mhurhangee/ep-ind-claims huggingface dataset:
A dressing for a Huber needle assembly comprising a pad having an aperture for receiving a housing of a Huber needle assembly embedded in a patient and an adhesive layer on an underside of said pad for adhering to a patient and a transparent bubble secured directly to said pad in alignment with said aperture to contain the housing of the Huber needle assembly therein and the bubble having a slot for passage of a tubing from the housing of the Huber needle assembly characterized in having a foldable section for folding over said pad and sized to cover said pad therein, said section having an adhesive on a periphery thereof for adherence to a patient.
Tire comprising a tread, at least one groove, at least one wear indicator arranged in the groove, and further comprising at least one wear indicator, characterized in that the wear indicator comprises at least two coaxial parts, a radially inner part and a radially outer part arranged in the extension of the radially inner part, the section of the radially outer part being greater by at least 30% than the section of the radially inner part.
Floor nozzle for a vacuum cleaner, comprising a housing which has a base facing the floor surface in the treatment position, a suction mouth being arranged in the base, the suction mouth being surrounded by a rear region of the base, a front region of the base and lateral regions of the base, the rear region and the lateral regions of the base being deformable, characterised in that the base is constructed in a multi-membered manner, the individual members (8, 8a, 8b, 8c) of the base being designed to be pivotable relative to one another.
A sensor for measuring a photoplethysmogram waveform, a phonocardiogram waveform, an impedance plethysmogram waveform, and an electrocardiogram waveform from a patient's chest, the sensor comprising: a housing (30, 39A, 39B) configured to be located on the patient's chest; a reflective optical sensor (36, 61, 62) for measuring the PPG waveform; a digital microphone (45, 46) for measuring the PCG waveform; a buzzer, disposed proximate to the digital microphone (45, 46), the buzzer configured to generate an acoustic sound at a known amplitude and frequency to determine how well the digital microphone (45, 46) is coupled to the patient's chest; a set of electrodes (49A-I) for attaching the optical sensor and the digital microphone to the patient's chest, with the set of electrodes connected to an ECG sensor configured to measure the ECG waveform, wherein the set of electrodes is further attached to an IPG sensor, the IPG sensor configured to measure the IPG waveform, and wherein the IPG sensor is configured to inject current at multiple frequencies into the patient's chest, and further configured to measure the current at multiple frequencies to determine the IPG waveform at multiple frequencies, and wherein the digital microphone is configured to measure the acoustic sound, and then compare its amplitude or frequency to other historical measurements to determine how well the digital microphone is coupled to the patient. a housing (30, 39A, 39B) configured to be located on the patient's chest; a reflective optical sensor (36, 61, 62) for measuring the PPG waveform; a digital microphone (45, 46) for measuring the PCG waveform; a buzzer, disposed proximate to the digital microphone (45, 46), the buzzer configured to generate an acoustic sound at a known amplitude and frequency to determine how well the digital microphone (45, 46) is coupled to the patient's chest; a set of electrodes (49A-I) for attaching the optical sensor and the digital microphone to the patient's chest, with the set of electrodes connected to an ECG sensor configured to measure the ECG waveform, wherein the set of electrodes is further attached to an IPG sensor, the IPG sensor configured to measure the IPG waveform, and wherein the IPG sensor is configured to inject current at multiple frequencies into the patient's chest, and further configured to measure the current at multiple frequencies to determine the IPG waveform at multiple frequencies, and wherein the digital microphone is configured to measure the acoustic sound, and then compare its amplitude or frequency to other historical measurements to determine how well the digital microphone is coupled to the patient.
Method for operating a processor in a real-time environment, wherein the processor, after handling a real-time event (EZE, EZE1 to EZE3), is switched from an operating state to a non-operating sleep state, wherein an auxiliary signal is generated for an imminent occurrence of a subsequent real-time event (EZE, EZE1 to EZE3), and wherein the processor is switched to the operating state by means of said auxiliary signal before the subsequent real-time event (EZE, EZE1 to EZE3) occurs, characterised in that the processor handles real-time events in the form of a signal from at least one sensor, wherein the signal is generated by the sensor if the latter detects that a predefined threshold value of a variable (s) has been exceeded or undershot, wherein the processor, after handling a real-time event, is switched from an operating state to a non-operating sleep state, wherein an exceeding or undershooting of a predefined auxiliary threshold value (HSW, HSW') of the variable (s) is detected by means of at least one auxiliary sensor (4, 4') and the auxiliary signal is generated by the auxiliary sensor, wherein during the change in the value of the variable (s) the auxiliary threshold value (HSW, HSW') is reached before the threshold value.
Method for monitoring the capability of an exhaust gas probe to measure a fuel rich mixture in an exhaust gas tract of a lean-operated internal combustion engine, wherein, in the exhaust gas probe, exhaust gas diffuses from the exhaust gas tract into a measuring cavity in the exhaust gas probe via a diffusion barrier, and wherein oxygen is pumped into or out of the measuring cavity in accordance with a flowing pump current via a pump cell having an inner pump electrode and a second pump electrode, by applying a pump voltage between the electrodes (21, 22), characterized in that during lean operation of the internal combustion engine, in a diagnostic phase the pumping direction of the pump cell is reversed and oxygen is pumped into the measuring cavity, and in that the capability of the exhaust gas probe to measure a fuel rich mixture is concluded from the pump current and/or the pump voltage.
A surgical patient support, comprising: a support frame including first and second support rails extending parallel to each other from a head end to a foot end of the patient support, a head-cross beam and a foot-cross beam connected to each of the support rails (18, 20) at the head end and foot end respectively, and a connection arm engaged with the head-cross beam, a platform mounted on the frame and including a torso section and a leg section, an actuator assembly coupled to the support frame and configured to support the leg section, wherein the leg section is configured to move between a raised position and a lowered position, wherein the first and second support rails (18, 20) each include a torso rail and a leg rail, the torso rails each extending from the head-cross beam towards the foot end to connect with the leg rail of the respective support rail (18, 20), and each leg rail extends from connection with the torso rail of the respective support rail (18, 20) towards the foot end, and wherein each leg rail includes a first sub-rail and a second sub-rail, and each first sub-rail extends from connection with the torso rail of the respective support rail (18, 20) towards the foot end at an angle relative to the torso rail of the respective support rail (18, 20). a support frame including first and second support rails extending parallel to each other from a head end to a foot end of the patient support, a head-cross beam and a foot-cross beam connected to each of the support rails (18, 20) at the head end and foot end respectively, and a connection arm engaged with the head-cross beam, a platform mounted on the frame and including a torso section and a leg section, an actuator assembly coupled to the support frame and configured to support the leg section, wherein the leg section is configured to move between a raised position and a lowered position, wherein the first and second support rails (18, 20) each include a torso rail and a leg rail, the torso rails each extending from the head-cross beam towards the foot end to connect with the leg rail of the respective support rail (18, 20), and each leg rail extends from connection with the torso rail of the respective support rail (18, 20) towards the foot end, and wherein each leg rail includes a first sub-rail and a second sub-rail, and each first sub-rail extends from connection with the torso rail of the respective support rail (18, 20) towards the foot end at an angle relative to the torso rail of the respective support rail (18, 20).
A wall structure comprising: (a) a frame comprising: (i) a first member; (ii) a second member spaced apart from the first member; and (iii) connecting members (16, 17) extending between the first member and the second member, wherein the first member, the second member, and the connecting members (16, 17) each comprise a front surface and a rear surface that form a front frame surface and a rear frame surface; (b) a sheet metal sheathing having a thickness of 0.18 to 3.74 mm overlying the front frame surface such that the sheet metal sheathing, the first member, the second member, and the connecting members (16, 17) define a cavity; (c) a foam panel overlying the sheet metal sheathing; and (d) a foam layer disposed within the cavity, wherein the foam layer adheres to the sheet metal sheathing. (a) a frame comprising: (i) a first member; (ii) a second member spaced apart from the first member; and (iii) connecting members (16, 17) extending between the first member and the second member, wherein the first member, the second member, and the connecting members (16, 17) each comprise a front surface and a rear surface that form a front frame surface and a rear frame surface; (i) a first member; (ii) a second member spaced apart from the first member; and (iii) connecting members (16, 17) extending between the first member and the second member, (b) a sheet metal sheathing having a thickness of 0.18 to 3.74 mm overlying the front frame surface such that the sheet metal sheathing, the first member, the second member, and the connecting members (16, 17) define a cavity; (c) a foam panel overlying the sheet metal sheathing; and (d) a foam layer disposed within the cavity, wherein the foam layer adheres to the sheet metal sheathing.
Device in the form of a connecting pipe for use in heat pump devices for decoupling and for vibration control, comprising: - a pipe section; and - respectively an end-side arranged connecting element; wherein the device comprises exactly two non-metallic, spaced, offset bellows arrangements for vibration compensation; wherein the pipe section between the connecting elements, apart from any individual stabilising rings or reinforcing ribs, has a constant material thickness, and wherein the bellows arrangements consist of one or more annularly closed foldings, each running around 360°, and that the foldings of the bellows arrangements are designed in such a way that in a longitudinal section the centre line within the material forms approximately spherical segments with the same radii. - a pipe section; and - respectively an end-side arranged connecting element; wherein the device comprises exactly two non-metallic, spaced, offset bellows arrangements for vibration compensation; wherein the pipe section between the connecting elements, apart from any individual stabilising rings or reinforcing ribs, has a constant material thickness, and wherein the bellows arrangements consist of one or more annularly closed foldings, each running around 360°, and that the foldings of the bellows arrangements are designed in such a way that in a longitudinal section the centre line within the material forms approximately spherical segments with the same radii.
A vehicle control method in which a sailing control for traveling under inertia is executed when a vehicle is traveling, the vehicle control method comprising: storing a history of the sailing control as history information classified according to situations in which the sailing control was canceled each time the sailing control is executed; and when a prescribed sailing condition is fulfilled: specifying a current travel situation, specifying the history information that corresponds to the current travel situation from the stored history information, determining whether to allow or disallow the sailing control based on the specified history information, and executing the sailing control upon determining the sailing control has been allowed, characterized by setting an update frequency index that establishes a frequency to update the history information, and allowing the sailing control and updating the history information at the frequency corresponding to the update frequency index even upon determining that the sailing control is to be disallowed based on the history information. storing a history of the sailing control as history information classified according to situations in which the sailing control was canceled each time the sailing control is executed; and when a prescribed sailing condition is fulfilled: specifying a current travel situation, specifying the history information that corresponds to the current travel situation from the stored history information, determining whether to allow or disallow the sailing control based on the specified history information, and executing the sailing control upon determining the sailing control has been allowed, characterized by setting an update frequency index that establishes a frequency to update the history information, and allowing the sailing control and updating the history information at the frequency corresponding to the update frequency index even upon determining that the sailing control is to be disallowed based on the history information. specifying a current travel situation, specifying the history information that corresponds to the current travel situation from the stored history information, determining whether to allow or disallow the sailing control based on the specified history information, and executing the sailing control upon determining the sailing control has been allowed, characterized by setting an update frequency index that establishes a frequency to update the history information, and allowing the sailing control and updating the history information at the frequency corresponding to the update frequency index even upon determining that the sailing control is to be disallowed based on the history information.
A method for producing an adhesive connection between a workpiece having a metal surface and a workpiece having a plastic surface with the steps - providing a workpiece having a metal surface that has a coating, which comprises a thermoplastic, at least at one melt surface, wherein for coating the melt surface, a coating agent for a base coat, comprising metal particles and an inorganic binder, is applied onto the melt surface, a coating agent for a top coat being applied on the base coat, wherein at least the coating agent for the top coat comprises a thermoplastic, - providing a workpiece having a thermoplastic surface, - placing the melt surface of the workpiece having the metal surface and the workpiece having the thermoplastic surface against each other, - welding the workpiece having a metal surface and the non-metallic workpiece having the thermoplastic surface at the melt surface by exposure to ultrasonic. - providing a workpiece having a metal surface that has a coating, which comprises a thermoplastic, at least at one melt surface, wherein for coating the melt surface, a coating agent for a base coat, comprising metal particles and an inorganic binder, is applied onto the melt surface, a coating agent for a top coat being applied on the base coat, wherein at least the coating agent for the top coat comprises a thermoplastic, - providing a workpiece having a thermoplastic surface, - placing the melt surface of the workpiece having the metal surface and the workpiece having the thermoplastic surface against each other, - welding the workpiece having a metal surface and the non-metallic workpiece having the thermoplastic surface at the melt surface by exposure to ultrasonic.
An imaging device comprising: an imaging unit which has an imaging element configured to nondestructively read an image signal and performs imaging of a subject using the imaging element; a reading control unit which performs nondestructive reading of the image signal from the imaging element during imaging of the subject; a storage unit (114, 115) which stores the image signal nondestructively read by the reading control unit; an abnormality detection unit which detects the occurrence of an abnormal state during imaging of the subject; an output unit which reads and outputs the image signal nondestructively read being stored in the storage unit (114, 115) in a case where the abnormal state is detected by the abnormality detection unit, characterized in that the image device further comprises a housing in which the subject is placed and which has an opening/closing door; and an open state detection unit which detects an open state of the opening/closing door, wherein the abnormality detection unit detects the occurrence of the abnormal state in a case where the open state of the opening/closing door is detected by the open state detection unit. an imaging unit which has an imaging element configured to nondestructively read an image signal and performs imaging of a subject using the imaging element; a reading control unit which performs nondestructive reading of the image signal from the imaging element during imaging of the subject; a storage unit (114, 115) which stores the image signal nondestructively read by the reading control unit; an abnormality detection unit which detects the occurrence of an abnormal state during imaging of the subject; an output unit which reads and outputs the image signal nondestructively read being stored in the storage unit (114, 115) in a case where the abnormal state is detected by the abnormality detection unit, characterized in that the image device further comprises a housing in which the subject is placed and which has an opening/closing door; and an open state detection unit which detects an open state of the opening/closing door, wherein the abnormality detection unit detects the occurrence of the abnormal state in a case where the open state of the opening/closing door is detected by the open state detection unit.
Use of at least one compound of the following formula I wherein R is selected from the class formed by methyl, 2-(diethylamino)-ethyl, butyl, glycidyl, ethyl, benzyl, lauryl, allyl, stearyl, hydroxypropyl, isobutyl, phenyl, isobornyl, cyclohexyl, propyl, tert-butyl, sec-butyl, n-propyl and at least one amine, selected from the class formed by ethylenediamine, monoethanolamine, dimethylisopropanolamine, and dimethylaminopropylamine as H 2 S scavenger in water and hydrocarbon fluids and gases present in crude oil extraction and refining processes.
A display control method for a display control device, the display control device including a turn signal installed in a vehicle; and an indicator (6a, 6b) for displaying a lighting state of the turn signal to an occupant of the vehicle; the display control device controlling the lighting state of the turn signal and a lighting state of the indicator (6a, 6b); wherein timing of starting to turn on the turn signal and timing of starting to turn on the indicator (6a, 6b) are different from each other; and the indicator (6a, 6b) is continuously turned on before the turn signal is blinked; characterized in that the indicator (6a, 6b) starts to be continuously turned on in a case where the occupant manipulates a winker switch; and the indicator (6a, 6b) is changed from being continuously turned on to being blinked when the turn signal is blinked.
A method for manufacturing a cylinder block wherein, a thermal spraying process for forming a thermally sprayed coating on an inner surface of a cylinder bore of the cylinder block by reciprocating a thermal spray gun along an axial direction in the cylinder bore while rotating the thermal spray gun is carried out, characterized in that in the thermal spraying process carried out following a cast process of the cylinder block, the heat input to the cylinder block is controlled to reduce a heat amount received by the cylinder block by making the number of reciprocating cycles of the thermal spray gun in the cylinder bore larger when a moving speed of the thermal spray gun in the axial direction in the cylinder bore is made faster.
Filter device for air filtering, in particular for renovation work in buildings, with a housing, in which at least one dust filter, especially a HEPA filter, and at least one fan for dust extraction are arranged, wherein the housing is equipped with a plurality of air inlet sides as well as with at least one air outlet opening (26, 27) for blowing out the air sucked into the housing by the fan and the fan generates a negative pressure at each air outlet side, wherein a detachable adapter plate (29, 30) for a suction hose (31, 32) or a detachable cover plate (33, 34, 35) can be attached to at several air inlet sides in such a way, that optionally a free air intake, if the adapter plate (29, 30) or cover plate (33, 34, 35) is not mounted, or a suction through a suction tube (31, 32), if the adapter plate (29, 30) is mounted, is possible at several air inlet sides, characterized in that there the housing has a total of two air outlet openings (26, 27) opposite to each other.
A facility for depositing a film of ordered particles onto a moving substrate, the facility comprising: a transfer area comprising an entry of particles and an exit of particles spaced apart from each other by two side edges facing each other, retaining a carrier liquid on which the particles float, said facility being designed so as to allow deposition, onto the substrate, of the film of ordered particles escaping through said exit of particles, characterized in that it further includes a plurality of suction nozzles (32a, 32b) capable of attracting the particles present in the transfer area towards its two side edges. a transfer area comprising an entry of particles and an exit of particles spaced apart from each other by two side edges facing each other, retaining a carrier liquid on which the particles float, said facility being designed so as to allow deposition, onto the substrate, of the film of ordered particles escaping through said exit of particles, characterized in that it further includes a plurality of suction nozzles (32a, 32b) capable of attracting the particles present in the transfer area towards its two side edges.