mhurhangee/ep-ind-claims huggingface dataset:
An exhaust cleaning catalyst placed in an exhaust path from an internal combustion engine to clean exhaust expelled from the internal combustion engine, the catalyst comprising a porous substrate and a catalyst coating layer formed on the porous substrate, the catalyst coating layer having a carrier and a precious metal catalyst carried by the carrier, wherein the precious metal catalyst is at least one species among Pt, Pd and Rh, the carrier comprising an OSC material that includes at least CeO 2, the catalyst coating layer being constituted in its thickness direction with multiple coating layers that includes at least two layers having different compositions, wherein in its top coating layer forming the uppermost layer that is located at the outermost surface among the multiple coating layers; the CeO 2 content in a top coating layer's upstream portion that includes at least 20 % of the full length of the top coating layer from the exhaust entrance-side end along the exhaust flow direction is less than the CeO 2 content in a top coating layer's downstream portion that includes at least 20 % of the full length of the top coating layer from the exhaust exit-side end along the exhaust flow direction; and the CeO 2 content in the top coating layer's upstream portion is less than the CeO 2 content in a lower coating layer that is closer to the porous substrate than the top coating layer is among the multiple coating layers; and the CeO 2 content per liter of catalyst volume in the entire catalyst coating layer is 10 g/L to 30 g/L. the CeO 2 content in a top coating layer's upstream portion that includes at least 20 % of the full length of the top coating layer from the exhaust entrance-side end along the exhaust flow direction is less than the CeO 2 content in a top coating layer's downstream portion that includes at least 20 % of the full length of the top coating layer from the exhaust exit-side end along the exhaust flow direction; and the CeO 2 content in the top coating layer's upstream portion is less than the CeO 2 content in a lower coating layer that is closer to the porous substrate than the top coating layer is among the multiple coating layers; and
An auxiliary power unit comprising: a load compressor having an impeller; an APU engine adapted to be mechanically engaged to the load compressor to drive the load compressor to provide pneumatic power and to be disengaged therefrom when the need for pneumatic power ceases; a coupling member coupled between the load compressor and APU engine and configured to be controllably moved between an engaged position, in which the APU engine is mechanically engaged with the load compressor, and a disengaged position, in which the APU engine is disengaged from the load compressor; characterised in further comprising; pre-spinning means coupled to the load compressor and configured to selectively pre-spin the impeller; and an APU controller operably coupled to the load compressor, the APU engine, the coupling member, and the pre-spinning means, the APU controller adapted to receive rotational speed signals and configured, in response thereto, to (i) selectively cause the pre-spinning means to pre-spin the impeller to a rotational speed setpoint; and (ii) selectively move the coupling member between the engaged and disengaged positions. a load compressor having an impeller; an APU engine adapted to be mechanically engaged to the load compressor to drive the load compressor to provide pneumatic power and to be disengaged therefrom when the need for pneumatic power ceases; a coupling member coupled between the load compressor and APU engine and configured to be controllably moved between an engaged position, in which the APU engine is mechanically engaged with the load compressor, and a disengaged position, in which the APU engine is disengaged from the load compressor; characterised in further comprising; pre-spinning means coupled to the load compressor and configured to selectively pre-spin the impeller; and an APU controller operably coupled to the load compressor, the APU engine, the coupling member, and the pre-spinning means, the APU controller adapted to receive rotational speed signals and configured, in response thereto, to (i) selectively cause the pre-spinning means to pre-spin the impeller to a rotational speed setpoint; and (ii) selectively move the coupling member between the engaged and disengaged positions.
A secondary battery, comprising: an electrode assembly; a case accommodating the electrode assembly; a cap plate coupled with the case; a terminal electrically connected to the electrode assembly and extending through a terminal hole of the cap plate; an insulating molding resin in the terminal hole and at least one safety member (160, 160a, 160b, 160c, 260, 260a, 260b, 260c, 360, 360a, 360b, 360c, 460, 460a, 460b, 460c, 560, 660, 760, 860, 960, 1060, 1160, 1260) between the terminal and the cap plate, the at least one safety member (160, 160a, 160b, 160c, 260, 260a, 260b, 260c, 360, 360a, 360b, 360c, 460, 460a, 460b, 460c, 560, 660, 760, 860, 960, 1060, 1160, 1260) having an apex with a base and a top smaller than the base, the base being electrically connected to one of the cap plate and the terminal and the top contacting the other of the cap plate and the terminal to electrically connect together the cap plate and the terminal wherein the apex of the at least one safety member (160, 160a, 160b, 160c, 260, 260a, 260b, 260c, 360, 360a, 360b, 360c, 460, 460a, 460b, 460c, 560, 660, 760, 860, 960, 1060, 1160, 1260) is provided by one of a hemisphere, a pyramid, and a trapezoid. an electrode assembly; a case accommodating the electrode assembly; a cap plate coupled with the case; a terminal electrically connected to the electrode assembly and extending through a terminal hole of the cap plate; an insulating molding resin in the terminal hole and at least one safety member (160, 160a, 160b, 160c, 260, 260a, 260b, 260c, 360, 360a, 360b, 360c, 460, 460a, 460b, 460c, 560, 660, 760, 860, 960, 1060, 1160, 1260) between the terminal and the cap plate, the at least one safety member (160, 160a, 160b, 160c, 260, 260a, 260b, 260c, 360, 360a, 360b, 360c, 460, 460a, 460b, 460c, 560, 660, 760, 860, 960, 1060, 1160, 1260) having an apex with a base and a top smaller than the base, the base being electrically connected to one of the cap plate and the terminal and the top contacting the other of the cap plate and the terminal to electrically connect together the cap plate and the terminal wherein the apex of the at least one safety member (160, 160a, 160b, 160c, 260, 260a, 260b, 260c, 360, 360a, 360b, 360c, 460, 460a, 460b, 460c, 560, 660, 760, 860, 960, 1060, 1160, 1260) is provided by one of a hemisphere, a pyramid, and a trapezoid.
A user equipment, comprising: means configured to detect inactivity of a master node; means configured to enter the user equipment into a power saving state, based on the detection of the inactivity of the master node, wherein a signaling radio bearer of a secondary node is pre-configured prior to the entering into the power saving state; and means configured to signal to the secondary node that the user equipment is entering into the power saving state and means configured to activate the signaling radio bearer of the secondary node, at the time of entering the power saving state, wherein the user equipment is in connected mode and has dual connectivity with the master node and the secondary node established. means configured to detect inactivity of a master node; means configured to enter the user equipment into a power saving state, based on the detection of the inactivity of the master node, wherein a signaling radio bearer of a secondary node is pre-configured prior to the entering into the power saving state; and means configured to signal to the secondary node that the user equipment is entering into the power saving state and means configured to activate the signaling radio bearer of the secondary node, at the time of entering the power saving state, wherein the user equipment is in connected mode and has dual connectivity with the master node and the secondary node established.
Paste application device for the storage of two starting components, for the mixing of the starting components to form a paste, and for the application of the paste, comprising a two-component cartridge comprising two internal spaces (16, 18), two feed plungers (12, 14) that can be shifted in the internal spaces (16, 18) and form borders of the internal spaces (16, 18) on a first side of the two-component cartridge, and at least two dispensing openings by means of which the internal spaces (16, 18) are open on a second side of the two-component cartridge that is opposite from the first side, a hollow cylinder made of a plastic material having an open front face and a partially closed front face, in which is situated an axially mobile plunger that has at least two pestles attached to it, whereby the at least two pestles are aligned in the direction of the open front face, whereby the hollow cylinder is arranged such as to touch, by the open front face, axially against the first side of the two-component cartridge and whereby the plunger closes off in gas-tight manner against the internal walls of the hollow cylinder, whereby the two-component cartridge and the hollow cylinder are arranged in a pressure vessel (3, 4), whereby the hollow cylinder comprises, on the partially closed front face, a connector for a compressed gas cartridge that extends through an opening in the pressure vessel (3, 4), whereby a flap valve that can be rotated manually is arranged downstream of the dispensing openings or a dispensing tube can be attached to a flap valve that can be rotated manually, whereby the volume flow of the starting components through the dispensing openings can be regulated with the arranged flat valve, whereby the flap valve can be operated by means of a rod assembly (54, 56) of the paste application device, whereby the rod assembly (54, 56) is supported such as to be mobile in a main direction with respect to the hollow cylinder and is supported in at least one direction that is perpendicular to the main direction with a tolerance of at least 0.3 mm.
A method performed by one or more processors configured with computer-executable instructions, the method comprising: obtaining at least one category click rate of a query, the or each category click rate of the query being a percentage of a number of clicks of a respective category to a number of all categories to which the query belongs, and at least one category click rate of published information, the or each category click rate of the published information being a percentage of a number of clicks of a respective category to a number of all categories to which the published information belongs; calculating a similarity degree between the query and the published information based on the at least one category click rate of the query and the at least one category click rate of the published information; and returning the published information as a successful matching result if the calculated similarity degree is higher than a first threshold. obtaining at least one category click rate of a query, the or each category click rate of the query being a percentage of a number of clicks of a respective category to a number of all categories to which the query belongs, and at least one category click rate of published information, the or each category click rate of the published information being a percentage of a number of clicks of a respective category to a number of all categories to which the published information belongs; calculating a similarity degree between the query and the published information based on the at least one category click rate of the query and the at least one category click rate of the published information; and returning the published information as a successful matching result if the calculated similarity degree is higher than a first threshold.
Prosthetic thermoset warp knit comprising an arrangement of yarns defining at least two faces for said knit, said knit being provided, on each of its faces, with barbs protruding outwards from said face, said knit being characterized in that a first set of yarns forms a chain weave, two other sets of monofilament yarn, each generating barbs from loops protruding outwards from the faces of said knit, namely from a first face for the second set of yarns and from the opposite face for the third set of yarns, and a fourth set of yarns producing the connection between the yarns of the three other yarn sets as weft yarns.
An afterload device (20, 400) for a beating heart during ex vivo examination thereof, whereby in use the heart is provided with a fluid flow to a left or right atrium of the heart and the afterload device is connected to a left or right ventricle of the heart, said afterload device comprising: an inertia device comprising a tube configured to be connected to the ventricle and to enclose a fluid volume providing an inertia; a compliance device arranged after the tube and providing a compliance, said compliance device comprising a rigid body (22, 422) and a membrane tube (24, 424) arranged inside the rigid body for forming an annular space (30, 430) between said rigid body and said membrane tube defining a first medium volume, wherein said membrane is configured to be in contact with said fluid at one side and in contact with said first medium volume at the other side; a first restriction device arranged adjacent the membrane tube and providing a resistance to the fluid flow wherein said first restriction device comprises a central plug and annular slits, which are arranged to be covered by said membrane tube at start of systole for providing a large resistance, and wherein the slits are arranged to be uncovered during the systole for decreasing the resistance, during a single heart beat; and a second restriction device connected at one end to the first medium volume enclosed by said membrane and at another end to a second medium volume, for providing a medium flow resistance to medium flow from said first medium volume to said second medium volume and wherein the second restriction device is a restriction valve. an inertia device comprising a tube configured to be connected to the ventricle and to enclose a fluid volume providing an inertia; a compliance device arranged after the tube and providing a compliance, said compliance device comprising a rigid body (22, 422) and a membrane tube (24, 424) arranged inside the rigid body for forming an annular space (30, 430) between said rigid body and said membrane tube defining a first medium volume, wherein said membrane is configured to be in contact with said fluid at one side and in contact with said first medium volume at the other side; a first restriction device arranged adjacent the membrane tube and providing a resistance to the fluid flow wherein said first restriction device comprises a central plug and annular slits, which are arranged to be covered by said membrane tube at start of systole for providing a large resistance, and wherein the slits are arranged to be uncovered during the systole for decreasing the resistance, during a single heart beat; and a second restriction device connected at one end to the first medium volume enclosed by said membrane and at another end to a second medium volume, for providing a medium flow resistance to medium flow from said first medium volume to said second medium volume and wherein the second restriction device is a restriction valve.
A throat headset system comprising: - an element that is configured to go around a user's neck when the throat headset system is worn; - at least one microphone being connected to the element and configured to be in contact with the user's neck skin or throat when the throat headset system is worn; - a communication unit arranged at the element and connected to the at least one microphone and connectable to a communication device; - at least one earphone connected to the communication unit; the at least one microphone being a microphone of the type that does not require power, voltage or electric energy of a power source for detecting sound waves, characterized by comprising an electric circuit and wherein the at least one earphone is a soundproof earphone and comprises a sound attenuator and a microphone, the microphone being arranged on a side oriented away from a sound channel of the at least one earphone and the at least one earphone being connected to the electric circuit and in that the at least one microphone is a piezoelectric microphone. - an element that is configured to go around a user's neck when the throat headset system is worn; - at least one microphone being connected to the element and configured to be in contact with the user's neck skin or throat when the throat headset system is worn; - a communication unit arranged at the element and connected to the at least one microphone and connectable to a communication device; - at least one earphone connected to the communication unit; the at least one microphone being a microphone of the type that does not require power, voltage or electric energy of a power source for detecting sound waves, characterized by comprising an electric circuit and wherein the at least one earphone is a soundproof earphone and comprises a sound attenuator and a microphone, the microphone being arranged on a side oriented away from a sound channel of the at least one earphone and the at least one earphone being connected to the electric circuit and in that the at least one microphone is a piezoelectric microphone.
User equipment, UE, (102, 700) comprising physical layer circuitry configured to communicate radio frequency, RF, electrical signals directly with one or more separate wireless devices, including means to: receive scheduling control information for multiple component carriers aggregated into a carrier set that includes at least one scheduling component carrier and at least one scheduled component carrier, using the scheduling component carrier in downlink control information, DCI, according to a resource radio control, RRC, signaling protocol, wherein component carriers with the same value of a carrier indicator field, carrierIndicatorField-r13, determine a set of component carriers in the carrier set for simultaneous physical downlink shared channel, PDSCH, scheduling, and a PDSCH transmission of the set of component carriers on an unlicensed spectrum can start from any orthogonal frequency division multiplexing, OFDM, symbol within a downlink sub-frame including an OFDM symbol with symbol index o.
A hydrofoil vehicle (150, 150a, 150b, 150c, 150d, 150e), comprising in combination: a substantially rigid frame having a front section and a rear section, the front section being forward of the rear section in a longitudinal direction; a front foil connected beneath said front section of said frame; a rear foil connected beneath said rear section of said frame; said front foil and said rear foil each having an elongate form extending primarily laterally relative to the longitudinal direction, and with a foil shape and orientation which causes lift when moving forward through water; a propeller (700, 701) located beneath and supported by said frame, said propeller (700, 701) powered by a power source (601, 601g, 603, 601MD, 604) carried by said frame; said power source (601, 601g, 603, 601MD, 604) includes pedal cranks rotatably coupled to said propeller (700, 701) to power said propeller (700, 701) as said pedal cranks rotate, said pedal cranks adapted to be rotated by a human rider carried upon said frame, said propeller (700, 701) coupled to said power source (601, 601g, 603, 601MD, 604) through a drive train therebetween, characterised by said propeller (700, 701) extending forward from portions of said drive train adjacent to said propeller (700, 701); and said propeller (700, 701) being located in front of the leading edge of the rear foil, and said propeller (700, 701) having a rotational axis which is positioned substantially higher than the chord of the rear foil, such that the rear foil itself can protect propeller blades of the propeller (700, 701) from ground strikes. a substantially rigid frame having a front section and a rear section, the front section being forward of the rear section in a longitudinal direction; a front foil connected beneath said front section of said frame; a rear foil connected beneath said rear section of said frame; said front foil and said rear foil each having an elongate form extending primarily laterally relative to the longitudinal direction, and with a foil shape and orientation which causes lift when moving forward through water; a propeller (700, 701) located beneath and supported by said frame, said propeller (700, 701) powered by a power source (601, 601g, 603, 601MD, 604) carried by said frame; said power source (601, 601g, 603, 601MD, 604) includes pedal cranks rotatably coupled to said propeller (700, 701) to power said propeller (700, 701) as said pedal cranks rotate, said pedal cranks adapted to be rotated by a human rider carried upon said frame, said propeller (700, 701) coupled to said power source (601, 601g, 603, 601MD, 604) through a drive train therebetween, characterised by said propeller (700, 701) extending forward from portions of said drive train adjacent to said propeller (700, 701); and said propeller (700, 701) being located in front of the leading edge of the rear foil, and said propeller (700, 701) having a rotational axis which is positioned substantially higher than the chord of the rear foil, such that the rear foil itself can protect propeller blades of the propeller (700, 701) from ground strikes.
Method for operating a motor vehicle, in which an electrical energy store of the motor vehicle is charged, which is designed to store electrical energy for a drive unit of the motor vehicle, wherein at least one electrical heating device of the motor vehicle is supplied with electrical energy by a charging station designed to charge the electrical energy store, wherein heat is applied, by means of the at least one component (26, 28, 30, 32) of a drive train of the motor vehicle, to the at least one electrical heating device, which component is arranged in the power flow between the drive unit and the at least one wheel when at least one drivable wheel of the motor vehicle is driven, characterised in that the at least one electrical heating device is in contact with at least one part of the component (26, 28, 30, 32) arranged in a housing (36, 38) of the component (26, 28, 30, 32), wherein the heat is applied to the at least one part and wherein the at least one electrical heating device is supplied with the electrical energy by the charging station not over the entire period provided for charging the electrical energy store, but only during a part of the period that is used overall for charging the electrical energy store, wherein the heat is applied to the at least one component (26, 28, 30, 32) of the drive train towards the end of the period for charging the electrical energy store, and wherein the at least one electrical heating device is supplied with the electrical energy by the charging station following the charging of the electrical energy store.