135results about How to "Accurate orientation" patented technology

A humerus implant has a stem, cup shaped body and a locking adapter. The cup shaped body is locked to the stem by a key-slot mechanism. The cup shaped body has a center portion and a plurality of flexible first sidewall segments and second sidewall segments, with gaps between neighbored sidewall segments. The first sidewall segments have a plurality of locking fins while the second sidewall segments having a plurality of recesses and holes. The locking adapter has means for fixing the locking adapter to the cup shaped body and a locking ring for locking the sidewall segments into their final positions.

Techniques for imaging a search region to detect a dielectric target include placing multiple electrodes outside the search region. At least two electrodes are activated independently of each other. Emitter circuits are connected to corresponding emitter electrodes. Each emitter circuit is configured for using its emitter electrode to produce an electric field with wavelength longer than about one hundred meters. Receiver circuits are connected to corresponding receiver electrodes. Each receiver circuit is configured for using its receiver electrode to measure a property of an electric field produced, at least in part, by an emitter electrode. A processor determines a property of a dielectric target inside the search region based on measurements from the receiver circuits using a subset of the emitter circuits. Among other uses, these techniques allow humans to be detected inside building-size regions, even when hidden by visually opaque blocking material of small dielectric constant.

The invention discloses a coal mining two-dimensional physical simulation experimental device using a solid filling method and an experimental method, relating to the technical field of test or analysis of materials by measuring the chemical or physical properties of the materials. The experimental device comprises a two-dimensional physical simulation experimental table and multiple solid filling similar material molds, wherein rock physical models are stacked on the two-dimensional physical simulation experimental table; a simulation bracket is arranged in a coal mining layer of the rock physical models; the solid filling similar material molds are arranged in a goaf of the coal mining layer; pressure sensors are arranged on the simulation bracket and the solid filling similar material molds; and displacement monitoring points are formed in the rock physical models on the upper and lower sides of the goaf. The method is easy to operate and convenient to measure, and the compaction degree of the solid filling similar materials can be accurately set in advance.

A golf swing path training device for visually guiding a golfer through a proper swing path and properly align the golfer's stance includes an arm path member and a body path member. The arm path member and the body path member are preferably integrally formed such that a central portion of the arm path member is connected to a central portion of the body path member. The central portion of the arm path member is substantially straight, whereas the central portion of the body path member is substantially arcuate. During a swing, the arm path member visually directs the golfer to maintain a substantially straight or vertical arm path during the back swing. Conversely, the body path member, visually directs the golfer to maneuver his or her body in a rotating fashion throughout the golf swing.

A humerus implant includes a cup shaped body and a locking adapter. The cup shaped body has a center portion and a plurality of flexible first sidewall segments and second sidewall segments, with gaps between neighbored sidewall segments. The first sidewall segments have a plurality of locking fins while the second sidewall segments having a plurality of recesses and holes. The locking adapter has means for fixing the locking adapter to the cup shaped body and a locking ring for locking the sidewall segments into their final positions.

An article for temporarily retaining an optical fiber cable including a stripped terminal portion of at least one optical fiber requiring cleaving followed by polishing of an end face thereof. The article comprises a housing having a recess for a demountable optical fiber holder. A demountable optical fiber holder includes a base-plate having at least a first fiber channel to receive at least one optical fiber. The base plate has a number of pockets. A cover plate for the demountable optical fiber holder includes a spring clamp, at least a first upper channel and a number of posts to mate with the pockets of the base-plate to assemble the holder. The article further includes a guide plate attached to the housing to pivot between a first pivot position and a second pivot position. A rotatable lid attached to the housing rotates between an open position and a closed position. The article temporarily retains the optical fiber cable for cleaving and polishing the end face thereof when the lid is closed.

The invention discloses a method for carrying out panoramic positioning and orientation by utilizing a mobile phone device sensor. The method comprises the following steps: collecting a rotation angles, on three axles of an equipment coordinate system, of a mobile phone body relative to an own initial position through a gyroscope built in a mobile phone, and acquiring data through a direction sensor built in the mobile phone so as to obtain direction data, in a word coordinate system, of the mobile phone body, and weighting and fusing the rotation angles and the direction data to carry out correction; generating corresponding textures according to the corrected visual direction data, rendering and displaying the corresponding textures to the inner surface of a VR ball model, putting a camera model at the center of the ball mode, taking the camera model as a human eyeball, taking the inner surface of the VR ball model as a display screen, and synchronously changing the camera orientation according to correction direction of mobile equipment. According to the method disclosed in the invention, the problem of mobile phone gyroscope drifting is solved, the problem of upside-down rotation of virtual VR world is solved, furthermore, the orientation of equipment can be smoothly and accurately positioned, and an immersion type impression effect of panoramic videos can be obtained.

The invention provides a raster Moire striped fine dividing method and apparatus, and belongs to the field of raster displacement measuring. A conventional raster sensor has the advantages of large measuring range, high environment adaptation capability, low cost and the like, and is widely applied to the industries of precision displacement measuring, digital display and numerical control, large-stroke precision positioning, precision processing, microelectronics and the like. At present, higher requirements for a wide-range nanometer level and the like of raster displacement measuring is brought forward in the various industries. When a raster sensor operates, output waveform of the raster sensor is quite complicated. The raster sensor does not necessarily move uniformly during a measuring process, and especially in a starting, stopping and inverting process, signals are random. According to the randomness of the raster signals, a wavelet fine dividing method is brought forward, high-speed high-precision synchronization data acquisition is performed on four paths of More striped signals outputted by a raster, after equal-magnitude amplification and nonopiate correction pretreatment is performed on the raster signals, wavelet phase modulation and phase extraction treatment is carried out, and finally the signals are converted to displacement.

The invention discloses a sun tracking and positioning device and method based on a sundial. The sun tracking and positioning device mainly comprises a digital signal processing device, a data acquiring device, a sundial and the like which are sequentially connected, wherein the sundial generates a corresponding shadow on a shadow surface of the sundial according to the change of a sun illumination position; the data acquiring device is used for converting shadow information on the shadow surface into digital electric signals; the digital signal processing device is used for processing the input signals and reducing the shadow information on the shadow surface of the sundial; and a sun level azimuth angle and a sun height azimuth angle are calculated to obtain the sun position. The sun tracking and positioning device is used for acquiring sun azimuth information in real time and obtaining the sun accurate azimuth, has the advantages of stability and reliability as well as strong antijamming capability, and is suitable for most of solar energy utilizing devices.

The invention discloses an automatic QR (quick response) code positioning and orientating method. The method includes: converting an input image into a grayscale image; binarizing the grayscale image by the self-adaptive threshold algorithm to eliminate noise interference; extracting an grayscale image edge according to an Sobel operator; extracting a profile sequence from the edge by the chain code tracing algorithm; filtering a rectangular profile, filtering a view-finding image from the rectangular profile sequency, and judging whether the image has a QR code or not; and correcting and dividing the QR code. By the automatic QR code positioning and orientating method, QR code positioning and orientating can be realized quickly and accurately in a robustness manner, and QR codes can be extracted from images without manual operations, so that manpower cost and time are saved greatly. The automatic QR code positioning and orientating method is applicable to industrial informationization and automation and has wide application prospect.

The invention relates to a preparation method of a 3D printed carbon fiber reinforced aluminum matrix composite. The preparation method aims at solving the problems that in a traditional technology, carbon fiber is not uniformly dispersed in an aluminum matrix and are agglomerated; and in addition, the performance of the composite is greatly improved by controlling the arrangement mode of the carbon fiber in the aluminum matrix. The preparation method comprises the following steps that firstly, the arrangement mode of the carbon fiber is designed; secondly, printing paste is prepared; thirdly,a 3D printed carbon fiber/aluminum composite billet is obtained; and fourthly, the billet is subjected to sintering forming. According to the preparation method of the 3D printed carbon fiber reinforced aluminum matrix composite, the carbon fiber is subjected to shearing inducing through a 3D printing technology, precise and exquisite directed arrangement of the carbon fiber in aluminum is achieved, and compared with a confusion state in a traditional preparation technology, the performance of the material can be improved greatly; a unique two-stage sintering technology can also help the performance to be improved; and air pores in the material are decreased, the material is made to become more compact, and the carbon fiber/aluminum matrix composite is made to have the more excellent performance.

The invention discloses a parking space detecting method and a parking space detecting system. The parking space detecting method comprises the following steps of acquiring a parking space length L3 which is detected by an ultrasonic module; acquiring a distance d which is detected by the ultrasonic module and is between a vehicle and the parking space; and acquiring an actual parking space lengthL according to a mapping relation among a parking space length L3, the distance d and the actual parking space length L; wherein the mapping relation along the parking space length L3, and the distance d and the actual parking space length L is acquired through an image acquiring mode. According to the parking space detecting method and the parking space detecting system, through adding the mapping relation between the actual parking space length and the detected parking space length based on ultrasonic wave detection, correction of the detected parking space length can be realized, thereby accurately determining a specific position of an obstacle and the particle spatial size of the parking space. Compared with a technical solution in prior art, the parking space detecting method and theparking space detecting system have an advantage of greatly improving parking space detecting accuracy.

The embodiment of the invention discloses an interactive processing method and device for vehicle damage image shooting, equipment and a client. By utilizing provided embodiments, the user opens the terminal loss assessment application; the shooting window combined with AR is started to view the vehicle, shooting guidance and feedback are carried out on the user according to the actual vehicle position, angle and other information, the user can complete damage identification without other complex operations such as shooting and video recording and the like by shooting according to the shooting guidance information, and then damage assessment and claim settlement are rapidly achieved. In the scheme provided by the embodiment of the invention, the user does not need professional loss assessment image shooting skills and complex shooting operation steps, the loss assessment processing cost is lower, and the service experience of the loss assessment service of the user can be further improved by combining with the guided shooting of AR.

The present invention relates to a fingerprint chip electrical performance testing device. The fingerprint chip electrical performance testing device includes a testing system, a feeding system, and amaterial collection system; the feeding system includes a tray separating and conveying device, a plurality of tray positioning devices, a fingerprint chip number identification device, and a material collection system, wherein the tray separating and conveying device is provided with two tray delivering conveyor belts, the plurality of tray positioning devices are arranged between the two tray delivering conveyor belts, the fingerprint chip number identification device is provided with a machine vision system located above the first tray positioning device, the material collection system isprovided with an adsorption mechanism located above the last tray positioning device; and the test system includes two test devices and material taking devices, wherein the two test devices are arranged symmetrically outside one side of the tray separating and conveying device, and the material taking devices are located at the test devices and adsorption devices located above the other tray positioning devices. The fingerprint chip electrical performance testing device can automatically feed, transfer and convey fingerprint chips and has high test efficiency.

A spherical stable tracking platform comprises a base assembly, an outer ball assembly, an inner ball assembly, a spring support and a spring support driving assembly. The base assembly is provided with a plurality of first driving balls; the outer ball assembly is supported on the base assembly and can rotate around a vertical shaft; the inner ball assembly is arranged in the outer ball assembly, can do pitching motion relative to the outer ball assembly, is supported on the first driving balls of the base assembly, and can be driven to rotate when the first driving balls rotate; the spring support is arranged in the inner ball assembly; the spring support driving assembly is fixed on the spring support, and comprises a plurality of second driving balls exposed out of the surface of the spring support, the second driving balls are in contact with the inner surface of the inner ball assembly, and the spring support can be driven to rotate in different modes when the second driving balls rotate in different combination ways; guiding shafts are arranged on the top and the bottom of the inner ball assembly and are respectively inserted into two guiding grooves formed in the top and the bottom of the spring support, so that a guiding effect is realized for the rotating of the spring support.

The invention belongs to the technical field of foundation construction, and particularly relates to an intelligent positioning guiding device and method for pile foundation construction, and an engineering management method. The intelligent positioning guiding device for pile foundation construction comprises an outer-layer pile casing, an inner-layer pile casing, a position adjustment mechanismand a positioning mechanism; and position data information of the inner-layer pile casing is obtained through the positioning mechanism, and the adjustment action of the position adjustment mechanismis controlled through the position data information. Accurate positioning of pile foundation guiding and positioning in holes of a reinforcement cage are achieved, the drilling precision of cast-in-place pile construction and reinforcement cage hoisting and lowering vertical precision are improved, potential safety hazards that during conventional cast-in-place pile construction, a formation soilbody is uneven in hardness, thus a drilled hole is deflected, a pile body is not vertical, the lowering position of the reinforcement cage is not accurate, consequently the pile body is deflected, andstress is uneven are avoided, the construction quality is guaranteed, and the management efficiency is improved.

An apparatus and method for performing well intervention work with coiled tubing and jointed tubulars from a platform. The apparatus includes a modular support frame with a top deck, wherein the deck has a passage therein, and a tower mounted on the top deck. The apparatus further comprises a movable plate positioned within the passage, with the movable plate having a first aperture and a second aperture therein, and a track formed within the passage, and wherein the movable plate is slidingly attached to the track. The apparatus may further comprise a support rotary table disposed within the modular support frame, wherein the support rotary table suspends the jointed tubulars. The apparatus may further comprise a coiled tubing injector head interface plate operatively attached to the movable plate, and wherein the coiled tubing injector head plate is positioned over the first aperture of the movable plate. The first aperture is positioned over the well in a first position. A rotary table is positioned over the well in a second position.

The invention discloses a flip screen printing device of a battery packaging line. The flip screen printing device comprises a frame, a conveying roller set, a conveying device connected with a conveying section, a flipping mechanism, a clamping mechanism and a screen printing device body. The flipping mechanism is rotatably mounted on the frame and flips edge-on batteries by 90 degrees to convey the same to the conveying section of the conveying roller set. The clamping mechanism is mounted on the frame and can clamp the battery stopped on screen printing station from two sides. The screen printing device body is mounted on the frame and comprises an upright fixedly arranged on the frame, a vertical sliding seat, a horizontal sliding seat, a mounting seat, a first scraper component and a second scraper component, and the first scraper component and the second scraper component are respectively connected with a first scraper driving device and a second scraper driving device and are opposite in horizontal operation direction. By the arrangement, the batteries can be rapidly and accurately flipped, screen printing can be rapidly performed on the surfaces of the batteries, so that screen printing efficiency of the batteries can be greatly improved.

An azimuth calculation program is a computer-executable program that performs an azimuth calculation using output of a magnetic sensor. The azimuth calculation program includes a first step of generating one triangle in three-dimensional space using three output values of a magnetic sensor unit, a second step of determining a circumcircle of the triangle, and a third step of performing an azimuth calculation using center coordinates of the circumcircle and output values of the magnetic sensor.