With the help of Capterra, learn about Power Clock, its features, pricing information, popular comparisons to other Time Clock products and more. Still not sure about Power Clock? Check out alternatives and read real reviews from real users. As described earlier, restoring the clock sources (especially the high-frequency clock sources) can be time consuming. Since this restore time can vary depending on many factors (external crystal type, ambient temperature, etc) the power manager implements a mechanism where it measures the time required to restore some high frequency clock sources. No software is necessary on the client PC. Employees can either simply ‘Clock In’ or ‘Clock Out’ or clock onto tasks, projects and cost centers etc. These time records can be used by the time attendance system to automatically allocate hours worked to the various tasks, projects etc for costing purposes. Clock (24hr/military time only, so far as I can tell) Temperature, Centigrade only, alternates with time display; Alarm; 5v power with cord for powering from a USB connector; Battery backup for the clock. The kit comes with all the thru-hole parts needed to assemble the clock and 8.5×11″ sheet of paper with the instructions printed on one side.
Please note that you cannot use the multi client version of Time Clock MTS in free mode. You will be restricted to using it on one computer only.
If you want free time clock software for your small company then Time Clock MTS is for you! Just get our free employee time clock download it and install it where you want to record your time and attendance information. When the free 30 day trial period runs out (and you have less than four employees in the database) it will revert to free mode without you having to do anything!
Power optimization is the use of electronic design automation tools to optimize (reduce) the power consumption of a digital design, such as that of an integrated circuit, while preserving the functionality.
The increasing speed and complexity of today’s designs implies a significant increase in the power consumption of very-large-scale integration (VLSI) chips. To meet this challenge, researchers have developed many different design techniques to reduce power. The complexity of today’s ICs, with over 100 milliontransistors, clocked at over 1 GHz, means manual power optimization would be hopelessly slow and all too likely to contain errors. Computer-aided design (CAD) tools and methodologies are mandatory.
One of the key features that led to the success of complementary metal-oxide semiconductor, or CMOS, technology was its intrinsic low-power consumption. This meant that circuit designers and electronic design automation (EDA) tools could afford to concentrate on maximizing circuit performance and minimizing circuit area. Another interesting feature of CMOS technology is its nice scaling properties, which has permitted a steady decrease in the feature size (see Moore's law), allowing for more and more complex systems on a single chip, working at higher clock frequencies.Power consumption concerns came into play with the appearance of the first portable electronic systems in the late 1980s. In this market, battery lifetime is a decisive factor for the commercial success of the product. Another fact that became apparent at about the same time was that the increasing integration of more active elements per die area would lead to prohibitively large-energy consumption of an integrated circuit. A high absolute level of power is not only undesirable for economic and environmentalreasons, but it also creates the problem of heat dissipation. In order to keep the device working at acceptable temperature levels, excessive heat may require expensive heat removal systems.
These factors have contributed to the rise of power as a major design parameter on par with performance and die size. In fact, power consumption is regarded as the limiting factor in the continuing scaling of CMOS technology. To respond to this challenge, in the last decade or so, intensive research has been put into developing computed-aided design (CAD) tools that address the problem of power optimization. Initial efforts were directed to circuit and logic-level tools because at this level CAD tools were more mature and there was a better handle on the issues. Today, most of the research for CAD tools targets system or architectural level optimization, which potentially have a higher overall impact, given the breadth of their application.
Together with optimization tools, efficient techniques for power estimation are required, both as an absolute indicator that the circuit’s consumption meets some target value and as a relative indicator of the power merits of different alternatives during design space exploration.
The power consumption of digital CMOS circuits is generally considered in terms of three components:
Power can be estimated at a number of levels of detail. The higher levels of abstraction are faster and handle larger circuits, but are less accurate. The main levels include:
Many different techniques are used to reduce power consumption at the circuit level. Some of the main ones are:
Logic synthesis can also be optimized in many ways to keep power consumption under control. Details of the following steps can have a significant impact on power optimization:
There are file formats that can be used to write design files specifying the Power intent and implementation of a design. The information in these files allow the EDA tools to automatically insert power control features and to check that the result matches the intent. The IEEEDASC provides a home for developing this format in the form of the IEEE P1801 working group. During 2006 and the first two months of 2007, both Unified Power Format and Common Power Format were developed to support various tools. The IEEE P1801 working groups operates with the goal of providing for convergence of these two standards.
Several EDA tools have been developed for supporting architectural level power estimation including McPAT, Wattch, and Simplepower.