JP3880588B2 - Nori production apparatus and nori production method - Google Patents

Description

The present invention relates to the seaweed manufacturing apparatus and seaweed preparation how to produce a sheet-like seaweed.

  The laver production apparatus is composed of a front part including a papermaking part and a dewatering part, and a drying chamber adjacent to the front part. While moving the front part of the firewood holder holding the firewood by the conveyor, the raw laver is thinly made on the firewood in the paper making section, then the firewood holder is moved to the dewatering section, where the raw seaweed on the firewood is generally pressed. Dehydrate and send to drying room. Then, the raw laver is dried while the cocoon holder is transported in the drying chamber, and the generated sheet-like laver (dry laver) is peeled off from the cocoon at the stripping portion.

  The finish (quality) of dry seaweed depends greatly on the quality of the dryness. Therefore, in order to produce high-quality dry seaweed, it is extremely important to control the humidity and temperature of the drying room. On the other hand, in recent years, the laver production apparatus has become larger and the drying room has become longer. Therefore, it has become extremely difficult to properly control and adjust the humidity and temperature of the entire long drying room.

Accordingly, the present invention aims at providing a particular lengthening the management and coordination of the temperature and humidity of the drying chamber allows good seaweed manufacturing apparatus and seaweed production how.

In the laver production apparatus of the present invention, fresh seaweed is made in the paper making section on the firewood held by the firewood holder, and the fresh raw seaweed is dehydrated in the dewatering section, and then the firewood holder is transported in the drying chamber. A laver production apparatus that dries fresh seaweed while providing an upper unit above the drying chamber, and the upper unit is located directly above the drying chamber and secondary air is blown up from the drying chamber. An exhaust unit comprising a chamber, a second chamber in the side of the first chamber and communicating with the first chamber, and a fan for discharging secondary air blown from the drying chamber to the first chamber to the outside A plurality of exhaust units are provided in the front-rear direction of the drying chamber, and a plurality of primary air introduction portions for introducing the primary air from the outside are provided in the front-rear direction of the second chamber. The primary air introduced from and blown from the drying chamber The mixing chamber of the secondary air that has been raised and flowed in through the first chamber is divided into a plurality of blocks in which the temperature and / or humidity can be adjusted in the front-rear direction of the drying chamber. It is sent to the lower part of the drying chamber, provided with a means for detecting the temperature and / or humidity of each block, and provided with a display device having a display screen for displaying the temperature and / or humidity of each block, and displayed on the display screen. The exhaust unit and the primary air introduction unit are controlled based on temperature and / or humidity, and the primary air introduction unit is an opening / closing unit, and by controlling the opening / closing of these opening / closing units, The amount of primary air introduced into the second chamber was adjusted so that the temperature and / or humidity of each block could be adjusted independently of each other .

  In the laver production method of the present invention, the exhaust unit is controlled so that the temperature or humidity of the plurality of blocks displayed on the display screen of the display device is equal, and the mixed gas in the second chamber is dried. Nori was dried while being fed into the lower part of the room to produce nori.

According to the present invention, dry燥室can accurately adjust the temperature and or the humidity of the whole, thereby performs a seaweed drying without drying unevenness, it is possible to produce a good sheet dried edible seaweed quality. In particular, a plurality of primary air introduction parts are provided in the front-rear direction as opening and closing parts, and by controlling the opening and closing of these opening and closing parts, the temperature and / or humidity of each block are individually adjusted independently of each other, thereby the drying chamber Even if it is long, the overall temperature and humidity can be adjusted optimally.

  The best mode for carrying out the present invention will be described below with reference to the drawings. FIG. 1 is a perspective view of a laver production apparatus, FIG. 2 is a front sectional view of the laver production apparatus installed in a small room, FIG. 3 is a side view showing the inside of the drying chamber and the upper unit, and FIG. FIG. 5 is a side view of the opening / closing part, FIG. 6 is a block diagram of a control system, and FIGS. 7A and 7B are monitor screen views.

  In FIG. 1, 1 is a front | former stage part, The paper making part 2, the dehydration part 3, the peeling part 4 grade | etc., Is included. A cocoon holder 6 in which a plurality of cocoons 5 are stretched is moved by a conveyor (not shown) such as a chain conveyor, and the raw laver is thinly made into a sheet on the cocoon 5 in the paper making section 2, and then the cocoon holder 6 Is moved to the dehydrating unit 3 to dehydrate the raw seaweed, and then the cocoon holder 6 is carried into the drying chamber 9. Then, the gutter holder 6 is adhered to the gutter 5 while being conveyed in the drying chamber 9 by the conveyor 7 (FIG. 2) in the front-rear direction (the longitudinal direction of the drying chamber 9 and perpendicular to the paper surface in FIG. 2). After drying the seaweed m (FIG. 2), the dried sheet-like dried seaweed m is peeled off from the reed 5 at the peeling portion 4 provided near the exit of the front stage 1 or the drying chamber 9. The drying chamber 9 is provided with a display device 60 for displaying the temperature and humidity of each place. Reference numeral 61 denotes the display screen.

  Next, the drying chamber 9 and the surrounding facilities will be described. In FIG. 2, the laver production apparatus including the front stage 1, the drying chamber 9, and the like is installed in the hut 100. The drying chamber 9 is long, and an upper unit 10 as an auxiliary device for the laver drying chamber 9 is provided on the upper portion thereof. The upper unit 10 can be retrofitted to an existing drying chamber.

  The upper unit 10 has a first chamber 11 that is directly above the drying chamber 9 and from which the warm air is blown up (arrow A). The first chamber 11 communicates with the ceiling space 12 above it. A second chamber 13 communicating with the first chamber 11 is provided at the side of the first chamber 11. The ceiling space 12 as the upper space is provided with a communication portion 24 to the outside world. The communication part 24 is composed of an opening / closing part composed of, for example, a simple opening or a damper.

  A side wall of the drying chamber 9 and the first chamber 11 is provided with a third chamber 14 as a side chamber. The second chamber 13 is provided inside the third chamber 14 and serves as a mixing chamber for primary air and secondary air. The third chamber 14 is a part of the hut 100, and primary air (fresh low-temperature and low-humidity air in the outside world) is introduced from a gap or an entrance / exit of the hut 100, and this primary air passes through the third chamber 14. It is introduced into the second chamber 13 (arrow E). In the present embodiment, a part of the hut 100 is used as the third chamber 14. The upper part of the drying chamber 9 is an opening 8 and communicates with the first chamber 11. Note that the opening 8 may be provided with an opening / closing part made of a damper that can be freely opened and closed.

  The side wall of the first chamber 11 is provided with a door-shaped opening / closing portion 18 that rotates around the upper hinge and opens and closes. When the opening / closing part 18 is opened, the air in the working chamber 19 on the side of the drying chamber 9 is released to the upper outside through the first chamber 11 and the ceiling space 12 (arrow H). The opening / closing part 18 may be either a manual type or an automatic type. The reason for installing the opening / closing part 18 is as follows. That is, the work chamber 19 is provided with a post-processing device (such as a seaweed pass / fail sorter, a folding machine, and a binding machine) 200 that is discharged from the laver production apparatus. Here, when the humidity of the working chamber 19 becomes high, the dry seaweed in the post-processing apparatus 200 is adversely affected. Therefore, in such a case, by opening the opening / closing part 18, high-humidity air (external air) in the work chamber 19 is released to the outside outside as shown by an arrow H, and the humidity of the work chamber 19 is lowered. is there.

  In FIG. 2, a first opening / closing part 21 (211 to 215) as a communication part to the upper space is provided at a suitable place of the first chamber 11, preferably at an upper part thereof. 11 and the ceiling space 12 are opened and closed. In addition, a fan 15 (151 to 155) for sucking the secondary air in the first chamber 11 blown up from the drying chamber 9 and raising it to the upper ceiling space 12 is provided at the upper portion of the first chamber 11. Yes. The first opening / closing part 21 and the fan 15 are exhaust units. The exhaust unit is particularly effective in releasing the excessively humid secondary air to the outside when the humidity in the drying chamber 9 becomes abnormally high, thereby lowering the humidity of the drying chamber 9.

  The second chamber 13 is provided with a plurality of second opening / closing portions 22 (221 to 225) as primary air introduction portions in the front-rear direction (five in this example), which are driven to drive the second chamber. 13 and the third chamber 14 are opened and closed. In the present invention, the front-rear direction refers to the longitudinal direction of the drying chamber 9. When the second opening / closing part 22 is opened, external low-temperature, low-humidity primary air is introduced into the second chamber 13 (arrow E). The second opening / closing part 22 is preferably a damper or the like whose degree of opening / closing is adjustable. In this case, the amount of primary air introduced into the second chamber 13 can be adjusted by adjusting the degree of opening and closing. The second opening / closing unit 21 is effective for lowering the humidity by introducing low-humidity primary air into each of the blocks B1 to B5, particularly when the humidity of each of the blocks B1 to B5 (described later) of the drying chamber 9 becomes high. It is.

  A communication portion 23 (231 to 235) is provided between the first chamber 11 and the second chamber 13. This communication part 23 is an open / close type, and opens and closes between the first chamber 11 and the second chamber 13 when driven. When the third opening / closing part 23 is opened, the hot and humid secondary air blown up from the drying chamber 9 and introduced into the first chamber 11 is introduced into the second chamber 13 (arrow D). That is, the third opening / closing part 23 is a secondary air introduction part for introducing the secondary air blown up from the drying chamber 9 into the first chamber 11 into the second chamber 13.

  The third opening / closing part 23 may be freely opened and closed so that the inside of the drying chamber 9 has an appropriate temperature and humidity, but may be always open. That is, the third opening / closing part 23 may be a simple communication part (opening) that does not open / close. A fourth opening / closing part 24 as a communication part communicating with the outside world is provided in the upper part of the ceiling space 12, and the air blown up from the first chamber 11 to the ceiling space 12 is released to the outside world (arrow) B). The fourth opening / closing part 24 may also be a simple opening that does not open / close. The fan 15 and the open / close sections 21 to 24 are arranged in parallel in the longitudinal direction of the drying chamber 9 (five in the present embodiment), thereby providing a plurality of drying chambers 9 in the front-rear direction (this embodiment). In this case, the blocks are substantially divided into blocks (B1, B2, B3, B4, B5) that can be adjusted in temperature and humidity. Although not shown in the drawing, the fourth opening / closing part 24 is also plural in the longitudinal direction (front-rear direction) of the drying chamber 9 (five in this example), like the first to third opening / closing parts 21 to 23. Is provided.

  FIG. 5 shows an opening / closing mechanism of the first to fourth opening / closing parts 21 to 24. The dampers 25 of the open / close sections 21 to 24 are driven by a motor M as a drive section via a link mechanism 26, and open / close by swinging in the direction of arrow a. Reference numeral 27 denotes a shaft portion. Among these, it is desirable that at least the second opening / closing part 22 be adjustable in its degree of opening / closing. Such an opening / closing mechanism is known.

  1 and 2, a long duct 30 is horizontally provided in the third chamber 14 in the longitudinal direction of the drying chamber 9. Openings 31 (311 to 315) serving as hot air blowing portions are opened on the upper surface of the duct 30. There are a plurality of openings 31, preferably the same number (five places) corresponding to the second opening / closing parts 22 (221 to 225), each being located outside the second opening / closing part 22. Yes.

  In FIG. 2, the duct 30 is connected to a hot air machine 33 through a pipe 32. The warm air machine 33 warms the fresh, low temperature, and low humidity primary air sucked into the warm air and sends it to the duct 30 and blows it out from the opening 31 into the third chamber 14 as warm air (arrow F). The hot air blown out is sucked into the second chamber 13 from the second opening / closing part 22 (arrow E). The timing for supplying the primary air warmed by the hot air heater 33 to the second chamber 13 can be freely determined. In short, when the interior of the drying chamber 9 becomes abnormally hot or excessively humid, When it is desired to supply fresh primary air, the second opening / closing part 22 is opened to introduce the primary air into the second chamber 13, and further heated by the air heater 34 and sent to the lower part of the drying chamber 9.

  The operation units such as the fan 15 and the open / close units 21 to 24 are controlled by a control unit 50 (described later) such as a computer. The present invention intends to optimally manage and adjust the temperature and humidity of the entire interior of the long drying chamber 9, and to achieve this purpose, the fan 15, the open / close sections 21 to 24, the hot air heater 33, Design specifications, operation control methods, and the like of the air heater 34, the moisture generator 40, and the like can be freely determined, and are not limited to the present embodiment and the operation control method described later. In the present invention, fresh, low-temperature, low-humidity air that is introduced from the outside world and sent to the drying chamber 9 is referred to as primary air. Humid air is called secondary air.

  In FIG. 2, an air heater 34 made of a burner or the like is provided in the lower portion of the second chamber 13 inside the third chamber 14. The air heater 34 heats the air (arrow C) introduced from the second chamber 13 into the lower portion of the drying chamber 9 as hot air, and blows up the drying chamber 9 upward (arrow A). In the drying chamber 9, a cocoon holder 6 that holds the cocoon 5 made from the raw nori m is conveyed and circulated to the conveyor 7, and the hot air blows against the raw nori m to dry it.

  In FIG. 2, reference numeral 40 denotes a moisture generator composed of a boiler or the like, and humid air such as steam generated thereby passes through a hose 41 and is sent into the third chamber 14 from the discharge part 42 (arrow). G), introduced into the second chamber 13 from the second opening / closing part 22 (arrow E), further heated by the air heater 34 and fed into the lower part of the drying chamber 9 (arrow C). The timing at which the moisture generated by the moisture generator 40 is sent to the drying chamber 9 through the second chamber 13 can be freely determined. In short, when the humidity in the drying chamber 9 decreases, the second opening / closing portion 22 is opened. The moisture may be opened and introduced into the second chamber 13 and further heated by the air heater 34 and fed into the drying chamber 9. The primary air in the outside world is not directly introduced from the outside world into the second chamber 13 but is once introduced into the third chamber 14 and then introduced into the second chamber 13 from the third chamber 14 as in the present embodiment. Thus, stable primary air can be introduced into the second chamber 13 without being affected by external weather or the like.

  3, first sensors S1 to S5 as temperature and / or humidity detecting means for detecting and measuring temperature and / or humidity are provided in the blocks B1 to B5 of the drying chamber 9, preferably in the lower part. . If it is detected by these sensors S1 to S5 that the humidity of any of the blocks B1 to B5 is high among the blocks B1 to B5, the second opening / closing unit 22 corresponding to the block is opened widely to reduce the humidity. The primary air is introduced into the block to reduce its humidity. That is, the temperature and / or humidity of each of the blocks B1 to B5 is detected by the sensors S1 to S5 respectively provided, and the second opening and closing unit 22 is individually controlled to be opened and closed based on the detection result, whereby each of the blocks B1 to B1 is controlled. The temperature and humidity of B5 can be individually adjusted independently of each other.

  In addition, a second sensor Sa serving as a means for detecting the temperature and / or humidity of the secondary air blown up from the drying chamber 9 is provided in the upper portion of the drying chamber 9. The number of second sensors Sa is arbitrary, and when a plurality of second sensors Sa are provided, the average value of the detected values may be calculated and used as the detected value. As described above, if the sensor Sa detects that the secondary air blown up from the drying chamber 9 is high in humidity, the exhaust unit (the fan 15 and the first opening / closing portion 21) is driven, and thereby the drying chamber is driven. The humidity of the drying chamber 9 is lowered by releasing 9 overhumid secondary air to the outside.

  Next, the control system will be described with reference to FIG. Sensors S <b> 1 to S <b> 5 and Sa are connected to the control unit 50. The control unit 50 is connected to operating units (fan 15, first to fourth opening / closing units 21 to 24, hot air heater 33, air heater 34, moisture generator 40, and the like). The control unit 50 controls each operation unit based on the measurement results of the sensors S1 to S5 and Sa.

  FIG. 7A is a first monitor screen displayed on the display screen 61 (FIG. 1) of the display device 60. The current temperature of each block B1 to B5 measured by the sensors S1 to S5, relative Humidity and absolute humidity are displayed. FIG. 7B shows a second monitor screen, which displays the current temperature, relative humidity, and absolute humidity of the secondary air blown up from the drying chamber 9 measured by the sensor Sa. The projection method and projection layout of the monitor screen can be freely determined. There is a close correlation between the temperature in the drying chamber 9 and the relative humidity (in general, the higher the temperature, the lower the humidity). The absolute humidity is usually obtained by calculating from temperature and relative humidity. Therefore, in the laver drying chamber, temperature and humidity (relative humidity, absolute humidity) are substantially equivalent to each other or have a parameter relationship. Therefore, adjustment of the temperature and humidity of the drying chamber 9 may be performed using any of the temperature or humidity detected by the sensors S1 to S5 and Sa.

  This laver production apparatus has the above-described configuration, and an example of its operation method will be described next. The raw laver m is drawn on the cocoon 5 in the front part 1, and the cocoon holder 6, which has been dewatered, is carried into the drying chamber 9 and is conveyed in the drying chamber 9 in the front-rear direction. Dry raw nori m. When the drying is finished, the dried seaweed is peeled off from the cocoon 5 in the peeling portion 4 and again goes to the paper making portion 2.

  Now, the temperature, relative humidity and absolute humidity of each block B1 to B5 of the drying chamber 9 are displayed on the monitor screen as shown in FIG. Is also displayed on the monitor screen as shown in FIG. It should be noted that the relationship between temperature and humidity, particularly the relationship between rise and fall, is a rather delicate relationship, and therefore the numerical values shown in this embodiment are exemplary.

In FIG. 7A, the temperature and humidity (relative humidity and absolute humidity) of each of the blocks B1 to B5 are the target temperature (for example, 40 ° C.) and the target humidity (for example, 28% and 14 g / m ³ ). desirable. This is because, if the temperatures and humidity of all the blocks B1 to B5 are equal to the target temperature and the target humidity, good drying without unevenness in drying can be performed in the entire drying chamber 9. Therefore, for example, the temperature and humidity of each of the blocks B1 to B5 are individually adjusted independently of each other as follows. Note that the target temperature and target humidity differ depending on the quality of the seaweed, the user's preferences, and the like, and therefore it is desirable for the user to determine based on experience and the like.

In the example shown in FIG. 7A, the temperatures of the blocks B1 and B5 are 39 ° C., which is lower than the target temperature (40 ° C.). In such a case, the temperature 39 ° C. is raised to the target temperature 40 ° C. as follows. As described above, since temperature and humidity are closely related to each other, if the temperature 39 ° C. is increased to the target temperature 40 ° C., the humidity automatically becomes the target humidity (28% and 14 g / m ³ ). You can expect. Alternatively, the humidity (30% or 15 g / m ³ ) may be the target humidity (28% or 14 g / m ³ ). In this case as well, it may be expected that the temperature 39 ° C. will become the target temperature 40 ° C.

  The first method for raising the temperature of the blocks B1 and B5 is to open the second opening / closing sections 221 and 225 (FIG. 1) corresponding to the blocks B1 and B5, and to generate primary air and secondary air generated in the second chamber 13. In this method, a mixed gas of air is heated by the air heater 34 and sent to the lower portions of the blocks B1 and B5.

  In the second method, the air warmed by the warm air machine 33 is sent from the second opening / closing sections 221 and 225 to the second chamber 13 and mixed with the primary air introduced from the first chamber 11, It is the method of heating with the air heater 34 and feeding to the lower part of block B1, B5 similarly to the method.

  In the third method, the rotation of the fans 151 and 155 (FIG. 1) on the blocks B1 and B5 is stopped, or the rotational speed is reduced, or the first opening and closing parts 211 and 215 are closed, and the blocks B1 and B5 are closed. In this method, high temperature secondary air is prevented from being released to the outside through the first chamber 11 and the ceiling space 12. Of course, the first to third methods may be combined.

  Next, in the example shown in FIG. 7A, the temperature of the block B4 is 42 ° C., which is higher than the target temperature 40 ° C. In such a case, the temperature 42 ° C. is lowered to the target temperature 40 ° C. as follows. Also in this case, since temperature and humidity have a close parameter relationship, if the temperature 42 ° C. is lowered to the target temperature 40 ° C., it may be predicted that the humidity automatically becomes the target humidity.

  The first method is to open the first opening / closing part 214 above the block B4 and rotate the fan 154 (FIG. 1) to release the hot and humid secondary air in the block B4 to the outside. Secondly, the second opening / closing part 224 (FIG. 1) of the second chamber 13 corresponding to the block B4 is largely opened, a large amount of low temperature primary air from the outside is introduced into the second chamber 13, and the second In this method, the ratio of primary air and secondary air (which is introduced from the first chamber 11) in the chamber 13 is increased in the former, and the mixed gas is sent to the lower portion of the block B4.

  On the other hand, when the target humidity (relative humidity) of the secondary air blown out from the drying chamber 9 is 38%, the relative humidity of the secondary air is 42% in the example shown in FIG. Higher than%. Thus, when the humidity of the secondary air detected by the sensor Sa is high, desirably all the first opening / closing parts 21 are opened and all the fans 15 are rotated, and the high-humidity secondary to the outside through the ceiling space 12. By actively releasing air, the target humidity (38%) is reduced. When the target humidity is reached, the first opening / closing part 21 is closed and the rotation of the fan 15 is stopped.

  As described above, various methods are possible for adjusting the temperature and humidity of the blocks B1 to B5 and the drying chamber 9 as a whole, and the method is not limited to the above method. That is, by configuring the temperature and humidity adjusting means and the sensors S1 to S5 and Sa of the auxiliary device 10 such as the fan 15, the open / close units 21 to 24, the hot air generator 33, and the moisture generator 40 as described above, the block B1 Various methods for adjusting the temperature and humidity of the B5 and the drying chamber 9 are possible, and the degree of freedom of the adjustment method is extremely large. Therefore, the entire drying chamber 9 or each of the blocks B1 to B5 can be adjusted to the laver quality or the user's preference. Operate freely while viewing the display screen of the display device 60 so that the temperature / humidity is suitable and appropriate (generally, the entire drying chamber 9 has a uniform target temperature and humidity). Can be carried out. Of course, control of each fan 15, each opening-and-closing part 21-24, warm air machine 33, air heater 34, moisture generating machine 40, etc. can be freely realized by well-known electric circuit technology or software technology.

  As described above, the laver production apparatus of the present invention can be designed and operated in various ways. In short, each block in the longitudinal direction of the drying chamber 9 has an optimum temperature and humidity for drying raw laver. The fan 15, the open / close units 21 to 24, the hot air heater 33, the air heater 34, the humidity generator 40, etc. are handled and controlled, and the temperature and humidity of the blocks B1 to B5 may be adjusted independently of each other. . The number of blocks in the drying chamber is determined by the number of second opening / closing parts 22 rather than the number of fans 15. In the present embodiment, the number of exhaust units (fan 15 and first opening / closing part 21) and the number of second opening / closing parts 22 are the same (each five), but the number of the former and the number of the latter need not necessarily be the same. For example, the former may be three and the latter may be five. In this case, the number of blocks is the number (5) of the latter (second opening / closing part 22).

  According to the present invention, since the temperature and humidity of the entire drying chamber and each block can be appropriately managed and adjusted, it is possible to produce fresh high quality dried seaweed by satisfactorily drying raw seaweed. It is useful for drying nori in a dry drying room.

Perspective view of nori production equipment Cross section of nori production equipment Side view showing inside of drying chamber and upper unit Plan view showing inside of drying chamber and second chamber Side view of the opening / closing part Block diagram of control system (A) Monitor screen diagram (b) Monitor screen diagram

Explanation of symbols

2 Papermaking section 3 Dehydration section 4 Stripping section 5 簀 6 簀 Holder 9 Drying chamber 11 First chamber 12 Ceiling space 13 Second chamber (mixing chamber)
14 Room 3 (side room)
15 Fan (exhaust unit)
21 First opening / closing part (exhaust unit)
22 2nd opening-closing part (primary air introduction part)
23 3rd opening-and-closing part (secondary air introduction part)
24 4th opening-and-closing part 33 Hot air machine 34 Air heater 40 Humidity generator S1-S5, Sa sensor B1-B5 Block m Fresh seaweed

Claims (9)

The fresh laver is made on the reed held by the reed holder, and the fresh laver is dehydrated in the dewatering unit, and then the fresh laver is dried while transporting the reed in the drying chamber. Nori seaweed production equipment,
An upper unit is provided in the upper part of the drying chamber, and the upper unit is located directly above the drying chamber, and a first chamber in which secondary air is blown up from the drying chamber, and a first chamber on the side of the first chamber. And a second exhaust unit comprising a fan for releasing secondary air blown up from the drying chamber to the first chamber to the outside, and a plurality of the exhaust units are provided in the front-rear direction of the drying chamber. In addition, by providing a plurality of primary air introduction portions for introducing the primary air from the outside in the front-rear direction of the second chamber, the first chamber is blown up from the primary air introduced from the outside and the drying chamber to the first chamber. The mixing chamber of the secondary air flowing in through the chamber is divided into a plurality of blocks whose temperature and / or humidity can be adjusted in the front-rear direction, and the mixed gas in the mixing chamber is moved to the lower portion of the drying chamber And send each block A degree and / or humidity detecting means is provided, and a display device having a display screen for displaying the temperature and / or humidity of each block is provided. Based on the temperature and / or humidity displayed on the display screen, the exhaust unit and the 1 The primary air introduction part is controlled, and the primary air introduction part is an opening / closing part. By controlling the opening / closing of these opening / closing parts, the amount of primary air introduced into the second chamber is controlled. A laver production apparatus characterized in that the temperature and / or humidity of each block can be adjusted independently and independently . Claim 1 Symbol placement of laver manufacturing apparatus is characterized by providing an air heater for feeding the bottom of the drying chamber to heat the gas mixture of primary air and secondary air are mixed in the second chamber. The seaweed according to claim 1 or 2, wherein the second chamber is provided inside a third chamber on the side of the drying chamber, and primary air is introduced into the second chamber through the third chamber. Manufacturing equipment. The seaweed manufacturing apparatus according to any one of claims 1 to 3 , further comprising a warm air machine for warming the primary air fed into the second chamber. The seaweed manufacturing apparatus according to any one of claims 1 to 4 , further comprising a moisture generator for imparting moisture to the primary air fed into the second chamber. The laver production apparatus according to any one of claims 1 to 5 , wherein an opening / closing part for introducing external air into the side wall of the first chamber and releasing it to the outside is provided. Temperature and or the humidity sensing means of the secondary air blown up from the drying chamber, by providing a display device for displaying on the display screen the sensed temperature and or the humidity to any one of claims 1 to 6, wherein The laver production apparatus described. A seaweed manufacturing method using the seaweed manufacturing apparatus according to any one of claims 1 to 7 to the exhaust unit such that the temperature or humidity of the plurality of blocks displayed on the display screen of the display device is equal A laver production method characterized in that laver is produced by performing laver drying while feeding the mixed gas in the second chamber to the lower part of the drying chamber. A seaweed manufacturing method using the seaweed manufacturing apparatus according to any one of claims 1 to 7, wherein the exhaust unit and as the temperature or humidity of the display the plurality of blocks displayed on the display screen of the device is equal A laver production method characterized in that laver is produced by drying the laver while controlling the opening / closing part and feeding the mixed gas of the second chamber to the lower part of the drying chamber.

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