Patent Publication Number: US-10315384-B2

Title: Adhesive tape cartridge, adhesive tape roll, and manufacturing method of adhesive tape roll

Description:
CROSS-REFERENCE TO RELATED APPLICATION 
     The present application claims priority from Japanese Patent Application No. 2016-195292, which was filed on Sep. 30, 2016, the disclosure of which is incorporated herein by reference in its entirety. 
     BACKGROUND 
     Field 
     The present disclosure relates to an adhesive tape cartridge having an adhesive tape roll into which an adhesive tape is wound, as well as to the adhesive tape roll and a manufacturing method of the adhesive tape roll. 
     Description of the Related Art 
     An adhesive tape cartridge having an adhesive tape roll into which an adhesive tape is wound has already been known. In the prior art, the adhesive tape has a layered structure including: two adhesive layers (a first adhesive layer acting as a bonding adhesive layer and a second adhesive layer acting as an affixing adhesive layer) with a base material film interposed therebetween; and a separation material layer (separation sheet). 
     In the adhesive tape of the above layered structure, to obtain an apparently desired color sense, a pigment may be added to the bonding adhesive layer as the outermost layer. At that time, two types of pigments may be desired to be used with the intention of obtaining a plurality of colors in particular. However, if those two different pigments mixedly exist in a single layer (the adhesive layer), interference occurs between the two pigments, so that the pigments cannot fully exert their respective effects. 
     Accordingly, to separate those two types of pigments into separate layers, the two types of pigments may separately be arranged in newly disposed two layers. In this case, however, the two additional layers bring about an increase in the total thickness of the adhesive tape and an attendant increased manufacturing process. 
     SUMMARY 
     An object of the present disclosure is to provide an adhesive tape cartridge, as well as an adhesive tape roll for use therein and a manufacturing method of the adhesive tape roll, enabling a plurality of pigments to fully exert their respective effects while suppressing the increase in the tape total thickness and in the manufacturing process. 
     In order to achieve the above-described object, according to the aspect of the present application, there is provided an adhesive tape cartridge comprising a housing, and an adhesive tape roll that is disposed in the housing and winds a double-faced adhesive tape, the double-faced adhesive tape comprising a base material layer having a transmittance of 20% or more, a first adhesive layer that is disposed on one side of the base material layer in a thickness direction and comprises an adhesive with a first pigment added, a second adhesive layer that is disposed on the other side of the base material layer in the thickness direction and comprises an adhesive with a second pigment added, and a separation material layer that is disposed on the other side of the second adhesive layer in the thickness direction, an average particle diameter of the first pigment in the first adhesive layer and an average particle diameter of the second pigment in the second adhesive layer being different from each other. 
     In the first disclosure of the present application, the first pigment is added to the first adhesive layer while the second pigment is added to the second adhesive layer in the normal layered structure including four layers, i.e. the adhesive layer (first adhesive layer), the base material layer, the adhesive layer (second adhesive layer), and the separation material layer. This has the following significance. 
     If desired to use two types of pigments with the intention of obtaining two different colors for example, intermixture of those pigments within a single layer induces interference between the two pigments, preventing the pigments from fully exerting their respective effects. However, the disposition of the layers containing those two pigments separate from the above four layers causes a remarkable increase in not only the total thickness of the adhesive tape but also in the manufacturing process. 
     Thus, in the first disclosure of the present application, the pigments (the first pigment and the second pigment) are arranged in the two adhesive layers (the first adhesive layer and the second adhesive layer), respectively, with the intervening base material layer being transparent or translucent (with the transmittance of 20% or more). By separately arranging two pigments into different layers in this manner, the interference between the two pigments arising from the intermixture described above can be suppressed so that the pigments can fully exert their respective effects. The increase in the total thickness of the adhesive tape and in the manufacturing process can also be suppressed. In consequence, the length of the tape capable of being wound into the adhesive tape roll can be extended regardless of a limited space. 
     Thus, according to the first disclosure of the present application, it is possible to express colors from two types of pigments by a single tape while suppressing the increase in the total thickness of the adhesive tape and in the manufacturing process. 
     By separately arranging the first pigment and the second pigment having different average particle diameters from each other into two layers, there can be obtained both a uniform moisture feeling induced by the pigment with a small average particle diameter and a glaring granular feeling induced by the pigment with a large average particle diameter, making it possible to produce a tape with a unique color tone (e.g. brilliant tone in the case of the glitter pigment). 
    
    
     
       BRIEF DESCRIPTION OF DRAWINGS 
         FIG. 1  is a perspective view showing a front appearance of a print label producing device mounted with an adhesive tape cartridge of a first embodiment of the present disclosure. 
         FIG. 2  is a plan view showing a rear internal structure of a device body of the print label producing device. 
         FIG. 3  is an explanatory view showing a layered structure of a transparent print-receiving tape and a double-faced adhesive tape. 
         FIG. 4A  is an explanatory view showing a layered structure of a print tape. 
         FIG. 4B  is an explanatory view showing a state where the print tape is adhered to an adherend. 
         FIG. 5A  is an explanatory view showing a layered structure of the double-faced adhesive tape with a colored layer removed. 
         FIG. 5B  is an explanatory view showing a state where the print tape using the double-faced adhesive tape is adhered to the adherend. 
         FIG. 6  is a view showing a manufacturing process of the double-faced adhesive tape. 
         FIG. 7  is a view showing a manufacturing process of the double-faced adhesive tape. 
         FIG. 8  is a view showing a manufacturing process of the double-faced adhesive tape. 
         FIG. 9A  is an explanatory view showing a modification example in which a coloring glitter pigment is added to the adhesive layer. 
         FIG. 9B  is an explanatory view showing a modification example in which the coloring glitter pigment is added to the adhesive layer, with the colored layer removed. 
         FIG. 10A  is an explanatory view showing a modification example having a difference in particle diameters of glitter pigments added respectively to two adhesive layers. 
         FIG. 10B  is an explanatory view showing a modification example having a difference in particle diameters of the glitter pigments added respectively to the two adhesive layers, with the colored layer removed. 
         FIG. 11A  is an explanatory view showing a layered structure of a double-faced adhesive tape according to a second embodiment of the present disclosure. 
         FIG. 11B  is an explanatory view showing a state where a print tape using the double-faced adhesive tape according to the second embodiment of the present disclosure is adhered to the adherend. 
         FIG. 12  is a view showing a manufacturing process of the double-faced adhesive tape. 
         FIG. 13  is a view showing a manufacturing process of the double-faced adhesive tape. 
         FIG. 14A  is an explanatory view showing a layered structure of a double-faced adhesive tape according to a modification example with a transparent film layer removed. 
         FIG. 14B  is an explanatory view showing a state where a print tape using the double-faced adhesive tape according to the modification example with the transparent film layer removed is adhered to an adherend. 
         FIG. 15  is a plan view showing a rear internal structure of a print label producing device mounted with an adhesive tape cartridge of a third embodiment of the present disclosure. 
         FIG. 16A  is an explanatory view showing a layered structure of an adhesive tape. 
         FIG. 16B  is an explanatory view showing a layered structure of the adhesive tape. 
         FIG. 17  is a view showing a manufacturing process of the adhesive tape. 
         FIG. 18  is a view showing a manufacturing process of the adhesive tape. 
         FIG. 19A  is an explanatory view showing a layered structure of the adhesive tape with the colored layer removed. 
         FIG. 19B  is an explanatory view showing a layered structure of the adhesive tape with an image receiving layer removed. 
         FIG. 20A  is an explanatory view showing a layered structure of an adhesive tape of a modification example in which a coloring glitter pigment is added. 
         FIG. 20B  is an explanatory view showing a layered structure of an adhesive tape of a modification example in which the colored layer is removed. 
         FIG. 20C  is an explanatory view showing a layered structure of an adhesive tape of a modification example with the image receiving layer removed. 
         FIG. 21A  is an explanatory view showing a layered structure of an adhesive tape of a modification example with the transparent film layer and the colored layer being interchanged. 
         FIG. 21B  is an explanatory view showing a layered structure of an adhesive tape of a modification example with the colored layer removed. 
         FIG. 21C  is an explanatory view showing a layered structure of an adhesive tape of a modification example with the image receiving layer removed. 
         FIG. 22A  is an explanatory view showing a layered structure of an adhesive tape of a modification example with the coloring glitter pigment added. 
         FIG. 22B  is an explanatory view showing a layered structure of an adhesive tape of a modification example with the colored layer removed. 
         FIG. 22C  is an explanatory view showing a layered structure of an adhesive tape of a modification example with the image receiving layer removed. 
         FIG. 23A  is an explanatory view showing a layered structure of an adhesive tape of a modification example having a difference in particle diameters of glitter pigments added respectively to two adhesive layers. 
         FIG. 23B  is an explanatory view showing a layered structure of an adhesive tape of a modification example with the colored layer removed. 
         FIG. 23C  is an explanatory view showing a layered structure of an adhesive tape of a modification example with the image receiving layer removed. 
         FIG. 24A  is an explanatory view showing a layered structure of a modification example with the transparent film layer and the colored layer being interchanged. 
         FIG. 24B  is an explanatory view showing a layered structure of a modification example with the colored layer removed. 
         FIG. 24C  is an explanatory view showing a layered structure of a modification example with the image receiving layer removed. 
         FIG. 25  is a plan view showing a rear internal structure of a device body of a print label producing device, in a modification example expanded to a laminated type with the film layer removed. 
         FIG. 26  is an explanatory view showing a layered structure of a transparent print-receiving tape and a double-faced adhesive tape. 
         FIG. 27A  is an explanatory view showing a layered structure of a print tape. 
         FIG. 27B  is an explanatory view showing a state where the print tape is adhered to an adherend. 
         FIG. 28  is a plan view showing a rear internal structure of a print label producing device mounted with an adhesive tape cartridge of a fourth embodiment of the present disclosure. 
         FIG. 29  is an explanatory view showing a layered structure of a double-faced adhesive tape. 
         FIG. 30A  is an explanatory view showing a layered structure of a print tape. 
         FIG. 30B  is an explanatory view showing a state where the print tape is adhered to an adherend. 
         FIG. 31  is an explanatory view showing a layered structure of the double-faced adhesive tape with a colored layer removed. 
         FIG. 32  is a view showing a manufacturing process of the double-faced adhesive tape. 
         FIG. 33  is a view showing a manufacturing process of the double-faced adhesive tape. 
         FIG. 34  is a view showing a manufacturing process of the double-faced adhesive tape. 
         FIG. 35  is an explanatory view for explaining an effect of promoting volatilization of residual solvent at the time of drying processing. 
         FIG. 36A  is an explanatory view for explaining the effect of promoting volatilization of residual solvent at the time of drying processing. 
         FIG. 36B  is an explanatory view for explaining the effect of promoting volatilization of residual solvent at the time of drying processing. 
         FIG. 37  is a plan view showing a rear internal structure of a device body of a print label producing device in a modification example with a film layer removed. 
         FIG. 38  is an explanatory view showing a layered structure of a transparent print-receiving tape and a double-faced adhesive tape. 
         FIG. 39A  is an explanatory view showing a layered structure of a print tape. 
         FIG. 39B  is an explanatory view showing a state where the print tape is adhered to an adherend. 
         FIG. 40  is a plan view showing a rear internal structure of a print label producing device in a modification example using a non-laminated type cartridge. 
         FIG. 41A  is an explanatory view showing a layered structure of an adhesive tape. 
         FIG. 41B  is an explanatory view showing a layered structure of the adhesive tape. 
         FIG. 41C  is an explanatory view showing a modification example with a colored layer removed. 
         FIG. 41D  is an explanatory view showing a modification example with an image receiving layer removed. 
         FIG. 42  is a view showing a manufacturing process of the adhesive tape. 
         FIG. 43  is a view showing a manufacturing process of the adhesive tape. 
         FIG. 44A  is an explanatory view showing a layered structure of an adhesive tape of a modification example with the transparent film layer and the colored layer being interchanged. 
         FIG. 44B  is an explanatory view showing a layered structure of an adhesive tape of a modification example with the colored layer removed. 
         FIG. 44C  is an explanatory view showing a layered structure of an adhesive tape of a modification example with the image receiving layer removed. 
         FIG. 45  is a plan view showing a rear internal structure of a device body of a print label producing device in a modification example with a film layer removed. 
         FIG. 46A  is an explanatory view showing a layered structure of an adhesive tape. 
         FIG. 46B  is an explanatory view showing a layered structure of a print tape. 
     
    
    
     DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS 
     Embodiments of the present disclosure will now be described with reference to the drawings. In the following description, “top”, “bottom”, “front”, “rear”, and “width” of a print label producing device  1  correspond respectively to directions of arrows appropriately indicated in views of  FIG. 1 , etc. 
     First Embodiment 
     Referring to  FIGS. 1 to 10 , a first embodiment of the present disclosure will be described. 
     &lt;Overall Structure of Print Label Producing Device&gt; 
       FIGS. 1 and 2  show an example of a print label producing device that is mounted with an adhesive tape cartridge of this embodiment. In  FIGS. 1 and 2 , the print label producing device  1  is handheld electronic equipment grasped by a user&#39;s hand. The print label producing device  1  comprises a device body  2  and a cover  3  attached removably to a rear surface of the device body  2 . 
     The device body  2  includes a thin flat substantially rectangular parallelepiped housing  2 A elongated in the top-bottom direction. A front surface of the housing  2 A has, at its upper portion, a liquid crystal display part  4  for displaying print data, a setting screen, etc. and, below the liquid crystal display part  4 , a keyboard part  5  for operating the label producing device  1 . The keyboard part  5  has keys arranged thereon including letter keys such as letters, symbols, and numerals and various function keys. A side wall portion  2   a  on one side (left side in  FIG. 1 , right side in  FIG. 2 ) in the width direction of the housing  2 A has at its upper portion a cut operation lever  6  for cutting a printed label tape. 
     &lt;Label Production Mechanism of Print Label Producing Device&gt; 
     As shown in  FIG. 2 , the device body  2  comprises a label production part  10  and a battery storage part  30 . The label production part  10  and the battery storage part  30  are comparted by a container part  8  containing a control substrate, a motor, etc. not shown. The battery storage part  30  has a rectangular recessed portion  32 . A plurality of shallow concaves extending in the top-bottom direction are arranged along the width direction on a bottom  34  of the recessed portion  32 . The same number of batteries not shown are stored in upper and lower stages within the battery storage part  30 . 
     The label production part  10  comprises: a recessed cartridge holder  12  for removably attaching an adhesive tape cartridge  11  (hereinafter, referred to simply as “cartridge  11 ”), disposed so as to occupy most of substantially the upper half of the device body  2 ; and a printing/feeding mechanism  13  disposed in a region including the other side (left side in  FIG. 2 ) in the width direction of the cartridge holder  12 . 
     The cartridge  11  is called a so-called laminated type in this embodiment and comprises, within the interior of a housing  11 A as shown in  FIG. 2 , an adhesive tape roll  14 , a print-receiving tape roll  15 , an ink ribbon roll  16 , an ink ribbon take-up roller  17 , and a feeding roller  18 . The adhesive tape roll  14  is made up by winding a double-faced adhesive tape  150  around a spool  50 . As shown in an enlarged view in  FIG. 2 , the double-faced adhesive tape  150  includes: an adhesive layer  161  to which a permeable glitter pigment is added; an adhesive layer  162  to which a solid pigment is added; a colored layer  180 ; a film layer  151 ; an adhesive layer  170 ; and a separation material layer  152 ; laminated in the mentioned order from the spool  50  lying on a radial center side toward the radial outside. As shown in  FIG. 2 , the print-receiving tape roll  15  is made up by winding a print-receiving tape  110  having a transmittance of 20% or more for example around a spool  60 . 
     The printing/feeding mechanism  13  comprises a support shaft  19  of the adhesive tape roll  14 , a support shaft  20  of the print-receiving tape roll  15 , a support shaft  21  of the ink ribbon roll  16 , a driving shaft  22  of the ink ribbon take-up roller  17 , a thermal head  23 , a platen roller  24 , a driving shaft  25  of the feeding roller  18 , and a pressing roller  26 . The platen roller  24  together with the pressing roller  26  is fitted to a roll holder  27  so that swinging of the roll holder  27  can cause switching between a printing/feeding position (position shown in  FIG. 2 ) where the platen roller  24  and the pressing roller  26  are in contact with the thermal head  23  and the feeding roller  18 , respectively, and a standby position not shown where the platen roller  24  and the pressing roller  26  are apart from the thermal head  23  and the feeding roller  18 , respectively. 
     At the time of producing print labels, the platen roller  24  and the pressing roller  26  are switched to the printing/feeding position. The platen roller  24  switched to the printing/feeding position rotates by drive of a driving shaft not shown of the device body  2  and presses the print-receiving tape  110  fed out from the print-receiving tape roll  15  and an ink ribbon not shown fed out from the ink ribbon roll  16  against the thermal head  23 . As a result, ink of the ink ribbon is transferred onto the print-receiving tape  110  by heat reception from the thermal head  23  so that a desired print R (see  FIG. 3 , etc. described later) is formed on the print-receiving tape  110  so that the platen roller  24  feeds the print-receiving tape  110  having the print formed thereon and the ink ribbon toward the feeding roller  18 . The print-terminated ink ribbon is then separated from the print-receiving tape  110  and is taken up by the ink ribbon take-up roller  17 . 
     On the other hand, the pressing roller  26  switched to the printing/feeding position presses the print-formed print-receiving tape  110  fed by the platen roller  24  and the double-faced adhesive tape  150  fed out from the adhesive tape roll  14  against the feeding roller  18  rotating by drive of the driving shaft  25 . As a result, as shown in an enlarged view (see also  FIGS. 3 and 4  described later), the print-receiving tape  110  having the print R formed thereon and the double-faced adhesive tape  150  are bonded together to form a print tap3  100 , while simultaneously the feeding roller  18  feeds the print tape  100  toward a label discharging exit  29  disposed on an upper end of the device body  2 . At a predetermined point of time when the print tape  100  is discharged from the label discharging exit  29 , a user manually operates a cutting operation lever  6  to activate a cutter  28  disposed in the vicinity of the label discharging exit  29 , to cut the print tape  100  to form a predetermined length of print tape  100  (i.e. print label). 
     &lt;Details of Tape Layered Structure&gt; 
       FIG. 3  is an explanatory view showing a layered structure of the print-receiving tape  110  and the double-faced adhesive tape  150 . 
     As shown in  FIG. 3 , the double-faced adhesive tape  150  includes: the film layer  151 ; the colored layer  180  disposed in contact with the film layer  151  on the upper side of the diagram; the adhesive layer  162  disposed in contact with the colored layer on the upper side of the diagram, the adhesive layer  162  having a solid pigment (details will be described later) added at a desired volume ratio (5-50% relative to the entire adhesive layer); the adhesive layer  161  disposed in contact with the adhesive layer  162  on the upper side of the diagram, the adhesive layer  161  having a permeable glitter pigment added at a desired volume ratio (5-50% relative to the entire adhesive layer); the adhesive layer  170  disposed in contact with the film layer  151  on the lower side of the diagram; and the separation material layer  152  disposed in contact with the adhesive layer  170  on the lower side of the diagram so as to cover the adhesive layer  170 . 
     At this time, this embodiment has a feature that the volume ratio (the ratio relative to the entire layer; hereinafter, the same will apply to all embodiments and modification examples) of the solid pigment in the adhesive layer  162  is greater than the volume ratio of the glitter pigment in the adhesive layer  161 . Specifically, for example, the volume ratio of the solid pigment in the adhesive layer  162  is 1.5 times or more the volume ratio of the glitter pigment in the adhesive layer  161 . 
     The volume ratio can be calculated by the following procedure for example. A glitter pigment containing adhesive having a measured volume and weight is dissolved in a solvent so that the glitter pigment is separated by centrifugation to determine the weight of the glitter pigment and measure the true specific gravity of the glitter pigment particles to determine the volume of the glitter pigment. By subtracting the volume of the glitter pigment from the volume of the glitter pigment containing adhesive, the volume of the adhesive can be determined. Furthermore, by observing a cross section of the adhesive layer with an electron microscope or an optical microscope, the area and the ratio of the pigment existing on the cross section can be determined and, by continuously increasing the cross section to be measured, conversion to volume becomes possible so that the volume ratio can be determined (hereinafter, the same will apply to the modification examples and other embodiments described later). 
     A thickness tA of the glitter pigment containing adhesive layer  161  is smaller than a thickness tC of the adhesive layer  170 ; a thickness tB of the solid pigment containing adhesive layer  162  is smaller than the thickness tC of the adhesive layer  170 ; and the sum of the thickness tA of the adhesive layer  161  and the thickness tB of the adhesive layer  162  is greater than the thickness tC of the adhesive layer  170 . 
     The glitter pigment contained in the adhesive layer  161  has a transmittance of 20% or more. 
     On the other hand, the print-receiving tape  110  has the print R as described above on a surface on the side (lower side of the diagram; the other side in the thickness direction in this embodiment) facing the double-faced adhesive tape  150 . The print-receiving tape  110  is bonded via the adhesive layer  161  to the double-faced adhesive tape  150 . 
       FIG. 4A  shows a layered structure of the print tape  100  formed by bonding the print-receiving tape  110  and the double-faced adhesive tape  150  together, while  FIG. 4B  shows a state where the print tape  100  is adhered via the adhesive layer  170  to an adherend M with the separation material layer  152  being separated from the print tape  100 . As a result of the bonding, as shown in  FIG. 4A , the print tape  100  is made up by laminating, from the upper side of the diagram toward the lower side thereof, the print-receiving tape  110 , the adhesive layer  161  (to which the permeable glitter pigment is added), the adhesive layer  162  (to which the solid pigment is added), the colored layer  180 , the film layer  151 , the adhesive layer  170 , and the separation material layer  152 , in the mentioned order. 
     At this time, as shown in  FIG. 5A , the configuration may be such that the adhesive layer  162  is disposed in contact with the film layer  151  on the upper side of the diagram, without interposing the colored layer  180  between the adhesive layer  162  and film layer  151 .  FIG. 5B  shows a state where the print tape  100  produced as above using the double-faced adhesive tape  150  of such a configuration is adhered via the adhesive layer  170  to the adherend M, with the separation material layer  152  being separated from the print tape  100 . 
     The separation material layer  152  is formed by coating a base material with a separation material for example. The base material can be paper, PET film, OPP film, polyethylene film, etc. The separation material can be silicone resin, polyethylene resin, etc. 
     The adhesives of the adhesive layer  161 , the adhesive layer  162 , and the adhesive layer  170  can be for example urethane resin-based, silicone resin-based, vinyl resin-based, polyester resin-based, synthetic rubber-based, natural rubber-based, and acrylic resin-based adhesives. 
     The solid pigment added to the adhesive layer  162  can be inorganic pigments such as oxides and organic pigments such as a textile printing-based pigment. The inorganic pigments can be for example: oxides such as titanium dioxide and zinc oxide; hydroxides such as alumina white and iron oxide yellow; sulfides such as zinc sulfide and lithopone; chrome oxides such as chrome yellow and molybdate orange; silicates such as white carbon and clay; sulfates such as precipitated barium sulfate and baryta powder; carbonates such as calcium carbonate and lead white; and others such as ferrocyanides (Prussian blue) and carbon (carbon black). The organic pigments can be for example: textile printing-based pigments including basic dyes such as rhodamine lake and methyl violet lake, acidic dyes such as quinoline yellow lake, vat dyes such as malachite green, and mordant dyes such as alizarin lake; azo pigments including soluble azo such as carmine  6 B, insoluble azo such as disazoyellow, condensed azo such as cromophtal yellow, azo complex salts such as nickel azo yellow, and benzimidazolone azo such as permanent orange HL; phthalocyanine pigments such as phthalocyanine blue; condensed polycyclic pigments such as flavanthrone yellow; nitro-based pigments such as naphthol yellow S; nitroso-based pigments such as pigment green B; day and night fluorescent pigments such as lumogen yellow; and others such as alkali blue. 
     The permeable glitter pigment added to the adhesive layer  161  can be ones coating the surface of a core material such as scaly mica, glass, alumina, and metal with a colorant such as titanium oxide and iron oxide or with the solid pigment as the colorant. Some tinges of the glitter pigment may allow use of ones creating a color by interference of reflected light from the core material without coating the core material with the colorant. The glitter pigment is a collective designation of pigments having the brilliance described above and is known for example as a pearl pigment, a metallic pigment, etc. 
     The above materials of the separation material layer  152  and the above materials/components of the separation agent, the adhesive, the solid pigment, and the glitter pigment can be used commonly for modification examples and other embodiments that will be described later. 
     A manufacturing process of the double-faced adhesive tape  150  will next be described with reference to  FIGS. 6 to 8 . 
     As shown in  FIG. 6 , the film layer  151  having the colored layer  180  formed thereon by a known printing technique for example is fed out from a film roll FR and is supplied to an adhesive coating head AH. At the adhesive coating head AH, an adhesive of the above composition is applied to a surface of the film layer  151  opposite to the colored layer  180 , to obtain a three-layered structure including the colored layer  180 , the film layer  151 , and the adhesive layer  170 , after which the structure passes through a first drying chamber D 1 , a second drying chamber D 2 , a third drying chamber D 3 , a fourth drying chamber D 4 , and a fifth drying chamber D 5 , in the mentioned order, to undergo a five-stage drying process. The number of the drying chambers is not limited to five. 
     The separation material layer  152  fed out separately from a separation material roll SR is bonded to the adhesive layer  170  so that the tape of the three-layered structure turns into a tape of a four-layered structure, which is wound onto a first tape roll TR 1 . 
     Subsequently, as shown in  FIG. 7 , the tape of the four-layered structure including the colored layer  180 , the film layer  151 , the adhesive layer  170 , and the separation material layer  152  is fed out from the first tape roll TR 1  and is supplied to the adhesive coating head AH in the same manner as the above. At the adhesive coating head AH, an adhesive (containing the solid pigment) of the above composition is applied to a surface of the colored layer  180  opposite to the film layer  151 , to obtain a five-layered structure including the adhesive layer  162  (having the solid pigment added), the colored layer  180 , the film layer  151 , the adhesive layer  170 , and the separation material layer  152 , after which similarly to the above, the structure passes through the first to fifth drying chambers D 1  to D 5 , in the mentioned order, to undergo the drying process and is wound onto a second tape roll TR 2 . 
     Further, thereafter, as shown in  FIG. 8 , the tape of the five-layered structure including the adhesive layer  162 , the colored layer  180 , the film layer  151 , the adhesive layer  170 , and the separation material layer  152  is fed out from the second tape roll R 2  and is supplied to the adhesive coating head AH in the same manner as the above. At the adhesive coating head AH, an adhesive (containing the permeable glitter pigment) of the above composition is applied to a surface of the adhesive layer  162  opposite to the colored layer  180 , to obtain a six-layered structure including the adhesive layer  161  (having the permeable glitter pigment added), the adhesive layer  162 , the colored layer  180 , the film layer  151 , the adhesive layer  170 , and the separation material layer  152 , after which similarly to the above, the structure passes through the first to fifth drying chambers D 1  to D 5 , in the mentioned order, to undergo the drying process to complete the double-faced adhesive tape  150 . The thus completed double-faced adhesive tape  150  is wound onto a third tape roll TR 3 . 
     Although in  FIGS. 6 to 8 , the case has been described by way of example where the adhesive coating head AH is disposed only at a single location, another adhesive coating head AH may separately be disposed downstream of the drying chamber D 5  along the transport path. In this case, intactly after the coating process of the adhesive layer  162  and the drying process through the drying chambers D 1  to D 5  in  FIG. 7 , the coating process of the adhesive layer  161  (described using  FIG. 8 ) can be performed. 
     &lt;Advantages of First Embodiment&gt; 
     As described above, in the first embodiment, in the normal four-layered structure including the adhesive layer for bonding, the film layer, the adhesive layer for affixing, and the separation material layer, the pigment (permeable glitter pigment in this example) is added to the bonding adhesive layer  161 , while the pigment (solid pigment in this example) is added to the adhesive layer  162  disposed separately from the adhesive layer  161 . This has the following significance. 
     If desired to use two different pigments with the intention of obtaining two different colors for example, intermixture of those pigments within a single layer induces interference between the two pigments, preventing the pigments from fully exerting their respective effects. However, if the layers containing those two pigments are disposed separately from the above four layers, a total of six layers are required, resulting in a remarkably increased total thickness of the adhesive tape as well as in a remarkably increased number of manufacturing steps. 
     Thus, in this first embodiment, a pigment (permeable glitter pigment) is first arranged in an adhesive layer  161 , while another adhesive layer  162  with a pigment (solid pigment) is newly disposed. By distributedly arranging two pigments in different layers in this manner, it is possible to suppress the interference between the two pigments arising from the intermixture, thereby allowing the pigments to fully exert their respective effects. Since in particular, the permeable glitter pigment lies closer than the solid pigment when viewed from one side in the thickness direction (the upper side in  FIGS. 3 to 5 ), there can be obtained an effect that glitter particles especially look three-dimensional. 
     By allowing the adhesive layer  161  originally arranged for bonding to contain one (permeable glitter pigment) of the two pigments, the number of layers increased from the above four layers is only one, so that the increase in the total thickness of the double-faced adhesive tape  150  and in the number of manufacturing steps can be suppressed. As a result, regardless of a limited space, the tape length capable of being wound onto the adhesive tape roll  14  can be extended. 
     As a result of the above, according to the first embodiment, two different colors can be represented by a single tape, while suppressing the increase in the total thickness of the double-faced adhesive tape  150  and in the number of manufacturing steps thereof. The configuration is such that when the newly disposed layer is the adhesive layer  162 , respective pigments are added to the two adhesive layers  161  and  162 . In general, accordingly as the amount of pigments added to an adhesive layer increases, the bonding performance decreases. Due to non-exposure to the surface, however, this adhesive layer  162  has less restriction from the bonding performance needed for the double-faced adhesive tape  150  (see the adhesion in a manufacturing facility described later), thus enabling a greater amount of solid pigment to be added. Since the bonding performance required for the double-faced adhesive tape  150  may be satisfied by the combination of the adhesive layer  162  and the adhesive layer  161 , the restriction from the bonding performance in the adhesive layer  161  can also become less than the case of the four-layered structure described above. 
     As has been described using  FIG. 7 , the adhesive layer  162  disposed on one side in the thickness direction of the film layer  151  (having the colored layer  180  formed thereon) is bonded to the colored layer  180  at the time of manufacturing in the state shown in  FIGS. 6 to 8  for example where the adhesive layer  162  is managed in the factory manufacturing facility. On the contrary, the adhesive layer  161  is bonded to the print-receiving tape  110  within the print label producing device  1  at the time of printing as described above. For this reason, the bonding force of the adhesive layer  161  needs to be greater than that of the adhesive layer  162 . This first embodiment can meet the above requirement by setting the volume ratio of the pigment in the adhesive layer  161  to be less than that of the pigment in the adhesive layer  162  as described above. 
     Particularly, in this embodiment, the volume ratio of the solid pigment in the adhesive layer  162  is 1.5 times or more the volume ratio of the glitter pigment in the adhesive layer  161 . This has the following significance. 
     A large amount of second pigment cannot be added due to the adhesive surface (to secure a bonding force of 3 N/10 mm). 
     On the other hand, a large amount of first pigment can be added due to less restriction from the bonding force, and the addition of 1.5 times or more can enhance the chroma and glitter feeling. 
     Particularly, in the first embodiment, the sum of the thickness tA of the adhesive layer  161  and the thickness tB of the adhesive layer  162  is greater than the thickness tC of the adhesive layer  170 . By making the sum of the thickness tA of the adhesive layer  161  and the thickness tB of the adhesive layer  162  relatively greater, lowering of the adhesiveness arising from the addition of pigments can be compensated for and reliable adhesiveness can be obtained by the entirety of the two adhesives. 
     Particularly, in the first embodiment, the permeable glitter pigment of the adhesive layer  161  has a transmittance of 20% or more. This ensures a reliable visual recognition of the color of the solid pigment of the adhesive layer  162  on the far side when viewed from one side (upper side in  FIGS. 3 to 5 ) in the thickness direction (see a broken line arrow a of  FIG. 4B ). Since the permeable glitter pigment having permeability is added to a layer separate from the solid pigment, the glitter feeling from the glitter pigment of the adhesive layer  161  can be restrained from being disappeared by the solid pigment of the adhesive layer  162 . 
     &lt;Modification Examples of First Embodiment&gt; 
     The first embodiment is not limited to the above mode and can variously be modified without departing from its spirit and technical idea. Modification examples thereof will hereinafter be described in order. Parts similar to those of the first embodiment are designated by the same reference numerals and explanations thereof will appropriately be omitted or simplified. 
     (1-1) Use of Coloring Glitter Pigment 
     As shown in  FIG. 9A , in the layered structure of the double-faced adhesive tape  150  shown in  FIG. 3 , the adhesive layer  162  with the solid pigment added may be replaced by an adhesive layer  162 A with a coloring glitter pigment added. Similar to the adhesive layer  162 , the coloring glitter pigment is added at a volume ratio of 5-50% for example to the adhesive layer  162 A. 
     (1-2) Removal of Colored Layer 
     As shown in  FIG. 9B , in the layered structure of the double-faced adhesive tape  150  shown in  FIG. 3 , the colored layer  180  may be removed. This case also presents an advantage similar to the above. 
     (1-3) Particle Diameter Difference between Glitter Pigments in Two Layers 
     As shown in  FIG. 10A , in the layered structure of the double-faced adhesive tape  150  shown in  FIG. 3 , the adhesive layer  162  with the solid pigment added may be replaced by an adhesive layer  162 B with a glitter pigment added. At that time, in particular, the average particle diameter of a permeable glitter pigment in an adhesive layer  161 B (containing the permeable glitter pigment similar to that in the adhesive layer  161 ) is greater than the average particle diameter of the glitter pigment in the adhesive layer  162 B. Specifically, the average particle diameter of the glitter pigment in the adhesive layer  162 B is less than 30 μm, whereas the average particle diameter of the permeable glitter pigment in the adhesive layer  161 B is not less than 40 μm. The average particle diameter can be measured by the known laser diffraction scattering method. For example, it can be measured by LA-960 manufactured by Horiba, Ltd. (hereafter, the same will apply to modification examples and other embodiments described later). The glitter pigment and the permeable glitter pigment are of similar colors to each other and are made of the same material. 
     In the same manner as the first embodiment, also in this modification example, the glitter pigment is added at a volume ratio of 5-50% for example to the adhesive layer  162 B similarly to the adhesive layer  162 , whereas the permeable glitter pigment is added at a volume ratio of 5-50% for example to the adhesive layer  161 B similarly to the adhesive layer  161 . In the same manner as the first embodiment, the volume ratio of the glitter pigment in the adhesive layer  162 B is greater than the volume ratio of the glitter pigment in the adhesive layer  161 B. Specifically, for example, the volume ratio of the glitter pigment in the adhesive layer  162 B is 1.5 times or more the volume ratio of the glitter pigment in the adhesive layer  161 B. 
     The thickness tA of the adhesive layer  161 B containing the permeable glitter pigment is smaller than the thickness tC of the adhesive layer  170  while the thickness tB of the adhesive layer  162 B containing the glitter pigment is smaller than the thickness tC of the adhesive layer  170 , the sum of the thickness tA of the adhesive layer  161 B and the thickness tB of the adhesive layer  162 B being greater than the thickness tC of the adhesive layer  170 . The permeable glitter pigment contained in the adhesive layer  161 B has a transmittance of 20% or more. 
     As shown in  FIG. 10B , the colored layer  180  may be removed from the structure shown in  FIG. 10A . 
     This modification example also presents an advantage similar to that of the first embodiment. 
     In particular, according to this modification example, the average particle diameter of the glitter pigment in the adhesive layer  162 B is smaller than the average particle diameter of the permeable glitter pigment in the adhesive layer  161 B. By arranging the glitter pigment and the permeable glitter pigment having average particle diameters different from each other separately into two layers in this manner, there can be obtained both a uniform moisture feeling induced by the glitter pigment with a small average particle diameter and a glaring granular feeling induced by the permeable glitter pigment with a large average particle diameter, making it possible to produce a unique brilliant tape. In particular, since the glitter pigment with a small average particle diameter is located on the far side while the permeable glitter pigment with a large average particle diameter is located on the near side when viewed from one side (upper side in  FIG. 10 ) in the thickness direction, a high brilliance and depth can be obtained. 
     In this modification example, the average particle diameter of the glitter pigment in the adhesive layer  162 B is less than 30 μm and the average particle diameter of the permeable glitter pigment in the adhesive layer  161 B is greater than or equal to 40 μm. By giving a definite difference in the average particle diameter between the glitter pigment of the adhesive layer  162 B and the permeable glitter pigment of the adhesive layer  161 B in this manner, a high brilliance and depth can reliably be obtained. 
     The following technical significance also exists. 
     For example, in the case that two types of pigments each having a different particle diameter are contained separately in their respective adhesive layers, one with a small particle diameter is arranged in an underlying adhesive layer containing the first pigment, whereas one with a large particle diameter is arranged in an overlying adhesive layer containing the second pigment. 
     In this case, the particle diameter of 40 μm or more ensures visual confirmation of particle feeling, and therefore the overlying arrangement cannot impair the particle feeling as compared with the underlying arrangement. 
     Accordingly as the particle diameter increases, the particle feeling becomes more noticeable (60 μm or more is even better). 
     Furthermore, by setting the underlying small particles to be less than 30 μm, the overlying particle feeling can hardly be impaired. 
     Accordingly as the particle diameter reduces, the overlying particle feeling can be less impaired (10 μm or less is even better). 
     Other than the above, the techniques of the above embodiment and modification examples may appropriately be combined for use. 
     A second embodiment of the present disclosure will be described with reference to  FIG. 11 . Parts equivalent to those of the first embodiment and the modification examples thereof are designated by the same reference numerals, and explanations thereof will appropriately be omitted or simplified. 
     A layered structure of the double-faced adhesive tape according to the second embodiment is shown in  FIG. 11A  corresponding to  FIG. 3 . As shown in  FIG. 11A , the double-faced adhesive tape  150  of this second embodiment has a transparent film layer  151 A that is transparent (or translucent is acceptable; the same will apply to all below) instead of the film layer  151  in the layered structure shown in  FIG. 10B . The adhesive layer  162 B (to which the glitter pigment is added) disposed on the upper side of the film layer  151  in  FIG. 10B  is disposed on the lower side of the transparent film layer  151 A in  FIG. 11 , with a resultant removal of the adhesive layer  170 . The thickness magnitude relationship of the adhesive layer  161 B will be described later. 
     As a result of the above, the double-faced adhesive tape  150  of this embodiment includes: the transparent film layer  151 A; the adhesive layer  161 B disposed in contact with the transparent film layer  151 A on the upper side in  FIG. 11A  and having the permeable glitter pigment added at a desired volume ratio (5-50% relative to the entire adhesive layer); the adhesive layer  162 B disposed in contact with the transparent film layer  151 A on the lower side of the diagram and having the glitter pigment added at a desired volume ratio (5-50% relative to the entire adhesive layer); and the separation material layer  152  disposed in contact with the adhesive layer  162 B on the lower side of the diagram and covering the adhesive layer  162 B. 
     At this time, this embodiment has a feature that the thickness to of the adhesive layer  161 B containing the permeable glitter pigment is greater than the thickness tC of the adhesive layer  162 B containing the glitter pigment. 
     The volume ratio of the glitter pigment in the adhesive layer  162 B is smaller than the volume ratio of the permeable glitter pigment in the adhesive layer  161 B. Specifically, the volume ratio of the permeable glitter pigment in the adhesive layer  161 B is 1.5 times or more the volume ratio of the glitter pigment in the adhesive layer  162 B. The volume ratio can be measured by the technique similar to that of the first embodiment for example. 
     The permeable glitter pigment contained in the adhesive layer  161 B has a transmittance of 20% or more. 
     Similar to the modification example shown in  FIGS. 10A and 10B , the average particle diameter of the permeable glitter pigment in the adhesive layer  161 B containing the permeable glitter pigment differs from the average particle diameter of the glitter pigment in the adhesive layer  162 B. In detail, the average particle diameter of the permeable glitter pigment in the adhesive layer  161 B is greater than the average particle diameter of the glitter pigment in the adhesive layer  162 B. Specifically, the average particle diameter of the glitter pigment in the adhesive layer  162 B is less than 30 μm, whereas the average particle diameter of the permeable glitter pigment in the adhesive layer  161 B is greater than or equal to 40 μm. The average particle diameter can be measured by the technique similar to that in the first embodiment for example. The permeable glitter pigment in the adhesive layer  161 B and the glitter pigment in the adhesive layer  162 B are of similar colors to each other and are made of the same material. 
     In the same manner as the first embodiment, the double-faced adhesive tape  150  of this second embodiment is also wound onto the adhesive tape roll  14  and is arranged, together with the ink ribbon roll  16 , within the housing  11 A of the cartridge  11 . 
       FIG. 11B  shows a layered structure of the print tape  100  formed by bonding together the print-receiving tape  110  and the double-faced adhesive tape  150  shown in  FIG. 11A . As a result of the bonding, as shown in  FIG. 11B , the print tape  100  includes, from the upper side of the diagram toward the lower side thereof, the print-receiving tape  110 , the adhesive layer  161 B (to which the permeable glitter pigment is added), the transparent film layer  151 A, the adhesive layer  162 B (to which the glitter pigment is added), and the separation material layer  152 , laminated in the mentioned order. 
     A manufacturing process of the double-faced adhesive tape  150  will next be described with reference to  FIGS. 12 and 13 . 
     As shown in  FIG. 12 , the transparent film layer  151 A is fed out from the film roll FR and is supplied to the adhesive coating head AH. At the adhesive coating head AH, an adhesive (containing the glitter pigment) of the above composition is applied to a surface of the transparent film layer  151 A, to obtain a two-layered structure including the transparent film layer  151 A and the adhesive layer  162 B (to which the glitter pigment is added), after which the structure passes through the first drying chamber D 1 , the second drying chamber D 2 , the third drying chamber D 3 , the fourth drying chamber D 4 , and the fifth drying chamber D 5 , in the mentioned order, to undergo a five-stage drying process. The number of the drying chambers is not limited to five. 
     Subsequently, the separation material layer  152  separately fed out from the separation material roll SR is bonded to the adhesive layer  162 B so that the tape of the two-layered structure turns to a tape of a three-layered structure including the transparent film layer  151 A, the adhesive layer  162 B, and the separation material layer  152 , after which it is wound onto the first tape roll TR 1 . 
     Subsequently, as shown in  FIG. 13 , the tape of the three-layered structure of the transparent film layer  151 A, the adhesive layer  162 B, and the separation material layer  152  is fed out from the first tape roll R 1  and is supplied to the adhesive coating head AH in the same manner as the above. At the adhesive coating head AH, an adhesive (containing the permeable glitter pigment) of the above composition is applied to a surface of the transparent film layer  151 A opposite to the adhesive layer  162 B, to obtain a four-layered structure including the adhesive layer  161 B (to which the permeable glitter pigment is added), the transparent film layer  151 B, the adhesive layer  162 B, and the separation material layer  152 , after which similarly to the above, the structure passes through the first to fifth drying chambers D 1  to D 5 , in the mentioned order, to undergo the drying process to bring the double-faced adhesive tape  150  to completion. The thus completed double-faced adhesive tape  150  is wound onto the second tape roll TR 2 . 
     Although in  FIGS. 12 and 13 , the case has been described by way of example where the adhesive coating head AH is disposed only at a single location, another adhesive coating head AH may separately be disposed downstream of the drying chamber D 5  along the transport path. 
     &lt;Advantage of Second Embodiment&gt; 
     This second embodiment can also present an advantage similar to that of the first embodiment and the modification examples. In the second embodiment, in the normal four-layered structure including the adhesive layer for bonding, the film layer, the adhesive layer for affixing, and the separation material layer, the pigment (permeable glitter pigment in this example) is added to the bonding adhesive layer  161 B, while the pigment (glitter pigment in this example) is added to the affixing adhesive layer  162 B. This has the following significance. 
     If desired to use two different pigments with the intention of obtaining two different colors for example, intermixture of those pigments within a single layer brings about interference between the two pigments, hindering the pigments from fully exerting their respective effects. However, if the layers containing those two pigments are disposed separately from the above four layers, a total of six layers are required, resulting in a remarkably increased total thickness of the adhesive tape as well as in a remarkably increased number of manufacturing steps. 
     Thus, in this second embodiment, respective pigments (the permeable glitter pigment and the glitter pigment) are arranged in the two adhesive layers  161 B and  162 B, respectively, with the transparent film layer  151 A being a film layer interposed therebetween. By distributedly arranging two pigments in different layers in this manner, it is possible to suppress the interference between the two pigments arising from the intermixture, to thereby allow the pigments to fully exert their respective effects. Due to no increase in the number of the layers from the four layers, the total thickness of the double-faced adhesive tape  150  and the number of the manufacturing steps can be restrained from increasing. As a result, regardless of a limited space, the tape length capable of being wound onto the adhesive tape roll  14  can be extended. 
     As a result of the above, according to the second embodiment, two different colors can be represented by a single tape, while suppressing the increase in the total thickness of the double-faced adhesive tape  150  and in the number of manufacturing steps thereof. By arranging the glitter pigment and the permeable glitter pigment having average particle diameters different from each other separately into two layers, there can be obtained both a uniform moisture feeling induced by the glitter pigment with a small average particle diameter and a glaring granular feeling induced by the permeable glitter pigment with a large average particle diameter, so that a unique brilliant tape can be produced. In particular, since the glitter pigment with a small average particle diameter is located on the far side while the permeable glitter pigment with a large average particle diameter is located on the near side when viewed from one side (upper side in  FIG. 11 ) in the thickness direction, a high brilliance and depth can be obtained. 
     Particularly, in this second embodiment, the average particle diameter of the glitter pigment in the adhesive layer  162 B is less than 30 μm and the average particle diameter of the permeable glitter pigment in the adhesive layer  161 B is greater than or equal to 40 μm. By giving a definite difference in the average particle diameter between the glitter pigment of the adhesive layer  162 B and the permeable glitter pigment of the adhesive layer  161 B in this manner, a high brilliance and depth can reliably be obtained. 
     The following technical significance also exists. 
     For example, in the case that two types of pigments each having a different particle diameter are contained separately in their respective adhesive layers, one with a small particle diameter is arranged in an underlying adhesive layer containing the first pigment, whereas one with a large particle diameter is arranged in an overlying adhesive layer containing the second pigment. 
     In this case, the particle diameter of 40 μm or more ensures visual confirmation of particle feeling, and therefore the overlying arrangement cannot impair the particle feeling as compared with the underlying arrangement. 
     Accordingly as the particle diameter increases, the particle feeling becomes more noticeable (60 μm or more is even better). 
     Furthermore, by setting the underlying small particles to be less than 30 μm, the overlying particle feeling can hardly be impaired. 
     Accordingly as the particle diameter becomes smaller, the overlying particle feeling can be less impaired (10 μm or less is even better). 
     Particularly, in the second embodiment, the permeable glitter pigment of the adhesive layer  161 B has a transmittance of 20% or more. This ensures a reliable visual recognition of the color of the glitter pigment of the adhesive layer  162 B on the far side when viewed from one side (upper side in  FIG. 11 ) in the thickness direction. Since the permeable glitter pigment having permeability is added to a layer separate from the glitter pigment, the glitter feeling from the glitter pigment of the adhesive layer  161 B can be restrained from being disappeared by the glitter pigment of the adhesive layer  162 B. 
     Particularly, in the second embodiment, the volume ratio of the permeable glitter pigment in the adhesive layer  161 B is 1.5 times or more the volume ratio of the glitter pigment in the adhesive layer  162 B. This has the following significance. 
     A large amount of second pigment cannot be added due to the adhesive surface (to secure the bonding force of 3 N/10 mm). 
     On the other hand, a large amount of first pigment can be added due to less restriction from the bonding force and the addition of 1.5 times or more can enhance the chroma and glitter feeling. 
     In the structure shown in  FIG. 11A , the transparent film layer  151 A may be removed. Such a modification example is shown in  FIG. 14A . The same reference numerals are imparted to parts equivalent to those in the first and second embodiments and their modification examples, and explanations thereof will appropriately be omitted or simplified. In this case, as shown in  FIG. 14A , the double-faced adhesive tape  150  includes, from the upper side toward the lower side of the diagram, the adhesive layer  161 B (to which the permeable glitter pigment is added), the adhesive layer  162 B (to which the glitter pigment is added), and the separation material layer  152 , laminated in the mentioned order. 
       FIG. 14B  shows a layered structure of the print tape  100  formed by bonding the print-receiving tape  110  and the double-faced adhesive tape  150  shown in  FIG. 14A  together. As a result of the bonding, as shown in  FIG. 14B , the print tape  100  includes, from the upper side toward the lower side of the diagram, the print-receiving tape  110 , the adhesive layer  161 B (to which the permeable glitter pigment is added), the adhesive layer  162 B (to which the glitter pigment is added), and the separation material layer  152 , laminated in the mentioned order. 
     This modification example also presents an advantage similar to that of the second embodiment. 
     Other than the above, the techniques of the above embodiments and modification examples may appropriately be combined for use. 
     A third embodiment of the present disclosure will be described with reference to FIGS.  15  to  24 . Dissimilar to the first and the second embodiments using the laminated type cartridge  11 , this embodiment is an embodiment using a cartridge called a so-called non-laminated type (in more detail, receptor type). Parts equivalent to those of the first embodiment, the second embodiment, and the modification examples thereof are designated by the same reference numerals, and explanations thereof will appropriately be omitted or simplified. 
       FIG. 15  illustrates a plan view corresponding to  FIG. 2  of the first embodiment and showing a rear internal structure of a device body of a print label producing device in the third embodiment. In  FIG. 15 , the cartridge  11  for use in this embodiment comprises, within the interior of the housing  11 A, the adhesive tape roll  14  (detailed layered structure will be described later), the ink ribbon roll  16 , the ink ribbon take-up roller  17 , and the feeding roller  18 . 
     The adhesive tape roll  14  is made up by winding an adhesive tape  150 N in relation to this embodiment around the spool  50 . As shown in an enlarged view of  FIG. 15 , the adhesive tape  150 N includes: an image receiving layer  210 ; the colored layer  180  similar to the above; the transparent film layer  151 A that is transparent (or translucent is acceptable; the same applies hereinafter) similar to the above, the adhesive layer  161  to which the permeable glitter pigment is added similar to the above, the adhesive layer  162  to which the solid pigment is added similar to the above, and the separation material layer  152 , laminated in the mentioned order from the spool  50  lying on the radial center side (corresponding to the upper side in  FIG. 16  described later) toward the radial outside (corresponding to the lower side in  FIG. 16  described later). 
     At the time of the print label production, the platen roller  24  presses the adhesive tape  150 N fed out from the adhesive tape roll  14  and an ink ribbon not shown fed out from the ink ribbon roll  16  against the thermal head  23 . As a result, similar to the first embodiment, ink of the ink ribbon is transferred onto the image receiving layer  210  of the adhesive tape  150 N by heat reception from the thermal head  23  so that a desired print R (see  FIG. 3 , etc. described later) is formed on the adhesive tape  150 N to obtain a print tape  100 N so that the platen roller  24  feeds the print tape  100 N having the print formed thereon and the ink ribbon toward the feeding roller  18 . Afterward, the feeding roller  18  further feeds the print tape  100 N toward the label discharging exit  29  disposed on the upper end of the device body  2 . Similar to the first embodiment, at a predetermined point of time when the print tape  100 N is discharged from the label discharging exit  29 , the user manually operates the cutting operation lever  6  to activate the cutter  28  disposed in the vicinity of the label discharging exit  29 , to cut the print tape  100 N into a predetermined length of print tape  100 N (i.e. print label). 
     &lt;Details of Tape Layered Structure&gt; 
       FIG. 16  is an explanatory view showing layered structures of the adhesive tape  150 N and the print tape  100 N corresponding to  FIGS. 3 and 4  of the first embodiment. 
     As shown in  FIG. 16A , the adhesive tape  150 N includes: the transparent film layer  151 A; the colored layer  180  disposed in contact with the transparent film layer  151 A on the upper side of the diagram; the image receiving layer  210  disposed in contact with the colored layer  180  on the upper side of the diagram; the adhesive layer  161  disposed in contact with the transparent film layer  151 A on the lower side of the diagram, the adhesive layer  161  having the permeable glitter pigment added at a desired volume ratio (5-50% relative to the entire adhesive layer); the adhesive layer  162  disposed in contact with the adhesive layer  161  on the lower side of the diagram, the adhesive layer  162  having the solid pigment added at a desired volume ratio (5-50% relative to the entire adhesive layer); and the separation material layer  152  disposed in contact with the adhesive layer  162  on the lower side of the diagram so as to cover the adhesive layer  162 . 
     At this time, this embodiment has a feature that the volume ratio of the solid pigment in the adhesive layer  162  is smaller than the volume ratio of the permeable glitter pigment in the adhesive layer  161 . Specifically, for example, the volume ratio of the permeable glitter pigment in the adhesive layer  161  is 1.5 times or more the volume ratio of the solid pigment in the adhesive layer  162 . The volume ratio can be measured by the technique similar to that in the first embodiment for example. The solid pigment in the adhesive layer  162  and the permeable glitter pigment in the adhesive layer  161  are made of the same material. 
     The permeable glitter pigment contained in the adhesive layer  161  has a transmittance of 20% or more. The image receiving layer  210  also has a transmittance of 20% or more. 
       FIG. 16B  shows a layered structure of the print tape  100 N in which print R is formed on the image receiving layer  210  of the adhesive tape  150 N. 
     A manufacturing process of the adhesive tape  150 N will next be described with reference to  FIGS. 17 and 18 . 
     As shown in  FIG. 17 , the transparent film layer  151 A having the image receiving layer  210  and the colored layer  180  formed thereon by the known printing technique for example is fed out from the film roll FR and is supplied to the adhesive coating head AH. At the adhesive coating head AH, an adhesive (containing the permeable glitter pigment) of the above composition is applied to a surface of the transparent film layer  151 A opposite to the colored layer  180 , to obtain a four-layered structure including the image receiving layer  210 , the colored layer  180 , the transparent film layer  151 A, and the adhesive layer  161  (to which the permeable glitter pigment is added), after which the structure passes through the first drying chamber D 1 , the second drying chamber D 2 , the third drying chamber D 3 , the fourth drying chamber D 4 , and the fifth drying chamber D 5 , in the mentioned order to undergo the five-stage drying process and is wound onto the first tape roll TR 1 . The number of the drying chambers is not limited to five. 
     Subsequently, as shown in  FIG. 18 , the tape of the four-layered structure including the image receiving layer  210 , the colored layer  180 , the transparent film layer  151 A, and the adhesive layer  161  is fed out from the first tape roll TR 1  and is supplied to the adhesive coating head AH in the same manner as the above. At the adhesive coating head AH, an adhesive (containing the solid pigment) of the above composition is applied to a surface of the adhesive layer  161  opposite to the film layer  151 A, to obtain a five-layered structure including the image receiving layer  210 , the colored layer  180 , the transparent film layer  151 A, the adhesive layer  161 , and the adhesive layer  162  (to which the solid pigment is added), after which similarly to the above, the structure passes through the first to fifth drying chambers D 1  to D 5 , in the mentioned order, to undergo the drying process. Thereafter, the separation material layer  152  separately fed out from the separation material roll SR is bonded to the adhesive layer  162  so that the tape of the five-layered structure is completed as the adhesive tape  150 N of a six-layered structure including the image receiving layer  210 , the colored layer  180 , the transparent film layer  151 A, the adhesive layer  161 , the adhesive layer  162 , and the separation material layer  152 . The thus completed adhesive tape  150 N is wound onto the second tape roll TR 2 . 
     Although in  FIGS. 17 and 18 , the case has been described by way of example where the adhesive coating head AH is disposed only at a single location, another adhesive coating head AH may separately be disposed downstream of the drying chamber D 5  along the transport path. In this case, intactly after the coating process of the adhesive layer  161  and the drying process through the drying chambers D 1  to D 5  in  FIG. 17 , the coating process of the adhesive layer  162  and the bonding process of the separation material layer  152  (described using  FIG. 18 ) can be performed. 
     As shown in  FIG. 19A , the configuration may be such that the image receiving layer  210  is disposed in contact with the transparent film layer  151 A on the upper side of the diagram, without interposing the colored layer  180  between the image receiving layer  210  and the transparent film layer  151 A. As shown in  FIG. 19B , the colored layer  180  may be disposed in contact with the transparent film layer  151 A on the upper side of the diagram, without disposing the image receiving layer  210 . 
     &lt;Advantage of Third Embodiment&gt; 
     This third embodiment can also present an advantage similar to that of the first and the second embodiments and the modification examples. If desired to use two different pigments with the intention of obtaining two different colors for example in the adhesive tape, intermixture of those pigments within a single layer brings about interference between the two pigments, hindering the pigments from fully exerting their respective effects. 
     Thus, in this third embodiment, a pigment (permeable glitter pigment) is first arranged in an adhesive layer  161 , while another adhesive layer  162  with a pigment (solid pigment) is newly disposed. By distributedly arranging two pigments in different layers in this manner, it is possible to suppress the interference between the two pigments arising from the intermixture, thereby allowing the pigments to fully exert their respective effects. Since in particular, the permeable glitter pigment lies closer than the solid pigment when viewed from the other side (upper side in  FIGS. 16 and 11 ) in the thickness direction, there can be obtained an advantage that glitter particles especially look three-dimensional. 
     By allowing the adhesive layer  161  originally arranged for affixing to contain one (permeable glitter pigment) of the two pigments, the number of layers of the entire tape is limited to six, so that the increase in the total thickness of the adhesive tape  150 N and in the number of manufacturing steps can be suppressed. As a result, regardless of a limited space, the tape length capable of being wound onto the adhesive tape roll  14  can be extended. 
     The volume ratio of the solid pigment in the adhesive layer  162  is set to be less than the volume ratio of the permeable glitter pigment in the adhesive layer  161 . This has the following significance. Although in general, the more a pigment is added to an adhesive layer, the lower the bonding performance becomes, the adhesive layer  161  has less restriction from the bonding performance required for the adhesive tape (due to no exposure to the surface), thereby allowing a larger amount of permeable glitter pigment to be added. On the contrary, the volume ratio of the solid pigment in the adhesive layer  162  is reduced so that the bonding force to the adherend can be secured. 
     The adhesive layer  161  disposed on one side in the thickness direction of the transparent film layer  151 A is bonded to the transparent film layer  151 A while being managed in the factory manufacturing facility for example at the time of manufacturing as described above using  FIGS. 17 and 18 . On the other hand, the adhesive layer  162  needs to have a bonding force greater than that of the adhesive layer  161  because the adherend has not yet been determined and because the adhesion is made by the user. This third embodiment can deal with the above by setting the volume ratio of the solid pigment in the adhesive layer  162  to be less than the volume ratio of the permeable glitter pigment in the adhesive layer  161 . 
     Particularly, in the third embodiment, the permeable glitter pigment of the adhesive layer  161  has a transmittance of 20% or more. This ensures a reliable visual recognition of the color of the solid pigment of the adhesive layer  162  on the far side when viewed from the other side (upper side in  FIGS. 16 and 19 ) in the thickness direction. Since the permeable glitter pigment having permeability is added to a layer separate from the solid pigment, the glitter feeling from the permeable glitter pigment of the adhesive layer  161  can be restrained from being disappeared by the solid pigment of the adhesive layer  162 . 
     Particularly, in the third embodiment, the volume ratio of the permeable glitter pigment in the adhesive layer  161  is 1.5 times or more the volume ratio of the solid pigment in the adhesive layer  162 . 
     This has the following significance. 
     A large amount of second pigment cannot be added due to the adhesive surface (to secure the bonding force of 3 N/10 mm). 
     On the other hand, a large amount of first pigment can be added due to less restriction from the bonding force, and the addition of 1.5 times or more can enhance the chroma and glitter feeling. 
     &lt;Modification Examples of Third Embodiment&gt; 
     The third embodiment is not limited to the above mode and can variously be modified without departing from its spirit and technical idea. Modification examples thereof will hereinafter be described in order. Parts similar to those of the first to the third embodiments and modification examples thereof are designated by the same reference numerals and explanations thereof will appropriately be omitted or simplified. 
     (3-1) Use of Coloring Glitter Pigment 
     As shown in  FIG. 20A , in the layered structure of the adhesive tape  150 N shown in  FIG. 16 , the adhesive layer  162  with the solid pigment added may be replaced by the adhesive layer  162 A with the coloring glitter pigment added. In the adhesive layer  162 A, similarly to the adhesive layer  162 , the coloring glitter pigment is added at a volume ratio of 5-50% for example relative to the entire adhesive layer. 
     (3-2) Removal of Colored Layer or Image receiving Layer 
     As shown in  FIG. 20B , in the layered structure of the adhesive tape  150 N shown in  FIG. 16 , the colored layer  180  may be removed. As shown in  FIG. 20C , in the layered structure of the adhesive tape  150 N shown in  FIG. 16 , the image receiving layer  210  may be removed. These cases also present an advantage similar to the above. 
     (3-3) Interchange of Colored Layer and Image Receiving Layer 
     As shown in  FIG. 21A , in the layered structure of the adhesive tape  150 N shown in  FIG. 16 , the transparent film layer  151 A and the colored layer  180  may be interchanged so that the image receiving layer  210 , the transparent film layer  151 A, the colored layer  180 , the adhesive layer  161 , the adhesive layer  162 , and the separation material layer  152  are laminated in the mentioned order from the upper side toward the lower side of the diagram. As shown in  FIG. 21B , the colored layer  180  may be removed from the layered structure of the adhesive tape  150 N shown in  FIG. 21A  (in this case, the same layered structure as in  FIG. 19A  results). Alternatively, as shown in  FIG. 21C , the image receiving layer  210  may be removed from the layered structure of the adhesive tape  150 N shown in  FIG. 21A . These cases also present an advantage similar to the above. 
     (3-4) Use of Coloring Glitter Pigment in Addition to the Interchange 
     Furthermore, as shown in  FIG. 22A , in the layered structure of the adhesive tape  150 N shown in  FIG. 21 , the adhesive layer  162  with the solid pigment added may be replaced by the adhesive layer  162 A with the coloring glitter pigment added. In the adhesive layer  162 A, similarly to the adhesive layer  162 , the coloring glitter pigment is added at a volume ratio of 5-50% for example relative to the entire adhesive layer. As shown in  FIG. 22B , the colored layer  180  may be removed from the layered structure of the adhesive tape  150 N shown in  FIG. 22A  (in this case, the same layered structure as in  FIG. 20B  results). Alternatively, as shown in  FIG. 22C , the image receiving layer  210  may be removed from the layered structure of the adhesive tape  150 N shown in  FIG. 22A . These cases also present an advantage similar to the above. 
     (3-5) Particle Diameter Difference between Glitter Pigments in Two Layers 
     As shown in  FIG. 23A , in the layered structure of the double-faced adhesive tape  150  shown in  FIG. 16 , the adhesive layer  162  with the solid pigment added may be replaced by the adhesive layer  162 B with the glitter pigment added. At that time, in particular, the average particle diameter of the permeable glitter pigment in the adhesive layer  161 B (containing the permeable glitter pigment similar to that in the adhesive layer  161 ) is greater than the average particle diameter of the glitter pigment in the adhesive layer  162 B. Specifically, the average particle diameter of the glitter pigment in the adhesive layer  162 B is less than 30 μm, whereas the average particle diameter of the permeable glitter pigment in the adhesive layer  161 B is not less than 40 μm. The average particle diameter can be measured by a technique similar to that of the first embodiment for example. 
     The following technical significance also exists. 
     For example, in the case that two types of pigments each having a different particle diameter are contained separately in their respective adhesive layers, one with a small particle diameter is arranged in an underlying adhesive layer containing the first pigment, whereas one with a large particle diameter is arranged in an overlying adhesive layer containing the second pigment. 
     In this case, the particle diameter of 40 μm or more ensures visual confirmation of particle feeling, and therefore the overlying arrangement cannot impair the particle feeling as compared with the underlying arrangement. 
     Accordingly as the particle diameter increases, the particle feeling becomes more noticeable (60 μm or more is even better). 
     Furthermore, by setting the underlying small particles to be less than 30 μm, the overlying particle feeling can hardly be impaired. 
     Accordingly as the particle diameter reduces, the overlying particle feeling can be less impaired (10 μm or less is even better). 
     Similar to the third embodiment, in this modification example as well, the glitter pigment is added to the adhesive layer  162 B in a volume ratio of 5-50% for example relative to the entire adhesive layer in the same manner as the adhesive layer  162 , whereas the permeable glitter pigment is added to the adhesive layer  161 B in a volume ratio of 5-50% for example relative to the entire adhesive layer in the same manner as the adhesive layer  161 . The permeable glitter pigment contained in the adhesive layer  161 B has a transmittance of 20% or more. 
     As shown in  FIG. 23B , the colored layer  180  may be removed from the structure shown in  FIG. 23A . Alternatively, as shown in  FIG. 23C , the image receiving layer  210  may be removed from the structure shown in  FIG. 23A . 
     This modification example also presents an advantage similar to that of the third embodiment. 
     In particular, according to this modification example, the average particle diameter of the glitter pigment in the adhesive layer  162 B is smaller than the average particle diameter of the permeable glitter pigment in the adhesive layer  161 B. By arranging the glitter pigment and the permeable glitter pigment having average particle diameters different from each other separately into two layers in this manner, there can be obtained both a uniform moisture feeling induced by the glitter pigment with a small average particle diameter and a glaring granular feeling induced by the permeable glitter pigment with a large average particle diameter, making it possible to produce a unique brilliant tape. In particular, since the glitter pigment with a small average particle diameter is located on the far side while the permeable glitter pigment with a large average particle diameter is located on the near side when viewed from the other side (upper side in  FIG. 23 ) in the thickness direction, a high brilliance and depth can be obtained. 
     In this modification example, the average particle diameter of the glitter pigment in the adhesive layer  162 B is less than 30 μm and the average particle diameter of the permeable glitter pigment in the adhesive layer  161 B is greater than or equal to 40 μm. By giving a definite difference in the average particle diameter between the glitter pigment of the adhesive layer  162 B and the permeable glitter pigment of the adhesive layer  161 B in this manner, a high brilliance and depth can reliably be obtained. 
     (3-6) Interchange of Transparent Film Layer and Colored Layer in Addition to the Particle Diameter Difference 
     As shown in  FIG. 24A , in the layered structure of the adhesive tape  150 N shown in  FIG. 23A , the transparent film layer  151 A and the colored layer  180  may be interchanged so that the image receiving layer  210 , the transparent film layer  151 A, the colored layer  180 , the adhesive layer  161 A, the adhesive layer  162 A, and the separation material layer  152  are laminated in the mentioned order from the upper side (the other side in the thickness direction in the third embodiment and the modification examples) toward the lower side (one side in the thickness direction in the third embodiment and the modification examples) of the diagram. As shown in  FIG. 24B , the colored layer  180  may be removed from the layered structure of the adhesive tape  150 N shown in  FIG. 24A  (in this case, the same layered structure as in  FIG. 23B  results). Alternatively, as shown in  FIG. 24C , the image receiving layer  210  may be removed from the layered structure of the adhesive tape  150 N shown in  FIG. 24A . These cases also present an advantage similar to the above. 
     The transparent film layer  151 A may be removed from the structure shown in  FIGS. 15 to 24 . At that time, the structure without the film layer may be expanded to the laminated type. Such modification examples will be described with reference to  FIGS. 25 to 27 . The same reference numerals are imparted to parts equivalent to those of the first to the third embodiments and modification examples thereof, and explanations thereof will appropriately be omitted or simplified. 
       FIG. 25  illustrates a plan view, corresponding to  FIG. 2  of the first embodiment and showing a rear internal structure of a device body of a print label producing device in this modification example. In  FIG. 25 , the double-faced adhesive tape  150  wound onto the adhesive tape roll  14  disposed in the housing  11 A of the cartridge  11  of this embodiment is configured to include: as shown in an enlarged view of  FIG. 25 , the adhesive layer  161  with a predetermined pigment (in this example, the permeable glitter pigment as the first pigment) added; the adhesive layer  162  with the same or different type of particles as in the adhesive layer  161  (in this example, the solid pigment as the second pigment; the same applies hereinafter) added; and the separation material layer  152 ; laminated in the mentioned order from the spool  50  lying on the radial center side (corresponding to the upper side in  FIG. 26  described later) toward the radial outside (corresponding to the lower side in  FIG. 27  described layer). Similar to the above, as shown in  FIG. 25 , the print-receiving tape roll  15  is made up by winding the print-receiving tape  110  having a transmittance of 20% or more for example around the spool  60 . The housing  11 A comprises the ink ribbon roll  16  similar to the above. 
     &lt;Details of Tape Layered Structure&gt; 
       FIG. 26  is an explanatory view showing a layered structure of the print-receiving tape  110  and the double-faced adhesive tape  150 . 
     As shown in  FIG. 26 , the double-faced adhesive tape  150  includes: the adhesive layer  161  having the permeable glitter pigment added at a desired volume ratio (e.g. 5-50% relative to the entire adhesive layer); the adhesive layer  162  disposed in contact with the adhesive layer  161  on the lower side of the diagram and having the solid pigment added at a desired volume ratio (e.g. 5-50% relative to the entire adhesive layer); and the separation material layer  152  disposed in contact with the adhesive layer  162  on the lower side of the diagram so as to cover the adhesive layer  162 . 
     At this time, similarly to the third embodiment, this modification example has a feature that the volume ratio of the solid pigment in the adhesive layer  162  is smaller than the volume ratio of the permeable glitter pigment in the adhesive layer  161 . Specifically, for example, the volume ratio of the permeable glitter pigment in the adhesive layer  161  is 1.5 times or more the volume ratio of the solid pigment in the adhesive layer  162 . The volume ratio can be measured by the technique similar to that in the first embodiment for example. 
     The permeable glitter pigment contained in the adhesive layer  161  has a transmittance of 20% or more. 
       FIG. 27A  shows a layered structure of the print tape  100  formed by bonding the print-receiving tape  110  and the double-faced adhesive tape  150  together, while  FIG. 27B  shows a state where the print tape  100  is adhered via the adhesive layer  162  to the adherend M with the separation material layer  152  being separated from the print tape  100 . As a result of the bonding, as shown in  FIG. 27A , the print tape  100  is made up by laminating, from the upper side (the other side in the thickness direction of this modification example) in the diagram toward the lower side (one side in the thickness direction of this modification example) in the diagram, the print-receiving tape  110 , the adhesive layer  161  (to which the permeable glitter pigment is added), the adhesive layer  162  (to which the solid pigment is added), the colored layer  180 , the film layer  151 , the adhesive layer  170 , and the separation material layer  152 , in the mentioned order. 
     This modification example also presents an advantage similar to that of the third embodiment. 
     Other than the above, the techniques of the above embodiments and modification examples may appropriately be combined for use. 
     A fourth embodiment of the present disclosure will be described with reference to  FIGS. 28 to 44 . The same reference numerals are imparted to parts equivalent to those in the first to the third embodiments and their modification examples, and explanations thereof will appropriately be omitted or simplified. 
     Similar to the first and the second embodiments, this embodiment is an embodiment using a so-called laminated type cartridge.  FIG. 28  illustrates a plan view corresponding to  FIG. 2  of the first embodiment and showing a rear internal structure of a device body of a print label producing device in the fourth embodiment. In  FIG. 28 , the double-faced adhesive tape  150  wound onto the adhesive tape roll  14  disposed in the housing  11 A of the cartridge  11  of this embodiment is configured to include: as shown in an enlarged view of  FIG. 28 , an adhesive layer  163 U with predetermined particles (a pigment in this example; it may be a glitter pigment in particular; the same applies hereinafter) added; an adhesive layer  163 L with particles of the same material as in the adhesive layer  163 U (the glitter pigment in this example; the same applies hereinafter) added; the colored layer  180 ; the film layer  151 , the adhesive layer  170 ; and the separation material layer  152 ; laminated in the mentioned order from the spool  50  lying on the radial center side (corresponding to the upper side in  FIG. 29  described later) toward the radial outside (corresponding to the lower side in  FIG. 29  described layer). Similar to the above, as shown in  FIG. 28 , the print-receiving tape roll  15  is made up by winding the print-receiving tape  110  (corresponding to a cover film) having a transmittance of 20% or more for example around the spool  60 . The housing  11 A comprises the ink ribbon roll  16  similar to the above. 
     &lt;Details of Tape Layered Structure&gt; 
       FIG. 29  is an explanatory view showing a layered structure of the print-receiving tape  110  and the double-faced adhesive tape  150 . 
     As shown in  FIG. 29 , the double-faced adhesive tape  150  includes: the film layer  151 ; the colored layer  180  disposed in contact with the film layer  151  on the upper side of the diagram (one side in the thickness direction in the structures of  FIGS. 29 to 31 ); the adhesive layer  163 L (corresponding to a first-particle-containing adhesive layer) disposed in contact with the colored layer on the upper side of the diagram (one side in the thickness direction in the structures of  FIGS. 29 to 31 ) and having the pigment added at a desired volume ratio; the adhesive layer  163 U (corresponding to a second-particle-containing adhesive layer) disposed in contact with the adhesive layer  163 L on the upper side of the diagram (one side in the thickness direction in the structures of  FIGS. 29 to 31 ) and having the pigment of the same material as in the adhesive layer  163 L added at a desired volume ratio; the adhesive layer  170  (corresponding to an affixing adhesive layer) disposed in contact with the film layer  151  on the lower side of the diagram (the other side in the thickness direction in the structures of  FIGS. 29 to 31 ); and the separation material layer  152  disposed in contact with the adhesive layer  170  on the lower side of the diagram (the other side in the thickness direction in the structures of  FIGS. 29 to 31 ) so as to cover the adhesive layer  170 . 
     At this time, this embodiment has a feature that the pigment in the adhesive layers  163 U and  163 L has an average particle diameter of 30 μm or more. The average particle diameter can be measured by the technique similar to the above. 
     The volume ratio of the pigment in the adhesive layer  163 U is smaller than the volume ratio of the pigment in the adhesive layer  163 L. Specifically, the volume ratio of the pigment in the adhesive layer  163 L is 1.5 times or more the volume ratio in the adhesive layer  163 U. 
     A thickness tL of the adhesive layer  163 L is greater than a thickness tU of the adhesive layer  163 U. Specifically the thickness tL of the adhesive layer  163 L is 1.5 times or more the thickness tU of the adhesive layer  163 U. 
     The adhesive force of the adhesive layer  163 U is 3 [N]/10 [mm] or more. The adhesive force (bonding force) is measured in conformity with JIS-Z0237. To put it briefly, a surface to be measured is affixed to an SUS304 stainless plate and, after the elapse of a certain period of time, a tensile tester is used to perform a measurement separating at an angle of 180 degrees at a speed of 300 mm/min (hereinafter, the same will apply to modification examples and other embodiments described later). 
     On the other hand, the print-receiving tape  110  has print R as described above on a surface on the side facing the double-faced adhesive tape  150  (the lower side of the diagram; the other side in the thickness direction in the structures of  FIGS. 29 to 31 ). The print-receiving tape  110  is bonded via the adhesive layer  163 U to the double-faced adhesive tape  150 . 
       FIG. 30A  shows a layered structure of the print tape  100  formed by bonding the print-receiving tape  110  and the double-faced adhesive tape  150  together, while  FIG. 30B  shows a state where the print tape  100  is adhered via the adhesive layer  170  to the adherend M with the separation material layer  152  being separated from the print tape  100 . As a result of the bonding, as shown in  FIG. 30A , the print tape  100  is made up by laminating, from the upper side of the diagram (one side in the thickness direction in the structures of  FIGS. 29 to 31 ) toward the lower side thereof (the other side in the thickness direction in  FIGS. 29 to 31 ), the print-receiving tape  110 , the adhesive layer  163 U (to which the glitter pigment is added), the adhesive layer  163 L (to which the glitter pigment is added), the colored layer  180 , the film layer  151 , the adhesive layer  170 , and the separation material layer  152 , in the mentioned order. 
     At this time, as shown in  FIG. 31 , the adhesive layer  163 L may be disposed in contact with the film layer  151  on the upper side of the diagram (one side in the thickness direction in the structures of  FIGS. 29 to 31 ), without interposing the colored layer  180  between the adhesive layer  163 L and the film layer  151 . Furthermore, in the double-faced adhesive tape  150  shown in  FIGS. 29 to 31 , three or more adhesive layers having common particles, inclusive of the two adhesive layers  163 U and  163 L, may be disposed adjacent to one another. 
     A manufacturing process of the double-faced adhesive tape  150  will next be described with reference to  FIGS. 32 to 34 . 
     In  FIG. 32 , similarly to  FIG. 6 , the film layer  151  having the colored layer  180  formed thereon by a known printing technique for example is fed out from the film roll FR and is supplied to the adhesive coating head AH. At the adhesive coating head AH, an adhesive of the above composition is applied to a surface of the film layer  151  opposite to the colored layer  180 , to obtain a three-layered structure including the colored layer  180 , the film layer  151 , and the adhesive layer  170 , after which the structure passes through the first drying chamber D 1 , the second drying chamber D 2 , the third drying chamber D 3 , the fourth drying chamber D 4 , and the fifth drying chamber D 5 , in the mentioned order, to undergo a five-stage drying process. The number of the drying chambers is not limited to five. 
     Thereafter, the separation material layer  152  fed out separately from the separation material roll SR is bonded to the adhesive layer  170  so that the tape of the three-layered structure turns into a tape of a four-layered structure, which is wound onto the first tape roll TR 1 . 
     Subsequently, as shown in  FIG. 33 , the tape of the four-layered structure including the colored layer  180 , the film layer  151 , the adhesive layer  170 , and the separation material layer  152  is fed out from the first tape roll TR 1  and is supplied to the adhesive coating head AH in the same manner as the above. At the adhesive coating head AH, an adhesive (containing the glitter pigment as the particles for example) of the above composition is applied to a surface of the colored layer  180  opposite to the film layer  151 , to obtain a five-layered structure including the adhesive layer  163 L (having the glitter pigment added), the colored layer  180 , the film layer  151 , the adhesive layer  170 , and the separation material layer  152 , after which similarly to the above, the structure passes through the first to fifth drying chambers D 1  to D 5 , in the mentioned order, to undergo the drying process and is wound onto the second tape roll TR 2 . 
     Further, thereafter, as shown in  FIG. 34 , the tape of the five-layered structure including the adhesive layer  163 L, the colored layer  180 , the film layer  151 , the adhesive layer  170 , and the separation material layer  152  is fed out from the second tape roll R 2  and is supplied to the adhesive coating head AH in the same manner as the above. At the adhesive coating head AH, an adhesive (containing the same particles as the above, e.g. the glitter pigment) the permeable glitter pigment) of the above composition is applied to a surface of the adhesive layer  163 L opposite to the colored layer  180 , to obtain a six-layered structure including the adhesive layer  163 U (having the glitter pigment added), the adhesive layer  163 L (having the glitter pigment added), the colored layer  180 , the film layer  151 , the adhesive layer  170 , and the separation material layer  152 , after which similarly to the above, the structure passes through the first to fifth drying chambers D 1  to D 5 , in the mentioned order, to undergo the drying process to complete the double-faced adhesive tape  150 . The thus completed double-faced adhesive tape  150  is wound onto the third tape roll TR 3 . 
     Although in  FIGS. 32 to 34 , the case has been described by way of example where the adhesive coating head AH is disposed only at a single location, another adhesive coating head AH may separately be disposed downstream of the drying chamber D 5  along the transport path. In this case, intactly after the coating process of the adhesive layer  163 L and the drying process through the drying chambers D 1  to D 5  in  FIG. 33 , the coating process of the adhesive layer  163 U (described using  FIG. 34 ) can be performed. 
     &lt;Advantage of Fourth Embodiment&gt; 
     In the case of manufacturing the double-faced adhesive tape  150  by adding particles such as the pigment into the adhesive layer as described using  FIGS. 32 to 34  for example, a solvent (used at the time of dilution) contained in the interior of a layer adhesively coated at the adhesive coating head AH may not fully volatilize even through the subsequent drying process in the drying chambers D 1  to D 5  and may remain within the adhesive layer (see broken line portions of  FIG. 35 ). Since the adhesive performance of the adhesive layer is adversely affected if the solvent remains within the adhesive layer, there is a need to lower the coating speed or strengthen the drying conditions in order to avoid the adverse effect, resulting in increased manufacturing costs. The above trend becomes noticeable esp. when using particles with a large particle diameter (particles with an average particle diameter of 30 μm or more as in this embodiment for example). 
     Thus, in this fourth embodiment, the adhesive layer with the above particles added is divided into two (the adhesive layer  163 L and the adhesive layer  163 U) (see  FIG. 36A ) so that the adhesive layer  163 L with the above particles added is first disposed on one side (the upper side in  FIGS. 29 to 31 ) in the thickness direction of the film layer  151  (see the overall process shown in  FIG. 33 ) while the adhesive layer  163 U with the same particles added is disposed on one side (the upper side in  FIGS. 29 to 31 ) in the thickness of the adhesive layer  163 L. 
     As a result, the thickness of one adhesive layer  163 U (or adhesive layer  163 L) can be reduced so that the solvent can easily dry through the drying process in the drying chambers D 1  to D 5  (see solid arrows in  FIG. 36B ) so that the lowering in the adhesive performance of the adhesive layers  163 U and  163 L arising from the residual solvent can be suppressed. 
     Particularly, in the fourth embodiment, the pigment is added as the above particles to the adhesive layer  163 L and the adhesive layer  163 U. This enables the brilliance from the pigment to be secured. 
     Particularly, in the fourth embodiment, the volume ratio of the particles (the pigment in the above example) in the adhesive layer  163 U is smaller than the volume ratio of the pigment in the adhesive layer  163 L. This enables the adhesive performance of the adhesive layer  163 U exposed on the surface to be secured. In other words, the bonding performance of the entire tape can be secured. 
     In particular, the volume ratio of the pigment in the adhesive layer  163 L is 1.5 times or more the volume ratio in the adhesive layer  163 U. This has the following technical significance. 
     Although it is preferable for the second-particle-containing adhesive layer to have a smaller volume ratio, the reason is that the second pigment is on the bonding side and therefore requires an adhesive force. 
     To secure the tinge and the brilliance required for the entirety of the two adhesive layers, the first pigment is increased to compensate for the decrease in the second pigment. 
     If the degree of the decrease in the second pigment is small, the bonding force is insufficient, requiring an increase in the thickness of the adhesive layer. To avoid the increase in the thickness of the tape layer, 1.5 times or more (preferably, 2 times or more) is preferred. 
     As has been described using  FIG. 33 , the adhesive layer  163 L disposed on the film layer  151  (having the colored layer  180  formed thereon) is bonded to the colored layer  180  at the time of manufacturing in the state where it is managed in the factory manufacturing facility shown in  FIGS. 32 to 34  for example. On the contrary, the adhesive layer  163 U is bonded to the print-receiving tape  110  within the print label producing device  1  at the time of the print label production as described hereinabove. For this reason, the bonding force of the adhesive layer  163 U needs to be greater than that of the adhesive layer  163 L. As described hereinabove, this fourth embodiment can deal with the above by setting the volume ratio of the particles in the adhesive layer  163 U to be smaller than the volume ratio of the particles in the adhesive layer  163 L. 
     Particularly, in the fourth embodiment, the thickness tL of the adhesive layer  163 L is set to be greater (than the thickness tU of the adhesive layer  163 U) so that the volume ratio of the particles in the adhesive layer  163 L can further be increased. Such an increase allows the residual amount of the solvent in the adhesive layer  163 L to relatively increase but allows the residual amount of the solvent in the adhesive layer  163 U to relatively decrease. In particular, the thickness tL of the adhesive layer  163 L is 1.5 times or more the thickness tU of the adhesive layer  163 U. This has the following technique significance. The second pigment is reduced to ⅔ or less (desirably, ½ or less) to obtain a minimum thickness capable of securing the bonding force of 3 N/10 mm (for the purpose of preventing the total layer thickness from increasing). Such a reduction increases the ratio of the first pigment, requiring the 1.5 times or more thickness. 
     Particularly, in the fourth embodiment, the adhesive force of the adhesive layer  163 U is 3 [N]/10 [mm] or more. As a result, the adhesiveness by the adhesive layer  163 U can be ensured. 
     In the structure shown in  FIG. 31 , the film layer  151  and the adhesive layer  170  may be removed. Such a modification example will be described with reference to  FIGS. 37 to 39 . The same reference numerals are imparted to parts equivalent to those of the fourth embodiment and explanations thereof will appropriately be omitted or simplified. 
       FIG. 37  illustrates a plan view corresponding to  FIG. 28  of the fourth embodiment and showing a rear internal structure of a device body of a print label producing device in this modification example. In  FIG. 37 , the double-faced adhesive tape  150  wound onto the adhesive tape roll  14  disposed in the housing  11 A of the cartridge  11  of this modification example is configured to include: as shown in an enlarged view of  FIG. 37 , the adhesive layer  163 U with predetermined particles (a pigment in this example) added; the adhesive layer  163 L with particles of the same material as in the adhesive layer  163 U (a pigment in this example; the same applies hereinafter) added; the colored layer  180 ; and the separation material layer  152 ; laminated in the mentioned order from the spool  50  lying on the radial center side (corresponding to the upper side in  FIG. 38  described later) toward the radial outside (corresponding to the lower side in  FIG. 38  described layer). Similar to the above, as shown in  FIG. 37 , the print-receiving tape roll  15  is made up by winding the print-receiving tape  110  (corresponding to the cover film) having a transmittance of 20% or more for example around the spool  60 . The housing  11 A comprises the ink ribbon roll  16  similar to the above. 
     &lt;Details of Tape Layered Structure&gt; 
       FIG. 38  is an explanatory view showing a layered structure of the print-receiving tape  110  and the double-faced adhesive tape  150 . 
     As shown in  FIG. 38 , the double-faced adhesive tape  150  includes: the adhesive layer  163 L (corresponding to the first-particle-containing adhesive layer) to which the pigment is added at a desired volume ratio; the adhesive layer  163 U (corresponding to the second-particle-containing adhesive layer) disposed in contact with the adhesive layer  163 L on the upper side of the diagram (one side in the thickness direction in this modification example) and having the pigment of the same material as in the adhesive layer  163 L added at a desired volume ratio; and the separation material layer  152  disposed in contact with the adhesive layer  163 L on the lower side of the diagram (the other side in the thickness direction in this modification example) so as to cover the adhesive layer  163 L. 
       FIG. 39A  shows a layered structure of the print tape  100  formed by bonding the print-receiving tape  110  and the double-faced adhesive tape  150  together, while  FIG. 39B  shows a state where the print tape  100  is adhered via the adhesive layer  162  to the adherend M with the separation material layer  152  being separated from the print tape  100 . As a result of the bonding, as shown in  FIG. 39A , the print tape  100  is made up by laminating, from the upper side of the diagram (one side in the thickness direction in this modification example) toward the lower side thereof (the other side in the thickness direction in this modification example), the print-receiving tape  110 , the adhesive layer  163 U (to which a pigment is added), the adhesive layer  163 L (to which the pigment is added), and the separation material layer  152 , in the mentioned order. 
     This modification example also presents an advantage similar to that of the third embodiment. 
     &lt;Modification Example of Fourth Embodiment&gt; 
     The fourth embodiment is not limited to the above mode and can variously be modified without departing from its spirit and technical idea. Modification examples thereof will be described hereinbelow in order. 
     (4-1) Application to Non-Laminated Type Cartridge 
     This modification example uses a cartridge called a so-called non-laminated type (in more detail, receptor type), in the same manner as in  FIG. 15  of the third embodiment described above. In  FIG. 40  corresponding to  FIG. 15 , the cartridge  11  for use in this modification example comprises, within the housing  11 A, similarly to  FIG. 15 , the adhesive tape roll  14  (of which detailed Layered Structure will be described later), the ink ribbon roll  16 , the ink ribbon take-up roller  17 , and the feeding roller  18 . 
     The adhesive tape roll  14  is made up by winding the adhesive tape  150 N related to this modification example around the spool  50 . As shown in an enlarged view of  FIG. 40 , the adhesive tape  150 N includes: the image receiving layer  210 ; the colored layer  180 ; the transparent film layer  151 A that is transparent (or translucent is also acceptable; the same will apply hereinafter) similar to the above; the adhesive layer  163 L to which predetermined particles (a pigment in this example; it may be a glitter pigment in particular; the same will apply hereinafter) similar to those in  FIG. 29  are added; the adhesive layer  163 U to which particles (the glitter pigment in this example; the same will apply hereinafter) of the same material as in the adhesive layer  163 L are added; and the separation material layer  152 ; laminated in the mentioned order from the spool  50  lying on the radial center side (corresponding to the upper side in  FIG. 41  described later) toward the radial outside (corresponding to the lower side in  FIG. 41  described later). 
     &lt;Details of Tape Layered Structure&gt; 
       FIG. 41A  is an explanatory view showing a layered structure of the adhesive tape  150 N and the print tape  100 N. 
     As shown in  FIG. 41A , the adhesive tape  150 N includes: the transparent film layer  151 A; the colored layer  180  disposed in contact with the transparent film layer  151 A on the upper side of the diagram (the other side in the thickness direction in the structures of  FIGS. 40 to 44 ); the image receiving layer  210  disposed in contact with the colored layer  180  on the upper side of the diagram (the other side in the thickness direction in the structures of  FIGS. 40 to 44 ); the adhesive layer  163 L (corresponding to the first-particle-containing adhesive layer) disposed in contact with the transparent film layer  151 A on the lower side of the diagram (one sided in the thickness direction in the structures of  FIGS. 40 to 44 ) and having the pigment added at a desired volume ratio; the adhesive layer  163 U (corresponding to the second-particle-containing adhesive layer) disposed in contact with the adhesive layer  163 L on the lower side of the diagram (one side in the thickness direction in the structures of  FIGS. 40 to 44 ) and having the pigment of the same material as in the adhesive layer  163 L added at a desired volume ratio; and the separation material layer  152  disposed in contact with the adhesive layer  163 U on the lower side of the diagram (one side in the thickness direction in the structures of  FIGS. 40 to 44 ) so as to cover the adhesive layer  163 U. 
     At this time, also in this modification example, similarly to the fourth embodiment, the average particle diameter of the pigment in the adhesive layers  163 U and  163 L is 30 μm or more. The average particle diameter can be measured by the technique similar to the above. The volume ratio of the pigment in the adhesive layer  163 U is smaller than the volume ratio of the pigment in the adhesive layer  163 L. Specifically, the volume ratio of the pigment in the adhesive layer  163 L is 2 times or more the volume ratio in the adhesive layer  163 U. The volume ratio can be measured by the technique described above. The thickness tL of the adhesive layer  163 L is greater than the thickness tU of the adhesive layer  163 U. Specifically, the thickness tL of the adhesive layer  163 L is 1.5 times or more the thickness tU of the adhesive layer  163 U. The adhesive force of the adhesive layer  163 U is 3 [N]/10 [mm] or more. The colored layer  180  has a transmittance of 20% or more. In this modification example, the image receiving layer  210  also has a transmittance of 20% or more. 
       FIG. 41B  shows a layered structure of the print tape  100 N having print R formed on the image receiving layer  210  of the adhesive tape  150 N. 
     A manufacturing process of the adhesive tape  150 N will next be described using  FIGS. 42 and 43 . 
     As shown in  FIG. 42 , the transparent film layer  151 A having the image receiving layer  210  and the colored layer  180  formed thereon by a known printing technique is fed out from the film roll FR and is supplied to the adhesive coating head AH. At the adhesive coating head AH, an adhesive (containing the pigment) of the above composition is applied to a surface of the transparent film layer  151 A opposite to the colored layer  180 , to obtain a four-layered structure including the image receiving layer  210 , the colored layer  180 , the transparent film layer  151 A, and the adhesive layer  163 L (with the pigment added), after which the structure passes through the first drying chamber D 1 , the second drying chamber D 2 , the third drying chamber D 3 , the fourth drying chamber D 4 , and the fifth drying chamber D 5 , in the mentioned order, to undergo the five-stage drying process, and is wound onto the first tape roll TR 1 . The number of the drying chambers is not limited to five. 
     Subsequently, as shown in  FIG. 43 , the tape of the four-layered structure including the image receiving layer  210 , the colored layer  180 , the transparent film layer  151 A, and the adhesive layer  163 L is fed out from the first tape roll TR 1  and is supplied to the adhesive coating head AH in the same manner as the above. At the adhesive coating head AH, an adhesive (containing the same pigment as the above) of the above composition is applied to a surface of the adhesive layer  163 L opposite to the transparent film layer  151 A, to obtain a five-layered structure including the image receiving layer  210 , the colored layer  180 , the transparent film layer  151 A, the adhesive layer  163 L, and the adhesive layer  163 U (with the pigment added), after which similarly to the above, the structure passes through the first to fifth drying chambers D 1  to D 5 , in the mentioned order, to undergo the drying process. Thereafter, the separation material layer  152  separately fed out from the separation material roll SR is bonded to the adhesive layer  163 U of the tape of the 5-layered structure, to complete the adhesive tape  150 N of a six-layered structure including the image receiving layer  210 , the colored layer  180 , the transparent film layer  151 A, the adhesive layer  163 L, the adhesive layer  163 U, and the separation material layer  152 . The thus completed adhesive tape  150 N is wound onto the second tape roll TR 2 . 
     Although in  FIGS. 42 and 43 , the case has been described by way of example where the adhesive coating head AH is disposed only at a single location, another adhesive coating head AH may separately be disposed downstream of the drying chamber D 5  along the transport path. In this case, intactly after the coating process of the adhesive layer  163 L and the drying process through the drying chambers D 1  to D 5  in  FIG. 42 , the coating process of the adhesive layer  163 U and the bonding process of the separation material layer  152  (described using  FIG. 43 ) can be carried out. 
     As shown in  FIG. 41C , the configuration may be such that the image receiving layer  210  is disposed in contact with the transparent film layer  151 A on the upper side of the diagram (the other side in the thickness direction in this modification example), without interposing the colored layer  180  between the image receiving layer  210  and the transparent film layer  151 A. As shown in  FIG. 41C , the colored layer  180  may be disposed in contact with the transparent film layer  151 A on the upper side of the diagram (the other side in the thickness direction in this modification example), without disposing the image receiving layer  210 . 
     This modification example can also present an advantage similar to that of the fourth embodiment. The adhesive layer with particles added is divided into two (the adhesive layer  163 L and the adhesive layer  163 U) so that the adhesive layer  163 L with the above particles added is disposed on one side (the lower side in  FIG. 41 ) in the thickness direction of the transparent film layer  151 A while the adhesive layer  163 U with the same particles added is disposed on one side (the lower side in  FIG. 41 ) in the thickness direction of the adhesive layer  163 L. As a result, the thickness of one adhesive layer  163 U (or adhesive layer  163 L) can be reduced so that the solvent can easily dry through the drying process in the drying chambers D 1  to D 5  so that the lowering in the adhesive performance of the adhesive layers  163 U and  163 L arising from the residual solvent can be suppressed. 
     The glitter pigment is added as the above particles to the adhesive layer  163 L and the adhesive layer  163 U, enabling the brilliance from the pigment to be secured. The volume ratio of the particles (the pigment in the above example) in the adhesive layer  163 U is smaller than the volume ratio of the pigment in the adhesive layer  163 L, thereby enabling the adhesive performance of the adhesive layer  163 U exposed on the surface to be secured, i.e., enabling the bonding performance of the entire tape to be secured. The thickness tL of the adhesive layer  163 L is set to be greater (than the thickness tU of the adhesive layer  163 U) so that the volume ratio of the particles in the adhesive layer  163 L can further be increased. Such an increase allows the residual amount of the solvent in the adhesive layer  163 L to relatively increase but allows the residual amount of the solvent in the adhesive layer  163 U to relatively decrease. The adhesive force of the adhesive layer  163 U is 3 [N]/10 [mm] or more, whereby the adhesiveness by the adhesive layer  163 U can be ensured. 
     The adhesive layer  163 L disposed on the transparent film layer  151 A is bonded to the transparent film layer  151 A while being managed in the factory manufacturing facility for example at the time of manufacturing, as described above using  FIG. 42 . On the other hand, the adhesive layer  163 U needs to have a bonding force greater than that of the adhesive layer  163 L because the adherend has not yet been determined and because the adhesion is made by the user. This modification example can deal with the above by setting the volume ratio of the pigment in the adhesive layer  163 U to be less than the volume ratio of the pigment in the adhesive layer  163 L. 
     (4-2) Interchange of Transparent Film Layer and Colored Layer 
     As shown in  FIG. 44A , in the layered structure of the adhesive tape  150 N shown in  FIG. 41A , the transparent film layer  151 A and the colored layer  180  may be interchanged so that the image receiving layer  210 , the transparent film layer  151 A, the colored layer  180 , the adhesive layer  163 L, the adhesive layer  163 U, and the separation material layer  152  are laminated in the mentioned order from the upper side (the other side in the thickness direction) of the diagram toward the lower side (one side in the thickness direction) of the diagram. As shown in  FIG. 44B , the colored layer  180  may be removed from the layered structure of the adhesive tape  150 N shown in  FIG. 44A  (in this case, the same layered structure as in  FIG. 41C  results). Alternatively, as shown in  FIG. 44C , the image receiving layer  210  may be removed from the layered structure of the adhesive tape  150 N shown in  FIG. 44A . These cases also present an advantage similar to the above. 
     The transparent film layer  151 A and the colored layer  180  may be removed from the structure shown in  FIG. 44A . Such a modification example will be described with reference to  FIG. 46 . The same reference numerals are imparted to parts equivalent to those in the fourth embodiment and its modification examples, and explanations thereof will appropriately be omitted or simplified. 
       FIG. 45  illustrates a plan view corresponding to  FIG. 40  and showing a rear internal structure of a device body of a print label producing device in this modification example. In  FIG. 45 , similarly to the above, the cartridge  11  for use in this modification example comprises, within the interior of the housing  11 A, the adhesive tape roll  14 , the ink ribbon roll  16 , the ink ribbon take-up roller  17 , and the feeding roller  18 . 
     The adhesive tape roll  14  is made up by winding the adhesive tape  150 N in relation to this modification example around the spool  50 . The adhesive tape  150 N includes: the image receiving layer  210  similar to the above; the adhesive layer  163 L with predetermined particles (a pigment in this example) similar to the above added; the adhesive layer  163 U with particles (the pigment in this example; the same will apply hereinafter) of the same material as in the adhesive layer  163 L added; and the separation material layer  152 , laminated in the mentioned order from the spool  50  lying on the radial center side in  FIG. 45  (corresponding to the upper side in  FIG. 46  described later) toward the radial outside (corresponding to the lower side in  FIG. 46  described later). 
     &lt;Details of Tape Layered Structure&gt; 
       FIG. 46A  is an explanatory view showing a layered structure of the adhesive tape  150 N according to this modification example. 
     As shown in  FIG. 46A , the adhesive tape  150 N includes: the adhesive layer  163 L (corresponding to the first-particle-containing adhesive layer) having the pigment added at a desired volume ratio; the image receiving layer  210  disposed in contact with the adhesive layer  163 L on the upper side of the diagram (the other side in the thickness direction in this modification example); the adhesive layer  163 U (corresponding to the second-particle-containing adhesive layer) disposed in contact with the adhesive layer  163 L on the lower side of the diagram (one side in the thickness direction in this modification example) and having the pigment of the same material as in the adhesive layer  163 L added at a desired volume ratio; and the separation material layer  152  disposed in contact with the adhesive layer  163 U on the lower side of the diagram (one side in the thickness direction in this modification example) so as to cover the adhesive layer  163 U. 
       FIG. 46B  shows a layered structure of the print tape  100 N in which print R is formed on the image receiving layer  210  of the adhesive tape  150 N. 
     This modification example also presents an advantage similar to the above. 
     In all of the embodiments and modification examples set forth hereinabove, when measuring numerical values of various parameters (the volume ratio, the average particle diameter, the adhesive force, and all the others) related to a tape, the measurement is made by cutting the tape into at least 10 mm×10 mm. 
     Other than the above, the techniques of the above embodiment and modification examples may appropriately be combined for use.