Patent Application
20150305568
The present invention relates to the field of containers for storing powder material and more particularly, the present invention is related to disposable storage systems or containers for storing and dispensing powder material such as flour or any other particulate matter, the container including an integrated sifter.
Generally, in a container including a sifter, the sifter of is typically used to control the dispensing rate of the powder material stored in the container, wherein that powder material has been sorted out beforehand.
However, the sifter may also be used as a sieve to sort out unwanted particles, typically larger in size than the powder material, such as flour.
Hence, there is a need for and it would be advantageous to have a container including an integrated sifter for storing and dispensing the powder material, while sorting out unwanted particles.
It should be noted that the present invention will describe, with no limitations, the powder material stored in the container as being flour. But the present invention is not limited to containers for storing flour and any other powder or particulate matter may be stored in the container.
The principle intentions of the present invention include providing a container for storing and dispensing powder material such as flour or any other particulate matter, the container including an integrated sifter. Typically, the particulate matter is stored and shipped in the container of the present invention, wherein the particulate matter is dispensed through the sieve, to thereby prevent from unwanted particles, larger than the sieve's fine holes from being dispensed. Typically, the container with the integrated sifter is disposable.
According to teachings of the present inventions there is provided a disposable container-assembly for shipping, storing and dispensing powder material such as flour. The disposable container-assembly includes a container body, wherein the powder material is stored in the container body, and a sifter-assembly.
The sifter-assembly includes a sifter-assembly-body having an enclosed wall that forms a top-end opening and a bottom-end opening. The enclosed wall may form any preconfigured shape. The sifter-assembly-body includes a blocking cover, a powder-clumps-breaking device, and a sieve, wherein the powder-clumps-breaking device is secured between the top-end opening of the sifter-assembly-body and the sieve.
The bottom portion of the container body sealingly encloses the top-end opening of the sifter-assembly-body.
The blocking cover prevents an escape of powder material from the container body, during the storing or shipping states of the disposable container-assembly. The blocking cover is removed to facilitate sifting and dispensing of powder material from the container body.
Preferably, the sifter-assembly further includes a locking mechanism for locking the blocking cover onto the sifter-assembly-body, and thereby sealingly enclosing the bottom-end opening of the sifter-assembly-body.
The openings in the powder-clumps-breaking device facilitate, during a sifting process, the break apart of large powder clumps. The sifter-assembly further includes a bulk of parts, dimensioned to stay in between the powder-clumps-breaking device and the sieve, wherein the parts further break apart the remaining powder-clumps into yet smaller parts.
In some embodiments, the powder-clumps-breaking device is a powder-clumps-breaking-grid (160).
In some embodiments, the powder-clumps-breaking device includes a first powder-clumps-breaking unit and a second powder-clumps-breaking unit. The first powder-clumps-breaking unit includes a hollowed body, enclosed at one end by a first partition (264), while the other end is an open end, wherein one or more first elongated openings (266) are formed in the first partition. The second powder-clumps-breaking unit includes a hollowed body, enclosed at one end by a second partition (234), while the other end is an open end, wherein one or more second elongated openings (236) are formed in the first partition. When assembled, the second elongated openings are generally traversal to the first elongated openings.
Preferably, the one or more second elongated openings are partially occluded by inclined walls (238), wherein the inclined walls are inclined towards the first powder-clumps-breaking unit.
Optionally, supporting ribs (239) are added to support the three open edges of each of the inclined walls to the second partition.
An aspect of the present invention is to provide a method for storing, sifting and dispensing powder material. The method includes the steps of providing the disposable container-assembly of the present invention; removing the blocking cover to facilitate sifting and dispensing of the powder material stored in the container body; and shaking the sifter-assembly sideways causing motion of powder material from the container body to pass through the openings in the powder-clumps-breaking device, thereby breaking apart of large powder clumps, and motion of fine powder material to pass through the fine hole of the sieve, thereby out of the disposable container-assembly.
Optionally, the sifter-assembly further includes a bulk of parts, dimensioned to stay in between the powder-clumps-breaking device and the sieve, wherein the parts further break apart the remaining powder-clumps into yet smaller parts, during the shaking of the sifter-assembly, sideways.
The present invention will become fully understood from the detailed description given herein below and the accompanying drawings, which drawings are generally not drawn to scale and are given by way of illustration only and thus, not limitative of the present invention, and wherein:
a is a side view of the second powder-clumps-breaking unit shown in
b is a sectioned side view of the second powder-clumps-breaking unit shown in
The present invention will now be described more fully hereinafter with reference to the accompanying drawings, in which preferred embodiments of the invention are shown. This invention may, however, be embodied in many different forms and should not be construed as limited to the embodiments set forth herein; rather, these embodiments are provided, so that this disclosure will be thorough and complete, and will fully convey the scope of the invention to those skilled in the art.
An embodiment is an example or implementation of the inventions. The various appearances of “one embodiment,” “an embodiment” or “some embodiments” do not necessarily all refer to the same embodiments. Although various features of the invention may be described in the context of a single embodiment, the features may also be provided separately or in any suitable combination. Conversely, although the invention may be described herein in the context of separate embodiments for clarity, the invention may also be implemented in a single embodiment.
Reference in the specification to “one embodiment”, “an embodiment”, “some embodiments” or “other embodiments” means that a particular feature, structure, or characteristic described in connection with the embodiments is included in at least one embodiments, but not necessarily all embodiments, of the inventions. It is understood that the phraseology and terminology employed herein is not to be construed as limiting and are for descriptive purpose only.
Meanings of technical and scientific terms used herein are to be commonly understood as to which the invention belongs, unless otherwise defined. The present invention can be implemented in the testing or practice with methods and materials equivalent or similar to those described herein.
It should be noted that orientation related descriptions such as “bottom”, “up”, “upper”, “down”, “lower”, “top” and the like, assumes that the associated item is operationally situated.
Methods of the present invention may be implemented by performing or completing manually, automatically, or a combination thereof, selected steps or tasks. The term “method” refers to manners, means, techniques and procedures for accomplishing a given task including, but not limited to, those manners, means, techniques and procedures either known to, or readily developed from known manners, means, techniques and procedures by practitioners of the art to which the invention belongs. The descriptions, examples, methods and materials presented in the claims and the specification are not to be construed as limiting but rather as illustrative only.
Reference is made to the drawings.
Sifter-assembly 120 includes a sifter-assembly-body 130, a blocking cover 140, a powder-clumps-breaking-grid 160 and a sieve 170. Sifter-assembly 120 also includes a locking mechanism 150 for interlocking blocking cover 140 onto sifter-assembly-body 130.
Locking mechanism 150 shown in the drawings is given by way of example only, and other interlocking embodiments know in the art may be used within the scope of the present invention. Locking mechanism 150 includes a first pair of locking-elements 154 integrated into blocking cover 140, and a second pair of locking-elements 152 integrated into sifter-assembly-body 130. In the example locking mechanism 150 shown in the figures, each locking-element 152 includes a male-member 153, and each locking-element 154 includes a respective female-member 155. When a male-member 153 is pressed against a respective female-member 155 to cling-on thereto, locking mechanism 150 fittingly enters into a locking state and thereby, powder material stored in disposable container-assembly 100 cannot escape container body 110. In
Container body 110 is made of material suitable to store the designate powder material. It may be made of materials such as paper, nylon, plastic and other polymers, PET (Polyethylene Terephthalate) or any other material commonly used to store the corresponding powder material.
Sifter-assembly-body 130 is a hollowed body, having enclosing walls forming two open ends. A first open-end, typically the top end, that remains open such that the inner space of sifter-assembly-body 130 coincides with the inner space of container body 110. It should be noted that “top” and “bottom”, as used herein, refers to the common operational orientation of disposable container-assembly 100, when the sifter is being used. The second open-end, typically the bottom end, is detachably enclosed by blocking cover 140.
Sifter-assembly-body 130 has a top section 132, proximal to the first open-end, a middle section 134 is proximal to the second open-end and a bottom section 135. The bottom end of container body 110 an open end, wherein the bottom portion of container body 110 is sealingly attached to top section 132 of sifter-assembly-body 130, for example by glue, by heat, or the two are made of the same material, being integrated into a single part. Typically, with no limitation, the bottom portion of container body 110 is sealingly attached to the external surface 133 of top section 132, as shown in
Reference is also made to
It should be noted that powder-clumps-breaking-grid 160 may be formed in different geometrical layouts.
Sieve 170 is shaped to overcast the second (bottom) open-end of sifter-assembly-body 130 and is typically securely attached, for example, with no limitation, by glue or heat, to the external surface of the bottom side of bottom section 135 of sifter-assembly-body 130 (see
Reference is also made to
Particles 20 of the particulate matter that were stored inside disposable container-assembly 100, are shown being dispensed out of the second (bottom) open-end of sifter-assembly-body 130. Typically, a slight shaking of disposable container-assembly 100 is required to dispense particles 20 out of disposable container-assembly 100.
It should be noted that some types of particulate matter that were stored inside disposable container-assembly 100, such as flour, tend to cluster together to form a clumps of the powdery matter. When such large clumps of powdery matter reach, as is, the upper surface of sieve 170, which is typically made from a fine grid, the sifting process tend to be slow and inefficient. Therefore, by placing powder clumps-breaking-grid 160 before sieve 170, any formed large powder clumps are broken apart by powder-clumps-breaking-grid 160 into smaller parts, making the powdery matter substantially fluffier.
It should be further noted that adding a bulk of parts (not shown), such as small globules, dimensioned to stay in between powder-clumps-breaking-grid 160 before sieve 170, further breaks the remaining powder-clumps into yet smaller parts making the powdery matter even more fluffy.
Reference is now made to
Sifter-assembly 220 includes a powder-clumps-breaking assembly 290 having a second powder-clumps-breaking unit 230 and first powder-clumps-breaking unit 260. Sifter-assembly 220 also includes a sieve 270, a blocking cover 240 and a locking mechanism 250 for interlocking blocking cover 240 onto sifter-assembly-body 230, and a locking mechanism 255 for interlocking powder-clumps-breaking unit 260 onto an open-end-rim 214 of container body 210. Sifter-assembly 220 may further include an intruding protection such as foil 280.
Locking mechanisms 250 and 255, shown in drawing 15, are given by way of example only. Any type of prior art locking mechanisms may be used. Furthermore, any type of prior art intruding protection may be used.
Container body 210 is made of material suitable to store the designate powder material. It may be made of materials such as cardboard, nylon, plastic and other polymers, PET (Polyethylene Terephthalate) or any other material commonly used to store the corresponding powder material.
First powder-clumps-breaking unit 260 includes a hollowed body, having enclosing walls 262 that are enclosed at one end by a first partition 264, while the other end is an open end that typically, detachably interlocks with open-end-rim 214 of container body 210. One or more elongated openings 266 are formed in first partition 264.
Second powder-clumps-breaking unit 230 is designed to further break down powder clumps that remain after passing through elongated openings 264. Second powder-clumps-breaking unit 230 includes a hollowed body, having enclosing walls 232 that are enclosed at one end by a second partition 234, while the other end is an open end. Powder-clumps-breaking assembly 290 is assembled such that the inner wall surface of first powder-clumps-breaking unit 260 coincides with the external wall surface of second powder-clumps-breaking unit 230.
One or more elongated openings 236 are formed in second partition 234, wherein when assembled, elongated openings 236 are generally traversal to elongated openings 266. Preferably, at least one elongated opening 236 is partially blocked by an inclined wall 238, extending from a first edge 237 of the least one elongated opening 236 towards and away from the edge of the least one elongated opening 236 opposing first edge 237 of the least one elongated opening 236. A gap 235 is formed between inclined wall 238 and the edges of the least one elongated opening 236 other than first edge 237. Supporting ribs 239 may be added to support the three open edges of inclined wall 238 to second partition 234, wherein inclined walls 238 are inclined towards first powder-clumps-breaking unit 260.
It should be noted that elongated opening 236, elongated opening 266 and inclined walls 238 may be formed in different geometrical layouts, according to variations of the present invention.
Rim 233 at the open-end of second powder-clumps-breaking unit 230, typically the bottom end, is detachably enclosed by blocking cover 240, wherein sieve 270 is shaped to overcast the (bottom) open end of second powder-clumps-breaking unit 230 and is typically securely attached thereto (see
It should be noted that some types of particulate matter that were stored inside container-assembly 200, such as flour, tend to cluster together to form clumps of the powdery matter. When such large clumps of powdery matter reach, as is, the upper surface of sieve 270, which is typically made from a fine grid, the sifting process tend to be slow and inefficient. Therefore, by placing powder clumps-breaking device 260 before sieve 270, any formed large powder clumps are broken apart by powder-clumps-breaking device 260 into smaller parts, making the powdery matter substantially fluffier.
By placing powder-clumps-breaking assembly 290 before sieve 270, any formed large powder clumps are broken apart when forced to pass through elongated openings 264. Clump of powder material coming from container body 210 is broken into smaller parts. The clump of powder material first powder-clumps-breaking unit 260 are then passed through elongated openings 234, such that the clump of powder material are further broken apart into yet smaller parts, before reaching sieve 270.
It should be further noted that adding a bulk of parts (not shown), such as small globules, dimensioned to stay in between powder-clumps-breaking device 260 before sieve 270, further breaks the remaining powder-clumps into yet smaller parts making the powdery matter even more fluffy.
The invention being thus described in terms of embodiments and examples, it will be obvious that the same may be varied in many ways. Such variations are not to be regarded as a departure from the spirit and scope of the invention, and all such modifications as would be obvious to one skilled in the art are intended to be included within the scope of the following claims.
This application is a continuation in part of PCT application PCT/IL2012/000359, filed Oct. 17, 2012, the disclosure of which is incorporated by reference for all purposes as if fully set forth herein.
