211 results about "Transition edge" patented technology

A method and apparatus for monitoring and controlling reactive sputter deposition, particularly useful for depositing insulating compounds (e.g., metal-oxides, metal-nitrides, etc.). For a given nominal cathode power level, target material, and source gases, the power supplied to the cathode (target) is controlled to stabilize the cathode (target) voltage at a specified value or within a specified range corresponding to a partial pressure or relative flow rate value or range of the reactive gas. Such an operating point or range, characterized by a specified voltage value or range and corresponding reactive gas relative-flow/partial-pressure value or range, may be determined empirically based on measuring the cathode voltage as a function of reactive gas relative-flow/partial-pressure for the given nominal power. This relationship is typically a hysteresis curve, and preferably the operation point is selected at or near the hysteresis transition edge to provide high rate deposition of high quality films, including insulating or dielectric films using a metallic target.

A disposable absorbent article may comprise a chassis and a pair of longitudinally disposed barrier cuffs. Each cuff may contain a barrier zone, an attachment zone, and a transition edge separating the barrier zone and attachment zone. The barrier cuffs exhibit a cuff span and a cuff height at a given cross-section through a crotch point and an end region. The absorbent article exhibits a cuff span ratio, defined as a maximum cuff span as measured in the end region of the barrier cuff divided by a cuff span as measured at the crotch point, of greater than 1. The absorbent article exhibits a cuff height ratio, defined as a cuff height as measured at the crotch point divided by a minimum cuff height as measured in the end region, of greater than 1.

A demodulation circuit for an Amplitude Shift Keyed (ASK) modulated signal includes an envelope detector, an alternating voltage amplifier, a differentiator circuit, and a comparator having a hysteresis connected in series. The envelope detector produces an envelope signal from the received ASK signal. The amplifier blocks the DC component of the envelope signal and amplifies AC components of the envelope signal to obtain a steeper slope of the rising and falling edges. The differentiator circuit then processes the transition edges to provide a differentiated signal having positive and negative electrical pulses. The comparator converts the pulses into a binary data stream which corresponds to the transmitted data stream. The combination of the differentiated signal and comparator having a hysteresis enables better stability and sensitivity of the ASK demodulation circuit.

Clock signals are supplied, with a phase shift of 1/n cycles between adjacent clock signals. A data acquisition unit acquires serial data at a timing of each of the clock signals. A phase detection unit detects the phase of the transition edge of the serial data using n bits of data. An effective bit number determination unit determines the effective bit number, which is the number of bits to be acquired, based upon the phase of the transition edge of the serial data in the current data-bit acquisition step and the phase of the transition edge of the serial data in the previous data-bit acquisition step. A data-bit output unit outputs the effective bit number of the bits of data acquired at a timing of each clock signal having a predetermined phase relation with the transition edge of the serial data.

A seal usable to seal a transition in a can-annular combustion system of a turbine engine to a turbine vane assembly to direct exhaust gases through the turbine vane assembly. The seal may be formed from an elongated body extending along an outer edge of the transition and having first and second edges. The first edge of the seal may be attached to the transition, and the elongated body may extend away from the transition edge and contact a portion of the turbine vane assembly. The elongated body may flex during use without yielding or otherwise deforming.

A prosthetic patellar component includes a base and a bearing element that includes first and second femoral engaging surfaces disposed between first and second (superior/inferior) edge surfaces. The edge surfaces are curved to provide a gradual transition from a posterior facing portion to a nearly vertical superior or inferior facing portion. Moreover, the inferior-superior dimension of the component is at least approximately 90% of the medial-lateral dimension. The relative height and gradually transitioning edges significantly reduce the likelihood of sudden posterior rotation during deep flexion movement. The edge surfaces extend from a substantially posterior facing portion proximate to the first and second femoral engaging surfaces and a substantially vertical facing portion proximate the base. The curved edge surfaces can include a plurality of adjacent medial-laterally extending surface portions having angular displacement relative to an adjacent surface portion of less than 30 degrees in the anterior-posterior direction.

A drilling tool includes a basic body defining a center axis of rotation and having two chip channels and two replaceable indexable cutting bits in the form of a center bit and a periphery bit mounted in respective center and periphery pockets formed in an axially front end of the basic body. The center bit and the center pocket are spaced radially from the periphery bit and the periphery pocket along a first diametrical plane of the basic body. At least the center bit includes four identically-shaped cutting edges, one of which constituting an operative cutting edge intersected by a second diametrical plane oriented perpendicularly to the first diametrical plane. Each cutting edge of the center bit comprises first and second part edges joined by a transition edge portion. The first and second part edges of the operative cutting edge constitutes operative first and second part edges, respectively; the operative first part edge being spaced from the center axis and situated closer than the operative second part edge to an outer periphery of the basic body. An axially forwardmost portion of the operative first part edge is disposed axially forwardly of an axially forwardmost portion of the operative second part edge, and an axially forwardmost portion of an operative cutting edge of the periphery bit lies axially between the axially forwardmost portions of the operative first and second part edges of the center bit, respectively.

A novel clock control circuit and method in which phase synchronization with respect to an external clock can be realized without recourse to the external clocks. A clock controlling circuit includes a delay circuit sequence comprised of N stages of units each made up of a first delay circuit 10 and a first interior division circuit 11 for delaying the output signal of the first delay circuit, and a phase difference detection circuit 14 for detecting the clock period and the delay time difference of the delay circuit sequence from the input clock IN and a clock END output by the delay circuit sequence as a phase difference of the two signals. A plural number of second interior division circuits 12, fed with an output signal of the first delay circuit, delays a transition edge of an output signal of the first delay circuit by t2-nxT/N to output the delayed signal. The second interior division circuit outputs a signal which makes transition at a timing delayed nxtCK/N as from the start time point of the clock cycle. A synthesis circuit 13 generates a frequency multiplied clock signal which is obtained on equal division of the clock period tCK of the input clock from the input clock IN and the number 1 to numberN-1 third delays circuit.

An optical disc is provided with an associated optical shutter. In a first state, the optical media interferes with the ability of an interrogating laser beam to read data from the optical media, and in a second state, the optical media is substantially transparent, enabling the laser beam to read the disc. A powering circuit is used to cause the optical shutter to transition from a first state to the second state. In one example, an integrated circuit acts as the powering circuit, as well as providing logic and processing functions. The integrated circuit also couples to an RF antenna, enabling the integrated circuit to communicate with an associated RF scanning device. The optical shutter may take various geometric shapes, and typically has an electrochromic material for facilitating state change. The electrochromic material may fill the shutter, or the material may form a pattern. The shutter may be positioned on the disk so that transition edge-effects are reduced, allowing for reduced interference with the laser beam when the optical shutter is in its clear state. The optical shutter does not cover the entire data area of the disc, and in one example, the optical shutter is quite small, allowing for lower cost production, as well as reducing power requirements to transition the electrochromic material. Power requirements may be further reduced by forming the electrochromic in a pattern. A small optical shutter may disable reading of disc, for example, by placing the small shutter over an important section of the disc, such as the lead-in area.

An information processing apparatus according to the present invention comprises a generation section configured to generate an ordered tree structure by defining transition edges between nodes using, as transition conditions, respective constraints from one or more constraint pattern each including plural constraints, a search section configured to search for a second substructure K similar to a first substructure P from a root node by determining a set relation between transition conditions of respective transition edges, and a transition defining section configured to define an additional transition link from a tail node s^K_n of the second substructure K to a child node s^P_n+1 of the first substructure P, the additional transition link adding a constraint to be met by an indeterminant identified from the set relation, wherein a data structure for pattern matching is defined.

The present invention relates to a geometric structure of rotation working part of used for driving type rototilling-tillage machine, and especially to a cultivation rotation working part with bionic geometric structure. The invention takes the fore leg claw toe of mole with high-efficient digging capability as a bionic researching object, extracts the special geometric structure characteristic and applies the geometric structure characteristic for designing the rotation working parts (rotary blade or stubble breaking blade) on the cultivation machinery. The component is mainly composed of a side cutting surface with a side cutting edge, a front cutting surface with positive cutting blade, a transition surface for connecting the front cutting surface and the side back surface, and a transition edge for connecting the front cutting edge and the side cutting edge. The invention is characterized in that the front cutting edge (6) adopts a bionic circular arc structure. The geometric shape is confirmed by the following equation: when the operation breadth of single blade of front cutting edge is L, the corresponding central angle of circular cutting edge is (theta), the corresponding radius is (r), and the number of circular arcs is (n), the corresponding expression is as follows: L/2nr=sin(theta/2). The cultivation rotation working part with bionic geometric structure according to the invention can greatly reduce the energy consumption in cultivation operation under the precondition that the cultivation quality is ensured.

The invention relates to a rotating driving force receiver and a drive component. The receiver is provided with an inwards concave spherical surface, an approaching surface positioned on the periphery of the spherical surface, and a first convex pawl and a second convex pawl extended outwards, wherein the surfaces of each of the convex pawls are both provided with an occlusal surface matched with an imaging equipment drive component and two side surfaces which are used for guiding and are transited smoothly; the two side surfaces are abutted through a transition edge which is inclined relative to the direction of an axial line; the transition edge is provided with a first endpoint and a second endpoint; the second endpoint is positioned on the second surface; a first bottom line and a second bottom line are crossed at the second endpoint; the second endpoint is a point, farthest from the axial line, on a convex pawl; and the first endpoint is closer to the axial line than the second endpoint. The rotating driving force receiver and the drive component can reduce a dead point position area when a machine falls or a processing cartridge is taken out to the maximum and avoid a locking problem between the rotating driving force receiver and the imaging equipment drive component, so that a photosensitive drum can be driven to work safely and reliably.

To perform mask control of data signals without increasing the number of external terminals even when the number of bits in a data mask signal is large, an address input circuit sequentially receives a first address signal, a second address signal, and a first data mask signal supplied to an address terminal in synchronization with transition edges of a clock signal. Namely, the first data mask signal is supplied to the address terminal at a different timing from timing at which the first and second address signals are received. The first address signal, second address signal, and first data mask signal are output, for example, from a controller accessing a semiconductor memory. A data input/output circuit inputs/outputs data via a data terminal and masks at least either of write data to memory cells and read data from the memory cells in accordance with logic of the first data mask signal.

The circuit is provided for the transmission of data amplitude modulated radio frequency signals. The circuit includes a local oscillator for generating an oscillating signal at a determined carrier frequency, a unit for shaping data pulses to supply a data amplitude modulation control signal (Vmod), and a power amplifier receiving the oscillating signal and the data amplitude modulation control signal (Vmod) for the transmission of data amplitude modulated radio frequency signals by an antenna or an antenna arrangement. The data pulse shaping unit (13) includes a pulse shaper (21) for digitally adapting the data transition edges on the basis of an incoming digital data signal (d), and a digital-analogue conversion stage (26, 27) for converting a digital data signal shaped in the unit, in order to supply the data amplitude modulation control signal (Vmod) to the power amplifier.

Disclosed is an AC characteristics measurement system that includes a flip-flop arranged in a loop of a ring oscillator; a clock generating circuit that receives a signal propagated in said loop of said ring oscillator and generates a clock signal to be supplied to said flip-flop; a delay adjustment circuit that receives a signal propagated in said loop of said ring oscillator and generates a data signal to be supplied to said flip-flop and that receives a control signal and variably controls the time difference between a transition edge of said data signal to be supplied to said flip-flop and an effective edge of said clock signal to be supplied to said flip-flop, based on said control signal; and a setup-hold changeover circuit that is provided at a preceding stage of said flip-flop and that switches the temporal before and after relation between a transition edge of said data signal supplied to said flip-flop and an effective edge of said clock signal, responsive to a control signal for performing changeover between the measurements of setup time and hold time. An AC measured value is derived from the value of the control signal at a time point of cessation of oscillation of a preset node of the loop.

The invention discloses a drill bit for processing a deep hole with a large length-diameter ratio. The drill bit comprises a drill bit body; the drill bit body comprises a drill tip part, a chip removal part and a handle part; the chip removal part is provided with a chip removal groove and a secondary cutting edge extending from the drill tip part to the handle part; the drill tip part is provided with a front tool face, a rear gap face and a transverse edge; the front tool face is crossed with the rear gap face to form a main cutting edge; the main cutting edge is formed by connecting a linear inner edge and a curved outer edge; the linear inner edge is connected with the transverse edge; the curved outer edge comprises an arc cutting edge, a linear cutting edge and an arc transition edge; the arc cutting edge and the arc transition edge are raised into the chip removal groove; the arc cutting edge is connected with the secondary cutting edge; and the arc transition edge is connected with the linear inner edge. The drill bit for processing the deep hole with the large length-diameter ratio has the advantages of simple structure, good durability, strong chip cutting and removal capabilities and high cutting efficiency.

The present invention provides a large-feeding milling tool blade capable of milling deep cavity. It includes the following several portions: parallel and opposite upper and lower surfaces, mounting hole and curved side surface connecting upper and lower surfaces, the upper surface and lower surface are crossed and formed into curved cutting edge, the described cutting edge includes three cutting edge sections, any cutting edge section is formed from curved sleeking edge, first cutting edge, second cutting edge and arched transition edge for connecting first cutting edge and second cutting edge.

A clock recovery system includes a sampler that is configured to sample an input data signal in synchronization with a modulated clock signal to generate a sample of the input data signal. A phase comparator is configured to compute a position of a transition edge of the input data signal using the sample data signal, and to compare the computed position with a position of an edge of the modulated clock signal to generate a comparison result. An edge counter is configured to count transition edges of the sample data signal. A controller is configured to generate first and second control signals based on the comparison result and the count of the transition edges. A clock phase modulator is configured to generate the modulated clock signal by adjusting a phase of an input clock signal responsive to the first and second control signals, such that the phase is increased in response to the first control signal and reduced in response to the second control signal.

The invention discloses a special efficient turning tool for hogging ultra-large axial forgings. The hogging process of the hydrogenated cylindrical shells of the ultra-large axial forgings has the problems that a cutter cracks and fails under variable-load and variable-frequency mechanical impact, the radiating conditions in the cutting process are weak, the cutter and scraps are stuck together as the cutter body is softened by high temperature, and the like. The special efficient turning tool for hogging ultra-large axial forgings comprises a turning tool body (1), wherein a fastening screw hole (5) is arranged at the very center of the turning tool body; the turning tool body is of a regular pentagon shape, has five cutting edges and is provided with a front tool surface (2) and a bottom surface (3); a cutting surface (13) of the turning tool body is provided with a group of negative chamfer cutting edges (4); the front tool surface of the turning tool body is sequentially provided with a ellipsoidal bulge (6), an arrow-shaped bulge (7), a wave-shaped scraps guiding wall (8), a scraps containing groove (9) and an arc transition edge (10); and the bottom surface of the turning tool body is provided with a tool bottom radiating groove (11) and a tool body supporting structure (12). The special efficient turning tool disclosed by the invention is used as a turning tool for hogging the ultra-large axial forgings on a heavy-duty lathe.