77results about How to "Adjust directly" patented technology

A slope adjustable head for an adjustable pedestal (10) for supporting beams, panel members, typically pavers, in accurate edge aligned relation, in a level plane is disclosed. The pedestal (10) includes a base block (12) and a series of inter-engaging threaded annular elements (20, 30) which can be rotated relative to each other to adjust the height of the top of the pedestal in a screw jack fashion. A slope compensator is located at the top of the pedestal and comprises a slope compensation plate (100) and a head member (50). The head member (50) defines a concave surface having a defined radius of curvature. The slope compensation plate (100) defines a corresponding convex surface having the same radius of curvature and sits on top of the head member. The pedestal (10) is calibrated to allow adjustment for typically zero to five percent in one percent increments. The top member defines a central aperture (56) and a series of holes (72) arranged in a spiral around the central aperture. The adjustment member defines a depending central cylindrical portion (110) which locates in the central aperture (56) and two diametrically opposed depending pegs (132, 134) spaced either side of the central cylindrical portion which locate in the holes of the top member. Rotation of the slope compensation plate (100) about its centre of curvature causes the angle of the adjustment plate relative to the vertical axis to change thus allowing for compensation for the slope of the surface on which the pedestal is standing.

A mini-camera with an adjustable structure mainly includes a camera body, a support and at least one limiting element disposed at a connection between the camera body and the support. The limiting element provides the camera body with enough friction for adjusting the viewing angle of a camera lens relative to the support. A user can step-less adjust the view angle of the camera lens of the camera body, the user doesn't need disassemble the camera body or the support, and further the user cannot damage the connection between the camera body and the support for maintaining the outside beauty of the mini-camera.

The present invention provides a technique for enabling even a person having no expert knowledge to adjust the direction of an optical axis easily with high precision. In a three-dimensional image processing apparatus having plural image capturing apparatuses, optical center of an image from an image capturing apparatus is stored for each of the image capturing apparatuses. A mark indicative of the optical center is superimposed on an image obtained from the image capturing apparatus. By referring to the mark for each of the image capturing apparatuses, the orientation of each of the image capturing apparatuses is adjusted so that all of the marks overlay on the same point on an object.

A positioning assembly for a bicycle lock has a positioning frame, a turning connector and a linking element. The positioning frame is detachably mounted on a bicycle and has a mounting segment and a controlling segment. The controlling segment is mounted on the mounting segment and has a base and two pressing devices. The base has two mounting recesses. The pressing devices are movably and respectively mounted in the mounting recesses of the base. The turning connector is pivotally and detachably connected to the positioning frame and has a pivotal segment and a linking segment. The pivotal segment has two engaging elements mounted in the mounting recesses of the base to engage the pressing devices. The linking segment is formed with the pivotal segment and has an inserting hole. The linking element is detachably connected to inserting hole of the turning connector.

A radar apparatus for a vehicle includes a casing, a correction member, and a selection indication. The casing includes a functional portion, which performs searching, and a reference surface. The correction member includes a plurality of correction surfaces. The selection indication indicates which one of the correction surfaces and the reference surface an attachment-direction adjustor is to be placed on during an attachment operation of the radar apparatus to the vehicle.

A laser centering device (30) that is attached to a survey apparatus by replacing it with a centering telescope optical system is formed of an inner barrel (32) that fixes a pentagonal prism (40) at one end thereof and is internally provided with a laser beam source (42), an intermediate barrel (34) that moves the inner barrel in the axial direction and fixes it so as to adjust the position thereof, and an outer barrel (36) that turns the intermediate barrel around the axis and fixes it so as to adjust the angle thereof, and at the same time, is fixed at the portion (38) for fixing the centering telescope optical system of the survey apparatus (1). The invention provides a laser centering device for which the emission direction of a laser beam is simply adjusted.

An evaporator cell, in particular for evaporating a high-melting material to be evaporated, comprises a crucible for receiving the material to be evaporated, and a heating device with a heating resistor for the resistance heating of the crucible, the heating resistor being provided as an electron emitter for the electron beam heating of the crucible. A process for the evaporation of a high-melting material to be evaporated is also described.

An external sound outputting device is provided. The external sound outputting device includes a connection connector and a speaker unit. The connection connector is inserted into a connection terminal of a portable terminal. The speaker unit outputs an electric signal delivered through the connection connector as an audio signal. The speaker unit rotates in multi-directions when the connection connector is connected to the portable terminal.

A control method is applied to a touch display system. The touch display system includes a display module, a touch module, and a programmable circuit. The programmable circuit is electrically connected between the touch module and the display module for executing the control method. The method includes: the touch module providing a first sense area; detecting whether the first sense area being touched or not; the display module displaying an boot image when the first sense area being touched; providing a second sense area after the boot image being displayed; detecting whether the second sense area being touched or not; and the display module displaying an on-screen display menu when the second sense area being touched, wherein the on-screen display menu includes a power item and a plurality of function items.

The invention discloses a normal measurement and adjustment method for drilling of the free-form surface of an aviation thin-wall piece. The method includes the following steps that a numerical control system of a machine tool reads the machine tool motion coordinates of a current drilling point location; the current position vector of a tool tip and the current direction vector of a tool shaft in a workpiece coordinate system are calculated through changes of the machine tool motion coordinates; the normal is obtained through multiplication cross of the tangent vector of the crosspoint of two space curves of the surface of the aviation thin-wall piece, namely the actual normal of the drilling point location of the workpiece is obtained; and the included angle between the current drilling direction and the actual normal of the current drilling point location of the aviation thin-wall piece is worked out, the posture of a tool or the aviation thin-wall piece needs to be adjusted when the value of the included angle is beyond the range required by the aviation manufacturing standard, and the normal drilling operation is conducted after adjustment is completed. Measurement station switchover is not needed, and the normal detection and the tool tip distance detection are completed through one-time measurement before drilling. The normal measurement and adjustment method has the advantages that the measurement accuracy is high, the application range is wide, and the measurement and adjustment efficiency is high.

An apparatus for adjusting parameters of a display card is provided. The apparatus comprises a connecting interface, an input unit, a processing unit, and a display unit. The connecting interface is used for connecting the apparatus to the display card. The input unit is used for inputting an input frequency. The processing unit is used for detecting an adjustable frequency range of a graphic processing unit (GPU) in the display card and adjusting a working frequency of the GPU within the adjustable frequency range according to the input frequency. The display unit is used for displaying the working frequency of the display card. Therefore, the adjustment of parameters of the display card becomes more convenient and information of the display card can be obtained more easily.

The present invention relates to a camera device, wherein the camera device comprising a base with a fillister; a body with a spherical unit and a neck; and a camera configured onto the body. The spherical unit fits the fillister to form a joint allowing a wide range of rotation in all direction. The base further comprises a first fixing unit and a second fixing unit. Therefore, the camera device is able to be easily mounted onto a targeted surface; and, the camera field of view is able to be rapidly optimized toward a specific direction.

A balloon catheter is provided, which includes a balloon guide tube, a balloon moving part, and a bending adjustment part for bending an end of the balloon guide tube, wherein the bending adjustment part includes first and second wires of which one ends are fixed to a ring part, respectively, and a steering handle to which the other ends of the first and second wires are fixed, the central portion of the steering handle is positioned on an extension line from a center line of the balloon guide tube, the other ends of the first and second wires are respectively inserted into wire guide holes of the steering handle formed at a same distance from the central portion of the steering handle, and a plane formed by the first and second wires is perpendicular to the central portion of the steering handle.

The invention discloses a method for manually adjusting the static hydraulic balance of a centralized heating pipe network based on impedance, which is divided into two processes: rough adjustment andfine adjustment. The coarse adjustment process can be carried out in a non-operational state of a heating system. Based on the results of the pipe network hydraulic calculation, the calculated impedance of a static regulating valve required for static balance is calculated, and the opening is adjusted to be corresponding to the impedance and locking is performed; and the fine adjustment is carried out in such a way that in any operation state of the heating system, results are tested according to users' flow, users needing to fine adjustment are screened according to users' imbalance rate, the impedance of the users is recalculated according to a set formula, and the regulating value is readjusted to a valve opening corresponding to the impedance. The method has no special requirements for operating conditions, and is simple and convenient in operation, and the adjustment process does not affect the normal operation of the pipe network.

A medical system automatically identifies a user based on matching a partial facial image of the user with a database of authorized users. The medical system automatically configures based on the user identification and received patient data. The medical system further automatically identifies a patient based on matching a facial image of the patient with an image of the patient to confirm the correct patient is in the operating room. The medical system still further provides for gaze detection and gesture control by a user such that the user in the sterile environment can directly control devices outside the sterile environment.

Disclosed are near-eye displaying methods and systems capable of multiple depths of field imaging. The method comprises two steps. At a first step, one or more pixels of a self-emissive display emit a light to a collimator such that the light passing through the collimator is collimated to form a collimated light. At a second step, the self-emissive display provides at least one collimated light direction altering unit on a path of the light from the collimator to change direction of the collimated light to enable the collimated light from at least two pixels to intersect and focus at a different location so as to vary a depth of field.

A training machine of load force simulation has a damping unit comprises a press cylinder which includes a cylinder, a movable piston rod, and a press source; a controller is coupled to the press source of the damping unit and a load cell for calculating and controlling the load value of the load cell, allowing the elevating and lowering of a pulley system thereof by adjusting the damping force via the piston rod. Also, the pulley system comprises a plurality of movable pulleys to equally bear the load force from the rope, saving the efforts for operating and retarding the retrieving force of the rope for safety. The present invention is therefore able to replace complex decelerating machines and massive weight blocks in apparatus suchlike with features of small volumes as less space needed, less noises, and no restrictions of setting areas due to no need of electricity. Furthermore, it comprises an operation interface for direct controlling of the load force, featuring more conveniences and no interruption when practicing the operation.