mhurhangee/ep-ind-claims huggingface dataset:
A method for isolating and amplifying a subject's mitochondrial deoxyribonucleic acid (mtDNA) comprising steps of: ∘ Identifying the subject's haplogroup from a tissue-biopsy sample that had been collected from the subject. ∘ obtaining a blood plasma sample that had been collected from the subject; ∘ isolating cell-free deoxyribonucleic acid (cfDNA) from the plasma sample; ∘ amplifying the mtDNA within the isolated cfDNA using a polymerase chain reaction with a first primer pair and a second primer pair, wherein the first primer pair consists of SEQ ID NO: 1 and SEQ ID NO: 2, and the second primer pair consists of SEQ ID NO: 3 and SEQ ID NO: 4; ∘ comparing the subject's amplified mtDNA with mtDNA of the subject's haplogroup; ∘ identifying differences between the amplified mtDNA and the subject's haplogroup; and ∘ reporting the identified differences. ∘ Identifying the subject's haplogroup from a tissue-biopsy sample that had been collected from the subject. ∘ obtaining a blood plasma sample that had been collected from the subject; ∘ isolating cell-free deoxyribonucleic acid (cfDNA) from the plasma sample; ∘ amplifying the mtDNA within the isolated cfDNA using a polymerase chain reaction with a first primer pair and a second primer pair, wherein the first primer pair consists of SEQ ID NO: 1 and SEQ ID NO: 2, and the second primer pair consists of SEQ ID NO: 3 and SEQ ID NO: 4; ∘ comparing the subject's amplified mtDNA with mtDNA of the subject's haplogroup; ∘ identifying differences between the amplified mtDNA and the subject's haplogroup; and ∘ reporting the identified differences.
An in vitro method of identifying a target gene for cancer therapy comprising measuring an activity of an unmodified T cell and of a modified T cell; said unmodified T cell and said modified T cell each contacted with a suppressor cell from an irradiated tumor-bearing subject; said modified T cell having a candidate gene knocked-down or knocked-out; wherein said candidate gene is identified as a target gene for cancer therapy if said activity is increased comparing said modified T cell to said unmodified T cell; and wherein said activity is selected from the group consisting of proliferation, cell cycle activation, cell death inhibition, cytokine production, and a cytotoxic activity.
A vacuum source for supplying vacuum to at least a first vacuum drain through conduits using a vacuum source, comprising at least a first and second vacuum pump, characterised in - a control system adapted to detect a consumed airflow, - said control system is further adapted to control the operation of each of said first and second vacuum pumps based on said detected airflow. - a control system adapted to detect a consumed airflow, - said control system is further adapted to control the operation of each of said first and second vacuum pumps based on said detected airflow.
Safety securing device comprising two karabiners intended to receive a securing element, each of said karabiners comprising: • a hook provided with an opening for introducing said element, • a detection means arranged to be able to be activated by introducing said element into said hook, • a door for closing said opening, said door having an open position for receiving said element in said hook and a closed position for holding said element in said hook, • a means for locking said door coupled to a constraint means arranged to activate said locking means when said door is closed, said karabiners being connected together by transmission means respectively connecting the means of detecting of one karabiner to the means of locking of the other karabiner, characterised in that said transmission means are arranged so that the activation of the means of detecting of one karabiner, whichever it may be, causes the deactivation of the means of locking of the other karabiner. • a hook provided with an opening for introducing said element, • a detection means arranged to be able to be activated by introducing said element into said hook, • a door for closing said opening, said door having an open position for receiving said element in said hook and a closed position for holding said element in said hook, • a means for locking said door coupled to a constraint means arranged to activate said locking means when said door is closed,
A seat adjustment mechanism comprising: a first arcuate tilt column; a first lift column; a first tilt slider block detachably engaged to the first lift column and slideably engaged to the first arcuate tilt column for moving the first lift column relative to the first arcuate tilt column between a plurality of tilt positions; and a first lift slider block slideably engaged to the first lift column for moving along the first lift column between a plurality of lift positions independent of the plurality of tilt positions. a first arcuate tilt column; a first lift column; a first tilt slider block detachably engaged to the first lift column and slideably engaged to the first arcuate tilt column for moving the first lift column relative to the first arcuate tilt column between a plurality of tilt positions; and a first lift slider block slideably engaged to the first lift column for moving along the first lift column between a plurality of lift positions independent of the plurality of tilt positions.
A system configured for radar or communications applications, comprising: a wireless, space-fed, phased array of antennas including a plurality of unit cells; a power and control beam transmit unit configured to beam microwave power to illuminate the array of antennas, wherein a command for one of the plurality of unit cells is beamed to the array of antennas; wherein a first one of the unit cells includes: a first one of the antennas (24, 26); a power converter configured to convert the beamed microwave power illuminating the first one of the antennas (24, 26) into direct current and to supply the direct current to components of the first unit cell to power the first unit cell; and a unit cell command interpreter configured to receive the command, determine whether the command is intended for the first unit cell, and relay the command to logic for enabling a phase shift controller of the first antenna. a wireless, space-fed, phased array of antennas including a plurality of unit cells; a power and control beam transmit unit configured to beam microwave power to illuminate the array of antennas, wherein a command for one of the plurality of unit cells is beamed to the array of antennas; wherein a first one of the unit cells includes: a first one of the antennas (24, 26); a power converter configured to convert the beamed microwave power illuminating the first one of the antennas (24, 26) into direct current and to supply the direct current to components of the first unit cell to power the first unit cell; and a unit cell command interpreter configured to receive the command, determine whether the command is intended for the first unit cell, and relay the command to logic for enabling a phase shift controller of the first antenna. a first one of the antennas (24, 26); a power converter configured to convert the beamed microwave power illuminating the first one of the antennas (24, 26) into direct current and to supply the direct current to components of the first unit cell to power the first unit cell; and a unit cell command interpreter configured to receive the command, determine whether the command is intended for the first unit cell, and relay the command to logic for enabling a phase shift controller of the first antenna.
Sensor device configured to be placed on a lateral side of a rail track, the sensor device comprising: - one or more permanent magnets positioned such that the sensor device is mountable on the lateral side of the rail track by magnetic attraction between the magnets and the rail track; and - a housing comprising a base side, a top side opposite the base side, and a mounting side connecting the base side and the top side, characterized in that the mounting side comprises a first, a second and a third contact edge region configured to be in contact with the lateral side of the rail track, and wherein the second contact edge region is positioned outwardly from a first plane extending through both the first contact edge region and the third contact edge region, wherein the second contact edge region is further positioned between a second plane extending parallel to the top side and through the first contact edge region and a third plane extending parallel to the second plane and through the third contact edge region. - one or more permanent magnets positioned such that the sensor device is mountable on the lateral side of the rail track by magnetic attraction between the magnets and the rail track; and - a housing comprising a base side, a top side opposite the base side, and a mounting side connecting the base side and the top side, characterized in that the mounting side comprises a first, a second and a third contact edge region configured to be in contact with the lateral side of the rail track, and wherein the second contact edge region is positioned outwardly from a first plane extending through both the first contact edge region and the third contact edge region, wherein the second contact edge region is further positioned between a second plane extending parallel to the top side and through the first contact edge region and a third plane extending parallel to the second plane and through the third contact edge region.
A method of constructing a spatial tree data structure corresponding to a region, comprising: selecting an area within the region; determining whether the area includes duplicate points, wherein the duplicate points comprise two or more points in the area, and wherein said two or more points being duplicate points if a size encompassing the two or more points calculated as a minimum radius of circumscribed sphere is smaller than a predetermined threshold; if the area includes duplicate points, recording the area information indicating the presence of the duplicate points for the area, and stopping further sub-dividing of the area. selecting an area within the region; determining whether the area includes duplicate points, wherein the duplicate points comprise two or more points in the area, and wherein said two or more points being duplicate points if a size encompassing the two or more points calculated as a minimum radius of circumscribed sphere is smaller than a predetermined threshold; if the area includes duplicate points, recording the area information indicating the presence of the duplicate points for the area, and stopping further sub-dividing of the area.
A method of operating a hybrid electric power plant, the hybrid electric power plant having an internal combustion engine (12; 23), an electric motor and a battery pack, the method comprising: a) absorbing heat generated by the internal combustion engine (12; 23), and b) using the heat absorbed from the internal combustion engine (12; 23) to warm the battery pack, wherein a) comprises circulating a coolant in heat exchange relationship with the internal combustion engine (12; 23), and b) comprises circulating the coolant heated by the internal combustion engine (12; 23) in heat exchange relationship with the battery pack, wherein a) further comprises circulating a liquid coolant through a housing of the internal combustion engine (12; 23), and circulating the coolant heated by the internal combustion engine (12; 23) in heat exchange relationship with the battery pack comprises circulating the liquid coolant around the battery pack, characterized in that b) further comprises controlling the flow of coolant to the battery pack as a function of an environmental temperature. wherein a) comprises circulating a coolant in heat exchange relationship with the internal combustion engine (12; 23), and b) comprises circulating the coolant heated by the internal combustion engine (12; 23) in heat exchange relationship with the battery pack, wherein a) further comprises circulating a liquid coolant through a housing of the internal combustion engine (12; 23), and circulating the coolant heated by the internal combustion engine (12; 23) in heat exchange relationship with the battery pack comprises circulating the liquid coolant around the battery pack, characterized in that b) further comprises controlling the flow of coolant to the battery pack as a function of an environmental temperature.
Water-conducting domestic appliance, except cooking appliances, comprising an appliance housing which provides an appliance compartment and has a loading opening for access to the appliance compartment, comprising an appliance door, mounted so that it can rotate about a pivot axis, for closing the loading opening, and comprising a motor device which is in operative connection with the appliance door and by means of which the appliance door can be transferred from an open position to a closed position closing the loading opening, characterised in that the motor device has a first motor unit and a second motor unit, it being possible for the appliance door to be moved from an open position to an intermediate position by means of the first motor unit and from the intermediate position to the closed position closing the loading opening by means of the second motor unit.
Culinary article comprising a metal cap having a bottom wall and a side wall rising around the bottom wall, said bottom wall having an internal face for cooking food and an external face intended to be arranged in proximity to a heat source, a metal insert being added onto the external face, the metal insert being made of a ferromagnetic material, in such a way that the culinary article is compatible with heating via induction, said cap being a sheet of a stamped or flow-formed aluminium alloy of series 5000, characterised in that said cap is a sheet of aluminium alloy of 5083 grade, and in that the bottom wall has a thickness at least 2 times greater than that of the side wall.
A pixel structure, comprising: a thin film transistor, a MEMS switch, and a quantum dot light emitting diode device; wherein the quantum dot light emitting diode device is a top emission type quantum dot light emitting diode device; wherein the MEMS switch comprises a connecting portion and a switch portion; the connecting portion is directly electrically connected with a drain electrode of the thin film transistor; the switch portion is located on a light emission side of the quantum dot light emitting diode device; wherein the thin film transistor is adapted to control the light emission amount of the outgoing light of the quantum dot light emitting diode device by controlling the switching amplitude of the MEMS switch; and wherein the thin film transistor and the quantum dot light emitting diode device are formed on a substrate, the quantum dot light emitting diode device being adjacent to the thin film transistor. a thin film transistor, a MEMS switch, and a quantum dot light emitting diode device; wherein the quantum dot light emitting diode device is a top emission type quantum dot light emitting diode device; wherein the MEMS switch comprises a connecting portion and a switch portion; the connecting portion is directly electrically connected with a drain electrode of the thin film transistor; the switch portion is located on a light emission side of the quantum dot light emitting diode device; wherein the thin film transistor is adapted to control the light emission amount of the outgoing light of the quantum dot light emitting diode device by controlling the switching amplitude of the MEMS switch; and wherein the thin film transistor and the quantum dot light emitting diode device are formed on a substrate, the quantum dot light emitting diode device being adjacent to the thin film transistor.
A method for preparing a direct methanation catalyst for a synthetic gas, as a method for preparing molybdenum disulfide (MoS 2) series direct methanation catalyst, being characterized in that and including the steps of: pulverizing step for pulverizing precursors containing sulfur and molybdenum to a size less than 10 mesh (2.00 mm); mixing step for mixing a material containing solvent into the precursors pulverized in said pulverizing step; reacting step for preparing a catalyst by disposing said material mixed in said mixing step inside a reactor, and letting it react under the high pressure H 2 gas environment of 10 bar to 200 bar; and activating step for activating the prepared catalyst for activation thereof, wherein the solvent is added 0.01 to 100 parts by weight for 1 part by weight of the precursor. pulverizing step for pulverizing precursors containing sulfur and molybdenum to a size less than 10 mesh (2.00 mm); mixing step for mixing a material containing solvent into the precursors pulverized in said pulverizing step; reacting step for preparing a catalyst by disposing said material mixed in said mixing step inside a reactor, and letting it react under the high pressure H 2 gas environment of 10 bar to 200 bar; and activating step for activating the prepared catalyst for activation thereof, wherein the solvent is added 0.01 to 100 parts by weight for 1 part by weight of the precursor.
A control system for a steering system, comprising: an acceleration module for determining a hand wheel acceleration; a scaling module for determining a rejection command, the rejection command based on the hand wheel acceleration and a road wheel frequency; and a final command module for determining an adjusted assist command based on a normal assist command and the rejection command, characterized in that the acceleration module determines the hand wheel acceleration using an extended state observer, wherein the hand wheel acceleration is determined based on a motor torque command, a hand wheel torque, a motor position, and a motor velocity. an acceleration module for determining a hand wheel acceleration; a scaling module for determining a rejection command, the rejection command based on the hand wheel acceleration and a road wheel frequency; and a final command module for determining an adjusted assist command based on a normal assist command and the rejection command, characterized in that the acceleration module determines the hand wheel acceleration using an extended state observer, wherein the hand wheel acceleration is determined based on a motor torque command, a hand wheel torque, a motor position, and a motor velocity.
A method for controlling a resonance type power converter including a first switching element, an input coil (Lc) having a first end connected to said first switching element and a second end connectable to a DC power supply, a first capacitor (Cs) connected in parallel to the first switching element, a first resonance circuit (L0, C0) having a first side connected to said first switching element and a second end connectable to a load, and a controller configured to control an operation of the first switching element in response to resonance of the first resonance circuit (L0, C0), converting power of said DC power supply to resonant output power for said load by a switching operation of the first switching element, wherein the resonance type power converter further includes a shunt circuit connected in parallel to the first capacitor (Cs), characterized in that the shunt circuit includes a second switching element and a second resonance circuit (L, C1) connected in series to the second switching element S2), the method for controlling the resonance type power converter comprising: shunting a current flowing into the first capacitor (Cs) by controlling the second switching element during a predetermined period within a turn-off period of the first switching element by the controller, so as to restrain the effect on zero-voltage switching operation of the first switching element. a first switching element, an input coil (Lc) having a first end connected to said first switching element and a second end connectable to a DC power supply, a first capacitor (Cs) connected in parallel to the first switching element, a first resonance circuit (L0, C0) having a first side connected to said first switching element and a second end connectable to a load, and a controller configured to control an operation of the first switching element in response to resonance of the first resonance circuit (L0, C0), converting power of said DC power supply to resonant output power for said load by a switching operation of the first switching element, wherein the resonance type power converter further includes a shunt circuit connected in parallel to the first capacitor (Cs), characterized in that the shunt circuit includes a second switching element and a second resonance circuit (L, C1) connected in series to the second switching element S2), the method for controlling the resonance type power converter comprising: shunting a current flowing into the first capacitor (Cs) by controlling the second switching element during a predetermined period within a turn-off period of the first switching element by the controller, so as to restrain the effect on zero-voltage switching operation of the first switching element.
Adapter frame for mounting onto a base, in particular a suction device, a system box and/or a roller board, and for receiving a particle collecting container for a cyclone pre-separator, wherein the adapter frame comprises a rectangular underside and adapter frame peripheral walls (83, 84, 85, 86) extending upwards from the underside, and lower adapter frame coupling means, designed to provide, in a state in which the adapter frame is positioned on the base, a releasable, vertically tension-proof coupling to the base, and wherein the adapter frame on its upper side has a container receptacle for receiving the particle collecting container, the horizontal inner contour of which container receptacle tapers towards the underside, so that the container receptacle is able to receive and horizontally stabilise a particle collecting container having an outer contour tapering downwards.
A suction device for a domestic vacuum cleaner, comprising: - a main casing comprising an air intake part provided with several air passage openings, - a suction motor disposed in the main casing and comprising an air inlet opening located opposite at least a part of the air passage openings provided on the air intake part, the suction motor being configured to generate an air flow through the air passage openings and the air inlet opening, and - a sound absorption element fastened to the main casing and disposed upstream of the air intake part, the sound absorption element being made of porous material and at least partially covering the air passage openings, the sound absorption element comprising a first face (21.1) oriented towards the air passage openings and a second face (21.2) opposite the first face (21.1), characterized in that the sound absorption element includes at least one through orifice which emerges respectively into the first and second faces (21.1, 21.2) of the sound absorption element and which is located opposite at least a part of the air passage openings. - a main casing comprising an air intake part provided with several air passage openings, - a suction motor disposed in the main casing and comprising an air inlet opening located opposite at least a part of the air passage openings provided on the air intake part, the suction motor being configured to generate an air flow through the air passage openings and the air inlet opening, and - a sound absorption element fastened to the main casing and disposed upstream of the air intake part, the sound absorption element being made of porous material and at least partially covering the air passage openings, the sound absorption element comprising a first face (21.1) oriented towards the air passage openings and a second face (21.2) opposite the first face (21.1), characterized in that the sound absorption element includes at least one through orifice which emerges respectively into the first and second faces (21.1, 21.2) of the sound absorption element and which is located opposite at least a part of the air passage openings.