Abstract: Disclosed are a method of controlling a display by a headset with inline control, and related devices. The method includes: detecting whether an headset jack of the display is plugged with the headset; after the headset jack of the display is determined to be plugged with the headset, inputting a detection bias voltage to the headset, and monitoring a feedback signal of the detection bias voltage; in response to detecting a change in the feedback signal of the detection bias voltage, identifying a user's control instruction to the display using the headset according to a control signal sent by the headset; and controlling the display to perform a corresponding display operation according to the control instruction.

Abstract: Disclosed are a method of controlling a display by a headset with inline control, and related devices. The method includes: detecting whether an headset jack of the display is plugged with the headset; after the headset jack of the display is determined to be plugged with the headset, inputting a detection bias voltage to the headset, and monitoring a feedback signal of the detection bias voltage; in response to detecting a change in the feedback signal of the detection bias voltage, identifying a user's control instruction to the display using the headset according to a control signal sent by the headset; and controlling the display to perform a corresponding display operation according to the control instruction.

Abstract: A radio frequency identification tag is provided. The radio frequency identification tag includes a body and a cutting indication formed on the body. The body includes a substrate, an antenna disposed on the substrate and an integrated circuit disposed on the substrate and electrically connected to the antenna for performing a radio frequency communication. An extension of the cutting indication intersects with the antenna to separate the body into two parts after breaking.

Abstract: A radio frequency identification tag is provided. The radio frequency identification tag includes a body and a cutting indication formed on the body. The body includes a substrate, an antenna disposed on the substrate and an integrated circuit disposed on the substrate and electrically connected to the antenna for performing a radio frequency communication. An extension of the cutting indication intersects with the antenna to separate the body into two parts after breaking.

Abstract: A method for packaging a smart card is provided. The method includes steps of providing a first thermoforming plastic piece; providing a first piece on the first thermoforming plastic piece and having an aperture; disposing an electrical element on the first thermoforming plastic piece and in the aperture; providing a second thermoforming plastic piece covering the first piece and the electrical element; and heating the first and the second thermoforming plastic pieces.

Abstract: A structure for packaging a radio frequency identification (RFID) device is disclosed, which comprises a substrate, an antenna formed on the substrate, a RFID chip with a first side attached to the substrate and a second side having at least one signal pin exposed, at least one conductive contact plate placed on the substrate in contact with both the exposed signal pin and a portion of the antenna, and a protective film over the contact plate to secure the same to the substrate, wherein an electrical connection between the signal pin and the portion of the antenna is made through the contact plate.

Abstract: A packaging structure for a radio frequency identification (RFID) device is disclosed which comprises a substrate, an antenna with a plurality of terminals formed on the substrate, a RFID chip with a plurality of signal pins electrically coupled to the plurality of terminals, respectively, and a plurality of thermally activated binding pads being electrically conductive and in contact with the plurality of signal pins, respectively, wherein the RFID chip is adhered to the substrate by the plurality of binding pads after a thermo-pressing process.

Abstract: A single molecular species having a low-forward-voltage rectifying property is provided. The molecular species is represented by the formula: CL-IL-A-IR-CR where A is a “conducting” moiety (with a relatively narrow HOMO-LUMO gap), IL and IR are each an “insulating” moiety (with a relatively wide HOMO-LUMO gap), CL is a connecting group for attachment to a first electrode, and CR is a connecting group for attachment to a second electrode. Also, a low-forward-voltage rectifying molecular rectifier is provided, comprising the molecular species attached between the two electrodes. The present teachings provide a set of design rules to build single-molecule rectifying diodes that operate at low forward and large reverse voltages. Such single-molecule rectifying diodes are useful in a variety of nano-scale applications.

Abstract: A single molecular species having a low-forward-voltage rectifying property is provided.

Abstract: A refractory material is made of plant fibers, refractory granules, and inorganic cement materials in a predetermined proportion, wherein the refractory granules are evenly mixed with the inorganic cement materials, so that it can penetrate between the plant fibers and cover the surface of the plant fiber, the refractory property of the porous refractory granule can effectively strengthen the refractory capability of the inorganic cement material and plant fiber, so that the mixture can stand a burning temperature higher than traditional partition materials, the plant fibers are evenly mixed to effectively enhance the tenacity of the partition material such that the partition material can stand a high-temperature burning for a long time and will not crack into pieces or powder easily.

Abstract: A single molecular species having a low-forward-voltage rectifying property is provided. The molecular species is represented by the formula: CL—IL—A—IR—CR where A is a “conducting” moiety (with a relatively narrow HOMO-LUMO gap), IL and IR are each an “insulating” moiety (with a relatively wide HOMO-LUMO gap), CL is a connecting group for attachment to a first electrode, and CR is a connecting group for attachment to a second electrode. Also, a low-forward-voltage rectifying molecular rectifier is provided, comprising the molecular species attached between the two electrodes. The present teachings provide a set of design rules to build single-molecule rectifying diodes that operate at low forward and large reverse voltages. Such single-molecule rectifying diodes are useful in a variety of nano-scale applications.

Abstract: A single molecular species having a low-forward-voltage rectifying property is provided.