51 results about "P component" patented technology

A polarized light irradiation apparatus, having at least two plane mirrors, is constructed to prevent reduction of the extinction ratio of the polarized light that irradiates a substrate when there is a change of the direction of polarization of the polarized light that is incident on a reflecting mirror. This is accomplished by forming a protection layer on the surface of the second plane mirror, and selecting the material and optical thickness of the layer in accordance with the angle of incidence and wavelength of the polarized light so that the difference Delta of the phase shifts of the polarization P component and the polarization S component emerging from the second plane mirror satisfies the condition that Delta<=±20°. By doing this, there will be no reduction of the extinction ratio of the polarized light that irradiates the substrate W if there is a change in the polarization direction of the polarized light that is incident on the second plane mirror.

Methods and apparatus for noninvasively estimating a blood pressure are provided. A pulmonic (P) component extracted from a second heart sound (S2) signal is analyzed to obtain a number of oscillations in the P component. A predetermined relationship between the number of oscillations and PAP is used to generate a blood pressure estimate. A PCG sensor including a mechanical filter for receiving heart sounds from a chest wall is also provided. The pressure of the PCG sensor on the chest wall is adjustable.

The invention discloses a downhole microseismic three-component rotating method and belongs to the field of downhole microseismic three-component signal processing. The method includes: firstly, inputting an X-component and a Y-component, then solving extreme values to obtain an X-direction azimuth and a new R-component and a new T-component; secondly, inputting a Z-component and the R-component prior to solving extreme values to obtain a Z-direction azimuth and a new P-component and a new S-component; finally, taking the P-component, the S-component and the T-component as rotating results of the original X-component, Y-component and Z-component. By the method, accurate rotation of the downhole microseismic X-component, Y-component and Z-component can be realized, the new three components P, S and T uniform in amplitude are obtained, and information such as wave propagation and the azimuth theta of the X-component and the azimuth phi of the Z-component can be obtained. In addition, the method is small in influence of noise and stable in computed results, and input data are unlimited to P-waves or S-waves.

The invention discloses high-toughness and high-weather-resistance steel and a manufacturing method thereof. The high-toughness and high-weather-resistance steel comprises the following components in percentage by weight: 0.035-0.075% of C, no more than 0.30% of Si, 0.40-0.80% of Mn, 0.07-0.11% of P, no more than 0.004% of S, 0.20-0.50% of Cu, 0.10-0.40% of Ni, 0.40-0.70% of Cr, 0.008-0.016% of Ti, 0.010-0.030% of Nb, no more than 0.0050% of N, 0.001%-0. 004% of Ca, and the balance of Fe and unavoidable impurities, wherein by taking a C-Mn-P component system with low C, low Mn and high P as a foundation and through the alloying of Cu, Ni and Cr, [%C] / [%P] is controlled to be not smaller than 0.49, [%Mn] / [%C] is controlled to be not smaller than 10, the weather resistance index DNH is controlled to be not smaller than 6.50%, [%C]*([%P]+2.5[%S]) is controlled to be not more than 0.0025, [%Ca] / [%S] is controlled to be equal to 1.0-3.0, ([%Cu]+0.36[%Ni]+0.27[%Cr])*[%P] is controlled to be not smaller than 0.030, [%Ca]*[%S]0.28 is controlled to be not more than 0.002, and a TMCP (ThermoMechanical Control Process) is adopted. Therefore, the high-toughness and high-weather-resistance steel has excellent low-temperature toughness, bending cold machining characteristic and high weather resistance, and is suitable to be used as a compartment body structure of a coating-free high-speed train.

A phase difference detector generates a plurality of signals from an input beam including orthogonal, linearly polarized object and reference beam components. The detector may be configured such that as the reference and object beam components traverse the detector, phase shifts due to surface interactions are made as similar as possible between the s-components of the reference object beams, and between the p-components of the reference and object beams. Various outputs may be formed by interfering p-components exclusively, or s-components exclusively, negating errors that may otherwise arise due to differential phase shifts between p- and s-components. Phase-shifting elements in the detector may receive beams from beam splitting surfaces where the transmissive differential phase shift between p- and s-components is adjusted to insignificance.

A lithium ion conductive substance is provided that is characterized by containing a compound wherein a composite oxide represented by Li1+x+yAlxTi2−xSiyP3−yO12 (0≦x≦1 and 0≦y≦1) is doped with at least one kind of element selected from Zr, Hf, Y, and Sm.Furthermore, a method for manufacturing the lithium ion conductive substance is provided that includes the following steps: (a) a step of forming an inorganic substance that contains predetermined quantities of a Li component, an Al component, a Ti component, a Si component, and a P component, into a sheet shape, and (b) a step of interposing between materials that contain at least one kind of element selected from Zr, Hf, Y, and Sm, and sintering, a sheet-shaped formed body obtained at step (a).

The invention relates to a method for the operation of a wind energy installation (100) and / or a wind farm (112) for supplying electric power to an electrical supply system (120), wherein output power, particularly active and / or reactive power (Q, P), is regulated by means of at least one power regulation module (501) of a regulatory and / or control device (131), having the steps of: prescribing a power regulation input value, determining a power regulation output value from the power regulation input value, and outputting a power regulation output value. According to the invention, the power regulation module has a P controller and an I controller and has an I-component limiter, wherein a first operating value of the power regulation input value is processed in the P controller to form a P component, a second operating value of the power regulation input value is processed in the I controller to form an I component, and a third operating value of the power regulation input value is processed in the I component limiter to form a limited I component, and the power regulation output value (P-Output) is determined using the limited I component and the P component.

Computing device, computer instructions and method for simultaneously denoizing and attenuating multiples in seismic data recorded with seismic receivers. The method includes receiving the seismic data, wherein the seismic data includes a pressure P component and a vertical Z component; separating the seismic data into up-going U wave-fields and down-going D wave-fields; calculating an up-down deconvolution R based on the up-going U and the down-going D wave-fields; generating a multiple model M based on the up-down deconvolution R; and adaptively subtracting the multiple model M from the pressure P component to obtain a corrected pressure Pfree component from which simultaneously the noise and the multiples were removed. A multiple is a wave-field that propagates from a source to a receiver and experiences more than one reflection.

In a multilayered sintered sliding member, a porous sintered alloy layer comprising 3 to 10 wt. % of an Sn component, 10 to 30 wt. % of an Ni component, 0.5 to 4 wt. % of a P component, 30 to 50 wt. % of an Fe component, 1 to 10 wt. % of a high-speed tool steel component, 1 to 5 wt. % of a graphite component, and 20 to 55 wt. % of a copper component is integrally diffusion-bonded to a backing plate.

A wear-resistant bearing of a motor-type fuel pump, characterized in that it is composed of Cu-Ni based sintered alloy, and the sintered alloy has graphite: 1-5% and P content: 5-10% in mass % Cu-P alloy: 2 to 9%, Cu-Ni alloy containing 21 to 26% Ni: the remaining part is composed of a sintered body of a compacted powder body, and is formed on a Cu-Ni alloy matrix , the pores are dispersedly distributed at a ratio of porosity: 8 to 18%, and have a structure in which P component is distributed at the grain boundary between the Cu-Ni alloy grains and free graphite is distributed in the pores.