mhurhangee/ep-ind-claims huggingface dataset:
A swing door operator adapted for employing a first and a second predetermined speed trajectory in sequence, when operating at least one swing door leaf, said first predetermined speed trajectory comprising said swing door leaf being moved from a closed position to a first open position, and said second predetermined speed trajectory comprising said swing door leaf being moved from said first open position to a second open position at a reduced kinetic energy setting, wherein said first speed trajectory is initiated in response to an opening command or an evacuation command received by said swing door operator, characterized in that said door leaf, when arriving at said first open position after an opening command, remains at said first open position, wherein said door leaf, when arriving at said first open position after an evacuation command, is moved at a reduced kinetic energy setting, along a second predetermined speed trajectory, from said first open position to a second open position, and wherein said swing door operator comprises at least one safety sensor for detecting objects located in an opening path of said swing door leaf, said safety sensor being fully active during said first predetermined speed trajectory, and being inhibited when said swing door leaf arrives at said first open position and an evacuation command has been received by said swing door operator. wherein said first speed trajectory is initiated in response to an opening command or an evacuation command received by said swing door operator, characterized in that said door leaf, when arriving at said first open position after an opening command, remains at said first open position, wherein said door leaf, when arriving at said first open position after an evacuation command, is moved at a reduced kinetic energy setting, along a second predetermined speed trajectory, from said first open position to a second open position, and wherein said swing door operator comprises at least one safety sensor for detecting objects located in an opening path of said swing door leaf, said safety sensor being fully active during said first predetermined speed trajectory, and being inhibited when said swing door leaf arrives at said first open position and an evacuation command has been received by said swing door operator.
A monitor for monitoring the heart of a patient, the monitor comprising a sensor comprising a light emitter and a light detector for producing a plethysmogram of the patient's actual sinus rhythm, means for storing the plethysmogram of an ideal sinus rhythm and means for comparing the plethysmogram of the patients actual sinus rhythm and the ideal plethysmogram and for producing an outout dependant on the difference, in which said comparing means is arranged to compare the frequency spectrums of said actual and ideal sinus rhythm waveforms.
A screw comprising: - a threaded shank extending along a longitudinal axis; - a head engageable by a tightening tool to tighten the screw; - an extensometer connected to the shank, to measure a measurement parameter representing a tightening force of the screw, characterized in that it comprises a coil, a power supply, a microprocessor and a transmitter, all located in a housing made in the head, wherein the power supply is connected to the coil, to receive electrical energy by electromagnetic induction through a contactless transmission line, and is connected to the microprocessor and to the extensometer to supply them with electric power, and wherein the microprocessor is connected to the extensometer to receive the measurement parameter measured by the extensometer and is connected to the transmitter to transmit the measurement parameter to the outside of the screw through a wireless measurement signal. - a threaded shank extending along a longitudinal axis; - a head engageable by a tightening tool to tighten the screw; - an extensometer connected to the shank, to measure a measurement parameter representing a tightening force of the screw, characterized in that it comprises a coil, a power supply, a microprocessor and a transmitter, all located in a housing made in the head, wherein the power supply is connected to the coil, to receive electrical energy by electromagnetic induction through a contactless transmission line, and is connected to the microprocessor and to the extensometer to supply them with electric power, and wherein the microprocessor is connected to the extensometer to receive the measurement parameter measured by the extensometer and is connected to the transmitter to transmit the measurement parameter to the outside of the screw through a wireless measurement signal.
A method for estimating a pseudo CT Hounsfield Unit value for a volume element within a subject from a plurality of magnetic resonance images having different contrasts, the method comprising the steps of: - determination of a relative prevalence of a first tissue class within the volume element from a signal intensity in the plurality of magnetic resonance images wherein the signal intensity for the first tissue class is scaled by a threshold for the signal of the first tissue class prior to determination of the relative prevalence; - determination of a relative prevalence of a second tissue class within the volume element from the signal intensity in the plurality of magnetic resonance images, wherein the signal intensity for the second tissue class is scaled by a threshold for the signal of the second tissue class prior to determination of the relative prevalence; - determination of a relative prevalence of a third tissue class within the volume element based on subtraction of a relative prevalence of the first and second tissue class from a total tissue prevalence; - providing a first reference Hounsfield unit value for the first tissue class - providing a second reference Hounsfield unit value for the second tissue class - providing a third reference Hounsfield unit value for the third tissue class - estimating the pseudo CT Housfield unit value for the volume element by determining a weighted sum of the first, second and third reference Hounsfield unit value, with weight factors which are based on the determined relative prevalences of the first, second and third tissue class. - determination of a relative prevalence of a first tissue class within the volume element from a signal intensity in the plurality of magnetic resonance images wherein the signal intensity for the first tissue class is scaled by a threshold for the signal of the first tissue class prior to determination of the relative prevalence; - determination of a relative prevalence of a second tissue class within the volume element from the signal intensity in the plurality of magnetic resonance images, wherein the signal intensity for the second tissue class is scaled by a threshold for the signal of the second tissue class prior to determination of the relative prevalence; - determination of a relative prevalence of a third tissue class within the volume element based on subtraction of a relative prevalence of the first and second tissue class from a total tissue prevalence; - providing a first reference Hounsfield unit value for the first tissue class - providing a second reference Hounsfield unit value for the second tissue class - providing a third reference Hounsfield unit value for the third tissue class - estimating the pseudo CT Housfield unit value for the volume element by determining a weighted sum of the first, second and third reference Hounsfield unit value, with weight factors which are based on the determined relative prevalences of the first, second and third tissue class.
Rucksack or suitcase (1, 1', 1") with a lower shell (2, 2', 2") and an upper shell which is foldably connected to the lower shell (2, 2', 2"), wherein both the lower shell (2, 2', 2") and the upper shell comprise an inner layer (4, 4', 4") and an outer layer and the upper shell and/or the lower shell (2, 2', 2") comprise(s) magnetic coupling elements, characterized in that the inner layer (4, 4', 4") of the upper shell and/or of the lower shell (2, 2', 2") comprise(s) a plastic tray with recesses (7, 7', 7") in which the magnetic coupling elements are received flush and arranged in a fixed position, wherein the magnetic coupling elements are located between the outer layer and the inner layer (4, 4', 4") of the upper shell and/or between the outer layer and the inner layer (4, 4', 4") of the lower shell, or between the inner layer (4") and the outer layer a plastic plate with recesses (7") is arranged, in which the magnetic coupling elements are received flush and arranged in a fixed position.
A melamine resin foam comprising particles, said particles being nanoporous and preferably granular, the foam having a pore size in the range from 10 to 1000 μm, the nanoporous particles having a particle size (D 50 value) in the range from 0.1 to 100 μm and more particularly in the range from 1 to 30 μm, and the density of the foam comprising particles being in the range from 20 to 70 g/L.
Tilting vehicle comprising a rear frame section having two drive wheels (55,56) and a front frame section having at least one wheel, connected to the rear frame section such as to be tiltable about a tilt axis that extends in a length direction, the front frame section carrying a driver seat, the rear frame section comprising a propulsion drive for rotating the drive wheels (55,56), a tilting drive for tilting the front frame section about the tilt axis and a controller for controlling the tilting drive based on driver steering input, characterized in that the tilting drive comprises an electric motor situated at a predetermined distance from the tilt axis with a gear, and a tilting member having a toothed surface engaging with the gear such that the tilting member can be displaced transversely to the tilting axis by rotation of the gear, whereby the tilting drive and the tilting member are connected to the respective front and rear frame sections (10,50) and wherein the controller is adapted to allow the gear of the tilting drive to move freely along the toothed surface of the tilting member around a neutral position in which the front frame section is substantially vertical when no steering input is provided.
Method for pre-programming a matrix of non-volatile resistive memory cells, said memory cells (310, 320) comprising a dielectric material arranged between two conductive electrodes (120, 130), the dielectric material being an oxide and being in contact with each of the two conductive electrodes (120, 130), said memory cells (310, 320) being initially in an original resistive state (original HRS) and the dielectric material being capable of being electrically modified so as to bring the memory cell from the original resistive state (original HRS) to at least one other resistive state, wherein the resistance of the memory cell is at least twice, preferably at least ten times less than the resistance of the memory cell in the original resistive state (original HRS), at least for an interval of reading voltages, the method comprising the following steps: - before assembling a component containing said matrix on a support, programming the matrix by electrically bringing a plurality of cells from the original resistive state (original HRS) to said other resistive state, said other resistive state being a second resistive state, leaving the other memory cells in the original resistive state thereof (original HRS); - assembling said matrix on a support, characterised in that during the assembly step, the memory cells are subjected to a temperature of at least 240°C, and in that the method further comprises, after the programming step and before the assembly, at least one cycle of steps carried out on the cells of said plurality of cells brought to said second resistive state, each cycle comprising: - an electrical modification of the dielectric material to bring said memory cells from said second resistive state to a third resistive state (programmed HRS), wherein the memory cells have a resistance greater than that of the memory cells in said second resistive state, then - an electrical modification of the dielectric material to bring said cells to said second resistive state. - before assembling a component containing said matrix on a support, programming the matrix by electrically bringing a plurality of cells from the original resistive state (original HRS) to said other resistive state, said other resistive state being a second resistive state, leaving the other memory cells in the original resistive state thereof (original HRS); - assembling said matrix on a support, - an electrical modification of the dielectric material to bring said memory cells from said second resistive state to a third resistive state (programmed HRS), wherein the memory cells have a resistance greater than that of the memory cells in said second resistive state, then - an electrical modification of the dielectric material to bring said cells to said second resistive state.
A toner comprising: a core comprising at least one amorphous resin being a poly(propoxylated bisphenol A co-fumarate) resin having the following formula, and at least one crystalline resin composed of ethylene glycol and a mixture of dodecanedioic acid and fumaric acid comonomers with the following formula: wherein m is from 5 to 1000, wherein b is from 5 to 2000 and d is from 5 to 2000; and a shell comprising at least one amorphous resin having the above formula partially crosslinked with at least one water-soluble initiator, wherein the partial crosslinking means that 1 to 99% of the resin according to formula is crosslinked. a core comprising at least one amorphous resin being a poly(propoxylated bisphenol A co-fumarate) resin having the following formula, and at least one crystalline resin composed of ethylene glycol and a mixture of dodecanedioic acid and fumaric acid comonomers with the following formula: wherein m is from 5 to 1000, wherein b is from 5 to 2000 and d is from 5 to 2000; and a shell comprising at least one amorphous resin having the above formula partially crosslinked with at least one water-soluble initiator, wherein the partial crosslinking means that 1 to 99% of the resin according to formula is crosslinked.
Static mixer for the treatment of exhaust gases, comprising an annular support portion and a plurality of substantially coplanar radial vanes that are arranged radially with their rear portion or base associated with said support portion and the front portion or radial tip converging towards the centre ("G") of the mixer, characterized in that the body of the vanes comprises at least three lines of bending, which define respective portions (15a,15b,15c) arranged on non parallel planes and defining corresponding impact surfaces (A,B,C) for the exhaust gases.
Method of packaging batches of a respiring produce, comprising the steps of: providing a batch of the produce, determining a respiration characteristic (R i, R j) of at least a portion of the batch for at least a first substance (i) and a second substance (j), wherein the first and second substances are selected from a list comprising O 2 and CO 2, characterised by determining a ratio (H(i/j)) between the determined respiration characteristics for the first and second substances, and determining a desired transmission rate for a package (Pa, 259) of a packaging material (M, 123) containing an amount of produce from the batch (A, 257) and having a package atmosphere within the package, wherein the desired transmission rate is the transmission rate for the first substance or the second substance and is determined based on said ratio to control a concentration of one of the first and second substances in the package atmosphere, wherein the method further comprises repeating the above steps for a subsequent batch of the same produce and the desired transmission rate for the subsequent batch is the transmission rate for the other one of the first and second substances. providing a batch of the produce, determining a respiration characteristic (R i, R j) of at least a portion of the batch for at least a first substance (i) and a second substance (j), wherein the first and second substances are selected from a list comprising O 2 and CO 2, characterised by determining a ratio (H(i/j)) between the determined respiration characteristics for the first and second substances, and determining a desired transmission rate for a package (Pa, 259) of a packaging material (M, 123) containing an amount of produce from the batch (A, 257) and having a package atmosphere within the package, wherein the desired transmission rate is the transmission rate for the first substance or the second substance and is determined based on said ratio to control a concentration of one of the first and second substances in the package atmosphere, wherein the method further comprises repeating the above steps for a subsequent batch of the same produce and the desired transmission rate for the subsequent batch is the transmission rate for the other one of the first and second substances.
A display assembly comprising: a display panel; a light source; a light guide plate having a display panel side and an opposed rear side, and to which light irradiated from the light source is incident at a lateral edge of the light guide plate; a reflector arranged on said opposed rear side of the light guide plate and configured to reflect light incident to the light guide plate to said display panel side of the light guide plate; a quantum dot sheet arranged on said display panel side of the light guide plate; and a fluorescent material configured to change a color of light irradiated from the light source, characterized in that the fluorescent material is provided between the light guide plate and the reflector and is formed on one surface of the reflector along an edge of the surface of the reflector. a display panel; a light source; a light guide plate having a display panel side and an opposed rear side, and to which light irradiated from the light source is incident at a lateral edge of the light guide plate; a reflector arranged on said opposed rear side of the light guide plate and configured to reflect light incident to the light guide plate to said display panel side of the light guide plate; a quantum dot sheet arranged on said display panel side of the light guide plate; and a fluorescent material configured to change a color of light irradiated from the light source, characterized in that the fluorescent material is provided between the light guide plate and the reflector and is formed on one surface of the reflector along an edge of the surface of the reflector.
A method of reading machine-readable labels on sample receptacles, comprising: moving, between a first position and a second position along a first lane in a housing, a first sample rack configured to hold a first plurality of sample receptacles each having a machine-readable label; moving a camera to focus the camera at a point along the first lane; reading the machine-readable label of each sample receptacle of the first plurality of sample receptacles of the first sample rack as the first sample rack moves from the first position to the second position; moving, between a first position and a second position along a second first lane different than the first lane in the housing, a second sample rack configured to hold a second plurality of sample receptacles each having a machine-readable label; and moving the camera to focus the camera at a point along the second lane; and reading the machine-readable label of each sample receptacle of the second plurality of sample receptacles of the second sample rack as the second sample rack moves from the first position to the second position. moving, between a first position and a second position along a first lane in a housing, a first sample rack configured to hold a first plurality of sample receptacles each having a machine-readable label; moving a camera to focus the camera at a point along the first lane; reading the machine-readable label of each sample receptacle of the first plurality of sample receptacles of the first sample rack as the first sample rack moves from the first position to the second position; moving, between a first position and a second position along a second first lane different than the first lane in the housing, a second sample rack configured to hold a second plurality of sample receptacles each having a machine-readable label; and moving the camera to focus the camera at a point along the second lane; and reading the machine-readable label of each sample receptacle of the second plurality of sample receptacles of the second sample rack as the second sample rack moves from the first position to the second position.
Water-containing hydrogel composition comprising elemental silver particles having an average particle diameter of 5-20 nm as determined by transmission electron microscopy and a particle size distribution of D90 ≤ 25 nm as determined by laser diffraction, the silver content being between 15 and 500 ppm based on the total weight of the hydrogel composition, the hydrogel composition further comprising a non-ionic surfactant, wherein the hydrogel composition comprises a polyurethane-polyurea copolymer.
A method of aggregating and/or activating platelets isolated from a mammal for later therapeutic use, the method comprising contacting ex vivo (i) said platelets, (ii) poly-β-1→4-N-acetylglucosamine fibers, and (iii) a calcium salt or a calcium salt solution, thereby aggregating or activating the platelets, wherein the poly-β-1→4-N-acetylglucosamine fibers are about 10 to 500 nm in width and about 50 to 750 microns in length as detected by scanning electron microscopy.
A flexibly deployable, discrete target-analyte sensitive probe adapted to be individually and discretely dispensed, comprising a porous scaffold particle coated with an optically-active, target-analyte sensitive material, wherein the scaffold particle is a bead and has at least one of (i) a volume of 0.5 to 500 mm3, and (ii) a largest dimension of 2 to 20 mm.
A compound having Formula I: or a pharmaceutically acceptable salt thereof; R 1 is selected from the group consisting of-CO-OCH3, R 2 is selected from the group consisting of and R 3 is selected from the group consisting of Cl, Br, I, F, CN, NO 2, CF 3, H, and OCH 3; and R 4 is selected from the group consisting of COOCF3,