CN108748709B - Stone sawing method and device with saw blades rotating continuously in one direction - Google Patents
Stone sawing method and device with saw blades rotating continuously in one direction Download PDFInfo
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- CN108748709B CN108748709B CN201810554461.1A CN201810554461A CN108748709B CN 108748709 B CN108748709 B CN 108748709B CN 201810554461 A CN201810554461 A CN 201810554461A CN 108748709 B CN108748709 B CN 108748709B
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B28—WORKING CEMENT, CLAY, OR STONE
- B28D—WORKING STONE OR STONE-LIKE MATERIALS
- B28D1/00—Working stone or stone-like materials, e.g. brick, concrete or glass, not provided for elsewhere; Machines, devices, tools therefor
- B28D1/02—Working stone or stone-like materials, e.g. brick, concrete or glass, not provided for elsewhere; Machines, devices, tools therefor by sawing
- B28D1/12—Saw-blades or saw-discs specially adapted for working stone
- B28D1/127—Straight, i.e. flat, saw blades; strap saw blades
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Abstract
The invention discloses a stone sawing method and a stone sawing device with a saw blade rotating unidirectionally and continuously. The frame-sawing rotary stone slab gang saw machine used in the method comprises a circular translation link mechanism type frame sawing device and a stone raw material feeding device, wherein the circular translation link mechanism type frame sawing device drives diamond sheet saw blades arranged in parallel in a saw frame to do circular motion under the action of a driving system and form relative motion with continuously fed stone raw materials so as to mill stone; the raw stone material feeding device loads raw stone materials and continuously feeds the raw stone materials along the direction parallel to the rotation plane of the saw frame until the whole raw stone material passes through the saw frame and is cut into thin plates. The stone sawing method with the saw blade rotating unidirectionally and continuously overcomes the fatal defect that the sawteeth of the existing stone gang saw machine are subjected to alternating fatigue stress to cause quick falling, greatly increases the cutting efficiency, and reduces the maintenance cost and the labor loss. It is suitable for processing various stone materials into thin plates.
Description
Technical Field
The present invention relates to stone machining methods and apparatus, and more particularly to methods and apparatus for machining stone by sawing.
Background
The stone block is mined from a mine and then cut into boards, strips or block semi-finished products for subsequent processing. Cutting of stone blocks is currently performed by means of circular saws, wire saws and reciprocating wire saws. However, the cutting method still has various limitations on key problems such as cutting of large-size rough materials, cutting of hard and brittle stones, outturn rate of rough materials, machining efficiency, service life of cutters and the like. At present, the cutting method of the rough stone material is mainly four: (1) the swing type steel sand grinding and cutting method and the granite swing type steel sand saw equipment developed according to the method are generally used for processing granite plates with Mohs hardness of more than 5 degrees due to lower efficiency; the method utilizes the impact grinding of the saw blade and the prismatic steel sand to the granite material to realize the slitting function, which is the present large-scale granite plate slitting process equipment with the most use amount. (2) The wire saw rotary cutting method and the wire rope bead saw developed according to the method are recommended to be used in developed countries such as Europe and America in recent years, namely a certain amount of diamond cylindrical cutters are fixed on an annular thin wire rope, stone is cut by utilizing continuous high-speed rotation of the wire rope, and the process equipment has the advantages of simple structure and high cutting efficiency due to the fact that the very sharp diamond cutters are used. (3) The circular saw rotary cutting method and the circular saw blade sawing equipment developed based on the method adopt a large-diameter diamond circular saw blade rotating at a high speed to cut stone materials, and due to the limitation of the diameter of the saw blade, when the saw blade with the maximum diameter of 3000mm is used, only plates with the width size smaller than 1200mm can be processed, the surface quality of the plates is poor, and the problem that the saw gap is larger than 8mm also exists. The two sawing methods are characterized in that the continuous rotation scheme of the cutter is used, and the diamond cutter bears in one direction, so that the two sawing methods have the characteristics of high efficiency and long service life of the cutter; the defects of large saw kerf, low outturn rate and resource waste. (4) The cutting method of the reciprocating motion of the straight-line saw and stone gang saw machine developed according to the method, but the existing stone gang saw machine is generally only used for processing marble, limestone and other stones with Mohs' hardness of less than 5 degrees, the required cutting force is larger for granite, quartz, jade and the like with higher hardness, when the cutter teeth of the diamond saw blade of the existing stone gang saw machine reciprocate, the welding strength and the steel band saw blade are difficult to bear reciprocating alternating load, so the stone gang saw machine is not popularized and used; another reason that the cutting efficiency of the existing stone gang saw machine is low is that the linear velocity of the cutter is too low, the reciprocating motion mechanism of the crank connecting rod is adopted, the cutter is influenced by a saw frame with large mass, the reciprocating velocity is difficult to improve, the sawing frequency in unit time is less, the speed of the reciprocating cutter is not uniform, when the saw frame is reversed, the linear velocity is 0, stone continuously fed can form huge positive pressure on the cutter, and the effective use of the cutter is not facilitated.
In the Chinese patent database, the application parts related to stone sawing are as follows: 931096472 method for sawing thin stone sheets/plates from stone, ZL942367928 method for sawing reciprocating stone, ZL02206849X stone, 2011101016766 method for sawing novel stone, ZL2015105285030 chain saw cutter, 2015101208459 chain saw cutter, 2017111390531 method for cutting arc and oval profiles of stone by using circular saw, etc., which can not process granite plates by the unidirectional movement of saw blade and can not overcome the defects of the existing various cutting methods.
Disclosure of Invention
The invention aims to provide a stone sawing method with a saw blade rotating unidirectionally and continuously, which realizes the unidirectional movement of the saw blade to process granite plates, thereby overcoming the defects of various cutting methods.
The invention also aims to provide a stone plate gang saw machine with a rotary saw frame, which realizes a stone sawing method with a saw blade rotating in a unidirectional and continuous manner.
The inventor finds in practice that: the key point for overcoming the defects of various cutting methods is to solve the alternating stress condition of the saw blade of the stone gang saw machine, realize the unidirectional movement of the saw blade to process granite plates, greatly improve the stress condition of the diamond cutter teeth of the saw blade, and adopt the diamond cutter manufactured by the latest technology, thereby reducing the thickness of the saw blade, and changing the conditions of large saw gap, low efficiency and high energy consumption of the existing high-hardness stone sawing. And for marble stone with lower hardness, the service life of the saw blade is greatly prolonged, and the use cost is reduced.
Therefore, the stone sawing method with the saw blade rotating in a single direction and continuously provided by the inventor is a saw frame continuous rotating device using a double-crank quadrilateral mechanism principle, wherein a connecting rod of the saw frame continuous rotating device using the double-crank quadrilateral mechanism principle is a saw frame for mounting the saw blade; the main crank rotates continuously under the driving action of the power system to drive the driven crank to rotate synchronously, so that the saw frame is driven to do circular translation motion. When the rotary saw frame reaches a certain quadrant point in the feeding direction of the stone material, the group of saw blades in the saw frame collide with the stone material, the potential energy of the continuous rotary device of the saw frame does work to form a milling action, and therefore the stone material is cut; when the rotary saw frame leaves the stone, the continuous rotary device of the saw frame continuously rotates to store energy for the next period of milling action.
The double-crank quadrilateral mechanism can be a parallelogram link mechanism with equal length of the driving crank and the driven crank which are preferentially used, and can also be a quadrilateral link mechanism with different lengths of the driving crank and the driven crank.
The driving power of the double-crank quadrilateral mechanism is arranged at the end of the driving crank, and when the saw blades are more, the driving power system capable of synchronously rotating is arranged at the end of the driving crank and the end of the driven crank.
The continuous rotation speed of the double-crank quadrilateral connecting rod saw frame is not lower than 100r/min when the double-crank quadrilateral connecting rod saw frame works, and the length of the driving crank is not lower than 50 mm.
The invention provides a saw frame rotary stone slab gang saw machine which is vertical and horizontal and comprises a power system, a circular translation link mechanism saw frame device and a stone raw material feeding device.
The power system consists of a motor, a transmission belt, a driving wheel, a driving shaft, a driven wheel, a driven shaft and a synchronous connecting rod, wherein the motor, the transmission belt, the driving wheel and a driving crank are arranged above the vertical saw frame rotary stone slab gang saw machine, the driven wheel and a driven crank are arranged below the vertical saw frame rotary stone slab gang saw machine, and the synchronous connecting rod connects the driving wheel and the driven wheel to run synchronously; the tail ends of the driving crank and the driven crank are connected with the saw frame.
The saw frame of the circular translation link mechanism uses the principle of a double-crank quadrilateral mechanism, the saw frame device consists of a saw frame and saw blades, two ends of the saw blades are respectively fixed at the upper end and the lower end of the saw frame, a plurality of groups of parallel saw blades are arranged in the saw frame, and the saw teeth on the saw blades are made of high-hardness diamond materials.
The stone block feeding device mainly comprises a stone trolley, wherein the stone block is fixed on the stone trolley and moves along the direction parallel to the rotation track of the circumferential translation link mechanism type saw frame device at a set speed under the action of a driving system to realize milling feeding, and can also quickly and reversely move along the feeding track to realize tool withdrawal and return to the initial position; the driving shaft and the driven shaft are provided with fan-shaped deflection weight parts. Under the action of a driving system, the driving crank of the double-crank quadrilateral mechanism drives the diamond sheet saw blades arranged in parallel in the saw frame to do rotary motion, and the driven crank of the double-crank quadrilateral mechanism synchronously rotates along with the main crank to keep the diamond sheet saw blades arranged in parallel in the saw frame to do translational motion.
The driving crank and the driven crank are respectively one and are arranged on one side of the saw frame; when the saw blade is more, the 2 cranks with the axes in the same straight line can also be respectively arranged at the two sides of the saw frame.
The operation principle of the saw frame rotary stone slab gang saw machine is as follows: the device is a device for continuously rotating a saw frame according to a double-crank quadrilateral mechanism, and a connecting rod of the device is the saw frame for mounting a saw blade. The main crank rotates continuously under the driving action of the power system to drive the driven crank to rotate synchronously, so that the saw frame is driven to do circular translation motion. When the rotary saw frame reaches one of the quadrant points in the feeding direction of the stone material, the group of saw blades in the saw frame collide with the stone material, the potential energy of the continuous rotary device of the saw frame does work to form a milling action, and therefore the stone material is cut; when the rotary saw frame leaves the stone, the continuous rotary device of the saw frame continuously rotates to store energy for the next period of milling action.
The inventor points out that: the double-crank quadrilateral mechanism can be a parallelogram link mechanism with equal length of a driving crank and a driven crank which are preferentially used, and can also be a quadrilateral link mechanism with different lengths of the driving crank and the driven crank; the driving power of the double-crank quadrilateral mechanism can be arranged at the end of the driving crank, and when the saw blades are more, the driving power system capable of synchronously rotating can be arranged at the end of the driving crank and the end of the driven crank.
The operation process of the saw frame rotary stone slab gang saw machine is as follows: the motor drives the driving wheel to rotate through the transmission belt, the driving wheel drives the driving crankshaft to rotate, the driving crankshaft drives the saw frame to rotate, the other 3 crankshafts rotate in a follow-up manner, and the saw frames connected to the driving shaft and the follow-up shaft synchronously rotate under the assistance of the synchronous connecting rod, so that the parallel rotation action is realized; the driving wheel drives one end of the crankshaft to rotate along the center of the bearing seat, and the other end of the crankshaft drives the saw frame to rotate by the designed eccentricity. The stone trolley moves oppositely at a low speed along the direction parallel to the motion trail of the diamond saw blade through the feeding driving device, and the saw blade rotates at a high speed under the drive of the saw frame. The cutting amount of the saw blade is as follows: the translation feeding amount of the trolley within the rotation time of the saw blade every time; each cut of the saw blade is completed only in a very short time in contact with the stone, and when the saw blade is rotated backward, the saw blade does not have any cutting impact with the stone. The diamond saw teeth are distributed at intervals, so that the profile of the cutting surface of the stone material is formed by continuously forming circular arc line segments instead of a straight line according to the size of the rotation circle of the saw blade. The eccentric balance weight arranged on the crankshaft is used for balancing the eccentric torque of the saw frame, so that basic dynamic balance is realized, the weakening of the service life of a bearing caused by the fact that the center of gravity deviates from the rotating axis is reduced, meanwhile, the eccentric balance weight and the centrifugal inertia generated by the saw frame during rotation effectively assist in resisting the cutting resistance of a saw blade, and the energy consumption is reduced. The saw blade in the saw frame cuts the stone block into thin plates with specified thickness, and the thin plates are ground and cut off to obtain the building stone plate with good decorative effect.
The stone sawing method with the saw blade rotating unidirectionally and continuously overcomes the fatal defect that the sawteeth of the existing stone gang saw machine are subjected to alternating fatigue stress to cause quick falling, greatly increases the cutting efficiency, and reduces the maintenance cost and the labor loss. It is suitable for processing various stone materials into thin plates.
Drawings
The accompanying drawings, which are included to provide a further understanding of the invention and are incorporated in and constitute a part of this specification, illustrate embodiments of the invention and together with the description serve to explain the principles of the invention and not to limit the invention.
FIG. 1 is a schematic view of a prior art stone gang saw machine;
FIG. 2 is a schematic view of a stone sawing method of the present invention in which a saw blade is rotated in a unidirectional and continuous manner;
FIG. 3 is another view of the principle of the stone sawing method with the saw blade rotating continuously in one direction according to the present invention;
FIG. 4 is a schematic view of a vertical type saw machine for stone slab row with rotary saw frame according to the present invention;
FIG. 5 is a side view of a vertical type of the saw frame rotary stone slab gang saw machine of the present invention;
FIG. 6 is a schematic view of a horizontal type stone slab gang saw machine with a rotary saw frame according to the present invention;
fig. 7 is a top view of a horizontal stone slab gang saw machine with a rotary saw frame according to the present invention.
In the figure, 1 is a translation saw frame, 2 is a slide block, 3 is a connecting rod, 4 is a flywheel, 5 is a driving power system, 6 is stone, 7 is a rotary connecting rod (rotary saw frame), 8 is a main crank, 9 is a driven crank, 10 is a synchronous connecting rod, 11 is a saw blade, 12 is an auxiliary driving power system, 13 is a trolley driving system, 14 is a rough material trolley, 15 is a follow-up trolley, 16 is a traction trolley, 17 is a conveying roller and 18 is a trolley lifting device.
Detailed Description
Example sawing of stone material "indian red" with a hardness of 7.8 to 8 ° was carried out with the method of the invention: the size of the raw material is 3m (length) x2m (width) x2m (thickness) to 12m3。
In order to make the objects, technical solutions and advantages of the present invention clearer, the technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings of the specification, and it is obvious that the described embodiments are some, but not all embodiments of the present invention. All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present invention.
Fig. 2 is a schematic view of a stone sawing method of the present invention in which a saw blade is rotated in a unidirectional and continuous manner. As shown in figure 2, the stone sawing method with the saw blade rotating unidirectionally and continuously adopts the principle of a double-crank quadrilateral mechanism. And a rotary connecting rod 7 (rotary saw frame) of the double-crank quadrilateral mechanism is a diamond saw blade. The main crank 8 continuously rotates under the driving action of the power system to drive the driven crank 9 to synchronously rotate, thereby driving the diamond saw blade (arranged on the rotary connecting rod 7) to do circular translation motion. Furthermore, a synchronous connecting rod 10 is also adopted in fig. 2, when the driving crank 8 and the driven crank 9 synchronously rotate to the image limit point, the driven crank can turn to an unfixed point once, the synchronous connecting rod 10 drives the driven crank 3 to smoothly pass through the unfixed point, and the unidirectional translation continuous motion of the diamond saw blade in the rotary connecting rod 7 is realized; as the stone 6 slowly moves up, the diamond saw blade saws the stone into a slab.
Fig. 3 is another view of the principle of the stone sawing method with the saw blade rotating unidirectionally and continuously according to the present invention. As shown in fig. 3, the rotary link 7 of the double crank quadrilateral mechanism is a substantially rigid frame carrying a plurality of parallel sets of saw blades 11. The driving power system 5 can be arranged at one end of the driving crank 8, and when the rigid saw frame 7 has more saw blades 11, an auxiliary driving power system 12 which can synchronously rotate can also be arranged at one end of the driven crank 9.
The invention relates to a stone sawing method with a saw blade rotating unidirectionally and continuously, which has the principle that a driving power system drives a connecting rod 7 (namely a rigid saw frame provided with the saw blade 11) of a double-crank quadrilateral mechanism to do circular translation motion, when the rotation of the connecting rod 7 reaches the datum point of the feeding direction of stone 6, the saw blade 11 arranged on the connecting rod 7 collides with the stone 6, the potential energy of a continuous rotating device of the connecting rod 7 does work to form a milling action, and thus the stone 6 is cut; when the connecting rod 7 leaves the stone 6, the driving power system 5 drives the main crank 8 and the driven crank 9 to rotate, and the connecting rod 7 continues to rotate to store energy for the milling action of the next period.
Fig. 4 and 5 are schematic diagrams of a vertical stone slab gang saw machine using the stone sawing method of the invention. As shown in fig. 4, the vertical gang saw machine comprises a saw frame device of a vertically placed circumferential translation connecting rod 7 and a stone raw material horizontal feeding device 13, wherein the axes of a main crank 8 and a driven crank 9 of the circumferential translation connecting rod mechanism type saw frame device are arranged in the same vertical plane, under the action of a driving power system 5, diamond sheet saw blades 11 which are arranged in parallel in the saw frame of the connecting rod 7 perform vertical translation and rotation movement and form relative movement with the stone raw material 6 which is continuously fed in the horizontal direction, so that the stone is milled; the stone block feeding device 13 comprises a block trolley 14, a follow-up trolley 15, a traction trolley 16 and a conveying roller 15, one end of the stone block 6 is fixed on the block trolley 14 and the follow-up trolley 15, the other end of the stone block is erected on the conveying roller 17 right below the saw frame, the stone block is driven by the block feeding device 13 to continuously roll and feed along the horizontal direction, and the stone block is dragged by the traction trolley 16 after passing through the saw frame until the whole stone block traverses the saw frame and is cut into thin plates with set thickness. In fig. 5, a synchronous connecting rod 10 is also adopted, when the main crank 8 and the driven crank 9 synchronously rotate to the quadrant point, the driven crank 9 can turn to an unfixed point once, and the synchronous connecting rod 10 drives the driven crank 9 to smoothly pass through the unfixed point, so that the unidirectional translation continuous motion of the diamond saw blade 11 is realized.
Fig. 6 and 7 are schematic diagrams of a horizontal type stone slab gang saw machine using the stone sawing method of the invention. As shown in fig. 6, the horizontal gang saw machine comprises a horizontally arranged circular translation link mechanism type saw frame device 7 and a stone raw material lifting and feeding device 18, wherein the axes of a driving crank 8 and a driven crank 9 of the circular translation link mechanism type saw frame device 7 are arranged in the same horizontal plane, and under the action of a driving power system 5, diamond sheet saw blades 11 which are arranged in parallel in the saw frame of the link mechanism 7 perform left-right translation and rotation movement and form relative movement with the stone raw material 6 which is continuously fed in the vertical direction, so that the stone material 6 is milled; the stone block lifting and feeding device 18 comprises a block trolley 14 and a trolley driving system 13, wherein the stone block is fixed on the block trolley 14, and continuously ascends and feeds along the vertical direction under the action of the trolley driving system 13 until the whole stone block 6 vertically passes through the connecting rod 7 saw frame and is cut into thin plates with set thickness. In fig. 7, a synchronous connecting rod 10 is also adopted, when the driving crank 8 and the driven crank 9 synchronously rotate to the quadrant point, the driven crank 9 can turn to an unfixed point once, and the synchronous connecting rod 10 drives the driven crank 9 to smoothly pass through the unfixed point, so that the diamond saw blade 11 can move continuously in the same direction in a translation manner.
The two kinds of frame-sawing rotary stone slab gang saws illustrated in fig. 4 and 5, and fig. 6 and 7 both realize the circular translation motion of the connecting rod saw frame, so that the thin saw blades in the saw frame only bear the unidirectional cutting load. Because the saw gap is smaller, the sawing yield of the hard and brittle stone is improved, and the energy consumption is reduced. Furthermore, the stone slab gang saw machine of the two embodiments of the invention adopts the circular translation link mechanism type saw frame device, and the rotating centrifugal force of the large-mass saw frame can be reduced by the corresponding balancing weight, so that higher rotating speed can be obtained, the saw blade is ensured to be always in milling contact with the stone rough material at the highest linear velocity, the saw blade pressure in the period of lower linear velocity of the gang saw machine in the traditional technology is avoided, and the service life of the saw blade is prolonged.
Comparison of various sawing methods
[ crude material size: 3m (length) x2m (width) x2m (thickness) 12m3And the thickness of the cut plate is as follows: 20mm]
Claims (9)
1. A stone material saw cutting method of the unidirectional continuous gyration of the saw blade, characterized by that the said stone material saw cutting method uses the sawing frame of the double crank quadrilateral mechanism principle to turn round the apparatus continuously, the connecting rod of the said sawing frame of the double crank quadrilateral mechanism principle turns round the apparatus continuously for the sawing frame to mount the saw blade; the driving crank continuously rotates under the driving action of the power system to drive the driven crank to synchronously rotate, so that the saw frame is driven to do circular translation motion; when the rotary saw frame reaches a certain quadrant point in the feeding direction of the stone material, the group of saw blades in the saw frame collide with the stone material, the potential energy of the continuous rotary device of the saw frame does work to form a milling action, and therefore the stone material is cut; when the rotary saw frame leaves the stone, the continuous rotary device of the saw frame continuously rotates to store energy for the next period of milling action.
2. A stone sawing method with saw blades rotating unidirectionally and continuously as claimed in claim 1, characterized in that: the double-crank quadrilateral mechanism is a parallelogram connecting rod mechanism with the same length as the driving crank and the driven crank; or the driving crank and the driven crank are quadrilateral linkage mechanisms with different lengths.
3. A stone sawing method with saw blades rotating unidirectionally and continuously as claimed in claim 1, characterized in that: the driving power of the double-crank quadrilateral mechanism is arranged at the end of the driving crank, and when the saw blades are more, the driving power system capable of synchronously rotating is arranged at the end of the driving crank and the driven crank.
4. A stone sawing method with saw blades rotating unidirectionally and continuously as claimed in claim 1, characterized in that: when the saw frame based on the double-crank quadrilateral mechanism works, the continuous rotation speed is not lower than 100r/min, and the length of the driving crank is not lower than 50 mm.
5. A stone gang saw machine with a rotary saw frame, which adopts the stone sawing method as claimed in claim 1, and is characterized in that: the device has two types of vertical and horizontal types, and comprises a power system, a saw frame device based on the principle of a double-crank quadrilateral mechanism and a stone raw material feeding device.
6. The frame-rotating gang saw machine for stone material as claimed in claim 5, wherein: the power system consists of a motor, a transmission belt, a driving wheel, a driving shaft, a driven wheel, a driven shaft, a saw frame and a synchronous connecting rod, wherein the motor, the transmission belt, the driving wheel and a driving crank are arranged above the vertical saw frame rotary stone gang saw machine, the driven wheel and a driven crank are arranged below the vertical saw frame rotary stone gang saw machine, and the synchronous connecting rod is used as a second crank device to connect the driving wheel and the driven wheel for synchronous operation; the other ends of the driving crank and the driven crank are connected with the saw frame and are used for driving the saw frame to rotate.
7. The frame-rotating gang saw machine for stone material as claimed in claim 5, wherein: the saw frame device based on the principle of the double-crank quadrilateral mechanism comprises a saw frame and saw blades, wherein two ends of the saw blades are respectively fixed at the upper end and the lower end of the saw frame, a plurality of groups of saw blades which are parallel to each other are arranged in the saw frame, and the saw teeth on the saw blades are made of high-hardness diamond materials.
8. The frame-rotating gang saw machine for stone material as claimed in claim 7, wherein: the stone block feeding device mainly comprises a stone trolley, wherein the stone block is fixed on the stone trolley and moves along the direction of a rotation track of a saw frame device vertical to the principle of the double-crank quadrilateral mechanism at a set speed under the action of a driving system to realize milling feeding, and can also move reversely and rapidly along the feeding track to realize tool withdrawal and return to an initial position; fan-shaped deflection weight parts are arranged on a driving shaft and a driven shaft of the stone raw material feeding device; under the action of a driving system, the driving crank of the double-crank quadrilateral mechanism drives the diamond sheet saw blades arranged in parallel in the saw frame to do rotary motion, and the driven crank of the double-crank quadrilateral mechanism synchronously rotates along with the main crank to keep the diamond sheet saw blades arranged in parallel in the saw frame to do translational motion.
9. A gang saw machine for stone material sawing with the saw blade of claim 1 revolving unidirectionally and continuously, characterized in that: the driving crank and the driven crank are respectively one and are arranged on one side of the saw frame; when the saw blade is more, the 2 cranks with the axes in the same straight line can also be respectively arranged at the two sides of the saw frame.
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CN201810554461.1A CN108748709B (en) | 2018-06-01 | 2018-06-01 | Stone sawing method and device with saw blades rotating continuously in one direction |
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CN201810554461.1A CN108748709B (en) | 2018-06-01 | 2018-06-01 | Stone sawing method and device with saw blades rotating continuously in one direction |
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CN108748709B true CN108748709B (en) | 2021-02-26 |
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Family Cites Families (7)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
DE2558851A1 (en) * | 1975-12-27 | 1977-07-07 | Guenther Georg Henschel | Natural or artificial stone cutting device - has tensioned steel cable acting as cutter with oscillating to and fro action |
SU747729A1 (en) * | 1978-03-16 | 1980-07-15 | Всесоюзный Государственный Проектно- Конструкторский Институт "Гипростроммашина" | Machine for sawing stone blocks |
CN2130670Y (en) * | 1992-06-30 | 1993-04-28 | 玉林市科委建材机械研究所 | One-way double-saw frame vertical granite big saw |
ITMI20061618A1 (en) * | 2006-08-11 | 2008-02-12 | Quarella Spa | OSCILLATING FRAME FOR GRANITE CUTTING |
CN200991964Y (en) * | 2006-12-12 | 2007-12-19 | 山东华兴机械股份有限公司 | Swinging-type diamond saw |
CN201442311U (en) * | 2008-10-07 | 2010-04-28 | 宋士英 | Novel stone cutting frame saw |
CN203471972U (en) * | 2013-06-24 | 2014-03-12 | 肖剑波 | One-way insulation board reciprocating cutting machine |
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2018
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