JP5552704B2 - Rice spot sowing biodegradable mulching film production apparatus and production method using the same, and rice spot sowing biodegradable mulching film and rice cultivating method using the same - Google Patents

Description

  The present invention means rice (hereinafter referred to as “rice”) means seed rice before germination in a state where a mulching film is attached, and rice that germinates and divides after being constructed and settled on the bottom of the rice field. In particular, the biodegradable mulching film for manufacturing the biodegradable mulching film to which the first and second biodegradable mulching films are attached is described. In addition to being spaced apart from the outer peripheral surface of the first rotating portion by a certain length at the portion that contacts the protruding portion protruding from the outer peripheral surface, it is possible to easily apply the adhesive and perforate work by pulling it tightly. So that the rice attachment means is periodically rolled to correspond to the adhesive application interval of the biodegradable mulching film. The biodegradable mulching film on which the rice to be taken up by the take-up part is attached is scattered widely in the take-up part and wound by the rice that has been attached so that the rice can be attached accurately and easily to the site. The present invention relates to a rice dot biodegradable mulching film manufacturing apparatus and a manufacturing method using the same, which can prevent the taken biodegradable mulching film from being excessively swollen or damaged.

  The present invention also relates to a rice seed sowing biodegradable mulching film and a method for cultivating rice using the same, and more specifically, a biodegradable compound mixed with polylactic acid is extruded to produce a biodegradable mulching film. By covering the paddy field, weed growth can be suppressed and pest damage can be prevented, so that the use of pesticides can be significantly reduced and the initial strength can be maintained until a certain time has elapsed. After a certain period of time, it is decomposed by microorganisms in a natural state, so compared to the method of directly sowing seed rice seedlings in rice fields and the method of planting rice after raising seedlings using rice seed sowing decomposition mulching film that can also prevent environmental pollution The work is simple, of course, there is no time and expense for additional weeding work, it is environmentally friendly, and the wound rice seedling decomposition mulching film is the bottom of the rice field. In addition to being able to be spread and applied evenly, it can be brought into close contact with the bottom of the paddy rice field, and it is easy to apply adhesive and perforate work in providing a roll-shaped rice dot biodegradable mulching film in the form of a wound roll. The biodegradable mulching film can be made to be made accurately and easily attached to the adhesive application site of the biodegradable mulching film. Rice cracking biodegradable mulching film capable of preventing the excessively swelled or damaged biodegradable mulching film wound by the rice that has been widely scattered and attached to the head, and a method for cultivating rice using the same About.

  Generally, for rice cultivation, direct sowing method is used to directly sow rice seeds in the rice field, or after raising seedlings, this method is used to plant the seeds in the rice field. There are problems such as having to spray, and in the case of the method of planting rice after raising seedlings, the work for raising seedlings and the work for rice planting must proceed, so the work is troublesome and takes a lot of work time Of course, this also has the problem that the herbicide has to be sprayed. In addition, when trying to carry out rice cultivation using an environmentally friendly mulching film that does not use herbicides and is biodegraded to prevent weeds, the existing method uses accurate through-holes in the mulching film at regular intervals. It is effective not only for the process of forming the padding, but also for making a hole in the mulching film at regular intervals, applying adhesive, and not having a device to attach rice. In addition, the adhesive application process, drilling process, and rice attachment process are difficult to proceed smoothly through a series of flows through an automated process, so it takes longer production time and of course the cost of production. There was also an increasing problem. In addition, the wound state of the biodegradable mulching film, which has been attached to rice, is too soft, which causes problems in packaging and transportation, as well as damage to the rice attachment site.

  In particular, it is difficult to spread the biodegradable mulching film evenly on the bottom of the rice pad so that it is tightly fixed to the bottom of the rice pad when applying the rolled-up rice dot seeded biodegradable mulching film to the bottom of the rice field. As a result, a lot of time and costs are lost, and the conventional biodegradable mulching film is made of polyethylene as a base polymer, and natural ingredients such as starch are mixed here. However, since the biodegradation of the base polymer itself was impossible, it was impossible to biodegrade the base polymer itself. There was a point. Moreover, even if the base polymer of the synthetic resin is biodegraded, there is a problem that it is difficult to secure a minimum strength maintenance period for enabling the true function of the mulching film itself. In addition, the existing biodegradable mulching film is fundamentally limited in that it exhibits a substantially environmentally friendly biodegradation effect because the decomposition time becomes too long and the decomposition efficiency decreases during the biodegradation process. There was a serious problem.

  The present invention has been devised in order to solve the above-described problems, and an object of the present invention is to facilitate the adhesive application and perforation operations so that the biodegradable mulching film is pulled tightly. An object of the present invention is to provide an apparatus for producing rice sown biodegradable mulching film and a production method using the same.

  Another object of the present invention is to accurately apply the adhesive application site so that the adhesive is applied only to the biodegradable mulching film site that is in contact with the protruding projection and protrudes most from the outer peripheral surface of the first rotating unit. It can be easily applied as well as maintained, and it can be easily drilled as well as accurately maintaining the drilling site so that the drilling operation can be performed in the site pulled tightly by the protrusion. To provide a manufacturing apparatus and a manufacturing method.

  Another object of the present invention is that the rice attachment means is periodically rolled so as to correspond to the adhesive application interval of the biodegradable mulching film so that the adhesive application site of the biodegradable mulching film is accurate and An object of the present invention is to provide a production apparatus and a production method that allow rice to be easily attached.

  Another object of the present invention is to provide a biodegradable mulching film in which the biodegradable mulching film to which the rice to be wound around the winding part is attached is widely scattered and wound around the winding part and wound up by the attached rice. It is an object of the present invention to provide a manufacturing apparatus and a manufacturing method that can prevent excessive swelling and damage.

  Another object of the present invention is to maintain the strength of a biodegradable compound using polylactic acid for a certain period of time and to increase the efficiency of biodegradation after a certain period of time. It is an object of the present invention to provide a rice dot sowing decomposition mulching film that can exhibit both physical properties, practicality, and environmental friendliness unique to vinyl by mixing predetermined amounts of each of plastics.

  Another object of the present invention is that the work is simple compared to the method of directly sowing seed rice seedlings in the rice field and the method of planting rice after raising seedlings, as well as the time required for separate manufacturing work and cost compared to conventional farming methods. Of course, the wound rice cracking decomposition mulching film that has been wound up can be spread evenly on the bottom of the rice field and applied. The purpose is to provide the rice cultivating method used.

  Another object of the present invention is to provide a wound rice roll seeding decomposition mulching film in the form of a wound roll. Rice seedling so that adhesive application and drilling operations can be easily performed by pulling tightly, as well as being spaced apart from the outer peripheral surface of the first rotating part by a certain length at the part that contacts the protruding part. The purpose is to provide a rice cultivating method using a decomposed mulching film.

  Another object of the present invention is to provide an adhesive for only the biodegradable mulching film portion that comes into contact with the protruding protrusion and protrudes most from the outer peripheral surface of the first rotating portion in providing a roll-shaped rice dot seeding decomposition mulching film. In addition to maintaining the adhesive application site accurately, it can be easily applied, and the drilling operation can be performed on the site pulled tightly by the protrusion. It is an object of the present invention to provide a method for cultivating rice using a rice dot seed decomposition mulching film that allows easy drilling.

  Another object of the present invention is to provide a rice seed disintegrating mulching film in roll form, in which the rice adhesion means is periodically rolled so as to correspond to the adhesive application interval of the biodegrading mulching film, It is an object of the present invention to provide a method for cultivating rice using a rice dot seeding biodegradable mulching film that enables accurate and easy attachment of rice to an adhesive application site of the biodegradable mulching film.

  Another object of the present invention is to provide a roll-shaped rice dot seeding decomposition mulching film, wherein the biodegradable mulching film to which the rice to be wound around the winding portion is attached is widely scattered and wound around the winding portion. An object of the present invention is to provide a method for cultivating rice using a rice dot sowing biodegradable mulching film that can prevent the biodegradable mulching film wound up by the attached rice from being excessively swollen or damaged.

  The rice spot biodegradable mulching film manufacturing apparatus for achieving the above-described object of the present invention is a moving means for continuously moving the biodegradable mulching film unrolled for the perforating and rice attaching process to the biodegradable mulching film, Adhesive application means for applying an adhesive for attaching rice to the biodegradable mulching film moved by the moving means, perforating means for perforating the biodegradable mulching film moved by the moving means, and biodegradable mulching film by the adhesive applying means. Including a rice attachment means for attaching rice to a part to which an adhesive is applied, and a power means for providing power, wherein the moving means moves in contact with the biodegradable mulching film and moves while rotating. A first rotating part that switches between the first rotating part and the first rotating part that protrudes from the outer peripheral surface by a predetermined length. Of course, the biodegradable mulching film that contacts the first rotating part and switches its direction is separated from the outer peripheral surface of the first rotating part by a certain length at the part in contact with the protruding part. Thus, the adhesive application and the perforating operation can be easily performed.

  The method for producing rice spot biodegradable mulching film according to the present invention includes a moving step for continuously moving the biodegradable mulching film unrolled by the moving means, and applying adhesive for attaching rice to the biodegradable mulching film by the adhesive applying means. An adhesive application step, a perforation step for perforating the biodegradable mulching film by the perforating means, a rice attachment step for attaching rice to the site where the adhesive of the biodegradable mulching film is applied by the rice attaching means, and the rice by the winding unit A winding step of finally winding the attached biodegradable mulching film, wherein the moving step switches a moving direction of the biodegradable mulching film that moves while contacting and rotating the biodegradable mulching film. Including one rotation part, and the first rotation part protrudes from the outer peripheral surface by a certain length. Of course, the biodegradable mulching film that includes the protrusion and contacts the first rotating part and switches the direction is separated from the outer peripheral surface of the first rotating part by a certain length at the part in contact with the protruding part. It is characterized in that the adhesive application and the drilling operation can be easily performed by being pulled.

  The rice spot biodegradable mulching film according to one embodiment of the present invention is a biodegradation mixture of polylactic acid, talc agent, aliphatic polyester, lactose, ethyl acetate, methyl methacrylate, milk powder, biodegradation aid, and photodegradation agent. The biodegradable compound comprises polylactic acid in an amount of 10 to 55% by weight. The biodegradable compound includes through holes formed around the attached rice so that the rice attached at regular intervals can be germinated easily. %, Talc agent 7-15% by weight, aliphatic polyester 10-30% by weight, lactose 3-10% by weight, ethyl acetate 1-5% by weight, methyl methacrylate 1-7% by weight, milk powder 10-20% by weight, It comprises 1 to 5% by weight of a biodegradation auxiliary agent and 1 to 4% by weight of a photodegradation agent.

  According to one embodiment of the present invention, a method for cultivating rice using a seed spot biodegradable mulching film is formed by extruding a biodegradable compound mixed with polylactic acid or the like, and can easily germinate rice adhered at regular intervals. Steps for providing wound-type rice seed sown biodegradable mulching film including through-holes formed around the attached rice, and the rolled-up rice sown biodegradable mulching film on the bottom of the rice field Steps for laying rice seeding and decomposing mulching film laid at regular intervals, rice sprouting step for rice seeding and mulching film laid on the bottom of the rice field to germinate through the through hole, and laying on the bottom of the rice field The present invention includes a rice spot sowing decomposition mulching film decomposition step in which the rice spot sowing decomposition mulching film is naturally decomposed and disappears.

  According to the present invention, the biodegradable mulching film that switches the direction in contact with the first rotating part has a certain length from the outer peripheral surface of the first rotating part at a portion that contacts the protruding part that protrudes on the outer peripheral surface of the first rotating part. Of course, it is possible to obtain an effect that the adhesive application and the perforating operation can be easily performed by being pulled tightly.

  In addition, the adhesive is applied only to the biodegradable mulching film portion that contacts the protruding protrusion and protrudes most from the outer peripheral surface of the first rotating portion, so that the adhesive application portion can be accurately maintained. It can be applied easily, and the drilling operation is performed on the portion pulled tightly by the protruding portion, so that the drilling site can be maintained accurately, and the effect of enabling easy drilling can be obtained. .

  In addition, the present invention allows the rice attachment means to be periodically rolled so as to correspond to the adhesive application interval of the biodegradable mulching film, so that the rice can be accurately and easily applied to the adhesive application site of the biodegradable mulching film. The effect which makes it possible to adhere is obtained.

  In addition, the present invention is that the biodegradable mulching film to which the rice to be wound on the winding part is attached is scattered widely in the winding part and the biodegradable mulching film wound by the attached rice is excessively An effect of preventing swelling and damage can be obtained.

  The mulching film of the present invention is a biosynthetic biosynthetic compound that uses a biodegradable compound such as polylactic acid to maintain its strength for a certain period of time and to increase the efficiency of biodegradation after a certain period of time. A predetermined amount of each of the decomposable plastics can be mixed to obtain the effect of exhibiting the physical properties, practicality, and environmental friendliness inherent to vinyl.

  In addition, it is easier to work compared to the method of directly sowing seed rice seedlings in rice fields and the method of planting rice after raising seedlings, and it is a parent environment that does not add additional costs compared to the time required for separate weeding work and conventional farming methods. Effects can be obtained.

  Further, in providing a roll-shaped rice dot seeded and decomposed mulching film, the biodegradable mulching film that contacts the first rotating portion and switches the direction contacts the protruding portion protruding from the outer peripheral surface of the first rotating portion. In addition to being separated from the outer peripheral surface of the first rotating part by a certain length at the part to be applied, the effect of allowing the adhesive application and the drilling operation to be easily performed by being pulled tightly is obtained.

  In addition, in providing a roll-shaped rice dot biodegradable mulching film, the adhesive should be applied only to the biodegradable mulching film portion that is in contact with the protruding protrusion and protrudes most from the outer peripheral surface of the first rotating portion. In addition to maintaining the adhesive application site accurately, it can be applied easily, and the drilling operation is performed on the site pulled tightly by the protrusion, so that the drilling site can be accurately maintained and easily performed. The effect of enabling drilling is obtained.

  Further, in providing a roll-shaped rice dot biodegradable mulching film, the rice adhesion means is periodically rolled so as to correspond to the adhesive application interval of the mulching film, so that the adhesive application portion of the mulching film is provided. Accurate and easy to attach the rice.

  In addition, when providing a roll-shaped rice dot seeding decomposition mulching film, the mulching film with the rice that is wound around the winding portion is widely scattered and wound around the winding portion to wind the rice. The effect which makes it possible to prevent the produced mulching film from being excessively swollen or damaged is obtained.

It is a perspective view of the rice dot seeding decomposition | disassembly mulching film manufacturing apparatus according to this invention. It is sectional drawing of the rice dot seeding decomposition | disassembly mulching film manufacturing apparatus according to this invention. FIG. 3 is a reference diagram illustrating the connection and operation relationship of the first rotating unit, the adhesive application unit, and the punching unit of FIG. 2. FIG. 3 is a reference diagram illustrating the connection and operation relationship of the first rotating unit, the adhesive application unit, and the punching unit of FIG. 2. It is an enlarged view which shows the protrusion part of a 1st rotation part. FIG. 5 is a reference diagram illustrating the connection and operation relationship between the third rotating unit and the rice attachment means of FIG. FIG. 5 is a reference diagram illustrating the connection and operation relationship between the third rotating unit and the rice attachment means of FIG. It is a perspective view which shows a rice adhesion means drive part. It is a reference figure which shows the coupling | bonding relationship of a winding part and a hydraulic cylinder. It is a reference figure which shows the coupling | bonding relationship of a winding part and a winding part auxiliary | assistant moving part. It is a reference figure which shows the action | operation process of a winding part auxiliary | assistant moving part. It is a reference figure which shows the action | operation process of a winding part auxiliary | assistant moving part. It is a block diagram which shows the step of the manufacturing method of the rice dot seeding decomposition | disassembly mulching film according to this invention. It is a block diagram which shows the step of the rice cutting cultivation method using the rice spot sowing decomposition | disassembly mulching film according to this invention. It is a block diagram which shows the specific content of the mulching film provision step of FIG. It is a perspective view of the apparatus used for a mulching film provision step. FIG. 17 is a cross-sectional view of the apparatus illustrated in FIG. 16. FIG. 18 is a reference diagram illustrating the connection and operation relationship of the first rotating unit, the adhesive application unit, and the punching unit of FIG. 17. FIG. 18 is a reference diagram illustrating the connection and operation relationship of the first rotating unit, the adhesive application unit, and the punching unit of FIG. 17. It is an enlarged view which shows the protrusion part of a 1st rotation part. FIG. 18 is a reference diagram illustrating a connection and operation relationship between the third rotating unit and the rice attachment means of FIG. 17. FIG. 18 is a reference diagram illustrating a connection and operation relationship between the third rotating unit and the rice attachment means of FIG. 17. It is a perspective view which shows a rice adhesion means drive part. It is a reference figure which shows the coupling | bonding relationship of a winding part and a hydraulic cylinder. It is a reference figure which shows the coupling | bonding relationship of a winding part and a winding part auxiliary | assistant moving part. It is a reference figure which shows the action | operation process of a winding part auxiliary | assistant moving part. It is a reference figure which shows the action | operation process of a winding part auxiliary | assistant moving part. It is a block diagram which shows the specific content of the rice dot seedling decomposition | disassembly mulching film installation step of FIG. It is a reference figure which shows the process in which a rice dot seedling decomposition mulching film is laid. It is a reference figure which shows the state by which the rice dot seedling decomposition | disassembly mulching film was laid. It is a reference figure which shows the state by which rice is germinated. It is a reference figure which shows the state by which the rice dot seedling decomposition mulching film was decomposed | disassembled naturally.

  Hereinafter, a preferred embodiment of a rice seed soaking / decomposing mulching film manufacturing apparatus and a manufacturing method using the same according to the present invention will be described in detail with reference to the accompanying drawings.

  FIG. 1 is a perspective view of a rice seed soaking / decomposing mulching film manufacturing apparatus according to the present invention, FIG. 2 is a cross-sectional view of a rice spot sowing / decomposing mulching film manufacturing apparatus according to the present invention, and FIGS. FIG. 5 is a reference diagram showing the connection and operation relationship of one rotating part, adhesive application means, and perforating means, FIG. 5 is an enlarged view showing a protruding part of the first rotating part, and FIGS. 6 and 7 are FIG. FIG. 8 is a reference view showing the connection and operation relationship between the third rotating portion and the rice attachment means, FIG. 8 is a perspective view showing the rice attachment means driving portion, and FIG. 9 shows the connection relationship between the winding portion and the hydraulic cylinder. FIG. 10 is a reference diagram showing a coupling relationship between the winding unit and the winding unit auxiliary moving unit, and FIGS. 11 and 12 are reference diagrams showing an operation process of the winding unit auxiliary moving unit. is there.

  Referring to FIGS. 1 to 12, the apparatus for producing rice seed disintegrating mulching film according to an embodiment of the present invention maintains the biodegradable mulching film a unfolded for perforating and attaching rice to the biodegradable mulching film a. Moving means 10 for moving, adhesive applying means 20 for applying adhesive for attaching rice to biodegradable mulching film a, punching means 30 for perforating biodegradable mulching film a, and adhesive for biodegradable mulching film a It is formed to include rice attachment means 40 for attaching rice a3 to the formed part a2 and power means 50 for providing power.

  The moving means 10 is configured to continuously move the biodegradable mulching film a that has been unrolled for the perforation and rice attachment process with respect to the biodegradable mulching film a. The first rotating unit 110 that switches the moving direction of the biodegradable mulching film a that moves while contacting and rotating the biodegradable mulching film a supplied to the film manufacturing apparatus, and the direction switching is performed by contacting the first rotating unit 110. The biodegradable mulching film a is moved while rotating in contact with the biodegradable mulching film a. The second rotating part 120 that switches the moving direction of the biodegradable mulching film a. The direction of movement of the biodegradable mulching film a that moves while rotating in contact with the mulching film a is switched again. It may include a third rotating portion 130 and the third rotating part winding section 150 130 rice a3 past the final winding of the deposited biodegradable mulching films a,.

  The first rotating unit 110 is configured to switch the moving direction of the biodegradable mulching film a that moves while rotating in contact with the biodegradable mulching film a supplied to the biodegradable mulching film manufacturing apparatus according to the present invention. It is formed into a cylindrical rod shape so that it can be easily rotated and abutted against the biodegradable mulching film a to change its moving direction smoothly. It rotates using the power provided from the means 50. In the present invention, in particular, the first rotating unit 110 is not limited to simply switching the moving direction of the biodegradable mulching film a that moves while rotating in contact with the biodegradable mulching film a. 20 and the punching means 30 perform a function of assisting the adhesive application work and the punching work to be performed smoothly. For this purpose, the first rotating part 110 protrudes from the outer peripheral surface by a certain length. The portion of the biodegradable mulching film a that includes the protrusion 111 and contacts the first rotating part 110 and switches the direction is separated from the outer peripheral surface of the first rotating part 110 by a certain length. Of course, it is characterized in that the adhesive application and perforation work can be easily performed at the above-mentioned site by being pulled tightly.

  The protrusion 111 is a portion formed to protrude from the outer peripheral surface of the first rotating portion 110 by a certain length, and more specifically, a first protrusion 1111 that protrudes from the center of the protrusion 111 by a certain length. In addition, the first protrusion 1111 may include second protrusions 1112 that protrude from the left and right sides of the first protrusion 1111 by a predetermined length and protrude relatively shorter than the protrusion length of the first protrusion 1111. The first protrusion 1111 is a portion formed to protrude from the outer peripheral surface of the first rotating part 110, more specifically, at a central part of the protruding part 111, and thereby the first rotating part 110. The part of the biodegradable mulching film a that contacts and rotates contacts with the first protrusion 1111 is not only separated from the outer peripheral surface of the first rotating part 110 by a certain length, but also by being pulled tightly, the adhesive described later As shown in FIG. 3, the applying means 20 can easily apply an adhesive to the portion of the biodegradable mulching film a that contacts the first protrusion 1111. A punching means 30 described later is also shown in FIG. As described above, the biodegradable mulching film a can be easily drilled in the through-hole a1 in a tightly pulled part as well as being separated from the outer peripheral surface of the first rotating part 110 by a certain length. So as to. For reference, when the biodegradable mulching film a is in close contact with the outer peripheral surface of the first rotating part 110, there is a problem that not only the perforation work cannot be performed smoothly, but also the manufacturing cost according to the perforation work increases. The protruding shape of the first protrusion 1111 is preferably chamfered so that both protruding end portions are inclined or formed in a round shape, but this is a biodegradable mulching that rotates by contact. This is to prevent damage to the film a. The second protrusions 1112 are portions that are spaced apart from each other by a predetermined length on the left and right sides of the first protrusions 1111 and protrude to a length relatively shorter than the protrusion length of the first protrusions 1111. Since the two protrusions 1112 are additionally formed, the biodegradable mulching film a that is separated from the outer peripheral surface of the first rotating part 110 by a certain length can be pulled more tightly and can be prevented from being damaged. become able to. It is preferable that the protruding shape of the second protrusion 1112 is also chamfered so that both protruding end portions are inclined or formed in a round shape.

  The second rotating unit 120 is configured to switch the moving direction of the biodegradable mulching film a that moves while contacting and rotating the biodegradable mulching film a that is in contact with the first rotating unit 110 and whose direction is switched. Then, the rice a3 is attached to the adhesive application site a2 of the biodegradable mulching film a, which is normally switched so as to move upward while rotating in contact with the first rotating part 110. For the rice adhesion process for the purpose, and for the purpose of switching the moving direction of the biodegradable mulching film a to the downward moving direction, the second rotating unit 120 is in contact with the biodegradable mulching film a while rotating. The moving direction is switched. Also, the second rotating unit 120 allows the biodegradable mulching film a to be pulled tightly so that the adhesive application process and the perforating process centered on the first rotating unit 110 can be performed smoothly. It also plays an auxiliary role. For reference, the unfolded state of the biodegradable mulching film “a” is once again organized before the rice attachment process is performed on the biodegradable mulching film “a” whose direction has been changed while rotating in contact with the second rotating unit 120. In addition, in order to allow the biodegradable mulching film a to be pulled tightly, a fourth rotation unit 140 may be additionally included between the second rotation unit 120 and a third rotation unit 130 described later. .

  The third rotating unit 130 is configured to switch again the moving direction of the biodegradable mulching film a that moves while contacting and rotating the biodegradable mulching film a that has been switched in contact with the second rotating unit 120. The third rotating unit 130 may be attached to the biodegradable mulching film a so that the step of attaching the rice a3 to the part a2 to which the adhesive of the biodegradable mulching film a is applied can be performed. The direction of the biodegradable mulching film a that moves while contacting and rotating is switched.

  The winding unit 150 is configured to finally wind up the biodegradable mulching film a to which the rice a3 is attached after passing through the third rotating unit 130, and the rice a3 finally wound on the winding unit 150 is If the attached biodegradable mulching film a is spread and applied to the rice field, it becomes possible to cultivate rice by the rice seeding method without raising seedlings or rice planting work. Further, the winding unit 150 does not stop simply winding the biodegradable mulching film a to which the rice a3 is adhered while only rotating, and periodically moves as shown in FIGS. While being rolled up, the biodegradable mulching film a with the rice a3 attached in a row is prevented from being excessively swollen or damaged while being wound, but this will be described later. The description will be made in detail with respect to the take-up unit auxiliary moving unit 530.

  The adhesive application unit 20 is configured to apply an adhesive for attaching rice to the biodegradable mulching film a moved by the moving unit 10, and more specifically, as shown in FIG. The adhesive for rice attachment is applied to the biodegradable mulching film a that rotates in contact with the protrusions 111 (more specifically, the first protrusions 1111 protruding so as to protrude most at the protrusions 111). Therefore, the adhesive applying means 20 can apply the adhesive only to the portion of the biodegradable mulching film a that is formed at a position corresponding to the first protrusion 1111 of the protrusion 111 and is in contact with the first protrusion 1111. The adhesive application unit 210 and the adhesive application unit moving unit 220 that can move the adhesive application unit 20 toward the first rotating unit 110 can be included.

  The adhesive application part 210 is formed at a position corresponding to the first protrusion 1111 of the protruding part 111 and is formed on the biodegradable mulching film a that contacts the first protrusion 1111 that protrudes most on the outer peripheral surface of the first rotating part 110. The configuration is such that the adhesive can be applied only to the site, and the end of the adhesive application part 210 is formed in a brush form that can be applied with an adhesive so that the adhesive can be applied easily. In addition, a connecting pipe branched from a container in which the adhesive is stored is connected to the adhesive application unit 210 so that the adhesive can be supplied. For reference, the adhesive application unit 210 includes a separate opening / closing unit that prevents the adhesive from being ejected through the adhesive application unit 210 when the adhesive application process is not performed due to the necessity of work.

  As shown in FIGS. 3 and 4, the adhesive application unit moving unit 220 can move the adhesive application unit 20 so as to approach or move away from the first rotating unit 110. In the present invention, the adhesive applying means 20 is around the biodegradable mulching film a rotating in close contact with the first rotating unit 110 around the first rotating unit 110, more specifically, the first rotating unit 110. Since the adhesive can be applied to the periphery of the biodegradable mulching film a that protrudes most on the outer peripheral surface of the adhesive, the adhesive application means 20 is separated from the first rotating unit 110 by a certain length. 3 to allow contact with the biodegradable mulching film a as shown in FIG. 3, or when the adhesive application process does not proceed, as shown in FIG. Configuration of the adhesive applying means moving unit 220 to make away from the periphery of the rolling portion 110 is required. The adhesive application means moving unit 220 may utilize a configuration such as an electronically controlled hydraulic cylinder.

  The perforating means 30 is configured to perforate the through hole a1 in the biodegradable mulching film a moved by the moving means 10, and more specifically, as shown in FIG. 3, the protruding portion 111 of the first rotating part 110. The biodegradable mulching film is expanded by being spaced apart from the outer peripheral surface of the first rotating part 110 by a certain length (more specifically, being separated and expanded between the first protrusion 1111 and the second protrusion 1112 of the protrusion 111). A through hole a1 is formed in a. For this purpose, the punching means 30 is formed at a position corresponding to the space between the first protrusion 1111 and the second protrusion 1112 of the protrusion 111, and between the first protrusion 1111 and the second protrusion 1112. A perforating part 310 that enables easy perforation to a portion of the biodegradable mulching film a that has been pulled tight, and a perforating means moving part that can move the perforating means 30 toward the first rotating part 110. 320 may be included. For reference, since the adhesive applying unit 20 and the perforating unit 30 perform operations around the first rotating unit 110, the adhesive applying unit 20 and the perforating unit 30 are centered on the first rotating unit 110. It is preferable to be located symmetrically.

  The perforated part 310 is formed at a position corresponding to the space between the first protrusion 1111 and the second protrusion 1112 of the protrusion 111 and is tightly pulled between the first protrusion 1111 and the second protrusion 1112. The perforated portion is configured to allow easy perforation to a portion of the biodegradable mulching film a, and to easily perforate a portion of the biodegradable mulching film a that has been pulled tightly. The end portion of 310 is formed by heat generating means such as a heat ray (that is, if the heat is brought into contact with a tightly pulled part, it becomes easier to perforate in a wider range than cutting), The perforating unit 310 is connected to a power source unit so that electricity can be supplied to a heating means such as a heat ray. For reference, when the drilling process is not performed on the drilling unit 310 due to the necessity of work, a separate power shut-off unit is used to prevent the occurrence of a safety accident due to the continuous operation of the heating unit such as a heat ray. Can be included.

  As shown in FIGS. 3 and 4, the punching means moving unit 320 is configured to move the punching means 30 so as to approach or move away from the first rotating unit 110. Then, around the biodegradable mulching film a in which the punching means 30 rotates in close contact with the first rotating part 110 around the first rotating part 110, more specifically, the first protrusion 1111 and the second protrusion 1112 The biodegradable mulching film a that protrudes and expands on the outer peripheral surface of the first rotating part 110 can be perforated to form a through-hole a1, so that during the perforating process, as shown in FIG. As described above, the perforating means 30 is moved to a point separated from the periphery of the first rotating part 110 by a certain length so as to be in contact with the biodegradable mulching film a, and a through hole a1 is formed. That when the drilling process is not proceeding, as shown in FIG. 4, the above-described configuration perforation means moving unit 320 to make away from the periphery of the first rotating portion 110 is required. The punching means moving unit 320 can utilize a configuration such as an electronically controlled hydraulic cylinder, similar to the adhesive application means moving unit 220.

  The rice attachment means 40 is configured to attach the rice a3 to the portion a2 to which the adhesive of the biodegradable mulching film a moved by the moving means 10 is applied, and rotates in close contact with the third rotating unit 130. The rice a3 is attached to the adhesive-applied part a2 of the biodegradable mulching film a, and the rice a3 can be efficiently attached to the part a2 to which the adhesive is periodically applied at regular intervals. The attachment 40 is for receiving the rice a3 and allowing the received rice a3 to be widely spread and scattered, and the rice receiver 410 to roll periodically to contact the third rotating part 130. And a rice attachment means driving unit 420 that allows the rice a3 to be attached efficiently and easily to the adhesive application site a2 at a predetermined interval of the biodegradable mulching film a that switches the direction. Can.

  The rice receiver 410 accommodates the rice a3 and allows the accommodated rice a3 to be widely spread and scattered, and the biodegradable mulching film a moved by the moving means 10 while being widely spread. In order to attach the rice a3 to the adhesive application site a2, the rice receiver 410 in which the rice a3 is accommodated is formed long in the longitudinal direction so that the accommodated rice a3 can be widely spread and scattered, and has a constant width. It is preferable to form in the form which has.

  As shown in FIGS. 6 and 7, the rice attachment means driving unit 420 periodically rolls the rice receiver 410 and contacts the third rotating unit 130 to switch the direction of the biodegradable mulching film a. The rice a3 can be efficiently and easily attached to the adhesive application sites a2 formed at intervals. For this purpose, the rice attaching means driving unit 420 is provided by the power means 50 described later. A first drive shaft 421 that is rotated by the motive power, a second drive shaft 422 that rotates in conjunction with the first drive shaft 421, and an eccentric connection that deviates from the axial center of the second drive shaft 422. As the second drive shaft 422 rotates, a rolling unit 423 that periodically rolls the rice receiver 410 loaded with the rice a3 can be included.

  The first drive shaft 421 is a portion that is rotated by power provided by the power unit 50 described later, and serves to drive the rice adhering unit drive unit 420 upon receiving power from the power unit 50 described later. Come to fulfill.

  The second drive shaft 422 is a portion that rotates in conjunction with the first drive shaft 421, and the second drive shaft 422 is positioned in parallel with the first drive shaft 421, and the first drive shaft 421. And the gears mesh with each other and receive the transmission of the rotational force of the first drive shaft 421 to rotate in conjunction with the first drive shaft 421. In order to complement the point that it is difficult to stably drive a rolling portion 423, which will be described later, with only the first drive shaft 421, the second drive shaft 422 is formed in two or more, and the second drive shaft 422 is formed. The rolling part 423 described later can be stably driven by the shaft 422.

  The rolling part 423 is eccentrically connected to the second drive shaft 422 so that the rice holder 410 loaded with the rice a3 is periodically rolled as the second drive shaft 422 rotates. As shown in FIG. 8, one side of the rolling part 423 is connected to the rice pad 410 and the rotating shaft 4231 of the rolling part 423 is deviated from the center of the second drive shaft 422. When the second drive shaft 422 rotates by being eccentrically connected, the rotary shaft 4231 that is eccentrically connected and deviated from the center of the second drive shaft 422 rotates while drawing a circle. Accordingly, the rolling part 423 rotates while drawing a circle. At this time, the rice paddle connected to one side of the rolling part 423 is also provided. As shown in FIG. 6 and FIG. 7, while the rice pad 410 is periodically rolled, the rice pad 410 periodically approaches and moves away from the third rotating unit 130. At the moment of approaching the rotating part 130, the rice a3 loaded on the rice pad 410 and spread widely is fixed to the part a2 to which the adhesive of the biodegradable mulching film a rotating in close contact with the third rotating part 130 is attached. Adhered at intervals. At this time, the period of rotation of the rolling part 423, that is, the period of rolling of the rice pad 410 is the interval at which the adhesive is attached to the biodegradable mulching film a rotating in close contact with the third rotating part 130. Preferably, the rice a3 can be efficiently and easily attached to the adhesive application sites a2 formed at regular intervals in the biodegradable mulching film a.

  The power means 50 is configured to provide power necessary for driving the rice dot seeding decomposition mulching film manufacturing apparatus according to the present invention, and more specifically, the first to fourth rotating parts 110 to 140 of the moving means 10. The power required for driving the winding unit 150 and the rice attachment means driving unit 420 is provided. For this purpose, the power unit 50 is connected to a motor unit 510 that provides power necessary for driving the moving unit 10, the rice attachment unit driving unit 420, and the one end of the winding unit 150. A hydraulic cylinder 520 that moves the portion 150 to the left and right at regular intervals, and a rotation shaft 531 as a center, one side 532 is connected to the other end of the winding portion 150, and the other side 533 is an inclined surface of the rotating cam 534 A winding part auxiliary movement that is connected to the take-up surface 5341 and that turns the winding part 150 left and right at a constant period by rotating the cam 534 to the left and right at a constant period to assist the action of the hydraulic cylinder 520. Part 530 may be included.

  The motor unit 510 is configured to provide power necessary for driving the moving unit 10, the rice adhering unit driving unit 420, etc., and the drive shaft of the motor unit 510 is the first to the first of the moving unit 10. The driving force generated by the motor unit 510 is generated by connecting the four rotating units 110 to 140, the winding unit 150, the first driving shaft 421 of the rice attachment means driving unit 420, and the like using belts and pulleys. The first to fourth rotating parts 110 to 140 and the winding part 150 of the moving means 10 and the first drive shaft 421 of the rice attaching means driving part 420 are transmitted to the moving means 10 and the rice attaching means driving part 420. And so on.

  The hydraulic cylinder 520 is connected to one end of the winding unit 150 and moves the winding unit 150 to the left and right at a constant cycle. As mentioned in the description of the winding unit 150, If the biodegradable mulching film a to which a3 is attached is simply wound only, the portion where the rice a3 is attached will swell, and the volume of the wound biodegradable mulching film a is excessive. In the present invention, there is a problem that the biodegradable mulching film a itself may be damaged due to the increase in size and the difficulty in transportation and work. The hydraulic cylinder 520 is connected to one end of the part 150, and the hydraulic cylinder 520 moves the one end of the winding part 150 to the left and right at a constant cycle as shown in FIGS. By doing so, the part of the biodegradable mulching film a wound around the winding part 150 to which the rice a3 is attached is not excessively wound only on one side, and can be wound evenly distributed on the left and right. Thus, the above problem caused by the excessive volume of the wound biodegradable mulching film a is solved.

  The winding part auxiliary moving part 530 is connected to the other end of the winding part 150 and is configured to assist the function of the hydraulic cylinder 520 that moves the winding part 150 at a constant cycle. As shown, one side 532 is connected to the other end of the winding unit 150 around the rotation shaft 531, and the other side 533 is connected to the inclined chamfered surface 5341 of the rotating cam 534 to rotate the cam 534. As shown in FIG. That is, as shown in FIGS. 11 and 12, the other side 533 of the winding portion auxiliary moving portion 530 connected to the inclined chamfered surface 5341 of the cam 534 rotates (the driving force for rotating the cam 534 at this time). Is preferably transmitted to the motor unit 510), and periodically moves to the left and right along the inclined chamfered surface 5341. However, as the other side 533 moves to the left and right, the rotating shaft 531 is moved. The other end of the winding unit 150 connected to the left and right sides of the winding unit auxiliary moving unit 530 is also moved to the left and right at a constant cycle. Therefore, as described above, the winding unit 150 that moves to the left and right at a constant cycle by the hydraulic cylinder 520 is also operated at a constant cycle by the operation of the winding unit auxiliary moving unit 530 connected to the other end. Since the winding unit 150 moves left and right, the winding unit 150 is stable and regular as shown in FIGS. 11 and 12 by the operation of the hydraulic cylinders 520 and the winding unit auxiliary movement unit 530 located on both sides thereof. Therefore, it is possible to effectively prevent the biodegradable mulching film a to which the rice a3 that is wound up by performing a left-right interlocking motion of a certain period is attached from being excessively swollen or damaged.

  Hereinafter, a method for producing a rice seed soaking / decomposing mulching film using the rice seed soaking / decomposing mulching film manufacturing apparatus according to the present invention will be described in detail.

  FIG. 13 is a block diagram illustrating steps of a method for producing a rice seed sowing decomposition mulching film according to an embodiment of the present invention. Referring to FIG. 1 to FIG. 13, in the method for producing a rice dot sowing biodegradable mulching film according to one embodiment of the present invention, a moving step (S1) of continuously moving the biodegradable mulching film a unfolded by the moving means 10. , An adhesive application step (S2) for applying the adhesive for attaching rice a3 to the biodegradable mulching film a by the adhesive application means 20; a perforating step (S3) for perforating the biodegradable mulching film a by the perforating means 30; Rice sticking step (S4) for attaching rice a3 to the part a2 to which the adhesive of biodegradable mulching film a is applied by means 40, and the final winding of biodegradable mulching film a to which rice a3 is attached by winding unit 150 A winding step (S5) to be taken can be included.

  The moving step (S1) is performed so that the biodegradable mulching film a unfolded by the moving means 10 can be subjected to steps such as adhesive application, drilling, rice attachment, and winding. , While moving the biodegradable mulching film a that is moved by the first rotating unit 110 that rotates in contact with the biodegradable mulching film a that is supplied in an unfolded state. The moving step (S11) by the first rotating part enabling the adhesive attaching process and the punching process to be performed, and the biodegradable mulching film a that has been switched in contact with the first rotating part 110. The second rotating unit that switches the moving direction of the biodegradable mulching film a that is moved by the rotating second rotating unit 120. In step (S12), the moving direction of the biodegradable mulching film moved by the third rotating portion 130 rotating in contact with the biodegradable mulching film a that has been switched in contact with the second rotating portion 120 is switched. However, it can be performed by the moving step (S13) by the third rotating unit so that the rice attachment process can be performed.

  In particular, the moving step (S11) by the first rotating unit 110 is performed by biodegradation in which the outer peripheral surface of the first rotating unit 110 contacts the first rotating unit 110 by the projecting part 111 projecting a certain length and switches the direction. Of course, the mulching film a is separated from the outer peripheral surface of the first rotating part 110 by a certain length at the part where the protruding part 111 comes into contact, and of course, the adhesive application and perforation work can be facilitated by being pulled tightly. It is characterized by being able to do. More specifically, as described above, the first protrusion 1111 protruding a fixed length at the center of the protrusion 111 and the protrusion of the first protrusion 1111 spaced apart from each other by a fixed length on the left and right sides of the first protrusion 1111. By forming the second protrusion 1112 that protrudes to a length relatively shorter than the length, the part of the biodegradable mulching film a that contacts and rotates with the first rotating part 110 is in contact with the first protrusion 1111. Of course, the adhesive applying means 20 is not pulled apart from the outer peripheral surface of the first rotating part 110 by a certain length, and the adhesive applying means 20 causes the first protrusion 1111 of the biodegradable mulching film a as shown in FIG. The adhesive can be easily applied to the portion that contacts the surface, and the punching means 30 can be separated from the periphery of the first protrusion 1111 of the biodegradable mulching film a to easily punch the expanded portion. In addition, since the second protrusion 1112 is additionally formed, the biodegradable mulching film a that is separated from the outer peripheral surface of the first rotating unit 110 by a certain length is pulled more naturally. Can be prevented.

  The adhesive application step (S2) is a process of applying an adhesive for attaching rice a3 to the biodegradable mulching film a by the adhesive application means 20, and more specifically, as shown in FIG. An adhesive for attaching rice a3 is applied to the biodegradable mulching film a that rotates in contact with the protruding portion 111 of the rotating portion 110 (more specifically, the first protrusion 1111 protruding so as to protrude most at the protruding portion 111). become. For this purpose, the adhesive application means 20 is formed around the biodegradable mulching film a that is formed at a position corresponding to the first protrusion 1111 of the protruding portion 111 and rotates in close contact with the first rotating portion 110. More specifically, since the adhesive can be applied around the biodegradable mulching film a that rotates in close contact with the first protrusion 1111 that protrudes most on the outer peripheral surface of the first rotating part 110, FIG. As shown in FIG. 4, when the adhesive application process is performed, the adhesive application means 20 is moved to a point separated by a certain length around the first rotating unit 110 to contact the biodegradable mulching film a. When the adhesive application process is not proceeding, the adhesive application means is moved so that the adhesive application means 20 is away from the periphery of the first rotating part 110. Transfer process of the adhesive application means 20 by the part 220 is required.

  The perforating step (S3) is a process of perforating the biodegradable mulching film a by the perforating means 30, and more specifically, as shown in FIG. 3, the first rotation is performed by the protrusion 111 of the first rotating unit 110. A through-hole is formed in the biodegradable mulching film a that is spaced apart from the outer peripheral surface of the portion 110 by a certain length and is expanded (more specifically, spaced apart and inflated between the first protrusion 1111 and the second protrusion 1112 of the protrusion 111). a1 is formed. For this purpose, the punching means 30 is formed at a position corresponding to the space between the first protrusion 1111 and the second protrusion 1112 of the protrusion 111, and tightly between the first protrusion 1111 and the second protrusion 1112. Since the perforated part 310 can be used to easily perforate the pulled biodegradable mulching film a, as shown in FIG. 4, when the perforating process proceeds. Moves the perforation means 30 to a point separated from the periphery of the first rotating part 110 by a certain length so that it can come into contact with the biodegradable mulching film a, and the perforation process for forming the through hole a1 does not proceed. In this case, a process of moving the punching means 30 by the punching means moving part 320 is required to keep the punching part 310 away from the periphery of the first rotating part 110.

  The rice attaching step (S4) is a process of attaching the rice a3 to the part a2 to which the adhesive of the biodegradable mulching film a is applied by the rice attaching means 40, as shown in FIGS. The first drive shaft 421 that rotates by receiving the driving force transmitted by the power means 50 rotates the second drive shaft 422 connected by gear engagement, thereby rotating the first drive shaft 422. The rotating shaft 4231 of the rolling part 423 that is eccentrically connected to one end of the rolling part 423 is rotated while drawing a circle by the rotation of the second drive shaft 422, and the rolling part 423 is also rotated while drawing a circle. At this time, the rice receiver 410 connected to one side of the rolling portion 423 is also periodically rotated while the rice receiver 410 is rotated in the third rotation. The rice a3 that is loaded on the rice tray 410 and unfolded widely is loaded at the moment when the rice tray 410 approaches the third rotating unit 130. The biodegradable mulching film a that rotates in close contact with the adhesive adheres to the part a2 to which the adhesive is attached at regular intervals. At this time, the period of rotation of the rolling part 423, that is, the period of rolling of the rice pad 410 is the interval at which the adhesive is attached to the biodegradable mulching film a rotating in close contact with the third rotating part 130. Preferably, the rice a3 can be efficiently and easily attached to the adhesive application sites a2 formed at regular intervals in the biodegradable mulching film a.

  The winding step (S5) is a final winding process of the biodegradable mulching film a to which the rice a3 is adhered by the winding unit 150, and as described above, the biodegradable mulching film to which the rice a3 is adhered. If the a is simply wound only, the volume of the biodegradable mulching film a wound so as to swell only at the part to which the rice a3 is attached becomes excessively large, and it is difficult to carry and work. In addition, there is a problem that the biodegradable mulching film a itself may be damaged. Therefore, in the present invention, as shown in FIG. 11 and FIG. The hydraulic cylinder 520 is connected to one end of the winding unit 150 so that the hydraulic cylinder 520 moves the one end of the winding unit 150 to the left and right at regular intervals. In the biodegradable mulching film a wound around the winding unit 150, the portion where the rice a3 is attached is not excessively wound only on one side, and is wound so that it can be uniformly distributed to the left and right. In addition, the above-mentioned problems caused by the excessive volume of the biodegradable mulching film a are solved. In particular, one end 532 is connected to the other end of the winding portion 150 around the rotation shaft 531 at the other end of the winding portion 150, and the other side 533 is an inclined chamfered surface 5341 of the rotating cam 534. And the other side 533 of the winding part auxiliary moving part 530 connected to the inclined chamfered surface 5341 of the cam 534 is connected to the rotation of the cam 534 ( At this time, it is preferable that the driving force for rotating the cam 534 is transmitted by the motor unit 510). The winding unit moves around the rotation shaft 531 while periodically moving left and right along a chamfered surface 5341 inclined by the motor unit 510. One side 532 of the auxiliary moving unit 530 and the other end of the winding unit 150 connected to the auxiliary moving unit 530 are moved left and right at regular intervals. Therefore, as described above, the winding unit 150 that moves to the left and right at a constant cycle by the hydraulic cylinder 520 is also operated at a constant cycle by the operation of the winding unit auxiliary moving unit 530 connected to the other end. Since the winding part 150 moves to the left and right, the winding part 150 performs a stable and regular left-right interlocking movement by the operation of the hydraulic cylinders 530 and the winding part auxiliary movement part 530 located on both sides thereof. Thus, the biodegradable mulching film a to which the rice a3 to be wound is attached can be effectively prevented from being excessively swollen or damaged.

  Hereinafter, preferred embodiments of a rice seed sowing decomposition mulching film and a rice cutting method using the same according to the present invention will be described in detail with reference to the accompanying drawings.

  FIG. 14 is a block diagram illustrating steps of a rice cutting method using the rice seed sowing decomposition mulching film according to the present invention, and FIG. FIG. 16 is a perspective view of an apparatus used in the step of providing a roll-shaped rice seed soaking / decomposing mulching film, and FIG. 17 is a cross-sectional view of the apparatus shown in FIG. 19 is a reference diagram showing the connection and operation relationship of the first rotating part, adhesive application means, and perforating means of FIG. 4, and FIG. 20 is an enlarged view showing the protruding part of the first rotating part. FIG. 22 is a reference diagram showing the connection and operation relationship between the third rotating part and rice attachment means in FIG. 4, FIG. 23 is a perspective view showing the rice attachment means driving part, and FIG. 24 is a winding part and hydraulic pressure. Connection with cylinder FIG. 25 is a reference diagram showing a coupling relationship between the winding unit and the winding unit auxiliary moving unit, and FIGS. 26 and 27 are reference diagrams showing an operation process of the winding unit auxiliary moving unit. FIG. 28 is a block diagram showing specific contents of the rice seed sowing decomposition mulching film laying step of FIG. 14, and FIG. 29 is a reference diagram showing a process of laying the rice seed sowing decomposition mulching film. 30 is a reference diagram showing a state in which a rice spot sowing decomposition mulching film is laid, FIG. 31 is a reference diagram showing a state in which rice is germinated, and FIG. 32 is a diagram in which the rice spot sowing decomposition mulching film is naturally decomposed. It is a reference figure showing a state.

  Referring to FIG. 29 to FIG. 31, the rice dot biodegradable mulching film a ′ according to one embodiment of the present invention is made of polylactic acid (which can be replaced with PLA, PCL, PBAT, etc.), talc, aliphatic polyester, lactose. The rice a3 ′ formed by extruding and adhering a plastic resin to a biodegradable compound in which ethyl acetate, methyl methacrylate, powdered milk, biodegradation auxiliary agent, and photodegradation agent are mixed and then extruding is attached. A through hole a1 ′ formed around the rice a3 ′ attached so as to be easily germinated can be included.

  The through-hole a1 ′ is formed around the rice a3 ′ attached to the spotted seed decomposition mulching film according to the present invention at regular intervals, and when the attached rice a3 ′ germinates, the germinated rice a3 ′ The shoots are perforated around the attached rice a3 ′ so that the mulching film can be easily pushed and sprouted on the ground, and the shape is formed to surround the attached rice a3 ′. It is preferable.

  In the present invention, the main technical feature is that the above-mentioned rice spot biodegradable mulching film a ′ is made of a bio-degradable environmental material. However, the biodegradable composition using polylactic acid according to the present invention is made of Lactic acid (PLA can be replaced with PCL, PBAT, etc.), talc agent, aliphatic polyester, lactose, ethyl acetate, methyl methacrylate, powdered milk, biodegradation aid, and photodegradation agent are mixed and processed and then extruded. Molded. Here, polylactic acid (PLA) means a polymer of a low molecular weight compound (monomer) called lactic acid, which is generally hydrolyzed with water to lower its molecular weight and then decomposed by microorganisms. (In addition to the above polylactic acid, it can be replaced with PCL, PBAT, etc.) In particular, the talc agent has the property of improving strength stability, improving fluidity and dispersibility and making it easy to process, and has the effect of reducing material costs. Aliphatic polyester is usually made of a non-biodegradable aromatic polyester molecular structure that is biodegradable by replacing the benzene ring with a hydrocarbon, and has high strength and excellent processability. As an example, polycaprolactone, polybutylene succinate and the like can be used. Ethyl acetate is a processing additive, and is added to improve processability such as cohesion between molecules and surface beauty. Lactose, methyl methacrylate and milk powder promote biodegradation. Biodegradation agents promote biodegradability by contact with microorganisms such as bacteria, sputum, and enzymes under natural conditions, and can be easily used by those skilled in the art. Can be used. The photodecomposing agent concentrates ultraviolet rays to promote oxidation, and a photodecomposing agent containing a photosensitive substance and an ethylene / carbon monoxide polymer can be used. In addition, a plastic resin is mixed with a biodegradable composition using polylactic acid or the like according to the present invention to produce various products. Here, the plastic resin is a base polymer, and the product machine. It is added to ensure proper physical properties (tear strength, tensile strength, etc.). The plastic resin is one of LDPE, LLDPE, HDPE, LMPE, PP, PS, PE, or a mixture of these in a predetermined amount. Here, LDPE is low density polyethylene as an abbreviation for Low Density Polyethylene, HDPE is high density polyethylene as an abbreviation for High Density Polyethylene, LLDPE is linear low density polyethylene as an abbreviation for Linear Low Density Polyethylene, and LMPE is Low Molecular Polyethylene. The abbreviation is low molecular polyethylene, PP is polypropylene as an abbreviation for Polypropylene, PS is polystyrene as an abbreviation for Polystyrene, and PE is polyethylene as an abbreviation for Polyethylene. General HDPE, LDPE, etc. have a molecular weight of 10,000 or more, but since LMPE is formed with a low molecular weight of 2000-2500, it induces a smooth fusion such as CaCo3 when manufacturing the product. Thus, the configuration is polyethylene wax. Hereinafter, the characteristics of the biodegradable mulching film used for the above-described rice dot biodegradable mulching film a 'will be described through experimental examples.

Sample preparation 44% by weight of polylactic acid, 10% by weight of talc, 15% by weight of aliphatic polyester and 3.5% by weight of methyl methacrylate were mixed in a high-speed mixer (40 KW, 1480 RPM) at an internal temperature of 110 ° C. for 40 minutes. The first substance is produced, and 14.5% by weight of powdered milk, 3% by weight of biodegradation aid, and 2% by weight of photodegradation agent are placed in a high speed mixer and mixed at 40 ° C. for 30 minutes to obtain the second substance. In a blender, lactose 5.5 wt% and ethyl acetate 2.5 wt% are mixed at 40 ° C. for 20 minutes to form a third substance, and the above first substance, second The substance and the third substance were put into a high-speed mixer (40 KW, 1300 RPM) and mixed at 90 ° C. for 30 minutes, and then the mixer was opened after 60 minutes, and the resulting crystal was placed in an extruder hopper (37 KW). throw into. Here, the extruder has a double screw type, and the length / diameter ratio is 28: 1 or more, and the heating bowl sections 1-4 are 180 ° C. The sections 5 to 8 are maintained at 190 ° C., and the sections 9 to 12 are maintained at 210 ° C. Then, a wire screen is installed horizontally at the rear end of the extruder discharge mold so that extraneous materials are removed every 8 hours while the equipment is in operation. The biodegradable composition is discharged through 30 holds having a diameter of 2.5 mm to the front disk of the discharge port of the machine. Then, the discharged biodegradable composition is cut into an elliptical shape having a thickness of 0.3 to 0.5 mm by four rotary cutters, and is transferred 14 m through a duct having a diameter of 300 by wind power of a blower. And it cools in the process of being transferred and the biodegradable composition using polylactic acid is completed.

  Next, 40% by weight of the above biodegradable composition is used as a base polymer, and 12% by weight of LDPE and 48% by weight of LLDPE are put into an extruder hopper, heated in a heating bowl (180-190 ° C., heating tea (heating) tee) An environmentally friendly biodegradable mulching film (Test Example 1) having a thickness of 0.01 to 0.02 mm was produced while maintaining 190 to 210 ° C and a heating top of 220 ° C. Then, the following samples were additionally manufactured with different amounts of the base polymer and the biodegradable composition.

(1) Test example 2 thru | or comparative example The mulching film of the PP material which does not add said biodegradable composition (comparative example 2), the mulching film which added 5 weight% of biodegradable compositions (test example 2) Was produced respectively.

(2) Test Example 2 to Comparative Example 3
A PS mulching film (Comparative Example 3) to which the biodegradable composition was not added and a mulching film (Test Example 3) to which 7% by weight of the biodegradable composition was added were produced.

(3) Test Example 4 to Comparative Example 4
A PE material mulching film (Comparative Example 4) to which the biodegradable composition was not added and a mulching film (Test Example 4) to which 5% by weight of the biodegradable composition was added were produced.

Experiment 1: The aerobic biodegradability test applicant for plastics under composting conditions asked the Korea Chemical Research Institute to conduct an experiment, and the contents of the report were organized as follows.

Material component analysis (1) Material test sample Before conducting the biodegradation test, elemental analysis (NCHO) is performed on the sample to be tested, and the test sample is biodegradation of Environmental Department No. 2004-110. The test sample 1 was cut and prepared based on the plastic biodegradation test business process guideline specified by the testing / designating synthetic resin testing organization.

(2) Material test equipment and method An element analyzer having the model name EA1110 Element Analyes System (CE Instruments Co., Italy) is used. Among the elemental components, N, C, and H are pyrolyzed at 1800 ° C. about 1 mg of the material test material and then analyzed using a TCD detector. The remaining component O is about 1 mg of the material test sample at 1000 ° C. After pyrolysis, analysis is performed using a TCD detector.

(3) Material test results

2. Biodegradation degree test (1) Biodegradation degree sample The sample of the above test example 1 was cut into a size of 2 × 2 cm to prepare a biodegradation degree test sample.

(2) Test principle and method Biodegradability test samples are generated during the aerobic composting process based on the Korean Industrial Standard KSM3100-1 “Measurement of aerobic biodegradability and disintegration of plastics under composting conditions” The amount of carbon dioxide is measured to measure the degree of biodegradation of the degradable synthetic resin that is an organic compound. Here, compost is a mixture of plant residues obtained by biodegradation, and other organic matter and organic matter that regulates soil containing specific inorganic components. Composting means an aerobic process for compost generation. The test principle is that the sample and reference material are put into compost and fixed, and then put into a composting container so that composting occurs for a certain period of time. The amount of carbon dioxide generated during the composting process is measured continuously or periodically, and the degree of biodegradation is determined by the ratio between the theoretical maximum carbon dioxide generation amount of the sample and reference material and the actual carbon dioxide generation amount. Come to decide. Here, the theoretical maximum carbon dioxide generation amount (ThCO2) is calculated from the total organic carbon content of the sample or reference material, and the total organic carbon content is determined by the above material component analysis, and the theoretical maximum carbon dioxide generation amount is It is calculated by the following formula.
ThCO2 = MTOT × CTOT × 12/44
MTOT: Total amount of dry solids (g) among the test substances added to the compost at the start of the test
CTOT: ratio of organic carbon contained in the total dry solid content of the test substance (g / g)
44: Molecular weight of carbon dioxide 12: Molecular weight of carbon

The amount of carbon dioxide actually generated is the amount of carbon dioxide generated in a state of being directly connected to each of the above composting containers 1: 1 in a transparent glass tube on which potassium hydroxide and barium chloride mixed aqueous solution is placed. They are collected and measured, and are calculated by the following formula. All these facts are explained in detail in the above Korean industrial standards, so further detailed explanation is omitted.

（ＣＯ２）ｔ＝ｔ時間の間、試料または標準物質から発生された二酸化炭素の累積量
（ＣＯ２）ｂ＝堆肥のみ盛られた容器で発生した二酸化炭素の累積量
Ｄｔ：ｔ時間の間の生分解度 The biodegradation degree is calculated based on the following formula.

(CO2) Cumulative amount of carbon dioxide generated from the sample or reference material during t = t time (CO2) b = Cumulative amount of carbon dioxide generated in a container filled only with compost Dt: Raw material during t time Decomposition degree

  All the contents described above are based on the Korean industry standard KSM3100-1.

(3) Characteristic analysis of compost Compost was manufactured at Shomei University and prepared after a composting period of two months. The characteristics analyzed are shown in the following table.

  Here, the total dry solid content is the amount of solid content obtained after drying so that the compost becomes a constant weight at 105 ° C., and the volatile solid content was extracted from the above total dry solid content after incineration at 550 ° C. This is the amount of solids obtained later. Volatile solid content is an indicator of organic content.

  As seen from the “Remarks” column in the above table, the above compost has moisture content, acidity, solid content, and C / N ratio all within the standard range. Judged to meet the requirements.

(4) Measurement of biodegradability of Test Example 1 and standard substance The three samples of Test Example 1 described above were fixed together with the above compost and placed in three composting containers, and observed for 59 days. Further, TLC grade cellulose of 20 μm or less was used as a standard substance, which was fixed together with the above compost and placed in a composting container, and observed for 59 days. And only the compost which does not put a test piece and a standard substance was put in the composting container, and it observed for 59 days. For each case, the amount of carbon dioxide generated is measured every day, and the average value (CO2) Bmean of the amount of carbon dioxide generated in the three composting containers is calculated based on the above formula. An average value (Dt) of the degree of decomposition was also calculated, and the result was represented by the following graph.

<グラフ１ 二酸化炭素発生量>

<Graph 1 Carbon Dioxide Generation>

<グラフ２生分解度>

<Graph 2 degree of biodegradation>

  According to the graph 1 above, it can be confirmed that the amount of carbon dioxide generated in the compost in which Test Example 1 is fixed is larger than that of the other compost, and the amount of carbon dioxide generated gradually increases as time passes. Then, after a certain period of time, it was found that the biodegradation was actively progressing with a rapid increase. Further, according to Graph 2, Test Example 1 has a low carbon dioxide generation amount and biodegradability at the beginning compared with cellulose which is a standard substance, but increases rapidly as time passes like cellulose. Therefore, it can be seen that biodegradation is in progress in a natural state like cellulose. And, when comparing the biodegradation degree with respect to the standard substance and the specimen at 59 days, it is as shown in the following <Table 2>.

  As can be confirmed from the above table, in Test Example 1, the biodegradation rate increased rapidly after a certain period of time, and a biodegradation rate of 52.2% was observed at 59 days. It reaches 71.7% of cellulose.

Experiment 2: Biodegradation measurement by MITImethod (1) Experimental method After collecting and mixing from more than 10 places of sludge, compost, and soil, culturing for 10 days or more while supplying synthetic medium once a day, This was used as an inoculum microorganism. Then, the amount of oxygen consumed in the process in which the inoculated microorganism decomposes the polymer was measured using a respirometer. In this experiment, the same cellulose as that used in Experiment 1 was used as the standard substance.

(2) Experimental results The oxygen consumption (mg / L) measured with a respirometer is summarized in the following table.

  According to the above table, it was confirmed that Test Examples 2 to 4 had a lower amount of oxygen consumption than the reference material, but were significantly higher than Comparative Examples 2 to 4. Hereinafter, a method for cultivating rice using the above-described rice seed soaking / decomposing mulching film a 'will be described in detail.

  Referring to FIGS. 14 to 32, the rice cultivating method using the rice seed soaking and decomposing mulching film according to one embodiment of the present invention is attached to the through hole a1 ′ perforated at regular intervals and the periphery of the through hole a1 ′. A rolled rice-spotted biodegraded mulching film a ′ (providing the above-described rice-spotted biodegradable mulching film a ′ in the form of a wound roll) (S1 ′), A rice dot seeding decomposition mulching film laying step (S2 ′) for laying the wound rice roll seeding decomposition mulching film a ′ in a roll form at regular intervals on the bottom surface b ′ of the rice field; Rice germination step (S3 ′) in which rice a3 ′ attached to decomposed mulching film a ′ germinates through through hole a1 ′, and division step (S4) in which germinated rice a3 ′ is divided ), And field rice point 播生 decomposition mulching film decomposition step of the bottom b 'laid been rice point 播生 decomposition mulching film a to' is extinguished is spontaneous decomposition (S5 ') can contain.

  The providing step (S1 ′) of the rice dot seed disintegrating mulching film a ′ in the form of a wound roll includes a through hole a1 ′ perforated at regular intervals and a rice a3 ′ attached around the through hole a1 ′. A step of providing the above-described rice dot biodegradable mulching film a ′ in the form of a wound roll, wherein the step (S1 ′) includes the biodegradable mulching film a ′ unfolded by the moving means 10 ′. A moving step (S11 ′) for continuously moving, an adhesive applying step (S12 ′) for applying an adhesive for attaching rice a3 ′ to the biodegradable mulching film a ′ by the adhesive applying means 20 ′, and a punching means 30 ′. A perforating step for perforating the biodegradable mulching film a ′ (S13 ′), and an adhesive for the biodegradable mulching film a ′ is applied by the rice adhesion means 40 ′. Rice attaching step (S14 ') for attaching rice a3' to the formed part a2 ', and winding step (S15) for final winding of biodegradable mulching film a' to which rice a3 'has been attached by winding unit 150' ') Can be included. For reference, before explaining the step of providing the rolled-up rice spot sowing decomposition mulching film a ′ (S1 ′), the provision of the rolled-up rice spot sowing decomposition mulching film a ′ will be described. The apparatus used will be described first.

  As shown in FIGS. 16 to 27, the apparatus used to provide the above-rolled rice-spotted biodegradable mulching film a ′ is unrolled for perforating and attaching rice to the biodegradable mulching film a ′. The biodegradable mulching film a ′ has a moving means 10 ′ for continuously moving, an adhesive application means 20 ′ for applying an adhesive for attaching rice to the biodegradable mulching film a ′, and a biodegradable mulching film a ′. A drilling means 30 ′ for drilling, a rice adhesion means 40 ′ for attaching the rice a3 ′ to a part a2 ′ to which the adhesive of the biodegradable mulching film a ′ is applied, and a power means 50 ′ for providing power. It is formed.

  The moving means 10 ′ is configured to continuously move the biodegradable mulching film a ′ that has been unrolled for drilling and attaching rice to the biodegradable mulching film a ′, and for this purpose, the moving means 10 ′. Is a first rotating unit 110 ′ for switching the moving direction of the biodegradable mulching film a ′ that moves while contacting and rotating the biodegradable mulching film a ′ supplied to the biodegradable mulching film manufacturing apparatus according to the present invention; A second rotating unit 120 ′ that switches the moving direction of the biodegradable mulching film a ′ that moves while contacting and rotating the biodegradable mulching film a ′ that has been switched in contact with the first rotating unit 110 ′; Rotating in contact with the biodegradable mulching film a ′, which has been switched in contact with the second rotating part 120 ′ A third rotating part 130 ′ for switching the moving direction of the biodegradable mulching film a ′ again, and a winding for final winding of the biodegradable mulching film a ′ to which the rice a3 ′ is adhered after passing through the third rotating part 130 ′. A handle 150 'can be included.

  The first rotating unit 110 ′ is configured to switch the moving direction of the biodegradable mulching film a ′ that moves while rotating in contact with the biodegradable mulching film a ′ supplied to the biodegradable mulching film manufacturing apparatus according to the present invention. In order to be able to smoothly change the moving direction by abutting with the easy rotation and biodegradable mulching film a ′, it can be formed into a cylindrical rod shape, one end of which will be described later. The power unit 50 'is connected to rotate using the power provided by the power unit 50'. Particularly in the present invention, the first rotating part 110 ′ is not limited to simply switching the moving direction of the biodegradable mulching film a ′ that moves while rotating in contact with the biodegradable mulching film a ′. The adhesive application means 20 ′ and the perforation means 30 ′ perform a function of assisting the adhesive application operation and the perforation operation to be performed smoothly. For this purpose, the first rotating part 110 ′ is provided on the outer peripheral surface. The portion of the biodegradable mulching film a ′ that contacts the first rotating part 110 ′ including the protruding part 111 ′ that protrudes a certain length in contact with the first rotating part 110 ′ and that changes its direction is in contact with the first rotating part 110. In addition to being separated from the outer peripheral surface of the fixed length by a certain length, it is possible to easily perform adhesive application and perforation work at the above-mentioned site by being pulled tightly. To.

  The protrusion 111 ′ is a portion formed to protrude from the outer peripheral surface of the first rotating portion 110 ′ by a certain length. More specifically, the protrusion 111 ′ protrudes from the center of the protrusion 111 ′ by a certain length. A protrusion 1111 ′ and a second protrusion 1112 ′ that protrudes from the left and right sides of the first protrusion 1111 ′ by a predetermined length and protrudes relatively shorter than the protrusion length of the first protrusion 1111 ′; it can. The first protrusion 1111 ′ is a portion that protrudes from the outer peripheral surface of the first rotating part 110 ′, more specifically, at a central part of the protruding part 111 ′. Of course, the part of the biodegradable mulching film a ′ that contacts and rotates with the first rotating part 110 ′ is separated from the outer peripheral surface of the first rotating part 110 ′ by a certain length. As shown in FIG. 18, the adhesive applying means 20 ′, which will be described later, can easily apply the adhesive to the portion of the biodegradable mulching film a ′ that contacts the first protrusion 1111 ′ by being pulled. In addition, as shown in FIG. 18, the perforating means 30 ′ described later is pulled apart from the outer peripheral surface of the first rotating part 110 ′ by a certain length as well as the biodegradable mulching film a ′. It will be able to pierce the easy through-hole a1 'to the site. For reference, when the biodegradable mulching film a 'is in close contact with the outer peripheral surface of the first rotating part 110', there is a problem that not only the drilling operation can be smoothly performed, but also the manufacturing cost is increased. The protruding shape of the first protrusion 1111 ′ is preferably chamfered so that both protruding end portions are inclined or formed in a round shape. This is to prevent damage to the mulching film a ′. In addition, the second protrusion 1112 ′ is a portion that is spaced apart from the first protrusion 1111 ′ by a predetermined length and protrudes to a length relatively shorter than the protrusion length of the first protrusion 1111 ′. The second protrusion 1112 ′ is additionally formed, so that the biodegradable mulching film a ′ separated from the outer peripheral surface of the first rotating part 110 ′ by a certain length is pulled more naturally. It becomes possible to prevent being damaged. The protruding shape of the second protrusion 1112 'is preferably chamfered so that both protruding ends are inclined or formed in a round shape.

  The second rotating part 120 ′ is in contact with the first rotating part 110 ′ and changes the moving direction of the biodegradable mulching film a ′ that moves while rotating in contact with the biodegradable mulching film a ′ that has been switched in direction. Further, the adhesive application site a2 of the biodegradable mulching film a ′, which is configured to be switched and is normally switched so as to move upward while rotating in contact with the first rotating part 110 ′. The second rotating part 120 ′ is used for the rice attachment process for attaching the rice a3 to “and for the purpose of switching the moving direction of the biodegradable mulching film a ′ to the downward moving direction. The moving direction is switched while rotating in contact with a ′. In addition, the biodegradable mulching film a ′ is pulled tightly so that the second rotating part 120 ′ can smoothly perform the adhesive application process and the perforating process centered on the first rotating part 110 ′. It also performs an auxiliary role. For reference, the biodegradable mulching film a ′ is unfolded before the rice attachment process is performed on the biodegradable mulching film a ′ whose direction is changed while rotating in contact with the second rotating part 120 ′. Are arranged again and the biodegradable mulching film a ′ is pulled tightly, an additional fourth rotating part 140 ′ is interposed between the second rotating part 120 ′ and a third rotating part 130 ′ described later. Can further be included.

  The third rotating part 130 'is in contact with the second rotating part 120' and changes the direction of movement of the biodegradable mulching film a 'that moves while rotating in contact with the biodegradable mulching film a' whose direction has been switched. The third rotating part 130 ′ is configured to be switched again so that the step of attaching the rice a3 ′ to the part a2 ′ to which the adhesive of the biodegradable mulching film a ′ is applied can be performed. The direction of the biodegradable mulching film a ′ that moves while rotating in contact with the biodegradable mulching film a ′ is switched.

  The winding unit 150 ′ is configured to finally wind up the biodegradable mulching film a ′ to which the rice a3 ′ is attached after passing through the third rotating unit 130 ′, and the winding unit 150 ′ performs final winding. If the attached biodegradable mulching film a 'is spread and applied to the rice field, the rice can be grown by the rice seeding method without raising seedlings or rice planting work. In addition, the winding unit 150 ′ is not limited to simply winding the biodegradable mulching film a ′ to which the rice a3 ′ is attached while performing only rotation. As shown in FIGS. The rice a3 ′ is prevented from being excessively swollen or damaged while being rolled up, as will be described later. This will be described in detail with respect to the hydraulic cylinder 520 ′ and the winding unit auxiliary moving unit 530 ′.

  The adhesive application means 20 ′ is configured to apply an adhesive for attaching rice to the biodegradable mulching film a ′ moved by the moving means 10 ′. More specifically, as shown in FIG. Adhesive for attaching rice to the biodegradable mulching film a ′ rotating in contact with the protruding portion 111 ′ of the rotating portion 110 ′ (more specifically, the first protrusion 1111 ′ protruding so as to protrude most at the protruding portion 111 ′). Will come to apply. For this reason, the adhesive application means 20 ′ is formed only at the part of the biodegradable mulching film a ′ formed at a position corresponding to the first protrusion 1111 ′ of the protrusion 111 ′ and in contact with the first protrusion 1111 ′. Can be applied, and an adhesive application unit moving unit 220 ′ that can move the adhesive application unit 20 ′ toward the first rotating unit 110 ′.

  The adhesive application part 210 ′ is formed at a position corresponding to the first protrusion 1111 ′ of the protrusion 111 ′ and is in contact with the first protrusion 1111 ′ that protrudes most on the outer peripheral surface of the first rotation part 110 ′. The structure is such that an adhesive can be applied only to the decomposed mulching film a ′, and the end of the adhesive application part 210 ′ is coated with an adhesive so that the adhesive can be applied easily. A connecting pipe branched from a container in which the adhesive is stored is connected to the adhesive application unit 210 ′ so that the adhesive can be supplied. For reference, the adhesive application unit 210 ′ includes a separate opening / closing means that can prevent the adhesive from being ejected through the adhesive application unit 210 ′ when the adhesive application process is not performed due to the necessity of work. .

  As shown in FIGS. 18 and 19, the adhesive application unit moving unit 220 ′ can move the adhesive application unit 20 ′ so as to approach or move away from the first rotating unit 110 ′. In the present invention, the adhesive applying means 20 ′ is rotated around the biodegradable mulching film a ′ rotating in close contact with the first rotating part 110 ′ around the first rotating part 110 ′. Since the adhesive can be applied to the periphery of the biodegradable mulching film a ′ that protrudes most on the outer peripheral surface of the first rotating part 110 ′, the adhesive applying means 20 ′ is used as the first rotating part. As shown in FIG. 18 by moving to a point separated by a certain length around 110 ′ so as to be able to come into contact with the biodegradable mulching film a ′, and when the adhesive application process does not proceed, As shown in 19, it is necessary to configure such that 'the adhesive applying means moving portion 220 so as away from the periphery of' the first rotating portion 110. A configuration such as an electronically controlled hydraulic cylinder can be used for the adhesive application means moving unit 220 '.

  The perforating means 30 ′ is configured to perforate a through-hole a1 ′ in the biodegradable mulching film a ′ moved by the moving means 10 ′. More specifically, as shown in FIG. 110 ′ protruding portion 111 ′ is spaced apart from the outer peripheral surface of the first rotating portion 110 ′ by a certain length to expand (more specifically, between the first protrusion 1111 ′ and the second protrusion 1112 ′ of the protruding portion 111 ′). A through-hole a1 'is formed in the biodegradable mulching film a' which is separated and expanded by (1). For this purpose, the punching means 30 ′ is formed at a position corresponding to the space between the first protrusion 1111 ′ and the second protrusion 1112 ′ of the protrusion 111 ′, and the first protrusion 1111 ′ and the second protrusion 1112 are formed. A perforating part 310 ′ for enabling easy perforation to be made in a portion of the biodegradable mulching film a ′ that is tightly pulled between and a perforating means 30 ′ on the first rotating part 110 ′ side A piercing means moving part 320 ′ that can be moved may be included. For reference, since the adhesive applying means 20 ′ and the punching means 30 ′ all perform the work around the first rotating part 110 ′, the adhesive applying means 20 ′ and the punching means 30 ′ are configured as described above. It is preferable to be positioned symmetrically about the rotating part 110 ′.

  The perforated part 310 ′ is formed at a position corresponding to the space between the first protrusion 1111 ′ and the second protrusion 1112 ′ of the protrusion 111 ′, and is formed between the first protrusion 1111 ′ and the second protrusion 1112 ′. The structure of the biodegradable mulching film a ′ that has been pulled tightly can be easily perforated, and can easily be perforated in the position of the biodegradable mulching film a ′ that has been pulled tightly. Therefore, the end of the perforated part 310 'can be easily perforated in a wider range than heat cutting means such as a heat ray (that is, if the heat is brought into contact with a tightly pulled part, cutting is performed. The perforated part 310 ′ is connected to a power source part so that electricity can be supplied to heat generating means such as a heat ray. For reference, when the drilling process is not performed on the punching unit 310 ′ due to the necessity of work, a separate power source is used to prevent a safety accident or the like from occurring due to continuous operation of heat generating means such as a hot wire. A blocking means can be included.

  As shown in FIGS. 18 and 19, the punching means moving part 320 ′ is configured to move the punching means 30 ′ so as to approach or move away from the first rotating part 110 ′. In the present invention, the perforating means 30 ′ is rotated around the first rotating part 110 ′ around the biodegradable mulching film a ′ rotating in close contact with the first rotating part 110 ′, more specifically, the first protrusion 1111. The biodegradable mulching film a ′, which is expanded by projecting on the outer peripheral surface of the first rotating part 110 ′, is formed between “and the second protrusion 1112 ′” so that a through hole a1 ′ can be formed. Therefore, during the perforating step, as shown in FIG. 18, the perforating means 30 ′ can be moved to a point separated by a certain length around the first rotating part 110 ′ to be brought into contact with the biodegradable mulching film a ′. If the drilling step for forming the through hole a1 ′ is not performed, the punching means moving unit 320 ′ is arranged so as to be separated from the periphery of the first rotating unit 110 ′ as shown in FIG. Such a configuration is required. The punching means moving portion 320 'can utilize a configuration such as an electronically controlled hydraulic cylinder, similar to the adhesive application means moving portion 220'.

  The rice attachment means 40 ′ is configured to attach the rice a3 ′ to the part a2 ′ to which the adhesive of the biodegradable mulching film a ′ moved by the movement means 10 ′ is applied, and the third rotating part 130. Rice a3 'is attached to the adhesive application part a2' of the biodegradable mulching film a 'rotating in close contact with the rice and the rice a3 is efficiently applied to the part a2' where the adhesive is periodically applied at regular intervals. The rice attachment perpetual 40 'accommodates rice a3' and allows the rice a3 'accommodated widely to be spread and scattered, and the rice receptacle The rice a3 ′ is efficiently and easily attached to the adhesive application sites a2 ′ at regular intervals of the biodegradable mulching film a ′ that is rotated by periodically rolling 410 ′ and contacts the third rotating part 130 ′ to switch the direction. Can May include a rice attachment means driving unit 420 'that way.

  The rice receiver 410 ′ is configured to receive the rice a3 ′ and allow the accommodated rice a3 ′ to be unfolded and scattered widely, and to be moved by the moving means 10 ′ while being unfolded widely. In order to attach the rice a3 ′ to the adhesive application site a2 ′ of the decomposed mulching film a ′, the rice receiver 410 ′ in which the rice a3 ′ is accommodated can be spread and scattered in the rice a3 ′ accommodated therein. It is preferably formed in a form that is long in the long direction and has a certain width.

  As shown in FIGS. 21 and 22, the rice attachment means driving unit 420 ′ is a biodegradable mulching film a that periodically rolls the rice pad 410 ′ and contacts the third rotating unit 130 ′ to switch the direction. In this configuration, the rice a3 ′ can be efficiently and easily attached to the adhesive application site a2 ′ formed at a constant interval, and the rice attachment means driving unit 420 ′ is described later. From the first drive shaft 421 ′ rotated by the power provided from the power means 50 ′, the second drive shaft 422 ′ rotated in conjunction with the first drive shaft 421 ′, and the axial center of the second drive shaft 422 ′. When the second drive shaft 422 ′ rotates, the rolling portion 423 ′ that periodically rolls the rice receiver 410 ′ on which the rice a3 ′ is loaded can be included.

  The first drive shaft 421 ′ is a portion that is rotated by power provided from power means 50 ′, which will be described later, and receives the supply of power from power means 50 ′, which will be described later. It will perform the driving role.

  The second drive shaft 422 ′ is a portion that rotates in conjunction with the first drive shaft 421 ′, and the second drive shaft 422 ′ is positioned in parallel with the first drive shaft 421 ′, and The first drive shaft 421 ′ is rotated in conjunction with the first drive shaft 421 ′ in response to the transmission of the rotational force of the first drive shaft 421 ′ in conjunction with the gear engagement with the first drive shaft 421 ′. In order to compensate for the fact that it is difficult to stably drive a rolling part 423 ′, which will be described later, by using only the first drive shaft 421 ′, the second drive shaft 422 ′ is formed in two or more plural pieces. A rolling part 423 ′, which will be described later, can be stably driven by the two drive shafts 422 ′.

  The rolling part 423 ′ is decentered from the shaft center of the second drive shaft 422 ′, so that the rice receiver 410 ′ loaded with rice a3 ′ is rotated as the second drive shaft 422 ′ rotates. As shown in FIG. 23, one side of the rolling part 423 ′ is connected to the rice pad 410 ′, and the rotating shaft 4231 ′ of the rolling part 423 ′ is connected to the second part. When the second drive shaft 422 ′ rotates by being decentered and coupled off the axis of the drive shaft 422 ′, the rotation decentered and decoupled from the axis of the second drive shaft 422 ′. The shaft 4231 ′ rotates while drawing a circle, and thereby the rolling portion 423 ′ also rotates while drawing a circle. At this time, the rolling portion 4 As shown in FIGS. 21 and 22, while the rice receiver 410 ′ connected to one side of 3 ′ is also periodically rolled, the rice receiver 410 ′ periodically approaches the third rotating part 130 ′. As soon as the rice paddle 410 ′ approaches the third rotating part 130 ′, the rice a3 ′ loaded on the rice pad 410 ′ and unfolded widely comes into close contact with the third rotating part 130 ′. Then, the biodegradable mulching film a ′ that rotates is attached to the part a2 ′ to which the adhesive is attached at regular intervals. At this time, the rotation of the rolling part 423 ′, that is, the period of rolling of the rice pad 410 ′, causes the adhesive to adhere to the biodegradable mulching film a ′ that rotates in close contact with the third rotation part 130 ′. Preferably, the rice a3 ′ can be efficiently and easily attached to the adhesive application site a2 ′ formed at a constant interval of the biodegradable mulching film a ′. become.

  The power means 50 ′ is configured to provide power necessary for driving the rice dot seeding decomposition mulching film manufacturing apparatus according to the present invention, and more specifically, the first to fourth rotating parts of the moving means 10 ′. The power required for driving 110 to 140 ′, the winding unit 150 ′, the rice attachment means driving unit 420 ′, and the like is provided. For this purpose, the power unit 50 ′ is provided at one end of the winding unit 150 ′ and a motor unit 510 ′ that provides power necessary for driving the moving unit 10 ′, the rice adhesion unit driving unit 420 ′, and the like. A hydraulic cylinder 520 ′ that is connected to move the winding unit 150 ′ to the left and right at a constant cycle, and one side 532 ′ is connected to the other end of the winding unit 150 ′ around the rotating shaft 531 ′. 533 ′ is connected to the inclined chamfered surface 5341 ′ of the rotating cam 534 ′, and is rotated left and right at a constant cycle by the rotation of the cam 534 ′, thereby moving the winding unit 150 ′ to the left and right at a constant cycle. A winding auxiliary movement unit 530 ′ for assisting the action of the hydraulic cylinder 520 ′ can be included.

  The motor unit 510 ′ is configured to provide power necessary for driving the moving unit 10 ′, the rice adhering unit driving unit 420 ′, etc., and the drive shaft of the motor unit 510 ′ is the moving unit 10 ′. The first to fourth rotating parts 110 to 140 ′ and the winding part 150 ′, the first drive shaft 421 ′ of the rice attachment means driving part 420 ′, etc. are connected using a belt and a pulley, respectively. The driving force generated by the motor unit 510 ′ is transmitted to the moving unit 10 ′, the rice attachment unit driving unit 420 ′, etc., and the first to fourth rotating units 110 to 140 ′ and the winding unit 150 ′ of the moving unit 10 ′. The first drive shaft 421 ′ of the rice attachment means drive unit 420 ′ is rotated.

  The hydraulic cylinder 520 ′ is connected to one end of the winding unit 150 ′ to move the winding unit 150 ′ to the left and right at a constant cycle, and is referred to in the description of the winding unit 150 ′. As described above, if the biodegradable mulching film a ′ to which the rice a3 ′ is attached is simply wound, only the portion to which the rice a3 ′ is attached swells, and the wound biodegradable mulch is wound. Since the volume of the film a ′ becomes excessively large, there is a problem that not only transportation and working difficulties are caused, but also the biodegradable mulching film a ′ itself is damaged. In the present invention, the hydraulic cylinder 520 ′ is connected to one end of the winding unit 150, and the hydraulic cylinder 520 ′ moves the left end of the winding unit 150 ′ to the left at a constant cycle as shown in FIGS. The portion of the biodegradable mulching film a ′ to which the rice a3 ′ is attached in the biodegradable mulching film a ′ that is wound around the winding portion 150 ′ is not excessively wound only on one side, and is uniformly distributed to the left and right. Thus, the above-described problems caused by the excessive volume of the wound biodegradable mulching film a ′ can be solved.

  The winding unit auxiliary moving unit 530 ′ is connected to the other end of the winding unit 150 ′ and assists the function of the hydraulic cylinder 520 ′ that moves the winding unit 150 ′ at a constant period. As shown in FIG. 25, one side 532 ′ is connected to the other end of the winding part 150 ′ around the rotating shaft 531 ′, and the other side 533 ′ is an inclined chamfered surface of the rotating cam 534 ′. It is connected to 5341 ′ and rotated to the left and right at a constant cycle by the rotation of the cam 534 ′. That is, as shown in FIGS. 26 and 27, the other side 533 ′ of the winding portion auxiliary moving portion 530 ′ connected to the inclined chamfered surface 5341 ′ of the cam 534 ′ is rotated by the cam 534 ′. As the driving force for rotating the cam 534 ′ is preferably transmitted from the motor unit 510 ′, the cam 534 ′ periodically moves to the left and right along the inclined chamfered surface 5341 ′. As' moves left and right, the other end of the winding unit 150 ′ connected to the one side 532 ′ of the winding unit auxiliary moving unit 530 ′ is also moved left and right around the rotation shaft 531 ′. As described above, the winding unit 150 ′ that moves left and right at a constant cycle is connected to the other end. The winding unit 150 ′ moves to the left and right at a constant cycle by the operation of the winding unit auxiliary moving unit 530 ′. Therefore, the winding unit 150 ′ includes the hydraulic cylinder 520 ′ and the winding unit auxiliary moving unit located on both sides thereof. As shown in FIG. 26 and FIG. 27, the biodegradable mulching film a ′ to which the rice a3 ′ that is wound up by performing the left-right interlocking movement with a constant and regular cycle is attached excessively as shown in FIGS. It is possible to effectively prevent swelling and damage.

  Hereinafter, the detailed process of the step (S1 ') of providing the above-rolled rice dot seed disintegrated mulching film a' performed by the above-described apparatus will be described in detail.

  The moving step (S11 ′) is performed so that the biodegradable mulching film a ′ unfolded by the moving means 10 ′ can be subjected to steps such as adhesive application, drilling, rice attachment, and winding. The biodegradable mulching film a, which is a process of continuously moving the decomposed mulching film a ′, and is moved by the first rotating unit 110 ′ that rotates in contact with the biodegradable mulching film a ′ supplied in an unfolded state. The moving step (S111 ′) by the first rotating unit that allows the adhesive attaching process and the punching process to be performed while switching the moving direction of “′”, and the direction switching in contact with the first rotating unit 110 ′. Direction of the biodegradable mulching film a ′ moved by the second rotating part 120 ′ rotating in contact with the biodegradable mulching film a ′ The moving step (S112 ′) by the second rotating unit to be switched, and the third rotating unit 130 ′ that rotates in contact with the biodegradable mulching film a ′ that has been switched in contact with the second rotating unit 120 ′. It can be performed by a moving step (S113 ′) by the third rotating unit that allows the rice attachment process to be performed while switching the moving direction of the moving biodegradable mulching film.

  In particular, the moving step (S111 ′) by the first rotating part 110 ′ is brought into contact with the first rotating part 110 ′ by the protruding part 111 ′ protruding from the outer peripheral surface of the first rotating part 110 ′ by a certain length. The direction-switching biodegradable mulching film a ′ is in contact with the protruding portion 111 ′, and is separated from the outer peripheral surface of the first rotating portion 110 ′ by a certain length. And enabling the drilling operation to be easily performed. More specifically, as described above, the first protrusion 1111 ′ protruding a fixed length at the center of the protrusion 111 ′ and the first protrusion separated from each other by a fixed length on the left and right sides of the first protrusion 1111 ′. The second protrusion 1112 ′ protruding to a length relatively shorter than the protruding length of 1111 ′ is formed, so that the first of the biodegradable mulching film a ′ rotating in contact with the first rotating part 110 ′ is formed. The part in contact with the protrusion 1111 ′ is not only separated from the outer peripheral surface of the first rotating part 110 ′ by a certain length, but also pulled tightly, as shown in FIG. An adhesive is easily applied to a portion of the decomposed mulching film a ′ that contacts the first protrusion 1111 ′, and the punching means 30 ′ is separated from the periphery of the first protrusion 1111 ′ of the biodegradable mulching film a ′. A biodegradable mulching film a ′ spaced apart from the outer peripheral surface of the first rotating part 110 ′ by a certain length is formed by enabling easy drilling in the expanded portion and additionally forming the second protrusion 1112 ′. This makes it possible to prevent damage of course as well as to be pulled more tightly.

  The adhesive application step (S12 ′) is a process of applying the rice a3 ′ adhesion adhesive to the biodegradable mulching film a ′ by the adhesive application means 20 ′, and more specifically, as shown in FIG. The biodegradable mulching film a ′ rotating in contact with the protrusion 111 ′ of the first rotating part 110 ′ (more specifically, the first protrusion 1111 ′ protruding so as to protrude most at the protrusion 111 ′) The adhesive for a3 ′ adhesion is applied. For this, the adhesive application means 20 ′ is formed at a position corresponding to the first protrusion 1111 ′ of the protrusion 111 ′ and rotates in close contact with the first rotation part 110 ′. More specifically, the adhesive can be applied to the periphery of the biodegradable mulching film a ′ that rotates in close contact with the first protrusion 1111 ′ that protrudes most on the outer peripheral surface of the first rotating part 110 ′. Therefore, as shown in FIG. 18, when the adhesive application process is performed, the adhesive application means 20 ′ is moved to a point separated from the periphery of the first rotating part 110 ′ by a certain length. When the adhesive application process is not performed, the adhesive application means 20 ′ is connected to the first rotating part 110 ′ as shown in FIG. Transfer process 'adhesive application means 20 by the' above adhesive applying means moving unit 220 to make remote from circumference is required.

  The perforating step (S13 ′) is a through hole process in which the biodegradable mulching film a ′ is perforated by the perforating means 30 ′, and more specifically, as shown in FIG. 18, the protrusion of the first rotating part 110 ′. The portion 111 ′ is expanded by being separated from the outer peripheral surface of the first rotating portion 110 ′ by a certain length (more specifically, the first protrusion 1111 ′ and the second protrusion 1112 ′ of the protrusion 111 ′ are separated and expanded). ) Through-hole a1 ′ is formed in the biodegradable mulching film a ′. For this purpose, the punching means 30 ′ is formed at a position corresponding to the space between the first protrusion 1111 ′ and the second protrusion 1112 ′ of the protrusion 111 ′, and the first protrusion 1111 ′ and the second protrusion 1112 are formed. As shown in FIG. 18, the perforated part 310 ′ can be easily perforated at the site of the biodegradable mulching film a that has been pulled tightly between When the perforating process is performed, the perforating means 30 ′ is moved to a point separated from the periphery of the first rotating part 110 ′ by a certain length so that it can come into contact with the biodegradable mulching film a ′. When the drilling step for forming the through hole a1 ′ is not performed, as shown in FIG. 19, the punching means moving section that keeps the drilling section 310 ′ away from the periphery of the first rotating section 110 ′. Transfer process 'perforation means 30 by' 20 is required.

  The rice attachment step (S14 ′) is a process of attaching rice a3 ′ to the part a2 ′ to which the adhesive of the biodegradable mulching film a ′ is applied by the rice attachment means 40 ′. As shown in FIG. 22, the first drive shaft 421 ′ rotated by receiving the driving force transmitted by the power unit 50 ′ rotates the second drive shaft 422 ′ connected by gear meshing in conjunction with each other. Accordingly, the rotating shaft 4231 ′ of the rolling part 423 ′ eccentrically connected to one end of the first driving shaft 422 ′ rotates while drawing a circle by the rotation of the second driving shaft 422 ′. However, the rolling part 423 ′ is also rotated while drawing a circle. At this time, the rice receiver 410 ′ connected to one side of the rolling part 423 ′ is also periodically rotated. The rice receiver 410 'periodically approaches or moves away from the third rotating part 130' while being rolled, and the rice receiver 410 'approaches the third rotating part 130' as soon as the rice receiver 410 'approaches the third rotating part 130'. The rice a3 'that has been stacked and spread widely is attached to the part a2' to which the adhesive of the biodegradable mulching film a 'rotating in close contact with the third rotating part 130' is attached at regular intervals. become. At this time, the rotation of the rolling part 423 ′, that is, the period of rolling of the rice pad 410 ′, causes the adhesive to adhere to the biodegradable mulching film a ′ that rotates in close contact with the third rotation part 130 ′. Preferably, the rice a3 ′ can be efficiently and easily attached to the adhesive application site a2 ′ formed at a constant interval of the biodegradable mulching film a ′. become.

  The winding step (S15 ′) is a final winding process of the biodegradable mulching film a ′ to which the rice a3 ′ is adhered by the winding unit 150 ′, and the rice a3 ′ is adhered as described above. If the biodegradable mulching film a ′ is simply wound only, the portion to which the rice a3 ′ is attached swells, and the volume of the wound biodegradable mulching film a ′ is excessively large. As shown in FIGS. 26 and 27, the present invention not only has difficulties in transportation and work, but also causes a problem that the biodegradable mulching film a ′ itself is damaged. As shown in the drawing, in the winding step (S5 ′), the hydraulic cylinder 520 ′ is connected to one end of the winding unit 150 ′ so that the hydraulic cylinder 520 ′ is connected to one end of the winding unit 150 ′ at a constant period. Is moved to the left and right, so that the portion of the biodegradable mulching film a ′ to which the rice a3 ′ is attached is not excessively wound only on one side and is uniformly left and right. Thus, the above-described problems caused by the excessive volume of the wound biodegradable mulching film a ′ can be solved. Particularly, one end 532 ′ is connected to the other end of the winding portion 150 ′ around the rotation shaft 531 ′ at the other end of the winding portion 150 ′, and the other side 533 ′ is connected to the rotating cam 534 ′. The winding part auxiliary moving part 530 ′ connected to the inclined chamfered surface 5341 ′ is connected separately, and the winding part auxiliary moving part 530 connected to the inclined chamfered surface 5341 ′ of the cam 534 ′. The 'other side 533' is periodically moved along the chamfered surface 5341 'inclined by the rotation of the cam 534' (in this case, the driving force for rotating the cam 534 'is preferably transmitted from the motor unit 510'). The one side 532 ′ of the winding unit auxiliary moving unit 530 ′ and the other end of the winding unit 150 ′ connected to the winding unit auxiliary moving unit 530 ′ are moved to the left and right at regular intervals while moving to the left and right. become. Therefore, as described above, the winding unit 150 ′ that moves to the left and right by the hydraulic cylinder 520 ′ is also moved by the operation of the winding unit auxiliary moving unit 530 ′ connected to the other end. Since the winding unit 150 ′ moves to the left and right at a constant cycle, the winding unit 150 ′ is stable and regularly operated at regular intervals by the operation of the hydraulic cylinder 530 ′ and the winding unit auxiliary moving unit 530 ′ located on both sides thereof. The biodegradable mulching film a ′ to which the rolled up rice a3 ′ is attached can be effectively prevented from being excessively swollen or damaged.

  The above-mentioned rice dot seeding decomposition mulching film laying step (S2 ′) is a step of laying the wound rice spot seeding decomposition mulching film a ′ on the bottom surface b ′ of the rice pad at regular intervals, and in particular, the mulching film. When the laying of the mulching film a ′ is completed in such a manner that the portion where the rice a3 ′ is attached to the bottom surface b ′ of the rice field a ′, the mulching film a ′ protects the rice a3 ′. In order to allow a3 ′ to germinate smoothly, it is possible to provide a heat retaining and moisturizing effect and prevent damage from birds. For this purpose, as shown in FIG. 28, the step (S2 ′) is performed by positioning a roll-shaped rice dot seeding decomposition mulching film a ′ wound around a rotating mulching film mounting section 60 ′, as shown in FIG. A spreading step (S21 ′) for unfolding the rice seed sowing decomposition mulching film a ′ wound together with the rotation of the stationary part 60 ′, and a rice dot sowing decomposition mulching film a unfolded in the spreading step (S21 ′). The upper surface of the bottom surface is pressed against the bottom surface b 'of the rice pad by the bottom surface of the mulching film pressing part 70' whose lower surface is equal to or lower than the bottom surface b 'of the rice field. A pressing and fixing step (S22 ′) for fixing to b ′ may be included.

  In the spreading step (S21 ′), the roll-shaped rice dot seedling decomposition mulching film a ′ wound around the rotating mulching film mounting portion 60 ′ is positioned and wound together with the rotation of the mulching film mounting portion 60 ′. 29 is a step of unfolding the rice seed sowing decomposition mulching film a ′. Referring to FIG. 29, a tractor-like equipment (that is, a tractor, a rice transplanter, a cultivator, which is not a specific equipment in the present invention, It can be constructed by using a general agricultural machine such as a management machine). A rice seed sowing decomposition mulching film a ′ in a roll form wound around the mulching film stationary section 60 ′ rotated by a device connected to the end of If the tractor is actuated (advanced) after positioning, the rotation of the mulching film mounting section 60 ' Location roles form of rice point 播生 decomposition mulching films' rice point 播生 decompose mulching film a 'a is as unfolds the bottom surface b' of the field while melting. At this time, the mulching film mounting part 60 'is configured to rotate by itself by a separate driving force, or one end of the rice dot seeding decomposition mulching film a' is fixed to the bottom surface b 'of the rice field. Also, it is configured to rotate by pulling the fixed biodegradable mulching film a ′.

  The pressing and fixing step (S22 ′) is a pressing of the mulching film in which the upper surface of the rice seed soaking and decomposing mulching film a ′ unfolded in the spreading step (S21 ′) is located at a lower or equal height to the bottom surface b ′ of the rice field. 29. Pressing the bottom surface b ′ of the rice field 70 ′ with the lower surface of the portion 70 ′ to fix the rice dot seeding decomposition mulching film a ′ to the bottom surface b ′ of the rice field. Referring to FIG. 29, the spreading step (S21 ′) The above-mentioned mulching film pressing part 70 ′ located at the upper part of the rice dot seeding decomposition mulching film a ′ unfolded in step) is such that the height of the lower surface is in contact with the bottom surface b ′ of the rice field, or slightly lower than that. The rice dot sowing decomposition mulching film whose lower surface passes under the mulching film pressing part 70 'by being formed to have 'A bottom b of the field' so as to press the fixed in close contact with the 'bottom b looseness' rice point 播生 decomposition mulching film a. At this time, the mulching film pressing portion 70 ′ is formed to be rotatable so that the rice seed sown and decomposed mulching film a ′ can be fixed while being unfolded evenly on the bottom surface b ′ of the rice field. In addition, as shown in FIG. 29, the left and right end portions of the mulching film a ′ pressed by the mulching film pressing portion 70 ′ (for reference, this portion is a mulching film adjacent to each other constructed on the bottom surface b ′ of the rice field. The portion where a ′ overlaps each other) is pressed and fixed to the bottom surface b ′ of the rice field by being pressed by a ring-shaped roller with the outer surface protruding.

  In this way, if the rice dot sowing decomposition mulching film laying step (S2 ′) is performed, the rice dot sowing decomposition mulching film a ′ is unfolded uniformly on the bottom surface b ′ of the rice field as shown in FIG. In this way, an environment can be created in which rice a3 ′ can be arranged at uniform intervals on the bottom b ′ of the rice field and can be germinated smoothly.

  The rice germination step (S3 ′) is a step in which the rice a3 ′ attached to the rice seed sorghum decomposition mulching film a ′ laid on the bottom surface b ′ of the rice field germinates through the through hole a1 ′, as described above. In addition, after the rice seed sowing decomposition mulching film laying step (S2 ′) is performed, the rice spot sowing decomposition mulching film a ′ is unfolded uniformly on the bottom surface b ′ of the rice field and fixed in a fixed period ( When about 10 days have passed, germination of the rice a3 ′ arranged at uniform intervals on the bottom surface b ′ of the rice field will be facilitated.

  The splitting step (S4 ′) is a step in which the germinated rice a3 ′ is split, and the rice a3 ′ germinated in the rice germination step (S3 ′) is continuously split and grows. Become.

  The rice seed sowing decomposition mulching film decomposition step (S5 ′) is a step in which the rice seed sowing decomposition mulching film a ′ laid on the bottom surface b ′ of the rice field is naturally decomposed and disappears, and is used in the present invention. As described above, since the rice dot biodegradable mulching film a ′ is formed using a chemically synthesized biodegradable plastic as a main material, it has excellent biodegradability as well as tensile strength and moisture resistance. About 70 days after being spread and constructed on the bottom b ′ of the rice field, that is, after the rice a3 ′ has been completely divided, the decomposition by microorganisms has started, and about 120 days, that is, it is fully autumn Since 90% or more of biodegradation is completed and natural annihilation occurs before it is taken in, it exhibits the advantage of not causing problems following waste vinyl recovery and environmental pollution problems. . In addition, as described above, since the rice a3 ′ is not decomposed until the division is completed in earnest, it is possible to prevent the growth of unnecessary weeds on the bottom b ′ of the rice field. The effect of eliminating such time and cost can be achieved.

  As described above, the applicant has described a preferred embodiment of the present invention. However, such an embodiment is an embodiment that embodies the technical idea of the present invention, and any modifications are possible as long as the technical idea of the present invention is embodied. Examples or modifications should be construed as belonging to the scope of the present invention.

a biodegradable mulching film a1 through-hole a2 adhesive application site a3 rice 10 moving means 110 first rotating part 111 protruding part 1111 first protrusion 1112 second protrusion 120 second rotating part 130 third rotating part 140 fourth rotating part 150 Winding unit 20 Adhesive application unit 210 Adhesive application unit 220 Adhesive application unit moving unit 30 Punching unit 310 Punching unit 320 Punching unit moving unit 40 Rice adhering unit 410 Rice receiver 420 Rice adhering unit driving unit 421 First drive shaft 422 Second drive shaft 423 Rolling portion 4231 Rotating shaft 50 Power means 510 Motor portion 520 Hydraulic cylinder 530 Winding portion auxiliary moving portion 531 Rotating shaft 532 One side 533 Other side 534 Cam 5341 Chamfering surface

Claims (15)

A moving means for continuously moving the biodegradable mulching film unrolled for the perforating and rice attaching process to the biodegradable mulching film, and a rice bonding adhesive is applied to the biodegradable mulching film moved by the moving means. Adhesive application means, perforation means for perforating the biodegradable mulching film moved by the moving means, and rice attachment means for attaching rice to the portion where the adhesive of the biodegradable mulching film is applied by the adhesive application means And power means for providing power,
The moving means includes a first rotating portion that switches a moving direction of the biodegradable mulching film that moves while rotating in contact with the biodegradable mulching film, and the first rotating portion protrudes from the outer peripheral surface by a predetermined length. Part
The biodegradable mulching film that switches the direction in contact with the first rotating part is separated from the outer peripheral surface of the first rotating part by a certain length at the part in contact with the projecting part, and of course, it is adhered so that it is pulled tightly. An apparatus for producing a rice dot seedling decomposition mulching film, characterized in that the agent coating and drilling operations can be easily performed.   The projecting part has a first protrusion projecting a certain length at a central part and a second projecting to a length relatively shorter than the projecting length of the first protrusion, spaced apart from each other by a certain length to the left and right sides of the first protrusion. The adhesive coating and perforating operations are facilitated by including a protrusion so that the biodegradable mulching film is pulled tightly in contact with the first and second protrusions. The rice dot seeding decomposition mulching film manufacturing apparatus described in 1.   The adhesive application means includes an adhesive application part that is formed at a position corresponding to the first protrusion of the protrusion and is applied only to a biodegradable mulching film portion that contacts the first protrusion; The rice dot seeding decomposition mulching film manufacturing apparatus according to claim 2, further comprising an adhesive application unit moving unit that can move the agent application unit to the first rotating unit side. The perforating means is formed on the biodegradable mulching film portion formed at a position corresponding to the space between the first protrusion and the second protrusion of the protrusion and tightly pulled between the first protrusion and the second protrusion. The punching part according to claim 3, further comprising a punching part for enabling easy punching and a punching means moving part capable of moving the punching means toward the first rotating part . Rice dot seedling decomposition mulching film manufacturing equipment.   The moving means includes a second rotating unit that switches a moving direction of the biodegradable mulching film that moves while contacting and rotating the biodegradable mulching film whose direction has been switched in contact with the first rotating unit; A second rotating unit that switches a moving direction of the biodegradable mulching film that is moved while contacting and rotating the biodegradable mulching film that has been switched in contact with the two rotating portions; Including a rice attachment means driving unit that allows the rice attachment means to be easily attached to the adhesive application portion of the biodegradable mulching film that periodically rolls the rice attachment means and switches the direction in contact with the third rotating part. The rice dot seeding decomposition mulching film manufacturing apparatus according to claim 1, characterized in that it is characterized in that   The rice adhering means driving unit includes a first drive shaft that is rotated by power provided from the power means, a second drive shaft that rotates in conjunction with the first drive shaft, and an axial center of the second drive shaft. 6. The rolling device according to claim 5, further comprising: a rolling unit that periodically rotates the rice receiver loaded with rice as the second drive shaft rotates by being eccentrically connected to the first drive shaft. Rice dot seedling decomposition mulching film manufacturing equipment. The moving means further includes a winding unit for final winding of the biodegradable mulching film to which rice is adhered after passing through the third rotating unit, and the power unit is connected to one end of the winding unit to be wound up. include a hydraulic cylinder for moving to the left and right at a fixed cycle, wound rice deposited biodegradable mulching film is biodegradable mulching films Ri by the wear has been rice with the winding section loss is in the winding section 6. The rice dot seedling decomposition mulching film manufacturing apparatus according to claim 5, wherein the apparatus is capable of preventing damage.   The power means has a rotating shaft as a center, one side is connected to the other end of the winding part, and the other side is connected to the inclined chamfered surface of the rotating cam. The rice dot seedling decomposition according to claim 7, further comprising a winding part auxiliary moving part that assists the action of the hydraulic cylinder that moves the winding part to the left and right at a constant cycle by rotating. Mulching film manufacturing equipment.   A moving step for continuously moving the biodegradable mulching film unfolded by the moving means, an adhesive applying step for applying an adhesive for attaching rice to the biodegradable mulching film by an adhesive applying means, and a biodegradable mulching film by a perforating means. A perforating step for perforating, a rice adhering step for adhering rice to a portion where the adhesive of the biodegradable mulching film is applied by the rice adhering means, and a winding for finally winding the biodegradable mulching film to which the rice is adhered by the winding unit The moving step includes a first rotating portion that switches a moving direction of the biodegradable mulching film that moves while the moving means contacts and rotates with the biodegradable mulching film, and the first rotating portion has an outer peripheral surface. A biodegradation that includes a projecting portion projecting for a certain length and switches the direction in contact with the first rotating portion. In addition to separating the fixed length from the outer peripheral surface of the first rotating part at the part where the lutching film is in contact with the projecting part, it is necessary to make it easy to apply the adhesive and perforate by pulling it tightly. A method for producing rice sown biodegradable mulching film.   The moving step includes a first protrusion in which the protruding portion protrudes by a certain length at a central portion of the protruding portion, and a distance of a certain length from the left and right sides of the first protrusion, relative to the protruding length of the first protrusion. In addition, the biodegradable mulching film includes a second protrusion protruding in a short length, and the adhesive application and the perforating operation are facilitated so that the biodegradable mulching film is pulled tightly in contact with the first protrusion and the second protrusion. The method for producing a rice dot biodegradable mulching film according to claim 9, wherein:   In the adhesive application step, the adhesive application means includes an adhesive application part formed at a position corresponding to the first protrusion of the protruding part, and the adhesive is applied only to the biodegradable mulching film portion in contact with the first protrusion. The perforating step includes a biodegradation wherein the perforating means includes a perforated portion formed at a position corresponding to a space between the first and second protrusions and is tightly pulled between the first and second protrusions. The method for producing a rice dot seeding decomposition mulching film according to claim 10, wherein the mulching film portion can be easily perforated.   The moving step is a step of switching a moving direction of the biodegradable mulching film moved by a second rotating unit that is rotated in contact with the biodegradable mulching film that has been switched in contact with the first rotating unit; The method further includes the step of switching the moving direction of the biodegradable mulching film that is moved by the third rotating portion that is rotated in contact with the biodegradable mulching film that has been switched in contact with the second rotating portion, and the rice attachment step includes: The rice adhesion means driving part periodically rolls the rice adhesion means so that the rice can be easily attached to the adhesive application site of the biodegradable mulching film that switches the direction in contact with the third rotating part. The method for producing a rice dot seed disintegrating mulching film according to claim 9, characterized by the above.   The rice adhesion means driving unit includes a first drive shaft that rotates by power provided from power means that provides power, a second drive shaft that rotates in conjunction with the first drive shaft, and the second drive shaft. 13. The rolling device according to claim 12, further comprising a rolling unit that periodically rotates the rice paddle loaded with rice as the second drive shaft rotates by being eccentrically connected and deviated from the axis center of the rice. Of rice seed sowing decomposition mulching film. The winding step includes a step of moving the winding unit to the left and right at a constant cycle by a hydraulic cylinder connected to one end of the winding unit, and the biodegradable mulching to which the rice to be wound is attached film is characterized in that it is possible to prevent the biodegradable mulching films Ri by the wear has been rice with is damage to the winding section, rice point播生decomposition mulching film manufacturing method according to claim 9.   The winding step is centered on the rotating shaft, one side is connected to the other end of the winding unit, and the other side is connected to the inclined chamfered surface of the rotating cam, and is rotated left and right at a constant cycle by the rotation of the cam. The method for producing a rice dot seedling decomposition mulching film according to claim 14, wherein the action of the hydraulic cylinder for moving the winding part to the left and right at a constant cycle is assisted by the moving winding part auxiliary moving part.

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