Childrens National Center For Heart & Kidney Disease 111 Michigan Ave NW STE 200, Washington, DC 20010 (202)4762090 (phone), (202)4765700 (fax)
University Of Maryland Childrens Heart Program 22 S Greene St STE 72, Baltimore, MD 21201 (410)3284348 (phone), (410)3288670 (fax)
Education:
Medical School Uniformed Services University of the Health Sciences Hebert School of Medicine Graduated: 1983
Procedures:
Cardiac Catheterization Echocardiogram Electrocardiogram (EKG or ECG)
Conditions:
Congenital Anomalies of the Heart Aortic Stenosis Mitral Stenosis Sickle-Cell Disease Valvular Heart Disease
Languages:
English Spanish
Description:
Dr. Slack graduated from the Uniformed Services University of the Health Sciences Hebert School of Medicine in 1983. He works in Baltimore, MD and 1 other location and specializes in Pediatric Cardiology. Dr. Slack is affiliated with Childrens National Health System, University Of Maryland Medical Center and University Of Maryland Upper Chesapeake Medical Center.
Name / Title
Company / Classification
Phones & Addresses
Michael Slack
SLACK ENTERPRISES, LLC
Michael Slack Sales And Marketing Executive
BALDWIN HARDWARE CORPORATION Business Service Providing Retail Display Set-Up Stocking and Also Employee Training · Mfg Hardware · Metal Goods-Manufacturers
19701 Davinci, Foothill Ranch, CA 92610 841 Wyomissing Blvd, Reading, PA 19610 1 Meridian Blvd, Reading, PA 19610 (610)7964495, (610)7777811, (610)7753180, (610)7755567
Michael Slack President
STEM SEARCH CORP
PO Box 3247, Gardena, CA 90248
Michael J. Slack
Slack Properties LLC Real Estate Purchase Sales & Rentals
33531 Coral Rnch St, Dana Point, CA 92629
Us Patents
Heliostat Array Layouts For Multi-Tower Central Receiver Solar Power Plants
Quoc Pham - Los Angeles CA, US Christian Gregory - La Crescenta CA, US Michael Slack - South Pasadena CA, US Bill Gross - Pasadena CA, US Dan Reznik - New York NY, US Porter Arbogast - Pasadena CA, US
International Classification:
F24J 2/46 F24J 2/52
US Classification:
126569
Abstract:
A solar power plant includes central receiver modules arranged in a regular pattern. Each central receiver module includes a tower, a central receiver mounted on the tower, and a heliostat array bounded by a polygon. The heliostat array includes heliostats with mirrors for reflecting sunlight to the central receiver. The heliostats are grouped in linear rows and each of the rows is parallel to another row. The locations of the heliostats are staggered between adjacent rows. The power plant also includes a power block for aggregating power from the central receivers and power conduits for transferring power from the central receivers to the power block.
Ralf D. Woods - Corona CA Michael P. Slack - Tustin CA Kenneth M. Gerst - Pasadena CA
Assignee:
Rockwell International Corporation - Seal Beach CA
International Classification:
G06F 1100
US Classification:
371 213
Abstract:
A MEMORY TEST METHODOLOGY is disclosed. The memory is checkerboarded and divided into blocks, the cells of which are scrambled by a EEPROM. The memory is the assaulted. After each assault, one block (time-test) is tested in alternation with each of the other blocks (space-test) by reading each cell of the clock, comparing it with the checkerboard, and writing the opposite of the checkerboard to the cell. When this process has been completed for all blocks, it is repeated, this time writing the checkerboard to each cell. Failures are noted on a fast capture RAM. This cycle is repeated several times. The data is displayed, and the memory is assaulted again. It is re-checkerboarded immediately before the assault. Errors in the time test block are displayed separately from those in the space-test blocks, and both displays are repeated in the same format after each assault.
Heat Transfer Fluid Flow Rate And Temperature Regulation System
A system for regulating the temperature and flow rate of a heat transfer fluid for use in a hybrid steam-generating plant is described. A bypass section may be incorporated into the piping network of a primary steam-generating source to route heat transfer fluid from a hot source to a mixer downstream of at least one heat exchanger. Heat transfer fluid from the hot source may be mixed with cooler heat transfer fluid exiting the heat exchanger in the event that the supply from a secondary steam-generating source is lost or becomes intermittent. The result is a system that maintains a constant flow rate of heat transfer fluid through the heat exchangers while minimizing adverse temperature gradient effects that may result from steam production variability and plant operation outside of design point parameters.
Michael Slack (2001-2002), Edward Pratt (1965-1967), Amy Mettler (1980-1982), Daniel Smith (1997-2000), Peter Kennett (1974-1976), Danny Upton Jr (1994-1999)