Abstract: Disclosed herein are systems and methods for controlling temperature(s) using a thermal control assembly (TCA) and a coldplate. The TCA comprises independently controllable thermal zones for controlling its top surface temperature. The thermal zones may be heater zones, cooling zones, or both. Energy input to the TCA may be selectively applied by, e.g., a thermal controller, such that different sets of thermal zones receive the energy at different times. In some embodiments, the energy input to the TCA may be selectively applied to two more independently controllable heater zones at the same time, the energy input to the TCA may be selectively applied to two or more independently controllable cooling zones at the same time, or both. In some aspects, less than all thermal zones may be activated at the same time, providing a higher power density for the thermal zones for a given energy input to the TCA.

Abstract: Disclosed herein is an integrated heater and measurement (IHM) device comprising heating-sensing element(s) and heating-sensing circuit(s). A heating-sensing element generates heat and determines the temperature of the IHM device. In some embodiments, the heating-sensing element may operate in a plurality of modes: heating mode, sensing mode, and/or off mode. A controller may dynamically adjust the properties of the operation mode and/or time periods based on the determined temperature. The adjusted properties may include the duration of the heating mode, the ON time for a heating-sensing element, etc. The controller may adjust the duration of heating mode based on the temperature difference between the determined temperature and a set point temperature, such as decreasing the duration of the heating mode when there is a low temperature difference, and increasing the duration of the heating mode when there is a high temperature difference.

Abstract: An electromechanical module, for holding IC-chips in a chip testing system, includes a circuit board having a plurality of sockets mounted thereon. Each socket is structured to hold one IC-chip that is to be tested, and each socket has a corresponding register on the circuit board. In addition, a bus is on the circuit board, which—a) sends a timing pulse to a clock input on all of the registers in parallel, and b) concurrently sends a clock signal and N?1 test signals to N data inputs on all of the registers. Further, each socket has N input terminals that are connected to N outputs on a respective set of signal translators on the circuit board, and each set of signal translators has N inputs that are connected to N data outputs on the socket's corresponding register.

Abstract: An electromechanical system for testing IC-chips includes a total of N chip holding subassemblies, where N is an integer greater than one and where each chip holding subassembly has sockets for holding a group of IC-modules that include the IC-chips; a moving mechanism for automatically moving the i-th chip holding subassembly from a load position in the system to a test position in the system, and visa-versa, where i ranges from 1 to N and changes with time in a sequence; and a temperature control mechanism which contacts the IC-modules at the test position. Between the moving of the i-th chip holding subassembly and the next chip holding subassembly in the sequence, the IC-chips are burn-in tested on all N of the chip holding subassemblies. Also, while the i-th chip holding subassembly is being moved, burn-in testing of IC-chips on the remaining N-1 chip holding subassemblies continues.

Abstract: An electromechanical system for testing IC-chips includes a chip holding subassembly which has sockets for holding a group of IC-modules that include the IC-chips; a moving mechanism for automatically moving the chip holding subassembly from a load position in the system to a test position in the system, and visa-versa; a temperature control mechanism which contacts the IC-modules on the chip holding subassembly only when that subassembly is at the test position; and a chip handler mechanism for automatically moving the IC-modules into and out of the sockets, when the chip holding subassembly is at the load position. At the test position, the temperature control mechanism contacts the IC-modules to control their temperature. At the load position, the chip handler mechanism automatically unloads one group of IC-modules from the sockets on the chip holding subassembly and automatically loads another group of the IC-modules into the sockets.

Abstract: An electromechanical system for testing IC-chips includes a total of N chip holding subassemblies; a moving mechanism for automatically moving the i-th chip holding subassembly from a load position in the system to the test position in the systems, and visa-versa, where i ranges from 1 to N and changes with time in a sequence; and a signal generator which sends test signals to the IC-chips at the test position. Between the moving of the i-th chip holding subassembly and the next subassembly in the sequence, test signals are sent to the IC-chips on all N of the chip holding subassemblies such that the signals are shifted in time from one subassembly to another. Also, while the i-th chip holding subassembly is being moved, the time shifted test signals continue to be sent to the IC-chips on the remaining N?1 chip holding subassemblies.