mhurhangee/ep-ind-claims huggingface dataset:
A retaining device (101,201,301) for mounting a structure to a panel body of a vehicle, comprising: a head member (105,205) having an upper surface defining an upper plane, a lower surface defining a lower plane, said upper and lower surface being spaced apart by a predetermined thickness; a shank (106,206,306), having a proximal end portion and a distal end portion; and an engagement member (137,237) provided at said proximal end portion of said shank (106,206,306) at a location spaced apart from said head member (105,205) towards said distal end portion, adapted to cooperate with said head member (105,205) so as to retainingly engage the structure, during use, characterised in that said shank (106,206,306) extends away from said lower surface of said head member (105,205) along a longitudinal axis in a direction that is not normal to said lower plane. a head member (105,205) having an upper surface defining an upper plane, a lower surface defining a lower plane, said upper and lower surface being spaced apart by a predetermined thickness; a shank (106,206,306), having a proximal end portion and a distal end portion; and an engagement member (137,237) provided at said proximal end portion of said shank (106,206,306) at a location spaced apart from said head member (105,205) towards said distal end portion, adapted to cooperate with said head member (105,205) so as to retainingly engage the structure, during use,
A downlink signal sending method, wherein the method comprises: indicating, by a transmit end device, position information of a first signal and/or a second signal in time domain by using a third signal, wherein a position of the third signal is generated based on the position information of the first signal and/or the second signal in time domain; determining, by the transmit end device, a sequence of the third signal based on the position information of the first signal and/or the second signal in time domain, and performing scrambling by using a cell identity; and sending a frame comprising the first signal, the second signal and the third signal. indicating, by a transmit end device, position information of a first signal and/or a second signal in time domain by using a third signal, wherein a position of the third signal is generated based on the position information of the first signal and/or the second signal in time domain; determining, by the transmit end device, a sequence of the third signal based on the position information of the first signal and/or the second signal in time domain, and performing scrambling by using a cell identity; and sending a frame comprising the first signal, the second signal and the third signal.
Device for reconstructing a spinous process comprising a main portion presenting at least a first engaging hole and at least one through-seat for the insertion of ligaments to be reconstructed, one fixing bar transversely insertable into said engaging hole and which can be fixed to the cervical and/or spinal vertebrae, so that said main portion can be positioned itself in correspondence of the spinous process of the vertebrae to be rebuilt in order to replace it; characterized in that said fixing bar is realized in a single body and that said main portion comprising an enlarged area in correspondence of the engaging hole for the fixing bar and a narrow area positioned at the opposite end; the enlarged area degrades continuously in the narrow area conferring to the main portion a tapered shape.
Full-cone nozzle, comprising a nozzle housing and a swirl insert (20; 44; 56; 68; 82; 92; 106; 112; 122; 128; 140; 150; 160), wherein said swirl insert (20; 44; 56; 68; 82; 92; 106; 112; 122; 128; 140; 150; 160) has at its outer periphery at least one swirl duct (22, 24; 45, 47; 60, 66; 70, 71; 82, 83; 94; 108, 110; 114, 118, 116; 134, 136; 146, 148; 152, 154; 162, 164, 166), which extends, in a swirl portion (40; 48; 62; 72; 86), helically or at an angle relative to a longitudinal center axis of said swirl insert, wherein said nozzle housing has an outlet chamber including a discharge orifice, wherein said outlet chamber is disposed downstream of said swirl insert (20; 44; 56; 68; 82; 92; 106; 112; 122; 128; 140; 150; 160), and wherein a downstream end face of the swirl insert is provided with a recess (26; 52; 66; 76; 90; 104; 124; 130; 142) disposed substantially centrally with respect to said swirl insert, wherein said recess partially intersects said swirl duct, characterized in that the at least one swirl duct (22, 24; 45, 47; 60, 66; 70, 71; 82, 83; 94; 108, 110; 114, 118, 116; 134, 136; 146, 148; 152, 154; 162, 164, 166) extends in the axial direction in an outlet portion (42; 50; 64; 74; 88) extending from one end of the swirl portion up to the downstream end of said swirl duct.
An image forming apparatus, comprising: an image bearer to bear a toner image on a surface of the image bearer; a nip forming device to contact the image bearer to form a transfer nip between the nip forming device and the image bearer and interpose a recording medium therebetween to transfer the toner image from the image bearer onto the recording medium in the transfer nip; a contact-and-separation device to move the image bearer and the nip forming device to contact and separate from each other; a thickness information retrieving device to obtain information on a thickness of the recording medium; characterised by a controller to control the contact-and-separation device based on the information on the thickness of the recording medium such that in a case in which a thickness of a preceding recording medium and a thickness of a successive recording medium are different in continuous printing in which a plurality of recording media is printed out continuously, the contact-and-separation device adjusts a space between the image bearer and the nip forming device after the toner image is transferred onto the recording medium and before the trailing edge of the preceding recording medium exits the transfer nip to a preset size corresponding to the thickness of the successive recording medium that enters the transfer nip. an image bearer to bear a toner image on a surface of the image bearer; a nip forming device to contact the image bearer to form a transfer nip between the nip forming device and the image bearer and interpose a recording medium therebetween to transfer the toner image from the image bearer onto the recording medium in the transfer nip; a contact-and-separation device to move the image bearer and the nip forming device to contact and separate from each other; a thickness information retrieving device to obtain information on a thickness of the recording medium; characterised by a controller to control the contact-and-separation device based on the information on the thickness of the recording medium such that in a case in which a thickness of a preceding recording medium and a thickness of a successive recording medium are different in continuous printing in which a plurality of recording media is printed out continuously, the contact-and-separation device adjusts a space between the image bearer and the nip forming device after the toner image is transferred onto the recording medium and before the trailing edge of the preceding recording medium exits the transfer nip to a preset size corresponding to the thickness of the successive recording medium that enters the transfer nip.
A processor-implemented method for displaying a chromatogram based on analysis data of a target object in a sample, the chromatogram having a time axis as a horizontal axis and an intensity axis as its vertical axis, the method comprising: creating a chromatogram based on the analysis data by a chromatogram creation section; and displaying the chromatogram; wherein creating the chromatogram comprises: deciding a predetermined time period for which a scale of the time axis is to be altered, in a measurement time period of the analysis data; altering the scale of the time axis for the predetermined time period; and altering the scale of the intensity axis for the predetermined time period so that an area of a peak after the alteration of the scale of the time axis is equal to the area of the peak before the alteration of the scale of the time axis. creating a chromatogram based on the analysis data by a chromatogram creation section; and displaying the chromatogram; wherein creating the chromatogram comprises: deciding a predetermined time period for which a scale of the time axis is to be altered, in a measurement time period of the analysis data; altering the scale of the time axis for the predetermined time period; and altering the scale of the intensity axis for the predetermined time period so that an area of a peak after the alteration of the scale of the time axis is equal to the area of the peak before the alteration of the scale of the time axis. deciding a predetermined time period for which a scale of the time axis is to be altered, in a measurement time period of the analysis data; altering the scale of the time axis for the predetermined time period; and altering the scale of the intensity axis for the predetermined time period so that an area of a peak after the alteration of the scale of the time axis is equal to the area of the peak before the alteration of the scale of the time axis.
A sensor arrangement for detecting at least one physical characteristic parameter of a plurality of threads (10, 20, 30, 40), comprising: a sensor plate having a plurality of thread feedthroughs arranged in a two-dimensional pattern, wherein each thread feedthrough is associated to at least one sensor (11, 21, 31, 41) configured to detect the at least one physical characteristic parameter of a thread (10, 20, 30, 40) fed through the thread feedthrough; characterized by a circuit board having holes, attached to the sensor plate, the circuit board comprising conductive structures for electrically contacting the sensors (11, 21, 31, 41). a sensor plate having a plurality of thread feedthroughs arranged in a two-dimensional pattern, wherein each thread feedthrough is associated to at least one sensor (11, 21, 31, 41) configured to detect the at least one physical characteristic parameter of a thread (10, 20, 30, 40) fed through the thread feedthrough; characterized by a circuit board having holes, attached to the sensor plate, the circuit board comprising conductive structures for electrically contacting the sensors (11, 21, 31, 41).
A nonaqueous electrolytic solution prepared by dissolving an electrolyte salt in a nonaqueous solvent, wherein the nonaqueous electrolytic solution contains at least one kind of an isocyanate compound having an ester structure represented by the following general formula: wherein R represents a C 1 to C 6 alkyl group, a C 2 to C 6 alkenyl group, a C 6 to C 12 aryl group, a C 1 to C 6 alkyloxy group, a C 2 to C 6 alkenyloxy group, a C 2 to C 6 isocyanatoalkyloxy group, or a C 6 to C 12 aryloxy group in which at least one of the hydrogen atom may be substituted with a halogen atom, and X represents a C 1 to C 6 linear or branched alkylene group in which at least one of the hydrogen atom may be substituted with a halogen atom, or a C 2 to C 6 bivalent linking group comprising at least one ether bond. R represents a C 1 to C 6 alkyl group, a C 2 to C 6 alkenyl group, a C 6 to C 12 aryl group, a C 1 to C 6 alkyloxy group, a C 2 to C 6 alkenyloxy group, a C 2 to C 6 isocyanatoalkyloxy group, or a C 6 to C 12 aryloxy group in which at least one of the hydrogen atom may be substituted with a halogen atom, and X represents a C 1 to C 6 linear or branched alkylene group in which at least one of the hydrogen atom may be substituted with a halogen atom, or a C 2 to C 6 bivalent linking group comprising at least one ether bond.
A working vehicle comprising a drive source, drive wheels, a speed change output shaft for outputting rotational power toward the drive wheels, a main speed change structure for changing a speed of rotational power from the drive source and operatively transmitting the resulting rotational power to the speed change output shaft, a speed change operation member, an output sensor for directly or indirectly detecting a rotational speed of the speed change output shaft, and a control device responsible for operational control of the main speed change structure, wherein the main speed change structure includes a continuously variable speed change structure for changing a speed of rotational power operatively input from the drive source in a stepless manner, and a multi-speed speed change structure capable of switching between at least a first power transmission state with a first gear ratio and a second power transmission state with a second gear ratio providing a higher speed than the first gear ratio, the working vehicle being characterized in that, the control device, based on a detection signal of the output sensor, causes the continuously variable speed change structure to be accelerated to a forward travel side in accordance with an accelerating operation of the speed change operation member in a forward travel direction while causing the multi-speed speed change structure to be in a first power transmission state, in a low speed state until the rotational speed of the speed change output shaft reaches a predetermined switching speed; causes the continuously variable speed change structure to be decelerated to a second power transmission state reference speed while causing the multi-speed speed change structure to be changed from the first power transmission state to a second power transmission state, when the rotational speed of the speed change output shaft reaches the switching speed; and causes the continuously variable speed change structure to be accelerated from the second power transmission state reference speed to the forward travel side in accordance with an accelerating operation of the speed change operation member to the forward travel side while causing the multi-speed speed change structure to be in the second power transmission state, in a high speed state in which the rotational speed of the speed change output shaft is higher than the switching speed; and the switching speed is set to exceed a work speed range.
A method of removing one or more metals from a liquid phase and/or gas phase medium containing these metals which comprises the steps of: (a) treating said medium containing metals with a composition comprising a polymer derived from at least two monomers: acrylic-X and an alkylamine, and wherein said acrylic-X has the following formula: wherein the acrylic-X is at least one of the following: methyl acrylate, methyl methacrylate, ethyl acrylate, and ethyl methacrylate, propyl acrylate, and propyl methacrylate, acrylic acid, methacrylic acid, acrylamide and methacrylamide, wherein the alkylamine is PEHA or TEPA or DETA or TETA or EDA, wherein the molecular weight of said polymer is between 1,500 to 8,000, wherein the molar ratio between acrylic-x and alkylamine is from 0.85 to 1.5, and wherein said polymer is modified to contain 55 to 80 mole percent dithiocarbamate salt group capable of scavenging one or more compositions containing one or more metals; and (b) collecting said treated metals; wherein the metals are at least one or a combination of copper, nickel, zinc, lead, mercury, cadmium, silver, iron, manganese, palladium, platinum, strontium, selenium, arsenic, cobalt and gold. (a) treating said medium containing metals with a composition comprising a polymer derived from at least two monomers: acrylic-X and an alkylamine, and wherein said acrylic-X has the following formula: wherein the acrylic-X is at least one of the following: methyl acrylate, methyl methacrylate, ethyl acrylate, and ethyl methacrylate, propyl acrylate, and propyl methacrylate, acrylic acid, methacrylic acid, acrylamide and methacrylamide, wherein the alkylamine is PEHA or TEPA or DETA or TETA or EDA, wherein the molecular weight of said polymer is between 1,500 to 8,000, wherein the molar ratio between acrylic-x and alkylamine is from 0.85 to 1.5, and wherein said polymer is modified to contain 55 to 80 mole percent dithiocarbamate salt group capable of scavenging one or more compositions containing one or more metals; and (b) collecting said treated metals;
A dual-mode system for performing communication using a terminal equipped with first and second units capable of communicating in first and second mobile communication modes, respectively, in a dual-mode environment of a first mobile communication mode and a second mobile communication mode, characterized by: a base station of the first mobile communication mode for communicating with a terminal in the first mobile communication mode and transmits a radio signal in the second mobile communication mode; a base station of the second mobile communication mode for communicating with a terminal in the second mobile communication mode and transmits a radio signal in the first mobile communication mode; and wherein the first unit of the terminal is configured to, while communicating with the base station of the first mobile communication mode in the first mobile communication mode, receive the radio signal of said first mobile communication mode transmitted from the base station of the second mobile communication mode and to determine based upon said radio signal whether the base station of said second mobile communication mode exists, and wherein the second unit of the terminal is configured to, while communicating with the base station of the second mobile communication mode in the second mobile communication mode, receive the radio signal of said second mobile communication mode transmitted from the base station of the first mobile communication mode and to determine based upon said radio signal whether the base station of said first mobile communication mode exists. a base station of the first mobile communication mode for communicating with a terminal in the first mobile communication mode and transmits a radio signal in the second mobile communication mode; a base station of the second mobile communication mode for communicating with a terminal in the second mobile communication mode and transmits a radio signal in the first mobile communication mode; and wherein the first unit of the terminal is configured to, while communicating with the base station of the first mobile communication mode in the first mobile communication mode, receive the radio signal of said first mobile communication mode transmitted from the base station of the second mobile communication mode and to determine based upon said radio signal whether the base station of said second mobile communication mode exists, and wherein the second unit of the terminal is configured to, while communicating with the base station of the second mobile communication mode in the second mobile communication mode, receive the radio signal of said second mobile communication mode transmitted from the base station of the first mobile communication mode and to determine based upon said radio signal whether the base station of said first mobile communication mode exists.
An airfoil (102;402;502;602;702) of a gas turbine engine comprising: a hollow body (102;402;502;602;702) defining at least one airfoil cavity (104;404;504;604) therein, the hollow body (102...702) defining an inner diameter (106;406;506) and an outer diameter (108;408;508;608;708); and a baffle (420;520;620;720) positioned within the at least one airfoil cavity (104...604) and extending over less than an entire length between the inner diameter (106...506) and the outer diameter (108...708), the baffle (420...720) configured to reduce the cross-sectional area within the at least one airfoil cavity, (104...604) such that the cross-sectional area available for the airflow through the airfoil cavity (104...604) is reduced, wherein the at least one airfoil cavity (104...604) includes a first portion (426;526) having a length that is defined by an open cavity having a full cross-sectional area and a second portion (428;528) having a length that is defined by a reduced cross-sectional area, the second portion (428;528) being the length of the baffle (420...720) within the at least one airfoil cavity (104...604), wherein the baffle (420...720) includes a tapered portion (431;731) extending from a point on the baffle (420...720) to a baffle end (430;630;730); characterised by at least one standoff in the second portion (428;528), the standoff configured to position the baffle (420...720) and support the hollow body (102...702), and wherein the at least one standoff is positioned in contact with the tapered portion (431;731). a hollow body (102;402;502;602;702) defining at least one airfoil cavity (104;404;504;604) therein, the hollow body (102...702) defining an inner diameter (106;406;506) and an outer diameter (108;408;508;608;708); and a baffle (420;520;620;720) positioned within the at least one airfoil cavity (104...604) and extending over less than an entire length between the inner diameter (106...506) and the outer diameter (108...708), the baffle (420...720) configured to reduce the cross-sectional area within the at least one airfoil cavity, (104...604) such that the cross-sectional area available for the airflow through the airfoil cavity (104...604) is reduced, wherein the at least one airfoil cavity (104...604) includes a first portion (426;526) having a length that is defined by an open cavity having a full cross-sectional area and a second portion (428;528) having a length that is defined by a reduced cross-sectional area, the second portion (428;528) being the length of the baffle (420...720) within the at least one airfoil cavity (104...604), wherein the baffle (420...720) includes a tapered portion (431;731) extending from a point on the baffle (420...720) to a baffle end (430;630;730); characterised by at least one standoff in the second portion (428;528), the standoff configured to position the baffle (420...720) and support the hollow body (102...702), and wherein the at least one standoff is positioned in contact with the tapered portion (431;731).