Abstract: A method and apparatus for producing an electronic device are disclosed. An adhesive material is jetted in a first pattern on a surface of a receiver substrate. A carrier having a metal foil disposed thereon is brought into contact with the first substrate such that a portion of the metal foil contacts the adhesive material. The adhesive material is activated using at least one of mechanical pressure and heat while the portion of the metal foil is in contact with the adhesive material. The first substrate and the second substrate are separated, whereby the portion of the metal foil is transferred to the first substrate.

Abstract: A monitoring device and a method of operating the monitoring device are disclosed. The monitoring device includes a first substrate adapted to be secured to a structure, a second substrate, and a third substrate disposed between the first and the second substrates. The monitoring device further includes an electronic circuit affixed to the third substrate, wherein the electronic circuit comprises at least one light emitting device and a processor, and the at least one light emitting device is positioned such that light emitted thereby is directed outwardly through the second substrate. The processor selects a plurality binary values to transmit, and in response, to operates the at least one light emitting device in one of an on state and off state in accordance with each binary value.

Abstract: A monitoring device includes a substrate having a circuit trace disposed thereon and a circuit carrier having a recessed portion. The substrate includes a flexible flange portion having a component disposed thereon. The substrate is disposed on the circuit carrier such that the flange portion and the component are disposed in the recessed portion.

Abstract: According to one aspect, a monitoring device includes a processor, a sensor, and a configuration circuit. The sensor is adapted to detect if the sensor is subjected to at least a first magnitude of the particular condition. The configuration circuit may be used to specify a second magnitude of the particular condition, wherein the second magnitude is greater than the first magnitude. The processor remains in an inactive state if the object is subjected to a magnitude of the particular condition less than the second magnitude, and the sensor generates a signal in response to detection of sensor being subjected to at least the second magnitude of the particular condition. In response to the signal, the processor enters an active state to develop an indication of at least the second magnitude of the particular condition.

Abstract: An electrical insulator material includes a polymer and a solvent, and has a viscosity in the range of from about 1.0 to about 20.0 cP such that the electrical insulator material can be applied to a surface using an ink jet print head.

Abstract: According to one aspect, a monitoring device includes a processor, a sensor, and a configuration circuit. The sensor is adapted to detect if the sensor is subjected to at least a first magnitude of the particular condition. The configuration circuit may be used to specify a second magnitude of the particular condition, wherein the second magnitude is greater than the first magnitude. The processor remains in an inactive state if the object is subjected to a magnitude of the particular condition less than the second magnitude, and the sensor generates a signal in response to detection of sensor being subjected to at least the second magnitude of the particular condition. In response to the signal, the processor enters an active state to develop an indication of at least the second magnitude of the particular condition.

Abstract: A method and apparatus for producing an electronic device are disclosed. An adhesive material is jetted in a first pattern on a surface of a receiver substrate. A carrier having a metal foil disposed thereon is brought into contact with the first substrate such that a portion of the metal foil contacts the adhesive material. The adhesive material is activated using at least one of mechanical pressure and heat while the portion of the metal foil is in contact with the adhesive material. The first substrate and the second substrate are separated, whereby the portion of the metal foil is transferred to the first substrate.

Abstract: A monitoring device and a method of operating the monitoring device are disclosed. The monitoring device includes a first substrate adapted to be secured to a structure, a second substrate, and a third substrate disposed between the first and the second substrates. The monitoring device further includes an electronic circuit affixed to the third substrate, wherein the electronic circuit comprises at least one light emitting device and a processor, and the at least one light emitting device is positioned such that light emitted thereby is directed outwardly through the second substrate. The processor selects a plurality binary values to transmit, and in response, to operates the at least one light emitting device in one of an on state and off state in accordance with each binary value.

Abstract: According to one aspect, a monitoring device includes a processor, a sensor, and a configuration circuit. The sensor is adapted to detect if the sensor is subjected to at least a first magnitude of the particular condition. The configuration circuit may be used to specify a second magnitude of the particular condition, wherein the second magnitude is greater than the first magnitude. The processor remains in an inactive state if the object is subjected to a magnitude of the particular condition less than the second magnitude, and the sensor generates a signal in response to detection of sensor being subjected to at least the second magnitude of the particular condition. In response to the signal, the processor enters an active state to develop an indication of at least the second magnitude of the particular condition.

Abstract: A method and apparatus for producing an electronic device are disclosed. An adhesive material is jetted in a first pattern on a surface of a receiver substrate. A carrier having a metal foil disposed thereon is brought into contact with the first substrate such that a portion of the metal foil contacts the adhesive material. The adhesive material is activated using at least one of mechanical pressure and heat while the portion of the metal foil is in contact with the adhesive material. The first substrate and the second substrate are separated, whereby the portion of the metal foil is transferred to the first substrate.

Abstract: A monitoring device includes a substrate having a circuit trace disposed thereon and a circuit carrier having a recessed portion. The substrate includes a flexible flange portion having a component disposed thereon. The substrate is disposed on the circuit carrier such that the flange portion and the component are disposed in the recessed portion.

Abstract: A battery and a method of constructing a battery are disclosed in which a first conductive substrate portion has a first face and a second conductive substrate portion has a second face opposed to the first face. A first electrode material is disposed in electrical contact with the first face, an electrolyte material is disposed in contact with the first electrode material, a second electrode material is disposed in contact with the electrolyte material, and a conductive tab disposed in contact with the second electrode material. The first conductive substrate portion, the first electrode material, and the conductive tab extend outward beyond a particular edge of the second conductive substrate portion.

Abstract: The electrolyte material includes a polymer, a salt, and a solvent. The electrolyte material has a viscosity in the range from about 3.0 cP to about 20.0 cP such that the electrolyte material can be applied to a substrate using an ink jet print head.

Abstract: A battery includes a first conductive substrate portion having a first face, and a second conductive substrate portion having a second face opposed to the first face. Each of the first and second faces has a perimeter portion and an interior portion inside the perimeter portion. A first electrode material of the battery is disposed in contact with the interior portion of at least one of the first and second faces, and a jettable electrolyte material disposed in contact with the first electrode material. A second electrode material is disposed in contact with the electrolyte material, and a conductive tab is disposed in contact with the second electrode material. The conductive tab extends outwardly from the interior region beyond the perimeter portion of at least one of the first and second faces.

Abstract: An apparatus and method for placing components on an electronic circuit is disclosed. An adhesive applicator applies an adhesive to the electronic circuit. A component pick-and-place head places a component on the adhesive. A heater supplies sufficient heat to the electronic circuit to melt the adhesive and an outer portion of a contact pin of the component.

Abstract: An electronic label includes a first substrate, a second substrate, and an electronic circuit disposed between the first substrate and the second substrate. A switch and an indicator are coupled to the electronic circuit. The indicator is responsive to actuation of the switch to indicate usage of a product.

Abstract: An electronic label includes a first substrate, a second substrate, and an electronic circuit disposed between the first substrate and the second substrate. A switch and an indicator are coupled to the electronic circuit. The indicator is responsive to actuation of the switch to indicate usage of a product.

Abstract: According to one aspect, a monitoring device includes a processor, a sensor, and a configuration circuit. The sensor is adapted to detect if the sensor is subjected to at least a first magnitude of the particular condition. The configuration circuit may be used to specify a second magnitude of the particular condition, wherein the second magnitude is greater than the first magnitude. The processor remains in an inactive state if the object is subjected to a magnitude of the particular condition less than the second magnitude, and the sensor generates a signal in response to detection of sensor being subjected to at least the second magnitude of the particular condition. In response to the signal, the processor enters an active state to develop an indication of at least the second magnitude of the particular condition.

Abstract: The electrolyte material includes a polymer, a salt, and a solvent. The electrolyte material has a viscosity in the range from about 3.0 cP to about 20.0 cP such that the electrolyte material can be applied to a substrate using an ink jet print head.

Abstract: According to one aspect, a monitoring device for detecting when an object may be subjected to a condition includes a processor, a sensor, and a configuration circuit. The sensor is adapted to detect if the object is subjected to at least a first magnitude of the particular condition. The configuration circuit may be used to specify a second magnitude of the particular condition, wherein the second magnitude is greater than the first magnitude. The processor remains in an inactive state if the object is subjected to a magnitude of the particular condition less than the second magnitude, and the sensor generates a signal in response to detection of object being subjected to at least the second magnitude of the particular condition. In response to the signal, the processor enters an active state to develop an indication of at least the second magnitude of the particular condition.