59results about How to "Don't get burned" patented technology

The invention relates to a pot grip. The pot grip comprises a grip and a loop rack, wherein the grip is fixed on the loop rack; and the loop rack consists of two semicircular clamping blocks. The pot grip has the beneficial effects that: the pot grip can be sleeved on the edge of any pot as required; people can be prevented from being burnt when moving the hot pot; and the problem that the pot grip cannot be used because part of the pot grip is burnt can be solved.

The invention discloses a baking tray separation device for bread production. The baking tray separation device comprises a box body, first sliding grooves and a baking tray body, wherein the first sliding grooves are fixedly formed in the two sides of the interior of the box body; a rectangular opening is fixedly formed in one side of the inner wall of the box body; sliding strips are pre-arranged on the two sides of the baking tray body respectively; one side of each first sliding groove is in sliding connection with one side of the baking tray body; the baking tray body is divided into twolayers, namely a fixed baking tray and a movable baking tray; second sliding grooves are fixedly formed in the two sides of the front surface of the fixed baking tray; the middle parts of the second sliding grooves are in sliding connection with the two sides of the movable baking tray through first sliding blocks; and positioning blocks are fixedly arranged on the two sides of the bottom end of the movable baking tray respectively. According to the baking tray separation device, the baking tray body is divided into the fixed baking tray and the movable baking tray, the positioning blocks on the two sides of the bottom end of the movable baking tray are connected with clamping grooves, the fixed baking tray is fixed inside the first sliding grooves, threaded rods are driven to rotate through the transmission of a motor, and the fixed baking tray and the movable baking tray are separated.

The invention provides an X-ray high-temperature high-pressure catalytic reaction furnace including a gas inlet passage, a furnace upper cover, a furnace cavity, a base and a gas outlet passage, the gas inlet passage is communicated with the furnace cavity through a communication hole, the inner side of the furnace cavity is provided with a shielding layer, a window and a beryllium window flange are arranged on the outer wall of the furnace cavity, and a protective layer is arranged between the window and the beryllium window flange, the protective layer includes an aluminized beryllium sheet layer on the outer side and a polymer film layer on the inner side, and the shielding layer includes a beryllium sheet arranged correspondently to the protective layer. The beryllium window flange, the aluminized beryllium sheet layer, the polymer film layer, a rubber ring, the furnace cavity and the furnace upper cover are connected by bolts to form a seal cavity, the polymer film layer is arranged on the inner side of the aluminized beryllium sheet, and can isolate a catalytic gas and the aluminized beryllium sheet, so that the polymer film layer can protect the aluminized beryllium sheet from contamination by the catalytic gas and a catalytic material, an aluminized beryllium sheet material has excellent performances, can withstand a reaction pressure of 1MPa, and low energy X-ray can smoothly pass through and irradiate onto the catalytic material.

The invention discloses an implanted bioelectrode based on photoetching and other micro-nano manufacturing technologies and a preparation method thereof. As for the bioelectrode, a metal core wire is coated with an insulating sleeve provided with a spiral metal lead, the spiral metal lead and the insulating sleeve are encapsulated in a polyurethane insulating layer, and an excitation point and a connection end metal ring are respectively connected with the spiral metal lead reserved at the two ends; and the surface of the excitation point is electroplated with inert metal oxides. The technology deposits a layer of metal membrane on the polyurethane insulating sleeve by sputtering or evaporation; the deposited metal membrane is manufactured into an initial spiral structure by the technologies of photoetching, micro contact stamping and etching; the final spiral metal lead is shaped by electro-deposited metal; the sleeve penetrated by the metal core wire is placed in an encapsulating die for encapsulation; a layer of iridium oxide is electroplated on the excitation point, thus enhancing cell adhesiveness and biocompatibility; and the bioelectrode is manufactured after finishing and conductivity test.