheel to lower the grinding temperature were presented.
Yu et al., (2019b) [46] A bionic structured surface inspired by phyllotaxis theory was created to reduce specific grinding energy in the grinding process.
Yu et al., (2019c) [47] A bionic structured surface inspired by phyllotaxis theory was created to reduce grinding forces in the grinding process.
Zhang et al., (2019a) [48] An integrated model based on the surface topography of an engineered grinding wheel was established. The grinding process was simulated, and the results were analyzed to obtain a surface roughness model and a specific grinding energy model based on the undeformed chip thickness distribution.
Zhang et al., (2019b) [49] The effects of material removal rate, texture dimension, and radial dressing of grinding wheels on the distribution characteristics of undeformed chip thickness were studied through numerical and experimental analysis.
Qiu et al., (2019) [50] On the basis of additive manufacturing technology, stereolithography apparatus equipment was created to manufacture resin-bonded grinding wheels with 3D programmable abrasive configurations.
Zhu et al., (2019) [51] Wear and self-sharpening phenomena were evaluated and discussed for polycrystalline CBN grinding wheels with helically arranged grains.
Zhang et al., (2020) [52] Patterned monolayer wheels were prepared. The effects of grit spacing, grit size, and arraying angle on grinding force, grinding temperature, and surface roughness were evaluated in a dry grinding operation.
Peng et al., (2020) [53] An internal-coolant grooved wheel with various abrasive patterns was designed and prepared. The experiments explored the influence of abrasive patterns on grinding wheel performance.
Peng et al., (2021a) [54] An internal-coolant grooved wheel was prepared. The CFD method was utilized to examine the flow field in the curved channel, together with the heat field and flow field in the grinding zone.
Peng et al., (2021b) [55] An internal-coolant grooved wheel was prepared with a bionic phyllotaxis texture. The CFD approach was used to investigate the flow characteristics of the cup wheel with varied surface structures.
Guo et al., (2022) [56] The grinding mechanism of engineered grinding tools (with different geometries) and a corresponding grinding force model were established.
Wang et al., (2022) [57] A new simulation model was presented to predict the topography of the machined surface in superalloy grinding, considering the specific geometry and gesture of diamond grains.
Peng et al., (2022) [58] A bowl-shaped grinding wheel with internal cooling and a phyllotactic abrasive pattern was designed. A CFD study optimized the grinding wheel’s interior structure.
Table 4. Engineered groove geometries and dimensions.
Author and Year Groove Geometry
Form Grain Size (mesh) Width (mm)
Yuan et al., (2010) [36] Phyllotactic - 1.7
Wang et al., (2015) [37] Rectangular 80 0.98
Yu et al., (2016a) [38] Phyllotactic - ~0.29–0.39
Yu et al., (2016b) [39] Phyllotactic 70/80 ~0.87–1.21
Yu et al., (2016c) [40] Phyllotactic 70/80 ~0.87–1.21
Zhang et al., (2017) [41] Helical - 1.6–2.9
Ding et al., (2017) [42] Helical 80/100 1.2
Lyu et al., (2017) [43] Phyllotactic 70/80 ~0.87–1.21
Yu et al., (2018) [44] Phyllotactic - ~0.88–1.21
Zhang et al., (2018) [35] Helical 40/50 2.5
Yu et al., (2019a) [45] Phyllotactic 40/50 ~0.75–1.06
Yu et al., (2019b) [46] Phyllotactic 40/50 ~0.75–1.06
Yu et al., (2019c) [47] Phyllotactic 40/50 ~0.75–1.06
Zhang et al., (2019a) [48] Helical 40/50 1.2–2.4
Zhang et al., (2019b) [49] Helical 40/50 1.2–2.4
Qiu et al., (2019) [50] Spiral, rectangular, and circular - 2.0–3
Zhu et al., (2019) [51] Helical 80/100 1.2
Zhang et al., (2020) [52] Rectangular - 1.0–3
Peng et al., (2020) [53] Helical and rectangular 80 1.5
Peng et al., (2021a) [54] Helical - 1
Peng et al., (2021b) [55] Phyllotactic 80 -
Guo et al., (2022) [56] Helical - ~0.5
Wang et al., (2022) [57] Helical 40/45 1.2
Peng et al., (2022) [58] Phyllotactic 80 -
Table 3 shows that the main objective of the authors working with engineered grooves is the development of mathematical models and simulations capable of describing the grinding process. This type of approach models the grinding process to fully analyze the influence of various parameters and to describe, for example, the material removal mechanism, grain density, or grinding temperature [35][38][39]. By using these strategies, the number of experiments required can be significantly reduced. Furthermore, purely experimental methods only provide data at the end of grinding, for example, the surface topography of the finally generated part, but cannot reflect the material-removal mechanism in the machining process [37]. On the other hand, although in smaller numbers, there are authors carrying out purely experimental work, testing different geometries and comparing them with monolayer abrasive wheels with random grain distributions.
Engineered grooves are mostly studied on wheels with a defined abrasive arrangement in a single layer. Research on grinding wheels with 3D, controllable, abrasive arrangements is rarely mentioned. In the work developed by Qiu et al. [50], grinding wheels were designed with different 3D, controllable, abrasive arrangements in the space. Using a kinematic equation, the grinding trajectories were estimated in order to determine the effects of 3D abrasive configurations on the surface quality of the workpiece during the grinding process. To manufacture grinding wheels, a stereolithography equipment machine utilizing additive manufacturing technology was created. The influence of abrasive dispersion on the regularity of grinding trajectories was explored experimentally and computationally.
From Table 4, it can be gleaned that the geometry most studied by the authors is the phyllotaxis type. Phyllotaxis is a kind of order that the leaves, fruit, and organizations of most plants conform to [59]. Figure 5 depicts typical examples of phyllotactic patterns [44]. Although the phyllotaxis idea has existed for more than a century, it has only recently been investigated by specialists and academics. The leaves or other natural organizations must have evolved patterns to withstand wind force to a certain degree, allowing plants to withstand wind. The phyllotactic pattern must be the pattern that allows wind and rain to move through the spaces between leaves more readily in order to lessen the influence of wind force. The characteristics of the phyllotactic pattern must meet the requirements of the designed grinding wheel with respect to the program (flow rate and speed, for example) and how the fluid is provided for the contact zone [44]. Therefore, authors who use this concept usually work with simulations and mathematical modeling, precisely to define the geometry chosen with accuracy and its potential gain.
Figure 5. Typical examples of phyllotactic patterns: (a) keteleeria davidiana, (b) anthurium, and (c) pinecone [44].
Abrasive wheels with an internal cooling system have been studied by many authors in the last decade, the structure of which is shown in Figure 6a [58]. The coolant is injected directly into the grinding zone via the internal channel to prevent lubricant waste and energy consumption caused by the air barrier [54]. To further improve the coolant flow in the contact area with the workpiece, the authors have also produced engineered grooves in this type of abrasive grinding wheel. For example, in Figure 6b [58], the phyllotaxy concept was used to develop a sunflower texture on the grinding wheel’s abrasive ring.
Figure 6. (a) Structure of the internal-cooling grooved grinding wheel and (b) the abrasive ring with the phyllotactic pattern of the abrasive [58].
Engineered grooves represent a field that has seen many publications since 2015. Researchers have paid special attention to the simulation and numerical modeling of abrasive particle arrays in order to continually improve the geometries that can be obtained using this method. Grinding wheels with 3D, controllable, abrasive arrangements may be a field of interest in the future, as the research carried out has resulted in only one publication reporting this type of engineered groove. The main disadvantage of the method is the time required to construct the arrangement, which is often achieved grain by grain.

2.3. Laser Grooves

Laser conditioning is a novel, non-contact approach that may be used with a wide range of abrasives and bonding materials [60]. Laser-based thermal procedures utilize high-energy-density laser beams to ablate particular regions on abrasive tool surfaces so that materials within designed textural regions can be eliminated by melting, heating, vaporization, plasma generation, ablation of grits and bonds, or evaporation [61][62]. A common experimental setup for laser structuring is show in Figure 7 [63]. The primary advantages of the laser approach are the absence of tool wear, excellent reproducibility and controllability, high accuracy, and relatively quick processing time. In addition, this approach permits the microtexturing of grinding wheels [60].
Figure 7. Experimental setup for laser structuring [63].
The main subject of each publication on laser grooves is summarized in Table 5; the respective groove geometries and dimensions investigated are presented in Table 6.
Table 5. Summary of publications on laser grooves.
Author and Year Summary
Guo et al., (2014) [64] The effects of laser parameters on microstructured surfaces (focal point shift, laser power, scanning speed, and scanning passes) were explored and adjusted.
Deng et al., (2017) [65] The effects of groove angle and geometry on the surface quality of the workpiece were evaluated.
Zhang et al., (2018) [66] Evaluation of six different groove geometries on grinding performance and wear behavior.
Guo et al., (2018) [67] The effect of microgrooves combined with microrefinement of the abrasive grains on the surface of a CVD diamond wheel and on grinding force and grind quality.
Zhang et al., (2019a) [68] To produce macro–microstructured patterns on the wheel’s surface, a methodical strategy was developed and implemented. A theoretical model of grinding force was provided and experimentally validated.
Zhang et al., (2019b) [69] Evaluation of five different groove geometries on grinding operations. Grinding forces were compared and the influences of workpiece speed, grinding wheel speed, and depth of cut on grinding force were discussed.
Wu et al., (2019) [70] Grooves were produced on an abrasive grinding wheel to later transfer the texture to the surface of hard and brittle working materials.
Azarhoushang et al., (2019) [71] Evaluation of the grinding of ceramic matrix composites with grinding wheels structured by two different methods (laser and segmented). The grinding tests were carried out at different material-removal rates and cutting speeds. The laser method was more emphasized in the paper.
Deng et al., (2019) [72] In a coarse-grained diamond grinding wheel, the groove shape, structuring efficiency, and rate of structured grains were all assessed.
Li et al., (2020a) [73] Grinding wheels with inclined and rectangular-cross-section grooves were compared in the grinding process.
Li et al., (2020b) [74] The influence of laser beam parameters on the generation of different groove geometries was studied.
Wu et al., (2020) [75] Two different microtexture geometries were ablated directly on diamond grains on an engineered grinding wheel using a pulsed laser.
Zhang et al., (2020) [76] A type of biomimetic fractal-branched grinding wheel was designed based on leaf veins. Grinding tests were performed and the experimental results were compared with those for a conventional grinding wheel.
Zhao et al., (2020) [77] To produce patterned CBN/CuSnTi-grinding wheels, a coaxial powder feeding laser cladding technique utilizing CAD/CAM technology was introduced.
Li et al., (2021) [62] The effects of laser pass numbers and scanning speeds on groove geometry were discussed.
Monier et al., (2022) [78] The ability to pattern a wheel with advanced regular and irregular pattern geometries was evaluated by computational simulation. However, only a geometry was produced and tested in grinding.
Hou et al., (2022) [79] A laser scanning method was used to create grooves on grinding wheels using an ultrafast laser processing device.
Geng et al., (2022) [80] For metal-bond diamond grinding wheels, a conditioning approach was designed. The same laser source was used throughout the conditioning chain, including the truing, dressing, and texturing of the grinding wheel.
Table 6. Laser groove geometries and dimensions.
Author and Year Groove Geometry
Form Angle (deg) Depth (mm) Width (mm)
Guo et al., (2014) [64] Helical - - ~0.004–0.016
Deng et al., (2017) [65] “V” and “W” shapes 0, 30, 60 and 90 0.0382 0.0753
Zhang et al., (2018) [66] Helical, cross linear, zigzag, and “U” shape 0, 30, 45 and 90 0.85 1.2
Guo et al., (2018) [67] Helical - 0.008 0.004–0.006
Zhang et al., (2019a) [68] Cross linear, waves, and zig zag 30, 45 and 90 0.85 1.2
Zhang et al., (2019b) [69] Helical, cross linear, zigzag, and waves 0, 30 and 45 0.75 0.9
Wu et al., (2019) [70] Helical 4.52 ~0.102 ~0.187
Azarhoushang et al., (2019) [71] Slots (segmented grooves) and cross linear (laser grooves) - 0.35 0.85
Deng et al., (2019) [72] “V” and “W” shapes - 0.02–0.071 0.003–37.6
Li et al., (2020a) [73] Helical - 0.95 and 1 0.65
Li et al., (2020b) [74] Helical, parallelogram, hexagonal, triangular, and rectangular 60 and 90 0.3–1 0.8–1.8
Wu et al., (2020) [75] Cross linear, with and without holes - 0.15–0.2 0.02–0.05
Zhang et al., (2020) [76] Leaf vein - 1 3
Zhao et al., (2020) [77] Helical, zigzag, and “U” shape - - -
Li et al., (2021) [62] “V” shape and hemispheres - 0.4–4 ~0.18–0.3
Monier et al., (2022) [78] Slots - - ~0.19–0.33
Hou et al., (2022) [79] Lines with “U” shapes - 1 1
Geng et al., (2022) [80] Helical and cross linear - 0.08–0.25 0.2–0.35
From Table 5, the evaluation of the influence of groove parameters on grinding operations is the area with the most publications. The data presented in Table 6 complement this information, as it is possible to find a wide range of different geometries. With the laser method, it is possible to produce macro- and microtextures from simple geometries, such as “helical” geometries, to more complex geometries, such as “waves” and “hemispheres”, as shown in Figure 8 [62][68].
Figure 8. Groove geometries produced by the laser method: (a) hemispheres and (b) waves [62][68].
Some authors performed quite complete works from the point of view of studying groove parameters. Zhang et al. [66] produced six different structured grinding wheels. Different wheel speeds, depths of cut, and constant feed rates were utilized in a series of studies to determine their effects on the grinding performance of the wheel. The grinding forces were compared, and the impacts of wheel speed, depth of cut, and feed rate on grinding force were studied. In addition, the different characteristics of grinding wheel wear and surface roughness were compared. In another work developed by Zhang et al. [69], five different textures were produced (Figure 9). In addition to evaluating grinding forces and roughness, grinding temperatures were also discussed. Monier et al. [78] proposed a simulation approach for modeling textured wheels and their corresponding structured surfaces under a variety of operating situations. Regular and irregular geometries were studied, varying the spacing, angle, and dimension of the segments. However, grinding tests were performed only for one simple geometry (slot form).
Figure 9. Different laser groove patterns discussed by Zhang et al. [69].
In recent years, researchers have also offered methodological innovations. To separate the incubation impact of adjacent scanning, Hou et al. [79] developed an alternating laser scanning approach paired with staggered forward and backward traces with double pitch offset. The effects of ultrafast laser ablation on grinding wheel groove morphologies were investigated. In engineering practice, the laser machining model suggested by Geng et al. [80] offers a condition for the superabrasive grinding wheel with more efficiency and adaptability. A nanosecond pulse laser was incorporated into an ultra-precision machine tool and utilized for in-line grinding wheel conditioning, dressing, and texturing. To create precise profiles on the grinding wheel surface, an offset compensation approach taking into account the fluctuating depth of focus at different laser irradiation positions was developed [79][80].
Potential problems still need to be defined, such as the adjustment of texturing parameters, high energy consumption, and surface thermal damage [34]. To fill this gap, Li et al. [74] studied the effects of varying parameters of the continuous wave CO2 laser method on the production of five different textures on the surfaces of diamond abrasive tools. The author highlighted the importance of proper parameter selection. The results are shown in Figure 10. It is noteworthy that, unlike all other works, Li et al. [74] used a continuous wave laser, instead of a pulsed one.
Figure 10. Texture appearance obtained using (a) appropriate and (b) inappropriate parameters [74].
The predominant benefits of this technology are no tool wear, excellent repeatability and control, high accuracy, and a very quick process time. In addition, this approach permits the microtexturing of grinding wheels. On the other hand, laser groove manufacturing requires the fine tuning of laser beam parameters before texturing and high power consumption control and entails high equipment maintenance costs.

2.4. 3D-Printed Grooves

The emergence of 3D printing technology enabled the fabrication of grinding wheels with intricate porous structures in a novel manner. Except for work developed by Qiu et al. [50], who produced a multi-layer engineered abrasive wheel, additive manufacturing is the only method that presents the possibility of texturing a wheel to the fullest extent, eliminating the need to refashion grooves after wear.
Grooved grinding wheels produced by this method can be obtained in different ways. Laser-assisted 3D printing systems employ high-powered laser beams to sinter or fuse consecutive cross sections of material to create a product, while DIW (direct ink writing) is an extrusion-based, heat-free approach, in which a ceramic ink can be extruded through a nozzle and form the desired structure [81]. Table 7 summarizes the work developed in this area; Table 8 specifies the groove geometries and the 3D printing methods used.
Table 7. Summary of publications on 3D printed grooves.
Author and Year Summary
Tian et al., (2018) [82] In this work, a novel approach for fabricating porous, metal-bonded grinding wheels using selective laser melting (SLM) technology was developed.
Du et al., (2019) [83] In this investigation, resin-bonded diamond grinding wheels with internal cooling holes were 3D-printed using selective laser sintering (SLS).
Wang et al., (2021) [84] The method described by Tian et al. [82] was used to produce four wheels with different groove geometries. The focus of the work was the grinding performance that could be achieved with different grinding wheels.
Li et al., (2021) [85] The method described by Tian et al. [82] was used to produce three wheels with different groove geometries. Here, the focus was on the design and modeling of the different grinding wheels.
Huang et al., (2021) [81] This work describes the use of direct ink writing (DIW) to manufacture three types of vitrified grinding wheels with varied groove geometries.
Table 8. Three-dimensional printing methods and geometries.
Author and Year Method Groove Geometry
Form Width (mm)
Tian et al., (2018) [82] SLM Honeycomb and octahedron structure -
Du et al., (2019) [83] SLS Holes 1.5 and 2.5
Wang et al., (2021) [84] SLM Octahedron, Schwarz P, Schwarz D, and Schoen I-WP structures -
Li et al., (2021) [85] SLM Schwarz P, Schwarz D, and Schoen I-WP structures -
Huang et al., (2021) [81] DIW Triangle and lattice 4 and 6
The SLM manufacturing principle adopted by some authors [82][83][84][85] is represented in Figure 11 [82], and some texturized grinding wheels that have been produced are shown in Figure 12 [82][85]. The SLM device has a powder supply system and a laser scanning system. The laser beam will selectively melt the AlSi10Mg powder layer by layer in accordance with the CAD data. The molten alloy powder will then solidify around the diamond abrasive grain to form the grinding wheel’s bond. The manufacturing is conducted in an inert atmosphere, and the wheel head is assembled on an aluminum substrate. Using wire electro-discharge machining, the wheel head is separated from the substrate following manufacture.
Figure 11. Principle of the SLM process [82].
Figure 12. Abrasive wheels structured by the SLM method by (a) Tian et al. [82] and (b) Li et al. [85].
The disadvantage of the SLM method is that, due to the temperatures involved, graphitization of diamond grains may occur. Furthermore, as the laser melts the powders into a layer-by-layer mass, some inhomogeneity among the layers may result [81].
The SLS technique developed by Du et al. [83] to produce structured abrasive wheels is likewise based on additive layer-by-layer manufacture. The nylon powder used for the 3D-printed grooves has not been scanned and sintered. After SLS, the untreated nylon powder is lost and flows out, leaving grooves like those shown in Figure 13. According to the authors, it is impossible to create internal linked holes with diameters of less than 1.5 mm. When printing smaller holes, the holes will get blocked, and internal channels cannot be generated [83].
Materials 15 08044 g016 550
Figure 13. Abrasive grinding wheel with internal cooling holes produced by the SLS method [83].
The manufacturing method proposed by Huang et al. [81] and the appearance of the grinding wheels are presented in Figure 14. The DIW method consists, first, in preparing a ceramic ink by dissolving xanthan gum in water and then mixing it with n68 (vitrified bond powder), polymethyl methacrylate (PMMA—as the pore former), and diamond powder (W10), previously homogenized (Figure 14a,b). Then, as shown in Figure 14c, the ceramic ink is extruded by a direct ink writing machine. After the sintering process, the manufactured grinding wheels are cooled in an oven. A final sample can be seen in Figure 14d.
Figure 14. Fabrication procedure of the diamond grinding wheel by DIW: (a) mixing of components, (b) formulation, (c) printing and (d) final appearance of the sample [81].
Additive manufacturing technology can be used in a variety of ways to build textured abrasive wheels. Despite being a method that requires a lot of time and resources, it can produce three-dimensional grooves, eliminating the need for tool reconditioning.

2.5. Segmented Grooves

Grinding wheels with segmented grooves are produced by including segments in the grinding wheel’s manufacturing mold. The grooves will have the shape of the segments present in the mold. Once the grooves are completely worn out, it is not possible, by this method, to produce them again. An example of a segmented grinding wheel is shown in Figure 15 [86].
Materials 15 08044 g018 550
Figure 15. A segmented grinding wheel [86].
Table 9 summarizes the main subject of each published work on segmented wheels.
Table 9. Summary of the works on segmented grooves.
Author and Year Summary
Tawakoli et al., (2011a) [87] A segmented grinding wheel was designed, fabricated, and tested. The conventional grinding process was compared with the intermittent grinding process.
Tawakoli et al., (2011b) [86] Study of the feasibility of intermittent grinding with a segmented wheel using two ceramic matrix composite (CMC) materials.
Azarhoushang et al., (2014) [88] Study of the wear of non-segmented and segmented diamond wheels in high-speed deep grinding of carbon-fiber-reinforced ceramics.
From Table 9, it can be seen that the works carried out using this method compare different aspects of the grinding operation of a segmented grinding wheel with the operation of a conventional wheel. All works used the same groove geometry, shown in Figure 18, with an intermittent ratio of 0.5. The authors did not provide detailed information on the abrasive wheel manufacturing method.

2.6. Abrasive Waterjet

Abrasive waterjet (AWJ) machining is regarded as a cold material removal technique with great potential for the very effective dressing of grinding wheels [89]. As shown schematically in Figure 16, the high-velocity abrasive waterjet is targeted and injected in a radial mode at a standoff distance from the abrasive waterjet nozzle to the target grinding wheel [90]. Table 10 summarizes the works in this area; Table 11 specifies the studied groove geometries.
Figure 16. Illustration of the texturing procedure by microabrasive waterjet [90].
Table 10. Summary of publications on grooves produced by AWJ.
Author and Year Summary
Li et al., (2018) [91] This research presented a method for designing groove shapes based on the intended operating temperature.
Zhang et al., (2019) [92] This study aimed to estimate the essential profile characteristics, including groove depth and groove breadth, of the grooves on AWJ-textured metal-bonded grinding wheels.
Zhang et al., (2021) [93] The mechanisms behind the AWJ truing process and the integrated rough–fine grinding process were studied to guide the development of the technology.
Table 11. Geometries and dimensions of the grooves produced by AWJ.
Author and Year Groove Geometry
Form Angle (deg) Width (mm) Depth (mm)
Li et al., (2018) [91] Helical, zigzag, and “V” shape 31.4, 50.5, and 180 1.74 and 1.91 -
Zhang et al., (2019) [92] Helical 90 ~0.9–1.1 0.6–1
Zhang et al., (2021) [93] Helical 90 1.6 0.5
The low dressing accuracy associated with AWJ micromachining technology is a significant obstacle to its employment in the production of grinding wheels with precise grooves [93]. Therefore, the authors who study this method, as can be seen in Table 10, seek to optimize the precision of the groove production process. From Table 11, it can be seen that the geometries used are relatively simple, although it is possible to produce discontinuous grooves with angular shapes, as shown in Figure 17 [91].
Materials 15 08044 g020 550
Figure 17. Grooves produced by the AWJ method [91].

This entry is adapted from the peer-reviewed paper 10.3390/ma15228044

References

  1. Bazan, A.; Kawalec, A.; Rydzak, T.; Kubik, P. Variation of Grain Height Characteristics of Electroplated CBN Grinding-Wheel Active Surfaces Associated with Their Wear. Metals 2020, 10, 1479.
  2. Gołąbczak, M.; Święcik, R.; Gołąbczak, A.; Kaczmarek, D.; Dębkowski, R.; Tomczyk, B. Electrodischarge Methods of Shaping the Cutting Ability of Superhard Grinding Wheels. Materials 2021, 14, 6773.
  3. El-Hofy, H. Fundamentals of Machining Processes: Conventional and Nonconventional Processes, 3rd ed.; CRC Press: Boca Raton, FL, USA, 2018; ISBN 9780429443329.
  4. Nadolny, K.; Kieraś, S. Experimental Studies on the Centrifugal MQL-CCA Method of Applying Coolant during the Internal Cylindrical Grinding Process. Materials 2020, 13, 2383.
  5. Zhang, X.; Wen, D.; Shi, Z.; Li, S.; Kang, Z.; Jiang, J.; Zhang, Z. Grinding Performance Improvement of Laser Micro-Structured Silicon Nitride Ceramics by Laser Macro-Structured Diamond Wheels. Ceram. Int. 2020, 46, 795–802.
  6. Nguyen, T.; Zhang, L.C. Performance of a New Segmented Grinding Wheel System. Int. J. Mach. Tools Manuf. 2009, 49, 291–296.
  7. Mohamed, A.M.O.; Bauer, R.; Warkentin, A. Application of Shallow Circumferential Grooved Wheels to Creep-Feed Grinding. J. Mater. Process. Technol. 2013, 213, 700–706.
  8. Oliveira, J.F.G.; Bottene, A.C.; França, T.V. A Novel Dressing Technique for Texturing of Ground Surfaces. CIRP Ann. 2010, 59, 361–364.
  9. Gavas, M.; Karacan, Ä.; Kaya, E. A Novel Method to Improve Surface Quality in Cylindrical Grinding. Exp. Tech. 2011, 35, 26–32.
  10. Tawakoli, T.; Lee, D.H.; Rasifard, A. Dry Plunge Cylindrical Grinding Utilising Structured Grinding Wheel. Int. J. Mechatron. Manuf. Syst. 2012, 5, 154–164.
  11. Aurich, J.C.; Kirsch, B. Improved Coolant Supply through Slotted Grinding Wheel. CIRP Ann. Manuf. Technol. 2013, 62, 363–366.
  12. Nadolny, K. Micro-Discontinuities of the Grinding Wheel and Their Effects on Its Durability during Internal Cylindrical Grinding. Mach. Sci. Technol. 2013, 17, 74–92.
  13. Silva, E.J.D.; de Oliveira, J.F.G.; Salles, B.B.; Cardoso, R.S.; Reis, V.R.A. Strategies for Production of Parts Textured by Grinding Using Patterned Wheels. CIRP Ann. 2013, 62, 355–358.
  14. Köklü, U. Grinding with Helically Grooved Wheels. Proc. Inst. Mech. Eng. Part E J. Process. Mech. Eng. 2014, 228, 33–42.
  15. Mohamed, A.-M.O.; Bauer, R.; Warkentin, A. A Novel Method for Grooving and Re-Grooving Aluminum Oxide Grinding Wheels. Int. J. Adv. Manuf. Technol. 2014, 73, 715–725.
  16. Gavas, M.; Kỳna, M.; Köklü, U. Effects of Various Helically Angled Grinding Wheels on the Surface Roughness and Roundness in Grinding Cylindrical Surfaces. Mater. Technol. 2015, 49, 865–870.
  17. Denkena, B.; Grove, T.; Göttsching, T. Grinding with Patterned Grinding Wheels. CIRP J. Manuf. Sci. Technol. 2015, 8, 12–21.
  18. Denkena, B.; Grove, T.; Göttsching, T.; da Silva, E.J.; Coelho, R.T.; Filleti, R. Enhanced Grinding Performance by Means of Patterned Grinding Wheels. Int. J. Adv. Manuf. Technol. 2015, 77, 1935–1941.
  19. Wójcik, R.; Nadolny, K. The Effect of the Grinding Wheel Modification on the State of the Workpiece Surface Layer after Internal Cylindrical Grinding of Steel C45. Proc. Inst. Mech. Eng. E J. Process. Mech. Eng. 2017, 231, 1162–1173.
  20. Azarhoushang, B.; Daneshi, A.; Lee, D.H. Evaluation of Thermal Damages and Residual Stresses in Dry Grinding by Structured Wheels. J. Clean. Prod. 2017, 142, 1922–1930.
  21. Caydas, U.; Çelk, M. Genetic Algorithm-Based Optimization for Surface Roughness in Cylindrically Grinding Process Using Helically Grooved Wheels. Surf. Rev. Lett. 2017, 24, 1850031.
  22. Liu, Y.; Gong, S.; Li, J.; Cao, J. Effects of Dressed Wheel Topography on Patterned Surface Textures and Grinding Force. Int. J. Adv. Manuf. Technol. 2017, 93, 1751–1760.
  23. Silva, E.J.; Kirsch, B.; Bottene, A.C.; Simon, A.; Aurich, J.C.; Oliveira, J.F.G. Manufacturing of Structured Surfaces via Grinding. J. Mater. Process. Technol. 2017, 243, 170–183.
  24. Mohamed, A.L.-M.O.; Warkentin, A.; Bauer, R. Prediction of Workpiece Surface Texture Using Circumferentially Grooved Grinding Wheels. Int. J. Adv. Manuf. Technol. 2017, 89, 1149–1160.
  25. Cao, H.; Chen, X.; Li, H. Dressing Strategy and Grinding Control for Cylindrical Microstructural Surface. Int. J. Adv. Manuf. Technol. 2018, 99, 707–727.
  26. Daneshi, A.; Müller, K.; Azarhoushang, B. Cylindrical Plunge Grinding of Twist Free Surfaces by Structured Wheels. Precis. Eng. 2018, 51, 481–489.
  27. Silva, E.J.D.; Marcos, G.P.; Venter, G.S.; Bottene, A.C.; Oliveira, J.F.G.D.; Rodrigues, C.A. Development of a Patterning System for Vitrified CBN Wheels Based on Modal Analysis. CIRP Ann. 2018, 67, 341–344.
  28. Dewar, S.; Bauer, R.; Warkentin, A. Application of High-Angle Helical-Grooved Vitrified Wheels to Cylindrical Plunge Grinding. Int. J. Adv. Manuf. Technol. 2018, 96, 2443–2453.
  29. Forbrigger, C.; Bauer, R.; Warkentin, A. Improving the Accuracy of a Profile Grinding Wheel Grooving Robot Attachment for a CNC Grinding Machine. Int. J. Adv. Manuf. Technol. 2018, 98, 3205–3216.
  30. Forbrigger, C.; Warkentin, A.; Bauer, R. Improving the Performance of Profile Grinding Wheels with Helical Grooves. Int. J. Adv. Manuf. Technol. 2018, 97, 2331–2340.
  31. Denkena, B.; Grove, T.; Gartzke, T. Wear Mechanisms of CVD Diamond Tools for Patterning Vitrified Corundum Grinding Wheels. Wear 2019, 436–437, 203007.
  32. Patel, A.; Bauer, R.J.; Warkentin, A. Investigation of the Effect of Speed Ratio on Workpiece Surface Topography and Grinding Power in Cylindrical Plunge Grinding Using Grooved and Non-Grooved Grinding Wheels. Int. J. Adv. Manuf. Technol. 2019, 105, 2977–2987.
  33. Riebel, A.; Bauer, R.; Warkentin, A. Investigation into the Effect of Wheel Groove Depth and Width on Grinding Performance in Creep-Feed Grinding. Int. J. Adv. Manuf. Technol. 2020, 106, 4401–4409.
  34. Li, H.N.; Axinte, D. Textured Grinding Wheels: A Review. Int. J. Mach. Tools Manuf. 2016, 109, 8–35.
  35. Zhang, Y.; Fang, C.; Huang, G.; Xu, X. Modeling and Simulation of the Distribution of Undeformed Chip Thicknesses in Surface Grinding. Int. J. Mach. Tools Manuf. 2018, 127, 14–27.
  36. Yuan, H.P.; Gao, H.; Liang, Y.D. Fabrication of a New-Type Electroplated Wheel with Controlled Abrasive Cluster and Its Application in Dry Grinding of CFRP. Int. J. Abras. Technol. 2010, 3, 299–315.
  37. Wang, S.; Li, C.; Jia, D.; Zhang, Y.; Zhang, Q. Modelling and Simulation of the Surface Topography Generation with Engineered Grinding Wheel. Int. J. Comput Mater. Sci. Surf. Eng. 2015, 6, 111–129.
  38. Yu, H.; Wang, J.; Lu, Y. Modeling and Analysis of Dynamic Cutting Points Density of the Grinding Wheel with an Abrasive Phyllotactic Pattern. Int. J. Adv. Manuf. Technol. 2016, 86, 1933–1943.
  39. Yu, H.; Wang, J.; Lu, Y. Simulation of Grinding Surface Roughness Using the Grinding Wheel with an Abrasive Phyllotactic Pattern. Int. J. Adv. Manuf. Technol. 2016, 84, 861–871.
  40. Yu, H.; Lu, Y.; Wang, J. Study on Wear of the Grinding Wheel with an Abrasive Phyllotactic Pattern. Wear 2016, 358–359, 89–96.
  41. Zhang, M.; Tan, Y.; Zhou, F.; Mao, C.; Xie, Z.; Li, C. Analysis of Flow Field in Cutting Zone for Spiral Orderly Distributed Fiber Tool. Int. J. Adv. Manuf. Technol. 2017, 92, 4345–4354.
  42. Ding, W.; Dai, C.; Yu, T.; Xu, J.; Fu, Y. Grinding Performance of Textured Monolayer CBN Wheels: Undeformed Chip Thickness Nonuniformity Modeling and Ground Surface Topography Prediction. Int. J. Mach. Tools Manuf. 2017, 122, 66–80.
  43. Lyu, Y.; Yu, H.; Wang, J.; Chen, C.; Xiang, L. Study on the Grinding Temperature of the Grinding Wheel with an Abrasive Phyllotactic Pattern. Int. J. Adv. Manuf. Technol. 2017, 91, 895–906.
  44. Yu, H.; Lyu, Y.; Wang, J.; Wang, X. A Biomimetic Engineered Grinding Wheel Inspired by Phyllotaxis Theory. J. Mater. Process. Technol. 2018, 251, 267–281.
  45. Yu, H.; Lyu, Y.; Wang, J. Experimental Investigation on Grinding Temperature of Ti–6Al–4 V Using Biomimetic Engineered Grinding Wheel. Int. J. Precis. Eng. 2019, 6, 163–173.
  46. Yu, H.; Lyu, Y.; Wang, J. Green Manufacturing with a Bionic Surface Structured Grinding Wheel-Specific Energy Analysis. Int. J. Adv. Manuf. Technol. 2019, 104, 2999–3005.
  47. Yu, H.; Zhang, W.; Lyu, Y.; Wang, J. Research on Grinding Forces of a Bionic Engineered Grinding Wheel. J. Manuf. Process. 2019, 48, 185–190.
  48. Zhang, Y.; Xu, X. Influence of Surface Topography Evolution of Grinding Wheel on the Optimal Material Removal Rate in Grinding Process of Cemented Carbide. Int. J. Refract. Met. Hard Mater. 2019, 80, 130–143.
  49. Zhang, Y.; Fang, C.; Huang, G.; Cui, C.; Xu, X. Numerical and Experimental Studies on the Grinding of Cemented Carbide with Textured Monolayer Diamond Wheels. Int. J. Refract. Met. Hard Mater. 2019, 84, 105022.
  50. Qiu, Y.; Huang, H. Research on the Fabrication and Grinding Performance of 3-Dimensional Controllable Abrasive Arrangement Wheels. Int. J. Adv. Manuf. Technol. 2019, 104, 1839–1853.
  51. Zhu, Y.; Ding, W.; Rao, Z.; Zhao, Z. Self-Sharpening Ability of Monolayer Brazed Polycrystalline CBN Grinding Wheel during High-Speed Grinding. Ceram. Int. 2019, 45, 24078–24089.
  52. Zhang, F.-L.; Li, M.-C.; Wang, J.; Huang, H.-P.; Wang, C.-Y.; Zhou, Y.-M. Effect of Arraying Parameters on Dry Grinding Performance of Patterned Monolayer Brazed CBN Wheel. Int. J. Adv. Manuf. Technol. 2020, 107, 2081–2089.
  53. Peng, R.; Liu, K.; Tong, J.; Tang, X. Performance of the Internal-Cooling Grooved Grinding Wheel with Patterned Abrasives. Int. J. Adv. Manuf. Technol. 2020, 106, 1633–1644.
  54. Peng, R.; Tong, J.; Tang, X.; Huang, X.; Liu, K. Application of a Pressurized Internal Cooling Method in Grinding Inconel 718: Modeling-Simulation and Testing-Validation. Int. J. Mech. Sci. 2021, 189, 105985.
  55. Peng, R.; Luo, Y.; Liu, B.; Tong, J.; Zhao, L. Application of Bionic Phyllotaxis in Internal Cooling Cup Wheel: Modeling-Simulation and Experimental Verification. Int. J. Adv. Manuf. Technol. 2021, 114, 3803–3822.
  56. Guo, Z.; Cheng, J.; Wu, J.; Zhang, X.; Liu, B. Modeling and Experimental Study on the Grinding Performance of Precision Diamond Grinding Tool with Defined Texture. Int. J. Adv. Manuf. Technol. 2022.
  57. Wang, W.; Zhang, Q.; Chu, C.; Zhang, Z.; Xu, J. Simulation and Experimental Study of the Ground Surface Topography of GH4169 by Grains Arrayed Brazed Diamond Wheels. Int. J. Adv. Manuf. Technol. 2022, 118, 303–317.
  58. Peng, R.; Zhao, L.; Tong, J.; Chen, M.; Zhou, M.; Li, A. Design and Evaluation of an Internal-Cooling Grooved Grinding Wheel. J. Manuf. Process. 2022, 73, 1–16.
  59. Wardlaw, C.W. Phyllotaxis and Organogenesis in Ferns. Nature 1949, 164, 167–169.
  60. Azarhoushang, B.; Zahedi, A. Laser Conditioning and Structuring of Grinding Tools—A Review. Adv. Manuf. 2017, 5, 35–49.
  61. Shankar, U.; Babu, N.R. A Model for Predicting the Geometry of Crater on Grinding Wheel Surface Ablated with a Single Pulsed Laser. Procedia Manuf. 2018, 26, 509–520.
  62. Li, H.N.; Zhao, Y.J.; Cao, S.; Chen, H.; Wu, C.; Qi, H.; Sun, X.; Wang, H.; Li, C.; Liu, G. Controllable Generation of 3D Textured Abrasive Tools via Multiple-Pass Laser Ablation. J. Mater. Process. Technol. 2021, 295, 117149.
  63. Cai, S.; Liu, W.; Song, J.; Deng, K.; Tang, Y. Research and Progress on Truing and Sharpening Process of Diamond Abrasive Grinding Tools. Appl. Sci. 2022, 12, 4683.
  64. Guo, B.; Zhao, Q.; Yu, X. Surface Micro-Structuring of Coarse-Grained Diamond Wheels by Nanosecond Pulsed Laser for Improving Grinding Performance. Int. J. Precis. Eng. 2014, 15, 2025–2030.
  65. Deng, H.; He, J. A Study of the Grinding Performance of Laser Micro-Structured Coarse-Grained Diamond Grinding Wheels. Int. J. Adv. Manuf. Technol. 2017, 93, 1989–1997.
  66. Zhang, X.H.; Kang, Z.X.; Li, S.; Wu, Q.P.; Zhang, Z.C. Experimental Investigations on the Impact of Different Laser Macro-Structured Diamond Grinding Wheels on Alumina Ceramic. Int. J. Adv. Manuf. Technol. 2018, 96, 1959–1969.
  67. Guo, B.; Wu, M.; Zhao, Q.; Liu, H.; Zhang, J. Improvement of Precision Grinding Performance of CVD Diamond Wheels by Micro-Structured Surfaces. Ceram. Int. 2018, 44, 17333–17339.
  68. Zhang, X.; Kang, Z.; Li, S.; Shi, Z.; Wen, D.; Jiang, J.; Zhang, Z. Grinding Force Modelling for Ductile-Brittle Transition in Laser Macro-Micro-Structured Grinding of Zirconia Ceramics. Ceram. Int. 2019, 45, 18487–18500.
  69. Zhang, X.; Zhang, Z.; Deng, Z.; Li, S.; Wu, Q.; Kang, Z. Precision Grinding of Silicon Nitride Ceramic with Laser Macro-Structured Diamond Wheels. Opt. Laser Technol. 2019, 109, 418–428.
  70. Wu, M.; Guo, B.; Zhao, Q.; Zhang, J.; Fang, X.; He, P. High Efficiency Precision Grinding of Micro-Structured SiC Surface Using Laser Micro-Structured Coarse-Grain Diamond Grinding Wheel. Int. J. Precis. Eng. 2019, 6, 577–586.
  71. Azarhoushang, B.; Kadivar, M.; Bösinger, R.; Shamray, S.; Zahedi, A.; Daneshi, A. High-Speed High-Efficient Grinding of CMCs with Structured Grinding Wheels. Int. J. Abras. Technol. 2019, 9, 1–15.
  72. Deng, H.; Xu, Z.; Wang, L.; Zhu, P. Laser Micro-Structuring of a Coarse-Grained Diamond Grinding Wheel. Int. J. Adv. Manuf. Technol. 2019, 101, 2947–2954.
  73. Li, C.; Shi, Z.J.; Zhang, X.H.; Shi, Z.Y.; Li, S.; Jiang, R.Y.; Wang, Z.R.; Zhang, Z.C. An Investigation on Grinding Mechanism of Alumina Ceramic Using a Grooved Grinding Wheel with Inclined Cross Section. Int. J. Adv. Manuf. Technol. 2020, 111, 2391–2399.
  74. Li, H.N.; Xie, K.G.; Wu, B.; Zhu, W.Q. Generation of Textured Diamond Abrasive Tools by Continuous-Wave CO2 Laser: Laser Parameter Effects and Optimisation. J. Mater. Process. Technol. 2020, 275, 116279.
  75. Wu, S.; Zhang, F.; Ni, Y.; Chen, F.; Yan, Z. Grinding of Alumina Ceramic with Microtextured Brazed Diamond End Grinding Wheels. Ceram. Int. 2020, 46, 19767–19784.
  76. Zhang, X.; Wang, Z.; Shi, Z.; Shi, Z.; Jiang, R.; Kang, Z. Improved Grinding Performance of Zirconia Ceramic Using an Innovative Biomimetic Fractal-Branched Grinding Wheel Inspired by Leaf Vein. Ceram. Int. 2020, 46, 22954–22963.
  77. Zhao, X.; Yu, T.; Jia, C.; Lu, S.; Chen, L.; Wang, W. Study on Textured CBN Grinding Wheel by Laser Cladding. Int. J. Adv. Manuf. Technol. 2020, 106, 865–876.
  78. Monier, A.; Guo, B.; Zhao, Q.; Mahmoud, T.S. Modeling and Simulation of the Advanced Structured Surfaces Machined by Specially Patterned Grinding Wheels via the Structuring Grinding Process. Int. J. Adv. Manuf. Technol. 2022, 119, 3321–3342.
  79. Hou, Z.; Yao, Z.; Sun, Y.; Shen, H. Grooving Profile Control for Structured Grinding Wheels with Picosecond Pulsed Laser. Int. J. Adv. Manuf. Technol. 2022, 119, 5851–5862.
  80. Geng, Z.; Tong, Z.; Huang, G.; Zhong, W.; Cui, C.; Xu, X.; Jiang, X. Micro-Grooving of Brittle Materials Using Textured Diamond Grinding Wheels Shaped by an Integrated Nanosecond Laser System. Int. J. Adv. Manuf. Technol. 2022, 119, 5389–5399.
  81. Huang, J.; Lu, J.; Wang, Y.; Ma, Z. Fabrication of Porous Structure Vitrified Bond Diamond Grinding Wheel via Direct Ink Writing. Ceram. Int. 2021, 47, 34050–34058.
  82. Tian, C.; Li, X.; Zhang, S.; Guo, G.; Wang, L.; Rong, Y. Study on Design and Performance of Metal-Bonded Diamond Grinding Wheels Fabricated by Selective Laser Melting (SLM). Mater. Des. 2018, 156, 52–61.
  83. Du, Z.-J.; Zhang, F.-L.; Xu, Q.-S.; Huang, Y.-J.; Li, M.-C.; Huang, H.-P.; Wang, C.-Y.; Zhou, Y.-M.; Tang, H.-Q. Selective Laser Sintering and Grinding Performance of Resin Bond Diamond Grinding Wheels with Arrayed Internal Cooling Holes. Ceram. Int. 2019, 45, 20873–20881.
  84. Wang, C.; Wang, D.; Tian, C.; Wang, L.; Rong, Y.; Li, X. Grinding Performance Evaluation of 3D-Printed Porous Metal-Bonded Grinding Wheel in BK7 Glass Grinding. Int. J. Adv. Manuf. Technol. 2021, 117, 1445–1457.
  85. Li, X.; Wang, C.; Tian, C.; Fu, S.; Rong, Y.; Wang, L. Digital Design and Performance Evaluation of Porous Metal-Bonded Grinding Wheels Based on Minimal Surface and 3D Printing. Mater. Des. 2021, 203, 109556.
  86. Tawakoli, T.; Azarhoushang, B. Intermittent Grinding of Ceramic Matrix Composites (CMCs) Utilizing a Developed Segmented Wheel. Int. J. Mach. Tools Manuf. 2011, 51, 112–119.
  87. Tawakoli, T.; Azarhoushang, B. Theoretical and Experimental Investigation of Intermittent Grinding of SiC with a Segmented Grinding Wheel. Int. J. Abras. Technol. 2011, 4, 90–99.
  88. Azarhoushang, B. Wear of Non-Segmented and Segmented Diamond Wheels in High-Speed Deep Grinding of Carbon Fibre-Reinforced Ceramics. Int. J. Adv. Manuf. Technol. 2014, 74, 1293–1302.
  89. Wang, J. Abrasive Waterjet Machining of Engineering Materials; Trans Tech Publications: Zurich, Switzerland, 2003; ISBN 0878499180.
  90. Su, F.; Zhang, Z.; Yao, P.; Yu, H.; Xing, H.; Ge, M.; Zhao, Y. Fabrication of Cylindrical Microlens Array on RB-SiC Moulds by Precision Grinding with MAWJ-Textured Diamond Wheels. Appl. Sci. 2022, 12, 6893.
  91. Li, H.N.; Axinte, D. On the Inverse Design of Discontinuous Abrasive Surface to Lower Friction-Induced Temperature in Grinding: An Example of Engineered Abrasive Tools. Int. J. Mach. Tools Manuf. 2018, 132, 50–63.
  92. Zhang, Z.; Yao, P.; Huang, C.; Wang, J.; Xue, D.; Deng, W.; Zhang, Z. Investigation and Modeling of Microgrooves Generated on Diamond Grinding Wheel by Abrasive Waterjet Based on Box–Behnken Experimental Design. Int. J. Adv. Manuf. Technol. 2019, 100, 321–332.
  93. Zhang, Z.; Yao, P.; Wang, J.; Bao, X.; Ye, Z.; Huang, C.; Zhu, H.; Zou, B.; Liu, H. The Mechanisms of High-Efficiency Grinding for Micro/Meso-Structural Arrays on Ceramic Moulds through an Innovative Wheel Truing Technology. Ceram. Int. 2021, 47, 27624–27638.
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