Abstract: Disclosed herein are embodiments of sensor devices comprising a sensing component able to determine the presence of, detect, and/or quantify detectable species in a variety of environments and applications. The sensing components disclosed herein can comprise MOF materials, plasmonic nanomaterials, or combinations thereof. In an exemplary embodiment, light guides can be coupled with the sensing components described herein to provide sensor devices capable of increased NIR detection sensitivity in determining the presence of detectable species, such as gases and volatile organic compounds. In another exemplary embodiment, optical properties of the plasmonic nanomaterials combined with MOF materials can be monitored directly to detect analyte species through their impact on external conditions surrounding the particle or as a result of charge transfer to and from the plasmonic material as a result of interactions with the plasmonic material and/or the MOF material.

Abstract: A heat dissipation system for cabinet servers supported on a raised floor includes a condenser, airflow adjusting apparatus, a controller, and a temperature sensor located at an air outlet of each cabinet server. The raised floor defines air outlets adjacent to each cabinet server. The adjusting apparatus are mounted to the raised floor and aligning with the air outlets. Each of the airflow adjusting apparatus includes a number of shielding members rotatable relative to the raised floor and aligning with the air outlets, and a motor electrically coupled to the controller. The temperature sensors are electrically coupled to the controller. The condenser generates cool air entering the raised floor through the air inlet, to enter the cabinet servers through the airflow adjusting apparatus and the air outlets. The controller controls the shielding members to rotate, to change the opening size of the air outlets of the raised floor.

Abstract: A variable coupled inductor includes a first core, two conducting wires, a second core and a magnetic structure. The first core includes two first protruding portions, a second protruding portion and two grooves, wherein the second protruding portion is located between the two first protruding portions and each of the grooves is located between one of the first protruding portions and the second protruding portion. Each of the conducting wires is disposed in one of the grooves. The second core is disposed on the first core. A first gap is formed between each of the first protruding portions and the second core and a second gap is formed between the second protruding portion and the second core. The magnetic structure is disposed between the second protruding portion and the second core and distributed symmetrically with respect to a centerline of the second protruding portion.

Abstract: An image monitoring apparatus includes a casing, a camera module in the casing, and a lighting module disposed on the casing and located above or under the camera module on a plane corresponding to a vertical angle of view of the camera module. A horizontal light-emitting plane of a LED of the lighting module is perpendicular to the plane corresponding to the vertical angle of view. A lens of the lighting module covers the LED and has a convex light-exit surface, a bottom surface, and a concave light-entrance surface. A long axis of the convex light-exit surface is located at the horizontal light-emitting plane. A section thickness of the lens from the concave light-entrance surface to the convex light-exit surface along the long axis is greater than a section thickness of the lens from the concave light-entrance surface to the convex light-exit surface along a normal of the bottom surface.

Abstract: Disclosed herein are an adaptive illumination apparatus and an adaptive illumination method. The adaptive illumination apparatus is associated with a target scene and comprises a control module and an illumination module. The control module is configured to generate a command associated with an area included in the target scene. Specifically, the control module selects the area and determines a scope and a direction associated therewith based on a brightness distribution of the target scene, receives a distance parameter associated with a distance between the area and the illumination module, and indicates said scope, direction and distance parameter in the command. The illumination module, coupled with the control module, is capable of panning, tilting, and zooming. Based on the command, the illumination module performs panning, tilting, or zooming and illuminates the area.

Abstract: A variable coupled inductor includes a first core, two conducting wires, a second core and a magnetic structure. The first core includes two first protruding portions, a second protruding portion and two grooves, wherein the second protruding portion is located between the two first protruding portions and each of the grooves is located between one of the first protruding portions and the second protruding portion. Each of the conducting wires is disposed in one of the grooves. The second core is disposed on the first core. A first gap is formed between each of the first protruding portions and the second core and a second gap is formed between the second protruding portion and the second core. The magnetic structure is disposed between the second protruding portion and the second core and distributed symmetrically with respect to a centerline of the second protruding portion.

Abstract: Data center includes a first container, a second container, a first duct and a second duct. The first container includes an air intake for inputting outside cooling air, an air input window for inputting heated air, and an air exhaust. The outside cooling air and the heated air in the first container are mixed to be cooling air. The second container has data racks contained therein. The second container includes an air inlet and an air outlet. The first air duct couples the air exhaust of the first container and the air inlet of the second container, for guiding the cooling air from the first container to cool data equipment at the data racks. The second air duct couples the air outlet of the second container and the input window of the first container, for guiding the heated air from the second container to the first container.

Abstract: Data center includes a first container and a second container containing data racks therein. The first container includes an air intake for inputting outside cooling air into the first container. The second container contacts the first container via a base between the first container and the second container. The base defines a cooling air passage and heated air passage both communicating the first container and the second container. The cooling air passage inputs cooling air from the first container to the second container. The heated air passage inputs heated air from the second container to the first container.

Abstract: An illumination device includes a light source and a reflective cup. The light source is for emitting a first beam and a second beam. A light intensity of the first beam is greater than a light intensity of the second beam. The reflective cup has a plurality of reflecting curved surfaces and a through hole formed by the plurality of reflecting curved surfaces. Each reflecting curved surface has a first reflective section and a second reflective section. A slope of the first reflective section is different from a slope of the second reflective section. The first beam is reflected to an off-axis region by the first reflective section. The second beam is reflected to a paraxial region by the second reflective section, such that a light intensity in the off-axis region is greater than a light intensity in the paraxial region.

Abstract: The disclosure provides a light-enhancing component and a photographic device having the same. The light-enhancing component includes a light reflective unit and a light source. The light reflective unit includes a first reflecting surface and a second reflecting surface. The light source is disposed between the first reflecting surface and the second reflecting surface. An inclination of the first reflecting surface is different from an inclination of the second reflecting surface.

Abstract: Systems and methods for synthesizing high-quality nanocrystals via segmented, continuous flow microwave-assisted reactor were developed.

Abstract: A heat dissipation system for cabinet servers supported on a raised floor includes a condenser, airflow adjusting apparatus, a controller, and a temperature sensor located at an air outlet of each cabinet server. The raised floor defines air outlets adjacent to each cabinet server. The adjusting apparatus are mounted to the raised floor and aligning with the air outlets. Each of the airflow adjusting apparatus includes a number of shielding members rotatable relative to the raised floor and aligning with the air outlets, and a motor electrically coupled to the controller. The temperature sensors are electrically coupled to the controller. The condenser generates cool air entering the raised floor through the air inlet, to enter the cabinet servers through the airflow adjusting apparatus and the air outlets. The controller controls the shielding members to rotate, to change the opening size of the air outlets of the raised floor.

Abstract: A light compensating system in accordance with this invention comprises a plurality of light emitting devices, an image capturing device, and a processing device. The processing device is respectively coupled to the plurality of light emitting devices and the image capturing device. Each light emitting device is used for emitting light to illuminate a certain area in space. The image capturing device is used for capturing a first image, which can be defined as a plurality of image blocks. Each image block is affected by the light from at least one corresponding light emitting device. The processing device is used for analyzing a brightness value of at least one of the plurality image block and adjusting at least one light emitting device corresponding to the analyzed image block based on the brightness value.

Abstract: A system for controlling container data centers (CDCs) includes a number of CDC groups, a number of slave monitoring systems, and a master monitoring system. Each CDC group includes a number of CDCs. Each slave monitoring system is connected to the CDCs of one CDC group via a network. Each slave monitoring system receives and processes data transmitted from the CDCs connected to the slave monitoring system, and transmits the processed data to the master monitoring system via the network. The master monitoring system receives the processed data from the slave monitoring systems, responds to user input to receive settings for controlling operation of the plurality of CDCs, and transmits the settings to the plurality of slave monitoring systems. The slave monitoring system transmit the settings to the CDCs connected to the slave monitoring systems. Each CDC operates according to the settings input by the user.

Abstract: The invention relates generally to remote data collecting systems and methods. In a general aspect, the present invention provides a remote data collecting system comprising a measuring device having at least two scales in communication with a web server. The web server can be used to display data from the measuring device on a website to be accessed by one or more users, for example, using a computing device. The remote data collecting system is particularly useful for real-time, uncontrolled environment (e.g., in-home) product testing.

Abstract: Embodiments of a continuous-flow injection reactor and a method for continuous material synthesis are disclosed. The reactor includes a mixing zone unit and a residence time unit removably coupled to the mixing zone unit. The mixing zone unit includes at least one top inlet, a side inlet, and a bottom outlet. An injection tube, or plurality of injection tubes, is inserted through the top inlet and extends past the side inlet while terminating above the bottom outlet. A first reactant solution flows in through the side inlet, and a second reactant solution flows in through the injection tube(s). With reference to nanoparticle synthesis, the reactant solutions combine in a mixing zone and form nucleated nanoparticles. The nucleated nanoparticles flow through the residence time unit. The residence time unit may be a single conduit, or it may include an outer housing and a plurality of inner tubes within the outer housing.

Abstract: A container data center includes a container and a number of adjustment members. Each adjustment member includes a base, a jack fixed on the base, and a supporting block fastened between a bottom of the container and the jack. The jack is operated to move the supporting block up and down.

Abstract: Disclosed embodiments concern solution deposition of at least a first inorganic compound on a substrate, typically for production of electronic devices, such as solution deposition of metal salts, including halides, carbonyls, acetates, sulfates, phosphates, carbonates, and mixtures thereof. Solutions may be deposited using any suitable process, particularly inkjet printing or spin coating. The method can involve depositing only a first solution, depositing a first solution plural times, or deposition of plural different solutions. Furthermore, the method may involve simultaneous or serial deposition of two or more solutions. The method may further comprise post deposition processing the deposited material, such as thermal annealing, oxidation processes, reduction processes, exchange reactions, and combinations thereof.

Abstract: A variable coupled inductor includes a first core, two conducting wires, a second core and a magnetic structure. The first core includes two first protruding portions, a second protruding portion and two grooves, wherein the second protruding portion is located between the two first protruding portions and each of the grooves is located between one of the first protruding portions and the second protruding portion. Each of the conducting wires is disposed in one of the grooves. The second core is disposed on the first core. A first gap is formed between each of the first protruding portions and the second core and a second gap is formed between the second protruding portion and the second core. The magnetic structure is disposed between the second protruding portion and the second core and distributed symmetrically with respect to a centerline of the second protruding portion.

Abstract: Thermal responsive compositions for treating bone diseases are provided. The thermal responsive composition for treating bone diseases includes a bone growth factor and a biodegradable copolymer. The biodegradable copolymer has a structure of Formula (I) or Formula (II): A-B-BOX-B-A??Formula (I) B-A-B-(BOX-B-A-B)n-BOX-B-A-B??Formula (II) wherein, A includes a hydrophilic polyethylene glycol polymer, B includes a hydrophobic polyester polymer, BOX is a bifunctional group monomer of 2, 2?-Bis(2-oxazoline) and used for coupling the blocks A-B or B-A-B, and n is an integer and the same or more than 0.