A network and a method for operating a network is provided. The network includes one or more soldering systems provided in the network, and the soldering systems each include at least one soldering apparatus for soldering electronic components, a user interface for outputting target-soldering-information to a user; and a way for determining actual soldering information. The network includes at least one input device for inputting and/or specifying work information, and a control unit which is designed to identify soldering systems provided in the network; create soldering tasks with target-soldering-information from the work information depending on the identified soldering systems and assign the tasks to the relevant soldering system; and process the actual soldering information of the relevant soldering system with the associated target-soldering-information of the relevant soldering system.

A control device includes an acquisition portion which acquires a detection value of a temperature detected by a detecting member, a specifying portion which specifies a temperature change trend of a solder processing portion based on history information of a detection value acquired by the acquisition portion, a setting portion which sets a number of heat pulse to be applied to a heating portion by correcting a reference value using a correction value, a control portion which controls the application of the heat pulses to the heating portion based on a setting result of the number of heat pulse by the setting portion, a storage portion which stores the history information. The setting portion sets the correction value using correction information which is different according to whether the temperature change trend is a temperature rising trend or a temperature declining trend.

A cordless, hand held soldering iron operable with a control station providing wireless temperature control functionality and a charging station.

A smartphone, tablet or mobile computer based soldering system control method and apparatus to allow a user or supervisor of users to monitor and control the operating parameters of soldering devices or measuring device. The control method and apparatus has features for cartridge management, temperature calibration and control, user performance and wireless interactive control. The control method may interactively control soldering devices connected directly to a power supply and optionally soldering device components of a soldering system that includes a control station to provide power to the soldering device.

The invention relates to a soldering tip assembly for an electric soldering device, in particular a soldering iron. The soldering tip assembly is designed to be releasably arranged on a soldering device handle which has a heating element, and the soldering tip assembly has a sleeve with a soldering tip provided on the distal end of the sleeve. The sleeve has an opening at the proximal end for introducing the heating element, wherein a holding element which at least partially surrounds the sleeve in an annular manner and a spring element which is provided between the holding element and the sleeve are provided, the spring element pushing the holding element in the distal direction. The sleeve has at least one stop arranged distally from the spring element. The stop secures the holding element against the soldering tip assembly in the distal direction.

The present application discloses a soldering apparatus including a driving portion for moving a soldering iron to perform soldering on a surface of an electronic board including soldering regions. The soldering regions have a base region and at least one replication region existing at a position different from the base region. The replication region has an arrangement pattern that is the same as an arrangement pattern of a soldering position in the base region. The soldering apparatus includes an input portion for receiving input of positional relationship data, which represents a positional relationship between the base region and the at least one replication region, and for receiving base pattern data, which represents the arrangement pattern of the soldering position in the base region. The soldering apparatus includes a controller which causes the driving portion to move the soldering iron based on the base pattern data and the positional relationship data in a soldering operation.

A melting tool control apparatus comprises a drive mechanism, a melt processing assembly configured to perform a melt process, a receiving module that receives input of three-dimensional coordinate information of a first point where the melt process is to be performed and input of a position information indicating a position different from the first point, and a process control module configured to control the melt processing assembly to perform the melt process when the distal end is at the first point.

In a method for manufacturing a shunt resistor, a resistor plate with a first side surface and a second side surface opposite to each other is provided. A first electrode plate and a second electrode plate are respectively pressed onto the first side surface and the second side surface, thereby forming a first connection surface between the first electrode plate and the resistor plate, and a second connection surface between the second electrode plate and the resistor plate. A first conductive module is placed on opposite ends of the first connection surface, and a second conductive module is placed on opposite ends of the second connection surface. Current is applied to the first and second connection surfaces via the first and second conductive modules respectively to weld the first electrode plate and the resistor plate, and to weld the second electrode plate and the resistor plate.

A soldering apparatus comprises a soldering mechanism and a management unit. The management unit converts operation history of the soldering mechanism into a numerical value, compares the numerical value to a predetermined threshold value, and generates a notifying signal if the numerical value exceeds the predetermined threshold value. The notifying signal may result in cessation of operation of the soldering mechanism. The notifying signal may result in a visual and/or audio reminder to the operator to inspect or replace a part of the soldering mechanism. With the management unit, the operator need not guess or rely on personal experience to determine when to perform an inspection or replacement. Reliance on personal experience can be error prone and lead to inefficiency. The management unit may reduce the possibility of soldering with a degraded soldering tip or other part, which may have an adverse effect on soldering quality.

A method for manufacturing a shunt resistor is described. In this method, a first electrode plate and a second electrode plate are provided. The first electrode plate includes a first carrying portion having a first hole. The second electrode plate includes a second carrying portion having a second hole. A resistor plate is placed between the first and second electrode plates. The resistor plate has a first through hole and a second through hole respectively on the first hole and the second hole. A first rivet is pressed into the first through hole and the first hole. A second rivet is pressed into the second through hole and the second hole. Current is applied to the first rivet and the second rivet to weld the first rivet, the first electrode plate and the resistor plate, and to weld the second rivet, the second electrode plate and the resistor plate.