mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for determining a heart rate of a subject, the method comprising: receiving data representing a signal generated by a pressure sensor configured to be placed on a suprasternal notch of a subject, the data representing a first component of the signal comprising respiratory information associated with the subject and a second component of the signal comprising cardiac information associated with the subject; determining, by applying a first algorithm to the data, a respiration parameter of the subject; applying at least one filter to the data to obtain first filtered data, the at least one filter comprising a first filter to attenuate the first component of the signal in the data based on the determined respiration parameter; determining a heart rate of the subject by applying a second algorithm to the first filtered data, characterized by applying a second filter to the received data to attenuate the second component of the signal in the received data based on the determined heart rate to obtain second filtered data; and determining, based on the second filtered data, at least one of i) a sleep parameter relating to sleep of the subject, or a sleep stage of the subject, ii) a sleep disordered breathing event indicative of a central apnea, an obstructive sleep apnea, or hypopnea, and iii) whether the subject experienced a sleep disturbance. receiving data representing a signal generated by a pressure sensor configured to be placed on a suprasternal notch of a subject, the data representing a first component of the signal comprising respiratory information associated with the subject and a second component of the signal comprising cardiac information associated with the subject; determining, by applying a first algorithm to the data, a respiration parameter of the subject; applying at least one filter to the data to obtain first filtered data, the at least one filter comprising a first filter to attenuate the first component of the signal in the data based on the determined respiration parameter; determining a heart rate of the subject by applying a second algorithm to the first filtered data, characterized by applying a second filter to the received data to attenuate the second component of the signal in the received data based on the determined heart rate to obtain second filtered data; and determining, based on the second filtered data, at least one of i) a sleep parameter relating to sleep of the subject, or a sleep stage of the subject, ii) a sleep disordered breathing event indicative of a central apnea, an obstructive sleep apnea, or hypopnea, and iii) whether the subject experienced a sleep disturbance.
A computer-executable method for updating routing information associated with a multicast group in an information-centric network, ICN, the method comprising: receiving, by a first node in the ICN, an update message for the multicast group from a neighbor node, wherein the multicast group is associated with a prefix of a Hierarchically Structured Variable Length Identifier, HSVLI, which comprises an ordered list of name components that is hierarchically structured and includes contiguous components ordered from a most general level to a most specific level, wherein the multicast group includes a number of anchor nodes associated with the HSVLI prefix, including a root anchor node having a name with a smallest lexicographical value among the anchor nodes, and wherein the update message specifies the HSVLI prefix; selecting, based on topology information stored on the first node, from neighbors of the first node one or more next-hop neighbors that meet a notification condition; and forwarding the update message to the one or more next-hop neighbors. receiving, by a first node in the ICN, an update message for the multicast group from a neighbor node, wherein the multicast group is associated with a prefix of a Hierarchically Structured Variable Length Identifier, HSVLI, which comprises an ordered list of name components that is hierarchically structured and includes contiguous components ordered from a most general level to a most specific level, wherein the multicast group includes a number of anchor nodes associated with the HSVLI prefix, including a root anchor node having a name with a smallest lexicographical value among the anchor nodes, and wherein the update message specifies the HSVLI prefix; selecting, based on topology information stored on the first node, from neighbors of the first node one or more next-hop neighbors that meet a notification condition; and forwarding the update message to the one or more next-hop neighbors.
A blood treatment device for extracorporeal blood treatment, in particular for haemodiafiltration, with a control unit for detecting an overshoot of a first limit value of a first blood concentration in a first portion of a dialysate discharge line downstream of a dialysate chamber of a dialyser of the blood treatment device and upstream of a node point at which a bypass line bypassing the dialyser leads into the dialysate discharge line, wherein the bypass line branches off, upstream of the dialysate chamber, from a dialysate supply line suitable for supplying dialysate from a dialysate source to the dialysate chamber, wherein a blood leak detector is provided in a second portion of the dialysate discharge line downstream of the node point and is suitable for measuring a second blood concentration in the second portion downstream of the node point, wherein the control unit is configured to detect an overshoot of a second limit value of the second blood concentration, wherein the second limit value decreases with rising flow rate in the dialysate supply line before the branch point of the bypass line, and wherein the control unit is configured, in the event of bypass operation, in which case dialysate is guided from the dialysate source via the dialysate supply line, the bypass line, and the second portion of the dialysate discharge line to an outflow, to consider the first limit value as having been overshot when the second blood concentration exceeds a third limit value, which is lower than the second limit value at the flow rate.
A method for inserting a single stranded replacement nucleic acid into a target nucleic acid, said method comprising the steps of: a) generating a single stranded replacement nucleic acid from a double stranded nucleic acid, wherein the double stranded nucleic acid is adapted at one or both of its 5' ends such that preferential degradation of one strand and/or strand separation generates the single stranded replacement nucleic acid, wherein the single stranded replacement nucleic acid comprises a 5' region that is identical to sequence on the target nucleic acid, a 3' region that is identical to sequence on the target nucleic acid and optionally a replacement region between the 5' and 3' regions that is not identical to sequence on the target nucleic acid, b) exposing the target nucleic acid to the single stranded replacement nucleic acid under conditions suitable for recombination to occur between the single stranded replacement nucleic acid and the target nucleic acid, and c) selecting a target nucleic acid whose sequence has been altered by inclusion of said single stranded replacement nucleic acid wherein steps (a) and (b) are carried out in the presence of Red beta or a functional equivalent thereof, wherein said functional equivalent retains the ability to mediate beta recombination. a) generating a single stranded replacement nucleic acid from a double stranded nucleic acid, wherein the double stranded nucleic acid is adapted at one or both of its 5' ends such that preferential degradation of one strand and/or strand separation generates the single stranded replacement nucleic acid, wherein the single stranded replacement nucleic acid comprises a 5' region that is identical to sequence on the target nucleic acid, a 3' region that is identical to sequence on the target nucleic acid and optionally a replacement region between the 5' and 3' regions that is not identical to sequence on the target nucleic acid, b) exposing the target nucleic acid to the single stranded replacement nucleic acid under conditions suitable for recombination to occur between the single stranded replacement nucleic acid and the target nucleic acid, and c) selecting a target nucleic acid whose sequence has been altered by inclusion of said single stranded replacement nucleic acid
An aerial work platform, comprising: - a working platform (30; 130) comprising a floor (31; 131) and a guardrail, and - an elevating structure for moving the working platform (30; 130) in height, the elevating structure comprising an extensible mast via which the working platform (30; 130) is supported, the elevating structure supporting the working platform only by one side of the working platform, and characterized in that the aerial work platform further comprises at least three force sensors (41 to 44) interposed between the elevating structure and the working platform via which the elevating structure fully supports the weight of the working platform (30; 130), wherein: - the force sensors (41 to 44) are arranged in a fixed spatial relationship to each other, - the force sensors (41 to 44) are arranged so that, in orthogonal projection on a plane corresponding to the floor of the working platform, the force sensors are all located on the same side of a median line of the floor (31; 131) of the working platform which is the one located towards the side of the working platform (30; 130) by which it is supported by the elevating structure, and - each of the force sensors (41 to 44) is adapted to measure the load exerted on it only in the vertical direction by the working platform (30; 130) when the floor (31; 131) of the working platform extends horizontally. - a working platform (30; 130) comprising a floor (31; 131) and a guardrail, and - an elevating structure for moving the working platform (30; 130) in height, the elevating structure comprising an extensible mast via which the working platform (30; 130) is supported, the elevating structure supporting the working platform only by one side of the working platform, and - the force sensors (41 to 44) are arranged in a fixed spatial relationship to each other, - the force sensors (41 to 44) are arranged so that, in orthogonal projection on a plane corresponding to the floor of the working platform, the force sensors are all located on the same side of a median line of the floor (31; 131) of the working platform which is the one located towards the side of the working platform (30; 130) by which it is supported by the elevating structure, and - each of the force sensors (41 to 44) is adapted to measure the load exerted on it only in the vertical direction by the working platform (30; 130) when the floor (31; 131) of the working platform extends horizontally.
An imaging apparatus comprising: a distribution means configured to distribute a playlist, in which information relating to a plurality of moving image streams can be described, when a distribution request of the playlist is received; and a coding means configured to, when the distribution request of the playlist is received, encode a plurality of moving image frames corresponding to the plurality of moving image streams described in the playlist through intraframe coding, before receiving a distribution request of a specific moving image stream included in the plurality of moving image streams, characterized in that the distribution means is configured to distribute a moving image stream corresponding to the specific moving image stream including the moving image frame, which has been encoded through intraframe coding before the distribution request of the specific moving image stream has been received, when the distribution request of the specific moving image stream is received, wherein generation of moving image streams other than the specific moving image stream included in the plurality of moving image streams is stopped, when the distribution request of the specific moving image stream is received. a distribution means configured to distribute a playlist, in which information relating to a plurality of moving image streams can be described, when a distribution request of the playlist is received; and a coding means configured to, when the distribution request of the playlist is received, encode a plurality of moving image frames corresponding to the plurality of moving image streams described in the playlist through intraframe coding, before receiving a distribution request of a specific moving image stream included in the plurality of moving image streams, characterized in that the distribution means is configured to distribute a moving image stream corresponding to the specific moving image stream including the moving image frame, which has been encoded through intraframe coding before the distribution request of the specific moving image stream has been received, when the distribution request of the specific moving image stream is received, wherein generation of moving image streams other than the specific moving image stream included in the plurality of moving image streams is stopped, when the distribution request of the specific moving image stream is received.
A computer-implemented method for facilitating user communication in an online environment, the method comprising: associating a first user with a group profile, wherein the group profile is derived from monitoring interaction behavior of a plurality of users interacting with the online environment; constructing a linguistic profile for the group profile based on a linguistic analysis of users associated with said group profile, the linguistic profile being constructed based on chat messages sent among users associated with the group profile, the linguistic profile indicating a frequency of use for terms in messages or parts of messages sent between users associated with the group profile; generating, based on the linguistic profile and by operation of one or more computer processors, a list of expressions to present to the first user, wherein expressions in the list of expressions each comprise a chat message that may be sent by the first user to other users of the online environment; updating the linguistic profile as the use of language in the group evolves over time; receiving a selection from the first user of an expression in the list of expressions; and sending the selected expression to at least a second user of the online environment as a chat message. associating a first user with a group profile, wherein the group profile is derived from monitoring interaction behavior of a plurality of users interacting with the online environment; constructing a linguistic profile for the group profile based on a linguistic analysis of users associated with said group profile, the linguistic profile being constructed based on chat messages sent among users associated with the group profile, the linguistic profile indicating a frequency of use for terms in messages or parts of messages sent between users associated with the group profile; generating, based on the linguistic profile and by operation of one or more computer processors, a list of expressions to present to the first user, wherein expressions in the list of expressions each comprise a chat message that may be sent by the first user to other users of the online environment; updating the linguistic profile as the use of language in the group evolves over time; receiving a selection from the first user of an expression in the list of expressions; and sending the selected expression to at least a second user of the online environment as a chat message.
Filling system for filling a smoking cartridge with a filling material, characterised in that the smoking cartridge comprises a cartridge case and an end-face, air-permeable retention membrane, wherein the filling system comprises a filling material store, a holder for the cartridge case and a vacuum connection for applying a vacuum to the retention membrane, wherein the holder is designed to guide the cartridge case to the filling material store for filling, and wherein the filling system is designed to apply a vacuum to the interior of the cartridge case through the retention membrane, thereby effecting a vacuum filling of the cartridge case from the filling material store.
A dental treatment device, having an energy source which is arranged at least partially in or on a working space for treatment of a dental restoration part, comprising a stamp which, relative to the dental treatment device, is otherwise movable, having a receiving plate for dental restoration parts, the working space having a passage recess at the top, and a lid being mounted and/or articulated on the dental treatment device, with which lid the passage recess and/or the working space is closeable, characterized in that the receiving plate is at least partially displaceable into the passage recess, and in that a drive is provided for transferring the stamp from and to at least one working position Into at least one presentation position which is above the passage recess.
An apparatus provided in a user equipment (UE 100), comprising: a processor and a memory coupled to the processor, wherein the processor is configured to: determine a paging frame that is a radio frame including a paging occasion of the user equipment (UE 100) and determine a predetermined subframe of the paging frame as the paging occasion, determine a paging hyper-frame that is a hyper-frame including the paging frame from a plurality of hyper-frames each including a predetermined number of radio frames, by using a third calculation formula defined separately of a first calculation formula used for determining the paging frame and a second calculation formula used for determining the paging occasion, and when a hyper frame number of the paging hyper-frame is indicated by H-SFN, the number of hyper-frame corresponding to an extended DRX cycle is indicated by T eDRX, and a value based on a value unique to the user equipment (UE 100) is indicated by α the third calculation formula is H-SFN mod T eDRX = α mod T eDRX. a processor and a memory coupled to the processor, wherein the processor is configured to: determine a paging frame that is a radio frame including a paging occasion of the user equipment (UE 100) and determine a predetermined subframe of the paging frame as the paging occasion, determine a paging hyper-frame that is a hyper-frame including the paging frame from a plurality of hyper-frames each including a predetermined number of radio frames, by using a third calculation formula defined separately of a first calculation formula used for determining the paging frame and a second calculation formula used for determining the paging occasion, and determine a paging frame that is a radio frame including a paging occasion of the user equipment (UE 100) and determine a predetermined subframe of the paging frame as the paging occasion, determine a paging hyper-frame that is a hyper-frame including the paging frame from a plurality of hyper-frames each including a predetermined number of radio frames, by using a third calculation formula defined separately of a first calculation formula used for determining the paging frame and a second calculation formula used for determining the paging occasion, and when a hyper frame number of the paging hyper-frame is indicated by H-SFN, the number of hyper-frame corresponding to an extended DRX cycle is indicated by T eDRX, and a value based on a value unique to the user equipment (UE 100) is indicated by α the third calculation formula is H-SFN mod T eDRX = α mod T eDRX.
A computer-implemented method of providing a high resolution intraoperative magnetic resonance image of a target site of a patient body at which a medical procedure is performed, the method comprising: acquiring a high resolution preoperative magnetic resonance image, MRI o, of a first region of the patient comprising the target site, the MRI o image comprising a plurality of slices MRI o,n having voxels; acquiring a preoperative, iMRI o image of a second region of the patient comprising the target site, using an iMRI scanner having a field of view, the iMRI o image comprising a plurality of slices iMRI o,m having voxels; determining whether a voxel in the iMRI o image is a marginal voxel located near an extremity of the FOV; registering the MRI o image to the iMRI o image independent of voxels determined to be marginal voxels to provide a rigid body transform (iRT o) that transforms image MRI o to image iMRI o; acquiring an iMRI 1 image of the target site during performance of the medical procedure; registering image iMRI o to image iMRI 1 to determine a non-rigid body transform (NRT 1); and applying iRT o and NRT 1 to image MRI o to determine a high resolution (hiQ-i MRI 1) image acquiring an iMRI 2 image of the target site during performance of the medical procedure; registering image iMRI 1 to image iMRI 2 to determine rigid and non-rigid transforms iRT 2 and NRT 2 respectively that transform image iMRI 1 to image iMRI 2; and applying the rigid and non-rigid transforms iRT 2 and NRT 2 to hiQ-iMRI 1 to determine a high resolution image hiQ-iMRI 2. acquiring a high resolution preoperative magnetic resonance image, MRI o, of a first region of the patient comprising the target site, the MRI o image comprising a plurality of slices MRI o,n having voxels; acquiring a preoperative, iMRI o image of a second region of the patient comprising the target site, using an iMRI scanner having a field of view, the iMRI o image comprising a plurality of slices iMRI o,m having voxels; determining whether a voxel in the iMRI o image is a marginal voxel located near an extremity of the FOV; registering the MRI o image to the iMRI o image independent of voxels determined to be marginal voxels to provide a rigid body transform (iRT o) that transforms image MRI o to image iMRI o; acquiring an iMRI 1 image of the target site during performance of the medical procedure; registering image iMRI o to image iMRI 1 to determine a non-rigid body transform (NRT 1); and applying iRT o and NRT 1 to image MRI o to determine a high resolution (hiQ-i MRI 1) image acquiring an iMRI 2 image of the target site during performance of the medical procedure; registering image iMRI 1 to image iMRI 2 to determine rigid and non-rigid transforms iRT 2 and NRT 2 respectively that transform image iMRI 1 to image iMRI 2; and applying the rigid and non-rigid transforms iRT 2 and NRT 2 to hiQ-iMRI 1 to determine a high resolution image hiQ-iMRI 2.