40results about How to "Completely shielded" patented technology

A tubular radiation absorbing device (1) designed for a solar heating application is described. The tubular radiation absorbing device has a metal central tube (3) and a glass tubular jacket (2) surrounding the central tube (3). A folding bellows (11) is connected between the central tube (3) and the tubular jacket (2), so that the tubular jacket and the central tube are movable relative to each other. A connecting element (20) connects an inner end of the folding bellows (11) with the central tube (3) and extends from the inner end of the folding bellows (11) through an inner annular space (30) between the folding bellows (11) and the central tube (3). The connecting element includes at least a part of a hydrogen window (50). A getter (6) is arranged in an outer annular space (33) between the folding bellows (11) and the tubular jacket (2).

The outer conductor is comprised of a first outer conductor (3) and a second outer conductor (4). The first outer conductor (3) and the second outer conductor (4) are connected to each other by attaching them to an insulating housing (1) and contacting the contact section (48) of the second outer conductor (4) to the first outer conductor (1). The backsides of the switching terminal (20) and the connecting terminal (21) are covered by a backside shielding section (43), and the lead section provided on the backside shielding section (43) is arranged between the lead section (20B) of the switching terminal (20) and the lead section (21B) of the connecting terminal (21).

A light-shielding plate and a first light-shielding layer are arranged between a polarizing plate and a liquid crystal layer in a peripheral region of a liquid crystal panel so that linearly polarized light transmitted through the polarizing plate, which is a reflection polarizing plate, is not incident on the liquid crystal layer, but is reflected to the polarizing plate in the peripheral region.

A dental implant system with a ceramic implant and with an abutment, which moreover includes an insert element for the ceramic implant. The insert element is either manufactured from non-ceramic material or is manufactured essentially of injection molded ceramic. The insert element matches with a recess a proximal region of the ceramic implant and is inserted or insertable into the recess. The insert element serves for the fastening of the abutment and for this is equipped with fastening structures. The insert element, which is arranged in the recess of the ceramic implant, is connectable or connected to the ceramic implant by way of a frictional connection and/or positive connection with respect to axial traction.

In order to produce a planar antenna array in a radar sensor with a multitude of microstrip feeder lines and a multitude of coupling slots for emitting microwave energy into open space, which achieves a favorable antenna efficiency when embodied in a planar design using LTCC technology, the invention proposes embodying the feeder lines and the coupling slots in a multilayer ceramic substrate produced by means of the LTCC thick layer technique with an upper and a lower grounded layer, as well as enclosing the feeder lines and the coupling slots with plated-through contacts from the upper grounded layer to the lower one.

A pipe source of UV flux has an inner pipe made of UV transmissive material and coated on its outer surface with a UV emitting phosphor. An outer pipe has a cathode array disposed on or near its inner surface, such as an array of thermionic filament cathodes mounted longitudinally or transverse to the length of the pipe, cold cathode arrays formed on the inner surface of the pipe or cold cathode arrays formed on separate substrates which are then attached to the inner surface of the outer pipe. The ends of this two-pipe assembly are hermetically sealed with flanges or end plates at either end of the pipe and evacuated to a pressure below 1×10⁻³ Torr. Internal spacing rings may be used to provide additional separation between the inner and out pipes. Current from the cathode arrays is accelerated by an anode voltage to strike the UV phosphors when then emit UV light flux which illuminates the inside of the pipe and the fluid material flowing through the inner pipe.

An actively shielded superconducting magnet coil system (1) for generating a magnetic field in a working volume (6), which is rotationally symmetric about a z-axis, comprising a radially inner main field winding (5) and a radially outer shielding winding (7), and an electrically highly conductive shielding cylinder (radially inner shielding cylinder) (8a/8b) which is disposed radially inside the main field winding (5) or between main field winding (5) and the shielding winding (7) is characterized in that at least one further electrically highly conductive shielding cylinder (9) is disposed radially outside the shielding winding (7). The inventive magnet coil system prevents generation of a fringe field flash in the outer region of the magnet coil system in case of a quench.

The invention relates to a technique for purifying heavy oil-contaminated soil by an acoustochemical method, which comprises: preparing slurry by mixing an oil sample and deionized water, regulating the pH value of the slurry to 8 to 10, cleaning the slurry for 3 to 20 minutes by using ultrasonic waves at a treatment temperature of 15 to 25 DEG C, wherein an ultrasonic frequency is set to be 48 to 70kHz. When treated by the technique provided by the invention, the primary purification efficiency at normal temperature of the heavy oil-contaminated soil is increased and stabilized above 92 percent; and a requirement on a national allowed standard critical value of 500mg/kg is met. After Na2CO3 is added, the calcium and magnesium cations in soluble salts can be precipitated and separated by carbonates, and the created alkaline environment can completely shield interaction between solids brought by bivalent cations, particularly magnesium ions, and polar oil. A built acoustochemical operation parameter system can be quickly, simply and effectively used for heavy oil contamination remediation for purifying fine-grained salinized soil. After the heavy oil component of cleaning solution is subjected to simple standing and skimming treatment, the repeated utilization of the alkaline cleaning solution can be taken into consideration.

A reflective liquid crystal device is provided in which external light incident on a liquid crystal layer through a polarizing plate is reflected from a reflecting layer and then exits to the outside through the liquid crystal layer and the polarizing plate to display an image. A forward scattering type polarizing plate having a transmission axis and a diffusion axis is arranged between the polarizing plate and the liquid crystal layer such that the transmission axis of the forward scattering type polarizing plate is perpendicular to the transmission axis of the polarizing plate.

The invention relates to a device (10) for holding a pressure cylinder, the device (10) having a frame element (12), a cylinder space (14) for receiving a pressure cylinder and at least one band element (16) for securing a pressure cylinder in the cylinder space (14), the band element (16) being connected to the frame element (12), wherein at least one damping element (20) is connected to the band element (16), the damping element (20) being arranged between the cylinder space (14) and the frame element (12). In this way, the invention provides an improved device (10) for holding pressure cylinders, the device (10) preventing oscillations from being transmitted into the cylinder space (14).

This invention relates to a mobile phone cover fabric having an electromagnetic shielding function and a method of manufacturing the same, and, more particularly, to a mobile phone cover fabric having an electromagnetic shielding function and a method of manufacturing the same, the method including applying a first polycarbonate resin composition on a release paper and drying it; applying a second polycarbonate resin composition on the first polycarbonate resin composition and drying it; applying a binder on the second polycarbonate resin composition and bonding-laminating an electromagnetic shielding fabric on the binder; drying the bonding-laminated electromagnetic shielding fabric and rolling it on a winder; and aging the rolled electromagnetic shielding fabric at 60˜80° C. in an aging room.