JP2015042561A - Liquid container with scale - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a liquid container with scales which enables stable measurement of a content fluid with high viscosity and enables accurate measurement by discrimination of the scales when a user is an elderly person or a preschooler.SOLUTION: A liquid container 1 with scales has a scale part 10 which enables an observation of the remaining amount of a content fluid from the outside of the container. The scale part 10 is extended in a vertical direction in a transparent or translucent region of a body part 20 of a container body 2. The scale part 10 is formed by including a plurality of main measurement scale lines 11 which section the scale part 10 at equal intervals in the vertical direction and a group 14 of scales that is constituted of a plurality of scale figures 13 and is arranged in a secondary scale region 12 sandwiched by a pair of the main measurement scale lines 11. The scale figures 13 constituting the group 14 of the scales are made of a plurality of the same figures of one or two kinds, and the plurality of the figures of the same kind are arranged in different sizes, in the different quantity, or in shades in the secondary scale region 12.

Description

  The present invention relates to a graduated liquid container.

  Some products such as household and personal care liquids use a labeled liquid container that uses a scale to measure the amount to be dispensed when the content liquid is dispensed. In this case, before pouring, the liquid level of the content liquid was set to a stationary state with the pouring port facing upward, and the amount of the content liquid was measured using the scale unit, and the contents were poured out by tilting the container. Later, with the pouring port turned up again, the amount of the content liquid is re-weighed to determine the amount of pouring before and after pouring.

  Reading of the scale portion is often performed instantaneously, and since there are individual differences in the reading method, it has been difficult to accurately measure. For example, when the user is an elderly person or a preschooler, it is difficult to read the scale and to perform accurate measurement. Moreover, it was difficult to align and it was difficult to remember the position of the line.

  Moreover, when the scale part is formed in the container main body, the user pours out an arbitrary amount of content liquid with the scale part as a guide. For example, the content liquid is poured out in a posture (inverted state) with the spout port facing downward after confirming the remaining amount of the content liquid on the scale in a posture (upright state) with the spout port facing upward. Thereafter, the liquid container is returned to the upright state, the remaining amount of the content liquid is confirmed on the scale portion, and the dispensing amount is calculated from the difference in the remaining amount before and after the dispensing of the content liquid. Alternatively, in the inverted state, after confirming the remaining amount of the content liquid before dispensing on the scale portion, the content liquid is poured out while confirming the remaining amount of the content liquid on the scale portion. In many cases, the scale numbers are formed so that they can be read in an upright state. For this reason, it was troublesome to read the numbers on the scale part with the spout facing downward.

  On the other hand, as the disclosed technology so far, before pouring, the liquid level of the content liquid is set to a stationary state with the spout at the top, and the amount of the content liquid is measured using the scale, and the container is tilted Several techniques have been disclosed for calibrated liquid containers that re-weigh the amount of the liquid content and read the pre- and post-poured amounts with the pour-out port up again. It was. For example, in the liquid container disclosed in Patent Document 1, the scale portion is repeatedly formed as a display group formed by arranging three or more displays in which the characters, figures, symbols, and colors are different from each other in the height direction of the container body. It was that. Moreover, the technique which measures a content liquid by providing a see-through | perspective part in a heat shrink film is also disclosed (for example, refer patent document 2).

JP 2012-184006 A Japanese Utility Model Publication No. 62-78638

  However, in the invention of Patent Document 1, since any display different in character, figure, symbol, and color is repeatedly formed as a display group, identification is difficult in the case of similar characters, figures, symbols, and colors. Met. In addition, it is difficult to read the scale with high-viscosity content liquid with a large meniscus on the liquid surface, making it difficult to stably measure the content liquid, and for preschoolers, characters, figures, symbols, and colors Even with various changes, it was found that identification was difficult. In particular, it has been found that, in the case of elderly people, the ability to discriminate instantaneously is inferior, so that it is difficult to accurately measure the content liquid with a display in which only characters, figures, symbols and colors are changed.

  The present invention can stably measure the content liquid even when the viscosity of the content liquid is high, and accurately performs the measurement by identifying the scale even when the user is an elderly person or a preschooler. An object of the present invention is to provide a graduated liquid container.

  Accordingly, when the problem related to the present technology was examined, it was a liquid container with a scale provided with a scale part capable of observing the remaining amount of the content liquid from the outside of the container, the scale part being transparent or A semi-transparent portion is provided so as to extend in the vertical direction, and the scale portion includes a plurality of parallel main measurement scale lines that divide the scale portion in the vertical direction, preferably at equal intervals, and a pair. Are formed in a plurality of sub-scale areas sandwiched by the main measurement scale lines, and include a scale group of a plurality of scale figures, and the scale figures constituting the scale group are one type or two types It consists of a plurality of graphics of the same type, and in the sub-scale area, the plurality of graphics of the same type are arranged in different sizes, numbers or shades (including line thickness), or the one type Or two types of the same type Even when the viscosity of the content liquid is high, the scale group of the same arrangement pattern composed of figures is arranged in a state in which the size, number, or shading is different in the adjacent sub-scale area. It was found that the liquid content can be accurately measured by identifying the above.

  In addition, the present invention is a quantitative discharge squeeze container that includes a container body made of plastic that can be squeezed and that squeezes a predetermined position of the container body until deformation stops, thereby discharging a predetermined amount of content liquid. . A scale part capable of observing the remaining amount of the content liquid from the outside of the container is provided in a transparent or translucent part of the upper end part or the lower end part of the container main body, and the scale part has the scale part in the vertical direction. It is formed including a pair of mutually parallel main measurement scale lines and a group of scales formed by a plurality of scale figures provided in a subscale area sandwiched between the pair of main measurement scale lines. The scale figures constituting the scale group are composed of one or two types of the same type of figures, and the plurality of same type figures are arranged in different sizes, numbers or shades in the sub-scale area. Has been.

  According to the liquid container with a scale of the present invention, the content liquid can be stably measured even when the content liquid has a high viscosity, and the scale can be used even when the user is an elderly person or a preschooler. It is possible to accurately perform weighing by identifying the above.

It is a front view of the container for scales concerning one embodiment of the present invention. (A)-(h) is a front view which illustrates the other form of the scale part of the container for liquids with a scale. In (a) to (d), the scale figure constituting the scale group is composed of a plurality of figures of the same type, and (e) to (h) are scale figures constituting the scale group. It consists of two types of figures of the same type. In all of (a) to (h), a plurality of figures of the same type are arranged in different sizes in the sub-scale area, and (a), (c), (d), and (e) are The scale groups of the same arrangement pattern composed of a plurality of figures of the same type or two types are arranged in different sizes in adjacent sub-scale areas. It is a front view which illustrates further another form of a scale part of a container for liquids with a scale. The scale figures that make up the scale group are composed of a plurality of figures of the same type of one kind, and the scale groups of the same arrangement pattern consisting of a plurality of figures of the same type of one kind are in the adjacent sub scale area. Are arranged in different sizes. (A)-(d) is a front view which illustrates further another form of the scale part of the container for liquids with a scale. (A) The scale figure which comprises a scale group consists of several figures of the same kind of one kind, and the same kind of several figures are arrange | positioned by different magnitude | size in the subscale area | region. In each figure, a single digit is written. (B) The scale figure constituting the scale group is composed of a plurality of figures of one type of isosceles triangles, and the plurality of figures of the same kind of isosceles triangles have different heights in the subscale area. The size is arranged. In (c), the scale figure constituting the scale group is composed of a plurality of single-type circular figures, and the same-type circular figure is arranged in a form in which the number of concentric circles is different in the sub-scale area. It is installed. (D), the scale figure which comprises a scale group consists of several figures of the same kind of one kind of circle, and the same kind of circular figure changed the color shading in the sub-scale area. It is arranged in a form. (A)-(j) is a front view which illustrates further another form of the scale part of the container for liquids with a scale. In (a) to (e), the graduation figures constituting the graduation group are composed of a plurality of figures of the same kind of the same kind, and the number of figures of the same kind in the sub-scale area is different (for example, half) (Including those indicated by 0.5 in a cut-out state). In (f) to (i), the graduation figure constituting the graduation group is composed of a plurality of one kind of circular figures, and the same kind of circular figure varies the number of concentric circles in the sub-scale area. Form ((f)), form ((g), (h), (i)) in which the thickness of a line for drawing a circle is different, form ((h), (I)), a form in which the shade of coloring is changed ((i)), and a form ((h), (i)) in which different single-digit numbers are described inside a circle . In (j), the scale figure constituting the scale group is composed of a plurality of similar types of two kinds of approximate figures, and the same kind of circular figures are arranged in different sizes in the subscale area. ing. (A), (b) is a front view which illustrates further another form of the scale part of the container for liquids with a scale. It is a front view which illustrates further another form of a scale part of a container for liquids with a scale. (A), (b) is explanatory drawing explaining the further another form of the scale part of the container for liquids with a scale. It is a front view of the fixed quantity discharge squeeze container concerning a 2nd embodiment of the present invention. It is a perspective view of a container main part of a fixed amount discharge squeeze container concerning a 2nd embodiment of the present invention. (A) is an end view along AA in FIG. 10, and (b) is an end view along BB in FIG. (A), (b) is a schematic cross section explaining the situation where the amount of squeeze deformation of the container body is restricted during a squeeze operation in a quantitative discharge squeeze container according to a second embodiment of the present invention. (A), (b) is a schematic cross section explaining the situation where the amount of squeeze deformation of a container body is regulated during a squeeze operation in a quantitative discharge squeeze container according to another second embodiment of the present invention. It is a front view of the fixed discharge squeeze container which illustrates the other form of a scale part. It is a front view of the fixed amount discharge squeeze container which illustrates the other form of a scale part.

A liquid container according to an embodiment of the present invention will be described below with reference to the drawings.
HYPERLINK "http://www8.ipdl.inpit.go.jp/Tokujitu/tjitemdrwkt.ipdl?N0000=235&N0001=80&N0005=PHDXF1RSLI0yXS1MMHqx&N0500=4JPA%20424184006%20%20%20%20%20%20%20&N0510=TKoh4 9 & N0553 = 000003 "\ t" tjitemdrwkt "As shown in FIG. 1, the graduated liquid container 1 of the present embodiment is fitted in the container main body 2 for storing the content liquid therein and the mouth-and-neck part 22 of the container main body 2. And a lid (not shown). The container body 2 includes a bottomed substantially cylindrical trunk portion 20 and a lid-like substantially cylindrical mouth-and-neck portion 22 provided at the upper end of the trunk portion 20. An outlet 21 is formed. That is, the liquid container 1 according to the present embodiment is a so-called squeeze container in which the content liquid is poured out by pressing the container body 2 and reducing its volume.

  And the liquid container 1 with a scale of this embodiment is a squeeze container provided with the scale part 10 which can observe the residual amount of a content liquid from the container exterior, Comprising: As shown in FIG. The scale portion 10 is provided in a transparent or translucent portion of the body portion 20 of the container body 2 so as to extend in the vertical direction, and the scale portion 10 divides the scale portion 10 in the vertical direction, preferably at equal intervals. Are formed so as to include a plurality of main scale graduation lines 11 and a scale group 14 composed of a plurality of graduation figures 13 provided in a sub graduation area 12 sandwiched between the pair of main scale graduation lines 11. The scale figure 13 constituting the scale group 14 is composed of one or two kinds of the same kind of figures, and the same kind of figures having different sizes are arranged in the vertical direction in one subscale area 12. Or figure As shown in FIG. 4, the scale groups 14 having the same arrangement pattern composed of one or two types of the same type of figures are arranged in the adjacent sub-scale areas 12 in different sizes. .

  Here, the scale figure 13 constituting the scale group 14 is composed of one or two types of the same kind of figures. The scale figure 13 constituting the scale group 14 is the same kind at first glance. It means that it consists of one or two types of figures that can be distinguished. For example, in the scale unit 10 of FIG. 1, the scale figure 13 constituting the scale group 14 is composed of a plurality of circular, one kind of figures that can be discriminated to be the same type at first glance. For example, the scale figure of FIG. In the unit 10, the scale figure 13 constituting the scale group 14 includes a plurality of circular figures that can be distinguished from the same kind at a glance and a plurality of square figures that can be distinguished from the same kind at a glance. It consists of the figure.

  In the present embodiment, as shown in FIG. 1, a scale portion 10 that indicates the liquid level of the content liquid is formed on the side surface of the container body 2. The scale unit 10 includes a main measurement scale line 11 spaced from the bottom 24 of the container body 2 toward the spout 21 and a plurality of scale groups 14.

  In the present embodiment, one type or two types of the same type of figures (in the present embodiment, one type of circular figure) constituting the scale group 14 is one main division of the sub scale area 12. From the measurement scale line 11 to the other main measurement scale line, they are arranged so as to increase in size sequentially, and are similar figures.

  Furthermore, in this embodiment, one or two types of the same type of figures (in this embodiment, one type of circular figure) constituting the scale group 14 are equal to the center pitch in the subscale area 12. And the pitch is adjusted so that the inner volume of the container main body 2 is equally divided, and the liquid level of the content liquid when the container main body 2 is placed in an upright state is arranged. On the other hand, they are arranged side by side on a vertical line.

  Furthermore, in the present embodiment, the scale group 14 disposed in the plurality of adjacent sub-scale areas 12 is on a line perpendicular to the liquid level of the content liquid when the container body 2 is placed upright. Are arranged side by side.

  In the present embodiment, the scale group 14 is formed by four scale figures 13 arranged at positions corresponding to the four scale lines 15 that divide the sub-scale area 12 into five equal parts. In the present embodiment, the scale graphic 13 is a circle (circular) graphic. Moreover, the scale figure 13 may be made into mutually different colors. For example, there is a mode in which some scale figures 13 are black, other scale figures 13 are blue, and other scale figures 13 are red.

  Here, the scale group 14 is disposed in a plurality of sub-scale areas 12 divided by the main measurement scale line 11. The purpose of the main weighing scale line 11 is to roughly classify the capacity of the entire container 2, and the main weighing scale line 11 can use image lines, printing, unevenness of the container, and the like. The main weighing scale line 11 may use a rib of the container body 2 or may be formed with an uneven shape by molding. Between the main measurement scale lines 11, there are display groups displayed as graphics.

  The container body 2 may be made of any material as long as it is flexible enough to reduce the volume when pressed and can visually recognize the content liquid from the outside. For example, polyethylene, polyethylene terephthalate, polypropylene, vinyl chloride, Examples thereof include resins such as silicon elastomer and urethane.

The shape of the spout 21 is not particularly limited and can be determined according to the application.
The diameter of the spout 21 can be determined in consideration of the viscosity of the content liquid.

  The scale figure 13 is formed by a conventionally known method. As a forming method, for example, printing is performed by silk screen printing or tampo printing, or a label such as a shrink label on which the scale portion 10 is printed is pasted. You can list what you do. In addition to the label, it can be formed by using other methods, for example, it can be directly formed on a bottle by molding. As long as it has a scale function, this label can be used even if it is a label or is printed or molded directly on the container body 2. Here, the entire container 2 may be colored or transparent or translucent, but the scale portion 10 is preferably transparent or translucent. For example, it is conceivable that the container is molded with a colored resin, and the scale portion 10 is formed with a transparent resin in two colors.

  The scale line 15 can be formed in the same manner as the scale figure 13.

  The content liquid stored in the container body 2 is not particularly limited, and examples thereof include liquid detergents, liquid bleaches, liquid softeners, shampoos, rinses, liquid seasonings, and liquid fats and oils.

  Next, the usage method of the liquid container 1 with a scale of this embodiment is demonstrated. First, the container body 2 is set in a posture (upright state) in which the axis of the container body 2 is parallel to the vertical direction and the spout 21 faces upward, and the liquid level of the content liquid is confirmed by the scale unit 10. At this time, the user does not store the remaining amount of the content liquid (for example, a volume such as OOmL), but stores the liquid level of the content liquid with reference to the scale figure 13. In addition, the scale figure 13 indicating the liquid level to be reached after the desired amount is poured out from the plurality of scale figures 13 in the subscale area 12 is confirmed. At this time, since the plurality of scale figures 13 are figures having different sizes, the user can accurately measure the remaining amount after dispensing with reference to the scale figure 13. Even when the user is an elderly person or a preschooler, the scale can be read accurately. Even if there is a decline in visual acuity and discrimination ability, it is possible to retain the ability to memorize graphics like an image, so accurate weighing can be performed. Here, in a conventional measuring instrument such as a graduated cylinder, it is difficult to specify because the scale is a line, but in this embodiment, even in a highly viscous content liquid having a large liquid meniscus, the scale of the figure is different. Since the figure 13 is read and the measurement is performed, the scale can be read accurately.

  Furthermore, since the scales of the arbitrary scales of the plurality of scale figures 13 in the sub-scale area 12 and the scales adjacent to the scales are different from each other, the user can set the scale indicating the liquid level after the dispensing. You can remember without making a mistake. The scale figure 13 may be a symbol or a character as long as it can image the shape. It is preferable that the difference in size between the display with the largest scale and the display with the smallest scale is 10% or more and 80% or less.

  According to the present embodiment, the scale unit 10 is arranged in a main scale line 11 that divides the scale unit 10 into a plurality of sub scale areas 12 and a sub scale area 12 between two adjacent main scale lines 11. The scale group 14 is composed of one or two kinds of scale figures 13, the same kind of scale figures 13 having a similar shape, and the container body. 2 are arranged in the height direction, or as shown in FIG. 3 to be described later, the scale unit 10 includes a main measurement scale line 11 for dividing the scale unit 10 and a scale composed of a plurality of scale figures 13. There are a plurality of groups 14, and each scale group 14 has the same type of figure and the same size, and each scale group 14 has the same type of figure in a similar shape and in the height direction of the container body 2. By arranging, the viscosity of the content liquid Without making a mistake, even if have, it can be performed accurately weighed. Moreover, even when the user is an elderly person or a preschooler, the scale can be read accurately.

  Here, the same type of figure having a similar shape and being arranged in the height direction of the container body 2 means that the figure is large to small from the spout 21 to the bottom 24 of the container body 2, Or it is arranged from small to large. The similar shape does not include the same shape. Furthermore, each scale group 14 is arranged in the height direction of the container body 2 in the same kind of figure, and each scale group 14 is arranged in a continuous scale group 14. However, the continuous scale group 14 may be arranged except for one scale group 14.

FIGS. 2A to 2H illustrate other forms of the scale portion 10 of the graduated liquid container included in the present invention. 2A and 2B, scale figures 13 having the same figure but different sizes are displayed repeatedly in the sub-scale area 12.
In FIG. 2C and FIG. 2D, scale figures 13 having the same figure but different sizes are repeatedly displayed in the two sub-scale areas 12.
FIGS. 2E to 2H are two different types of graphics, and scale graphics 13 having different colors and different sizes are displayed repeatedly in the two sub-scale areas 12.

  The color of the scale figure 13 may be any color such as black, blue, red, and may include colorlessness. The color of the scale line 15 may be any color and may include colorlessness.

  The colors of the scale group 14 may be different from each other or all may be the same. However, the scale group 14 is preferably different in color from the viewpoint of more easily storing the liquid level before and after the dispensing of the content liquid, but is the same color from the viewpoint of not complicating the design. Also good.

  FIG. 3 illustrates still another form of the scale portion 10 of the scale-equipped liquid container included in the present invention. In the scale part 10 of FIG. 3, the scale group 14 arrange | positioned in the some sub scale area | region 12 pinched | interposed by a pair of main measurement scale lines 11 is the same kind of one kind or two kinds (one kind in FIG. 3). Scale groups 14 having a similar arrangement pattern made up of a plurality of scale figures 13 are arranged in different sizes in adjacent sub-scale areas 12.

  4A to 4D also illustrate other forms of the scale portion 10 of the graduated liquid container included in the present invention. As shown in FIGS. 4A to 4D, a plurality of scale figures 13 of the same kind or two kinds constituting the scale group 14 arranged in the sub-scale area 12 are, for example, inside the figure. A single-digit number may be described as a secondary scale (see (a)), or an isosceles triangle figure having a different height (see (b)). In addition, a different number of concentric circles may be drawn inside a circle of the same size (see (c)), and a plurality of same types of figures are colored with the same shade with different shades. (See (d)).

  5A to 5J also illustrate other forms of the scale portion 10 of the scaled liquid container included in the present invention. As shown in FIGS. 5 (a) to 5 (j), various types of scale figures 13 of the same type or two types constituting the scale group 14 arranged in the sub-scale area 12 have various forms. Can be adopted. In addition, one type or two types of the same type of graduation patterns 13 constituting the graduation group 14 arranged in the sub graduation area 12 are, for example, from one main measurement graduation line 11 that divides the sub graduation area 12 to the other. The main measurement scale line 11 may be arranged so that the number increases sequentially (see (a), (b), (c), (d), (i)). Furthermore, as shown to Fig.6 (a), (b), the one type or two types of several scale figures 13 which comprise the scale group 14 arrange | positioned in the subscale area | region 12 are the container main bodies 2 May be arranged side by side on a slanting line with respect to the liquid level of the content liquid when placed in an upright state.

  A scaled liquid container 1 shown in FIG. 1 includes a container body 2 and is a squeeze type container. On the side surface of the container body 2, a scale portion 10 indicating the liquid level of the content liquid is formed. The scale unit 10 includes a plurality of main measurement scale lines 11 and a scale group 14 composed of scale figures 13 and sub-scale areas 12 spaced from the bottom surface 24 of the container body 2 toward the spout 21. .

  The scale figure 13 and the main measurement scale line 11 are formed by pasting a label such as a shrink label, an in-mold label, or a tack label, which is printed by silk screen printing or tampo printing, or the scale portion 10 is printed in advance. A thing by the convex part formed in the side surface of the container main body 2 or a recessed part may be sufficient. For example, as shown in FIG. 7, the convex portion or concave portion formed on the side surface of the container body 2 may be formed by a blow bottle or an injection blow bottle mold. Further, the main measurement scale line 11 may be replaced with a frame surrounding the sub scale area. The scale group can be composed of 3 to 5 figures.

  Furthermore, as shown to Fig.8 (a), when the trunk | drum 20 of the container main body 2 has a cylindrical shape, for example, the cross-sectional area is the part in which the scale part 10 of the container main body 2 was provided. Since the main measurement scale line 11 divides the scale portion 10 at equal intervals, the internal volume can be divided at equal intervals. However, as shown in FIG. For example, when the barrel portion 20 has a cylindrical shape that is smoothly curved so that the middle portion in the vertical direction becomes thin, the portion where the scale portion 10 of the container body 2 is provided changes the cross-sectional area, Even if the scale unit 10 is partitioned at equal intervals by the main measurement scale line 11, the inner volume cannot be partitioned at equal intervals. In this case, so that the inner volume can be divided at equal intervals, the scale portion 10 is divided by the measurement scale line 11 so that the interval is narrow in the upper and lower regions of the trunk portion 20 where the cross-sectional area is large. In the region of the central portion of the trunk portion 20 where the cross-sectional area is reduced, adjustment is made so that the interval is widened.

  On the other hand, as a squeeze container that squeezes and squeezes the body of a container body made of plastic that can be deformed by squeeze (squeezing) by hand, and discharges the content liquid from the discharge port. A quantitative discharge squeeze container is known in which a predetermined amount of content liquid is discharged by squeezing a predetermined position of the container body until the deformation stops. Such quantitative discharge squeeze containers are described in, for example, Japanese Patent Application Laid-Open No. 10-25950, Japanese Patent No. 4074227, Japanese Patent Application Laid-Open No. 2010-58794, Japanese Patent Application Laid-Open No. 2011-105360, Japanese Patent Application Laid-Open No. 2011-121604, and the like. Has been.

  In these quantitative discharge squeeze containers, it is possible to repeatedly discharge a predetermined amount of content liquid by pressing (squeezing) a predetermined position of the container body to deform the squeeze. It is difficult for the user to accurately grasp or understand the predetermined discharge amount of the content liquid when the predetermined position is squeezed and discharged, particularly at the initial stage when the user starts using the discharge amount. There is a case where a constant discharge squeeze container is being used while anxiety is being held. Further, it is often seen that the content liquid is used after the content liquid is purposely transferred from the fixed discharge squeeze container to the measuring cup or cap and weighed.

  On the other hand, at the initial stage when the user started to use the quantitative discharge squeeze container, the predetermined discharge amount of the content liquid when the predetermined position of the container body is squeezed and discharged can be easily grasped. If you can understand it, you will be able to learn the sensation of discharging a predetermined amount of content liquid by squeeze operation. It is possible to continue the discharge, and it is not necessary to bother to transfer the content liquid from the fixed discharge squeeze container to the measuring cup or cap.

  The present invention makes it easy to grasp or understand the predetermined discharge amount of the content liquid when the predetermined position of the container body is squeezed and discharged at the initial stage when the user starts to use the present invention. An object of the present invention is to provide a quantitative discharge squeeze container that can be used.

  A quantitative discharge squeeze container 50 according to a second preferred embodiment of the present invention shown in FIG. 9 includes a container body 51 made of plastic that can be squeezed and a cap member that is detachably attached to the mouth part 52 of the container body 51. (Not shown). The container body 51 is preferably provided with a shrink label 61 on which a scale portion 60 is displayed. The container main body 51 contains, for example, a liquid detergent for clothing, a softener, a bleaching agent, a dishwashing detergent, a bath agent, and the like as a content liquid. The squeeze container 50 squeezes (squeezes) the gripped body part 53 in the squeeze direction X (see FIG. 10) in a state where the body part 53 of the container body 51 is gripped and tilted or inverted. By deforming, for example, a predetermined amount of liquid can be discharged from the discharge port provided in the cap member toward the discharge location. The squeeze container 50 regulates the squeeze deformation amount of the container main body 61 so as not to vary when a predetermined position 62 of the trunk portion 53 is repeatedly squeezed and repeatedly squeezed, for example. Equipped with a function to discharge each one. Further, the squeeze container 50 is provided with the scale portion 60 so that the predetermined position 62 of the container main body 51 is squeezed and discharged at an initial stage when the user starts using the fixed discharge squeeze container 50. Provided with a function for easily grasping or understanding a predetermined discharge amount of the content liquid at the time.

  And the fixed amount discharge squeeze container 50 of this 2nd Embodiment is provided with the container main body 51 which consists of a plastic which can carry out a squeeze deformation, as shown in FIGS. 9-12, and a predetermined position 62 of the container main body 51 stops a deformation | transformation. This is a squeeze container that discharges a predetermined amount of content liquid by squeezing and deforming. A scale 60 is provided at the transparent or translucent portion of the upper end (see FIG. 9) or lower end (see FIG. 14) of the container body 50, and the remaining amount of the content liquid can be observed from the outside of the container. As shown in FIG. 9, the scale portion 60 includes a pair of parallel main measurement scale lines 63 that divide the scale portion 60 in the vertical direction and a sub-scale area sandwiched between the pair of main measurement scale lines 63. 64, and a scale group 66 formed by a plurality of scale figures 65. The scale figure 65 constituting the scale group 66 is composed of one or two kinds of the same kind of figures (in the second embodiment, one kind of circular figure). A plurality of figures are arranged in different sizes, numbers, or shades (in the second embodiment, different sizes and shades).

  In the second embodiment, at least a part of the container body 51 is provided with a squeeze operation unit 54 that performs a squeeze operation. The squeeze operation portion 54 has a squeezed surface portion 56 having a mountain-shaped cross section including a pair of inclined surface portions 55 disposed along two surfaces intersecting at an obtuse angle, and a skirt portion and a ridge line portion 57 of the squeezed surface portion 56. It has the cross-sectional shape which consists of the pressing support part 58 which has an arc-shaped cross section or a cross-shaped cross section joined integrally. When a finger is pressed against a predetermined position 62 in the top portion 59 of the crest-shaped cross section of the squeezed surface portion 56 and squeezed and deformed (see FIG. 12A), the pair of inclined surface portions 55 expands the crossing angle. While being deformed, the interval between the skirts of the mountain-shaped cross sections on both sides is expanded at the ridge line portion 57 with the squeezing support portion 58 having an arc-shaped cross section or a U-shaped cross section, and the slope portion 55 is deformed until there is no force to expand. After that (see FIG. 12B), the pressing surface portion 56 is regulated so as not to be inverted into a valley shape. As a result, there is no variation in the amount of deformation of the squeeze of the container body 11 due to repeated squeeze operations by pressing a finger against the predetermined position 62, and the content liquid can be discharged by a predetermined amount.

  Furthermore, in this 2nd Embodiment, the peak part 59 of the mountain-shaped cross section of the pressing surface part 56 of the squeeze operation part 54 becomes the squeeze ridgeline part 70 which a pair of slope part 55 joins.

  Furthermore, in the second embodiment, the body portion 53 of the container body 51 includes an upper body portion 53 a that is continuous above the squeeze operation portion 54 and has a different cross-sectional shape from the squeeze operation portion 54, and the squeeze operation portion 54. The lower trunk | drum 53b which has a different cross-sectional shape from the squeeze operation part 54 which continues below is formed.

  In the second embodiment, the container body 51 is made of various known synthetic resins suitable for forming a squeeze-deformable plastic container such as polyethylene terephthalate, polypropylene, high-density polyethylene, and vinyl chloride. Formed using. The container main body 51 is formed as a transparent or translucent hollow bottle-shaped container including a bottom part 72, a body part 53, a shoulder part 73, and a mouth part 52, for example, by blow molding. The container body 51 has a shoulder portion 73 and a mouth portion 72 at the upper end portion, and a bottom portion 72 at the lower end portion formed thicker than the body portion 53, and the shoulder portion 73 and the bottom portion 72 are circular planes. It is formed to have a shape. Thereby, the circular cross-sectional shape (refer FIG.11 (b)) of the upper end part of the upper trunk | drum 53a and the lower end part of the lower trunk | drum 53b can be hold | maintained firmly and stably.

  And in this 2nd Embodiment, the trunk | drum 53 pinched | interposed between the shoulder part 73 and the bottom part 72 is comprised by the upper trunk | drum 53a, the lower trunk | drum 53b, and the squeeze operation part 54 of these intermediate parts. Is done. The torso 53 is formed thinner than the shoulder 73 and the bottom 72, and the squeeze surface 56 of the squeeze operation part 54 can be easily squeezed by the hand or finger that holds the torso 53, as will be described later. It has a flexible structure that can be deformed.

  In the second embodiment, the squeeze operation portion 54 has an upper circular portion 53a or a lower circular cross section formed by upper and lower annular boundary ribs 74a and 74b extending in the circumferential direction of the body portion 53. This is a portion that is partitioned from the lower body portion 53b. The squeeze operation portion 54 has a shape in which a pressing surface portion 56 having a mountain-shaped cross section and a pressing support portion 58 having an arc-shaped cross section or a U-shaped cross section are integrally formed via a ridge line portion 57 (FIG. 11 (a)).

  The pressing surface portion 56 includes a pair of slope portions 55 arranged along two surfaces intersecting at an obtuse angle, and a squeeze ridge line portion 70 extending in the vertical direction is formed at a joint portion where these slope portions 55 intersect. It arrange | positions at the center part of the pressing surface part 56, and is provided as the top part 59 of a mountain-shaped cross section. Moreover, in this 1st Embodiment, the squeeze ridgeline part 70 is provided as a curved surface which curves smoothly, and presses a finger | toe to the longitudinal direction center part of this, The container main body 51 which should perform squeeze operation A squeeze position guide part 71 that guides the predetermined position 62 is provided as, for example, a convex part or a concave part having a step with the squeeze ridge part 70. The skirts on the opposite side of the pair of slope parts 55 from the squeeze ridge line part 70 are joined to the compression support part 58 via the ridge line part 57 that is arranged in parallel to the squeeze ridge line part 70 and extends in the vertical direction. Yes.

  The squeezing support portion 58 is a portion disposed on the back side of the squeeze operation portion 54 so as to face the squeeze surface portion 56, and is provided to the squeeze operation portion 56 at the time of the squeeze operation by having a considerable shape retaining rigidity. The pressing force can be supported in a stable state. In the second embodiment, the squeezing support portion 58 has an arc-shaped cross section or a U-shaped cross section slightly exceeding the semicircular arc shape, and grips, for example, the trunk portion 53 by the arc shape having a large shape retaining rigidity. The reaction force of the squeezing force can be efficiently supported on the palm of the hand.

  Moreover, in this 2nd Embodiment, the rigidity reinforcement rib 75 which improves the shape retention rigidity of the said pressing support part 58 is extended in the circumferential direction at the pressing support part 58 which has an arc-shaped cross section or a U-shaped cross section. A plurality are provided at intervals in the vertical direction. The rigidity reinforcing rib 75 makes it possible to more efficiently support the reaction force when a pressing force is applied to the pressing surface portion 56.

  In the fixed amount discharge squeeze container 50 of the second embodiment, in order to squeeze the container main body 51 and discharge the content liquid in a fixed amount, the body 53 of the container main body 51 is gripped and the container 50 is tilted or inverted. After that, with the discharge port directed toward the discharge location, for example, a thumb is pressed against the squeeze position guide part 71 to apply a squeezing force to a predetermined position 62 of the squeeze ridge line part 70 of the squeeze surface part 56. As a result, as shown in FIGS. 12A and 12B, the squeeze ridge line portion 70 adjacent to the squeeze position guide portion 71 is pushed in the squeeze direction X while the squeezing support portion 58 supports the squeezing force. At the same time, the pair of inclined surface portions 55 in the vicinity of the squeeze position guide portion 71 is deformed so as to widen the crossing angle, and the ridge line portions 57 at the hem portions on both sides, which are joint portions with the squeezing support portion 58. Increase the gap between them. Along with this, the crest-shaped cross section of the compressed surface portion 56 is crushed so as to be flat, and the capacity of the container main body 51 is reduced. Therefore, the content liquid can be discharged by the reduction of the capacity.

  Further, in the second embodiment, when the pair of inclined surface portions 55 in the vicinity of the squeeze position guide portion 71 is deformed until they are linearly arranged with the squeeze ridge line portion 70 interposed therebetween (broken line in FIG. 12B) Reference), the mountain-shaped cross section of the pressing surface portion 56 is in a state where it has been flattened, and the pair of inclined surface portions 55 cannot further widen the distance between the ridge line portions 57. From this state, even if the squeeze ridge line portion 70 of the squeezing surface portion 56 is further pushed in the squeeze direction X to reverse the pair of slope portions 55 in the squeeze direction X side, the squeeze position guide portion 71 loaded with the squeezing force is separated. In this position, the pair of slope portions 55 has not yet been deformed until they are continuously connected in a straight line. Therefore, the finger-like cross section acts by the pair of slope portions 55 apart from the squeeze position guide portion 71. The pair of inclined surface portions 55 in the vicinity of the squeeze position guide portion 71 that is pressed against is restricted so as not to be reversed in the squeeze direction X side. Thereby, for example, when the squeeze position guide portion 71 is pressed to apply a squeezing force, the container body 51 is always squeezed with a constant deformation amount, that is, the squeeze deformation of the container body 51 by repeated squeeze operations. Since the amount does not vary, it becomes possible to easily discharge a predetermined amount of the liquid content.

  Further, in the second embodiment, the container body 51 has an upper body portion 53a having a circular cross-section having a different cross-sectional shape above the squeeze operation portion 54 sandwiching the annular boundary rib 74a, and an annular boundary rib 74b. Below the squeeze operation portion 54 with a cross-sectional shape, a lower torso portion 53b having a circular cross section having a different cross-sectional shape is integrally provided continuously. Due to the action of the upper body part 53a and the lower body part 53b having different cross-sectional shapes, the pair of inclined surface parts 55 are regulated so as not to be reversed to the squeeze direction side, and a predetermined amount of content liquid is quantitatively discharged in a more stable state. It becomes possible to make it.

  In the second embodiment, the peak portion 59 of the mountain-shaped cross section of the squeezing surface portion 56 of the squeeze operation portion 54 is a flat surface interposed between a pair of slope portions 55 as shown in FIGS. The squeeze surface portion 76 may be used. Even when the top 59 of the mountain-shaped cross section of the squeezing surface portion 56 is a flat squeeze surface portion 76, if, for example, the thumb is pressed against the predetermined position 62 by the squeeze position guide portion 71 and the squeeze surface portion 76 is pressed, the squeeze surface portion 76 is compressed. While supporting the squeezing force in the support portion 58, the squeeze surface portion 76 in the vicinity of the squeeze position guide portion 71 is pushed in the squeeze direction X, and the pair of slope portions 55 in the portion in proximity to the squeeze position guide portion 71 While deforming so as to widen these crossing angles, the space between the ridge line portions 57 at the hem portions on both sides, which is a joint portion with the pressing support portion 58, is expanded.

  Further, when the pair of inclined surface portions 55 in the vicinity of the squeeze position guide portion 71 is deformed until they are linearly arranged across the squeeze surface portion 76 (see the broken line in FIG. 13B), the crests of the compression surface portion 56 Since the cross section of the shape is fully flat, the pair of slope portions 55 cannot further widen the distance between the ridge line portions 57. From this state, even if the squeeze surface portion 76 of the squeeze surface portion 56 is further pushed in the squeeze direction X to reverse the pair of slope portions 55 to the squeeze direction X side, the squeeze position guide portion 71 loaded with the squeezing force is separated. At this position, the pair of slope portions 55 has not yet been deformed until they are connected in a straight line, and therefore, the finger is moved by the action of the mountain-shaped cross section by the pair of slope portions 55 away from the squeeze position guide portion 71. The pair of inclined surface portions 55 in the vicinity of the pressed squeeze position guide portion 71 is regulated so as not to be reversed in the squeeze direction X side. Thereby, for example, when the squeeze position guide portion 71 is pressed to apply a squeezing force, the container body 51 is always squeezed with a constant deformation amount, that is, the squeeze deformation of the container body 51 by repeated squeeze operations. Since the amount does not vary, it becomes possible to easily discharge a predetermined amount of the liquid content.

  And in the fixed-quantity discharge squeeze container 50 of this 2nd Embodiment, as shown in FIG. 9, when the shrink label 61 with which the scale part 60 was displayed is preferably attached to the container main body 51, it is transparent or translucent. A scale portion 60 is provided at the upper end of the container body 50, which is a transparent or translucent part, so that the remaining amount of the content liquid can be observed from the outside of the container.

  As described above, the scale unit 60 includes a pair of parallel main measurement scale lines 63 that divide the scale unit 60 in the vertical direction, and a sub-scale area 64 sandwiched between the pair of main measurement scale lines 63. It is formed including a scale group 66 by a plurality of scale figures 65 provided. The scale figure 65 constituting the scale group 66 is composed of one or two kinds of the same kind of figures, and in the sub scale area 64, the same kind of figures are arranged in different sizes, numbers or shades. Has been.

  In the second embodiment, the scale portion 60 is provided in a region of approximately ¼ of the upper end portion in the height direction of the trunk portion 53 in the shrink label 61 attached to the trunk portion 53 of the container body 51. A scale group composed of a pair of main measurement scale lines 61 and a plurality of scale figures 65 is provided on a see-through section 61a that extends in the vertical direction with a width of about 3 to 10 mm and can visually recognize the inside of the container body 51 from the outside. 66 is drawn.

  The scale portion 60 that allows the inside of the container main body 51 to be visually recognized from the outside is formed in a vertically long band shape only in a substantially quarter region of the upper end portion of the body portion 53 in the height direction, so that the perspective view of the shrink label 61 It is possible to keep the possible part in a small area and to cover the whole body part 53 of the container body 51 of the other part with the shrink label 61. As a result, even if the content liquid is liable to cause discoloration, discoloration, alteration, etc. by exposure, such as liquid detergent or softener, it is possible to effectively suppress discoloration, fading, alteration, etc. of these content liquids. It becomes possible, and it becomes possible to avoid effectively that the scale part 60 becomes large and the external appearance of a container is impaired.

  In the second embodiment, the scale graphic 65 composed of one or two types of the same type of graphic constituting the scale group 66 of the sub-scale area 64 is a single type of circular graphic. Four pieces are arranged between a pair of upper and lower main weighing scale lines 63. The four scale figures 65 change monotonically so that the diameter gradually increases from one lower main measurement scale line 63 toward the other upper main measurement scale line 63. At the same time, the shade changes monotonously so that the hue gradually increases from one lower main measurement scale line 63 toward the other upper main measurement scale line 63. The four scale figures 65 are arranged in a staggered manner without arranging the circular centers in the same straight line.

  Here, as the plurality of scale figures 65 of the same kind or two kinds constituting the scale group 66 provided in the sub scale area 64 sandwiched between the pair of main measurement scale lines 61, the scale of the above-described embodiment is used. A plurality of scales of the same kind or two kinds constituting the scale group 14 arranged in each scale area 12 between each pair of main measurement scale lines 11 in the scale portion 10 of the attached liquid container. The figure 13 can be selected and adopted as appropriate. That is, for example, as shown in FIG. 1, one kind or two kinds of the same kind of graduation figures 65 constituting the graduation group 66 include one kind of circular figure from one main measurement scale line 63 to the other. It may be arranged so as to increase in size toward the main weighing scale line 63 and may be a similar figure, as shown in FIGS. 2 (e) to 2 (h). Furthermore, it may be composed of two or more types of the same type.

  Further, as shown in FIG. 4A, the scale figure 65 constituting the scale group 66 is composed of a plurality of figures of the same kind of one type, and a plurality of figures of the same kind in the subscale area 64. However, they may be arranged in different sizes, and a single-digit number may be written inside each figure. As shown in FIG. 4B, a scale figure 65 constituting the scale group 66 is provided. Is composed of a plurality of figures of one type of isosceles triangles, and even if a plurality of figures of the same kind of isosceles triangles are arranged in different sizes in the sub-scale area 64. good. As shown in FIG. 4 (c), the scale figure 65 constituting the scale group 66 is composed of a plurality of one kind of circular figures, and the same kind of circular figure is the number of concentric circles in the subscale area. May be arranged in a different form. As shown in FIG. 4D, the scale figure 65 constituting the scale group 66 is composed of a plurality of figures of the same type of one kind of circle, and the same kind of circular figure is You may arrange | position with the form which changed the shading of coloring.

  Further, as shown in FIGS. 5A to 5E, the scale figure 65 constituting the scale group 66 is composed of a plurality of figures of the same type of the same type, and in the sub-scale area, a plurality of types of the same type. These figures may be arranged in different numbers (including, for example, those displayed in a state of being cut in half and indicating 0.5). As shown in FIGS. 5 (f) to (i), the scale figure 65 constituting the scale group 66 is composed of a plurality of one kind of circular figures. , Forms with different numbers of concentric circles ((f)), forms with different thicknesses of circles drawn ((g), (h), (i)), and different sizes of circles Forms ((h), (i)), forms with different shades of coloring ((i)), forms in which different single-digit numbers are written inside the circle ((h), (i) ). As shown in FIG. 5 (i), the scale graphic 65 constituting the scale group 66 is composed of a plurality of similar types of two similar types, and the same type of circular graphic is They may be arranged in different sizes.

  As described above, according to the second embodiment, the display of the sub-scale area 64 is displayed as two or more kinds of the same type of two or more types of scale figures 65 between the pair of main measurement scale lines 63. Four symbols, numbers, letters, patterns, or illustrations can be arranged and formed. In addition, one or two types of the same type of scale figures 65 arranged between the pair of main measurement scale lines 63 are directed from one main measurement scale line 63 toward the other main measurement scale line 63. It is preferable that the size, number, or shading changes monotonously.

  In the second embodiment, as shown in FIG. 9, the plurality of scale figures 65 of the scale group 66 disposed in the subscale area 64 of the scale section 60 preferably has a predetermined position 62 of the container body 51. They are arranged at a center-to-center pitch corresponding to a discharge amount of 1 to 4 times the predetermined amount that is squeezed to discharge the content liquid. That is, in the second embodiment, the discharge amount per time when the predetermined position 62 of the container body 51 is squeezed and squeezed is set, for example, as 5 cc, for example, 20 cc, 4 times 5 cc. The four scale figures 65 are arranged at a center-to-center pitch in the vertical direction corresponding to the discharge amount. In the second embodiment, a sub-scale line 67 is drawn that extends in parallel with the pair of main measurement scale lines 63 across the center position of each scale graphic 65. A numerical value 67a is drawn adjacent to the lower side of each sub-scale line 67 to grasp the remaining amount after the predetermined position 62 is squeezed and the content liquid is discharged. The upper main weighing scale line 63 is drawn along the height position of the liquid surface in a state where the content liquid is full before using the fixed quantity discharge squeeze container 50, and is adjacent to the lower part thereof. A 400 cc number indicating the full content liquid is drawn.

  By these, according to the fixed amount discharge squeeze container 50 of the second embodiment, the predetermined content liquid when the predetermined position 62 of the container main body 51 is squeezed and discharged at the initial stage when the user starts to use it. This makes it possible to more accurately grasp and understand the discharge amount.

  In the second embodiment, a plurality of scale figures 65 of the scale group 66 arranged in the sub-scale area 64 of the scale part 60 or a part adjacent to these scale figures 65 is connected to the scale figure 65. A number 68 of the number of squeeze operations corresponding to the amount of discharge reached is described. That is, in the second embodiment, the secondary scale line 67 disposed at the center position of each scale graphic 63 is disposed at a position 20 cc lower than the upper main measurement scale line 63 indicating the full amount of the content liquid. Therefore, it is provided at a position corresponding to the squeeze operation for every 4 times of 5 cc which is the discharge amount per time. Therefore, in the second embodiment, the number of squeeze operations corresponding to the discharge amount reaching the scale figure 65 such as 4, 8, 12, 16 in order from the upper scale figure 65 in the portion adjacent to the scale figure 65 is performed. The number 68 is described.

  By these, according to the fixed amount discharge squeeze container 50 of the second embodiment, the predetermined content liquid when the predetermined position 62 of the container main body 51 is squeezed and discharged at the initial stage when the user starts to use it. It is possible to more effectively grasp and understand the discharge amount.

  Furthermore, in this 2nd Embodiment, the squeeze position guide part 71 of the container main body 11 which is the predetermined position 62 which should be squeezed in the shrink label 61 with which the trunk | drum 53 of the container main body 51 was mounted | worn is performed. A pressing mark 69 is provided so as to be overlapped with each other and display the pressing position. By squeezing the pressing mark 69 with, for example, a thumb, it is possible to accurately press the predetermined position 62 of the container body 11 to be squeezed from above the shrink label 61 when performing a squeeze operation.

  Furthermore, in the second embodiment, the scale portion 60 is provided in a region from the pressing mark 69 to a portion that is 90 ° apart in the circumferential direction. As a result, the scale portion 60 is provided in a region from a predetermined position 62 where the container body 51 is pressed and squeezed and deformed to a portion 90 ° apart in the circumferential direction. Since the scale portion 60 is provided in a region from a predetermined position 62 to be pressed and squeezed and deformed by 90 ° in the circumferential direction, the same as the predetermined position 62 to be pressed when performing a squeeze operation. Since the scale portion 60 is arranged on the peripheral surface of the side, it becomes easy to check the remaining amount of the content liquid via the scale portion 60.

  And according to the fixed discharge squeeze container 50 of the second embodiment having the above-described configuration, when the predetermined position 62 of the container main body 51 is squeezed and discharged at the initial stage when the user starts to use it. It is possible to easily grasp or understand the predetermined discharge amount of the content liquid.

  That is, according to the second embodiment, the scale portion 60 is provided in the transparent or translucent portion of the upper end portion of the container body 50 so that the remaining amount of the content liquid can be observed from the outside of the container. 60 is formed including a pair of main measurement scale lines 63 and a scale group 66 formed by a plurality of scale figures 65 provided in a subscale area 64 between the pair of main measurement scale lines 63. The plurality of scale figures 65 are composed of one or two kinds of the same kind of figures. In the sub-scale area 64, the same kind of figures are arranged in different sizes, numbers, or shades.

  Therefore, according to the second embodiment, at the initial stage when the quantitative discharge squeeze container 50 is started to be used, the content liquid discharged by squeezing the predetermined position 62 of the container main body 51 until the deformation stops. By confirming the predetermined discharge amount with the scale unit 60 having the above-described configuration that makes it easy to remember the position of the liquid level, it becomes possible to easily grasp and understand the predetermined discharge amount, and a predetermined amount of content liquid can be obtained by a squeeze operation. It is possible to acquire a sense of discharging the liquid, and it is possible to continue discharging a predetermined amount of the content liquid by a squeeze operation without feeling anxiety during subsequent use.

  The present invention is not limited to the above-described embodiments, and various modifications can be made. For example, a fixed discharge squeeze container that discharges a predetermined amount of content liquid by squeezing a predetermined position of the container main body is not limited to that of the second embodiment described above, for example, Japanese Patent Laid-Open No. 10-25950. Other various quantitative discharge squeeze containers as described in Japanese Patent Publication No. 4074227, Japanese Patent Application Laid-Open No. 2010-58794, Japanese Patent Application Laid-Open No. 2011-105360, and the like may be used. In addition, the scale group does not necessarily need to be provided by attaching a shrink label to the container body, and uses a label such as an in-mold label or a tuck label on which the scale portion has been printed in advance, or is printed by silk screen printing or tampo printing. It can also be provided.

  Furthermore, as shown in FIG. 14, the scale portion 60 can be provided at the lower end portion of the container body 50. Thereby, at the initial stage when the fixed-quantity discharge squeeze container 50 is started to be used, it is possible to check the predetermined discharge amount of the discharged content liquid while performing the squeeze operation and inverting the fixed-quantity discharge squeeze container 50 become. Further, as shown in FIG. 15, the see-through part 61 a provided with the scale part 60 can be provided over the entire length in the vertical direction of the body part 53 of the container body 51. This makes it possible to visually recognize the position of the liquid level via the fluoroscopic part 61a even after the initial stage of starting to use the quantitative discharge squeeze container 50.

DESCRIPTION OF SYMBOLS 1 Liquid container with a scale 2 Container main body 10 Scale part 11 Main measurement scale line 12 Sub scale area 13 Scale figure 14 Scale group 15 Scale line 20 Trunk part 21 Outlet port 22 Neck part 24 Bottom part 50 Fixed discharge squeeze container 51 Container body 53 body 53a upper body 53b lower body 54 squeeze operation part 55 slope part 56 pressing surface part 57 ridge line part 58 pressing support part 59 top part of mountain-shaped cross section 60 scale part 61 shrink label 62 predetermined position 63 main measurement scale line 64 Sub-scale area 65 Scale figure 66 Scale group 67 Sub-scale line 68 Number of times 6
69 Press mark 70 Squeeze ridge line portion 71 Squeeze position guide portion

Claims (19)

A liquid container with a scale provided with a scale part capable of observing the remaining amount of content liquid from the outside of the container,
The scale part is provided to extend in the vertical direction in a transparent or translucent part of the body part of the container body,
The scale part is provided with a plurality of main scale lines parallel to each other and a plurality of sub scale areas sandwiched between the pair of main scale lines that divide the scale part in the vertical direction. It is formed including the scale group by
The scale figures constituting the scale group are composed of one or two types of the same type of figures, and the plurality of same type figures are arranged in different sizes, numbers or shades in the sub-scale area. Or a group of scales of the same arrangement pattern consisting of a plurality of figures of the same type of the one type or two types is in a state where the size, number, or shading is different in the adjacent sub-scale areas. Scaled liquid container.   A plurality of figures of the same type or two types constituting the scale group increase in size sequentially from one main measurement scale line to the other main measurement scale line defining the sub scale area. Or a graduated liquid container according to claim 1, wherein the liquid container is arranged so that the number thereof increases sequentially.   The said scale group is a container for liquids with a scale of Claim 1 or 2 comprised by 3-5 figures.   The one or two types of the same type of figures constituting the scale group are arranged in the subscale area with the pitch adjusted so as to equally divide the inner volume. The container for liquids with a scale of any one of Claims 1.   Plural figures of the same kind or two kinds constituting the scale group are arranged side by side on a slanting line with respect to the liquid level of the content liquid when the container body is placed in an upright state. The calibrated liquid container according to any one of claims 1 to 4.   The scale-equipped liquid container according to any one of claims 1 to 5, wherein one or two of the same type of figures constituting the scale group are similar figures.   The scale-equipped liquid container according to any one of claims 1 to 6, wherein a single-digit number is written inside one or two types of figures of the same type constituting the scale group.   The said scale part is the container for liquids with a scale of any one of Claims 1-7 divided by the said some main measurement scale line parallel to mutually at equal intervals. A squeeze-deformable plastic squeeze container having a container body made of plastic that can be deformed, and squeezing a predetermined position of the container body until deformation stops, thereby discharging a predetermined amount of content liquid,
A scale part capable of observing the remaining amount of the content liquid from the outside of the container is provided in the transparent or translucent part of the upper end or lower end of the container body,
The scale portion includes a pair of main measurement scale lines parallel to each other that divide the scale portion in the vertical direction, and a scale group formed by a plurality of scale figures provided in a subscale area sandwiched by the pair of main measurement scale lines. And is formed,
The scale figures constituting the scale group are composed of one or two types of the same type of figures, and the plurality of same type figures are arranged in different sizes, numbers or shades in the sub-scale area. Quantitative discharge squeeze container.   A squeeze operation part for performing a squeeze operation is provided on at least a part of the container main body, and the squeeze operation part has a mountain-shaped cross section including a pair of inclined surfaces arranged along two surfaces intersecting at an obtuse angle. It has a cross-sectional shape composed of a pressing surface portion, and a pressing support portion having an arc-shaped cross section or a cross-shaped cross section, which are joined together via a skirt portion and a ridge line portion of a mountain-shaped cross section of the pressing surface portion. When the finger is pressed against the predetermined position at the top of the crest-shaped cross section of the squeezed surface portion and squeezed and deformed, the pair of slope portions are deformed so as to widen the crossing angle, After the slope portion is deformed until there is no force to expand, the interval between the skirt portions of the mountain-shaped cross section is expanded at the ridge line portion with the squeezing support portion of the arc-shaped cross section or the U-shaped cross section. Anti-valley It is restricted so as not to, the predetermined dispensing squeeze container according to claim 9, wherein the dispersion was prevented occur squeeze deformation amount of the container body by squeezing operation is repeatedly performed by pressing a finger on the position.   The quantitative discharge squeeze container according to claim 10, wherein a top portion of the mountain-shaped cross section of the compressed surface portion is a squeeze ridge line portion where the pair of slope portions are joined.   The quantitative discharge squeeze container according to claim 10, wherein a top portion of the mountain-shaped cross section of the compressed surface portion is a flat squeeze surface portion interposed between the pair of slope portions.   The container body has an upper body portion having a different cross-sectional shape from the squeeze operation portion that is continuous above the squeeze operation portion, and a cross-sectional shape different from the squeeze operation portion that is continuous below the squeeze operation portion. The quantitative discharge squeeze container according to any one of claims 10 to 12, wherein the quantitative discharge squeeze container is formed so as to include a lower torso portion having a bottom.   The metering part squeeze container according to any one of claims 9 to 13, wherein the scale part is provided by attaching a shrink label displaying the scale part to the container body.   15. The scale according to claim 9, wherein the scale portion is provided in a region from the predetermined position where the container main body is pressed and subjected to squeeze deformation to a portion that is 90 ° apart in the circumferential direction. Fixed volume squeeze container.   The plurality of scale figures of the scale group arranged in the sub-scale area of the scale portion are squeezed to deform a predetermined position of the container body, and the discharge amount is 1 to 4 times the predetermined amount discharged from the content liquid. The quantitative discharge squeeze container according to any one of claims 9 to 15, which is disposed at a center-to-center pitch corresponding to the above.   A number of squeeze operations corresponding to the discharge amount reaching the scale graphic on a plurality of scale figures of the scale group arranged in the sub-scale area of the scale part, or a part adjacent to these scale figures. The quantitative discharge squeeze container according to any one of claims 9 to 16, wherein:   2 to 4 symbols, numbers, characters, patterns, or illustrations are arranged as one or two types of the same figure between the pair of main weighing scale lines. The fixed discharge squeeze container according to any one of claims 9 to 17.   A plurality of figures of the same type or two types arranged between the pair of main weighing scale lines are sized, numbered or shaded from one main weighing scale line to the other main weighing scale line. The constant-rate discharge squeeze container according to claim 18, wherein is monotonously changed.