30results about How to "No sticking problems" patented technology

The invention relates to a small kitchen electrical appliance and especially relates to a soybean milk machine. The machine comprises a machine head and a cup body, wherein the machine head comprises a machine head upper cover and a metal lower cover. The machine is characterized in that an anti-overflowing electrode rod is not disposed on the machine head; a water level identification line is disposed on the cup body; a first coating area coated by an insulated non-sticky coating and a first hollow area which is not coated by the insulated non-sticky layer are disposed on the outer wall of the metal lower cover; the first hollow area is located above the water level identification line; an anti-overflowing detection pole is formed by the first hollow area; an electric conduction pole is disposed on the cup body; the electric conduction pole is located under the water level identification line; and when soybean milk ascends, the electric conduction pole can communicate with the anti-overflowing detection pole, so anti-overflowing signals can be detected. Through application of the technical scheme, no anti-overflowing electrode rod is disposed on the soybean milk machine head, so the whole machine can be cleaned more easily; the anti-overflowing signals can be detected reliably and stably by the soybean milk machine; and plus, in comparison with the prior art, soybean milk adhesion does not take place to the soybean milk machine provided by the invention.

The invention relates to a double-layer bletilla striata dressing, which belongs to the technical field of biomedicine. The double-layer bletilla striata dressing of the present invention is made up of surface layer and dressing layer, and surface layer is made of insoluble or water-insoluble hemostatic material, and dressing layer is made of Bletilla striata porous material with good biocompatibility, easily soluble in water, between surface layer and dressing layer The structural design of the interpenetrating network connection adopts the physical mosaic of the integral molding method, and the lower dressing layer is obtained by the freeze-drying method. The design structure of the present invention is reasonable, the combination is firm, and it is easy to realize. The problem of large waste, the porous structure of the soluble dressing layer ensures that the dressing quickly dissolves to form a protective film to achieve hemostatic effect and create an optimal environment for wound healing. The whole dressing is composed of degradable absorbing material, which is suitable for application in the field of functional dressing and tissue engineering.

The invention relates to a porous material syringe needle-free static spinning apparatus characterized in that a spinning buffering cylinder of a spinning system is cylindrical; the upper and lower ends of the spinning buffering cylinder are conical; a liquid outlet is formed in the lower end of the spinning buffering cylinder; the diameter of the hole is 3 to 20mm; a porous medium sleeve is arranged on the lower end of the spinning buffering cylinder; the spinning buffering cylinder is connected with a power device via a copper core clamp; an outward extraction electrode of a copper core of the copper core clamp is connected with a power supplying system; an aperture formed in the top end of the spinning buffering cylinder is connected with a liquid discharging end of a liquid supplying device via a liquid supplying pipeline; a liquid charging end of the liquid supplying device is connected with a liquid storage case; and a receiving plate faces right under the liquid outlet formed in the lower end of the spinning buffering cylinder. Special spinning assemblies are employed, so spinning quality can be greatly improved and spinning evenness can be guaranteed; and the porous material syringe needle-free static spinning apparatus is characterized by simple technology, easy industrial application and wide application range.

The invention discloses a chained ingot receiving mechanism used for a continuous casting production line of an aluminum ingot. A duplex chain wheel (2) is fixed on an output shaft (3) of a speed reducer (1); a duplex chain wheel (6) and driving chain wheels (8, 31) are fixed on a shaft (5) through keys; a bearing is installed between the shaft (5) and a rack (49); a driven chain wheel (21) is arranged on the shaft (18); the shaft (18) is fixed on a sliding block (20); a sliding rail is installed between the sliding block (20) and the rack (49); one end of an adjusting screw rod (19) is fixedly connected to the sliding block (20) while the other end thereof is connected to the rack (49) through nuts; the driven chain wheel (35) is installed on a shaft (36); the shaft (36) is fixed on a sliding block (37); the sliding block (37) is embedded into the rack (49); a sliding rail is installed between the sliding block (37) and the rack (49); one end of an adjusting screw rod (38) is fixedly connected to the sliding block (37) while the other end thereof is connected to the rack (49) through nuts; a chain (9), the driving chain wheel (8) and the driven chain wheel (21) form chain transmission; a chain (33), the driving chain wheel (31) and the driven chain wheel (35) form chain transmission; synchronous transmission is realized through the shaft (5); the rack (49), connecting rods (13, 32, 23) and an ingot receiving pawl (15) compose a double-rocker mechanism; and a cylinder (27) is connected to the rack (49) of the ingot receiving mechanism through a supporting seat (26).

Tissue products are disclosed containing an additive composition. The additive composition, for instance, comprises an aqueous dispersion containing an alpha-olefin polymer, an ethylene-carboxylic acid copolymer, or mixtures thereof. The alpha-olefin polymer may comprise an interpolymer of ethylene and octene, while the ethylene-carboxylic acid copolymer may comprise ethylene-acrylic acid copolymer. The additive composition may also contain a dispersing agent, such as a fatty acid. The additive composition may be incorporated into the tissue web as the web is being formed. Alternatively, the additive composition may be topically applied to the web in a post processing operation. For instance, in one embodiment, the additive composition may be applied to the web as a creping adhesive duringa creping operation.

The invention relates to an ingot receiving device for a non-ferrous metal continuous casting machine. A stand 6 is provided with a motor 17; a power output shaft of the motor 17 is connected with a drive sprocket 16; the drive sprocket 16 is connected with a double-sprocket 12 of a conveying chain component 20 through a chain 15; the double-sprocket 12 is arranged on the stand 6 through a first hinge seat 13; a cylinder 19 is arranged on the stand 6 through a second hinge seat 18; the end part of a piston rod of the cylinder 19 is connected with the conveying chain component 20; one end of the conveying chain component 20 and a casting film component of the casting machine are arranged correspondingly; and the other end of the conveying chain component 20 is arranged and a conveying chain 11 of a cooling conveyer 14 are arranged correspondingly. The ingot receiving device uses the cylinder as a power source, realizes automatic ingot receiving, fully controls the pace of the ingot receiving, avoids the ingot clamping and effectively improves the safety and reliability of the ingot receiving. The ingot receiving device is ultimately favorable for realizing automatization of the casting machine set and improving the production efficiency of the continuous casting machine set.

The invention discloses a capacitive pressure sensor with high linearity. The pressure sensor comprises a silicon substrate layer, a silicon dioxide layer and a polysilicon layer arranged sequentially from bottom to top; the silicon substrate layer is provided with a first cavity and four a lower electrode; a polysilicon support layer and a second cavity are provided in the silicon dioxide layer, and the second cavity communicates with the first cavity; the polysilicon layer includes a movable sensitive film layer, four upper electrodes, and a polysilicon anchor region, each One end of each upper electrode is connected to one end of the movable sensitive film layer through a connecting rod, the other end of each upper electrode is connected to the polysilicon anchor area through an elastic member, the lower electrode is located below the connecting rod, and the upper electrode is close to the movable sensitive film layer. The end face of the thin film layer and the end face of the lower electrode away from the first cavity are in the same plane. The pressure sensor converts the longitudinal displacement change into the transverse area change, has high linearity, and at the same time, the upper and lower plates of the pressure sensor are non-contact, which improves the reliability of the device.

The invention provides a slitting method of a two-sided crylic acid coating film. The slitting method comprises the following steps of: correctly loading a two-sided crylic acid coating film to be slit on an unreeling shaft and then inflating air and well fixing, stringing the film to a reeling shaft by a guide roll, and setting specific unreeling tension, reeling tension, weight of a pressure roll at the reeling part and drawing-up speed according to the roll film width of the double-sided crylic acid coating film; and starting up, pressing an acceleration button to reach a set drawing-up speed, beginning to reduce speed till the film on the unreeling shaft to run by about 100m remaining, pressing a stop button after the film runs out, and labeling the roll film. The end surface of the roll film of the slit coating film is flat and even (the width difference is + / -0.2mm), and no adhesion problem is caused after the two-sided crylic acid coating film is placed for 6 months.

The invention discloses a glass vessel coated with a non-stick coating, which comprises a glass substrate, the glass substrate has an inner surface, the inner surface is coated with a non-stick coating, and the gap between the non-stick coating and the inner surface of the glass substrate is The transition is connected by an adhesive layer, wherein the non-stick coating includes a bottom layer and a surface layer; preferably, the glass substrate is made of high borosilicate glass. The invention also discloses a preparation process of the glassware coated with the non-stick coating, which includes pretreatment of the inner surface of the glassware, spraying of the adhesive layer, spraying of the bottom layer, spraying of the surface layer, and sintering to finally obtain the product. The glassware of the present invention avoids the sandblasting treatment on the glass surface but adopts the method of spraying a layer of bonding layer, the overall effect is improved, the non-stick coating has good bonding force with the substrate, and the surface of the vessel is non-stick, easy to clean, corrosion-resistant, High temperature resistance, long service life.