Abstract:
A multiple nozzle differential fluid delivery head is disclosed. The fluid delivery head includes a body that defines a fluid chamber having a longitudinal axis. The body includes an inlet for connection to a fluid source, and the inlet is in fluid communication with the fluid chamber. The fluid delivery head includes a plurality of outlet ports connected to and extending away from the body. Each outlet port has an interior space in fluid communication with the fluid chamber. The fluid delivery head includes a nozzle insert removably secured in an outer end of each outlet port. At least one nozzle insert has a fluid delivery aperture in fluid communication with the interior space of its associated outlet port for delivering fluid out of the interior space of its associated outlet port. One or more of the outlet ports is angled away from a plane normal to the axis of the fluid delivery head.
Abstract:
An insert, a system, and a method are provided for dispensing a compressed gas product. The insert includes a swirl chamber, inlet ports to the swirl chamber, and an outlet orifice. The insert has specifically configured parameters relating to the diameter of the swirl chamber, the diameter of the outlet orifice, the length of the outlet orifice, and the depth of the swirl chamber. The insert, system, and method can provide a dispensed compressed gas product with a remarkably constant flow rate and with a remarkably constant particle size.
Abstract:
An apparatus for delivering a compound includes a reservoir containing a compound to be delivered to the environment of use. The compound includes fragrances and insecticides. A compound permeable substrate includes a wick which extends from the substrate into the reservoir. A centrifugal fan is operatively associated with the compound permeable substrate to force air over the substrate when the fan is operational. A cover is disposed over the centrifugal fan in which the cover has at least one aperture on a top surface and provides for a side air passage from the centrifugal fan to the environment.
Abstract:
A system for consistently emitting a volatile material includes a volatile material dispenser having a diffusion element. The system further includes a refill adapted for disposal within the volatile material dispenser and including a container having a volatile material disposed therein and a wick having a first end disposed in contact with the volatile material in the container and a second end extending out of the container. A time constant for (Parameter 4) for the system is less than or equal to about 1.0 hour when estimated using the equation: Predicted mass change=Parameter4+(Parameter3*T)+(Parameter2*exp(−T/Parameter1)).
Abstract:
A chip design methodology. The methodology includes identifying engineering changeable logic, and replacing the identified engineering changeable logic with flexible logic blocks (FLB).
Abstract:
An design structure for measuring power consumed during operation of an integrated circuit. The design structure including: a data processing circuit having an input and an output, the data processing circuit configured to generate an output data signal on based on an input data signal; a power measurement circuit configured to measure an amount of electrical power consumed by the processing circuit in generating the output signal from the input signal, the power measurement circuit connected between the processing circuit and a power supply for the processing circuit; and a memory element configured to store a tag containing a value representing the amount of electrical power consumed by the processing circuit in generating the output data signal from the input data signal and either (a) the input data of the input data signal or (b) a pointer to the input data of the input data signal.
Abstract:
A chip design methodology and an integrated circuit chip. The methodology includes providing a plurality of logic gates in a net list, wherein each of the logic gates comprises at least one spare input, synthesizing the net list, and connecting the spare inputs for performing an engineering change late in the design process.
Abstract:
A method is provided for adjusting timing alignment in which a receiver generates a plurality of imbalanced correction codes (1310), and square waves both having the same frequency. The receiver mixes the imbalanced correction codes with the square waves to create a mixed signal (1320), and integrates the mixed signal over a correction code period to generate a signal power value (1330). The receiver adjusts a phase of the square wave in a first direction when the signal power value satisfies a first criterion (1340, 1350), and in a second direction when the signal power value satisfies a second criterion (1340, 1360). Each imbalanced correction code is symmetrical. And a total integrated value of one of the imbalanced correction codes over the correction code period is either above a first threshold, or below a second threshold, the first threshold being greater than or equal to the second threshold.
Abstract:
A circuit is provided for receiving an analog signal and providing a digital signal. It includes pre-amplifiers (601, 603, 605, 607), where each pre-amplifier (601, 603, 605, 607) receives an analog signal (Vin) and a respective reference signal (REF1-REFn). Each of the pre-amplifiers (601, 603, 605, 607) produces an output signal responsive to the analog signal and the respective reference signal. For each of the pre-amplifiers (601, 603, 605, 607), there is provided two or more latches (615, 617, 619, 621, 623, 625) corresponding thereto. Each of the latches (615, 617, 619, 621, 623, 625) receives the output signal and a clock signal and produces a respective digital signal responsive thereto, the clock signal being interleaved. For each of the pre-amplifiers (601, 603, 605, 607), there is a multiplexer (627, 629, 631) corresponding thereto. The multiplexer (627, 629, 631) multiplexes between the respective digital signals to produce a bit in a digital signal.