다양한 실시예에 따르면, 전자 장치는, 통신 회로, 디스플레이, 적어도 하나의 온도 센서, 상기 통신 회로, 상기 적어도 하나의 온도 센서와 작동적으로 연결되는 적어도 하나의 프로세서, 및 메모리를 포함하며, 상기 메모리는, 실행 시에, 상기 적어도 하나의 프로세서가, 상기 적어도 하나의 온도 센서를 이용하여 획득된 상기 전자 장치의 제1 발열 온도와 지정된 제1 발열 제어 정보를 기반으로 발열 제어하고, 사용자 피드백 기반의 제2 발열 제어 정보를 획득하여 상기 제1 발열 제어 정보를 상기 제2 발열 제어 정보로 변경하고, 상기 적어도 하나의 온도 센서를 이용하여 획득된 상기 전자 장치의 제2 발열 온도와 상기 제2 발열 제어 정보를 기반으로 발열 제어하는 인스트럭션들을 저장할 수 있으며, 다른 실시예도 가능하다.

Blow molder system and associated method optimizes the performance, energy efficiency and/or operating costs of the blow molder. A blow molder controller executes a system model that relates blow molder input parameter changes to the characteristics of containers generated by the blow molder. Equipped with energy and/or operating cost data for operating the blow molder, the blow molder controller can select a set of blow molder input parameter changes for the blow molder that: drives the containers produced by the blow molder toward desired container characteristics, in an efficient amount of time, and in cost effective manner, considering the energy costs involved in implementing the changes.

A substrate transport apparatus including a transport chamber, a drive section, a robot arm having an end effector at a distal end configured to support a substrate and being connected to the drive section generating at least arm motion in a radial direction extending and retracting the arm, an imaging system with a camera mounted in a predetermined location to image at least part of the robot arm, and a controller connected to the imaging system to image the arm moving to a predetermined repeatable position, the controller effecting capture of a first image of the robot arm proximate to the repeatable position decoupled from encoder data of the drive axis, wherein the controller calculates a positional variance of the robot arm from comparison of the first image with a calibration image, and from the positional variance determines a motion compensation factor changing the extended position of the robot arm.

A method for pre-positioning a coaxial sample and sheath combination includes calculating a load shape profile including a plurality of layers of substantially equal volume. The calculated load shape profile is incrementally divided into cross-sectional slices at a first set of distance coordinates along a first axis. Each cross-sectional slice transects the plurality of layers. A sample includes a number of objects residing in solution. A sample chamber is loaded with the sample by incrementally dispensing the sample in a plurality of portions along a vertical axis divided into a second set of distance coordinates proportional to the first set of distance coordinates, where each portion has a volume proportional to the cross-sectional slice at the first distance coordinate nearest in value to the second distance coordinate.

Some embodiments include apparatuses and methods of using such apparatuses. One of the apparatuses includes a control circuitry to generate error information based on a value of the feedback voltage generated from an output voltage, generate output information to control a power switching unit based on the error information provided to a forward path in the control circuitry, and adjust a gain of the forward path based on a gain factor computed based at least in part on a first value of the output information in order to cause the output information to have a second value. The control circuitry also computes a value of correction information when the output voltage is within a target value range, and adjusts the control information, based on the correction information, when the output voltage is outside the target value range.

The present system and simulation environment calibrate vibrations. The system and simulation environment comprise a synthesizer for generating an electrical signal and a transducer for converting the electrical signal into vibrations propagated through a physical component and refracted in a physical space of the simulation environment. The system also comprises a vibration sensor measuring the vibrations propagated in the physical component. The system further comprises a configurator for calibrating the electrical signal generated by the synthesizer based on a vibration target for a simulated event and vibrations measured by the vibration sensor.

Es ist eine Anordnung und ein Verfahren zur Temperaturkompensation eines Widerstands (1) angegeben. Ein bezüglich seines Widerstandswerts steuerbarer Widerstand (1) wird mit einem Referenzwiderstand (2) verglichen, der als Switched-Capacitor ausgebildet ist. Ein Vergleicher (3) vergleicht beide Widerstandswerte miteinander. In Abhängigkeit von einem Fehlersignal steuert der Vergleicher (3) den steuerbaren Widerstand (1) an. Somit ist ein temperaturstabiler Widerstand geschaffen. Das Prinzip ist bevorzugt in Transimpedanzverstärkern anwendbar.