Abstract: A medical light device includes a main body, a light source, a filler, and a contact part. A cavity, receiving a light source, is disposed on the main body. The filler is composed of transparent material, filled inside the cavity, and covers the light source. The contact part, composed of soft and transparent material, is placed adjacent to the filler, covering the surface of the filler. The refractive index difference between the contact part and the filler is smaller than the refractive index difference between the filler and air.

Abstract: A light box apparatus comprises at least one light source, a frame, and a light guide plate. The frame, the side frames of which are made of metallic formed bars, has an accommodation space. The light guide plate, disposed in the accommodation space, has a lateral side. The frame has at least one side frame edge, which has an inlay groove adjacent to the lateral side, and the light, emitted from the light source disposed in the inlay groove, passes through the lateral side and transmits in the light guide plate.

Abstract: A light emitting diode (LED) lighting device is provided. The LED lighting device includes an LED light bar and a passive heat sink. The passive heat sink includes a base and a plurality of heat sink fins. The LED light bar is placed on one side of the base, and the heat sink fins are placed on the other side of the base. The fins are fixed on the base by soldering.

Abstract: An LED lighting module comprises an array luminous element and a bar-like light guiding structure. The array luminous element comprises a plurality of illuminants of top-emitting LEDs arranged in an array form. The bar-like light guiding structure surrounds two laterals of the array luminous element. The bar-like light guiding structure comprises a first curved surface and a second curved surface. The first curved surface and the second curved surface respectively descend toward the middle of the array luminous element from the two sides of the array luminous element, and meet above the middle of the array luminous element. The first curved surface and the second curved surface connect with each other at the plane with a certain angle and in tangency where the positive optical axis exists. The positive optical axis is the direction perpendicular to the plane on which the LEDs are mounted.

Abstract: A light emitting diode comprises a sheet-like package body, a barricade, a light emitting diode die, and fluorescent filler. The sheet-like package body has a die-bonding region. The barricade is a transparent wall that is disposed on the die-bonding region, and is integrated with the sheet-like package body or is adhered to sheet-like package body. The light emitting diode die is disposed on the region enclosed by the barricade, and the fluorescent filler is also filled into the region and surrounds the light emitting diode die. The light emitting diode and the method for packaging the light emitting diode can improve the uniformity and efficiency of the outputting light emitted from the light emitting diode, and the loss of the outputted light is reduced.

Abstract: A method of wear leveling for a non-volatile memory is disclosed. A non-volatile memory is divided into windows and gaps, with each gap between two adjacent windows. The windows comprise physical blocks mapped to logical addresses, and the gaps comprise physical blocks not mapped to logical addresses. The windows are shifted through the non-volatile memory in which the mapping to the physical blocks in the window to be shifted is changed to the physical blocks in the gap.

Abstract: A remote-controlled sight of a firearm has an aiming unit and a remote-controlled unit. The aiming unit is detachably disposed on a firearm body of the firearm and the remote-controlled unit connects to the firearm body. The remote-controlled unit has a button, a wireless transmitting module and a wireless receiving module, the wireless transmitting module is electrically connected to the button and the wireless receiving module is electrically connected to the aiming unit. When the button is pressed, a signal is transmitted from the wireless transmitting module and received by the wireless receiving module to actuate the aiming unit.

Abstract: Surface plasmon resonance (SPR) sensing technique which provides high specificity and accuracy has been an important method for molecular sensing technology. In the past, in order to affix 45 nm gold film onto glass or silicon substrate, several nanometers of chromium (Cr) or titanium (Ti) has been used as adhesive layer for the attachment of Au film. However, the existence of Cr or Ti thin film deteriorates the performance of SPR sensor due to their characteristic optical absorption. Our experimental results have confirmed the uses of conducting metal oxide, specifically, ITO and Zinc Oxide (ZnO) can be used to replace Cr or Ti for better performance in terms of SPR resonant properties (resonant angle and HMBW) and sensitivity enhancement for 3 to 15 times than traditional ones. It would contribute significantly to the SPR applications in both biosensors and gas sensors.

Abstract: This invention provides a high-efficiency light-emitting device and the manufacturing method thereof. The high-efficiency light-emitting device includes a substrate; a reflective layer; a bonding layer; a first semiconductor layer; an active layer; and a second semiconductor layer formed on the active layer. The second semiconductor layer includes a first surface having a first lower region and a first higher region.

Abstract: A memory card connector includes an insulative housing having a terminal-mounting section which mounts a plurality of conductive terminals having contact portions for engaging appropriate contacts on a memory card. The housing at least in part defines a card-receiving cavity for receiving the memory card. A card eject mechanism includes a slider movably mounted on the housing. The slider is engageable with the memory card for movement therewith into and out of the cavity. The card eject mechanism includes an ejection spring to bias the slider and memory card in an ejection direction. The slider has an elongated guide slot between a pair of opposite parallel side walls extending longitudinally in the direction of movement of the slider. A shielding metal shell is mounted on the housing and includes an elongated guide tab projecting into the guide slot. The guide tab has opposite longitudinal planar surfaces opposing the side walls of the slot.

Abstract: A remote-controlled sight of a firearm has an aiming unit and a remote-controlled unit. The aiming unit is detachably disposed on a firearm body of the firearm and the remote-controlled unit connects to the firearm body. The remote-controlled unit has a button, a wireless transmitting module and a wireless receiving module, the wireless transmitting module is electrically connected to the button and the wireless receiving module is electrically connected to the aiming unit. When the button is pressed, a signal is transmitted from the wireless transmitting module and received by the wireless receiving module to actuate the aiming unit.

Abstract: A memory card connector includes an insulative housing having a terminal-mounting section which mounts a plurality of conductive terminals having contact portions for engaging appropriate contacts on a memory card. The housing at least in part defines a card-receiving cavity for receiving the memory card. A card eject mechanism includes a slider movably mounted on the housing. The slider is engageable with the memory card for movement therewith into and out of the cavity. The card eject mechanism includes an ejection spring to bias the slider and memory card in an ejection direction. The slider has an elongated guide slot between a pair of opposite parallel side walls extending longitudinally in the direction of movement of the slider. A shielding metal shell is mounted on the housing and includes an elongated guide tab projecting into the guide slot. The guide tab has opposite longitudinal planar surfaces opposing the side walls of the slot.

Abstract: A memory card connector includes an insulative housing having a rear terminal-mounting section and at least one side wall section extending forwardly from one end of the rear section defining a card-receiving space therebetween. A first conductive terminal is mounted on the housing and has a first contact portion with a first protrusion thereon. A second conductive terminal is mounted on the housing and has a second contact portion with a second protrusion thereon. The contact portions of the terminals are normally spaced from each other but are juxtaposed so that the contact portions and the protrusions are mutually engaged in response to a memory card inserted into the card-receiving space. The protrusions are offset from each other, whereby the first protrusion of the first terminal engages the second contact portion of the second terminal, and the second protrusion of the second terminal engages the first contact portion of the first terminal.

Abstract: A memory card connector includes a lower dielectric housing part having a terminal-mounting base and a pair of side wall sections extending forwardly from opposite sides of the base. An upper dielectric housing part is mounted on top of the lower housing part and has a terminal-mounting roof. A card locating plate is connected at opposite sides thereof to the side wall sections of the lower housing part and combines therewith to define a first card-receiving space beneath the plate. The card locating plate is spaced from the roof of the upper housing part and combines therewith to define a second card-receiving space above the plate.

Abstract: A card eject system is provided for a memory card connector which includes a metal housing defining a receiving space for receiving a memory card inserted into the receiving space in an insertion direction through an insert opening generally at a front end of the housing. An insulating terminal socket is disposed at a rear end of the metal housing opposite the insert opening. A plurality of conductive terminals are mounted in the terminal socket for connection to the memory card. A pair of independently operable card eject mechanisms are disposed generally at opposite ends of the terminal socket for engaging the memory card at two spaced locations transversely of the insertion direction.

Abstract: A card eject system is provided for a memory card connector which includes a metal housing defining a receiving space for receiving a memory card inserted into the receiving space in an insertion direction through an insert opening generally at a front end of the housing. An insulating terminal socket is disposed at a rear end of the metal housing opposite the insert opening. A plurality of conductive terminals are mounted in the terminal socket for connection to the memory card. A pair of independently operable card eject mechanisms are disposed generally at opposite ends of the terminal socket for engaging the memory card at two spaced locations transversely of the insertion direction.

Abstract: A memory card connector is provided for mounting on a printed circuit board. The connector includes a metal housing having a top wall and a pair of side walls defining a receiving space therebetween for receiving a memory card inserted into the receiving space through an insert opening at a front end of the housing. At least one grounding portion projects outwardly from one of the side walls and includes a base plate for surface connection to a ground pad on the printed circuit board. The grounding portion includes a positioning tab projecting downwardly from the base plate for insertion into a positioning hole in the printed circuit board to properly position the base plate on the ground pad on the circuit board.

Abstract: A memory card connector includes an insulative housing having a rear terminal-mounting section and at least one side wall section extending forwardly from one end of the rear section and defining a card-receiving space therebetween. First and second switch terminals are mounted on the housing and have first and second contact portions, respectively. A third switch terminal is mounted on the housing and has a pair of third contact portions engageable by the first and second contact portions of the first and second switch terminals, respectively, in response to inserting a memory card into the card-receiving space. The third switch terminal includes an elongated base having opposite ends, with at least the opposite ends of the base fixed to the housing. A pair of contact spring arms are cantilevered from the opposite ends of the base, whereby the opposite ends form a pair of fulcrums for flexing of the contact spring arms. Free ends of the arms form the third contact portions of the third switch terminal.

Abstract: A memory card connector includes an insulative housing which at least in part defines a card-receiving space for the insertion thereinto of a memory card. A card eject mechanism is mounted on the housing and includes a slide member movable with the memory card in an insertion/ejection direction. The housing has a guide track and the slide member has a track follower to guide and stabilize the movement of the slide member in the insertion/ejection direction.

Abstract: A memory card connector includes an insulative housing having a rear terminal-mounting section and at least one side wall section extending forwardly from one end of the rear section and defining a card-receiving space therewith. A first switch terminal has a body portion fixed in the housing. A contact spring arm is cantilevered from the body portion. A card-engaging portion is located at a free end of the contact spring arm and is exposed in the card-receiving space for engaging by a memory card inserted thereinto. A first contact portion is bent back behind the card-engaging portion. A second switch terminal has a second contact portion. A third switch terminal has a pair of third contact portions engageable by the first and second contact portions of the first and second switch terminals, respectively, in response to inserting the memory card into the card-receiving space.