Abstract: A standing seam metal panel for a roof cover system has upstanding symmetrical sides defining lateral edges. A trough extends between the lateral edges. Each lateral edge comprises an angled portion, a vertical portion, and first and second horizontal portions. The angled portion extends upward and outward from the trough. The vertical portion extends upward from the angled portion and generally perpendicular to the trough. The first horizontal portion extends inward from the vertical portion and generally parallel to the trough. The second horizontal portion extends above, outward from, and generally parallel to the first horizontal portion. The lateral edges are formed by bends in the metal panel that define the portions of the lateral edges. The lateral edges are adapted to form a sidelap with a lateral edge of an adjacent the metal panel in the cover system. The sidelap is formed on panel clips of the cover system.

Abstract: System, method, and computer product embodiments for controlling a display device's display settings from a computing device's touch-based user interface are described. In an embodiment, the computing device establishes a wireless connectivity with the display device. The computing device sends a command generated to query information related to the display setting. Then, the computing device receives the queried information from the display device. The computing device configures a graphical user interface (GUI) with the queried information to display configurations of the display settings on the touchscreen. The configurations include the display settings currently configured in the display device. The computing device further enables, within GUI, a displayed configuration from the display configurations to be calibrated by one or more touch gestures on the touchscreen.

Abstract: System, method, and computer product embodiments for controlling a display device's display settings from a computing device's touch-based user interface are described. In an embodiment, the computing device establishes a wireless connectivity with the display device. The computing device sends a command generated to query information related to the display setting. Then, the computing device receives the queried information from the display device. The computing device configures a graphical user interface (GUI) with the queried information to display configurations of the display settings on the touchscreen. The configurations include the display settings currently configured in the display device. The computing device further enables, within GUI, a displayed configuration from the display configurations to be calibrated by one or more touch gestures on the touchscreen.

Abstract: System, method, and computer product embodiments for controlling a display device's display settings from a computing device's touch-based user interface are described. In an embodiment, the computing device establishes a wireless connectivity with the display device. The computing device sends a command generated to query information related to the display setting. Then, the computing device receives the queried information from the display device. The computing device configures a graphical user interface (GUI) with the queried information to display configurations of the display settings on the touchscreen. The configurations include the display settings currently configured in the display device. The computing device further enables, within GUI, a displayed configuration from the display configurations to be calibrated by one or more touch gestures on the touchscreen.

Abstract: System, method, and computer product embodiments for controlling a display device's display settings from a computing device's touch-based user interface are described. In an embodiment, the computing device establishes a wireless connectivity with the display device. The computing device sends a command generated to query information related to the display setting. Then, the computing device receives the queried information from the display device. The computing device configures a graphical user interface (GUI) with the queried information to display configurations of the display settings on the touchscreen. The configurations include the display settings currently configured in the display device. The computing device further enables, within GUI, a displayed configuration from the display configurations to be calibrated by one or more touch gestures on the touchscreen.

Abstract: Metal panel standing seam roof recovers installed over an existing shingled roof. The existing shingled roof comprises a plurality of shingles installed in overlapping rows running across the pitch of the existing roof. The rows of shingles have a covered upper edge and an exposed lower edge. The recover system comprises a plurality of panel clips mounted to the existing shingled roof and arranged in linear arrays running along the pitch of the existing roof. The panel clips have a base that extends across and is supported by the lower edges of a first row of shingles and an adjacent second row of shingles. A recover is attached to the panel clips. The recover comprises a plurality of elongated metal panels having upstanding sides defining lateral edges with a trough therebetween. The metal panels are interconnected along adjacent lateral edges by sidelaps formed on the panel clips.

Abstract: Metal panel standing seam roof recovers installed over existing metal panel standing seam roof. The metal panel standing seam roof recover system comprises a plurality of recover panel clips mounted to the existing roof and a recover attached to the recover panel clips. The recover panel clips are arranged in linear arrays running along the pitch of the existing roof. The recover panel clips are mounted to the cover panels by a clip fastener extending through a cover sidelap or through a shoulder adjacent a cover sidelap formed in the standing seam metal panels of the existing roof. The recover comprises a plurality of elongated metal recover panels having upstanding sides defining lateral edges with a trough therebetween. The recover panels are interconnected along adjacent lateral edges by sidelaps formed on the recover panel clips.

Abstract: The subject invention provides for metal panel roof recover systems which are installed over an existing roof. The existing roof has a support frame which includes an array of spaced purlins running horizontally through the roof and a plurality of interconnected metal panels that are mounted vertically across the array of purlins. The roof recover system comprises individual panel clips, elongated panel clips, and a metal cover. The individual clips are arranged in linear arrays running vertically across the purlins and are mounted to the purlins through the panels of the existing roof. The elongated continuous panel clips extend vertically across and are mounted to adjacent purlins through the panels of the existing roof. The metal cover is attached to the clips and comprises a plurality of metal panels interconnected by vertical standing seams formed on the clips.

Abstract: Skylights and roofs having skylights are provided for. The skylights may comprise a pair of elongated struts adapted for mounting vertically on opposing sides of an opening in the roof cover and a translucent panel mounted horizontally across the struts. The translucent panel has upwardly extending sides adapted to be joined to form horizontal seams, and the struts are adapted to support the translucent panel above the roof cover.

Abstract: A supplemental agent for a hazardous waste composition containing electric arc furnace dust (EAFD) includes potassium magnesium sulfate or a magnesium salt such as magnesium sulfate or magnesium chloride. The supplemental agent when mixed with EAFD and water, along with either lime inherent within the EAFD or added lime, reduces the leaching of heavy metals from the waste composition over a wide range of leaching conditions, including both acidic, neutral, and alkaline environments. The method for reducing the concentration of heavy metals in a leachate from the EAFD involves forming a mixture of EAFD, water, the supplemental agent, and, optionally, ferrous sulfate, along with lime, then permitting the mixture to react.

Abstract: A method of routing a globally-dialed telephone number to a selected customer number including the steps of selecting a geographic country code having an associated international gateway provider and receiving a telephone call having a dial string including the geographic country code and at least one additional identifier number or set of numbers. The telephone call is routed to the originating international gateway provider where a determination is made to direct the call to a database-containing international gateway. The telephone call is compared to the selected numbers in the database and the correct terminating international gateway provider is determined, the telephone call being translated into an international routing number associated with the correct number. The telephone call is then routed to the terminating international gateway provider determined by the international routing number and the telephone call is connected with the terminating service provider.

Abstract: A method of routing a globally-dialed telephone number to a selected customer number including the steps of selecting a geographic country code having an associated international gateway provider and receiving a telephone call having a dial string including the geographic country code and at least one additional identifier number or set of numbers. The telephone call is routed to the originating international gateway provider where a determination is made to direct the call to a database-containing international gateway. The telephone call is compared to the selected numbers in the database and the correct terminating international gateway provider is determined, the telephone call being translated into an international routing number associated with the correct number. The telephone call is then routed to the terminating international gateway provider determined by the international routing number and the telephone call is connected with the terminating service provider.

Abstract: A supplemental agent for a hazardous waste composition containing electric arc furnace dust (EAFD) includes potassium magnesium sulfate or a magnesium salt such as magnesium sulfate or magnesium chloride. The supplemental agent when mixed with EAFD and water, along with lime either lime inherent within the EAFD or added lime, reduces the leaching of heavy metals from the waste composition over a wide range of leaching conditions, including both acidic, neutral, and alkaline environments. The method for reducing the concentration of heavy metals in a leachate from the EAFD involves forming a mixture of EAFD, water, the supplemental agent, and, optionally, ferrous sulfate, along with lime, then permitting the mixture to react.

Abstract: In a process for finishing neopentyl glycol by cooling, crystallizing and comminuting a neopentyl glycol melt and subsequent packing of the resulting neopentyl glycol particles in storage or transport containers, the melt is cooled at the commencement of cooling for at least 1/10 minutes without use of a coolant or with use of a coolant having a temperature in the range from 50 to 120° C. and the product is packed at a temperature below 30° C.

Abstract: A buffering agent for a cementitious hazardous waste composition, containing electric arc furnace dust (EAFD) and water, includes dolomitic lime, namely either dolomitic quicklime, dolomitic monohydrated lime or dolomitic dihydrated lime. Dolomitic lime serves as a buffering agent for the hazardous waste composition by maintaining the pH of the waste composition within a target range over which solubility of several heavy metals tends to be minimized. These heavy metals include lead, zinc and cadmium, among others, and the pH range within which the heavy metals experience a minimum solubility is approximately 8.5 to 11.5, and preferably 9.4 to 10.2. In addition, dolomitic lime is substantially insoluble in water, so that the buffering agent will not leach or diffuse out of the waste composition.

Abstract: A method for transporting a cementitious mixture to an underground space includes subjecting the mixture to high-shear mixing to render it temporarily flowable and, while the mixture remains in its flowable state, transporting the mixture to the underground space. After a period of time following the high-shear mixing, the mixture reverts to its initial viscosity and subsequently reacts to form a cementitiously hardened product. The mixture used in the present invention includes flue gas desulfurization sludge, lime, fly ash and water.

Abstract: A process for the production of a water-insoluble, abrasion-resistant, synthetic solid article or aggregate, as well as the products produced thereby. Fly ash, lime, water and FGD sludge are mixed intimately and formed at pressures exceeding 1,000 psi, preferably 4000-8000 psi. The product is cured for at least the equivalent of 28 days at 73.degree. F., and crushed and sized to produce a commercial aggregate, for example, for concrete, asphalt, concrete masonry units, etc.

Abstract: A method and a mixture for chemically stabilizing electric arc furnace dust (EAFD) by entrapping the metals inherent in EAFD within a cementitiously hardened product from the mixture. The method includes using the pozzolanic characteristics of EAFD and forming a mixture of EAFD with sufficient water and lime, as necessary, and then allowing the mixture to react to form a cementitiously hardened product. The hardened product has acceptable leachate concentrations, permeability characteristics and unconfined compressive strength.