CN204894553U - Compressor refrigerates and extrudes subassembly integral type three -dimensional inkjet printer - Google Patents

Compressor refrigerates and extrudes subassembly integral type three -dimensional inkjet printer Download PDF

Info

Publication number
CN204894553U
CN204894553U CN201520685668.4U CN201520685668U CN204894553U CN 204894553 U CN204894553 U CN 204894553U CN 201520685668 U CN201520685668 U CN 201520685668U CN 204894553 U CN204894553 U CN 204894553U
Authority
CN
China
Prior art keywords
axis
stepper motor
guide rail
air
box body
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Expired - Fee Related
Application number
CN201520685668.4U
Other languages
Chinese (zh)
Inventor
陈永方
王震虎
刘扬
陈帮军
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Huanghe Science and Technology College
Original Assignee
Huanghe Science and Technology College
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Huanghe Science and Technology College filed Critical Huanghe Science and Technology College
Priority to CN201520685668.4U priority Critical patent/CN204894553U/en
Application granted granted Critical
Publication of CN204894553U publication Critical patent/CN204894553U/en
Expired - Fee Related legal-status Critical Current
Anticipated expiration legal-status Critical

Links

Abstract

Compressor refrigerates and extrudes subassembly integral type three -dimensional inkjet printer, including compressor refrigerator and Y axle frame, Y axle frame rear side is equipped with Y axis stepper motor, Y axle frame is improved level and is equipped with Y spindle guide rail, it is equipped with the processing platform to slide on the Y spindle guide rail, Y axis stepper motor is connected with processing platform bottom transmission, processing platform left and right sides fixedly connected with Z axle frame, Z axle frame bottom is equipped with Z axis stepper motor, be equipped with Z spindle guide rail on the Z axle frame, it is equipped with X axle frame to slide on the Z spindle guide rail, Z axis stepper motor is connected with the transmission of X axle frame, X axle frame one end is equipped with X axis stepper motor, be equipped with X spindle guide rail on the X axle frame, it is equipped with three -dimensional material extrusion subassembly to slide on the X spindle guide rail, X axis stepper motor is connected with the transmission of three -dimensional material extrusion subassembly. The utility model relates to a novelty, compact structure, transmission stability are high, in time cool off the hot -melt material who extrudes, and warping can not appear in the product that prints, and the printing precision improves greatly.

Description

Compressor cooling with extrude assembly integral type three-dimensional printer
Technical field
The utility model belongs to three-dimensionally shaped technical field, particularly relates to a kind of compressor cooling and extrudes assembly integral type three-dimensional printer.
Background technology
Three-dimensional printing technology, design a model as source with Computerized three-dimensional, discrete and the numerical control molding system by software hierarchy, utilize the mode such as laser beam, hot melt nozzle successively to be piled up by the special materials such as metal dust, ceramic powders, plastics, cell tissue to cohere, final superposition is shaping, produces entity products.3D solid is become several two dimensional surfaces by 3 D-printing, producing, greatly reducing the complexity of manufacture by also successively superposing material processed.This Digitized manufacturing pattern directly just can generate the part of any shape from computer graphics data.Fusion sediment moulding (FDM) technology is a mainstream technology in three-dimensional printing technology, and FDM technology is that cad model is divided into cross section very thin from level to level, generates the two-dimensional geometry information controlling 3 D-printing machine nozzle motion track.The heating head of three-dimensional printer is heated to critical condition heat-fusible materials (ABS resin, nylon, wax etc.), present quasi-fluid properties, under the control of the computer, along the two-dimensional geometry information movement track that CAD determines, the material of half flow regime squeezes out by extruder head, solidifies the thin layer forming contour shape.After one deck, fallen by vertical lift system and newly form layer, be cured.Pile up bonding so layer by layer, form the 3D solid of this model from bottom to top.
One of key issue of the three-dimensional printer of application FDM technology is formed precision problem, affects a lot of because have of formed precision, the problem etc. comprising frame strength, transmission stability and cool heat-fusible materials.Frame strength deficiency can cause printer to occur the change of fitted position in the course of the work, impacts formed precision; Intensity deficiency also can cause transmission stability not high, and vibrations appear in printhead walking process mid frame, and printing precision is reduced; Heat-fusible materials cools too slow after extruder head is extruded, and there will be heat-fusible materials and is naturally elongated by gravity, causes the model printed to occur the problem of being out of shape.So, for improving printing precision, needing badly and existing three-dimensional printer is improved.
Utility model content
The utility model in order to solve weak point of the prior art, provide that a kind of compact conformation, intensity are high, transmission stability good, shortening heat melt material cool time, promote printing precision compressor cooling with extrude assembly integral type three-dimensional printer.
For solving the problems of the technologies described above, the utility model adopts following technical scheme: compressor cooling with extrude assembly integral type three-dimensional printer, comprise compression mechanism cooler and Y-axis framework, y-axis stepper motor is provided with on rear side of Y-axis framework, on Y-axis framework, level is provided with Y-axis guide rail, Y-axis slide on rails is provided with processing platform, y-axis stepper motor is connected with processing platform bottom driving by Y-axis synchronous belt drive mechanism, the processing platform left and right sides is fixedly connected with Z axis framework, Z axis base of frame is provided with Z axis stepper motor, Z axis framework is provided with Z axis guide rail, Z axis slide on rails is provided with X-axis framework, Z axis stepper motor is in transmission connection by ball screw assembly, and X-axis framework, X-axis framework one end is provided with X-axis stepper motor, X-axis framework is provided with X-axis guide rail, X-axis slide on rails is provided with three-dimensional material and extrudes assembly, X-axis stepper motor is extruded assembly by X-axis synchronous belt drive mechanism and three-dimensional material and is in transmission connection,
Three-dimensional material is extruded assembly and is comprised the slide block sliding and be located on X-axis guide rail, and slide block is provided with extruder, and the discharging opening of extruder lower end is connected with extruding pipe, and extruding pipe is provided with heater, and extruding pipe lower end is connected with extruder head;
Compression mechanism cooler comprises housing, be provided with box body in housing and be positioned at the refrigeration compressor at box body top, condenser, condensation radiator, choke valve, air quantity regulates motor and turbofan, evaporimeter is provided with and for regulating the air door of ventilation-sectional area size in box body in box body, the rotating shaft be rotatably connected on box body is vertically provided with in the middle part of air door, air quantity regulates the main shaft of motor to be connected with rotating shaft transmission, condensation radiator is located on condenser, housing is provided with the heat radiation air-inlet window of contiguous refrigeration compressor and the heat radiation air outlet window of contiguous condensation radiator, refrigeration compressor, condenser, choke valve, evaporimeter and refrigeration compressor sequentially pass through pipeline and are connected, housing is provided with the cooling air-inlet window be connected with turbofan air inlet, box body is provided with the air intake vent be communicated with turbofan air outlet, air door is between air intake vent and evaporimeter, box body is connected with wind scooper in one end of contiguous evaporimeter, and the outlet of wind scooper is connected with cooling jet, and cooling jet is located at below slide block by connecting plate, and the blowing mouth of cooling jet is towards the outlet of extruder head.
Adopt technique scheme, the processing platform in the utility model and being all slidably connected by sliding bearing between Y-axis guide rail, between X-axis framework and Z axis guide rail, between slide block and X-axis guide rail.
The utility model has following beneficial effect:
1, X axis, Y-axis and Z-axis direction all adopt driving stepper motor, and adopt ball screw assembly, or synchronous belt drive mechanism as transmission mechanism, and accurate sliding bearing is all adopted at the place of being slidably connected, steadily mobile, mobile accuracy is high, thus raising three-dimensional material extrudes the stability of assembly and the precision of movement.
2, compression mechanism cooler and three-dimensional material are extruded between assembly and are adopted one interconnection system structure, make compact integral structure, volume little, make the cold air produced can blow to extruder head outlet position very soon, and eliminate airduct, cold wind can not carry out heat exchange by longer airduct and the external world, thus improves cooling effectiveness and effect.Refrigeration principle of the present utility model is: refrigeration compressor is compressed into high temperature and high pressure gas cold-producing medium by low temperature low pressure gas, then becomes the liquid of normal temperature high voltage through condenser condenses, after choke valve throttling, then becomes the liquid of low-temp low-pressure.The liquid refrigerant of low-temp low-pressure sends into evaporimeter, and in evaporimeter, heat absorption is evaporated and becomes the steam of high-temperature low-pressure, is again delivered into refrigeration compressor, thus completes kind of refrigeration cycle.
After air in box body is cooled, turbofan is dried in box body, air-flow is cooled through evaporimeter, cold air sprays to the exit of extruder head by wind scooper and cooling jet, the material of half flow regime squeezes out by extruder head, brute force through cold wind cools, and quick solidification forms the thin layer of contour shape.So just avoid cool time long, the situation causing heat molten type material to produce distortion due to self gravitation effect occurs.
Air quantity regulates motor to drive air door to rotate by rotating shaft, and air door rotates the ventilation-sectional area that can regulate box body, thus regulates the air output of cooling jet, reaches the object regulating cooling effect.
In sum, the utility model modern design, compact conformation, transmission stability are high, cool in time the heat-fusible materials extruded, and the product printed there will not be distortion, and printing precision improves greatly.
Accompanying drawing explanation
Fig. 1 is perspective view of the present utility model;
Fig. 2 is the internal structure schematic diagram of compression mechanism cooler in Fig. 1;
Fig. 3 is that in the utility model, compression mechanism cooler and three-dimensional material extrude the floor map connected between assembly;
Fig. 4 is the appearance structure schematic diagram of compression mechanism cooler in Fig. 1.
Detailed description of the invention
As Figure 1-Figure 4, compressor cooling of the present utility model with extrude assembly integral type three-dimensional printer, comprise compression mechanism cooler 1 and Y-axis framework 2, y-axis stepper motor 3 is provided with on rear side of Y-axis framework 2, on Y-axis framework 2, level is provided with Y-axis guide rail 4, Y-axis guide rail 4 slides and is provided with processing platform 5, y-axis stepper motor 3 is connected with processing platform 5 bottom driving by Y-axis synchronous belt drive mechanism 6, processing platform 5 left and right sides is fixedly connected with Z axis framework 7, Z axis stepper motor 8 is provided with bottom Z axis framework 7, Z axis framework 7 is provided with Z axis guide rail 9, Z axis guide rail 9 slides and is provided with X-axis framework 10, Z axis stepper motor 8 is in transmission connection by ball screw assembly, 11 and X-axis framework 10, X-axis framework 10 one end is provided with X-axis stepper motor 12, X-axis framework 10 is provided with X-axis guide rail 13, on X-axis guide rail 13, slip is provided with three-dimensional material and extrudes assembly 14, X-axis stepper motor 12 is extruded assembly 14 by X-axis synchronous belt drive mechanism 15 and three-dimensional material and is in transmission connection.
Three-dimensional material is extruded assembly 14 and is comprised the slide block 16 sliding and be located on X-axis guide rail 13, and slide block 16 is provided with extruder 17, and the discharging opening of extruder 17 lower end is connected with extruding pipe 18, and extruding pipe 18 is provided with heater 19, and extruding pipe 18 lower end is connected with extruder head 30.
Compression mechanism cooler 1 comprises housing 20, be provided with box body 21 in housing 20 and be positioned at the refrigeration compressor 22 at box body 21 top, condenser 23, condensation radiator 24, choke valve 25, air quantity regulates motor 26 and turbofan 27, evaporimeter 28 is provided with and for regulating the air door 31 of ventilation-sectional area size in box body 21 in box body 21, the rotating shaft 32 be rotatably connected on box body 21 is vertically provided with in the middle part of air door 31, air quantity regulates the main shaft of motor 26 and rotating shaft 32 to be in transmission connection, condensation radiator 24 is located on condenser 23, housing 20 is provided with the heat radiation air-inlet window 33 of contiguous refrigeration compressor 22 and the heat radiation air outlet window 34 of contiguous condensation radiator 24, refrigeration compressor 22, condenser 23, choke valve 25, evaporimeter 28 sequentially passes through pipeline with refrigeration compressor 22 and is connected, housing 20 is provided with the cooling air-inlet window 35 be connected with turbofan 27 air inlet, box body 21 is provided with the air intake vent be communicated with turbofan 27 air outlet, air door 31 is between air intake vent and evaporimeter 28, box body 21 is connected with wind scooper 36 in one end of contiguous evaporimeter 28, and the outlet of wind scooper 36 is connected with cooling jet 38, and cooling jet 38 is located at below slide block 16 by connecting plate 39, and the blowing mouth of cooling jet 38 is towards the outlet of extruder head 30.
All be slidably connected by sliding bearing 29 between processing platform 5 and Y-axis guide rail 4, between X-axis framework 10 and Z axis guide rail 9, between slide block 16 and X-axis guide rail 13.
X axis, Y-axis and Z-axis direction all adopt driving stepper motor, and adopt ball screw assembly, 11 or synchronous belt drive mechanism as transmission mechanism, and accurate sliding bearing 29 is all adopted at the place of being slidably connected, steadily mobile, mobile accuracy is high, thus raising three-dimensional material extrudes the stability of assembly 14 and the precision of movement.
Refrigeration principle of the present utility model is: refrigeration compressor 22 is compressed into high temperature and high pressure gas cold-producing medium by low temperature low pressure gas, then is condensed into the liquid of normal temperature high voltage through condenser 23, after choke valve 25 throttling, then becomes the liquid of low-temp low-pressure.The liquid refrigerant of low-temp low-pressure sends into evaporimeter 28, and in evaporimeter 28, heat absorption is evaporated and becomes the steam of high-temperature low-pressure, is again delivered into refrigeration compressor 22, thus completes kind of refrigeration cycle.
After air in box body 21 is cooled, turbofan 27 is dried in box body 21, air-flow is cooled through evaporimeter 28, cold air sprays to the exit of extruder head by wind scooper 36 and cooling jet 38, the material of half flow regime squeezes out by extruder head, brute force through cold wind cools, and quick solidification forms the thin layer of contour shape.So just avoid cool time long, the situation causing heat molten type material to produce distortion due to self gravitation effect occurs.
Air quantity regulates motor 26 to drive air door 31 to rotate by rotating shaft 32, and air door 31 rotates the ventilation-sectional area that can regulate box body 21, thus regulates the air output of cooling jet 38, reaches the object regulating cooling effect.
The present embodiment not does any pro forma restriction to shape of the present utility model, material, structure etc.; every above embodiment is done according to technical spirit of the present utility model any simple modification, equivalent variations and modification, all belong to the protection domain of technical solutions of the utility model.

Claims (1)

1. compressor cooling with extrude assembly integral type three-dimensional printer, it is characterized in that: comprise compression mechanism cooler and Y-axis framework, y-axis stepper motor is provided with on rear side of Y-axis framework, on Y-axis framework, level is provided with Y-axis guide rail, Y-axis slide on rails is provided with processing platform, y-axis stepper motor is connected with processing platform bottom driving by Y-axis synchronous belt drive mechanism, the processing platform left and right sides is fixedly connected with Z axis framework, Z axis base of frame is provided with Z axis stepper motor, Z axis framework is provided with Z axis guide rail, Z axis slide on rails is provided with X-axis framework, Z axis stepper motor is in transmission connection by ball screw assembly, and X-axis framework, X-axis framework one end is provided with X-axis stepper motor, X-axis framework is provided with X-axis guide rail, X-axis slide on rails is provided with three-dimensional material and extrudes assembly, X-axis stepper motor is extruded assembly by X-axis synchronous belt drive mechanism and three-dimensional material and is in transmission connection,
Three-dimensional material is extruded assembly and is comprised the slide block sliding and be located on X-axis guide rail, and slide block is provided with extruder, and the discharging opening of extruder lower end is connected with extruding pipe, and extruding pipe is provided with heater, and extruding pipe lower end is connected with extruder head;
Compression mechanism cooler comprises housing, be provided with box body in housing and be positioned at the refrigeration compressor at box body top, condenser, condensation radiator, choke valve, air quantity regulates motor and turbofan, evaporimeter is provided with and for regulating the air door of ventilation-sectional area size in box body in box body, the rotating shaft be rotatably connected on box body is vertically provided with in the middle part of air door, air quantity regulates the main shaft of motor to be connected with rotating shaft transmission, condensation radiator is located on condenser, housing is provided with the heat radiation air-inlet window of contiguous refrigeration compressor and the heat radiation air outlet window of contiguous condensation radiator, refrigeration compressor, condenser, choke valve, evaporimeter and refrigeration compressor sequentially pass through pipeline and are connected, housing is provided with the cooling air-inlet window be connected with turbofan air inlet, box body is provided with the air intake vent be communicated with turbofan air outlet, air door is between air intake vent and evaporimeter, box body is connected with wind scooper in one end of contiguous evaporimeter, and the outlet of wind scooper is connected with cooling jet, and cooling jet is located at below slide block by connecting plate, and the blowing mouth of cooling jet is towards the outlet of extruder head.
CN201520685668.4U 2015-09-07 2015-09-07 Compressor refrigerates and extrudes subassembly integral type three -dimensional inkjet printer Expired - Fee Related CN204894553U (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
CN201520685668.4U CN204894553U (en) 2015-09-07 2015-09-07 Compressor refrigerates and extrudes subassembly integral type three -dimensional inkjet printer

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CN201520685668.4U CN204894553U (en) 2015-09-07 2015-09-07 Compressor refrigerates and extrudes subassembly integral type three -dimensional inkjet printer

Publications (1)

Publication Number Publication Date
CN204894553U true CN204894553U (en) 2015-12-23

Family

ID=54916762

Family Applications (1)

Application Number Title Priority Date Filing Date
CN201520685668.4U Expired - Fee Related CN204894553U (en) 2015-09-07 2015-09-07 Compressor refrigerates and extrudes subassembly integral type three -dimensional inkjet printer

Country Status (1)

Country Link
CN (1) CN204894553U (en)

Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN106003728A (en) * 2016-06-28 2016-10-12 杭州铭展网络科技有限公司 3D printer for cylindrical wall forming
CN109158603A (en) * 2018-08-09 2019-01-08 燕山大学 A kind of metalwork 3D printer with compacting functions
CN114311222A (en) * 2022-01-19 2022-04-12 安徽理工大学 Device and method for additive manufacturing of ultra-low temperature solidified super-saturated soil

Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN106003728A (en) * 2016-06-28 2016-10-12 杭州铭展网络科技有限公司 3D printer for cylindrical wall forming
CN109158603A (en) * 2018-08-09 2019-01-08 燕山大学 A kind of metalwork 3D printer with compacting functions
CN109158603B (en) * 2018-08-09 2019-08-27 燕山大学 A kind of metalwork 3D printer with compacting functions
CN114311222A (en) * 2022-01-19 2022-04-12 安徽理工大学 Device and method for additive manufacturing of ultra-low temperature solidified super-saturated soil

Similar Documents

Publication Publication Date Title
CN204914605U (en) Compressor refrigeration formula three -dimensional inkjet printer
CN204894553U (en) Compressor refrigerates and extrudes subassembly integral type three -dimensional inkjet printer
CN205800202U (en) 3D prints with printhead, control system and 3D printer
CN204894548U (en) Compressor refrigeration formula three -dimensional inkjet printer's fan cooler
CN106079434A (en) 3D prints with printhead, control system, 3D printer and Method of printing
CN204914600U (en) Semiconductor refrigeration formula three -dimensional inkjet printer
CN204936220U (en) The rack mount configurations of Timing Belt drive-type parallel arm three-dimensional printer
CN204894552U (en) Compressor refrigeration formula three -dimensional inkjet printer's integral type cooling printing device
CN204894545U (en) Compressor refrigeration formula three -dimensional inkjet printer's base mounting structure
CN113400640B (en) Quick two laser printing equipment of cooling type
CN204914595U (en) Ball drive formula parallel arm three -dimensional inkjet printer's frame mounting structure
CN204914598U (en) Semiconductor refrigeration formula three -dimensional inkjet printer's air -cooled printing device
CN203650997U (en) Discharge cooling device for 3D (three-dimensional) printer
CN204820368U (en) Quick cooling device of model of 3D printer
CN204894554U (en) Semiconductor refrigeration with extrude subassembly integral type three -dimensional inkjet printer
CN204894546U (en) Integral type parallel arm three -dimensional inkjet printer is printed in compressor cooling
CN204894542U (en) Compressor cooling and timing belt drive formula parallel arm three -dimensional inkjet printer
CN204914599U (en) Semiconductor refrigeration formula three -dimensional inkjet printer's base structure
CN204894547U (en) Compressor cooled parallel arm three -dimensional inkjet printer's base mounting structure
CN204894549U (en) Compressor cooling and timing belt drive integral type parallel arm three -dimensional inkjet printer
CN204894555U (en) Parallel arm three -dimensional inkjet printer's integral type cooling printing device
CN204894551U (en) Compressor cooling and ball drive formula parallel arm three -dimensional inkjet printer's air -cooled system
CN111674044A (en) Full-color 3D printer
CN204894550U (en) Compressor cooling and ball drive integral type parallel arm three -dimensional inkjet printer
CN204894544U (en) Compressor cooling and linear electric motor drive formula parallel arm three -dimensional inkjet printer

Legal Events

Date Code Title Description
C14 Grant of patent or utility model
GR01 Patent grant
CF01 Termination of patent right due to non-payment of annual fee

Granted publication date: 20151223

Termination date: 20160907

CF01 Termination of patent right due to non-payment of annual fee