Abstract: The present invention relates to a opto-electronic device which comprises: (a) an upper device component comprising: a counter electrode made of a metal, a conductive oxide or a conductive organic compound; (b) a lower device component comprising: a glass or polymeric carrier substrate, a working electrode comprising a transparent conductive coating adjacent to the glass or polymeric substrate, a blocking layer, an active layer, a hole conducting layer, (c) a conductive adhesive disposed between the upper device component and the lower upper device component, and (d) a contact layer for facilitating the injection of electrons into the active layer, between and in contact with, the conductive adhesive and the hole conducting layer.

Abstract: The (6) power transformer that transmits power that links to (7) electromagnetic wound with a coil in a magnetic field as an amplifier of electrical amperes in a circuit, which an electromagnetic induction that generates overall power of the magnetomotive force as an alternating current (AC) induction motor. The (10) electromagnetic rotor bar as the magnetic rotating force that connects (9) the slip ring which supplies the magnetic current in an air gap (that interacts with electromagnetic induction) to the rotor bar that connects to (14) the fly wheel, a lever that generates torque. In accord with various petrol engine specifications the electromechanical power system can power passenger vehicles, trucks, buses, tractors, cranes, motorcycles, boats, locomotives, ships and other mechanical systems such as hydraulic engines, which include backhoes, excavators, and bulldozers; also it is the driving force of the rotors of pumping systems and electrical generating systems.

Abstract: A method is provided for making an annealed door skin or composite door assembly. At least the door skin is formed of a composition comprising a thermoset binder and fiberglass. The door skin, alone or in combination with other parts of a door assembly, is subjected to annealing to make the annealed door skin. The process of annealing comprises the step of heating the door skin, alone or in combination with other parts of the door assembly, above the glass transition temperature yet below the thermal degradation temperature of the thermoset binder for a sufficient amount of time to cause release internal stresses in the door skin, then the step of cooling the door skin.

Abstract: The present invention relates to an opto-electronic device comprising: (a) a first component (2) comprising a transparent electrode, and (b) a second component (3) comprising: —a metal substrate (5), —a blocking layer (7), —an active layer (8), and —a hole conducting layer (9, 10), wherein the metal substrate is provided with a plating layer (6) between the metal substrate and the blocking layer.

Abstract: A method is provided for making an annealed door skin or composite door assembly. At least the door skin is formed of a composition comprising a thermoset binder and fiberglass. The door skin, alone or in combination with other parts of a door assembly, is subjected to annealing to make the annealed door skin. The process of annealing comprises the step of heating the door skin, alone or in combination with other parts of the door assembly, above the glass transition temperature yet below the thermal degradation temperature of the thermoset binder for a sufficient amount of time to cause release internal stresses in the door skin, then the step of cooling the door skin.

Abstract: The present invention relates to an opto-electronic device comprising: a first component comprising an electrode, an active layer and a first transparent conductive layer; a second component comprising a transparent electrode, and a transparent adhesive disposed between the first component and the second component, wherein the transparent electrode comprises a metal or metal alloy current collector and the transparent adhesive comprises one or more conductive components.

Abstract: An impact resistant door skin, a door including the same, and a method of manufacturing an impact resistant door skin from a pre-formed door skin are provided. The method includes the steps of providing at least one preformed door skin and applying adhesive to a rear side of the at least one preformed door skin. A fiberglass mesh mat is pressed onto the rear side of the at least one preformed door skin. Then, chopped glass fibers coated with adhesive are sprayed onto the rear side of the at least one preformed door skin using a chopper gun to form a layer of chopped glass fibers on the fiberglass mesh mat. The performed door skin may be a molded door skin having at least one recessed panel formed therein.

Abstract: A method is provided for making an annealed door skin or composite door assembly. At least the door skin is formed of a composition comprising a thermoset binder and fiberglass. The door skin, alone or in combination with other parts of a door assembly, is subjected to annealing to make the annealed door skin. The process of annealing comprises the step of heating the door skin, alone or in combination with other parts of the door assembly, above the glass transition temperature yet below the thermal degradation temperature of the thermoset binder for a sufficient amount of time to cause release internal stresses in the door skin, then the step of cooling the door skin.

Abstract: An impact resistant door skin, a door including the same, and a method of manufacturing an impact resistant door skin from a pre-formed door skin are provided. The method includes the steps of providing at least one preformed door skin and applying adhesive to a rear side of the at least one preformed door skin. A fiberglass mesh mat is pressed onto the rear side of the at least one preformed door skin. Then, chopped glass fibers coated with adhesive are sprayed onto the rear side of the at least one preformed door skin using a chopper gun to form a layer of chopped glass fibers on the fiberglass mesh mat. The performed door skin may be a molded door skin having at least one recessed panel formed therein.

Abstract: Reinforced door skins, a door including one or more of the reinforced door skins, and methods of making the reinforced door skins and door are provided. The reinforced door skin as made by providing a reinforcement backing having a fibrous substrate layered with a solid-state thermoplastic hot melt adhesive, pressing the reinforcement backing and a preformed board having a door skin shape against one another at a temperature above a melt temperature of the thermoplastic hot melt adhesive and at sufficiently high pressure to conform the reinforcement backing to the door skin shape of the preformed board, and cooling the thermoplastic hot melt adhesive to form a reinforced door skin, the thermoplastic hot melt adhesive fusing the fibrous substrate to the preformed board of the reinforced door skin.

Abstract: A method is provided for making an annealed door skin or composite door assembly. At least the door skin is formed of a composition comprising a thermoset binder and fiberglass. The door skin, alone or in combination with other parts of a door assembly, is subjected to annealing to make the annealed door skin. The process of annealing comprises the step of heating the door skin, alone or in combination with other parts of the door assembly, above the glass transition temperature yet below the thermal degradation temperature of the thermoset binder for a sufficient amount of time to cause release internal stresses in the door skin, then the step of cooling the door skin.

Abstract: A method is provided for making an annealed door skin or composite door assembly. At least the door skin is formed of a composition comprising a thermoset binder and fiberglass. The door skin, alone or in combination with other parts of a door assembly, is subjected to annealing to make the annealed door skin. The process of annealing comprises the step of heating the door skin, alone or in combination with other parts of the door assembly, above the glass transition temperature yet below the thermal degradation temperature of the thermoset binder for a sufficient amount of time to cause release internal stresses in the door skin, then the step of cooling the door skin.

Abstract: A frame includes a pair of stiles and a pair of rails. A first stile has a first top surface, a first bottom surface, a first exterior surface and a first interior surface. A second stile has a second top surface, a second bottom surface, a second exterior surface and a second interior surface. First and second rails are joined to the first and second stiles. A reinforcement member is joined to the first interior surface.

Abstract: An impact resistant door skin, a door including the same, and a method of manufacturing an impact resistant door skin from a pre-formed door skin are provided. The method includes the steps of providing at least one preformed door skin and applying adhesive to a rear side of the at least one preformed door skin. A fiberglass mesh mat is pressed onto the rear side of the at least one preformed door skin. Then, chopped glass fibers coated with adhesive are sprayed onto the rear side of the at least one preformed door skin using a chopper gun to form a layer of chopped glass fibers on the fiberglass mesh mat. The performed door skin may be a molded door skin having at least one recessed panel formed therein.

Abstract: An impact resistant door skin, a door including the same, and a method of manufacturing an impact resistant door skin from a pre-formed door skin are provided. The method includes the steps of providing at least one preformed door skin and applying adhesive to a rear side of the at least one preformed door skin. A fiberglass mesh mat is pressed onto the rear side of the at least one preformed door skin. Then, chopped glass fibers coated with adhesive are sprayed onto the rear side of the at least one preformed door skin using a chopper gun to form a layer of chopped glass fibers on the fiberglass mesh mat. The performed door skin may be a molded door skin having at least one recessed panel formed therein.

Abstract: A method is provided for making an annealed door skin or composite door assembly. At least the door skin is formed of a composition comprising a thermoset binder and fiberglass. The door skin, alone or in combination with other parts of a door assembly, is subjected to annealing to make the annealed door skin. The process of annealing comprises the step of heating the door skin, alone or in combination with other parts of the door assembly, above the glass transition temperature yet below the thermal degradation temperature of the thermoset binder for a sufficient amount of time to cause release internal stresses in the door skin, then the step of cooling the door skin.

Abstract: Methods for signal processing employ instantaneous frequency analysis through quadrature genometric measurement of streaming signal data. Such methods may include the analysis of any composite analog periodic signal, including but not limited to audio, video, radio, seismic, light, radar, sonar, EKG, where signal data is streaming, stationary or non-stationary, and represents either linear or non-linear processes.

Abstract: A system for securing a flexible cover to a boat is described. The system includes a flexible cover defining a peripheral edge and a flexible member attached to the flexible cover adjacent to the peripheral edge. An edge clip is adjustably disposed on the flexible member. The edge clip includes a body defining an inlet and an outlet. The flexible member extends from the inlet to the outlet. A retaining element is disposed within the body to discourage movement of the flexible member with respect to the inlet and the outlet. The system also includes a hook, connectible between the edge clip and the boat for securing the edge clip to the boat, thereby securing the flexible cover to the boat via the flexible member.

Abstract: A hinge is described that includes a first bracket adapted to be attached to a first substrate. The first bracket includes a channel defining a first central axis and defining a first lateral axis perpendicular to the first central axis. The hinge also includes a second bracket adapted to be attached to a second substrate. The second bracket defines a second central axis and a second lateral axis perpendicular to the second central axis. The first lateral axis and the second lateral axis are disposed a distance from one another. A connecting stem pivotally connects the first bracket to the second bracket. A protrusion is disposed at one end of the connecting stem. The protrusion is disposed within the channel defined by the first bracket. An adjustable connection exists between the connecting stem and the second bracket to permit adjustment of the distance between the first and second lateral axes.