Flexible self-adaptive composite carbon brush-type electromagnetic composite field synchronous laser cladding device

A flexible self-adaptive composite carbon brush type electromagnetic composite field synchronous laser cladding device, comprises

• an electromagnetic field synchronous coupling module for machining a part to be processed, a mechanical arm for driving the electromagnetic field synchronous coupling module to move;
• the electromagnetic field synchronous coupling module comprises a laser head, an electric field portion and a magnetic field portion;
• the laser head is connected with the mechanical arm through a fixing frame, wherein the fixing frame comprises an upper fixing plate and a lower fixing plate which are opposite to each other in an up-and-down manner, and the upper fixing plate and the lower fixing plate are horizontally laid;
• an input tube of the laser head penetrates through the upper fixing plate upwards, and an output tube of the laser head vertically penetrates through the lower fixing plate, and a lower end outlet of the output tube is located above the part to be processed;
• the magnetic field portion comprises two magnetic field generating modules which are arranged on a front side and a rear side of the output tube in a radial direction of the output tube respectively, each of the magnetic field generating modules comprises a U-shaped iron core with a downward opening, two ends of the U-shaped iron core correspond to a set of coil parts respectively;
• and each of the coil part2 comprises an electromagnetic coil, a coil framework made of a non-magnetic material and a shell made of a non-magnetic material, and the shell is arranged outside the coil framework and the electromagnetic coil;
• the coil framework comprises a hollow central column and two baffles arranged at two ends of the central column in a sleeved mode, the electromagnetic coil is wound on the central column and is positioned between the two baffles on the central column;
• the two ends of the central column are communicated, and one end of the U-shaped iron core penetrates through the central column;
• the ends, located on the same side, of the two U-shaped iron cores is connected with one iron core head, and the ends, located on the other side, of the two U-shaped iron cores is connected with the other iron core head, and two iron core heads are symmetric with respect to an axial direction of the output tube;
• the iron core head comprises an iron core head body which extends along the radial direction of the output tube, a central axis of the iron core head body is perpendicular to the central axis of the output tube;
• and a connecting block used for being detachably connected with the two U-shaped iron cores is arranged at an outer end of the iron core head body, and an inner end of the iron core head body is provided with a pointed part pointing to an extension line of the central axis of the output tube, and the iron core heads located on the two sides of the to-be-machined area of the part to be processed are located below the output tube;
• an intersection point of the connecting line of the central axis of the two iron core heads and an extension line of the central axis of the output tube is defined as the origin of coordinates, and a straight line which passes through the origin of coordinates and coincides with the central axis of the output tube is a z axis, the connecting line of the central axis of the two iron core heads is an x axis, and an y-axis passes through the origin of coordinates and is perpendicular to both a z-axis and the x-axis direction;
• and the x-axis direction is defined as a front-and-back direction, the y-axis direction is a left-and-right direction, and the z-axis direction is a vertical direction, and an end close to the output tube and located in the middle is an inner end, an end far away from the output tube is an outer end, and two sets of magnetic field generating modules are symmetric with respect to the x axis, an included angle between the two U-shaped iron cores is θ, and 0<θ<180°;
• each coil part has a same material and a same number of turns of the electromagnetic coil, and two ends of each electromagnetic coil are respectively provided with a connecting end used for being connected with a magnetic field power supply, the two ends of the electromagnetic coil are respectively connected with the magnetic field power supply, and the electromagnetic coils are connected in parallel;
• and magnetic field directions of the two electromagnetic coils located on the same U-shaped iron core are opposite, and a magnetic field intensity is the same;
• both the magnetic field directions and the magnetic field intensity of the two electromagnetic coils which are symmetric with respect to the x axis on the different U-shaped iron cores are the same;
• a cooling part used for cooling the electromagnetic coils is arranged on the shell;
• the electric field portion comprises two sets of electric field generating modules which are oppositely arranged on a left side and a right side of the output tube in the y-axis direction, and the two sets of electric field generating modules are symmetric with respect to the z axis;
• the electric field generating module comprises a carbon brush set and a scissor fork lifting platform capable of driving the carbon brush set to move in the y-axis direction and the z-axis direction;
• the scissor fork lifting platform is provided with a clamp used for fixing the carbon brush set, and the carbon brush set is connected with a connecting head used for being communicated with an electric field power supply;
• the scissor fork lifting platform comprises a top plate and a bottom plate which are arranged at intervals up and down, and both the top plate and the bottom plate are perpendicular to the z axis;
• first side plates are oppositely arranged on a front side and a rear side of the upper surface of the bottom plate, and a first sliding groove which extends in the y-axis direction is formed in an inner end of the first side plate, and two ends of the first sliding rod are arranged in the first sliding grooves in two sides in a sliding mode, and the first sliding rod extends in the x-axis direction;
• two ends of the first rotating shaft are rotatably arranged on outer ends of two first side plates respectively, and the first rotating shaft extends in the x-axis direction;
• second side plates are oppositely arranged on a front side and a rear side of the a lower surface of the top plate, and a second sliding groove which extends in the y-axis direction is formed in the outer end of the second side plate, and two ends of the second sliding rod are arranged in the second sliding grooves in the two sides in a sliding mode;
• and the ends of the second rotating shaft are rotationally arranged at an inner ends of the two second side plates respectively, and the second rotating shaft extends in the x-axis direction;
• a third rotating shaft and a fourth rotating shaft which extend in the x-axis direction are also arranged between the top plate and the bottom plate, and the third rotating shaft and the fourth rotating shaft are located on a same xoy plane;
• the third rotating shaft and the fourth rotating shaft are connected through an adjusting screw rod, and an inner end of the adjusting screw rod penetrates through the third rotating shaft and the fourth rotating shaft in the y-axis direction, and the adjusting screw rod is in threaded connection with the third rotating shaft and the fourth rotating shaft, and an adjusting head is arranged at an outer end of the adjusting screw rod;
• wherein the scissor fork lifting platform further comprises two scissor fork arms which are connected up and down, wherein the scissor fork arm comprises two connecting rods which are hinged in a middle, and the two ends of the two connecting rods respectively form a connecting end of the scissor fork arm;
• the two ends of the first rotating shaft, the first sliding rod, the third rotating shaft and the fourth rotating shaft are respectively hinged with the connecting end of the scissor fork arm;
• the two ends of the second rotating shaft, the second sliding rod, the third rotating shaft and the fourth rotating shaft are respectively hinged with the connecting end of the other scissor fork arm;
• a groove is formed in a lower surface of the clamp, and a spring which can stretch out of in the z-axis direction is arranged in the groove, an upper end of the spring is fixed in the groove, and the carbon brush set comprises a plurality of carbon brushes, and an upper end of the carbon brushes extends into the groove and is connected with a lower end of the spring, and a lower surface of the carbon brush is located below the output tube;
• the magnetic field portion and the electric field portion are fixedly erected at a periphery of the laser head through the supporting structure;
• a supporting structure comprises a L-shaped main supporting frame, and a main supporting frame comprises a vertical plate and a horizontal plate, and a lower end of the vertical plate is fixedly connected with an inner end of the horizontal plate, and an upper end of the vertical plate is fixed on a side surface of the lower fixing plate;
• the supporting structure further comprises a coil supporting frame used for fixing the coil part, a coil supporting frame comprises four supporting plates for supporting the coil part, and a first through hole allowing one end of the U-shaped iron core to penetrate through is formed in a middle of each supporting plate, and one end of the U-shaped iron core penetrates through the first through hole and is connected with the iron core head, and an inner side of the supporting plate is fixed on the horizontal plate through a connecting plate;
• the shell is fixedly connected with the supporting plate and the connecting plate;
• the top plate of the electric field portion is fixed on the lower surface of the horizontal plate through bolts and nuts.