Abstract:
PURPOSE: An apparatus for sample analysis is provided to stop a disc in a correct position only with a protrusion formed on a lower surface of the disc and a stopper formed on a slider. CONSTITUTION: An apparatus for sample analysis (1) comprises: a disc (10) including at least one detection area and rotatably arranged with a rotary shaft as a center; an optical sensor configured to sense a reaction result appeared in at least one detection area; at least one position determination protrusions (131-133) which is formed to protrude in one side of the disc; a slider (30) which is movably arranged to at least one direction among the outer side and the inner side of a radius direction of the disc; a stopper (320) which is mounted on a slider, configured to stop a rotation of the disc by blocking at least one position determination protrusions.
Abstract:
PURPOSE: A disk type microfluidic device is provided to save production costs by omitting a separate device for detecting the insertion error of the disk type microfluidic device. CONSTITUTION: A disk type microfluidic device(10) includes a disk type body(11) and a penetrating hole(118). The penetrating hole penetrates the center part of the body such that a driving unit(100) is combined with the body. The penetrating hole is vertically asymmetric such that the driving unit is combined with the specific one direction of the body. The driving unit includes a turntable(106) and a spindle motor(102). The turntable is combined with the penetrating hole. The spindle motor rotates the turntable. At least one stepped part is arranged at the penetrating hole in order to prevent the insertion of the turntable.
Abstract:
PURPOSE: A manufacturing method of a semiconductor device which includes various device separation regions is provided to improve productivity and yield by not affecting conductive structures from the various device separation regions. CONSTITUTION: A first trench(120) and a second trench(125) are formed within a semiconductor substrate(101). The first trench is formed within the semiconductor substrate with a first width(W1) and a first depth(D1). The second trench is formed within the semiconductor substrate with a first width(W2) and a first depth(D2). A first insulating material(130) is formed in order to completely fill the inside of the first trench. A second insulating material(140) is formed on the first insulating materials in the inside of the second trench.
Abstract:
An isolation structure, a forming method thereof, a semiconductor device having the same and a method for fabricating the semiconductor device are provided to easily bury trenches, while preventing deterioration of a tunnel oxide layer pattern and oxidization of a floating gate. Trenches are formed on a substrate(100), and an inner wall oxide layer(125) is formed on a sidewall and a bottom surface of the trench. A liner layer pattern(140b) having a first oxide layer pattern(130b) and a second oxide layer pattern(135b) is formed on the inner wall oxide layer. A barrier layer pattern(150b) is formed on the liner layer pattern, and an isolation layer pattern(160b) is formed on the barrier layer pattern to fill a portion of the trench. A compensation layer is formed on the liner layer pattern, the barrier layer pattern and the isolation layer pattern to fully fill the trench.
Abstract:
A gas supply nozzle for an atomic layer deposition process and a gas supply method using the same are provided to prevent a back flow effect of second reaction gas by supplying the first and second reaction gases through different gas nozzles. A first nozzle(306a) is used for a first flow process of a first reaction gas. The first nozzle has a two-stage structure. An upper part of the first nozzle is narrower than a lower part of the first nozzle. A second nozzle(306b) is used for a second flow process of a second reaction gas. The amount of the second reaction gas is larger than the amount of the first reaction gas. The second nozzle is used for surrounding the upper part of the first nozzle narrower than the lower part of the first nozzle.
Abstract:
PURPOSE: A method for forming a thin film and a method for forming a trench isolation layer using the same are provided to reduce a defect of a SOG layer having an improved burying characteristic by performing only a soft baking process. CONSTITUTION: An SOG layer(34a) is formed by coating an SOG solution having polysilazane on the surface of a substrate(30) having a stepped part(32). The SOG layer is used for burying a recess formed by the stepped part. A soft baking process for the SOG layer is performed. An etch-back process for the SOG layer is performed. An insulating layer(36) is laminated on the substrate after the etch-back process for the SOG layer is performed.
Abstract:
PURPOSE: A gap fill method for manufacturing a semiconductor device is provided to be capable of filling an insulating layer in a gap region without voids or grooves. CONSTITUTION: A pattern having a gap region is formed on a semiconductor substrate(50). A lower oxide layer(62) is formed on the entire surface of the resultant structure for filling the gap region. An etch-back process is carried out on the lower oxide layer. At this time, the lower oxide layer exists at the lower portion of the gap region. An upper oxide layer(64) is selectively deposited on the lower oxide layer. Preferably, the pattern is completed by forming a hard mask pattern on the semiconductor substrate for partially exposing the semiconductor substrate and forming a trench region(54) in the semiconductor substrate using the hard mask pattern as an etching mask. Preferably, the upper oxide layer is formed by using O3 and TEOS(Tetra Ethyl Ortho Silicate) as source gas at the pressure of 200-760 torr and at the temperature of 300-560 °C.
Abstract:
Disclosed are methods for forming a silicon oxide layer of a semiconductor device capable of insulating between fine conductive patterns without causing a process failure, and for forming a wiring having the silicon oxide layer. After forming conductive patterns on a semiconductor substrate, an anti-oxidation layer is sequentially formed on the conductive patterns and on the semiconductor substrate. The anti-oxidation layer prevents an oxidant from penetrating into the conductive patterns and the semiconductor substrate. A reflowable oxide layer is formed by coating a reflowable oxidizing material on the anti-oxidation layer while burying the conductive patterns. The silicon oxide layer is formed by thermally treating the reflowable oxide layer. Then, the silicon oxide layer filled between conductive patterns and the anti-oxidation layer exposed to the semiconductor substrate are etched so as to form a contact hole, thereby forming the wiring of the semiconductor device. Thus, a planar silicon oxide layer is formed between conductive patterns having a fine interval therebetween without creating a void. In addition, a metal layer pattern, which acts as a conductor in the conductive patterns, can be prevented from being oxidized when the silicon oxide layer is formed.
Abstract:
PURPOSE: A method for forming a silicon oxide layer of a semiconductor device and a method for forming a wire having a silicon oxide layer are provided to insulate patterns without forming a void between the patterns arrayed according to a fine interval. CONSTITUTION: A plurality of conductive patterns(32) are formed on a semiconductor substrate(30). The conductive patterns(32) are formed with a metal layer pattern(32a) and a nitride layer pattern(32b). The metal layer pattern(32a) is used as a conductor. A protective oxide layer is formed on the conductive patterns(32) and the semiconductor substrate(30). A floating oxide layer is formed by coating a floating oxide on the conductive patterns(32) having the protective oxide layer. A silicon oxide layer(40) is formed by performing a thermal process for the floating oxide layer.