mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method of performing video surveillance on a computer system, wherein the computer system comprises a video and a display with a graphical user interface, the graphical user interface including a source window to view play back of the video, the surveillance method comprising: determining a user-selected area of interest of a frame of the video, the user selecting the area of interest within the source window; and generating a plurality of windows within the graphical user interface, each of the windows displaying the area of interest of the frame of the video at a point in time, wherein the graphical user interface includes controls to manipulate the playback of the video in each of the plurality of windows, from the point in time of the frame displayed in said window. determining a user-selected area of interest of a frame of the video, the user selecting the area of interest within the source window; and generating a plurality of windows within the graphical user interface, each of the windows displaying the area of interest of the frame of the video at a point in time, wherein the graphical user interface includes controls to manipulate the playback of the video in each of the plurality of windows, from the point in time of the frame displayed in said window.
Combination of a width-across-flats adapter with a component that can be screwed into a threaded opening, wherein the width-across-flats adapter has a main body, which is provided with a continuous internal recess that extends along a longitudinal axis and is intended to receive the component that can be screwed in, wherein an internal wall of the main body, said internal wall delimiting the internal recess, at least partially has, in a cross-sectional plane perpendicular to the longitudinal axis, the shape of a regular polygon corresponding to a first width across flats, and wherein an external wall of the main body at least partially has the shape of a regular polygon corresponding to a second width across flats that is larger than the first width across flats, wherein the main body has at least one protrusion that protrudes into the internal recess, wherein the at least one protrusion that protrudes into the internal recess forms a stop surface for the component, said stop surface being arranged perpendicular to or obliquely with respect to the longitudinal axis, and at least one fastening means for fastening the main body to the component is formed on the main body, wherein the at least one fastening means has, in the direction of the longitudinal axis, on the side of the main body facing away from the at least one protrusion, a lug that protrudes from the main body in the direction of the internal recess, wherein the main body has a peripheral wall that extends along the longitudinal axis, the internal side of said peripheral wall forming the internal wall and the external side of said peripheral wall forming the external wall, and wherein the main body additionally has an annular base plate, which is perpendicular to the longitudinal axis, formed in one piece with the wall, protrudes into the internal recess and, as a result, forms the at least one protrusion, wherein the component that can be screwed into the threaded opening has a threaded connector and a component main body, which is adjacent thereto along the longitudinal axis and the external periphery of which at least partially has, in a cross-sectional plane perpendicular to the longitudinal axis, the shape of a regular polygon corresponding to the first width across flats, and wherein the component is inserted into the receptacle such that the threaded connector protrudes from the main body of the width-across-flats adapter in the direction of the longitudinal axis outwardly out of the main body, wherein the threaded connector projects, on the side of the main body that is provided with the annular base plate, from the main body of the width-across-flats adapter.
A test strip comprising: a first and second vessel; a fluid exchange opening positioned between the first and second vessel; a conduit in fluid communication with the first vessel, the conduit configured to receive a fluid from a point external to the biosensor; and a membrane comprising perfluorinated ionomers positioned at the fluid exchange opening; wherein the membrane is capable of selectively transporting ammonia; and wherein the second vessel comprises a hypohalite, an alkali buffer, and a phenolic compound suitable for performing a Berthelot reaction. a first and second vessel; a fluid exchange opening positioned between the first and second vessel; a conduit in fluid communication with the first vessel, the conduit configured to receive a fluid from a point external to the biosensor; and a membrane comprising perfluorinated ionomers positioned at the fluid exchange opening; wherein the membrane is capable of selectively transporting ammonia; and wherein the second vessel comprises a hypohalite, an alkali buffer, and a phenolic compound suitable for performing a Berthelot reaction.
Mechanical switchable coolant pump for an internal combustion engine, comprising: a stationary pump frame, a rotatable pump wheel shaft with a pump wheel and a first clutch ring, whereby the pump wheel shaft is rotatably supported by the pump frame. a rotatable pulley wheel arrangement rotatably supported by the pump frame independent of the pump wheel shaft, the pulley wheel arrangement comprising a pulley wheel and a second clutch ring, whereby the pulley wheel can be driven by the combustion engine, the pump being characterised in that it further comprises a clutch arrangement comprising the first clutch ring, the second clutch ring, a pretensioning element axially pretensioning one clutch ring into an engaged position, a pushing wax element pushing the pretensioned clutch ring into a disengaged position and an electrical heating element heating the wax element, whereby the clutch is engaged when the electrical heating is not working and is disengaged when the electrical heating is working. a stationary pump frame, a rotatable pump wheel shaft with a pump wheel and a first clutch ring, whereby the pump wheel shaft is rotatably supported by the pump frame. a rotatable pulley wheel arrangement rotatably supported by the pump frame independent of the pump wheel shaft, the pulley wheel arrangement comprising a pulley wheel and a second clutch ring, whereby the pulley wheel can be driven by the combustion engine, the pump being characterised in that it further comprises a clutch arrangement comprising the first clutch ring, the second clutch ring, a pretensioning element axially pretensioning one clutch ring into an engaged position, a pushing wax element pushing the pretensioned clutch ring into a disengaged position and an electrical heating element heating the wax element, whereby the clutch is engaged when the electrical heating is not working and is disengaged when the electrical heating is working.
Method for the non-therapeutic cosmetic treatment of non acneic oily skin, comprising: a) exposing the non acneic oily skin to a first quasi-monochromatic light of artificial origin having a dominant wavelength peak between 300 and 700 nm, better still between 400 and 650 nm, even better still between 560 and 620 nm, and in particular of around 590 nm, and b) applying to the non acneic oily skin a cosmetic composition comprising at least 1% by weight of hollow particles and preferably from 2% to 6% by weight of hollow particles, relative to the total weight of said composition, the hollow particles being hydrophobic silica aerogel particles. a) exposing the non acneic oily skin to a first quasi-monochromatic light of artificial origin having a dominant wavelength peak between 300 and 700 nm, better still between 400 and 650 nm, even better still between 560 and 620 nm, and in particular of around 590 nm, and b) applying to the non acneic oily skin a cosmetic composition comprising at least 1% by weight of hollow particles and preferably from 2% to 6% by weight of hollow particles, relative to the total weight of said composition, the hollow particles being hydrophobic silica aerogel particles.
A hygiene-compliant display and control device for arrangement on a mounting plate, wherein the display and control device comprises a front plate and a sealing element, which sealing element is arranged between the front plate and the mounting plate in a compressed state of the display and control device on the mounting plate, wherein a number of clamping arrangements, each having a pressing element, are provided on the display and control device distributed around the periphery, wherein each pressing element engages with an axial end with a fixing frame, which abuts the mounting plate, or with the mounting plate, wherein a peripheral groove is provided on the outer edge of the front plate, which groove is open on the outer peripheral surface of the front plate, wherein the sealing element is fitted in the peripheral groove, characterized in that the outer peripheral surface of the sealing element is arranged flush with the outer peripheral surface of the front plate.
An implantable cardiac rhythm system comprising: a first implantable medical device configured to monitor a patient's heart rhythm and provide shock therapy to correct the patient's heart rhythm, the first implantable medical device further configured to detect a first heart beat of the patient; a second implantable medical device configured to sense the patient's heart, the second implantable medical device configured to detect the first heart beat of the patient; and wherein the second implantable medical device, upon detecting the R-wave of the first heart beat, is configured to communicate an indication of the detection of the R-wave of the first heart beat to the first implantable medical device, and in response, the first implantable medical device is configured to initiate a blanking period, characterized in that the system is configured to set the blanking period duration based on the monitored heart rhythm to blank out the anticipated T-wave of the first heart beat, so that the first implantable medical device is prevented from interpreting a T-wave as a subsequent second heart beat, and to allow detection of the anticipated R-wave of the subsequent heart beat. a first implantable medical device configured to monitor a patient's heart rhythm and provide shock therapy to correct the patient's heart rhythm, the first implantable medical device further configured to detect a first heart beat of the patient; a second implantable medical device configured to sense the patient's heart, the second implantable medical device configured to detect the first heart beat of the patient; and wherein the second implantable medical device, upon detecting the R-wave of the first heart beat, is configured to communicate an indication of the detection of the R-wave of the first heart beat to the first implantable medical device, and in response, the first implantable medical device is configured to initiate a blanking period, characterized in that the system is configured to set the blanking period duration based on the monitored heart rhythm to blank out the anticipated T-wave of the first heart beat, so that the first implantable medical device is prevented from interpreting a T-wave as a subsequent second heart beat, and to allow detection of the anticipated R-wave of the subsequent heart beat.
Mobile shim for compression mold for manufacturing a reinforced plastic part by molding under a predetermined maximum molding pressure, the mold comprising a molding element, this mobile shim being displaceable in translation parallel to a mold closing direction, said mobile shim having a molding surface intended to come into continuous contact, during molding, with a molding surface on the molding element, characterized in that this mobile shim comprises over at least part of its thickness, in a direction perpendicular to the mold closing direction, at least one component of determined configuration, said high expansion component comprising one or more high expansion materials, this high expansion material having a mean coefficient of expansion sufficient so that the clearance between the shim and the molding element is zero at least when, during molding, this high expansion component is heated to at least a molding temperature T M between 115 °C and 170 °C, this high expansion component having in addition a mean Young's modulus at the molding temperature E CHD, less than 20 000 MPa, and in that the configuration of the high expansion component and the one or more high expansion materials forming this component are selected so that when the shim is assembled in the mold and during molding, this high expansion component is heated from an ambient temperature of 23 °C to said molding temperature, the expansion of this high expansion component generates at a sealing region between the shim and the molding element a compression stress in a direction perpendicular to the mold closing direction, or increases the compression stress if it exists at ambient temperature, the compression stress being sufficient, when this high expansion component is at the molding temperature, to guarantee sealing during molding between said mobile shim and the molding element, the temperature T M being considered at a mean level of this sealing region.
A heat insulation structure (200; 300a-c; 400; 500) for a garment (600; 800) with a. a plurality of first insulation elements (210; 310a-c; 410; 510; 610; 810) and b. a plurality of second insulation elements (220; 320a-c; 420; 520; 620; 820), wherein c. the second insulation elements (220; 320a-c; 420; 520; 620; 820) each comprise a different initial shape than the first insulation elements (210; 310a-c; 410; 510; 610; 810), wherein d. each first insulation element (210; 310a-c; 410; 510; 610; 620) is connected to at least one second insulation element (220; 320a-c; 420; 520; 620, 820), wherein e. the second insulation elements (220; 320a-c; 420; 520; 620; 820) are deformed when wearing the garment (600; 800) by a pressure on the interior side of the heat insulation structure (200; 300a-c; 400; 500) such that contact areas, in which the first insulation elements (210; 310a-c; 410; 510; 610; 810) contact the second insulation elements (220; 320a-c; 420; 520; 620; 820) are increased, characterised in that f. the first insulation elements (210; 310a-c; 410; 510; 610; 810) and the second insulation elements (220; 320a-c; 420; 520; 620; 820) are alternatingly arranged alongside each other. a. a plurality of first insulation elements (210; 310a-c; 410; 510; 610; 810) and b. a plurality of second insulation elements (220; 320a-c; 420; 520; 620; 820), wherein c. the second insulation elements (220; 320a-c; 420; 520; 620; 820) each comprise a different initial shape than the first insulation elements (210; 310a-c; 410; 510; 610; 810), wherein d. each first insulation element (210; 310a-c; 410; 510; 610; 620) is connected to at least one second insulation element (220; 320a-c; 420; 520; 620, 820), wherein e. the second insulation elements (220; 320a-c; 420; 520; 620; 820) are deformed when wearing the garment (600; 800) by a pressure on the interior side of the heat insulation structure (200; 300a-c; 400; 500) such that contact areas, in which the first insulation elements (210; 310a-c; 410; 510; 610; 810) contact the second insulation elements (220; 320a-c; 420; 520; 620; 820) are increased, characterised in that f. the first insulation elements (210; 310a-c; 410; 510; 610; 810) and the second insulation elements (220; 320a-c; 420; 520; 620; 820) are alternatingly arranged alongside each other.
A method for preparing a filled polymeric composition intended to be cross-linked, characterized in that it comprises the following steps: i. preparing a composition comprising an organic polymer, and at least one inorganic filler, this preparation step comprising the two following sub-steps: i.a mixing the organic polymer and a first portion of the inorganic filler, and i.b mixing a second portion of the inorganic filler with the mixture obtained in step i.a, ii. adding to the mixture of the preceding step, a silane compound and a compound generating free radicals under the action of heat, the compound generating free radicals having a decomposition temperature below the decomposition temperature of the inorganic filler, and iii. grafting the silane compounds to the organic polymer, in order to obtain said filled polymer composition intended to be cross-linked. i. preparing a composition comprising an organic polymer, and at least one inorganic filler, this preparation step comprising the two following sub-steps: i.a mixing the organic polymer and a first portion of the inorganic filler, and i.b mixing a second portion of the inorganic filler with the mixture obtained in step i.a, i.a mixing the organic polymer and a first portion of the inorganic filler, and i.b mixing a second portion of the inorganic filler with the mixture obtained in step i.a, ii. adding to the mixture of the preceding step, a silane compound and a compound generating free radicals under the action of heat, the compound generating free radicals having a decomposition temperature below the decomposition temperature of the inorganic filler, and iii. grafting the silane compounds to the organic polymer, in order to obtain said filled polymer composition intended to be cross-linked.
A subject information acquisition apparatus configured to acquire movement information of an object in a subject, the subject information acquisition apparatus comprising: a plurality of transducers configured to transmit an acoustic wave pulse to the subject, receive reflected waves reflected from a plurality of positions in the subject, each of the plurality of transducers coupled to a corresponding output channel, and convert the reflected waves respectively into time series received signals; and a processing unit (006, 007, 008) configured to acquire the movement information of the object by using a plurality of the received signals output from the plurality of transducers via the corresponding output channels, characterized in that the processing unit extracts, for each of the output channels, a plurality of signals each representing a movement component and reduces, for each of the output channels, signals based on reflected waves from an unmoving reflector by using the plurality of received signals, performs adaptive beam forming by using the plurality of signals each representing the movement component, and acquires the movement information of the object by using a plurality of output signals obtained by the adaptive beam forming. a plurality of transducers configured to transmit an acoustic wave pulse to the subject, receive reflected waves reflected from a plurality of positions in the subject, each of the plurality of transducers coupled to a corresponding output channel, and convert the reflected waves respectively into time series received signals; and a processing unit (006, 007, 008) configured to acquire the movement information of the object by using a plurality of the received signals output from the plurality of transducers via the corresponding output channels, characterized in that the processing unit extracts, for each of the output channels, a plurality of signals each representing a movement component and reduces, for each of the output channels, signals based on reflected waves from an unmoving reflector by using the plurality of received signals, performs adaptive beam forming by using the plurality of signals each representing the movement component, and acquires the movement information of the object by using a plurality of output signals obtained by the adaptive beam forming.
A computer program comprising instructions which, when the program is executed by a computer, cause the computer to carry out a computer-implemented medical method of adapting a biomechanical model of an anatomical body part of a patient to a current status of the patient, the method comprising the following steps: a) initial biomechanical model data is acquired which describes an initial biomechanical model of the anatomical body part; b) workflow step data is acquired which describes a current step of a workflow of a procedure to be carried out on the patient; c) status change data is determined based on the workflow step data and the initial biomechanical model data, wherein the status change data describes a change in the patient's status, the change in the patient's status is a change in at least one of a position or the geometry of the patient's body; d) model adaptation data is acquired which describes an association between the change in the patient's status and an adaptation to be applied to the initial biomechanical model; e) adapted biomechanical model data is determined based on the initial biomechanical model data and the status change data and the model adaptation data, wherein the adapted biomechanical model data describes an adapted biomechanical model which is determined by applying the adaptation to the initial biomechanical model, the method being characterized by comprising a step in which imaging control data is determined based on the status change data, wherein the imaging control data describes a command to be issued to a medical imaging device for taking an image of at least part of the anatomical body part, wherein the part of the anatomical body part to be imaged corresponds anatomically to a part of the biomechanical model which is adapted for determining the adapted biomechanical model data. a) initial biomechanical model data is acquired which describes an initial biomechanical model of the anatomical body part; b) workflow step data is acquired which describes a current step of a workflow of a procedure to be carried out on the patient; c) status change data is determined based on the workflow step data and the initial biomechanical model data, wherein the status change data describes a change in the patient's status, the change in the patient's status is a change in at least one of a position or the geometry of the patient's body; d) model adaptation data is acquired which describes an association between the change in the patient's status and an adaptation to be applied to the initial biomechanical model; e) adapted biomechanical model data is determined based on the initial biomechanical model data and the status change data and the model adaptation data, wherein the adapted biomechanical model data describes an adapted biomechanical model which is determined by applying the adaptation to the initial biomechanical model,
A method for the overlapping arrangement of sheets in a transfer device arranged between a first processing station (01; 02; 03; 04; 06; 07; 08; 09; 11; 12) and a subsequent second processing station (01; 02; 03; 04; 06; 07; 08; 09; 11; 12) in the transport direction of the sheets of the first processing station (01; 02; 03; 04; 06; 07; 08; 09; 11; 12), in which the sheets to be overlapped from the first processing station (01; 02; 03; 04; 06; 07; 08; 09; 11; 12) are transported in a transport plane in each case lying individually in succession to the transfer device, in which in each case a rear edge in the transport direction of the sheets coming from the first processing station (01; 02; 03; 04; 06; 07; 08; 09; 11; 12) is raised relative to the transport plane solely by blown air and a subsequent sheet is slipped under the rear edge of the respective preceding sheet, characterized in that further blown air is blown against the transport direction of the sheets under an acute angle formed with the transport plane from above onto the sheets to be transported to the transfer device, wherein an effective width directed orthogonally to the transport direction of the sheets of the blown air acting in the direction of the transport plane against gravity and an effective width of the further blown air directed against the transport direction of the sheets are each set depending on a width of the sheet directed orthogonally to the transport direction of the sheets.