305 results about "Non coplanar" patented technology

In a touch panel and display panel structure or an integrated touch display panel structure, an antenna pattern is disposed on a touch module, a display module or an integrated touch display module for an increased distance between the antenna pattern and electronic components below the structure, reducing electromagnetic effect caused by the electronic components and improving the antenna performance. The antenna pattern is arranged at two opposite edges of a top surface of the touch and display module or the integrated touch display module, and also at side surfaces of a housing non-coplanar to the top surface such that the antenna pattern is located outside the displaying area of the display module. Maintaining the effective antenna area and enhancing the working bandwidth of the antenna, the side width of surface of the touch panel and display panel structure or the integrated touch display panel structure is significantly reduced.

A wireless communication device, such as a cellular telephone 2, and a method of displaying information on such a device are disclosed. In at least one embodiment, the wireless communication device includes a primary exterior surface 6 having first and second dimensions 26, 28, and first and second secondary exterior surfaces 14, 16, 18, 20 each having at least one respective dimension 24 that is substantially less than each of the first and second dimensions. The first and second secondary exterior surfaces 14, 16, 18, 20 are substantially non-coplanar relative to one another and with respect to the primary exterior surface 6, and each of the first and second secondary exterior surfaces includes a respective display portion 8. In at least some additional embodiments, the display portions 8 are capable of displaying information 40 in a streaming manner, and / or capable of accepting input commands from an operator 42 when the operator touches the display portions.

The calibration tool of the present invention is a transparent camera calibration tool in which a plurality of indicator points is spatially distributed and fixed, wherein the indicator points are formed as intersecting points of thin wires extended to the frame by varying the position of the thin wires in the thickness direction and the indicator points are formed as groups of intersecting points of thin wires rendered by extending a plurality of parallel thin wire groups in different directions. The indicator groups are arranged in at least two sets in a non-coplanar relationship and embodied by distributing distinguishable minute particles in a transparent raw material or by marks or similar in the surface of the raw material. Further, a plurality of cameras arranged separately from one another are calibrated in the same coordinate system by using the transparent camera calibration tool, plate tools that are added thereto, and light beams.

A medical accelerator system consisting of coplanar and non-coplanar beams, on line magnetic resonance anatomic and functional imaging and cone beam computed tomographic imaging for single session image guided all field simultaneous radiation therapy and radiosurgery is provided. This system enables single session simulation, field-shaping block making, treatment planning, dose calculations and treatment of tumors. The radiation exposure time to the tumor and the normal tissue is reduced to a few seconds to less than a minute. In filed intensity modulated radiation is rendered by combined divergent and pencil beam, multiple smaller fields within a larger field, selectively varying beam's energy, dose rate and beam weight. Since all the treatment fields are treated simultaneously the dose rate at the tumor site is the sum of each of the converging beam's dose rate at depth. This super-high biological dose rate impairs the lethal and sublethal damage repair.

A milling cutter has a cutter body having insert pockets, with cutting inserts seated in the insert pockets. Each insert pocket has adjacent side and rear walls generally transverse to a base, the side wall being provided with two spaced apart generally flat and non-coplanar side support surfaces. Each cutting insert has a pair of opposing major side surfaces including two spaced apart generally flat and non-coplanar abutment surfaces. Upper edges of the side support surfaces abut the abutment surfaces.

The invention relates to a passive transmitter-receiver device (6,28,33) fed by an electromagnetic wave, provided with an antenna comprising a loop (7, 30, 34) which is associated with an electronic transponder chip (9), said loop being able to feed the electronic chip by an induced current which is generated when it is cross-flown by an electromagnetic wave (H1, H2, H3, Ha, Hr) carrying information, and to transmit a second electromagnetic wave carrying a response from the electronic chip. The antenna is configured in such a way that the loop includes at least two non-coplanar or non-parallel parts in a position of use.

A contact module assembly includes a dielectric body having a mating end with a plurality of mating contacts and a mounting end with a plurality of mounting contacts. A lead frame is at least partially encased by the dielectric body, wherein the lead frame has a plurality of conductors representing both signal conductors and ground conductors extending alone a lead frame plane. The signal and ground conductors extend from respective ones of the mating contacts and the mounting contacts, wherein at least some of the ground conductors include a mating contact terminal proximate the respective mating contact and a mounting contact terminal proximate the respective mounting contact. The ground conductors extend only partially between the mating contact and the mounting contact associated with the respective ground conductor such that a gap exists between the mating contact terminal and the mounting contact terminal of the ground conductor. A commoning member electrically connects the mating contact terminal and the mounting contact terminal of at least one of the ground conductors, wherein the commoning member is oriented in a non-coplanar relation with the lead frame plane.

The invention relates to the field of point cloud processing, and specifically discloses a three-dimensional point cloud road boundary automatic extraction method. The method comprises the steps of S1, screening seed points for the whole acquired three-dimensional point cloud data set P so as to perform super voxel classification; S2, extracting boundary points between adjacent non-coplanar super voxels by using an alpha-shape algorithm; S3, extracting road boundary points by using a graph cut based energy minimization algorithm; S4, removing outliers based on an Euclidean distance clustering algorithm; and S5, fitting the extracted road boundary points into a smooth curve. The method can directly operate on the large-scale three-dimensional point cloud, can be applied to different scenes, is high in calculation speed and good in algorithm robustness, and can extract road boundaries quickly.

Wireless power transmittal apparatus and systems are disclosed in which transmitter and receiver inductors, or coils, are coupled in configurations for wirelessly transferring power and / or data among them. In preferred implementations, a plurality of non-coplanar primary side coils are provided in power transmittal apparatus for transmitting power, or power and data.

A first satellite is placed practically directly by a launcher on a first final orbit. A second satellite is placed on the same launcher is initially transferred to a highly elliptical waiting orbit whose semi-major axis points to intercept the torus formed by the sphere of influence of the moon on its orbit, and then during a maneuver at the perigee of the highly elliptical orbit, the second satellite is transferred to lunar transfer orbit. Changes in the perigee altitude and the inclination of an intermediate orbit on which the second satellite is to be found are obtained mainly by gravitational reaction in the sphere of influence of the moon, and during a last maneuver, the second satellite is placed on a final orbit having orbital parameter values that are quite different from those of the orbital parameters of the first final orbit.

An apparatus providing for simultaneous measurement of the wind upstream and downstream of a wind turbine uses either a single LIDAR beam split into two beams, each focused upstream or downstream of the windmill, or a multiple beam LIDAR with a first beam source aimed toward the upstream direction of the wind and a second beam source aimed at the downstream direction after the wind has passed through the wind turbine. The apparatus may also use LIDAR to measure wind direction and speed by making measurements along slightly different lines of sight, or by pointing the LIDAR in different directions. Two lines of sight allow measuring wind direction in the plane defined by the two lines of sight. Three non-coplanar lines of sight provide the information necessary to determine a full 3-dimensional wind velocity vector. Further, LIDAR may also be used to measure wind speed by estimating the wind velocity using inputs from both aerosol and molecular components.

A device (20) for use in the screening, documentation, and diagnosis of various diseases of the eye (1). Several images (60) are taken substantially simultaneously, with the images (60) preferably taken in a non-coplanar orientation relative to each other (60). The images (60) represent multiple different zones (11) of the retina (10) taken using different optical imaging pathways (200). Image (60) distortion is minimized, because the individual optical imaging pathways (200) need to account for significantly less differential curvature of the object plane than a wide-field optical pathway that attempts to capture both the central and peripheral retina (10) in a single image. A single composite wide field image (61) can be generated, by merging the overlapping fields of multiple, concurrently captured images (60) taken at different angles.

A dynamic vertebral stabilization device for constraining motion of adjacent vertebrae is provided. The bone stabilization device comprises a first plate having a vertebral mating surface for positioning against a vertebrae, wherein the first plate defines a recess. The device further comprises a second plate having a vertebral mating surface for positioning against an adjacent vertebrae. The second plate includes a projection configured to travel in the recess of the first plate. The vertebral mating surface of the first plate is non-coplanar with respect to the vertebral mating surface of the second plate.

A cutting tool assembly for boring and internal grooving operations includes a tool head having a removably secured cutting insert at a forward insert receiving end and a rear mating end with a male or female type tool holder coupler in the form of an engagement protrusion or cutting holder receiving pocket. The tool head is fixed to a tool holder with a front mating end having a female or male tool head coupler in the form of a tool head receiving pocket or engagement protrusion. Following assembly, at least three abutting wall surfaces and an adjacent support surface of the tool holder coupler are in contact with at least three non-coplanar abutment surfaces and an adjacent supporting surface of the tool head coupler, respectively, and a fastening screw member extends through a through bore in the tool holder coupler engaging a threaded screw bore in the tool head coupler.

The invention discloses a method for estimating target rotation of an inverse synthetic aperture radar (ISAR) based on time-space image sequence, which comprises the following steps: acquiring a time-dimensional RD image sequence of the ISAR according to the received echo data; and analyzing and estimating the rotation of a target by tracking attitude change between images caused by the rotation of the target; judging whether the rotation planes of the target in any two RD images are coplanar according to a time-space two-dimensional image sequence acquired by a single receiver or a plurality of receivers; when the rotation planes are coplanar, further improving the estimation precision of a rotation parameter through a dominant point method or a rotation related method; moreover, realizing large-angle high-resolution imaging by PFA or CBP algorithm; and when the rotation planes are non-coplanar, estimating the azimuth and pitching rotation information of the target so as to realize three-dimensional imaging of the target. The method ensures the target rotation estimation precision and stability, and meanwhile can improve the performance of the ISAR imaging in the three aspects of transverse calibration, large-angle high-resolution imaging and three-dimensional imaging. Moreover, compared with the conventional target rotation estimation method, the method has high precision, and is easy in engineering realization.

The invention provides a strain type force measuring device, more particular a sensor capable of simultaneously measuring component forces of a non-coplanar force at 6 different degree-of-freedom directions. Flanges (2) are arranged at the two ends of a thin-walled cylinder (1) and opened with mounting holes (3), an electric resistance strain gage and a temperature compensation strain gage are adhered on a specific position of the wall of the thin-walled cylinder (1) with a specific manner, and the electric resistance strain gage is bridged. The invention has the advantages of uniform radial mechanical properties, good longitudinal stability, simple structure, light weight, low inertia, no intervals and frictional force, high measurement accuracy and wide application range; and is suitable for measuring either small load and high load with large structure.

An optical fibre bend sensor (10) measures the degree and orientation of bending present in a sensor length (30) portion of a fibre assembly (26). Within a multicored fibre (30, 32,34), cores (62, 66) are grouped in non-coplanar pairs. An arrangement of optical elements (28, 36, 38) define within each core pair (62, 66) two optical paths (122, 124) which differ along the sensor length (30): one core (62) of a pair (62, 66) is included in the first path (122), and the other core (66) in the second path (124). A general bending of the sensor region (30) will lengthen one core (62, 66) with respect to the other. Interrogation of this length differential by means of interferometry generates interferograms from which the degree of bending in the plane of the core pair is extracted. Bend orientation can be deduced from data extracted from multiple core pairs.

A contact module assembly includes a dielectric body having a mating end with a plurality of mating contacts and a mounting end with a plurality of mounting contacts. A lead frame is at least partially encased by the dielectric body, wherein the lead frame has a plurality of conductors representing both signal conductors and ground conductors extending alone a lead frame plane. The signal and ground conductors extend from respective ones of the mating contacts and the mounting contacts, wherein at least some of the ground conductors include a mating contact terminal proximate the respective mating contact and a mounting contact terminal proximate the respective mounting contact. The ground conductors extend only partially between the mating contact and the mounting contact associated with the respective ground conductor such that a gap exists between the mating contact terminal and the mounting contact terminal of the ground conductor. A commoning member electrically connects the mating contact terminal and the mounting contact terminal of at least one of the ground conductors, wherein the commoning member is oriented in a non-coplanar relation with the lead frame plane.

The invention provides an accurate stereotactic radiosurgery treatment device which belongs to the field of a medical device. The accurate stereotactic radiosurgery treatment device is composed of a radiation device system, a six-dimensional robot treatment bed 1 and a treatment planning system. The radiation device system is composed of a frame 12 and a C-shaped machine arm 5. The frame 12 is provided with a rotating shaft 10. The rotating shaft 10 is connected with a guiderail 9 and controls rotation of the guiderail 9. The C-shaped machine arm 5 is mounted on the guiderail 9 and performs arc-shaped motion along the guiderail 9. One end of the C-shaped machine arm 5 is provided with a radiation source 2. The bottom end of the radiation source 2 is provided with a small machine head 3. The bottom end of the small machine head 3 is provided with a collimator. The other end of the C-shaped machine arm 5 is provided with a telescopic electronic portal imaging device 7 and a movable shielding protecting counterweight 8. A target organ positioning and detecting device 6 is mounted at the side part or the lower part of the six-dimensional robot treatment bed 1. The radiation treatment head of the accurate stereotactic radiosurgery treatment device can perform 90-degree (or + / -45-degree) rotation around an X axis so that rays can be transmitted in a 4pi non-coplanar track.

The present metal spin forming head includes two sets of rollers, with each set having a series of individual metal working rollers therein. The rollers of each set are circumferentially spaced evenly about the head, with each of the rollers of the second set being evenly positioned between corresponding rollers of the first set. The second roller set may be in a non-coplanar relationship with the first roller set. The first roller set comprises rollers having relatively broad widths, for forming the general contours of the workpiece. The second roller set comprises rollers having relatively narrow rims for forming circumferential grooves in the workpiece, resulting in corresponding beads within the workpiece for securing an article therein. The rollers are controlled independently of one another by a programmable logic control capable of driving the rollers cyclically as the workpiece (or spin forming head) rotates to form non-cylindrical shapes.

One illustrative system disclosed herein includes a touch-sensitive surface (116, Fig. 1 ), which includes: a first surface 202; and a second surface 206 adjacent to the first surface, wherein the second surface is or can be arranged to be non-coplanar with the first surface. The illustrative system also includes a haptic output device (118, Fig. 1 ) configured to receive a haptic signal and output a haptic effect. Further, the illustrative system includes a processor (102, Fig. 1 ) coupled to the haptic output device and the touch-sensitive surface, the processor configured to: determine an event; determine the haptic effect based at least in part on the event; determine the haptic signal based at least in part on the haptic effect; and transmit the haptic signal associated with the haptic effect to the haptic output device.

An apparatus for delivering energy to tissue, comprising: an elongate flexible shaft having a proximal end and a distal end; a sheath disposed over at least a portion of the flexible shaft; a housing provided on the distal end of the flexible shaft; a plurality of electrodes mounted on the housing, the electrodes having a tissue apposition surface having a non-coplanar shape that conforms to the anatomy of a patient.

Three dimensional RF tag signatures may be obtained from a three dimensional RF tag or multiple two or three dimensional RF tags so that information in addition to presence information may be obtained. In one embodiment, a three dimensional RF tag having two or more power coils disposed in non-coplanar planes enables the coils to experience different levels of excitation from an electromagnetic field. This information may be transmitted along with the RF tag response to enable the orientation of the RF tag relative to an RF tag reader to be determined. In another embodiment, multiple RF tags (either standard RF tags or three dimensional RF tags) may be used on a given article and a response signature from the article as a whole may be recorded. The three dimensional response signature thus collected may be compared with previous versions of the response signature to determine if the article has been altered.

A transition region control system has one or more sensors configured to transmit a signal representative of a speed of a work machine moving over a first surface. The transition region control system also has one or more surfacing components configured to form a second surface generally coplanar to the first surface, wherein the second surface may include a transition region generally non-coplanar to the first surface. The transition region control system further has a data input system configured to transmit data representative of the transition region to a controller. The controller may be configured to determine the speed of the work machine based on the signal received from the one or more sensors and control the operation of at least one of the one or more surfacing components to at least partially form the transition region based on the speed of the work machine and the data representative of the transition region.

A razor comprises a first component comprising a first indicia on a surface of the first component. The razor also comprises a second component configured to rotate relative to the first component about a first axis of rotation, the second component comprising at least one blade and a second indicia on a surface of the second component, the second component configured to rotate relative to the first component about a second axis of rotation, wherein the second axis of rotation and the first axis of rotation are non-coplanar. The second component is in a preloaded neutral position when at rest such that rotation about the second axis of rotation generates a return torque and wherein the first indicia and the second indicia are in alignment at rest and out of alignment when the second component has been rotated about the first axis of rotation.