mhurhangee/ep-ind-claims huggingface dataset:
Apparatus, comprising: a camera, comprising: an objective lens configured to focus light from an object; and an imaging array configured to receive the focused light and in response thereto, to output a signal representative of an image of the object; a multiplicity of illuminators arrayed around the objective lens and configured to illuminate the object; and a processor, configured to: differentially adjust respective light intensities emitted by the illuminators responsively to the signal; characterised in that the processor is further configured to: analyze a color variation of the focused light received by the array; and adjust respective colors emitted by the illuminators responsively to the color variation so that the color variation is within a preset range. a camera, comprising: an objective lens configured to focus light from an object; and an imaging array configured to receive the focused light and in response thereto, to output a signal representative of an image of the object; an objective lens configured to focus light from an object; and an imaging array configured to receive the focused light and in response thereto, to output a signal representative of an image of the object; a multiplicity of illuminators arrayed around the objective lens and configured to illuminate the object; and a processor, configured to: differentially adjust respective light intensities emitted by the illuminators responsively to the signal; analyze a color variation of the focused light received by the array; and adjust respective colors emitted by the illuminators responsively to the color variation so that the color variation is within a preset range.
An electrosurgical system, comprising: a power source configured to generate microwave energy; a microwave applicator configured to deliver microwave energy from the power source to tissue; a switching mechanism comprising at least one switch, a resistive dummy load operably coupled to the switching mechanism and configured to absorb microwave energy directed thereto, a housing having input and output ports, the input port connectable to the power source and the output port connectable to the microwave applicator, wherein the housing houses the switching mechanism; and a controller in operative communication with the switching mechanism to toggle the at least one switch from a first state, wherein the at least one switch is configured to direct microwave energy generated by the power source to the microwave applicator, to a second state, wherein the at least one switch is configured to direct microwave energy to the resistive dummy load, wherein the controller is a finger-switch operably disposed on the microwave applicator. a power source configured to generate microwave energy; a microwave applicator configured to deliver microwave energy from the power source to tissue; a switching mechanism comprising at least one switch, a resistive dummy load operably coupled to the switching mechanism and configured to absorb microwave energy directed thereto, a housing having input and output ports, the input port connectable to the power source and the output port connectable to the microwave applicator, wherein the housing houses the switching mechanism; and a controller in operative communication with the switching mechanism to toggle the at least one switch from a first state, wherein the at least one switch is configured to direct microwave energy generated by the power source to the microwave applicator, to a second state, wherein the at least one switch is configured to direct microwave energy to the resistive dummy load, wherein the controller is a finger-switch operably disposed on the microwave applicator.
Interfering RNA, able to inhibit the expression of the N gene encoding the nucleoprotein of a morbillivirus, characterised in that it comprises a general sequence UYYCNAACC ANYNNRWYB (SEQ ID NO: 10) and that it is directed against a region of mRNA of the N gene encoding the nucleoprotein of a morbillivirus, said region containing a target motif defined by the following general sequence: VRWYNNRNUGGUUNGRRA (SEQ ID NO: 1) where A = Adenine; C = Cytosine; G = Guanine; U = Uracil; K = G or U; M = A or C; R = A or G; S = G or C; Y = C or U; W = A or U; B = G, U or C; D = G, A or U; H = A or C or U; V = G, A or C; N = A or C or G or U. VRWYNNRNUGGUUNGRRA (SEQ ID NO: 1)
Anhydrous foaming cosmetic composition comprising, in a physiologically acceptable medium: - at least one nonionic surfactant, - at least one anionic surfactant, - at least 25% of particles chosen from fillers, fibres and their mixtures. - at least one nonionic surfactant, - at least one anionic surfactant, - at least 25% of particles chosen from fillers, fibres and their mixtures.
An organic compound represented by general formula: wherein, in general formula, X is an oxygen atom, a sulfur atom, a selenium atom, or a tellurium atom, and R 1 to R 19 are each independently selected from the group consisting of a hydrogen atom, a halogen atom, a substituted or unsubstituted alkyl group, a substituted or unsubstituted alkoxy group, a substituted or unsubstituted amino group, a substituted or unsubstituted aromatic hydrocarbon group, a substituted or unsubstituted heterocyclic group, a substituted or unsubstituted aryloxy group, a substituted or unsubstituted silyl group, and a cyano group.
A method for processing information comprising, by a computer: acquiring at least a temperature and a humidity measured by a sensor disposed in a space where a sleeping person exists and an air conditioner is provided; acquiring falling-asleep decision information for deciding whether the person falls asleep; determining air blow control information concerning an air blow to bring an indicative value indicating a thermal condition to a target value by using at least the acquired temperature and humidity after deciding based on the acquired falling-asleep decision information that the person falls asleep; and controlling the air blow of the air conditioner by using the determined air blow control information; characterized by raising the target value as time elapses after deciding based on the acquired falling-asleep decision information that the person falls asleep; and reducing an amount of air to blow out of the air conditioner after a lapse of a predetermined time from the decision based on the acquired falling-asleep decision information that the person falls asleep. acquiring at least a temperature and a humidity measured by a sensor disposed in a space where a sleeping person exists and an air conditioner is provided; acquiring falling-asleep decision information for deciding whether the person falls asleep; determining air blow control information concerning an air blow to bring an indicative value indicating a thermal condition to a target value by using at least the acquired temperature and humidity after deciding based on the acquired falling-asleep decision information that the person falls asleep; and controlling the air blow of the air conditioner by using the determined air blow control information; characterized by raising the target value as time elapses after deciding based on the acquired falling-asleep decision information that the person falls asleep; and reducing an amount of air to blow out of the air conditioner after a lapse of a predetermined time from the decision based on the acquired falling-asleep decision information that the person falls asleep.
A tool for injection molding of objects, comprising a nozzle-side, stationary mold block at which at least one group of partial cavities is formed, an ejection-side, movable mold block at which at least one group of partial cavities is formed which, when the tool is closed, form cavities with the partial cavities of the stationary mold block for injection molding the objects, and at least one holder which is movable on a predefined movement path between the injection station (104 - 108) formed by the cavities and an ejection station and transports molded parts injection molded in the injection station (104 - 108) to the ejection station, wherein the holder is moved by a programmable drive system, and the positions of the holder in the injection station and in the ejection station are freely programmable, and wherein exchangeable mold plates including the partial cavities are provided at the stationary mold block, wherein the positions of the injection points fixedly predefined by the injection nozzles relative to the cavities are adjustable by the positioning of the mold plates at the mold blocks relative to the injection nozzles.
A detection apparatus which illuminates a sample and detects light reflected by the sample, comprising: a light source; a columnar reflecting member having a columnar reflecting surface which reflects light having entered a first end of the columnar reflecting member a plurality of times, and emits the light from a second end of the columnar reflecting member; a mirror which reflects light radiated by the light source so as to guide the light reflected by the mirror to the first end; and a detector, wherein the sample is illuminated with the light emitted from the second end, and the detector is configured to detect the light which has been reflected by the sample and has subsequently passed through the columnar reflecting member, and wherein a reflecting surface of the mirror is a concave surface, and a shape of the reflecting surface of the mirror in a sectional plane perpendicular to the axis of the columnar reflecting member is concave such that the light radiated by the light source and reflected by the mirror toward the first end is converged in the sectional plane, and the reflecting surface of the mirror on a plane including the axis is shaped to have a parabolic shape, whereby the light source is positioned at the focus of the parabolic shape. a light source; a columnar reflecting member having a columnar reflecting surface which reflects light having entered a first end of the columnar reflecting member a plurality of times, and emits the light from a second end of the columnar reflecting member; a mirror which reflects light radiated by the light source so as to guide the light reflected by the mirror to the first end; and a detector, wherein the sample is illuminated with the light emitted from the second end, and the detector is configured to detect the light which has been reflected by the sample and has subsequently passed through the columnar reflecting member, and wherein a reflecting surface of the mirror is a concave surface, and a shape of the reflecting surface of the mirror in a sectional plane perpendicular to the axis of the columnar reflecting member is concave such that the light radiated by the light source and reflected by the mirror toward the first end is converged in the sectional plane, and the reflecting surface of the mirror on a plane including the axis is shaped to have a parabolic shape, whereby the light source is positioned at the focus of the parabolic shape.
A radiator screen with a cleaning device, wherein the radiator screen has a frame component inside which a sieve-like surface is formed, and the cleaning device comprises a suction device which moves in a cyclic manner over the surface of the radiator screen and which picks up particles which are deposited on the surface, characterized in that the suction device has two suction arms (5a, 5b) which can move over the surface and which each have a suction nozzle with an elongated inlet region which faces the surface and a cylindrical outlet region which faces away from the surface which is disposed at one end of each suction arm (5a, 5b), wherein a respective suction duct is connected to the respective outlet region and discharges in the region of a common suction fan into a housing which receives the suction fan.
A compound of formula (I-Z) wherein Za is CH or N; R 5 is C 1 -C 4 haloalkyl; and when Za is CH then Qa 5 is selected from the group consisting of wherein each Rx is, independently selected from hydrogen, halogen, cyano, C 1 -C 4 haloalkyl and C 1 -C 4 alkoxy; and when Za is N then Qa 5 is selected from the group consisting of wherein each Rx is, independently selected from hydrogen, halogen and cyano. wherein Za is CH or N; R 5 is C 1 -C 4 haloalkyl; and when Za is CH then Qa 5 is selected from the group consisting of wherein each Rx is, independently selected from hydrogen, halogen, cyano, C 1 -C 4 haloalkyl and C 1 -C 4 alkoxy; and when Za is N then Qa 5 is selected from the group consisting of wherein each Rx is, independently selected from hydrogen, halogen and cyano. wherein each Rx is, independently selected from hydrogen, halogen, cyano, C 1 -C 4 haloalkyl and C 1 -C 4 alkoxy; and when Za is N then Qa 5 is selected from the group consisting of wherein each Rx is, independently selected from hydrogen, halogen and cyano.
An antimicrobial compound, as well as the salts thereof, said antimicrobial compound being represented by the general formula: wherein R 1 represents: - a peptide part P1 consisting of a linear sequence of one to five amino acid residues; said peptide part P1 comprising at least one residue of β-chloroalanine, preferably of β-chloro-L-alanine, or - a peptide part P2, said peptide part P2 being represented by the following general formula: wherein X represents a hydrogen or chlorine atom, and Y represents a hydrogen atom or a linear sequence of one to four amino acid residues, advantageously comprising at least one residue of β-chloroalanine, preferably of β-chloro-L-alanine, and/or at least one residue of norvaline, preferably of L-norvaline, and/or at least one residue of methionine, preferably of L-methionine, and wherein if X represents a hydrogen atom, Y is as defined previously with the exception of a hydrogen atom or an alanine residue in the N-terminal position or bound to another amino acid residue via a peptide bond between the α amino function of said alanine residue and the α carboxylic acid function of the other amino acid residue. - a peptide part P1 consisting of a linear sequence of one to five amino acid residues; said peptide part P1 comprising at least one residue of β-chloroalanine, preferably of β-chloro-L-alanine, or - a peptide part P2, said peptide part P2 being represented by the following general formula: wherein X represents a hydrogen or chlorine atom, and Y represents a hydrogen atom or a linear sequence of one to four amino acid residues, advantageously comprising at least one residue of β-chloroalanine, preferably of β-chloro-L-alanine, and/or at least one residue of norvaline, preferably of L-norvaline, and/or at least one residue of methionine, preferably of L-methionine, and wherein if X represents a hydrogen atom, Y is as defined previously with the exception of a hydrogen atom or an alanine residue in the N-terminal position or bound to another amino acid residue via a peptide bond between the α amino function of said alanine residue and the α carboxylic acid function of the other amino acid residue.
A massage roller comprising an inner region and an outer region, wherein the inner and outer regions (2, 4) are made of foam material, wherein the outer region completely surrounds the inner region circumferentially about a longitudinal axis and is fixed to the inner region by a material bond, wherein the foam of the inner region has a higher compressive strength than the foam of the outer region, wherein the contact area between the inner and outer regions (2, 4) is cylindrical, and wherein the foam of the outer region is an open-cell PUR foam, wherein the foam of the outer region has a compression hardness of 3 kPa to 15 kPa.
A cooking hob comprising a glass ceramic plate and an underlying plurality of electrical heating elements disposed in matrix configuration and controlled by static switches (16, 17), in order to be able to use at will any region of said hob for heating the contents of one or more cooking utensils (3, 4), characterised in that a diode is present in series with each electrical heating element, and in that the heating elements are dimensioned such as to dissipate a power greater a equal to 15 Watt/cm 2.
A signal amplitude extraction method for providing a magnitude of a pre-filtered signal ( s ( n)) of a distortion product otoacoustic emission (DPOAE) for a continuous in-ear hearing health monitoring on a human being, the method being carried out by a device for continuous in-ear health monitoring, and comprising the steps of: - acquiring the DPOAE signal (54, s ( n)) having a DPOAE frequency (f dp); - generating a carrier signal (62, c 1 ( n)) having a carrier frequency (f c) about equal to the DPOAE frequency (f dp); - normalizing the carrier signal (62, c 1 ( n)) with amplitude and phase tracking of the DPOAE signal (54,s( n)) to obtain a normalized modulating carrier signal (66, c 1 '( n)) based on a calculated Root-Mean-Square average value of an amplitude of the DPOAE signal multiplied with the carrier signal (62, c 1 ( n)) and by calculating an error signal based on a difference between the captured DPOAE signal and the generated carrier signal and adjusting a phase of the carrier signal to minimize the error signal below a defined threshold; - temporally modulating the DPOAE signal (54, s ( n)) with the normalized modulating carrier signal (66, c 1 '( n)), low-pass filtering the modulated DPOAE signal (68, m 1 ( n)) by running a RMS algorithm, averaging the output of the algorithm to estimate a constant magnitude modulated DPOAE level; and - providing the estimated constant magnitude modulated DPOAE level as a DPOAE magnitude output signal. - acquiring the DPOAE signal (54, s ( n)) having a DPOAE frequency (f dp); - generating a carrier signal (62, c 1 ( n)) having a carrier frequency (f c) about equal to the DPOAE frequency (f dp); - normalizing the carrier signal (62, c 1 ( n)) with amplitude and phase tracking of the DPOAE signal (54,s( n)) to obtain a normalized modulating carrier signal (66, c 1 '( n)) based on a calculated Root-Mean-Square average value of an amplitude of the DPOAE signal multiplied with the carrier signal (62, c 1 ( n)) and by calculating an error signal based on a difference between the captured DPOAE signal and the generated carrier signal and adjusting a phase of the carrier signal to minimize the error signal below a defined threshold; - temporally modulating the DPOAE signal (54, s ( n)) with the normalized modulating carrier signal (66, c 1 '( n)), low-pass filtering the modulated DPOAE signal (68, m 1 ( n)) by running a RMS algorithm, averaging the output of the algorithm to estimate a constant magnitude modulated DPOAE level; and - providing the estimated constant magnitude modulated DPOAE level as a DPOAE magnitude output signal.
An apparatus for producing a window glass with a resin frame to be mounted to a vehicle, a decorative molding formed of a magnetic member being provided on the resin frame, comprising: a mold having a cavity space formed therein for forming a resin frame on a window glass; the mold further including a first mold formed of a non-magnetic member and having a mounting surface, the mounting surface being configured to have a decorative molding mounted thereon; and an electromagnet disposed on a surface of the first mold opposite to the mounting surface and configured to retain, on the mounting surface, the decorative molding mounted on the mounting surface, wherein the electromagnet being not exposed to the mounting surface and being disposed to be separated from the mounting surface by the first mold as a non-magnetic member. a mold having a cavity space formed therein for forming a resin frame on a window glass; the mold further including a first mold formed of a non-magnetic member and having a mounting surface, the mounting surface being configured to have a decorative molding mounted thereon; and an electromagnet disposed on a surface of the first mold opposite to the mounting surface and configured to retain, on the mounting surface, the decorative molding mounted on the mounting surface, wherein the electromagnet being not exposed to the mounting surface and being disposed to be separated from the mounting surface by the first mold as a non-magnetic member.
A controller for automatic defibrillation operation of a defibrillator, the controller comprising: a wave detector structurally configured to analyze a ECG waveform of a heart of a patient within an ECG analysis window for detecting the patient experiencing an organized heartbeat condition or an unorganized heartbeat condition; and a shock discharger structurally configured to: control a delivery of a synchronized defibrillation shock to the heart of the patient in response to a detection by the wave detector within the ECG analysis window of the patient experiencing the organized heartbeat condition, and control a delivery of an unsynchronized defibrillation shock to the heart of the patient in response to a detection by the wave detector within the ECG analysis window of the patient experiencing one of the unorganized heartbeat condition or an undetected organized heartbeat condition, characterised in that said shock discharger is further configured to synchronize the ECG analysis window to a shock activation of the defibrillator. a wave detector structurally configured to analyze a ECG waveform of a heart of a patient within an ECG analysis window for detecting the patient experiencing an organized heartbeat condition or an unorganized heartbeat condition; and a shock discharger structurally configured to: control a delivery of a synchronized defibrillation shock to the heart of the patient in response to a detection by the wave detector within the ECG analysis window of the patient experiencing the organized heartbeat condition, and control a delivery of an unsynchronized defibrillation shock to the heart of the patient in response to a detection by the wave detector within the ECG analysis window of the patient experiencing one of the unorganized heartbeat condition or an undetected organized heartbeat condition, characterised in that said shock discharger is further configured to synchronize the ECG analysis window to a shock activation of the defibrillator. control a delivery of a synchronized defibrillation shock to the heart of the patient in response to a detection by the wave detector within the ECG analysis window of the patient experiencing the organized heartbeat condition, and control a delivery of an unsynchronized defibrillation shock to the heart of the patient in response to a detection by the wave detector within the ECG analysis window of the patient experiencing one of the unorganized heartbeat condition or an undetected organized heartbeat condition, characterised in that said shock discharger is further configured to synchronize the ECG analysis window to a shock activation of the defibrillator.
A radio communication module (700, 800) comprising: a printed circuit board (710, 810) including a receiving connector (711, 811); a shield can (713, 813) provided on the printed circuit board (700, 800) and shielding an electromagnetic wave; and an antenna (720, 820) including a transmitting connector (723, 823) connected to the receiving connector (711, 811) and connected to the printed circuit board (700. 800) through the transmitting connector (723, 823), wherein the shield can (713, 813) includes a fixing part (712, 812b), and the transmitting connector includes a latching part (724, 824b) configured to be insertedly coupled to the fixing part (712, 812b). a printed circuit board (710, 810) including a receiving connector (711, 811); a shield can (713, 813) provided on the printed circuit board (700, 800) and shielding an electromagnetic wave; and an antenna (720, 820) including a transmitting connector (723, 823) connected to the receiving connector (711, 811) and connected to the printed circuit board (700. 800) through the transmitting connector (723, 823), wherein the shield can (713, 813) includes a fixing part (712, 812b), and the transmitting connector includes a latching part (724, 824b) configured to be insertedly coupled to the fixing part (712, 812b).