Abstract: A raised panel door section (22, 54, 64) for an overhead garage door (20, 50, 60) includes a sheet metal layer (32, 56, 66) formed from sheet metal stock (74) that is embossed to produce a raised panel design by an automated method that selects one of a first die set (84) and a second die set (90) in response to a predetermined embossment style, installs the selected one of the first and second die sets (84, 90) into an embossing press (36) and embosses the sheet metal stock (74) with the predetermined embossment style. The predetermined embossment style includes one of a vertical raised panel design (30), a horizontal raised panel design (52), and a horizontal long raised panel design (62).

Abstract: This method and device collect relative humidity data, then evaluate that data using an algorithm to determine if conditions are permissible for fungal growth. The growth condition meter, placed in a building's wall or ceiling, includes a simple controller attached to a memory, a timer, a relative humidity sensor, and a user interface. The device executes an algorithm for determining growth conditions based on a 24-hour history of relative humidity samples. First, the algorithm determines if relative humidity levels follow a cyclical profile similar to typical environmental conditions. In addition, it verifies that enough time is spent below a temporal humidity threshold. Second, the algorithm performs a baseline analysis comparing all samples over the previous 24-hour period to determine if all samples are over a fixed threshold. This allows for a situation where enough time is spent below the temporal threshold but overall relative humidity remains too high.

Abstract: A condenser system (20) includes a first header (26), a second header (28), and parallel tubes (30) extending between the headers (26, 28). A receiver (24), affixed to the second header (28), is in fluid communication with the second header (28). The receiver includes a body (32), a first cap (38) coupled to the body (32), and a second cap (42) coupled to the body. The condenser system (20) is subjected to a one-shot brazing process that nondetachably couples the receiver (24) to the second header (28), and concurrently nondetachably couples the first and second caps (38, 42) to the receiver body (32). A desiccant system (124) and/or filter (138) may be optionally installed into the receiver (24) prior to brazing.

Abstract: A method (102) of concealing a cell site radio frequency (RF) antenna (22) at a location (24) calls for generating a configuration (48, 62, 166) of an antenna screen structure (20) to determine geometrical parameters of the configuration. A set of instructions (108) are executed on a processor to evaluate the configuration (48, 62, 166) of the antenna screen structure (20). The instructions (108) direct the processor to perform operations that include defining geometrical parameters of the configuration (110), obtaining structural parameters of the configuration (112), receiving a wind load value for the location (114), and computing a maximum deflection value of the configuration in response to the geometrical parameters, the structural parameters, and the wind load value (128). In addition, the instructions (108) direct the processor to assess a cost (132) and a weight (130) of the configuration.

Abstract: A galvanic cell system (50) in fluid communication with a dewatering system (40) of an inhibited oxidation scrubber (20) removes an oxidation catalyst, i.e., solution phase iron (98), from the process liquor (42) produced by the dewatering system (40) and replaces the iron (98) with magnesium (104) in an oxidation-reduction reaction. An electrolytic cell system (154) in fluid communication with a dewatering system (144) of a forced oxidation scrubber (128) removes an oxidation inhibitor, i.e., solution phase aluminum (174), from the process liquor (146) produced by the dewatering system (144) and replaces the aluminum (174) with iron (170) in an oxidation-reduction reaction. The process liquor (42, 146) is subsequently returned to the scrubber (20, 128) with the solution phase metal (98, 174) selectively removed, thereby enhancing the scrubbing efficiency of the scrubber (20, 128).

Abstract: A receiver dryer mounting bracket (38) for a condenser system (20) includes a body (76) and an arm (78) coupled to and extending from the body (76). The body (76) has an opening (90) and seat sections (92, 94) positioned at opposing ends of a length of the opening (90). Flanges (71, 73) on inlet and outlet pipes (34, 36) of the condenser system (20) are seated in the seat sections (92, 94). An arcuate crimp section (102) of the body (76) is compressed to secure the inlet and outlet pipes (34, 36) in respective ones of the seat sections (92, 94) to form a pipe assembly (30). The pipe assembly (30) is coupled to a header (26) of the condenser system (20) prior to furnace brazing, and a receiver dryer (32) is subsequently mounted to the bracket (38).

Abstract: A continuous flow moisture analyzer (20) determines moisture content in a liquid sample material (46). The moisture analyzer (20) includes an injection system (44) for delivering the liquid sample material (46) at a controlled rate. The injection system includes an injector tube (48). An evaporator (52) has a first end (50) for receiving the injector tube (48) and a second end (56). The injector tube (148) provides the liquid sample material (46) to the evaporator (52) at the first end (50). A carrier gas inlet (54) is in fluid communication with the second end (56) of the evaporator (52) for providing a carrier gas (58) to the evaporator (52) at the second end (56). The carrier gas (58) absorbs moisture from the liquid sample material (46) in the evaporator (52). A relative humidity sensor (78) in fluid communication with the evaporator (52) detects the moisture in the carrier gas (58).

Abstract: A ripper attachment (22) for an excavation device (20) includes first and second support members (50, 52) configured for connection to the excavation device (20). In particular, first and second support members (50, 52) are adapted to connect to a coupling apparatus (30) of a tool coupler (28) so that the ripper attachment (22) is fixed relative to the coupling apparatus (30). A body (54) of the ripper attachment (22) is disposed between the first and second support members (50, 52). The body (54) has a ripper tip (60) disposed on a distal end (62) and first and second mounting sections (64, 66) disposed on a proximal end (68). The first and second mounting sections (64, 66) of the body (54) are removably attachable to an interface area (70) of the first and second support members (50, 52). A brace element (56) of the ripper attachment (22) is interposed between and couple together the first and second support members (50, 52).

Abstract: Electrodes for stimulating penile tissue are shown. Electrical stimulation to such areas is intended to induce excitation and orgasm in males, particularly where impotence is a problem. Four embodiments of an electrode apparatus include a flexible ring (22) and an electrically conductive section (24) having a first end (26) coupled to and extending from the flexible ring (22), and an intermediate portion (30) extending through a hole (32) in the flexible ring (22). An electrical contact (34), in electrical communication with a second end (28) of the electrically conductive section (24), allows the section (24) to be connected to an electrical source. Auxiliary members such as conductive spheres (72, 78, 90, and 92) and additional conductive sections (86, 100) are added to the electrode apparatuses to impart specific stimuli in specific regions of the user's anatomy.

Abstract: A celestial tracking apparatus (20) has a support (26), a tracking assembly (28) coupled to the support (26) by an azimuth pivot (36), a collector assembly (30) coupled to the tracking assembly (28) by an elevation pivot (38), a wind-speed sensor (172), and a controller (150) coupled to the azimuth and elevation pivots (36,38) and configured to cause the collector assembly (30) to assume a wind-stow position (66) when the sensor (172) detects a wind having a speed greater than a predetermined speed, upon failure of a component of the apparatus (20), or upon receipt of a wind-stow command. The collector assembly (30) has a solar collector (22) with a substantially flat surface (24), a center of gravity (52), and a target axis (54) substantially perpendicular to the substantially flat surface (24) and passing through the center of gravity (52).

Abstract: An exhaust header system (20) for an internal combustion engine includes primary tubes (22), each having inlet (26) and outlet (28) ends. The inlet ends (26) are adapted to carry exhaust gas (60) from exhaust ports of the internal combustion engine. A collector (24) has a collector inlet (32), a collector outlet (34), and an intermediate section (36) interposed between the collector inlet (32) and the collector outlet (34). The collector inlet (32) exhibits an ovular cross-section, and the outlet ends (28) of the primary tubes (22) are aligned along a width (74) of the collector inlet (32). The collector outlet (34) exhibits a circular cross-section, and the intermediate section (36) transitions from the ovular cross-section at the collector inlet (32) to the circular cross-section at the collector outlet (34).

Abstract: A method (100) for coherent change subtraction of mission and reference synthetic aperture radar (SAR) data (20′,20″) is provided. The method (100) forms (102) mission and reference images (22′,22″) from the mission and reference SAR data (20′,20″), registers (122) the mission and reference images (22′,22″) on a common plane to form registered mission and reference images (24′,24″), and forms (124) the registered mission and reference images (24′,24″) into at least one patch (26) containing mission and reference data (28′,28″). The method (100) then processes (126) each patch (26) by removing (130) linear phase terms (34) from the mission data (28′), trimming (142) non-overlapping spectra of the mission and reference data (28′,28″), and balancing (144) phases and amplitudes of the mission data (28′).

Abstract: A protective device for minimizing fire danger in the use of electrical circuits comprises a unit having a mechanically biased conductive element in series with the circuit, and maintained in position under tension by a fusible material such as a Cerro alloy having a yield point at a selected temperature threshold. When overheating at some other point in the circuit results in a rise of temperature at the protective device, the yielding of the fusible material allows the conductive element to spring free, opening the circuit and cutting off the current. This arrangement is useful in a male plug integral to or separate from an extension cord or power cord, in conjunction with circuit breaker systems, in a in-circuit device, and in electrical appliances and devices.

Abstract: A computer network (20) includes a first processor (22) for maintaining a Web page (34) having an embedded first code module (36) and accessible through a Web address (38). A second processor (24) supports a Web browser (52) for downloading the Web page (34) and executing the first code module (36). When executed, the first code module (36) issues a first command (93) to retrieve a second code module (90) from a server system (26). The server system (26) includes a database (68) having a service response (162, 176, 186) associated with the Web address (38). A processor (62) assembles the second code module (90) having the service response (162, 176, 186). When the second code module is retrieved, the first code module (36) issues a second command (106) to initiate execution of the second code module (90) to provide added function to the Web page (34).

Abstract: A carriage house garage door (20) is formed from first, second, and third wood overlay sections (22, 24, 26). Each of the wood overlay sections (22, 24, and 26) includes first and second layers of sheet metal (46, 48) and an insulating core (50). The first layer of sheet metal (46) is bonded to a first side (52) of the insulating core (50) and the second layer of sheet metal (48) is bonded to the second side (54) of the insulating core (50). Wood siding (30) is coupled to the first layer of sheet metal (46) by bonding the wood siding (30) to the first layer (46) using an adhesive and by stapling the wood siding (30) to the first layer (46).

Abstract: A receiver dryer mounting bracket (38) for a condenser system (20) includes a body (76) and an arm (78) coupled to and extending from the body (76). The body (76) has an opening (90) and seat sections (92, 94) positioned at opposing ends of a length of the opening (90). Flanges (71, 73) on inlet and outlet pipes (34, 36) of the condenser system (20) are seated in the seat sections (92, 94). An arcuate crimp section (102) of the body (76) is compressed to secure the inlet and outlet pipes (34, 36) in respective ones of the seat sections (92, 94) to form a pipe assembly (30). The pipe assembly (30) is coupled to a header (26) of the condenser system (20) prior to furnace brazing, and a receiver dryer (32) is subsequently mounted to the bracket (38).

Abstract: Synthetic aperture radar (SAR) data (118) of a target (108) is collected (12) over a substantially circular arc (128), wherein a.chord (130) of the arc (128) establishes (20) a radar aperture (102) having a substantially perpendicular construct baseline (104) through the target (108). The radar aperture (102) is partitioned (26) into first and second partial apertures (120) having substantially the construct baseline (104). First and second points (150) substantially vertically coincident with the construct baseline (104) are then determined (38) at means (152) of the first and second partial apertures (120), and first and second vectors (106) from the target (108) are established (40) by the first and second points (150), respectively. First and second portions (148) of the SAR data (118) are accumulated (32) over the first and second partial apertures (120), respectively, and first and second vector complex image data (164) of the target (108) is derived (54) in response thereto.