TWI716912B - Squeezing device - Google Patents

Abstract

A squeezing device comprises a piston cylinder, a driving device and a squeezing structure. The piston cylinder comprises an annular cylinder wall, a piston pad and a piston rod. The annular cylinder wall surrounds to form an internal space and has an upper opening and a lower opening respectively communicating with the opposite sides of the internal space such that the slurry can be filled into the internal space from the upper opening. The driving device is disposed on the piston cylinder and drives the piston rod to move toward the lower opening. The squeezing structure is detachably connected to the lower opening of the piston cylinder. The piston pad is movably abutted against the inner surface of the annular cylinder wall of the piston cylinder, and the piston rod is connected to the piston pad such that the slurry inside the internal space will be pushed by the piston pad and extruded from the squeezing structure by using the driving device to drive the piston rod to move toward the lower opening.

Description

Flower squeezer

This creation is a food making tool, especially about a flower squeezer.

At present, the decoration and processing of food surfaces such as cakes and biscuits usually involves filling creamy ingredients such as cream, icing, chocolate or jam in a squeeze bag, and manually squeeze the creamy food out of the squeezing bag through a conical nozzle To decorate the surface of food. The food surface is decorated with various patterns, shapes, texts, etc., to increase customers' desire to buy. However, traditional squeezing bags require both hands to operate, so users cannot squeeze flowers and rotate the rotating table at the same time. They must squeeze or rotate the rotating table intermittently, which can easily lead to loss of hand feeling or multiple decorations extruded from each other. The sizes are not consistent. Moreover, different users can only imitate the appearance and cannot learn the actual pressure value applied when squeezing the flower, so the learning efficiency is not good.

Therefore, the purpose of this creation is to provide a flower squeezer to solve the problems of traditional technology.

In order to achieve the above objective, this creation provides a flower squeezing device, which at least includes a piston cylinder, a driving device and a flower squeezing structure. The piston cylinder includes an annular cylinder wall, a piston pad and a piston rod. The annular cylinder wall surrounds the inner space and has an upper opening and a lower opening respectively communicating with opposite sides of the inner space, so that the blank is filled into the inner space of the piston cylinder from the upper opening. The driving device is arranged on the piston barrel, and the driving device is linked to the displacement of the piston rod toward the lower opening. The squeezing structure is detachably connected to the lower opening of the piston barrel, wherein the piston pad movably abuts against the inner surface of the annular wall of the piston barrel and the piston rod is connected to the piston pad, whereby the driving device drives the piston rod to move toward the lower opening, so that The piston pad pushes the blank in the inner space of the piston cylinder to move toward the lower opening to extrude the blank from the squeezing structure.

Among them, the piston rod is a rack, and the driving device is a ratchet mechanism that engages the rack.

Among them, the squeezing structure includes a hollow nozzle, a hollow sleeve joint, and a hollow adapter. The adapter is detachably connected to the lower opening of the piston cylinder. One side of the nozzle passes through the sleeve and the sleeve joint It is a detachable connection to the squeeze structure adapter, so that the other side of the nozzle is tightly abutted against the adapter.

Wherein, one side of the sleeve joint has a plurality of notches.

Among them, the flower squeezing device further includes a pressure sensor arranged on the inner side of the piston barrel to measure the pressure value experienced by the blank material in the process of being extruded.

In order to achieve the above-mentioned purpose, this creation provides another flower squeezing device, which at least includes a piston barrel and a flower squeezing structure. The piston cylinder includes a ring-shaped cylinder wall, a piston pad and a piston rod. The ring-shaped cylinder wall surrounds the inner space and has an upper opening and a lower opening respectively communicating with opposite sides of the inner space, so that the blank is filled into the piston cylinder from the upper opening In the internal space. The squeezing structure is detachably connected to the lower opening of the piston barrel, wherein the piston pad movably abuts against the inner surface of the annular wall of the piston barrel and the piston rod is connected to the piston pad. The piston rod is displaced toward the lower opening to push the piston pad The blank in the inner space of the piston barrel moves toward the lower opening to extrude the blank from the squeezing structure. The pressure sensor is arranged on the inner side of the piston barrel to measure a pressure value experienced by the blank in the process of being extruded.

Among them, the squeezing structure includes a hollow nozzle, a hollow sleeve joint, and a hollow adapter. The adapter is detachably connected to the lower opening of the piston cylinder. One side of the nozzle passes through the sleeve and the sleeve joint It is a detachable connection to the squeeze structure adapter, so that the other side of the nozzle is tightly abutted against the adapter.

In order to achieve the above purpose, this creation further provides a flower squeezing device, which at least includes a piston cylinder and a plurality of flower squeezing structures. The piston cylinder includes a ring-shaped cylinder wall, a piston pad and a piston rod. The ring-shaped cylinder wall surrounds the inner space and has an upper opening and a lower opening respectively communicating with opposite sides of the inner space, so that the blank is filled into the piston cylinder from the upper opening In the internal space. A plurality of squeezing structures rotate around the lower opening of the piston barrel, and respectively abut against the lower opening of the piston barrel by rotation. The piston pad movably abuts against the inner surface of the annular wall of the piston barrel and the piston rod is connected to the piston pad. The piston rod is displaced toward the lower opening, so that the piston pad pushes the blank in the inner space of the piston barrel toward the lower opening Move and extrude the blank from one of these extruded structures.

The above-mentioned flower squeezing device further includes a rotary disc connected to the piston cylinder, the rotary disc has a plurality of perforations, and the flower extruding structures are respectively penetrated through the perforations.

Among them, the squeezing structure includes a hollow nozzle, a hollow sleeve joint, and a hollow adapter. The adapter is detachably connected to the lower opening of the piston cylinder. One side of the nozzle passes through the sleeve and the sleeve joint It is a detachable connection to the squeeze structure adapter, so that the other side of the nozzle is tightly abutted against the adapter.

Based on the above, the flower squeezing device of this creation has the following advantages:

(1) With one hand, the piston rod of the piston barrel can be moved downward to squeeze the blank out of the nozzle through the piston pad.

(2) It has a pressure sensor that can detect the pressure value applied during the squeezing process for statistics and analysis.

(3) With multiple squeezing structures, the squeezing structure can be replaced by rotating.

In order to help understand the technical features, content and advantages of this creation and its achievable effects, this creation is combined with the diagrams, and detailed descriptions are given in the form of embodiments as follows, and the diagrams used therein are only To illustrate and supplement the manual, it may not be the true proportions and precise configuration after the implementation of this creation. Therefore, the proportion and configuration relationship of the attached drawings should not be interpreted or limited to the scope of rights of the creation in actual implementation. In addition, in order to facilitate understanding, the same elements in the following embodiments are indicated by the same symbols. In addition, the size ratios of the components shown in the drawings are only for the convenience of explaining the components and their structures, and are not for limitation.

In addition, the terms used in the entire specification and the scope of the patent application, unless otherwise specified, usually have the usual meaning of each term used in the field, in the content disclosed here, and in the special content. Some terms used to describe this creation will be discussed below or elsewhere in this specification to provide those skilled in the art with additional guidance on the description of this creation.

Regarding the use of "first", "second", "third", etc. in this article, it does not specifically refer to the order or sequence, nor is it used to limit the creation, but only to distinguish components described in the same technical terms Or operation only.

Secondly, if the terms "including", "including", "having", "containing", etc. are used in this article, they are all open terms, which means including but not limited to.

The flower squeezing device of this creation has various embodiments. Please refer to FIGS. 1 and 2 together. FIG. 1 is an exploded schematic diagram of the flower squeezing device according to the first embodiment of this creation, and FIG. 2 is a schematic diagram of the assembly of the flower squeezing device according to the first embodiment of this creation. In the first embodiment, the flower squeezing device of this invention includes a piston cylinder 10 and a flower squeezing structure 30. The piston cylinder 10 includes an annular cylinder wall 12, a piston pad 14 and a piston rod 16. The annular cylindrical wall 12 surrounds the inner space 18 and has an upper opening 11 and a lower opening 13 respectively communicating with opposite sides of the inner space 18. The user can fill the blank 100 into the inner space 18 of the piston cylinder 10 from the upper opening 11 of the piston cylinder 10. The material of the annular cylinder wall 12 and the piston rod 16 can be, for example, plastic or metal. The material of the piston pad 14 is, for example, rubber or silicone. The dimensions of the annular cylinder wall 12, the piston pad 14 and the piston rod 16 can be determined according to actual requirements and are not limited to specific dimensions. The characteristics and material of the blank 100, such as viscosity or material, are not particularly limited, but it is preferably a viscous, semi-liquid or semi-liquid paste, and the material can be determined according to actual requirements without any particular limitation. The blank 100 may be, for example, an edible food material, such as batter or cream, or other inedible substances.

The squeezing structure 30 is detachably connected to the lower opening 13 of the piston cylinder 10. Therefore, if the user needs to clean or replace the squeeze structure 30, for example, the squeeze structure 30 can be easily removed or installed from the outer side of the piston cylinder 10, which can avoid the problem of inconvenient removal from the inner side. The piston pad 14 of the piston barrel 10 movably abuts against the inner surface of the annular wall 12 of the piston barrel 10 and the piston rod 16 is connected to the piston pad 14. Therefore, the user can move the piston rod 16 toward the lower opening 13, so that the piston pad 14 pushes the blank 100 in the inner space 18 of the piston barrel 10 to move toward the lower opening 13, and then extrudes the blank 100 from the squeezing structure 30.

The flower squeezing structure 30 of the present invention includes a hollow nozzle 32, a hollow sleeve joint 34, and a hollow adapter 36. The adapter 36 is detachably connected to the lower opening 13 of the piston cylinder 10. The internal passage of the adapter 36 is preferably wide at the top and narrow at the bottom, and is preferably tapered. The adapter 36 and the lower opening 13 respectively have corresponding first connecting pieces, wherein the two first connecting pieces can be, for example, a male thread structure and a female thread structure, so that the adapter 36 is screwed under the piston barrel 10 Opening 13. One side (bottom end) of the nozzle 32 passes through the socket 34 from top to bottom and protrudes from the bottom of the socket 34. The sleeve joint 34 is a detachable connection to the adapter 36 of the extruded structure 30, so that the other side (top end) of the nozzle 32 tightly abuts the adapter 36 from bottom to top. The inner side of the top end of the socket 34 and the outer side of the bottom end of the adapter 36 respectively have corresponding second connecting members, wherein the two second connecting members may be, for example, a card slot and a card protrusion, so that the socket 34 can be locked Connected to the adapter 36. As shown in FIG. 1, the outer side of the adapter 36 has a card slot 37, and the inner side of the socket 34 has a card protrusion (not shown). The card protrusion can slide along the card slot 37 by rotating and is finally limited to The end of the card slot 37. The numbers of the card slots 37 and the card protrusions can correspond to each other. For example, the numbers of the card slots 37 and the card protrusions can be, for example, both two and arranged oppositely. In addition, one side (bottom side) of the socket 34 preferably has a plurality of notches 35 to provide tolerance tolerance and movement margin, so that the nozzle 32 can keep tightly abutting the adapter 36. Among them, the size, form, and number of the notches 35 are not particularly limited, as long as they can provide tolerance tolerance and movement margins, they can be applied to this creation. In addition, the size and style of the nozzle 32 are not particularly limited. For example, it can have various opening shapes, such as circular, drop-shaped, elliptical, polygonal, star-shaped, various numbers of teeth, or irregular shapes. Therefore, the user can replace the flower mouth 32 of the required size and form according to actual needs, so as to obtain the required flower squeeze shape.

Please refer to FIG. 3, which is a schematic diagram of the flower squeezing device of the second embodiment of this creation. The structure of the second embodiment is roughly the same as that of the first embodiment. The difference is that the flower squeezer of the second embodiment further has a driving device 20, that is, the flower squeezer of the second embodiment of the present creation includes a piston cylinder 10 and a driving device 20 And squeezing structure 30. The driving device 20 is used for extruding the blank material 100 in the piston cylinder 10 through the extruding structure 30. The piston cylinder 10 includes an annular cylinder wall 12, a piston pad 14 and a piston rod 16. The annular cylindrical wall 12 surrounds the inner space 18 and has an upper opening 11 and a lower opening 13 respectively communicating with opposite sides of the inner space 18. The user can fill the blank 100 into the inner space 18 of the piston cylinder 10 from the upper opening 11 of the piston cylinder 10. The material of the annular cylinder wall 12 and the piston rod 16 can be, for example, plastic or metal. The material of the piston pad 14 is, for example, rubber or silicone. The dimensions of the annular cylinder wall 12, the piston pad 14 and the piston rod 16 can be determined according to actual requirements and are not limited to specific dimensions. The characteristics and material of the blank 100, such as viscosity or material, are not particularly limited, but it is preferably a viscous, semi-liquid or semi-liquid paste, and the material can be determined according to actual requirements without any particular limitation. The blank 100 may be, for example, an edible food material, such as batter or cream, or other inedible substances.

The driving device 20 is arranged on the piston barrel 10, and the driving device 20 is linked to move the piston rod 16 of the piston barrel 10, for example, to move toward the lower opening 13 or move toward the upper opening 11. Among them, the piston rod 16 is, for example, a rack (to make the illustration concise, the piston rod 16 in FIG. 3 does not show the rack structure. The rack is a common rack structure. The rack can be pushed by a ratchet mechanism. It moves, so it is not shown here), and the driving device 20 is, for example, a ratchet mechanism that can engage a rack. The ratchet mechanism is a mechanical mechanism that maintains a single direction of linear motion through a ratchet and a pawl to prevent the piston rod 16 (rack) from reversing, so there is no need to worry about reversal springback during the downward movement. The ratchet mechanism is preferably arranged at the upper opening 11 of the annular cylinder wall 12, and one side is a ratchet for engaging the rack, and the other side is a turntable for the user to rotate. In actual use, the user can operate the flower squeezer with one hand, that is, hold the piston cylinder 10 with one hand and rotate the turntable with the thumb. In addition, the above-mentioned pawl preferably has a clutch design, that is, when the pawl is disengaged from the blocking ratchet, the piston rod 16 can also move in the direction of the upper opening 11 when the turntable is rotated in the opposite direction. In the above-mentioned clutch design, for example, one side of the pawl is connected to a rod body, and the rod body penetrates from the inner side to the outer side of the annular cylinder wall 12, whereby the user can manually control the pawl and the ratchet wheel to be in a clutch state. Since the ratchet mechanism drives the rack gear according to the conventional technology, those who have ordinary knowledge can use the disclosure of this creation and based on the basic mechanical principles to clearly and understand the detailed structure of the ratchet mechanism and how it drives the rack operation. Repeat.

The squeezing structure 30 is detachably connected to the lower opening 13 of the piston cylinder 10. Therefore, if the user needs to clean or replace the squeeze structure 30, for example, the squeeze structure 30 can be easily removed or installed from the outer side of the piston cylinder 10, which can avoid the problem of inconvenient removal from the inner side. The piston pad 14 of the piston barrel 10 movably abuts against the inner surface of the annular wall 12 of the piston barrel 10 and the piston rod 16 is connected to the piston pad 14. Therefore, the user can use the driving device 20 to drive the piston rod 16 to move toward the lower opening 13, so that the piston pad 14 pushes the blank 100 in the inner space 18 of the piston cylinder 10 to move toward the lower opening 13, and then extrudes from the flowered structure 30 Blank material 100.

The flower squeezing structure 30 of the present invention includes a hollow nozzle 32, a hollow sleeve joint 34, and a hollow adapter 36. The adapter 36 is detachably connected to the lower opening 13 of the piston cylinder 10. The internal passage of the adapter 36 is preferably wide at the top and narrow at the bottom, and is preferably tapered. The adapter 36 and the lower opening 13 respectively have corresponding first connecting pieces, wherein the two first connecting pieces can be, for example, a male thread structure and a female thread structure, so that the adapter 36 is screwed under the piston barrel 10 Opening 13. One side (bottom end) of the nozzle 32 passes through the socket 34 from top to bottom and protrudes from the bottom of the socket 34. The sleeve joint 34 is a detachable connection to the adapter 36 of the extruded structure 30, so that the other side (top end) of the nozzle 32 tightly abuts the adapter 36 from bottom to top. The inner side of the top end of the socket 34 and the outer side of the bottom end of the adapter 36 respectively have corresponding second connecting members, wherein the two second connecting members may be, for example, a card slot and a card protrusion, so that the socket 34 can be locked Connected to the adapter 36. As shown in FIG. 3, the outer side of the adapter 36 has a card slot 37, and the inner side of the socket 34 has a card protrusion (not shown). The card protrusion can slide along the card slot 37 by rotating and is finally limited to The end of the card slot 37. The numbers of the card slots 37 and the card protrusions can correspond to each other. For example, the numbers of the card slots 37 and the card protrusions can be, for example, both two and arranged oppositely. In addition, one side (bottom side) of the socket 34 preferably has a plurality of notches 35 to provide tolerance tolerance and movement margin, so that the nozzle 32 can keep tightly abutting the adapter 36. Among them, the size, form, and number of the notches 35 are not particularly limited, as long as they can provide tolerance tolerance and movement margins, they can be applied to this creation. In addition, the size and style of the nozzle 32 are not particularly limited. For example, it can have various opening shapes, such as circular, drop-shaped, elliptical, polygonal, star-shaped, various numbers of teeth, or irregular shapes. Therefore, the user can replace the flower mouth 32 of the required size and form according to actual needs, so as to obtain the required flower squeeze shape.

Please refer to FIG. 4, which is a schematic diagram of the flower squeezing device of the third embodiment of this creation. The structure of the third embodiment is roughly the same as that of the first embodiment. The difference is that the flower squeezer of the third embodiment further has a pressure sensor 50 arranged inside the piston cylinder 10 to measure the process of extrusion of the blank 100 The pressure value and/or pressure-time curve (the curve of pressure corresponding to time) in the middle and perform statistical analysis. For example, the pressure sensor 50 can transmit the aforementioned pressure value and its corresponding time to a processor through wired or wireless transmission, and the processor can record and store the pressure value and its corresponding time, and analyze And get a pressure time curve. Therefore, the user can perform statistical analysis by separately recording and storing the pressure values and pressure time curves required by the nozzles 32 of different styles or sizes to squeeze blanks of different characteristics and materials. The pressure sensor 50 is preferably a resistive pressure sensor, but may also be other types of pressure sensors. In the third embodiment, the flower squeezing device of this invention includes a piston cylinder 10 and a flower squeezing structure 30. The piston cylinder 10 includes an annular cylinder wall 12, a piston pad 14 and a piston rod 16. The annular cylindrical wall 12 surrounds the inner space 18 and has an upper opening 11 and a lower opening 13 respectively communicating with opposite sides of the inner space 18. The user can fill the blank 100 into the inner space 18 of the piston cylinder 10 from the upper opening 11 of the piston cylinder 10. The material of the annular cylinder wall 12 and the piston rod 16 can be, for example, plastic or metal. The material of the piston pad 14 is, for example, rubber or silicone. The dimensions of the annular cylinder wall 12, the piston pad 14 and the piston rod 16 can be determined according to actual requirements and are not limited to specific dimensions. The characteristics and material of the blank 100, such as viscosity or material, are not particularly limited, but it is preferably a viscous, semi-liquid or semi-liquid paste, and the material can be determined according to actual requirements without any particular limitation. The blank 100 may be, for example, an edible food material, such as batter or cream, or other inedible substances. Therefore, in the third embodiment, the pressure sensor 50 is, for example, pierced on the annular wall 12 of the piston barrel 10, and the sensing end of the pressure sensor 50 is located inside the piston barrel 10 and is wired or wireless The transmission method is to connect an external electronic device (processor), such as a mobile phone or a computer, to record or store the data obtained from the sensing and perform statistical analysis. In addition, the above-mentioned data can be transmitted and stored in the cloud database, so that other users can access the data in the cloud database, for example, to learn the pressure value and squeeze required for the squeezing process. The time required for the spending process and the changes in the pressure value applied during this period of time can achieve the effect of simulating, learning from others (such as experts) or practicing squeezing by yourself.

The squeezing structure 30 is detachably connected to the lower opening 13 of the piston cylinder 10. Therefore, if the user needs to clean or replace the squeeze structure 30, for example, the squeeze structure 30 can be easily removed or installed from the outer side of the piston cylinder 10, which can avoid the problem of inconvenient removal from the inner side. The piston pad 14 of the piston barrel 10 movably abuts against the inner surface of the annular wall 12 of the piston barrel 10 and the piston rod 16 is connected to the piston pad 14. Therefore, the user can move the piston rod 16 toward the lower opening 13, so that the piston pad 14 pushes the blank 100 in the inner space 18 of the piston barrel 10 to move toward the lower opening 13, and then extrudes the blank 100 from the squeezing structure 30.

The flower squeezing structure 30 of the present invention includes a hollow nozzle 32, a hollow sleeve joint 34, and a hollow adapter 36. The adapter 36 is detachably connected to the lower opening 13 of the piston cylinder 10. The internal passage of the adapter 36 is preferably wide at the top and narrow at the bottom, and is preferably tapered. The adapter 36 and the lower opening 13 respectively have corresponding first connecting pieces, wherein the two first connecting pieces can be, for example, a male thread structure and a female thread structure, so that the adapter 36 is screwed under the piston barrel 10 Opening 13. One side (bottom end) of the nozzle 32 passes through the socket 34 from top to bottom and protrudes from the bottom of the socket 34. The sleeve joint 34 is a detachable connection to the adapter 36 of the extruded structure 30, so that the other side (top end) of the nozzle 32 tightly abuts the adapter 36 from bottom to top. The inner side of the top end of the socket 34 and the outer side of the bottom end of the adapter 36 respectively have corresponding second connecting members, wherein the two second connecting members may be, for example, a card slot and a card protrusion, so that the socket 34 can be locked Connected to the adapter 36. As shown in FIG. 4, the outer side of the adapter 36 has a card slot 37, and the inner side of the socket 34 has a card protrusion (not shown). The card protrusion can slide along the card slot 37 by rotating and is finally limited to The end of the card slot 37. The numbers of the card slots 37 and the card protrusions can correspond to each other. For example, the numbers of the card slots 37 and the card protrusions can be, for example, both two and arranged oppositely. In addition, one side (bottom side) of the socket 34 preferably has a plurality of notches 35 to provide tolerance tolerance and movement margin, so that the nozzle 32 can keep tightly abutting the adapter 36. Among them, the size, form, and number of the notches 35 are not particularly limited, as long as they can provide tolerance tolerance and movement margins, they can be applied to this creation. In addition, the size and style of the nozzle 32 are not particularly limited. For example, it can have various opening shapes, such as circular, drop-shaped, elliptical, polygonal, star-shaped, various numbers of teeth, or irregular shapes. Therefore, the user can replace the flower mouth 32 of the required size and form according to actual needs, so as to obtain the required flower squeeze shape.

Please refer to FIG. 5, which is a schematic diagram of the flower squeezing device of the fourth embodiment of this creation. The structure of the fourth embodiment is substantially the same as that of the first embodiment. The difference is that the flower squeezing device of the fourth embodiment is further provided with a plurality of flower squeezing structures, which is convenient for the user to change different flower squeezing structures. In the fourth embodiment, the flower squeezing device of this invention includes a piston cylinder 10 and a plurality of flower squeezing structures 30. The piston cylinder 10 includes an annular cylinder wall 12, a piston pad 14 and a piston rod 16. The annular cylindrical wall 12 surrounds the inner space 18 and has an upper opening 11 and a lower opening 13 respectively communicating with opposite sides of the inner space 18. The user can fill the blank 100 into the inner space 18 of the piston cylinder 10 from the upper opening 11 of the piston cylinder 10. The material of the annular cylinder wall 12 and the piston rod 16 can be, for example, plastic or metal. The material of the piston pad 14 is, for example, rubber or silicone. The dimensions of the annular cylinder wall 12, the piston pad 14 and the piston rod 16 can be determined according to actual requirements and are not limited to specific dimensions. The characteristics and material of the blank 100, such as viscosity or material, are not particularly limited, but it is preferably a viscous, semi-liquid or semi-liquid paste, and the material can be determined according to actual requirements without any particular limitation. The blank 100 may be, for example, an edible food material, such as batter or cream, or other inedible substances.

The squeezing structure 30 rotates around the lower opening 13 of the piston barrel 10 and abuts against the lower opening 13 of the piston barrel 10 by rotating. The piston pad 14 movably abuts against the inner surface of the annular wall 12 of the piston barrel 10, and because the piston rod 16 is connected to the piston pad 14, the user can move the piston rod 16 toward the lower opening 13 to make the piston The pad 14 pushes the blank 100 in the inner space of the piston barrel 10 to move toward the lower opening 13, and then extrudes the blank from the multiple squeezing structures 30 that abut against the lower opening 13 of the piston barrel 10.

In the fourth embodiment, the flower squeezing device of the present creation further includes a rotary disk 60 connected to the piston cylinder 10, the rotary disk 60 has a plurality of perforations 62, the size of the perforations 62 is larger than the bottom size of the flower squeezing structure 30 and smaller than or equal to the top of the flower squeezing structure 30 The size is such that a plurality of squeezing structures 30 can be respectively inserted through the perforations 62. Therefore, if the user has a need to clean or replace the squeeze structure 30, for example, he can easily rotate the turntable 60 to replace the squeeze structure 30 to speed up the replacement of the squeeze structure 30. In addition, the piston pad 14 of the piston barrel 10 movably abuts against the inner surface of the annular wall 12 of the piston barrel 10 and the piston rod 16 is connected to the piston pad 14. Therefore, the user can push the piston rod 16 to move toward the lower opening 13, so that the piston pad 14 pushes the blank 100 in the inner space 18 of the piston barrel 10 to move toward the lower opening 13, and then extrudes the blank 100 from the squeezing structure 30. In the fourth embodiment of the present invention, the turntable 60 can be connected to the piston cylinder 10 via the socket 64, for example. One end of the sleeve member 64 has a through hole for the piston cylinder 10 to pass through, and the other end has a shaft through the turntable 60, so that the user can turn the desired extruding structure 30 to the piston by rotating the turntable 60 Below the lower opening 13 of the cylinder 10 (the turntable 60 will rotate with the shaft as the center of rotation), so that the squeezing structure 30 can abut the lower opening 13 of the piston cylinder 10 so that the piston rod 16 can move toward the lower opening 13 The blank 100 is extruded from the extruded structure 30.

Each of the multiple squeezing structures 30 of this creation includes a hollow spout 32, a hollow sleeve joint 34, and a hollow adapter 36. The adapter 36 is detachably connected to the piston cylinder 10 Lower opening 13. The internal passage of the adapter 36 is preferably wide at the top and narrow at the bottom, and is preferably tapered. The adapter 36 and the lower opening 13 respectively have corresponding first connecting pieces, wherein the two first connecting pieces can be, for example, a male thread structure and a female thread structure, so that the adapter 36 is screwed under the piston barrel 10 Opening 13. One side (bottom end) of the nozzle 32 passes through the socket 34 from top to bottom and protrudes from the bottom of the socket 34. The sleeve joint 34 is a detachable connection to the adapter 36 of the extruded structure 30, so that the other side (top end) of the nozzle 32 tightly abuts the adapter 36 from bottom to top. The inner side of the top end of the socket 34 and the outer side of the bottom end of the adapter 36 respectively have corresponding second connecting members, wherein the two second connecting members may be, for example, a card slot and a card protrusion, so that the socket 34 can be locked Connected to the adapter 36. Please refer to the foregoing first to third embodiments for the structure/arrangement of the card slots and the card protrusions, and will not be repeated here. In addition, one side (bottom side) of the socket 34 preferably has a plurality of notches 35 to provide tolerance tolerance and movement margin, so that the nozzle 32 can keep tightly abutting the adapter 36. Among them, the size, form, and number of the notches 35 are not particularly limited, as long as they can provide tolerance tolerance and movement margins, they can be applied to this creation. In addition, the size and style of the nozzle 32 are not particularly limited. For example, it can have various opening shapes, such as circular, drop-shaped, elliptical, polygonal, star-shaped, various numbers of teeth, or irregular shapes. Therefore, the user can replace the flower mouth 32 of the required size and form according to actual needs, so as to obtain the required flower squeeze shape.

In addition, this creation can have another embodiment, which is based on the flower squeezing device of the second embodiment optionally provided with a pressure sensor 50 and/or a plurality of flower squeezing structures 30, wherein the flower squeezing structure 30 It is set in the through hole 62 of the turntable 60, and the turntable 60 is connected to the piston cylinder 10. However, the structure is the same as that described in the above-mentioned embodiments, so it will not be repeated.

Based on the above, the flower squeezing device of this creation has the following advantages:

(1) With one hand, the piston rod of the piston barrel can be moved downward to squeeze the blank out of the nozzle through the piston pad.

(2) It has a pressure sensor that can detect the pressure value applied during the squeezing process for statistics and analysis.

(3) With multiple squeezing structures, the squeezing structure can be replaced by rotating.

The above description is only illustrative, and not restrictive. Any equivalent modifications or changes that do not depart from the spirit and scope of this creation should be included in the attached scope of patent application.

10: Piston barrel 11: Upper opening 12: Annular cylinder wall 13: Lower opening 14: Piston pad 16: Piston rod 18: Internal space 20: Drive 30: squeeze structure 32: Flower mouth 34: Set of connectors 35: gap 36: Adapter 37: card slot 50: Pressure sensor 60: turntable 62: Piercing 64: Socket 100: Blank

Fig. 1 is an exploded schematic diagram of the flower squeezer according to the first embodiment of this creation.

Figure 2 is a schematic diagram showing the combination of the flower squeezer according to the first embodiment of this creation.

Fig. 3 is a schematic diagram of the flower squeezing device according to the second embodiment of this creation.

Fig. 4 is a schematic diagram of the flower squeezing device according to the third embodiment of this creation.

Fig. 5 is a schematic diagram of the flower squeezing device according to the fourth embodiment of this creation.

10: Piston barrel 11: Upper opening 12: Annular cylinder wall 13: Lower opening 14: Piston pad 16: Piston rod 18: Internal space 30: squeeze structure 32: Flower mouth 34: Set of connectors 35: gap 36: Adapter 37: card slot 100: Blank

Claims (8)

A flower squeezer includes at least: a piston cylinder, including an annular cylinder wall, a piston pad and a piston rod. The annular cylinder wall surrounds and forms an inner space and has an upper opening and a lower opening respectively communicating with the inner space The opposite sides of the two sides are used to fill the inner space of the piston barrel with a blank from the upper opening; a driving device is arranged on the piston barrel, and the driving device links the piston rod to move toward the lower opening ; A squeeze structure, detachably connected to the lower opening of the piston barrel, wherein the piston pad movably abuts the inner surface of the annular wall of the piston barrel and the piston rod is connected to the piston pad, so as to use the The driving device drives the piston rod to move toward the lower opening, so that the piston pad pushes the blank in the inner space of the piston barrel to move toward the lower opening to extrude the blank from the squeezing structure; and a pressure sensation The measuring device is arranged on the inner side of the piston barrel to measure a pressure value experienced by the blank in the process of being extruded. In the flower squeezer described in item 1 of the patent application, the piston rod is a rack, and the driving device is engaged with a ratchet mechanism of the rack. For the flower squeezing device described in item 1 of the scope of patent application, the flower squeezing structure includes a hollow nozzle, a hollow set of joints, and a hollow one of the adapters, wherein the adapter is detachably connected to the piston In the lower opening of the tube, one side of the nozzle passes through the socket, and the socket is detachably connected to the adapter of the extruded structure, so that the other side of the nozzle closely abuts against the Adapter. In the flower squeezer described in item 1 of the scope of patent application, one side of the sleeve joint has a plurality of notches. A flower squeezer, at least containing: A piston cylinder includes an annular cylinder wall, a piston pad and a piston rod. The annular cylinder wall surrounds an inner space and has an upper opening and a lower opening respectively communicating with opposite sides of the inner space, thereby The upper opening fills a blank into the inner space of the piston barrel; and a squeezing structure that is detachably connected to the lower opening of the piston barrel, wherein the piston pad movably abuts against the ring of the piston barrel The inner surface of the cylindrical wall and the piston rod are connected to the piston pad. By the displacement of the piston rod toward the lower opening, the piston pad pushes the blank in the inner space of the piston barrel to move toward the lower opening. The squeezing structure extrudes the blank material; and a pressure sensor is arranged on the inner side of the piston barrel to measure a pressure value experienced by the blank material in the process of being extruded. The squeezing device described in item 5 of the scope of patent application, wherein the squeezing structure includes a hollow nozzle, a hollow set of joints, and a hollow adapter, wherein the adapter is detachably connected to the piston In the lower opening of the tube, one side of the nozzle passes through the socket, and the socket is detachably connected to the adapter of the extruded structure, so that the other side of the nozzle closely abuts against the Adapter. A flower squeezer includes at least: a piston cylinder, including an annular cylinder wall, a piston pad and a piston rod. The annular cylinder wall surrounds and forms an inner space and has an upper opening and a lower opening respectively communicating with the inner space The two opposite sides of the piston barrel are filled with a blank from the upper opening into the internal space of the piston barrel; and a plurality of squeezing structures, rotating around the lower opening of the piston barrel, and respectively resisting by rotating Connected to the lower opening of the piston barrel, wherein the piston pad movably abuts against the inner surface of the annular wall of the piston barrel and the piston rod is connected to the piston pad, and the piston rod is displaced toward the lower opening so that The piston pad pushes the blank in the inner space of the piston barrel to move toward the lower opening to extrude the blank from one of the squeezing structures, It further includes a turntable connected to the piston cylinder, the turntable has a plurality of perforations, and the squeezing structures are respectively penetrated through the perforations. The squeezing device described in item 7 of the scope of patent application, wherein the squeezing structure includes a hollow nozzle, a hollow set of joints, and a hollow adapter, wherein the adapter is detachably connected to the piston In the lower opening of the tube, one side of the nozzle passes through the socket, and the socket is detachably connected to the adapter of the extruded structure, so that the other side of the nozzle closely abuts against the Adapter.

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