mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method of quantifying the aortic valve conformance and compliance in a subject in near real time, the method comprising the steps of: a. non-invasively obtaining the pulse arterial pressure waveform, the pulse arterial volume waveform and the pulse arterial velocity waveform from the carotid artery in a subject; b. constructing a waveform dPdU from the waveforms PPW and PUW; c. calculating the artery's stroke volume by integrating the waveform PUW over the time abscissa of the waveform dPdU, wherein the first time abscissa is the zero ordinate before the first peak and the second abscissa is the zero ordinate before the suction wave peak; d. calculating the aortic valve closure volume by integrating the waveform PUW from a linear decline from systole to end of diastole over the time abscissa of the waveform dPdU, wherein the first time abscissa is the zero ordinate before the suction wave peak, and the second time abscissa is the zero ordinate after the suction wave peak; e. calculating stroke volume, heart rate, and cardiac output for the subject using the aortic valve closure volume; and f. displaying the stroke volume, aortic valve conformance and compliance of the subj ect. a. non-invasively obtaining the pulse arterial pressure waveform, the pulse arterial volume waveform and the pulse arterial velocity waveform from the carotid artery in a subject; b. constructing a waveform dPdU from the waveforms PPW and PUW; c. calculating the artery's stroke volume by integrating the waveform PUW over the time abscissa of the waveform dPdU, wherein the first time abscissa is the zero ordinate before the first peak and the second abscissa is the zero ordinate before the suction wave peak; d. calculating the aortic valve closure volume by integrating the waveform PUW from a linear decline from systole to end of diastole over the time abscissa of the waveform dPdU, wherein the first time abscissa is the zero ordinate before the suction wave peak, and the second time abscissa is the zero ordinate after the suction wave peak; e. calculating stroke volume, heart rate, and cardiac output for the subject using the aortic valve closure volume; and f. displaying the stroke volume, aortic valve conformance and compliance of the subj ect.
A contrast media for use in imaging an individual's anatomic segment comprising: (a) from 0.01 % to 0.2% w/v of a contrast agent comprising a barium-based compound; (b) from 0.005% to 70% w/v of a sugar-based osmotic agent; said contrast media having a Hounsfield value from 0 to 50. (a) from 0.01 % to 0.2% w/v of a contrast agent comprising a barium-based compound; (b) from 0.005% to 70% w/v of a sugar-based osmotic agent; said contrast media having a Hounsfield value from 0 to 50.
A process comprising separating methanol from MMA (methylmethacrylate) via extractive distillation using an extractive distillation solvent comprising cyclohexanone.
Device with a positioning frame which can be affixed to the skin and with a transdermal therapeutic system which can be inserted into a recess passing through the positioning frame, the active substance delivery side of the inserted transdermal therapeutic system facing the skin, characterized in that the device comprises a tool unit which can be inserted into the recess of the positioning frame and centered in said recess in order to produce openings at least in the uppermost layer of the skin, such that the transdermal therapeutic system is insertable into the recess after the tool unit has been withdrawn from the recess.
An insulated wire comprising a laminated resin-coated insulated wire comprising: a thermosetting resin layer directly or via an insulating layer on a conductor having a rectangular cross-section; and at least a thermoplastic resin layer on the outer periphery of the thermosetting resin layer, wherein the cross-sectional shape of the thermosetting resin layer composed of two pairs of two sides facing each other, and has at least four convex portions each of which has a film thickness in maximum, wherein at least one convex portion of the at least four convex portions is on each of the four sides, or at least two convex portions of the at least four convex portions are on at least two sides facing each other, and wherein, in the each side having the convex portion, provided that a minimum film thickness is designated as "a" μm, and an average of maximum film thicknesses of the convex portions is designated as "b" μm, the a/b ratio is 0.60 or more and 0.90 or less. a thermosetting resin layer directly or via an insulating layer on a conductor having a rectangular cross-section; and at least a thermoplastic resin layer on the outer periphery of the thermosetting resin layer, wherein the cross-sectional shape of the thermosetting resin layer composed of two pairs of two sides facing each other, and has at least four convex portions each of which has a film thickness in maximum, wherein at least one convex portion of the at least four convex portions is on each of the four sides, or at least two convex portions of the at least four convex portions are on at least two sides facing each other, and wherein, in the each side having the convex portion, provided that a minimum film thickness is designated as "a" μm, and an average of maximum film thicknesses of the convex portions is designated as "b" μm, the a/b ratio is 0.60 or more and 0.90 or less.
A method for configuring a set of managed forwarding elements, MFEs, (311, 321, 331) in a particular locale that implement a logical forwarding element, LFE, (121, 122, 131) spanning a plurality of physical locales and implemented by a plurality of MFEs (311-314, 321-324, 331-334) at the plurality of physical locales, the method comprising: receiving a set of configuration data that defines forwarding behaviors for the MFEs (311, 321, 331) that implement the LFE (121, 122, 131) that spans the plurality of physical locales; the method being characterized by using a locale identifier assigned to the particular physical locale to perform a filter operation that eliminates, from the received configuration data set, configuration data that is not applicable to the particular locale, in order to produce a modified configuration data set; and using the modified configuration data set to configure the set of MFEs at the particular locale that implement the LFE (121, 122, 131) to have a set of forwarding behaviors that are custom-specified for the particular locale and not implemented by the MFEs (321, 331) of at least one of the other physical locales. receiving a set of configuration data that defines forwarding behaviors for the MFEs (311, 321, 331) that implement the LFE (121, 122, 131) that spans the plurality of physical locales; the method being characterized by using a locale identifier assigned to the particular physical locale to perform a filter operation that eliminates, from the received configuration data set, configuration data that is not applicable to the particular locale, in order to produce a modified configuration data set; and using the modified configuration data set to configure the set of MFEs at the particular locale that implement the LFE (121, 122, 131) to have a set of forwarding behaviors that are custom-specified for the particular locale and not implemented by the MFEs (321, 331) of at least one of the other physical locales.
An α-KTX family scorpion active polypeptide which acts on potassium channel Kvl.3, characterized in that the polypeptide has the amino acid sequence as set forth in SEQ ID NO: 1, SEQ ID NO: 2, SEQ ID NO: 3, SEQ ID NO: 13 or SEQ ID NO: 14.
Electrical device having a first sheet metal part, a second sheet metal part and a first screw, by means of which the two sheet metal parts (7, 5) are mechanically screwed together such that the screw head of the first screw presses the first sheet metal part against the second sheet metal part, and the first sheet metal part has a first contact element which projects from the first sheet metal part in the direction of the second sheet metal part and is formed by cutting and bending of a sheet metal section of the first sheet metal part, said first contact element pressing against the second sheet metal part to achieve an electrical contact of the two sheet metal parts (7, 5), characterised in that the first contact element is arranged on the first sheet metal part such that it is located at least partially below the screw head of the first screw, so that the screw head of the first screw presses the first contact element directly against the second sheet metal part, and the second sheet metal part has a receptacle which is aligned to the geometry of the first contact element such that at its screw head the first screw presses the first contact element into the receptacle in a force-fit and/or form-fit manner, so that the first contact element interacts in a force-fit and/or form-fit manner with the second sheet metal part.
A single-handed aspiration system for aspirating blood, blood clots and tissue debris, comprising: an aspiration cannula and a suction tube connected to the aspiration cannula, for removing blood, blood clots and tissue debris from a surgical site in a first direction; a peristaltic pump connected to the suction tube; a pressure transducer connected to the suction tube and configured to generate pressure signals indicative of a difference in pressure in the suction tube; and a controller connected to the peristaltic pump for operating the peristaltic pump in a reverse direction under a pressure feedback mechanism in response to the pressure signals, indicating a rising negative pressure, from the pressure transducer, to automatically flush out a clot from the aspiration cannula in a flushing cycle, characterised in that the suction tube is releasably connected to the aspiration cannula, thereby allowing the suction tube to be disconnected therefrom to release a clot blocking the aspiration cannula during the flushing cycle. an aspiration cannula and a suction tube connected to the aspiration cannula, for removing blood, blood clots and tissue debris from a surgical site in a first direction; a peristaltic pump connected to the suction tube; a pressure transducer connected to the suction tube and configured to generate pressure signals indicative of a difference in pressure in the suction tube; and a controller connected to the peristaltic pump for operating the peristaltic pump in a reverse direction under a pressure feedback mechanism in response to the pressure signals, indicating a rising negative pressure, from the pressure transducer, to automatically flush out a clot from the aspiration cannula in a flushing cycle, characterised in that the suction tube is releasably connected to the aspiration cannula, thereby allowing the suction tube to be disconnected therefrom to release a clot blocking the aspiration cannula during the flushing cycle.
A fixing structure for a bulb shell, comprising a light source board, a light distribution element and a bulb shell, the light distribution element being provided on the light source board for changing distribution of light emitted from the light source board, the bulb shell being provided around and covering the light source board and the light distribution element, wherein a bottom edge is provided at an opening in the bottom of the bulb shell, the bottom edge is arranged to surround the light source board, a pressing member is provided on the light distribution element, the pressing member or the bottom edge is made from an elastic material, and the pressing member extends beyond the light source board so as to press against the bottom edge of the bulb shell, wherein the fixing structure for the bulb shell further comprises a lamp body, the light source board is fixed on a top of the lamp body, the light distribution element is fixed above the light source board, characterized in that the bottom edge of the bulb shell is sandwiched between the pressing member of the light distribution element and the lamp body.
Striking mechanism unit for a repeater striking mechanism, said unit being of the type including a drive plate comprising a pipe mounted to pivot about a pivot axis, said drive plate carrying a click including a hook provided with a beak returned towards said axis by a spring, said unit further including a detent ratchet arranged to pivot about said axis and carrying a pin which is in abutment, through a hole in said drive plate, on said click against said spring, to operate said hook when said detent ratchet pivots, said beak of said hook, depending on the position thereof, allowing or preventing pivoting of a pipe ratchet, comprised in a downstream stage, said pipe ratchet being mounted to pivot coaxially on said pipe and also to pivot integrally about said axis with a first hour ratchet, characterized in that said downstream stage further includes, arranged to pivot about said axis, at least one second hour ratchet, which includes a toothing, which is inclined in the same direction as a toothing comprised in said first hour ratchet, and in that said at least one second hour ratchet is mounted to pivot integrally about said axis with said first hour ratchet.
Method for controlling an injection-moulding process, in which process setting variables of an injection-moulding machine are controlled by way of a controller module, wherein the controller module receives data from a process-internal sensory system of the injection-moulding machine, data concerning the production flow of the injection-moulded parts from an external sensory system and/or data concerning the quality of a produced injection-moulded component from an online component control unit, evaluates these data in a quality prognosis module and, dependent on the evaluation of the data, carries out a modification of the process setting variables of the injection-moulding machine, wherein the operating point of the injection-moulding machine is varied by the modification of the process setting variables such that the quality characteristics of the injection-moulded components produced with the modified operating point are within the predefined tolerances of the quality of the injection-moulded components, characterized in that the process setting variables of the injection-moulding machine are modified in a hierarchical sequence, so that, if possible, the process setting variables that are more time-critical on the reaction time of the injection-moulding machine are not modified, or only very slowly.
A parameter configuration method, comprising: receiving an indication of a first mapping relationship, wherein the first mapping relationship is a mapping relationship in a preconfigured first mapping relationship group, the first mapping relationship group comprises at least one mapping relationship, and the at least one mapping relationship is used to indicate at least one correspondence between a reporting quantity of spatial domain vectors and a reporting quantity of frequency domain vectors; and determining the reporting quantity L 0 of spatial domain vectors and the reporting quantity M 0 of frequency domain vectors based on the first mapping relationship, wherein the L 0 spatial domain vectors and the M 0 frequency domain vectors are used to construct a precoding vector of one or more frequency domain units, and both L 0 and M 0 are positive integers. receiving an indication of a first mapping relationship, wherein the first mapping relationship is a mapping relationship in a preconfigured first mapping relationship group, the first mapping relationship group comprises at least one mapping relationship, and the at least one mapping relationship is used to indicate at least one correspondence between a reporting quantity of spatial domain vectors and a reporting quantity of frequency domain vectors; and determining the reporting quantity L 0 of spatial domain vectors and the reporting quantity M 0 of frequency domain vectors based on the first mapping relationship, wherein the L 0 spatial domain vectors and the M 0 frequency domain vectors are used to construct a precoding vector of one or more frequency domain units, and both L 0 and M 0 are positive integers.
A cable holder having a base body made of elastically deformable plastic, which has the shape of a spherical segment, and a cable guiding channel, wherein the base body has a reinforcing plate which is arranged parallel to the axis of the guiding channel, characterized in that a deformable holder configured as a membrane is arranged in the cable guiding channel, which holder can hold cables, the cross-sectional area of which is smaller than the cross-sectional area of the cable guiding channel, and the reinforcing plate has reinforcing swords (37, 38) embedded in deformable plastic laterally of the guide channel.
Pharmaceutical composition comprising C7, mini-C7, or a variant thereof for use in a method for treating or accelerating healing of a wound in a subject, wherein said pharmaceutical composition is administered by topical application.
A device for the alignment of substrates, in particular wafers, comprising: - a first substrate holder (1, 1', 1o) for mounting a first substrate (3, 3o) on a first substrate holder surface (1s, 1s', 1so), - a second substrate holder for mounting a second substrate on a second substrate holder surface, - wherein the first substrate holder surface (1s, 1s', 1so) is facing towards the second substrate holder surface, - wherein the first substrate holder (1, 1', 1o) comprises at least three inner distance sensors for the measurement of first distances to the first substrate (3, 3o), in particular to a substrate surface of the first substrate (3, 3o), and - the first substrate holder (1, 1', 1o) comprises at least three outer distance sensors for the measurement of second distances to the second substrate holder surface of the second substrate holder. - a first substrate holder (1, 1', 1o) for mounting a first substrate (3, 3o) on a first substrate holder surface (1s, 1s', 1so), - a second substrate holder for mounting a second substrate on a second substrate holder surface, - wherein the first substrate holder surface (1s, 1s', 1so) is facing towards the second substrate holder surface, - wherein the first substrate holder (1, 1', 1o) comprises at least three inner distance sensors for the measurement of first distances to the first substrate (3, 3o), in particular to a substrate surface of the first substrate (3, 3o), and - the first substrate holder (1, 1', 1o) comprises at least three outer distance sensors for the measurement of second distances to the second substrate holder surface of the second substrate holder.
A decoder for decoding video or image, wherein (a) the decoder is configured to receive a bitstream; (b) the decoder is configured to decode the bitstream using one of a regular decoding engine and a bypass decoding engine in a context adaptive binary arithmetic coding; (c) the decoder is configured to generate two lists of probable modes using a function of previously determined prediction modes, wherein the two lists of probable modes include a first list and a second list, the first list including the "most probable modes" and the second list including further probable modes that are "not most probable modes"; (d) the decoder is configured to decode first information using the regular decoding engine, the first information indicates whether an intra prediction mode for a current block is selected from the first list; (e) in a case that the decoder identifies that the first information indicates that the intra prediction mode of the current block is selected from the first list, the decoder is configured to decode second information used for selecting an intra prediction mode from the first list using the bypass decoding engine; and (f) in a case that the decoder identifies that the first information indicates that the intra prediction mode of the current block is not selected from the first list, the decoder is configured to decode third information using the bypass decoding engine, the third information is used for selecting an intra prediction mode from the second list. (a) the decoder is configured to receive a bitstream; (b) the decoder is configured to decode the bitstream using one of a regular decoding engine and a bypass decoding engine in a context adaptive binary arithmetic coding; (c) the decoder is configured to generate two lists of probable modes using a function of previously determined prediction modes, wherein the two lists of probable modes include a first list and a second list, the first list including the "most probable modes" and the second list including further probable modes that are "not most probable modes"; (d) the decoder is configured to decode first information using the regular decoding engine, the first information indicates whether an intra prediction mode for a current block is selected from the first list; (e) in a case that the decoder identifies that the first information indicates that the intra prediction mode of the current block is selected from the first list, the decoder is configured to decode second information used for selecting an intra prediction mode from the first list using the bypass decoding engine; and (f) in a case that the decoder identifies that the first information indicates that the intra prediction mode of the current block is not selected from the first list, the decoder is configured to decode third information using the bypass decoding engine, the third information is used for selecting an intra prediction mode from the second list.
A radiotherapy apparatus (100, 200) comprising: a rotatable gantry (116, 216); a beam generation system attached to the gantry configured to generate a beam of therapeutic radiation; an on-gantry heat transfer system configured to rotate with the gantry, comprising a first conduit (222, 316, 420) comprising a first thermally conductive surface, the on-gantry heat transfer system being configured to transfer heat generated by the beam generation system to the thermally conductive surface; an off-gantry heat transfer system comprising a second thermally conductive surface, the off-gantry heat transfer system being configured to transfer heat away from the second thermally conductive surface; wherein the first thermally conductive surface is in thermal contact with the second thermally conductive surface to form an interface between the on-gantry heat transfer system and the off-gantry heat transfer system, the interface comprising one of physical contact between the first thermally conductive surface and the second thermally conductive surface, or a gas bearing. a rotatable gantry (116, 216); a beam generation system attached to the gantry configured to generate a beam of therapeutic radiation; an on-gantry heat transfer system configured to rotate with the gantry, comprising a first conduit (222, 316, 420) comprising a first thermally conductive surface, the on-gantry heat transfer system being configured to transfer heat generated by the beam generation system to the thermally conductive surface; an off-gantry heat transfer system comprising a second thermally conductive surface, the off-gantry heat transfer system being configured to transfer heat away from the second thermally conductive surface; wherein the first thermally conductive surface is in thermal contact with the second thermally conductive surface to form an interface between the on-gantry heat transfer system and the off-gantry heat transfer system, the interface comprising one of physical contact between the first thermally conductive surface and the second thermally conductive surface, or a gas bearing.