CN216192248U - Koji making machine - Google Patents

Abstract

The disclosure relates to the technical field of fermentation brewing equipment, in particular to a starter propagation machine. The starter propagation machine comprises: the disc comprises a disc body, an inner ring and an outer ring, wherein the inner ring and the outer ring are respectively arranged on the inner ring and the outer ring of the disc body, and at least one of the inner ring and the outer ring is provided with a discharge door capable of being opened and closed; and the discharging mechanism is arranged above the disc body and comprises a first baffle and a second baffle, the first baffle and the second baffle extend along the radial direction of the disc, the first baffle and the disc are arranged in a non-relative-rotation mode and are located on one side of the center of the discharging door along the circumferential direction of the disc, and the second baffle and the disc are arranged in a relative-rotation mode and are located on one side of the first baffle along the circumferential direction of the disc. Based on this, can conveniently realize the ejection of compact of annular groove shape disc, effectively solve the ejection of compact difficult problem of annular groove shape disc.

Description

Koji making machine

Technical Field

The disclosure relates to the technical field of fermentation brewing equipment, in particular to a starter propagation machine.

Background

The starter propagation machine is a common device in the fermentation and brewing process and generally comprises a disc, and materials are placed on the disc for fermentation and culture in the starter propagation process. The disc of some koji making machines is in the shape of an annular groove, and the inner ring and the outer ring of the disc body are respectively provided with an inner ring and an outer ring, so that materials are not easy to fall from the center or the outer edge, and the koji making machine is particularly suitable for fermenting materials containing liquid. However, in the case of a disc having an inner ring and an outer ring, how to discharge becomes a problem.

Disclosure of Invention

The present disclosure is directed to solving the discharge problem of koji-making machines with ring-grooved discs.

In order to solve the above technical problem, the present disclosure provides a koji-making machine, which includes:

the disc comprises a disc body, an inner ring and an outer ring, wherein the inner ring and the outer ring are respectively arranged on the inner ring and the outer ring of the disc body, and at least one of the inner ring and the outer ring is provided with a discharge door capable of being opened and closed; and

the discharging mechanism is arranged above the disc body and comprises a first baffle and a second baffle, the first baffle and the second baffle extend along the radial direction of the disc, the first baffle and the disc are arranged in a non-relative-rotation mode and are located on one side of the center of the discharging door along the circumferential direction of the disc, and the second baffle and the disc are arranged in a relative-rotation mode and are located on one side of the first baffle along the circumferential direction of the disc.

In some embodiments, the discharge mechanism includes a conveyor located between the first and second baffles along a circumferential direction of the disc and conveying the material between the first and second baffles toward the discharge door.

In some embodiments, the inner ring is provided with a discharge door, the center of the disc body is provided with a discharge port, and the disc is rotatably arranged or the disc is non-rotatably arranged.

In some embodiments, the starter propagation machine comprises a discharge mechanism disposed below and in communication with the discharge outlet.

In some embodiments, the outer ring is provided with an exit door, and the disc is non-rotatably disposed.

In some embodiments, the koji making machine includes a door opening mechanism which is in driving connection with the discharge door and drives the discharge door to open and close.

In some embodiments, the koji making machine includes an output lifting mechanism drivingly connected to the output mechanism and driving the output mechanism to lift relative to the disc.

In some embodiments, a cavity is formed inside the disc, and the koji making machine comprises a first heat exchange system, wherein the first heat exchange system is communicated with the cavity and feeds heat exchange fluid into the cavity so as to adjust the temperature of the material by utilizing the heat exchange of the heat exchange fluid and the material on the disc.

In some embodiments, the chamber comprises at least one of:

the first cavity is arranged inside the tray body;

the second cavity is arranged inside the outer ring;

and the third cavity is arranged inside the inner ring.

In some embodiments, the chamber comprises a first chamber and a second chamber, the second chamber is communicated with the first chamber, and the heat exchange fluid provided by the first heat exchange system flows from the first chamber to the second chamber and flows out from the second chamber to the outside of the disc.

In some embodiments, the first chamber interior is divided into at least two heat exchange chambers, each heat exchange chamber having an inlet and an outlet on a bottom wall thereof, the inlet and outlet for the flow of heat exchange fluid into and out of the first chamber, respectively.

In some embodiments, the disc is rotatably disposed, the chamber includes a first chamber disposed inside the disc body, the first heat exchange system includes a first shell and a second shell, the first shell is disposed on the disc body and rotates with the disc body, the second shell is connected below the first shell and is rotatably disposed relative to the first shell, the first shell is provided with an inlet ring groove and an outlet ring groove which are separated from each other, the second shell is provided with an inlet port and an outlet port which are separated from each other, the inlet port is communicated with the first chamber through the inlet ring groove, and the outlet port is communicated with the first chamber through the outlet ring groove, so that the heat exchange fluid enters the first chamber through the inlet port and the inlet ring groove, and after flowing through the disc, flows out from the outlet ring groove and the outlet port to the outside.

In some embodiments, the intake ring groove is located radially inward of the discharge ring groove.

In some embodiments, a first partition plate and a second partition plate are arranged in the first cavity, the first partition plate extends along the radial direction of the disc and is spaced from the inner ring, the second partition plate is located on one side of the first partition plate along the circumferential direction of the disc and divides a space of the first cavity located on one side of the first partition plate along the circumferential direction of the disc, an inlet and an outlet are arranged on the bottom wall of the first cavity, the inlet and the outlet are respectively communicated with the inlet ring groove and the outlet ring groove, and the inlet ring grooves and the outlet ring groove are located on two opposite sides of the second partition plate along the radial direction of the disc.

In some embodiments, the chamber comprises a second chamber disposed inside the outer ring, the second chamber being in communication with the first chamber, the first baffle plate being in contact with the outer ring such that heat exchange fluid flowing into the first chamber from the inlet flows through the second chamber to the outlet; or the second cavity is not arranged in the outer ring, and a gap is arranged between the first partition plate and the outer ring, so that the heat exchange fluid flowing into the first cavity from the inlet flows to the outlet through the gap between the first partition plate and the outer ring.

In some embodiments, baffles are provided within the chamber to direct the flow of heat exchange fluid into the chamber.

In some embodiments, the koji-making machine comprises at least one of:

the second heat exchange system comprises a liquid storage tank, the liquid storage tank is arranged below the disc and used for containing liquid, and the disc is at least partially soaked in the liquid storage tank;

the temperature adjusting device comprises a heat exchanger which is rotatably arranged relative to the disc and extends into the material on the disc;

and the spraying device is used for spraying liquid to the material and/or the discharging mechanism on the disc.

In the embodiment of the disclosure, when the first baffle and the second baffle of the discharging mechanism rotate relatively, the material can be conveyed to the discharging door positioned on the inner ring and/or the outer ring of the disc, so that the discharging of the annular groove-shaped disc can be conveniently realized, and the difficult problem of discharging the annular groove-shaped disc is effectively solved.

Other features of the present disclosure and advantages thereof will become apparent from the following detailed description of exemplary embodiments thereof, which proceeds with reference to the accompanying drawings.

Drawings

In order to more clearly illustrate the embodiments of the present disclosure or the technical solutions in the prior art, the drawings needed to be used in the description of the embodiments or the prior art will be briefly introduced below, it is obvious that the drawings in the following description are only some embodiments of the present disclosure, and for those skilled in the art, other drawings can be obtained according to the drawings without inventive exercise.

Fig. 1 is a schematic top view of a koji making machine according to a first embodiment of the present disclosure.

Fig. 2 is a longitudinal sectional view of a koji making machine in the first embodiment of the present disclosure.

Fig. 3 shows a schematic arrangement of the door opening mechanism in the first embodiment of the present disclosure.

Fig. 4 is a schematic top view of a discharging mechanism on a disc in a first embodiment of the disclosure.

Fig. 5 is a longitudinal sectional schematic view of the discharging mechanism on the disc in the first embodiment of the disclosure.

Fig. 6 is a schematic top view of a discharge mechanism on a disk in a variation of the first embodiment of the disclosure.

Fig. 7 is a longitudinal sectional view of the discharging mechanism on the disc in the modification shown in fig. 6.

Fig. 8 is a schematic top view of a feed mechanism on a puck according to a first embodiment of the present disclosure.

Fig. 9 is a longitudinal sectional view of fig. 8.

Fig. 10 is a first modification of the feed mechanism.

Fig. 11 is a second modification of the feed mechanism.

Fig. 12 is a schematic layout of a stirring mechanism in a first embodiment of the disclosure.

Fig. 13 is a side view of fig. 11.

Fig. 14 is a modification of the upender mechanism.

Fig. 15 is a side view of fig. 14.

Fig. 16 is a schematic layout of a temperature adjusting device in a first embodiment of the present disclosure.

Fig. 17 is a structure of the heat exchanger of fig. 16.

Fig. 18 is a sectional view a-a of fig. 17.

Fig. 19 is a first modification of the heat exchanger.

FIG. 20 is a sectional view taken along line B-B of FIG. 19.

Fig. 21 is a second modification of the heat exchanger.

Fig. 22 is a cross-sectional view C-C of fig. 21.

Fig. 23 is a third modification of the heat exchanger.

FIG. 24 is a cross-sectional view taken along line D-D of FIG. 23.

Fig. 25 is a schematic arrangement diagram of a turntable mechanism in the first embodiment of the present disclosure.

Fig. 26 is a schematic top view of the first drive mechanism and the first idler on the puck according to the first embodiment of the present disclosure.

Fig. 27 is a schematic view of the arrangement of the ventilation device in the first embodiment of the present disclosure.

Fig. 28 is a top view of fig. 27.

Fig. 29 is a first modification of the ventilation device.

Fig. 30 is a top view of fig. 29.

Fig. 31 is a schematic layout view of a first heat exchange system in a first embodiment of the present disclosure.

Fig. 32 shows the first heat exchange system and the disc of fig. 31.

FIG. 33 is a schematic view of the flow path of the disk with the second chamber in the outer ring.

Fig. 34 is a partially enlarged schematic view of fig. 33.

FIG. 35 is a schematic view of the flow path of the disk without a second chamber in the outer ring.

Fig. 36 is a partially enlarged schematic view of fig. 35.

FIG. 37 is a schematic layout of a second heat exchange system in an embodiment of the present disclosure.

Fig. 38 is a schematic top view of a koji making machine according to a second embodiment of the present disclosure.

Fig. 39 is a longitudinal sectional view schematically showing a koji making machine in the second embodiment of the present disclosure.

Fig. 40 shows a modified structure of the discharge port in the second embodiment of the present disclosure.

Fig. 41 shows a disc structure of the second embodiment of the present disclosure when the discharge door is provided in the outer ring.

Fig. 42 is a schematic view of the arrangement of the rotating frame and the rotating frame mechanism on the disc in the second embodiment of the present disclosure.

Fig. 43 is a schematic top view of a turret and turret mechanism on a disk in a second embodiment of the disclosure.

Fig. 44 is a schematic layout of a first heat exchange system in a second embodiment of the present disclosure.

FIG. 45 is a schematic view of the flow path on the disk of FIG. 44.

Description of reference numerals:

10. a starter propagation machine; 20. material preparation;

1. a disc; 11. a tray body; 12. an inner ring; 13. an outer ring; 14. a discharge port; 15. a chamber; 151. a first chamber; 152. a second chamber; 153. a heat exchange cavity; 154. a first separator; 155. a second separator; 156. a baffle plate; 157. an inlet; 158. an outlet; 15a, a first space; 15b, a second space; 16. a discharge door; 17. a discharge chute;

2. a discharging mechanism; 21. a conveyor; 22. a discharging lifting mechanism; 23. a screw conveyor; 25. a spraying device; 251. a liquid spraying pipe; 26. a first baffle plate; 27. a second baffle;

3. a feeding mechanism; 31. a first conveying device; 32. a second conveying device; 33. a feeding frame; 34. a feed inlet; 35. a material distribution port; 36. a belt conveyor; 37. a screw conveyor; 38. a scraper conveying device; 39. a roller;

4. a material turning mechanism; 41. a material turning device; 42. a material turning and lifting mechanism; 43. a turning and throwing type material turning device; 44. a spiral material turning device;

5. a temperature adjusting device; 51. a heat exchanger; 52. a main pipe; 53. a branch pipe; 54. a heat exchange medium inlet; 55. a heat exchange medium outlet; 56. a protrusion; 57. a support;

61. a turntable mechanism; 611. a turntable driving mechanism; 612. a first transmission mechanism; 613. a first riding wheel; 614. a center bearing;

62. a door opening mechanism; 63. a discharge mechanism;

7. a ventilation device; 71. a fan; 72. an air duct; 73. a heat exchanger; 74. adjusting a valve; 75. a window; 76. an air inlet; 77. an air outlet; 78. a koji making chamber;

81. a first heat exchange system; 811. a first shell; 812. a second shell; 813. entering a ring groove; 814. a discharge ring groove; 815. a seal ring; 816. a bearing; 817. a control valve; 818. an inlet port; 819. an outlet port; 81a, an inlet pipe; 81b, a discharge pipe;

82. a second heat exchange system; 821. a liquid storage tank; 822. a liquid level meter; 823. a liquid inlet valve; 824. a liquid outlet valve;

91. a frame; 92. a rotating frame; 93. a turret mechanism; 931. a frame body driving mechanism; 932. a second transmission mechanism; 933. a second riding wheel; 934. a self-aligning bearing; 935. a track.

Detailed Description

The technical solutions in the embodiments of the present disclosure will be clearly and completely described below with reference to the drawings in the embodiments of the present disclosure, and it is obvious that the described embodiments are only a part of the embodiments of the present disclosure, and not all of the embodiments. The following description of at least one exemplary embodiment is merely illustrative in nature and is in no way intended to limit the disclosure, its application, or uses. All other embodiments, which can be derived by a person skilled in the art from the embodiments disclosed herein without any inventive step, are intended to be within the scope of the present disclosure.

Techniques, methods, and apparatus known to those of ordinary skill in the relevant art may not be discussed in detail but are intended to be part of the specification where appropriate.

In the description of the present disclosure, it should be understood that the terms "first", "second", etc. are used to define the components, and are used only for convenience of distinguishing the corresponding components, and if not otherwise stated, the terms have no special meaning, and thus, should not be construed as limiting the scope of the present disclosure.

In the description of the present disclosure, it is to be understood that the orientation or positional relationship indicated by the orientation words such as "front, rear, upper, lower, left, right", "lateral, vertical, horizontal" and "top, bottom" and the like is generally based on the orientation or positional relationship when the koji making machine is normally placed, in which the direction same as the gravity is downward and the direction opposite to the gravity is downward; the terms "inner and outer" refer to the inner and outer relative to the profile of the respective component itself.

In addition, technical features involved in different embodiments of the present disclosure described below may be combined with each other as long as they do not conflict with each other.

Fig. 1 to 45 exemplarily show the structure of a koji making machine of the present disclosure. Some of the structures in some of the figures have been simplified or omitted for clarity of illustration.

Referring to fig. 1-45, a koji-making machine 10 includes a disc 1, a discharging mechanism 2, a feeding mechanism 3, a stirring mechanism 4, and a frame 91.

Wherein, disc 1 is used for holding material 20, provides the fermentation place for material 20. The discharging mechanism 2 is used for conveying the brewed or fermented material 20 from the disc 1 to a designated position of a downstream process. The feeding mechanism 3 is used for feeding the material 20 to be fermented into the disc 1. The stirring mechanism 4 is used for stirring the materials 20 on the disc 1 in the fermentation process so as to ensure that the fermentation is more uniform and sufficient. The frame 91 serves to provide support for the puck 1.

The disk 1 is mounted on the frame 91 and supported by the frame 91. The discharging mechanism 2, the feeding mechanism 3 and the material turning mechanism 4 are arranged above the disc 1 and can be arranged in a relative rotation manner with the disc 1, so that the discharging, feeding and material turning of the disc 1 in the whole circumferential direction can be realized by utilizing the relative rotation between the discharging mechanism 2, the feeding mechanism 3 and the material turning mechanism 4 and the disc 1. In order to realize the relative rotation between the discharging mechanism 2, the feeding mechanism 3, the material turning mechanism 4 and the disc 1, the disc 1 can be rotated, but the discharging mechanism 2, the feeding mechanism 3 and the material turning mechanism 4 do not rotate, or the discharging mechanism 2, the feeding mechanism 3 and the material turning mechanism 4 can be rotated, but the disc 1 does not rotate. Here, the rotation of the disc 1, the discharging mechanism 2, the feeding mechanism 3 and the stirring mechanism 4 refers to the rotation around the longitudinal geometric center line of the disc 1. The longitudinal geometric centre line of the disk 1 is subsequently also referred to as the longitudinal axis of rotation.

2-3, in the disclosed embodiment, disc 1 includes a disc body 11, an inner ring 12, and an outer ring 13. The inner ring 12 and the outer ring 13 are respectively arranged on the inner ring and the outer ring of the disc body 11, and both extend upwards from the disc body 11 to form the inner wall and the outer wall of the disc 1, so that the disc 1 is in a ring groove shape integrally.

Compared with the disc 1 which is not in the shape of the ring groove in the related technology, the disc 1 in the shape of the ring groove has wider application range, because the disc 1 in the shape of the ring groove not only can be used for fermenting solid materials, but also can be used for fermenting liquid or solid-liquid mixed materials, and provides an equipment foundation for fermenting liquid-containing materials. When the disc 1 is in the shape of a ring groove, the outer ring 13 and the inner ring 12 can block the material 20 and prevent the material 20 from falling off from the outer edge or the inner edge of the disc body 11, and particularly, when the material 20 contains liquid, the outer ring 13 and the inner ring 12 can prevent the material 20 from flowing to the outside of the disc body 11 from the radial inner side and the radial outer side, so that the fermentation and brewing of the material 20, particularly the material 20 containing liquid can be more conveniently realized.

However, the ring-shaped disc 1 has a problem of difficulty in discharging. Disc 1 that is not the annular groove shape can conveniently follow the radial one side ejection of compact of disc 1, for example, to disc 1 that does not contain outer loop 13, generally adopt the ejection of compact mode (can be called outer lane ejection of compact mode) of the ejection of compact from the radial outside, promptly, discharge mechanism 2 can accomplish the fermentation back at the material, carry the material towards the radial outside of disc 1, follow the radial outside ejection of compact of disc 1, because the outer loop 13 is not set up in the disk body 11 outer lane, consequently, under discharge mechanism 2's effect, material 20 can directly drop from disk body 11 outer fringe, realize the outer lane ejection of compact. However, for the circular disc 1 in the shape of the circular groove, since the outer edge and the inner edge of the disc body 11 are respectively provided with the outer ring 13 and the inner ring 12, the outer ring 13 and the inner ring 12 can block the discharge of the material 20, and therefore, it is difficult to directly discharge the material from one radial side of the disc body 11 by using the conventional discharge mechanism 2.

The conventional discharge mechanism 2, typically discharges directly using a screw or flight conveyor. When discharge is required, the screw or flight conveyor is in contact with the tray body 11 and conveys the material 20 by rotating about its own axis. For the conventional discharging mechanism 2, the non-annular groove-shaped disc 1 can be smoothly discharged, however, for the annular groove-shaped disc 1, the materials conveyed by the spiral or scraper conveyor can be blocked by the inner ring 12 and the outer ring 13 in the discharging process, so that the smooth discharging cannot be realized.

Therefore, the discharging problem is an important problem restricting the development of the ring groove type disc type koji making machine and needs to be solved urgently.

In view of the above, referring to fig. 1-7, in the embodiment of the present disclosure, at least one of the inner ring 12 and the outer ring 13 is provided with an openable and closable discharge door 16, and the discharge mechanism 2 includes a first baffle 26 and a second baffle 27. Wherein the first baffle 26 and the second baffle 27 both extend in the radial direction of the disc 1. The first baffle 26 is arranged in a non-rotatable manner with respect to the disc 1 and is located on one side of the center of the discharge door 16 along the circumferential direction of the disc 1. The second shutter 27 is provided rotatably relative to the disc 1 and is located on one side of the first shutter 26 in the circumferential direction of the disc 1.

With the above arrangement, since the first flap 26 is not rotatable relative to the disc 1, the relative position between the first flap 26 and the discharge door 16 is always constant, the first flap 26 is always located on the side of the center of the discharge door 16 in the circumferential direction of the disc 1, and at the same time, since the second shutter 27 rotates with respect to the disc 1, the second shutter 27 can rotate with respect to the first shutter 26, and thus, when the disc 1 rotates about the longitudinal center line of the disc 1, or the second damper 27 rotates about the longitudinal center line of the disc 1, the second baffle 27 can gradually approach the first baffle 26, and push the material 20 on the disc 1 towards the side of the first baffle 26, since the material level of the material 20 can be raised to reach the height position of the discharging door 16 as the distance between the second baffle 27 and the first baffle 26 is reduced, the discharging door 16 is opened, and the discharging can be performed.

When discharging is needed, the discharging door 16 can be opened, and the first baffle 26 and the second baffle 27 of the discharging mechanism 2 are in contact with the material 20 on the disc 1, so that when the disc 1 and the second baffle 27 rotate relatively, the second baffle 27 can rotate relative to the first baffle 26 to push the material 20 towards one side of the first baffle 26, along with the increase of the relative rotation angle between the disc 1 and the second baffle 27, the area of a sector area between the second baffle 27 and the first baffle 26 is gradually reduced, the material level of the material 20 is gradually increased, when the material 20 reaches the height position of the discharging door 16, the material 20 can flow out from the discharging door 16, and thus, along with the relative rotation between the disc 1 and the second baffle 27, the material 20 can continuously flow out from the discharging door 16 until the second baffle 27 is close to the first baffle 26, namely discharging is completed.

Referring to fig. 41, when the discharge door 16 is disposed on the outer ring 13, the material 20 may be pushed and stacked up in the relative rotation process of the first baffle 26 and the second baffle 27, and reach the outer side of the outer ring 13 (i.e., the side of the outer ring 13 away from the longitudinal center line of the disc 1) through the opening corresponding to the opened discharge door 16 on the outer ring 13, at this time, as shown in fig. 41, a discharge chute 17 may be disposed at a position below the discharge door 16 outside the outer ring 13, so that the material 20 falling from the discharge door 16 may fall under the guidance of the discharge chute 17, and outer ring discharge is realized. This kind of outer lane ejection of compact mode is particularly useful for the condition that disc 1 does not rotate, because, disc 1 does not rotate, then discharge door 16 on the outer loop 13 can keep in a certain fixed circumference position, thereby material 20 can concentrate the ejection of compact from this fixed circumference position, and can not follow whole circumference ejection of compact, under this kind of condition, conveniently collect material 20 that drops to outer lane material discharging in-process, for example, when setting up receiving device such as take-up (stock) pan below the blanking point, when coming the material, receiving device only need have less size, and need not encircle the great whole periphery of diameter size, so, the cost is lower, area is less.

And referring to fig. 3-7, when the discharge door 16 is disposed on the inner ring 12, the material 20 may be pushed and stacked during the relative rotation of the first baffle 26 and the second baffle 27, and enter the inner side of the inner ring 12 (i.e. the side of the inner ring 12 close to the longitudinal center line of the disc 1) through the opening corresponding to the opened discharge door 16, at this time, as shown in fig. 5, the center of the tray body 11 may be disposed with the discharge hole 14, so that the material 20 entering the inner side of the inner ring 12 through the opening at the discharge door 16 may fall from the discharge hole 14, and the central discharge is realized. The central discharging mode has wider application range and can be conveniently used under the condition that the disc 1 rotates or does not rotate. Because, compare with the outer lane diameter of disc 1, the inner circle diameter of disc 1 is less, and the export of the discharge gate 14 that is located the disk body 11 center can be littleer, therefore, no matter whether disc 1 rotates, all can receive the material 20 that falls from discharge gate 14 very conveniently, for example, when coming the material through set up receiving device such as receiving dish below discharge gate 14, receiving device only need have less diameter, so, the cost is lower, and area is less.

It can be seen that, in the above arrangement, the discharging mechanism 2 can push the material 20 on the disc 1 to be stacked high, so that the material 20 flows out from the opened discharging door 16, and thus, the material 20 can be discharged conveniently without being blocked by the inner ring 12 or the outer ring 13, thereby ingeniously solving the problem of difficult discharging of the annular groove-shaped disc, which is beneficial to popularization and application of the annular groove-shaped disc, and is convenient for fermentation and brewing of liquid-containing materials.

To further facilitate the discharge, referring to fig. 2-7, in some embodiments, the discharge mechanism 2 further includes a conveyor 21, the conveyor 21 being located between the first baffle 26 and the second baffle 27 along the circumferential direction of the disc 1 and conveying the material 20 between the first baffle 26 and the second baffle 27 toward the discharge door 16. The conveyor 21 may be any of various conveyors such as a screw conveyor 23 and a flight conveyor.

Based on the above setting, at first baffle 26 and second baffle 27 relative rotation, sector area reduces gradually between the two, the material level in-process that rises gradually, conveyer 21 can further carry the material 20 between first baffle 26 and the second baffle 27 towards discharge door 16, because under this condition, material 20 not only can move towards discharge door 16 under the extrusion power effect that first baffle 26 and second baffle 27 relative rotation produced, can also move towards discharge door 16 under the effect of conveyer 21 simultaneously, consequently, can carry out the ejection of compact more high-efficiently thoroughly, effectively improve discharging efficiency, and the clean degree of the ejection of compact.

In the foregoing embodiments, in order to facilitate the opening and closing of the discharging door 16, referring to fig. 3, the koji making machine 10 may include a door opening mechanism 62, and the door opening mechanism 62 is in driving connection with the discharging door 16 and drives the discharging door 16 to open and close. So, under the effect of mechanism of opening the door 62, the discharge door 16 can open and shut automatically, and this is favorable to promoting the holistic degree of automation of system bent machine 10, improves the work efficiency of system bent machine 10.

Referring to fig. 2, in some embodiments, the koji making machine 10 includes an output lifting mechanism 22, and the output lifting mechanism 22 is in driving connection with the output mechanism 2 and drives the output mechanism 2 to lift relative to the disc 1. Like this, can be when not needing the ejection of compact, utilize ejection of compact elevating system 22 drive discharge mechanism 22 to rise to ejection of compact mechanism 22 influences normal feeding and fermentation brewing process, and when the ejection of compact that needs, recycle ejection of compact elevating system 22 drive discharge mechanism 22 and descend, make discharge mechanism 22 and material 20 contact, make things convenient for the ejection of compact.

In addition, referring to fig. 2, in some embodiments, the koji making machine 10 includes a spraying device 25, and the spraying device 25 is used for spraying liquid to the material 20 on the disc 1 and/or the discharging mechanism 2.

The spraying device 25 is used for spraying liquid to the materials 20 on the disc 1, so that the fermentation brewing requirements and the conveying requirements of the materials can be met conveniently when needed, for example, in the fermentation and brewing processes of some materials 20, water or other liquid needs to be added for good fermentation, and therefore, the spraying device 25 is used for spraying liquid to the materials 20 on the disc 1, so that the technological requirements of the fermentation brewing of the materials 20 can be met well; for another example, some materials 20 are limited by their characteristics, and are difficult to transport if not diluted, so that the spraying device 25 can be used to spray liquid on the materials 20 on the disc 1 to better meet the transportation requirements of the materials 20, and the materials 20 can be diluted to facilitate the transportation of the materials, for example, the discharging of the materials 20 can be facilitated.

Utilize sprinkler 25 to spray liquid to discharge mechanism 2, can realize the washing to discharge mechanism 2, be favorable to keeping discharge mechanism 2 clean.

It can be seen that, due to the provision of the spraying device 25, the requirements of the fermentation and brewing process, the material conveying process and the device cleaning process can be better met by spraying the material 20 and/or the discharge means 2 with liquid.

Wherein, sprinkler 25 can set up on discharge mechanism 2, like this, sprinkler 25 both can conveniently spray liquid to discharge mechanism 2 when discharge mechanism 2 needs to wash, also can conveniently spray liquid to material 20 in the fermentation brewing process or ejection of compact in-process.

In addition, in the related art, only the direct ventilation mode is usually adopted to adjust the temperature of the material 20 in the fermentation and brewing process, the temperature adjusting mode is single, the temperature adjusting effect is to be improved, and the overall fermentation and brewing effect is affected. Aiming at the situation, the temperature adjusting mode of the material 20 is improved, so that the temperature adjusting mode is not limited to direct ventilation and heat exchange, but an indirect heat exchange mode can be adopted to adjust the temperature of the material.

As one of the indirect heat exchange tempering means, referring to fig. 16, in some embodiments, the koji making machine 10 includes a tempering device 5, and the tempering device 5 includes a heat exchanger 51, and the heat exchanger 51 is rotatably disposed with respect to the disc 1 and extends into the material 20 on the disc 1.

The heat exchanger 51 is a heat exchanger with a heat exchange medium (for example, water and other liquid) flowing inside, so that the heat exchanger extends into the material 20, heat exchange between the material 20 and the heat exchange medium can be realized, the temperature of the material 20 can be adjusted, and the temperature requirement of the fermentation brewing process can be met.

Moreover, the heat exchanger 51 and the disc 1 are arranged in a relatively rotatable manner, so that the heat exchanger 51 can regulate the temperature of the materials 20 on the disc 1 at different circumferential positions, and the requirement of regulating the temperature of the materials 20 on the whole disc 1 is met. Meanwhile, relative rotation between the heat exchanger 51 and the disc 1 also enables relative movement between the heat exchanger 51 and the material 20, so that the heat exchanger 51 can play a certain role in stirring the material 20, and the heat exchanger 51 can have a temperature adjusting function and a material stirring function.

Therefore, based on the heat exchanger 51, the temperature adjusting device 5 can realize an indirect heat exchange mode, and enrich the temperature adjusting mode of the koji making machine 10, so that the koji making machine 10 is not limited to the direct ventilation heat exchange temperature adjusting mode. And, based on heat exchanger 51 that sets up, attemperator 5 not only can be to the material accuse temperature, can also be to the material stirring, and a tractor serves two-purpose, and the function is abundant.

Wherein the temperature control device 5 can be lifted relative to the disc 1 to control contact with the material 20 only when needed.

The temperature adjusting device 5 can realize the stirring function only by means of relative movement with the disc 1, and under the condition, the stirring intensity of the temperature adjusting device 5 is lower than that of a conventional stirring mechanism 4 which revolves relative to the disc 1 and rotates around the axis of the temperature adjusting device, so that the temperature adjusting device is particularly suitable for materials 20 which are not suitable for violent stirring. In the fermentation and brewing process of some materials 20, if the materials are stirred violently, the fermentation and brewing effect can be influenced, and under the condition, the temperature adjusting device 5 can be utilized to realize the stirring function, so that the requirement of the materials 20 on the stirring process with lower strength is met.

Under the condition that the koji making machine 10 simultaneously comprises the temperature adjusting device 5 and the material turning mechanism 4, the temperature adjusting device 5 can meet more various material turning requirements together with the material turning mechanism 4, and the working flexibility of the koji making machine 10 is enhanced. For example, in the case of severe stirring of the material 20, the stirring mechanism 4 may be started, or the temperature adjusting device 5 and the stirring mechanism 4 may be used to stir together, whereas in the case of non-severe stirring of the material 20, the temperature adjusting device 5 may be used to stir only, and the stirring mechanism 4 is not started any more.

As another way of adjusting the temperature by indirect heat exchange, referring to fig. 31-36 and fig. 44-45, in some embodiments, a chamber 15 is provided inside the disc 1, and the koji making machine 10 includes a first heat exchange system 81, the first heat exchange system 81 is communicated with the chamber 15, and a heat exchange fluid is introduced into the chamber 15, so as to adjust the temperature of the material 20 by heat exchange between the heat exchange fluid and the material 20 on the disc 1.

In the above arrangement, the disc 1 is not a solid disc, but has a hollow interlayer, and a heat exchange fluid can be introduced into the interlayer from the first heat exchange system 81, and the temperature of the material 20 can be controlled by the heat exchange between the heat exchange fluid and the material 20. The first heat exchange system 81 may be referred to as a sandwich heat exchange system. The heat exchange fluid introduced into the interlayer can be liquid such as water and the like so as to exchange heat with the material 20 better and realize better temperature control effect.

Therefore, based on the arranged first heat exchange system 81, an indirect heat exchange temperature regulation mode based on heat exchange between a heat exchange medium and the material 20 can be realized, and the temperature regulation mode of the starter propagation machine 10 is enriched, so that the starter propagation machine 10 is not limited to a direct ventilation temperature regulation mode.

In the above arrangement, the chamber 15 may be located inside at least one of the body 11, the outer ring 13 and the inner ring 12 of the disc 1, so that the disc 1 is in whole or in part of a sandwich-type structure. The portions of the chamber 15 located within the disc 11, outer ring 13 and inner ring 12 may be referred to as a first chamber 151, a second chamber 152 and a third chamber (not shown) respectively for ease of distinction.

For example, referring to FIGS. 31-32, in some embodiments, the chamber 15 includes a first chamber 151 disposed within the tray 11, in which case the tray 11 is a sandwich-type structure. Because material 20 mainly piles up on disk body 11, consequently, set up disk body 11 into sandwich structure to let in heat transfer fluid in the intermediate layer of disk body 11, can satisfy the heat transfer demand of most of material 20, realize better thermoregulation effect. Referring to fig. 33 and 34, the interior of the first chamber 151 in the tray body 11 may be divided into at least two heat exchange chambers 153, each heat exchange chamber 153 has an inlet 157 and an outlet 158 formed on a bottom wall thereof, and the inlet 157 and the outlet 158 respectively allow the heat exchange fluid to flow into and out of the first chamber 151. Different heat exchange cavities 153 are arranged in the tray body 11, so that the heat exchange of the tray body 11 in different areas can be realized, and because each area can independently exchange heat, the fault of a certain area does not influence the heat exchange of other areas, the reliability is high, and the maintenance is convenient. The heat exchange manner of the plate body 11 in the sub-regions is suitable for the condition that the disc 1 rotates (see fig. 33-36) and the condition that the disc 1 does not rotate (see fig. 45). The heat exchange cavities 153 may be sequentially arranged along the circumferential direction of the disc 1, and are distributed over the entire circumference of the disc body 11, so as to realize heat exchange of the materials 20 on the entire circumference of the disc body 11.

31-32, in some embodiments, the chamber 15 includes a second chamber 152 disposed within the outer ring 13, in which case the outer ring 13 is a sandwich-type structure. The heat exchange fluid in the interlayer of the outer ring 13 can conveniently exchange heat with the materials 20 at different heights (or called thicknesses), so that a good temperature regulation effect is realized.

31-32, in some embodiments, chamber 15 includes both first chamber 151 and second chamber 152, in which case disk 11 and outer ring 13 are of a sandwich-type construction. Under the condition, the heat exchange fluid in the disc body 11 can be utilized to exchange heat with the material 20, and the heat exchange fluid in the outer ring 13 can be utilized to exchange heat with the material 20, so that the bottom and the side of the material 20 can exchange heat with the heat exchange fluid, and therefore, the temperature of the material 20 is prevented from being uneven in the circumferential direction or the height direction, and a more uniform temperature adjusting effect is achieved.

In the case where the chamber 15 includes both the first chamber 151 and the second chamber 152, the second chamber 152 may communicate with the first chamber 151, and the heat exchange fluid provided by the first heat exchange system 81 may flow from the first chamber 151 to the second chamber 152 and flow out of the second chamber 152 to the outside of the disk 1. Like this, heat transfer fluid can be in disk body 11 with material 20 abundant heat transfer back, flow to outer loop 13 in again, with material 20 heat transfer, this kind of heat transfer mode of disk body 11 back outer loop 13 earlier more accords with the characteristics that material 20 tiling area is great, and thickness is less, disk body 11 department heat transfer demand is bigger, is favorable to realizing better heat transfer effect to, this kind of heat transfer mode of disk body 11 back outer loop 13 earlier also makes things convenient for first heat transfer system 81 to arrange. The first heat exchange system 81 can be arranged below the disc body 11, and the space below the disc body 11 is large, so that the arrangement is convenient, and particularly the arrangement of the first heat exchange system 81 is convenient when the disc 1 rotates.

When the disc 1 rotates, the problem is how to arrange the first heat exchange system 81 to avoid the winding of the pipeline in the rotation process of the disc 1.

In order to solve the problem of the winding of the pipes of the first heat exchange system 81 on the rotation of the disc 1, referring to fig. 31-32, in some embodiments, when the disc 1 is rotatably disposed, the chamber 15 includes a first cavity 151 disposed inside the disc body 11, and the first heat exchange system 81 includes a first shell 811 and a second shell 812. The first housing 811 is disposed on the tray body 11 and rotates together with the tray body 11. The second housing 812 is connected below the first housing 811 and is rotatably disposed with respect to the first housing 811. The first housing 811 is provided with an inlet ring groove 813 and an outlet ring groove 814 which are spaced apart from each other. The second housing 812 is provided with an inlet 818 and an outlet 819 which are spaced apart from each other. The inlet opening 818 communicates with the first chamber 151 through the inlet ring groove 813. The discharge port 819 communicates with the first chamber 151 through a discharge ring groove 814. The inlet 818 is connected to an inlet pipe 81a which communicates with a heat exchange fluid supply source. A discharge pipe 81b is connected to the discharge port 819 for discharging the heat exchange fluid.

With the above arrangement, the heat exchange fluid enters the first chamber 151 through the inlet opening 818 and the inlet ring groove 813, and flows out of the outlet ring groove 814 and the outlet opening 819 to the outside after passing through the disk 1. In the whole process, the first shell 811 provided with the inlet ring groove 813 and the outlet ring groove 814 rotates along with the disc body 11, and the second shell 812 connected with the inlet pipe 81a and the outlet pipe 81b does not rotate along with the disc body 11, so that the flow of the heat exchange fluid is not influenced by the rotation of the disc 1, no matter which angle the disc 1 rotates, the inlet pipe 81a and the outlet pipe 81b can be in the original position and do not rotate along with the disc, and meanwhile, the heat exchange fluid can enter and exit the first cavity 151 through the inlet ring groove 813 and the outlet ring groove 814, and interlayer heat exchange is realized. It can be seen that the above arrangement can satisfy the supply requirement of the heat exchange fluid for the whole rotating disk 1 while effectively avoiding the winding of the inlet pipe 81a and the outlet pipe 81 b.

Since the space at the lower portion of the tray body 11 is large and substantially free from obstruction, the first and second housings 811 and 812 and the inlet and outlet pipes 81a and 81b may be conveniently arranged, thereby conveniently achieving the arrangement and installation of the first heat exchange system 81.

Referring to fig. 32, in some embodiments, the inlet ring groove 813 is located on the radial inner side of the outlet ring groove 814, so that the layout is more compact and reasonable, and the heat exchange fluid flows to the radial inner side and then to the radial outer side after entering the first cavity 151, thereby orderly realizing the temperature adjustment of the material 20 at various positions of the whole disc body 11.

In order to guide the heat exchange fluid to flow orderly in the plate body 11, referring to fig. 31-36, in some embodiments, a first partition plate 154 and a second partition plate 155 are arranged in the first cavity 151, the first partition plate 154 extends along the radial direction of the disk 1 and is spaced from the inner ring 12, the second partition plate 155 is arranged on one side of the first partition plate 154 along the circumferential direction of the disk 1 and divides the space of the first cavity 151 on one side of the first partition plate 154 along the circumferential direction of the disk 1, an inlet 157 and an outlet 158 are arranged on the bottom wall of the first cavity 151, the inlet 157 and the outlet 158 are respectively communicated with the inlet ring groove 813 and the outlet groove 814, and the inlet 157 and the inlet ring groove 813 and the outlet 158 and the outlet groove 814 are arranged on the opposite sides of the second partition plate 155 along the radial direction of the disk 1.

Based on the above arrangement, the heat exchange fluid entering the first chamber 151 can sequentially flow through different positions of the tray body 11 in the radial direction, and finally flow through the whole tray body 11 to perform sufficient heat exchange with the material 20 on the tray body 11.

The flow process of the heat exchange fluid based on the above arrangement will be described here by taking as an example a case where the inlet ring groove 813 is located radially inside the discharge ring groove 814.

Referring to fig. 31 to 36, when the inlet ring groove 813 is located radially inside the outlet ring groove 814, the heat exchange fluid flowing into the inlet ring groove 813 can enter the first chamber 151 through the inlet 157, the heat exchange fluid entering the first chamber 151 can flow only in the space of the first chamber 151 located on one side of the first partition 154 in the circumferential direction of the disk 1 (the space on the side where the inlet 157 is located, which is denoted as the first space 15a in fig. 34) due to the blockage by the first partition 154, and the heat exchange fluid cannot flow toward the radially outer side of the disk 1 but can flow only toward the radially inner side of the disk 1 due to the blockage by the second partition 155, and when flowing to the position near the inner ring 12, flows into the space of the first chamber 151 located on the other side of the first partition 154 in the circumferential direction of the disk 1 (the space on the other side where the inlet 157 is not located, designated as the second space 15b in fig. 34), then turns back, flows radially outward of the disk 1, and finally flows toward the outlet 158, and flows out to the outside of the disk body 11 via the outlet 158. The heat exchange fluid flowing out of the tray body 11, as shown in fig. 32, flows through the discharge ring groove 814, the discharge port 819 and the discharge pipe 81b in sequence, and flows back to the heat exchange fluid supply source to realize the circulation flow of the heat exchange fluid.

In the case of the second cavity 152 provided in the outer ring 13, when the heat exchange fluid flowing from the radial inner side to the radial outer side of the disk body 11 flows to the vicinity of the outer ring 13, as shown in fig. 33 to 34, the heat exchange fluid flows into the second cavity 152 from the inflow port I of the second cavity 152, flows through the second cavity 152, flows back to the first cavity 151 from the outflow port O of the second cavity 152, flows toward the radial inner side until flowing to the outlet 158, and flows out of the disk body 11 from the outlet 158. At this time, there is no space between the first diaphragm 154 and the outer ring 13, and the two contact each other, so that the fluid flowing to the outer ring 13 is prevented from flowing toward the second chamber 152 but directly toward the outlet 158.

In the case where the second chamber 152 is not provided in the outer ring 13, when the heat exchange fluid flowing from the radial inside to the radial outside of the disk body 11 flows to the vicinity of the outer ring 13, as shown in fig. 35 to 36, the heat exchange fluid does not flow to the second chamber 152, but directly flows through the space between the first partition 154 and the outer ring 13, turns back, flows toward the radial inside until it flows to the outlet 158, and flows out of the disk body 11 from the outlet 158. That is, in this case, a space is provided between the first partition 154 and the outer ring 13.

It can be seen that, when the inlet ring groove 813 is located on the radial inner side of the outlet ring groove 814, based on the first partition plate 154 and the second partition plate 155, the heat exchange fluid can be guided to flow in the order of first toward the radial inner side, then toward the radial outer side, and then toward the radial inner side, so that the heat exchange fluid can orderly flow through each radial position of the disc body 11 to exchange heat with each radial material 20, and in addition, under the condition that the second cavity 152 is arranged in the outer ring 13, the heat exchange fluid can more conveniently flow from the first cavity 151 to the second cavity 152, thereby facilitating the flow heat exchange process of the disc body 11 and then the outer ring 13.

In each of the above embodiments, to improve the heat exchange effect of the sandwich, referring to fig. 31-32, in some embodiments, baffles 156 are provided within the chamber 15 to direct the heat exchange fluid entering the chamber 15 to flow in a baffled manner. As shown in fig. 32, a plurality of baffles 156 may be arranged side by side, and two adjacent baffles 156 may be arranged on two opposite side walls of the chamber 15 and partially staggered in the opposite direction of the two side walls to form baffling flow channels for guiding the heat exchange fluid to flow in the chamber 15 in a baffling manner. For example, referring to fig. 32, in some embodiments, a plurality of sets of baffles 156 may be disposed in the first cavity 151 inside the tray body 11, each set of baffles 156 is provided with a plurality of baffles 156 disposed at the same circumferential position, the baffles 156 disposed at the same circumferential position are arranged side by side along the radial direction of the disk 1, and two adjacent baffles 156 are respectively connected to the upper and lower sidewalls of the first cavity 151 and are arranged in a staggered manner in the up-and-down direction to form an S-shaped baffle flow channel. The baffling flow can prolong the flowing time of the heat exchange fluid in the chamber 15, so that the heat exchange fluid can exchange heat with the material 20 more fully, and the temperature control effect on the material 20 is improved.

In addition, referring to fig. 37 as another way of indirect heat exchange and temperature adjustment, in some embodiments, the starter propagation machine 10 includes a second heat exchange system 82, the second heat exchange system 82 includes a reservoir 821, the reservoir 821 is disposed below the disc 1 and is used for containing liquid, and the disc 1 is at least partially immersed in the liquid in the reservoir 821. So, can realize soaking formula heat transfer process, utilize the liquid in the liquid storage tank 821 and the heat transfer between material 20 on the disc 1, realize the temperature regulation to material 20. The indirect heat exchange temperature regulation mode is simple and easy to implement, and can be conveniently applied no matter whether the disc 1 rotates or not.

The embodiments shown in fig. 1-45 are further described below.

First, a first embodiment shown in fig. 1-34 will be described.

Referring to fig. 1-2, in this first embodiment, a koji making machine 10 includes a disc 1, a discharging mechanism 2, a feeding mechanism 3, a stirring mechanism 4, a temperature adjusting device 5, a turntable mechanism 61, a ventilation device 7, a first heat exchange system 81, and a frame 91.

Wherein, the disc 1 is rotatably arranged on the frame 91 and is internally provided with the material 20 to be fermented and brewed. The discharging mechanism 2 is used for conveying the brewed or fermented material 20 from the disc 1 to the designated position of the next process. The feed mechanism 3 is used to feed the material 20 to be fermented or brewed into the disc 1. The stirring mechanism 4 is used for stirring the materials 20 on the disc 1. The temperature adjusting device 5 is used for controlling temperature and turning the material 20 on the disc 1. The turntable mechanism 61 is used for driving the disc 1 to rotate. The ventilating device 7 is used for ventilating the koji making chamber 78 in which the disc 1 is located, and the temperature of the material 20 is controlled by penetrating the material 20 with cold and hot air. The first heat exchange system 81 is used for introducing heat exchange fluid into the interlayer of the disc 1 to realize indirect heat exchange temperature control of the material 20.

In summary, the starter propagation machine 10 of this embodiment is an assembly of a device which feeds a material 20 into a disc 1 through a feeding mechanism 3, controls the material brewing or fermentation process through one or more of a material turning mechanism 4, a temperature adjusting device 5, a ventilating device 7 and a first heat exchange system 81 during the rotation of the disc 1, and finally conveys the fermented or brewed material 20 to the next process through a discharging mechanism 2.

The respective components will be described below.

Fig. 1 to 4 show the structure of the disc 1 in this embodiment. As shown in fig. 1-4, in this embodiment, the disc 1 is an annular groove-shaped disc including a disc body 11, an inner ring 12, and an outer ring 13. The center of the tray body 11 is provided with a discharge hole 14. The outer ring 13 and the inner ring 12 are respectively arranged on the outer ring and the inner ring of the disc body 11 and are both inseparably connected with the disc body 11, so that the whole disc 1 is of an integrated structure. Thus, the disc 1 is in a ring groove shape and is suitable for containing liquid, solid-liquid mixed state or solid material 20 so as to complete the fermentation and brewing process of the corresponding material 20.

In this embodiment, as shown in fig. 3, an opening is provided in the inner ring 12, a discharge door 16 is provided at the opening, and the discharge door 16 is driven by a door opening mechanism 62 to open or close the opening. The discharge door 16 may be opened or closed by moving in a radial direction, or by moving in an up-down direction. Meanwhile, the structure of the door opening mechanism 62 may be various, for example, the door opening mechanism 62 may include a driving cylinder (oil cylinder, electric cylinder, or air cylinder) or a linear motor.

Fig. 1 to 2 and fig. 3 to 4 show the structure of the discharging mechanism 2 in this embodiment. Referring to fig. 1-2 and 3-4, in this embodiment, the discharging mechanism 2 includes a first baffle 26 and a second baffle 27, and is driven to ascend and descend by the discharging elevating mechanism 22.

As shown in fig. 1 and 4, the first baffle 26 and the second baffle 27 both extend in the radial direction of the disk 1, and both have a length equal to the radial distance from the outer ring 13 to the inner ring 12, so that the first baffle 26 and the second baffle 27 both cover the entire radius range of the disk 1.

Meanwhile, as shown in fig. 1 and 4, in the circumferential direction of the disc 1, a first flapper 26 is located on the side of the discharge door 16, and a second flapper 27 is located on the side of the first flapper 26.

And, the first baffle 26 and the disc 1 do not rotate relatively, so that during the rotation of the disc 1, the first baffle 26 can rotate along with the disc 1, so as to be always located at one side of the discharging door 16 along the circumferential direction of the disc 1, and at the same time, the second baffle 27 and the disc 1 rotate relatively, so that during the rotation of the disc 1, the second baffle 27 does not rotate along with the disc 1.

Based on the above arrangement, referring to fig. 4, when the disc 1 performs brewing or fermentation operations, the discharging mechanism 2 moves upwards, and neither the first baffle 26 nor the second baffle 27 contacts with the material 20; when the disc 1 performs discharging operation, the discharging mechanism 2 descends under the action of the discharging lifting mechanism 22 and falls onto the disc body 11, so that the bottom edges of the first baffle 26 and the second baffle 27 are tightly attached to the upper surface of the disc body 11 and fully contact with the material 20, in this case, the disc 1 rotates, the second baffle 27 can push the material 20 towards the first baffle 26 along the direction opposite to the rotating direction of the disc 1, push the material 20 to the opening of the inner ring 12 opened by the discharging door 16, so that the material 20 falls into the discharging port 14 from the opening and is discharged from the discharging port 14, and the central discharging process is completed.

Since the disk 1 rotates, the opening on the inner ring 12 changes circumferential position along with the rotation of the disk 1, at this time, as shown in fig. 2-3, the discharge hole 14 may be designed in a ring shape, so that the opening on the inner ring 12 rotates to different positions, and the material 20 can fall into the discharge hole 14 from the opening to be discharged.

The material 20 falling from the discharge port 14 can be received by the receiving device such as the receiving disc, and then transported to the designated position of the downstream process by the transporting device, in this case, because the discharge port 14 is positioned at the center of the disc 1, the corresponding radial range is smaller, therefore, the diameter of the receiving disc can be smaller, and the receiving disc does not need to occupy larger space.

However, in order to further facilitate the transfer of the material to the downstream process, referring to fig. 2, in this embodiment, a receiving device such as a receiving tray is not provided below the discharge port 14, but a discharging mechanism 63 is provided, and the discharging mechanism 63 is provided below the discharge port 14, communicates with the discharge port 14, and conveys the material 20 toward the radial outside of the disk 1. In this way, the material 20 falling from the discharge port 14 can directly fall onto the discharge mechanism 63, and is conveyed by the discharge mechanism 63 toward the radial outside of the disk 1. Like this, owing to need not to set up the take-up (stock) pan, consequently, can practice thrift the shared ground space of take-up (stock) pan to, because material 20 need not to fall earlier to the take-up (stock) pan in, outwards transmit again, but can directly outwards be carried by row material mechanism 63, consequently, the material transports more conveniently, and linking between the process is inseparabler, is favorable to improving whole production efficiency.

In this embodiment, as shown in fig. 4, the material 20 moves towards the opening corresponding to the discharging door 16 only by the relative rotation of the first baffle 26 and the second baffle 27, but as a modification, as shown in fig. 6 to 7, a conveyor 21 may be additionally arranged between the first baffle 26 and the second baffle 27, and the material 20 is further driven by the conveyor 21 to move towards the opening corresponding to the discharging door 16, so as to accelerate the discharging efficiency and improve the discharging cleanness. The conveyor 21 may be a screw conveyor 23 or a scraper conveyor, and is disposed above the disc body 11 and extends in the radial direction of the disc 1 from the outer ring 13 to the inner ring 12.

In addition, as shown in fig. 2, in this embodiment, a spraying device 25 is further provided on the discharging mechanism 2, and the spraying device 25 includes a liquid spraying pipe 251, and the liquid spraying pipe 251 sprays liquid such as water toward the material 20 and the conveyor 21 to add liquid to the material 20, or wash the conveyor 21 to make the material 20 easier to ferment and brew or convey, or to make the conveyor 21 cleaner. Wherein, a plurality of nozzles can be arranged on the liquid spraying tube 251 to further improve the spraying effect.

Fig. 8 to 9 show the structure of the feed mechanism 3 in this embodiment. As shown in fig. 8 to 9, in this embodiment, the feed mechanism 3 is disposed above the tray body 11, does not rotate with the disk 1, and includes a first conveyor 31 and a second conveyor 32. Wherein, the first conveying device 31 and the second conveying device 32 are both arranged on the feeding frame 33 connected with the frame 91 and both extend along the radial direction of the disc 1. The first conveyor 31 is arranged immovably in the radial direction of the disc 1, and the first conveyor 31 is provided with a feed opening 34. The second conveying device 32 is disposed below the first conveying device 31, is movably disposed along the radial direction of the disc 1, and is provided with a material distribution port 35, specifically, as shown in fig. 9, a roller 39 is disposed below the second conveying device 32, and the roller 39 is in contact with the feeding frame 33, so that the roller 39 rotates, and the second conveying device 32 can move along the radial direction of the disc 1 on the feeding frame 33. In this way, the second conveyor 32 can move relative to the first conveyor 31 in the radial direction of the disc 1, so that the feeding mechanism 3 can be retracted as a whole to feed the material 20 to different positions of the disc 1.

When feeding is needed, the material 20 falls from the upper-level conveying device into the feeding hole 34 and falls onto the first conveying device 31, then falls onto the second conveying device 32 from the first conveying device 31 and falls onto the disc 1 from the material distribution hole 35 of the second conveying device 32, because the second conveying device 32 can move in the radial direction relative to the disc 1, the second conveying device 32 can convey the material 20 to different radial positions of the disc 1, and because the disc 1 rotates relative to the feeding mechanism 3, the feeding mechanism 3 can convey the material 20 to different circumferential positions of the disc 1, and further, under the cooperation of the feeding mechanism 3 and the disc 1, the material 20 can be uniformly thrown onto the whole disc 1.

Here, as shown in fig. 9, in this embodiment, the first conveying device 31 and the second conveying device 32 are embodied as a belt conveying device 36, but it is understood that, as a modification, as shown in fig. 10 and 11, the first conveying device 31 and the second conveying device 32 may be a screw conveying device 37 or a flight conveying device 38.

Fig. 12 to 13 show the structure of the stirring mechanism 4 in this embodiment. As shown in fig. 12 to 13, in this embodiment, the stirring mechanism 4 is located above the tray body 11, does not rotate with the disk 1, and includes a stirring device 41 and a stirring lift mechanism 42. The stirring device 41 rotates around its rotation axis to stir the material 20, so that the material 20 can uniformly reach the required temperature, humidity and strain environment. The material turning-up and down mechanism 42 is disposed on the frame 91 and is in driving connection with the material turning-up device 41 to drive the material turning-up and down device 41 to control whether the material turning-up device 41 contacts with the material 20. When the material turning device 41 descends to be in contact with the material 20, the material 20 can be turned over, and the material turning function is realized. After the stirring device 41 rises above the material 20, the material is no longer in contact with the material 20, and the material 20 cannot be stirred.

In the production process, when the material turning-up and lifting mechanism 42 lifts the material turning-up device 41 to the highest point, the material turning-up device 41 stops turning up, and when the material turning-up and lifting mechanism 42 drives the material turning-up device 41 to lift up and down at other heights below the highest point, the material turning-up device 41 can turn up the materials 20 with different heights.

Here, as shown in fig. 12, in this embodiment, the upender 41 is embodied as a horizontal flip-flop upender 43, the rotation axis of which is in the horizontal direction. However, the structure of the upender 41 is not limited to this, and for example, as a modification, as shown in fig. 14 to 15, the upender 41 may be a vertical spiral upender 44 including a plurality of spiral upenders whose own rotation axes extend in the vertical direction, and for example, although not shown, the upender 41 may be a rake upender, or the upender 41 may employ a combination of two or more of a horizontal throw-type upender 43, a vertical spiral upender 44, or a rake upender, depending on the material characteristics or the process requirements.

Fig. 16 shows the structure of the temperature adjusting device 5 in this embodiment. Referring to fig. 16, in this embodiment the thermostat 5 is arranged on a frame 91, which does not rotate with the disc 1 and comprises a holder 57 and a heat exchanger 51. The bracket 57 is fixedly attached to the frame 91. The heat exchanger 51 is disposed on the bracket 57 and includes a main pipe 52 and branch pipes 53. The main pipe 52 is provided with a heat exchange medium inlet 54 and a heat exchange medium outlet 55 for the heat exchange medium to enter and exit the heat exchanger 51, respectively. A plurality of branch pipes 53 communicate with the main pipe 52 side by side in a radial direction of the disc 1 and extend downward from the main pipe 52 to contact the material 20. Because the heat exchange medium is introduced into the heat exchanger 51, when the heat exchanger 51 is contacted with the material 20 through the branch pipe 53, the heat exchange medium in the heat exchanger 51 can exchange heat with the material 20, so that the temperature of the material 20 can be adjusted. Moreover, because the disc 1 rotates, the heat exchanger 51 does not rotate along with the disc, and the heat exchanger 51 can rotate relatively, the heat exchanger 51 can also play a role in turning materials. It can be seen that the heat exchanger 51 of this embodiment can control temperature and turn over material, and can be used as a machine for two purposes.

Fig. 17-18 further illustrate the construction of the heat exchanger 51. As shown in fig. 17-18, in this embodiment, the branch tubes 53 of the heat exchanger 51 are generally cylindrical, hollow within, and of uniform cross-sectional size from top to bottom. Of course, other variations in the shape of the branch 53 are possible. For example, as can be seen in FIGS. 19-20, in some embodiments, the branch tubes 53 are substantially U-shaped, hollow, and have a uniform cross-sectional dimension from top to bottom. For another example, as shown in fig. 21-22, in other embodiments, the branch pipes 53 are substantially rake-shaped, and have hollow interiors and gradually enlarged cross-sections from top to bottom. For another example, as shown in fig. 23-24, in some embodiments, the branch pipe 53 is substantially plow-shaped, the interior thereof is hollow, the cross-sectional dimension is uniform from top to bottom, and the outer surface of the branch pipe 53 is provided with a protrusion 56, the protrusion 56 is substantially plow-shaped, the upper portion thereof is smooth, and the lower portion thereof is sharp.

Fig. 25 to 26 show the structure of the turntable mechanism 61 in this embodiment. Referring to fig. 25-26, in this embodiment, the disc 1 is rotatably mounted on a frame 91 and is driven to rotate by a turntable mechanism 61. In particular, the disk 1 is supported at its central portion by a central bearing 614 (for example a central rolling bearing) and at its outer edge by a first idler 613, so that the disk 1 can rotate with respect to the frame 91 about a longitudinal rotation axis located in the centre of the disk 1. The turntable mechanism 61 includes a turntable driving mechanism 611 and a first transmission mechanism 612. The turntable driving mechanism 611 is in driving connection with the disc 1 through the first transmission mechanism 612, and is used for driving the disc 1 to rotate. The turntable driving mechanism 611 is disposed at the outer edge of the disk 1 and includes one, two or more motors. The first transmission 612 is disposed at the outer edge of the disc 1 and includes a gear and teeth or pins located at the entire circumference of the disc 1. The teeth or pins are drivingly connected to the turntable drive 611 via gears such that when the turntable drive 611 is activated, the disc 1 as a whole can be driven to rotate automatically about the longitudinal axis of rotation. In this way, when the turntable driving mechanism 611 is activated, the disk 1 as a whole can be driven to rotate automatically about the longitudinal rotation axis.

Because the disc 1 can rotate around the longitudinal rotation axis under the action of the turntable mechanism 61, and the second baffle plate 27, the feeding mechanism 3, the material turning mechanism 4 and the temperature adjusting device 5 do not rotate around the longitudinal rotation axis, the relative rotation around the longitudinal rotation axis between the second baffle plate 27, the feeding mechanism 3, the material turning mechanism 4 and the temperature adjusting device 5 and the disc 1 can be realized, so that along with the rotation of the disc 1, the second baffle plate 27, the feeding mechanism 3, the material turning mechanism 4 and the temperature adjusting device 5 can reach different circumferential positions of the disc 1, discharging, feeding, material turning and temperature adjustment are carried out at different circumferential positions, and finally, the discharging, feeding, material turning and temperature adjustment of the whole circumference of the disc 1 are realized.

The rotation of the disc 1 is convenient for realizing the whole-circle discharging, feeding and turning, and is also beneficial to the uniform fermentation of the material 20. Furthermore, if the material 20 needs to be kept still during the fermentation process, the disc 1 may be kept still and not rotated during the whole fermentation process or for a certain period of time during the fermentation process.

Fig. 27 to 28 show the structure of the ventilation device 7 in this embodiment. Referring to fig. 27-28, in this embodiment, the koji making machine 10 is in a closed koji making chamber 78 and is ventilated by the ventilation device 7 into the koji making chamber 78, so that hot and cold air passes through the material 20 to directly exchange heat with the material 20 to adjust the temperature of the material 20. The ventilation device 7 includes a blower 71, an air duct 72, a heat exchanger 73, and a regulating valve 74. The blower 71 communicates with the inside and outside of the chamber through an air duct 72 to drive air into the texturing chamber 78. An adjusting valve 74 and a heat exchanger 73 are arranged in the air pipe 72. The damper valve 74 regulates the air flow. The heat exchanger 73 adjusts the temperature of the air flowing into the room.

As a modification of the ventilating device 7 shown in fig. 27 to 28, the fan 71 may be directly communicated with the indoor space without providing the heat exchanger 73 in the duct 72 and heating the air with a heater or hot steam or cooling the air with cooling water or a refrigerating air conditioner, or the duct 72 and the heat exchanger 73 may be eliminated. In addition, as shown in fig. 29 to 30, when the koji making chamber 78 is a non-closed space and the koji making chamber 78 communicates with the outside through the window 75, the ventilation device 7 may include only the fan 71 and control ventilation by controlling the opening and closing of the fan 71 and the opening degree of the window 75 during the production process.

Fig. 31 to 34 show the first heat exchange system 81 and the configuration of the disk 1 associated with the first heat exchange system 81 in this embodiment. As shown in fig. 31 to 34, in this embodiment, the disc body 11 and the outer ring 13 of the disc 1 are provided with a first cavity 151 and a second cavity 152, respectively, so that both the disc body 11 and the outer ring 13 are of a sandwich structure. The first heat exchange system 81 is disposed below the tray body 11 and is configured to introduce a heat exchange fluid into the first cavity 151 and the second cavity 152, so as to adjust the temperature of the material 20 by using the heat exchange between the heat exchange fluid and the material 20.

As shown in fig. 31 to 34, the first heat exchange system 81 of this embodiment includes a first shell 811, a second shell 812, an inlet pipe 81a, and an outlet pipe 81 b. The first housing 811 is fixedly provided to the lower surface of the disc body 11 such that the first housing 811 can rotate together with the disc 1. The second housing 812 is disposed under the first housing 811, and a bearing 816 is disposed between the second housing 812 and the first housing 811, an outer ring of the bearing 816 is engaged with the second housing 812, and an inner ring of the bearing 816 is engaged with the first housing 811, so that the second housing 812 may not rotate when the first housing 811 and the disk 1 rotate. A packing 815 is provided on the second housing 812 to seal a gap between the second housing 812 and the first housing 811, thereby preventing leakage of the heat exchange fluid. The inlet pipe 81a and the outlet pipe 81b are connected to the second housing 812 and communicate with the entire circumference of the first chamber 151 inside the tray body 11 through the second housing 812 and the first housing 811. Control valves 817 are provided on both the inlet pipe 81a and the outlet pipe 81b to regulate the flow rate of the heat exchange fluid. Although not shown, it is understood that a pump may be provided on the inlet pipe 81a and/or the outlet pipe 81b to drive the flow of the heat exchange fluid.

Specifically, as shown in fig. 32, in this embodiment, an inlet 818 and an outlet 819 are provided to the second housing 812 to be spaced apart from each other. The inlet tube 81a and the outlet tube 81b are connected to the inlet port 818 and the outlet port 819, respectively. The inlet port 818 is located close to the inner ring 12 with respect to the discharge port 819 in the radial direction of the disk 1, and at this time, the inlet port 818 is located radially inside the discharge port 819 and the inlet pipe 81a is located radially inside the discharge pipe 81 b. Meanwhile, as shown in fig. 32, the first housing 811 is provided with an inlet ring groove 813 and an outlet ring groove 814 which are spaced apart from each other. The inlet ring groove 813 and the outlet ring groove 814 are circular ring grooves, which are sequentially arranged in the direction from the inner ring 12 to the outer ring 13, are respectively communicated with the inlet pipe 81a and the outlet pipe 81b through the inlet port 818 and the outlet port 819, and are both communicated with the first cavity 511 inside the disk body 11, so that the heat exchange fluid flowing from the inlet pipe 81a to the disk 1 can sequentially flow into the disk body 11 through the inlet port 818 and the inlet ring groove 813, and the heat exchange fluid flowing through the disk body 11 and the outer ring 13 can sequentially flow out through the outlet ring groove 814, the outlet port 819 and the outlet pipe 81 b.

Since the second housing 812 to which the inlet pipe 81a and the outlet pipe 81b are connected does not rotate with the disk 1, the inlet pipe 81a and the outlet pipe 81b may not rotate during the rotation of the disk 1, and therefore, the inlet pipe 81a and the outlet pipe 81b may not have a winding problem due to the rotation with the disk 1.

In addition, the inlet ring groove 813 and the discharge ring groove 814 are arranged along the whole circumference of the disc 1 and are always communicated with the disc 1, so that the flow of the heat exchange fluid is not influenced by the rotation of the disc 1, and no matter which angle the disc 1 rotates, the heat exchange fluid can enter and exit the disc body 11 through the inlet ring groove 813 and the discharge ring groove 814 to exchange heat with the material 20.

In order to make the inlet ring groove 813 and the outlet ring groove 814 always communicate with the disc 1 during the rotation of the disc 1, it can be seen from fig. 31 to 34 that, in this embodiment, the bottom wall of the disc body 11 is provided with a plurality of sets of inlets 157 and outlets 158, the plurality of sets of inlets 157 and outlets 158 are arranged along the circumferential direction of the disc body 11 at intervals on the entire circumference of the disc body 11, and the inlet 157 and the outlet 158 of each set of inlets 157 and outlets 158 communicate with the inlet ring groove 813 and the outlet ring groove 814, respectively, so that the inlet ring groove 813 and the outlet ring groove 814 can always communicate with the disc 1 during the rotation of the disc 1.

Specifically, as shown in fig. 32-34, in this embodiment, first chamber 151 inside disk body 11 is partitioned into a plurality of heat exchange chambers 153, the plurality of heat exchange chambers 153 are distributed along the entire circumference of disk body 11, and a set of inlet 157 and outlet 158 are provided on the bottom wall of each heat exchange chamber 153 such that each heat exchange chamber 153 communicates with inlet ring groove 813 and outlet ring groove 814. Also, as can be seen from fig. 32-34, in this embodiment, each heat exchange chamber 153 has a first partition 154 and a second partition 155 disposed therein. The first partition 154 extends in the radial direction of the disk 1, and divides the inside of the heat exchange chamber 153 into a first space 15a and a second space 15b located on both sides of the first partition 154 in the circumferential direction of the disk 1. The inlet 157 and the outlet 158 are located in the first space 15 a. A second partition 155 is provided in the first space 15a and between the inlet 157 and the outlet 158 in the radial direction of the disc 1 to partition the inlet 157 and the outlet 158, preventing the heat exchange fluid flowing into the heat exchange chamber 153 from the inlet 157 from directly flowing out of the outlet 158 without passing through the disc body 11. Further, as shown in fig. 34, in this embodiment, the first partition plate 154 is not spaced from the outer ring 13 but is spaced from the inner ring 12, so that the first space 15a and the second space 15b communicate with each other on the side close to the inner ring 12 but are isolated from each other on the side close to the outer ring 13 and do not communicate with each other. Meanwhile, as shown in fig. 34, in this embodiment, the first space 15a communicates at a radially outer end with the outflow port O of the second chamber 152 located inside the outer ring 13, and the second space 15b communicates at a radially outer end with the inflow port I of the second chamber 152. Further, a plurality of baffles 156 are provided in each of the first space 15a and the second space 15b, so that a baffled flow path is formed in each of the first space 15a and the second space 15b, and the heat exchange fluid flows in a zigzag manner in each of the first space 15a and the second space 15 b.

With the above arrangement, during the rotation of the disk 1, the heat exchange fluid flowing from the inlet pipe 81a into the inlet ring groove 813 can flow into the heat exchange chambers 153 via the inlets 157 of the heat exchange chambers 153, and the heat exchange fluid entering each heat exchange chamber 153 first enters the first space 15a, cannot flow toward the outlets 158 toward the radial outer side due to the blocking of the second partition 155 in the first space 15a, but can flow toward the radial inner side of the disk 1 first, and when flowing to the inner end of the first partition 154, flows into the second space 15b via the space between the first partition 154 and the inner ring 12, and is turned back in the second space 15b to flow toward the radial outer side of the disk 1, and when the heat exchange fluid flows toward the radial outer side of the disk 1 to the outer end of the first partition 154 in the second space 15b, since there is no space between the first partition 154 and the outer ring 13, therefore, the heat exchange fluid does not directly flow back into the first space 15a, but flows into the second chamber 152 through the inflow port I of the second chamber 152, flows back into the first space 15a from the outflow port O of the second chamber 152 after flowing through the second chamber 152, then flows toward the outlet 158, flows into the discharge ring groove 814 from the outlet 158, and finally flows into the discharge pipe 81 b.

It can be seen that, based on the above arrangement, the heat exchange fluid can flow through the disc body 11 first, then flow through the outer ring 13, and when flowing through the disc body 11, can flow radially inwards first, then flow radially outwards, and the whole flow process is orderly controllable, and can control the temperature of the materials 20 at different radial positions and different height positions on the disc 1 in order, which is beneficial to enabling the materials 20 on the whole disc 1 to reach the temperature capable of better meeting the process requirements.

Fig. 35-36 illustrate the flow paths within disk 11 when second chamber 152 is not disposed within outer ring 13. As shown in fig. 35 to 36, when the second chamber 152 is not provided in the outer ring 13, a plurality of heat exchange chambers 153 may still be provided in the tray body 11, and the first and second partitions 154 and 155 may still be provided in the heat exchange chambers 153 to divide the inside of the heat exchange chambers 153 into the first and second spaces 15a and 15b, but the main difference is that the first and second spaces 15a and 15b no longer communicate with the inside of the outer ring 13 near one end of the outer ring 13 but are separated from the outer ring 13, and the second space 15b communicates with a portion of the first space 15a on the side of the outlet 158 by providing a space between the outer ring 13 and the first partition 154, so that the heat exchange fluid flowing into the second space 15b does not flow into the outer ring 13 any longer but directly flows back into the first space 15a from the space between the outer ring 13 and the first partition 154 to flow out from the outlet 158. In this case, the heat exchange fluid does not exchange heat with the material 20 at the outer ring 13, and the heat exchange fluid turns back only in the tray 11 to exchange heat with the material 20.

As an alternative to the first heat exchange system 81 shown in fig. 31-36, the starter propagation machine 10 may comprise a second heat exchange system 82, as shown in fig. 37, the second heat exchange system 82 comprising a reservoir 821, a level gauge 822, an inlet valve 823 and an outlet valve 824. The reservoir 821 is disposed below the disc 1 and contains liquid such as water therein. The disc 1 is at least partially soaked in the liquid storage tank 821, so that the liquid in the liquid storage tank 821 can exchange heat with the material 20 on the disc 1, the temperature of the material 20 is changed, and the soaking type temperature regulation process is realized. A level gauge 822 is disposed on the reservoir 821 for detecting the level of the liquid in the reservoir 821 to avoid too much or too little liquid. The liquid inlet valve 823 and the liquid outlet valve 824 are respectively disposed on a liquid inlet pipeline and a liquid outlet pipeline of the reservoir 821 to control whether to inject liquid into the reservoir 821 or discharge liquid from the reservoir 821.

A second embodiment shown in fig. 38-45 is described next.

As shown in fig. 38-45, in this second embodiment the koji-making machine 10 still comprises the disc 1, the discharging mechanism 2, the feeding mechanism 3, the upender mechanism 4, the tempering device 5, the ventilating device 7, the first heat exchange system 81 and the frame 91, but no longer comprises the turntable mechanism 61, but comprises the rotating frame 92 and the turret mechanism 93, because this embodiment differs from the previously described first embodiment of fig. 1-37 in that the disc 1 is not rotated any more, but becomes the second shutter 27, the feeding mechanism 3, the upender mechanism 4 and the tempering device 5.

Differences of the second embodiment from the first embodiment will be mainly described next, and other undescribed parts can be understood by referring to the description of the first embodiment.

In this second embodiment, as shown in fig. 38-43, the disc 1, although still in the form of an annular groove, is no longer rotatably arranged on the frame 91, but is non-rotatably arranged on the frame 91, in which case, in order to achieve a relative rotation between the second shutter 27, the feeding mechanism 3, the turning mechanism 4 and the temperature adjusting device 5 and the disc 1, as shown in fig. 38-43, the starter propagation machine 10 comprises a rotating frame 92, the rotating frame 92 is rotatably arranged, and the second shutter 27, the feeding mechanism 3, the turning mechanism 4 and the temperature adjusting device 5 are all arranged on the rotating frame 92. Meanwhile, the starter propagation machine 10 comprises a rotating frame mechanism 93, and the rotating frame mechanism 93 is in driving connection with the rotating frame 92 to drive the rotating frame 92 to rotate, so as to drive the second baffle plate 27, the feeding mechanism 3, the material turning mechanism 4 and the temperature adjusting device 5 to rotate.

Specifically, as shown in fig. 38 to 43, in this embodiment, the center of the rotary frame 92 is supported by a self-aligning bearing 934, and the edge of the rotary frame 92 is supported by a second idler 933, so that the rotary frame 92 can be rotatably disposed. And the rotating frame mechanism 93 comprises a frame body driving mechanism 931 and a second transmission mechanism 932, wherein the frame body driving mechanism 931 is in driving connection with the rotating frame 92 through the second transmission mechanism 932 and is used for driving the rotating frame 92 to rotate. Wherein, a rail 935 is provided below the second supporting roller 933 to guide the rotation of the rotating frame 92. The track 935 may be fixed to the frame 91. In addition, a frame body driving mechanism 931 is provided at the outer periphery of the rotating frame 92 and includes one, two or more motors. The second transmission 932 is disposed on the outer edge of the disc 1 and is a gear pin transmission.

Based on the above arrangement, when the frame driving mechanism 931 is activated, the rotating frame 92 may be driven around the longitudinal rotation axis located at the center of the disk 1, so that the second baffle 27, the feeding mechanism 3, the material turning mechanism 4, and the temperature adjusting device 5 located on the rotating frame 92 may rotate together with the rotating frame 92, thereby achieving the relative rotation between the second baffle 27, the feeding mechanism 3, the material turning mechanism 4, and the temperature adjusting device 5 and the disk 1.

The relative rotation between the second baffle plate 27, the feeding mechanism 3, the material turning mechanism 4, the temperature adjusting device 5 and the disc 1 is realized by the way of arranging the rotating frame 92, which is simpler and more convenient.

In this embodiment, the disc 1 does not rotate and the second shutter 27 rotates, so that the operation of the discharging mechanism 2 can be substantially as follows:

when the disc 1 is brewed or fermented, the discharging mechanism 2 moves upwards, and the first baffle 26 and the second baffle 27 are not in contact with the material 20; when the disc 1 performs discharging operation, the discharging mechanism 2 descends to the disc body 11, the first baffle 26 and the second baffle 27 contact with the material 20, in this case, the rotating frame 92 rotates, and the second baffle 27 rotates, so that the material 20 can be pushed to the radius range corresponding to the discharging door 16, and together with the first baffle 26, the material 20 is extruded to the opening opened by the discharging door 16, thereby completing the discharging operation.

Since the disc 1 of this embodiment does not rotate, the discharging door 16 is disposed on either the inner ring 12 or the outer ring 13, and the discharging process can be conveniently performed. Fig. 39 to 40 show the case where the discharge door 16 is provided on the inner ring 12, and in this case, the discharge hole 14 may be provided on the disc body 11, and since the disc 1 is not rotated, the discharge point is fixed in the circumferential direction, and thus, the discharge hole 14 may be formed in a ring shape as shown in fig. 39 or in a non-ring shape as shown in fig. 40. Fig. 41 shows the discharge door 16 being provided on the outer ring 13, in which case a discharge chute 17 may be provided outside the outer ring 13 below the discharge door 16 to further guide the material 20 to fall.

In addition, since the disk 1 does not rotate, the problem of winding of the pipes is not caused, and thus, the structure of the first heat exchange system 81 can be more simplified. As shown in fig. 44, in this second embodiment, only the plate body 11 of the disc 1 adopts a sandwich structure, the first chamber 151 is provided inside, no sandwich is provided in the inner ring 12 and the outer ring 13, and the first heat exchanging system 81 no longer includes the first shell 811 and the second shell 812 which are relatively rotatable, but includes the inlet pipe 81a and the outlet pipe 81b which are directly connected to the plate body 11. Since the disk 1 is not rotated, even if the inlet pipe 81a and the outlet pipe 81b are directly connected to the disk body 11, the inlet pipe 81a and the outlet pipe 81b do not have a problem of being wound by rotation, which is simple and convenient.

Fig. 45 shows a schematic view of the flow path on the disk body 11 in this embodiment. As shown in fig. 45, in this embodiment, first chamber 151 in tray body 11 is still partitioned into a plurality of heat exchange chambers 153, and these heat exchange chambers 153 are arranged along the circumferential direction of disk 1, and are distributed over the entire circumference of tray body 11. And, an inlet 157 and an outlet 158 are provided on the bottom wall of each heat exchange chamber 153, and the inlet 157 and the outlet 158 are respectively communicated with the inlet pipe 81a and the outlet pipe 81 b. Meanwhile, a plurality of baffle plates 156 are provided in each heat exchange chamber 153 to form a baffled flow path. Thus, the heat exchange fluid entering the tube 81a can enter the heat exchange cavities 153 through the inlet 157, and after being turned back for multiple times in each heat exchange cavity 153, the heat exchange fluid flows out from the outlet 158 to the discharge tube 81b, and finally the temperature of the material 20 on the whole tray body 11 is adjusted.

In summary, the koji making machine 10 provided by the embodiment of the present disclosure can conveniently realize the discharging of the circular groove shaped disc, and can more effectively control the material temperature, thereby realizing a better fermentation brewing effect.

The above description is only exemplary of the present disclosure and is not intended to limit the present disclosure, and any modification, equivalent replacement, or improvement made within the spirit and principle of the present disclosure should be included in the scope of the present disclosure.

Claims (17)

1. A koji-making machine (10) characterized by comprising:

the disc (1) comprises a disc body (11), an inner ring (12) and an outer ring (13), wherein the inner ring (12) and the outer ring (13) are respectively arranged on an inner ring and an outer ring of the disc body (11), and at least one of the inner ring (12) and the outer ring (13) is provided with a discharge door (16) which can be opened and closed; and

the discharging mechanism (2) is arranged above the disc body (11) and comprises a first baffle plate (26) and a second baffle plate (27), the first baffle plate (26) and the second baffle plate (27) extend along the radial direction of the disc (1), the first baffle plate (26) and the disc (1) are arranged in a non-relative-rotation mode, the first baffle plate is located on one side of the center of the discharging door (16) along the circumferential direction of the disc (1), the second baffle plate (27) and the disc (1) are arranged in a relative-rotation mode, and the second baffle plate is located on one side of the first baffle plate (26) along the circumferential direction of the disc (1).

2. A koji-making machine (10) according to claim 1, wherein the discharging mechanism (2) comprises a conveyor (21), the conveyor (21) being located between the first baffle (26) and the second baffle (27) along the circumference of the disc (1) and transporting the material (20) between the first baffle (26) and the second baffle (27) towards the discharging door (16).

3. A koji-making machine (10) according to claim 1, wherein the inner ring (12) is provided with the discharge gate (16), the center of the disc body (11) is provided with the discharge outlet (14), the disc (1) is rotatably arranged, or the disc (1) is non-rotatably arranged.

4. A koji making machine (10) according to claim 3, wherein the koji making machine (10) comprises a discharge mechanism (63), the discharge mechanism (63) being arranged below the discharge opening (14) and communicating with the discharge opening (14).

5. A koji-making machine (10) according to claim 1, wherein said outer ring (13) is provided with said discharge door (16) and said disc (1) is non-rotatably arranged.

6. A koji making machine (10) according to claim 1, wherein the koji making machine (10) comprises a door opening mechanism (62), the door opening mechanism (62) is drivingly connected with the discharge door (16) and drives the discharge door (16) to open and close.

7. A koji-making machine (10) according to claim 1, wherein the koji-making machine (10) comprises an outfeed lifting mechanism (22), the outfeed lifting mechanism (22) being drivingly connected to the outfeed mechanism (2) and driving the outfeed mechanism (2) up and down relative to the disc (1).

8. A starter-maker (10) according to any one of claims 1-7, characterized in that a chamber (15) is arranged inside the disc (1), and the starter-maker (10) comprises a first heat exchange system (81), wherein the first heat exchange system (81) is communicated with the chamber (15) and feeds a heat exchange fluid into the chamber (15) so as to utilize the heat exchange of the heat exchange fluid and the material (20) on the disc (1) to adjust the temperature of the material (20).

9. A starter-maker (10) according to claim 8, characterized in that the chamber (15) comprises at least one of:

a first chamber (151) disposed inside the tray body (11);

a second cavity (152) disposed inside the outer ring (13);

a third chamber arranged inside the inner ring (12).

10. A koji making machine (10) according to claim 9, wherein the chamber (15) comprises the first chamber (151) and the second chamber (152), the second chamber (152) being in communication with the first chamber (151), the heat exchange fluid provided by the first heat exchange system (81) flowing from the first chamber (151) to the second chamber (152) and from the second chamber (152) to the outside of the disc (1).

11. A koji making machine (10) according to claim 9, wherein the inside of said first chamber (151) is divided into at least two heat exchange chambers (153), each of said heat exchange chambers (153) being provided with an inlet (157) and an outlet (158) on the bottom wall, said inlet (157) and said outlet (158) being provided for the flow of heat exchange fluid into and out of said first chamber (151), respectively.

12. A starter culture machine (10) according to claim 9, characterized in that the chamber (15) comprises a first chamber (151) arranged inside the disc body (11), the first heat exchange system (81) comprises a first shell (811) and a second shell (812), the first shell (811) is arranged on the disc body (11) and rotates with the disc body (11), the second shell (812) is connected below the first shell (811) and is rotatably arranged relative to the first shell (811), the first shell (811) is provided with an inlet ring groove (813) and an outlet ring groove (814) which are separated from each other, the second shell (812) is provided with an inlet port (818) and an outlet port (819) which are separated from each other, the inlet port (818) communicates with the first chamber (151) through the inlet ring groove (813), and the outlet port (819) communicates with the first chamber (151) through the outlet ring groove (814), so that the heat exchange fluid enters the first cavity (151) through the inlet opening (818) and the inlet ring groove (813) and flows out of the discharge ring groove (814) and the discharge opening (819) to the outside after flowing through the disc (1).

13. A starter propagation machine (10) according to claim 12, characterized in that the entry ring groove (813) is located radially inside the discharge ring groove (814).

14. A koji-making machine (10) according to claim 12, wherein a first partition plate (154) and a second partition plate (155) are provided in said first chamber (151), said first partition plate (154) extending in the radial direction of said disc (1) with a space from said inner ring (12), said second partition plate (155) being located on one side of said first partition plate (154) in the circumferential direction of said disc (1) and dividing the space of said first chamber (151) located on one side of said first partition plate (154) in the circumferential direction of said disc (1), an inlet (157) and an outlet (158) being provided on the bottom wall of said first chamber (151), said inlet (157) and said outlet (158) communicating with said inlet ring groove (813) and said outlet ring groove (814), respectively, said inlet (157) and said inlet ring groove (813) and said outlet (158) and said outlet ring groove (814) being located on said second partition plate (155) in the radial direction of said disc (1) Opposite sides of the plate (155).

15. A koji making machine (10) according to claim 14, wherein said chamber (15) comprises a second chamber (152) arranged inside said outer ring (13), said second chamber (152) communicating with said first chamber (151), contact between said first baffle (154) and said outer ring (13) being such that the heat exchange fluid flowing into said first chamber (151) from said inlet (157) flows via said second chamber (152) towards said outlet (158); alternatively, no second cavity (152) is provided in the outer ring (13), and a space is provided between the first partition (154) and the outer ring (13), so that the heat exchange fluid flowing into the first cavity (151) from the inlet (157) flows to the outlet (158) via the space between the first partition (154) and the outer ring (13).

16. A starter propagation machine (10) according to claim 8, characterized in that a baffle (156) is arranged in the chamber (15) to guide the heat exchange fluid entering the chamber (15) to a baffled flow.

17. A starter-maker (10) according to any of claims 1-7, characterized in that the starter-maker (10) comprises at least one of the following:

a second heat exchange system (82) comprising a reservoir (821), said reservoir (821) being arranged below said disc (1) and being intended to contain a liquid, said disc (1) being at least partially immersed in the liquid of said reservoir (821);

the temperature adjusting device (5) comprises a heat exchanger (51), the heat exchanger (51) is rotatably arranged relative to the disc (1) and extends into the material (20) on the disc (1);

a spraying device (25) for spraying liquid to the material (20) on the disc (1) and/or the discharge mechanism (2).

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