106results about How to "Large radius" patented technology

There is disclosed herein a tube of material (1) having a seam (12) extending between a proximal end and a distal end, two edges (10a, 10b) of the material meeting and at least partially overlapping along the seam (12) and being sewn together at the seam by stitches (21, 22, 24) of relatively flexible thread (20), the thread of one or more of the stitches (22, 24) passing from a first side (12a) of the overlapped edges (10a, 10b) of material, through both layers of overlapped material, crossing a relatively rigid member (30) which is disposed on a second, opposite side (12b) of the overlapped edges of material, and passing back to the first side (12a). There is further disclosed an implant delivery catheter (40) incorporating the tube of material (1), and associated methods for its manufacture.

Medical implant delivery devices and systems are disclosed. In general, an exemplary delivery device comprises a shaft and a handle. An exemplary system includes any number of the following: a delivery device, a sling assembly, guide members, and connectors that interconnect the above. Embodiments of all the above components and their combinations are disclosed. Methods of using the above system in trans-obturator approaches are disclosed.

A flexible track for use in a track lighting system which includes two elongated track members mounted back-to-back which can be manually set and secured into a desired curved configuration. The elongated flexible track members are parallel and adjacent to each other with conductors positioned in channels on the lateral faces of the flexible track, capable of engaging one or more light fixtures. Each track member can slide relative to the other creating a mechanism that allows for large or small diameter curves of the flexible track.

A cooking device comprises a cooking chamber (11) and one or more heating elements (12). Furthermore, a blower (20) is provided, which comprises a radial blower impeller (22) and an atomisation element rotating with the radial blower impeller (22). A water supply (30) comprises at least one water outlet (33), which supplies water onto the atomisation element (25). An evaporation of the water and thus a humid cooking chamber air is achieved. The atomising element is a discoidal, axially-symmetrical element, the outer radius of which is the same as, or larger than the inner radius of the blade region of the radial blower impeller (22). The atomisation element is arranged adjacent to the radial blower impeller in the axial direction and the water outlet (33) is arranged adjacent to the atomisation element (25), outside the radial blower impeller (22).

A tray-shaped dental treatment device includes a moisture-resistant barrier layer having a front side wall and a bottom wall, and a dental treatment composition. In addition, the tray-shaped dental treatment device includes at least one of the following anatomical features to enhance the fit of the device: (1) the bottom wall includes a plurality of cuts positioned to help the bottom wall better conform to abrupt changes in the diameters of a person's teeth where the bicuspids and canines meet, or (2) the bottom wall includes at least one V-shaped or U-shaped indentation configured to be inserted into the depression typically found along the top surfaces of a person's molars, or (3) the front side wall and bottom wall include radii of curvature that account for typical flaring of a patient's incisors.

Forming a plurality of loops in an optical fiber around a spool adjacent to an exposed end face can suppress internal reflections from the exposed end face. The radius of the loops can attenuate light that is propagating to and from the end face by causing light to leak out of the optical fiber's core and into its cladding. The radius can be selected to control physical stress in the optical fiber and promote reliability. The radius and the number of loops can be selected to meet a return loss specification. The loops can be formed by coiling the optical fiber around a spool that includes a slot for holding the optical fiber until it is put into service.

A technique that can realize high integration even for multilayered three-dimensional structures at low costs by improving the performance of the semiconductor device having recording or switching functions by employing a device structure that enables high precision controlling of the movement of ions in the solid electrolyte. The semiconductor element of the device is formed as follows; two or more layers are deposited with different components respectively between a pair of electrodes disposed separately in the vertical (z-axis) direction, then a pulse voltage is applied between those electrodes to form a conductive path. The resistance value of the path changes according to an information signal. Furthermore, a region is formed at a middle part of the conductive path. The region is used to accumulate a component that improves the conductivity of the path, thereby enabling the resistance value (rate) to response currently to the information signal. More preferably, an electrode should also be formed at least in either the x-axis or y-axis direction to apply a control voltage to the electrode.

An installing structure of a wire harness on a link includes a link which pivotally connects a movable structural body to a fixed structural body, a wire harness which is installed along the link so as to extend from the fixed structural body to the movable structural body, a singular first flexible protective tube through which the wire harness is slidably passed, and a fixing member which fixes the flexible protective tube to the link.

An optical multi-mode HIC (high index contrast) waveguide (102,104, 201, 301) for transporting electromagnetic radiation in the optical waveband, the waveguide comprising a guiding core portion (204) with higher refractive index, and cladding portion (206) with substantially lower refractive index configured to at least partially surround the light guiding core in the transverse direction to facilitate confining the propagating radiation within the core, the wave-guide being configured to support multiple optical modes of the propagating radiation, wherein the waveguide incorporates a bent waveguide section (202) having bend. curvature that is configured to at least gradually, preferably substantially continuously, increase towards a maximum curvature of said section from a section end.

This invention generally relates to an elevated transportation network run on electricity with personalized cars that can automatically transport passengers anywhere in a large city or densely populated metropolitan area served by the system without stopping on the way to the final destination. The cars travel on two continuous concrete ribbons with no bumps or cutouts crossing the tire path during switching or on the straight away. The travel path is a combination of central routing and individual car communications with car automatic steering and distance control. The personalized transportation concept can also apply to high speed intercity transportation allowing instant available transportation without intermediate time consuming stops.

For preventing slack of a wire harness and bending the wire harness more smoothly, a harness holder 71 includes an inner clamp member 31 for supporting the wire harness 73 and an outer clamp member 38 supporting rotatably the inner clamp member. The slack preventing member 35 is formed longer than the harness guide 62 in a harness leading direction. Mounting the harness holder 71 at a vehicle body and disposing a protector for receiving the wire harness 73 at a slide door, the wire harness is wired from the harness holder to the protector. In partially opened slide door, the slack preventing member 35 supports the wire harness. In full opened and completely closed door, the harness guide 62 supports the wire harness.

The embodiments of the present invention provide a Ge-based NMOS device structure and a method for fabricating the same. By using the method, double dielectric layers of germanium oxide (GeO₂) and metal oxide are deposited between the source/drain region and the substrate. The present invention not only reduces the electron Schottky barrier height of metal/Ge contact, but also improves the current switching ratio of the Ge-based Schottky and therefore, it will improve the performance of the Ge-based Schottky NMOS transistor. In addition, the fabrication process is very easy and completely compatible with the silicon CMOS process. As compared with conventional fabrication method, the Ge-based NMOS device structure and the fabrication method in the present invention can easily and effectively improve the performance of the Ge-based Schottky NMOS transistor.

A tubular linear motor for electrical discharge machine generally comprises: a stator, a forcer, a set of coils and a hollow central shaft. The forcer is mounted onto the hollow central shaft, the forcer and the hollow central shaft are slidably disposed at the axial center of the stator, the set of coils is disposed in the stator (or in the forcer). After the coil is powered, the forcer will be driven to reciprocate along the central shaft by the electromagnetic force produced by the set of coils. The central shaft can be interiorly provided with wires, and thus, both the production cost and installation space of the linear motor of the present invention can be substantially reduced.

A grinder includes an improved mechanism for adjusting the coarseness of the grind by providing a grind selector knob centrally located at the top of a cap. In some versions of the invention, the mill includes a base with a cavity for collecting the salt, spice, or pepper that is ground so that it can be measured within the base before dispensing. Ideally, the collector base includes an inclined floor and measurement indicators to enable the grinding and measuring of a desired volume of spice.

Thin glass elements with improved edge strength are provided—from a sheet glass element that has two opposite parallel faces and an edge connecting the faces. The sheet glass element has a thickness of at most 700 μm. At least a portion of the edge is defined by an edge surface portion that is convexly curved, so that at least one of the faces merges into the edge surface portion, wherein a curved arc of the edge surface portion has a length that is at least 1/30 of the thickness of the sheet glass element. In the region of the convex curvature, the edge surface portion has indentations in the form of furrows.

A teatcup liner for a teatcup has a longitudinal shape extending along a longitudinal axis (x). The teatcup liner includes a barrel (2) having a length (L) and defining an inner space (21) for receiving the teat. The barrel has a polygonal cross-sectional shape transversely to the longitudinal axis along the barrel. The polygonal cross-sectional shape defines a plurality of corner portions and a plurality of side portions, each connecting two of the corner portions. Each corner portion includes an inner surface facing the inner space and having an inner radius extending from the inner space to the inner surface. The inner radius is equal for each corner portion. Furthermore, the inner radius of each of the corner portions is at least 4 mm at a center part of the corner portion.