mhurhangee/ep-ind-claims huggingface dataset:
An interventional ablation needle usable for an ablation device, the needle comprising an elongated body having a distal end, an ablation element arranged in a region close to the distal end of the body and spaced apart from the distal end, and at least two optical sensors (11, 13, 15, 17, 19, 21) arranged on the body adjacent to, and spaced apart from, the ablation element and at opposing sides of the ablation element along a line parallel to the longitudinal axis of the elongated body, the optical sensors being adapted for providing measurement values enabling a detecting of physiological information of tissue (27, 29, 31) surrounding an ablation site.
A Serial Peripheral Interface controller for use within a computer system, the SPI controller comprising: a clock that generates system clock signals that synchronize a data transfer operation; a dynamic clock delay element that phase shifts the clock signals with a delay offset and outputs read data that was received during a read operation from an SPI slave device with the clock signals that were phase shifted; characterized in that the SPI controller is coupled to a plurality of SPI slave devices, the SPI controller further comprising a data structure that stores an index identifying the respective SPI slave devices and a delay offset associated with each index that is configured for the associated SPI slave device. a clock that generates system clock signals that synchronize a data transfer operation; a dynamic clock delay element that phase shifts the clock signals with a delay offset and outputs read data that was received during a read operation from an SPI slave device with the clock signals that were phase shifted; characterized in that the SPI controller is coupled to a plurality of SPI slave devices, the SPI controller further comprising a data structure that stores an index identifying the respective SPI slave devices and a delay offset associated with each index that is configured for the associated SPI slave device.
A method for the chemical surface treatment of bodies, wherein a laminar flow within the liquid in at least one process basin for degreasing and/or for pickling is generated by at least one flow pump with rectifier arranged per flow direction within the process basin, wherein at least two flow directions are generated in the process basin and wherein furthermore the at least one flow pump per flow direction is arranged in the front region of the process basin and only the at least one pump each is active for a flow direction.
A monitoring device comprising: an inspection unit that is configured to inspect a redirect code inserted into content of one or more compromised websites; an addition unit that is configured to add, in accordance with a result of the inspection, when information of a new website is described in the redirect code in the content of at least any of the websites, information of the website to a blacklist; and characterized by an unregistration unit that is configured to unregister from the blacklist, in accordance with a result of the inspection, information of a website, that is no longer described in the redirect code in the content of any website among the websites to be inspected and which has been described in the redirect code in the content of any website among the websites to be inspected for a shorter period of time than information of other websites described in the redirect code in the content of any website among the websites to be inspected, by referring to the result of the inspection indicated by a malicious website existence confirmation table which indicates a correspondence between information of a website described in the redirect code and a period of time during which said information of a website is described in the redirect code. an inspection unit that is configured to inspect a redirect code inserted into content of one or more compromised websites; an addition unit that is configured to add, in accordance with a result of the inspection, when information of a new website is described in the redirect code in the content of at least any of the websites, information of the website to a blacklist; and characterized by an unregistration unit that is configured to unregister from the blacklist, in accordance with a result of the inspection, information of a website, that is no longer described in the redirect code in the content of any website among the websites to be inspected and which has been described in the redirect code in the content of any website among the websites to be inspected for a shorter period of time than information of other websites described in the redirect code in the content of any website among the websites to be inspected, by referring to the result of the inspection indicated by a malicious website existence confirmation table which indicates a correspondence between information of a website described in the redirect code and a period of time during which said information of a website is described in the redirect code.
Heterostructure (200, 400, 400', 500'), in particular a piezoelectric structure, comprising a cover layer (220, 420, 520), in particular a layer of piezoelectric material, the cover layer (220, 420, 520) having a first coefficient of thermal expansion, assembled to a support substrate (210, 410, 510), the support substrate (210, 410, 510) having a second coefficient of thermal expansion substantially different from the first coefficient of thermal expansion, wherein at least one of the coefficients of thermal expansion shows strong anisotropy, at an interface, wherein the cover layer (220, 420, 520) comprises at least a recess (240, 340, 440, 540) extending from the interface into the cover layer (220, 420, 520), characterised in that the support substrate (210, 410, 510) comprises a functional layer adjacent to the interface, wherein the functional layer is a highly resistive layer providing the support substrate (210, 410, 510) with electrical resistivity higher than 1kOhm/cm, preferentially higher than 5 kOhm/cm.
A flat panel OLED device comprising: (a) a transparent deformable substrate having first and second sides and defining a predetermined illumination region and a non-illumination region; (b) a moisture-sensitive OLED disposed over the first side of the transparent substrate within the illumination region and means for applying electrical signals to the OLED which causes the OLED to produce light and heat; (c) a protective layer disposed over the OLED; and (d) a flexible encapsulating foil disposed over the protective layer, but not attached thereto, characterized by (e) a rigid chassis structure operatively associated with the transparent deformable substrate for dissipating the heat and providing rigidity to the transparent deformable substrate; and a desiccant layer provided over the periphery of the protective layer between the protective layer and the encapsulating foil and not provided over a central region of the protective layer. (a) a transparent deformable substrate having first and second sides and defining a predetermined illumination region and a non-illumination region; (b) a moisture-sensitive OLED disposed over the first side of the transparent substrate within the illumination region and means for applying electrical signals to the OLED which causes the OLED to produce light and heat; (c) a protective layer disposed over the OLED; and (d) a flexible encapsulating foil disposed over the protective layer, but not attached thereto, characterized by (e) a rigid chassis structure operatively associated with the transparent deformable substrate for dissipating the heat and providing rigidity to the transparent deformable substrate; and
A communication system comprising: a first communication apparatus and a second communication apparatus; the first communication apparatus including: a first communication part; a first storage part configured to store hopping pattern data denoting a hopping pattern of frequencies for data communication between the first and second communication apparatus; and a first control part configured to switch the frequencies for data communication via the first communication part in accordance with the hopping pattern; the second communication apparatus including: a second communication part; a second storage part configured to store the hopping pattern data; and a second control part configured to switch the frequencies for data communication via the second communication part in accordance with the hopping pattern; characterized in that the first communication part is configured to transmit a signal to the second communication part over a period where data communication is not performed, at frequencies different from those of the hopping pattern; and the second control part is configured to determine a new hopping pattern on the basis of reception quality of the signal received by the second communication part. a first communication part; a first storage part configured to store hopping pattern data denoting a hopping pattern of frequencies for data communication between the first and second communication apparatus; and a first control part configured to switch the frequencies for data communication via the first communication part in accordance with the hopping pattern; the second communication apparatus including: a second communication part; a second storage part configured to store the hopping pattern data; and a second control part configured to switch the frequencies for data communication via the second communication part in accordance with the hopping pattern; characterized in that the first communication part is configured to transmit a signal to the second communication part over a period where data communication is not performed, at frequencies different from those of the hopping pattern; and the second control part is configured to determine a new hopping pattern on the basis of reception quality of the signal received by the second communication part. a second communication part; a second storage part configured to store the hopping pattern data; and a second control part configured to switch the frequencies for data communication via the second communication part in accordance with the hopping pattern; characterized in that the first communication part is configured to transmit a signal to the second communication part over a period where data communication is not performed, at frequencies different from those of the hopping pattern; and the second control part is configured to determine a new hopping pattern on the basis of reception quality of the signal received by the second communication part.
An optical limiter (200, 300, 400, 500, 600, 700, 800, 900) for limiting radiant flux of an optical source beam, the limiter comprising: an optical control port (221, 321, 421, 521, 631, 731, 831, 931) for illumination by an optical control beam originating from the optical source beam; an optical input port (221, 321, 421, 521, 621, 721, 821, 921) for illumination by an optical transmission beam originating from the optical source beam; and an optical output port (225, 325, 425, 525, 625, 725, 825, 925) for illumination by the optical transmission beam; the optical limiter being characterised in that it further comprises a thermally driven light mill; wherein the light mill is arranged with respect to the optical input port (221, 321, 421, 521, 621, 721, 821, 921), the optical control port (221, 321, 421, 521, 631, 731, 831, 931) and the optical output port (225, 325, 425, 525, 625, 725, 825, 925) such that: illumination of the optical control port (221, 321, 421, 521, 631, 731, 831, 931) by the optical control beam drives the light mill to rotate only when the optical control beam has a radiant flux equal to or in excess of a predetermined radiant flux threshold; and rotation of the light mill causes an area of the optical output port (225, 325, 425, 525, 625, 725, 825, 925) illuminated by the optical transmission beam to change. an optical control port (221, 321, 421, 521, 631, 731, 831, 931) for illumination by an optical control beam originating from the optical source beam; an optical input port (221, 321, 421, 521, 621, 721, 821, 921) for illumination by an optical transmission beam originating from the optical source beam; and an optical output port (225, 325, 425, 525, 625, 725, 825, 925) for illumination by the optical transmission beam; the optical limiter being characterised in that it further comprises a thermally driven light mill; wherein the light mill is arranged with respect to the optical input port (221, 321, 421, 521, 621, 721, 821, 921), the optical control port (221, 321, 421, 521, 631, 731, 831, 931) and the optical output port (225, 325, 425, 525, 625, 725, 825, 925) such that: illumination of the optical control port (221, 321, 421, 521, 631, 731, 831, 931) by the optical control beam drives the light mill to rotate only when the optical control beam has a radiant flux equal to or in excess of a predetermined radiant flux threshold; and rotation of the light mill causes an area of the optical output port (225, 325, 425, 525, 625, 725, 825, 925) illuminated by the optical transmission beam to change. illumination of the optical control port (221, 321, 421, 521, 631, 731, 831, 931) by the optical control beam drives the light mill to rotate only when the optical control beam has a radiant flux equal to or in excess of a predetermined radiant flux threshold; and rotation of the light mill causes an area of the optical output port (225, 325, 425, 525, 625, 725, 825, 925) illuminated by the optical transmission beam to change.
A process for producing carbon-doped titanium dioxide bronze nanostructures, comprising the steps of: - oxidizing titanium carbide particles to obtain carbon-doped titanium oxide particles, - hydrothermally reacting said carbon-doped titanium oxide particles in an alkaline medium at a temperature of from 100 to 250°C, to obtain carbon-doped alkali metal titanate nanostructures, - treating said carbon-doped alkali metal titanate nanostructures with diluted strong inorganic acid solution to obtain carbon-doped hydrogen titanate nanostructures, and - calcinating said carbon-doped hydrogen titanate nanostructures at a temperature of from 200 to 400°C to obtain said carbon-doped titanium bronze nanostructures. - oxidizing titanium carbide particles to obtain carbon-doped titanium oxide particles, - hydrothermally reacting said carbon-doped titanium oxide particles in an alkaline medium at a temperature of from 100 to 250°C, to obtain carbon-doped alkali metal titanate nanostructures, - treating said carbon-doped alkali metal titanate nanostructures with diluted strong inorganic acid solution to obtain carbon-doped hydrogen titanate nanostructures, and - calcinating said carbon-doped hydrogen titanate nanostructures at a temperature of from 200 to 400°C to obtain said carbon-doped titanium bronze nanostructures.
A method for determining a preforming shape of a blank in a case where the blank, after being formed into the preforming shape by plastic deformation, is plastically deformed into a final shape from the preforming shape, the method comprising: determining the preforming shape so that, in each of cross sections taken at a plurality of positions in the final shape, a ratio of a cross-sectional line length in one of the cross sections in the preforming shape to a cross-sectional line length in the same cross section in the final shape falls within a predetermined tolerance range of 0.8 times to 1.2 times; characterized in that: the plurality of positions at which the cross sections are taken are determined so as to be in a radial form within a peripheral border line of a forming area of the final shape, wherein an internal set point is determined in a forming area of the final shape, a plurality of lines (CA 1 - CA 8) that pass the internal set point and extend in directions different from one another are determined, and the plurality of cross sections are determined at positions of the determined plurality of lines. the plurality of positions at which the cross sections are taken are determined so as to be in a radial form within a peripheral border line of a forming area of the final shape, wherein an internal set point is determined in a forming area of the final shape, a plurality of lines (CA 1 - CA 8) that pass the internal set point and extend in directions different from one another are determined, and the plurality of cross sections are determined at positions of the determined plurality of lines.
A compound or a salt thereof for use in a method for preventing or treating cancer in which the amount of a functional protein produced by an artificial gene construct is altered, wherein the method comprises administering to a subject the compound or salt thereof, wherein the subject comprises a cell expressing a precursor RNA transcript encoded by or transcribed from the artificial gene construct, wherein the artificial gene construct comprises: (a) a DNA sequence encoding exons and one, two or more introns of a gene, wherein a nucleotide sequence encoding an exon or a 5' splice site, which is upstream of a nucleotide sequence encoding a branch point and a nucleotide sequence encoding a 3' splice site, is modified to introduce a nucleotide sequence encoding a REMS, wherein the REMS comprises the sequence GAgtrngn (SEQ ID NO: 5) in the DNA sequence, wherein r is A or G and n is any nucleotide; or (b) an RNA sequence comprising exons and one, two or more introns of a gene, wherein an exon or a 5' splice site, which is upstream of a branch point and a 3' splice site, has been modified to introduce a REMS, wherein the REMS comprises the sequence GAgurngn (SEQ ID NO: 1), wherein r is A or G and n is any nucleotide; wherein the compound is
An LED rotary type built-in power source lamp, comprising a lamp tube, a power source component, a lamp panel component, upper tube holders and lower tube holders; two upper tube holders and two lower tube holders are provided; each upper tube holder is symmetrically provided with lamp pins; the power source component and lamp panel component are located in the lamp tube; two lower tube holders are respectively sleeved on both ends of the lamp tube, the outer side of each lower tube holder is nested with an upper tube holder, characterized in that a pin header is provided between said power source component and the lamp panel component for electrically connecting the power source component with the lamp panel component, said power source component is located on the upper end of said lamp panel component, four sets of pins conducting correspondingly on both sides are provided on the pin header; the power source component and the lamp panel component are all provided with four jacks welded with the pins and all conducted with the corresponding electric connecting circuit; open ends of said two upper tube holders are all provided with two position-adjusting bosses and two limit bosses, the two position-adjusting bosses and two limit bosses are all symmetrically arranged and cross distributed along the open end of the upper tube holders; clapboards are provided in said two lower tube holders; the joint parts between the clapboards and the inner walls of the lower tube holders are provided with six position-adjusting stops and two limit stops, the six position-adjusting stops and two limit stops are distributed in a 45° ring along the inner wall of the lower tube holders, and six position-adjusting stops are pairwise symmetrically arranged, two limit stops are symmetrically arranged; the position-adjusting stop and limit stop cooperate with the position-adjusting boss and the limit boss on the open ends of the upper tube holders; wiring holes are provided on the clapboards; limit pins are provided on said limit bosses, the limit stops are L-shaped and the spacing from the joint part between the horizontal part and the longitudinal part thereof to the inner wall of the lower tube holders is greater than the thickness of the position-adjusting bosses and smaller than the extending length of the limit pins extending on the limit bosses; the height of the limit stops is higher than the height of the position-adjusting stops; the upper tube holders are drawn out from the position-adjusting stops and the drawing distance is greater than the height of the position-adjusting stops and lower than the height of the limit stops; said upper tube holders and lower tube holders are fixed via tightening elements connecting with reset elements; stepped mounting holes are provided in the upper tube holders, fixing holes coaxial with the stepped mounting holes are provided on the clapboards of the lower tube holders; the tightening elements connecting with reset elements run through the stepped mounting holes and cooperate with the fixing holes, the reset elements are located in the stepped mounting holes.
Nuclear reactor comprising a core area and a shell area and wherein the reactor is composed of a plurality of separate and individual nuclear reactor circuits or modules, each circuit comprising a loop, wherein the loop is capable of containing a liquid containing, and optionally circulating, fertile and/or fissile materials as a nuclear fuel, wherein the loop contains a, preferably substantially straight, channel that is part of the loop and that is arranged in a substantial vertical arrangement, wherein the channel provides an up-and-down passage (4a,4b) for the liquid in the loop wherein each of the channels of the plurality of circuits is arranged in the core area and wherein each separate and individual nuclear reactor circuit is independently removable from the nuclear reactor. a loop, wherein the loop is capable of containing a liquid containing, and optionally circulating, fertile and/or fissile materials as a nuclear fuel, wherein the loop contains a, preferably substantially straight, channel that is part of the loop and that is arranged in a substantial vertical arrangement, wherein the channel provides an up-and-down passage (4a,4b) for the liquid in the loop wherein each of the channels of the plurality of circuits is arranged in the core area and wherein each separate and individual nuclear reactor circuit is independently removable from the nuclear reactor.
A seal ring, comprising: a first side surface; a second side surface being a side surface on a side opposite to the first side surface; and a first side-surface side projecting portion formed on the first side surface, characterized in that a distal end portion of the first side-surface side projecting portion projects most toward an outward side from the first side surface as compared to an entire surface of the first side surface except for the distal end portion, and in that a sectional shape of a cross section of the seal ring, which is orthogonal to a circumferential direction, is asymmetric with respect to a radial center line (Dc) that divides the sectional shape into two sides corresponding to one side and another side of a center axis of the seal ring, and wherein a width of an inner peripheral surface of the seal ring in a direction parallel to the center axis is smaller than a width of an outer peripheral surface of the seal ring. a first side surface; a second side surface being a side surface on a side opposite to the first side surface; and a first side-surface side projecting portion formed on the first side surface, characterized in that a distal end portion of the first side-surface side projecting portion projects most toward an outward side from the first side surface as compared to an entire surface of the first side surface except for the distal end portion, and in that a sectional shape of a cross section of the seal ring, which is orthogonal to a circumferential direction, is asymmetric with respect to a radial center line (Dc) that divides the sectional shape into two sides corresponding to one side and another side of a center axis of the seal ring, and wherein a width of an inner peripheral surface of the seal ring in a direction parallel to the center axis is smaller than a width of an outer peripheral surface of the seal ring.