Abstract: A feeding device includes a support assembly, a holding plate rotatably mounted on the support assembly, a guiding member mounted on the holding plate, a pushing mechanism, and a first unloading mechanism. The holding plate defines an unloading groove. The guiding member defines an outlet corresponding to the unloading groove. The pushing mechanism includes a first driver and a pushing member connected to the first driver. The pushing member is positioned above the holding plate. The first driver drives the pushing member to move towards the unloading groove. The first unloading mechanism includes a blocking member for blocking the unloading groove, and a second driver connected to the blocking member. The second driver drives the blocking member to move away from the unloading groove.

Abstract: A deceleration device includes a driving device and a transmission assembly. The transmission assembly includes a driving member, a first active subassembly, a second active subassembly, a first transmission member, a second transmission member and two regulatory mechanisms. The driving member is connected to the driving device. The first transmission member connects the driving member to the first active subassembly, and is driven by the driving device, and rotates the first active subassembly. The second transmission member connects the first active subassembly to the second active subassembly, and is driven by the first active subassembly, and rotates the second active subassembly. The two regulatory mechanisms elastically resist the first transmission member and the second transmission member, respectively.

Abstract: A holding device includes a fixing base, a rotary driving member, a first positioning member, a first holding assembly, a second holding assembly, and a second positioning member. The rotary driving member and the first positioning member are mounted on the fixing base. The first holding assembly and the second holding assembly are driven by the rotary driving member to rotate about a rotation axis. The first positioning member can move relative to the second positioning member to engage with the second positioning member, to position the first holding assembly and the second holding assembly. The first holding assembly and the second holding assembly can move separately to complete different tasks.

Abstract: A manipulator arm mechanism includes a pedestal, a driving member, a speed reducer, and an output rocker arm. The driving member is mounted on the pedestal and has an output shaft. The speed reducer is assembled to the pedestal and connects with the output shaft of the driving member. The speed reducer includes a first transmission assembly, a second transmission assembly, and a third transmission assembly engaging each other in turn. The third transmission assembly is a planetary gear set and includes a sun gear rotated by the second transmission assembly, a ring gear, and a plurality of planetary gears. The ring gear is coaxially sleeved on the sun gear. The planetary gears are assembled between and rotatably mesh with the sun gear and the ring gear. The output rocker arm is fixed with the plurality of planetary gears.

Abstract: A handling mechanism comprises a mounting seat, a driving assembly, a sliding member, an extending mechanism and a clamping assembly. The driving assembly is mounted on the mounting seat. The sliding member is slidably mounted on the mounting seat and driven by the driving assembly. The extending mechanism comprises an extending member and a strength member. The extending member is positioned on the sliding member being capable of moving along a direction perpendicular to a direction of the movement of the mounting seat. The strength member is slidably positioned on the sliding member and connects with the extending member. The clamping assembly is fixed to the strength member for clamping very heavy workpieces.

Abstract: A handling mechanism for handling workpieces includes a first sliding assembly, a second sliding assembly, a driving assembly, a loading assembly and a clamping assembly. The driving assembly is connected to the first sliding assembly and the second sliding assembly. The loading assembly is slidably clamped between the first sliding assembly and the second sliding assembly. The clamping assembly is fixed to the loading assembly for clamping and placing workpieces one by one. The first sliding assembly and the second sliding assembly are driven by the driving assembly to slide along a same direction or in two opposing directions, to enable the loading assembly to slide with the first sliding assembly or to slide along a direction perpendicular to the sliding direction of the first sliding assembly. A punching machine using the handling mechanism is also disclosed, in which workpieces are placed by clamping assembly on lower mold for punching.

Abstract: A handling mechanism to convey workpieces, includes a mounting seat, a first sliding member, a first driving assembly, a second sliding member, a second driving assembly, and a clamping assembly. The first sliding member is slidably mounted on the mounting seat. The first driving assembly is mounted on the mounting seat and capable of driving the first sliding member to slide along the longitudinal direction of the mounting seat. The second sliding member is slidably mounted on the first sliding member. The second driving assembly is mounted on the first sliding member and capable of driving the second sliding member to slide along a direction perpendicular to the longitudinal direction of the mounting seat. The clamping assembly is fixed to the second sliding member for clamping workpieces. The present invention further discloses a punching machine using the same.

Abstract: A cutting mechanism for cutting a pipe includes a fixing board, a cutter mounted on the fixing board and a driving assembly. The cutter includes a base body, and a blade positioned on the base body. The driving assembly is mounted on the fixing board for driving the pipe move to the blade to be cut into pieces of certain lengths.

Abstract: A Cartesian coordinate robot includes a first transmission mechanism slidably connected to a second transmission mechanism, a third transmission mechanism slidably connected to the second transmission mechanism. The first transmission mechanism includes a first guide rail, a first slider slidably connected to the first guide rail, and a first driving module driving the first slider. The second transmission mechanism includes a second guide rail perpendicular to the first guide rail, a second slider slidably connected to the second guide rail, and a second driving module driving the second slider. The third transmission mechanism includes a third guide rail perpendicular to the first guide rail and the second rail, a third slider slidably connected to the third guide rail, and a third driving module driving the third slider.

Abstract: A retractable shielding apparatus includes an adjusting base, a fixing base, two retractable shields, a shuttle, and a cable. The two retractable shields are assembled to two ends of the shuttle respectively with one corresponding end thereof. The adjusting base and the fixing base are respectively fixed to the opposite other end of the corresponding two retractable shields. The cable adjustably connects the adjusting base, the two retractable shields, the shuttle and the fixing base together. The shuttle is slidably located between the adjusting base and the fixing base and is configured to slide along the path formed by the cable, such that the two retractable shields can be extended or retracted together with the shuttle.

Abstract: The instant disclosure relates to a LED backlight driving module. The driving module utilizes a plurality of second power isolation transformers interconnected to each other in series and connected to a secondary winding of a first power isolation transformer in parallel to produce a plurality of second driving signals with uniform current, and driving corresponding LED light bars with uniform brightness. Optionally, a base voltage circuit can be used to provide a base voltage with negative voltage level on the other end of LED light bars, so as to lower the positive voltage level of the second driving signals. Thus, it is beneficial that the LED backlight driving module provides higher power conversion efficiency and has lower design cost.

Abstract: A power supply apparatus includes an open loop power switcher, a power isolation transformer, a backlight driving circuit, and a power circuit. The open loop power switcher converts a direct current (DC) power into an alternating current (AC) input voltage. The power isolation transformer is coupled to the open loop power switcher and includes a primary-side winding, a first winding, and a second winding, wherein the first and second windings are disposed at the secondary-side of the power isolation transformer, and the first winding is employed for generating a first voltage signal according to the AC input voltage. The backlight driving circuit is employed for driving a backlight module according to the first voltage signal. The power circuit is employed for receiving a second voltage signal generated from the second winding according to the AC input voltage, in order to generate an output power signal.

Abstract: A holding device includes a fixing base, a rotary driving member, a first positioning member, a first holding assembly, a second holding assembly, and a second positioning member. The rotary driving member and the first positioning member are mounted on the fixing base. The first holding assembly and the second holding assembly are driven by the rotary driving member to rotate about a rotation axis. The first positioning member can move relative to the second positioning member to engage with the second positioning member, to position the first holding assembly and the second holding assembly. The first holding assembly and the second holding assembly can move separately to complete different tasks.

Abstract: A retractable shielding apparatus includes an adjusting base, a fixing base, two retractable shields, a shuttle, and a cable. The two retractable shields are assembled to two ends of the shuttle respectively with one corresponding end thereof. The adjusting base and the fixing base are respectively fixed to the opposite other end of the corresponding two retractable shields. The cable adjustably connects the adjusting base, the two retractable shields, the shuttle and the fixing base together. The shuttle is slidably located between the adjusting base and the fixing base and is configured to slide along the path formed by the cable, such that the two retractable shields can be extended or retracted together with the shuttle.

Abstract: A manipulator arm mechanism includes a pedestal, a driving member, a speed reducer, and an output rocker arm. The driving member is mounted on the pedestal and has an output shaft. The speed reducer is assembled to the pedestal and connects with the output shaft of the driving member. The speed reducer includes a first transmission assembly, a second transmission assembly, and a third transmission assembly engaging each other in turn. The third transmission assembly is a planetary gear set and includes a sun gear rotated by the second transmission assembly, a ring gear, and a plurality of planetary gears. The ring gear is coaxially sleeved on the sun gear. The planetary gears are assembled between and rotatably mesh with the sun gear and the ring gear. The output rocker arm is fixed with the plurality of planetary gears.

Abstract: A robot includes a support frame, a first robotic arm, a second robotic arm, a connecting member, a first connecting rod, a second connecting rod, a third connecting rod, a drive connecting rod, an action connecting rod, and an actuator. The first robotic arm is rotatably connected to the support frame. A second robotic arm is rotatably connected to the first robotic arm. A connecting member is rotatably connected to the second robotic arm. A first connecting rod and a second connecting rod connecting with each other to interconnect the connecting member and the second robotic arm. A third connecting rod is rotatably connected to the support frame and the connecting member. A drive connecting rod is rotatably connected to support frame. An action connecting rod connects the drive connecting rod to the second robotic arm. An actuator is connected to the second connecting rod.

Abstract: A conveyor includes a support base, a linear driving mechanism mounted on the support base, a carrier, and a linkage bar mechanism pivotally connecting the carrier and the linear driving mechanism. The linear driving mechanism includes two substantially parallel threaded rods, two threaded members respectively engaging the two threaded rods, two actuators respectively rotating the two threaded rods, and two slide members slidable relative to the support base and respectively secured to the two threaded members. The linkage bar mechanism includes a first, second, and third bars pivotally connected to the slide member and the carrier, respectively. The first bar, the third bar, the slide member carrying the first bar, and the carrier cooperatively form a parallel four-bar mechanism. The first bar, the second bar, the slide member carrying the second bar, and the carrier cooperatively form a trapezoidal four-bar mechanism.

Abstract: A slide positioning device includes a main body and a slide member slidable relative to the main body along a axis. The main body defines a plurality of positioning holes along the axis, and the slide member defines a plurality of positioning grooves along the axis. A rough positioning member is selectively received in one positioning hole to roughly position the sliding member. A fine positioning assembly includes a latch member selectively received in one positioning groove to precisely position the sliding member. A biasing member biases the latch member toward the sliding member.

Abstract: A conveyor includes a support base, a linear driving mechanism mounted on the support base, a carrier, and a linkage bar mechanism pivotally connecting the carrier and the linear driving mechanism. The linear driving mechanism includes two substantially parallel threaded rods, two threaded members respectively engaging the two threaded rods, two actuators respectively rotating the two threaded rods, and two slide members slidable relative to the support base and respectively secured to the two threaded members. The linkage bar mechanism includes a first, second, and third bars pivotally connected to the slide member and the carrier, respectively. The first bar, the third bar, the slide member carrying the first bar, and the carrier cooperatively form a parallel four-bar mechanism. The first bar, the second bar, the slide member carrying the second bar, and the carrier cooperatively form a trapezoidal four-bar mechanism.

Abstract: A connecting apparatus for a robot arm and effector includes a mounting member and a carrier connected to the robot arm and the effector, respectively. The mounting member includes a support body, and the carrier is slidable relative to the mounting member. The connecting apparatus further includes at least one bumper assembly positioned between the support body and the carrier to absorb impact energy; and a detection module generating a signal to stop the robot arm when the carrier is moved to a predetermined position relative to the mounting member.