CN1119317A - Label continuum and its manufacturing method - Google Patents

Abstract

The present invention relates to a label continuum, which includes: a strip-shaped label substrate, an adhesive layer formed inside the label substrate, a heat-sensitive color-developing layer formed on the surface side of the label substrate, and a label The peeling layer formed on the surface side of the label substrate facing the above-mentioned adhesive layer when the substrate is rolled up. The manufacturing method of the label continuum includes: preparing an engineering sheet with peeling properties on at least one side of the surface, and forming an adhesive layer on the surface of the engineering sheet with peeling properties. Step 1, preparing the adhesive layer after transfer Step 2 of forming a strip-shaped label base material with a bondable inner side and overlapping the inside of the label base material with the adhesive layer of the engineering sheet, and step 3 of forming a peeling layer on the surface of the label base material, from the adhesive Step 4 of Bond Surface Peeling Engineered Sheet and Step 5 of Rolling Label Substrate.

Description

Label continuum and its manufacturing method

The present invention relates to a label continuum formed by a plurality of continuous labels and a manufacturing method thereof, and more particularly to a so-called non-separation (nososepa) type continuum without release paper, which is suitable for price tags and barcode labels, and a manufacturing method thereof.

In the past, the so-called non-separation type labels without release paper often formed a pressure-delayed adhesive type (Tylay-totaku-type) heat-adhesive adhesive on the inside of a heat-resistant substrate. Sensitive adhesive layer.

In the case of forming such a so-called heat-activated pressure-sensitive adhesive layer, even if no release paper is used at all, it can be used after being rolled up. That is, it does not have adhesiveness until the adhesive adhesive is melted by heating to impart pressure sensitivity, so that it does not stick even if it is rolled into a cylindrical shape. However, the conventional non-separable label requires large-scale manufacturing equipment, high equipment investment, and heating is required to activate the thermal adhesive adhesive. Therefore, it is necessary to select a label with excellent heat resistance as the base material of the label. Paper, etc., for example, materials with low heat resistance such as ultra-thin strip-shaped label continuums cannot meet the requirements.

In addition, it is also necessary to select those substances which are not affected by the components contained in the adhesive forming the adhesive layer, and therefore, the range of selection thereof is greatly limited.

Therefore, the object of the present invention is to provide a label continuous body and a manufacturing method thereof that can expand the selection range of label substrates and adhesive layers, and can produce multiple varieties in small batches.

The first invention is a label continuum comprising a strip-shaped label base material, an adhesive layer formed inside the label base material, a heat-sensitive color-developing layer formed on the surface side of the label base material, and , When the label substrate is rolled up, the release layer is formed on the surface of the label substrate opposite to the above-mentioned adhesive layer side. In the first invention, since the label substrate has a heat-sensitive color-developing layer formed on the surface opposite to the adhesive, it can develop color by heating. According to the first invention, since the adhesive layer is formed inside the label base material, the adhesive layer can be formed on the surface of the label base material at normal temperature. Therefore, when selecting a label base material, even an extremely thin tape with low heat resistance can meet the requirements. Moreover, since the solvent of the adhesive that was in a dissolved state before the adhesive layer was originally formed is It is removed, therefore, regardless of the properties of the label substrate, thereby expanding the range of options for the adhesive forming the adhesive layer. In particular, thermochromic materials such as thermal paper can also be selected as the label base material, and it is applicable to printers and other printers that print on such duplication foils that require heating.

The second invention is a label continuum comprising a strip-shaped label base material, an adhesive layer formed inside the label base material, and a heat-sensitive color-developing layer on the surface side of the label base material. The printing layer formed on the adhesive layer and the peeling layer formed on the surface side of the label substrate opposite to the adhesive layer when the label substrate is rolled. In the second invention, since the label base material has a thermosensitive color-developing layer formed on the surface opposite to the adhesive, it can develop color by heating. According to the second invention, since the adhesive layer is formed inside the label base material, the adhesive layer can be formed on the surface of the label base material at normal temperature. Therefore, when selecting a label base material, even an extremely thin tape with low heat resistance can meet the requirements. Moreover, since the solvent of the adhesive that was in a dissolved state before the adhesive layer was originally formed is It is removed, therefore, regardless of the nature of the label substrate and thus the choice of adhesives for forming the adhesive layer can be expanded. In particular, heat-developable materials such as thermal paper can also be selected as label substrates, and it is applicable to printers that print on such duplicating foils that require heating, etc., and all printers.

In the first invention or the second invention, the release layer may be formed by printing or applying a release agent. In the present invention, the release layer formed on the front side of the label base material and the adhesive layer formed on the back side of the label base material are opposed to each other and the label base material is rolled up in a virtual adhesion state, so that unwinding is possible. According to this invention, a release agent can be printed and coated on the surface of the label substrate or the surface of the printed layer to form a release layer. The layers are stacked in a falsely attached state, and the roll can also be unrolled, and the labels can be cut off from the label continuum one by one for use.

In the first invention or the second invention, the release layer may be formed by laminating films or sheets excellent in release properties. In the present invention, since the release layer side and the adhesive layer side of the label base material are facing each other and the label base material is rolled up in a virtual adhesion state, the rolled up base material can be unwound. According to the present invention, since the release layer can be formed by laminating a film or sheet with excellent peelability on the surface of the label base material, even if the release layer formed on the front side of the label base material and the adhesive layer formed on the back side are separated The label base material can be rolled up in a falsely attached state, and can also be unrolled, and the labels can be cut from the label continuum one by one and reused.

The third invention is a label continuum comprising a long label base material, an adhesive layer formed inside the label base material, a heat-sensitive color-developing layer formed on the surface side of the label base material, and , When the label substrate is rolled up, a printed layer with excellent peelability is formed on the surface side of the label substrate opposite to the adhesive layer side. In the third invention, since the label substrate has a heat-sensitive color-developing layer formed on the surface opposite to the adhesive layer, it can develop color by heating. According to the third invention, since the adhesive layer is formed inside the label base material, the adhesive layer can be formed on the surface of the label base material at normal temperature. Therefore, when selecting a label base material, even an extremely thin tape with low heat resistance can meet the requirements. Moreover, since the solvent of the adhesive that is in a dissolved state before the adhesive layer is formed is removed before transfer. Therefore, it has nothing to do with the properties of the label base material, thereby expanding the selection range of the adhesive for forming the adhesive layer. In particular, materials such as thermal paper that can develop color can also be selected, and it is suitable for printers that print on such replica foils that require heating, etc., and all printers.

In the third invention, the printing layer can also be formed by printing and applying printing ink. In the present invention, the printed layer side formed on the front side of the label base material with excellent peelability and the adhesive layer formed on the back side of the label base material face each other in a falsely adhered state, and the label base material can be unwound. . According to the present invention, since the printed layer with excellent peelability is formed on the surface of the label base material, even if the adhesive layer formed on the inside of the label base material and the printed layer formed on the surface are opposed to each other, they are virtually attached. The label base material can be unrolled in the rolled state, and can be cut into labels one by one from the label continuous body and used.

In the third invention, the release layer may be formed together with the printing layer on the surface side of the label base material opposite to the adhesive layer side when the label base material is rolled up. In the present invention, since the printed layer is formed on the surface of the label base material and the peeling layer is formed on the surface of the label base material together with the printed layer, the rolled label base material can be unwound. According to the present invention, since the printed layer is formed on the surface of the label, and the release layer with excellent releasability is formed on the surface of the label base material, even if the printed layer and/or release layer formed on the surface side of the label base material and the inside thereof The adhesive layer formed on the side can be rolled up with the label base material in a state of facing each other in a virtual adhesion state, and can also be unrolled, and can be cut off one by one from the continuous label body for use.

The fourth invention is a label continuum comprising a strip-shaped label base material, an adhesive layer transferred to the inside of the label base material, and a release layer formed on the inner side of the label base material; The layer side and the above-mentioned adhesive layer are opposed to each other, and the label base material is rolled up in a virtual adhesion state to form a continuous label body. In the fourth invention, since the release layer formed on the front side of the label base material and the adhesive layer formed on the back side of the label base material are stacked in a falsely attached state facing each other, unwinding is possible. . According to the fourth invention, since the adhesive layer is formed on the inside of the label base material, the adhesive layer can be formed on the surface of the label base material at normal temperature. Therefore, when selecting a label base material, even an extremely thin tape with low heat resistance can meet the requirements. Moreover, since the solvent of the adhesive that is in a dissolved state before the adhesive layer is formed, it is removed before transfer. Since it is removed, it is not related to the properties of the label base material, thereby expanding the selection range of the adhesive for forming the adhesive layer. In particular, materials such as thermal paper that can develop color can also be selected, and it is also applicable to printers and the like that print on such duplicating foils that require heating, and all printers and the like.

In the fourth invention, a printing layer may be formed on the surface of the label substrate, and a release layer may be formed on the surface of the printing layer. In the present invention, since the printed layer is formed on the surface of the label base material and the release layer is formed on the surface of the printed layer, the rolled label base material can be unrolled. According to the present invention, since the printing layer is formed on the surface of the label substrate, and the peeling layer is formed on the surface of the printing layer, even if the adhesive layer formed on the inside of the label substrate and the peeling layer formed on its surface are opposite The label base material can be rolled up in a virtual adhesion state, and can also be unrolled, and can be cut into labels one by one from the label continuous body and used.

In the fourth invention, the printing layer may be the surface of the label substrate, formed on the surface of the peeling layer, and may be formed with a printing ink having excellent peelability. In the present invention, since the printing layer is formed on the surface of the release layer which is the surface of the label base material, and is formed with printing ink having excellent releasability, the rolled label base material can be unrolled. According to the present invention, since the printing layer is formed on the surface of the release layer which is the surface of the label base material, and is formed with printing ink with excellent releasability, even if the release layer formed on the surface side of the label base material and the back side are formed The adhesive layer of the label base material is stacked in a virtual adhesion state facing each other, and it can also be unrolled, and can be cut into labels one by one from the label continuous body for use.

In the fourth invention, the label substrate may have a heat-sensitive color-developing layer formed on the surface opposite to the adhesive layer. In the present invention, since the label base material has a heat-sensitive color-developing layer formed on the surface opposite to the adhesive layer, color can be developed by heating. According to the present invention, since the thermosensitive color-developing layer is formed on the surface of the label substrate opposite to the adhesive layer, printing can be performed relatively easily by a thermal printer or the like.

In the fourth invention, the peeling layer can also be formed by printing, coating a peeling agent and/or printing ink. In the present invention, since the printed layer is formed on the surface of the label substrate and the release layer is formed on the surface of the printed layer, the rolled continuous label can be unrolled. According to the present invention, since the release layer is formed on the surface of the label substrate. , so even if the adhesive layer formed inside the label substrate and the release layer formed on its surface are stacked in a falsely attached state, the label substrate can be unrolled and can be removed from the continuous label. Cut them into labels one by one and use them.

In the fourth invention, the release layer may be formed by laminating films or sheets excellent in release properties. In the present invention, since the printed layer forms the peeling layer on the surface of the label substrate, the rolled continuous label can be unrolled. According to the present invention, since the release layer is formed on the surface of the label base material with a film or sheet with excellent peelability, even if the release layer formed on the surface side of the label base material and the adhesive layer formed on the back side face each other to form a In the virtual adhesion state, the label base material can be rolled up or unrolled, and can be cut into labels one by one from the label continuous body for use.

The fifth invention is a method for manufacturing a label continuum, which includes: preparing an engineering sheet having a peelable surface on at least one side thereof, and forming an adhesive layer on the peelable surface of the engineering sheet; and , prepare a strip-shaped label base material that has a bondable inside due to the transfer of the adhesive layer, and overlap the inside of the label base material with the adhesive layer of the engineering sheet. Step 2 and, on the label base material Step 3 of forming the release layer on the inner side of the label substrate and step 4 of peeling only the engineered sheet from the surface of the adhesive layer transferred to the inner side of the label substrate and placing the release layer and the adhesive layer in a dummy attachment Step 5 of the state roll label substrate. In the fifth invention, since the peelable engineered sheet is formed on the sheet surface to form an adhesive layer, the adhesive layer is transferred from the engineered sheet to the elongated label when the adhesive layer overlaps with the elongated label substrate on the surface of the substrate. According to the fifth invention, since the adhesive layer formed on the detachable surface of the engineering sheet is superimposed on the surface of the strip-shaped label substrate having an adhesive surface due to the transfer of the adhesive layer, at normal temperature, The adhesive layer is transferred from the engineered sheet to the inside of the long label substrate, so even an extremely thin label substrate with low heat resistance can form an adhesive layer. In addition, since the solvent contained in the latex form of the adhesive that forms the adhesive layer is transferred from the surface of the process sheet in a removed state to form an adhesive layer, there is no effect on the label base material due to solvents, etc. . Therefore, the selection range of the label substrate and the adhesive forming the adhesive layer is greatly expanded, and it is suitable for the production of many varieties and small quantities. In addition, the engineered sheet can be reused, so there is no waste, and resources can be reused.

The sixth invention is a method for manufacturing a label continuum, which includes: preparing an engineering sheet having a releasable surface on at least one side thereof, and forming an adhesive layer on the releasable surface of the engineering sheet; and , preparing a strip-shaped label base material with a bondable inside due to the transfer of the adhesive layer, and superimposing the inside of the label base material with the adhesive layer of the engineering sheet 2 and, in the label base material Step 3 of forming a print layer on the surface and step 4 of forming a release layer on the surface of the label substrate and step 5 of peeling only the engineered sheet from the surface of the adhesive layer transferred to the inside of the label substrate and, Step 6: Roll up the label base material with the release layer and the adhesive layer facing each other in a state of virtual adhesion. In the sixth invention, since the peelable engineering sheet is provided on the surface of the sheet to form an adhesive layer, the adhesive layer is transferred from the engineering sheet to the strip when superimposed on the strip-shaped label substrate. on the surface of the label substrate. According to the sixth invention, since the adhesive layer formed on the detachable surface of the engineering sheet is superimposed on the surface of the strip-shaped label having a bondable surface due to the transfer of the adhesive layer, the adhesive layer can be adhered at room temperature. The adhesive layer is transferred from the engineered sheet to the inside of the long label substrate, so even very thin label substrates with low heat resistance can form an adhesive layer. In addition, since the solvent contained in the latex form of the adhesive forming the adhesive layer is transferred from the surface of the process sheet in a removed state to form the adhesive layer, the label base material will not be affected by the solvent or the like. Therefore, the selection range of the label substrate and the adhesive forming the adhesive layer is greatly expanded, and it is suitable for the production of many varieties and small quantities. In addition, the engineered sheet is reusable, so there is no waste, and resources can be reused.

In the fifth invention and the sixth invention, in the step of peeling only the engineered sheet from the surface of the adhesive layer transferred to the inside of the label base material, the laminated label base material formed in the preceding steps may also be included. The step of splitting into appropriate widths along with other layers of engineered sheet. In the present invention, engineered sheets and strip label substrates are cut along with other layers. If the adhesive layer is formed from the beginning according to the label substrates of various desired purpose widths, wasteful parts will be generated on both side edges of each label substrate respectively, but according to the present invention, firstly, the adhesive layer is formed with labels wider than the desired purpose. The width of the substrate is wider. Prepare long strips of label substrates and engineering sheets, overlap them with an adhesive layer, and divide them into appropriate widths to form label substrates that meet the purpose. In this way, The adhesive layer formed on the peelable surface of the engineering sheet can be formed with some residues on the left and right ends of the engineering sheet, while the waste parts on both sides of the sheet are small, and more can be formed It is extremely useful to have a label substrate that fits the width of the original purpose.

In the 5th or 6th invention, the step of peeling only the engineered sheet from the surface of the adhesive layer transferred to the inside of the label base material may also include the step of separating the label base material laminated in the previous step with other layers formed Die together into steps of appropriate width. In the present invention, the engineered sheet is not cut, the label substrate is cut along with the other layers. According to the present invention, if the strip-shaped label base material and engineering sheet are prepared according to the width, they are superimposed after having an adhesive layer, and the above-mentioned label base material is punched into a suitable label width, it can be suitably formed to meet the initial label width. The label of the purpose is extremely useful.

In the fifth invention or the sixth invention, the step of forming the release layer on the surface of the label base material may include printing on the surface of the label base material. The step of applying a release layer to form a release layer. In the present invention, since the release layer side and the adhesive layer side of the label base are stacked in a state of facing each other in a virtual adhesion state, the rolled continuous label can be unrolled. According to the present invention, if an adhesive layer is formed on the peelable surface of the engineering sheet, and overlaps with the inside of the bonded elongated label substrate after the adhesive layer is transferred, the adhesive layer can be made by the action of the engineering sheet. The binder layer is transferred from the engineered sheet to the inside of the strip label substrate.

In the fifth or sixth invention, the step of forming the release layer on the surface of the label base may further include the step of forming a release layer by laminating a film or sheet having excellent peelability on the surface of the label base. In the present invention, since the peeling layer side and the adhesive layer side of the label base material are facing each other and the label base material is rolled up in a state of virtual adhesion, the rolled label continuous body can be unrolled. According to the present invention, if an adhesive layer is formed on the peelable surface of the engineering sheet, and overlaps with the inside of the strip-shaped label substrate to be bonded after the adhesive layer is transferred, the engineering sheet with excellent peelability can be passed. The action of the adhesive transfers the adhesive layer from the engineered sheet to the inside of the strip label.

The seventh invention is a method for manufacturing a label continuum, which includes: preparing an engineering sheet having a peelable surface on at least one side thereof, and forming an adhesive layer on the peelable surface of the engineering sheet; and , the step 2 of preparing a strip-shaped label substrate with a bondable inside due to adhesive transfer, and superimposing the inside of the label substrate with the adhesive layer of the engineering sheet and, on the surface of the label substrate Step 3 of forming a print layer with excellent peelability and step 4 of peeling off only the engineered sheet from the surface of the adhesive layer transferred to the inside of the label base material, the release layer and the adhesive layer face each other in a virtual Attached state Step 5 of rolling up the label substrate. In the seventh invention, since the peelable engineering sheet is provided on the surface of the sheet to form the adhesive layer, the adhesive layer is transferred from the engineering sheet to the elongated label when the adhesive layer overlaps with the elongated label substrate the surface of the substrate. According to the seventh invention, since the adhesive layer formed on the detachable surface of the engineering sheet is superimposed on the surface of the strip-shaped label base material having a bondable surface due to the transfer of the adhesive layer, the adhesive layer can be adhered at normal temperature. The adhesive layer is transferred from the surface of the engineered sheet to the inside of the long label substrate, so even an extremely thin label substrate with low heat resistance can form an adhesive layer. In addition, since the solvent contained in the latex state of the adhesive that forms the adhesive layer is transferred from the surface of the process sheet in a removed state to form an adhesive layer, there is no effect on the label base material due to solvents, etc. . Therefore, the selection range of the label substrate and the adhesive forming the adhesive layer is greatly expanded, and it is suitable for the production of many varieties and small quantities. In addition, the engineered sheet can be reused, so there is no waste, and resources can be reused.

In the seventh invention, step 5 may further include a step of cutting the label substrate and engineering sheet laminated in steps 1 to 4 into appropriate widths together with other layers formed. In the present invention, the engineered sheet and the strip-shaped label substrate are cut together with other layers. If the adhesive layer is formed from the beginning according to the label base materials of various desired purpose widths, wasteful parts will be generated on both side edges of each label base material, but according to the present invention, firstly, the adhesive layer is formed with different widths than the desired purpose. The width of the label base material is wide. Prepare a long label base material and an engineering sheet, then make them overlap with an adhesive layer, and divide them into appropriate widths to form a label base material suitable for the purpose. In this way, The adhesive layer formed on the peelable surface of the process sheet can be formed with a little residue on the left and right ends of the process sheet, and there is little waste on both sides of the edge, and more can be formed to meet the original width very useful label substrate.

In the seventh invention, step 5 may further include a step of die-cutting the label substrate laminated in steps 1 to 4 and other layers formed into an appropriate width. In the present invention, the engineered sheet is not cut, the label substrate is cut along with the other layers. According to the present invention, if the strip-shaped label base material and the engineering sheet are prepared in a wide width, overlapped with an adhesive layer, and the above-mentioned label base material is punched into an appropriate width to form an appropriate label width, it can be It is extremely useful to properly form a label that meets the original purpose.

In the seventh invention, step 4 may further include printing on the surface of the label substrate. A step of printing by applying printing ink with excellent releasability. In the present invention, since the printed layer and/or the peeling layer side of the label base material and the adhesive layer side are facing each other and the label base material is rolled up in a virtual adhesion state, the rolled label continuous body can be unrolled. . According to the present invention, if an adhesive layer is formed on the peelable surface of the engineering sheet, and overlapped with the inside of the strip-shaped label base material bonded after the adhesive layer is transferred, the engineering sheet with excellent peelability can be passed. The action of the adhesive transfers the adhesive layer from the engineered sheet to the inside of the elongated label substrate.

In the seventh invention, step 4 may further include the step of forming a peeling layer excellent in peelability on the surface of the label base material together with the printing layer. In the present invention, since the printed layer and/or release layer side of the label base material and the adhesive layer side are facing each other and the label base material is rolled up in a virtual adhesion state, the rolled continuous label can be unrolled. According to the present invention, if an adhesive layer is formed on the peelable surface of the engineering sheet so that it overlaps with the inside of the strip-shaped label base material bonded due to the transfer of the adhesive layer, it can be achieved by excellent peelability. The action of the engineered sheet transfers the adhesive layer from the engineered sheet to the inside of the elongated label substrate.

The eighth invention is a method for manufacturing a label continuum, comprising: preparing a process sheet having a peelable surface on at least one side thereof, and forming an adhesive layer on the peelable surface of the process sheet; and preparing Step 2 of superimposing the inside of the label substrate with the adhesive layer of the engineered sheet on the elongated label substrate having a bondable inside due to the transfer of the adhesive layer and, on the surface of the label substrate The step 3 of forming the release layer and the step 4 of peeling off only the engineering sheet from the surface of the adhesive layer transferred to the inside of the label base material, and the release layer and the adhesive layer are placed in a virtual adhesion state on the label base Step 5 of stacking the rolls. In the eighth invention, since the surface of the sheet is provided with a peelable engineering sheet to form an adhesive layer, when the adhesive layer and the strip-shaped label substrate are overlapped, they are transferred from the engineering sheet to the strip-shaped label substrate. The surface of the label substrate. According to the eighth invention, since the adhesive layer formed on the detachable surface of the engineering sheet is superimposed on the surface of the strip-shaped label base material having a bondable surface due to the transfer of the adhesive layer, The adhesive layer is transferred from the surface of the engineering sheet to the inside of the long label substrate at room temperature, so even an extremely thin label substrate with low heat resistance can form an adhesive layer. Moreover, since the solvent contained in the adhesive that forms the adhesive layer is in the latex state, it is transferred from the surface of the engineering sheet in a removed state to form an adhesive layer, so there is no impact on the label base material due to solvents, etc. Influence. Therefore, the selection range of the label substrate and the adhesive forming the adhesive layer is greatly expanded, and it is suitable for the production of many varieties and small quantities. In addition, the engineered sheet can be reused, so there is no waste, and resources can be reused.

In the eighth invention, step 1 may further include printing on the surface of the sheet. A step of applying a release agent to prepare a process sheet endowed with release properties. In the present invention, because it is printed on the surface of the cause. An adhesive layer is formed on the surface of the engineered sheet coated with a release agent and endowed with peelability. Therefore, the adhesive layer is transferred from the engineered sheet to the elongated label base when it overlaps with the elongated label substrate. surface of the material. According to the present invention, if the adhesive layer formed on the peelable surface of the engineering sheet overlaps with the inside of the strip-shaped label substrate that can be bonded after the adhesive layer is transferred, it can be removed by the action of the release agent. Transfers the adhesive layer from the engineered sheet to the inside of the strip label substrate.

In the eighth invention, step 2 may also include preparing a strip-shaped label substrate according to a wide width, overlapping the inside of the label substrate with the adhesive layer of the engineering sheet, cutting it into a suitable width, and then rolling it up A step of. In the present invention, the adhesive layer formed on the engineered sheet can be transferred to the inside of the label substrate. If the adhesive layer is formed from the beginning according to the label base materials of various desired purpose widths, wasteful parts will be generated on both side edges of each label base material respectively, but according to the present invention, firstly, the adhesive layer is formed with different widths than the desired purpose. The width of the label base material is wider. Prepare a long label base material and a process sheet, then overlap them with an adhesive layer, and divide them into appropriate widths to form a suitable label base material. In this way, It is possible to make the adhesive layer formed on the peelable surface of the engineering sheet be formed in a state where there are some residues at the left and right ends of the engineering sheet, while there are very few waste parts on both sides of the edge, and more conforming adhesive layers can be formed. Very useful for label substrates of the original intended width.

In the eighth invention, steps 3 and 4 may further include a step of forming a printing layer and/or a peeling layer after unrolling the overlapped label substrates. In the present invention, a roll-shaped laminate stacked with an adhesive layer interposed between the label base material and the process sheet is unwound to form a printing layer and/or a peeling layer. According to the present invention, it is very useful that a printing layer and/or a peeling layer can be appropriately formed at a position that meets the initial purpose.

In the eighth invention, step 3 may also include printing on the surface of the label substrate. A step of applying a release agent and/or printing ink excellent in release properties to form a release layer. In the present invention, since the release layer side and the adhesive layer side of the label base are stacked in a state of facing each other in a virtual adhesion state, the rolled continuous label can be unrolled. According to the present invention, an adhesive layer is formed on the peelable surface of the engineering sheet, and if the adhesive layer can be overlapped with the inside of the bonded elongated label substrate after transfer, it can pass through the release agent and/or the release agent. The action of the excellent printing ink transfers the adhesive layer from the engineered sheet to the inside of the label substrate.

In the eighth invention, step 3 may further include a step of laminating a film or sheet having excellent peelability on the surface of the label base to form a release layer. In the present invention, since the release layer side and the adhesive layer side of the label base are stacked in a state of facing each other in a virtual adhesion state, the rolled continuous label can be unrolled. According to the present invention, an adhesive layer is formed on the peelable surface of the engineering sheet. If the adhesive layer can be overlapped with the inside of the bonded strip-shaped label substrate after transfer, it can be passed through a film or a strip with excellent peelability. The foil acts to transfer the adhesive layer from the engineered sheet to the inside of the strip label substrate.

The above and other objects, features, parts, and advantages of the present invention will be more clearly understood through the detailed description of the following embodiments with reference to the accompanying drawings.

Fig. 1 shows a label continuous body as an embodiment of the present invention, (A) is a perspective view thereof, and (B) is a cross-sectional view thereof.

The schematic diagram shown in FIG. 2 shows an example of the manufacturing method illustrated in FIG. 1 , and shows the first half of the process.

The schematic diagram shown in FIG. 3 shows an example of the manufacturing method illustrated in FIG. 1 , and shows the second half of the process.

FIG. 4 is a diagram showing another example of the manufacturing method illustrated in FIG. 1 .

Fig. 5 is a cross-sectional view of a label continuum as another embodiment of the present invention.

The diagram shown in FIG. 6 shows an example of the manufacturing method illustrated in FIG. 5 .

Fig. 7 is a cross-sectional view of a label continuous body as a third embodiment of the present invention.

The diagram shown in FIG. 8 shows an example of the manufacturing method illustrated in FIG. 7 .

Fig. 9 is a sectional view of a label continuous body as a fourth embodiment of the present invention.

The diagram shown in FIG. 10 shows an example of the manufacturing method illustrated in FIG. 9 .

Fig. 1 shows a label continuum as an embodiment of the present invention, wherein (A) is a perspective view thereof, and (B) is a cross-sectional view thereof.

2 and 3 are diagrams showing an example of the manufacturing method illustrated in FIG. 1 , wherein FIG. 2 shows the first half of the process, and FIG. 3 shows the second half of the process.

The label continuous body 10 of this embodiment is formed continuously in a strip shape by a plurality of labels 12, and is cut at the boundary of each label 12, that is, each label 12 is used as a single label 12.

Moreover, the pressure-sensitive adhesive layer formed by transferring to the inside of the elongated label base material 14 is an adhesive that has adhesiveness at room temperature and can be bonded to the material to be bonded with light pressure. A binder layer 16 is formed, and a release agent layer 18 is formed as a peeling layer on the surface side of the above-mentioned label base material 14, and is formed on a part of the surface of the label base material 14 between the label base material 14 as the above-mentioned label base material. 14 printed layer 20 on the surface side.

The printed layer 20 is intermittently formed at constant intervals at the display portions of the labels 12 so as to form the display portions of the labels 12 with the borders of the labels 12 interposed therebetween.

The label continuous body 10, as shown in FIG. 1(A), before being used as a label, the above-mentioned release agent layer 18 side and the above-mentioned adhesive layer 16 are in a state of facing each other in a virtual adhesion state, and the label base material 14 is rolled into a roll. .

In this embodiment, the heat-sensitive color-developing layer 22 is formed on the release agent layer side 18 side surface of the label base material 14 .

The elongated label substrate 14, in the present embodiment, for example, plastic films or sheets such as paper, synthetic paper, cellophane, polystyrene, polyester, or elongated objects such as aluminum foil, but in order to have no cracks The strip-shaped continuum is cut into each label 12 and must be a raw material that can be cut by hand or a mechanical device such as a cutting machine. Its structure also can be, perforate the slits (not shown) such as sewing machine hole at regular intervals, make it can be cut into the small piece of prescribed label 12.

The adhesive layer 16 that is transferred to the inside of the label substrate 14 is used to provide adhesive force for each label 12. For example, known bonding agents such as propylene copolymer resins and rubber-based adhesives can be used. agent.

The heat-sensitive color-developing layer 22 formed on the surface side of the above-mentioned label substrate 14, for example, can be coated with a heat-sensitive color-developing agent containing a mixture of a transparent or monochromatic leuco dye, an acidic substance, and a binder, and dried. And formed. In this case, examples of the leuco dye include crystal violet lactone, 3-indolinyl-3-p-dimethylaminophenyl-6-dimethylaminophthalone, 3-diethylamino-7-chloro Fluorane, 2-diethylamino-7-cyclohexylaminofluoran, 3-diethylamino-5-methyl-7-tert-butylfluoran, 3-diethylamino-6-methyl-7-aniline Fluorane, 3-diethylamino-6-methyl-7-p-butylanilinofluoran, etc.

Examples of acidic substances include 2,2-bis(4'-hydroxyphenyl)propane, 4-phenylphenol, 4-hydroxyacetophenone, 2,2'-dihydroxybiphenyl, 2,2'- Methylene bis(4-methyl-6-tert-butylphenol), 4,4'-isopropylidene biphenol, 4,4'-isopropylidene bis(2-chlorophenol), 4,4 '-isopropylidene bis(2-cresol), 4,4'-ethylene bis(2-cresol), 4,4'-thiobis(6-tert-butyl-3-cresol) wait.

Examples of binders include polyvinyl alcohol, methoxycellulose, hydroxyethylcellulose, carboxymethylcellulose, polyacrylamide, polyacrylic acid, starch, gelatin, polystyrene-vinyl acetate copolymer, etc. Water-soluble or water-based emulsion, etc.

The heat-sensitive color-developing layer 22 can develop color by heating a heat-sensitive printing head of a printer or the like.

The print layer 20 is formed on the surface of the label base material 14 on the side of the heat-sensitive color-developing layer 22 so that the display portion of each label 12 is formed with the boundary of each label interposed therebetween. The printing layer 20 can be formed by printing with common printing inks by lithography, letterpress or offset printing, or other known printing methods.

The peeling layer 18 formed on the surface of the above-mentioned label substrate 14, that is, the surface of the thermosensitive color-developing layer 22 and the surface of the printing layer 20, for example, can be applied by printing at a temperature that does not affect the thermosensitive color-developing layer 22. Formed with a release agent such as silicone resin that can be cured.

In this embodiment, as the release agent constituting the release layer 18, UV silicon (ie, so-called ultraviolet curable silicon) and EB silicon (ie, so-called electron beam-curable silicon) can also be selected for use with ultraviolet rays and electron rays. That is, a substance that can be cured and will not affect the thermosensitive color-developing layer 22 .

The release layer may also be formed by laminating and bonding films or sheets excellent in release properties.

An example of the manufacturing method shown in FIG. 1 will be continued and described below mainly based on FIGS. 2 and 3 .

Firstly, paper rolled into a roll or a long strip-shaped process sheet 24 made of plastic or the like in the form of a film or sheet is prepared and rolled into a roll. The process sheet 24 is only used in the manufacturing process, and does not remain on the completed label continuous body 10 . Furthermore, printing is performed on the surface of the process sheet 24 . A release agent such as silicone resin or fluororesin is applied to form a release layer 24a having releasability.

Then, printing is performed on the surface of the release layer 24 a of the process sheet 24 . The adhesive 26 used to form the adhesive layer 16 is applied. The adhesive coating device 100 includes two rollers 102a and 102b. The lower portion of the drum 102 a is dipped in the adhesive 26 stored in the tank 104 .

Therefore, by rotating the rollers 102a and 102b, the adhesive 26 can be printed and coated on the surface of the peeling layer 24a of the process sheet 24 introduced into the position.

As the adhesive coating device, a coating device such as a gravure roll coater, a double-sided coater roll, and an air knife coater can be used, and a known printing machine such as a typewriter printer can also be used.

The engineered sheet 24 coated with the adhesive 26 is then printed, for example, into a dryer 106 including a heater. In dryer 106 , adhesive 26 printed on engineered sheet 24 is dried to form adhesive layer 16 . As the adhesive, when using a water-soluble resin adhesive such as EVA-based, vinyl acetate-based, or acrylic-based or a solvent-based adhesive composed of vinyl hydrochloride, urethane, or acrylic, use a dryer ; In the case of using rubber-based or EVA-based hot-melt adhesives, use a cooler.

The base paper 14a serving as the label base material 14 is laminated on the release layer 24a side of the process sheet 24 on which the adhesive layer 16 is thus formed.

The base paper 14 a of the label base 14 is also formed to have the same width as the process sheet 24 , and the heat-sensitive color-developing layer 22 has already been formed on the surface of the base paper 14 a of the label base 14 .

The thermosensitive color-developing layer 22 is formed on the opposite side to the above-mentioned adhesive layer 26 .

Then, the laminated product 30 laminated by the process sheet 24, the adhesive layer 26, and the label substrate 14 is preliminarily formed in a laminated state with a width similar to that of the label continuous body 10 as the final product before being introduced into the following steps such as printing. The width is cut with a slitting machine 108, and rolled into a drum after slitting.

The continuum of the engineering sheet 24 and the label base material 14 is laminated with the adhesive layer 26 and rolled into a roll by the laminate 30 which is virtually attached; the laminate 30 is introduced into FIG. The printing and release agent coating device of the next process is shown.

Subsequently, the roll-shaped laminate 30 rolled into a lamination roll is loaded into the manufacturing apparatus shown in FIG. This device 110 is used to print the display portion constituting each label 12, and for example, a known printing device such as lithography, letterpress, or offset printing is used to print characters such as product names and graphics such as appropriate patterns.

Then, the laminate 30 formed with the printed layer 20 is introduced into the release agent coating device 120 for forming the release layer 18 on the surface of the printed layer 20 of the label base material 14 . The release agent coating device 120 includes a main roller 122a and a roller 122b provided opposite to the main roller 122a. And, the main roller 122a, the lower part of which is immersed in the release agent 32 stored in the tank 124, is coated by the main roller 122a on the surface of the label substrate 14 of the laminate 30 sandwiched between the main roller 122a and the roller 122b. Stripper32. Subsequently, the print-coated release agent 32 laminate 30 is moved to, for example, a dryer 126 including a heater. In the dryer 126, the release agent printed coated on the laminate is dried so that the release layer 18 is formed. Then, the label continuous body 10 in which the release agent layer 18 and the laminate 30 are laminated is introduced into the next process sheet removal device 130 . The engineering veneer removal device 130 includes a roller 132, and peels off the engineering veneer 24 from the surface of the adhesive layer 16 of the laminate 30, rolls it into a roll, and reuses it for other purposes.

On the other hand, the laminate 30 constituting the label continuous body 10 is further rolled into a roll while cutting and processing both side edges or one side edge with the slitting machine 140 according to the optimum width of the label continuous body 10 . However, punching may be performed as if only the adhesive layer 16, the printing layer 10, and the heat-sensitive color-developing layer 22 are cut.

Fig. 4 is a diagram showing another example of the manufacturing method illustrated in Fig. 1 . In the example shown in FIG. 4, unlike the examples shown in FIGS. It is not cut by the slitting machine 108 until it is introduced into the next process such as printing. Furthermore, the laminated product 30 is not rolled up into a roll shape, but it is introduced into the printing etc. of the next process, and a release agent coating apparatus.

In the example shown in FIG. 4 , instead of the slitting machine 140 in the example shown in FIGS. 2 and 3 , a punching machine 140 a is formed. Moreover, the laminate 30 constituting the label continuous body 10 is further bonded with the label substrate 14 and other printing layers 20, heat-sensitive color-developing layers 22, and peeling layers with a punching machine 140a according to the width of the label continuous body 10. 18 and the adhesive layer 16 are rolled together into a roll shape while punching both side edges or one side edge.

On the other hand, since the process sheet 24 remains in its original state without being punched by the punching machine 140a, and is adjusted when it is punched by the punching machine 140a, the original wide state can be maintained. Also, since the adhesive layer 16 is transferred to the label substrate 14 side, the engineered sheet can be reused.

Fig. 5 is a cross-sectional view of a label continuous body as a second embodiment of the present invention, and Fig. 6 is a schematic view showing an example of the manufacturing method illustrated in Fig. 5 .

In the label continuous body 10 of this embodiment, the first printed layer 21a having a printing ink with excellent releasability is formed on the surface side of the label base material 14 where the release agent layer 18 is not formed. The second printed layer 21b is formed on a part of the surface of the label base material 14 in between. In this embodiment, the heat-sensitive developer layer 22 is also formed on the side surface of the label base material 14 on the release agent layer side 18 . That is, the release agent layer 18 is formed on the surface side of the label base material 14 , that is, on the surfaces of the thermosensitive color-developing layer 22 and the second printing layer 21b.

The second printing layer 21b is formed by ordinary printing ink, and is intermittently formed at constant intervals between the display portions of the labels 12 such that the labels 12 are separated by the boundaries of the labels 12 to form the display portions of the labels 12 .

That is, in the present embodiment, the second printed layer 21b having the display portion of each label 12 formed by the boundary of each label 12 is formed on the surface of the label substrate 14 on the side of the heat-sensitive color-developing layer 22 . The second printing layer 21b is formed by printing with general printing ink by lithography, letterpress, offset printing or other known printing methods. However, such two printed layers 21b may not be formed.

The label continuum 10 illustrated in FIG. 5 , the laminate 30 of the label base material 14 and the engineering sheet 24 that undertakes the first half in the manufacturing process is manufactured by the same device as that illustrated in FIG. 2 , but the label exemplified in FIG. 5 is continuous. In the manufacturing method of the body 10, the manufacturing apparatus responsible for the second half is shown in FIG. 6 .

The laminated product 30 is rolled into a roll-shaped laminated product 30 in the form of a lamination roll, loaded into the manufacturing device shown in FIG. 6 , and after the laminated product 30 is unrolled, it is introduced into the printing device 110 for forming the second printing layer 21b. The printing device 110 can print the display part constituting the name tag 12. For example, a known printing device such as lithography, letterpress, or offset printing can print characters such as a product name and a figure composed of a suitable pattern.

Next, the laminate 30 formed with the second printed layer 21b is introduced into the release agent coating device 120 for forming the release agent layer 18 on the surface of the second printed layer 21b of the label base material 14 . The release agent coating device 120 includes a main roller 122a and a roller 122b provided to face the main roller 122a. And, the main roller 122a, the lower part of which is immersed in the release agent 32 stored in the tank 124, is coated with the main roller 122a on the surface of the label substrate 14 of the laminate 30 sandwiched between the main roller 122a and the roller 122b. Agent 32.

The print-coated release agent 32 laminate 30 is then moved to a dryer 126, eg, including a heater. In the dryer 126 , the release agent 32 printed on the laminate is dried to form the release agent layer 18 .

Then, it is introduced into the printing device 115 to form the first printed layer 21a with a printing ink having excellent releasability on the portion of the laminate 30 where the releasable layer is not formed. Then, the laminate 30 in which the printed layer 21 a is formed by the printing device 115 is sent to the dryer 117 .

And the label continuous body 10 which laminated|stacked the 1st printed layer 21a, the peeling layer 18, and the laminated material 30 is introduced into the next process sheet|seat removal apparatus 130. As shown in FIG. The engineered veneer removal unit 130 includes a roller 132 that can be used to peel the engineered veneer 24 from the surface of the adhesive layer 16 of the laminate 30 and roll it into a roll for reuse in other applications.

On the other hand, the laminated product 30 constituting the label continuous body 10 is wound into a roll while cutting and processing both side edges or one side edge with the longitudinal shear 140 according to the width of the optimal label continuous body 10. shape. However, die cuts can also be used.

Fig. 7 is a cross-sectional view of a label continuous body according to a third embodiment of the present invention, and Fig. 8 is a schematic diagram showing an example of the manufacturing method illustrated in Fig. 7 .

This label continuous body 50 is different from the example shown in FIG. 1 and the example shown in FIG. 5 in that a release agent layer 58 is formed on the surface of a label base material 54 . Furthermore, the first printed layer 60 is formed on the surface of the release agent layer 58 . However, the formation of the adhesive layer 56 on the inside of the label base material 54 is the same as the example shown in FIG. 1 and the example shown in FIG. The illustration example is the same as the illustration example in Figure 5.

In addition, as the printing ink for forming the first printing layer 60, it is necessary to select a printing ink that itself has releasability.

The configuration of the label continuous body 50 illustrated in FIG. 7 is that the laminate 70 of the label base material 54 and the processing sheet 64 that bears the first half in the manufacturing process is manufactured by the same device as that illustrated in FIG. 2 . In the manufacturing method of the exemplary label continuous body 50, the manufacturing device responsible for the second half, as shown in the example of FIG. Simultaneously, the release agent 72 applied by printing is cured by a curing device to form a release layer 58 , and a print layer 60 is formed on the surface of the release agent layer 58 by a printing device 210 as the lower layer.

In the example shown in FIG. 8 , unlike the example shown in FIG. 3 and the example shown in FIG. 6 , the slitter 240 as a device for adjusting the label base material 54 to the optimum width of the label continuous body 50 can be removed by means of a process sheet. 230 peels off the process sheet 64 from the adhesive layer 56 and cuts it, and is placed on the lower layer before being rolled into a roll.

Fig. 9 is a cross-sectional view of a label continuous body as a fourth embodiment. FIG. 10 is a schematic view showing an example of the manufacturing method illustrated in FIG. 9 .

This label continuous body 50 is different from the example shown in FIG. 1 and the example shown in FIG. 5 in that the printed layer 60 is formed on the surface of the label base material 54 . Furthermore, a release layer 58 made of a transparent film or sheet having excellent release properties is formed on the surface of the printed layer 60 . However, the adhesive layer 56 formed on the inside of the label substrate 54 is the same as the example shown in FIG. 1 and the example shown in FIG. The example in Figure 1 is the same as the example in Figure 5.

The structure of the label continuous body 50 illustrated in FIG. 9 is that the laminate 70 of the label base material 54 and the processing sheet 64 that bears the first half in the manufacturing process is manufactured by the same device as that illustrated in FIG. 3 . The manufacturing device responsible for the second half in the manufacturing method of the example, as shown in Figure 10, forms the printing layer 60 on the surface of the thermosensitive color-developing layer 62 by the printing device 210, but it is changed to be laminated by the release agent coating device. A method of printing and coating a release agent on the surface of a label substrate of an object to form a release layer. Its structure is, make the transparent or translucent film 58a that forms peeling layer 58 roll up, form adhesive layer 58b in the inside of film 58a, make film 58 adhere to printing layer by the cohesive force of its adhesive layer 58. 58 to form a release layer.

In the example shown in FIG. 10 , different from the example shown in FIG. 3 , the example shown in FIG. 4 , and the example shown in FIG. The process sheet 64 can be peeled off from the adhesive layer 56 by the process sheet removal device 230, then slit, and placed in the lower layer before being rolled into a roll.

The present invention is not limited to the above-described embodiments, and various changes are possible. For example, in the example shown in FIG. 1 , a printed layer also serving as a release layer may be formed on the surface of the release agent layer as the release layer. In this case, as the printing ink for forming the printing layer, it is necessary to select a printing ink which itself has release properties in order to form the release layer.

Although the present invention has been described in detail by way of illustrations, it is obvious that it should not be construed as being limited thereto, since it is explained by simple illustrations and an example, and the spirit and scope of the present invention are limited only by the appended claims.

Claims (30)

1. continous label, it comprises: strip label substrate and the adhesive layer that forms in the inside of above-mentioned label substrate and, the heat-sensitive color layer that forms in the face side of above-mentioned label substrate and; When label substrate is rolled up when folded, the peel ply that forms in face side with the opposed label substrate of above-mentioned adhesive layer.

2. continous label, it comprises: the strip label substrate and, the adhesive layer that forms in the inside of above-mentioned label substrate and, the heat-sensitive color layer that forms in the face side of above-mentioned label substrate, the printed layers that on the surface of the heat-sensitive color layer of the face side of above-mentioned label substrate, forms and, when label substrate is rolled up when folded, the peel ply that forms in face side with the opposed label substrate of above-mentioned adhesive layer.

3. according to each described continous label in claim 1 or 2, wherein, above-mentioned peel ply is to apply remover by printing to form.

4. according to each described continous label in claim 1 or 2, wherein, above-mentioned peel ply is that good film of fissility or sheet lamination get up and form.

5. continous label, it comprises: the strip label substrate and, the adhesive layer that forms in the inside of above-mentioned label substrate and, the heat-sensitive color layer that forms in the face side of above-mentioned label substrate and, when label substrate is rolled up when folded, the good printed layers of fissility that forms in face side with the opposed label substrate of above-mentioned adhesive layer side.

6. continous label according to claim 5, wherein, above-mentioned printed layers is to form by printing application to printed printing ink.

7. according to each the continous label of stating in claim 5 or 6, wherein, peel ply is with above-mentioned printed layers, when label substrate is rolled up when folded, with the face side of the opposed label substrate of above-mentioned adhesive layer side on form.

8. continous label, it comprises: the strip label substrate and, transfer to the inside of above-mentioned label substrate and the adhesive layer that forms and, the peel ply that forms in the face side of above-mentioned label substrate; It is that above-mentioned peel ply side and above-mentioned adhesive layer side are folded the forming of empty attachment state volume with opposed.

9. continous label according to claim 8 wherein, forms printed layers on the surface of label substrate, forms peel ply on the surface of printed layers.

10. continous label according to claim 8, wherein, printed layers is the surface of label substrate, forms on the surface of peel ply, and is to form with the good printing-ink of fissility.

11. each described continous label in 10 wherein, forms heat-sensitive color layer on the surface of label substrate and adhesive layer opposition side according to Claim 8.

12. each described continous label in 11 according to Claim 8, wherein, above-mentioned peel ply is to apply remover and/or printing-ink forms by printing.

13. each described continous label in 11 according to Claim 8, wherein, above-mentioned peel ply is to be formed by fissility good film or sheet lamination.

14. the manufacture method of continous label, it comprises: the surface of preparing one of them side has the engineering thin plate of fissility, and form on the surface that above-mentioned engineering thin plate has a fissility adhesive layer step 1 and, prepare promptly to possess after above-mentioned adhesive layer shifts the strip label substrate of cohesible the inside, and the step 2 that the adhesive layer of the inside of this label substrate and above-mentioned engineering thin plate is overlapped and, form on the surface of above-mentioned label substrate peel ply step 3 and, only the step 4 that above-mentioned engineering thin plate is got off from the adhesive layer sur-face peeling of transferring to above-mentioned label substrate the inside and, above-mentioned peel ply and above-mentioned adhesive layer are the step 5 that empty attachment state gathers into folds the label substrate volume with opposed.

15. the manufacture method of continous label, it comprises: the surface of preparing one of them side has the engineering thin plate of fissility, and form on the surface that above-mentioned thin plate has a fissility adhesive layer step 1 and, prepare promptly to possess after above-mentioned adhesive layer shifts the strip label substrate of cohesible the inside, and the step 2 that the adhesive layer of the inside of this label substrate and above-mentioned engineering thin plate is overlapped and, form on the surface of above-mentioned label substrate printed layers step 3 and, form on the surface of above-mentioned label substrate peel ply step 4 and, only the step 5 that above-mentioned engineering thin plate is got off from the adhesive layer sur-face peeling of transferring to above-mentioned label substrate the inside and, above-mentioned peel ply and above-mentioned adhesive layer are the step 6 that empty attachment state gathers into folds the label substrate volume with opposed.

16. manufacture method according to each described continous label in claim 14 or 15, wherein, only will go up the engineering thin plate from the step that the adhesive layer sur-face peeling of transferring to above-mentioned label substrate the inside gets off, and comprise and to cut into the step of suitable width by the stacked label substrate of preceding step and engineering thin plate with other layer that forms.

17. manufacture method according to each described continous label in claim 14 or 15, wherein, only with above-mentioned engineering thin plate from the step that the adhesive layer sur-face peeling of transferring to above-mentioned label substrate the inside gets off, comprise the label substrate stacked by preceding step and engineering thin plate are die-cut into the step of suitable width with other layer that forms.

18. according to the manufacture method of each described continous label of claim 14 to 17, wherein, on the surface of above-mentioned label substrate, form the step of peel ply, apply the step that remover forms peel ply thereby be included in above-mentioned label substrate surface printing.

19. manufacture method according to each described continous label in the claim 14 to 17, wherein, on the surface of above-mentioned label substrate, form the step of peel ply, thereby be included in the step of good film of the stacked fissility in above-mentioned label substrate surface or thin slice formation peel ply.

20. the manufacture method of continous label, it comprises: the surface of preparing one of them side has the engineering thin plate of fissility, and form on the surface that above-mentioned thin plate has a fissility adhesive layer step 1 and, prepare promptly to possess after above-mentioned adhesive layer shifts the strip label substrate of cohesible the inside, and the step 2 that the adhesive layer of the inside of this label substrate and above-mentioned engineering thin plate is overlapped and, form on the surface of above-mentioned label substrate the good printed layers of fissility step 3 and, only the step 4 that above-mentioned engineering thin plate is got off from the adhesive layer sur-face peeling of the inside of transferring to above-mentioned label substrate and, above-mentioned peel ply and above-mentioned adhesive layer are the step 5 that empty attachment state gathers into folds the label substrate volume with opposed.

21. the manufacture method of continous label according to claim 20, wherein, step 4 comprises and will be cut into the step of suitable width together to 3 stacked label substrate and engineering thin plate and other layer of forming by step 1.

22. the manufacture method of continous label according to claim 20, wherein, step 4 comprises and will be die-cut into the step of suitable width together to 3 stacked label substrate and other layer of forming by step 1.

23. according to the manufacture method of each described continous label in the claim 20 to 22, wherein, step 3, printing applies the step that the good printing-ink of fissility forms printed layers on the surface of above-mentioned label substrate thereby be included in.

24. according to the manufacture method of each described continous label in the claim 20 to 22, wherein, step 3 comprises the step that forms the good peel ply of fissility with above-mentioned printed layers on the surface of above-mentioned label substrate.

25. the manufacture method of continous label, it comprises: the surface of preparing one of them side has the engineering thin plate of fissility, and form on the surface that above-mentioned engineering thin plate has a fissility adhesive layer step 1 and, prepare promptly to possess after above-mentioned adhesive layer shifts the strip label substrate of cohesible the inside, and the step 2 that the adhesive layer of the inside of this label substrate and above-mentioned engineering thin plate is overlapped and, form on the surface of above-mentioned label substrate peel ply step 3 and, only the step 4 that above-mentioned engineering thin plate is got off from the adhesive layer sur-face peeling of the inside of transferring to above-mentioned label substrate and, above-mentioned peel ply and above-mentioned adhesive layer are the step 5 that empty attachment state gathers into folds the label substrate volume with opposed.

26. the manufacture method of continous label according to claim 25 wherein, applies the engineering thin plate step that remover prepares to be endowed fissility thereby step 1 is included in the surface printing of thin plate.

27. manufacture method according to each described continous label in claim 25 or 26, wherein, step 2 comprises the label substrate of preparing strip with wide cut, makes the inside of this label substrate overlap, cut into above-mentioned engineering thin plate and suits to roll up the step that gathers into folds behind the width.

28. the manufacture method of continous label according to claim 27, wherein, step 3 and step 4 comprise the step that will be formed printed layers and/or peel ply after the label substrate uncoiling that gathers into folds of volume.

29. according to the manufacture method of each described continous label in claim 25 or 26, wherein, thereby step 3 is included in the surface printing coating remover of above-mentioned label substrate and/or the step that the good printing-ink of fissility forms peel ply.

30. according to the manufacture method of each described continous label in claim 25 or 26, wherein, thereby step 3 is included in the step that the good film of stacked fissility on the surface of above-mentioned label substrate or thin slice form peel ply.

Images