mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling a refrigerating appliance, said refrigerating appliance comprising a refrigerating circuit which includes an evaporator and a variable-speed compressor, and at least one compartment (FG, FZ) which is cooled by said refrigerating circuit, said method comprising the steps of: - calculating, for said evaporator, a first compressor request (CPSreqEV) which depends on the evaporator temperature; - calculating, for said at least one compartment (FG, FZ), a second compressor request (CPSreqF) which depends on the compartment temperature; - calculating a total compressor request (CPSreqTOT) wherein: i) if said first compressor request (CPSreqEV) is different from zero, said total compressor request (CPSreqTOT) is the higher one of said first and second compressor requests (CPSreqEV, CPSreqF); ii) if said first compressor request (CPSreqEV) is null, the total compressor request (CPSreqTOT) is given by the second compressor request (CPSreqF) multiplied by a scale factor, said scale factor ranging between 1 and a minimum value (SFmin) given by the ratio between the second compressor request (CPSreqF) and 100; - controlling said variable-speed compressor through said total compressor request (CPSreqTOT). - calculating, for said evaporator, a first compressor request (CPSreqEV) which depends on the evaporator temperature; - calculating, for said at least one compartment (FG, FZ), a second compressor request (CPSreqF) which depends on the compartment temperature; - calculating a total compressor request (CPSreqTOT) wherein: i) if said first compressor request (CPSreqEV) is different from zero, said total compressor request (CPSreqTOT) is the higher one of said first and second compressor requests (CPSreqEV, CPSreqF); ii) if said first compressor request (CPSreqEV) is null, the total compressor request (CPSreqTOT) is given by the second compressor request (CPSreqF) multiplied by a scale factor, said scale factor ranging between 1 and a minimum value (SFmin) given by the ratio between the second compressor request (CPSreqF) and 100; i) if said first compressor request (CPSreqEV) is different from zero, said total compressor request (CPSreqTOT) is the higher one of said first and second compressor requests (CPSreqEV, CPSreqF); ii) if said first compressor request (CPSreqEV) is null, the total compressor request (CPSreqTOT) is given by the second compressor request (CPSreqF) multiplied by a scale factor, said scale factor ranging between 1 and a minimum value (SFmin) given by the ratio between the second compressor request (CPSreqF) and 100; - controlling said variable-speed compressor through said total compressor request (CPSreqTOT).
An elementary antenna comprising a planar radiating device comprising a substantially plane radiating element having a centre, the plane containing the radiating element being defined by a first straight line passing through the centre and a second straight line, perpendicular to the first straight line and passing through the centre, said radiating element comprising a plurality of pairs of excitation points arranged in at least one first quadruplet of excitation points, located at a distance from the first straight line and the second straight line, comprising a first pair consisting of excitation points (1+, 1-) arranged substantially symmetrically by relative to said first straight line and a second pair consisting of excitation points (2+, 2) disposed substantially symmetrically with respect to said second straight line, the elementary antenna comprising a plurality of processing circuits capable of delivering differential excitation signals for exciting the excitation points and/or able to shape signals from the excitation points, each pair of excitation points being coupled to a processing circuit so that the processing circuit is able to excite the pair of excitation points differentially and/or to process differential signals from the pair of points, characterised in that said radiating element comprises a second quadruplet of excitation points located at a distance from the first straight line and the second straight line comprising: - a third pair consisting of excitation points (3+, 3-) disposed substantially symmetrically with respect to said first straight line, the points of the third pair of points (3+, 3-) being arranged the other side of the second straight line with respect to the first pair of excitation points (1+, 1-), - a fourth pair consisting of excitation points (4+, 4-) disposed substantially symmetrically with respect to said second straight line, the points of the fourth pair of points (4+, 4-) being disposed of the other side of the first straight line with respect to the second pair of excitation points (2+, 2-). - a third pair consisting of excitation points (3+, 3-) disposed substantially symmetrically with respect to said first straight line, the points of the third pair of points (3+, 3-) being arranged the other side of the second straight line with respect to the first pair of excitation points (1+, 1-), - a fourth pair consisting of excitation points (4+, 4-) disposed substantially symmetrically with respect to said second straight line, the points of the fourth pair of points (4+, 4-) being disposed of the other side of the first straight line with respect to the second pair of excitation points (2+, 2-).
A computer implemented method for non-invasive estimation of dementia progression, said method comprises: upload a plurality of photos of a subject's head from a plurality of angles; generating at least one dataset of external features of said subject's head from said plurality of photos comprising a pre-processing step of normalising and resizing each photo of said plurality of photos, and rotating each photo of said plurality of photos based on recognizing eyes and shape of said subject's head from said plurality of photos; and wherein said external features are generated from said pre-processed plurality of photos by randomly selecting for each photo an area of pixels, and relating it to another randomly selected area of pixels from the same photo to measure a difference between different parts of each photo to obtain information about small deviations, wherein said process is repeated for a number of random areas for each photo of said plurality of photos; analysing, using photo analysis by a machine learning algorithm trained on training datasets of external features generated from photos of dementia diagnosed subjects' heads and photos of heads of subjects not diagnosed with dementia, said generated external features of said at least one dataset to detect patterns in said external features of the subject's head related to dementia; determining based on said patterns in said external features if said subject has dementia. upload a plurality of photos of a subject's head from a plurality of angles; generating at least one dataset of external features of said subject's head from said plurality of photos comprising a pre-processing step of normalising and resizing each photo of said plurality of photos, and rotating each photo of said plurality of photos based on recognizing eyes and shape of said subject's head from said plurality of photos; and wherein said external features are generated from said pre-processed plurality of photos by randomly selecting for each photo an area of pixels, and relating it to another randomly selected area of pixels from the same photo to measure a difference between different parts of each photo to obtain information about small deviations, wherein said process is repeated for a number of random areas for each photo of said plurality of photos; analysing, using photo analysis by a machine learning algorithm trained on training datasets of external features generated from photos of dementia diagnosed subjects' heads and photos of heads of subjects not diagnosed with dementia, said generated external features of said at least one dataset to detect patterns in said external features of the subject's head related to dementia; determining based on said patterns in said external features if said subject has dementia.
A method for preparing a compound represented by General Formula: wherein, n is 1 or 2, and M is NH 4 +, alkali metal ion, alkaline earth metal ion or transition metal ion; the method comprises the following steps: (a) in an inert solvent, subjecting the compound of Formula to the catalytic hydrogenation and reducing with metal hydride reducing agent by "one-pot method" to obtain the compound of Formula; (b) salifying compound of Formula and crystallizing in a solvent to obtain the compound of Formula; wherein, R 1 and R 2 are both hydrogen, or R 1 is hydrogen, and R 2 is hydroxyl. wherein, n is 1 or 2, and M is NH 4 +, alkali metal ion, alkaline earth metal ion or transition metal ion; the method comprises the following steps: (a) in an inert solvent, subjecting the compound of Formula to the catalytic hydrogenation and reducing with metal hydride reducing agent by "one-pot method" to obtain the compound of Formula; (b) salifying compound of Formula and crystallizing in a solvent to obtain the compound of Formula; (a) in an inert solvent, subjecting the compound of Formula to the catalytic hydrogenation and reducing with metal hydride reducing agent by "one-pot method" to obtain the compound of Formula; (b) salifying compound of Formula and crystallizing in a solvent to obtain the compound of Formula; wherein, R 1 and R 2 are both hydrogen, or R 1 is hydrogen, and R 2 is hydroxyl.
A process for producing halogenated alkanes, the process comprising: a. forming a reaction mixture in a reactor by contacting: a liquid phase comprising a halogenated methane comprising at least one chlorine atom, at least one phosphorus containing compound comprising a trialkylphosphate, a trialkylphosphite, or combinations thereof; and at least one catalyst comprising a metal, metal salt, or combinations thereof; an alkene, halogenated alkene, or combinations thereof, thereby forming a reaction mixture; wherein the alkene, halogenated alkene, or combinations thereof is at least partially absorbed into the liquid phase; b. stirring the reaction mixture; c. heating the reaction mixture; and d. producing halogenated alkanes and heavy by-products; wherein there is a gas phase above the reaction mixture and wherein the order of steps b. and c. may be switched or conducted at the same time; and wherein stirring the reaction mixture comprises jet mixing. a. forming a reaction mixture in a reactor by contacting: a liquid phase comprising a halogenated methane comprising at least one chlorine atom, at least one phosphorus containing compound comprising a trialkylphosphate, a trialkylphosphite, or combinations thereof; and at least one catalyst comprising a metal, metal salt, or combinations thereof; an alkene, halogenated alkene, or combinations thereof, thereby forming a reaction mixture; wherein the alkene, halogenated alkene, or combinations thereof is at least partially absorbed into the liquid phase; b. stirring the reaction mixture; c. heating the reaction mixture; and d. producing halogenated alkanes and heavy by-products;
A Hybrid Automatic Repeat reQuest, HARQ, feedback method for multicast communication, being performed by a User Equipment, UE, which receives a Sidelink Control Information, SCI, and comprising: in response to a failure to decode the SCI, monitoring HARQ feedback informations of other UEs in a group; determining, according to the HARQ feedback informations of the other UEs in the group, whether or not a HARQ-Negative ACKnowledgment, HARQ-NACK, feedback information or a data request information needs to be sent; and if the HARQ-NACK feedback information or the data request information needs to be sent, sending the HARQ-NACK feedback information or the data request information on a preset resource. in response to a failure to decode the SCI, monitoring HARQ feedback informations of other UEs in a group; determining, according to the HARQ feedback informations of the other UEs in the group, whether or not a HARQ-Negative ACKnowledgment, HARQ-NACK, feedback information or a data request information needs to be sent; and if the HARQ-NACK feedback information or the data request information needs to be sent, sending the HARQ-NACK feedback information or the data request information on a preset resource.
A trochoid pump with an air ejection port, comprising: a casing; an outer rotor, rotatably arranged in the casing; and an inner rotor, rotatably arranged inside the outer rotor to perform sucking and pressure-feeding of an oil in cooperation with the outer rotor; the trochoid pump being characterized in that the casing includes: a suction port through which the oil is sucked in a sucking process, an air ejection port through which a part of air-mixed oil is ejected in an air ejecting process subsequent to the sucking process, and a discharge port through which the oil is discharged in a discharging process subsequent to the air ejecting process; the air ejection port including: a first air ejection port (22 -1) provided on an inner peripheral side from an inscribed circle of the outer rotor, and a second air ejection port (22 -2) provided on an outer peripheral side from a circumscribed circle of the inner rotor. a casing; an outer rotor, rotatably arranged in the casing; and an inner rotor, rotatably arranged inside the outer rotor to perform sucking and pressure-feeding of an oil in cooperation with the outer rotor; the trochoid pump being characterized in that the casing includes: a suction port through which the oil is sucked in a sucking process, an air ejection port through which a part of air-mixed oil is ejected in an air ejecting process subsequent to the sucking process, and a discharge port through which the oil is discharged in a discharging process subsequent to the air ejecting process; the air ejection port including: a first air ejection port (22 -1) provided on an inner peripheral side from an inscribed circle of the outer rotor, and a second air ejection port (22 -2) provided on an outer peripheral side from a circumscribed circle of the inner rotor.
A photorefraction ocular screening device, comprising an image capture component coupled to a lens component, a lighting array, said lighting array comprising a plurality of irradiation sources of a first type and a plurality of irradiation sources of a second type, wherein said plurality of irradiation sources of said first type emit light in a visible light spectrum and comprise differently colored LEDs, and said plurality of irradiation sources of said second type emit light in a near-infrared light spectrum, and a beam splitter to direct light emitted from said plurality of irradiation sources of said first type and said plurality of irradiation sources of said second type, said plurality of irradiation sources of said first type being arranged in three concentric rings, characterized in that each of the three concentric rings is comprised of more than one differently colored LEDs spaced apart in a random pattern.
An aircraft wheel, comprising: an inboard wheel portion (230; 330; 430) having an inboard rim located opposite of an inboard tubewell, the inboard tubewell having an inboard mating surface (336; 436) on the inboard tubewell; an at least one inboard O-ring groove formed as a recess located on an outer edge of the inboard mating surface (336; 436); an outboard wheel portion (240; 340; 440) having an outboard rim located opposite of an outboard tubewell, the outboard tubewell having an outboard mating surface (346; 446) on the outboard tubewell, wherein the outboard mating surface (346; 446) is configured to removably couple to the inboard mating surface (336; 436); and an at least one outboard register protruding axially along the axial direction of the wheel beyond the outboard mating surface (346; 446); and characterized by the at least one outboard register having a recess on its radially inner surface formed in a partially oval shape and being configured to align with the inboard O-ring groove to form a single resulting groove configured to fit an O-ring when the inboard mating surface (336; 436) is coupled to the outboard mating surface (346; 446). an inboard wheel portion (230; 330; 430) having an inboard rim located opposite of an inboard tubewell, the inboard tubewell having an inboard mating surface (336; 436) on the inboard tubewell; an at least one inboard O-ring groove formed as a recess located on an outer edge of the inboard mating surface (336; 436); an outboard wheel portion (240; 340; 440) having an outboard rim located opposite of an outboard tubewell, the outboard tubewell having an outboard mating surface (346; 446) on the outboard tubewell, wherein the outboard mating surface (346; 446) is configured to removably couple to the inboard mating surface (336; 436); and an at least one outboard register protruding axially along the axial direction of the wheel beyond the outboard mating surface (346; 446); and characterized by the at least one outboard register having a recess on its radially inner surface formed in a partially oval shape and being configured to align with the inboard O-ring groove to form a single resulting groove configured to fit an O-ring when the inboard mating surface (336; 436) is coupled to the outboard mating surface (346; 446).
A method for preparing a carbohydrate T cell epitope conjugate of formula: M(T-B) n wherein: - M is a dendrimeric poly-Lysine core; - T is a T cell epitope; - B is a carbohydrate B cell epitope comprising at least one carbohydrate residue (b); - n is an integer and represents the number of -T-B groups covalently bonded to M; Said method comprising the steps of: i) coupling a protected carbohydrate B cell epitope (B Pr) which hydroxyl groups of the carbohydrate residue (b) are protected with a protecting group (Pr), with a compound M n thereby forming a carbohydrate T cell epitope conjugate M(T-B Pr) n, said protecting group (Pr) being selected from the group consisting of allyl, p- methoxybenzyl, t-butyldimethylsilyl (TBDMS), benzyloxymethyl, levulinyl (Lev), benzoyl (Bz), 2,5-difluorobenzoyl, chloroacetyl, benzyl (Bn) or an acetyl (Ac), or forming with two hydroxyl groups to which it is attached a C 5 -C 6 isopropylidene ketal or a C 5 -C 6 cyclic alkylcarbonate; and ii) removing the protecting groups Pr from the obtained conjugate M(T-B Pr) n thereby obtaining the carbohydrate T cell epitope conjugate M(T-B) n. - M is a dendrimeric poly-Lysine core; - T is a T cell epitope; - B is a carbohydrate B cell epitope comprising at least one carbohydrate residue (b); - n is an integer and represents the number of -T-B groups covalently bonded to M; i) coupling a protected carbohydrate B cell epitope (B Pr) which hydroxyl groups of the carbohydrate residue (b) are protected with a protecting group (Pr), with a compound M n thereby forming a carbohydrate T cell epitope conjugate M(T-B Pr) n, said protecting group (Pr) being selected from the group consisting of allyl, p- methoxybenzyl, t-butyldimethylsilyl (TBDMS), benzyloxymethyl, levulinyl (Lev), benzoyl (Bz), 2,5-difluorobenzoyl, chloroacetyl, benzyl (Bn) or an acetyl (Ac), or forming with two hydroxyl groups to which it is attached a C 5 -C 6 isopropylidene ketal or a C 5 -C 6 cyclic alkylcarbonate; and ii) removing the protecting groups Pr from the obtained conjugate M(T-B Pr) n thereby obtaining the carbohydrate T cell epitope conjugate M(T-B) n.
Inner ring (120, 220, 320) for a guide vane ring for fastening to, in particular adjustable, guide vanes of a turbomachine, in particular of a compressor stage or turbine stage of a gas turbine, the inner ring (120, 220, 320) comprising a plurality of guide vane receptacles (124, 224, 324) which are each arranged spaced from each other in the circumferential direction and are in each case designed for receiving a fastening element of a guide vane, the inner ring (120, 220, 320) comprising, between at least two adjacent guide vane receptacles (124, 224, 324), at least one recess (126, 226, 326) having a wall thickness that is reduced in the radial direction (y) in comparison to a region which adjoins the recess (126, 226, 326) and is outside the recess (126, 226, 326), the recess (126, 226, 326) comprising, in relation to an axis of rotation of the turbomachine in a functionally installed state of the inner ring (120, 220, 320) in a turbomachine, a greater extension in the axial direction (x) than in the circumferential direction characterized in that at least one recess (126, 226, 326) comprises an hourglass-shaped or hourglass-like shaped peripheral contour, in particular in relation to a projection of the peripheral contour of the recess (126, 226, 326) in a tangential plane of the inner ring. the inner ring (120, 220, 320) comprising a plurality of guide vane receptacles (124, 224, 324) which are each arranged spaced from each other in the circumferential direction and are in each case designed for receiving a fastening element of a guide vane, the inner ring (120, 220, 320) comprising, between at least two adjacent guide vane receptacles (124, 224, 324), at least one recess (126, 226, 326) having a wall thickness that is reduced in the radial direction (y) in comparison to a region which adjoins the recess (126, 226, 326) and is outside the recess (126, 226, 326), the recess (126, 226, 326) comprising, in relation to an axis of rotation of the turbomachine in a functionally installed state of the inner ring (120, 220, 320) in a turbomachine, a greater extension in the axial direction (x) than in the circumferential direction characterized in that at least one recess (126, 226, 326) comprises an hourglass-shaped or hourglass-like shaped peripheral contour, in particular in relation to a projection of the peripheral contour of the recess (126, 226, 326) in a tangential plane of the inner ring.
A method for identifying a modulator of MYCBP2 esterification activity towards hydroxy containing substrates, the method comprising: a) contacting MYCBP2, or an orthologue, or mutant, or fragment thereof comprising at least the active site of the MYCBP2 native protein with a test substance, wherein the active site comprises two catalytic cysteines, wherein the catalytic cysteines are C4520 and C4572 (the numbering according to the native full-length MYCBP2 canonical isoform disclosed in the description), wherein C4520 resides within a mediator loop region represented by residues 4515-4531, wherein transthiolation between E2 conjugating enzyme and one of the cysteine residues leads to intramolecular relay of ubiquitin to the other cysteine residue and then to its substrate; b) providing a probe with a hydroxy group which is capable of interacting with C4520, C4572 and/or the mediator loop region of active MYCBP2, or the orthologue, or mutant or fragment thereof; and c) detecting whether or not the level of interaction of the probe with MYCBP2, the orthologue, or mutant or fragment thereof is modulated as compared to the level of interaction in the absence of the test substance. a) contacting MYCBP2, or an orthologue, or mutant, or fragment thereof comprising at least the active site of the MYCBP2 native protein with a test substance, wherein the active site comprises two catalytic cysteines, wherein the catalytic cysteines are C4520 and C4572 (the numbering according to the native full-length MYCBP2 canonical isoform disclosed in the description), wherein C4520 resides within a mediator loop region represented by residues 4515-4531, wherein transthiolation between E2 conjugating enzyme and one of the cysteine residues leads to intramolecular relay of ubiquitin to the other cysteine residue and then to its substrate; b) providing a probe with a hydroxy group which is capable of interacting with C4520, C4572 and/or the mediator loop region of active MYCBP2, or the orthologue, or mutant or fragment thereof; and c) detecting whether or not the level of interaction of the probe with MYCBP2, the orthologue, or mutant or fragment thereof is modulated as compared to the level of interaction in the absence of the test substance.