Abstract: A multiplex frame format for transmitting digital data in a data transmission system comprises a PACKETS portion comprising a highly error-protected region and a region having only Reed Solomon encoding as an error protection measure, the PACKETS portion including low speed data. The frame format also comprises portions for transmitting medium (AUDIO) and high speed (VIDEO) data streams following the PACKETS portion. Prior to transmission, the composed frame comprising the PACKETS, AUDIO and VIDEO portions is interleaved and the BLOCK SYNC and FRAME SYNC are added. A multiplex structure control packet word of the PACKETS portion immediately follows FRAME SYNC. Thus, the FRAME SYNC word defines where interleaving begins. A demultiplexer in concert with a microcontroller of a decoder decodes the multiplex structure control word and related PACKETS and outputs digital data streams to related output peripheral processors.

Abstract: A battery pack (12) comprises current sensor (28) for sensing the charge current through a battery cell (26), and generating a DC voltage which is sensed by a charger (14). The charger can then provide an output current that satisfies both the need for a constant charge current through the battery cell or cells, and the varying current demand of a load (10). Additionally, the battery pack may include a switch (34) for removing the current sensor from the discharge path of the battery cell or cells and the load when the battery pack is not connected to the charger.

Abstract: An electrochemical cell (10) includes first and second electrodes (12) and (14) with an electrolyte system (26) disposed therebetween. The electrolyte system includes a polymeric support structure through which is dispersed an electrolyte active species in an organic solvent. The solvent, which remains liquid to low temperatures, is a binary or higher order system comprising diethyl carbonate and one or more of propylene carbonate, ethylene carbonate, dimethyl carbonate, dipropylcarbonate, dimethylsulfoxide, acetonitrile, dimethoxyethane, tetrahydrofuran, n-methyl-2-pyrrolidone, and combinations thereof.

Abstract: A method for making high power electrochemical capacitors provides for depositing an electrically conducting polymer (20) (22) onto a non-noble metal substrate (10) which has been prepared by coating with an adhesion enhancing material (16) (18). Using the method, high power, high energy devices may be fabricated by arranging a plurality of individual capacitor cells into a stacked, bipolar device.

Abstract: A hybrid electrode for a high power, high energy, electrical storage device contains both a high-energy electrode material (42) and a high-rate electrode material (44). The two materials are deposited on a current collector (40), and the electrode is used to make an energy storage device that exhibits both the high-rate capability of a capacitor and the high energy capability of a battery. The two materials can be co-deposited on the current collector in a variety of ways, either in superimposed layers, adjacent layers, intermixed with each other or one material coating the other to form a mixture that is then deposited on the current collector.

Abstract: An electrochemical cell 22 comprises first and second electrode assemblies 10 and 24. Disposed between the electrode assemblies 10 and 24 is a layer of an electrolyte material 32. The electrode assemblies are adhered to the electrolyte layer by means of a adhesive layers 20 and 30 disposed between layers of electrode material 12 and 26 and the layer of electrolyte active material. The layer of adhesive material may be made of any of a number of materials, examples of which include polymers, epoxies, resins, and combinations thereof.

Abstract: A hybrid energy storage system (10) including a first energy storage device (12), such as a secondary or rechargeable battery, and a second energy storage device (14), such as an electrochemical capacitor. The electrochemical capacitor provides intermittent energy bursts to satisfy the power requires of, for example, pulsed power communication devices. The first and second energy storage devices are coupled to a current controller to assure that pulse transients are not applied to the battery cell as a result of charging the capacitor.

Abstract: A labeling head (22) has an applicator surface (24) having an outward curvature for holding a label (12) and applying it to a labeling surface (16) of an article (14). The labeling head is rotatable about a pivot pin (38) which passes through a pivot end (28) of the labeling head, allowing a free end (26) of the labeling head to be biased toward the article at an initial angle of bias, as determined by, for example, an adjustment screw (40). The initial angle of bias and the curvature of the labeling head are such that the portion of the label nearest the free end is parallel to the labeling surface. As the labeling head is lowered, the label is applied with a substantial rolling motion to avoid trapped air bubbles.

Abstract: A method for preparing a lithiated transition metal oxide electrochemical charge storage material for use in an electrochemical cell. The cell (10) includes a cathode (20), an anode (30) and an electrolyte (40) disposed therebetween. The method involves the preparation of the lithiated transition metal oxide material in an inert environment. The materials are characterized by improved electrochemical performance, and a multiphase composition in which at least one phase is substantially crystalline, while a second phase is substantially amorphous. By-products of the process may be re-used by converting them into one of the starting materials for the preparation process.

Abstract: An electrochemical cell is provided with a first and second electrode assemblies (10) (11), and an electrolyte (15) disposed therebetween. The electrodes may either be of the same or different materials and may be fabricated from ruthenium, iridium, cobalt, tungsten, vanadium, iron, molybdenum, nickel, silver, zinc, and combinations thereof. The electrode assemblies are fabricated by depositing a layer (16) of a conductive ink adhesive on a surface of a current collecting substrate (12). Thereafter, a layer of powdered active material (18) is impregnated onto the surface of the conductive ink layer.

Abstract: Electrodes for electrochemical capacitor are modified with a metal macrocyclic complex made up of phthalocyanine or porphyrin ligands bound to a transition metal to achieve improved conductivity, reversibility, and charge storage capacity. The electrode is formed from a metal base and coated with an oxide, nitride or carbide of a transition metal or with a conductive polymer. This coating is modified with the metal macrocyclic complex. Suitable metal macrocyclic complexes are iron phthalocyanine (FePc), iron meso-tetra(N-methyl-4-phenyl)porphyrin (FeTPP) or cobalt protoporphyrin (CoPP).

Abstract: A leaded component (10) is provided with first and second leads (14 & 16). The leads are formed with stopping deviations (26 & 28) which prevent the leads from being inserted into a circuit board (38) beyond the stopping deviations. The leads may also be provided with retaining deviations (34 & 36) which function to retain the component on the circuit board. Further, the stopping deviations may be formed so as to indicate the polarity of a component, and finally, the stopping deviations may be provided with mounting portions (50 & 52) so that the leaded component may be surface mounted on a circuit board (54).

Abstract: An electrolyte for an electrochemical cell is provided. The electrolyte is an admixture of H.sub.3 PO.sub.4 and a high temperature polymer such as poly(benzimidazole) in ratios between 2:1 and 50:1, Fumed silica is added to the electrolyte at levels between 0.2% and 8% by weight. An electrochemical cell is fabricated using the electrolyte, and exhibits improved adhesion between the electrolyte and the electrode.

Abstract: A reduced noise power converter is provided with a transformer having primary, secondary, and auxiliary windings (22, 24, and 46). An electrostatic shield (26) having a shield termination (32) is disposed between the primary and secondary windings. The auxiliary winding has the opposite polarity of the primary winding, and is coupled between the shield termination and the input voltage source (12). By appropriate selection of the number of turns of the auxiliary winding, noise coupled from the primary side to the secondary side through the stray device capacitance (34) is neutralized.

Abstract: An electrochemical cell 10 includes first and second electrodes 12 and 14 with an electrolyte system 26 disposed therebetween. The electrolyte system includes at least a multilayered first polymeric region 28, having second layers 30 and 32, of a second polymer material. The second layers may absorb an electrolyte active species and to adhere the adjacent layer of electrode material to the electrolyte 26. The electrolyte system further includes a process for packaging and curing the electrolyte after it has been incorporated into a discrete battery device.

Abstract: A method for making high power electrochemical capacitors (20) provides for depositing an electrically conducting polymer (24) onto a metal substrate (22). The electrically conducting polymer is initially grown in the presence of a soft anion, i.e., an anion having a high degree of polarizability. Subsequently, the polymer is treated with a relatively hard anion which at least partially replaces the soft anion in the polymer. The result is an electrochemical charge storage device which has enhanced electrochemical properties.

Abstract: The power delivery of an energy source (10) is enhanced by a dual function circuit. The circuit utilizes a storage capacitor (32) to store a voltage higher than the source voltage by transferring charge from the energy source to the storage capacitor between current pulses (16), than transferring charge from the storage capacitor to the load during current pulses. This is achieved by the novel combination of a boost converter (40) operating in conjunction with a buck converter (45).

Abstract: An integrated circuit (230) for attaching to a glass substrate (225) includes an integrated circuit die (350) having circuitry formed thereon. The integrated circuit (230) has cavities (380) formed in a first surface, and metal layers (370) formed adjacent to the integrated circuit die (350) and within the cavities (380) are coupled to the circuitry. Conductive bumps (260), which are formed from a material that adheres to glass, are deposited within the cavities (380) and electrically coupled to the circuitry via the metal layers (370).