Abstract: A catalyst structure includes: (1) a substrate; (2) a catalyst layer on the substrate; and (3) an adhesion layer disposed between the substrate and the catalyst layer. In some implementations, an average thickness of the adhesion layer is about 1 nm or less. In some implementations, a material of the catalyst layer at least partially extends into a region of the adhesion layer. In some implementations, the catalyst layer is characterized by a lattice strain imparted by the adhesion layer.

Abstract: A catalyst structure includes: (1) a substrate; (2) a catalyst layer on the substrate; and (3) an adhesion layer disposed between the substrate and the catalyst layer. In some implementations, an average thickness of the adhesion layer is about 1 nm or less. In some implementations, a material of the catalyst layer at least partially extends into a region of the adhesion layer. In some implementations, the catalyst layer is characterized by a lattice strain imparted by the adhesion layer.

Abstract: The present specification relates to a heterocyclic compound represented by Chemical Formula 1 and an organic light emitting device including the same.

Abstract: The present disclosure relates to a composition for skin improvement and a pharmaceutical composition for preventing or treating an inflammatory skin disease, the compositions including an umbilical cord-derived mesenchymal stem cell culture medium as an active ingredient. The compositions exhibit a wound relief, wrinkle improvement, regeneration, elasticity increase, moisturizing, barrier strengthening, anti-inflammatory or antioxidant effect, and thus can be effectively used as a cosmetic composition for skin improvement or a pharmaceutical composition for preventing or treating an inflammatory skin disease.

Abstract: A manufacturing process includes: depositing a first catalyst on a first gas diffusion layer (GDL) to form a first catalyst-coated GDL; depositing a first ionomer on the first catalyst-coated GDL to form a first gas diffusion electrode (GDE); depositing a second catalyst on a second GDL to form a second catalyst-coated GDL; depositing a second ionomer on the second catalyst-coated GDL to form a second GDE; and laminating the first GDE with the second GDE and with an electrolyte membrane disposed between the first GDE and the second GDE to form a membrane electrode assembly (MEA). A MEA includes a first GDL; a second GDL; an electrolyte membrane disposed between the first GDL and the second GDL; a first catalyst layer disposed between the first GDL and the electrolyte membrane; and a second catalyst layer disposed between the second GDL and the electrolyte membrane, wherein a thickness of the electrolyte membrane is about 15 ?m or less.

Abstract: The present invention relates to a method and a system for managing dental article information based on a UHF RFID, and more particularly, to a method and a system for managing dental article information based on a UHF RFID, capable of automatically monitoring a location, a stock, and an expiration date of an article used by medical staffs of a dental clinic without an additional action of the medical staff, and providing information and a notification related to a dental article to the medical staffs of the dental clinic.

Abstract: A catalyst structure includes: (1) a substrate; (2) a catalyst layer on the substrate; and (3) an adhesion layer disposed between the substrate and the catalyst layer. In some implementations, an average thickness of the adhesion layer is about 1 nm or less. In some implementations, a material of the catalyst layer at least partially extends into a region of the adhesion layer. In some implementations, the catalyst layer is characterized by a lattice strain imparted by the adhesion layer.

Abstract: A manufacturing process includes: depositing a first catalyst on a first gas diffusion layer (GDL) to form a first catalyst-coated GDL; depositing a first ionomer on the first catalyst-coated GDL to form a first gas diffusion electrode (GDE); depositing a second catalyst on a second GDL to form a second catalyst-coated GDL; depositing a second ionomer on the second catalyst-coated GDL to form a second GDE; and laminating the first GDE with the second GDE and with an electrolyte membrane disposed between the first GDE and the second GDE to form a membrane electrode assembly (MEA). A MEA includes a first GDL; a second GDL; an electrolyte membrane disposed between the first GDL and the second GDL; a first catalyst layer disposed between the first GDL and the electrolyte membrane; and a second catalyst layer disposed between the second GDL and the electrolyte membrane, wherein a thickness of the electrolyte membrane is about 15 ?m or less.

Abstract: Provided is a wireless pressure detector. The wireless pressure detector includes: a support substrate; a plurality of pressure sensors arranged on the support substrate, each of the plurality of pressure sensors being configured to output a signal in response to a pressure applied thereto; and a transmitter configured to perform wireless transmission based on signals input from the plurality of pressure sensors.

Abstract: A manufacturing process includes: depositing a first catalyst on a first gas diffusion layer (GDL) to form a first catalyst-coated GDL; depositing a first ionomer on the first catalyst-coated GDL to form a first gas diffusion electrode (GDE); depositing a second catalyst on a second GDL to form a second catalyst-coated GDL; depositing a second ionomer on the second catalyst-coated GDL to form a second GDE; and laminating the first GDE with the second GDE and with an electrolyte membrane disposed between the first GDE and the second GDE to form a membrane electrode assembly (MEA). A MEA includes a first GDL; a second GDL; an electrolyte membrane disposed between the first GDL and the second GDL; a first catalyst layer disposed between the first GDL and the electrolyte membrane; and a second catalyst layer disposed between the second GDL and the electrolyte membrane, wherein a thickness of the electrolyte membrane is about 15 ?m or less.

Abstract: A catalyst structure includes: (1) a substrate; (2) a catalyst layer on the substrate; and (3) an adhesion layer disposed between the substrate and the catalyst layer. In some implementations, an average thickness of the adhesion layer is about 1 nm or less. In some implementations, a material of the catalyst layer at least partially extends into a region of the adhesion layer. In some implementations, the catalyst layer is characterized by a lattice strain imparted by the adhesion layer.

Abstract: Provided is a wireless pressure detector. The wireless pressure detector includes: a support substrate; a plurality of pressure sensors arranged on the support substrate, each of the plurality of pressure sensors being configured to output a signal in response to a pressure applied thereto; and a transmitter configured to perform wireless transmission based on signals input from the plurality of pressure sensors.

Abstract: Disclosed is a method for preparing broccoli with increased sulforaphane content using high-voltage pulsed electric field treatment. According to the method, broccoli with increased sulforaphane content can be eaten raw or can be chopped to appropriate sizes before eating without the need to crush the broccoli. In addition, sulforaphane can be extracted from the broccoli with increased sulforaphane content. The broccoli with increased sulforaphane content and the sulforaphane extract produced therefrom can be used as an active ingredient of a food, feed or cosmetic composition to exhibit the activities of sulforaphane, including antioxidative and anti-inflammatory activities.

Abstract: Disclosed is a method for preparing broccoli with increased sulforaphane content using high-voltage pulsed electric field treatment. According to the method, broccoli with increased sulforaphane content can be eaten raw or can be chopped to appropriate sizes before eating without the need to crush the broccoli. In addition, sulforaphane can be extracted from the broccoli with increased sulforaphane content. The broccoli with increased sulforaphane content and the sulforaphane extract produced therefrom can be used as an active ingredient of a food, feed or cosmetic composition to exhibit the activities of sulforaphane, including antioxidative and anti-inflammatory activities.

Abstract: The present disclosure relates to technologies for sensor networks, a machine-to-machine (M2M) interface, machine-type communication (MTC), and an Internet of things (IoT). The present disclosure may be used in intelligent services (e.g., a smart home, a smart building, a smart city, a smart car, a connected car, health-care, digital education, a retail business, security and safety-related services, etc.). A service-oriented input and output method and apparatus for a smart control system are provided. The method includes receiving a hot key input from a remote controller, transmitting a command corresponding to the hot key input to a device corresponding to the command, receiving a processing result according to the command from the device, when a display is inactivated upon reception of the processing result, activating the display and outputting a message according to the processing result through the display, and inactivating the display after the output of the message is ended.

Abstract: A single layer air electrode comprising a porous active catalyst framework. The porous active catalyst framework comprises metallic macroparticles, an active catalyst, a substrate and a binder. The porous active catalyst framework acting as both the active catalyst layer and the gas diffusion layer.

Abstract: A method of producing a bi-functional electrode for a metal-air battery or fuel cell comprises growing metal oxide nanowires directly on a metal support using a chemical deposition process. Preferably, the chemical process comprises an ammonium evaporation process. The metal support is preferably a porous metal structure, such as a metal mesh or foam. The metal oxide nanowires are formed of any transition metal or mixed transition metal. Preferably, the nanowires comprise cobalt oxide nanowires.