KR100837689B1 - The rotary type bones manafacture equipment - Google Patents

Abstract

A rotary-type sarira manufacturing apparatus is provided to facilitate cremation of ashes to form pearl or crystal-like bead-shaped objects using both small and large amount of bone ashes, and enable successive manufacturing of sarira within the same apparatus using body ashes obtained from different bodies. A rotary-type sarira manufacturing apparatus comprises a body(1), a rotary plate(100), a plurality of jigs(200), and a torch unit(300). The body with an open front part comprises a fan(10) provided on its upper side. The rotary plate is rotated on the upper side of a workstable(30) of the body by a shaft connected to a driving motor installed inside a lower part of the worktable. The jigs are configured to store ceramics containing body ashes and to be mounted on the rotary plate. The torch unit is spaced outward from the rotary plate and configured to successively melt the body ashes in the ceramics on each jig. The molten ash is cooled by ambient air.

Description

Rotary type sari manufacturing equipment {THE ROTARY TYPE BONES MANAFACTURE EQUIPMENT}

1 is a perspective view showing a rotary type saree manufacturing apparatus of the present invention,

Figure 2 is a perspective view of the torch portion applied to the present invention shown in a separated state,

3 is a view in a state in which the torch portion of FIG. 2 is applied to the present invention;

Figure 4 is a perspective view showing only the rotating plate of the present invention separated,

5 is a perspective view showing a state in which a jig body and a conductive period according to the present invention are separated;

6 is a schematic front sectional view of a rotary type saree manufacturing apparatus according to the present invention.

※ Brief description of the main symbols in the drawings

One; Main body 10; 휀

20; Drive motor 30; bench

100; Rotating plate 110; shaft

120; Cooling water branch 121; Branch pipe

130; Frame 131; Cooling water outlet

200; Jig body 210; Pottery

211; Handle 220; discharge pipe

300; Tochigi section 310; Expectation

311; First rail 312; Lifting cylinder

320; Feeder 321; 2nd rail

322; Fine adjustment handle 322a; Male thread

323; Bracket 330; Gas supply

331; Transfer block 331a; Lifting plate

331b; Female threader 332; Support Plate

334; Fixed plate 335; Gas Induction Department

335a; Link 335b; Gas line

335c; Derivative 335d; Gas outlet

340; Torch 341; Cooling water line

350; Ignition

The present invention relates to a sari manufacturing apparatus for manufacturing round saree by melting the ashes powder, and in particular, the ashes obtained by cosmetically treating the carcasses are seated on the rotating melting part and sequentially melted with a torch or the like. The present invention relates to a rotary type sari manufacturing apparatus for molding a sari at the end point.

Recently, funeral culture is changing to cremation all over the world.

Such a cremation culture forms cremated bodies and puts the ashes in a container, ie, the ashes, to store them in the ossuary, which is difficult to collect and store the ashes. If it is stored for a long time in the form of bone powder or ash powder, the nature of the ash strongly absorbs the surrounding moisture. There is a problem that long-term storage is difficult due to damage of the ashes.

Therefore, in order to solve such a problem, in recent years, various methods and methods for manufacturing saree are applied to the Patent Office using the ashes obtained after cremation of a dead body, and the technology is disclosed. There are a number of patents and utility models that have been previously published and published or registered (see Patent No. 2006-34390, etc.).

However, in the case of the disclosed technical contents, only standardized sarees can be obtained, and in order to obtain sarees having a different shape, the hassle of additional equipment having a different molding structure is generated, thereby avoiding the monotony of the saree shape. There is a problem.

In addition, in order to equip the equipment for manufacturing saree, the apparatus for melting ashes and the apparatus for shaping the molten ashes must be installed in one line or system. Due to the considerable demand for the installation area, there is a problem that it is inevitable to rely on inefficient and inefficient work when a relatively small amount of ash is required for melting and salivating.

In order to improve such a problem, a device for manufacturing saree by a relatively easy method and apparatus has been applied to the Korean Patent Office by Utility Model Registration No. 434155 for reducing a small amount of ash or work time. In case of saree work, the worker can check the molten state of the saree while melting to obtain saree, and also make plastic processing to reinforce the properties of the saree, so that the work can be proceeded simply and quickly. Of course, it discloses a "manufacturing device made by hand" which can be expected to obtain the effect of obtaining the reliability of the product.

In the case of Utility Model No. 43155, registered by the present applicant, it is suitable for minimizing the installation area and producing various types of sari in producing sari using relatively small amount of ash powder. For manufacturing, there is a concern that the productivity may be lowered, and there is a concern that the working environment is deteriorated, for example, powder or the like must be used.

On the other hand, each of the disclosed sari manufacturing apparatus is to complete the manufacture of the sari using the bone ash obtained from each of the carcasses, and then to manufacture the sari using the ashes obtained from other carcasses, previously processed parts After collecting all the remains of ashes on the back, there is a problem that the work time is bound to be delayed because the work must be done.

Accordingly, the present invention solves the above problems and provides a sari manufacturing apparatus which is capable of forming a relatively clean working environment while melting plastic ash to a sari by melting a large amount of ashes as well as small amounts of ashes. There is a purpose.

In addition, there is another purpose to enable sequential saree production in one device to the ashes obtained from other carcasses at one time.

The present invention for achieving the above object,

A main body 1 having a front surface open and having a fin 10 at an upper side thereof,

Rotating plate 100 rotated from the upper surface of the work platform by a drive motor 20 provided in the lower end of the work table 30 of the main body 1,

A plurality of jig bodies 200 accommodated therein and are seated on the pivoting plate 100;

It is composed of a torch 300 which is spaced apart and fixed to the outer side of the rotating plate 100, the drive motor 20 after receiving the ashes in the ceramic 210 of the jig body 200 of the rotating plate 100 Rotating by the) and sequentially melted by each of the dotechi 300, characterized in that the natural cooling treatment of the ash powder melt of the jig body 200 to reach the front side of the main body (1) at room temperature It provides a saree manufacturing apparatus.

Hereinafter, with reference to the accompanying drawings, preferred embodiments of the present invention will be described in detail.

The present invention, as can be seen in the figure is provided with a plurality of equal intervals to the main body 1, the rotating plate 100 and the rotating plate 100 is a jig body 200 for accommodating the ashes therein, and It consists of a torch portion 300 is provided with a plurality of equal intervals for sequential melt heating the ashes accommodated in each jig body 200 to be rotated.

As shown in the drawing, the main body 1 is open at the upper end side, and the driving motor 20 is provided at the lower side of the work table 30 and is connected by the motor 20 to be rotated. It is provided on the upper surface side of this work bench 30.

In addition, the fan 10 is provided above the main body 1 to facilitate the discharge of the combustion gas generated by the torch unit 300 while being melted.

The pivoting plate 100 is rotated by the motor 20 about the central shaft 110, and provided with a jig body 200 spaced in a plurality of arcs on the upper surface, the pivoting plate 100 The frame 130 is spaced apart from the outside, and the pivoting plate 100 rotates in a circular motion inside the frame 130 about the shaft 110 according to the driving of the motor 20.

On the other hand, as a means for inducing and supplying the cooling water to the jig body 200 which is spaced apart from the plurality of circular arcs on the rotating plate 100, so that the cooling water flows from the cooling water line not shown in the upper end side of the shaft 110. Configure the cooling water branch unit 120 for.

Branch pipes 121 respectively branched from the cooling water branching unit 120 are introduced into the inside of the jig body 200 which will be described later to prevent the jig body 200 from rising to an appropriate temperature and at the same time the jig body ( After circulating so that the plastic processing of the ashes contained in the 200 can be smoothly progressed, it is discharged from the jig body 200 and cooled through a condenser (not shown) separately provided at the bottom of the main body 1, and then again the cooling water branch part. The circulation process flowing into the 120 is repeated.

To this end, that is, the cooling water discharged after the cooling water branched from the cooling water branching unit 120 through each branch pipe 121 into the jig body 200 is discharged to the frame 130 which is spaced apart from the outer circumferential surface side of the rotating plate 100. It may be guided to be discharged through the coolant outlet 131 formed in the bottom side of the plate.

The jig body 200, as described above, is provided as a means for accommodating the ashes obtained by cremating the dead body is provided with a circular arc-like interval on the upper surface of the rotating plate 100, jig body 200 ) To be seated pottery 210 that can accommodate the ashes to the upper surface.

The branch pipe 121 branched from the cooling water branch unit 120 is connected to the side of the jig body 200 so that the coolant derived from the condenser (not shown) opens the branch pipe 121 of the cooling water branch unit 120. To be introduced along, the discharge pipe 220 for the cooling water is discharged while circulating the jig body 200 to the other side of the jig body 200 to be spoken.

The coolant discharged from the discharge pipe 220 is discharged through the coolant outlet 131 formed in the bottom surface side plate of the frame 130 as described above, and has a structure that flows into the condenser (not shown) and circulates.

On the other hand, the two sides of the top of the ceramic 210 seated on the upper surface of the jig body 200 is provided with a handle 211, respectively, so that the worker can easily gripping and seated on the jig body 200 or configured to be taken out. desirable.

As shown in the drawing, the torch part 300 is fixed to the outside of the rotatable plate 100 and the frame 130 in a plurality of uprights, and is located on the upper surface of the rotatable plate 100 that is rotated. Presented as a means for melting the ashes contained in the pottery 210.

As shown in the drawing, the torch part 300 is installed on the outermost upper surface of the work table 30 of the main body 1 in a plurality of spaced apart, the base 310 fixed vertically from the work table 30, and Transfer table 320 which is moved up and down along the base 310, the gas supply unit 330 for horizontally connected from the transport table 320 to supply gas, and the gas supplied from the gas supply unit 330 It comprises a torch 340 for melting the ashes contained in the pottery 210 by igniting, and an ignition unit 350 for igniting the gas supplied to the torch 340.

The base 310 is vertically fixed at the outermost upper surface of the work table 30 as described above, but is provided with a first rail 311 toward its front side, to be guided when the transport table 320 is moved up and down. To be able.

In addition, the front side of the base 310 is provided with a lifting cylinder 312 for raising and lowering the transfer table 320 above.

The transfer table 320 is moved up and down along the first rail 311 on the front side of the base 310, and can be moved up and down by a lifting cylinder 312 fixed to the front side of the base 310. Do.

The front side of the transfer tray 320 is provided with a second rail 321 to enable the fine lifting of the gas supply unit 330 which will be described later, for this purpose fine adjustment handle portion to the upper side of the transfer table 320 322 is fixedly provided.

The fine adjustment handle 322 is provided with a fine adjustment handle 322 having a male rod 322a which is to pass through the bracket 323 is fixed to the upper side of the conveyer (320) as shown in the figure.

Here, the male screw rod (322a) end side is screwed with the female screw hole (331b) to be drilled through the lifting plate (331a) of the gas supply unit 330 to be described later, the handle operation of the fine adjustment handle 322 According to the elevating plate (331a) is finely adjusted by the interval of the lead by the gear coupling so as to move up and down.

As described above, the gas supply unit 330 is provided to the front side of the transfer table 320 which is elevated by the elevating cylinder 312 along the first rail 311 of the base 310. By setting the correct position by the operation of the fine adjustment handle 322, the torch 340 which will be described later is melt processing operation of the ashes powder contained in the pottery 210 of the jig body 200 described above. It is a structure for making it easy.

As shown in the drawing, the gas supply unit 330 includes a transport block 331 for transporting along the second rail 321, a support plate 332 connected to and extended from the transport block 331, and A motor 333 fixed to the upper surface of the support plate 332, a fixed plate 334 fixed to the upper surface of the support plate 332 and extending forward, and a gas fixed to the other end side of the fixed plate 334. The induction part 335 and the lower end of the motor 333 and the gas induction part 335 are connected to the rotation connection bar 336 so as to rotate the gas induction part 335 at a predetermined time according to the driving of the motor 333. .

One end of the rotation connecting bar 336 is connected to be interlocked according to the rotational drive of the motor 333, and the other end of the rotation connecting bar 336 is linked to the upper side of the gas induction part 335 In connection with 335a, the gas induction part 335 is rotated at a constant angle according to the forward and reverse driving of the motor 333.

Meanwhile, as shown in the drawing, the gas induction part 335 is guided to the gas induction part 335 along the gas line 335b from a gas container and an oxygen container provided separately from the outside, so that oxygen and gas are in an appropriate mixing ratio. To form a mixed gas to be mixed, the mixed gas is induced to flow into the derivative (335c) side of the gas induction portion 335.

The derivative 335c has a cylindrical shape as shown in the drawing, but the inside thereof is in a hollow state, and is connected to the gas line 335b side, and the lower side of the derivative 335c is formed in a disc shape and a plurality of the outsides thereof. Gas outlet 335d is provided.

Torch 340, which will be described later, selects any one of the gas outlets 335d from the plurality of gas outlets 335d to allow the mixed gas to be induced and discharged.

In addition, as described above, since the gas induction part 335 may be rotated at a predetermined angle by the forward and reverse driving of the motor 333, the torch 340 from the gas induction part 335 according to the position displacement of the torch 340. In order to prevent the gas line 335b connected to the rotator from being damaged, the gas induction part 335 may be rotated to an appropriate position.

The torch 340 guides the mixed gas formed by mixing oxygen and gas to the gas induction part 335 through the gas line 335b and the mixed gas through the gas outlet 335d of the derivative 335c. Induction and combustion are provided as a means for melting the ashes contained in the ceramic 210 of the jig body 200.

The torch 340 in the present invention is provided with the number of torch portions 300 that are vertically fixed to each of the torch portions 300, that is, the outer circumferential surface side of the rotating plate 100.

In addition, the combustion temperature due to the ignition of the mixed gas supplied through each torch 340 provided in each torch unit 300 may be different for each torch 340.

For example, as shown in the drawing, when the rotation direction of the rotating plate 100 is set in the clockwise direction with respect to the operator when the apparatus of the present invention is viewed in plan view, the second soil from the torch portion 300a, which is the first melting point, is formed. It can be divided into tooth parts (300b on the drawing), third torch parts (300c on the drawing), fourth torch parts (300d on the drawing), etc., which proceeds sequentially and the melting temperature for melting the ashes is gradually set to a higher temperature. It is preferable to make the plastic working by.

Therefore, in the present invention, the ash processing does not proceed to the sinter by one melting operation, the melting and plastic processing of the ash powder by the sequential melting and the melting process by the sequential heating of the melting temperature It could be done.

On the other hand, each of the torch 300 (300a ~ 300d) is a separate cooling water line 341 is connected to the torch 300 in order to cool the high temperature state generated in the combustion process of the mixed gas, the cooling water It is preferable to configure the circumference 300 to circulate inside and flow out of the outside after heat exchange.

The ignition unit 350 is a means for initially igniting the mixed gas discharged through the torch 340 of each of the torch units 300 (300a to 300d), and each of the torch units 300 (300a to 300d). Each side of the base 310 is provided along the side of the torch 340 to enable the supply of flame to enable the initial ignition.

The operation relationship by the configuration of the present invention will be described below.

After the ashes obtained after cosmetic treatment of the dead body are accommodated in the pottery 210 of the jig body 200 rotated in one direction by the rotary method of the present invention, the driving motor 20 provided at the lower end side inside the main body 1 is provided. By driving, the rotating plate 100 which is provided to rotate to the main body (1) work object is rotated about the axis (110).

Here, the ashes contained in the pottery 210 may be scattered by the flame from the torch 340 of the torch part 300, so that water and the ashes may be formed at a proper ratio by a known method. It is desirable to knead the mixture so that a constant viscosity is maintained.

Here, in order to control the flame state for the melting operation of the ashes contained in the ceramics 210, the lifting cylinder 320 for transporting along the first rail 311 in front of the base 310, the lifting cylinder ( By using the 312 to adjust the height of the torch portion 300 (300a ~ 300d), the torch 340 is positioned on the proper position from the pottery 210 so that the appropriate flame can be provided.

In addition, to finely adjust the elevating of the torch portion 300 (300a to 300d), by operating the fine adjustment handle unit 322, the toe along the second rail 321 provided to the front side of the conveyance table 320 To enable the fine lifting of the tooth 300, after the first lifting operation of the torch unit 300 by the first rail 311, the optimum position setting with the pottery 210 of the torch 340 is completed.

As described above, when the adjustment of the optimum separation distance between the torch 340 and the pottery 210 in the torch part 300 (300a to 300d) is completed, the pottery 210 which accommodates the ashes as described above is inserted. The rotating plate 100 is rotated by the driving motor 20.

On the other hand, the bone ashes kneaded to have a predetermined viscosity as described above is accommodated in the pottery 210 and then seated in the jig body 200, and then the rotating plate 100 is rotated according to the driving of the driving motor 20. When the first torch unit 300 is positioned on the torch 340 side of the torch unit 300 and 300a, the mixed gas in which oxygen and gas are mixed to the gas induction unit 335 through the gas line 335b of the gas supply unit 330 is stopped. Discharged, the flame is generated from the torch 340 by the initial ignition in the ignition unit 350 to melt the ashes contained in the pottery 210.

As described above, the ashes first melted by the first torch portion 300; 300a are rotated by the driving motor 20, and the second torch portion is rotated and positioned next. The torch 340 side of the 300b is moved in the state accommodated in the pottery 210.

As such, when the pottery 210 containing the primary molten ash powder reaches the second torch portion 300b, the torch of the second torch portion 300b is ignited by the ignition portion 350. Flame is supplied through 340 to remelt the primary melted ashes.

As shown in the drawing, the process is melted and processed at the same time through the torch portion 300 (300a to 300d) is provided with a plurality, the melting temperature and the last torch portion in the first torch portion 300a It is preferable to vary the melting temperature at the fourth torch portion 300d.

In the present invention, the melting temperature is gradually increased from the first torch portion 300a toward the fourth torch portion 300d, so that the plastic working can be performed smoothly. Thus, the melting temperature is gradually increased. It has been shown that in the melting operation of the sari, the physical properties of the sari are improved.

On the other hand, when the flame is supplied through the torch 340 in each of the torch parts 300 (300a to 300d), the internal temperature of the torch 340 is raised to an appropriate temperature or more, so as to prevent this, the torch ( 340, the cooling water may be introduced and circulated by the cooling water line 341.

In addition, the temperature of each jig body 200 is increased by the flame generated from the torch 340 of each of the torch parts 300 (300a to 300d) toward the ceramics 210 side of each jig body 200. When such a temperature rise is excessive, there is a possibility that it may act as a factor that inhibits the plasticity of the ashes, it is necessary to cool the jig body 200.

Therefore, for this purpose, after the cooling water flows into each jig body 200 through branch pipes 121 branched from the outer circumferential surface of the cooling water branch unit 120 in the center of the rotating plate 100, the other side of the jig body 200. Cooling water is discharged through the discharge pipe 220 is connected to, through the coolant outlet 131 provided to the bottom surface side of the frame 130, to be introduced into the condenser (not shown) and circulated.

The cooling water circulated in this way, each jig body 200 maintains the proper temperature by the flame through the torch 340, and the ashes in the ceramics 210 are sequentially melted.

Meanwhile, the ashes in the ceramics 210 of each jig body 200 are sequentially melted through each torch part 300 (300a to 300d) while being rotated by the rotating plate 100 as described above. Then, when the first worker is reached, the worker can process the melted ashes in the pottery 210 into a predetermined shape at room temperature, and then take out the pottery 210 to obtain a shaped bone ash.

In addition, after the operator removes the ashes, which have been melted and shaped into a predetermined shape, the other ashes are repeatedly performed on the other pottery 210 by repeating the above-described process to melt and process the saree through the shape processing operation. You can get it.

Therefore, according to the present invention, each of the ashes obtained by cremating the carcasses are melted without mixing the ashes with each other so that the manufacturing process of the saris having a certain shape can be repeatedly performed. Using the ashes obtained, one can expect the effect of simplifying the process of manufacturing saree in one device.

In addition, according to the present invention, by using a plurality of jig body and pottery each provided to the upper surface of the rotating plate to be rotated, and sequentially melted, but the initial melting temperature and final melting temperature is set differently so that the melting treatment temperature is gradually raised By enabling the melt treatment, it is possible to expect the effect that the plastic processing for improving the physical properties of the ash powder is appropriately obtained to obtain a saree that is not easily broken or broken.

In addition, according to the present invention, by allowing the lifting operation and the fine lifting movement of each torch portion to be possible, it is possible to perform the melting operation according to the optimum conditions and also to fine-tune the melting temperature according to the lifting and lowering of the torch portion, The effect which enables plastic working by setting an optimal melting condition can be expected.

Claims (12)

A main body 1 having a front surface open and having a fin 10 at an upper side thereof, Rotating plate 100 rotated from the upper surface of the workbench by a shaft 110 connected to the drive motor 20 provided in the lower end of the workbench 30 of the main body 1, A plurality of jig bodies 200 accommodated therein and are seated on the pivoting plate 100; It is composed of a torch 300 which is spaced apart and fixed to the outer side of the rotating plate 100, the drive motor 20 after receiving the ashes in the ceramic 210 of the jig body 200 of the rotating plate 100 While rotating by the torch portion 300 sequentially melted, after the ashes of the jig body 200 to reach the front side of the main body (1), characterized in that the natural cooling treatment at room temperature Rotary type saree manufacturing device. The method of claim 1, The frame 130 is spaced apart from the rotating plate 100, and the rotating plate 100 rotates in a circular motion inside the frame 130 about the shaft 110 according to the driving of the motor 20. Rotary type saree manufacturing apparatus comprising a. The method of claim 1, The pottery 210 is a rotary type saree manufacturing apparatus comprising a detachable from the jig body 200 and the handle 211 is formed on the outer peripheral surface of the upper surface. The method of claim 1, A cooling water branch unit 120 is provided at an upper end of the shaft 110 of the pivoting plate 100, and a branch pipe 121 is connected to supply the cooling water from the cooling water branch unit 120 to each of the jig bodies 200. Rotary type saree manufacturing apparatus comprising being. The method of claim 4, wherein The other side of the jig body 200 is a rotary type saree manufacturing apparatus comprising a discharge pipe 220 for discharging the cooling water is discharged while circulating the jig body 200. The method of claim 1, The torch unit 300 is connected to a base 310 fixed vertically from the work table 30, a transport stand 320 vertically lifted up and down along the base 310, and horizontally connected to the transport stand 320. A gas supply unit 330 for supplying gas, a torch 340 for igniting the gas supplied from the gas supply unit 330 to melt the ashes contained in the ceramics 210, and the torch Rotary type sari manufacturing apparatus comprising a plurality of spaced apart on the upper surface of the worktable 30 of the main body (1) is composed of an ignition unit 350 for igniting the gas supplied to the (340). The method of claim 6, A lifting cylinder 312 for elevating the first rail 311 and the transport table 320 transported along the first rail 311 to the front side 310 is provided, and the transport platform 320 is Rotary type saree manufacturing apparatus comprising a second rail (321) on the front side. The method of claim 7, wherein Rotary type saree manufacturing apparatus comprising a fixed fine adjustment handle portion 322 is fixed to the upper side of the transfer table (320). The method of claim 8, The fine adjustment handle unit 322 is a rotary type saris manufacturing comprising a fine adjustment handle 322 having a male threaded rod 322a which is penetrated through the bracket 323 fixed to the upper side of the conveyance table 320 Device. The method according to claim 6 or 7, The gas supply unit 330 is a transport block 331 to be transported along the second rail 321 provided to the front side of the transport table 320 and a support plate 332 connected to and extended from the transport block 331. ), A motor 333 fixed to the upper surface of the support plate 332, a fixed plate 334 fixed to the upper surface of the support plate 332 and extending forward, and the other end side of the fixed plate 334. The fixed gas induction part 335 and the lower portion of the motor 333 and the gas induction part 335 to rotate the connection bar 336 so as to rotate the gas induction part 335 at a predetermined time according to the driving of the motor 333. Connected to, and connected to, a link 335a linked to an upper end side of the gas induction part 335 to the other end side of the pivoting connection bar 336, and interlockable according to the rotational drive of the motor 333. According to the forward and reverse driving of the 333, the gas induction part 335 Rotary type saree manufacturing apparatus comprising the rotation. The method of claim 10, Meanwhile, the gas induction part 335 forms a mixed gas in which oxygen and gas induced along the gas line 335b are mixed at an appropriate mixing ratio, and is formed in a cylindrical shape, but the inside of the gas line 335b is hollow. And connected to the bottom side is made of a disk-shaped rotary type saree manufacturing apparatus comprising inducing the outside to be introduced to the derivative (335c) side having a plurality of gas outlet (335d). The method of claim 6, Rotary type saris manufacturing including an ignition unit 350 provided along the side of each base 310 of each torch unit 300 to initially ignite the mixed gas discharged through the torch 340. Device.

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