62results about How to "Difficult to escape" patented technology

A resistance heating element 33 for heating a wafer W is embedded within a ceramic heater 22 that forms a susceptor for a semiconductor wafer W to be processed, and power lines 35 from the resistance heating element 33 extend out of the processing chamber 20. A sheathing bellows 38 that houses the power lines 35 in an insulated state is interposed between the ceramic heater 22 and a base plate 24 of the processing chamber 20, and an end piece 39 of the sheathing bellows 38 is connected by screws 40 to the ceramic heater 22 to provide a space 50 therebetween. The screws 40 are such as to permit the thermal expansion of the sheathing bellows 38. This configuration makes it possible to make the temperature distribution in the surface of the semiconductor wafer uniform and thus improve the uniformity of film formation, and also prevent corrosion of components such as the power lines and terminals, and suppress the generation of particles.

A MEMS device includes a substrate, an insulating layer section formed above the substrate and having a cavity, a functional element contained in the cavity, and a fuse element contained in the cavity and electrically connected with the functional element. It is preferable that the fuse element is spaced apart from the substrate.

Image forming apparatus includes first cleaning blade for photosensitive drum, wherein the first blade includes first regions and second region with respect to widthwise direction, the first regions being at opposite ends of the first blade, respectively and having first hardness, and the second region being between the first regions and having hardness which is lower than the first hardness; and second cleaning blade for the intermediary transfer member, wherein the second blade includes third regions and fourth region with respect to the widthwise direction, the third regions being at opposite ends of the second blade, respectively and having a second hardness which is the same as or different from the first hardness, and the fourth region being between the third regions and having hardness lower than the second hardness, and wherein the second region is within the fourth region with respect to the widthwise direction.

Disclosed is an air bag device wherein fastening sections between an engagement member and a lower surface member are prevented from being disconnected during deployment of an air bag. Said air bag device is provided with an air bag case (12) wherein is installed an inflator (5) that supplies gas to the air bag (1) housed in the air bag case (12); and an article, such as a fabric housing (11), which holds the air bag (1) when the same is housed in the air bag case (12). The fabric housing (11) is formed into a bottomed box the ceiling of which is open. The air bag case (12) is provided with an opening (12aa) for inserting the fabric housing (11). In this opening (12aa), the air bag case (12) comprises the engagement member (12a) provided with hooks (12ab) for engagement with an instrument panel; and the lower surface member (12b) which is fastened to this engagement member (12a). The engagement member (12a) and the lower surface member (12b) are disposed in an overlapping manner in such a way that the engagement member (12a) is positioned inside the lower surface member (12b) at the locations of the fastening sections (12c) for fastening the two members (12a, 12b). Due to the above, the fastening sections are not susceptible to disconnection during deployment of the air bag.

To decrease dimensions in the axial direction by dispensing with a stopper while making the control of a value of spring constant easy in the axial direction of a sub-frame mount and in the direction meeting at right angles therewith, an inner cylinder 3 is arranged inside of an outer cylinder which is formed in a substantially cylindrical shape by having a pair of half bodies arranged in an opposed relationship, and a vibration isolating rubber is adapted to connect between the outer cylinder and the inner cylinder. Slits are formed on side walls of the vibration isolating rubber along slits dividing the outer cylinder. Projecting portions are provided on the inner peripheral wall of the outer cylinder to project toward the inner cylinder. The outer cylinder and tips are formed concentrically and a radius of curvature R1 of the inner peripheral wall of the outer cylinder is smaller than a radius of curvature R3 of the opposed outer peripheral wall of the inner cylinder. When the slits are narrowed to reduce the diameter of the outer cylinder at the time of mounting the sub-frame mount I on a sub-frame, the vibration isolating rubber is sent from the side of the slits into intermediate portions so as to form an enclosed portion of large filling amount.

A simulated fishing lure replicates the physical characteristics and swimming motion of a live North American mudpuppy, while preventing a captured fish from escaping by biting through the lure. The lure comprises of a lure body (a head, midsection and tail) and a motion-creating bill. The motion-creating bill and the lure body's tail work together to create the life-like side-to-side swimming motion of the lure. The longitudinal inner cavity within the midsection of the lure body contains an anchoring device to ensure that the fishing line and hook remain secured to the fish, even when the lure is bitten in half.

A MEMS device includes a substrate, an insulating layer section formed above the substrate and having a cavity, a functional element contained in the cavity, and a fuse element contained in the cavity and electrically connected with the functional element. It is preferable that the fuse element is spaced apart from the substrate.

A multicore fiber communicates using light up to an xth-order LP mode (where x is an integer of 1 or more) in a communication band. The multicore fiber includes: a plurality of cores; a clad that surrounds the plurality of cores and has a refractive index lower than refractive indexes of the plurality of cores; and a cover layer that covers the clad and has a refractive index higher than the refractive index of the clad. Each of the plurality of cores propagates light up to an (x+1)th-order LP mode. A core pitch is set to a distance where crosstalk of the light up to the xth-order LP mode becomes less than or equal to −40 dB / km and crosstalk of light of the (x+1)th-order LP mode becomes greater than or equal to −30 dB / km.

An adhesive for the nano-class casting sand is prepared from phenol, aldehyde, clay, alkali catalyst and silane coupling agent through stirirng phenol while heating to 55 + / -2 deg.C, adding activated solid acetate of alkali metal, condensation reaction, adding alkali catalyst, polycondensation reaction, and intercalating the clay for nano-class dispersing.

The invention discloses fluorescence-enhanced nano-probes and a preparation method thereof, and an optical microscope imaging method of rock micro-nano pores. Each nano-probe comprises a nano-particle, a silicon dioxide modified layer and fluorochrome; the silicon dioxide modified layer is attached to the surface of the nano-particle; the fluorochrome is bound to the surface of the silicon dioxidemodified layer. The optical microscope imaging method of rock micro-nano pores comprises the following steps: injecting the fluorescence-enhanced nano-probe into cracks and pores of the rock; and performing optical microscope imaging on the pores, filled with the fluorescence-enhanced nano-probes, of the rock. The fluorescence-enhanced nano-probes are injected into the rock, the fluorescence molecules are hard to escape and have obvious color difference from the rock matrix and the cement; the identification on the pores and the throat are extremely favorable under the optical microscope; andthe fluorescence-enhanced nano-probes can be used for a long time without considering the influence of the weakening of the fluorescence along the time, and the pore structure of the rock can be accurately and conveniently reflected for a long time.

The utility model discloses a traditional Chinese medicine nine-kernel skin nourishing cream and a preparation method thereof. According to a formula, the traditional Chinese medicine nine-kernel skin nourishing cream contains the following components in parts by weight: 3-10 parts of apricot kernel, 9-30 parts of adlay kernel, 9-15 parts of cannabis kernel, 4.5-9 parts of peach kernel, 9-15 parts of date kernel, 3-6 parts of fructus amomi, 1-5 parts of ricinus communis kernel, 15-30 parts of sesame kernel and 3-6 parts of olive kernel. The preparation method comprises extraction of a traditional Chinese medicine active ingredients, decoloration and preparation of cream and specifically comprises the following steps: carrying out supercritical extraction on the traditional Chinese medicines by carbon dioxide to obtain a traditional Chinese medicine extract for standby use, then extracting supercritically-extracted traditional Chinese medicine dregs by carbonic ester, and carrying out vacuum concentration on carbonic ester extraction solution to obtain carbonic ester extracted traditional Chinese medicine coarse cream; and at last, carrying out reflux and water extraction on the traditional Chinese medicine dregs, carrying out vacuum condensation on the water extracted traditional Chinese medicine to obtain water extracted traditional Chinese medicine coarse cream; dissolving the traditional Chinese medicine extract and the traditional Chinese medicine coarse cream in ethanol water solution with ethanol concentration being 45-80 percent, adding activated carbon for decoloration, carrying out filtering and condensation to obtain traditional Chinese medicine pure cream, mixing the traditional Chinese medicine extract and the traditional Chinese medicine pure cream with a cream agent, and then preparing the Chinese medicine nine-kernel skin nourishing cream by a traditional method.