mhurhangee/ep-ind-claims huggingface dataset:
A fusion peptide having MYC activity for use in accelerating an immune response to a viral antigen in an individual, wherein the fusion peptide can transport into the nucleus of a cell and comprises: (a) a transporter peptide sequence that promotes peptide penetration into cells and tissues; and (b) a MYC polypeptide sequence. (a) a transporter peptide sequence that promotes peptide penetration into cells and tissues; and (b) a MYC polypeptide sequence.
An intermediate-pressure-housing type two-stage compressor comprising a low-stage-side compressor and a high-stage-side compressor both provided in a housing, wherein a refrigerant gas compressed to an intermediate pressure in the low-stage-side compressor is discharged inside the housing, and the refrigerant gas compressed to the intermediate pressure is sucked into the high-stage-side compressor to be compressed to a high pressure, wherein the low-stage-side compressor is a rotary compressor provided with a blade partitioning an inside of a cylinder chamber into a suction side and a compression side, and the blade reciprocates in response to rotation of a rotor, characterized in that the blade is formed of a material having a density of 3 g/cm 3 or less so as to reduce inertial force of the blade in consideration of a low back pressure acting on a back surface of the blade, and in that the refrigerant is an HFO refrigerant or a mixed refrigerant including the HFO refrigerant.
A method of producing zirconium metal using a magnesium reductant comprising purified magnesium consisting of magnesium, greater than 1000 up to 3000 ppm zirconium, and incidental impurities, the method comprising: reacting zirconium tetrachloride with the magnesium reductant comprising the purified magnesium, thereby providing reaction products comprising zirconium metal and magnesium chloride salt; and separating at least a portion of the zirconium metal from the reaction products. reacting zirconium tetrachloride with the magnesium reductant comprising the purified magnesium, thereby providing reaction products comprising zirconium metal and magnesium chloride salt; and separating at least a portion of the zirconium metal from the reaction products.
A method of fabricating a superconducting wire, comprising: forming a buffer layer on the substrate, the buffer layer comprising an Al 2 O 3 layer, the Al 2 O 3 layer being formed by reactive magnetron sputtering in which first oxygen gas as reactant gas and a sputtering target made of aluminium metal are used, the Al 2 O 3 layer being formed while being supplied the first oxygen gas at a first concentration, the first concentration being a concentration of the first oxygen gas at which an emission intensity of Al in plasma near a surface of the sputtering target is not less than 25% and not more than 80% of a first reference value, the first reference value being the emission intensity of Al at which the concentration of the first oxygen gas is zero; and forming a superconducting layer above the buffer layer. forming a buffer layer on the substrate, the buffer layer comprising an Al 2 O 3 layer, the Al 2 O 3 layer being formed by reactive magnetron sputtering in which first oxygen gas as reactant gas and a sputtering target made of aluminium metal are used, the Al 2 O 3 layer being formed while being supplied the first oxygen gas at a first concentration, the first concentration being a concentration of the first oxygen gas at which an emission intensity of Al in plasma near a surface of the sputtering target is not less than 25% and not more than 80% of a first reference value, the first reference value being the emission intensity of Al at which the concentration of the first oxygen gas is zero; and forming a superconducting layer above the buffer layer.
A control system, comprising: a control apparatus functioning as a master; and a plurality of slaves which are network-connected to the control apparatus, wherein each of the plurality of slaves is configured to store identification information thereon, and characterized in that: the control apparatus comprises an identification information set means (102, 122) configured to execute a first instruction, in which (i) first identification information indicating a reference slave among the plurality of slaves, (ii) a port name of the reference slave and (iii) second identification information to be set are specified, to set the second identification information to a target slave among the plurality of slaves which is identified by the first identification information and the port name of the reference slave. a control apparatus functioning as a master; and a plurality of slaves which are network-connected to the control apparatus, wherein each of the plurality of slaves is configured to store identification information thereon, and characterized in that: the control apparatus comprises an identification information set means (102, 122) configured to execute a first instruction, in which (i) first identification information indicating a reference slave among the plurality of slaves, (ii) a port name of the reference slave and (iii) second identification information to be set are specified, to set the second identification information to a target slave among the plurality of slaves which is identified by the first identification information and the port name of the reference slave.
An imaging device comprising: a) a first lens module having a first optical axis and including a first lens carrier with a first lens carrier external surface, the first lens carrier having a first coil wound around at least part of the first lens carrier external surface; b) a second lens module having a second optical axis parallel to the first optical axis and including a second lens carrier with a second lens carrier external surface, the second lens carrier having a second coil wound around at least part of the second lens carrier external surface; c) a first plurality of magnets surrounding the first coil; and d) a second plurality of magnets surrounding the second coil, wherein the first and second pluralities of magnets (118a-g) share at least one common magnet and wherein each of the first and second plurality of magnets and each of the first and second coils (110a, 110b) are associated with an auto-focus actuation of the respective lens module (104a, 104b). a) a first lens module having a first optical axis and including a first lens carrier with a first lens carrier external surface, the first lens carrier having a first coil wound around at least part of the first lens carrier external surface; b) a second lens module having a second optical axis parallel to the first optical axis and including a second lens carrier with a second lens carrier external surface, the second lens carrier having a second coil wound around at least part of the second lens carrier external surface; c) a first plurality of magnets surrounding the first coil; and d) a second plurality of magnets surrounding the second coil, wherein the first and second pluralities of magnets (118a-g) share at least one common magnet and wherein each of the first and second plurality of magnets and each of the first and second coils (110a, 110b) are associated with an auto-focus actuation of the respective lens module (104a, 104b).
A surgical device adapter for coupling an end effector to a handle assembly (102, 104, 106, 108) of a surgical instrument, the surgical device adapter comprising: a sensor link assembly (451, 450, 480) engagable by the end effector upon coupling the end effector to the surgical device adapter, said adapter being characterized in that it further comprises; a load link movable by the end effector from a first position to a second position, wherein in the second position the load link locks the sensor link assembly and in the first position releases the sensor link assembly; and a sensor engagable by the sensor link assembly upon proximal movement thereof to signal to the surgical instrument that the end effector has been installed and secured and is releasable by the sensor link assembly upon distal movement thereof to signal to the surgical instrument that the end effector has been removed. a sensor link assembly (451, 450, 480) engagable by the end effector upon coupling the end effector to the surgical device adapter, said adapter being characterized in that it further comprises; a load link movable by the end effector from a first position to a second position, wherein in the second position the load link locks the sensor link assembly and in the first position releases the sensor link assembly; and a sensor engagable by the sensor link assembly upon proximal movement thereof to signal to the surgical instrument that the end effector has been installed and secured and is releasable by the sensor link assembly upon distal movement thereof to signal to the surgical instrument that the end effector has been removed.
Method for the continuous thermal hydrolysis of sludge to be treated, containing organic matter, said method comprising the steps of: dewatering and homogenizing said sludge to be treated to obtain sludge having a dry solids content from over 20% to 35% by weight of dry matter; simultaneously carrying out the injection of recovered steam into said sludge and mixing said sludge with said recovered steam by means of a primary dynamic injector-mixer having a chamber and a blade rotor so as to obtain a primary uniform mixture of pre-heated sludge; conveying said secondary uniform mixture towards a secondary dynamic injector-mixer having a chamber and a blade rotor and simultaneously carrying out the injection of fresh steam into said primary uniform mixture and the mixture of said primary uniform mixture with said fresh steam so as to obtain a uniform secondary mixture of sludge heated to the desired temperature of thermal hydrolysis; conveying said secondary uniform mixture towards a tube reactor under pressure and prompting the essentially plug-type flow of this secondary uniform mixture in said reactor for a residence time that is sufficient and at a temperature that is sufficient to enable the thermal hydrolysis of the organic matter present in this secondary uniform mixture; producing said recovered steam within means for the production of recovered steam from said secondary uniform hydrolyzed mixture obtained at exit from said tube reactor; cooling said secondary uniform mixture when it exits said means for producing recovered steam to a temperature enabling the subsequent digestion of the hydrolyzed organic matter that it contains. dewatering and homogenizing said sludge to be treated to obtain sludge having a dry solids content from over 20% to 35% by weight of dry matter; simultaneously carrying out the injection of recovered steam into said sludge and mixing said sludge with said recovered steam by means of a primary dynamic injector-mixer having a chamber and a blade rotor so as to obtain a primary uniform mixture of pre-heated sludge; conveying said secondary uniform mixture towards a secondary dynamic injector-mixer having a chamber and a blade rotor and simultaneously carrying out the injection of fresh steam into said primary uniform mixture and the mixture of said primary uniform mixture with said fresh steam so as to obtain a uniform secondary mixture of sludge heated to the desired temperature of thermal hydrolysis; conveying said secondary uniform mixture towards a tube reactor under pressure and prompting the essentially plug-type flow of this secondary uniform mixture in said reactor for a residence time that is sufficient and at a temperature that is sufficient to enable the thermal hydrolysis of the organic matter present in this secondary uniform mixture; producing said recovered steam within means for the production of recovered steam from said secondary uniform hydrolyzed mixture obtained at exit from said tube reactor; cooling said secondary uniform mixture when it exits said means for producing recovered steam to a temperature enabling the subsequent digestion of the hydrolyzed organic matter that it contains.
A catalyst system for a flow reactor, comprising at least three catalyst network groups arranged one behind the other in the flow direction, each catalyst network group being formed from at least one catalyst network composed of at least one noble metal wire in each case, and - the first catalyst network group comprising at least one catalyst network composed of at least one first noble metal wire made of a platinum alloy, the platinum alloy consisting of, in addition to impurities, 80-98 wt.% platinum, 2-20 wt.% rhodium, and 0-20 wt.% palladium, - the second catalyst network group comprising at least one catalyst network composed of at least one second noble metal wire made of a palladium alloy, the palladium alloy of the second noble metal wire consisting of, in addition to impurities, 70-97 wt.% palladium, 0-10 wt.% rhodium, and 3-30 wt.% of at least one further metal, the at least one further metal being selected from the group consisting of nickel, tungsten, platinum and gold, and - the third catalyst network group comprising at least one catalyst network composed of at least one third noble metal wire made of a palladium alloy, the palladium alloy of the third noble metal wire consisting of, in addition to impurities, 72-97 wt.% palladium, 0-10 wt.% rhodium, and 3-28 wt.% of at least one further metal, the at least one further metal being selected from the group consisting of nickel, tungsten, platinum and gold, characterized in that - the rhodium content of the noble metal wires of the catalyst network groups decreases or remains constant in the flow direction, and - the palladium content of the noble metal wires of the catalyst network groups increases in the flow direction. - the first catalyst network group comprising at least one catalyst network composed of at least one first noble metal wire made of a platinum alloy, the platinum alloy consisting of, in addition to impurities, 80-98 wt.% platinum, 2-20 wt.% rhodium, and 0-20 wt.% palladium, - the second catalyst network group comprising at least one catalyst network composed of at least one second noble metal wire made of a palladium alloy, the palladium alloy of the second noble metal wire consisting of, in addition to impurities, 70-97 wt.% palladium, 0-10 wt.% rhodium, and 3-30 wt.% of at least one further metal, the at least one further metal being selected from the group consisting of nickel, tungsten, platinum and gold, and - the third catalyst network group comprising at least one catalyst network composed of at least one third noble metal wire made of a palladium alloy, the palladium alloy of the third noble metal wire consisting of, in addition to impurities, 72-97 wt.% palladium, 0-10 wt.% rhodium, and 3-28 wt.% of at least one further metal, the at least one further metal being selected from the group consisting of nickel, tungsten, platinum and gold, - the rhodium content of the noble metal wires of the catalyst network groups decreases or remains constant in the flow direction, and - the palladium content of the noble metal wires of the catalyst network groups increases in the flow direction.
A method for planning a charging of an electrical vehicle, the method comprising: receiving a request for charging from an electrical vehicle at a charging pole; determining a charging time slot for the electrical vehicle based on the request for charging; scheduling the charging time slot for the electrical vehicle; characterized by the steps of predicting a load requirement for the charging pole based on the request for charging and the charging time slot; sending the load requirement to a grid operator supplying the charging pole with electrical power. receiving a request for charging from an electrical vehicle at a charging pole; determining a charging time slot for the electrical vehicle based on the request for charging; scheduling the charging time slot for the electrical vehicle; predicting a load requirement for the charging pole based on the request for charging and the charging time slot; sending the load requirement to a grid operator supplying the charging pole with electrical power.
An electronic device for measuring photoplethysmographic, PPG, signals, the device comprising: a plurality of light emitters (706; 716) comprising a first light emitter and a second light emitter configured to generate a plurality of light paths (721; 729), and a plurality of light sensors (704; 714) comprising a first light sensor and a second light sensor located on the surface of the electronic device and arranged such that a first light path and a second light path of the plurality of light paths (721; 729) have the same separation distance (di), wherein: the first light path is coupled to the first light emitter, and the first light sensor; the second light path is coupled to the second light emitter and the second light sensor; wherein the plurality of light sensors (704; 714) are configured to detect the first and second light paths (721; 729) having the same separation distances (di); wherein the first and second light paths (721; 729) are non-overlapping; and logic coupled to the first and second light sensors (704; 714) and configured to detect a physiological signal from different light information received by the first and second light sensors (704; 714) from the first and second light paths (721; 729). the first light path is coupled to the first light emitter, and the first light sensor; the second light path is coupled to the second light emitter and the second light sensor; wherein the plurality of light sensors (704; 714) are configured to detect the first and second light paths (721; 729) having the same separation distances (di); wherein the first and second light paths (721; 729) are non-overlapping; and logic coupled to the first and second light sensors (704; 714) and configured to detect a physiological signal from different light information received by the first and second light sensors (704; 714) from the first and second light paths (721; 729). wherein the first and second light paths (721; 729) are non-overlapping; and logic coupled to the first and second light sensors (704; 714) and configured to detect a physiological signal from different light information received by the first and second light sensors (704; 714) from the first and second light paths (721; 729).
Method for charging an energy storage device for use in a cleaning appliance, wherein the method has the following steps: providing a charging signal which causes the energy storage device to be charged only up to a predetermined storage charge state, provided that no predetermined cleaning process is imminent, the execution of which requires a higher charging state of the energy storage device than the storage charge state, wherein the storage charge state represents a charge state of the energy storage device at which the energy storage device is charged to approximately 30% of the capacity of the energy storage device; and reading in an energy consumption signal which represents the energy required by the cleaning appliance for a predetermined cleaning cycle; and receiving a charging time signal which represents an established charging time for charging the required energy; and outputting a charging signal using the energy consumption signal, wherein the charging signal causes the energy storage device to be charged depending on the required energy and using the charging time signal. providing a charging signal which causes the energy storage device to be charged only up to a predetermined storage charge state, provided that no predetermined cleaning process is imminent, the execution of which requires a higher charging state of the energy storage device than the storage charge state, wherein the storage charge state represents a charge state of the energy storage device at which the energy storage device is charged to approximately 30% of the capacity of the energy storage device; and reading in an energy consumption signal which represents the energy required by the cleaning appliance for a predetermined cleaning cycle; and receiving a charging time signal which represents an established charging time for charging the required energy; and outputting a charging signal using the energy consumption signal, wherein the charging signal causes the energy storage device to be charged depending on the required energy and using the charging time signal.
Arrangement with a holder with a cover, which holder is fastened in a floor opening of a floor surface (107.1), wherein the holder can be designed to hold an insert, with a passage (22, 122) which, with the holder mounted, forms an access to the floor opening that can be closed by the cover, wherein, with the passage (22, 122) closed, an upper side (106.2) of the cover is arranged in a largely coplanar manner with respect to the floor surface (107.1) having the floor opening, and the holder has a lateral surface (21, 121) which is situated externally with respect to the passage (22, 122) and on which an undercut in the form of a groove (33, 133) is formed in the mounting direction, characterized in that the holder is fastened in a simple manner within the floor opening by an adhesive bond, wherein the groove (33, 133) is an adhesive groove and receives an adhesive for adhesively bonding the holder at its lateral surface (21, 121) to an inner wall (102.1) of the floor opening, and the undercut formed by the groove encompasses the adhesive in such a way that, when the adhesive has set, the holder is securely anchored in the adhesive, and a mounting holding device (27, 127) which is integrally formed on the holder in a non-releasable manner, which mounting holding device comprises a flange formed as a stop such that, with the holder mounted, the underside (30, 130) of the flange (27, 127) bears on the floor surface (107.1), and which mounting holding device can hold the holder in the floor opening during mounting, and in particular during the setting of the adhesive, but is designed to be thin in such a way that it is not finally load-bearing, and wherein a maximum thickness of the flange does not exceed 1 mm.
A button latch for use in a fluid connector, the button latch comprising a button actuator portion (106, 606, 706, 806) for engagement by a user; a latch plate (112, 612, 712, 812) integral with and extending downwardly from the button actuator (106, 606, 706, 806); and a plurality of cantilevered leg springs (118, 120, 122, 618, 620, 718, 720, 818, 820, 822, 824), each leg spring (118, 120, 122, 618, 620, 718, 720, 818, 820, 822, 824) integrally formed with either or both the button actuator (106, 606, 706, 806) or the latch plate (112, 612, 712, 812) and extending from either or both the button actuator (106, 606, 706, 806) or the latch plate (112, 612, 712, 812); wherein the plurality of leg springs (118, 120, 122, 618, 620, 718, 720, 818, 820, 822, 824) comprises two leg springs (118, 120, 718, 720, 818, 820) extending symmetrically downward and inward from laterally opposite corners of the button actuator portion (106, 706, 806); characterized in that the plurality of leg springs (118, 120, 122, 618, 620, 718, 720, 818, 820, 822, 824) further comprises either two leg springs (822, 824) extending downward and angled rearward from laterally opposite sides of the button actuator portion or two leg springs extending downward from laterally opposite sides of the button actuator portion and further curving forward to extend along a length of the button actuator portion toward the latch plate.