JP2017211181A - Measuring container - Google Patents

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JP2017211181A
JP2017211181A JP2016102084A JP2016102084A JP2017211181A JP 2017211181 A JP2017211181 A JP 2017211181A JP 2016102084 A JP2016102084 A JP 2016102084A JP 2016102084 A JP2016102084 A JP 2016102084A JP 2017211181 A JP2017211181 A JP 2017211181A
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partition
container
measuring
raw material
divided
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修策 河野
Shusaku Kawano
修策 河野
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Abstract

PROBLEM TO BE SOLVED: To provide a measuring container which can measure and mix, without interruption, various different types of raw materials without requiring an extra container for measuring raw materials.SOLUTION: A measuring container 1 includes: a container body 10 having an opening and a container surrounding a container space 13; and a partition 20 removably contained in the container capable of dividing the container space 13 into sub spaces 13s.SELECTED DRAWING: Figure 1

Description

本発明は、計量容器に関するものである。   The present invention relates to a weighing container.

従来、食品、化粧品及び塗料等の製造過程において、粉状体、粒状体、液体等の複数の種類の原料を、所定の量及び所定の割合で配合する場合、それぞれの原料を計量するためには、原料の種類と同数の個別の容器(透明ビニール袋等)を用いて、それぞれの容器に種類別に原料を入れてから個別に計量する必要があり、手間がかかるという問題があった。
また、それぞれの原料を計量した後にそれらの原料を混ぜ合わせる場合、個別の容器から原料を取り出して、混ぜ合わせるために別途用意された容器(ボウル等)に移し替えてから混ぜ合わせる必要があり、手間がかかるという問題があった。
特許文献1には、試料を正確に計量するための計量容器の一例が示されているが、複数の種類の原料を配合する点については言及されていない。
Conventionally, in the manufacturing process of foods, cosmetics, paints, etc., when blending multiple types of raw materials such as powders, granules, liquids, etc. in a predetermined amount and a predetermined ratio, in order to measure each raw material However, there is a problem that it is necessary to measure individually after putting the raw materials according to the types into the respective containers using the same number of individual containers (transparent plastic bags or the like) as the types of the raw materials.
In addition, when mixing the raw materials after weighing each raw material, it is necessary to take out the raw materials from individual containers, transfer them to a separately prepared container (such as a bowl), and mix them together. There was a problem that it took time and effort.
Patent Document 1 shows an example of a weighing container for accurately weighing a sample, but does not mention the point of blending a plurality of types of raw materials.

実開昭60−082250号公報Japanese Utility Model Publication No. 60-082250

そこで、本発明は、上記問題点に鑑みなされたものであって、原料の計量のための個別の容器を要することなく、複数の種類の原料を連続的に計量し、配合できる計量容器を提供することを目的とする。   Accordingly, the present invention has been made in view of the above problems, and provides a measuring container capable of continuously measuring and mixing a plurality of types of raw materials without requiring individual containers for measuring raw materials. The purpose is to do.

上記目的を達成するために、以下の構成によって把握される。
本発明である計量容器は、
(1)開口と、収容空間を囲む収容部を有する容器本体と、前記収容部に着脱自在に収容され、前記収容空間を複数の分割空間に分割可能な間仕切と、を備える。
In order to achieve the above object, the following configuration is used.
The weighing container of the present invention is
(1) An opening, a container main body having an accommodating portion surrounding the accommodating space, and a partition that is detachably accommodated in the accommodating portion and can divide the accommodating space into a plurality of divided spaces.

(2)上記(1)の構成において、前記間仕切は、前記収容空間を等分割可能である。 (2) In the configuration of (1) above, the partition can equally divide the accommodation space.

(3)上記(1)又は(2)の構成において、前記間仕切は、隣接する分割空間同士が連通することなく、前記収容空間を分割可能である。 (3) In the configuration of (1) or (2) above, the partition can divide the accommodation space without communication between adjacent division spaces.

(4)上記(1)から(3)のいずれかの構成において、前記間仕切は、前記収容部の内面に沿って接する板状体を備える。 (4) In any one of the constitutions (1) to (3), the partition includes a plate-like body that is in contact with the inner surface of the housing portion.

(5)上記(1)から(4)のいずれかの構成において、前記間仕切は、複数の板状体を備え、それぞれの板状体の一辺が共通する軸と重なり、当該軸に対する垂直断面が放射状となるように形成されている。 (5) In the configuration according to any one of (1) to (4), the partition includes a plurality of plate-like bodies, and one side of each plate-like body overlaps a common axis, and a vertical cross section with respect to the axis is It is formed to be radial.

(6)上記(1)から(5)のいずれかの構成において、前記容器本体の内面は、すり鉢状、略半球体状又は略半回転楕円体状である。 (6) In any one of the constitutions (1) to (5), the inner surface of the container body has a mortar shape, a substantially hemispherical shape, or a substantially semi-spheroid shape.

(7)上記(1)から(6)のいずれかの構成において、前記容器本体又は前記間仕切は、原料を計量するための目盛りを有する。 (7) In any one of the constitutions (1) to (6), the container body or the partition has a scale for measuring the raw material.

(8)上記(1)から(7)のいずれかの計量容器を用いて原料を計量する方法であって、前記容器本体に前記間仕切を収容して前記収容空間を複数の分割空間に分割し、前記容器本体及び前記間仕切を秤に載せた状態で、原料を、前記複数の分割空間の少なくとも1つの分割空間に投入し、秤による測定値に基づいて、投入する原料の重量を調節する。 (8) A method of weighing a raw material using the weighing container according to any one of (1) to (7), wherein the partition is housed in the container body, and the housing space is divided into a plurality of divided spaces. In a state where the container main body and the partition are placed on a balance, the raw material is charged into at least one divided space of the plurality of divided spaces, and the weight of the raw material to be charged is adjusted based on the measurement value by the balance.

(9)上記(1)から(7)のいずれかの計量容器を用いて原料を計量する方法であって、前記容器本体に前記間仕切を収容して前記収容空間を複数の分割空間に分割し、重量又はかさ体積が事前に計量された原料を、前記複数の分割空間の少なくとも1つの分割空間に投入する。 (9) A method of weighing raw materials using the weighing container according to any one of (1) to (7), wherein the partition is housed in the container body, and the housing space is divided into a plurality of divided spaces. The raw material whose weight or bulk volume has been weighed in advance is put into at least one divided space of the plurality of divided spaces.

(10)上記(7)の計量容器を用いて原料を計量する方法であって、前記容器本体に前記間仕切を収容して前記収容空間を複数の分割空間に分割し、原料を、前記複数の分割空間の少なくとも1つの分割空間に投入し、当該原料を、前記容器本体又は前記間仕切が有する、原料を計量するための目盛りに沿って、計量する。 (10) A method for measuring a raw material using the measuring container according to (7), wherein the partition is accommodated in the container body, the accommodating space is divided into a plurality of divided spaces, and the raw material is The material is put into at least one divided space of the divided space, and the raw material is weighed along a scale for weighing the raw material that the container body or the partition has.

(11)複数の原料を連続して計量する方法であって、前記原料とは異なる原料を、上記(8)から(10)のいずれかの計量方法を用いて、他の分割空間に投入して、順次、計量する。 (11) A method of continuously measuring a plurality of raw materials, and charging a raw material different from the raw materials into another divided space using any one of the measuring methods (8) to (10) above. Weigh sequentially.

(12)上記(11)の連続計量方法によって複数の原料を計量した後、前記間仕切を前記容器本体から外し、前記複数の原料を混合する。 (12) After weighing a plurality of materials by the continuous metering method of (11) above, the partition is removed from the container body, and the plurality of materials are mixed.

本発明によれば、原料の計量のための個別の容器を要することなく、複数の種類の原料を連続的に計量し、配合できる計量容器を提供できる。   ADVANTAGE OF THE INVENTION According to this invention, the measurement container which can measure and mix | blend several types of raw material continuously can be provided, without requiring the separate container for measurement of a raw material.

実施形態に係る計量容器の説明図である。It is explanatory drawing of the measurement container which concerns on embodiment. 容器本体を示す図である。It is a figure which shows a container main body. 間仕切を示す図である。It is a figure which shows a partition. 計量容器の組立図である。It is an assembly drawing of a measurement container. 間仕切の第1変形例を示す図である。It is a figure which shows the 1st modification of a partition. 間仕切の第2変形例を示す図である。It is a figure which shows the 2nd modification of a partition.

以下、図面を参照して本発明を実施するための形態(以下、実施形態)について詳細に説明する。なお、本説明中、かさ体積は、原料が粉状体や粒状体である場合においては粒子自体の体積と粒子間の間隙の体積とをあわせた体積の意味で用いられ、原料が液体である場合においては液体の体積の意味で用いられる。   DESCRIPTION OF EMBODIMENTS Hereinafter, embodiments for carrying out the present invention (hereinafter referred to as embodiments) will be described in detail with reference to the drawings. In this description, the bulk volume is used to mean the volume of the volume of the particle itself and the volume of the gap between the particles when the raw material is a powder or granule, and the raw material is a liquid. In some cases, it is used to mean the volume of liquid.

(本発明の実施形態)
図1から図6は実施形態に係る計量容器を示しており、図1は実施形態に係る計量容器の説明図、図2(a)は容器本体の平面図、図2(b)は容器本体の側面図、図3(a)は間仕切の平面図、図3(b)は間仕切の側面図、図4(a)は計量容器の組立平面図、図4(b)は計量容器の組立側面図、図5(a)は間仕切の第1変形例における平面図、図5(b)は間仕切の第1変形例における側面図、図6(a)は間仕切の第2変形例における平面図、図6(b)は間仕切の第2変形例における側面図を、それぞれ示す。
(Embodiment of the present invention)
1 to 6 show a measuring container according to the embodiment, FIG. 1 is an explanatory view of the measuring container according to the embodiment, FIG. 2 (a) is a plan view of the container body, and FIG. 2 (b) is a container body. 3 (a) is a plan view of the partition, FIG. 3 (b) is a side view of the partition, FIG. 4 (a) is an assembly plan view of the weighing container, and FIG. 4 (b) is an assembly side of the measurement container. FIG. 5 (a) is a plan view of the first modification of the partition, FIG. 5 (b) is a side view of the first modification of the partition, and FIG. 6 (a) is a plan view of the second modification of the partition. FIG.6 (b) shows the side view in the 2nd modification of a partition, respectively.

図1に示すように、計量容器1は、容器本体10と、間仕切20とを備える。
そして、計量容器1は、食品や化粧品や塗料等の製造過程において、その原料の計量や配合の際に、容器本体10に間仕切20を収容した状態又は外した状態で使用される。
原料は、粉状体、粒状体、液体又はゲル状体等であり、それらを組み合わせて配合することもできる。
以下、容器本体10と間仕切20を順に説明する。
As shown in FIG. 1, the measuring container 1 includes a container body 10 and a partition 20.
And the measuring container 1 is used in the state which accommodated or removed the partition 20 in the container main body 10 in the process of manufacture of a foodstuff, cosmetics, a coating material, etc. in the case of the measurement and mixing | blending of the raw material.
A raw material is a powdery body, a granular body, a liquid, a gel-like body, etc., and can also mix | blend combining them.
Hereinafter, the container body 10 and the partition 20 will be described in order.

(容器本体)
図2(a)は容器本体の平面図を示し、図2(b)は同側面図を示す。
図2(b)に示すように、容器本体10は、開口12と、収容空間13を囲む収容部11を有する。
容器本体10の材質としては、配合する原料や使用環境に応じて、ガラス、陶器、プラスチック、ゴム、金属、シリコン等として、通常、原料に対する化学変化等の影響がないものを採用する。
(Container body)
Fig.2 (a) shows the top view of a container main body, FIG.2 (b) shows the side view.
As illustrated in FIG. 2B, the container body 10 includes an opening 12 and a storage portion 11 that surrounds the storage space 13.
As the material of the container body 10, glass, ceramics, plastic, rubber, metal, silicon, or the like that does not normally have an influence of chemical change on the raw material is adopted depending on the raw material to be blended and the use environment.

開口12は、後述の間仕切20を挿入できる大きさである。なお、開口12の大きさがある程度変えられるように容器本体10に弾性を持たせ、開口12の径を、間仕切20の最大寸法よりも小さい寸法としてもよい。このようにすると、弾性に抗って間仕切20を収容部11に挿入して、間仕切20を、容器本体10の収容部11に収容した状態で保持することができる。   The opening 12 is large enough to insert a partition 20 described later. The container body 10 may be elastic so that the size of the opening 12 can be changed to some extent, and the diameter of the opening 12 may be smaller than the maximum dimension of the partition 20. In this way, the partition 20 can be inserted into the housing portion 11 against elasticity, and the partition 20 can be held in a state of being housed in the housing portion 11 of the container body 10.

収容部11は、内面が滑らかなすり鉢状となっている。これにより、収容部11に投入された原料が、重力に従って鉛直下方向に流れるので、複数の原料を配合して混合しやすい。
収容部11の外面と内面との間の肉厚は、収容空間13に間仕切20を収容し、原料を投入した際にその原料からの荷重や圧力によって過度の変形が生じない程度の剛性を確保できるものである。
The accommodating portion 11 has a mortar shape with a smooth inner surface. Thereby, since the raw material thrown into the accommodating part 11 flows into the perpendicular downward direction according to gravity, it is easy to mix | blend and mix a some raw material.
The wall thickness between the outer surface and the inner surface of the accommodating portion 11 is such that the partition 20 is accommodated in the accommodating space 13 and the rigidity is secured so that excessive deformation does not occur due to the load or pressure from the raw material when the raw material is charged. It can be done.

また、収容空間13は、配合する原料を保持する部分であり、少なくとも一度の配合に必要な原料の総かさ体積に、後述の間仕切20の体積を加えたものに対応する容積を有する。
例えば、10ccのかさ体積の原料を配合する際には、後述の間仕切20の体積が2ccであれば、収容空間13の容積は、原料のかさ体積に間仕切20の体積を加えた12ccである。なお、収容空間13の容積を20ccとするなど、余裕を持たせてもよい。
The accommodation space 13 is a part for holding the raw material to be blended, and has a volume corresponding to the total bulk volume of the raw material necessary for blending at least once plus the volume of the partition 20 described later.
For example, when a bulk material of 10 cc is blended, if the volume of the partition 20 described later is 2 cc, the volume of the accommodation space 13 is 12 cc, which is the bulk volume of the raw material plus the volume of the partition 20. In addition, you may give allowances, such as the volume of the accommodation space 13 being 20 cc.

なお、収容部11の内面は、略半球体状又は略半回転楕円体状としてもよい。収容部11の内面をこのようにすることで、容器本体10を、中子に球体や回転楕円体を使用して型成形し、半分に割ることで製造することができ、製造効率を上げることができる。
収容部11の内面には、分割空間13sに充填する原料を計量するための目盛りやマーク(かさ体積及び/又はかさ体積とかさ密度から算出された換算重量等)を設けてもよい。これにより、各原料を個別に正確に測ることができ、細かい配合ができるとともに、秤を別途用意する必要がなく、原料を簡単に計量できる。
また、収容部11の外面は、収容部11の内面と略相似形状であり、表面に凹凸を設けて、使用者が手で持つときの滑り止めとしてもよい。なお、開口12と対向する収容部11の底部の外面には、作業台の上面等の平らな面の上に置いたときに安定させるための脚部を設けてもよい。
なお、収容部11の外面は、収容部11の内面と略相似形状とは限られない。例えば、収容部11の底部の外面を平面にすることで、設置平面に対して安定に設置できるようにしてもよく、収容部11の水平断面外形形状を円状ではなく矩形状にして、回転しないように支えやすくしてもよい。収容部11の外面には、使用者が手に取るための取っ手を付けてもよい。
In addition, the inner surface of the accommodating part 11 is good also as a substantially hemispherical shape or a substantially semi-spheroid shape. By making the inner surface of the accommodating portion 11 in this way, the container body 10 can be manufactured by molding the core body using a sphere or a spheroid and dividing it into halves, thereby increasing manufacturing efficiency. Can do.
On the inner surface of the accommodating portion 11, a scale or a mark (a bulk volume and / or a converted weight calculated from the bulk volume and bulk density) for measuring the raw material to be filled in the divided space 13s may be provided. Thereby, each raw material can be accurately measured individually, fine blending can be performed, and it is not necessary to prepare a separate scale, and the raw material can be easily measured.
Moreover, the outer surface of the accommodating part 11 is substantially similar to the inner surface of the accommodating part 11, and it is good also as an anti-slip | skid when a user hold | maintains by providing an unevenness | corrugation in the surface. In addition, you may provide the leg part for stabilizing when it puts on flat surfaces, such as the upper surface of a work table, on the outer surface of the bottom part of the accommodating part 11 which opposes the opening 12. As shown in FIG.
In addition, the outer surface of the accommodating part 11 is not necessarily substantially similar to the inner surface of the accommodating part 11. For example, by setting the outer surface of the bottom portion of the storage portion 11 to be a flat surface, it may be possible to stably install it with respect to the installation plane. The horizontal cross-sectional outer shape of the storage portion 11 is made rectangular instead of circular and rotated. It may be easier to support. You may attach the handle for a user to take in the outer surface of the accommodating part 11. FIG.

(間仕切)
図1に示すように、間仕切20は、容器本体10の収容部11に着脱自在に収容されるものであり、収容空間13を複数の分割空間13sに分割可能なものである。
図3(a)は間仕切20の平面図を示し、図3(b)は同側面図を示す。
間仕切20の材質としては、配合する原料や使用環境に応じて、ガラス、陶器、プラスチック、ゴム、金属、シリコン等として、通常、原料に対する化学変化等の影響がないものを採用する。
そして、間仕切20は、4つの板状体21のそれぞれの側面のうちの1つが、共通する軸22と重なった状態で一体化され、その軸22に対する垂直断面(平面視)が十字状(図3(a)参照)となるように形成されており、収容空間13を4つに等分割可能にするものである。
また、間仕切20の当接面23は、収容部11に収容されたときに、隣接する分割空間13s同士が連通することなく、収容空間13を分割可能なように、収容部11の内面と接し、収容部11の内面に沿った形状となっている。これにより、原料が極小粒状体であったり液体であっても、1つの分割空間13sに充填した原料が隣接する分割空間13sに漏出することがない。当接面23を収容部11の内面に比べて曲率を若干小さくすることで、当接面23と収容部11の内面との摩擦を利用して、相互が弾性的に付勢し合うように接する状態としてもよい。
なお、板状体21の表面には、分割空間13sに充填する原料を計量するための目盛りやマーク(かさ体積及び/又はかさ体積とかさ密度から算出された換算重量等)を設けてもよい。これにより、各原料を個別に正確に測ることができ、細かい配合ができるとともに、秤を別途用意する必要がなく、原料を簡単に計量できる。
(Partition)
As shown in FIG. 1, the partition 20 is detachably accommodated in the accommodating portion 11 of the container main body 10, and the accommodation space 13 can be divided into a plurality of divided spaces 13s.
Fig.3 (a) shows the top view of the partition 20, FIG.3 (b) shows the same side view.
As the material of the partition 20, a glass, ceramic, plastic, rubber, metal, silicon, or the like that does not usually have an influence of chemical change or the like on the raw material is adopted depending on the raw material to be blended and the use environment.
The partition 20 is integrated in a state where one of the side surfaces of the four plate-like bodies 21 is overlapped with the common shaft 22, and the vertical cross section (plan view) with respect to the shaft 22 is a cross shape (see FIG. 3 (a)), and the accommodation space 13 can be equally divided into four.
Further, the abutment surface 23 of the partition 20 is in contact with the inner surface of the housing portion 11 so that the housing space 13 can be divided without the adjacent divided spaces 13s communicating with each other when housed in the housing portion 11. The shape is along the inner surface of the accommodating portion 11. Thereby, even if a raw material is a very small granular material or a liquid, the raw material with which one divided space 13s was filled does not leak into the adjacent divided space 13s. By making the abutment surface 23 slightly smaller in curvature than the inner surface of the accommodating portion 11, the friction between the abutting surface 23 and the inner surface of the accommodating portion 11 is utilized to elastically bias each other. It is good also as a state which touches.
The surface of the plate-like body 21 may be provided with a scale or a mark (bulk volume and / or converted weight calculated from the bulk volume and bulk density) for measuring the raw material to be filled in the divided space 13s. . Thereby, each raw material can be accurately measured individually, fine blending can be performed, and it is not necessary to prepare a separate scale, and the raw material can be easily measured.

(組立状態)
図4(a)は計量容器の組立平面図を示し、図4(b)は同組立側面図を示す。
図4(a)に示すように、容器本体10と4等分割用の間仕切20を組み立てた状態では、収容部11が4つに均等に分割され、分割空間13sが4つとなる。
また、図4(b)に示すように、容器本体10と間仕切20とを組み立てた際に、それぞれの板状体21の当接面23が収容部11の内面に沿って接するときに開口側面24と容器本体10の開口12の面とが一致するように、容器本体10と間仕切20とを関連付けて形成する。
これにより、間仕切20を容器本体10に収容した際に、相互の位置関係が正しく、当接面23が収容部11の内面に沿って接していれば、開口側面24と容器本体10の開口12の面とが一致し、相互の位置関係が正しくなく、当接面23が収容部11の内面に沿って接していなければ、開口側面24と容器本体10の開口12の面とが一致しないので、一致しているかどうかを目視するだけで、容器本体10に対して間仕切20が適切に収容されている否かを簡単に判別できる。
また、間仕切20が収容空間13を均等に分割できるので、原料の1対1、1対3の配合を簡単にできる。また、複数の原料を配合する際に、各原料の高さを見た目で測ることができ、それぞれの原料の過不足を簡単に認識できる。
(Assembled state)
Fig.4 (a) shows the assembly top view of a measurement container, FIG.4 (b) shows the assembly side view.
As shown in FIG. 4A, in the state where the container body 10 and the partition 20 for dividing into four equal parts are assembled, the accommodating portion 11 is equally divided into four, and the divided spaces 13s become four.
Further, as shown in FIG. 4B, when the container body 10 and the partition 20 are assembled, when the contact surface 23 of each plate-like body 21 contacts along the inner surface of the accommodating portion 11, the opening side surface The container body 10 and the partition 20 are formed in association with each other so that 24 and the surface of the opening 12 of the container body 10 coincide with each other.
Thereby, when the partition 20 is accommodated in the container main body 10, if the mutual positional relationship is correct and the contact surface 23 is in contact with the inner surface of the accommodating portion 11, the opening side surface 24 and the opening 12 of the container main body 10. If the contact surface 23 is not in contact with the inner surface of the accommodating portion 11, the opening side surface 24 and the surface of the opening 12 of the container body 10 do not match. It is possible to easily determine whether or not the partition 20 is properly accommodated with respect to the container body 10 only by visually checking whether or not they match.
Moreover, since the partition 20 can divide the accommodation space 13 equally, it is possible to simplify the mixing of the raw materials on a one-to-one basis and one-to-three basis. In addition, when blending a plurality of raw materials, the height of each raw material can be measured and the excess or deficiency of each raw material can be easily recognized.

なお、以上説明した実施形態では、収容空間13を4つの分割空間13sに分割する間仕切20を示したが、収容空間13の分割数は4分割に限るものではなく、自由に設定でき、2分割、3分割又は8分割等とすることができる。これにより、配合の度に配合が異なっても、容器本体10は特段の変更をすることなく同一の容器本体10を使用して、間仕切20を変更することで、収容空間13を所望の分割空間13sに分割できる。
以下では、収容空間13を2分割する場合及び8分割する場合の間仕切20をそれぞれ説明する。
In the embodiment described above, the partition 20 that divides the accommodation space 13 into four divided spaces 13s is shown. However, the number of divisions of the accommodation space 13 is not limited to four, and can be freely set. It can be divided into three or eight. As a result, even if the blending is different for each blending, the container body 10 uses the same container body 10 without any particular change, and the partition 20 is changed, so that the accommodation space 13 can be divided into a desired divided space. It can be divided into 13s.
Below, the partition 20 in the case of dividing | segmenting the accommodation space 13 into 2 and 8 is each demonstrated.

(第1の変形例)
図5(a)は、間仕切20の第1の変形例における平面図を示し、図5(b)は、同側面図を示す。
図5に示すように、第1の変形例における間仕切20は、1つの板状体21から構成され、収容空間13を半分にし、2つの分割空間13sに分割するものである。
また、間仕切20の当接面23は、収容部11に収容されたときに、隣接する分割空間13s同士が連通することなく、収容空間13を分割可能なように、収容部11の内面と接し、収容部11の内面に沿った形状となっている。
そして、容器本体10と第1の変形例における間仕切20とを組み立てた際に、板状体21を収容空間13の中央に配置することで、板状体21の当接面23が収容部11の内面と対向するように配置され、板状体21の開口側面24が容器本体10の開口12に向けて配置される。
このように、間仕切20を、収容空間13を半分に分割するものとし、収容空間13の中央に配置することにより、容器本体10に板状体21を収容して原料を配合する際、原料を個別に計量しなくても、1:1の配合を簡単にすることができる。
(First modification)
Fig.5 (a) shows the top view in the 1st modification of the partition 20, FIG.5 (b) shows the same side view.
As shown in FIG. 5, the partition 20 in the first modification is configured by one plate-like body 21, and divides the accommodation space 13 into two and divides it into two divided spaces 13 s.
Further, the abutment surface 23 of the partition 20 is in contact with the inner surface of the housing portion 11 so that the housing space 13 can be divided without the adjacent divided spaces 13s communicating with each other when housed in the housing portion 11. The shape is along the inner surface of the accommodating portion 11.
And when the container main body 10 and the partition 20 in the 1st modification are assembled, the contact surface 23 of the plate-shaped body 21 is accommodated in the accommodating part 11 by arrange | positioning the plate-shaped body 21 in the center of the accommodating space 13. The opening side surface 24 of the plate-like body 21 is arranged toward the opening 12 of the container body 10.
In this way, the partition 20 is divided into the accommodation space 13 in half, and by placing the partition 20 in the center of the accommodation space 13, when the plate-like body 21 is accommodated in the container body 10 and the raw materials are blended, the raw materials are The 1: 1 blending can be simplified without individual weighing.

(第2の変形例)
図6(a)は、間仕切20の第2の変形例における平面図を示し、図6(b)は、同側面図を示す。
図6(a)に示すように、第2の変形例における間仕切20は、8つの板状体21を備え、収容空間13を8つに分割する8分割用のものであり、隣接する板状体21同士が成す角度は均等である。
そして、間仕切20は、それぞれの板状体21の一辺が共通する軸22と重なるように配置され、軸22に対する垂直断面が放射状となるように形成されている。
また、間仕切20の当接面23は、収容部11に収容されたときに、隣接する分割空間13s同士が連通することなく、収容空間13を分割可能なように、収容部11の内面と接し、収容部11の内面に沿った形状となっている。
そして、容器本体10と第2の変形例における間仕切20とを組み立てた際に、それぞれの板状体21の当接面23が収容部11の内面と対向するように配置され、それぞれの板状体21の開口側面24が容器本体10の開口12に向けて配置される。
このように、間仕切20を、収容空間13を8つに分割するものとし、隣接する板状体21同士が成す角度を均等な角度とすることにより、容器本体10に板状体21を収容して原料を配合する際、原料を個別に計量しなくても、1対1、1対3、1対7又は3対5等の多様な割合での配合ができる。
(Second modification)
Fig.6 (a) shows the top view in the 2nd modification of the partition 20, FIG.6 (b) shows the same side view.
As shown to Fig.6 (a), the partition 20 in a 2nd modification is provided with the eight plate-shaped bodies 21, and is for 8 divisions which divide | segments the accommodation space 13 into eight, and adjoining plate shape The angles formed by the bodies 21 are equal.
And the partition 20 is arrange | positioned so that one side of each plate-shaped body 21 may overlap with the common axis | shaft 22, and it is formed so that the vertical cross section with respect to the axis | shaft 22 may become radial.
Further, the abutment surface 23 of the partition 20 is in contact with the inner surface of the housing portion 11 so that the housing space 13 can be divided without the adjacent divided spaces 13s communicating with each other when housed in the housing portion 11. The shape is along the inner surface of the accommodating portion 11.
And when the container main body 10 and the partition 20 in the 2nd modification are assembled, it arrange | positions so that the contact surface 23 of each plate-shaped body 21 may oppose the inner surface of the accommodating part 11, and each plate shape The opening side surface 24 of the body 21 is disposed toward the opening 12 of the container body 10.
As described above, the partition 20 is divided into eight storage spaces 13, and the angle formed by the adjacent plate-like bodies 21 is made equal to accommodate the plate-like body 21 in the container body 10. Thus, when the raw materials are blended, blending at various ratios such as 1: 1, 1: 3, 1: 7, or 3: 5 can be performed without individually weighing the raw materials.

(使用例1)
本発明に係る計量容器1を用いて、青色顔料を10グラムと黄色顔料を10グラムの同じ重量の2種類の原料を1:1で混合して緑色顔料を作る工程を、使用例1として、以下に説明する。
(1)まず、容器本体10と、2等分割用の間仕切20(図5参照)を用意し、容器本体10の開口12が天になるように容器本体10を秤の上に載せる。
(2)次に、容器本体10の収容部11に間仕切20を収容し、容器本体10の開口12の面と間仕切20の開口側面24とを一致させるように、容器本体10と間仕切20とを組み合わせる。これにより収容空間13は2つの均等な分割空間13sに、互いに連通することなく分割される。
(3)秤による測定値から計量容器1の重量を除くため、測定値をリセットしてゼロにする。
(4)秤による測定値に基づいて、一方の分割空間13sに、青色顔料を投入する。この際、10グラムに対して青色顔料の重さが足りなければ更に青色顔料を追加し、多ければスプーン等を使用して過分な青色顔料を取り除く等して、青色顔料の重量を調節する。
(5)秤による測定値が10グラムとなり、青色顔料を10グラム投入し終えたら、他方の分割空間13sに、黄色顔料を投入する。黄色顔料投入前の秤による測定値が10グラムのままであれば、秤による測定値に基づいて、この測定値が20グラムとなるように、黄色顔料を投入する。なお、黄色顔料投入前に秤による測定値をリセットしてゼロにしてから、この測定値が10グラムとなるように、黄色顔料を投入してもよい。
そして、10グラムに対して黄色顔料の重さが足りなければ更に黄色顔料を追加し、多ければスプーン等を使用して過分な黄色顔料を取り除く等して、黄色顔料の重量を調節する。
(6)黄色顔料を10グラム投入し終えたら、間仕切20を容器本体10から外す。
(7)そして、間仕切20を用いるか又は別途用意したさじ等を用いて、2種類の原料を混合し、緑色顔料が完成する。
このように、間仕切20を備える計量容器1を用いて、秤による各原料の重量測定を繰り返すことで、同一容器により複数の原料を連続して計量でき、配合の後に同一容器で簡単に混合できる。
なお、上記使用例1では、2分割用の間仕切20(図5参照)を用いて2種類の原料を重量で1:1に配合し、混合した例であったが、例えば、8分割用の間仕切20(図6参照)を用い、8種類の原料を1種類ずつ個別の分割空間13sに充填して重量を測定する、という工程を繰り返すことで、8種類の原料を所定の重量ずつ配合できる。
上記使用例1では、秤の上に載せられた計量容器1に原料を投入することで、原料の重量を測定したが、秤で重量が事前に計量された原料を、計量容器1の分割空間13sに投入してもよい。
(Usage example 1)
Using the measuring container 1 according to the present invention, a process of making a green pigment by mixing two kinds of raw materials having the same weight of 10 grams of a blue pigment and 10 grams of a yellow pigment at a ratio of 1: 1, This will be described below.
(1) First, the container main body 10 and the partition 20 for bisecting (see FIG. 5) are prepared, and the container main body 10 is placed on a scale so that the opening 12 of the container main body 10 becomes the top.
(2) Next, the partition 20 is housed in the housing portion 11 of the container body 10, and the container body 10 and the partition 20 are placed so that the surface of the opening 12 of the container body 10 and the opening side surface 24 of the partition 20 coincide with each other. combine. Thereby, the accommodating space 13 is divided into two equal divided spaces 13s without communicating with each other.
(3) In order to remove the weight of the measuring container 1 from the measured value by the scale, the measured value is reset to zero.
(4) A blue pigment is introduced into one of the divided spaces 13s based on the measured value by the scale. At this time, if the weight of the blue pigment is not enough with respect to 10 grams, further blue pigment is added, and if there is more, the excess blue pigment is removed using a spoon or the like to adjust the weight of the blue pigment.
(5) When the measured value by the balance becomes 10 grams and 10 grams of blue pigment is completely charged, the yellow pigment is charged into the other divided space 13s. If the measured value with the balance before adding the yellow pigment remains 10 grams, the yellow pigment is added based on the measured value with the scale so that the measured value becomes 20 grams. Note that the yellow pigment may be added so that the measured value becomes 10 grams after resetting the measured value with a balance to zero before adding the yellow pigment.
Then, if the weight of the yellow pigment is not enough for 10 grams, the yellow pigment is further added, and if it is larger, the excess yellow pigment is removed using a spoon or the like to adjust the weight of the yellow pigment.
(6) When 10 grams of yellow pigment has been added, the partition 20 is removed from the container body 10.
(7) Then, using the partition 20 or using a separately prepared spoon or the like, two kinds of raw materials are mixed to complete the green pigment.
In this way, by repeatedly measuring the weight of each raw material with a scale using the measuring container 1 including the partition 20, a plurality of raw materials can be continuously measured in the same container, and can be easily mixed in the same container after blending. .
In addition, in the use example 1 described above, two types of raw materials were blended at a weight ratio of 1: 1 using the partition 20 for splitting (see FIG. 5), and mixed, for example, By using the partition 20 (see FIG. 6), the eight kinds of raw materials can be blended in a predetermined weight by repeating the process of filling each individual space 13s with eight kinds of raw materials and measuring the weight. .
In the above usage example 1, the weight of the raw material was measured by putting the raw material into the measuring container 1 placed on the balance. However, the raw material whose weight was previously measured by the scale was divided into the divided space of the measuring container 1. You may throw in 13s.

(使用例2)
使用例1では重量を基準として原料を配合する例を示したが、次に示す例は、かさ体積を基準として原料を配合する例である。
本発明に係る計量容器1を用いて、塩、砂糖、食酢及び食用油の4種類の同じかさ体積の原料を1:1:1:1で混合してドレッシングを作る工程を、使用例2として、以下に説明する。
なお、各原料をそれぞれ別の分割空間13sに入れたときに高さが揃えば、各原料は同じかさ体積となるとする。
(1)まず、容器本体10と、4等分割用の間仕切20(図3参照)を用意し、容器本体10の開口12が天になるように容器本体10を作業台の上に置く。
(2)次に、容器本体10の収容部11に間仕切20を収容し、容器本体10の開口12の面と間仕切20の開口側面24とを一致させるように、容器本体10と間仕切20とを組み合わせる。これにより収容空間13は4つの均等な分割空間13sに、互いに連通することなく分割される。
(3)それぞれの分割空間13sに、塩、砂糖、食酢及び食用油をそれぞれ1種類ずつ別に投入する。この際、例えば、塩の高さが低ければ更に塩を追加し、高ければスプーン等を使用して過分な塩を取り除く等して調節して、他の原料との高さを合わせる。
(4)それぞれの原料の高さが揃ったら、間仕切20を容器本体10から外す。
(5)そして、間仕切20を用いるか又は別途用意したさじ等を用いて、4種類の原料を混合し、ドレッシングが完成する。
このように、等分割の間仕切20を用いることで、秤等を用いて重量を測定することなく、同一の容器で複数の原料を配合できる。
なお、間仕切20には、間仕切20を容器本体10から取り出すときに使用者が把持するための取っ手を設けてもよい。これにより、収容空間13に充填された原料に使用者が手を触れることなく間仕切20を容器本体10から取り出せる。
上記使用例2では、4分割用の間仕切20(図3参照)を用いて4種類の原料を1:1:1:1で配合し、混合した例であったが、例えば、8分割用の間仕切20(図6参照)を用い、一方の原料を6つの分割空間13sに充填し、残りの2つの分割空間13sに他方の原料を充填することで、2種類の原料を3:1で配合できる。
上記使用例2では、各分割空間に充填された各原料の高さを合わせることで同じかさ体積となるようにしたが、かさ体積が事前に計量された原料を、計量容器1の分割空間13sに投入してもよく、各原料を、前記容器本体又は前記間仕切が有する、原料を計量するための目盛りに沿って、計量してもよい。これにより、より精度の良い計量ができる。
(Usage example 2)
In the usage example 1, the example in which the raw materials are blended based on the weight is shown, but the following example is an example in which the raw materials are blended based on the bulk volume.
A process of making dressings by mixing 1: 1: 1: 1 raw materials of the same bulk volume of salt, sugar, vinegar and edible oil using the measuring container 1 according to the present invention as a usage example 2 This will be described below.
In addition, if each raw material is put in another divided space 13s and the heights are aligned, the raw materials have the same bulk volume.
(1) First, a container body 10 and a partition 20 for quadrant division (see FIG. 3) are prepared, and the container body 10 is placed on a work table so that the opening 12 of the container body 10 is at the top.
(2) Next, the partition 20 is housed in the housing portion 11 of the container body 10, and the container body 10 and the partition 20 are placed so that the surface of the opening 12 of the container body 10 and the opening side surface 24 of the partition 20 coincide with each other. combine. Thereby, the accommodating space 13 is divided into four equal divided spaces 13s without communicating with each other.
(3) One salt, one sugar, one edible vinegar, and one cooking oil are added to each divided space 13s. At this time, for example, if the salt height is low, further salt is added, and if the salt height is high, the excess salt is removed using a spoon or the like to adjust the height with other raw materials.
(4) When the heights of the respective raw materials are equal, the partition 20 is removed from the container body 10.
(5) Then, using the partition 20 or using a separately prepared spoon or the like, the four kinds of raw materials are mixed to complete the dressing.
Thus, by using the equally divided partition 20, a plurality of raw materials can be blended in the same container without measuring the weight using a scale or the like.
The partition 20 may be provided with a handle for a user to grip when the partition 20 is taken out from the container body 10. Thereby, the partition 20 can be taken out from the container main body 10 without a user touching the raw material with which the accommodation space 13 was filled.
In the above use example 2, four types of raw materials were blended at 1: 1: 1: 1 using the partition 20 for dividing into four parts (see FIG. 3). Using the partition 20 (see FIG. 6), one raw material is filled into six divided spaces 13s, and the remaining two divided spaces 13s are filled with the other raw material, thereby blending two types of raw materials in a ratio of 3: 1. it can.
In the above use example 2, the same bulk volume is obtained by combining the heights of the respective raw materials filled in the respective divided spaces. However, the raw material whose bulk volume has been weighed in advance is used as the divided space 13s of the measuring container 1. Each raw material may be weighed along a scale for measuring the raw material that the container body or the partition has. Thereby, more accurate weighing can be performed.

以上、本発明の好ましい実施例について詳述したが、本発明に係る計量容器は上述した実施形態に限定されるものではなく、特許請求の範囲に記載された本発明の要旨の範囲内において、種々の変形、変化が可能である。   The preferred embodiments of the present invention have been described in detail above. However, the measuring container according to the present invention is not limited to the above-described embodiment, and within the scope of the present invention described in the claims, Various modifications and changes are possible.

例えば、計量容器1は、1つの容器本体10に対して、この容器本体10の内面形状に合わせた形状の間仕切20を、2分割、3分割、4分割の3種類とし、これらをセットにしてもよい。なお、間仕切20の分割数の組み合わせは自由であり、より多種類の間仕切20とセットにしてもよい。この際、各間仕切20の体積及び重量を同じとすると、同一の容器本体10を用いて同じ配合で複数の原料を混ぜた後の総かさ体積及び重量が、いずれの種類の間仕切20を用いても同じになるので、都合がよい。   For example, the weighing container 1 is divided into three types of partitions 20 having two shapes, three divisions, and four divisions for a single container main body 10 in accordance with the inner surface shape of the container main body 10. Also good. In addition, the combination of the division | segmentation number of the partition 20 is free, and you may make it a set with the more types of partition 20. At this time, if the volume and weight of each partition 20 are the same, the total bulk volume and weight after mixing a plurality of raw materials with the same composition using the same container body 10 is determined using any type of partition 20. Is the same, so it is convenient.

本発明によれば、間仕切が、容器本体の収容部に着脱自在に収容されるので、収容部に間仕切を収容した状態で、複数の原料を間仕切られた分割空間で分けて計量し、その後で間仕切を取り外してから混合することができる。
そのため、複数の原料を個別の容器で計量する必要がなく、原料の追加や入れ過ぎをやり直しながら、複数の原料の計量を連続して同一容器で行うことができる。
また、容器を移し変えて混合する必要もなく、原料の調節が終わったら計量に用いた同一容器から間仕切を取り出すだけで混合することができ、手間を省くことができる。
本発明によれば、間仕切が、収容空間を等分割可能であるので、各分割空間に投入された各原料の高さを目視して比較するだけで等配分であることを確認でき、秤を用意することなく、かさ体積による配合が簡単にできる。
本発明によれば、間仕切が、隣接する分割空間同士が連通することなく、収容空間を分割可能であるので、原料が極小な粉状体や液体であっても、間仕切ることができる。
本発明によれば、間仕切が、収容部の内面に沿って接する板状体を備えるので、間仕切を容器本体に確実に収容できる。
本発明によれば、間仕切が、複数の板状体を備え、それぞれの板状体の一辺が共通する軸と重なり、当該軸に対する垂直断面が放射状となるように形成されているので、同形状の複数の板状体から簡単に作ることができる。
本発明によれば、容器本体の内面が、すり鉢状、略半球体状又は略半回転楕円体状であるので、容器本体の内面に角がないため、角に原料が留まることがなく混合でき、使用後の清掃を簡単にできる。
According to the present invention, since the partition is detachably accommodated in the container main body accommodating portion, the plurality of raw materials are divided and measured in the partitioned divided space in a state where the partition is accommodated in the accommodating portion, and thereafter The partition can be removed before mixing.
Therefore, it is not necessary to measure a plurality of raw materials in individual containers, and a plurality of raw materials can be continuously measured in the same container while re-adding or adding raw materials again.
In addition, there is no need to transfer and mix the containers, and after the adjustment of the raw materials is completed, the mixing can be performed simply by taking out the partition from the same container used for weighing, thereby saving labor.
According to the present invention, since the partition can equally divide the accommodation space, it can be confirmed that the distribution is equal by simply comparing the height of each raw material put into each divided space by visual observation. It is easy to mix by bulk volume without preparation.
According to the present invention, since the partition can divide the accommodation space without the adjacent divided spaces communicating with each other, the partition can be partitioned even if the raw material is an extremely small powder or liquid.
According to the present invention, since the partition includes the plate-like body that contacts the inner surface of the storage portion, the partition can be reliably stored in the container body.
According to the present invention, the partition includes a plurality of plate-like bodies, and one side of each plate-like body overlaps with a common axis, and the vertical section with respect to the axis is formed in a radial shape. It can be easily made from a plurality of plate-like bodies.
According to the present invention, since the inner surface of the container body has a mortar shape, a substantially hemispherical shape, or a substantially semi-spheroid shape, since the inner surface of the container body has no corners, the raw materials do not remain at the corners and can be mixed. Easy to clean after use.

1 計量容器
10 容器本体
11 収容部
12 開口
13 収容空間
13s 分割空間
20 間仕切
21 板状体
22 軸
23 当接面
24 開口側面
DESCRIPTION OF SYMBOLS 1 Measuring container 10 Container main body 11 Housing part 12 Opening 13 Housing space 13s Divided space 20 Partition 21 Plate-like body 22 Shaft 23 Contact surface 24 Opening side

Claims (12)

計量容器であって、
開口と、収容空間を囲む収容部を有する容器本体と、
前記収容部に着脱自在に収容され、前記収容空間を複数の分割空間に分割可能な間仕切と、
を備えることを特徴とする計量容器。
A weighing container,
An opening, and a container body having a storage portion surrounding the storage space;
A partition that is detachably accommodated in the accommodating portion, and that can divide the accommodating space into a plurality of divided spaces;
A weighing container comprising:
前記間仕切は、前記収容空間を等分割可能であることを特徴とする請求項1に記載の計量容器。   The measuring container according to claim 1, wherein the partition is capable of equally dividing the accommodation space. 前記間仕切は、隣接する分割空間同士が連通することなく、前記収容空間を分割可能であることを特徴とする請求項1又は請求項2に記載の計量容器。   The measuring container according to claim 1, wherein the partition is capable of dividing the housing space without communication between adjacent divided spaces. 前記間仕切は、前記収容部の内面に沿って接する板状体を備えることを特徴とする請求項1から請求項3のいずれか1項に記載の計量容器。   The measuring container according to any one of claims 1 to 3, wherein the partition includes a plate-like body that is in contact with the inner surface of the housing portion. 前記間仕切は、複数の板状体を備え、それぞれの板状体の一辺が共通する軸と重なり、当該軸に対する垂直断面が放射状となるように形成されていることを特徴とする請求項1から請求項4のいずれか1項に記載の計量容器。   The partition includes a plurality of plate-like bodies, and one side of each plate-like body overlaps with a common axis, and is formed so that a vertical cross section with respect to the axis is radial. The measuring container according to claim 1. 前記容器本体の内面は、すり鉢状、略半球体状又は略半回転楕円体状であることを特徴とする請求項1から請求項5のいずれか1項に記載の計量容器。   The measuring container according to any one of claims 1 to 5, wherein an inner surface of the container main body has a mortar shape, a substantially hemispherical shape, or a substantially semi-spheroid shape. 前記容器本体又は前記間仕切は、原料を計量するための目盛りを有することを特徴とする請求項1から請求項6のいずれか1項に記載の計量容器。   The said container main body or the said partition has a scale for measuring a raw material, The measuring container of any one of Claims 1-6 characterized by the above-mentioned. 請求項1から請求項7のいずれか1項に記載の計量容器を用いて原料を計量する方法であって、
前記容器本体に前記間仕切を収容して前記収容空間を複数の分割空間に分割し、
前記容器本体及び前記間仕切を秤に載せた状態で、原料を、前記複数の分割空間の少なくとも1つの分割空間に投入し、
秤による測定値に基づいて、投入する原料の重量を調節することを特徴とする計量方法。
A method for measuring a raw material using the measuring container according to any one of claims 1 to 7,
Storing the partition in the container body and dividing the storage space into a plurality of divided spaces;
With the container body and the partition placed on a scale, the raw material is charged into at least one divided space of the plurality of divided spaces,
A weighing method, characterized in that the weight of a raw material to be charged is adjusted based on a measured value by a scale.
請求項1から請求項7のいずれか1項に記載の計量容器を用いて原料を計量する方法であって、
前記容器本体に前記間仕切を収容して前記収容空間を複数の分割空間に分割し、
重量又はかさ体積が事前に計量された原料を、前記複数の分割空間の少なくとも1つの分割空間に投入することを特徴とする計量方法。
A method for measuring a raw material using the measuring container according to any one of claims 1 to 7,
Storing the partition in the container body and dividing the storage space into a plurality of divided spaces;
A weighing method, wherein a raw material whose weight or bulk volume has been weighed in advance is put into at least one divided space of the plurality of divided spaces.
請求項7に記載の計量容器を用いて原料を計量する方法であって、
前記容器本体に前記間仕切を収容して前記収容空間を複数の分割空間に分割し、
原料を、前記複数の分割空間の少なくとも1つの分割空間に投入し、
当該原料を、前記容器本体又は前記間仕切が有する、原料を計量するための目盛りに沿って、計量することを特徴とする計量方法。
A method for measuring a raw material using the measuring container according to claim 7,
Storing the partition in the container body and dividing the storage space into a plurality of divided spaces;
The raw material is charged into at least one divided space of the plurality of divided spaces,
The measuring method characterized by measuring the said raw material along the scale for measuring the raw material which the said container main body or the said partition has.
複数の原料を連続して計量する方法であって、
前記原料とは異なる原料を、請求項8から請求項10のいずれか1項に記載の計量方法を用いて、他の分割空間に投入して、順次、計量することを特徴とする連続計量方法。
A method for continuously measuring a plurality of raw materials,
A continuous weighing method characterized in that a raw material different from the raw material is introduced into another divided space using the weighing method according to any one of claims 8 to 10, and is sequentially weighed. .
請求項11に記載の連続計量方法によって複数の原料を計量した後、前記間仕切を前記容器本体から外し、前記複数の原料を混合することを特徴とする配合方法。   12. A blending method comprising: weighing a plurality of raw materials by the continuous weighing method according to claim 11; then, removing the partition from the container body and mixing the plurality of raw materials.
JP2016102084A 2016-05-23 2016-05-23 Measuring container Pending JP2017211181A (en)

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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US20230341250A1 (en) * 2022-04-22 2023-10-26 Shelley Bouldin Measuring Flower

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US20230341250A1 (en) * 2022-04-22 2023-10-26 Shelley Bouldin Measuring Flower
US11874153B2 (en) * 2022-04-22 2024-01-16 Shelley Bouldin Measuring flower

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