mhurhangee/ep-ind-claims huggingface dataset:
A system for performing an ovarian procedure in combination with a transvaginal probe having a handle and an ultrasound transducer, the system comprising: a) a docking device, the docking device comprising an elongate body and having a proximal end, a distal end, and defining a lumen therethrough; b) a radiofrequency energy element slidable within and deployable from the lumen of the docking device; c) an adapter, configured to be coupled to the handle, for coupling the docking device to the handle, the adapter having an alignment channel with a geometry that engages the proximal end of the docking device to maintain planar orientation of the radiofrequency energy element relative to the ultrasound transducer during the ovarian procedure; and d) a generator configured to supply radiofrequency energy to the radiofrequency energy element. a) a docking device, the docking device comprising an elongate body and having a proximal end, a distal end, and defining a lumen therethrough; b) a radiofrequency energy element slidable within and deployable from the lumen of the docking device; c) an adapter, configured to be coupled to the handle, for coupling the docking device to the handle, the adapter having an alignment channel with a geometry that engages the proximal end of the docking device to maintain planar orientation of the radiofrequency energy element relative to the ultrasound transducer during the ovarian procedure; and d) a generator configured to supply radiofrequency energy to the radiofrequency energy element.
A wound dressing comprising: a superabsorbent layer configured to absorb wound fluid and having a first side and a second, wound-facing side; a backing layer having a first side and a second, wound-facing side, wherein the backing layer is substantially impermeable to liquid and substantially permeable to vapor; and a charcoal layer configured to increase a moisture vapor transmission rate of the wound dressing, wherein the charcoal layer comprises activated charcoal having a plurality of pores that increase a surface area available for adsorption of the wound fluid, the charcoal layer comprising: a first side positioned adjacent to and abutting the second, wound-facing side of the backing layer; and a second, wound-facing side positioned adjacent to and abutting the first side of the superabsorbent layer. a superabsorbent layer configured to absorb wound fluid and having a first side and a second, wound-facing side; a backing layer having a first side and a second, wound-facing side, wherein the backing layer is substantially impermeable to liquid and substantially permeable to vapor; and a charcoal layer configured to increase a moisture vapor transmission rate of the wound dressing, wherein the charcoal layer comprises activated charcoal having a plurality of pores that increase a surface area available for adsorption of the wound fluid, the charcoal layer comprising: a first side positioned adjacent to and abutting the second, wound-facing side of the backing layer; and a second, wound-facing side positioned adjacent to and abutting the first side of the superabsorbent layer. a first side positioned adjacent to and abutting the second, wound-facing side of the backing layer; and a second, wound-facing side positioned adjacent to and abutting the first side of the superabsorbent layer.
A compound having Formula I: or a pharmaceutically acceptable salt or hydrate thereof, wherein: R 1 is selected from the group consisting of ethyl and cyclopropyl; R 2a, R 2b, R 3a, and R 3b are selected from the group consisting of hydrogen and C 1-4 alkyl; X is selected from the group consisting of -N(-Y-Z)- and -CH[N -Y-Z]-; Y is selected from the group consisting of -C(=O)- and -S(=O) 2 -; Z is selected from the group consisting of -CH=CH 2, -CH=C CH 2 NH 2, -CH=C CH 2 N CH 3, -CH=C CH 2 N(CH 3) 2, -CH=C CH 2 CH 2 NH 2, -CH=C CH 2 CH 2 N CH 3, -CH=C CH 2 CH 2 N(CH 3) 2, -CH 2 Cl, -CH 2 Br, and -CH 2 I; n is 0 or 1; and m is 0 or 1. R 1 is selected from the group consisting of ethyl and cyclopropyl; R 2a, R 2b, R 3a, and R 3b are selected from the group consisting of hydrogen and C 1-4 alkyl; X is selected from the group consisting of -N(-Y-Z)- and -CH[N -Y-Z]-; Y is selected from the group consisting of -C(=O)- and -S(=O) 2 -; Z is selected from the group consisting of -CH=CH 2, -CH=C CH 2 NH 2, -CH=C CH 2 N CH 3, -CH=C CH 2 N(CH 3) 2, -CH=C CH 2 CH 2 NH 2, -CH=C CH 2 CH 2 N CH 3, -CH=C CH 2 CH 2 N(CH 3) 2, -CH 2 Cl, -CH 2 Br, and -CH 2 I; n is 0 or 1; and m is 0 or 1.
A control device for a vehicle which uses, as a source of drive power, an internal combustion engine and a rotary electrical machine, including: a detection means for detecting information related to the running state of the vehicle; a change means for, during starting of the internal combustion engine, changing the ignition timing of the internal combustion engine according to the detected information; and a demand detection means for detecting the level of output demanded by the driver, characterized in that the change means comprises a means for comparing a first required power which is demanded for the vehicle based upon the detected level of output demanded by the driver and the vehicle speed, with a second required power which is demanded from the internal combustion engine based upon the engine speed, and for changing the ignition timing based upon the result of that comparison, wherein the ignition timing is retarded when the first required power is less than or equal to the second required power, and the ignition timing is advanced when the first required power is greater than the second required power. a detection means for detecting information related to the running state of the vehicle; a change means for, during starting of the internal combustion engine, changing the ignition timing of the internal combustion engine according to the detected information; and a demand detection means for detecting the level of output demanded by the driver, characterized in that the change means comprises a means for comparing a first required power which is demanded for the vehicle based upon the detected level of output demanded by the driver and the vehicle speed, with a second required power which is demanded from the internal combustion engine based upon the engine speed, and for changing the ignition timing based upon the result of that comparison, wherein the ignition timing is retarded when the first required power is less than or equal to the second required power, and the ignition timing is advanced when the first required power is greater than the second required power.
A method for allocating channel time in a wireless network that includes a plurality of stations (STA A to F), the method comprising: allocating (510; 630) channel time for at least one of the plurality of stations (STA A to F) to transmit a beam for the purpose of determining link compatibility, wherein the link compatibility indicates whether or not there is an interference between a specific link and another link; receiving (530; 650), during the channel time allocated for determining the link compatibility, a feedback signal from at least one of the other plurality of stations, the feedback signal including information indicating whether the beam would interfere with the at least one other station; and allocating channel time for the at least one station to communicate data based on the feedback signal information. allocating (510; 630) channel time for at least one of the plurality of stations (STA A to F) to transmit a beam for the purpose of determining link compatibility, wherein the link compatibility indicates whether or not there is an interference between a specific link and another link; receiving (530; 650), during the channel time allocated for determining the link compatibility, a feedback signal from at least one of the other plurality of stations, the feedback signal including information indicating whether the beam would interfere with the at least one other station; and allocating channel time for the at least one station to communicate data based on the feedback signal information.
Tyre-building drum for producing a green tyre, wherein the tyre-building drum has a rotatable drum housing and two shaping heads (3, 3'), movable coaxially adjacent to one another and relative to one another, on the drum housing, which shaping heads are arranged substantially symmetrically in relation to the central perpendicular through the drum housing, and the shaping heads (3, 3') are equipped with pivotable fingers which are arranged in the form of a ring over the circumference of the shaping heads (3, 3'), wherein the fingers are pivotable by means of a spindle drive, and wherein provision is made of a pull rod and a push rod which extend coaxially in relation to one another and which are led axially out of the drum housing and which are displaceable axially in opposite directions, and the push rod is connected to one shaping head and the pull rod is connected to the other shaping head, characterized in that, as spindle drive for the pivoting of the fingers, the pull rod and the push rod are each in the form of a spindle and each carry spindle nuts (31, 31') for the pivoting drive of the fingers and are equipped with a rotary drive.
A device for investigating a cable system comprising a cable and a load, the load comprising a rectifier circuit with inputs coupled to the cable and with outputs coupled to a storage circuit, the device comprising - a charger circuit for producing a charging signal for charging the storage circuit, the device being characterised in that it further comprises: - an investigation circuit for producing an investigation signal, and - a controller circuit for controlling the charger circuit to producing the charging signal before the investigation circuit producing the investigation signal. - a charger circuit for producing a charging signal for charging the storage circuit, - an investigation circuit for producing an investigation signal, and - a controller circuit for controlling the charger circuit to producing the charging signal before the investigation circuit producing the investigation signal.
Method for the operation of a clutch device, wherein the clutch device has at least a plurality of clutch plates in frictional contact with each other and a control device controlling the clutch device, wherein the clutch device is calibrated multiple times during an operating time (4, 5) of the clutch device; wherein the method at least includes the following steps: a) Perform a first calibration at a first point in time and perform a second calibration at a second point in time following the first calibration, wherein the first point in time and the second point in time are within a first operating time of the clutch device and occur within a first interval; and b) Perform at least a third calibration in a later second operating time at a third point in time, wherein a calibration preceding the third calibration is carried out in a second interval with the third point in time; characterized in that the intervals (10, 13) are determined by the control unit depending on a mileage of a motor vehicle or an energy input into the clutch device, wherein the first interval is shorter than the second interval. a) Perform a first calibration at a first point in time and perform a second calibration at a second point in time following the first calibration, wherein the first point in time and the second point in time are within a first operating time of the clutch device and occur within a first interval; and b) Perform at least a third calibration in a later second operating time at a third point in time, wherein a calibration preceding the third calibration is carried out in a second interval with the third point in time;
A Carrier profile for a dry construction system, formed from a sheet material and in cross-section comprising a base section as well as two limb sections (22b, 22b') arranged perpendicular thereto, wherein the surface of the carrier profile comprises elevations and depressions regularly distributed in an orthogonal array, so as to provide a pattern that repeats in two dimensions characterised in that: the base section is connected to the adjacent limb section (22b, 22b') in each case by a curved section with an outer radius (R 1) which amounts to at least three times the rated sheet thickness; and the centre-to-centre distance between two adjacent elevations of the embossing on one side of the sheet material is between three and six times the rated sheet thickness. wherein the surface of the carrier profile comprises elevations and depressions regularly distributed in an orthogonal array, so as to provide a pattern that repeats in two dimensions characterised in that: the base section is connected to the adjacent limb section (22b, 22b') in each case by a curved section with an outer radius (R 1) which amounts to at least three times the rated sheet thickness; and the centre-to-centre distance between two adjacent elevations of the embossing on one side of the sheet material is between three and six times the rated sheet thickness. the base section is connected to the adjacent limb section (22b, 22b') in each case by a curved section with an outer radius (R 1) which amounts to at least three times the rated sheet thickness; and the centre-to-centre distance between two adjacent elevations of the embossing on one side of the sheet material is between three and six times the rated sheet thickness.
A method for encoding a multichannel audio input signal having low frequency components and higher frequency components, said method including the steps of: (a) generating a downmix of only the low frequency components of at least some channels of the input signal; (b) waveform coding each channel of the downmix, thereby generating waveform coded, downmixed data indicative of audio content of the downmix; (c) performing parametric encoding on at least some of the higher frequency components of each channel of the input signal, including performing spectral extension coding of the high frequency components of each channel of the input signal, thereby generating parametrically coded data indicative of said at least some of the higher frequency components of said each channel of the input signal; and (d) generating an encoded audio signal indicative of the waveform coded, downmixed data and the parametrically coded data. (a) generating a downmix of only the low frequency components of at least some channels of the input signal; (b) waveform coding each channel of the downmix, thereby generating waveform coded, downmixed data indicative of audio content of the downmix; (c) performing parametric encoding on at least some of the higher frequency components of each channel of the input signal, including performing spectral extension coding of the high frequency components of each channel of the input signal, thereby generating parametrically coded data indicative of said at least some of the higher frequency components of said each channel of the input signal; and (d) generating an encoded audio signal indicative of the waveform coded, downmixed data and the parametrically coded data.
A ladder comprising: a ladder top having a plane having a front and a rear, the plane having a perimeter, the plane having a body opening to receive a body of an impact driver and a trigger recess extending from the body opening to receive a trigger of the impact driver, the body opening conforming to a shape of the body and the trigger recess conforming to the shape of the trigger, the body opening and the trigger recess holding the impact driver when the impact driver is placed on the top, the plane has a top surface and a bottom surface, the plane has a front side flange, a rear side flange, a right side flange, and a left side flange, all of which extend down from the perimeter; a front section having a first front rail and a second front rail in parallel and spaced relation with the first front rail, the first front rail and the second front rail extending from the top and attached to the right side flange and the left side flange, respectively; and a rear section having a first rear rail and a second rear rail in parallel and spaced relation with the first rear rail, the first rear rail and the second rear rail extending from the top and attached to the right side flange and the left side flange, respectively, wherein said ladder top and the front and rear sections (42, 48) form the stepladder. a ladder top having a plane having a front and a rear, the plane having a perimeter, the plane having a body opening to receive a body of an impact driver and a trigger recess extending from the body opening to receive a trigger of the impact driver, the body opening conforming to a shape of the body and the trigger recess conforming to the shape of the trigger, the body opening and the trigger recess holding the impact driver when the impact driver is placed on the top, the plane has a top surface and a bottom surface, the plane has a front side flange, a rear side flange, a right side flange, and a left side flange, all of which extend down from the perimeter; a front section having a first front rail and a second front rail in parallel and spaced relation with the first front rail, the first front rail and the second front rail extending from the top and attached to the right side flange and the left side flange, respectively; and a rear section having a first rear rail and a second rear rail in parallel and spaced relation with the first rear rail, the first rear rail and the second rear rail extending from the top and attached to the right side flange and the left side flange, respectively, wherein said ladder top and the front and rear sections (42, 48) form the stepladder.
A pesticide formulation comprising glufosinate-ammonium as the pesticide, and an adjuvant being a sodium or ammonium salt of an alcohol ether sulfate, the ratio of pesticide to adjuvant being from 1:1 to 1:5, wherein the formulation further comprises a monoalkyl sulfosuccinate hydrotrope having the structure: where R is a linear or branched alkyl group comprising 3 - 8 carbons; X is O, NH or R'N, where R' = linear or branched alkyl group with 1-4 carbons; Y and Z can be the same or different and comprise: H, or -SO 3 M' where M' = sodium, ammonium, potassium, or calcium; and M may be sodium, ammonium, potassium, calcium, ethylamine, propylamine, isopropylamine, or alkanolamine. R is a linear or branched alkyl group comprising 3 - 8 carbons; X is O, NH or R'N, where R' = linear or branched alkyl group with 1-4 carbons; Y and Z can be the same or different and comprise: H, or -SO 3 M' where M' = sodium, ammonium, potassium, or calcium; and M may be sodium, ammonium, potassium, calcium, ethylamine, propylamine, isopropylamine, or alkanolamine.
Exhaust gas recirculation module for an internal combustion engine, comprising two exhaust gas recirculation ducts, two regulating valve bodies controlling two flow cross sections of the exhaust gas recirculation ducts, which are formed in an exhaust gas recirculation housing, two exhaust gas cooling ducts in thermal exchange with a coolant duct, wherein each of the two exhaust gas recirculation ducts is in fluidic communication with a respective one of the exhaust gas cooling ducts, two bypass ducts (58, 60) by which the exhaust gas cooling ducts can be bypassed, and two bypass valves (42, 43), each actuatable via a separate actuator (50, 51), and by which, selectively, the flow cross section to the bypass ducts (58, 60) or to the exhaust gas cooling ducts can be cleared or closed, characterized in that the bypass valves (42, 43) are arranged in a common exhaust gas recirculation housing in which the two separate exhaust gas recirculation ducts are formed and from which the bypass ducts (58, 60) and the exhaust gas cooling ducts extend.
Computer-implemented method for performing flow analysis in a target volume of a moving organ having a long axis from 4D MR Flow volumetric image data set of such organ, wherein such data set comprises structural information and three-directional velocity information of the target volume over time, the method comprising: a) deriving from the 4D MR Flow volumetric image data set at least one derived image data set related to the long axis of the moving organ; b) determining at least one feature of interest in said derived image data set; c) tracking the feature of interest in the derived image data set; d) determining the spatial orientation over time of a plane containing the feature of interest in the 4D MR Flow volumetric image data set; e) performing quantitative flow analysis using velocity information of the flow through the feature of interest on the plane as determined in step d), wherein the derived image data set related to the long axis of the moving organ is created by multi planar reconstruction, wherein the derived image data set is obtained by registering the 4D MR flow volumetric data set with a generic 3D anatomical surface model of the organ with annotated features as landmarks. a) deriving from the 4D MR Flow volumetric image data set at least one derived image data set related to the long axis of the moving organ; b) determining at least one feature of interest in said derived image data set; c) tracking the feature of interest in the derived image data set; d) determining the spatial orientation over time of a plane containing the feature of interest in the 4D MR Flow volumetric image data set; e) performing quantitative flow analysis using velocity information of the flow through the feature of interest on the plane as determined in step d), wherein the derived image data set related to the long axis of the moving organ is created by multi planar reconstruction, wherein the derived image data set is obtained by registering the 4D MR flow volumetric data set with a generic 3D anatomical surface model of the organ with annotated features as landmarks.
Linear actuator for furniture comprising a spindle unit with a spindle (16, 32), a spindle nut (16a, 33) on the spindle, a bearing (17, 36) on the spindle (16, 32) a transmission (28, 31), an electric motor (27, 30), which through the transmission (28, 31) drives the spindle (16, 32), a piezo force sensing element, that has a through-going hole for the spindle, arranged in connection with the bearing (17, 36) on the spindle (16, 32) adapted to register the forces affecting the spindle (16, 32), a bendable mounting plate (20, 37) adapted to secure the spindle unit with the housing charac terized in that the piezo force sensing element is secured to the bendable mounting plate (20, 37).