mhurhangee/ep-ind-claims huggingface dataset:
An automated external defibrillator, AED, comprising: a defibrillation module, configured to administer a defibrillation shock; a sensor, configured to make an electrocardiogram, ECG, measurement of a heart; a connectivity module, configured to communicate with a remote processing device to transmit the ECG measurement and receive a first classification of the ECG measurement; and a processor configured to: determine, using a local shock advice algorithm, SAA, a second classification of the ECG measurement, wherein the second classification is selected from a second list comprising at least a shockable classification and a non-shockable classification; and if at least one of the first classification and the second classification of the ECG measurement is a shockable classification, either: cause the defibrillation module to administer the defibrillation shock; or advise a user to administer the defibrillation shock, characterised in that the connectivity module is configured to transmit the ECG measurement to the remote processing device only when the second classification of the ECG measurement is not the shockable classification. a defibrillation module, configured to administer a defibrillation shock; a sensor, configured to make an electrocardiogram, ECG, measurement of a heart; a connectivity module, configured to communicate with a remote processing device to transmit the ECG measurement and receive a first classification of the ECG measurement; and a processor configured to: determine, using a local shock advice algorithm, SAA, a second classification of the ECG measurement, wherein the second classification is selected from a second list comprising at least a shockable classification and a non-shockable classification; and if at least one of the first classification and the second classification of the ECG measurement is a shockable classification, either: cause the defibrillation module to administer the defibrillation shock; or advise a user to administer the defibrillation shock, determine, using a local shock advice algorithm, SAA, a second classification of the ECG measurement, wherein the second classification is selected from a second list comprising at least a shockable classification and a non-shockable classification; and if at least one of the first classification and the second classification of the ECG measurement is a shockable classification, either: cause the defibrillation module to administer the defibrillation shock; or advise a user to administer the defibrillation shock, cause the defibrillation module to administer the defibrillation shock; or advise a user to administer the defibrillation shock, characterised in that the connectivity module is configured to transmit the ECG measurement to the remote processing device only when the second classification of the ECG measurement is not the shockable classification.
Arrangement for the mounting of a suspension spring of a spring strut for a motor vehicle, having a spring plate which is arranged on a damper tube of a vibration damper of the spring strut, such that an end side of the suspension spring is supported on the spring plate, wherein a protective element for protecting a piston rod of the vibration damper is attached to the spring plate, and wherein the spring plate comprises guide means for guiding the protective element, by way of which guide means contact between the protective element and the damper tube is prevented, characterized in that the spring plate is formed from a plastics material, and wherein the guide means are formed by tongues that are integrally formed on a ring-shaped main structure of the spring plate, which tongues lie by way of their inner side against the damper tube and, on the outer side, form a guide for the protective element.
A method of designing a rolling bearing comprising an outer race having a raceway, an inner race having a raceway, and rolling elements disposed between the raceways of the outer race and the inner race, wherein the inner race is formed with a bore through which a shaft can be fitted, or wherein the outer race can be fitted in a housing; wherein the bearing is designed such that with the shaft fitted through the bore of the inner race or with the outer race fitted in the housing, when a bearing load is applied between the outer race and the shaft or between the inner race and the housing, and due to the bearing load, a peak load is applied to the inner race or the outer race from one of the rolling elements which receives a largest portion of the bearing load among the rolling elements, a first circumferential surface pressure distribution generated on the inner race or the outer race by the one of the rolling elements circumferentially overlaps with each of second circumferential surface pressure distributions generated on the inner race or the outer race by respective rolling elements circumferentially adjacent to the one of the rolling elements. characterized in that the bearing is further designed to satisfy the relation: σ mid > σ max / 2 where σ mid and σ max are minimum and maximum values, respectively, of a combined circumferential surface pressure distribution which is a combination of the first circumferential surface pressure distribution generated on the inner race or the outer race and the second circumferential surface pressure distributions generated on the inner race or the outer race; wherein creeping which is expected to be generated between the inner race and the shaft (Ax) or between the outer race and the housing when the peak load is applied is calculated by a finite element method analysis, and the bearing is designed such that the creeping thus calculated is smaller than a predetermined value.
A method for identifying an instrument for navigation using a medical navigation system, wherein the instrument is provided with a reference array which comprises a number of markers (A, B, C), the arrangement of which on the reference array forms a rigid body, wherein the location of the markers with respect to each other does not have to be stored in the navigation system beforehand as a predefined marker geometry for a particular instrument, said method comprising the following steps: - the distance of the markers (A, B, C) from each other is measured by means of a medical, optical tracking system which is assigned to the navigation system; - the marker array having the measured distance for the markers is identified as an assignable marker array; - the positional relationship between the functional portion of the instrument and the marker array is determined by moving the instrument while the functional portion is fixed, by tracking the markers (A, B, C); - the marker array is assigned to the instrument and the instrument is identified by the navigation system. - the distance of the markers (A, B, C) from each other is measured by means of a medical, optical tracking system which is assigned to the navigation system; - the marker array having the measured distance for the markers is identified as an assignable marker array; - the positional relationship between the functional portion of the instrument and the marker array is determined by moving the instrument while the functional portion is fixed, by tracking the markers (A, B, C); - the marker array is assigned to the instrument and the instrument is identified by the navigation system.
A bio-electrode composition comprising an ionic material and a resin other than the component, wherein the component is a polymer comprising repeating units "a1" and "b1" represented by the following general formula, wherein, R 1 represents a single bond, or a linear, a branched, or a cyclic divalent hydrocarbon group having 1 to 40 carbon atoms, which may be substituted by a heteroatom, or mediated by a heteroatom; Rf 1 represents a linear or a branched alkyl group having 1 to 4 carbon atoms or a phenyl group, having one or more fluorine atoms or a trifluoromethyl group; M + represents any of a lithium ion, a sodium ion, a potassium ion, or an ammonium ion, each of R 2 and R 3 independently represents a hydrogen atom or a methyl group; X 1 represents any of a single bond, a phenylene group, a naphthylene group, an ether group, an ester group, or an amide group; X 2 represents any of an arylene group having 6 to 12 carbon atoms, a - C(=O)-O-R 7 - group, or a -C(=O)-NH-R 7 - group; R 7 represents any of a single bond, a linear, a branched, or a cyclic alkylene group, or a phenylene group having 2 to 12 carbon atoms, and may include one or more groups selected from an ether group, a carbonyl group, an ester group, and an amide group; each of R 4, R 5, and R 6 independently represents a linear, a branched, or a cyclic alkyl group having 1 to 6 carbon atoms, or an aryl group having 6 to 10 carbon atoms, and may include one or more selected from a siloxane bond, a silicon atom, and a halogen atom; R 4 and R 5, or R 4, R 5, and R 6 may be bonded to form a ring or a three-dimensional structure; "a1" and "b1" are numbers satisfying the equations 0<a1<1.0, 0<b1<1.0.
A memory device comprising: a memory cell array including a plurality of memory cells (MC1-MC4); a plurality of data latches (LAT_1-LAT_3) connected with a sensing node (n_SO), and configured to store data that is to be stored in a first memory cell of the plurality of memory cells (MC1-MC4); a sensing latch (LAT_S) connected with the sensing node (n_SO); a temporary storage node (n_TS); a switch connected between the sensing latch (LAT_S) and the temporary storage node (n_TS), and configured to operate in response to a temporary storage node setup signal; a first precharge circuit configured to selectively precharge a first bit line corresponding to the first memory cell, the selectively precharging the first bit line depending on a level of the temporary storage node (n_TS); and a control logic circuit configured to control a dump operation between the plurality of data latches (LAT_1-LAT_3), the sensing latch (LAT_S), and the temporary storage node (n_TS), wherein the control logic circuit is configured to perform the dump operation from the plurality of data latches (LAT_1-LAT_3) to the sensing latch (LAT_S) while the first precharge circuit selectively precharges the first bit line. a memory cell array including a plurality of memory cells (MC1-MC4); a plurality of data latches (LAT_1-LAT_3) connected with a sensing node (n_SO), and configured to store data that is to be stored in a first memory cell of the plurality of memory cells (MC1-MC4); a sensing latch (LAT_S) connected with the sensing node (n_SO); a temporary storage node (n_TS); a switch connected between the sensing latch (LAT_S) and the temporary storage node (n_TS), and configured to operate in response to a temporary storage node setup signal; a first precharge circuit configured to selectively precharge a first bit line corresponding to the first memory cell, the selectively precharging the first bit line depending on a level of the temporary storage node (n_TS); and a control logic circuit configured to control a dump operation between the plurality of data latches (LAT_1-LAT_3), the sensing latch (LAT_S), and the temporary storage node (n_TS), wherein the control logic circuit is configured to perform the dump operation from the plurality of data latches (LAT_1-LAT_3) to the sensing latch (LAT_S) while the first precharge circuit selectively precharges the first bit line.
A security tag, comprising: a housing; at least one electronic sensor held within the housing; an accessory pin provided with the housing, the accessory pin being moveable with respect to the housing between locked and unlocked positions, the accessory pin configured to be secured to an accessory when in the locked position, the accessory pin engaging and disengaging the housing when the accessory pin is moved between the locked and unlocked positions, respectively; and a lock assembly held within the housing, the lock assembly having a magnetically influenced MI member, the MI member moving from a relaxed position to a biased position when exposed to a select magnetic field, and returning from the biased position to the relaxed position in an absence of the select magnetic field, the MI member changing the lock assembly between locked and unlocked positions when the MI member moves between the relaxed and biased positions, respectively, in response to the select magnetic field; the locking assembly including a pin engaging member and a spring having a base that is fixedly secured within the housing, characterised in that the MI member further includes a wedge body having an MI arm at one end and the pin engaging member at an opposite end, the MI arm moving from the relaxed position to the biased position when exposed to the select magnetic field. a housing; at least one electronic sensor held within the housing; an accessory pin provided with the housing, the accessory pin being moveable with respect to the housing between locked and unlocked positions, the accessory pin configured to be secured to an accessory when in the locked position, the accessory pin engaging and disengaging the housing when the accessory pin is moved between the locked and unlocked positions, respectively; and a lock assembly held within the housing, the lock assembly having a magnetically influenced MI member, the MI member moving from a relaxed position to a biased position when exposed to a select magnetic field, and returning from the biased position to the relaxed position in an absence of the select magnetic field, the MI member changing the lock assembly between locked and unlocked positions when the MI member moves between the relaxed and biased positions, respectively, in response to the select magnetic field; the locking assembly including a pin engaging member and a spring having a base that is fixedly secured within the housing,
A composite film for film packagings with an outer film, a core film and a heat-sealable inner film, wherein the top surface formed by the outer film, at an angle of measurement of 60°, exhibits a gloss level of less than 40, characterised in that the outer film is comprised of a single or multi-layered, filler-free, transparent, unstretched, blown film which is printed by reverse printing on its inner surface facing the core film, and which at least in an outside layer forming the top surface comprises a polymer compound made up of polyolefin and at least 50% by weight of a soft, multi-phase polypropylene copolymer which at room temperature has a hardness of less than 40 Shore-D.
A leaning vehicle comprising a leaning frame, a front suspension assembly, an undercarriage element, a rear suspension assembly and a motor, wherein the leaning frame comprises a straddle seat and a hand steering element, the hand steering element operatively connected to the front suspension assembly; the undercarriage element comprises a front section and a rear section, and is connected to a suspension connecting element (9, 36, 37); the front suspension assembly comprises two ground engaging members and at least one shock absorber, and is connected to the leaning frame and the suspension connecting element, such that the ground engaging members of the front suspension assembly will tilt in the same direction as the leaning frame; the rear suspension assembly comprises at least one rear ground engaging member and is connected to the rear section of the undercarriage element; and characterised in that the leaning frame is pivotally connected to the undercarriage element, such that the leaning frame and the two ground engaging members of the front suspension assembly are tiltable in a sideways direction relative to the undercarriage element, the rear ground engaging member and the rear suspension assembly.
A resonator (1, 1', 1"') for reducing airborne noise, having at least one first ring-shaped chamber (2, 2', 2") arranged between an inlet piece (6, 6') and an outlet piece (7, 7'), and having an inner tube or inner tube pieces (4, 4", 5) arranged between the inlet piece (6, 6') and outlet piece (7, 7'), with wall apertures (18, 19, 28, 28", 29, 29", 30, 30") serving as a connection to the adjacent ring-shaped chamber (2, 2', 2"), wherein the first ring-shaped chamber (2, 2', 2") is divided by at least one radially encircling dividing rib (13, 13', 13"' into at least two sub-chambers (14, 14', 14", 15, 15', 15"), and wherein the dividing rib (13, 13', 13") has a free end which, relative to the wall which is adjacent in a radial direction, forms an encircling annular space, characterised in that, for receiving an air layer which co-resonates in steady-state fashion, the height of the annular space in the radial direction between the free end of the dividing rib (13, 13', 13") and the adjacent wall is between 0.3 and 2 mm, the dividing rib (13, 13', 13") is designed as a encircling double rib, that the double rib delimits an encircling circumferential gap, and in that the gap is open towards the encircling annular space and the inner tube or inner tube piece (4, 4") delimiting the sub-chambers (14,14', 14", 15, 15', 15") has wall apertures (18, 19, 28, 28", 29, 29", 30, 30") forming a connection to the adjacent sub-chamber (14, 14', 14", 15, 15', 15").
A double submodule for a modular multilevel power converter comprising a first and a second submodule coupled to the first one, wherein each submodule (19; 21) comprises: an asymmetric H bridge circuit (22; 32) with two parallel bridge branches which are connected between a first and a second direct voltage node (27, 28; 37, 38) of the submodule (19; 21), wherein each bridge branch (24, 26; 34, 36) is formed by a series connection of a controllable power semiconductor switch (T2, T3, T5, T6) and a diode (D1, D4, D5, D7); and a capacitor (C1, C2) which is connected in parallel to the asymmetric H bridge circuit (22; 32) between the first and the second direct voltage node (27, 28; 37, 38) of the submodule (19; 21); wherein the first submodule comprises a first bridge branch with a series connection of a first controllable power semiconductor switch and a first diode, the cathode of which is connected to the first direct voltage node of the first submodule, and a second bridge branch with a series connection of a second controllable power semiconductor switch and a second diode, the anode of which is connected to the second direct voltage node of the first submodule, wherein the second submodule comprises a first bridge branch with a series connection of a first controllable power semiconductor switch (T3; T5) and a first diode, the cathode of which is connected to the first direct voltage node of the second submodule, and a second bridge branch with a series connection of a second controllable power semiconductor switch and a second diode, the anode of which is connected to the second direct voltage node of the second submodule, and wherein the first and the second submodule (19; 21) are connected in such a way that a power semiconductor switch or a diode is both part of the second bridge branch of the first submodule and part of the first bridge branch of the second submodule. an asymmetric H bridge circuit (22; 32) with two parallel bridge branches which are connected between a first and a second direct voltage node (27, 28; 37, 38) of the submodule (19; 21), wherein each bridge branch (24, 26; 34, 36) is formed by a series connection of a controllable power semiconductor switch (T2, T3, T5, T6) and a diode (D1, D4, D5, D7); and a capacitor (C1, C2) which is connected in parallel to the asymmetric H bridge circuit (22; 32) between the first and the second direct voltage node (27, 28; 37, 38) of the submodule (19; 21);
A cryogenic storage device comprising: a freezer configured to maintain a cryogenic environment, the freezer comprising: a port enabling access to the cryogenic environment through a top portion of the freezer; a rack carrier having a plurality of rack-mounting features at a top plate of the rack carrier, each of the rack-mounting features being configured to accept a sample storage rack through the top plate and to position an end of the sample storage rack, the rack carrier being a rotating rack carrier which is configurable between a manual rotation configuration and an automated rotation configuration; a bearing including a bearing member coupled with the rack carrier and a stationary race coupled to the freezer, the bearing configured to support the rack carrier when the stationary race is coupled with the bearing member, the bearing member being a rotating bearing member; and a shaft interface including a shaft extending though at least a portion of the freezer, the shaft having an exterior portion and an interior portion coupled to the rack carrier, the shaft enabling vertical translation of the rack carrier to decouple the rotating bearing member from the stationary race during reconfiguration of the freezer, the shaft supporting the rack carrier when the rotating bearing member is decoupled from the stationary race. a port enabling access to the cryogenic environment through a top portion of the freezer; a rack carrier having a plurality of rack-mounting features at a top plate of the rack carrier, each of the rack-mounting features being configured to accept a sample storage rack through the top plate and to position an end of the sample storage rack, the rack carrier being a rotating rack carrier which is configurable between a manual rotation configuration and an automated rotation configuration; a bearing including a bearing member coupled with the rack carrier and a stationary race coupled to the freezer, the bearing configured to support the rack carrier when the stationary race is coupled with the bearing member, the bearing member being a rotating bearing member; and a shaft interface including a shaft extending though at least a portion of the freezer, the shaft having an exterior portion and an interior portion coupled to the rack carrier, the shaft enabling vertical translation of the rack carrier to decouple the rotating bearing member from the stationary race during reconfiguration of the freezer, the shaft supporting the rack carrier when the rotating bearing member is decoupled from the stationary race.