mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: means (305, 310, 315, 320) configured to collect information describing the variability in R to R intervals over a series of beats calculated according to a function of a ratio based on a first R to R interval and an immediately preceding R to R interval; and means for designating variability configured to: designate variability in a first range of values as being largely irrelevant to atrial fibrillation; designate variability in a second range of values as being indicative of atrial fibrillation, the values in the second range being larger than the values in the first range; and designate variability in a third range of values as being negatively indicative of atrial fibrillation, the values in the third range being larger than the values in the second range; and means configured to determine a relevance of the variability described in the collection to atrial fibrillation; wherein said function of the ratio is equal or proportional to: DRR n = ABS RR n, n − 1 RR n, n − 1 + RR n − 1, n − 2 − / 2 1. means (305, 310, 315, 320) configured to collect information describing the variability in R to R intervals over a series of beats calculated according to a function of a ratio based on a first R to R interval and an immediately preceding R to R interval; and means for designating variability configured to: designate variability in a first range of values as being largely irrelevant to atrial fibrillation; designate variability in a second range of values as being indicative of atrial fibrillation, the values in the second range being larger than the values in the first range; and designate variability in a third range of values as being negatively indicative of atrial fibrillation, the values in the third range being larger than the values in the second range; and designate variability in a first range of values as being largely irrelevant to atrial fibrillation; designate variability in a second range of values as being indicative of atrial fibrillation, the values in the second range being larger than the values in the first range; and designate variability in a third range of values as being negatively indicative of atrial fibrillation, the values in the third range being larger than the values in the second range; and means configured to determine a relevance of the variability described in the collection to atrial fibrillation; wherein said function of the ratio is equal or proportional to: DRR n = ABS RR n, n − 1 RR n, n − 1 + RR n − 1, n − 2 − / 2 1.
A knife with a knife body having an accommodation space and with at least one blade with a cutting edge, wherein an additional tool (24a, 24b) is held releasably on the knife body, the tool (24a, 24b) has at least two working sections (23a, 23b) and is provided with a retaining section which, in at least two different relative positions, can be brought into engagement with an accommodating section of a tool seating of the knife body, such that optional either one of the working sections can be arranged in a working position for being able to be used by a user, while the other working section is in a stowed position, characterised in that the tool seating is assigned to a carrier which is movable relative to the knife body, into the accommodation space in an operation position through an opening and out of the accommodation space in a change position, whereby in the change position the tool can be removed from the tool seating and whereby in the operation position of the carrier the working section (23a, 23b) of the tool (24a, 24b) being in a working position protrudes the outer contour of the knife.
A method of communication at a wireless device (115, 900, 1000, 1100, 1200), comprising: receiving (405, 2105, 2205, 2305, 2405), from a transmitting device, a compression capability request requesting an indication of a capability of the wireless device for compressing a payload of a wireless data transmission; identifying (410, 2110, 2210, 2310, 2410) at least one compression capability parameter based at least in part on the compression capability request; transmitting (415, 2115, 2215, 2315, 2415), to the transmitting device, a compression capability response based at least in part on the compression capability request and the at least one compression capability parameter, wherein the compression capability response indicates one or more capabilities of the wireless device for compressing the payload of the wireless data transmission to allow the transmitting device to select a compression configuration; and transmitting, to the transmitting device, and receiving (440, 515, 2320, 2420), from the transmitting device, a compressed packet based at least in part on the compression capability response, wherein the compressed packet comprises one or more extended compression header fields indicating at least a compression disable request associated with a number of subsequent packets. receiving (405, 2105, 2205, 2305, 2405), from a transmitting device, a compression capability request requesting an indication of a capability of the wireless device for compressing a payload of a wireless data transmission; identifying (410, 2110, 2210, 2310, 2410) at least one compression capability parameter based at least in part on the compression capability request; transmitting (415, 2115, 2215, 2315, 2415), to the transmitting device, a compression capability response based at least in part on the compression capability request and the at least one compression capability parameter, wherein the compression capability response indicates one or more capabilities of the wireless device for compressing the payload of the wireless data transmission to allow the transmitting device to select a compression configuration; and transmitting, to the transmitting device, and receiving (440, 515, 2320, 2420), from the transmitting device, a compressed packet based at least in part on the compression capability response, wherein the compressed packet comprises one or more extended compression header fields indicating at least a compression disable request associated with a number of subsequent packets.
A gripper head of a handling machine for taking hold of and moving objects arranged in parallel rows, such as bottles or jars, the gripper head comprising several inflatable devices connected to means for feeding compressed air and each comprising: - a deformable and inflatable longitudinal enclosure; and - a support element comprising a longitudinal core arranged inside the longitudinal enclosure, together with one or more connection means, and possibly inflation means, between the core and the gripper head, the connection means being mounted on a first longitudinal side of the core and passing through the sheath of the enclosure; characterized in that, for each inflatable device: - said deformable and inflatable longitudinal enclosure comprising a single sheath closed by overlapping longitudinal margins of one or more airtight flexible sheets, preferably by overlapping the longitudinal margins of a single flexible airtight sheet, a single sheath being a sheath of peripheral surface thickness that is equal to the thickness of a single sheet and, at one or more overlaps, to the thickness of two superposed sheets, - one of the overlaps between longitudinal margins of the sheath is arranged at said first longitudinal side of the core and has the connection means passed therethrough. - a deformable and inflatable longitudinal enclosure; and - a support element comprising a longitudinal core arranged inside the longitudinal enclosure, together with one or more connection means, and possibly inflation means, between the core and the gripper head, the connection means being mounted on a first longitudinal side of the core and passing through the sheath of the enclosure; characterized in that, for each inflatable device: - said deformable and inflatable longitudinal enclosure comprising a single sheath closed by overlapping longitudinal margins of one or more airtight flexible sheets, preferably by overlapping the longitudinal margins of a single flexible airtight sheet, a single sheath being a sheath of peripheral surface thickness that is equal to the thickness of a single sheet and, at one or more overlaps, to the thickness of two superposed sheets, - one of the overlaps between longitudinal margins of the sheath is arranged at said first longitudinal side of the core and has the connection means passed therethrough. - said deformable and inflatable longitudinal enclosure comprising a single sheath closed by overlapping longitudinal margins of one or more airtight flexible sheets, preferably by overlapping the longitudinal margins of a single flexible airtight sheet, a single sheath being a sheath of peripheral surface thickness that is equal to the thickness of a single sheet and, at one or more overlaps, to the thickness of two superposed sheets, - one of the overlaps between longitudinal margins of the sheath is arranged at said first longitudinal side of the core and has the connection means passed therethrough.
A method for aseptic vitrification, storing and devitrification of a biological specimen in particular sperm, oocytes, embryos, morulae or blastocysts using an instrument comprising: a storing member which is made of a liquid nitrogen-resistant material, and a tubular protection member for protecting said storing member, the tubular protection member being also made of a liquid nitrogen-resistant material, wherein said storing member comprises a cylindrical body part having a cell storing part at a front portion, and having a rear end part at an end portion, wherein the cell storing part is formed as a recess in the body part and wherein the storing member having a smaller outer diameter than the inner diameter of the tubular protection member so that the storing member may be inserted and accommodated in the tubular protection member, wherein the tubular protection member is of such length in view of the length of the storing member, that the storing member may be fully accommodated within the tubular protection member, and that the end of the tubular protection member comprises a first sealable end respectively a second sealable end, and comprising the steps: a) treating the biological specimen with at least two different cryoprotectants, a first non-vitrifying solution NVS 5/5 for 5 to 10 minutes and a second non-vitrifying solution NVS 10/10 for 3 to 4 minutes, in particular for 4 minutes, and afterwards with a vitrification solution VS 20/20; and b) loading the biological specimen in the instrument, and c) sealing the instrument; and d) placing the instrument containing the biological specimen into a coolant such as LN2, such that the biological specimen is indirectly exposed to the coolant; and e) storing the instrument containing the biological specimen which has undergone vitrification until the biological specimen is ready to be devitrified; and f) removing the instrument from the coolant; and g) allowing the biological specimen to devitrify by placing the biological specimen in a saccharose solution.
A system (10, 100, 120, 150, 160, 170), comprising: an inertial energy storage device; a first dynamo-electric machine directly coupled to the inertial energy storage device, the first dynamo-electric machine having multiple input stator windings configured to accept AC input power from an AC source, a rotor winding configured to be excited by an exciter, and at least one polyphase output stator winding configured to deliver electric power at a first rate to a DC bus; a secondary energy storage system coupled to the DC bus and configured to exchange electrical energy in a bidirectional manner; a second dynamo-electric machine coupled to the inertial energy storage device and the first dynamo-electric machine by a shaft, the second dynamo-electric machine having an input stator winding and at least one polyphase output stator winding coupled to an AC/DC power converter (96, 98), the power converter (96, 98) coupled to a DC output configured to couple to a load device, and a polyphase boost exciter configured to derive energy from the DC bus and excite the input stator winding of the second dynamo-electric machine, wherein the second dynamo-electric machine is configured to be excited at a second rate that is faster than the first rate. an inertial energy storage device; a first dynamo-electric machine directly coupled to the inertial energy storage device, the first dynamo-electric machine having multiple input stator windings configured to accept AC input power from an AC source, a rotor winding configured to be excited by an exciter, and at least one polyphase output stator winding configured to deliver electric power at a first rate to a DC bus; a secondary energy storage system coupled to the DC bus and configured to exchange electrical energy in a bidirectional manner; a second dynamo-electric machine coupled to the inertial energy storage device and the first dynamo-electric machine by a shaft, the second dynamo-electric machine having an input stator winding and at least one polyphase output stator winding coupled to an AC/DC power converter (96, 98), the power converter (96, 98) coupled to a DC output configured to couple to a load device, and a polyphase boost exciter configured to derive energy from the DC bus and excite the input stator winding of the second dynamo-electric machine, wherein the second dynamo-electric machine is configured to be excited at a second rate that is faster than the first rate.
A method of operation of a User Equipment, UE, in a wireless network to perform System Frame Number, SFN, Frame Time Difference, SFTD, measurements between a Primary Cell, PCell, of the UE and one or more other cells, wherein the PCell is a Long Term Evolution, LTE, cell, the method comprising: receiving, from a network node in the wireless network, a list of cells for which the UE can report SFTD measurements, wherein the list of cells comprises one or more New Radio, NR, cells, wherein the list of cells is associated to Automatic Neighbor Relation, ANR for Non-Standalone, NSA, NR; performing SFTD measurements between the PCell of the UE and a second cell, the second cell being a cell in the list of cells for which the UE can report SFTD measurements; and reporting, to the network node, the SFTD measurements in accordance with the list of cells for which the UE can report SFTD measurements. receiving, from a network node in the wireless network, a list of cells for which the UE can report SFTD measurements, wherein the list of cells comprises one or more New Radio, NR, cells, wherein the list of cells is associated to Automatic Neighbor Relation, ANR for Non-Standalone, NSA, NR; performing SFTD measurements between the PCell of the UE and a second cell, the second cell being a cell in the list of cells for which the UE can report SFTD measurements; and reporting, to the network node, the SFTD measurements in accordance with the list of cells for which the UE can report SFTD measurements.
A composition dried by lyophilisation from a liquid mixture comprising (i) an antigen that is a protein, (ii) an adjuvant which comprises a QS21 saponin and a lipopolysaccharide TLR4 agonist in a liposomal formulation wherein the liposomes contain a neutral lipid that is a phosphatidylcholine, and a sterol that is cholesterol, (iii) a cryoprotectant comprising sucrose or trehalose or a combination of both, (iv) a buffer selected from Na/K 2 PO 4, K/K 2 PO 4 and succinate, and (v) wherein the pH is between 5.8 and 6.4.
A halogen lamp comprising: a bulb; and a multilayer film that is formed on an external surface of the bulb, characterized in that the multilayer film consists of a plurality of high refractive index films and a plurality of low refractive index films, wherein the low refractive index films all have the same film thickness and are alternately stacked with the high refractive index films, and the low refractive index films are formed so that the thickness of each of the low refractive index films is greater than that of at least one of the high refractive index films, wherein the film thickness of the low refractive index film is 120% to 240% of a film thickness of at least one layer of the high refractive index films, wherein the film thickness of at least one layer of the high refractive index films is 105% to 240% of the film thickness of another high refractive index film, and the at least one layer of the high refractive index films is inserted into an arbitrary boundary in the multilayer film in which the high refractive index films and the low refractive films are alternately stacked, and wherein the low refractive index film is mainly made of silicon dioxide (SiO 2), and the high refractive index film is mainly made of iron ferric oxide (Fe 2 O 3). a bulb; and a multilayer film that is formed on an external surface of the bulb, characterized in that the multilayer film consists of a plurality of high refractive index films and a plurality of low refractive index films, wherein the low refractive index films all have the same film thickness and are alternately stacked with the high refractive index films, and the low refractive index films are formed so that the thickness of each of the low refractive index films is greater than that of at least one of the high refractive index films, wherein the film thickness of the low refractive index film is 120% to 240% of a film thickness of at least one layer of the high refractive index films, wherein the film thickness of at least one layer of the high refractive index films is 105% to 240% of the film thickness of another high refractive index film, and the at least one layer of the high refractive index films is inserted into an arbitrary boundary in the multilayer film in which the high refractive index films and the low refractive films are alternately stacked, and wherein the low refractive index film is mainly made of silicon dioxide (SiO 2), and the high refractive index film is mainly made of iron ferric oxide (Fe 2 O 3).
An imaging apparatus for imaging a raw sample as an imaging object carried together with liquid in a sample container, the apparatus comprising: the sample container with a bottom surface having optical transparency and comprising wells, each well being configured to carry the raw sample as the imaging object together with the liquid; a holder for holding the sample container; an imaging optical system (131, 132, 133), arranged to face the sample container held by the holder, that has an object-side hypercentric property; an imaging element for imaging an image of the imaging object focused by the imaging optical system (131, 132, 133); and an illuminator for illuminating the imaging object from a side opposite to the imaging optical system (131, 132, 133) across the sample container held by the holder, wherein: the illuminator includes a light source and an illumination optical system causing light emitted from the light source to be incident on a sample surface where the imaging object is present; the illumination optical system has an optical axis coaxial with that of the imaging optical system (131, 132, 133) and is configured such that an exit pupil position(Pp), where an image of the light source is focused on the optical axis of the illumination optical system, is located between the illumination optical system and the imaging optical system (131, 132, 133); the holder is arranged in such a way that the well bottom surface (Wb) is between the exit pupil position (Pp) and the imaging optical system (131, 132, 133); the imaging apparatus being characterized in that a size of an imaging field of view is smaller than the size of the bottom surface (Wb) of each well, and the imaging field of view contains only a central area distant from a peripheral edge part (Wp) of each well. the illuminator includes a light source and an illumination optical system causing light emitted from the light source to be incident on a sample surface where the imaging object is present; the illumination optical system has an optical axis coaxial with that of the imaging optical system (131, 132, 133) and is configured such that an exit pupil position(Pp), where an image of the light source is focused on the optical axis of the illumination optical system, is located between the illumination optical system and the imaging optical system (131, 132, 133); the holder is arranged in such a way that the well bottom surface (Wb) is between the exit pupil position (Pp) and the imaging optical system (131, 132, 133); the imaging apparatus being characterized in that a size of an imaging field of view is smaller than the size of the bottom surface (Wb) of each well, and the imaging field of view contains only a central area distant from a peripheral edge part (Wp) of each well.
A device (600, 700) for use in an augmented reality display, the device comprising: a substrate (611, 711); a diffractive optical element (618, 718) configured to couple light from a light source into the substrate for total internal reflection within the substrate, or to couple out of the substrate light which is totally internally reflected within the substrate, the diffractive optical element comprising a surface relief grating (619, 719) and a remnant layer (617, 717) that have the same refractive index, wherein the remnant layer is provided between the surface relief grating and the substrate; wherein a partially reflective interface is provided between the substrate and the remnant layer, and wherein the thickness of the remnant layer is controlled to enable thin-film constructive interference for light having a range of wavelengths around a predetermined wavelength that is received at the partially reflective interface from the substrate at a range of angles around a predetermined angle of incidence. a substrate (611, 711); a diffractive optical element (618, 718) configured to couple light from a light source into the substrate for total internal reflection within the substrate, or to couple out of the substrate light which is totally internally reflected within the substrate, the diffractive optical element comprising a surface relief grating (619, 719) and a remnant layer (617, 717) that have the same refractive index, wherein the remnant layer is provided between the surface relief grating and the substrate; wherein a partially reflective interface is provided between the substrate and the remnant layer, and wherein the thickness of the remnant layer is controlled to enable thin-film constructive interference for light having a range of wavelengths around a predetermined wavelength that is received at the partially reflective interface from the substrate at a range of angles around a predetermined angle of incidence.
A compressible flange with an essentially annular elastic sealing element as well as with a first and a second clamping element, wherein the clamping elements (2, 3) are axially, relative to a central axis of the sealing element, arranged at both side areas of the sealing element and can be pressed against the elastic sealing element, wherein at least one of the clamping elements (2, 3) is provided with at least one passage recess, wherein portions of the elastic sealing element can be pressed into the passage recess, wherein a display element, slidable in the longitudinal direction of the passage recess, is arranged in the passage recess, wherein the display element, in an initial position, is received in the passage recess, characterised in that the display element, in the initial position, is locked in the passage recess by means of a locking device (7, 8) and, in a display position, can be ejected by means of an elastic locking force of the locking device.