mhurhangee/ep-ind-claims huggingface dataset:
Device for metal processing, preferably in a rolling mill, wherein the device comprises: a machine (10, 20, 30) with a stationary machine part and at least one machine part (13a, 13b, 14a, 14b, 15, 16, 23, 32, 33) movable relative to the stationary machine part, wherein the machine (10, 20, 30) comprises at least one roll stand (10, 10') for rolling a metal strip in a rolling gap, wherein the roll stand (10, 10') comprises one or more rolls (11, 12); and a control for process-control of the machine (10, 20, 30); characterised by a monitoring system which is in communication with the control and which comprises at least one camera and an evaluating device in communication with the camera, wherein the evaluating device is arranged to receive image data of the camera, to perform an image recognition thereon so as to detect the position of the movable machine part and to output to the control. a machine (10, 20, 30) with a stationary machine part and at least one machine part (13a, 13b, 14a, 14b, 15, 16, 23, 32, 33) movable relative to the stationary machine part, wherein the machine (10, 20, 30) comprises at least one roll stand (10, 10') for rolling a metal strip in a rolling gap, wherein the roll stand (10, 10') comprises one or more rolls (11, 12); and a control for process-control of the machine (10, 20, 30); characterised by a monitoring system which is in communication with the control and which comprises at least one camera and an evaluating device in communication with the camera, wherein the evaluating device is arranged to receive image data of the camera, to perform an image recognition thereon so as to detect the position of the movable machine part and to output to the control.
A surveillance housing system comprising two heatsink brackets (101, 102) having components mounted thereon that benefit from heat dissipation, the heatsink brackets (101, 102) having flanges that can be compressed for insertion into a heatsink housing and that can be released to press against inner portions of the heatsink housing, in which one of the two heatsink brackets (101, 102) is slid to an abutment on a wall of the heatsink housing and thereby positions the components mounted on said heatsink bracket (101, 102) at a desired location within the heatsink housing, characterized in that the heatsink brackets (101, 102) are C-bracket with the resilient compressible flanges perpendicular to a middle component board portion of the C-bracket, in that an illuminator is mounted on a first heatsink bracket as one of the two heatsink brackets (101, 102), and in that a power supply component is mounted on a second heatsink bracket as another one of the two heatsink brackets (101, 102).
A method of making a permanent magnet rotating machine comprising a rotor including a rotor core and a plurality of permanent magnet segments attached to the outer side surface of the rotor core, and a stator surrounding the rotor to define a gap therebetween and including a stator core having a plurality of slots and windings received in the slots, wherein said permanent magnet segments each have a cross-sectional shape including a central portion having a first thickness (Tc) and transversely opposed end portions having a second thickness (Te) which is less than the first thickness, characterised in that said method comprises obtaining said permanent magnet segments by locally disposing a powder on the surface of transversely opposed end portions of a sintered magnet body of R 1 -Fe-B composition wherein R 1 is at least one element selected from rare earth elements inclusive of Y and Sc, said powder comprising at least one compound selected from the group consisting of an oxide of R 2, a fluoride of R 3, and an oxyfluoride of R 4 wherein each of R 2, R 3, and R 4 is at least one element selected from rare earth elements inclusive of Y and Sc, and heat treating the magnet body and the powder at a temperature equal to or below the sintering temperature of the magnet body in vacuum or in an inert gas, so that the permanent magnet segment so obtained has a higher coercive force at the transversely opposed end portions than at the central portion, the difference in the coercive force between the end portions and the central portion being 30 kAm -1 or more; and arranging a plurality of the permanent magnet segments on the side surface of the rotor core at predetermined intervals such that their polarity is alternately opposite in a circumferential direction.
A method for lysing a sample to provide a lysis mixture that is suitable for being directly used in a nucleic acid analysis method, wherein the sample is contacted with (a) at least one non-ionic surfactant, (b) at least one water-soluble polyanionic polymer, wherein said polymer comprises carboxylate-containing monomers, wherein said polymer is (i) a polymer consisting of carboxylate-containing monomers that are selected from acrylic acid, methacrylic acid and/or maleic acid, or (ii) a polymer consisting of carboxylate-containing monomers that are selected from acrylic acid, methacrylic acid and/or maleic acid and additional polar monomers without a carboxylate function that are selected from lactide and/or vinylpyrrolidone, optionally wherein said polymer is a polymer selected from polyacrylic acid, polymaleic acid, polymethacrylic acid, poly(acrylic acid-co-maleic acid), poly(acrylic acid-co-lactide), poly(acrylic acid-co-vinylpyrrolidone), poly(maleic acid-co-lactide), poly(maleic acid-co-vinylpyrrolidone), poly(acrylic acid-co-maleic acid-co-lactide) and poly(acrylic acid-co-maleic acid-co-vinylpyrrolidone), to provide a lysis mixture, wherein the sample is contacted prior to, during or after lysis with at least one magnetic solid support which binds precipitates, thereby forming a complex with the precipitates. (a) at least one non-ionic surfactant, (b) at least one water-soluble polyanionic polymer, wherein said polymer comprises carboxylate-containing monomers, wherein said polymer is (i) a polymer consisting of carboxylate-containing monomers that are selected from acrylic acid, methacrylic acid and/or maleic acid, or (ii) a polymer consisting of carboxylate-containing monomers that are selected from acrylic acid, methacrylic acid and/or maleic acid and additional polar monomers without a carboxylate function that are selected from lactide and/or vinylpyrrolidone, optionally wherein said polymer is a polymer selected from polyacrylic acid, polymaleic acid, polymethacrylic acid, poly(acrylic acid-co-maleic acid), poly(acrylic acid-co-lactide), poly(acrylic acid-co-vinylpyrrolidone), poly(maleic acid-co-lactide), poly(maleic acid-co-vinylpyrrolidone), poly(acrylic acid-co-maleic acid-co-lactide) and poly(acrylic acid-co-maleic acid-co-vinylpyrrolidone), (i) a polymer consisting of carboxylate-containing monomers that are selected from acrylic acid, methacrylic acid and/or maleic acid, or (ii) a polymer consisting of carboxylate-containing monomers that are selected from acrylic acid, methacrylic acid and/or maleic acid and additional polar monomers without a carboxylate function that are selected from lactide and/or vinylpyrrolidone,
A system for performing guided tracheal intubation on a subject, comprising: - an autonomous light sources (40, 50) adapted to provide a modulated illumination output, the modulated illumination output having a predetermined maximal intensity and being periodically modulated between a maximal intensity state and a minimal intensity state at a predetermined frequency, the autonomous light source being_adapted to be externally applied to the neck of the subject in the region of the subject's larynx; - an optical sensing system adapted to receive a stream of image data from an endotracheal placement device within the throat of the subject, the optical image data including data relating to the modulated illumination output which has penetrated the trachea of the subject; and - a control system adapted to be provided with the predetermined frequency of the modulated illumination output and adapted to perform signal processing on the received stream of image data based on the predetermined frequency, and adapted to generate a modified stream of image output data having an adjusted apparent sensed intensity of the modulated illumination output, - wherein the autonomous light source is completely independent and unconnected to the control system and does not receive a feedback signal from the control system. - an autonomous light sources (40, 50) adapted to provide a modulated illumination output, the modulated illumination output having a predetermined maximal intensity and being periodically modulated between a maximal intensity state and a minimal intensity state at a predetermined frequency, the autonomous light source being_adapted to be externally applied to the neck of the subject in the region of the subject's larynx; - an optical sensing system adapted to receive a stream of image data from an endotracheal placement device within the throat of the subject, the optical image data including data relating to the modulated illumination output which has penetrated the trachea of the subject; and - a control system adapted to be provided with the predetermined frequency of the modulated illumination output and adapted to perform signal processing on the received stream of image data based on the predetermined frequency, and adapted to generate a modified stream of image output data having an adjusted apparent sensed intensity of the modulated illumination output, - wherein the autonomous light source is completely independent and unconnected to the control system and does not receive a feedback signal from the control system.
System for the thermal conditioning of the air present in a room delimited by at least one wall, said thermal conditioning system comprising a thermal source (4, 5, 6, 20, 21) which exchanges heat with said air, characterized in that: said thermal source (4, 5, 6, 20, 21) is placed outside said room; said thermal conditioning system also comprising: • first means (7, 8, 9, 10, 22) for connecting said thermal source (4, 5, 6, 20, 21) to said wall; • thermal insulation means (12, 14) placed outside said room and connected to said wall by means of second connection means (30, 31); said system characterised by said thermal source (4, 5, 6, 20, 21) being placed between said wall and said thermal insulation means (12, 14); said thermal source (4, 5, 6, 20, 21) exchanging said heat with said air through said wall. said thermal source (4, 5, 6, 20, 21) is placed outside said room; said thermal conditioning system also comprising: • first means (7, 8, 9, 10, 22) for connecting said thermal source (4, 5, 6, 20, 21) to said wall; • thermal insulation means (12, 14) placed outside said room and connected to said wall by means of second connection means (30, 31); • first means (7, 8, 9, 10, 22) for connecting said thermal source (4, 5, 6, 20, 21) to said wall; • thermal insulation means (12, 14) placed outside said room and connected to said wall by means of second connection means (30, 31); said system characterised by said thermal source (4, 5, 6, 20, 21) being placed between said wall and said thermal insulation means (12, 14); said thermal source (4, 5, 6, 20, 21) exchanging said heat with said air through said wall.
A respiratory effort sensing apparatus, comprising: a flexible belt member, the flexible belt member having a first buckle member provided at a first end of the flexible belt member and a second buckle member provided at a second end of the flexible belt member; and a wearable respiratory monitoring recording device including: (i) a processing apparatus structured to be selectively operable in a sleep mode and an active mode, and (ii) buckle detection circuitry structured to detect that both the first buckle member and the second buckle member are operatively coupled to the respiratory monitoring recording device and in response thereto generate a buckle detection signal and provide the buckle signal to the processing apparatus, wherein the processing apparatus is structured to, in response to receiving the buckle detection signal, automatically: (a) move from the sleep mode to the active mode, and (b) generate data indicative of a respiratory effort of a patient over time based on an effort-based signal generated by the respiratory effort sensing apparatus in response to changes in volume of a body part of the patient. a flexible belt member, the flexible belt member having a first buckle member provided at a first end of the flexible belt member and a second buckle member provided at a second end of the flexible belt member; and a wearable respiratory monitoring recording device including: (i) a processing apparatus structured to be selectively operable in a sleep mode and an active mode, and (ii) buckle detection circuitry structured to detect that both the first buckle member and the second buckle member are operatively coupled to the respiratory monitoring recording device and in response thereto generate a buckle detection signal and provide the buckle signal to the processing apparatus, wherein the processing apparatus is structured to, in response to receiving the buckle detection signal, automatically: (a) move from the sleep mode to the active mode, and (b) generate data indicative of a respiratory effort of a patient over time based on an effort-based signal generated by the respiratory effort sensing apparatus in response to changes in volume of a body part of the patient.
A method of controlling wireless transmissions in a wireless communication system, the method comprising: an access point (10; 450; 550; 600) contending with at least one further access point (10; 450; 550; 600) for a set of transmission resources; in response to winning contention for the set of transmission resources, the access point (10; 450; 550; 600) sharing at least a subset of the transmission resources with the at least one further access point (10; 450; 550; 600); the access point (10; 450; 550; 600) exchanging information with the at least one further access point (10; 450; 550; 600), the exchanged information comprising information on one or more wireless stations served by the at least one further access point (10; 450; 550; 600) and/or information on one or more wireless stations served by the access point (10; 450; 550; 600); and based on the exchanged information, the access point (10; 450; 550; 600) coordinating wireless transmissions on the shared subset of transmission resources. an access point (10; 450; 550; 600) contending with at least one further access point (10; 450; 550; 600) for a set of transmission resources; in response to winning contention for the set of transmission resources, the access point (10; 450; 550; 600) sharing at least a subset of the transmission resources with the at least one further access point (10; 450; 550; 600); the access point (10; 450; 550; 600) exchanging information with the at least one further access point (10; 450; 550; 600), the exchanged information comprising information on one or more wireless stations served by the at least one further access point (10; 450; 550; 600) and/or information on one or more wireless stations served by the access point (10; 450; 550; 600); and based on the exchanged information, the access point (10; 450; 550; 600) coordinating wireless transmissions on the shared subset of transmission resources.
A method of operating an NMR analyzer, comprising: placing a biosample in a bore of an NMR spectrometer; electronically obtaining an NMR signal associated with the sample from an NMR probe held in the bore of the NMR spectrometer; electronically detecting at least one temperature at a location that is (i) on-board the NMR analyzer and/or (ii) in a room holding the NMR analyzer proximate in time to the obtaining step; characterized by: electronically correcting the obtained signal using a temperature sensitivity correction factor that is selected based on the detected temperature and a model of NMR signal temperature sensitivity, the model being generated using a standard model of temperature sensitivity with a slope and derived from measurements of one or more different NMR consoles or portions thereof obtained by measuring temperature versus one or more peak values of standard signal integrals measured on a calibration sample over a defined ambient temperature range, with the signal values at defined temperatures over the defined ambient temperature range being used to generate the standard model with the slope, such that the model provides NMR signal intensity adjustment that varies as ambient temperature varies allowing for fluctuating ambient temperatures over at least 3 degrees C within the defined ambient temperature range; and generating a quantitative measurement of a sample using the corrected obtained signal. placing a biosample in a bore of an NMR spectrometer; electronically obtaining an NMR signal associated with the sample from an NMR probe held in the bore of the NMR spectrometer; electronically detecting at least one temperature at a location that is (i) on-board the NMR analyzer and/or (ii) in a room holding the NMR analyzer proximate in time to the obtaining step; characterized by: electronically correcting the obtained signal using a temperature sensitivity correction factor that is selected based on the detected temperature and a model of NMR signal temperature sensitivity, the model being generated using a standard model of temperature sensitivity with a slope and derived from measurements of one or more different NMR consoles or portions thereof obtained by measuring temperature versus one or more peak values of standard signal integrals measured on a calibration sample over a defined ambient temperature range, with the signal values at defined temperatures over the defined ambient temperature range being used to generate the standard model with the slope, such that the model provides NMR signal intensity adjustment that varies as ambient temperature varies allowing for fluctuating ambient temperatures over at least 3 degrees C within the defined ambient temperature range; and generating a quantitative measurement of a sample using the corrected obtained signal.
A stuffed food forming machine comprising: a rotary table assembly; a sending and cutting station; and a stuffing injection station, wherein at least the sending and cutting station and the stuffing injection station are arranged around the rotary table assembly, and characterized in that the rotary table assembly defines an opening configured to collect the dough residue, wherein a distance between an internal side of a shaping mold rotated together with the rotary table assembly and a center of the rotary table assembly is larger than a distance between an internal side of the opening and the center of the rotary table assembly. a rotary table assembly; a sending and cutting station; and a stuffing injection station, wherein at least the sending and cutting station and the stuffing injection station are arranged around the rotary table assembly, and characterized in that the rotary table assembly defines an opening configured to collect the dough residue, wherein a distance between an internal side of a shaping mold rotated together with the rotary table assembly and a center of the rotary table assembly is larger than a distance between an internal side of the opening and the center of the rotary table assembly.
A compound for use in a method of treating a hematological cancer refractory to erythropoiesis stimulating agent wherein the compound is of Formula 1 where R 1 is selected from the group consisting of -NH 2, -NH-CH 2 -COOH, -NH-CH(CH 3)-COOH, -NH-C(CH 3) 2 -COOH, -NH-CH 2 -CH 2 -OH and -N-(CH 2 CH 2 OH) 2 or a pharmaceutically acceptable salt of such a compound, and wherein the administration of the compound of Formula 1 is prior to, concomitant with and/or subsequent to the administration of an ESA.
Antigenic multivalent molecular construct consisting of a basic unit comprising a helper-T dependent carrier protein covalently bound to a minimum of three capsular polysaccharides of different serological specificity by a linker comprising an imine reduced bond and an amide bond, wherein each capsular polysaccharide comprises at least one of the repeating basic epitopes consisting of a minimum of five to twelve monosaccharide residues characterized in that at least one mole or fraction thereof of protein carrier carries at least one mole or fraction thereof of each of the at least three different type-specific or group specific capsular polysaccharides; wherein said helper-T dependent carrier protein is selected between the group of natural diphtheria mutants protein CRM197, diphtheria toxoid, and tetanus toxoid, Protein D from Haemophilus influenzae, Pneumococcal surface proteins, Pneumococcal toxin, and tetanus toxoid chemically derivatized by adipic acid di-hydrazide spacer.
Sole construction for a shoe having a sole body with a cavity, which shoe construction comprises an air pump device comprising a first air inlet and a second air inlet integrally formed in one piece with a plastic pump reservoir; the air pump device being designed to implement an air pump function in response to a walking movement of a user of the shoe so as to alternately suck in air from outside of the sole body via the at least one first air inlet and press air into at least one part of the sole body connected to the air pump device which may be different from a part of the sole body in which the air pump device is disposed via the at least one second air inlet; a first valve being disposed in the at least one first air inlet which is designed so that it allows air to pass in only the direction from outside of the sole body into the air pump device; and/or a second valve is disposed in the at least one second air inlet, which is designed so that it allows air to pass in only the direction from the air pump device towards the at least one part of the sole body which may be different from the part in which the air pump device is disposed; and the air pump device is provided separately from the sole body as an independent entity and is recessed in or secured in the sole body, in particular at least partially in the cavity of the sole body, in such a way that it forms a part of the external outsole of the sole body designed so that it elastically deforms when in contact with the ground in order to achieve a pumping effect of the air pump device.
A boat comprising a hull having an aft stern hatch located at the position of an internal aft compartment of the aforesaid hull, the hatch having a body with opposing flanks or sides (16, 17) pivoted on the hull and upper and lower edges, means for actuating the opening of the hatch being provided, characterised in that the hatch comprises pivot means (31, 32; 33, 34) associated with the aforesaid flanks or sides (16, 17) near the upper edge and near the lower edge, the pivot means (31, 32; 33, 34) being movable towards the inside and towards the outside of these flanks (16, 17) so that they can protrude from the flanks in combination or alternatively to each other, thereby allowing the hatch to assume, alternatively, a position in which it is closed on the compartment, a first position of opening to an upper part of the hull, and a second position of opening to a lower part of the hull, the means for actuating the opening of the hatch being adapted to place the hatch in the first opening position or in the second opening position, the actuator means being at least one hydraulic and/or pneumatic actuator connected at one end to a wall of the aft compartment and at the other end to the hatch, the sole actuator means being a pair of hydraulic and/or pneumatic actuators, each of the latter being pivoted by means of a first end on a wall of the aft compartment and by means of a second end on the hatch, this second end being pivoted on a corresponding flank (16, 17) of the hatch.