JP2015187698A - Heat-shrinkable label with tack label and container with the label - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a heat-shrinkable label with a tack label having excellent advertising effect and a container with the label.SOLUTION: A heat-shrinkable label 2 is mounted on a container 1 so as to cover at least a shoulder part 7. The outer surface of the heat-shrinkable label 2 is mounted with a non-heat-shrinkable tack label 10 so as to place at least a portion of the tack label on the shoulder part of the container 1. Cutting lines 11 are formed toward inner sides respectively from both left and right ends of the tack label 10, and the tack label 10 is sectioned by the cutting lines 11 into two upper and lower areas that are an upper area 14 and a lower area 13.

Description

  The present invention relates to a heat-shrinkable label with a tack label in which a tack label such as a POP label used for a campaign is attached to an outer surface, and a labeled container to which the heat-shrinkable label is attached.

  For example, a cylindrical heat-shrinkable label is attached to various containers such as PET bottles. And when performing a campaign etc., the tack label also called a POP label is often stuck on the outer surface of the heat-shrinkable label for the advertisement. However, since the tack label is hardly noticeable in a mode in which the tack label is simply attached to the outer surface of the heat-shrinkable label, further contrivance for increasing the advertising effect is required.

JP 2000-112359 A

  Therefore, the present invention has been made in view of the above-mentioned conventional problems, and an object thereof is to provide a heat-shrinkable label with a tack label and a labeled container that are excellent in advertising effect.

  The present invention has been made to solve the above problems, and the heat-shrinkable label with a tack label according to the present invention has a non-heat-shrinkable tack label adhered to the outer surface of the heat-shrinkable label. At least a part of the label is a heat-shrinkable label with a tack label that faces the portion of the heat-shrinkable label that covers the short circumference of the container in the state of being attached to the container. A partition portion extending inward from the periphery of the tack label to partition into a plurality of regions is provided. The short peripheral portion of the container is a portion having a short peripheral length in the entire vertical length of the container, and typically, the mouth portion of the container, which is a portion having a shorter peripheral length than the trunk portion of the container, or the barrel The shoulder is gradually reduced in diameter or circumference from the top to the mouth. For example, when the center of the body of the container is tightly constricted and the body has a bowl shape In this case, the constricted part is also a short circumference part. In the upper part of the constricted part, the diameter gradually decreases from the upper end of the constricted part toward the central part, and in the lower part of the constricted part, the diameter gradually decreases from the lower end of the constricted part toward the central part. Adhesion is a concept including sticking.

  In the heat-shrinkable label with a tack label having such a configuration, at least a part of the tack label is located in the short circumferential portion of the container in the state of being attached to the container. Although the heat-shrinkable label greatly heat-shrinks in the circumferential direction at the short circumference of the container, the tack label does not follow the heat-shrinkage of the heat-shrinkable label because it is non-heat-shrinkable. Since the partition portion extends inward from the periphery of the tack label and the tack label is partitioned into a plurality of regions by the partition portion, the plurality of regions of the tack label are different from each other in the mounted state on the container. It becomes a state, and a three-dimensional feeling is born in the tack label.

  In particular, the partition portion is preferably a cut line or a notch portion, and even a single tack label can be easily partitioned into a plurality of regions by a cut line or a notch portion extending inward from the periphery. .

  In addition, the partition portion is configured to partition the tack label into two upper and lower regions, and in the state of being attached to the container, the portion of the heat shrinkable label that covers the short peripheral portion of the container is divided into the upper and lower regions of the tack label. It is preferable that the left and right both ends in one region are bonded, and the central portion in the left and right direction in one region of the tack label is not bonded or weakly bonded to the heat-shrinkable label. As described above, the heat-shrinkable label is greatly heat-shrinked in the circumferential direction in the short circumferential portion of the container. One area of the tack label is located in such a large heat-shrinkable portion, and the vicinity of both left and right ends of the one area is adhered to the heat-shrinkable label, and the center in the left-right direction in the one area is heated. If the heat-shrinkable label is in a non-adhesive or weakly-adhesive state with respect to the shrinkable label, the central portion in the left-right direction of one area of the tack label is convex toward the outside of the container. It will be transformed into.

  Furthermore, it is preferable that the other region of the tack label is non-adhered or weakly adhered to the heat-shrinkable label. If the other area of the tack label is not adhered to the heat-shrinkable label and is separated from the one area by the partition portion, the other area of the tack label is heated in the mounted state on the container. The other area becomes particularly conspicuous when the container is separated from the shrinkable label toward the outside of the container. Further, even if the other area of the tack label is weakly bonded to the heat-shrinkable label, as the heat-shrinkable label shrinks, it takes a cylindrical shape and generates strain stress at the adhesive portion with the tack label. However, by appropriately adjusting the degree of weak adhesion, the tack label is finally peeled off from the weakly bonded portion so as to release the strain stress, resulting in the same result as in the case of non-bonding. Furthermore, the other area of the tack label exists above or below the one area of the tack label that is convex as described above. Since it is separated from the heat-shrinkable label, it has a shape different from one region of the tack label, such as a flat shape extending in a substantially straight line in the circumferential direction. As described above, since the shapes of the two upper and lower regions of the tack label are greatly different from each other, the tack label becomes more conspicuous and an even greater advertising effect can be obtained. Further, since one area of the tack label is deformed in a convex shape outward from the container, the distance of the other area to the outside of the container increases by the amount of the protrusion, and the other area is further increased. It becomes easy to stand out.

  Further, the partition part is configured to partition the tack label into three regions on the left and right sides, and in the state of being attached to the container, the heat-shrinkable label part that covers the short peripheral part of the container, the left region and the right region of the tack label It is also preferred that at least a portion of each of the two is adhered and the central region of the tack label is non-adhered or weakly adhered to the heat-shrinkable label. In this case, the left region and the right region of the tack label come closer to each other due to the heat shrinkage of the heat shrinkable label. In particular, since at least a part of each of the left region and the right region of the tack label is bonded to the portion of the heat-shrinkable label that covers the short peripheral portion of the container in the mounted state on the container, the left region of the tack label The right areas will be very close to each other. On the other hand, since the center region of the tack label is in a non-adhesive or weakly adhered state to the heat-shrinkable label, the heat-shrinkable label is separated from the heat-shrinkable label toward the outside of the container by heat-shrinking. . Further, since the tack label is partitioned into a left region, a central region, and a right region by a partition portion extending inward from the periphery of the tack label, when the heat shrinkable label is thermally contracted, the left region of the tack label The right side areas can smoothly approach each other and the central area can be smoothly spaced outward from the container.

  Further, in the labeled container according to the present invention, a heat-shrinkable label is attached to the container so as to cover at least the short circumference, and a non-heat-shrinkable tack label is adhered to the outer surface of the heat-shrinkable label, A label-attached container in which at least a part of the tack label is located in a short peripheral portion of the container, and the tack label extends inward from the periphery of the tack label so as to divide the tack label into a plurality of regions. It is characterized by having.

  In the labeled container of this configuration, at least a part of the tack label is located in the short circumferential length of the container. Although the heat-shrinkable label is greatly heat-shrinked in the circumferential direction in the short peripheral portion of the container, the tack label is non-heat-shrinkable and does not follow the heat-shrinkage of the heat-shrinkable label. Since the partition portion extends inward from the periphery of the tack label and the tack label is partitioned into a plurality of regions by the partition portion, the plurality of regions of the tack label are in different states from each other. A three-dimensional feeling is born.

  In particular, the partition portion is preferably a cut line or a notch portion, and even a single tack label can be easily partitioned into a plurality of regions by a cut line or a notch portion extending inward from the periphery. .

  In addition, the partition portion is configured to partition the tack label into two upper and lower regions, and one of the two upper and lower regions of the tack label is located in the short peripheral portion of the container, and the vicinity of both left and right ends thereof is It is preferable to adhere to the heat-shrinkable label and to have its center portion in the left-right direction deformed in a convex shape outward from the container. According to this configuration, since one region of the tack label is deformed in a convex shape outward from the container and is separated from the heat-shrinkable label, the tack label becomes more conspicuous, and further A great advertising effect can be obtained.

  Furthermore, it is preferable that the other region of the tack label is spaced outward from the heat-shrinkable label. According to this configuration, since the other area of the tack label is separated from the heat-shrinkable label toward the outside of the container, the other area is particularly noticeable. As described above, one area of the tack label is convex, and the other area of the tack label exists above or below the area. Since the other region of the tack label is separated from the heat-shrinkable label, it has a shape different from the one region of the tack label, such as a flat shape extending in a substantially straight line in the circumferential direction. As described above, since the shapes in the two upper and lower regions of the tack label are greatly different from each other, the tack label becomes more conspicuous, and a greater advertising effect can be obtained. In addition, since one region of the tack label is deformed in a convex shape outward from the container, the separation distance of the other region to the outside of the container increases by the amount of the protrusion, and the other region is It becomes even more noticeable.

  Further, the partition part is configured to divide the tack label into three regions on the left and right sides, and at least a part of each of the left region and the right region of the tack label is located in the short peripheral portion of the container and is used as a heat-shrinkable label. It is also preferred that the central area of the tack label is glued away from the heat shrinkable label outward of the container. According to this structure, since the center area | region of a tack label is the state spaced apart from the heat-shrinkable label outside the container, the center area | region of a tack label becomes conspicuous and the big advertising effect is acquired.

  As described above, since the tack label has a partition portion extending inward from the peripheral edge thereof, the plurality of areas of the tack label are different from each other in the mounted state on the container, and the tack label has a three-dimensional effect. As a result, the tack label becomes more conspicuous and the advertising effect can be improved as compared with the conventional form in which the entire tack label is simply attached to the heat-shrinkable label.

The front view which shows the container with a label in one Embodiment of this invention. AA sectional drawing of FIG. The front view which shows the heat-shrinkable label with a tack label with which the container is mounted | worn. (A) is a front view which shows the principal part of the heat-shrinkable label with a tack label in other embodiment of this invention, (b) is a front view which shows the tack label of (a). The front view which shows the principal part of the heat-shrinkable label with a tack label in other embodiment of this invention. The front view which shows the container with a label in other embodiment of this invention. BB sectional drawing of FIG. (A) is a front view which shows the heat-shrinkable label with a tack label with which the container is mounted | worn, (b) is a front view which shows the tack label of (a). The front view which shows the container with a label in other embodiment of this invention. The front view which shows the heat-shrinkable label with a tack label with which the container is mounted | worn. The front view which shows the container with a label in other embodiment of this invention. The front view which shows the heat-shrinkable label with a tack label with which the container is mounted | worn. The front view which shows the principal part of the heat-shrinkable label with a tack label with which the container with a label in other embodiment of this invention is mounted | worn. The front view which shows the principal part of the labeled container with which the heat-shrinkable label with the same tack label was mounted | worn. The perspective view which shows the principal part of the container with the label. (A) And (b) is a front view which shows the principal part of the heat-shrinkable label with a tack label with which the container with a label in other embodiment of this invention is mounted | worn. The front view which shows the principal part of the heat-shrinkable label with a tack label with which the container with a label in other embodiment of this invention is mounted | worn. The front view which shows the principal part of the labeled container with which the heat-shrinkable label with the same tack label was mounted | worn. The perspective view which shows the principal part of the container with the label. The front view which shows the principal part of the heat-shrinkable label with a tack label with which the container with a label in other embodiment of this invention is mounted | worn. The front view which shows the principal part of the labeled container with which the heat-shrinkable label with the same tack label was mounted | worn. The perspective view which shows the principal part of the container with the label. The front view which shows the principal part of the heat-shrinkable label with a tack label with which the container with a label in other embodiment of this invention is mounted | worn. The front view which shows the principal part of the labeled container with which the heat-shrinkable label with the same tack label was mounted | worn. The perspective view which shows the principal part of the container with the label.

  Hereinafter, a heat-shrinkable label with a tack label according to an embodiment of the present invention and a container equipped with the same will be described with reference to FIGS. 1 and 2 show a container 1 on which a heat-shrinkable label 2 with a tack label according to this embodiment is mounted. The container 1 may be various types such as a plastic bottle and a bottle can.

  The container 1 includes a container body and a cap 3. FIG. 1 shows a state before opening, and the cap 3 is detached and opened by cutting the perforated opening separation line 3a. The container body has a threaded portion (not shown) to which the cap 3 is screwed on the outer peripheral surface, a small-diameter mouth portion 5 having an opening (not shown) at the upper end, and a larger diameter than the mouth portion 5. A trunk portion 6 occupying most of the container body, a shoulder portion 7 located between the mouth portion 5 and the trunk portion 6 and gradually increasing in diameter from the mouth portion 5 toward the trunk portion 6; And a bottom portion 8 located below the trunk portion 6. The cap 3, the mouth portion 5, and the shoulder portion 7 are shorter in circumference than the body 6, which is the portion having the maximum circumference in the container 1, and are therefore short circumference portions. Among them, the shoulder portion 7 can be said to be a circumferential length enlarged portion because the circumferential length gradually increases toward the trunk portion 6.

  The heat-shrinkable label 2 has a cylindrical shape and is covered with the container 1 so as to be in close contact with the container 1. Specifically, the heat-shrinkable label 2 covers the shoulder portion 7 and the trunk portion 6 of the container 1. The heat-shrinkable label 2 covers the region except for the upper portion of the shoulder portion 7 of the container 1, and the covered region occupies most of the shoulder portion 7, and at least the lower half of the shoulder portion 7. Covers the area. Accordingly, the upper end 2 a of the heat-shrinkable label 2 is located on the upper portion of the shoulder portion 7. The heat-shrinkable label 2 covers substantially the entire body 6 of the container 1, and the lower end 2 b of the heat-shrinkable label 2 is located at the bottom 8. The upper end 2a of the heat-shrinkable label 2 may be located at the mouth portion 5 instead of the upper portion of the shoulder portion 7, and the lower end 2b of the heat-shrinkable label 2 is located at the middle portion of the trunk portion 6. Also good. The axial direction of the heat-shrinkable label 2 is the vertical direction and is the same as the axial direction of the container 1.

  A non-heat-shrinkable tack label 10 is bonded to the upper part of the outer surface of the heat-shrinkable label 2. Specifically, the tack label 10 has a horizontally long rectangular shape as a whole, and is adhered to the heat-shrinkable label 2 such that the left-right direction as the longitudinal direction thereof is the circumferential direction of the heat-shrinkable label 2 and the container 1. ing. The entirety of the tack label 10 is located on the shoulder 7 of the container 1, and the adhesion portion to the heat-shrinkable label 2 is also a part of the heat-shrinkable label 2 that covers the shoulder 7 of the container 1.

  A cut line 11 is formed on the tack label 10 so as to divide the tack label 10 into two upper and lower regions and extend inward and laterally from the periphery of the tack label 10. The cut lines 11 are formed inward from the left and right ends of the tack label 10, and the left and right cut lines 11 have the same vertical position, and the left and right direction (width direction) of the tack label 10. Therefore, the score lines 11 extend in the circumferential direction of the heat-shrinkable label 2 and are in line with each other. The vertical position of the score line 11 is, for example, the central portion in the vertical direction, but may be a position eccentric to the upper side, or may be a position eccentric to the lower side. In addition, since the cut lines 11 having a predetermined length are formed from the left and right ends toward the inside, a remaining portion 12 is formed between the cut lines 11 without the cut lines 11 being formed. The ratio of the length of the score line 11 and the length of the remaining portion 12 is arbitrary, but the length of the score line 11 is longer than the length of the remaining portion 12 in order for the two upper and lower regions to take different states. It is preferable that the length of the remaining portion 12 is not more than half of the entire length of the tack label 10 in the left-right direction.

  In this way, the cut lines 11 extending in the lateral direction from the left and right ends toward the inside of the tack label 10 are formed, whereby the tack label 10 is partitioned into two upper and lower regions. The lower region 13, which is a region below the cut line 11, is bonded to the heat-shrinkable label 2 only in the vicinity of both left and right ends, and is not bonded to the heat-shrinkable label 2 in the center in the left-right direction. The center part in the left-right direction in the non-bonded state is spaced apart from the heat-shrinkable label 2 to the outside of the container 1 as shown in FIG. As will be described later, on the back surface of the lower region 13 of the tack label 10, the adhesive portion 15 is provided only in the vicinity of both left and right ends, and the non-adhesive portion 16 is provided between the adhesive portions 15. In the figure, the cross hatched portion is the adhesive portion 15 on the back surface.

  The convex shape in the lower region 13 of the tack label 10 is deformed so as to be bent outward of the container 1 because the heat-shrinkable label 2 is thermally contracted in the circumferential direction and the tack label 10 is not substantially thermally contracted. It is formed. The tack label 10 is bonded to the heat-shrinkable label 2 by the bonding portions 15 in the vicinity of the left and right ends of the lower region 13. Therefore, the protruding amount and the degree of curvature of the convex shape in the lower region 13 of the tack label 10 depend on the heat shrinkage amount of the heat-shrinkable label 2 and the separation distance between the left and right adhesive portions 15 in the lower region 13 of the tack label 10. Different.

  On the other hand, the upper region 14, which is the region above the score line 11, is entirely non-adhered to the heat-shrinkable label 2, and as shown in FIG. It is in the state spaced apart outward. The shape of the upper region 14 of the tack label 10 is typically a flat shape that is straight in the left-right direction as shown in FIG. 2, but is curved outwardly or conversely curved outwardly. May be. In any case, it is in a deployed state with its wings spread to the left and right. Since the upper region 14 and the lower region 13 are connected to each other in the central remaining portion 12 where the cut lines 11 are not formed, the upper region is located above the central portion in the left-right direction of the convex lower region 13. 14 will appear. In other words, the central portion in the left-right direction of the lower region 13 that is convex serves as a support base for supporting the upper region 14, and the upper region 14 is supported from the lower side in the central portion in the left-right direction. Further, the separation distance from the heat-shrinkable label 2 in the central portion in the left-right direction of the upper region 14 is substantially equal to the protruding amount of the convex shape of the lower region 13. Since the cross-sectional shape of the shoulder portion 7 of the container 1 is circular, the separation distance of the upper region 14 from the heat-shrinkable label 2 is the smallest in the central portion in the left-right direction, and gradually increases from there toward the left and right ends. To go. On the other hand, since the lower region 13 is in a state of being bonded to the heat-shrinkable label 2 by the bonding portion 15 in the vicinity of both left and right ends, the separation distance is 0 and gradually moves away from there toward the central portion in the left-right direction. The distance increases and is maximum in the center in the left-right direction. Thus, while the lower region 13 is deformed into an outer convex shape, the upper region 14 has a substantially flat or a developed shape spreading laterally close thereto, and the upper region 14 and the lower region 13 have different shapes. In addition, the distance from the heat-shrinkable label 2 in the vicinity of both left and right ends is also different from each other.

  The heat-shrinkable label 2 with the tack label 10 in an unshrinked state before being attached to the container 1 is shown in FIG. The heat-shrinkable label 2 has a cylindrical shape but is folded in a flat shape, and both side edges are creases. In FIG. 3, a portion corresponding to the boundary line 4 between the shoulder portion 7 and the body portion 8 of the container 1 is indicated by a two-dot chain line. The same applies to FIG. 4, FIG. 5, and FIG. 8 described later.

  Here, the heat-shrinkable label 2 is a so-called shrink label, and a uniaxially stretched film that contracts mainly in the circumferential direction can be used, but a biaxially stretched film that contracts also in the axial direction may be used. The uniaxially stretched film refers to a film that is substantially uniaxially stretched, and means a film that has significantly different shrinkage rates in the circumferential direction (so-called TD direction) and the axial direction (so-called MD direction). It does not mean only a film that does not shrink at all (so-called shrinkage rate is zero). Specifically, for example, a film having a thermal contraction rate of 20 to 80% in the circumferential direction and a thermal contraction rate of −5 to 10% in the axial direction at 90 ° C. for 10 seconds (warm water treatment) can be mentioned. For example, in the case of a uniaxially stretched film that contracts mainly in the circumferential direction, the circumferential direction is the main stretching direction.

  Specific examples of the resin film constituting the heat-shrinkable label 2 include polyolefins such as linear low density polyethylene (LLDPE), low density polyethylene (LDPE), high density polyethylene (HDPE), and polypropylene (PP), polyethylene Polyesters such as terephthalate (PET) and polybutylene terephthalate (PBT), polystyrene (PS), polylactic acid (PLA), polyamide, ethylene vinyl acetate copolymer (EVA), ethylene-acrylic acid copolymer Examples include films made of vinyl resins such as coalescence (EAA) and polyvinyl chloride. Moreover, the film containing the resin mixture which mixed 2 or more types of these resin can also be used, and the laminated | multilayer film which laminated | stacked 2 or more types of films can also be used. Of these, polyester-based, polyolefin-based, and polystyrene-based films are preferable, and polyester-based films and polystyrene are particularly preferable because they have appropriate shrinkage stress and high transparency. A uniaxially stretched film that contracts mainly in the circumferential direction is preferred.

  The thickness of the heat-shrinkable label 2 is not particularly limited, but is preferably 8 to 100 μm, more preferably 10 to 80 μm, and particularly preferably 15 to 60 μm. It is also preferable to use a colored resin film or a resin film on which a printing layer for displaying a trade name, a design, or the like is formed.

  A tack label 10 is bonded to the upper part of the outer surface of the heat-shrinkable label 2. The tack label 10 has a horizontally long rectangular shape, and the horizontal dimension of the upper region 14 and the horizontal dimension of the lower region 13 are the same. Both the upper region 14 and the lower region 13 have a strip shape that is long in the horizontal direction. is there. The tack label 10 is bonded so that its width direction (left-right direction) substantially coincides with the left-right direction (circumferential direction) of the heat-shrinkable label 2. The horizontal dimension of the tack label 10 is arbitrary, but when the cylindrical heat-shrinkable label 2 is folded flat as shown in FIG. 3, the horizontal dimension of the flat heat-shrinkable label 2 is shown. To be shorter. Further, the horizontal dimension of the upper region 14 may be different from the horizontal dimension of the lower region 13. For example, if the upper and lower dimensions of the upper region 14 are made substantially the same, the upper region 14 becomes substantially square, so that the labeled container is expressed when the upper region 14 is separated from the short circumferential portion 7. Can have variations.

  A position indicated by a two-dot chain line in FIG. 3 is a boundary line between the body portion 6 and the shoulder portion 7 of the container 1, and is indicated by reference numeral 4. Therefore, the portion above the two-dot chain line is a portion covering the shoulder portion 7 of the container 1, and the tack label 10 is adhered to that portion. Further, the tack label 10 is bonded so that the upper end of the tack label 10 is slightly below the upper end 2a of the heat-shrinkable label 2 so that the tack label 10 does not protrude upward from the upper end 2a of the heat-shrinkable label 2. The distance between the upper end of the tack label 10 and the upper end 2a of the heat-shrinkable label 2 is secured at least about 3 to 10 mm.

  An adhesive portion 15 and a non-adhesive portion 16 are provided on the back surface of the tack label 10. In the figure, the adhesive portion 15 is a portion that is cross-hatched, the non-adhesive portion 16 is a portion that is not applied, and the adhesive portion 15 is formed only in the vicinity of the left and right ends of the lower region 13, All the portions are non-adhesive portions 16.

  Here, the tack label 10 has a label base material and an adhesive layer laminated on the back surface of the label base material. The label base material is not particularly limited as long as it is a flexible sheet, and various known materials can be used. Examples of the label base material include paper, non-woven fabric, synthetic paper, plastic film and the like, and may have a single layer structure or a multilayer structure of two or more layers. In particular, since it is excellent in mechanical strength and has flexibility, a single layer of synthetic paper or plastic film, or a laminate including synthetic paper or plastic film is preferable. Examples of the plastic film include thermal resins such as ester resins such as polyethylene terephthalate and polylactic acid, olefin resins such as polypropylene, styrene resins such as styrene-butadiene copolymers, cyclic olefin resins, and vinyl chloride resins. A stretched film containing a plastic resin or the like can be used, and among these, it is preferable to use these biaxially stretched films because of excellent mechanical strength. It is also preferable to use a polypropylene film. Although the thickness of a label base material is not specifically limited, When it consists of a single layer of a synthetic paper or a plastic film, it is 25 micrometers-120 micrometers, for example, Preferably it is 30 micrometers-100 micrometers. Moreover, it is also preferable to use a polyethylene terephthalate film, and in that case, the thickness is preferably 35 to 75 μm.

  The label base material of the tack label 10 may be transparent or opaque, but is preferably transparent. Synthetic paper is usually milky white and opaque, and therefore becomes opaque when the label substrate includes synthetic paper. In addition, since the plastic film is usually transparent, an opaque label substrate can be obtained by applying white solid printing or silver solid printing to the transparent plastic film. Moreover, it is good also as an opaque label base material by laminating | stacking an opaque layer like a metal vapor deposition film on a plastic film.

  The label base material of the tack label 10 is non-heat-shrinkable. That is, the label base material that does not substantially heat shrink at the shrink temperature of the heat shrinkable label 2 is used. The shrinkage temperature of the heat-shrinkable label 2 refers to a temperature at which the heat-shrinkable label 2 can be heat-shrinked to such an extent that it adheres along the shape of the container 1. The shrinkage temperature usually refers to a temperature at which the outer surface temperature of the heat-shrinkable label 2 is 60 ° C to 100 ° C, preferably 80 ° C to 100 ° C. The term “substantially no heat shrinkage” means that heat shrinkage occurs in any direction at a heat shrinkage rate of ± 5% or less (however, minus means expansion) in addition to the case where no shrinkage occurs at the shrinkage temperature. Including cases.

  A visual field selection film or an enlarged display film may be used for the label substrate of the tack label 10. When viewing the image on the far side through the same film, there are cases where the image on the far side is visible or not visible depending on the viewing angle. It is a film that can appear heavy. As a specific example, for example, a transparent polymer resin film provided with stripe-like craze regions substantially parallel to the molecular orientation direction of the polymer resin film can be exemplified. In addition, the enlarged display film is a film having a function of a magnifying glass, which allows the image to appear larger than the actual image when the image on the other side is viewed through the film. As a specific example of such an enlarged display film, a plurality of microlens portions are formed at a fine pitch on one side of a transparent resin film, and a transparent protective layer having a high refractive index is provided on one side of the resin film. Examples of stacked layers can be given.

  A desired display part (printing layer) is formed by printing on the front surface or the back surface of the label base as necessary. It is preferable to form various types of advertising print layers mainly in the upper region 14. In addition, a transparent label substrate is used, and a print layer is not formed in the lower region 13 so that printing of the heat-shrinkable label 2 can be visually recognized through the transparent label substrate. Is also preferable. Moreover, when using an opaque label base material, a display part is provided on the surface. When the opaque tack label 10 is bonded to the heat-shrinkable label 2, a part of the design of the heat-shrinkable label 2 may be hidden by the tack label 10 and become invisible. Therefore, when providing a display part on the surface of an opaque label base material, it is good also as a display part for supplementing the design of the heat-shrinkable label 2 which is hidden and cannot be seen.

  The adhesive layer is composed of various pressure-sensitive adhesives, and for example, acrylic or rubber pressure-sensitive pressure-sensitive adhesives can be used. A heat-sensitive adhesive may also be used. The thickness of the pressure-sensitive adhesive layer is, for example, 10 to 30 μm. The adhesive layer is formed on the entire back surface of the label base material, and a masking layer called “glue killing” or “glue suppression” is formed on a part of the entire back surface of the adhesive layer. As a result, the back surface of the tack label 10 is partitioned into an adhesive portion 15 and a non-adhesive portion 16. That is, the adhesive strength of the portion where the masking layer is formed is smaller than that of the portion remaining without the masking layer being formed. Therefore, the portion of the back surface of the adhesive layer where the masking layer is formed becomes the non-adhesive portion 16, and the portion of the back surface of the adhesive layer where the masking layer is not formed becomes the adhesive portion 15. The masking layer can be formed by a known printing method using a masking agent. The masking agent is preferably non-tacky and can form a layer that is cured by ultraviolet rays on the adhesive layer, and ultraviolet curable ink or the like can be used. However, an adhesive layer is not formed on the entire back surface of the label base material, but an adhesive layer is formed only on the back surface of the label base material corresponding to the adhesive portion 15 and the label base material corresponding to the non-adhesive portion 16 is formed. The adhesive portion 15 and the non-adhesive portion 16 may be partitioned so that no adhesive layer is formed on the back surface.

  The heat-shrinkable label 2 with the tack label 10 configured as described above is put on the container 1, and the heat-shrinkable label 2 is heated and thermally shrunk by a shrink tunnel or the like so as to be in close contact with the container 1. At this time, since the tack label 10 is non-heat-shrinkable, it does not substantially heat-shrink. In particular, the shrinkage amount of the heat-shrinkable label 2 is large at the shoulder portion 7 of the container 1. Therefore, in the lower region 13 of the tack label 10, the adhesive portions 15 approach each other and the adhesive portions 15 do not adhere to each other. The portion 16 is bent so as to protrude outward from the container 1 and deformed into a convex shape, resulting in a shape as shown in FIG. On the other hand, since the entire upper surface 14 of the tack label 10 is the non-adhesive portion 16 and is not adhered to the heat-shrinkable label 2, the entire region 14 is separated so as to float up outside the container 1. As shown in FIG. 1 and FIG.

  Thus, in the state in which the heat-shrinkable label 2 with the tack label 10 is attached to the container 1, the tack label 10 is divided vertically by the cut line 11, and the upper region 14 and the lower region 13 are different from each other. Since it is in a state, the tuck label 10 has a three-dimensional effect. Therefore, the tack label 10 is more conspicuous and the advertising effect is improved as compared with the conventional case where the entire tack label 10 is simply attached to the heat-shrinkable label 2.

  In particular, since the entire upper region 14 of the tack label 10 is separated from the heat-shrinkable label 2 to the outside of the container 1, the upper region 14 of the tack label 10 is particularly noticeable and has a high advertising effect. Is obtained. Further, the lower region 13 of the tack label 10 is in a state of being deformed in a convex shape outward of the container 1, and the upper region has a shape different from the shape of the lower region 13 on the upper side. 14 is present, the shapes of both the upper region 14 and the lower region 13 are combined to form a complicated three-dimensional shape, and the tack label 10 stands out conspicuously. Further, since the lower region 13 of the tack label 10 is deformed outwardly from the container 1, the separation distance of the upper region 14 from the heat-shrinkable label 2 is further increased by the amount of protrusion of the lower region 13. As a result, the upper region 14 becomes more noticeable.

  In addition, the tack label 10 is not a three-dimensional shape in a state before being attached to the container 1 but is a flat shape, and the heat-shrinkable label 2 automatically changes to the three-dimensional shape as described above when thermally contracted. The work of attaching the tack label 10 having a three-dimensional shape in advance to the container 1 or the heat-shrinkable label 2 attached to the container 1 is unnecessary, and the manufacture is easy.

  Furthermore, since the tack label 10 is located on the shoulder 7 of the container 1 and fits within the size of the body 6 of the container 1 and does not protrude to the side of the container 1, a plurality of containers 1 may be arranged. The tuck label 10 does not bend or break due to contact with the adjacent container 1 or the tuck label 10, and a desired three-dimensional shape is maintained even during packaging or display.

  In the present embodiment, the adhesive portions 15 are provided only in the vicinity of the left and right ends of the lower region 13 of the tack label 10. However, the present invention is not limited thereto. For example, the adhesive portion 15 is provided on the entire back surface of the lower region 13 as shown in FIG. It may be provided. Moreover, the adhesion position to the heat-shrinkable label 2 can also be arbitrarily changed, and the boundary line 4 between the shoulder portion 7 and the trunk portion 6 of the container 1 may be adhered so as to straddle up and down. 4 (a), the lower region 13 may be positioned on the body 6 of the container 1 and the upper region 14 may be positioned on the shoulder 7 of the container 1. When the entire lower region 13 is bonded to the heat-shrinkable label 2 in this way, the lower region 13 does not have the convex shape as described above, and the outside of the container 1 is removed from the heat-shrinkable label 2. It ’s not far away.

  Alternatively, the tack label 10 shown in FIG. 3 may be turned upside down and adhered to the heat-shrinkable label 2 as shown in FIG. In this case, adhesive portions 15 are provided in the vicinity of both left and right ends of the upper region 14 of the tack label 10 to form a convex shape, and the lower region 13 is in a state of non-adhesion as a whole and the wings are spread left and right. .

  Furthermore, as shown in FIGS. 6 to 8, adhesive portions 15 may be provided near the left and right ends of the upper region 14 and the lower region 13 of the tack label 10. That is, the adhesive portions 15 may be provided in the form of points at the four corners of the tack label 10. In addition, it is preferable that the area of the adhesion part 15 is small. In this case, an adhesive that exhibits a strong adhesive force so as to sufficiently bond even a small area is preferable. As described above, when the adhesive region 15 is provided in the vicinity of both the left and right ends of the upper region 14 as well as the lower region 13 and adhered to the heat-shrinkable label 2 as shown in FIG. In accordance with the thermal contraction of 2, the upper region 14 is also curved and deformed in a convex shape toward the outside of the container 1 in the same manner as the lower region 13. However, in this embodiment, the upper region 14 of the tack label 10 is located on the shoulder 7 of the container 1, while the majority of the lower region 13 is located on the trunk 6 of the container 1. This protrudes more outward from the container 1 than the lower region 13. Since the upper region 14 and the lower region 13 are partitioned by the score line 11 in this manner, the upper region 14 and the lower region 13 can protrude outward from the container 1 with different protrusion amounts, The three-dimensional effect is increased by the difference, and the tack label 10 is conspicuous. Therefore, for example, the adhesive portion 15 may be provided in the entire lower region 13, and the adhesive portion 15 may be provided in the vicinity of both left and right ends of the upper region 14. Only the upper region 14 is deformed into a convex shape and the lower region 13 is deformed. Therefore, the tuck label 10 becomes conspicuous. On the other hand, the same applies when the adhesive portion 15 is provided not in the lower region 13 but in the entire upper region 14. However, both the upper region 14 and the lower region 13 are deformed into a convex shape, and by making use of the difference in the amount of heat shrinkage of the heat-shrinkable label 2 so that the convex shapes of both are different, the tack label is further increased. 10 becomes conspicuous and the advertising effect increases.

  In the above embodiment, the heat-shrinkable label 2 covers the shoulder 7 and the body 6 of the container 1, and the upper end 2a of the heat-shrinkable label 2 is located above the shoulder 7, As described above, the range in which the heat-shrinkable label 2 covers the container 1 is arbitrary, and the upper end 2a of the heat-shrinkable label 2 may be located in the mouth portion 5, or as shown in FIG. The heat shrinkable label 2 may cover the substantially entire length of the container 1 as referred to as shrink. In the embodiment shown in FIG. 9, the heat-shrinkable label 2 is attached so as to cover up to the cap 3 of the container 1, and the upper end 2 a of the heat-shrinkable label 2 is located on the top surface of the cap 3 or in the vicinity of the top surface. doing. The size of the tack label 10 may be similar to that of the above embodiment, but in this embodiment, the tack label 10 is also increased in size up and down with the full shrinking. FIG. 10 shows the heat-shrinkable label 2 with the tack label 10. The upper region 14 of the tack label 10 extends over the shoulder 7 to the cap 3, and the adhesive portion 15 of the upper region 14 is located at the portion of the heat-shrinkable label 2 that covers the cap 3. Therefore, the vicinity of the left and right ends of the upper region 14 of the tack label 10 is bonded to the portion of the heat-shrinkable label 2 that covers the cap 3.

  Moreover, although the case where the cut line 11 was formed as a partition part was demonstrated in the said embodiment, you may make it form the notch part 21 as a partition part like FIG.11 and FIG.12. In this embodiment, the peripheral edge 10a of the tack label 10 means a rectangle surrounded by a dotted line in FIG. 12, and the notches 21 extend inward from the left and right ends of the tack label 10 so as to be symmetrical. Is formed. Although the shape of the notch 21 is also arbitrary, for example, it is U-shaped in FIGS. Other configurations are the same as those shown in FIGS. In this way, the tack label 10 may be divided into two regions, the upper region 14 above the notch 21 and the lower region 13 below, by the notch 21. Note that the length and size of the cut line 11 and the cutout portion 21 may be different on the left and right, or one of the left and right may be the cutline 11 and the other may be the cutout portion 21.

  In the above embodiment, the other part of the back surface of the tack label 10 excluding the adhesive part 15 is the non-adhesive part 16, but the weak adhesive having a lower adhesive force than the non-adhesive part 16 and the adhesive part 15. It is good also as a part. Even when the masking layer is formed as described above, some adhesive force may remain. Even when a masking layer is formed on the adhesive layer, the masking layer is formed by forming small holes in the masking layer so that the adhesive layer is partially exposed from the small holes. It is good also as a weak adhesive part so that the weak adhesive force may remain in the formed part. Furthermore, you may make it form the adhesion part 15 and the weak adhesion part by devising the formation process of a masking layer. For example, when the masking layer is formed by a printing technique after the adhesive layer is formed on the entire back surface, the masking layer can be solid printed (100%) to form the non-adhesive portion 16. A weakly bonded portion can be formed by forming with various percentages of halftone dots. By doing so, the adhesive strength of the weakly bonded portion can be easily adjusted by the size of the halftone dots of the masking layer. It is also easy to change the adhesive strength of the weakly bonded portion within the weakly bonded portion region. For example, in the case where the bonded portion 15 is formed in the vicinity of both left and right ends and the space between them is a weakly bonded portion, the horizontal direction The adhesive force may be gradually decreased by gradually increasing the dot area ratio of the masking layer toward the center. Thus, the adhesive force of the weakly bonded portion can be arbitrarily adjusted by adjusting the dot area ratio.

  In addition, when a portion other than the adhesive portion 15 is set as a weak adhesive portion in this way, the portion other than the adhesive portion 15 is less likely to lift from the heat-shrinkable label 2 before being attached to the container 1, and in particular, with the tack label 10 attached. When the heat-shrinkable label 2 is a continuous long body that is folded into a flat shape and wound into a roll to be manufactured, stored, or managed, the corner of the tack label 10 positioned outside the adhesive portion 15 It becomes easy to prevent that it is drowned. The heat-shrinkable label 2 is thermally shrunk in the circumferential direction to generate strain stress in the weakly bonded portion of the tack label 10, but finally the strain stress is released by appropriately adjusting the degree of weak adhesion. As a result, the heat-shrinkable label 2 can be automatically peeled off.

  Furthermore, although the form in which at least a part of the tack label 10 is located on the shoulder 7 or the mouth part 5 of the container 1 or the cap 3 has been described, for example, the vertical center part of the body part 6 of the container 1 is bound. In the case where the body 6 has a bowl shape with a small diameter, the tapered upper part of the constricted part whose diameter gradually increases toward the upper side and the diameter gradually increases toward the lower side. The tack label 10 may be positioned at the tapered lower portion of the constricted portion.

  Furthermore, the cross-sectional shape of the container 1 may be not only a circular shape as described above but also a polygonal shape such as a rectangle. In the case of a polygonal shape, the tack label 10 may be adhered to the flat portion of the container 1. You may adhere | attach so that a corner | angular part may straddle right and left.

  In addition, the heat-shrinkable label 2 with the tack label 10 as shown in FIG. 3 etc. is normally manufactured as follows. That is, both side edges of a long shrink film having a predetermined width are bonded together to form a cylindrical shape, and the long cylindrical label is folded into a flat shape and wound into a roll to be stored and transported. The Accordingly, creases are formed on both side edges of the flat label long body. In addition, the tack label 10 is adhered to the long label body folded in a flat shape at predetermined intervals, for example. And the label long body drawn | fed out from the roll is cut | disconnected for every predetermined length, and although the heat-shrinkable label 2 with the tack label 10 is formed, in order to make it easy to cover the container 1, it is in the middle of a driving | running route. There is a case where a folding process is performed to fold the long label body. The folding process is a process in which a long label body in a flat state is once opened, and the both side edges in the flat state are brought close to each other and overlapped to be newly folded into a flat state. By this folding process, two new folds are formed in the long label body, and a total of four folds are formed along the axial direction together with the original two folds. When the folding process is performed in this manner, the crease also enters the tack label 10. Therefore, in order to prevent the crease from entering the tack label 10, a foam layer may be formed at the crease forming position on the back surface of the tack label 10. Alternatively, the tack label 10 itself may be a synthetic paper that is not easily creased.

  In addition, although the structure which formed the division part of the cut line 11 etc. in the one tack label 10, and divided the tack label 10 into two upper and lower area | regions was demonstrated, two label pieces are connected up and down, and one piece is attached. The tack label 10 may be configured. The connection means may be configured such that one is partially overlapped and bonded to the other, or a separate connection piece may be used. In any case, by forming a gap such as a slit between the upper and lower label pieces, the gap can be used as a partition portion.

  Further, as shown in FIG. 13, the cut line 30 may be extended from the inner end of the horizontal cut line 11 toward the lower region 13. FIG. 13 shows the main part of the heat-shrinkable label 2 with the tack label 10, and the tuck label is attached to the portion of the heat-shrinkable label 2 that covers the shoulder 7 of the container 1 as shown in FIG. The whole of 10 is located. When the cut line 30 is extended from the inner end of the horizontal cut line 11 toward the lower region 13 in this way, the upper region 14 is partially enlarged downward. That is, the upper region 14 has a main portion 14a that occupies most of the upper region 14 and a support leg portion 14b that protrudes downward from the center of the lower end of the main portion 14a, and is formed in a substantially T-shape as a whole. Has been. A pair of left and right extension cut lines 30 are formed to form a support leg 14b therebetween, and the pair of left and right extension cut lines 30 approach each other from the inner end of the horizontal cut line 11 toward the lower side. It has a shape that extends so as to be inclined. That is, the distance between the pair of left and right extending cut lines 30 is narrower toward the lower side, and therefore the support leg portion 14b of the upper region 14 is gradually narrower toward the lower side.

  14 and 15 show a state in which the heat-shrinkable label 2 with the tack label 10 is attached to the container 1. FIG. When the heat-shrinkable label 2 is attached to the container 1, the heat-shrinkable label 2 is greatly shrunk at the shoulder 7 of the container 1, so that the left and right adhesive portions 15 of the lower region 13 of the tack label 10 approach each other. The unbonded portion 16 between the bonded portions 15 in the region 13 is curved and deformed into a convex shape so as to protrude outward of the container 1. In addition, since the shrinkage amount of the heat-shrinkable label 2 is larger toward the upper side, the left and right ends (right and left side edges) of the lower region 13 of the tack label 10 are closer to each other toward the upper side and are inclined in a letter C shape.

  On the other hand, since the entire upper surface 14 of the tack label 10 is a non-adhesive portion 16 and is not adhered to the heat-shrinkable label 2, the upper region 14 is separated so as to float outward from the container 1. A horizontal cut line 11 is formed between the upper region 14 and the lower region 13 of the tack label 10, and the horizontal cut line 11 extends inward from the left and right ends of the tack label 10. The upper region 14 of the tack label 10 tends to be in a different posture from the lower region 13. In addition, an extended cut line 30 is also formed, and the support leg portion 14b protrudes downward from the lower end of the upper region 14 of the tack label 10, so that the upper region 14 of the tack label 10 is in the lower region 13. It will be in the state which stood upwards in the substantially flat attitude | position, hardly receiving the influence of curved convex shape, and the flatness of the upper area | region 14 becomes easy to be ensured. Furthermore, since the pair of left and right cut lines 30 are inclined in an inverted C shape so that the distance between them becomes smaller toward the lower side, the influence of the curved shape of the lower region 13 on the upper region 14 is affected. Minimal.

  Moreover, since the extended cut line 30 is formed, both the adhesion parts 15 of the lower area | region 13 can approach smoothly. Certainly, since the cut line 11 in the horizontal direction is formed without forming the extended cut line 30, the lower region 13 of the tack label 10 is curved and deformed into an outer convex shape as the heat-shrinkable label 2 contracts. it can. However, the heat-shrinkable label 2 may not shrink evenly over the entire circumference depending on the degree of heat contact. If the heat-shrinkable label 2 does not shrink evenly, the lower region 13 of the tack label 10 is evenly left and right. Instead, it may be deformed to an outer convex shape in a state biased to either the left or right. As a result, the upper region 14 of the tack label 10 also tends to be tilted left and right or twisted according to the lower region 13. On the other hand, when the extended cut line 30 is formed, even when the heat-shrinkable label 2 does not shrink evenly from side to side around the tack label 10, the lower region 13 of the tack label 10 is smoothly outside with good left-right balance. It is easy to curve convexly, and the upper region 14 of the tack label 10 is also difficult to tilt left and right, and a straight standing posture is easily obtained. In particular, since the pair of left and right extending cut lines 30 are formed in an inverted C shape, the upper region 14 of the tack label 10 can be further prevented from tilting or twisting to the left and right, and the upper portion of the tack label 10 can be suppressed. The region 14 is more likely to stand up straight. Note that the length and angle of the extended cut line 30 may be set as appropriate according to the sticking position of the tack label 10, the shape of the container 1, the distance between the left and right adhesive portions 15, and the like. Further, the amount of separation (the degree of lifting) of the upper region 14 of the tack label 10 from the container 1 can be adjusted by increasing or decreasing the distance between the adhesive portions 15 in the lower region 13 of the tack label 10.

  In addition, the pair of left and right cut lines 30 are inclined in a reverse C shape so that the distance between them becomes smaller toward the bottom, as shown in FIG. You may incline in a square shape so that it may become large toward the side. Further, as shown in FIG. 16B, the extended cut line 30 may extend in the vertical direction (vertical direction). That is, the pair of left and right extending cut lines 30 may be parallel to each other.

  Further, the upper region 14 of the tack label 10 is a main region of the tack label 10, and is a region that becomes a POP portion or a label main body portion that exhibits a POP effect by providing a display portion there. On the other hand, the lower region 13 of the tack label 10 is a region that becomes a base portion that supports the upper region 14 from the lower side while floating from the container 1. Accordingly, as shown in FIGS. 13 to 16, the upper region 14 of the tack label 10 is preferably larger than the lower region 13 and is preferably formed wider.

  In addition, the partition unit is not limited to the configuration in which the tack label 10 is partitioned in the vertical direction, and may be configured to partition in the left and right direction. For example, the cut lines 31 and 32 for partitioning the tack label 10 into three regions on the left and right may be formed from the periphery of the tack label 10 toward the inside. As a specific example, for example, as shown in FIG. 17, a cut line extending in the vertical direction from the upper end and the lower end of the tack label 10 toward the inside of the tack label 10 so as to divide the tack label 10 into left and right three regions. You may form 31 and 32 2 each. The vertical cut line 31 at the upper end of the tack label 10 and the vertical cut line 32 at the lower end are formed at the same position in the width direction and are in a straight line. Further, the two vertical cut lines 31 extending from the upper end of the tack label 10 are parallel to each other, and the two vertical cut lines 32 extending from the lower end of the tack label 10 are also parallel to each other. In this embodiment, the vertical cut line 31 extending from the upper end is longer than the vertical cut line 32 extending from the lower end. However, this may be the same, or conversely, the lower end is better. It may be long.

  In this way, by forming two vertical cut lines 31 and 32 from the upper end and the lower end of the tack label 10 respectively, the tack label 10 is partitioned into a left area 40, a central area 41, and a right area 42. become. Further, in order to project the support legs 41b from the left and right ends of the central region 41 to the left region 40 and the right region 42, respectively, the left region 40 and the right region 42 are further extended from the inner ends of the longitudinal cut lines 31 and 32. An extended cut line 33 extending in the lateral direction is formed. That is, by forming two upper and lower cut lines 33 toward the left region 40, the left support leg 41 b protrudes from the central region 41. The right support leg 41b protrudes from the central region 41 by forming the cut line 33 extending from the book. The pair of left and right support legs 41b are located on the same line. As described above, the central region 41 is composed of the main portion 41a and the pair of left and right support legs 41b.

  The bonding portion 15 is formed on substantially the entire left side region 40 and right side region 42. Specifically, the adhesive portion 15 is formed in substantially the entire left side region 40 and the right side region 42 except for the vicinity of the longitudinal cut lines 31 and 32 and the extended cut line 33, and the central region 41 has left and right sides. The entire structure including the support leg portion 41b is a non-adhesive portion 16. The central area 41 is a main area and constitutes a label main body, and the left area 40 and the right area 42 constitute a base part for supporting the label main body while floating from the container 1.

  When the heat-shrinkable label 2 with the tack label 10 shown in FIG. 17 is attached to the container 1, the state shown in FIGS. 18 and 19 is obtained. That is, the portion of the heat-shrinkable label 2 that covers the shoulder 7 of the container 1 contracts, so that the left region 40 and the right region 42 approach each other. In particular, since the amount of contraction in the shoulder portion 7 increases toward the upper side, the left side region 40 and the right side region 42 become closer toward the upper side, resulting in a square shape in front view as shown in FIG. On the other hand, the central area 41 floats away from the container 1 as shown in FIG. 19 when the left area 40 and the right area 42 approach each other. In particular, since the support leg portions 41b protrude from the left and right, the main portion 41a of the central region 41 is supported from both the left and right sides by the support leg portions 41b and is lifted from the container 1.

  Further, the longitudinal cut line 31 may be formed as a partitioning portion only at the upper end of the tack label 10. For example, as shown in FIG. 20, two vertical cut lines 31 extending inward (downward) from the upper end of the tack label 10 are formed at intervals in the left-right direction so that the tack label 10 is centered with the left region 40. You may make it partition into the area | region 41 and the right area | region 42. FIG. The bonding portion 15 is provided in each of the left region 40 and the right region 42, and the central region 41 is the non-bonding portion 16 as a whole. Note that the lower end of the tack label 10 is a non-adhesive portion 16 over the entire width, and the lower end of the tack label 10 faces the outside of the container 1 when mounted on the container 1 as shown in FIGS. Curved in a convex shape. Even in this case, the central area 41 is lifted from the container 1 as shown in FIG.

  Furthermore, the tack label 10 may be partitioned into a plurality of regions by forming a cut line 34 extending obliquely inward from the periphery of the tack label 10 as a partitioning portion. For example, as shown in FIG. 23, the tack label 10 is formed in a substantially inverted T shape as a whole from a lower region 13 extending in the horizontal direction and an upper region 14 extending in the vertical direction. In this case, the upper region 14 constitutes the label main body portion, and the lower region 13 constitutes the base portion. Then, the lower end of the upper region 14 protrudes so as to bite into the central portion of the lower region 13, and the support leg portion 14b is formed so as to be inclined obliquely inward and downward from the lower ends of the left and right ends of the upper region 14, respectively. The cut line 34 is formed. That is, the upper region 14 is composed of a main portion 14a and a support leg portion 14b. In addition, adhesive portions 15 are formed in the vicinity of the left and right ends of the lower region 13, and the other portions are non-adhesive portions 16. When attached to the container 1 as shown in FIG. 24, the left and right adhesive portions 15 of the lower region 13 approach each other, and the central portion in the left and right direction of the lower region 13 is curved convexly toward the outside of the container 1, As shown in FIG. 25, the upper region 14 is lifted from the container 1 and rises upward from the center of the lower region 13. Further, since the pair of left and right cut lines 34 are formed obliquely so that the distance between them becomes narrower toward the lower side, even if the lower region 13 is curved outwardly, the influence of the curvature of the upper region 14 It becomes difficult to reach the main portion 14a, and the flatness of the upper region 14 is easily secured.

  In this case, the upper region 14 of the tack label 10 is a main region of the tack label 10 and is a region that becomes a POP portion or a label main body portion that exhibits a POP effect by providing a display portion there. On the other hand, the lower region 13 of the tack label 10 is a region that becomes a base portion that supports the upper region 14 from the lower side while floating from the container 1. Therefore, the upper region 14 of the tack label 10 is preferably formed in a vertically long shape, and the lower region 13 is preferably formed in a strip shape extending in the lateral direction.

DESCRIPTION OF SYMBOLS 1 Container 2 Heat-shrinkable label 2a Upper end 2b Lower end 3 Cap 3a Opening line 4 Boundary line 5 Mouth part 6 Trunk part 7 Shoulder part (short circumference part)
8 Bottom 10 Tack label 10a Perimeter 11 Cut line (partition)
12 Remaining portion 13 Lower region 14 Upper region 14a Main portion 14b Support leg portion 15 Adhering portion 16 Non-adhering portion 21 Notched portion (partition portion)
30 Extension cut line (partition)
31 Longitudinal cut line (partition)
32 Longitudinal cut line (partition)
33 Extension cut line (partition)
34 Diagonal cut line (partition)
40 Left side area 41 Central area 41a Main part 41b Support leg part 42 Right side area

Claims (10)

A non-heat-shrinkable tuck label is adhered to the outer surface of the heat-shrinkable label, and at least a part of the tuck label is opposed to a portion of the heat-shrinkable label that covers the short circumference of the container in the mounted state on the container. A heat-shrinkable label with a tuck label,
The tack label is provided with a partition part extending inward from the peripheral edge of the tack label so as to partition the tack label into a plurality of regions.   The heat-shrinkable label with a tack label according to claim 1, wherein the partition part is a cut line or a notch part. The partition unit is configured to partition the tack label into two upper and lower regions,
In the state of being attached to the container, the heat shrinkable label portion covering the short peripheral portion of the container is bonded to the vicinity of both left and right ends in one of the two upper and lower areas of the tack label, and in the one area of the tack label. The heat-shrinkable label with a tack label according to claim 1 or 2, wherein the central portion in the left-right direction is in a non-adhesive or weakly-adhesive state with respect to the heat-shrinkable label.   The heat shrinkable label with a tack label according to claim 3, wherein the other region of the tack label is in a non-adhesive or weakly adhered state to the heat shrinkable label. The partition unit is configured to partition the tack label into three regions on the left and right,
At least a part of each of the left and right areas of the tack label is adhered to the portion of the heat-shrinkable label that covers the short circumference of the container in the mounted state on the container, and the center area of the tack label is attached to the heat-shrinkable label. The heat-shrinkable label with a tack label according to claim 1 or 2, wherein the heat-shrinkable label is non-adhered or weakly adhered. A heat-shrinkable label is attached to the container so as to cover at least the short circumference, and a non-heat-shrinkable tack label is adhered to the outer surface of the heat-shrinkable label, and at least a part of the tack label is a short circumference of the container. A labeled container located at
The tack label is provided with a partition portion that extends inward from a peripheral edge of the tack label so as to partition the tack label into a plurality of regions.   The labeled container according to claim 6, wherein the partition portion is a cut line or a cutout portion. The partition unit is configured to partition the tack label into two upper and lower regions,
One of the two upper and lower areas of the tack label is located in the short peripheral part of the container, its left and right ends are bonded to the heat-shrinkable label, and its left and right central part is convex outward of the container. The labeled container according to claim 6 or 7, wherein the container is deformed.   The labeled container according to claim 8, wherein the other area of the tack label is spaced outward from the heat-shrinkable label. The partition unit is configured to partition the tack label into three regions on the left and right,
At least a part of each of the left and right areas of the tack label is located in the short circumference of the container and adhered to the heat-shrinkable label, and the center area of the tack label is spaced outward from the heat-shrinkable label. The labeled container according to claim 6 or 7.

Images