Abstract: A feeding apparatus for forming 3D object includes a frame structure, a transmission set, an actuator, a swing unit and a controller having a sensor. The feeding apparatus is arranged on a 3D printer equipped with printing mechanism and a filament spool. When the filament is fed into a passageway of the frame structure to push the swing unit, the sensor senses the displacement of swing unit to generate a sensing signal. The controller controls the actuator to drive the transmission set according to the sensing signal, whereby the wire can be smoothly fed into the printing mechanism.

Abstract: A three-dimensional printing head includes a housing (100), a fusing module (200) arranged in the housing (100), and a heat dissipation module (300). The fusing module (200) is disposed in the housing (100) and includes a feeding tube (210) with both ends open. A feeding inlet (211) for receiving a filament material (20) is at one end of the feeding tube (210), a supplying nozzle (220) is at the other end of the feeding tube (210), and multiple fins (212) are formed outside of the feeding tube (210). A heater (230) is disposed at the supplying nozzle (220) to heat the same for melting the filament material (20). The heat dissipation module (300) includes a fan (310) arranged in the housing (100), and the fan (310) has an inlet side (311) and an outlet side (312) opposite thereto. The outlet side (312) is arranged toward the fusing module (200).

Abstract: A filament-fusing apparatus includes a first body, a first-heating element, a second body and a second-heating element. The first body includes a first surface and a first-filament groove disposed thereon. The first-heating element disposed on the first surface has a first-connecting groove and a first-overflow groove. Two opposite sides of the first-connecting groove connect the first-filament groove. An axial side of the first-connecting groove connects the first-overflow groove. The second body includes a second surface and a second-filament groove disposed thereon. The second-heating element disposed on the second surface has a second-connecting groove and a second-overflow groove. Two opposite sides of the second-connecting groove connect the second-filament groove. An axial side of the second-connecting groove connects the second-overflow groove.

Abstract: A feeding apparatus for forming 3D object includes a frame structure, a transmission set, an actuator, a swing unit and a controller having a sensor. The feeding apparatus is arranged on a 3D printer equipped with printing mechanism and a filament spool. When the filament is fed into a passageway of the frame structure to push the swing unit, the sensor senses the displacement of swing unit to generate a sensing signal. The controller controls the actuator to drive the transmission set according to the sensing signal, whereby the wire can be smoothly fed into the printing mechanism.

Abstract: A three-dimensional printing apparatus and a method of compensating a coordinate offset of a nozzle are provided. The method includes the following. A first nozzle and a second nozzle are controlled to print a testing three-dimensional object on a platform according to a calibration model. The testing three-dimensional object includes a plurality of correlation structures respectively corresponding to a plurality of compensation parameters, and each correlation structure includes a first sub-structure and a second sub-structure. The first sub-structure is formed of a first forming material, and the second sub-structure is formed of a second forming material. Through observing a joint level between the first sub-structure and the second sub-structure of each correlation structure, a best correlation structure, which is used for performing compensation on a printing coordinate of the first nozzle or the second nozzle, is selected from the correlation structures.

Abstract: A printing head module includes a bracket, a locking mechanism disposed on the bracket and a printing head. The bracket includes a containing cavity and a supporter. The locking mechanism includes a pressing component fixed to the supporter, a locking component and an elastic component. The locking component pivoted to the pressing component such that the elastic component leans therebetween. The locking component has a first positioning portion. The printing head detachably disposed in the containing cavity includes a second positioning component. The first positioning portion is engaged with the second positioning component, so the elastic component is pressed to provide the locking component a restoring force away from the pressing component to confine the printing head between the locking component and the bracket.

Abstract: A three-dimensional (3D) printing apparatus, a printing calibration board and a three dimensional printing calibration method thereof are provided. The three-dimensional printing apparatus is adapted to spray the printing material. The three-dimensional printing apparatus includes a nozzle module, a printing platform and a control unit. The printing platform has a carrying surface, where the calibration pattern is disposed on the carrying surface. The calibration pattern at least includes a datum path and a first auxiliary path. The control unit controls the nozzle module coupled to the control unit to spray the printing material along the datum path, and the printing speed of the nozzle module is adjusted in response to the width of coverage of the printing material on the calibration pattern.

Abstract: A 3-D printing apparatus is configured to make a modeling material form a 3-D object layer by layer. The 3-D printing apparatus includes a printing assembly and a cleaning unit. The printing assembly includes a feeding tube, a nozzle and a driving wheel set disposed between the feeding tube and the nozzle to drive the modeling material transferred to the nozzle from the feeding tube and then exiting from the printing assembly via the nozzle so as to form a 3-D object layer by layer. The cleaning unit has a brush, in which the brush leans against on the driving wheel set to clean out the residual modeling material while the driving wheel set rotates relatively to the cleaning unit.

Abstract: A printing head module includes a bracket, a locking mechanism disposed on the bracket and a printing head. The bracket includes a containing cavity and a supporter. The locking mechanism includes a pressing component fixed to the supporter, a locking component and an elastic component. The locking component pivoted to the pressing component such that the elastic component leans therebetween. The locking component has a first positioning portion. The printing head detachably disposed in the containing cavity includes a second positioning component. The first positioning portion is engaged with the second positioning component, so the elastic component is pressed to provide the locking component a restoring force away from the pressing component to confine the printing head between the locking component and the bracket.

Abstract: A printing head module is provided. The printing head module includes a bracket, a motor and a printing head. The bracket is slidingly disposed on a sliding rail and includes a containing cavity and at least one first locking portion. The motor is coupled to the bracket for driving the bracket to slide along the sliding rail. The printing head includes a material-supply channel, a nozzle and at least one second locking portion structurally corresponding to the first locking portion. The material-supply channel is connected to the nozzle, so that when the printing head is detachably disposed in the containing cavity, the second locking portion is locked with the first locking portion to fix the printing head to the bracket.

Abstract: A 3-D printing apparatus is configured to make a modeling material form a 3-D object layer by layer. The 3-D printing apparatus includes a printing assembly and a cleaning unit. The printing assembly includes a feeding tube, a nozzle and a driving wheel set disposed between the feeding tube and the nozzle to drive the modeling material transferred to the nozzle from the feeding tube and then exiting from the printing assembly via the nozzle so as to form a 3-D object layer by layer. The cleaning unit has a brush, in which the brush leans against on the driving wheel set to clean out the residual modeling material while the driving wheel set rotates relatively to the cleaning unit.

Abstract: A three-dimensional (3D) scanner including a light-source module, a screen, a rotary platform, an image capturing unit and a process unit is provided. The light source module is configured to emit a beam. The screen disposed on a transmission path of the beam has a projection surface facing the light source module. The rotary platform carrying a 3D object is disposed between the light source module and the screen. The 3D object is rotated to a plurality of object orientations about a rotating axis to form a plurality of object shadows on the projection surface. The image capturing unit is configured to capture the object shadows from the projection surface to obtain a plurality of object contour images. The process unit is configured to read and process the object contour images to build the digital 3D model related to the 3D object according to the object contour images.

Abstract: A three-dimensional (3-D) printer and a method for adjusting a working coordinate of a platform thereof are provided. The 3-D printer includes a platform, a printing head and a control unit. The platform includes a carrying surface and adjustment points located on the carrying surface. The printing head disposed above the platform for moving along a datum plane and a normal direction of the datum plane. The control unit controls the printing head to move from the datum plane toward the platform to contact each of the adjustment points for obtaining a coordinate offset of the carrying surface corresponding to the datum plane, and adjusts a model coordinate of a digital 3-D model information according to the coordinate offset. The control unit moves the printing head according to the adjusted model coordinate to print a 3-D object related to the digital 3-D model information on the carrying surface.

Abstract: A wire fusing apparatus including a first body having a first surface, a second body having a second surface, and a heating unit is provided. The second body is pivoted to the first body to rotate relatively to the first body enabling the first and second bodies to be in an expanded or a closed state. When the first and second bodies are in the closed state, the first and second surfaces define a closed containing groove for containing two independent wires butt jointed with each other. The first surface, the second surface and the containing groove each has a heat-conducting region, and the heat-conducting regions contact each other when the first and second bodies are in the closed state. The heating unit disposed on the first or second body contacts one of the heat-conducting regions for heat-fusing a butt-jointing point of the wires to form a fused wire.

Abstract: A paper-stopped linkage mechanism, located at the upper cover of the office machine, includes a paper feeder mechanism, a paper stopper mechanism and a linkage. The paper feeder mechanism is movably located at the upper cover and has at least one paper-feeding roller. The paper stopper mechanism is movably located at the upper cover. The linkage is swingingly pivoted with the upper cover. The linkage has a first linking portion and a second linking portion. The first linking portion and the second linking portion are respectively connected with the paper feeder mechanism and the paper stopper mechanism. The paper feeder mechanism and the paper stopper mechanism are linked by the linkage and move in the opposite directions. Both the paper feeder mechanism and the paper stopper mechanism are located at the upper cover and are linked by the linkage so that the paper stopper mechanism can be driven immediately.

Abstract: A paper-stopped linkage mechanism, located at the upper cover of the office machine, includes a paper feeder mechanism, a paper stopper mechanism and a linkage. The paper feeder mechanism is movably located at the upper cover and has at least one paper-feeding roller. The paper stopper mechanism is movably located at the upper cover. The linkage is swingingly pivoted with the upper cover. The linkage has a first linking portion and a second linking portion. The first linking portion and the second linking portion are respectively connected with the paper feeder mechanism and the paper stopper mechanism. The paper feeder mechanism and the paper stopper mechanism are linked by the linkage and move in the opposite directions. Both the paper feeder mechanism and the paper stopper mechanism are located at the upper cover and are linked by the linkage so that the paper stopper mechanism can be driven immediately.

Abstract: A scanner optical module has a single transmission axle used to support a scanning module (containing a traditional optical device or CIS). The scanning module has a plurality of protrusions (or rollers) slidably (or rotatably) contacting the transparent document platform (view). The scanner optical module has fewer assembled components, a simpler structure, a decreased material cost and production cost, and is modular.

Abstract: A scanner optical module has a single transmission axle used to support a scanning module (containing a traditional optical device or CIS). The scanning module has a plurality of protrusions (or rollers) slidably (or rotatably) contacting the transparent document platform (view). The scanner optical module has fewer assembled components, a simpler structure, a decreased material cost and production cost, and is modular.

Abstract: The invention relates to a service station for an inkjet printer. The service station includes at least one cap for capping a printhead which is mounted on an inkjet carriage of the inkjet printer. The service station also includes at least one wiper arranged to wipe said printhead carried by the inkjet carriage. The wiper is arranged to move towards and away from the printhead in response to movement of the inkjet carriage so as to enable the printhead to be wiped of any residual ink.