JP5322739B2 - Granule supply cartridge - Google Patents

Description

  The present invention relates to a particle supply cartridge for supplying particles to a particle transfer tube.

  One type of grain is an abrasive used for a grindstone. When this abrasive grain is electrodeposited on a base metal, an electrodeposition grindstone can be produced. However, when electrodepositing a plurality of abrasive grains on the base metal, if the abrasive grains are concentrated on a specific part of the electrodeposited surface of the base metal, a grindstone in which the abrasive grains are electrodeposited on the specific part of the base metal is manufactured. Therefore, a technique for preventing the deviation of the abrasive grains is required.

  Conventionally, a method for manufacturing an electrodeposition grindstone in consideration of dispersibility of abrasive grains with respect to a base metal is known (for example, see Patent Document 1 (see FIG. 1A)).

Patent document 1 is demonstrated based on the following figure.
FIG. 11 is a diagram for explaining the basic principle of the prior art. As shown in FIG. 11A, the masking sheet 300 covers the ink 302 made of thermosetting resin solidified on the transfer paper 301 with a film 303. It is a sheet. The ink 302 is formed on the transfer paper 301 except for a plurality of non-masking portions 304 that are opened at a constant pitch.

  The masking sheet 300 is soaked in chemicals, and the ink 302 is peeled off for each film 303 and is attached to the electrodeposited surface 306 of the base metal 305 as shown in FIG. Next, only the film 303 is peeled off, and the base metal 305 is immersed in the electrodeposition liquid 307 in the electrodeposition tank, as shown in (c). Since a plurality of non-masking portions 304 are formed on the base metal 305, abrasive grains can be arranged on the non-masking portions 304. Since the plurality of non-masking portions 304 are provided on the entire electrodeposited surface 306 of the base metal 305, the abrasive grains can be dispersed and arranged.

  By the way, when arranging abrasive grains in the non-masking part 304 of Patent Document 1, a plurality of abrasive grains 311 are thrown into the hopper part 309 of the abrasive grain transfer pipe 308 arranged above the non-masking part 304 as indicated by white arrows. Therefore, as shown in (d), the plurality of abrasive grains 311 may be clogged in the vicinity of the outlet 312 of the hopper 309. If the abrasive grains 311 are clogged in the vicinity of the outlet 312 of the hopper 309, the abrasive grains 311 cannot be supplied to the non-masking section 304. This causes a deterioration in the efficiency of the abrasive grain supply operation.

  Therefore, an apparatus capable of smoothly supplying abrasive grains (grains) to the abrasive grain (grains) transfer tube is required.

JP-A-5-285846

  This invention makes it a subject to provide the apparatus which can supply a granule smoothly to a granule transfer pipe | tube.

  The invention according to claim 1 is a granule supply apparatus provided with a granule transfer pipe for transferring a gap by adding a gap to an outer diameter of a granule to form an inner diameter and transferring the granules in a line in series. A granule replenishment cartridge for replenishing the granule to the granule transfer tube, wherein the granule replenishment cartridge has a hole having a diameter in the longitudinal direction with a gap added to the outer diameter of the granule. The columnar member is composed of two fan-shaped cross-sectional columns cut by a cutting plane passing through the hole, and one of the fan-shaped cross-sectional columns is a first fan-shaped cross-sectional column having a central angle of less than 180 °. A part of the hole is formed in a main portion of the fan-shaped cross-section column, a part of the hole is used as a granule mounting groove, and the other sector-shaped cross-section column is a second fan-shaped cross-section column whose central angle exceeds 180 °. The remaining portion of the hole is formed at a main portion of the second fan-shaped cross-sectional column, and the remaining portion of the hole is a granular guide. The first fan-shaped cross-section column is placed on the first fan-shaped cross-section column side, and the particles are placed in a line in series, and the second fan-shaped cross-section column is aligned with the first fan-shaped cross-section column. In addition, a columnar member is formed, and by tilting the columnar member, it is possible to replenish the granular material transfer pipe in a form in which the granular material is arranged in a line in series.

  In the invention according to claim 1, the granule replenishment cartridge is mounted in a form in which the particles are arranged in a line in series in the granule mounting groove on the first fan-shaped cross-section column side, and the first fan-shaped cross-section column is Since the two fan-shaped cross-sectional columns are combined to form a columnar member, and the columnar member is tilted, the particles are arranged in a line in series, so that the particles can be supplied to the particle transfer pipe. Granules can be smoothly supplied to the granule transfer tube. According to the first aspect, it is possible to provide a granule replenishment cartridge that can smoothly supply the granule to the granule transfer tube.

It is a disassembled perspective view of the granular material supply apparatus which concerns on this invention. It is sectional drawing of a granular material supply apparatus. It is a disassembled perspective view of the granular material supply cartridge which concerns on this invention. FIG. 3 is an enlarged view of part 4 of FIG. 2. It is a figure explaining an effect | action until it places the granule which concerns on this invention in a granule mounting groove | channel. It is a figure explaining an effect | action until a granule replenishment cartridge is reversed. It is a figure explaining the effect | action until a pin moving means based on this invention is operated. It is a figure explaining an effect | action until a granule is mounted on a type | mold. FIG. 2 is a modified embodiment diagram of FIG. 1. FIG. 4 is a modified embodiment diagram of FIG. 3. It is a figure explaining the basic principle of the prior art.

  Embodiments of the present invention will be described below with reference to the accompanying drawings. The drawings are viewed in the direction of the reference numerals. In the following description, the grains are assumed to be abrasive grains and the pin moving means is assumed to be a lever.

First, Embodiment 1 of the present invention will be described with reference to the drawings. Note that the transfer mechanism will be described as utilizing a gravity action.
As shown in FIG. 1, the abrasive grain supply device 10 has a first fan-shaped cross-sectional column 20 (detailed later) and a second fan-shaped cross-sectional column 30 (detailed later) in a mounting hole 12 of a main body 11 (detailed later). Is a device in which an abrasive replenishing cartridge 40 (described later in detail) is inserted and a stopper 52 is attached to the upper surface 51 of the main body 11. 53 is a bolt and 54 is a handle.

  As shown in FIG. 2, the abrasive grain supply device 10 is provided with a cylindrical hole that is provided below the mounting hole 12 of the main body 11 and is formed by a first fan-shaped cross-sectional column 20 and a second fan-shaped cross-sectional column 30. 55, an abrasive relay pipe 57 formed so that an inner surface 56 continues to 55, and an inner face 58 connected to the lower end of the abrasive relay pipe 57 and formed to continue to the inner face 56 of the abrasive relay pipe 57. Abrasive grains mounted on a compression spring 74 provided on the bottom 73 of the hole 71 having a grain transfer pipe 60 (details will be described later) and an extrusion shaft 72 movably provided in a hole 71 formed in the vertical direction in the main body 11. An extrusion mechanism 80 (details will be described later) and an abrasive grain extrusion pipe 100 (details will be described later) attached to the lower end of the main body 11 and connected to the abrasive grain transfer pipe 60 and having an abrasive outlet 91. Yes.

  The abrasive grain extrusion mechanism 80 includes an extrusion pin 110 (details will be described later) extending downward from the lower end of the extrusion shaft 72 and a lever 120 attached to the extrusion shaft 72 for reciprocating the extrusion pin 110.

  The abrasive replenishment cartridge 40 is a cartridge for replenishing abrasive grains to the abrasive transfer tube 60. 131 is a spring receiving surface, 132 is a stop pin, 133 is a sliding opening, 134 is a stopper bolt, and 135 is a groove.

  When the lever 120 is pushed to the position indicated by the imaginary line, the pushing shaft 72 is lowered, so that the pushing pin 110 can be lowered. At this time, the compression spring 74 is in a compressed state. To return the push pin 110 to the original position, the lever 120 may be returned.

  In FIG. 3, as shown in FIG. 3A, the abrasive replenishment cartridge 40 includes a columnar member in which a hole 55 having a diameter D1 obtained by adding a gap to the outer diameter of the abrasive grain is formed in the longitudinal direction. It consists of a first fan-shaped cross-section column 20 and a second fan-shaped cross-section column 30 that are cut along a cut surface.

  As shown in (b), the first fan-shaped cross-section column 20 is a fan-shaped cross-section column having a central angle of less than 180 °. Further, a part of the hole 55 is formed in a main portion of the first sector-shaped cross-section column 20, and a part of the hole 55 is used as an abrasive grain placing groove 140.

  The second fan-shaped cross-section column 30 is a fan-shaped cross-section column whose central angle exceeds 180 °. In addition, a remaining portion of the hole 55 is formed at a main portion of the second fan-shaped cross-section column 30, and the remaining portion of the hole 55 serves as an abrasive guide groove 150. 161 and 162 are fall prevention members, and 163 and 164 are cut surfaces.

As shown in FIG. 4, in addition to the above-described configuration, the abrasive grain supply device 10 adds a gap L1 to the outer diameter D2 of the abrasive grain 170 indicated by an imaginary line to form an inner diameter D3, and the abrasive grains 170 are arranged in one line in series. In the form arranged in detail (described later in detail), an abrasive grain transfer tube 60 that is transferred by gravity and an outlet 181 of the abrasive grain transfer tube 60 are connected to the middle of the pipe body 182, and the abrasive grains 170 are inserted into the pipe body 182. Abrasive extrusion pipe 100 having a diameter obtained by adding gaps L2 and L3 to outer diameter D5 of abrasive grain 171 and inner diameter D4 of pipe body 182 and the outlet of abrasive grain transfer pipe 60 of this abrasive grain extrusion pipe 100 Abrasive holding recess 190 that is provided in a concave shape at a portion facing 181 and holds one abrasive grain 170, and one abrasive grain that is movably housed in tube 182 and held in abrasive holding recess 190 Extrusion pin 110 having a tip surface 201 for extruding And includes a pin 110 between the solid line and the lever for reciprocating as indicated by an imaginary line (reference numeral 80 in FIG. 2) abrasive pushing mechanism consisting of (numeral 120 in FIG. 2), a.
The operation of the abrasive grain supply device 10 described above will be described next.

In FIG. 5, as shown in FIG. 5A, a plurality of abrasive grains 170 on the shovel 202 are dropped as indicated by an arrow (1) into the abrasive grain placing groove 140 of the first sector-shaped cross-section column 20.
As shown in (b), a plurality of abrasive grains 170 are placed in the abrasive grain placing groove 140.

In FIG. 6, as shown in FIG. 6A, the second fan-shaped cross-sectional column 30 is aligned with the first fan-shaped cross-sectional column 20 on which the plurality of abrasive grains 170 are placed as indicated by an arrow (2).
As shown in (b), the first fan-shaped cross-section column 20 and the second fan-shaped cross-section column 30 that are the columnar members are reversed as indicated by an arrow (3).

  In FIG. 7, as shown in (a), the inverted abrasive replenishment cartridge 40 is inserted into the mounting hole 12 of the main body 11 as shown by the arrow (4). Next, a stopper (reference numeral 52 in FIG. 1) is attached to the upper surface 51 of the main body 11.

  As shown in (b), the tip of the abrasive grain supply device 10 is inserted into the electrodeposition liquid 204 in the electrodeposition tank 203, and the abrasive grains are supplied to the surface 206 of the mold 205 immersed in the electrodeposition liquid 204. The abrasive grain discharge port (reference numeral 91 in FIG. 4) of the apparatus 10 is faced. From this state, the lever 120 is pushed as shown by the arrow (5).

  The abrasive replenishment cartridge 40 is placed in a form in which abrasive grains (reference numeral 170 in FIG. 6) are arranged in a line in series in an abrasive grain placing groove (reference numeral 140 in FIG. 6) on the first sector-shaped column 20 side. The second fan-shaped cross-sectional column 30 is combined with the first fan-shaped cross-sectional column 20 to form a columnar member, and the columnar member is tilted, whereby the abrasive grains are arranged in a line in series to the abrasive grain transfer tube 60. Since it comprised so that it could be replenished, an abrasive grain can be smoothly supplied to the abrasive grain transfer pipe | tube 60. FIG. Therefore, it is possible to provide the abrasive replenishment cartridge 40 capable of smoothly supplying abrasive grains to the abrasive grain transfer tube 60.

  In FIG. 8, (a) corresponds to an enlarged view of the portion 8a in FIG. 7 (b). Since the lever (reference numeral 120 in FIG. 7) is pushed, the push pin 110 moves toward one abrasive grain 170 held in the abrasive grain holding recess 190 as indicated by an arrow (6).

  As shown in (b), the abrasive grains 170 extruded by the tip surface 201 of the extrusion pin 110 are arranged on the surface 206 of the mold 205. In addition, the abrasive grains 170 that are transferred by gravity in a form arranged in a line in series in the abrasive grain transfer pipe 60 are in contact with the outer peripheral surface 207 of the extrusion pin 110 and therefore do not fall.

  The abrasive grain supply device (reference numeral 10 in FIG. 7) includes an abrasive grain transfer pipe 60, an abrasive extrusion pipe 100, an abrasive grain holding recess 190, an extrusion pin 110 and a lever (reference numeral 120 in FIG. 7). Since the extrusion mechanism (reference numeral 80 in FIG. 2) is provided, only one abrasive grain 170 held in the abrasive grain holding recess 190 is pushed out by the extrusion pin 110 moved by the lever. Therefore, the abrasive grain supply device can be used without any problem even in the electrodeposition liquid (reference numeral 204 in FIG. 7). Therefore, the abrasive grain supply apparatus which can be used in an electrodeposition liquid can be provided.

  Further, the abrasive grain transfer tube 60 is arranged so as to be able to use the gravity action. Therefore, no power source is required to transfer the abrasive grains 170. Since a power source is unnecessary, the abrasive grain supply device can be reduced in size compared to the case where a power source is required.

  In addition, since the grains are abrasive grains 170, an abrasive grain supply device suitable for use in the manufacturing process of a grindstone can be provided.

  By the way, although the abrasive grain supply apparatus demonstrated so far was a form which transfers an abrasive grain by gravity effect, the Example which can transfer an abrasive grain more smoothly is described below.

Next, a second embodiment of the present invention will be described with reference to the drawings. The transfer mechanism will be described as a spring mechanism.
In FIG. 9, the same reference numerals are used for the same structure as in FIG.

  The abrasive grain supply device 10B is provided with a spring mechanism 210 (details will be described later) between a first sector cross section column 20B (details will be described later) and a second sector cross section column 30B (details will be described later). This is an apparatus in which the abrasive replenishing cartridge 40B is inserted into the mounting hole 12 of the main body 11 and a stopper 52 is attached to the upper surface 51 of the main body 11.

  The spring mechanism 210 includes a pushing member 211 that pushes the abrasive grains filled in the abrasive grain replenishing cartridge 40B, a compression spring 212 that is connected to the pushing member 211 and that pushes the pushing member 211, and the compression spring 212 and a stopper. 52 and a contact member 213 provided between the contact member 213 and the contact member 213.

  In addition, the abrasive grain transfer tube 60 is characterized in that the abrasive grain supply cartridge 40B on the inlet side is provided with a spring mechanism 210, and the abrasive grains are pushed out by the spring mechanism 210. Compared to the case of using the gravitational action, it is possible to provide an abrasive grain supply device 10B that can smoothly transfer abrasive grains.

  In FIG. 10, the same reference numerals are used for the same structures as those in FIG. The first fan-shaped cross-section column 20B does not include a fall prevention member (reference numeral 161 in FIG. 3). Further, the second fan-shaped cross-section column 30B also does not include the fall prevention member (reference numeral 162 in FIG. 3).

  Since there is no fall prevention member, when there are no abrasive grains, the spring mechanism (reference numeral 210 in FIG. 9) is removed with the abrasive supply cartridge 40B attached to the abrasive supply apparatus (reference numeral 10B in FIG. 9). Next, the abrasive grains are supplied to the abrasive supply cartridge 40B. That is, it is possible to smoothly supply the abrasive grains.

In addition, although the abrasive grain was applied to the granule based on this invention in embodiment, since activated carbon etc. can be applied besides this, it does not interfere to apply a general granule.
In the embodiment, the pin moving means according to the present invention is manually operated by a lever. However, the pin moving means may be configured to push out the pushing pin by a driving device such as a cylinder.

  In addition, as the transfer mechanism according to the present invention, the use of the gravity action or the spring mechanism is applied in the embodiment, but a mechanism using sponge, rubber, or soft resin may be applied.

  The granular material supply device of the present invention is suitable for the production of an electrodeposited grindstone.

  DESCRIPTION OF SYMBOLS 10, 10B ... Abrasive grain supply apparatus 20, 20B ... 1st fan-shaped cross-section column, 30, 30B ... 2nd fan-shaped cross-section column, 40, 40B ... Abrasive grain supply cartridge, 55 ... Hole, 60 ... Abrasive transfer pipe 80 ... abrasive grain extrusion mechanism, 100 ... abrasive grain extrusion tube, 110 ... extrusion pin, 120 ... lever (pin moving means), 140 ... abrasive grain placing groove, 150 ... abrasive grain guide groove, 163, 164 ... cut surface, 170, 171 ... abrasive grains, 181 ... outlet, 182 ... tubular body, 190 ... abrasive grain holding recess, 210 ... spring mechanism (transfer mechanism).

Claims (1)

To the granule transfer tube of the granule supply apparatus provided with a granule transfer tube that moves the outer diameter of the granule by adding a gap to the inner diameter so that the granule is transferred by a transfer mechanism in a form arranged in a line in series. A particle supply cartridge for supplying particles,
This granule replenishment cartridge has a columnar member in which a hole with a gap added to the outer diameter of the granule is formed in a longitudinal direction, from two fan-shaped cross-sectional columns cut by a cut surface passing through the hole. Become
One fan-shaped cross-section column is a first fan-shaped cross-section column having a central angle of less than 180 °, and a part of the hole is formed at a main portion of the first fan-shaped cross-section column. Is a granule loading groove,
The other fan-shaped cross-sectional column is a second fan-shaped cross-sectional column having a central angle exceeding 180 °, and the remaining portion of the hole is formed in a main portion of the second fan-shaped cross-sectional column. It becomes a guide groove,
A columnar member is formed by placing the particles in a form arranged in a line in series in the particle mounting groove on the first fan-shaped cross-sectional column side, and aligning the second fan-shaped cross-sectional column with the first fan-shaped cross-sectional column. In addition, by tilting the columnar member, the granular material supply cartridge can be supplied to the granular material transfer pipe in a form in which the granular materials are arranged in a line in series.

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