WO2022206743A1 - 3d打印笔及其使用方法 - Google Patents
3d打印笔及其使用方法 Download PDFInfo
- Publication number
- WO2022206743A1 WO2022206743A1 PCT/CN2022/083608 CN2022083608W WO2022206743A1 WO 2022206743 A1 WO2022206743 A1 WO 2022206743A1 CN 2022083608 W CN2022083608 W CN 2022083608W WO 2022206743 A1 WO2022206743 A1 WO 2022206743A1
- Authority
- WO
- WIPO (PCT)
- Prior art keywords
- dyeing
- consumables
- consumable
- driving
- stirring
- Prior art date
Links
- 238000000034 method Methods 0.000 title claims abstract description 76
- 238000007639 printing Methods 0.000 title description 13
- 238000004043 dyeing Methods 0.000 claims abstract description 437
- 230000007246 mechanism Effects 0.000 claims abstract description 324
- 238000003756 stirring Methods 0.000 claims abstract description 273
- 238000010146 3D printing Methods 0.000 claims abstract description 147
- 238000010438 heat treatment Methods 0.000 claims abstract description 74
- 239000003086 colorant Substances 0.000 claims abstract description 32
- 238000002844 melting Methods 0.000 claims abstract description 20
- 230000008018 melting Effects 0.000 claims abstract description 20
- 230000005540 biological transmission Effects 0.000 claims description 96
- 239000000975 dye Substances 0.000 claims description 58
- 239000000463 material Substances 0.000 claims description 42
- 230000008569 process Effects 0.000 claims description 39
- 230000008859 change Effects 0.000 claims description 13
- 238000002156 mixing Methods 0.000 claims description 13
- 230000009471 action Effects 0.000 claims description 9
- 238000012546 transfer Methods 0.000 claims description 6
- 238000006073 displacement reaction Methods 0.000 claims description 5
- 238000013459 approach Methods 0.000 claims description 3
- 230000005672 electromagnetic field Effects 0.000 claims 1
- 230000000694 effects Effects 0.000 abstract description 23
- 239000012943 hotmelt Substances 0.000 abstract description 8
- 238000010586 diagram Methods 0.000 description 33
- 238000003860 storage Methods 0.000 description 11
- 230000002093 peripheral effect Effects 0.000 description 9
- 239000004033 plastic Substances 0.000 description 9
- 229920003023 plastic Polymers 0.000 description 9
- 238000009423 ventilation Methods 0.000 description 8
- 239000002184 metal Substances 0.000 description 7
- 238000010422 painting Methods 0.000 description 6
- 238000003825 pressing Methods 0.000 description 6
- 238000004040 coloring Methods 0.000 description 5
- 238000003780 insertion Methods 0.000 description 5
- 230000037431 insertion Effects 0.000 description 5
- 239000000203 mixture Substances 0.000 description 5
- 238000001179 sorption measurement Methods 0.000 description 5
- 238000006243 chemical reaction Methods 0.000 description 4
- 230000009977 dual effect Effects 0.000 description 4
- 238000005516 engineering process Methods 0.000 description 4
- 238000009413 insulation Methods 0.000 description 4
- 238000009434 installation Methods 0.000 description 3
- 229920002635 polyurethane Polymers 0.000 description 3
- 239000004814 polyurethane Substances 0.000 description 3
- 239000000843 powder Substances 0.000 description 3
- 230000032258 transport Effects 0.000 description 3
- XECAHXYUAAWDEL-UHFFFAOYSA-N acrylonitrile butadiene styrene Chemical compound C=CC=C.C=CC#N.C=CC1=CC=CC=C1 XECAHXYUAAWDEL-UHFFFAOYSA-N 0.000 description 2
- 229920000122 acrylonitrile butadiene styrene Polymers 0.000 description 2
- 239000004676 acrylonitrile butadiene styrene Substances 0.000 description 2
- 238000001514 detection method Methods 0.000 description 2
- 238000011049 filling Methods 0.000 description 2
- 229920000747 poly(lactic acid) Polymers 0.000 description 2
- 239000004626 polylactic acid Substances 0.000 description 2
- 229920000642 polymer Polymers 0.000 description 2
- 230000002028 premature Effects 0.000 description 2
- 239000007787 solid Substances 0.000 description 2
- 241001391944 Commicarpus scandens Species 0.000 description 1
- 230000009286 beneficial effect Effects 0.000 description 1
- 239000000919 ceramic Substances 0.000 description 1
- 230000003749 cleanliness Effects 0.000 description 1
- 238000005520 cutting process Methods 0.000 description 1
- 230000008021 deposition Effects 0.000 description 1
- 238000011161 development Methods 0.000 description 1
- 238000009826 distribution Methods 0.000 description 1
- 238000001035 drying Methods 0.000 description 1
- 238000005485 electric heating Methods 0.000 description 1
- 238000005265 energy consumption Methods 0.000 description 1
- 238000001125 extrusion Methods 0.000 description 1
- 239000000835 fiber Substances 0.000 description 1
- 230000035929 gnawing Effects 0.000 description 1
- 238000011068 loading method Methods 0.000 description 1
- 239000003973 paint Substances 0.000 description 1
- 230000001681 protective effect Effects 0.000 description 1
- 238000000926 separation method Methods 0.000 description 1
- 239000007921 spray Substances 0.000 description 1
- 238000005507 spraying Methods 0.000 description 1
- 210000002435 tendon Anatomy 0.000 description 1
- XLYOFNOQVPJJNP-UHFFFAOYSA-N water Substances O XLYOFNOQVPJJNP-UHFFFAOYSA-N 0.000 description 1
- 238000004804 winding Methods 0.000 description 1
Images
Classifications
-
- B—PERFORMING OPERATIONS; TRANSPORTING
- B29—WORKING OF PLASTICS; WORKING OF SUBSTANCES IN A PLASTIC STATE IN GENERAL
- B29C—SHAPING OR JOINING OF PLASTICS; SHAPING OF MATERIAL IN A PLASTIC STATE, NOT OTHERWISE PROVIDED FOR; AFTER-TREATMENT OF THE SHAPED PRODUCTS, e.g. REPAIRING
- B29C64/00—Additive manufacturing, i.e. manufacturing of three-dimensional [3D] objects by additive deposition, additive agglomeration or additive layering, e.g. by 3D printing, stereolithography or selective laser sintering
- B29C64/20—Apparatus for additive manufacturing; Details thereof or accessories therefor
-
- B—PERFORMING OPERATIONS; TRANSPORTING
- B29—WORKING OF PLASTICS; WORKING OF SUBSTANCES IN A PLASTIC STATE IN GENERAL
- B29C—SHAPING OR JOINING OF PLASTICS; SHAPING OF MATERIAL IN A PLASTIC STATE, NOT OTHERWISE PROVIDED FOR; AFTER-TREATMENT OF THE SHAPED PRODUCTS, e.g. REPAIRING
- B29C64/00—Additive manufacturing, i.e. manufacturing of three-dimensional [3D] objects by additive deposition, additive agglomeration or additive layering, e.g. by 3D printing, stereolithography or selective laser sintering
- B29C64/30—Auxiliary operations or equipment
- B29C64/307—Handling of material to be used in additive manufacturing
-
- B—PERFORMING OPERATIONS; TRANSPORTING
- B29—WORKING OF PLASTICS; WORKING OF SUBSTANCES IN A PLASTIC STATE IN GENERAL
- B29C—SHAPING OR JOINING OF PLASTICS; SHAPING OF MATERIAL IN A PLASTIC STATE, NOT OTHERWISE PROVIDED FOR; AFTER-TREATMENT OF THE SHAPED PRODUCTS, e.g. REPAIRING
- B29C64/00—Additive manufacturing, i.e. manufacturing of three-dimensional [3D] objects by additive deposition, additive agglomeration or additive layering, e.g. by 3D printing, stereolithography or selective laser sintering
- B29C64/30—Auxiliary operations or equipment
- B29C64/307—Handling of material to be used in additive manufacturing
- B29C64/314—Preparation
-
- B—PERFORMING OPERATIONS; TRANSPORTING
- B29—WORKING OF PLASTICS; WORKING OF SUBSTANCES IN A PLASTIC STATE IN GENERAL
- B29C—SHAPING OR JOINING OF PLASTICS; SHAPING OF MATERIAL IN A PLASTIC STATE, NOT OTHERWISE PROVIDED FOR; AFTER-TREATMENT OF THE SHAPED PRODUCTS, e.g. REPAIRING
- B29C64/00—Additive manufacturing, i.e. manufacturing of three-dimensional [3D] objects by additive deposition, additive agglomeration or additive layering, e.g. by 3D printing, stereolithography or selective laser sintering
- B29C64/30—Auxiliary operations or equipment
- B29C64/307—Handling of material to be used in additive manufacturing
- B29C64/321—Feeding
-
- B—PERFORMING OPERATIONS; TRANSPORTING
- B33—ADDITIVE MANUFACTURING TECHNOLOGY
- B33Y—ADDITIVE MANUFACTURING, i.e. MANUFACTURING OF THREE-DIMENSIONAL [3-D] OBJECTS BY ADDITIVE DEPOSITION, ADDITIVE AGGLOMERATION OR ADDITIVE LAYERING, e.g. BY 3-D PRINTING, STEREOLITHOGRAPHY OR SELECTIVE LASER SINTERING
- B33Y30/00—Apparatus for additive manufacturing; Details thereof or accessories therefor
-
- B—PERFORMING OPERATIONS; TRANSPORTING
- B33—ADDITIVE MANUFACTURING TECHNOLOGY
- B33Y—ADDITIVE MANUFACTURING, i.e. MANUFACTURING OF THREE-DIMENSIONAL [3-D] OBJECTS BY ADDITIVE DEPOSITION, ADDITIVE AGGLOMERATION OR ADDITIVE LAYERING, e.g. BY 3-D PRINTING, STEREOLITHOGRAPHY OR SELECTIVE LASER SINTERING
- B33Y40/00—Auxiliary operations or equipment, e.g. for material handling
-
- B—PERFORMING OPERATIONS; TRANSPORTING
- B33—ADDITIVE MANUFACTURING TECHNOLOGY
- B33Y—ADDITIVE MANUFACTURING, i.e. MANUFACTURING OF THREE-DIMENSIONAL [3-D] OBJECTS BY ADDITIVE DEPOSITION, ADDITIVE AGGLOMERATION OR ADDITIVE LAYERING, e.g. BY 3-D PRINTING, STEREOLITHOGRAPHY OR SELECTIVE LASER SINTERING
- B33Y40/00—Auxiliary operations or equipment, e.g. for material handling
- B33Y40/10—Pre-treatment
Definitions
- the invention relates to the technical field of 3D printing, in particular to a 3D printing pen and a method for using the same.
- 3D printing technology is more and more widely used in various fields.
- 3D printing technology also appears in people's lives in the form of more types of products.
- 3D printing pens are one of them.
- the difference between 3D printers and 3D printing is that the 3D printing pen is controlled by the human hand, and the 3D printing pen can realize three-dimensional painting according to people's wishes, that is to say, the user only needs to operate the traditional brush. It can draw three-dimensional patterns in a three-dimensional environment.
- 3D printing pens use hot-melt deposition technology, and the ink in them is made of hot-melt materials, such as PLA (polylactic acid) materials or ABS (acrylonitrile-butadiene-styrene copolymer) materials, which are also commonly referred to as consumables.
- hot-melt materials such as PLA (polylactic acid) materials or ABS (acrylonitrile-butadiene-styrene copolymer) materials, which are also commonly referred to as consumables.
- PLA polylactic acid
- ABS acrylonitrile-butadiene-styrene copolymer
- the existing 3D printing pen usually only uses single-color consumables.
- the user needs to add consumables of different colors to the printing pen to realize the color switching. Therefore, there are the following disadvantages: On the one hand, The color is relatively single, and the use process is relatively tedious. On the other hand, consumables of different colors need to be replaced frequently, which has the disadvantage of being inconvenient to use.
- an existing color 3D printing pen includes a printing pen main body, a first stepping motor is arranged on the top of the inner cavity of the printing pen main body, a bracket is fixed at the bottom of the first stepping motor, and a second stepping motor is arranged at the bottom of the bracket
- the motor, the bottom end of the second stepping motor is connected with an L rod, the bottom of the second stepping motor is provided with a pressure air pump, the bottom of the pressure air pump is provided with a refill group, and a stirring guide rod is arranged between the refill groups, and the stirring guide rod penetrates the pressure
- the air pump is connected with the second stepping motor, and a pressure valve switch is arranged on one side of the top of the refill group, and the pressure valve switch is clamped with the end of the L rod.
- the feeding is mainly controlled by the first stepping motor, and the stirring process is controlled by the second stepping motor. Therefore, dual drives are required as the driving force during use.
- the driving force is required as the driving force during use.
- two driving sources are arranged in the main body of the printing pen, which has the disadvantage of large overall volume, which is not conducive to User holds.
- An existing 3D printing pen uses a driving gear to drive the conveying of printing consumables, and the driving gear cooperates with a roller to keep the conveying of printing consumables stably.
- the consumables will inevitably rotate, but Since the consumables located in the 3D printing pen are integrated with the remaining external consumables, the rotation of the consumables in the 3D printing pen will also drive the external consumables to rotate together, which will easily cause the external consumables to become entangled, which will affect the feeding and use of actions of the operator have an impact.
- an existing self-coloring 3D printing ink cartridge includes an ink cartridge body, a consumable material hole is formed along the axial direction of the ink cartridge body, a primary color area and a toning area are provided on the ink cartridge body, and the primary color area is provided with three In the toner box in which the dye powder is placed, the base color box and the toner box facing the consumables hole are provided with coloring holes that communicate with the consumables holes.
- the air inlet hole connected to the box, the circumferential direction of the ink cartridge body is provided with a driving cylinder that rotates around the ink cartridge body, the inner side of the driving cylinder is provided with a nozzle that can fill air into the air inlet hole, the nozzle rotates around the ink cartridge body with the driving cylinder, and the air inlet hole is hinged There is a one-way door that can be pushed open by the nozzle and can be reset automatically.
- the arrangement of the invention does not require the mid-end printing work to increase or replace the line type consumables of the corresponding color, which is convenient to use and ensures the continuity of the printing work.
- the structure of the above-mentioned existing 3D printing pen is complex, and it is necessary to blow air into the ink cartridge to make the dye powder in the ink cartridge spray out onto the linear consumables. During the spraying process, the dye powder is easily stained on other structures of the equipment, destroying it. Cleanliness of equipment.
- the existing 3D printing pen when the existing 3D printing pen is dyed, it can only dye the color consistent with the ink color, but cannot control the color density, and the single color of the printed product has poor operability.
- the purpose of the present invention is to provide a 3D printing pen, which adopts the method of dyeing consumables, and has the effects of rich colors, strong interest, flexibility, variety, and uniform dyeing.
- Another object of the present invention is to provide a method for using a 3D printing pen, which has the effect of being more convenient to use.
- a 3D printing pen includes a pen main body, the pen main body is provided with a nozzle, a channel for consumables to pass through is opened in the pen main body, wherein the main body is further provided with
- Wire feeding mechanism which is used to transfer the consumables to the nozzle
- the dyeing mechanism includes a driving mechanism and several dyeing parts, and the driving mechanism pushes one or more dyeing parts to dye consumables at the same time.
- the 3D printing pen of the present invention is further provided with a heating component for heating and melting the consumables; and a stirring mechanism for stirring the melted consumables.
- the consumables are first fed into the channel of the pen body.
- the driving mechanism drives the dyeing piece to dye the side walls of the consumables
- the silk feeding mechanism drives the dyed consumables to the stirring mechanism.
- the front end of the consumables will also push the molten colored consumables to extrude from the nozzle, so that 3D three-dimensional painting can be realized. Rich in color, interesting, flexible, diverse, and evenly dyed.
- the present invention is further provided as follows: the main body of the pen is further provided with a color changing turntable, the color changing turntable is controlled and cooperated with the dyeing mechanism, and the color changing turntable is used to control the switching of the dyeing piece by the driving mechanism.
- the user can control the color changing process between different groups of dyeing mechanisms by rotating the color changing dial, and the user can choose different colors to dye the consumables according to their own preferences. In this way, there is no need to replace the consumables. , you can realize multi-color conversion on the same consumable, without purchasing consumables of different colors, and the cost is also lower.
- the driving mechanism includes a sliding block, and the sliding block moves in a direction close to the dyeing piece, so that the dyeing piece is close to the consumables.
- the slider moves towards the direction close to the dyeing parts until the dyeing parts are in contact with the side walls of the consumables; when the dyeing is completed, the slider resets to keep the dyeing parts away from the consumables.
- the driving mechanism further includes a color changing motor and an eccentric wheel disc arranged on the output shaft of the color changing motor, the eccentric wheel disc includes an eccentric column, the slider is provided with a strip groove, and the eccentric column slides with the strip groove. Shift fit; the pen body is provided with a chute for the sliding block to slide.
- the color changing motor when the color changing motor is started, it drives the eccentric wheel to rotate, and when the eccentric wheel rotates, under the cooperative driving action of the eccentric column and the strip groove, the slider moves toward or away from the dyeing piece along the chute.
- the movement of the slider can realize the process of pushing the dyeing piece.
- the present invention is further arranged as follows: a driving component is arranged in the main body of the pen, a first transmission component is arranged between the driving component and the wire feeding mechanism, a second transmission component is arranged between the driving component and the stirring mechanism, and the driving component acts on the wire feeding mechanism synchronously and stirring mechanism.
- the wire feeding mechanism is driven to move through the first transmission assembly, and the wire feeding mechanism transmits the consumables into the nozzle.
- the second transmission assembly drives the stirring mechanism to move synchronously, stirring The mechanism can stir and mix the molten consumables evenly, so that the wire feeding and stirring process are carried out synchronously, and the material is discharged while stirring, and the phenomenon of material breakage is not easy to occur.
- the single-drive dual-output method has the effect of saving energy and reducing consumption
- the overall structural layout has the effect of being more compact, which is convenient for users to hold.
- the present invention further provides that: the first transmission assembly includes a first reversing gear; the second transmission assembly includes a stirring transmission gear, and the first reversing gear and the stirring transmission gear are coaxially arranged on the output end of the driving component.
- the output end drives the first reversing gear and the stirring transmission gear to rotate at the same time, so that the same driving component can be used to realize dual outputs through the first transmission assembly and the second transmission assembly at the same time.
- the wire feeding mechanism comprises a wire feeding gear set
- the wire feeding gear set comprises a wire feeding main gear and a wire feeding driven wheel
- a wire feeding channel is formed between the wire feeding main gear and the wire feeding driven wheel
- the wire feeding main gear A rotating shaft is provided
- the first transmission assembly further includes a second reversing gear arranged on the rotating shaft, and the second reversing gear is engaged with the first reversing gear.
- the consumables are fed into the wire feeding channel, the wire feeding main gear and the wire feeding driven wheel are respectively located on both sides of the consumables, and generate a certain clamping force on the side walls of the consumables.
- the first reversing gear rotates
- the second reversing gear drives the wire feeding main gear to rotate through the rotating shaft. Since the side wall of the consumables is attached to the side wall of the wire feeding main gear, when the wire feeding main gear rotates, it can be connected with the wire feeding slave.
- the moving wheel cooperates with the consumables to realize the wire feeding process.
- the stirring mechanism includes a stirring tube for feeding consumables, and the stirring tube is rotatably arranged in the pen main body; a stirring cavity is formed in the nozzle, and the stirring tube is communicated with the stirring cavity.
- the multi-color dyed consumables on the side walls are fed into the stirring tube, so that the front end of the consumables extends into the stirring chamber, the heating part generates heat, and the colored consumables in the stirring chamber are hot-melted.
- the stirring tube can stir and mix the molten colored consumables in the stirring chamber, so that the consumables of different colors are evenly stirred, and the colored consumables can also be moved to the nozzle while stirring.
- the uniformly stirred color consumables in the stirring chamber are extruded from the nozzle, so that multi-color mixing can be realized during use. After stirring, the color mixing is more uniform and the color texture is better.
- the wire feeding mechanism includes an anti-rotation structure, and the anti-rotation structure forms a limit fit with the consumables passing through the channel, thereby restricting the rotation of the consumables.
- the second transmission assembly further comprises a connecting sleeve and a stirring pipe gear coaxially arranged on the connecting sleeve, the stirring pipe gear is meshed with the stirring transmission gear, and the connecting sleeve is coaxially sleeved on the stirring pipe.
- the connecting sleeve is connected to the rear end of the stirring tube, and the connecting sleeve and the stirring tube are separated into two parts, which can prevent the consumables from entering to a certain extent.
- the phenomenon of premature melting and softening occurs.
- After a certain amount of heat insulation is used with the connecting sleeve it is easy to push the consumables and prevent the wire feeding gear set from slipping and gnawing the materials.
- the present invention further provides a 3D printing pen with a dyeing mechanism, comprising a pen body, and the pen body is provided with
- the dyeing mechanism includes a driving mechanism and a dyeing piece, the driving mechanism pushes the dyeing piece to dye the consumables; when the dyeing piece is close to the consumable, the consumable is dyed, and when the dyeing of the consumable is completed, the dyeing piece is far away from the consumable;
- the color change control part is used to control the switching of different dyeing mechanisms in cooperation with the control of several dyeing mechanisms.
- the driving mechanism when dyeing, the driving mechanism is activated to push the dyeing piece to approach the consumables, so that the surface of the consumables can be dyed; during use, a group of dyeing mechanisms can be used to dye the consumables, or both Two or more groups of dyeing mechanisms dye consumables.
- one group of dyeing mechanisms is used to dye the consumables, it is the primary color of the dyeing piece, and when multiple groups of dyeing mechanisms are used for dyeing, it is the mixed color of multiple dyeing pieces.
- the color-changing control part the color-changing process between different groups of dyeing mechanisms can be controlled. Users can choose different colors to dye the consumables according to their own preferences.
- the multi-color conversion is realized on the top of the machine, which has the effect of rich colors and strong interest. It is more flexible, diverse, and evenly dyed, and there is no need to purchase consumables of different colors, and the cost is also lower.
- the present invention is further arranged as follows: the color changing control part is set as a color changing turntable, the color changing turntable is provided with several position marks, the pen main body is provided with a positioning mark, and the color changing dial is rotated, and one of the position marks corresponds to the positioning mark.
- the driving mechanism for controlling the dyed parts of different colors can be activated, which is convenient for the user to carry out the operation intuitively. Select and toggle.
- the present invention is further arranged as follows: the dyeing piece is set as a dyeing rod, the end face of the slider close to the dyeing rod is provided with an arc-shaped groove, and the arc-shaped groove is adapted to the dyeing rod.
- the dyeing rod when the slider pushes the dyeing rod close to the consumables, the dyeing rod is embedded in the arc-shaped groove correspondingly. To a better limit, to prevent the dyeing rod from the slider.
- the present invention is further provided as follows: a bracket is arranged in the main body of the pen, the center of the bracket is provided with a through hole for the consumables to pass through, the chute is distributed around the through hole, and the chute is communicated with the through hole, and a plurality of anti-friction devices are arranged in the through hole. Shake the tendons.
- the anti-shake ribs are against the side walls of the consumables, which can prevent the consumables from shaking during the feeding and dyeing process to a certain extent, so that the dyeing is more uniform and the dyeing effect is better. it is good.
- a further arrangement of the present invention is that: the dyeing mechanisms are arranged in at least two groups.
- the dyeing mechanism is set into multiple groups, and different dyeing pieces can be mixed and matched to realize the diversification of colors, thereby increasing the interest of users in the use process.
- the present invention further provides a 3D printing pen with a stirring mechanism, which has the effects of uniform color mixing and convenient use.
- the present invention provides a 3D printing pen with a stirring mechanism, comprising a pen main body, and the pen main body is provided with:
- the stirring tube is used for the consumables to penetrate, and the stirring tube is rotated and arranged in the main body of the pen;
- the driving part is used to drive the stirring tube to rotate
- a stirring cavity for the stirring tube to extend into is formed in the nozzle, and the stirring tube is communicated with the stirring cavity;
- the heating part is used to heat the consumables in the stirring chamber.
- the consumables or multiple colored consumables whose side walls are dyed in multiple colors are fed into the stirring tube, so that the front end of the consumables extends into the stirring chamber, and the heating part generates heat, and the colored consumables in the stirring chamber are hot-melted.
- the driving part drives the stirring tube to rotate.
- the stirring tube can stir and mix the molten colored consumables in the stirring chamber, so that the consumables of different colors are evenly stirred, and the consumables can also be pushed to the nozzle while stirring.
- the uniformly stirred color consumables in the stirring chamber can be extruded from the nozzle, so that multi-color mixing can be realized during use. After stirring, the color mixing is more uniform and the color texture is better.
- the root color consumables are switched and used in turn, which also has the effect of more convenient color changing.
- the stirring tube can quickly stir the molten consumables.
- the driving component includes a driving motor and a transmission component, and the driving motor drives the stirring tube to rotate through the transmission component.
- the transmission assembly includes a stirring transmission gear and a stirring pipe gear that mesh and drive
- the stirring transmission gear is fixedly connected to the output shaft of the driving motor
- the stirring pipe gear is coaxially arranged on the stirring pipe.
- the output shaft drives the stirring transmission gear to rotate, and under the meshing action of the stirring transmission gear and the stirring pipe gear, the stirring pipe gear rotates, and at the same time, the stirring pipe can be driven to rotate.
- the transmission assembly includes a stirring transmission gear, a connecting sleeve and a stirring pipe gear coaxially arranged on the connecting sleeve, the stirring pipe gear is meshed with the stirring transmission gear, and the connecting sleeve is sleeved on the stirring pipe.
- the heating component heats the stirring chamber, and the connecting sleeve and the stirring tube are separated into two parts, to a certain extent, the consumables can be prevented from being subjected to integrated stirring before entering the stirring chamber. Due to the heat conduction of the tube, the phenomenon of premature melting and softening occurs. After a certain degree of heat insulation is carried out with a split connection sleeve, it is easy to push the consumables.
- the present invention is further arranged as follows: the connecting sleeve is set as a plastic connecting sleeve, and the stirring tube is a heat transfer stirring tube.
- the heat transfer stirring tube has good thermal conductivity, which can make the consumables in the stirring chamber melt rapidly, and the plastic connecting sleeve is used to connect to the rear end of the stirring tube. Since the thermal conductivity of plastic is relatively poorer than that of metal, and the connecting sleeve and the stirring tube are separated into two parts, to a certain extent, it can prevent the consumables from entering the stirring chamber due to the heat conduction of the heat transfer stirring tube. For the phenomenon of melting and softening, it is easy to push the consumables after using the plastic connecting sleeve for certain heat insulation.
- the present invention is further provided as follows: the end of the connecting sleeve is provided with a guiding inclined surface.
- the setting of the guiding inclined surface can facilitate the guiding of the consumables into the connection sleeve, so as to realize fast and accurate insertion.
- a further arrangement of the present invention is that: the heating component is arranged on the outer wall of the nozzle.
- the heating component is arranged on the outer wall of the nozzle, and the entire side wall of the nozzle is heated more uniformly, so that the overall melting effect of the consumables is better, which is conducive to full stirring.
- the present invention is further provided as follows: the inner wall of the nozzle and the outer wall of the stirring tube are abutted to form an overlapping portion, and the heating component is correspondingly arranged at the overlapping portion.
- the present invention provides a 3D printing pen with simultaneous stirring and wire feeding, comprising a pen body, a nozzle is provided at the front end of the pen body, and the pen body is provided with:
- Wire feeding mechanism which is used to transfer the consumables to the nozzle
- the stirring mechanism is used to stir the molten consumables in the main body of the pen;
- a first transmission component is arranged between the driving component and the wire feeding mechanism, and a second transmission component is arranged between the driving component and the stirring mechanism;
- the driving components act on the wire feeding mechanism and the stirring mechanism synchronously.
- the wire feeding mechanism is driven to move through the first transmission assembly, the wire feeding mechanism transports the consumables into the nozzle, and the heating part heats the consumables entering the nozzle to melt them,
- the stirring mechanism is driven to move synchronously through the second transmission component, and the stirring mechanism can stir and mix the molten consumables.
- the wire feeding and stirring process are carried out synchronously. Extrusion, realize the material discharge while stirring, and it is not easy to break the material.
- the single-drive dual-output method has the effect of saving energy and reducing consumption, and on the other hand, the overall structural layout has the effect of being more compact, which is convenient for users to hold.
- the present invention further provides that: the first transmission assembly includes a first reversing gear; the second transmission assembly includes a stirring transmission gear, and the first reversing gear and the stirring transmission gear are coaxially arranged on the output end of the driving component.
- the output end drives the first reversing gear and the stirring transmission gear to rotate at the same time, so that the same driving component can be used to realize dual outputs through the first transmission assembly and the second transmission assembly at the same time.
- the wire feeding mechanism comprises a wire feeding gear set
- the wire feeding gear set comprises a wire feeding main gear and a wire feeding driven wheel
- a wire feeding channel is formed between the wire feeding main gear and the wire feeding driven wheel
- the wire feeding main gear A rotating shaft is provided
- the first transmission assembly further includes a second reversing gear arranged on the rotating shaft, and the second reversing gear is engaged with the first reversing gear.
- the consumables are fed into the wire feeding channel, the wire feeding main gear and the wire feeding driven wheel are respectively located on both sides of the consumables, and generate a certain clamping force on the side walls of the consumables.
- the first reversing gear rotates
- the second reversing gear drives the wire feeding main gear to rotate through the rotating shaft. Since the side wall of the consumables is attached to the side wall of the wire feeding main gear, when the wire feeding main gear rotates, it can be connected with the wire feeding slave.
- the moving wheel cooperates with the consumables to realize the wire feeding process.
- the side wall of the wire feeding main gear is provided with an annular insert groove.
- the annular insert groove is arranged so that the side wall of the consumable material is correspondingly embedded in the annular insert groove, the consumable material is limited in the circumferential direction, and the wire can only be fed in a straight line without the side wall rotating, which can prevent feeding to a certain extent.
- the consumables are twisted and wound due to the stirring action of the front-end stirring mechanism.
- the second transmission component further includes a stirring pipe gear
- the stirring pipe gear is arranged on the stirring mechanism
- the stirring pipe gear is meshed with the stirring transmission gear
- the stirring tube gear can be driven to rotate along with it, thereby driving the stirring mechanism to realize the stirring process.
- the stirring mechanism includes a stirring tube for the consumables to penetrate, and the stirring tube is rotatably arranged in the main body of the pen; a stirring cavity is formed in the nozzle for the front end of the stirring tube to extend into, and the stirring tube is communicated with the stirring cavity,
- the driving component drives the stirring tube to rotate through the second transmission component.
- the present invention further provides a 3D printing pen with an anti-rotation structure for consumables, comprising:
- a consumable material channel which is arranged in the printing pen body for the consumable material to pass through, and the openings at both ends of the consumable material channel are a material inlet and a material outlet respectively;
- the wire feeding structure includes an anti-rotation mechanism, and the anti-rotation mechanism forms a limited fit with the consumables passing through the consumables channel, thereby restricting the rotation of the consumables.
- the anti-rotation mechanism includes two anti-rotation ribs, an anti-rotation channel is formed between the anti-rotation ribs, the consumables channel is connected with the anti-rotation channel, and the anti-rotation ribs can Contact and cooperate with the consumables passing through the anti-rotation channel, so as to limit the rotation of the consumables.
- the printing pen body is provided with a feeding mechanism, the feeding mechanism includes a driving wheel group for driving the consumables forward, the consumable material passage passes through the driving wheel group, and the anti-rotation rib arranged on the drive wheel set.
- the driving wheel set includes a driving wheel for driving the consumables forward and an auxiliary wheel for guiding the forwarding of the consumables, the driving wheel is a gear with teeth on the peripheral side, and the auxiliary wheel is a peripheral wheel. Smooth rollers on the sides.
- One of the setting methods of the anti-rotation rib is that the anti-rotation rib is arranged on the driving wheel, and a circumferential cutting groove is formed on the peripheral side of the driving wheel, and the anti-rotation rib is formed by the driving wheel. It is formed after opening a ring groove on the peripheral side.
- the anti-rotation rib is arranged on the auxiliary wheel. It is formed after opening a ring groove on the peripheral side.
- the driving wheel and the auxiliary wheel are both provided with anti-rotation ribs, and a ring is opened on the peripheral side of the driving wheel and the auxiliary wheel.
- the anti-rotation rib is formed by the peripheral side of the driving wheel and the auxiliary wheel having a ring-cut groove.
- the structure of the dyeing mechanism is further, the dyeing mechanism includes a dye ink cartridge and a coloring assembly, and the coloring assembly can coat the dye in the ink cartridge on the surface of the consumable.
- the ink cartridge includes several ink tanks, and each ink tank is filled with dyes of different colors, and the ink cartridge is also protruded with a number of rod-shaped dyeing pieces, and the dyes in the ink tank can be Infiltrating into the dyeing piece, the dyeing component pushes the dyeing piece toward the direction of the consumables passage, so that the dye on the dyeing piece is coated on the surface of the consumables.
- the present invention provides a method for using a 3D printing pen, comprising the following steps:
- the power supply part provides power for the power-consuming parts
- heating, the heating part is electrified to generate heat
- the driving mechanism is controlled by the color changing dial to selectively drive the dyeing parts to be close to the consumables, and the dyeing mechanism performs the dyeing process on the consumables extending into the channel to form the required colored consumables;
- the wire feeding mechanism drives the consumables to feed the silk, and meanwhile, the stirring mechanism stirs the colored consumables after dyeing and heating and melting;
- the feeding mechanism pushes the consumables to the nozzle, and pushes the evenly stirred molten colored consumables to extrude from the nozzle.
- the side walls of the consumables can be dyed in various colors, and the user can freely choose the color according to their own wishes. Convenience, low cost and better painting effect.
- S4 includes the following dyeing process:
- the first slider pushes the first dyeing part to move, and the first dyeing part dyes the consumables.
- the color of the molten consumable extruded from the pen body is the color of the first dyeing part color
- S1, S2, S3, S4 can be arbitrarily selected during use to realize color change.
- the present invention has the following beneficial effects:
- the side walls of the transparent consumables can be dyed to form colored consumables. It has rich colors, strong interest, flexibility and variety of effects;
- the present invention also provides a dyeing method for the consumables of the 3D printing pen, which comprises the following steps:
- the present invention also provides a 3D printing pen capable of dyeing consumables, comprising:
- the pen main body includes a nozzle, and a channel for conveying the consumables is formed in the pen main body;
- a wire feeding mechanism for conveying the consumable material to the nozzle
- a dyeing mechanism which includes an ink cartridge, a driving mechanism and a dyeing member, the dyeing member is installed on the ink cartridge, and under the action of the driving mechanism, at least a part of the dyeing member is in contact with the consumable, so that the consumable is dyed ;as well as
- a heating mechanism for heating and melting the dyed consumables.
- the present invention also provides a dyeing mechanism applied to a 3D printing pen, wherein the 3D printing pen includes a pen body, the pen body includes a nozzle, and a channel for conveying consumables is formed in the pen body, wherein the dyeing mechanism includes an ink cartridge, a driving mechanism and a dyeing piece, the dyeing piece is installed on the ink cartridge, and under the action of the driving mechanism, at least a part of the dyeing piece is in contact with the consumable in the channel, so that the consumable is dyed.
- the present invention also provides a 3D printing pen with a stirring mechanism, which includes:
- the pen main body includes a nozzle, and a channel for conveying the consumables is formed in the pen main body;
- a wire feeding mechanism for conveying the consumable material to the nozzle
- a stirring mechanism for stirring the heated and melted consumable.
- FIG. 1 is a schematic diagram of the overall structural relationship of the embodiment.
- FIG. 2 is a schematic diagram of the structural relationship of the ink cartridge and the pen main body in a separated state according to the embodiment.
- FIG. 3 is a schematic diagram of the structural relationship of the front end surface of the ink cartridge in the embodiment.
- FIG. 4 is a cross-sectional view of the embodiment.
- FIG. 5 is an enlarged view of the area A in FIG. 4 .
- FIG. 6 is a schematic diagram of the structural relationship of the color changing motor, the bracket and the pressure plate in a separated state in the embodiment.
- FIG. 7 is a schematic diagram of the structural relationship of the slider in the embodiment.
- FIG. 8 is a schematic diagram of the structural relationship between the wire feeding mechanism and the stirring mechanism in the embodiment.
- FIG. 9 is a schematic diagram of the structural relationship of the stirring mechanism and the nozzle in a separated state in the embodiment.
- FIG. 10 is a schematic diagram of the position state of the dyeing mechanism corresponding to the color changing turntable in one position in the embodiment.
- FIG. 11 is a schematic diagram of the position state of the dyeing mechanism corresponding to the color changing turntable in the second position in the embodiment.
- FIG. 12 is a schematic diagram of the position state of the dyeing mechanism corresponding to when the color changing turntable is in three positions in the embodiment.
- Fig. 13 is a schematic diagram of the position state of the dyeing mechanism corresponding to when the color changing turntable is in four positions in the embodiment.
- FIG. 14 is a schematic diagram of the position state of the dyeing mechanism corresponding to the color changing turntable in the fifth position in the embodiment.
- 15 is a schematic diagram of the position state of the dyeing mechanism corresponding to the color changing turntable in the six positions in the embodiment.
- Fig. 16 is a schematic diagram of the position state of the dyeing mechanism corresponding to the color changing turntable in seven positions in the embodiment.
- 17 is a schematic diagram of the position state of the dyeing mechanism corresponding to the color changing turntable in the eighth position in the embodiment.
- Figure 18 is a schematic diagram of the positional relationship between the dyeing assembly and the driving mechanism.
- Figure 19 is a schematic diagram of the exploded structure of the dyeing assembly.
- FIG. 20 is a three-dimensional schematic diagram of a 3D printing pen of another embodiment.
- FIG. 21 is a cross-sectional view of the 3D printing pen of another embodiment described above.
- FIG. 22 is a schematic diagram showing the structural relationship of the ink cartridge and the pen main body of the 3D printing pen in the above-mentioned another embodiment in a separated state.
- 25A and 25B are exploded schematic views illustrating the driving mechanism of the 3D printing pen according to the above-mentioned another embodiment.
- FIG. 26 and FIG. 27 are schematic diagrams illustrating the structure of the driving element of the 3D printing pen contacting and moving away from the dyeing piece according to the above-mentioned another embodiment.
- FIG. 28 and FIG. 29 are schematic structural diagrams illustrating the wire feeding mechanism and the stirring mechanism of the 3D printing pen according to another embodiment.
- FIG. 30 is a schematic structural diagram of an ink cartridge according to a modified embodiment of the 3D printing pen of the above-mentioned another embodiment.
- FIG. 31 is a schematic structural diagram of a dyeing mechanism of another modified embodiment of the 3D printing pen of the above-mentioned another embodiment.
- 32 and 33 are schematic structural diagrams illustrating another modified embodiment of the dyeing mechanism of the 3D printing pen.
- Fig. 34 and Fig. 35 are respectively a schematic structural diagram of a dyeing mechanism of another modified embodiment of the dyeing mechanism of a 3D printing pen.
- FIG. 36 and FIG. 37 are respectively schematic structural diagrams illustrating a dyeing mechanism of another modified embodiment of the dyeing mechanism of a 3D printing pen.
- FIG. 38 and FIG. 39 are respectively schematic structural diagrams illustrating a dyeing mechanism of another modified embodiment of the dyeing mechanism of the 3D printing pen.
- FIG. 40 and FIG. 41 are respectively schematic structural diagrams illustrating a dyeing mechanism of another modified embodiment of the dyeing mechanism of the 3D printing pen.
- FIG. 42 and FIG. 43 are respectively schematic structural diagrams illustrating a dyeing mechanism of another modified embodiment of the dyeing mechanism of the 3D printing pen.
- FIG. 44 and FIG. 45 are respectively schematic structural diagrams illustrating a dyeing mechanism of another modified embodiment of the dyeing mechanism of the 3D printing pen.
- FIG. 46 and FIG. 47 are respectively schematic structural diagrams illustrating a dyeing mechanism of another modified embodiment of the dyeing mechanism of the 3D printing pen.
- FIG. 48 and FIG. 49 are respectively schematic structural diagrams illustrating a dyeing mechanism of another modified embodiment of the dyeing mechanism of the 3D printing pen.
- FIG. 50 and FIG. 51 are respectively schematic structural diagrams illustrating a dyeing mechanism of another modified embodiment of the dyeing mechanism of a 3D printing pen.
- a 3D printing pen as shown in FIG. 1 , FIG. 2 and FIG. 8 , includes a pen body 1 with a pen-shaped shape, a nozzle 11 is provided at the head end of the pen body 1 , and a power supply is provided at the tail end of the pen body 1
- the socket 12 and the ink cartridge 13 detachably inserted into the pen main body 1 are provided with a number of dyeing parts 134 on the ink cartridge 13 .
- the pen main body 1 is provided with a channel 10 for the consumables to pass through.
- the pen main body 1 is also provided with a dyeing mechanism 2, a wire feeding mechanism 3 and a stirring mechanism 4.
- the dyeing mechanism 2 includes a plurality of driving mechanisms.
- the consumables are dyed, the wire feeding mechanism 3 is used to transport the consumables to the nozzle 11, the stirring mechanism 4 includes a heating part 41 for heating and melting the consumables, the heating part 41 can be set as a heating wire, and the stirring mechanism 4 is used to melt the consumables. Stir.
- a plurality of ink chambers 131 are formed in the ink cartridge 13, and the ink chambers 131 are filled with an ink storage unit 132, and the ink storage unit 132 is an ink storage sponge, (in other implementations)
- the ink storage unit 132 is an ink storage sponge, (in other implementations)
- polymer polyurethane can also be used to replace the ink storage sponge) and color dyes
- each ink chamber 131 is provided with an ink outlet 133 correspondingly, and the dyeing parts 134 are inserted into the ink outlet 133 in a one-to-one correspondence. It penetrates into the dyeing piece 134, the dyeing piece 134 has a certain elasticity, and the dyeing piece 134 can be made of rod material.
- the center of the ink cartridge 13 is provided with a wire hole 135 for the consumables to pass through along the length direction, and the three ink chambers 131 are distributed in the ink cartridge in a circle 13, and the wire hole 135 is located in the center of the ink cartridge 13, and three dyeing pieces 134 are distributed around the wire hole 135.
- the end of the ink cartridge 13 is provided with a ventilation hole 136, and the ventilation hole 136 is connected with the ink chamber 131 in a one-to-one correspondence.
- the ventilation hole 136 is used to maintain the same atmospheric pressure inside and outside the ink chamber 131 to prevent negative pressure from forming inside the ink chamber 131 when ink is discharged. As a result, the ink cannot flow out from the ink outlet 133, and in addition, the ink can be prevented from being ejected when used in an environment with low air pressure.
- the driving mechanism includes a slider 22, a color changing motor 21, and an eccentric wheel 23 arranged on the output shaft of the color changing motor 21.
- the eccentric wheel 23 includes an eccentric column 231, and the sliding
- the block 22 is provided with a strip groove 224, the opening direction of the strip groove 224 is perpendicular to the sliding direction of the slider 22, and the eccentric column 231 is slidingly matched with the strip groove 224;
- the pen main body 1 is provided with a bracket 14, and the end of the bracket 14 There are three chutes 141 for the sliding block 22 to slide in the part.
- the color changing motor 21 is fixedly installed on the bracket 14.
- the color changing motor 21 drives the sliding block 22 to move toward the dyeing piece 134, so that the dyeing piece 134 is close to the consumables.
- the dyeing piece 134 is kept away from the consumables.
- the end surface of the slider 22 close to the dyeing piece 134 is provided with an arc-shaped groove 225, and the arc-shaped groove 225 is adapted to the dyeing piece 134. 22
- the dyeing piece 134 is pushed close to the consumables, the dyeing piece 134 is correspondingly embedded in the arc-shaped groove 225.
- the setting of the arc-shaped groove 225 can play a certain role in the dyeing piece 134 when the slider 22 pushes the dyeing piece 134.
- the better position limit function prevents the dyeing piece 134 from detaching from the slider 22 .
- the ink cartridge 13 is inserted into the pen main body 1, the consumable material 8 penetrates through the wire hole 135, and the dyeing member 134 is located around the consumable material.
- the color changing motor 21 includes a first color changing motor 211, a second color changing motor 212, and a third color changing motor 213.
- the slider 22 includes a first slider 221 corresponding to the first color changing motor 211, and a first slider 221 corresponding to the second color changing motor 211.
- the second sliding block 222 of the color motor 212 and the third sliding block 223 corresponding to the third color changing motor 213, the dyeing piece 134 includes a first dyeing piece 1341 corresponding to the first sliding block 221, a second sliding block 222 corresponding to The second dyeing piece 1342 and the third dyeing piece 1343 corresponding to the third slider 223 .
- the color-changing motor 21 When the consumables are dyed, the color-changing motor 21 is activated to drive the eccentric disc 23 to rotate. When the eccentric disc 23 rotates, under the cooperation of the eccentric column 231 and the strip groove 224, the slider 22 moves toward the dyeing along the chute 141. Move in the direction of the part 134 until the dyeing part 134 is in contact with the side wall of the consumables; when the dyeing is completed, the color changing motor 21 drives the slider 22 to reset, because the dyeing part 134 is no longer pushed by the slider 22, it can Keep away from consumables under elastic force.
- the slider 22 is provided with a magnetic member 226, the pen body 1 is provided with a pressure plate 15, a branch circuit board 17 and a pressure block 16, the pressure plate 15 and the pressure block 16 cooperate to separate the circuit
- the plate 17 is pressed and fixed, and the pressure plate 15 is also provided with a sensing element 151.
- the sensing element 151 is set as a Hall sensor, and the Hall sensor cooperates with the magnetic member 226 to detect the position of the slider 22 after displacement.
- the Hall sensor can sense the position of the slider 22 for feedback in real time.
- the center of the pressing plate 15 is also provided with a limit socket 152.
- the dyeing member 134 is inserted into the limit hole 152 correspondingly, which can quickly align and limit the position.
- the center of the bracket 14 is provided with a through hole 142 for the consumables to pass through, and the chute 141 is distributed around the through hole 142, and the chute 141 is communicated with the through hole 142.
- the inner wall of the through hole 142 is provided with three anti-shake ribs 143 equidistantly distributed.
- the anti-shake rib 143 is against the side wall of the consumable, which can prevent the consumable from shaking during the feeding and dyeing process to a certain extent, and prevent the ink from remaining when the dyed consumable passes through the channel.
- the tube wall makes the dyeing more uniform and the dyeing effect is better.
- the pen main body 1 is provided with a main circuit board 18
- the power socket 12 is electrically connected to the main circuit board 18
- the main circuit board 18 is provided with an indicator light 181
- the side wall of the pen main body 1 is also provided with an electric circuit board 18 .
- the color changing turntable 182 and the thread feeding button 183 are connected to the main circuit board 18.
- the color changing turntable 182 cooperates with the color changing motor 21 of the dyeing mechanism 2.
- the color changing turntable 182 is used to control the switching of different color changing motors 21.
- the color changing dial 182 is provided with several position marks, the position marks include numbers 1, 2, 3, 4, 5, 6, 7, and 8, and the pen main body 1 is provided with a positioning mark 19, and the color changing dial 182 is rotated, wherein A location indicator corresponds to the location indicator 19 .
- the color changing dial 182 is rotated, and when the different position marks correspond to the positioning marks 19, the color changing motor 22 that controls the movement of the dyeing parts 134 of different colors can be started, which is convenient for the user to perform intuitively. Select and toggle to realize the color change process of dyeing. Users can choose different colors to dye the consumables according to their own preferences. In this way, multi-color conversion can be realized on the same consumable without replacing the consumables. There is no need to buy different colors of consumables, and the cost is also low.
- the pen main body 1 is provided with a mounting frame 5 and a driving member mounted on the mounting frame 5 .
- a second transmission assembly 7 is arranged between the transmission assembly 6 , the driving motor 51 and the stirring mechanism 4 , and the driving motor 51 acts on the wire feeding mechanism 3 and the stirring mechanism 4 synchronously.
- the first transmission assembly 6 includes a first reversing gear 61 ; the second transmission assembly 7 includes a stirring transmission gear 71 .
- the first reversing gear 61 and the stirring transmission gear 71 are coaxially disposed at the output end of the driving motor 51 .
- the output end drives the first reversing gear 61 and the stirring transmission gear 71 to rotate at the same time, so that the same driving component can be used to achieve dual outputs through the first transmission assembly 6 and the second transmission assembly 7 at the same time.
- the wire feeding mechanism 3 includes a wire feeding gear set, and the wire feeding gear set includes a wire feeding main gear 31 and a wire feeding driven wheel 32, and the wire feeding main gear 31 and the wire feeding driven wheel 32 form a feeding In the wire channel 33, the side wall of the wire feeding main gear 31 is provided with an annular insert groove 311, and the wire feed main gear 31 is provided with a rotating shaft 312.
- the wire can only be fed in a straight line but cannot be rotated on the side wall, which can prevent the fed consumables from twisting and winding due to the stirring action of the front-end stirring mechanism 4 to a certain extent;
- the first transmission component 6 also includes the same
- the shaft is disposed on the second reversing gear 62 of the rotating shaft 312 , and the second reversing gear 62 is engaged with the first reversing gear 61 .
- the consumables are fed into the wire feeding channel 33.
- the wire feeding main gear 31 and the wire feeding driven wheel 32 are located on both sides of the consumables, respectively, and generate a certain clamping force on the side walls of the consumables.
- the first reversing gear 61 When the first reversing gear 61 rotates, it drives the second The second reversing gear 62 rotates, and the second reversing gear 62 drives the wire feeding main gear 31 to rotate through the rotating shaft 312. Since the side wall of the consumables is attached to the side wall of the wire feeding main gear 31, when the wire feeding main gear 31 rotates, it can be Cooperate with the wire feed driven wheel 32 to realize the wire feeding process for the consumables.
- the circumferential side of the wire feeding main gear 31 After the circumferential side of the wire feeding main gear 31 is provided with an annular insert groove 311, two upper and lower symmetrical anti-rotation ribs 314 are formed. During the feeding process, the two anti-rotation ribs 314 are in contact with the surface of the consumables, thereby limiting the consumption of the consumables during the feeding process. turn.
- An annular insert groove 311 is provided on the peripheral side of the driving wheel, so that two upper and lower symmetrical anti-rotation ribs 314 are arranged on the peripheral side of the driving wheel to limit the rotation of the consumables during the feeding process, thereby preventing the rotation of the consumables outside the printer body.
- the consumables are entangled, and at the same time, it can avoid the situation that the dyed parts of the ink cartridges are mixed with each other due to the rotation of the consumables.
- the first transmission assembly 6 drives the wire feeding mechanism 3 to move, and the wire feeding mechanism 3 transmits the consumables into the nozzle 11.
- the second transmission assembly 7 drives the stirring mechanism 4 to move synchronously, and the stirring mechanism 4 can stir the molten consumables. Mixing, in this way, the process of feeding and stirring is carried out synchronously, and the material is discharged while stirring, and the phenomenon of material breakage is not easy to occur.
- the single-drive dual-output method has the effect of saving energy and reducing consumption
- the overall structural layout has the effect of being more compact, which is convenient for users to hold.
- the stirring mechanism 4 includes a stirring tube 42 for feeding consumables.
- the stirring tube 42 is rotatably arranged in the pen body 1 , and the nozzle 11 forms a stirring tube 42 for extending into it.
- the stirring chamber 111 is formed, and the stirring tube 42 is communicated with the stirring chamber 111.
- the inner wall of the nozzle 11 is attached to the outer wall of the stirring tube 42 to form an overlapping portion.
- the heating component 41 is arranged outside the overlapping portion.
- the driving motor 51 drives the stirring tube 42 to rotate through the second transmission assembly 7, and the second transmission assembly 7 also includes a connecting sleeve 72, which is coaxially arranged on the connecting sleeve 72.
- the stirring tube gear 721 and the connecting sleeve 72 are made of plastic material with poor thermal conductivity.
- the stirring tube gear 721 is meshed with the stirring transmission gear 71.
- the stirring tube gear 721 can be driven to rotate with it, thereby Drive the stirring tube 42 to rotate to realize the stirring process
- the connecting sleeve 72 is coaxially sleeved on the rear end of the stirring tube 42
- the stirring tube 42 is set as a metal stirring tube 42
- the rear end of the connecting sleeve 72 is provided with a flared guide slope 722
- the guide slopes 722 are provided to facilitate guiding the consumables into the connecting sleeve 72, so as to achieve fast and accurate insertion.
- the metal stirring tube 42 Since the heating member 41 heats the stirring chamber 111 , the metal stirring tube 42 has good thermal conductivity, which can make the consumables in the stirring chamber 111 melt rapidly, and the plastic connecting sleeve 72 is connected to the stirring tube 42 .
- the rear end method because the thermal conductivity of plastic is relatively poor compared to metal, and the connecting sleeve and the stirring tube 42 are separated into two parts, to a certain extent, it can prevent the consumables from entering the stirring chamber 111 due to the metal stirring tube.
- the phenomenon of early melting and softening occurs due to the heat conduction of the 42, and the plastic connecting sleeve 72 is used for a certain degree of heat insulation, which can facilitate the insertion of the consumables.
- the multi-color dyed consumables on the side walls are fed into the stirring tube 42, so that the front end of the consumables extends into the stirring chamber 111, the heating element 41 generates heat, and the colored consumables in the stirring chamber 111 are hot-melted.
- the stirring tube 42 can stir and mix the molten colored consumables in the stirring chamber 111, so that the consumables of different colors are evenly stirred, and the colored consumables can also be moved to the nozzle 11 while stirring, and the process of pushing
- the uniformly stirred color consumables in the stirring chamber 111 can be extruded from the nozzle 11 in the middle of the process. In this way, multi-color mixing can be realized during use. After stirring, the color mixing is more uniform and the color texture is better.
- the dyeing unit includes a driving mechanism and a dyeing assembly 2 , and the driving mechanism pushes the dyeing assembly 2 to dye the consumables 8 .
- the dyeing assembly 2 includes an ink cartridge 13 and a dyeing member 134 arranged on the ink cartridge 13.
- a plurality of ink chambers 131 are separated in the ink cartridge 13.
- the ink chambers 131 are filled with an ink storage unit 132, and the ink storage unit 132 may be high-density polyurethane.
- the sponge material in other embodiments, can also be any material capable of absorbing water or oil, and ink is adsorbed on the ink storage unit 132, and the ink is oil-based ink.
- Each ink chamber 131 is correspondingly provided with an ink outlet, and the dyeing pieces 134 are inserted into the ink outlet 133 in one-to-one correspondence.
- the dyeing member 134 has a certain elasticity, and the center of the ink cartridge 13 is provided with a consumables hole 135 for the consumables 8 to pass through along the length direction. There is a certain gap between the distribution and the periphery of the consumables hole 135 and with the consumables hole 135 .
- the end of the ink cartridge 13 is provided with a ventilation hole 136, and the ventilation hole 136 is connected with the ink chamber 131 in a one-to-one correspondence.
- the ventilation hole 136 is used to maintain the same atmospheric pressure inside and outside the ink chamber 131 to prevent negative pressure from forming inside the ink chamber 131 when ink is discharged. As a result, the ink cannot flow out from the ink outlet 133, and in addition, the ink can be prevented from being ejected when used in an environment with low air pressure.
- the lower end of the ink cartridge 13 is provided with a plug portion 138, and the position connected to the ink cartridge 13 on the printing pen main body 1 is provided with a plug position.
- the plug portion 138 and the plug position are precise. Match plug.
- the protective cover 137 can be covered to facilitate the storage of the ink cartridge 13 and prevent the ink from drying.
- the using method of the present invention comprises the following steps:
- the heating component 41 is energized and heated, and the indicator light 181 flashes in red.
- the indicator light 181 is always on in green, indicating that the heating is completed;
- the three dyeing parts 134 are respectively set to the three primary colors of red, yellow and blue, and the color changing dial 182 is controlled and adjusted to realize the color changing.
- the color changing process is as follows:
- the initial position of the color-changing turntable 182 is one position.
- the magnetic member 226 on the slider 22 is just below the Hall sensor.
- the corresponding state shown in FIG. 10 shows the highest detection voltage. , at this time, the transparent molten consumables are extruded from the nozzle 11;
- the color changing dial 182 rotates to the seventh position, the second color changing motor 212 returns to its original position, the first color changing motor 211 and the third color changing motor 213 rotate, and the first color changing motor 211 drives the first slider 221 to move Therefore, the first dyeing piece 1341 is pushed to dye the consumables red, and the third color changing motor 213 drives the third slider 223 to move, thereby pushing the third dyeing piece 1343 to dye the consumables blue, as shown in FIG. 16 for the corresponding state;
- the color changing dial 182 rotates to the eighth position, the three color changing motors 21 rotate at the same time, the first color changing motor 211 drives the first slider 221 to move, thereby pushing the first dyeing piece 1341 to dye the consumables red, and the second changing The color motor 212 drives the second slider 222 to move so as to push the second dyeing element 1342 to dye the consumables yellow, and the three-color changing motor 21 drives the third slider 223 to move to push the third dyeing element 1343 to dye the consumables blue, such as Figure 17 shows the corresponding state;
- the basic working principle of the present invention is as follows: in the process of use, the consumables are first fed into the channel of the pen main body 1, after the power supply component is energized, the color changing motor drives the dyeing piece to dye the side wall of the consumables, and the silk feeding mechanism 3 drives the dyeing.
- the dyed consumables are transported to the stirring mechanism 4, and when the dyed consumables extend into the stirring mechanism 4, the heating member 41 heats the solid colored consumables in the stirring mechanism 4 to melt them, and then the stirring mechanism 4 can The molten consumables are stirred.
- the wire feeding mechanism 3 pushes the consumables to move toward the stirring mechanism 4, the front end of the consumables will also push the molten colored consumables to extrude from the nozzle 11, so that 3D painting can be realized.
- the consumables can be dyed with various colors. In this way, it has the effects of rich colors, strong interest, flexibility and variety, and also has the functions of convenient use, low cost and good painting effect.
- the color changing process between different groups of dyeing mechanisms 2 can be controlled. Users can choose different colors to dye the consumables according to their own preferences.
- the multi-color conversion is realized on the consumables, which has the effect of rich colors and strong interest, and the use is more flexible and diverse, and there is no need to purchase consumables of different colors, and the cost is also lower.
- the order of the color changing motors 21 and the arrangement of the dyeing parts 134 are not limited to the order described in this embodiment, and can be adjusted adaptively by changing the program and the number of dyeing mechanisms.
- two groups of dyeing mechanisms, four groups of dyeing mechanisms, or other multiple groups of dyeing mechanisms may be used, and a driving mechanism may also be used to drive a plurality of dyeing pieces to move through a linkage structure.
- the related steps of S1-S3 can also adopt the method of loading consumables first, then powering on and heating.
- a 3D printing pen includes a pen body 1100 , a dyeing mechanism 1200 , a wire feeding mechanism 1300 and a heating mechanism 1400 .
- the pen main body 1100 includes a casing 1110, which is in the shape of a pen.
- the casing 1110 is provided with a channel 1120 for the consumables 1000 to pass through.
- the mechanism 1300 is used to transport the consumable material 1000 forward through the channel 1120 in the pen body 1100, and the heating mechanism 1400 is used to heat and melt the consumable material 1000 into a hot melt material, which is extruded from the nozzle 1120 of the pen body 1100 for use Draw 3D artwork.
- the hot-melt material extruded from the nozzle 1130 is a color material formed after being dyed by the dyeing mechanism 1200 and heated and melted by the heating mechanism 1400, so as to be used for color painting.
- the dyeing mechanism 1200 includes an ink cartridge 1210, one or more dyeing pieces 1220 and one or more driving mechanisms 1230.
- the ink cartridge 1210 includes a box body 1211, which has one or more ink chambers 1212 and corresponds to one or more ink chambers 1212 One or more ink outlet 1213, and each ink chamber 1212 of the box body stores an ink storage unit 1214, the ink storage unit 1214 includes color dyes and ink storage sponge or polymer polyurethane, and each dyeing part 1220 is inserted into the ink cartridge 1210 corresponds to the ink outlet 1213, the color dye can penetrate into the dyeing piece 1220, the dyeing piece 1220 has elasticity, and the dyeing piece 1220 can be made of fiber rods.
- the ink cartridge 1210 is provided with a ventilation hole 1215, and the ventilation hole 1215 is communicated with the corresponding ink chamber 1212, so as to keep the atmospheric pressure inside and outside the ink chamber 1212 consistent, so as to prevent the negative pressure from forming inside the ink chamber 1212 when the ink is discharged, so that the ink cannot be discharged from the ink chamber 1212.
- the ink port 1213 flows out, and in addition, it can prevent the ink from being ejected when used in an environment with low air pressure.
- the driving mechanism 1230 is used to drive the dyeing piece 1220 so that at least a part of the dyeing piece 1220 can contact and move away from the consumable 1000, so that when at least a part of the dyeing piece 1220 is in contact with the consumable 1000, the surface of the consumable 1000 can be moved It is dyed by applying the color dye.
- the driving mechanism 1230 includes a color changing motor 1231 and a driving assembly 1232.
- the driving assembly 1232 includes a driving element 1233 that can act on the dyeing piece 1220.
- the color changing motor 1231 rotates, it drives the driving element 1232.
- the driving element 1233 is moved such that the driving element 1233 of the driving assembly 1232 acts on the dyeing element 1220 so that at least a portion thereof can contact and move away from the consumable 1000 .
- the movement mode of the driving element 1233 of the driving assembly 1232 may be linear movement, curved movement, swing or rotation, etc., to push the dyeing piece 1220 to contact the consumable 1000, and when the driving element 1233 of the driving assembly 1232 is separated from the dyeing piece 1220 , the dyeing piece 1220 is automatically reset by its own elasticity so that the dyeing piece 1220 is separated from the consumable 1000 .
- the drive element 1233 of the drive mechanism 1230 is implemented as a slider, and the drive assembly 1232 of the drive mechanism 1230 further includes an eccentric disc 1234 connected to the output shaft 13111 of the color changing motor 1231, and the wheel
- the disc 1234 is provided with an eccentric column 1235
- the driving element 1233 is provided with a sliding groove 1236
- the eccentric column 1235 is located in the sliding groove 1236.
- the driving element 1233 shown in this embodiment of the present invention is a slider, and in other modified embodiments, the driving element 1232 can be implemented as a connecting rod, which is connected to the color changing motor 1231 to enable the color changing Driven by the motor 1231 , the drive element 1233 , which is embodied as a drive rod, is displaced and used to act on the dyeing piece 1220 .
- the ink cartridge 1210 has a plurality of ink chambers 1212 to store a plurality of color dyes, such as three color dyes of red, yellow, and blue.
- the corresponding dyeing mechanism 1200 includes three dyeing parts 1220, which are distributed around the consumables 1000, so that the consumables 1000 pass through the center of the three dyeing parts 1220, and the three dyeing parts 1220 are used to paint the surfaces of the consumables 1000 with red and yellow respectively. , blue color dye.
- the dyeing mechanism 1200 includes three driving mechanisms 1230 for driving the three driving elements 1233 respectively.
- Each dyeing piece 1220 has a plug end 1221 and a contact end 1222, the plug end 1221 is plugged into the ink outlet 1213 corresponding to the ink cartridge 1210, and the contact end 1222 is adapted to be pushed by the radially moving driving element 1233.
- the consumables 1000 located in the center are moved toward the consumables 1000 to contact the consumables 1000 , so that the surfaces of the consumables 1000 are coated with the color dyes carried by the corresponding dyeing pieces 1220 .
- the consumable 1000 may be in contact with one dyeing piece 1220 to be dyed with one color, or may be in contact with a plurality of dyeing pieces 1220 and different areas of the surface thereof may be dyed the same or different colors respectively.
- the contact end portion 1222 of each driving element 1233 facing the corresponding dyeing piece 1220 has a limiting groove 1237 , which can be implemented as an arc-shaped groove for moving the corresponding dyeing piece 1220 when the driving element 1233 is close to the corresponding dyeing piece 1220 .
- the contact end portion 1222 of the corresponding dyeing piece 1220 is limited in the limiting groove 1237 to prevent the contact end portion 1222 of the corresponding dyeing piece 1220 from being separated from the driving element 1233 .
- the pen body 1100 further includes a bracket 1140 , a mounting bracket 1150 and a control assembly 1160 , wherein the driving mechanism 1230 is mounted on the bracket 1140 , and the bracket 1140 includes a bracket body 1141 , a base body 1142 , a pressing plate 1143 and a pressing block 1144 , and the bracket body 1141 and the base body 1142 between the platens 1143 and 1144.
- the bracket 1140 has a through hole 1145 for the consumable material 1000 to pass through, which extends through the rack body 1141 , the seat body 1142 , the pressing plate 1143 and the pressing block 1144 .
- the bracket body 1141 is formed with three installation grooves 1146 for installing the three color changing motors 1231 of the three drive mechanisms 1230 respectively, and the base body 1142 is formed with three sliding grooves 1147 , which are respectively connected to the middle of the base body 1142 .
- Through holes 1145 the three driving elements 1233 can be driven to slide in the corresponding three sliding grooves 1147 to contact and move away from the corresponding dyeing pieces 1220.
- Each installation slot 1146 has an opening 1148 to facilitate installation and removal of the corresponding color changing motor 1231 .
- the pressing plate 1143 also has a limit insertion hole 1149, and the dyeing piece 1220 is inserted into the limit insertion hole 1149 correspondingly.
- the pen body 1100 may also include three brackets 1140 to form three mounting grooves 1146 and three sliding grooves 1147 respectively.
- Through holes 1145 are formed by a separate conduit for the passage of consumables 1000 around which three brackets 1140 are located.
- the 3D printing pen also includes a position detection mechanism to detect the moving position of the driving element 1233 and to control the movement and stop of the driving element 1233, such as through a Hall sensor, a photoelectric switch, a mechanical switch, a motor current detector, etc. .
- the driving element 1233 may be provided with a magnetic element
- the control assembly 1160 includes a sensing element, such as a Hall sensor, to sense the displacement of the driving element 1233 through the change of the magnetic field between the driving element 1233 and the driving element 1233 . .
- the mounting frame 1150 is used to install the wire feeding mechanism 1300, and the wire feeding mechanism 1300 may be a gear driving device, a screw driving device or other driving devices capable of driving the consumables forward.
- the wire feeding mechanism 1300 includes a drive motor 1310, a first transmission assembly 1320, and a wire feeding element 1330.
- the wire feed element 1330 includes two gears, which can be two drive pulleys, one drive pulley and one driven pulley, or two driven pulleys.
- the wire feeding gear set includes a wire feeding driving pulley 1331 and a wire feeding driven pulley 1332, and a wire feeding channel 1333 is formed therebetween.
- the wire feeding driving pulley is driven by the first transmission assembly 1320.
- 1331 rotates, and the consumables 1000 are transported forward by the wire feed driving pulley 1331 and the wire feed driven pulley 1332 in the wire feeding channel 1333.
- the wire feeding main gear 1331 is provided with a rotating shaft 1334
- the first transmission assembly 1320 includes a first reversing gear 1321 meshing with a second reversing gear 1322 arranged on the rotating shaft 1334.
- the first reversing gear 1321 is coupled to Connected to the output shaft 1311 of the drive motor 1310 .
- the wire feed main gear 1331 can be driven to rotate.
- the wire feeding main gear 1331 is also provided with an annular insert groove 1335 along its circumference, so as to form two anti-rotation ribs 1336 on both sides thereof, which can contact the surface of the consumable 1000, thereby preventing the consumable 1000 from being damaged when it is transported forward. necessary rotation.
- the control component 1160 is used to control the operation of the 3D printing pen, which can be used to control the rotation of the driving motor 1131 and the color changing motor 1231 .
- the control assembly 1160 includes a main circuit board 1161 and a branch circuit board 1162.
- the branch circuit board 11662 can be used to control the operation of the color changing motor 1231, and the main circuit board 1161 is used to implement other controls.
- the main circuit board 1161 and the sub-circuit board 1162 can be independent or electrically connected to each other. Of course, all electrical control can also be achieved through the same circuit board.
- control assembly 1160 further includes a power module 1163 , an indicator light 1164 , a color changing dial 1165 , a wire feed button 1166 and a positioning mark 1167 .
- the power module 1163 may be a power socket for connecting to an external power source. It is understood that the power module 1163 may also include a rechargeable battery.
- the indicator light 1164 can be used to indicate the running status of the 3D printing pen, such as indicating the power-on status, the heating mechanism 1400 heating to reach a preset temperature, and the like.
- the color changing turntable 1165 is electrically connected to the main circuit board 1161 or the sub-circuit board 1162 for controlling the switching of different color changing motors 1231 .
- the color changing dial 1165 is provided with a plurality of position marks, and when it is rotated, one position mark corresponds to the positioning mark provided on the pen main body 1110, thereby indicating the selected dyeing color.
- the channel 1120 for the consumable material 1000 to pass through may be formed by a separate pipe, or may be formed by components such as the ink cartridge 1210 and the bracket 1140 .
- the ink cartridge 1220 is provided with a wire hole 1216
- the bracket 1140 is formed with a through hole 1145 for the consumable 1000 to pass through.
- a plurality of equidistant anti-shake ribs 1121 may be arranged in the channel 1120, for example, may be arranged in the through holes 1145 of the bracket 1140 to prevent the consumables from shaking during the forward conveying and dyeing process.
- the heating mechanism 1400 includes a heating component 1410, and the heating component 1410 may be a heating resistance wire, a heating film, a metal ceramic heating element (MCH), a PTC heating element, or the like. In an embodiment, it is a heating resistance wire and is electrically connected to the main circuit board 1161 of the control assembly 1160, and heats the consumable 1000 by means of electric heating.
- the heating component 1410 may be a heating resistance wire, a heating film, a metal ceramic heating element (MCH), a PTC heating element, or the like. In an embodiment, it is a heating resistance wire and is electrically connected to the main circuit board 1161 of the control assembly 1160, and heats the consumable 1000 by means of electric heating.
- MCH metal ceramic heating element
- the 3D printing pen further includes a stirring mechanism 1500 for stirring the melted dyed colored consumables 1000 to make the colored consumables 1000 evenly mixed.
- the nozzle 1130 is formed with a stirring chamber 1131, and the stirring mechanism 1500 may include a stirring blade disposed in the stirring chamber 1131 and driven to rotate.
- the stirring mechanism 1500 includes a stirring tube 1510 for feeding the consumables 1000 and a second transmission assembly 1520 .
- the stirring tube 1510 is made of metal and can be rotated by a separate motor.
- the second transmission assembly 1520 is also coupled to the drive motor 1310 , so that the stirring tube 1510 is driven by the drive motor 1310 .
- the second transmission assembly 1520 includes a plastic connecting sleeve 1521 coaxially sleeved on the rear end of the stirring tube 1510 , a stirring tube gear 1522 coaxially disposed on the connecting sleeve 1521 , and an output shaft 1311 disposed on the driving motor 1310 .
- the stirring transmission gear 1523, the stirring pipe gear 1522 meshes with the stirring transmission gear 1523, so that when the driving motor 1320 rotates and drives the stirring transmission gear 1523 to rotate, the stirring pipe gear 1522 also drives the connecting sleeve 1521 to rotate with the rotation to further drive the stirring.
- the tube 1510 is rotated to stir the molten colored consumables 1000 in the stirring chamber 1131 evenly.
- the dyeing mechanism 1200 includes a plurality of ink cartridges 1210, each ink cartridge 1210 is installed with a dyeing member 1220, and at least A part can be pushed by the corresponding drive element 1233 .
- the ink cartridges 1210 do not need to form wire holes 1216.
- the pen body 1110 of the 3D printing pen further includes a conveying conduit 1170 for conveying the consumables 1000 forward.
- the channel 1120 of the pen main body 1110 for conveying consumables is formed by the conveying pipe 1170, and the channel 1120 exposes the consumables 1000 at the dyeing position of the dyeing mechanism 1200 and the position of the thread feeding mechanism 1300 to facilitate dyeing. and the driving operation of the forward wire.
- the 3D printing pen includes a dyeing mechanism 1200 , a wire feeding mechanism 1300 and a heating mechanism 1400 .
- the dyeing mechanism 1200 includes an ink cartridge 1210, a dyeing member 1220 and a driving mechanism 1230.
- the dyeing member 1220 is located between the heating member 1410 of the heating mechanism 1400 and the wire feeding element 1330 of the wire feeding mechanism 1300, so that the dyeing position of the consumables 1000 is located in the wire feeding mechanism 1300 between the wire feeding element 1330 and the heating element 1410 of the heating mechanism 1400.
- the wire feeding element 1330 conveys the dyed consumables 1000 to the heating mechanism 1400 .
- the consumables 1000 are transported forward by the wire feeding mechanism 1300 to the position of the dyeing element 1220 located in front of the wire feeding mechanism 1300 to be dyed, so that the wire feeding elements 1330 of the wire feeding mechanism 1300 such as wire feeding gears,
- the wire feeding thread or other wire feeding driving devices will not be dyed, so as to prevent the wire feeding element 1330 of the wire feeding mechanism 1300 from being coated with colored dyes, which will cause the subsequent switching of different dyeing elements 1220 to dye the consumables 1000 to produce color crossover.
- the ink cartridge 1210 is located between the heating mechanism 1400 and the wire feeding mechanism 1300 .
- the ink cartridge 1210 also has a plurality of ink filling valves 1217 for filling the corresponding ink chambers 1212 with color dyes, so that when the 3D printing pen needs to add ink, the ink cartridge 1210 does not need to be taken out from the pen body 1100 .
- the dyeing mechanism 1200 includes the above-mentioned ink cartridge 1210 , a dyeing member 1220 and a driving mechanism 1230 .
- the driving mechanism 1230 includes a driving motor 1231 and a driving assembly 1232, wherein the driving assembly 1232 includes a driving element 1233, a driving link 1238, and a sliding rod 1239, wherein the driving element 1233 is slidably disposed on the sliding rod 1239, and drives the
- the link 1238 is coupled to the driving motor 1231 and includes a first driving rod 12381 and a second driving rod 12382, which are pivotally connected to each other, the first driving rod 12381 is coupled to the output shaft of the driving motor 1231, and the driving element 1233 Connected to the second drive rod 12382.
- the driving motor 1231 rotates, driving the first driving rod 12381 to pivot, and the second driving rod 12382 is also driven to rotate, thereby driving the driving element 1233 implemented as a slider to move to be in contact with at least a part of the dyeing piece 1220.
- the dyeing member 1220 is contacted and pushed, so that the dyeing member 1220 is in contact with the consumable 1000 , so that the dyeing operation is performed on the consumable 1000 .
- the driving motor 1231 When it is necessary to replace another dyeing piece 1220 to dye the consumable 1000, the driving motor 1231 is reversed, driving the first driving rod 12381 to pivot in the reverse direction, and the second driving rod 12382 is also driven to rotate in the reverse direction, thereby driving the driving element 1233 to reset so as to be away from the corresponding dyeing piece 1220 . Then another driving motor 1231 is activated to drive another driving element 1233 to contact the corresponding dyeing member 1220 of another color, thereby realizing the color-changing dyeing operation.
- the driving mechanism 1230 of the dyeing mechanism 1200 includes a driving motor 1231 and a driving element 1233 coupled to the output shaft 12311 of the driving motor 1231, wherein the driving element 1233 is driven by the rotating driving motor 1231 to rotate synchronously to contact and move away from the dyeing piece 1220 .
- the driving motor 1231 rotates, driving the driving element 1233 to rotate so as to contact at least a part of the dyeing piece 1220 and push the dyeing piece 1220, so that the dyeing piece 1220 contacts the consumable 1000, so that the consumable 1000 Carry out the dyeing operation.
- the driving motor 1231 is reversed to drive the driving element 1233 to be reversed to reset and move away from the corresponding dyeing piece 1220 . Then another driving motor 1231 is activated to drive another driving element 1233 to contact the corresponding dyeing member 1220 of another color, thereby realizing the color-changing dyeing operation.
- the dyeing piece 1220 can be further attached to the driving element 1233, so that the dyeing piece 1220 can form an integral structure with the driving element 1233, so that when the driving element 1233 moves, it drives the dyeing piece 1220 Move so that the dyeing piece 1220 contacts and moves away from the consumable 1000 .
- the 3D printing pen includes a dyeing mechanism 2200
- the dyeing mechanism 2200 includes an ink cartridge 2210, a dyeing member 2220 and a driving mechanism 2230
- the dyeing member 2220 and The working manner of the driving mechanism 2230 is different from the above-mentioned embodiment.
- the driving mechanism 2230 includes a driving switch 2231 , a transmission part 2232 and a driving element 2233 .
- the user can manually operate the drive switch 2231 provided on the above-mentioned pen body 1100 to drive the transmission member 2232 to move, thereby further driving the drive element 2233 to generate displacement.
- a part such as pushing the contact end 2222 of the dyeing piece 2220.
- the transmission part 2232 moves backward, so that the driving element 2233 also moves backward at the same time to push the dyeing piece 2220.
- the contact end 2222 of the dyeing member 2220 is brought into contact with the consumable 1000, so that the consumable 1000 is dyed.
- the driving element 2233 may have a pushing surface 2234, which may be an inclined surface or a curved surface, so as to facilitate acting on the contact end 2222 of the dyeing element 2220.
- the driving switch 2231 When the dyeing piece 2220 does not need to be used for dyeing, the driving switch 2231 is pushed forward, the transmission part 2232 moves forward, so that the driving element 2233 also moves forward at the same time, so that the driving element 2233 contacts the end 2222 of the dyeing piece 2220
- the contact end 2222 of the dyeing piece 2220 is separated from the consumable 1000, so that another driving element 2233 can be driven to act on the other dyeing piece 2220 to perform another color dyeing operation on the consumable 1000.
- the 3D printing pen includes a dyeing mechanism 2200, which includes an ink cartridge 2210, a dyeing member 2220 and a driving mechanism 2230, and the dyeing member 2220 and the driving mechanism 2230 works differently from the above embodiments.
- the driving mechanism 2230 includes a driving switch 2231 , a transmission part 2232 and a driving element 2233 .
- the user can manually operate the drive switch 2231 provided on the pen body 1100 to drive the transmission member 2232 to rotate, thereby further driving the drive element 2233 to rotate.
- the drive element 2233 has a push surface 2234 to push the dyeing piece 2220 At least a part of, such as pushing the middle part 2223 of the dyeing piece 2220.
- the pushing surface 2234 extends in the circumferential direction and is a curved surface or an inclined surface, which has a convex peak surface 22341 and a valley surface 22342.
- the transmission member 2232 drives the driving element 2233 to rotate to make the driving switch 2231 rotate.
- the peak surface 22341 acts on the middle portion 2223 of the dyeing piece 2220
- the middle portion 2223 of the dyeing piece 2220 is pushed and the end portion 2222 of the dyeing piece 2220 contacts the consumable 1000 , so that the consumable 1000 is dyed.
- the driving switch 2231 When the driving switch 2231 is reversed so that the transmission member 2232 drives the driving element 2233 to reverse so that its valley surface 22342 acts on the middle portion 2223 of the dyeing piece 2220, the middle portion 2223 of the dyeing piece 2220 is away from the consumable 1000, thereby stopping using the current
- the dyeing unit 2220 performs dyeing operations on the consumable 1000.
- the 3D printing pen includes a dyeing mechanism 3200, which includes an ink cartridge 3210, a dyeing member 3220 and a driving mechanism 3230, and the dyeing member 2220 and the driving mechanism 2230 works differently from the above embodiments.
- the driving mechanism 3230 includes a driving seat 3231 and a driving element 3233, wherein the driving element 3233 is magnetically driven by the driving seat 3231 to be capable of reciprocating displacement.
- the driving seat 3231 can be implemented as a voice coil motor, which is electrically connected to the main circuit board 1161 of the above-mentioned control assembly 1160, and is provided with a magnet to generate a magnetic field, a coil is provided in the driving element 3233, and the use of the driving element 3233 in the driving seat 3231 It moves down and back, and reciprocally abuts and moves away from at least a part of the dyeing piece 3220 so that the dyeing piece 3220 periodically contacts the consumable 1000 , thereby dyeing the consumable 1000 periodically.
- a voice coil motor which is electrically connected to the main circuit board 1161 of the above-mentioned control assembly 1160, and is provided with a magnet to generate a magnetic field, a coil is provided in the driving element 3233, and the use of the driving element 3233 in the driving seat 3231 It moves down and back, and reciprocally abuts and moves away from at least a part of the dyeing piece 3220 so that the dyeing piece 3220 periodically contacts the consumable 1000 ,
- FIGS. 40 and 41 are another variant embodiment of the above-mentioned 3D printing pen, wherein in FIGS. 40 and 41 , the driving element 3233 is driven to move radially back and forth to act on the dyeing member 3220 to cause at least a part of the dyeing member 3220 Approach toward the filament in the center.
- the driving element 3233 is driven by the driving seat 3231 to move along the length direction of the 3D printing pen, and the driving element 3233 is provided with a pushing surface 3234, which is an inclined surface or a curved surface, and when the driving element 3233 reciprocates, its pushing surface 3234 acts on the contact end 3222 of the dyeing member 3220 to move the contact end 3222 of the coloring member 3220 radially toward the consumable 1000 located in the center of the pen body 1100 to contact or move away from the consumable 1000 .
- a pushing surface 3234 which is an inclined surface or a curved surface
- the dyeing pieces 3220 can be brought into contact with the consumables 1000 at the same time, or the dyeing pieces 3220 can be brought into contact with the consumables 1000 at staggered times. .
- the 3D printing pen includes a dyeing mechanism 4200 , which includes an ink cartridge 4210 , a dyeing member 4220 and a driving mechanism 4230 .
- the driving mechanism 4230 includes a driving control member 4231 and a driving element 4233 , and the driving element 4233 is capable of generating deformation to act on the dyeing member 4220 .
- the driving control member 4231 is an inflatable pump device, which includes components such as an air pump, an inflation and deflation valve, and a connecting pipe, and the driving element 4233 is an inflatable device.
- the driving control member 4231 inflates the driving member 4233, the driving member 4233 is inflated and expanded to deform, so that the deformed driving member 4233 acts on the dyeing member 4220 to push at least a part of the dyeing member 4220 to contact the consumable 1000, so as to realize the operation of the consumable 1000. dyeing operation.
- the driving control part 4231 makes the driving element 4233 deflate, the deflated driving element 4233 no longer pushes the dyeing piece 4220, and the dyeing piece 4220 is automatically reset to match the consumable 1000. separation.
- the 3D printing pen includes a dyeing mechanism 4200 , which includes an ink cartridge 4210 , a dyeing member 4220 and a driving mechanism 4230 .
- the driving mechanism 4230 includes a driving control member 4231 and a driving element 4233 , and the driving element 4233 is capable of generating deformation to act on the dyeing member 4220 .
- the driving control member 4231 is a thermally deformable driving device, which includes components such as a heating element and a temperature control, and the driving element 4233 is a thermally deformable device.
- the driving control element 4231 controls the driving element 4233 to be heated to expand to deform
- the deformed driving element 4233 acts on the dyeing element 4220 to push at least a part of the dyeing element 4220 to contact the consumable 1000 to realize the dyeing operation of the consumable 1000 .
- the driving control element 4231 shrinks the driving element 4233, the retracted driving element 4233 no longer pushes the dyeing element 4220, and the dyeing element 4220 is automatically reset to be separated from the consumable 1000.
- the 3D printing pen includes a dyeing mechanism 5200 , which includes an ink cartridge 5210 , a dyeing member 5220 and a driving mechanism 5230 .
- the driving mechanism 5230 is used to drive the ink cartridge 5210 to move, so that the moving ink cartridge 5210 drives the dyeing member 5220 to move to contact and move away from the consumable 1000 .
- the 3D printing pen further includes the above-mentioned pen main body 1100 , and a conveying pipe 1170 is provided in the pen main body 1100 for conveying the consumables 1000 .
- the dyeing mechanism 5200 includes a plurality of ink cartridges 5210, and each ink cartridge 5210 is installed with a dyeing member 5220. These ink cartridges 5210 are arranged around the delivery duct 1170 .
- the plug end 5221 of the dyeing piece 5220 is plugged into the corresponding ink cartridge 5210, and the contact end 5222 is an enlarged part whose diameter is larger than that of other parts.
- the driving mechanism 5230 includes a plurality of driving control members 5231, which can be respectively disposed on the corresponding ink cartridges 5210, so that the driving control members 5231 are rotated to drive the ink cartridges 5210 to rotate, as shown in FIG. The position where the consumables 1000 are in contact, so that the dyeing operation is performed on the consumables 1000 .
- the drive control 5231 may be manually driven.
- the driving control member 5231 may also include a rotating motor for driving the ink cartridge 5210 to rotate.
- the driving control element 5231 inverts the corresponding ink cartridge 5210, and the inverted ink cartridge 5210 resets the dyeing element 5220 to be separated from the consumable 1000.
- the dyeing mechanism 5200 may also include an integral ink cartridge 5210 on which a plurality of dyeing parts 5220 are mounted, and the conveying pipe 1170 may not be in the center of the ink cartridge 5210, but eccentrically arranged , so that when the entire ink cartridge 5210 is driven to rotate, one of the dyeing pieces 5220 is brought into contact with the consumable 1000 conveyed by the eccentrically arranged conveying pipe 1170 , so that the consumable 1000 is dyed.
- the 3D printing pen includes a dyeing mechanism 5200 , which includes an ink cartridge 5210 , a dyeing member 5220 and a driving mechanism 5230 .
- the driving mechanism 5230 is used to drive the ink cartridge 5210 to swing, so that the moving ink cartridge 5210 drives the dyeing member 5220 to swing to contact and move away from the consumable 1000 .
- the 3D printing pen further includes the above-mentioned pen main body 1100 , and a conveying pipe 1170 is provided in the pen main body 1100 for conveying the consumables 1000 .
- the dyeing mechanism 5200 includes an ink cartridge 5210, and the ink cartridge 5210 is installed with a plurality of dyeing pieces 5220. These dyeing pieces 5220 are arranged around the delivery pipe 1170 .
- the driving mechanism 5230 includes a driving control member 5231, which can be respectively disposed on the corresponding ink cartridge 5210, so that the driving control member 5231 is toggled to drive the ink cartridge 5210 to swing, as shown in FIG. 1000 contacts, so that the consumable 1000 is dyed.
- the driving mechanism 5230 may further include a limiting device for maintaining the position of the ink cartridge 5210 .
- the limiting device may be a pivot seat on which the ink cartridge 5210 is mounted so that the ink cartridge 5210 can be driven to pivot relative to the pivot seat.
- the limiting device of the driving mechanism 5230 may include a structure for detachably mounting the ink cartridge 5210 on the inner wall of the housing 1110 of the pen body 1100 .
- Adsorption elements 5211 and 1111 When the driving control member 5231 drives the ink cartridge 5210 to swing, its driving force is greater than the adsorption force between the magnetic adsorption elements 5211 and 1111, so that the ink cartridge 5210 swings.
- the suction force of another set of magnetic suction elements 5211 and 1111 on the inner wall of 1110 keeps the ink cartridge 5210 fixed.
- a pair of ink cartridges 5210 can also be provided with corresponding magnetic adsorption elements, and after the two ink cartridges 5210 are driven to move, they are adsorbed together by the magnetic adsorption elements, and the consumables 1000 can be clamped It is held between the two dyeing pieces 5220 to be dyed by the two dyeing pieces 5220.
Landscapes
- Chemical & Material Sciences (AREA)
- Engineering & Computer Science (AREA)
- Materials Engineering (AREA)
- Manufacturing & Machinery (AREA)
- Physics & Mathematics (AREA)
- Mechanical Engineering (AREA)
- Optics & Photonics (AREA)
Abstract
本发明公开了一种3D打印笔及其使用方法,笔主体设置有喷嘴及供电部件,笔主体内开设有供耗材穿过的通道,笔主体还设置有染色机构,染色机构包括有驱动机构和若干染色件,驱动机构推动染色件对耗材进行染色;进丝机构,用于将耗材向喷嘴传输;加热部件,用于对耗材加热熔融;搅拌机构,用于对熔融的耗材进行搅拌。本发明具有以下优点和效果:采用在笔主体内设置若干组染色机构、进丝机构以及搅拌机构的方式,染色后的彩色耗材经搅拌机构热熔搅拌均匀后从喷嘴挤出实现3D作画,具有色彩丰富、趣味性强、灵活、多样的效果,且使用更方便。
Description
本发明涉及3D打印技术领域,特别涉及一种3D打印笔及其使用方法。
随着科技的发展,3D打印技术越来越普遍地应用于各个领域,与此同时,3D打印技术也以更多种类型产品的形式出现在人们的生活中,如3D打印笔就是其中一种。与3D打印机通过机械臂带动打印喷头的移动实现3D打印不同的是:3D打印笔由人手操控,3D打印笔可以根据人的意愿来实现立体作画,也就是说,用户仅仅需要通过传统的画笔操作就能够在三维环境下绘制立体图案。目前,3D打印笔采用热熔沉积技术,其内的笔墨采用热熔材料,例如PLA(聚乳酸)材料或ABS(丙烯腈-丁二烯-苯乙烯共聚物)材料,通常也称为耗材。在使用过程中,3D打印笔内的热熔材料经过加热后从笔头挤出,然后热熔材料冷却形成3D绘制的图案。
现有的3D打印笔,使用过程中,可在壳体内同时插入多种不同颜色的耗材,但是不同耗材之间无法实现同时热熔混色,色彩较单一,无法实现多种颜色混合使用。
另外,现有的3D打印笔通常仅采用单色耗材,在绘制过程中,使用者在换色时需向打印笔中加入不同颜色的耗材实现色彩的切换,如此,存在以下缺点:一方面,色彩较单一,使用过程较乏味,另一方面,需经常更换不同颜色的耗材,存在使用较不便的缺点。
另外,一种现有的彩色3D打印笔,包括打印笔主体,打印笔主体内腔顶部设有第一步进电机,第一步进电机底部固定设有支架,支架底部设有第二步进电机,第二步进电机底端连接有L棒,第二步进电机底部设有压力气泵,压力气泵底部设有笔芯组,笔芯组之间设有搅拌导杆,搅拌导杆贯穿压力气泵与第二步进电机连接,笔芯组顶部一侧均设有压力阀门开关,压力阀门开关与L棒末端卡接。使用过程中,主要通过第一步进电机控制进料,通过第二步进电机控制搅拌过程。因此,在使用过程中需双驱动作为驱动力,一方面,存在较耗能较大的问题,另一方面,在打印笔主体内设置两个驱动源,存在整体体积较大的缺点,不利于用户握持。
一种现有的3D打印笔,采用驱动齿轮带动打印耗材输送,驱动齿轮与滚轮配合保持打印耗材的输送的稳定,其中的驱动齿轮在带动耗材进料的过程中,耗材难免会发生转动,但由于位于3D打印笔内的耗材是与外部剩余的耗材卷一体的,3D打印笔内的耗材转动也会带动外部的耗材一起转动,进而容易导致外部的耗材缠绕,这便会对进料以及使用者的操作都产生影响。
另外,一种现有的自动着色的3D打印墨盒,包括墨盒本体,沿墨盒本体的轴向开设有贯穿的耗材孔,墨盒本体上设有基色区和调色区,基色区内设有三个用于放置染料粉末的调色盒,朝向耗材孔一侧的基色盒和调色盒上均开设有与耗材孔连通的着色孔,墨盒本体的外 侧壁上开设有多个分别与基色盒、调色盒连通的进风孔,墨盒本体的周向设有绕墨盒本体旋转的驱动筒,驱动筒内侧设有可向进风孔充入空气的喷嘴,喷嘴随驱动筒绕墨盒本体旋转,进风孔处铰接有能被喷嘴抵开且能自动复位的单向门。该发明的设置无需中端打印工作来增加或更换相应颜色的线型耗材,使用方便的同时保证打印工作的连续性。
上述现有的3D打印笔的结构复杂,需要向墨盒内吹气才能使墨盒内的染料粉末喷出到线型耗材上,染料粉末在喷出的过程中容易在设备的其他结构上沾染,破坏设备的整洁。同时,现有的3D打印笔在染色时,仅能染上与墨水颜色一致的色彩,而无法控制上色浓度,打印出的产品颜色单一操作性差。
发明内容
本发明的目的是提供一种3D打印笔,采用对耗材进行染色的方式,具有色彩丰富、趣味性强、灵活、多样、染色均匀的效果。本发明的另一目的是提供一种3D打印笔的使用方法,具有使用更方便的效果。
本发明的上述技术目的是通过以下技术方案得以实现的:
一种3D打印笔,包括笔主体,所述笔主体设置有喷嘴,所述笔主体内开设有供耗材穿过的通道,其中所述主体还设置有
进丝机构,用于将耗材向喷嘴传输;
染色机构,所述染色机构包括有驱动机构和若干个染色件,所述驱动机构推动其中一个或多个染色件同时对耗材进行染色。
本发明的3D打印笔,进一步设置有,加热部件,用于对耗材加热熔融;以及,搅拌机构,用于对熔融的耗材进行搅拌。
通过采用上述技术方案,使用过程中,先将耗材送入至笔主体的通道内,供电部件通电后,驱动机构驱动染色件对耗材侧壁进行染色,进丝机构驱动染色后的耗材向搅拌机构输送,当染色后的耗材伸入至搅拌机构内时,加热部件对搅拌机构内的固体状彩色耗材进行加热,使其熔融,随后,搅拌机构即可对熔融的耗材进行搅拌,在进丝机构推动耗材向搅拌机构运动的同时,耗材前端还会推动熔融的彩色耗材从喷嘴挤出,即可实现3D立体作画,通过多组染色机构的配合,可对耗材染上各种色彩,如此,具有色彩丰富、趣味性强、灵活、多样化、染色均匀的效果。
本发明的进一步设置为:笔主体上还设置有换色转盘,换色转盘与染色机构控制配合,换色转盘用于控制驱动机构对染色件的切换。
通过采用上述技术方案,用户可通过转动换色转盘,控制不同组别的染色机构之间实现换色过程,用户可根据自己的喜好,自行选择不同的颜色对耗材进行染色,如此,无需更换耗材,即可在同一根耗材上实现多色转换,无需购买不同颜色的耗材,成本也较低。
本发明的进一步设置为:驱动机构包括有滑块,滑块向靠近染色件的方向运动,使得染色件贴近耗材。
通过采用上述技术方案,当耗材染色时,滑块向靠近染色件的方向运动,直至染色件与 耗材侧壁相贴;当染色完成后,滑块复位,使染色件远离耗材。
本发明的进一步设置为:驱动机构还包括换色电机、设于换色电机输出轴的偏心轮盘,偏心轮盘包括有偏心柱,滑块开设有条形槽,偏心柱与条形槽滑移配合;笔主体内设置有供滑块滑移的滑槽。
通过采用上述技术方案,当换色电机启动时,带动偏心轮盘转动,偏心轮盘转动时,在偏心柱与条形槽的配合带动作用下,使得滑块沿滑槽向靠近或远离染色件运动,即可实现滑块推动染色件的过程。
本发明的进一步设置为:笔主体内设置有驱动部件,驱动部件与进丝机构间设有第一传动组件,驱动部件与搅拌机构间设有第二传动组件,驱动部件同步作用于进丝机构和搅拌机构。
通过采用上述技术方案,使用过程中,驱动部件启动后,通过第一传动组件驱动进丝机构运动,进丝机构将耗材向喷嘴内传送,另外还通过第二传动组件驱动搅拌机构同步运动,搅拌机构即可对熔融的耗材进行搅拌混匀,如此,使得进丝和搅拌过程同步进行,实现边搅拌边出料,不易出现断料现象。此外,一方面,采用单驱动双输出的方式,具有节能减耗的效果,另一方面,在整体结构布局上具有结构更紧凑的效果,便于用户握持。
本发明的进一步设置为:第一传动组件包括第一换向齿轮;第二传动组件包括搅拌传动齿轮,第一换向齿轮和搅拌传动齿轮均同轴设于驱动部件的输出端。
通过采用上述技术方案,当驱动部件启动时,输出端同时带动第一换向齿轮和搅拌传动齿轮转动,如此即可采用同一驱动部件通过第一传动组件和第二传动组件同时实现双输出。
本发明的进一步设置为:进丝机构包括送丝齿轮组,送丝齿轮组包括送丝主齿轮和送丝从动轮,送丝主齿轮与送丝从动轮间形成送丝通道,送丝主齿轮设有转轴;第一传动组件还包括设于转轴的第二换向齿轮,第二换向齿轮与第一换向齿轮相啮合。
通过采用上述技术方案,耗材送入送丝通道内,送丝主齿轮和送丝从动轮分别位于耗材两侧,并对耗材侧壁产生一定的夹紧力,当第一换向齿轮转动时,带动第二换向齿轮转动,第二换向齿轮通过转轴带动送丝主齿轮转动,由于耗材侧壁贴于送丝主齿轮的侧壁,当送丝主齿轮转动时,即可与送丝从动轮配合对耗材实现进丝的传送过程。
本发明的进一步设置为:搅拌机构包括有供耗材送入的搅拌管,搅拌管转动设于笔主体内;喷嘴内形成有搅拌腔,且搅拌管与搅拌腔相连通。
通过采用上述技术方案,将侧壁经多色染色的耗材送入至搅拌管内,使得耗材前端伸入至搅拌腔中,加热部件发热,将搅拌腔内的彩色耗材热熔,驱动部件启动后,带动搅拌管转动,如此,搅拌管即可对搅拌腔中熔融的彩色耗材进行搅拌混合,使得不同颜色的耗材搅拌均匀,在搅拌的同时还可推动彩色耗材向喷嘴运动,推动过程中即可将搅拌腔内搅拌均匀的彩色耗材从喷嘴挤出,如此,在使用过程中可实现多色混合,经搅拌后混色较均匀、色彩质感较好。
本发明的进一步设置为:进丝机构包括防转结构,所述防转结构与经过所述通道的耗材形成限位配合,从而限制耗材的转动。
本发明的进一步设置为:第二传动组件还包括有连接套、同轴设于连接套的搅拌管齿轮,搅拌管齿轮与搅拌传动齿轮相啮合,连接套同轴套接于搅拌管。
通过采用上述技术方案,由于加热部件对搅拌腔内进行加热,采用连接套连接于搅拌管的后端的方式,将连接套与搅拌管分开设置为两个部件,在一定程度上可防止耗材在进入至搅拌腔内前,由于受到搅拌管的热传导而发生提前熔融、软化的现象,采用连接套进行一定隔热后,可便于推入耗材,防止送丝齿轮组打滑啃料。
本发明进一步提供了一种带有染色机构的3D打印笔,包括笔主体,笔主体设置有
若干组染色机构,染色机构包括有驱动机构和染色件,驱动机构推动染色件对耗材进行染色;当染色件贴紧耗材时,耗材被染色,当耗材染色完成后,染色件远离耗材;
换色控制件,与若干染色机构控制配合,用于控制不同染色机构的切换。
通过采用上述技术方案,染色时,驱动机构启动,推动染色件向耗材靠近,如此,即可对耗材表面进行染色;在使用过程中,可采用一组染色机构对耗材进行染色,也可同时采用两组或多组染色机构对耗材染色,当采用一组染色机构染色时,即为染色件原色,当多组染色机构染色时,即为多个染色件的混合色。通过调节换色控制件可控制不同组别的染色机构之间实现换色过程,用户可根据自己的喜好,自行选择不同的颜色对耗材进行染色,如此,无需更换耗材,即可在同一根耗材上实现多色转换,具有色彩丰富、趣味性强的效果,使用更灵活、多样、染色均匀,且无需购买不同颜色的耗材,成本也较低。
本发明的进一步设置为:换色控制件设置为换色转盘,换色转盘上设置有若干位置标识,笔主体上设置有定位标识,转动换色转盘,其中一个位置标识与定位标识相对应。
通过采用上述技术方案,当耗材被染的颜色进行更换时,转动换色转盘,当不同的位置标识对应于定位标识时,即可使得控制不同颜色染色件的驱动机构启动,方便用户直观地进行选择和切换。
本发明的进一步设置为:染色件设置为染色棒,滑块靠近染色棒的端面开设有弧形凹槽,弧形凹槽与染色棒相适配。
通过采用上述技术方案,当滑块推动染色棒靠近耗材时,染色棒对应嵌入于弧形凹槽内,弧形凹槽的设置,当滑块推动染色棒时在一定程度上可对染色棒起到较好的限位作用,防止染色棒脱离滑块。
本发明的进一步设置为:笔主体内设置有支架,支架的中心开设有供耗材通过的通孔,滑槽分布于通孔四周,且滑槽与通孔相连通,通孔内设置有若干防抖筋。
通过采用上述技术方案,当耗材送入通孔内时,防抖筋抵于耗材的侧壁,在一定程度上可防止耗材在进料、染色过程中发生抖动,使得染色较均匀、染色效果更好。
本发明的进一步设置为:染色机构设置为至少两组。
通过采用上述技术方案,将染色机构设置为多组,可采用不同染色件之间混合搭配,实现色彩多样化,从而增加用户在使用过程中的趣味性。
本发明进一步提供一种带有搅拌机构的3D打印笔,具有混色均匀、使用方便的效果。
其中,本发明提供了一种带有搅拌机构的3D打印笔,包括笔主体,笔主体内设置有:
搅拌管,供耗材穿入,搅拌管转动设于笔主体内;
驱动部件,用于驱使搅拌管转动;
喷嘴,喷嘴内形成供搅拌管伸入的搅拌腔,且搅拌管与搅拌腔相连通;
加热部件,用于对搅拌腔内耗材进行加热。
通过采用上述技术方案,将侧壁经多色染色的耗材或多根彩色耗材送入至搅拌管内,使得耗材前端伸入至搅拌腔中,加热部件发热,将搅拌腔内的彩色耗材热熔,驱动部件启动后,带动搅拌管转动,如此,搅拌管即可对搅拌腔中熔融的彩色耗材进行搅拌混合,使得不同颜色的耗材搅拌均匀,在搅拌的同时还可推动耗材向喷嘴运动,推动过程中即可将搅拌腔内搅拌均匀的彩色耗材从喷嘴挤出,如此,在使用过程中可实现多色混合,经搅拌后混色较均匀、色彩质感较好,相较于现有技术中采用多根彩色耗材依次切换使用还具有换色更方便的效果。
通过采用上述技术方案,当耗材从搅拌管前端挤出时,搅拌管即可对熔融耗材迅速搅拌。
本发明的进一步设置为:驱动部件包括驱动电机、传动组件,驱动电机通过传动组件驱使搅拌管转动。
本发明的进一步设置为:传动组件包括啮合传动的搅拌传动齿轮和搅拌管齿轮,搅拌传动齿轮固定连接于驱动电机输出轴,搅拌管齿轮同轴设置于搅拌管。
通过采用上述技术方案,当驱动电机启动时,输出轴带动搅拌传动齿轮转动,在搅拌传动齿轮与搅拌管齿轮的啮合作用下,搅拌管齿轮转动,同时即可带动搅拌管转动。
本发明的进一步设置为:传动组件包括有搅拌传动齿轮、连接套及同轴设于连接套上的搅拌管齿轮,搅拌管齿轮与搅拌传动齿轮相啮合,连接套套接于搅拌管。
通过采用上述技术方案,由于加热部件对搅拌腔内进行加热,且将连接套与搅拌管分开设置为两个部件,在一定程度上可防止耗材在进入至搅拌腔内前,由于受到一体的搅拌管的热传导而发生提前熔融、软化的现象,采用分体式的连接套进行一定隔热后,可便于推入耗材。
本发明的进一步设置为:连接套设置为塑料连接套,搅拌管为传热搅拌管。
通过采用上述技术方案,由于加热部件对耗材进行加热,采用传热搅拌管具有较好的导热性,能够使得搅拌腔内的耗材迅速熔融,而采用塑料连接套连接于搅拌管的后端的方式,由于塑料的导热性相对金属较差,且将连接套与搅拌管分开设置为两个部件,在一定程度上可防止耗材在进入至搅拌腔内前,由于受到传热搅拌管的热传导而发生提前熔融、软化的现象,采用塑料连接套进行一定隔热后,可便于推入耗材。
本发明的进一步设置为:连接套的端部设有导向斜面。
通过采用上述技术方案,当把耗材插入至连接套内时,导向斜面的设置可便于将耗材引导至连接套内,实现快速、准确的插入。
本发明的进一步设置为:加热部件设置于喷嘴外壁。
通过采用上述技术方案,加热部件设于喷嘴外壁,喷嘴侧壁整体受热较均匀,使得耗材整体的熔融效果较好,有利于充分搅拌。
本发明的进一步设置为:喷嘴内壁与搅拌管外壁相贴合形成叠置部,加热部件对应设置 于叠置部处。
在某些实施方式中,本发明提供一种搅拌及进丝同步的3D打印笔,包括笔主体,笔主体前端设有喷嘴,笔主体内设置有:
进丝机构,用于将耗材向喷嘴传输;
加热部件,用于熔融耗材;
搅拌机构,用于对笔主体内的熔融耗材进行搅拌;
驱动部件;
驱动部件与进丝机构间设有第一传动组件,驱动部件与搅拌机构间设有第二传动组件;
驱动部件同步作用于进丝机构和搅拌机构。
通过采用上述技术方案,使用过程中,驱动部件启动后,通过第一传动组件驱动进丝机构运动,进丝机构将耗材向喷嘴内传送,加热部件对进入喷嘴中的耗材进行加热使之熔融,另外还通过第二传动组件驱动搅拌机构同步运动,搅拌机构即可对熔融的耗材进行搅拌混匀,如此,使得进丝和搅拌过程同步进行,进丝过程还可将搅拌均匀的熔融耗材从喷嘴挤出,实现边搅拌边出料,不易出现断料现象。此外,一方面,采用单驱动双输出的方式,具有节能减耗的效果,另一方面,在整体结构布局上具有结构更紧凑的效果,便于用户握持。
本发明的进一步设置为:第一传动组件包括第一换向齿轮;第二传动组件包括搅拌传动齿轮,第一换向齿轮和搅拌传动齿轮均同轴设于驱动部件的输出端。
通过采用上述技术方案,当驱动部件启动时,输出端同时带动第一换向齿轮和搅拌传动齿轮转动,如此即可采用同一驱动部件通过第一传动组件和第二传动组件同时实现双输出。
本发明的进一步设置为:进丝机构包括送丝齿轮组,送丝齿轮组包括送丝主齿轮和送丝从动轮,送丝主齿轮与送丝从动轮间形成送丝通道,送丝主齿轮设有转轴;第一传动组件还包括设于转轴的第二换向齿轮,第二换向齿轮与第一换向齿轮相啮合。
通过采用上述技术方案,耗材送入送丝通道内,送丝主齿轮和送丝从动轮分别位于耗材两侧,并对耗材侧壁产生一定的夹紧力,当第一换向齿轮转动时,带动第二换向齿轮转动,第二换向齿轮通过转轴带动送丝主齿轮转动,由于耗材侧壁贴于送丝主齿轮的侧壁,当送丝主齿轮转动时,即可与送丝从动轮配合对耗材实现进丝的传送过程。
本发明的进一步设置为:送丝主齿轮的侧壁开设有环形嵌槽。
通过采用上述技术方案,环形嵌槽的设置使得耗材侧壁对应嵌入于环形嵌槽内,耗材在周向被限位,仅能直线进丝而无法侧壁旋转,在一定程度上可防止送入的耗材由于受到前端搅拌机构的搅拌作用而扭转、缠绕。
本发明的进一步设置为:第二传动组件还包括有搅拌管齿轮,搅拌管齿轮设置于搅拌机构,搅拌管齿轮与搅拌传动齿轮相啮合
通过采用上述技术方案,当搅拌传动齿轮转动时,即可带动搅拌管齿轮随之转动,从而带动搅拌机构实现搅拌过程。
本发明的进一步设置为:搅拌机构包括有供耗材穿入的搅拌管,搅拌管转动设于笔主体内;喷嘴内形成供搅拌管前端伸入的搅拌腔,且搅拌管与搅拌腔相连通,驱动部件通过第二 传动组件带动搅拌管转动。
本发明的进一步提供了一种具有耗材防转动结构的3D打印笔,包括:
打印笔本体;
耗材通道,设置在所述的打印笔本体内供耗材通过,所述耗材通道的两端开口分别为进料口和出料口;
进丝结构包括防转机构,所述的防转机构与经过所述耗材通道的耗材形成有限位配合,从而限制耗材的转动。
进一步,所述的防转机构包括两根防转筋,所述的防转筋之间形成有防转通道,所述的耗材通道与所述的防转通道衔接,所述的防转筋能够与经过所述防转通道的耗材发生接触配合,从而限制耗材的转动。
进一步,所述的打印笔本体内设置有送料机构,所述的送料机构包括有用于驱动耗材前进的驱动轮组,所述的耗材通道穿过所述的驱动轮组,所述的防转筋设置在所述的驱动轮组上。
进一步,所述的驱动轮组包括有用于带动耗材前进的驱动轮和用于为耗材前进导向的辅助轮,所述的驱动轮为周侧设有齿纹的齿轮,所述的辅助轮为周侧光滑的滚轮。
其中一种防转筋的设置方式,所述的防转筋设置在所述的驱动轮上,所述驱动轮的周侧开设有一道环切槽,所述的防转筋由所述驱动轮的周侧开设环切槽后形成。
另一种防转筋的设置方式,所述的防转筋设置在所述的辅助轮上,所述辅助轮的周侧开设有一道环切槽,所述的防转筋由所述辅助轮的周侧开设环切槽后形成。
结合上述两种防转筋的设置方式可以得出另一种设置方式,所述的驱动轮和辅助轮上都设置有防转筋,所述驱动轮和辅助轮的周侧都开设有一道环切槽,所述防转筋由所述驱动轮和辅助轮的周侧开设环切槽后形成。
除上述的几种防转筋设置方式外还存在一种设置方式,所述的防转筋凸设在所述耗材通道的内壁上。
染色机构的结构进一步,所述染色机构包括装有染料墨盒和上色组件,所述的上色组件能够将所述墨盒内的染料涂在耗材的表面。
再进一步,所述的墨盒内包括有若干个墨仓,各个墨仓内都装有不同颜色的染料,所述的墨盒上还凸设有若干个棒状染色件,所述墨仓内的染料能够渗入到染色件内,所述的上色组件将所述的染色件朝耗材通道方向推动,从而使得染色件上的染料涂在耗材的表面。
进一步,本发明提供了一种3D打印笔的使用方法,包括以下步骤:
S1、上电,供电部件为用电部件提供电源;
S2、加热,加热部件通电产生热量;
S3、载入耗材,向笔主体的通道内送入耗材,直至耗材伸入至进丝机构;
S4、染色,通过换色转盘控制驱动机构可选择性地驱动染色件靠近耗材,染色机构对伸入通道内的耗材进行染色过程,形成所需的彩色耗材;
S5、进丝并搅拌,进丝机构驱动耗材进丝,同时,搅拌机构对染色且加热熔融后的彩色 耗材进行搅拌;
S6、进丝并挤出,进丝机构推动耗材向喷嘴运动,并推动搅拌均匀的熔融彩色耗材从喷嘴挤出。
通过采用上述技术方案,耗材侧壁可染多种颜色,用户可根据自身意愿自由选择颜色,染色后的彩色耗材经加热搅拌后形成色彩均匀的彩色熔融耗材,作画效果较好,如此,具有使用方便、成本较低、作画效果较好的作用。
本发明的进一步设置为:S4包括以下染色过程:
S1、将换色转盘调节至一位置,第一染色件和第二染色件均不染色,此时,笔主体挤出的熔融耗材为本色;
S2、将换色控制件调节至二位置,第一滑块推动第一染色件运动,第一染色件对耗材进行染色,此时,笔主体挤出的熔融耗材的颜色即第一染色件的颜色;
S3、将换色控制件调节至三位置,第二滑块推动第二染色件运动,第二染色件对耗材进行染色,此时,笔主体挤出的熔融耗材的颜色即第二颜色件的颜色;
S4、将换色控制件调节至四位置,第一滑块推动第一染色件运动,同时第二滑块推动第二染色件运动,此时,笔主体挤出的熔融耗材的颜色即第一染色件与第二染色件的混合色;
其中,S1、S2、S3、S4在使用过程中可任意选择,实现换色。
综上所述,本发明具有以下有益效果:
采用在笔主体内设置染色机构、进丝机构以及搅拌机构的方式,可对透明耗材侧壁进行染色形成彩色耗材,彩色耗材经搅拌机构热熔搅拌均匀后从喷嘴挤出实现3D作画,如此,具有色彩丰富、趣味性强、灵活、多样化的效果;
本发明还提供一种3D打印笔的耗材的染色方法,其包括如下步骤:
(a)将该耗材在笔主体中的通道中向喷嘴输送;以及
(b)将安装于墨盒的染色件的至少一部分与该耗材接触以使该耗材被染色。本发明还提供一种3D打印笔,其能够将耗材染色,其包括:
笔主体,所述笔主体包括喷嘴,并且所述笔主体内形成有输送该耗材的通道;
进丝机构,以用于将该耗材向所述喷嘴输送;
染色机构,其包括墨盒、驱动机构和染色件,所述染色件安装于所述墨盒,在所述驱动机构的作用下,所述染色件的至少一部分与该耗材接触,从而使该耗材被染色;以及
加热机构,以用于将经染色的该耗材加热熔化。
本发明还提供一种应用于3D打印笔的染色机构,其中3D打印笔包括笔主体该笔主体包括喷嘴,并且该笔主体内形成有输送耗材的通道,其中所述染色机构包括墨盒、驱动机构和染色件,所述染色件安装于所述墨盒,在所述驱动机构的作用下,所述染色件的至少一部分与该通道内的该耗材接触,从而使该耗材被染色。
本发明还提供一种有搅拌机构的3D打印笔,其包括:
笔主体,笔主体包括喷嘴,并且该笔主体内形成有输送该耗材的通道;
进丝机构,以用于将该耗材向所述喷嘴输送;
加热机构,以用于将该耗材加热熔化;以及
搅拌机构,以用于将加热熔化的该耗材搅拌。
图1是实施例的整体结构关系示意图。
图2是实施例的墨盒与笔主体处于分离状态的结构关系示意图。
图3是实施例中墨盒的前端面的结构关系示意图。
图4是实施例的剖视图。
图5是图4中A区域的放大图。
图6是实施例中换色电机、支架及压板处于分离状态的结构关系示意图。
图7是实施例中滑块的结构关系示意图。
图8是实施例中进丝机构及搅拌机构的结构关系示意图。
图9是实施例中搅拌机构及喷嘴处于分离状态的结构关系示意图。
图10是实施例中换色转盘处于一位置时所对应的染色机构的位置状态示意图。
图11是实施例中换色转盘处于二位置时所对应的染色机构的位置状态示意图。
图12是实施例中换色转盘处于三位置时所对应的染色机构的位置状态示意图。
图13是实施例中换色转盘处于四位置时所对应的染色机构的位置状态示意图。
图14是实施例中换色转盘处于五位置时所对应的染色机构的位置状态示意图。
图15是实施例中换色转盘处于六位置时所对应的染色机构的位置状态示意图。
图16是实施例中换色转盘处于七位置时所对应的染色机构的位置状态示意图。
图17是实施例中换色转盘处于八位置时所对应的染色机构的位置状态示意图。
图18是染色组件和驱动机构的位置关系示意图。
图19为染色组件的分解结构示意图。
图20是另一实施例的3D打印笔的立体示意图。
图21是上述另一实施例的3D打印笔的剖视图。
图22是示意上述另一实施例的3D打印笔的墨盒与笔主体处于分离状态的结构关系示意图。
图23和图24是上述另一实施例的3D打印笔的分解示意图。
图25A和图25B是示意上述另一实施例的3D打印笔的驱动机构的分解示意图。
图26和图27是示意上述另一实施例的3D打印笔的驱动元件接触和远离染色件的结构示意图。
图28和图29是示意上述另一实施例的3D打印笔的进丝机构和搅拌机构的结构示意图。
图30是上述另一实施例的3D打印笔的一个变形实施方式的墨盒的结构示意图。
图31是上述另一实施例的3D打印笔的另一个变形实施方式的染色机构的结构示意图。
图32和图33是示意3D打印笔的染色机构的另一变形实施方式的结构示意图。
图34和图35分别是示意3D打印笔的染色机构的另一变形实施方式的染色机构的结构 示意图。
图36和图37分别是示意3D打印笔的染色机构的另一变形实施方式的染色机构的结构示意图。
图38和图39分别是示意3D打印笔的染色机构的另一变形实施方式的染色机构的结构示意图。
图40和图41分别是示意3D打印笔的染色机构的另一变形实施方式的染色机构的结构示意图。
图42和图43分别是示意3D打印笔的染色机构的另一变形实施方式的染色机构的结构示意图。
图44和图45分别是示意3D打印笔的染色机构的另一变形实施方式的染色机构的结构示意图。
图46和图47分别是示意3D打印笔的染色机构的另一变形实施方式的染色机构的结构示意图。
图48和图49分别是示意3D打印笔的染色机构的另一变形实施方式的染色机构的结构示意图。
图50和图51分别是示意3D打印笔的染色机构的另一变形实施方式的染色机构的结构示意图。
下面结合附图对本发明作进一步的说明。
实施例1
一种3D打印笔,如图1、图2和图8所示,包括有外形呈笔状的笔主体1,笔主体1的头部端设置有喷嘴11,笔主体1的尾端设置有电源插座12以及可拆卸插接于笔主体1内的墨盒13,墨盒13上设置有若干染色件134。笔主体1内开设有供耗材穿过的通道10,笔主体1还设置有染色机构2、进丝机构3以及搅拌机构4,染色机构2包括有多个驱动机构,驱动机构推动染色件134对耗材进行染色,进丝机构3用于将耗材向喷嘴11传输,搅拌机构4包括有用于对耗材加热熔融的加热部件41,加热部件41可设置为加热丝,搅拌机构4用于对熔融的耗材进行搅拌。
实施例2
如图2、图3和图4所示,墨盒13内分隔形成有若干个墨腔131,墨腔131内填充有储墨单元132,所述储墨单元132为储墨海绵,(在其他实施例中,也可采用高分子聚氨酯代替储墨海绵)以及彩色染料,每个墨腔131对应设置有一个出墨口133,染色件134一一对应插接于出墨口133上,彩色染料可渗透至染色件134上,染色件134具有一定弹性,染色件134可采用棒料,墨盒13的中心沿长度方向贯穿开设有供耗材通过的线材孔135,三个墨腔131呈圆周分布于墨盒13,且线材孔135位于墨盒13的中心,三个染色件134分布于 线材孔135的四周。墨盒13的端部开设有透气孔136,透气孔136与墨腔131一一对应连通,透气孔136用于保持墨腔131内外大气压强一致,防止出墨时,墨腔131内部形成负压,导致墨水无法从出墨口133流出,此外,还可防止在气压较低的环境中使用时,墨水喷出。
实施例3
如图4、图6和图7所示,驱动机构包括有滑块22、换色电机21、设于换色电机21输出轴的偏心轮盘23,偏心轮盘23包括有偏心柱231,滑块22开设有条形槽224,条形槽224的开设方向与滑块22滑移方向相垂直,偏心柱231与条形槽224滑移配合;笔主体1内设置有支架14,支架14端部开设有供滑块22滑移的三个滑槽141,换色电机21固定安装于支架14上,换色电机21驱使滑块22向靠近染色件134运动,使得染色件134贴近耗材,当滑块22远离染色件134运动时,使得染色件134远离耗材,滑块22靠近染色件134的端面开设有弧形凹槽225,弧形凹槽225与染色件134相适配,当滑块22推动染色件134靠近耗材时,染色件134对应嵌入于弧形凹槽225内,弧形凹槽225的设置,当滑块22推动染色件134时在一定程度上可对染色件134起到较好的限位作用,防止染色件134脱离滑块22。使用状态下,墨盒13插接于笔主体1内,耗材8贯穿于线材孔135,染色件134位于耗材的四周。换色电机21包括第一换色电机211、第二换色电机212和第三换色电机213,滑块22包括对应于第一换色电机211的第一滑块221、对应于第二换色电机212的第二滑块222和对应于第三换色电机213的第三滑块223,染色件134包括对应于第一滑块221的第一染色件1341、对应于第二滑块222的第二染色件1342和对应于第三滑块223的第三染色件1343。
当耗材染色时,换色电机21启动,带动偏心轮盘23转动,偏心轮盘23转动时,在偏心柱231与条形槽224的配合作用下,使得滑块22沿滑槽141向靠近染色件134的方向运动,直至染色件134与耗材侧壁相贴;当染色完成后,换色电机21驱使滑块22复位,由于染色件134不再受到滑块22的推力,即可在其自身弹力下远离耗材。
实施例4
如图4、图6和图7所示,滑块22上设置有磁性件226,笔主体1内设置有压板15、分线路板17和压块16,压板15和压块16配合将分线路板17压紧固定,压板15上还设置有感应元件151,在本实施例中感应元件151设置为霍尔传感器,霍尔传感器与磁性件226感应配合,用于检测滑块22位移后的位置,当滑块22带动磁性件226移动时,利用霍尔传感器与磁性件226之间磁场变化导致霍尔传感器产生电位差的原理,霍尔传感器可实时感应滑块22的位置进行反馈,从而在一定程度上可使染色浓度受控。压板15的中心还设置有限位插孔152,当墨盒13插入至笔主体1内时,染色件134对应插入于限位插孔152内,如此可起到快速对准、限位的作用。
如图6所示,支架14的中心开设有供耗材通过的通孔142,滑槽141分布于通孔142四周,且滑槽141与通孔142相连通,两者连通处供染色件134运动,通孔142内壁设置有三条等距分布的防抖筋143。当耗材8送入通孔142内时,防抖筋143抵于耗材的侧壁,在一定程度上可防止耗材在进料、染色过程中发生抖动,防止已经被染色的耗材经过通道时墨 水残留管壁,使得染色较均匀、染色效果更好。
如图4所示,笔主体1内设有总线路板18,电源插座12电性连接于总线路板18,总线路板18上设置有指示灯181,笔主体1的侧壁还设置有电性连接于总线路板18的换色转盘182、进丝按钮183,换色转盘182与染色机构2的换色电机21控制配合,换色转盘182用于控制不同换色电机21的切换。换色转盘182上设置有若干位置标识,位置标识包括有数字1、2、3、4、5、6、7、和8,笔主体1上设置有定位标识19,转动换色转盘182,其中一个位置标识与定位标识19相对应。当耗材被染的颜色进行更换时,转动换色转盘182,当不同的位置标识对应于定位标识19时,即可使得控制不同颜色染色件134运动的换色电机22启动,方便用户直观地进行选择和切换实现染色的换色过程。用户可根据自己的喜好,自行选择不同的颜色对耗材进行染色,如此,无需更换耗材,即可在同一根耗材上实现多色转换,无需购买不同颜色的耗材,成本也较低。
实施例5
如图8和图9所示,笔主体1内设置有安装架5及安装于安装架5上的驱动部件,驱动部件设置为驱动电机51,驱动电机51与进丝机构3间设有第一传动组件6,驱动电机51与搅拌机构4间设有第二传动组件7,驱动电机51同步作用于进丝机构3和搅拌机构4。第一传动组件6包括第一换向齿轮61;第二传动组件7包括搅拌传动齿轮71,第一换向齿轮61和搅拌传动齿轮71均同轴设于驱动电机51的输出端。当驱动电机51启动时,输出端同时带动第一换向齿轮61和搅拌传动齿轮71转动,如此即可采用同一驱动部件通过第一传动组件6和第二传动组件7同时实现双输出。
如图8和图9所示,进丝机构3包括送丝齿轮组,送丝齿轮组包括送丝主齿轮31和送丝从动轮32,送丝主齿轮31与送丝从动轮32间形成送丝通道33,送丝主齿轮31的侧壁开设有环形嵌槽311,送丝主齿轮31设有转轴312,环形嵌槽311的设置使得耗材8侧壁对应嵌入于环形嵌槽311内,耗材在周向被限位,仅能直线进丝而无法侧壁旋转,在一定程度上可防止送入的耗材由于受到前端搅拌机构4的搅拌作用而扭转、缠绕;第一传动组件6还包括同轴设于转轴312的第二换向齿轮62,第二换向齿轮62与第一换向齿轮61相啮合。耗材送入送丝通道33内,送丝主齿轮31和送丝从动轮32分别位于耗材两侧,并对耗材侧壁产生一定的夹紧力,当第一换向齿轮61转动时,带动第二换向齿轮62转动,第二换向齿轮62通过转轴312带动送丝主齿轮31转动,由于耗材侧壁贴于送丝主齿轮31的侧壁,当送丝主齿轮31转动时,即可与送丝从动轮32配合对耗材实现进丝的传送过程。送丝主齿轮31周侧开设环形嵌槽311后,形成有两道上下对称的防转筋314,送料过程中由这两道防转筋314与耗材表面发生接触,从而限制送料过程中耗材的转动。
在驱动轮的周侧开设有环形嵌槽311,从而在驱动轮的周侧设有两道上下对称的防转筋314,实现对耗材在送料过程中转动的限制,进而防止位于打印机本体外的耗材发生缠绕,同时可以避免耗材旋转导致墨盒的染色件之间互相串色的情况。
第一传动组件6驱动进丝机构3运动,进丝机构3将耗材向喷嘴11内传送,另外还通过第二传动组件7驱动搅拌机构4同步运动,搅拌机构4即可对熔融的耗材进行搅拌混匀, 如此,使得进丝和搅拌过程同步进行,实现边搅拌边出料,不易出现断料现象。此外,一方面,采用单驱动双输出的方式,具有节能减耗的效果,另一方面,在整体结构布局上具有结构更紧凑的效果,便于用户握持。
实施例6
如图4、图5、图8和图9所示,搅拌机构4包括有供耗材送入的搅拌管42,搅拌管42转动设于笔主体1内,喷嘴11内形成供搅拌管42伸入的搅拌腔111,且搅拌管42与搅拌腔111相连通,喷嘴11内壁与搅拌管42外壁相贴合形成叠置部,加热部件41设置于叠置部外,喷嘴11侧壁整体受热较均匀,使得耗材整体的熔融效果较好,有利于充分搅拌;驱动电机51通过第二传动组件7驱动搅拌管42转动,第二传动组件7还包括有连接套72、同轴设于连接套72的搅拌管齿轮721,连接套72设置为导热性较差的塑料材质,搅拌管齿轮721与搅拌传动齿轮71相啮合,当搅拌传动齿轮71转动时,即可带动搅拌管齿轮721随之转动,从而带动搅拌管42旋转实现搅拌过程,连接套72同轴套接于搅拌管42后端,搅拌管42设置为金属搅拌管42,连接套72的后端部设有扩口状的导向斜面722,当把耗材插入至连接套72内时,导向斜面722的设置可便于将耗材引导至连接套72内,实现快速、准确的插入。
由于加热部件41对搅拌腔111内进行加热,采用金属搅拌管42具有较好的导热性,能够使得搅拌腔111内的耗材迅速熔融,而采用塑料制成的连接套72连接于搅拌管42的后端的方式,由于塑料的导热性相对金属较差,且将连接套与搅拌管42分开设置为两个部件,在一定程度上可防止耗材在进入至搅拌腔111内前,因受到金属搅拌管42的热传导而发生提前熔融、软化的现象,采用塑料连接套72进行一定隔热后,可便于推入耗材。
将侧壁经多色染色的耗材送入至搅拌管42内,使得耗材前端伸入至搅拌腔111中,加热部件41发热,将搅拌腔111内的彩色耗材热熔,驱动电机51启动后,带动搅拌管42转动,如此,搅拌管42即可对搅拌腔111中熔融的彩色耗材进行搅拌混合,使得不同颜色的耗材搅拌均匀,在搅拌的同时还可推动彩色耗材向喷嘴11运动,推动过程中即可将搅拌腔111内搅拌均匀的彩色耗材从喷嘴11挤出,如此,在使用过程中可实现多色混合,经搅拌后混色较均匀、色彩质感较好。
实施例7
如图4,图5,图6,图21,和图22所示,染色单元包括有驱动机构和染色组件2,驱动机构推动染色组件2对耗材8进行染色。染色组件2包括有墨盒13和设置在墨盒13上的染色件134,墨盒13内分隔设置有若干墨腔131,墨腔131内填充有储墨单元132,该储墨单元132可为高密度聚氨酯海绵材料,在其他实施例中,也可为任何能够吸水或者吸油的材料,储墨单元132上吸附有墨水,该墨水为油性墨水。每个墨腔131对应设置有一个出墨口,染色件134一一对应插接于出墨口133上,染色棒为纤维笔头,可吸附墨腔131内的墨水对自身进行浸色。染色件134具有一定弹性,墨盒13的中心沿长度方向贯穿开设有供耗材8通过的耗材孔135,墨腔131呈圆周分布于墨盒13,且耗材孔135位于墨盒13的中心,染色件134均匀分布与耗材孔135的周围并且 与耗材孔135之间存在一定间隙。墨盒13的端部开设有透气孔136,透气孔136与墨腔131一一对应连通,透气孔136用于保持墨腔131内外大气压强一致,防止出墨时,墨腔131内部形成负压,导致墨水无法从出墨口133流出,此外,还可防止在气压较低的环境中使用时墨水喷出。
墨盒13的下端设有插接部138,打印笔主体1上与墨盒13连接的位置设有插接位,当墨盒13插接到打印笔主体1内时,插接部138与插接位精准配合插接。当墨盒13不使用时,可将保护盖137盖上,方便墨盒13的收纳,避免墨水干燥。
实施例8
本发明的使用方法包括以下步骤:
S1、上电,将电源插座12插接于电源通电,指示灯181呈黄灯常亮,视为电源已接通,为染色机构2的驱动机构、进丝机构3及搅拌机构4供电;
S2、加热,加热部件41通电加热,指示灯181呈红色闪烁,当达到设定温度后,指示灯181呈绿色常亮,表示加热完成;
S3、载入耗材,由墨盒13尾部向笔主体1的通道内送入耗材,耗材经过进丝机构3直至伸入送丝通道33,此时,换色转盘182的位置标识1对应定位标识19,按下进丝按钮183,送丝齿轮组把耗材往前送,直至笔头喷嘴11出现熔融耗材,即实现耗材装载;
S4、染色;
在本实施例中,三个染色件134分别设置为红、黄、蓝三原色,控制调节换色转盘182实现换色,换色过程如下:
(1)换色转盘182初始位置为一位置,三个换色电机21在初始位置时滑块22上的磁性件226正好位于霍尔传感器正下方,如图10所示对应状态,检测电压最高,此时喷嘴11处挤出透明的熔融耗材;
(2)换色转盘182转动至二位置,第一换色电机211转动,第一换色电机211驱动第一滑块221运动从而推动第一染色件1341为耗材8侧壁染上红色,如图11所示为对应状态;
(3)换色转盘182转动三位置,第一换色电机211回原位,第二换色电机212转动,第二换色电机212驱动第二滑块222运动从而推动第二染色件1342为耗材8染上黄色,如图12所示为对应状态;
(4)换色转盘182转动至四位置,第二换色电机212回原位,第三换色电机213转动,第三换色电机213驱动第三滑块223运动从而推动第三染色件1343为耗材8染上蓝色,如图13所示为对应状态;
(5)换色转盘182转动至五位置,第三换色电机213回原位,第一换色电机211和第二换色电机212转动,第一换色电机211驱动第一滑块221运动从而推动第一染色件1341为耗材8染上红色,第二换色电机212驱动第二滑块222运动从而推动第二染色件1342为耗材8染上黄色,如图14所示为对应状态;
(6)换色转盘182转动至六位置,第一换色电机211回原位,第二换色电机212和第三换色电机213转动,第二换色电机212驱动第二滑块222运动从而推动第二染色件1342 为耗材染上黄色,第三换色电机213驱动第三滑块223运动从而推动第三染色件1343为耗材染上蓝色,如图15所示为对应状态;
(7)换色转盘182转动至七位置,第二换色电机212回原位,第一换色电机211和第三换色电机213转动,第一换色电机211驱动第一滑块221运动从而推动第一染色件1341为耗材染上红色,第三换色电机213驱动第三滑块223运动从而推动第三染色件1343为耗材染上蓝色,如图16所示为对应状态;
(8)换色转盘182转动至八位置,三个换色电机21同时转动,第一换色电机211驱动第一滑块221运动从而推动第一染色件1341为耗材染上红色,第二换色电机212驱动第二滑块222运动从而推动第二染色件1342为耗材染上黄色,三换色电机21驱动第三滑块223运动从而推动第三染色件1343为耗材染上蓝色,如图17所示为对应状态;
根据用户自身意愿可随意切换换色转盘182所对应的上述(1)-(8)的位置状态;
S5、进丝并搅拌,按压进丝按钮183,将染色后的耗材送入至搅拌腔111中,受加热部件41加热后,彩色耗材熔融,通过搅拌管42进行搅拌;
S6、进丝并挤出,按压进丝按钮183,进丝机构3通过后端未熔融的耗材推动搅拌均匀的熔融彩色耗材向喷嘴11运动并挤出。
挤出时,对应于S4中二位置时,为红色熔融耗材;对应于S4中三位置时,为黄色熔融耗材;对应于S4中四位置时,为蓝色熔融耗材;对应于S4中五位置时,经搅拌均匀后混色形成橙色熔融耗材;对应于S4中六位置时,经搅拌均匀后混色形成绿色熔融耗材;对应于S4中七位置时,经搅拌均匀后混色形成紫色熔融耗材;对应于S4中八位置时,经搅拌均匀后混色形成黑色熔融耗材。
本发明的基本工作原理为:使用过程中,先将耗材送入至笔主体1的通道内,供电部件通电后,换色电机驱动染色件对耗材侧壁进行染色,进丝机构3驱动染色后的耗材向搅拌机构4输送,当染色后的耗材伸入至搅拌机构4内时,加热部件41对搅拌机构4内的固体状彩色耗材进行加热,使其熔融,随后,搅拌机构4即可对熔融的耗材进行搅拌,在进丝机构3推动耗材向搅拌机构4运动的同时,耗材前端还会推动熔融的彩色耗材从喷嘴11挤出,即可实现3D作画,通过多组染色电机21与染色件的配合,可对耗材染上各种色彩,如此,具有色彩丰富、趣味性强、灵活、多样化的效果,还具有使用方便、成本较低、作画效果较好的作用。
通过调节换色转盘182可控制不同组别的染色机构2之间实现换色过程,用户可根据自己的喜好,自行选择不同的颜色对耗材进行染色,如此,无需更换耗材,即可在同一根耗材上实现多色转换,具有色彩丰富、趣味性强的效果,使用更灵活、多样,且无需购买不同颜色的耗材,成本也较低。
在此,需要说明的是,换色电机21的顺序和染色件134顺序的排布并不局限于本实施例所述的顺序,通过程序和染色机构数量的改变,均可进行适应性调整,在其他实施例中,可采用两组染色机构、四组染色机构或其他数量的多组染色机构的方式,还可采用一个驱动机构通过联动结构分别驱动多个染色件运动的方式。此外,需要特别说明的是,使用过程中, S1-S3相关步骤还可采用先载入耗材,再上电、加热的方式。
实施例9
如图20至图29所示是根据本发明的另一实施例的3D打印笔,其包括笔主体1100、染色机构1200、进丝机构1300和加热机构1400。笔主体1100包括壳体1110,其外观呈笔状,壳体1110内设有具有供耗材1000穿过的通道1120并且笔主体1100包括喷嘴1130,染色机构1200用于对耗材1000进行染色,进丝机构1300用于将耗材1000在笔主体1100内的通道1120向前输送,加热机构1400用于将耗材1000加热熔化成热熔材料,该热熔材料从笔主体1100的喷嘴1120挤出以用于绘制3D作品。特别地,在本发明中,从喷嘴1130挤出的热熔材料是经染色机构1200染色并经加热机构1400加热熔化后形成的彩色材料,以用于彩色作画。
染色机构1200包括墨盒1210、一个或多个染色件1220和一个或多个驱动机构1230,墨盒1210包括盒体1211,其具有一个或多个墨腔1212以及与一个或多个墨腔1212相对应的一个或多个出墨口1213,并且盒体的各个墨腔1212内存储有储墨单元1214,储墨单元1214包括彩色染料以及储墨海绵或高分子聚氨酯,各个染色件1220插接于墨盒1210对应的出墨口1213,该彩色染料可渗透至染色件1220上,染色件1220具有弹性,并且染色件1220可采用纤维棒料。墨盒1210开设有透气孔1215,透气孔1215与对应的墨腔1212相连通,以用于保持墨腔1212内外大气压强一致,防止出墨时,墨腔1212内部形成负压,导致墨水无法从出墨口1213流出,此外,还可防止在气压较低的环境中使用时,墨水喷出。
在这个实施例中,驱动机构1230用来驱动染色件1220使染色件1220的至少一部分能够接触和远离耗材1000,从而在染色件1220的至少一部分与耗材1000相接触时,能够使耗材1000的表面被涂上该彩色染料而被染色。
更具体地,参考图23至图27,驱动机构1230包括换色电机1231和驱动组件1232,驱动组件1232包括能够作用于染色件1220的驱动元件1233,换色电机1231转动时驱动驱动组件1232的驱动元件1233运动,这样驱动组件1232的驱动元件1233作用于染色件1220以使其至少一部分能够接触和远离耗材1000。驱动组件1232的的驱动元件1233运动方式可以是线性移动、曲线移动、摆动或转动等运动方式,以推动染色件1220与耗材1000相接触,并且驱动组件1232的驱动元件1233与染色件1220分离时,染色件1220藉由其自身弹性而自动复位从而染色件1220与耗材1000相分离。
在这个实施例中,驱动机构1230的驱动元件1233实施为滑块,并且驱动机构1230的驱动组件1232还包括偏心轮盘1234,偏心轮盘1234连接于换色电机1231的输出轴13111,并且轮盘1234设有偏心柱1235,驱动元件1233设置有滑动槽1236,偏心柱1235位于滑动槽1236中,换色电机1231转动使得偏心轮盘1234转动时,驱动元件1233朝向染色件1220移动,以推动染色件1220。滑动槽1236的延伸方向与驱动元件1233的运动方向相垂直。换色电机1231反转,驱动偏心轮盘1234反转,驱动元件1233朝向远离染色件1220的方向移动,以与染色件1220相分离。
可以理解的是,本发明这个实施例中示意的驱动元件1233为滑块,在其他变形实施例 中,其驱动组件1232可以实施为连杆,其连接于换色电机1231,以能够在换色电机1231的驱动作用下使实施为驱动杆的驱动元件1233产生位移并用来作用于染色件1220。
在本发明的这个实施例中,墨盒1210具有多个墨腔1212,以存储多种彩色染料,如红、黄、蓝三种颜色的彩色染料。对应的染色机构1200包括三个染色件1220,其分布在耗材1000的周围,这样耗材1000通过三个染色件1220的中心,三个染色件1220分别用于在耗材1000的表面涂上红、黄、蓝色的彩色染料。对应地,染色机构1200包括三个驱动机构1230,以用于分别驱动三个驱动元件1233。
各个染色件1220具有插接端部1221和接触端部1222,插接端部1221插接于墨盒1210对应的出墨口1213,接触端部1222适于与被径向移动的驱动元件1233推动而朝向位于中心的耗材1000移动从而与耗材1000相接触,以使耗材1000的表面涂上对应的染色件1220带有的彩色染料。可以理解的是,在染色过程中,耗材1000可以与一个染色件1220接触而被染上一个颜色,或者可以与多个染色件1220接触而其表面的不同区域分别被染上相同或不同的颜色。
各个驱动元件1233朝向对应的染色件1220的接触端部1222具有限位槽1237,其可以实施为弧形凹槽,以用于在驱动元件1233靠近对应的染色件1220时将对应的染色件1220的接触端部1222限位在限位槽1237中,防止对应的染色件1220的接触端部1222脱离驱动元件1233。
笔主体1100还包括支架1140、安装架1150和控制组件1160,其中驱动机构1230安装于支架1140,支架1140包括支架主体1141、座体1142、压板1143和压块1144,支架主体1141和座体1142位于压板1143和1144之间。支架1140具有供耗材1000通过的通孔1145,其延伸穿过架主体1141、座体1142、压板1143和压块1144。在这个实施例中,支架主体1141形成有三个安装槽1146,供分别安装三个驱动机构1230的三个换色电机1231,座体1142形成有三个滑槽1147,其分别连通于座体1142中间的通孔1145,三个驱动元件1233能够被驱动在对应的三个滑槽1147中滑动,以接触和远离对应的染色件1220。各个安装槽1146具有开口1148,方便对应的换色电机1231的安装和拆卸。压板1143还具有限位插孔1149,染色件1220对应地插入限位插孔1149。
可以理解的是,在另外的变形实施例中,笔主体1100也可以包括三个支架1140,以分别形成三个安装槽1146以及三个滑槽1147。通过单独的管道形成通孔1145,以供耗材1000通过,三个支架1140位于该管道周围。
3D打印笔还包括位置检测机构,以用来检测驱动元件1233的移动位置,并用来控制驱动元件1233的移动和停止,如可以是通过霍尔传感器、光电开关、机械开关、电机电流检测器等。例如,本发明这个实施例中,驱动元件1233可以设置有磁性件,控制组件1160包括有感应元件,如霍尔传感器,以通过其与驱动元件1233之间磁场变化用来感应驱动元件1233的位移。
参考图28和图29,安装架1150用来安装进丝机构1300,进丝机构1300可以是齿轮驱动装置、螺纹驱动装置或其他能够驱动耗材前进的驱动装置。在这个实施例中,进丝机构 1300包括驱动电机1310、第一传动组件1320和送丝元件1330。送丝元件1330包括两个齿轮,其可以是两个主动轮、一个主动轮和一个从动轮,或者两个从动轮。在这个实施例中,送丝齿轮组包括送丝主动轮1331,送丝从动轮1332,两者之间形成送丝通道1333,驱动电机1310转动时,通过第一传动组件1320驱动送丝主动轮1331转动,耗材1000在送丝通道1333被送丝主动轮1331和送丝从动轮1332向前输送。
在这个实施例中,送丝主齿轮1331设置有转轴1334,第一传动组件1320包括相啮合第一换向齿轮1321和设于转轴1334的第二换向齿轮1322,第一换向齿轮1321耦接于驱动电机1310的输出轴1311。从而送丝主齿轮1331能够被驱动转动。
另外,送丝主齿轮1331沿其圆周还设有环形嵌槽1335,以在其两侧形成两防转筋1336,其能够与耗材1000的表面接触,从而防止耗材1000在向前输送时发生不必要的转动。
控制组件1160用来控制3D打印笔的运行,其可以用来控制驱动电机1131和换色电机1231的转动。例如本发明这个实施例中,控制组件1160包括主线路板1161和分线路板1162,分线路板11662可以用来控制换色电机1231的操作,主线路板1161用来实现其他控制,主线路板1161和分线路板1162可以互相独立或电性连接。当然,也可以通过同一个线路板实现所有电气控制。
另外控制组件1160还包括电源模块1163、指示灯1164、换色转盘1165、进丝按钮1166和定位标识1167。电源模块1163可以是电源插座,以用来连接于外部电源。可以理解的是,电源模块1163也可以包括可充电电池。指示灯1164可以用来指示3D打印笔的运行状态,如指示电源接通状态、加热机构1400加热到达预设温度等。换色转盘1165电性连接于主线路板1161或分线路板1162,用于控制不同换色电机1231的切换。换色转盘1165上设置有多个位置标识,其被转动时,一个位置标识与设置在笔主体1110的定位标识相对应,从而示意所选择的染色颜色。
值得一提的是,供耗材1000穿过的通道1120可以通过单独的管道形成,也可以通过墨盒1210、支架1140等部件形成。例如在这个实施例中,墨盒1220设有线材孔1216,支架1140形成有通孔1145,以供耗材1000穿过。通道1120内可以设置有多条等距分布的防抖筋1121,例如可以设置在支架1140的通孔1145中,以防止耗材在向前输送和染色过程中发生抖动。
加热机构1400包括加热部件1410,加热部件1410可以是加热电阻丝、发热薄膜、金属陶瓷发热体(MCH)、PTC发热体等。在实施例中,其是加热电阻丝并电连接于控制组件1160的主线路板1161,并通过电加热的方式加热耗材1000。
本发明的这个实施例中,3D打印笔还包括搅拌机构1500,以用来搅拌熔化后的经染色后的彩色的耗材1000以使彩色的耗材1000混色均匀。喷嘴1130形成有搅拌腔1131,搅拌机构1500可以包括设置在搅拌腔1131中被驱动而转动的搅拌叶片。搅拌机构1500包括供耗材1000送入的搅拌管1510和第二传动组件1520。搅拌管1510为金属材质,其可以由单独的电机驱动而转动。在这个实施例中,第二传动组件1520也耦接于驱动电机1310,从而搅拌管1510通过驱动电机1310驱动。更具体地,第二传动组件1520包括同轴套接于搅拌 管1510后端的塑料材质的连接套1521、同轴设于连接套1521的搅拌管齿轮1522、和设于驱动电机1310的输出轴1311的搅拌传动齿轮1523,搅拌管齿轮1522与搅拌传动齿轮1523相啮合,这样驱动电机1320转动而驱动搅拌传动齿轮1523转动时,搅拌管齿轮1522也随着转动而带动连接套1521转动从而进一步驱动搅拌管1510转动,从而用来将搅拌腔1131内的熔融的彩色的耗材1000搅拌均匀。
实施例10
如图30所示是上述实施例的染色机构1200的变形实施方式,在这个实施例中,染色机构1200包括多个墨盒1210,每个墨盒1210安装有一个染色件1220,各个染色件1220的至少一部分能够被对应的驱动元件1233所推动。这个实施例中这些墨盒1210不需要形成线材孔1216。3D打印笔的笔主体1110还包括输送管道1170,以用来向前输送耗材1000。可以理解的是,笔主体1110的用来输送耗材的通道1120的至少一部分由输送管道1170形成,并且通道1120在对应染色机构1200的染色位置和进丝机构1300的位置使耗材1000露出以方便染色和向前进丝的驱动操作。
实施例11
如图31所示是上述实施例的3D打印笔的另一变形实施方式。在这个实施例中,3D打印笔包括染色机构1200、进丝机构1300和加热机构1400。染色机构1200包括墨盒1210、染色件1220和驱动机构1230,染色件1220位于加热机构1400的加热部件1410和进丝机构1300的送丝元件1330之间,以使耗材1000的染色位置位于进丝机构1300的送丝元件1330和加热机构1400的加热部件1410之间。
也就是说,上述实施例中,送丝元件1330将经染色后的耗材1000向加热机构1400输送。而在这个实施例中,耗材1000被进丝机构1300向前输送至位于进丝机构1300的前方的染色件1220的位置才进行染色,从而进丝机构1300的送丝元件1330如送丝齿轮、送丝螺纹或其他送丝驱动装置不会被染色,从而避免进丝机构1300的送丝元件1330上被涂上彩色染料而导致后续切换不同染色件1220对耗材1000染色时产生串色。
可以理解的是,在这个实施例中,墨盒1210位于加热机构1400和进丝机构1300之间。墨盒1210还具有多个充墨阀1217,以分别用于向对应的各个墨腔1212中充入彩色染料,这样在3D打印笔需要增添墨水时,墨盒1210不用从笔主体1100中取出。
实施例12
如图32和图33所示是根据本发明的3D打印笔的染色机构1200的另一种变形实施方式。染色机构1200包括上述墨盒1210、染色件1220和驱动机构1230。在这个实施例中,驱动机构1230包括驱动电机1231和驱动组件1232,其中驱动组件1232包括驱动元件1233、驱动连杆1238、滑动杆1239,其中驱动元件1233可滑动地设置于滑动杆1239,驱动连杆1238耦接于驱动电机1231,并且包括第一驱动杆12381和第二驱动杆12382,其相互可枢转地连接,第一驱动杆12381耦接于驱动电机1231的输出轴,驱动元件1233连接于第二驱动杆12382。
当染色过程开始时,驱动电机1231转动,带动第一驱动杆12381枢转,第二驱动杆12382 也被驱动转动,从而带动实施为滑块的驱动元件1233移动以与染色件1220的至少一部分相接触并推动染色件1220,使染色件1220与耗材1000相接触,从而对耗材1000进行染色操作。
当需要更换另一染色件1220对耗材1000进行染色时,驱动电机1231反转,带动第一驱动杆12381反向枢转,第二驱动杆12382也被驱动反向转动,从而带动驱动元件1233复位以与对应的染色件1220相远离。然后启动另一驱动电机1231,以驱动另一驱动元件1233与对应的另一颜色的染色件1220相接触,从而实现换色染色操作。
实施例13
如图34和图35所示是本发明的3D打印笔的染色机构1200的另外变形实施方式。其中染色机构1200的驱动机构1230包括驱动电机1231和耦接于驱动电机1231的输出轴12311的驱动元件1233,其中驱动元件1233被转动的驱动电机1231驱动而同步地转动而接触和远离染色件1220。
更具体地,当染色过程开始时,驱动电机1231转动,带动驱动元件1233转动以与染色件1220的至少一部分相接触并推动染色件1220,使染色件1220与耗材1000相接触,从而对耗材1000进行染色操作。
当需要更换另一染色件1220对耗材1000进行染色时,驱动电机1231反转,带动驱动元件1233反转以复位并与对应的染色件1220相远离。然后启动另一驱动电机1231,以驱动另一驱动元件1233与对应的另一颜色的染色件1220相接触,从而实现换色染色操作。
可以理解的是,在另外的变形实施方式中,染色件1220可以进一步地被附接于驱动元件1233,这样染色件1220可以与驱动元件1233形成一体结构,从而驱动元件1233移动时带动染色件1220移动,以使染色件1220接触和远离耗材1000。
实施例14
如图36和图37所示是本发明的3D打印笔的另外变形实施方式,其中3D打印笔包括染色机构2200,染色机构2200包括墨盒2210、染色件2220和驱动机构2230,并且染色件2220和驱动机构2230的工作方式与上述实施例有区别。更具体地,驱动机构2230包括驱动开关2231,传动部件2232和驱动元件2233。其中使用者可以手动地操作设于上述笔主体1100的驱动开关2231,以用于驱动传动部件2232移动,从而进一步地带动驱动元件2233产生位移,驱动元件2233作为一个推动元件推动染色件2220的至少一部分,如推动染色件2220的接触端部2222。
更具体地,以图36和图37中示意的结构为例,当使用者向后推动驱动开关2231时,传动部件2232向后移动,从而驱动元件2233同时也向后移动,以推动染色件2220的接触端部2222,使染色件2220的接触端部2222与耗材1000相接触,从而对耗材1000进行染色。可以理解的是,驱动元件2233可以具有推动面2234,其可以是斜面或曲面,以方便于作用于染色件2220的接触端部2222。当不需要使用这个染色件2220进行染色时,向前推动驱动开关2231,传动部件2232向前移动,从而驱动元件2233同时也向前移动,以使驱动元件2233与染色件2220的接触端部2222相远离,使染色件2220的接触端部2222与耗 材1000相分离,从而可以驱动另一驱动元件2233,以作用于另一个染色件2220从而对耗材1000进行另一种颜色的染色操作。
实施例15
如图38和图39所示是本发明的3D打印笔的另外变形实施方式,其中3D打印笔包括染色机构2200,其包括墨盒2210、染色件2220和驱动机构2230,并且染色件2220和驱动机构2230的工作方式与上述实施例有区别。更具体地,驱动机构2230包括驱动开关2231,传动部件2232和驱动元件2233。其中使用者可以手动地操作设于上述笔主体1100的驱动开关2231,以用于驱动传动部件2232转动,从而进一步地带动驱动元件2233产生转动,驱动元件2233具有推动面2234,以推动染色件2220的至少一部分,如推动染色件2220的中间部分2223。
在这个实施例中,推动面2234在圆周方向延伸并且是曲面或斜面,其具有凸出的峰面22341和谷面22342,当驱动开关2231被转动以使传动部件2232带动驱动元件2233转动以使其峰面22341作用于染色件2220的中间部分2223时,染色件2220的中间部分2223被推动而带动其端部2222接触耗材1000,从而对耗材1000进行染色操作。当驱动开关2231被反转以使传动部件2232带动驱动元件2233反转以使其谷面22342作用于染色件2220的中间部分2223时,染色件2220的中间部分2223远离耗材1000,从而停止利用当前的染色件2220对耗材1000进行染色操作。
实施例16
如图40和图41所示是本发明的3D打印笔的另外变形实施方式,其中3D打印笔包括染色机构3200,其包括墨盒3210、染色件3220和驱动机构3230,并且染色件2220和驱动机构2230的工作方式与上述实施例有区别。更具体地,驱动机构3230包括驱动座3231和驱动元件3233,其中驱动元件3233被驱动座3231磁性地驱动以能够往复地位移。
例如驱动座3231可以实施为音圈马达,其电连接于上述控制组件1160的主线路板1161,并且设置有磁石以产生磁场,驱动元件3233中设置有线圈,驱动元件3233在驱动座3231的使用下往复位移,并且往复地抵接和远离染色件3220的至少一部分以使染色件3220周期性地与耗材1000接触,从而周期性地对耗材1000进行染色。
实施例17
如图42和图43是上述3D打印笔的另外变形实施方式,其中图40和图41中,驱动元件3233被驱动径向地往复位移,以作用于染色件3220,使染色件3220的至少一部分朝向位于中心的耗材靠近。在这个实施例中,驱动元件3233被驱动座3231驱动沿3D打印笔的长度方向移动,并且驱动元件3233设置有推动面3234,其是斜面或曲面,当驱动元件3233往复移动时,其推动面3234作用于染色件3220的接触端部3222,以使色件3220的接触端部3222径向地朝向位于笔主体1100的中心的耗材1000移动从而与耗材1000相接触或相远离。
可以理解的是,当利用多个驱动元件3233对多个染色件3220周期性地推动作用时,可以同时使染色件3220接触耗材1000,也可以使多个染色件3220错开时间地与耗材1000接 触。
实施例18
如图44和图45所示是述3D打印笔的另外变形实施方式,其中3D打印笔包括染色机构4200,其包括墨盒4210、染色件4220和驱动机构4230。这个实施例中,驱动机构4230包括驱动控制件4231和驱动元件4233,驱动元件4233能够产生形变以作用于染色件4220。
更具体地,驱动控制件4231是充气泵装置,其包括气泵、充放气阀和连接管道等部件,驱动元件4233是可充气装置。当驱动控制件4231向驱动元件4233充气时,驱动元件4233充气膨胀以发生形变从而形变后的驱动元件4233作用于染色件4220,以推动染色件4220的至少一部分接触耗材1000,以实现对耗材1000的染色操作。
当不需要当前工作的染色件4220对耗材1000染色时,驱动控制件4231使驱动元件4233放气,放气后的驱动元件4233不再推动染色件4220,染色件4220自动复位以与耗材1000相分离。
实施例19
如图46和图47所示是述3D打印笔的另外变形实施方式,其中3D打印笔包括染色机构4200,其包括墨盒4210、染色件4220和驱动机构4230。这个实施例中,驱动机构4230包括驱动控制件4231和驱动元件4233,驱动元件4233能够产生形变以作用于染色件4220。
更具体地,驱动控制件4231是热变形驱动装置,其包括加热元件以及温度控制等部件,驱动元件4233是可热变形装置。当驱动控制件4231控制驱动元件4233受热而膨胀以发生形变从而形变后的驱动元件4233作用于染色件4220,以推动染色件4220的至少一部分接触耗材1000,以实现对耗材1000的染色操作。
当不需要当前工作的染色件4220对耗材1000染色时,驱动控制件4231使驱动元件4233收缩,收缩后的驱动元件4233不再推动染色件4220,染色件4220自动复位以与耗材1000相分离。
实施例20
如图48和图49所示是述3D打印笔的另外变形实施方式,其中3D打印笔包括染色机构5200,其包括墨盒5210、染色件5220和驱动机构5230。在这个实施例中,驱动机构5230用来驱动墨盒5210运动,从而运动的墨盒5210带动染色件5220运动以接触和远离耗材1000。
更具体地,在这个实施例中,3D打印笔还包括上述笔主体1100,笔主体1100内设置有输送管道1170,以用于输送耗材1000。染色机构5200包括多个墨盒5210,每个墨盒5210安装有一个染色件5220。这些墨盒5210设置在输送管道1170的周围。染色件5220的插接端5221插接于对应的墨盒5210,接触端部5222是一个扩大部,其直径比其他部分的直径大。驱动机构5230包括多个驱动控制件5231,其可以各自设置在对应的墨盒5210,这样转动驱动控制件5231,以驱动墨盒5210转动,如图49所示,对应的染色件5220被转动至能够与耗材1000相接触的位置,从而对耗材1000进行染色操作。可以理解的是,驱动控制件5231可以是手动驱动。在另外的实施方式中,驱动控制件5231也可以包括转动电机,以用来驱动墨盒5210转动。
当不需要当前工作的染色件5220对耗材1000染色时,驱动控制件5231使对应的墨盒5210反转,反转后的墨盒5210使染色件5220复位以与耗材1000相分离。
可以理解的是,在另外的变形实施方式中,染色机构5200也可以包括一个整体墨盒5210,其上安装有多个染色件5220,输送管道1170可以不在墨盒5210的中心位置,而是偏心的设置,从而整体的墨盒5210被驱动转动时,使其中一个染色件5220与偏心设置的输送管道1170输送的耗材1000相接触,从而对耗材1000进行染色操作。
实施例21
如图50和图51所示是述3D打印笔的另外变形实施方式,其中3D打印笔包括染色机构5200,其包括墨盒5210、染色件5220和驱动机构5230。在这个实施例中,驱动机构5230用来驱动墨盒5210摆动,从而运动的墨盒5210带动染色件5220摆动以接触和远离耗材1000。
更具体地,在这个实施例中,3D打印笔还包括上述笔主体1100,笔主体1100内设置有输送管道1170,以用于输送耗材1000。染色机构5200包括墨盒5210,墨盒5210安装有多个染色件5220。这些染色件5220设置在输送管道1170的周围。驱动机构5230包括驱动控制件5231,其可以各自设置在对应的墨盒5210,这样拨动驱动控制件5231,以驱动墨盒5210摆动,如图51所示,对应的染色件5220被摆动至能够与耗材1000相接触的位置,从而对耗材1000进行染色操作。
可以理解的是,驱动机构5230还可包括限位装置,以用来保持墨盒5210的位置。例如限位装置可以是枢转座,墨盒5210安装于该枢转座从而墨盒5210相对于该枢转座能够被驱动而枢转。驱动机构5230的限位装置可以包括可拆卸地将墨盒5210安装于笔主体1100的壳体1110内壁的结构,例如限位装置可以包括墨盒5210和笔主体1100的壳体1110内壁设置的一组磁性吸附元件5211和1111。当驱动控制件5231驱动墨盒5210摆动时,其驱动力大于磁性吸附元件5211和1111之间的吸附力,从而使墨盒5210摆动,当墨盒摆动停止时,墨盒5210和对应的笔主体1100的壳体1110内壁的另外一组磁性吸附元件5211和1111的吸附力使墨盒5210保持固定。
另外,在另外的变形实施方式中,也可以使一对墨盒5210上设置有对应的磁性吸附元件,两个墨盒5210被驱动移动后再通过所述磁性吸附元件吸附在一起,耗材1000可以被夹持在两个染色件5220之间,从而被两个染色件5220染色。
本领域的技术人员应理解,上述描述及附图中所示的本发明的实施例只作为举例而并不限制本发明。本发明的目的已经完整并有效地实现。本发明的功能及结构原理已在实施例中展示和说明,在没有背离所述原理下,本发明的实施方式可以有任何变形或修改。
Claims (62)
- 一种3D打印笔,包括笔主体,所述笔主体设置有喷嘴,所述主体内开设有供耗材穿过的通道,其特征在于,所述笔主体还设置有进丝机构,用于将耗材向喷嘴传输;染色机构,所述染色机构包括有驱动机构和若干个染色件,所述驱动机构推动其中一个或多个染色件同时对耗材进行染色。
- 根据权利要求1所述的一种3D打印笔,其中所述驱动机构包括有滑块,所述滑块向靠近所述染色件的方向运动,使得所述染色件贴近耗材。
- 根据权利要求2所述的一种3D打印笔,其中所述驱动机构还包括换色电机、设于所述换色电机输出轴的偏心轮盘,所述偏心轮盘包括有偏心柱,所述滑块开设有条形槽,所述偏心柱与所述条形槽滑移配合;所述笔主体内设置有供所述滑块滑移的滑槽。
- 根据权利要求1所述的一种3D打印笔,其中所述笔主体还设置有换色转盘,所述换色转盘与所述染色机构控制配合,所述换色转盘用于控制所述驱动机构对染色件的切换。
- 根据权利要求1所述的一种3D打印笔,其中所述笔主体还设置有加热部件,用于对耗材加热熔融;以及搅拌机构,用于对熔融的耗材进行搅拌。
- 根据权利要求1所述的一种3D打印笔,其中所述笔主体内设置有驱动部件,所述驱动部件与所述进丝机构间设有第一传动组件,所述驱动部件与所述搅拌机构间设有第二传动组件,所述驱动部件同步作用于所述进丝机构和所述搅拌机构。
- 根据权利要求6所述的一种3D打印笔,其中所述第一传动组件包括第一换向齿轮;所述第二传动组件包括搅拌传动齿轮,所述第一换向齿轮和所述搅拌传动齿轮均同轴设于所述驱动部件的输出端。
- 根据权利要求6所述的一种3D打印笔,其中所述进丝机构包括送丝齿轮组,所述 送丝齿轮组包括送丝主齿轮和送丝从动轮,所述送丝主齿轮与所述送丝从动轮间形成送丝通道,所述送丝主齿轮设有转轴;所述第一传动组件还包括设于所述转轴的第二换向齿轮,所述第二换向齿轮与第一换向齿轮相啮合。
- 根据权利要求7所述的一种3D打印笔,其中所述第二传动组件还包括有连接套、同轴设于所述连接套的搅拌管齿轮,所述搅拌管齿轮与所述搅拌传动齿轮相啮合,
- 根据权利要求1所述的一种3D打印笔,其中所述笔主体内还设置有防转结构,所述防转结构与经过所述通道的耗材形成限位配合,从而限制耗材的转动。
- 根据权利要求1-10任一项所述的一种3D打印笔,其中所述搅拌机构包括有供耗材送入的搅拌管,所述搅拌管转动设于所述笔主体内;所述喷嘴内形成有搅拌腔,且所述搅拌管与所述搅拌腔相连通。
- 一种根据权利要求1-11任一项所述3D打印笔的使用方法,其特征在于,包括以下步骤:步骤1、上电,供电部件为用电部件提供电源;步骤2、载入耗材,向笔主体的通道内送入耗材,直至耗材伸入至进丝机构;步骤3、染色,通过换色转盘控制驱动机构可选择性地驱动染色件靠近耗材,染色机构对伸入通道内的耗材进行染色过程,形成所需的彩色耗材;以及步骤4、进丝并挤出,进丝机构推动耗材向喷嘴运动,并推动搅拌均匀的熔融彩色耗材从喷嘴挤出。
- 根据权利要求12所述3D打印笔的使用方法,其中在步骤4的过程中还包括有:加热,加热部件通电产生热量;搅拌,搅拌机构对染色且加热熔融后的彩色耗材进行搅拌。
- 根据权利要求12所述的一种3D打印笔的使用方法,其中所述步骤3包括以下染色过程:S1、将换色转盘调节至一位置,第一染色件和第二染色件均不染色,此时,笔主体挤 出的熔融耗材为本色;S2、将换色控制件调节至二位置,第一滑块推动第一染色件(1341)运动,第一染色件对耗材进行染色,此时,笔主体挤出的熔融耗材的颜色即第一染色件的颜色;S3、将换色控制件调节至三位置,第二滑块推动第二染色件运动,第二染色件对耗材进行染色,此时,笔主体挤出的熔融耗材的颜色即第二颜色件的颜色;以及S4、将换色控制件调节至四位置,第一滑块推动第一染色件运动,同时第二滑块推动第二染色件运动,此时,笔主体挤出的熔融耗材的颜色即第一染色件与第二染色件的混合色;其中,S1、S2、S3、S4在使用过程中可任意选择,实现换色。
- 一种3D打印笔的耗材的染色方法,其包括如下步骤:(a)将该耗材在笔主体中的通道中向喷嘴输送;以及(b)将安装于墨盒的染色件的至少一部分与该耗材接触以使该耗材被染色。
- 根据权利要求15所述的3D打印笔的耗材的染色方法,其中包括步骤:通过使所述染色件的至少一部分移动以使所述染色件的至少一部分与该耗材接触,从而使该耗材被染色。
- 根据权利要求15所述的3D打印笔的耗材的染色方法,其中包括步骤:通过使所述染色件移动以使所述染色件的至少一部分与该耗材接触,从而使该耗材被染色。
- 根据权利要求15所述的3D打印笔的耗材的染色方法,其中通过可运动的驱动元件推动对应的所述染色件,以使所述染色件的至少一部分与该耗材接触,从而使该耗材被染色。
- 根据权利要求15所述的3D打印笔的耗材的染色方法,其中包括步骤:通过可转动的驱动元件推动对应的所述染色件,以使所述染色件的至少一部分与该耗材接触,从而使该耗材被染色。
- 根据权利要求15所述的3D打印笔的耗材的染色方法,其中包括步骤:通过可滑动的驱动元件推动对应的所述染色件,以使所述染色件的至少一部分与该耗材接触,从而使该耗材被染色。
- 根据权利要求15所述的3D打印笔的耗材的染色方法,其中包括步骤:通过可形变的驱动元件形变后推动对应的所述染色件,以使所述染色件的至少一部分与该耗材接触, 从而使该耗材被染色。
- 根据权利要求15所述的3D打印笔的耗材的染色方法,其中包括步骤:通过可移动的所述墨盒带动所述染色件移动,以使所述染色件的至少一部分与该耗材接触,从而使该耗材被染色。
- 根据权利要求15所述的3D打印笔的耗材的染色方法,其中包括步骤:通过可往复移动的驱动元件推动对应的所述染色件,以使所述染色件的至少一部分周期性地与该耗材接触,从而使该耗材被染色
- 根据权利要求15至22中任一所述的3D打印笔的耗材的染色方法,其中还包括步骤:将经染色的该耗材加热熔化并搅拌以使混色均匀。
- 根据权利要求15至22中任一所述的3D打印笔的耗材的染色方法,其中还包括步骤:使所述染色件的至少一部分与该耗材相分离以停止使用当前的所述染色件对该耗材的染色操作。
- 根据权利要求15至22中任一所述的3D打印笔的耗材的染色方法,其中还包括步骤:使单独的一个所述染色件的至少一部分与该耗材接触,从而使该耗材被染上一种颜色。
- 根据权利要求15至22中任一所述的3D打印笔的耗材的染色方法,其中还包括步骤:使多个所述染色件的至少一部分分别与该耗材接触,从而使该耗材被染上一种或多种颜色。
- 根据权利要求27所述的3D打印笔的耗材的染色方法,其中还包括步骤:将经染色的该耗材加热熔化并搅拌以使混色均匀。
- 根据权利要求25所述的3D打印笔的耗材的染色方法,其中还包括步骤:使第一染色件的至少一部分与该耗材相接触从而使该耗材被染上第一种颜色;使第一染色件的至少一部分与该耗材相分离;以及使第二染色件的至少一部分与该耗材相接触从而使该耗材被染上第二种颜色。
- 一种3D打印笔,其特征在于,其能够将耗材染色,其包括:笔主体,所述笔主体包括喷嘴,并且所述笔主体内形成有输送该耗材的通道;进丝机构,以用于将该耗材向所述喷嘴输送;染色机构,其包括墨盒、驱动机构和染色件,所述染色件安装于所述墨盒,在所述驱动机构的作用下,所述染色件的至少一部分与该耗材接触,从而使该耗材被染色;以及加热机构,以用于将经染色的该耗材加热熔化。
- 根据权利要求30所述的3D打印笔,其中所述驱动机构包括驱动元件,所述驱动 元件移动以推动和远离所述染色件,从而使所述染色件的至少一部分接触和远离该耗材。
- 根据权利要求31所述的3D打印笔,其中所述驱动机构还包括换色电机和设于所述换色电机的输出轴的偏心轮盘,所述偏心轮盘包括有偏心柱,所述驱动元件是滑块,其具有滑动槽,以与所述偏心柱配合,其中所述滑动槽的延伸方向与所述驱动元件移动方向相垂直。
- 根据权利要求32所述的3D打印笔,其中所述笔主体包括支架,用于安装所述换色电机,所述支架具有供该耗材通过的通孔,并且还设置有供所述驱动元件滑移的滑槽,所述通孔与所述滑槽相连通。
- 根据权利要求30所述的3D打印笔,其中所述驱动机构包括换色电机和耦接于所述换色电机的输出轴的驱动元件,其中所述换色电机转动时驱动所述驱动元件转动,以使所述驱动元件推动和远离所述染色件,从而使所述染色件的至少一部分接触和远离该耗材。
- 根据权利要求30所述的3D打印笔,其中所述驱动机构包括换色电机、耦接于所述换色电机的输出轴的连杆机构和连接于所述连杆机构的驱动元件,其中所述换色电机转动时驱动所述连杆机构运动,以驱动所述驱动元件推动和远离所述染色件,从而使所述染色件的至少一部分接触和远离该耗材。
- 根据权利要求30所述的3D打印笔,其中所述驱动机构包括驱动开关、传动部件和驱动元件,其中所述驱动开关被移动时,驱动所述传动部件移动,以进一步带动所述驱动元件移动,从而使所述驱动元件推动和远离所述染色件,从而使所述染色件的至少一部分接触和远离该耗材。
- 根据权利要求36所述的3D打印笔,其中所述驱动开关被移动时,驱动所述传动部件移动,以进一步带动所述驱动元件滑动或转动。
- 根据权利要求36所述的3D打印笔,其中所述驱动元件包括推动面,其是斜面。
- 根据权利要求36所述的3D打印笔,其中所述驱动元件包括推动面,其是具有峰面和谷面的曲面。
- 根据权利要求30所述的3D打印笔,其中所述驱动机构包括驱动座和驱动元件,所述驱动座驱动所述驱动元件产生往复地移动,以使所述驱动元件周期性地推动和远离所述染色件,从而使所述染色件的至少一部分周期性地接触和远离该耗材。
- 根据权利要求40所述的3D打印笔,其中所述驱动座通过电磁场驱动所述驱动元件产生往复的位移。
- 根据权利要求30所述的3D打印笔,其中所述驱动机构包括驱动控制件和驱动元 件,其中所述驱动控制件控制所述驱动元件以使所述驱动元件产生形变,从而使形变后的所述驱动元件推动和远离所述染色件,从而使所述染色件的至少一部分接触和远离该耗材。
- 根据权利要求42所述的3D打印笔,其中所述驱动控制件使所述驱动元件产生热变形。
- 根据权利要求42所述的3D打印笔,其中所述驱动控制件使所述驱动元件充放气以产生形变。
- 根据权利要求30所述的3D打印笔,其中所述驱动机构驱动所述墨盒移动,以使所述墨盒带动所述染色件移动以接触和远离该耗材。
- 根据权利要求45所述的3D打印笔,其中所述驱动机构驱动所述墨盒转动或摆动,以使所述染色件转动或摆动。
- 根据权利要求30至46中任一所述的3D打印笔,其中所述染色机构包括多个所述染色件,其安装于一个所述墨盒,所述墨盒还具有供该耗材通过的线材孔,多个所述染色件位于所述线材孔的周围。
- 根据权利要求30至46中任一所述的3D打印笔,其中所述染色机构包括多个所述墨盒和多个所述染色件,各个所述染色件被安装于一个对应的所述墨盒,所述笔主体还包括供输送该耗材的输送管道,多个所述墨盒位于所述输送管道的周围。
- 根据权利要求30至46中任一所述的3D打印笔,其中所述染色机构包括多个所述染色件,所述笔主体还设置有换色转盘,所述换色转盘用于控制所述驱动机构对所述染色件进行切换。
- 根据权利要求30至46中任一所述的3D打印笔,其中还包括搅拌机构,用于对被所述加热机构加热熔化的该耗材进行搅拌。
- 根据权利要求50所述的3D打印笔,其中所述搅拌机构包括驱动电机、耦接于所述驱动电机的第二传动组件和耦接于所述第二传动组件的供耗材送入的搅拌管,所述驱动电机转动时,所述搅拌管被所述第二传组组件驱动转动,所述喷嘴内形成有搅拌腔,且所述搅拌管与所述搅拌腔相连通。
- 根据权利要求51所述的3D打印笔,其中所述第二传动组件包括有连接套、同轴设于所述连接套的搅拌管齿轮,所述搅拌管齿轮与所述搅拌传动齿轮相啮合,所述搅拌传动齿轮耦接于所述驱动电机的输出轴。
- 根据权利要求51所述的3D打印笔,其中所述驱动电机进一步地用于驱动所述进丝机构。
- 根据权利要求30至46中任一所述的3D打印笔,其中所述送丝机构还包括驱动电机、第一传动组件和送丝元件,所述驱动电机转动时,通过所述第一传动组件带动所述送丝元件运动,以将该耗材向所述喷嘴输送。
- 根据权利要求54所述的3D打印笔,其中所述送丝元件包括两个送丝齿轮,以在所述第一传动组件的带动下转动以驱动该耗材向所述喷嘴移动。
- 根据权利要求54所述的3D打印笔,其中至少一所述送丝齿轮沿其圆周设有环形嵌槽。
- 根据权利要求30至46中任一所述的3D打印笔,其中所述笔主体的所述通道内设有多个等距分布的防抖筋。
- 根据权利要求30至46中任一所述的3D打印笔,其中所述加热机构包括加热部件,所述进丝机构包括作用于该耗材的送丝元件,所述染色机构的所述染色件位于所述加热部件和所述送丝元件之间。
- 根据权利要求30至46中任一所述的3D打印笔,其中所述加热机构包括加热部件,所述进丝机构包括作用于该耗材的送丝元件,其中所述送丝元件位于所述加热部件和所述染色机构的所述染色件之间。
- 一种应用于3D打印笔的染色机构,其中3D打印笔包括笔主体该笔主体包括喷嘴,并且该笔主体内形成有输送耗材的通道,其特征在于,所述染色机构包括墨盒、驱动机构和染色件,所述染色件安装于所述墨盒,在所述驱动机构的作用下,所述染色件的至少一部分与该通道内的该耗材接触,从而使该耗材被染色。
- 一种带有搅拌机构的3D打印笔,其特征在于,包括:笔主体,笔主体包括喷嘴,并且该笔主体内形成有输送该耗材的通道;进丝机构,以用于将该耗材向所述喷嘴输送;加热机构,以用于将该耗材加热熔化;以及搅拌机构,以用于将加热熔化的该耗材搅拌。
- 根据权利要求61所述的带有搅拌机构的3D打印笔,其中所述搅拌机构包括:驱动电机;第二传动组件;以及搅拌管,以供该耗材穿入,其中所述驱动电机通过所述第二传动组件使所述搅拌管转动设于笔主体内,其中所述喷嘴内形成供搅拌管伸入的搅拌腔,且所述搅拌管与所述搅拌腔相连通。
Applications Claiming Priority (12)
Application Number | Priority Date | Filing Date | Title |
---|---|---|---|
CN202120632546.4U CN215151854U (zh) | 2021-03-29 | 2021-03-29 | 一种带有染色结构的3d打印笔 |
CN202120632550.0 | 2021-03-29 | ||
CN202120632549.8U CN215396945U (zh) | 2021-03-29 | 2021-03-29 | 一种用于3d打印笔的染色组件及具有其的3d打印笔 |
CN202120633572.9U CN214726521U (zh) | 2021-03-29 | 2021-03-29 | 一种3d打印笔 |
CN202120633572.9 | 2021-03-29 | ||
CN202110334979.6 | 2021-03-29 | ||
CN202120632550.0U CN214726534U (zh) | 2021-03-29 | 2021-03-29 | 一种带有着色单元的3d打印笔 |
CN202110335875.7A CN112936860A (zh) | 2021-03-29 | 2021-03-29 | 一种带有染色结构的3d打印笔及其换色方法 |
CN202120632549.8 | 2021-03-29 | ||
CN202110334979.6A CN112936859A (zh) | 2021-03-29 | 2021-03-29 | 一种3d打印笔及其使用方法 |
CN202110335875.7 | 2021-03-29 | ||
CN202120632546.4 | 2021-03-29 |
Publications (1)
Publication Number | Publication Date |
---|---|
WO2022206743A1 true WO2022206743A1 (zh) | 2022-10-06 |
Family
ID=83455610
Family Applications (1)
Application Number | Title | Priority Date | Filing Date |
---|---|---|---|
PCT/CN2022/083608 WO2022206743A1 (zh) | 2021-03-29 | 2022-03-29 | 3d打印笔及其使用方法 |
Country Status (1)
Country | Link |
---|---|
WO (1) | WO2022206743A1 (zh) |
Citations (11)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
CN104786502A (zh) * | 2015-04-24 | 2015-07-22 | 北京太尔时代科技有限公司 | 一种彩色3d打印头及其打印方法 |
US20160101617A1 (en) * | 2014-10-10 | 2016-04-14 | Charles J. Kulas | Fused deposition modeling including color applied to a deposited bead |
CN205636110U (zh) * | 2016-04-09 | 2016-10-12 | 张晓军 | 多色3d打印着色装置 |
CN209832610U (zh) * | 2019-05-12 | 2019-12-24 | 石家庄费米原科技有限公司 | 一种热熔光固化式全彩3d打印笔 |
CN211138135U (zh) * | 2019-11-11 | 2020-07-31 | 江苏浩宇电子科技有限公司 | 着色机构、输出设备及写字笔 |
CN112936860A (zh) * | 2021-03-29 | 2021-06-11 | 江苏浩宇电子科技有限公司 | 一种带有染色结构的3d打印笔及其换色方法 |
CN112936859A (zh) * | 2021-03-29 | 2021-06-11 | 江苏浩宇电子科技有限公司 | 一种3d打印笔及其使用方法 |
CN214726521U (zh) * | 2021-03-29 | 2021-11-16 | 江苏浩宇电子科技有限公司 | 一种3d打印笔 |
CN214726534U (zh) * | 2021-03-29 | 2021-11-16 | 江苏浩宇电子科技有限公司 | 一种带有着色单元的3d打印笔 |
CN215151854U (zh) * | 2021-03-29 | 2021-12-14 | 江苏浩宇电子科技有限公司 | 一种带有染色结构的3d打印笔 |
CN215396945U (zh) * | 2021-03-29 | 2022-01-04 | 江苏浩宇电子科技有限公司 | 一种用于3d打印笔的染色组件及具有其的3d打印笔 |
-
2022
- 2022-03-29 WO PCT/CN2022/083608 patent/WO2022206743A1/zh active Application Filing
Patent Citations (11)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
US20160101617A1 (en) * | 2014-10-10 | 2016-04-14 | Charles J. Kulas | Fused deposition modeling including color applied to a deposited bead |
CN104786502A (zh) * | 2015-04-24 | 2015-07-22 | 北京太尔时代科技有限公司 | 一种彩色3d打印头及其打印方法 |
CN205636110U (zh) * | 2016-04-09 | 2016-10-12 | 张晓军 | 多色3d打印着色装置 |
CN209832610U (zh) * | 2019-05-12 | 2019-12-24 | 石家庄费米原科技有限公司 | 一种热熔光固化式全彩3d打印笔 |
CN211138135U (zh) * | 2019-11-11 | 2020-07-31 | 江苏浩宇电子科技有限公司 | 着色机构、输出设备及写字笔 |
CN112936860A (zh) * | 2021-03-29 | 2021-06-11 | 江苏浩宇电子科技有限公司 | 一种带有染色结构的3d打印笔及其换色方法 |
CN112936859A (zh) * | 2021-03-29 | 2021-06-11 | 江苏浩宇电子科技有限公司 | 一种3d打印笔及其使用方法 |
CN214726521U (zh) * | 2021-03-29 | 2021-11-16 | 江苏浩宇电子科技有限公司 | 一种3d打印笔 |
CN214726534U (zh) * | 2021-03-29 | 2021-11-16 | 江苏浩宇电子科技有限公司 | 一种带有着色单元的3d打印笔 |
CN215151854U (zh) * | 2021-03-29 | 2021-12-14 | 江苏浩宇电子科技有限公司 | 一种带有染色结构的3d打印笔 |
CN215396945U (zh) * | 2021-03-29 | 2022-01-04 | 江苏浩宇电子科技有限公司 | 一种用于3d打印笔的染色组件及具有其的3d打印笔 |
Similar Documents
Publication | Publication Date | Title |
---|---|---|
WO2022205637A1 (zh) | 一种带有染色结构的3d打印笔及其换色方法 | |
WO2022205636A1 (zh) | 一种3d打印笔及其使用方法 | |
CN102922745B (zh) | 一种可切换送料的三维打印机挤出头 | |
CN205310846U (zh) | 一种具备混色功能的多色打印机 | |
US9889607B2 (en) | Three-dimensional printer with integrated coloring system | |
KR20180001044U (ko) | 휴대용 3차원 드로잉 장치 | |
CN215151854U (zh) | 一种带有染色结构的3d打印笔 | |
CN203157146U (zh) | 一种可切换送料的三维打印机挤出头 | |
CN106103052A (zh) | 与三维打印机一起使用的系统及用于使用该系统的方法 | |
WO2023040974A1 (zh) | 耗材着色机构及热熔器和3d打印笔 | |
CN214726521U (zh) | 一种3d打印笔 | |
CN107199697B (zh) | 涂色式fdm彩色3d打印机及其转移覆盖着色法 | |
CN205364550U (zh) | 一种胶枪式光固化3d打印笔 | |
WO2022206743A1 (zh) | 3d打印笔及其使用方法 | |
CN215396945U (zh) | 一种用于3d打印笔的染色组件及具有其的3d打印笔 | |
KR20170056836A (ko) | 3d 프린터용 익스트루더 및 이를 구비하는 멀티 컬러 3d 프린터 | |
CN106515005B (zh) | 精混式堆积成型法及总成以及彩色fdm-3d打印机 | |
CN214726534U (zh) | 一种带有着色单元的3d打印笔 | |
CN112676120B (zh) | 一种新型胶枪 | |
CN215396919U (zh) | 一种带有染色控制单元的3d打印笔 | |
US11760019B2 (en) | 3D printing pen and use method therefor | |
CN107599396B (zh) | 3d打印机喷头单元及3d打印机 | |
CN105994862A (zh) | 一种巧克力3d打印笔 | |
CN214820909U (zh) | 一种搅拌及进丝同步的3d打印笔 | |
CN109130175B (zh) | 一种多色3d打印装置 |
Legal Events
Date | Code | Title | Description |
---|---|---|---|
121 | Ep: the epo has been informed by wipo that ep was designated in this application |
Ref document number: 22778925 Country of ref document: EP Kind code of ref document: A1 |
|
NENP | Non-entry into the national phase |
Ref country code: DE |
|
122 | Ep: pct application non-entry in european phase |
Ref document number: 22778925 Country of ref document: EP Kind code of ref document: A1 |